TimeMass filaments are 70% water.
Yes, really. Ask ChatGPT how’s that even possible.
We make our own polymerized alcohols in-house, our materials are unique, not your dishwasher’s PVA.
Still skeptical? Good. That means your brain works.
Our 7 patents, our partnership with Nestle, or our crowdfunding campaign could enlighten you, however nothing will replace having our filaments in your hands.
Fire - Gen 2
Burnable 3D filament
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TimeMass Fire Gen 2 is a burnable 3D printing filament made of water, wood, calcium carbonate, vinegar, in-house made and patented polymerized alcohol.
It prints fast, melts smooth, burns clean, and yes—it’s designed to ignite on purpose. Unlike traditional filaments that either melt like sad spaghetti or combust like a campfire mistake, this one burns right.
Want to print candles? Fire sculptures? Ritual objects for your post-plastic utopia? Go wild. You can even design your prints to control how they burn—fast, slow, flashy, or dramatic.
Pro tip: treat your print like a wick. Too thick? It’ll choke. Too thin? It’ll vanish. Just right? Beautiful combustion.
Need Ideas? Here You Go:
Spiral Towers – fire climbs up like it’s doing performance art.
Geometric Lanterns – pretty shapes + oxygen = dramatic collapse.
Flame Trees – fast-burning branches, slow-burning trunks.
Fire Flowers – petals curl and vanish while the stem holds the line.
Maze Prints – fire snakes through like it’s solving a puzzle.
Starbursts – spikes ignite like a slow-motion explosion.
Wavy Sculptures – dynamic flames that ripple as they burn.
You can even pause the print to drop in oils or other additives. TimeMass Fire holds them, absorbs them, and releases them mid-burn. Yes, your candle can smell like bergamot and existential closure.
Why It Matters:
Burns efficiently with minimal residue.
Prints on standard 3D printers.
Customizable burn rates.
Cleaner alternative to paraffin wax and plastic trash.
Absorbs oils and additives mid-print.
Supports sustainability without sacrificing creativity.
Basically, it’s a burnable, sculptable, programmable piece of environmental art.
Welcome to the future of fire. No paraffin. No guilt. Just combustion, on your terms. -
1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Fire, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Soap - Gen 3
3D print usable soaps!
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TimeMass Soap Gen 3 is a fully functional 3D-printing filament made from water, calcium carbonate, surfactants, emulsifiers (Coco-Glucoside and Glyceryl Stearate), in-house polymerized alcohols, olive oil, and essential oils. Basically, it’s a next-gen soap— printable, and unapologetically weird.
It doesn’t need foam to prove it’s working. The surfactants and emulsifiers separate dirt and oils like pros, letting the soap actually clean without wasting itself on a bubble show.
With Gen 3 we were able to stabilize the full force of surfactants and emulsifiers. The result? A solid soap that prints like butter and acts like a lab-grown cleaning ninja.
You can use it multiple times, let it dry, and use it again. It regenerates like it’s got a side gig as a video game character. And because it doesn’t waste itself making bubbles, it lasts up to 10x longer than store-bought soap.
So what’s in it?
Water + Alcohol – lets it print soft, then hardens post-print like it knows what it’s doing.
Calcium Carbonate – for that clean, gritty texture (yep, same stuff in toothpaste).
Surfactants & Emulsifiers (Coco-Glucoside and Glyceryl Stearate) – actually clean, no bubble theatrics required.
Olive Oil – moisturizing and soft on skin.
Essential Oils – for scent, antimicrobial properties, and optional spa-vibes.
Bonus: You can pause mid-print and inject oils, liquids, or additives. Want a soap that smells like lavender and releases moisturizer halfway through the wash? Done.
You can even embed stuff—capsules, exfoliants, or a tiny message for whoever finds your weird, wonderful soap sculpture after the apocalypse.
What it does:
Cleans without bubbles (because lather is marketing, not chemistry).
Reusable, regenerative, and way less wasteful than traditional soaps.
Printable on any basic 3D printer.
Fully customizable with oils, scents, and other extras.
Actually works—electrostatically grabs dirt and grease and washes it away.
Safety tip: Don’t go wild with undiluted essential oils. They’re called “concentrated” for a reason. Use responsibly.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Soap, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Plant Vitamin - Gen 2
Growth, Layer by Layer
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TimeMass Plant Vitamin is a water-retaining, nutrient-loaded filament engineered for slow-release fertilization right from the print bed. Built with carbon, nitrogen, phosphorus, and sulfur—plus structured water and calcium carbonate—it lets you 3D print objects that nourish plants over time.
No runoff. No burst-release. Just sustained growth, powered by smart material design.
How it works:
Hydrophilic matrix absorbs moisture and dissolves slowly, releasing nutrients in sync with plant needs.
Water = trigger – Pods can be printed to behave like analog biological computers, using moisture to time and deliver nutrient output.
No batteries. No sensors. Just physics.
Full Nutrient Breakdown (per 350g spool):
Nitrogen (N): 10.8 g – Chlorophyll production & leaf growth
Phosphate (P₂O₅): 8.4 g – Root development & flowering
Potash (K₂O): 6.8 g – Disease resistance & overall health
Calcium (Ca): 2.4 g – Cell wall structure & nutrient absorption
Magnesium (Mg): 0.8 g – Photosynthesis & enzyme function
Core Material:
Structured Water: 70% – Boosts solubility and uptake
Calcium Carbonate: 20% – Strengthens the filament and feeds the soil
Sustained Release Design:
Nutrients are embedded within the Timeplast Plus matrix for gradual delivery
Structured water ensures efficient solubility
No leaching = no waste
Stability & Vitamin Integrity (Because Growers Actually Care):
Microencapsulation – Heat-resistant shells (sol-gel silica, melamine, urea-formaldehyde, etc.) prevent degradation during extrusion.
Vitamin Derivatives – Stable precursors like ascorbyl palmitate reactivate in soil through pH, enzymes, or hydration.
Multi-phase Composite – Core-shell architecture keeps active components cool during print.
Low-shear, thermally controlled extrusion – Custom nozzles and low-friction channels reduce heat spikes.
Water-based integration – Vitamins are solvent-bound into low-temp meltable additives, preserving potency.
Where to use it:
Urban gardening & hydroponics – Print self-feeding seed pods, planters, or nutrient spikes
Precision agriculture – Design root-zone diffusers to boost yield without runoff
Reforestation – Print biodegradable seed capsules with long-term nutrient support
Irrigation aids & smart pots – Combine watering and feeding in one functional print
The result?
Printed structures that actually feed the soil. No over-fertilizing. No chemical waste. Just controlled, water-powered nutrient delivery—designed by you.Need Ideas? Here You Go:
Self-fertilizing plant pots and holders, eliminating the need for chemical fertilizers.
Water-dispersible nutrient discs that can be buried in soil for controlled nutrient release.
Eco-friendly seedling trays that break down naturally, enriching the soil.
Hydroponic nutrient carriers, improving plant growth in water-based systems.
Custom garden markers, serving both as labels and soil enhancers.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Plant Vitamin, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Post-processing: Stretch and form-fit designs after printing to optimize flexibility and shape memory.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Active
Quick timed 4D filament
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TimeMass Active by Timeplast is an advanced 3D printing filament designed to introduce 4D printing capabilities, where objects can transform over time due to their material composition. Unlike traditional filaments, TimeMass Active embeds time-sensitive water dissolution properties, allowing printed objects to change, dissolve, or degrade in a controlled manner when exposed to specific environmental triggers like water.
This revolutionary material aligns with sustainability goals, offering a potential solution for reducing plastic waste by ensuring objects don't persist indefinitely. It's a step beyond conventional biodegradable materials, as it can be precisely engineered for degradation timelines and environmental impact.
Need Ideas? Here You Go:
Active opens the door to a variety of cutting-edge applications, especially in industries that benefit from controlled degradation, temporary functionality, or sustainable disposal. Here are some key applications that can be manufactured with it:
1. Sustainable Packaging & Containers
Single-use packaging that dissolves in water or degrades after a set time.
Medical and pharmaceutical blister packs that disappear after use.
E-commerce mailers or shipping materials that break down naturally.
2. Medical & dissolvable Implants
Dissolvable medical devices (e.g., temporary surgical supports or drug-delivery capsules).
Dissolvable splints and casts for temporary use.
Eco-friendly sutures or wound dressings that dissolve safely in the body.
3. Fishing & Marine Applications
Water-soluble fishing line that reduces ocean waste.
Dissolvable bait holders for sustainable fishing practices.
Temporary aquatic structures that degrade naturally over time.
4. Construction & Temporary Structures
Scaffolding that disappears when exposed to rain or UV light.
Dissolvable moldings and supports for temporary installations.
Formwork for concrete that dissolves after the structure sets.
5. Smart Consumer Goods
Eco-friendly toys or festival products that disappear after use.
Single-use utensils or dishware that self-destruct in water.
Event wristbands and passes that vanish after an event ends.
6. Electronics & Smart Materials
Dissolvable circuits or casings for electronics.
Temporary RFID tags or security seals that disappear after use.
Eco-friendly wearable tech components designed for planned obsolescence.
7. Aerospace & Military
Time-sensitive drones or surveillance devices that degrade after deployment.
Dissolvable camouflage materials for stealth operations.
Temporary shelters that degrade in extreme environments.
8. Art & Design
Interactive sculptures or installations that disappear over time.
Water-soluble fashion pieces that change with rain or humidity.
Degradable 3D-printed decor for temporary displays.
Active has a huge potential for industries looking to reduce waste, enhance sustainability, and introduce functional degradation into 3D printed products.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Active, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved.While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Passive
Slow timed 4D filament
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TimeMass Passive by Timeplast is a specialized 3D printing filament designed to be highly durable, stable, and resistant to external environmental factors. Unlike Time-Mass Active (which degrades over time) or TimeMass Fire (which is designed to burn), TimeMass Passive is engineered for long-term structural integrity, making it ideal for applications that require strength, longevity, and resistance to wear.
Key Features of TimeMass Passive:
🛠️ Highly Durable – Designed to last for extended periods without significant degradation.
🛡️ Resistant to Environmental Factors – Protects against moisture, UV exposure, and oxidation.
🔩 Structurally Strong – Can be used in applications requiring mechanical stability.
♻️ Sustainable & Non-Toxic – Developed with eco-friendly material science principles.
📏 Dimensional Stability – Maintains its form and function over time without warping or breaking down.Why TimeMass Passive?
Timeplast designed TimeMass Passive as a material solution for industries and consumers needing durability without excessive waste. While many materials either degrade too quickly or persist indefinitely as pollutants, TimeMass Passive offers a balance—lasting as long as needed while remaining eco-conscious.
Need Ideas? Here You Go:
1. Long-Lasting Consumer Goods
Durable home decor and furniture components.
Weather-resistant outdoor accessories.
Sustainable, long-term-use kitchenware.
2. Industrial & Engineering Applications
Structural parts for 3D-printed machinery or tools.
Corrosion-resistant components for marine or aerospace applications.
Long-lasting prototypes for product development.
3. Infrastructure & Construction
3D-printed building materials that withstand the elements.
Durable interlocking tiles or modular structures.
Architectural elements requiring longevity.
4. Medical & Safety Equipment
Hygienic and long-lasting prosthetic components.
Non-degradable medical tools or diagnostic equipment.
Protective casings for sensitive instruments.
5. Automotive & Aerospace Applications
Heat and pressure-resistant vehicle components.
Protective covers for electronic and mechanical systems.
Long-term-use parts for sustainable transport solutions.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This is the printing guide for TimeMass Passive filament as tested on the Bambu Labs A1. This filament features extremely low moisture exchange, high structural stiffness, and requires higher thermal energy for optimal melt and flow. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.Because TimeMass Passive releases minimal vapor but has high melt resistance and moderate elasticity, these profiles focus on thermal force management, mechanical flow stability, and precise extrusion tuning.
If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved.2. Temperature Settings (All Nozzles)
2.a 0.2 mm Nozzle — Nozzle Temp: 235°C | Bed Temp: 70°C — High energy needed to soften the matrix
2.b 0.4 mm Nozzle — Nozzle Temp: 245°C | Bed Temp: 70°C — Better melt performance through standard nozzle size
2.c 0.6 mm Nozzle — Nozzle Temp: 250°C | Bed Temp: 70°C — Elevated flow demand for thick lines
2.d 0.8 mm Nozzle — Nozzle Temp: 255°C | Bed Temp: 70°C — Necessary thermal energy to prevent partial fusion at large diameterNote: Heatsink fans must remain consistent. Bed adhesion improves with light glue stick.
3. Cooling Settings (All Nozzles)
3.a No Cooling for First Layers: 2 — Less needed due to stiffer filament body
3.b Fan Minimum Speed: 20% at 50 seconds — Starts cooling sooner to shape rigid geometry
3.c Fan Maximum Speed: 25% — Supports layer definition without cracking
3.d Keep Fan Always On: ON — Essential for shaping passive structure
3.e Force Cooling Overhangs: ON — Encourages clean bridges for long spans
3.f Fan for Overhangs: 25–35% — Passive holds angles well, supports sharper fan controlNote: Timeplast Passive benefits from continuous airflow and structured cooling logic.
4. Max Volumetric Flow
4.a 0.2 mm Nozzle — Max Flow: 2 mm³/s — High-viscosity structure needs conservative flow
4.b 0.4 mm Nozzle — Max Flow: 5 mm³/s — Standard flow, safe and precise for rigid plastic
4.c 0.6 mm Nozzle — Max Flow: 9 mm³/s — Accommodates increased demand for high-mass lines
4.d 0.8 mm Nozzle — Max Flow: 13 mm³/s — Delivers clean, full-fused thick walls5. Retraction & Pressure Advance
5.a 0.2 mm Nozzle — Retraction: 1.0 mm @ 25 mm/s | Pressure Advance: 0.03
5.b 0.4 mm Nozzle — Retraction: 0.8 mm @ 20 mm/s | Pressure Advance: 0.04
5.c 0.6 mm Nozzle — Retraction: 0.6 mm @ 18 mm/s | Pressure Advance: 0.045
5.d 0.8 mm Nozzle — Retraction: 0.5 mm @ 15 mm/s | Pressure Advance: 0.05Note: Low moisture = less stringing, but retraction is still key for clean transitions.
6. Layer Height and Line Width
6.a 0.2 mm — Layer Height: 0.12 mm | Initial: 0.18 mm | Line Width: 0.25 mm
6.b 0.4 mm — Layer Height: 0.2 mm | Initial: 0.22 mm | Line Width: 0.42 mm
6.c 0.6 mm — Layer Height: 0.3 mm | Initial: 0.32 mm | Line Width: 0.6 mm
6.d 0.8 mm — Layer Height: 0.3 mm | Initial: 0.35 mm | Line Width: 0.8 mmNote: Clean lines support Timeplast Passive’s structural stiffness.
7. Wall, Shell & Infill Settings
7.a Wall Loops — 0.2 mm: 3 | 0.4 mm: 2–3 | 0.6 mm: 2 | 0.8 mm: 2
7.b Top/Bottom Shells — 0.2 mm & 0.4 mm: 4 | 0.6 mm & 0.8 mm: 3
7.c Top/Bottom Thickness — All: 1.2 mm (except 0.2 mm at 1 mm)
7.d Sparse Infill Density — 0.2 mm: 25% | 0.4 mm: 20–25% | 0.6 & 0.8 mm: 15–20%Note: Strong shells help support high stiffness and dimensional precision.
8. Speed & Acceleration
8.a Travel Speed — 0.2 mm: 120 mm/s | 0.4 mm: 140 mm/s | 0.6 mm: 150 mm/s | 0.8 mm: 160 mm/s
8.b Outer Wall Speed — 35 / 45 / 55 / 65 mm/s (increasing by nozzle size)
8.c Infill Speed — 70 / 100 / 120 / 130 mm/s
8.d Acceleration (Print) — 1200 / 1800 / 2200 / 2400 mm/s²
8.e Acceleration (Travel) — 3000 / 3500 / 4000 / 4500 mm/s²Note: Passive resists flex — high-speed print motion is safe and reliable.
9. Adhesion & Brims
9.a Skirt Loops: 1–2 — Clears dense first-line flow
9.b Brim Width: 5 mm — Secures stiffer corners to plate
9.c Brim Gap: 0.15 mm — Moderate release force to match rigidity10. Flush, Prime & G-code
10.a Prime Tower: Optional — Low moisture means less need for purging
10.b Start G-code:
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CopyEdit
M900 K[PA] ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
Replace [PA] with the appropriate pressure advance value for your nozzle size.
11. Parameters That Stay Consistent Across All Nozzles
11.a Bed temperature: 70°C
11.b Seam logic and arc fitting: ON
11.c Retraction smoothing: Enabled
11.d Cooling delay: 2–3 layers
11.e Compatible with all standard Bambu Lab slicer toolsLet me know if you'd like this turned into a branded PDF or added to your existing documentation package.
You said:
can you please put (Dile que le ponga cursiva a los subtítulos y negrita a los títulos) thank you.
ChatGPT said:
Absolutely! Here's your fully formatted TimeMass Passive printing guide with:
Bold section titles
Italicized subtitles (e.g., numbered 2.a, 3.b, etc.)
Proper spacing for clarity
1. Introduction
This is the printing guide for TimeMass Passive filament as tested on the Bambu Labs A1. This filament features extremely low moisture exchange, high structural stiffness, and requires higher thermal energy for optimal melt and flow.Because TimeMass Passive releases minimal vapor but has high melt resistance and moderate elasticity, these profiles focus on thermal force management, mechanical flow stability, and precise extrusion tuning.
If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved.2. Temperature Settings (All Nozzles)
2.a 0.2 mm Nozzle — Nozzle Temp: 235°C | Bed Temp: 70°C — High energy needed to soften the matrix
2.b 0.4 mm Nozzle — Nozzle Temp: 245°C | Bed Temp: 70°C — Better melt performance through standard nozzle size
2.c 0.6 mm Nozzle — Nozzle Temp: 250°C | Bed Temp: 70°C — Elevated flow demand for thick lines
2.d 0.8 mm Nozzle — Nozzle Temp: 255°C | Bed Temp: 70°C — Necessary thermal energy to prevent partial fusion at large diameterNote: Heatsink fans must remain consistent. Bed adhesion improves with light glue stick.
3. Cooling Settings (All Nozzles)
3.a No Cooling for First Layers: 2 — Less needed due to stiffer filament body
3.b Fan Minimum Speed: 20% at 50 seconds — Starts cooling sooner to shape rigid geometry
3.c Fan Maximum Speed: 25% — Supports layer definition without cracking
3.d Keep Fan Always On: ON — Essential for shaping passive structure
3.e Force Cooling Overhangs: ON — Encourages clean bridges for long spans
3.f Fan for Overhangs: 25–35% — Passive holds angles well, supports sharper fan controlNote: Timeplast Passive benefits from continuous airflow and structured cooling logic.
4. Max Volumetric Flow
4.a 0.2 mm Nozzle — Max Flow: 2 mm³/s — High-viscosity structure needs conservative flow
4.b 0.4 mm Nozzle — Max Flow: 5 mm³/s — Standard flow, safe and precise for rigid plastic
4.c 0.6 mm Nozzle — Max Flow: 9 mm³/s — Accommodates increased demand for high-mass lines
4.d 0.8 mm Nozzle — Max Flow: 13 mm³/s — Delivers clean, full-fused thick walls5. Retraction & Pressure Advance
5.a 0.2 mm Nozzle — Retraction: 1.0 mm @ 25 mm/s | Pressure Advance: 0.03
5.b 0.4 mm Nozzle — Retraction: 0.8 mm @ 20 mm/s | Pressure Advance: 0.04
5.c 0.6 mm Nozzle — Retraction: 0.6 mm @ 18 mm/s | Pressure Advance: 0.045
5.d 0.8 mm Nozzle — Retraction: 0.5 mm @ 15 mm/s | Pressure Advance: 0.05Note: Low moisture = less stringing, but retraction is still key for clean transitions.
6. Layer Height and Line Width
6.a 0.2 mm — Layer Height: 0.12 mm | Initial: 0.18 mm | Line Width: 0.25 mm
6.b 0.4 mm — Layer Height: 0.2 mm | Initial: 0.22 mm | Line Width: 0.42 mm
6.c 0.6 mm — Layer Height: 0.3 mm | Initial: 0.32 mm | Line Width: 0.6 mm
6.d 0.8 mm — Layer Height: 0.3 mm | Initial: 0.35 mm | Line Width: 0.8 mmNote: Clean lines support Timeplast Passive’s structural stiffness.
7. Wall, Shell & Infill Settings
7.a Wall Loops — 0.2 mm: 3 | 0.4 mm: 2–3 | 0.6 mm: 2 | 0.8 mm: 2
7.b Top/Bottom Shells — 0.2 mm & 0.4 mm: 4 | 0.6 mm & 0.8 mm: 3
7.c Top/Bottom Thickness — All: 1.2 mm (except 0.2 mm at 1 mm)
7.d Sparse Infill Density — 0.2 mm: 25% | 0.4 mm: 20–25% | 0.6 & 0.8 mm: 15–20%Note: Strong shells help support high stiffness and dimensional precision.
8. Speed & Acceleration
8.a Travel Speed — 0.2 mm: 120 mm/s | 0.4 mm: 140 mm/s | 0.6 mm: 150 mm/s | 0.8 mm: 160 mm/s
8.b Outer Wall Speed — 35 / 45 / 55 / 65 mm/s (increasing by nozzle size)
8.c Infill Speed — 70 / 100 / 120 / 130 mm/s
8.d Acceleration (Print) — 1200 / 1800 / 2200 / 2400 mm/s²
8.e Acceleration (Travel) — 3000 / 3500 / 4000 / 4500 mm/s²Note: Passive resists flex — high-speed print motion is safe and reliable.
9. Adhesion & Brims
9.a Skirt Loops: 1–2 — Clears dense first-line flow
9.b Brim Width: 5 mm — Secures stiffer corners to plate
9.c Brim Gap: 0.15 mm — Moderate release force to match rigidity10. Flush, Prime & G-code
10.a Prime Tower: Optional — Low moisture means less need for purging10.b Start G-code:
M900 K[PA] ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
Replace [PA] with the appropriate pressure advance value for your nozzle size.
11. Parameters That Stay Consistent Across All Nozzles
11.a Bed temperature: 70°C
11.b Seam logic and arc fitting: ON
11.c Retraction smoothing: Enabled
11.d Cooling delay: 2–3 layers
11.e Compatible with all standard Bambu Lab slicer tools
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Flex
TPU-Like Flexible 3D filament
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TimeMass Flex is a TPU-like flexible filament developed by Timeplast that is also water-soluble. This unique combination allows for applications where maximum flexibility is needed, followed by controlled dissolution in water.
Need Ideas? Here You Go:
Beach wearables – Can be used as a flexible, water-soluble material for beach footwear, surf apparel, or flexible floating pieces of arts that dissolve.
Biodegradable Medical Devices – Potential use in temporary medical applications, such as dissolvable braces, supports, patches or stents.
Smart Packaging – Could be used for packaging solutions that dissolve in water, ideal for reducing plastic waste.
Soft Robotics & Prototyping – Useful for developing temporary flexible components in soft robotics or product prototyping.
Fishing Industry & Eco-Friendly Applications – Could be used for water-soluble fishing lures, nets, or temporary aquatic structures.
Dynamic Molds – Flexible molds that can later be dissolved for seamless extraction of complex shapes.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Flex, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes..2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Support
The best support in 3D printing
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TimeMass Support is a flexible, ultra high molecular weight support filament that peels off in one clean stroke. No scraping. No dissolving. No drama.
Unlike brittle support materials that shatter like dry pasta, this one bends, flexes, and then just... comes off. Perfect for big prints, weird angles, and geometry that usually sends slicers into therapy.
What makes it different:
Flexible but removable – Bends instead of snapping, then detaches without a fight.
No cleanup – Leaves your print smooth, not scarred. No water, no solvents, no wasted time.
Geometry-friendly – Built for overhangs, bridges, and all the complicated nonsense normal supports can't handle.
Eco-conscious – No chemical baths. Just pull, toss, done. It will fully dissolve in water.
TimeMass Support gives you one less thing to fight with. Design crazy. Print smarter.
Need Ideas? Here You Go:
High-End Prototyping – Enables rapid iteration of complex designs without post-processing delays.
Consumer Product Manufacturing – Ideal for mass production where fast and easy support removal is needed.
Medical & Dental Applications – Great for printing intricate prosthetics or dental models without risk of damaging fine details.
Architectural Models – Allows for printing delicate structures that require support but need clean final surfaces.
Soft Robotics & Wearables – Facilitates the creation of flexible, multi-material parts with temporary internal supports.
Jewelry & Artistic Prints – Provides an easy way to remove supports without damaging fine engravings or tiny details.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Support, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Fiber
3D printed Soft fabrics
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TimeMass Fiber incorporates sacrificial polymer technology, which enables specific portions of the material to dissolve in a controlled manner. This feature is especially valuable in 3D printed soft fabrics, due to the small diameter of the remaining fibers. It is also used for advanced manufacturing and prototyping, as it allows for internal embedded supports, temporary reinforcements, or multi-material prints that transition over time.
After successfully printing an intricate fabric-like object using our TimeMass Fiber filament, you’ll need to submerge it in water for a period directly proportional to the softness you want to achieve.
For very soft fabrics, soak the object for 24 to 48 hours, depending on its thickness. The longer it remains submerged, the more of the sacrificial polymer will dissolve, leaving behind finer and more delicate fibers.
After the water treatment, it’s crucial to properly dry the material to finalize its structure. You can air-dry it in the sun or use a food dehydrator for a controlled process. The level of drying will directly impact the final texture—the more it dries, the firmer it becomes.
Mastering this filament involves experimentation, as balancing water exposure and drying time allows you to tailor the fabric’s softness to your specific needs and creative ideas.
How Sacrificial Polymer Technology Works in Time-Mass Fiber
Dual-Phase Composition – The filament consists of a durable, fiber-reinforced phase and a strategically embedded sacrificial polymer that weakens under water.
Post-Processing Activation – After printing, the sacrificial polymer can be removed through dissolution, thermal degradation, or mechanical peeling, leaving behind the intended final structure.
Self-Optimizing Material – The controlled removal of the sacrificial polymer can reduce weight, create internal channels, or improve flexibility in certain regions of the printed object.
Enhanced Printability – This technology ensures complex geometries print more reliably by integrating internal support structures that disappear when no longer needed.
Need Ideas? Here You Go:
Structural Components – Ideal for lightweight but strong or very soft parts in aerospace, automotive, and robotics. Depending on the sacrificial treatment.
Load-Bearing Prototypes – Useful for creating prototypes that need mechanical stress testing.
Sports Equipment & Protective Gear – Can be used in helmets, padding, and high-impact sports gear.
Medical Devices & Braces – Suitable for orthopedic supports and custom medical applications.
High-Performance Tooling – Can be used in jigs, fixtures, and manufacturing tools that require resilience.
Sustainable Consumer Products – Could be applied in eco-friendly furniture, accessories, or industrial design projects.
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These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This is the printing reference for TimeMass Fiber filament, tested on the Bambu Labs A1 printer, and optimized for 0.2 mm, 0.4 mm, 0.6 mm, and 0.8 mm nozzles. TimeMass Fiber is more thermally sensitive and features a dual-phase structure, which emits more vapor during printing. It benefits from careful temperature ramping and reduced internal pressure. All settings are specifically optimized to reduce bubbling, fogging, and material instability. If the print fails, it is recommended to lower the nozzle temperature by 10°C and restart until optimal results are achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.
Temperature Settings vary by nozzle. For a 0.2 mm nozzle, set the nozzle temperature to 215°C and the bed to 60°C, optimizing for lower flow, finer bead, and less thermal stress. For 0.4 mm, use 225°C nozzle temperature and 60°C bed temperature to maintain melt uniformity for the encapsulated blend. The 0.6 mm nozzle works best at 230°C to ensure stable output for larger extrusion volumes, while the 0.8 mm nozzle should be set to 235°C, helping vapor escape from the larger filament volume without causing clogs. A textured PEI plate is required for adhesion—avoid smooth platesunless properly primed.
Cooling Settings should disable cooling for the first 3 layers to prevent fog formation under sensors. Set the fan minimum speed to 0% for the first 100 seconds to allow vapor to escape without becoming trapped. The maximum fan speed should be limited to 10–15%, preventing filament oval deformation. Keep the fan always off to avoid thermal shock and material stiffening mid-print. Do not force cooling on overhangs, and use only minimal airflow (10–15%)for structural overhangs.
Maximum Volumetric Flow varies per nozzle. For 0.2 mm, keep the flow at 1.5 mm³/s, which is sensitive to clogging due to low melt strength. For 0.4 mm, set it at 4 mm³/s, balancing for higher viscosity variance. The 0.6 mm should run at 6 mm³/s, avoiding pressure spikes and bubbles, and the 0.8 mm at 9 mm³/s, preventing vapor entrapment and melt lag. Ramming speed should be adjusted between 1–3 mm³/s depending on your purge tower strategy.
Retraction and Pressure Advance should be configured as follows: for a 0.2 mm nozzle, use a retraction distance of 0.7 mm at 20 mm/s speed, with a pressure advance of 0.04. For 0.4 mm, use 0.6 mm retraction, 18 mm/s speed, and 0.045 pressure advance. The 0.6 mm nozzle requires 0.5 mm retraction, 15 mm/s, and 0.05 advance, and the 0.8 mm nozzle performs best with 0.4 mm retraction, 15 mm/s, and 0.055 pressure advance. These values help manage off-gassing during slowdowns.
For Layer Height and Line Width, use 0.12 mm layer height, 0.18 mm initial layer, and 0.25 mm line width for the 0.2 mm nozzle. For 0.4 mm: 0.2 mm height, 0.22 mm initial, and 0.42 mm width. For 0.6 mm: 0.3 mm height, 0.32 mm initial, and 0.6 mm width. And for 0.8 mm: 0.3 mm height, 0.35 mm initial, and 0.8 mm width.
In terms of Wall, Shell, and Infill Settings, use 3 wall loops and 4 top/bottom shells for 0.2 mm and 0.4 mm nozzles, and 2 wall loops and 3 shells for 0.6 mm and 0.8 mm. Set top/bottom thickness to 1 mm for smaller nozzles and 1.2 mm for larger ones. Sparse infill density should be 30% for 0.2 mm, 25% for 0.4 mm, and 20–25% for 0.6 mm and 0.8 mm. These configurations support vapor containment inside internal zones.
Speed and Acceleration settings are as follows: For travel speed, use 100 mm/s (0.2 mm), 130 mm/s (0.4 mm), 140 mm/s (0.6 mm), and 150 mm/s (0.8 mm). Set outer wall speed to 30 mm/s, 35 mm/s, 45 mm/s, and 55 mm/s, respectively. Infill speed should be 50 mm/s to 100 mm/s, depending on nozzle size. For acceleration, print acceleration should range from 1000 mm/s² (0.2 mm) to 1800 mm/s² (0.8 mm), and travel acceleration from 2500 mm/s² to 4000 mm/s². These values are calibrated to reduce vibration and pressure surges.
For Adhesion and Brims, use 2 skirt loops to purge water vapor early. Set the brim width between 4 and 6 mm to stabilize softened edges during print start. A brim gap of 0.15 mm ensures easy release after printing.
Under Flush, Prime, and G-code, the use of a prime tower is recommended due to the heavy vapor released at the start of the print. Suggested start G-code is:
M900 K[PA] ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
Replace [PA] with the pressure advance value corresponding to your nozzle.
Lastly, parameters consistent across all nozzles include: Bed temperature of 60°C with a textured PEI bed, "Avoid crossing walls" set to ON, "Smart seam" ON, a cooling delay of 3 layers, and brim/skirt defaults remain functional. Always dry the filament before use, and it is recommended to print with the door open for optimal ventilation.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Texture
Post adhere any texture
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TimeMass Texture is a flexible, semi-water-soluble filament that temporarily becomes sticky upon a quick dip in water so that it can then be covered in any powder material, altering 100% of its texture, and making it a non-plastic feel print.
After successfully printing your object, submerge it in water for 2 to 5 seconds, then briefly dry it. Next, coat it with your chosen powder to create the desired texture—for example, stone powder for a stone-like appearance.
If you want a thicker texture layer, leave the object in water for a longer period and dry it less, allowing the material to absorb and retain more of the powder.
Once coated, use a paper towel to remove any excess powder. After 48 hours, you can refine the texture further with light sandpaper to achieve the final desired finish.
Surface treatment compatibility: The sticky surface can bond with fine powders, creating a textured, non-plastic finish.
Need Ideas? Here You Go:
Hyper-realistic models: Print objects, then coat them with fine materials (sand, dirt, stone powder) to create ultra-realistic terrain, fossils, or artifacts.
Naturally degradable textures: Print and coat objects with benign materials for natural-looking prototypes.
Anti-plastic aesthetic: Produce objects that feel organic by layering them with non-plastic textures like wood dust, chalk, or minerals.
Special effects & cosplay: Create lightweight, flexible armor or props that look like solid stone or metal.
Medical & ergonomic surfaces: Create handles or grips that become naturally textured when exposed to moisture, improving grip without synthetic rubber.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Texture, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Metal Surface
Printing Real Metal Without Metal
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What if 3D-printed objects could look, feel, and behave like real metal—without ever needing a metal printer? TimeMass - Metal Surface is an advanced 4D printing filament that transforms polymer-based prints into metallic masterpieces with just a quick dip in water and fine metal powders.
Unlike conventional metal-infused filaments, which contain embedded metallic particles that dilute their true metal effect, TimeMass - Metal Surface actively bonds with external metals post-print. Engineered with a high-affinity polymer matrix, this filament temporarily becomes hydrophilic upon contact with water, allowing iron filings, copper, brass, or other metallic powders to interlock with its surface. As the print dries, these metallic elements lock into place, creating a high-density, conductive, and slightly ferromagnetic finish.
How It Works: A Revolutionary Surface Chemistry
⚡ Hydrophilic Activation – Once printed, the object briefly absorbs water, creating an ultra-fine microcapillary structure that pulls in metallic powders.
🧲 Metallic Interlocking – The material’s surface chemistry actively bonds with iron, copper, brass, or other metals, ensuring a strong, permanent adhesion without embedded metal particles.
🔄 Real Metal Behavior – Unlike plastic-based metallic finishes, TimeMass - Metal Surface creates a true-to-life metal appearance that interacts with light, magnetism, and oxidation just like an actual metal object.Where Aesthetics Meet Functionality
🏛️ Luxury Finishes & Industrial Design – Print stunning metallic sculptures, architectural models, or machine-like prototypes that look and feel like cast metal.
⚙️ Functional Magnetic & Conductive Surfaces – Use iron-infused finishes to create ferromagnetic parts, magnetic tool holders, or smart electrical components.
🎭 Hyper-Realistic Props & Replicas – Make high-end movie props, jewelry, or antique recreations that pass for real metal at a fraction of the weight.
🚀 Wearable & Fashion Tech – Design jewelry, watches, or metallic-textured accessories that look and behave like polished, brushed, or oxidized metals.
🎨 Custom Art & Home Decor – Develop bespoke metal-finished objects, from bronze-like sculptures to steampunk-inspired creations.
♻️ Sustainable Metal Effects – Achieve real metal looks without the need for costly, heavy, or energy-intensive metal 3D printing processes.Beyond Metal-Inspired—This Is Metal Transformed
With TimeMass - Metal Surface, 3D-printed plastic no longer looks like plastic. By combining advanced 4D material engineering with real metal bonding, this filament makes it possible to replicate the weight, conductivity, and texture of metal—all with the ease of polymer-based printing.
For artists, engineers, and visionaries seeking the power of metal without the constraints of metal printing, TimeMass - Metal Surface is the ultimate breakthrough.
Print it. Dip it. Transform it.
Iron filings is one of the best powders for this filament and you can find them on Amazon.
Need Ideas? Here You Go:
Functional mechanical components with improved weight, density, and partial magnetism.
Artistic and industrial-grade sculptures that require authentic metallic aesthetics.
Custom jewelry and accessories that mimic silver, brass, or iron without requiring metal casting.
Prop and cosplay armor pieces with real metallic reflections and textures.
Magnetic-reactive designs, such as hidden latches, sensors, and magnetic puzzles.
Customized speaker grilles or conductive surfaces for artistic and functional electrical projects.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Metal Surface, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Post-processing: Immediately after printing, submerge in water for 10 seconds to 2 minutes(depending on desired thickness), then apply metal powder while damp for a professional metallic effect.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Ball
The Rebound Filament
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What if 3D-printed objects could bounce, stretch, and absorb impact like real rubber—without the weaknesses of traditional elastomers? TimeMass - Ball is a next-generation ultra-flexible, high-molecular-weight polymer filament, engineered to replicate the mechanical properties of rubber with superior resilience, printability, and long-term durability.
Unlike conventional rubber-like 3D printing filaments, which often suffer from poor elasticity recovery and weak layer adhesion, TimeMass - Ball leverages a specialized polymer structure with long-chain entanglements and high molecular cohesion. This unique formulation ensures exceptional bounce, impact absorption, and mechanical endurance—delivering true rubber-like performance with the reliability of advanced polymers.
Designed for Maximum Elasticity & Energy Efficiency
🔄 Unrivaled Strain Recovery – Maintains high elasticity and rebounds efficiently, ensuring minimal permanent deformation even after repeated compression.
⚡ Energy-Efficient Bounce – Engineered for dynamic response, allowing objects to store and release energy efficiently, mimicking the behavior of real rubber.
🔗 Superior Layer Adhesion & Tear Resistance – Unlike other flexible filaments that delaminate or tear easily, TimeMass - Ball retains strong interlayer bonding, making it perfect for high-impact applications.Where Performance Meets Practicality
🏀 Sporting Goods & High-Impact Prototypes – Print high-rebound balls, protective padding, and shock-absorbing components with unparalleled flexibility.
🚗 Automotive & Robotics Applications – Develop durable vibration dampeners, soft grippers, or suspension elements that can withstand repeated stress.
🎭 Toys, Games & Interactive Designs – Create durable, bouncy objects such as stress balls, fidget toys, or play equipment that can endure constant use.
💡 Wearable & Medical Innovations – Design pressure-distributing insoles, orthopedic supports, or flexible exoskeletons that adapt to movement without breaking down.
🔬 Soft Robotics & Experimental Engineering – Use TimeMass - Ball to build responsive actuators, inflatable chambers, or shock-resistant casings for cutting-edge research.Revolutionizing Rubber-Like 3D Printing
By eliminating the weaknesses of standard elastomers, TimeMass - Ball enables new possibilities in sports, engineering, robotics, and beyond. Its ability to stretch, compress, and rebound dynamically makes it a game-changer for high-performance, flexible applications.
For those who demand precision, durability, and true rubber-like performance, TimeMass - Ball is the next evolution in flexible 3D printing.
Need Ideas? Here You Go:
Fully functional, airless sports balls, like basketballs and soccer balls, without the need for inflation.
Impact-resistant pads and bumpers for robotics, industrial machinery, or automotive components.
Vibration-dampening parts for mechanical or soundproofing applications.
Stress-relief and therapeutic squeeze balls for medical and wellness use.
Flexible grips, handles, and soft-touch surfacesfor ergonomic tools.
Advanced robotic actuators that require soft material interactions.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Ball, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Post-processing: Print thin shells for optimal elasticity; controlled stretching can fine-tune material rebound properties.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Wear
The Future of 4D-Printed Fashion & Function
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What if clothing could be printed to fit perfectly, adapt dynamically, and enhance functionality beyond anything traditional fabrics allow? TimeMass - Wear is a next-generation 4D printing filament, engineered for customized, high-performance wearables that move, flex, and breathe—all while maintaining exceptional durability and comfort.
Unlike traditional flexible filaments, TimeMass - Wear is designed with highly ordered molecular alignments, ensuring it remains strong, stretchable, and breathable under repeated stress. Whether used for clothing, accessories, or specialized gear, this filament represents the future of 3D-printed fashion and function.
Revolutionizing Wearables: Fashion Beyond Limits
🖤 Unprecedented Dress Designs – When combined with TimeMass Fiber, TimeMass - Wear unlocks revolutionary soft fabric-like structures, making it possible to print dresses the likes of which no one has ever seen before. Intricate patterns, seamless organic curves, and one-piece garments can now be created without the limitations of traditional sewing and stitching. Imagine flowing gowns with interwoven lattices, geometric sculptural forms, or self-supporting textile structures that could never be achieved with conventional materials.
👔 Next-Level Suits for Any Purpose – Fashion is no longer just about aesthetics—TimeMass - Wear enables fully functional suits tailored for specific jobs, survival, and extreme conditions:
🔹 Survivalist Suits – Glow in the dark, provide thermal insulation, float on water, and even integrate insect-repellent properties.
🔹 Industrial & Job-Specific Gear – Design heat-resistant, impact-absorbing, or weatherproof suits tailored for construction, firefighting, or space exploration.
🔹 Adaptive Uniforms – Military, first responders, and outdoor enthusiasts can wear multi-layered, intelligent fabrics that react dynamically to temperature, moisture, and movement.A Fusion of Fashion, Science & Utility
🧵 Hybrid Fabric-Texture Printing – When paired with TimeMass Fiber, TimeMass - Wear can mimic woven textiles, layered fabrics, and organic fiber patterns—merging the best qualities of traditional materials and futuristic design.
🌬️ Breathable, Soft, Yet Ultra-Durable – Unlike rigid 3D-printed plastics, this filament is designed for comfort in motion, ensuring clothing is lightweight, flexible, and skin-friendly.
♻️ Sustainable, Waste-Free Manufacturing – Print on-demand apparel, accessories, and functional gear, eliminating fabric waste and pioneering a more circular, eco-friendly fashion industry.
🚀 Combining 4D Printing for Maximum Impact – When paired with other TimeMass filaments, wearable designs become even more multifunctional:
🔹 TimeMass Glow & Reflect – Create self-illuminating safety wear for nighttime visibility.
🔹 TimeMass Sublimation – Print temporary dissolvable designs that disappear on command.
🔹 TimeMass Plant Vitamin – Integrate biodegradable, self-sustaining materials into garments that support nature and growth.A New Era of Wearable Design Begins
With TimeMass - Wear, fashion becomes more than fabric—it becomes an extension of the body, a tool for survival, and a limitless canvas for innovation.
For designers, engineers, and visionaries shaping the future, this filament unlocks possibilities never before imagined—from gravity-defying dresses to intelligent, multifunctional suits that adapt to their environment.
The future of wearables isn’t just smart—it’s printed.
Need Ideas? Here You Go:
Watch bands, wristbands, and wearable smart device accessories.
Adjustable, ergonomic footwear components, such as insoles or custom-fit straps.
Breathable, flexible clothing elements for cosplay, sportswear, or fashion.
High-impact protective gear, such as soft armor layers or reinforced gloves.
Integrated textile-print hybrid designs, mixing with TimeMass Fiber for fabric-like finishes.
Smart textiles with embedded sensors, leveraging conductivity-enhancing post-processing techniques.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Wear, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Post-processing: Stretch and form-fit designs after printing to optimize flexibility and shape memory.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Microwave
Simulate 1000 years in 1 minute
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What if your 3D print could change shape—expand, twist, collapse—without motors, wires, or gears? Just pure microwave energy?
TimeMass Microwave is the first-ever filament that transforms under electromagnetic radiation. No mechanics. Just heat, vapor, and smart geometry doing all the work.
Most thermoplastics ignore microwaves. Ours eats them for breakfast.
It’s made with polar molecular groups that absorb microwave frequencies (yeah, like your food does). Once activated, it heats up from the inside, triggering built-in shape changes—from slow bends to sudden inflations.
How it works:
Microwave activation – UHF radiation excites the polar molecules. Boom: internal heat.
Microfluidic expansion – embedded water vaporizes, causing controlled pressure changes.
Programmable geometry – smart design means you can decide how it transforms.
What can you actually do with this?
Morphing sculptures – kinetic art that moves with invisible waves.
Self-expanding structures – think packaging, architecture, deployable tech.
Soft robotics & smart actuators – no motors needed, just energy.
Interactive displays – things that open, bend, or animate on command.
Space tech – lightweight, compact prints that “deploy” mid-orbit.
Need Ideas? Here You Go:
Transforming sculptures and kinetic art piecesthat change under microwave exposure.
Self-expanding objects, such as soft robotic actuators or deployable structures.
Educational experiments in thermodynamics and microwave interaction physics.
Custom food-safe molds that expand slightly when heated to create precise shaping.
Biomimetic designs, inspired by nature’s shape-shifting structures.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Microwave, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Post-processing: Immediately after printing, submerge in water for 10 seconds to 2 minutes(depending on desired thickness), then apply metal powder while damp for a professional metallic effect.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Urn
A Meaningful Farewell, A Lasting Tribute
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The passing of a loved one is a moment of profound loss, but also an opportunity to honor their life in a way that is as unique as they were.
TimeMass - Urn is a thoughtfully crafted 4D-filament, designed to provide a respectful, beautiful, and meaningful way to create a custom urn for someone dear.
Imagine a farewell that merges remembrance with renewal—an urn that floats gently upon the water, carrying the ashes of a loved one under the night sky. As it dissolves, it leaves behind something greater: Lotus seeds, symbolizing rebirth and enlightenment across many cultures, and Kelp spores, fostering new marine life in the waters that embrace them.
Crafted from planet-neutral, water-soluble materials, TimeMass - Urn is infused with:
Lotus Seeds (Nelumbo nucifera) – representing purity, spiritual awakening, and the cycle of life.
Kelp Spores (Macrocystis pyrifera) – nourishing marine environments, sustaining underwater ecosystems.
Crushed Coral (Calcium Carbonate) – aiding reef regeneration and symbolizing eternal connection to the ocean.If combined with TimeMass Fire, Light, or Glow, you can create a one-of-a-kind urn that glows softly in the twilight, offering a final radiant tribute before gracefully dissolving into the water.
As TimeMass - Urn gently breaks down, it disperses its embedded elements to support aquatic ecosystems—a final act of giving, turning loss into renewal, and remembrance into life.
For those seeking a farewell as beautiful as the life it honors, TimeMass - Urn offers a serene, unforgettable goodbye—one that echoes in the waters and hearts forever.
Need Ideas? Here You Go:
Floating urns for ceremonies, allowing ashes to be released into natural waters.
Commemorative sculptures that gradually dissolve over time, leaving no waste.
Aquatic life-support structures, such as artificial reef foundations or eco-art projects.
Eco-conscious time capsules that release elements into the water when needed.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Urn, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help..
Post-processing: Print thin shells for optimal elasticity; controlled stretching can fine-tune material rebound properties.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Stick and Glow
A Guiding Light, Whenever You Need It
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Stick & Glow is a glow-in-the-dark filament that clings to almost anything—walls, ceilings, gear, furniture—without glue, screws, or regrets.
Mist it with water. Boom: it sticks. No mess. No commitment. And when you’re done, just peel it off and move it.
It’s the only glow-in-the-dark system that moves with you.How it works:
Rare-earth phosphors = long, bright glow.
Water-activated adhesion = instant stick, no glue needed.
Repositionable = change your mind, move the light.
Where to use it:
Night safety – guide kids, seniors, or midnight snackers without flipping a switch.
Smart home – mark light switches, remotes, doorknobs, and blackout essentials.
Glow art – make murals, constellations, or whatever weird glowing dream you have.
Outdoors & automotive – slap it on helmets, camping gear, or dashboards.
Eco-lighting – no power, no batteries—just charged light doing its job.
Stick it. Move it. Glow again.
Whether you’re solving a problem or making your ceiling look like deep space, Stick & Glow lights the way—no tools required.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Stick and Glow, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Post-processing: Stretch and form-fit designs after printing to optimize flexibility and shape memory.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Reflect and Glow
Be Seen or Be Boring
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When it’s dark, you’ve got two options: disappear or glow like a legend.
TimeMass Reflect & Glow does both—glows in total darkness and reflects light straight back to the source when hit with headlights, flashlights, or whatever else is bouncing around out there.No batteries. No wires. Just light in, visibility out.
How it works:
Phosphorescent glow – Charges in ambient light and glows when the lights go out.
Microprism retroreflection – Reflects light directly back, so you stay visible from every angle. Like a cat’s eye, but printable.
If the glow fades? No problem. The reflection kicks in. You’re still seen. You’re still safe.
Where to use it:
Wearables – Jackets, helmets, bags—anything you want to keep visible on a night ride or rave.
Vehicles & roads – Print your own reflectors, emergency tags, or bumper warnings.
Camping gear – Tag your tent, tools, or that one zipper you always lose.
Home safety – Mark stairs, doors, or exit paths so they light up when you need them.
Creative chaos – Glowing art, hidden messages, nighttime signage... whatever weird glowing object you need in your life.
No charging cables. No nonsense.
Just a print that remembers the light and knows how to throw it back when it counts.Whether you're staying safe or just showing off, Reflect & Glow makes sure you're never left in the dark.
Need Ideas? Here You Go:
Wearable safety gear, such as jogging armbands and biking accessories.
Reflective road signs and trail markers for enhanced nighttime navigation.
Emergency equipment labels visible in low light and under direct illumination.
Glow-reactive sculptures and interactive designs.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Reflect and Glow, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Post-processing: Immediately after printing, submerge in water for 10 seconds to 2 minutes(depending on desired thickness), then apply metal powder while damp for a professional metallic effect.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Sublimation
The filament that vanishes
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What if a material could transform, disappear, or reshape itself—on demand? TimeMass - Sublimation is a revolutionary microwave-sensitive filament that bypasses the liquid phase, shifting directly from solid to gas. Engineered with sublimation-prone compounds and a high water content, this material responds aggressively to microwave frequencies, enabling controlled vaporization, collapsible structures, and reactive mechanical components.
A New Dimension of Design & Experimentation
🔥 Microwave-Triggered Disappearance – Watch as structures vanish in seconds when exposed to specific heat conditions, leaving behind no messy residue.
📏 Precision-Controlled Void Creation – Design temporary supports, chambers, or scaffolds that remove themselves at the perfect moment.
🔧 Reactive, Self-Collapsing Mechanisms – Develop pistons, pressure-release valves, or dissolving seals that respond to thermal input.
⏳ Accelerated Future Simulation – Simulate how objects will deform over centuries under exposure to sunlight, geological radiation, or heat by rapidly accelerating their decay process. Researchers, material scientists, and engineers can now study long-term environmental effects in real time—compressing 1,000 years of exposure into minutes.With TimeMass - Sublimation, traditional design limits evaporate—literally.
Where Science Meets Innovation
🛠️ Self-Disassembling Prototypes – Create temporary support structures that remove themselves without manual post-processing.
🔬 Smart Manufacturing & Tooling – Use vaporization to clear out internal cavities in 3D-printed molds, forming complex hollow geometries.
🎭 Special Effects & Theatrical Props – Design disappearing objects for immersive experiences, magic tricks, or experimental art installations.
💡 Transient Mechanical Components – Build heat-activated pistons or self-erasing message systems, perfect for experimental engineering.
⏳ Environmental Aging Simulation – Speed up centuries of degradation to predict how materials, structures, or artifacts will react to extreme environments over time.
♻️ Zero-Waste Printing – No need for dissolving chemicals or breakaway supports—just heat and gone.Engineered for the Future of Fabrication
By harnessing microwave frequencies as an activation trigger, TimeMass - Sublimation unlocks a new class of transient, responsive, and self-removing designs. Whether you're an innovator, engineer, or artist, this filament disrupts conventional 3D printing, replacing permanence with precision-controlled impermanence.
For those who dream of materials that change, disappear, and evolve—TimeMass - Sublimation brings the future into focus, then lets it fade away.
Evolving sculptures, where sections vanish upon activation.
Microwave-driven actuators for experimental soft robotics.
Disappearing piston chambers that create vacuum-driven motion.
Vaporization-based energy release designs.Need Ideas? Here You Go:
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Sublimation, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Post-processing: Print thin shells for optimal elasticity; controlled stretching can fine-tune material rebound properties.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Paper Surface
The Art of Printing, The Feel of Paper
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What if your 3D print felt like aged parchment but held up like plastic?
TimeMass Paper Surface makes that happen. It’s a post-processing filament that lets you print tough, durable parts with the soft, organic texture of real paper.How it works:
After printing, dunk the object in water—just enough to activate the surface. Then dust it with a cellulose-based powder. As it dries, the fibers bond, giving the piece a matte, fibrous finish that looks handmade but holds up like tech.
Why it’s different:
Paper feel, polymer strength – It won’t tear, crumple, or dissolve like the real thing.
Reactive surface treatment – A water dip + powder coat = authentic texture.
No fake “grain” gimmicks – This isn’t molded plastic pretending to be paper. It is paper—on the surface.
Where to use it:
Fine art & sculpture – Print textured canvases, delicate details, or weird little relics.
Custom packaging & branding – Business cards that don’t suck, packaging that feels like it belongs in an art gallery.
Historical props & replicas – Make museum-worthy “manuscripts” that don’t fall apart.
Interior design & signage – Print lightweight panels that look hand-finished, not injection molded.
Bookbinding & paper prototypes – Covers that feel real, pages that don’t quit.
No gimmicks. No lamination.
Just that clean, warm, paper feel—built right into the print.If you want every layer to say “craft” instead of “plastic,” Paper Surface makes it happen.
Need Ideas? Here You Go:
Books, scrolls, and artistic paper-like sculptures, preserving a unique handmade aesthetic.
Paper-textured prototypes for product design and packaging concepts.
Custom greeting cards, business cards, and invitations with intricate 3D textures.
Tactile signage and educational tools, combining print durability with a paper feel.
Handwritten notebooks or calligraphy-ready sheets, offering 3D-printed permanence with a paper finish.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Paper Surface, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Post-processing: Immediately after printing, submerge in water for 10 seconds to 2 minutes(depending on desired thickness), then apply metal powder while damp for a professional metallic effect.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
Light
The Illumination 3D filament
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TimeMass Light functions similarly to optical fiber but with a key difference: instead of channeling light along a single axis, it diffuses and scatters light throughout its volume. This is achieved through:
Microstructured internal diffusion: The filament contains microscopic voids, refractive index variations, and embedded nanoparticles that scatter and distribute light evenly.
Selective diffraction: Unlike transparent materials, which allow light to pass through with minimal scattering, this filament ensures a controlled diffusion, making the entire print glow.
Optimal light entry angle: After printing, the object must be cut or polished at flat angles at the base to allow efficient light entry, maximizing the glowing effect.
After successfully printing your illuminated object, ensure that the entry point for the light source—whether an LED, flashlight, or a candle (printed with our TimeMass Fire filament)—is as flat and smooth as possible.
A flat contact surface maximizes the efficiency of light transmission by reducing internal reflection losses and allowing more light rays to enter the material at an optimal angle. This ensures that the light disperses evenly throughout the filament, creating a uniform glow rather than concentrated brightness at a single point.
For best results, polishing or slightly sanding the entry surface can further enhance light coupling, allowing for better diffusion and a more vibrant illumination effect.
Need Ideas? Here You Go:
Energy-efficient lighting: Create glowing decorative structures that require fewer LEDs.
Wearable illumination: Print flexible or semi-rigid glowing accessories for clothing, safety gear, or fashion.
Art and signage: Print signs or displays that appear internally lit without needing complex wiring.
Emergency lighting: Produce lightweight, self-illuminating exit signs, safety indicators, or low-power emergency lighting.
Holographic and display technology: Experiment with creating glowing, semi-transparent layers in 3D structures.
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1. Introduction
These parameters are designed to help avoid printing issues; however, temperatures and speed timings can be adjusted based on your specific goals. For example, if you prefer a less rigid result, we recommend using a lower temperature. This section outlines a complete slicing and printing profile for TimeMass Light, tailored for printers with a 0.8 mm nozzle. If the print is not being successful, please lower the nozzle temperature by 10°C and start over until an optimal print is achieved. While these examples were printed with a 0.8 mm nozzle, TimeMass can be used with any nozzle size. Please check the manual for printing parameters with all the other nozzle sizes.2. Temperature Settings
2.aNozzle Temperature: 240°C — Optimal for flowability while avoiding decomposition (which begins around 250°C).
2.bBed Temperature: 95°C — Ensures strong first-layer adhesion and prevents moisture bubbling.
2.cNozzle Temperature Range: 230–245°C — Timeplast melts around 165°C but prints best at 240°C for precise viscosity control.3. Cooling Settings
3.aNo Cooling for First Layers: 3 layers — Prevents shrinkage due to rapid cooling of moisture-rich filament.
3.bFan Minimum Speed: 0% for the first 100 seconds — Allows heat retention during early layers.
3.cFan Maximum Speed: 15% starting at 8 seconds — Avoids overcooling that can lead to warping.
3.dKeep Fan Always On: OFF — Allows vapor to escape and avoids internal fogging.
3.eSlow Down for Cooling: ON — Improves surface finish with controlled cooling.
3.fForce Cooling for Overhangs: OFF — Overcooling can deform bridges in Timeplast.
3.gFan for Overhangs: 15% — Only for essential cooling in complex areas.
3.hPre-Start Fan Time: 2 seconds — Minimizes pressure differential during the first layer.4. Volumetric Flow
4.aMax Volumetric Speed: 12 mm³/s — Based on a melt flow index of ~15 g/10min, allows high-speed printing.
4.bRamming Speed: 3 mm³/s — Prevents bubbles or popping from pressure spikes.5. Retraction and Flow
5.aRetraction Distance: 0.4 mm — Minimal retraction required for soft filaments to avoid stringing.
5.bRetraction Speed: 15 mm/s — Slow enough to avoid pulling molten plastic.
5.cPressure Advance: 0.05 — Compensates for nozzle lag at high flow rates.
5.dFlow Ratio: 92% — Slight under-extrusion avoids swelling and surface artifacts.6. Precision Settings
6.aGap Closing Radius: 0.1 mm — Tolerant of gaps in thicker walls.
6.bArc Fitting: ON — Reduces G-code size and smooths curve transitions.
6.cElephant Foot Compensation: 0.1 mm — Offsets squishing in the first layer caused by large bead sizes.7. Walls and Shells
7.aWall Loops: 2 — Minimum for strength when using a 0.8 mm nozzle.
7.bDetect Thin Walls: ON — Ensures tight geometries aren’t skipped.
7.cTop/Bottom Shell Layers: 3 — Provides good coverage; increase if watertightness is needed.
7.dTop/Bottom Thickness: 1.2 mm — Equals 1.5x the nozzle size for solid strength.
7.eTop/Bottom Pattern: Monotonic — Distributes tension evenly and improves surface finish.8. Geometry and Movement
8.aWall Order: Inner before Outer — Creates cleaner outer surfaces.
8.bInfill First: OFF — Maintains precise outer dimensions.
8.cSmooth Speed Transition: ON — Prevents ringing caused by abrupt speed changes.
8.dSmooth Coefficient: 80 — Ideal damping for soft materials.
8.eAvoid Crossing Wall: ON — Minimizes stringing across part walls.
8.fMax Detour for Crossing: 10 mm or 5% — Balances time with print cleanliness.9. Layer and Width Settings
9.aLayer Height: 0.3 mm — Optimal for strength and resolution using a 0.8 mm nozzle.
9.bInitial Layer Height: 0.35 mm — Slightly higher to improve adhesion.
9.cLine Widths (all): 0.8 mm — Matches nozzle diameter for consistent extrusion.10. Seam Settings
10.aSeam Position: Aligned or Back — Use aligned for mechanical consistency, back for visual appeal.
10.bSmart Scarf Seam: ON — Automatically adjusts seam location to reduce visual impact.
10.cSeam Angle: 155° — Standard seam angle for clean transitions.
10.dSeam Steps: 10 — Smooths seam path and improves visual finish.11. Infill Settings
11.aWall/Infill Overlap: 10% — Prevents infill from deforming soft exterior walls.
11.bInfill Combination: ON — Consolidates paths for efficiency.
11.cDetect Floating Shells: ON — Ensures unsupported vertical structures are printed reliably.
11.dSparse Infill Density: 20–25% — Balanced rigidity vs. material use.
11.eSparse Pattern: Grid — Stable and efficient for flexible geometries.12. Speed Settings
12.aTravel: 160 mm/s — Fast but safe against backlash.
12.bInitial Layer: 15 mm/s — Prevents nozzle from skimming and ensures bed adhesion.
12.cOuter Wall: 60 mm/s — Controlled speed for surface quality.
12.dInner Wall: 90 mm/s — Slightly faster without compromising control.
12.eSmall Perimeter: 35 mm/s — Reduced speed for detailed geometry.
12.fTop Surface: 40 mm/s — Improves finish on topmost layers.
12.gInfill: 100–120 mm/s — Takes advantage of high flowability.13. Acceleration Settings
13.aNormal Print: 2000 mm/s² — Prevents ringing in soft filaments.
13.bTravel: 4000 mm/s² — Enables fast movement without harsh transitions.
13.cInitial Layer: 300 mm/s² — Gentle movement prevents lifting from the bed.
13.dOuter Wall: 1500 mm/s² — Improves outer surface clarity.
13.eInner Wall: 2000 mm/s² — Balanced for structural components.
13.fTop Surface: 1500 mm/s² — Ensures smooth detailing.14. Adhesion and Brims
14.aSkirt Loops: 2 — Helps prime nozzle and start cleanly.
14.bBrim Width: 6 mm — Helps hold soft materials down.
14.cBrim Gap: 0.15 mm — Allows for easy removal without tearing.15. Prime Tower and Flush Settings
15.aPrime Tower: ON — Purges moisture and early flow inconsistencies.
15.bTower Width: 40 mm — Prevents collapse due to heat.
15.cBrim Width (Tower): 4 mm — Adds stability to the purge base.
15.dFlush Into Support: ON — Discards unwanted early flow safely.16. G-Code Start Script
M900 K0.05 ; Pressure Advance M106 S0 ; Fan off G92 E0 G1 E15 F300 ; purge line G92 E0
17. Additional Notes
17.aDry filament at 100°C for 2 hours before use.
17.bStore with desiccant.
17.cKeep extruder door open to allow vapor to escape.
17.dAvoid long dwell times at high temperatures.If you need print settings for other nozzle sizes, feel free to reach out to us at timeplast@timeplast.com — we’ll be happy to help.
Free U.S. standard shipping on orders of 5+ spools!
Custom colors for 5+ same-type spools’ orders
What is
TimeMass?
A must watch video made by our team.
Unlock the 4th dimension in your 3D printer.
3D Printing with Zero Toxic Fumes.
Print 4-Dimensional objects by integrating the dimension of Time, such as Bloominite.
All filaments are water-soluble.
Compatible with any filament-based 3D printer.
Packaged in plastic-free, 100% recycled cardboard.
Made in the USA.
3D printed ball before stone powder treatment
3D printed ball after stone powder treatment
100% Money-Back Guarantee: If you're not satisfied, we'll refund your purchase—no questions asked.
Free U.S. standard shipping on orders of 5+ spools!
Meet the Solution
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Certified 100% Water Soluble
ASTM E 1148
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Certified 100% PFAs-free
ASTM D7979-19
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70% water, 30% sugar, vinegar, proprietary in-house Polyethenol and Calcium components
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Patented Pabyss - The Plastic Abyss
A “Molecular Disintegrator” bottomless trashcan.
Metal Surface
The non-metal, metal filament
This demonstration proves that TimeMass Metal Surface isn’t just a filament—it’s an innovative functional material capable of creating lightweight, realistic metallic objects that can even attract magnets! By simply dipping and powder-coating with iron filings, you get a stunning, durable metal effect without complex post-processing.
Fire
A Burning 3D printing filament
Sound on! Listen to the built-in crackling noise
In the video: A TimeMass Fire Benchy boat burning at a slower, more controlled pace. Check the difference in the flame’s color.
Combustible Polymer Matrix: A water-soluble polymer that burns cleanly. This matrix forms the main body of the filament.
Water-Embedded Microstructure: Tiny microcapsules containing water distributed throughout the filament.
Fiber Reinforcement: Thin, slow-burning fibers running through the filament, mimicking the wick structure in traditional candles.
Water Vapor Release: As the filament burns, the embedded water slowly evaporates. This vapor acts as a heat sink, regulating the burn rate and temperature, much like how a candle wick regulates the flame.
Localized Cooling: The release of water vapor creates localized cooling zones, preventing rapid combustion and ensuring a steady, controlled flame height.
Fiber-Wick Effect: The embedded fibers function similarly to a candle wick, channeling the flame and maintaining a consistent burn path. This guides the flame through the filament, layer by layer, in a predictable manner.
We believe TimeMass Fire will burn significantly cleaner than conventional filaments due to its 70% water-based composition. However, we have not yet tested all potential combustion byproducts. For safety, please use this filament only in a well-ventilated area.
In the video a PLA benchy boat burning.
PLA (Polylactic Acid) is not designed for burning and presents several disadvantages compared to Time-Mass - Fire:
Uncontrolled Combustion: PLA burns unpredictably, often resulting in irregular flames, soot production, and unpleasant odors.
Toxic Fumes: Burning PLA can release potentially harmful chemicals, making it unsuitable for controlled applications like candles.
Rapid Burn Rate: PLA lacks any inherent mechanism to regulate the burn rate, leading to fast and uneven combustion.
Light
The illumination filament
Experience the future of light with TimeMass Light, our cutting-edge illumination filament. Designed to efficiently transport and diffuse light, this revolutionary material opens new possibilities for 3D-printed lighting solutions.
Watch our videos to see how TimeMass Light seamlessly channels and disperses light, bringing your creations to life with stunning visual effects.
The possibilities are endless
Time-programmed wearables: Like artistic shoes, with incredible designs and at a very low cost of production.
Self-Eroding Marine Structures: Ocean-based supports that provide habitats for marine life and dissolve over time to release beneficial minerals, enriching marine ecosystems naturally.
Automated Farming Components: Timed-dissolving planters that release nutrients and water at key stages of plant growth, optimizing crop health and reducing artificial fertilizers.
Self-destructive Construction Scaffolding: Temporary, self-dissolving scaffolding for construction projects, removing the need for disassembly and minimizing post-construction waste.
Temporary Floating Platforms for Aquatic Events: Modular, dissolvable platforms for water-based events that disappear afterward, leaving the environment undisturbed.
Self-Deconstructing Medical Implants: Medical implants that dissolve once healing is complete, reducing the need for follow-up surgeries and minimizing infection risks.
Slow-Releasing Pesticide Capsules: Agricultural capsules that dissolve over time to release nutrients and pesticides sequentially, optimizing crop protection and reducing chemical waste.
Programmable Packaging Solutions: Water-soluble packaging for single-use items or perishables that disappears after disposal, reducing plastic waste effectively.
Zero-waste Temporary Art Installations: Timed art pieces designed to dissolve over time, creating ephemeral installations that leave no environmental impact, with increased art appreciation due to its ephemeral nature.
Ocean Buoys for Wildlife Monitoring: Timed-dissolving buoys that monitor marine life and disappear after their mission, preventing marine debris.
Personalized Fitness and Wellness Devices: Disposable fitness trackers that dissolve after use, releasing beneficial compounds, offering convenience with no waste.
Smart Infrastructure with Automated Deconstruction: Self-dissolving infrastructure for temporary construction needs, saving on cleanup costs and reducing waste when no longer needed.
Free U.S. standard shipping on orders of 5+ spools!
The best
Support filament in the 3D printing world period.
Free U.S. standard shipping on orders of 5 + spools!
When we say TimeMass is the best support filament, it’s because we genuinely believe it to be true based on our testing and experience.
TimeMass stands out due to its exceptionally high molecular weight—the highest of any support filament we’ve tested at Timeplast. Combined with the non-toxic nature of our proprietary materials, you can print all day without worrying about releasing harmful chemicals into the air.
Additionally, TimeMass is an elastomer, which means it offers a unique combination of flexibility and water solubility. This allows supports to detach in a single stroke, making post-processing easier and cleaner. The high molecular weight also contributes to high-definition prints, setting a new standard for support filaments.
While materials like BVOH, PEG, and HIPS have been used for scientific purposes at much higher price points and are derived from conventional non-polar polymer chains, Time-Mass delivers a superior balance of affordability, safety, and functionality. We believe these factors make it an ideal choice for the average 3D printing enthusiast looking for a reliable and high-performing support filament.
Check the flexibility:
Active.
Delayed.
Passive.
Fiber
Sacrificial Polymer Technology for soft 3D printed fabrics
In the image: Our 1.75mm Fiber filament.
What is TimeMass Fiber?
It’s a version of our filaments which is made of a composite Timeplast material, consisting of:
Core or Microfibers as Structural Component: These are durable, flexible strands embedded within the filament. They act as the final "yarn" or fabric structure.
Matrix or Outer Material as the Sacrificial Polymer: Surrounding the structural fibers, the sacrificial polymer serves as a temporary binding material, holding the microfibers in a specific shape during the 3D printing process.
This dual-material design within a single filament eliminates the need for a separate support material, simplifying the printing process and making it possible to achieve very thin fibers
In the image: The same fiber filament shown previously, but after 24 hours of exposure to water, the fibers begin to emerge.
When you print with this filament:
Layer Formation: The filament is deposited in layers, with the sacrificial polymer temporarily binding the fibers to maintain the desired geometry and tension until post-processing.
During printing, the sacrificial polymer:
Supports intricate designs and fine fiber orientation, acting as scaffolding during the build process.
Provides enough structural integrity to enable overhangs or complex shapes without collapsing.
In the image: A close-up view of the fibers themselves.
After printing, the object undergoes a sacrificial polymer removal process:
The sacrificial polymer is engineered to dissolve or disintegrate when exposed to room-temperature water.
As the sacrificial polymer dissolves, it leaves behind only the structural fibers, which are now loosely interwoven or patterned to create a fabric-like material.
The final printed object has to be dried out (for example in a food dehydrator) up until it achieves the desired final texture.
The remaining structure:
Retains flexibility and softness because the fibers were embedded in a precise pattern, mimicking woven or knitted textiles.
Has microvoids and interconnected fiber networks where the sacrificial material was removed, enhancing breathability and softness.
In the image: The before-and-after.
The final product achieves fabric-like properties because:
Fiber Orientation: The structural fibers remain in a pattern that mimics traditional fabric weaving, providing flexibility and drapability.
Tunable Thickness and Texture: By adjusting the sacrificial polymer-to-design ratio and the printing pattern, the properties of the resulting fabric can be tailored for softness, elasticity, or even stretchability.
Porosity: The dissolution of the sacrificial polymer creates spaces between the fibers, allowing the fabric to feel light and breathable.
Applications:
Fashion: Soft, customizable 3D-printed fabrics for garments with intricate patterns and dynamic properties (e.g., shape memory or thermal adaptability).
Medical: Biocompatible fabrics for bandages, surgical meshes, or wearable sensors.
Soft Robotics: Lightweight, flexible materials for artificial skins or soft robotic components.
Eco-Friendly Textiles: Fully recyclable or biodegradable fabrics due to the innovative polymer chemistry of Timeplast.
Simulate 1000 years in one minute - Or Unleash your artistic side with organic deformations for your otherwise perfect prints with.
TimeMass Microwave
Printed figure before microwave treatment.
Printed figure after microwave treatment.
TPU on the left, TimeMass on the right.
Same flexibility, much higher potential.
Clean all strings with a quick dip in water instead of using toxic solvents.
Unlock the
4th dimension in
your 3D printer
Timed
Dissolution Times
• ACTIVE: Dissolves quickly.
• EXTENDED/DELAYED: Dissolves slower than active.
• PASSIVE: Dissolves slowly
Watch 3 benchies with 3 different disolution times.
TimeMass Support:
Elevating 3D Printing Beyond PVA
100% Money-Back Guarantee: If you're not satisfied, we'll refund your purchase—no questions asked.
Advantages Compared to Other Supports
Higher molecular weight, resulting in significantly better printing resolution and reliability.
Flexibility similar to TPU, making it much easier to remove support structures in complex prints.
More cost-effective than PEG, BVOH, and other premium water-soluble supports.
Works with multifilament systems that pull, but it doesn’t work in systems that push. Pausing and changing filaments is an easy fix.
