*Gen 2 significantly enhances printability through a 15.56% reduction in melting point, which optimizes flow dynamics and accelerates printing speeds. Additionally, it features a 10% increase in water content, enabling superior thermal control and improved burning ratio management. The filament also achieves an enhanced glossy finish, resulting in superior aesthetics and a polished final appearance.

TimeMass Fire by Timeplast is the first ever 3D printing filament designed to be burnable, allowing for the creation of functional objects that can be ignited and consumed by fire in a controlled manner. Unlike traditional filaments, which either resist flames or burn too quickly, TimeMass Fire is engineered to sustain combustion efficiently, making it ideal for applications that require temporary use, controlled incineration, or artistic flame effects.

After successfully printing your candle or burnable object, ensure that the wick-like structures and burning surfaces are neither too thick nor too thin.

Much like a traditional wick, the surface area exposed to oxygen and fuel availability determines the burn rate. If the burning surface is too wide, it may burn too quickly and inefficiently. Conversely, if the wick is too thick, it may struggle to ignite or sustain a flame.

To design an interactive and dynamic candle, consider these factors carefully. For example, you could create a birthday candle that burns rapidly through 19 smaller wicks (lasting just as long as the 'Happy Birthday' song) before revealing a larger, slower-burning 20th candle that lasts for 365 days—perfect for celebrating a milestone 20th birthday! Whether for art, practical use, or just pure fun. Here are some more creative shape ideas to make the most of its burnable properties:

1. Spiral Wick Towers
   Print tall, thin spirals that twist upward like a corkscrew. The spiral shape could act like a wick, drawing the flame slowly up the structure for a mesmerizing, prolonged burn. Add small ridges or grooves along the spiral to control the burn rate and create flickering patterns.

2. Hollow Geometric Lanterns
   Think octahedrons, dodecahedrons, or even simple cubes with cut-out patterns (like stars or swirls) on each face. The hollow design would let oxygen flow in, feeding the flame while the geometric structure collapses dramatically as it burns. Perfect for a fire show or an eco-friendly lantern alternative.

3. Branching Tree Sculptures
   Create a tree-like form with a thick trunk and thin, sprawling branches. The branches could burn faster, creating a cascading effect as the fire moves downward to the slower-burning trunk. You could even embed small cavities in the trunk to hold scented oils (since TimeMass Fire can absorb additives) for a fragrant burn.

4. Nested Rings or Toroids
   Print a series of concentric rings stacked vertically or a single, thick torus (donut shape) with textured surfaces. The rings could burn from the outside in, offering a slow, hypnotic display, or you could design them to peel apart as they combust, revealing inner layers.

5. Fire Flower Blossoms
   Model a flower with layered petals that flare outward. The thin petals would catch fire quickly, curling and shrinking as they burn, while a thicker core (like a stem or stamen) sustains the flame longer. This could be a stunning visual for artistic burning displays.

6. Maze or Lattice Structures
   Design a flat or 3D maze with interconnected pathways. The fire would snake through the channels, creating an unpredictable burn pattern. A lattice cube or sphere with crisscrossing beams could also produce cool shadow effects as it burns down.

7. Starburst Explosions
   Print a central core with long, thin spikes or tendrils radiating outward in all directions. The tendrils would ignite fast, sending flames shooting out like a firework, while the denser core keeps it going for a finale. Vary the thickness of the spikes for different burn speeds.

8. Wave or Ripple Patterns
   Create a wavy, undulating sheet or a cylindrical shape with rippling layers. The peaks and troughs would burn at different rates, giving a dynamic, flowing effect as the fire moves across the surface.

With the right calculations, the possibilities for customized, artistic, and time-controlled burn patterns are endless!

TimeMass Fire aligns with sustainability goals, offering a controlled combustion alternative to paraffin-based products, single-use plastics, and traditional wax. It also introduces new possibilities in design, survival applications, and eco-conscious fire-based art.

Key Features of TimeMass Fire:

🔥 Highly Controllable Combustible – Designed to burn efficiently, leaving minimal residue.
♻️ Eco-Friendly Decomposition – Can be engineered to reduce toxic emissions during burning.
🛠️ 3D Printable – Works with standard 3D printers for complex designs.
⏳ Controlled Burn Rate – Can be formulated to burn slowly or quickly depending on application.
🌿 Sustainable Alternative – Reduces reliance on traditional paraffin-based candles and other non-renewable combustible materials.

One of the most remarkable features of this filament is its ability to absorb and retain oils, liquids, and other additives, allowing you to customize the scent, texture, and functional properties of your prints. For instance, you can 3D print a candle and pause mid-print to infuse it with essential oils, ensuring a lasting and personalized fragrance.

Moreover, the filament enables the creation of specialized compartments within your prints, allowing you to embed liquids, solids, or even time-release capsules directly into the structure during the printing process. This opens up possibilities for self-dissolving packaging, aromatic sculptures, or even interactive objects that change over time.

With this level of customization, the only limit is your imagination.

1. Candles & Ritual Objects

• 3D-printed custom candles that can take any shape while burning naturally.

• Biodegradable lanterns or floating fire-based decorations.

• Custom religious or ceremonial burning objects (e.g., incense holders, cremation urns).

2. Fireworks & Pyrotechnics

• 3D-printed flammable casings for controlled burn patterns.

• Burn-away support structures for stage effects and theater productions.

• Timed self-destructing mechanisms in pyrotechnic displays.

3. Emergency & Survival Gear

• Fire-starting materials that can be shaped into portable, lightweight tinder.

• Self-burning emergency signals for rescue situations.

• Disposable campfire accessories like quick-ignite logs or eco-friendly kindling.

4. Art & Entertainment

• Flammable sculptures or installations that are designed to be set ablaze.

• 3D-printed fire show props for controlled performances.

• Movie and theater set pieces designed for dramatic burn effects.

5. Waste Reduction & Disposal

• Burnable packaging that leaves no plastic waste.

• Fire-friendly temporary structures for outdoor use.

• Incinerable storage solutions for biodegradable waste.

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

nginx

CopyEdit

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.