Creator guides · 2026-07-12 · Patreon guide
Patreon for neon sign making creators: tiers, glass tube bending electrode work and gas filling, argon neon phosphor coating colors, iOS rates, and the Apple Tax in 2026
Neon sign making Patreons retain patrons because the YouTube build video shows a glowing finished sign but never delivers the process layer: the 1:1 scale cardboard bending template with tube centerline offset, the ribbon burner technique documentation for a specific bend radius, the electrode bombing time and current that determines whether the sign starts cleanly at 25 years old or fails within six months, and the gas fill pressure in millimeters of mercury that separates red from orange from red-orange in the same clear glass tube. The patron who wants to build their first sign needs the actual engineering layer.
Three types of neon sign making creators on Patreon
Glass tube benders documenting complete sign builds
Complete sign build documentation from pattern layout through final gas test: pattern layout at 1:1 scale (printing or tracing the full-size pattern on paper or cardboard; the tube bender follows the center line of the tube, not the outer edge of the letterform; for 12 mm tube, the center line is 6 mm inside each letter edge; for 15 mm tube, 7.5 mm inside; the sequence of bends matters because some bends cannot be made after others are completed — the bending map documents every bend in order with each bend’s required heat zone length); ribbon burner technique (natural gas or propane ribbon burners provide a line flame 6–18 inches long that heats a section of glass tube uniformly; preheat zone = the length of tube softened before bending initiates; the preheat zone must be longer than the radius of the bend divided by 2 to prevent kinking at the bend start; typical preheat zone 3–8 inches for common letter forms; soda-lime glass (soft glass, 90° bend radius to 1.5 × tube diameter for tight letter forms) vs borosilicate glass (hard glass, higher softening temperature, more difficult to hand-bend but produces sharper-edged signs that look cleaner in modern contexts); crossover management (when a tube must pass over another tube in the sign, the crossover tube is supported on ceramic standoffs at 10–15 mm clearance; excessive proximity of live tubes can cause arcing); electrode installation and glass-to-metal seal (iron/steel electrode shells; lead wires pass through glass-sealed feed-throughs in the electrode shell; the seal is made by a glass lathe worker or a pre-fabricated ribbon seal; the electrode shell is inserted into the tube end and the glass is fire-polished to create a hermetic glass-to-metal seal). Tier structure: Build Log ($8–12/month, per-sign template documentation and process notes, Discord by tube size and region), Technical Data ($22–35/month, gas fill pressure logs and electrode bombing records, transformer wiring schematics), Mentorship ($65–90/month capped 3–5 patrons, bending problem diagnosis).
Neon installation artists sharing electrode and transformer work
Neon installation artists go beyond the tube bending craft to share the electrical engineering layer: electrode bombing procedure (the most critical step for sign longevity: after bending and sealing electrodes, the sign is connected to a bombarding transformer, which applies a high voltage (5,000–15,000 V) high-frequency current through the tube; the resistance of the tube causes heating of the electrode at the seal junction; this anneals the glass-to-metal seal, prevents future seal failure, and drives off moisture and contaminants adsorbed on the inner glass walls that would otherwise poison the gas fill and cause premature failure; the target bombarding current is 30–60 mA (milliamperes) through the tube at the tube’s starting voltage, held for 60–90 seconds; under-bombing leaves moisture in the tube and causes early failure; over-bombing can crack the electrode seal); gas filling parameters (after bombing and final vacuum pump-down to below 10 millitorr (0.01 Torr), the fill gas is admitted to target pressure: argon gas at 8–12 Torr (millimeters of mercury) for 10–15 mm tubes with phosphor coating — argon plasma excites the phosphor which emits the visible color; fill pressure is the primary variable controlling the color temperature and saturation of phosphor-coated signs: lower pressure gives brighter, more saturated colors but shorter life; higher pressure gives softer colors and longer electrode life; neon gas at 1.5–2.5 Torr for red and orange signs in clear uncoated glass — neon gas plasma directly emits the characteristic orange-red color from the 585.2 nm and 640.2 nm spectral lines); transformer selection (neon sign transformers (NST): GTO cable outdoor transformer for sign applications; open-circuit voltage 3,000–15,000 V; rated secondary current 30–120 mA; sign transformer wattage = Voc × Isc × 0.5 (power factor for resonant transformer); match total tube footage to transformer wattage: approximately 3–5 watts per inch of 12 mm tubing). iOS rates: YouTube neon sign builds 62–78% iOS; Instagram neon photography 78–90% iOS; TikTok neon reveal 80–92%.
Sign making educators covering glass tube physics and gas discharge science
Sign making educators deliver the gas discharge physics and glass science layer that distinguishes master craftsmanship from trial-and-error: gas discharge plasma physics (a neon sign operates by passing an electrical current through a low-pressure gas at a voltage above the breakdown voltage; breakdown occurs when the electric field accelerates free electrons from cosmic ray ionization to sufficient energy to ionize gas atoms; each ionization event creates two additional free electrons and one positive ion; the cascade avalanche multiplication produces the glow discharge plasma; the glow discharge voltage is much lower than the breakdown voltage and is determined by the gas type, pressure, tube diameter, and tube length; Paschen’s law: breakdown voltage VB = B × (p × d) / (C + ln(p × d)) where p = gas pressure in Torr, d = tube diameter in cm, B and C are gas-specific constants); phosphor coating colors (white phosphors: 3500K warm white (cream) vs 6500K cool white (blue-white); green phosphors: cool green yttrium terbium silicate vs warm chartreuse; blue phosphors: cobalt aluminosilicate; pink phosphors: manganese-activated calcium silicate + blue component; the phosphor is applied as a suspension in organic binder, painted or flow-coated inside the glass tube before bending, and fired in a belt furnace at 500–550°C to burn off the binder and fuse the phosphor particles to the glass surface); soft glass vs hard glass tube properties (soda-lime glass softening temperature approximately 730°C, working with natural gas ribbon burner; borosilicate glass softening temperature approximately 820°C, requires propane-oxygen torch for bending; soda-lime glass more suitable for beginners and larger production volumes; borosilicate required for outdoor signs in climates with extreme temperature cycling where the lower coefficient of thermal expansion prevents glass cracking). iOS rates: YouTube neon science 60–72% iOS.
Apple Tax impact on neon sign making creators
Neon sign making creator iOS rates are among the highest in the maker creator space because neon content is visually compelling on phone screens: Instagram neon photography 78–90% iOS; TikTok neon sign reveals and glow aesthetics 80–92% iOS; YouTube neon builds 62–78% iOS. At $200/month with 72% iOS: Apple’s 30% fee starting November 1, 2026 costs $43.20/month ($518.40/year). At $300/month with 78% iOS: $70.20/month ($842.40/year). Enable web-only billing in Patreon Creator Settings before October 31, 2026 and update all Instagram bio links and TikTok profile links to the web Patreon URL.