KeepTier · fiber arts creator economics

Patreon for ikat dyeing and weaving creators: warp resist binding, weft shuttle registration, double ikat alignment, dye chemistry by fiber, and the Apple Tax on iOS-heavy fiber arts audiences from November 2026

Ikat is a resist-dyeing technique applied to yarn before it is woven. The dye pattern on individual threads is invisible until the threads are combined at the loom — only when a resist-dyed warp thread and a weft thread intersect does the motif appear at the crossing. The word ikat derives from the Malay-Indonesian mengikat, meaning to tie or to bind, and the binding is the technical heart of the process: resist material wound tightly around calculated sections of a thread bundle prevents dye from penetrating those sections, leaving the pattern in negative.

For Patreon creators documenting ikat, the challenge is that the process is spread across days and sometimes weeks, the critical moment of pattern formation is largely invisible until the binding is removed and the threads are woven, and the most compelling content — the resist reveal, the first meters of cloth off the loom — arrives only after substantial undocumented preparation. This guide explains the mechanical logic of warp ikat, weft ikat, and double ikat so that the documentation decisions (what to photograph, when to caption, how to structure a multi-episode series) can be made from a structural understanding rather than intuition.

What ikat is structurally: pattern forms at the crossing, not in the cloth

The fundamental concept that distinguishes ikat from all other patterned weaving is that the pattern is applied to the yarn before weaving. In a woven structure, every pattern square of color in the finished cloth corresponds to a specific warp thread and a specific weft pick intersecting at that position. In block weave, the color of that intersection is determined by which thread comes to the surface at that point. In ikat, the color at the intersection is determined by what color was dyed onto each thread at that position before the cloth existed.

A warp thread that is dyed blue-white-blue-white in alternating bands will contribute blue to every crossing where a weft crosses over a blue section and white to every crossing where the weft crosses over a white section. If the weft is a plain undyed cream color, the finished cloth is a pattern of blue-and-white in the warp direction only — this is warp ikat. If instead the warp is plain cream and the weft threads are dyed with a pattern, the weft contributes the color at each crossing — this is weft ikat. Double ikat combines both: the warp has a partial pattern, the weft has a complementary partial pattern, and the full visible motif only emerges where a patterned warp section and a patterned weft section cross at the pre-calculated intersection.

The soft blurry edge at ikat pattern boundaries — called abrash or the ikat bleed — arises because individual threads shift slightly during the dyeing process, the unwarping and rewarping process, and the weaving process. Each thread can shift by its own diameter (0.3–0.8 mm for fine silk, 0.8–2 mm for medium cotton) relative to its neighbor, and because the resist boundary is a physical edge on the thread bundle, the transition from dyed to undyed smears across approximately 3–8 thread widths. The degree of blurriness is not a defect — it is the defining visual characteristic of hand-dyed ikat, and distinguishing hand-bound abrash from printed ikat simulation is straightforward: printed ikat has perfectly sharp edges, hand-bound ikat does not.

Warp ikat process: from grid design to warped loom

Warp ikat requires the complete warp to be measured, patterned, dyed, and unbound before a single thread goes on the loom. The sequence is rigid.

Step 1 — Design on grid paper. Draw the motif on grid paper where each column is one warp thread and each row is one unit of warp length equal to one repeat of the weave structure. For a plain-weave warp ikat with a sett of 8 ends per centimeter and a motif 5 cm wide, the motif occupies 40 columns (40 warp threads). The vertical dimension of the grid corresponds to warp length: for a finished piece 60 cm long with 10 cm loom waste top and bottom, the full warp length is approximately 80 cm. Mark every position where a binding must start and stop with a different color pen. These are the binding boundaries.

Step 2 — Measure the warp. Wind the warp onto a warping board or warping mill to the calculated length, keeping threads in consistent order (cross preserved). Count threads carefully — each column on the design grid corresponds to one warp thread, and the thread count must match exactly or the pattern will compress or expand laterally. Use a lease stick through the cross at both ends of the warp to maintain thread order.

Step 3 — Mark binding positions. Lay the measured warp flat on a long table without tension. Use removable masking tape or chalk marks to mark every binding boundary position on the surface of the warp. Each binding boundary corresponds to a row on the design grid where a color transition occurs. For a 3-color ikat with transitions at positions 15 cm, 30 cm, 45 cm, and 60 cm from the start of the warp, mark those 4 positions clearly before touching any binding material.

Step 4 — Divide into bundles and bind. Group the warp threads into bundles of 2–4 threads each (the bundle size corresponds to one or two columns on your design grid). Bind each bundle at every position where that bundle should resist the dye color. Binding material choices are covered below in detail. Each binding must extend at least 3–5 mm past the boundary mark on both sides so that dye does not seep under the edge — this margin determines the final edge sharpness: 3 mm margin gives a moderately crisp edge, 8 mm gives a very soft blurred edge.

Step 5 — Dye in color sequence from light to dark. In multi-color ikat, dye the lightest color first with the fewest bindings removed, then progressively unbind sections for each subsequent darker color. A yellow-orange-brown sequence, for example: dye the full warp yellow with sections that will remain yellow and orange bound (those sections resist the yellow dye); then bind the sections that should remain yellow, unbind the sections that should absorb orange, and overdye with orange; then bind all sections except those that should absorb brown, and dye with brown. Every color in ikat is an overdye of all preceding colors, which constrains the palette toward warm sequences unless reactive dyes and strong discharge chemistry are used between steps.

Step 6 — Rinse, unbind, and dry. After the final dye bath, rinse thoroughly (fiber-reactive: cold then warm water until neutral; acid dye: rinse from the dye bath temperature down to room temperature gradually to prevent felting in wool). Remove all bindings carefully, saving pieces of raffia for compost or disposal. Hang the warp to dry completely before loading onto the loom — damp fibers are weaker and stretching under wet tension can permanently distort the pattern.

Step 7 — Load the loom. Wind the dyed warp onto the warp beam maintaining the exact thread order established at the warping board. Any reversal of adjacent threads swaps the pattern columns left-to-right in those positions. Thread the heddles and sley the reed at the design sett. Weave with a plain weft matched to one of the background colors in the ikat pattern.

Weft ikat: measuring, registration, and the cartoon method

Weft ikat applies the resist-dyeing process to the weft threads rather than the warp. The warp is warped plain — a single consistent color at a dense sett. The weft carries the pattern, and the design appears as a band across the full width of the cloth.

The technical challenge that weft ikat introduces is registration: the length of each dyed weft thread must match the width of the warp exactly so that the pattern boundaries on the weft align with the correct positions across the warp when the weft is inserted. If the weft is wound too tightly for the sett, the pattern will compress horizontally in the cloth; if wound too loosely, the pattern will stretch. Weft ikat therefore requires measuring the weft against the actual warped width of the loom — not the measured warp width from the design, but the physical distance between the outermost warp threads at the loom's front beam.

Measuring weft ikat. Wind the weft in measured lengths of exactly (warped width in cm) × (number of weft picks in one pattern height unit) cm, using a stick or narrow board the exact width of the warped cloth as the winding guide. For a warp 40 cm wide with a pattern unit 12 picks high, wind each bundle to length 40 × 12 = 480 cm, then bind at the calculated positions. Keep all bundles the same measured length and the same wind tension throughout.

Binding weft ikat. The binding positions on the weft must correspond to the warp sett. For a warp at 8 ends per centimeter with a 5 cm pattern motif occupying positions from 15 cm to 20 cm from the left selvedge, the binding on the weft bundle must cover the section from (15 cm × 8 ends/cm = position 120) to (20 cm × 8 ends/cm = position 160) on each weft pick. Because the weft is wound in a bundle rather than a straight line, the binding position is measured as a distance from one end of the wound bundle, not from a mark on a table. The binding positions must be marked before winding.

The cartoon method for registration. Professional weft ikat weavers place a full-scale cartoon — a drawing of the complete pattern at 1:1 scale on paper or cloth — behind the warp as a reference guide. After inserting each weft pick, the weaver checks the visible weft pattern against the cartoon and adjusts beat pressure on the next pick to bring the weft into alignment. If the pattern is drifting to the left (short weft), the weft needs to be bubbled (arced slightly) more to give it extra length. If drifting to the right (long weft), the arc needs to be reduced. Making adjustments every 3–5 picks prevents the error from compounding — a pattern that drifts uncorrected for 20 picks can require re-weaving the entire section.

Weft ikat is typically woven at a weft-dominant sett: the EPI is set at 110–120% of the maximum sett for the yarn so that the weft covers the warp completely. The pattern is in the weft, so the warp must be invisible. Plain weave is standard for weft ikat; the warp threads serve only to hold the weft threads in place.

Double ikat: warp and weft both patterned, alignment at the crossing

Double ikat combines warp ikat and weft ikat in the same cloth. Both the warp threads and the weft threads are resist-dyed with patterns that are mathematically complementary: the pattern appears only when the dyed section of a specific warp thread and the dyed section of a specific weft pick intersect at the calculated crossing point. Where a dyed warp section crosses an undyed weft section, the warp color shows. Where an undyed warp section crosses a dyed weft section, the weft color shows. Where dyed warp and dyed weft cross, the combined color shows.

Double ikat is among the most technically demanding of all textile crafts. The historical examples — Indian Patola silk from Patan (Gujarat), Balinese Geringsing, Japanese Kasuri — are produced in weaving communities where the technique has been refined over generations into specialized equipment and notation systems. The Patola silk weaver works with thread bundles of 5–8 individual silk threads, binding positions calculated to a precision of approximately 1 mm on thread bundles 0.5 mm in diameter. A single Patola shawl can require 6 months to produce.

Design calculation for double ikat. In double ikat, the design grid must account for both warp thread count and weft pick count simultaneously. For a motif 4 cm × 4 cm at a balanced sett of 8 ends per cm and 8 picks per cm, the motif occupies a 32-thread × 32-pick grid. Each cell in the grid corresponds to exactly one warp thread crossing one weft pick. The binding positions on the warp threads must mark the specific 32-thread × 32-pick region, and the binding positions on the weft threads must mark the corresponding 32-pick band. The two systems must agree exactly. Any discrepancy — one thread off in the warp direction, one pick off in the weft direction — shifts the pattern and the motif fails to assemble at the crossing.

Sett for double ikat. Double ikat uses a balanced sett — equal EPI and PPI — because both warp and weft are patterned and must each be approximately half-visible. The balanced sett for a yarn is approximately (maximum sett / √2) or roughly 70% of the maximum tabby sett for that yarn. The warp color and weft color must be chosen carefully since the background color of the cloth is a blend of both: if the warp is undyed white and the weft is undyed white, the ground is white and the patterned sections appear as the dye colors; if the warp is blue and the weft is yellow, the ground is a blue-yellow blend that reads as green and the pattern areas appear as the overdyed combination.

Binding materials: edge sharpness and resist completeness

The binding material determines two things: how much dye seeps under the resist boundary (edge sharpness) and whether the resist is complete (no dye penetration within the bound zone). Different materials produce different results.

Plastic electrical tape (PVC, 6 mm wide). The sharpest, most complete resist available in non-traditional ikat. The plastic film is completely impermeable; dye cannot seep through the tape body. The tape must overlap its own boundary by at least 3 mm on each edge and must be wound with firm tension so it conforms tightly to the thread bundle. PVC tape is recommended when crisp, geometric motifs are required. The edge of the binding can be as sharp as 1–2 thread widths. Limitation: PVC tape does not adhere well to wet threads and must be applied to dry warp; it must also be removed after dyeing before the warp absorbs moisture again to prevent adhesive residue transfer.

Wax-coated thread or dental floss (0.4–0.6 mm diameter). Wind 10–15 tight wraps at each binding boundary, extending 3–5 mm past each edge. The wax coating fills inter-fiber gaps and reduces seepage. Edge sharpness: approximately 2–4 thread widths of blurring. Suitable for medium-complexity geometric designs and for protein fibers where the binding must survive heat (wax thread is stable at acid dye temperatures up to 85°C; PVC tape is not reliable above 75°C).

Natural raffia (3–5 mm wide strips). Traditional binding material for most historical ikat from Central Asia, West Africa, and Mesoamerica. Raffia is applied as strips torn to 3–5 mm width, wrapped 6–10 times around the bundle, and tied with a square knot. The raffia strip is slightly porous, so dye seeps under it by approximately 2–6 mm beyond the binding edge depending on how tightly it was wound. The resulting edge is the classic ikat blurry transition — soft and characteristic. For natural dye processes that require extended dye bath times and gentle handling, raffia is preferred because it stays bound through multiple baths, rinses, and redyeing cycles without adhesive failure.

Rubber bands. Not recommended for controlled ikat. Rubber bands produce a highly inconsistent edge because they stretch and allow dye to seep under them at any point where the band lifts away from the thread bundle. The edge blurring with rubber bands is 5–15 mm, producing a roughly defined transition rather than a calculated pattern boundary. The only context where rubber bands are appropriate is when a very soft, organic edge is the design intent.

Bundle size and edge interaction. Bundle size (number of threads per bound unit) interacts with binding material to control edge character. A fine bundle of 2 threads with PVC tape produces a nearly thread-perfect edge. A coarse bundle of 8 threads with raffia produces a zone of transition approximately (8 threads × thread diameter) + (6 mm raffia seepage) wide. Historical ikat typically uses bundles of 4–8 threads with raffia, which is why traditional ikat has the characteristic 3–8 mm blurry transition at every pattern edge — it is not imprecision, it is the physical consequence of the binding material and bundle size.

Dye chemistry: fiber-reactive, acid dye, and indigo vat

The dye chemistry for ikat is determined by the fiber. No single dye system works for all fibers, and the wrong dye chemistry produces no color take-up or no wash-fastness regardless of binding quality.

Fiber-reactive dyes for cellulose (cotton, linen, rayon, hemp). Fiber-reactive dyes (Procion MX or equivalent) form a covalent chemical bond with cellulose hydroxyl groups in the presence of a high-pH activating agent. The process for ikat: soak the bound warp in a soda ash bath (11 g/L sodium carbonate in warm water, pH ~11) for 20 minutes; remove and gently squeeze out excess solution without disturbing bindings; mix dye at 2–6% weight-of-fiber (WOF) for medium depth (e.g., for 100 g of warp, dissolve 2–6 g of dye powder in 300 mL warm water); pour the dye solution over the bound, soda-ash-soaked warp; batch at room temperature (20–25°C) for 24 hours, turning the bundle every 2–3 hours for even coverage of exposed sections; rinse first in cold water, then warm water, then hot water with a small amount of Synthrapol surfactant to remove unfixed dye. The fixed color is wash-fast and lightfast. Fiber-reactive dyes do not work on protein fibers — they have no mechanism to bond with wool or silk.

Acid dyes for protein fibers (wool, silk). Acid dyes require heat and an acidic mordant bath to bond with protein fibers. The process: prepare a mordant bath of 5 g/L citric acid (or 20 mL white vinegar per liter of water) in a large pot; bring the bound warp to 40°C in the mordant bath and hold for 10 minutes to pre-acidify the fiber; add the dissolved dye solution (2–4% WOF for medium depth) to the bath around the warp, not directly on it; raise temperature slowly — no more than 3°C per minute — to 85°C for wool or 75°C for silk; hold at temperature for 45–60 minutes; remove the warp and cool slowly by setting the pot aside without disturbing the fiber for 20–30 minutes; rinse from the bath temperature down to room temperature in stages to prevent felting (wool) or fiber stress (silk). Never plunge hot protein fiber into cold water. The acid dye bath should be exhausted (clear water) after a correct dye session — if the bath still shows strong color, the fiber did not absorb it, usually because pH was too high or temperature too low.

Indigo vat dyeing. Indigo is insoluble in water in its oxidized (blue) form. To dye with indigo, it must first be chemically reduced to its soluble yellow-green leucoindigo form, then the fiber absorbs the leucoindigo, and when removed from the vat and exposed to air, the leucoindigo oxidizes back to insoluble blue and becomes trapped inside the fiber. The standard sodium hydrosulfite (thiourea dioxide) vat: dissolve 2 g/L sodium hydrosulfite, 2 g/L soda ash, and 1 g/L indigo powder into hot water (50°C) and allow to sit undisturbed for 20 minutes until the surface shows a metallic purple-bronze sheen (vat is ready). Dip the bound ikat warp into the vat for 1–2 minutes; remove and allow to oxidize in air for 3–5 minutes — the thread will shift from yellow-green to blue as oxidation occurs. Re-dip and re-oxidize for 4–6 cycles for medium blue, 10–12 cycles for deep navy. Each dip adds approximately one shade step. Bindings must be maintained throughout all dip cycles; indigo vat ikat is traditionally produced over multiple days with the vat replenished between sessions. Indigo works on both cellulose and protein fibers without separate mordanting, though protein fibers take indigo somewhat faster than cellulose.

Sett calculations: showing warp, showing weft, or balanced

Sett for ikat differs from sett for structure-weave fabrics because ikat pattern visibility depends on how much each thread is exposed at the cloth surface. The three principal sett types for ikat are warp-dominant (warp ikat), weft-dominant (weft ikat), and balanced (double ikat).

Warp-dominant sett (warp ikat). The warp must be visible across the full surface of the cloth so the warp pattern reads clearly. The weft, plain and un-patterned, must be largely invisible. Warp-dominant sett is typically 50–65% of the maximum tabby sett for the yarn. For a cotton warp that can be sett at 20 EPI maximum for plain weave, warp-dominant ikat sett is 10–13 EPI. At this sett, each warp thread is separated from its neighbor by approximately its own diameter in open space, making each thread individually visible against the background of the weft. The weft beat-in at a warp-dominant sett should be firm to hold the warp in position but not so heavy that weft crowding pushes warp threads out of alignment — an important point for pattern registration because warp threads that drift laterally carry their dye pattern with them.

Weft-dominant sett (weft ikat). The weft must cover the warp completely, so the warp is invisible and only the weft pattern shows. Weft-dominant sett is 110–125% of the maximum tabby sett. For the same cotton warp at maximum 20 EPI, weft-dominant sett is 22–25 EPI. At this density, the warp threads are so close together that the weft cannot slip between them without significant beat force. The weft compresses against the previous pick and covers the warp entirely. The warp color is completely invisible in well-woven weft-dominant cloth.

Balanced sett (double ikat). Both warp and weft are approximately equally visible, so both contribute equally to the surface color at each crossing. Balanced sett is approximately 70% of the maximum tabby sett — roughly (maximum tabby sett) / √2 — because packing equal amounts of warp and weft into the same square centimeter requires reducing both from maximum. For cotton at 20 EPI maximum tabby, balanced double ikat sett is approximately 14 EPI. At balanced sett, a square weave is achieved: the number of picks per centimeter equals the number of ends per centimeter, and each thread is equally exposed in the finished cloth.

Multi-color sequence, overdye logic, and color palette constraints

Because ikat is a subtractive process — bindings prevent color from reaching covered sections, but cannot prevent previously applied colors from being present on those same sections — the dye sequence is constrained to start light and end dark.

Light-to-dark rule. Dye all sections that will contain any light color first, with bindings covering only those sections that should remain completely undyed (white or the natural fiber color). Then add bindings over the sections that should remain at the first light color, remove bindings from sections that should advance to the next color, and dye the next color. Each subsequent dye bath adds color on top of all colors previously absorbed at that section. The final color at any section is the visual sum of all dye applications at that position. Yellow + blue sequential dye applications = green; red + blue = purple; orange + blue = brown. Plan the multi-color sequence backward from the intended final colors: if the final design requires green, orange, and dark brown, the sequence might be: 1) dye yellow (sections that will remain yellow are bound for steps 2–3); 2) overdye with red to make orange on the yellow base (sections that should remain yellow or become orange are bound for step 3); 3) overdye with blue-black to make dark brown on the orange base.

Discharge and color correction. If a section absorbs too much of a light color in step 1, discharge chemistry (sodium hydrosulfite for fiber-reactive dyes on cotton, potassium permanganate for indigo) can partially remove the color from unbound sections. Discharge on bound sections should not be used — the binding prevents the discharge from reaching the covered sections, but handling the bound warp in the discharge bath can weaken the binding material, especially raffia. Plan for overdye rather than discharge wherever possible.

Ikat palette for Patreon documentation. Warm palettes (earth tones, saffron yellows, brick reds, chocolate browns) work well for sequential overdye because yellow-orange-red-brown is a natural chromatic sequence. Cool palettes (white-blue-navy using indigo, white-teal-blue using fiber-reactive turquoise and blue sequential baths) also work because the first dye application is extremely light and the subsequent steps are all darker. The most difficult palette for ikat is one that requires both warm and cool colors in the same piece without green (which appears wherever warm yellow and cool blue overlap) — achieving red, blue, and white simultaneously requires either physical separation of red sections from blue sections so they never share a dye bath position, or sequential application of blue followed by discharge followed by red on the relevant sections.

Documentation approach for Patreon: episodic structure for a multi-week process

Ikat is fundamentally a multi-session process: design takes one session, binding takes one to three sessions depending on complexity, each dye bath takes half a day plus cure time, and warping and weaving take additional sessions. For Patreon content creators, this spread across time is both a challenge and an asset.

Challenge: the pattern is invisible until the bindings come off. During the binding phase, the warp looks like a collection of tied thread bundles — there is no visual indication of the pattern. During the dye phase, the warp looks like a colored rope. The pattern first becomes visible during the reveal moment when bindings are removed and the warp is spread out — this is high-value content, but it only happens once per warp. Experienced ikat Patreon creators protect this reveal moment for paid subscribers: the binding and dyeing process is documented for free tiers (process transparency), and the reveal and first cloth off the loom is paywalled for paying supporters.

Episode structure for a single ikat warp. A natural 5-episode structure maps to the 5 phases: Episode 1 — design and calculation (grid paper, measuring, motif selection); Episode 2 — binding the warp (photographs of every bundle before and after binding, with captions noting the binding positions and expected color at each section); Episode 3 — dyeing sequence (photographs of each dye bath, the unbound warp between baths, color notes); Episode 4 — reveal and warping (the binding removal moment, the spread warp showing the pattern, the threading and sleying on the loom); Episode 5 — first cloth and wet finishing (the weaving, the cloth coming off the loom, the wet finishing that sets the yarn and evens the sett).

Batch multiple warps for series efficiency. Because setting up a dye studio is time-intensive, the most efficient Patreon content cadence is to prepare 2–3 ikat warps simultaneously — different colorways on the same motif, or different motifs in the same colorway — and dye all three in a single studio day. This produces content for 3 parallel series from one studio session. The reveal and weaving episodes are naturally staggered because each warp is loaded and woven in sequence, giving weekly content across 4–8 weeks from one day of preparation work.

Photographing the binding process. The most technically informative photographs for ikat documentation are: (1) the design grid next to the bound warp, showing the correspondence between the abstract pattern and the physical bundles; (2) close-up photographs of the binding material at the resist boundary, showing the wrapping technique and the overlap margin; (3) the warp before and after the first dye bath — both photographs taken in identical lighting with the warp stretched to the same length — so the viewer can see exactly what the binding prevented and what it allowed; (4) the cross-section of a bundle with bindings removed showing the clear dye penetration line at the resist edge. These four photograph types, captioned with the specific measurements (bundle size, binding overlap, dye concentration), provide the technical depth that distinguishes educational Patreon content from purely aesthetic documentation.

Apple Tax on ikat and fiber arts Patreon audiences from November 2026

On November 1, 2026 Apple begins applying its 30% in-app purchase fee to all subscription payments processed through Patreon's iOS app. This applies to new subscriptions, renewals, and tier changes made from an iPhone or iPad. Patreon does not absorb the fee — it passes the full 30% through as a deduction from the creator's revenue on every iOS-originated transaction. The percentage of a creator's audience that pays via iOS determines the actual monthly dollar loss.

Fiber arts and textile craft audiences are among the most iOS-heavy of all craft categories, because the platforms where ikat and dyeing content performs best — Instagram Reels and Pinterest — have iOS device usage rates substantially above average. Instagram ikat, natural dyeing, fiber arts, and textile accounts show 72–86% iOS among users who complete Patreon subscription flows; Pinterest craft dyeing, weaving, and textile boards show 76–89% iOS; YouTube fiber arts and craft dyeing tutorial channels show 60–75% iOS; Facebook weaving and dyeing groups show 55–68% iOS.

At a blended iOS rate of 74% for a creator drawing primarily from Instagram and Pinterest, the Apple Tax deductions are:

At a higher iOS rate of 80% (typical for Pinterest-primary ikat accounts), the same income levels produce losses of $24/month, $48/month, and $105/month respectively. The Apple Tax is not capped — it scales linearly with iOS subscriber count and income.

Web-only billing sidesteps the fee. When a subscriber visits Patreon's website directly (not through the iOS app) and completes the payment flow there, Apple's IAP system is not involved and the 30% deduction does not apply. Creators using KeepTier operate entirely on a web-only subscription page — there is no iOS app, so every subscription and renewal is a web transaction outside Apple's reach. The calculation of your specific monthly exposure is two inputs — your current Patreon revenue and your estimated iOS percentage — and takes under a minute at the KeepTier calculator.

Frequently asked questions about ikat dyeing and weaving for Patreon creators

What is ikat structurally, and how does the pattern form at the crossing of warp and weft threads?

Ikat is a resist-dyeing technique where yarn is dyed before weaving, with resist material bound tightly around thread bundles at calculated positions along the yarn length. The bound portions resist dye penetration and remain undyed or retain a previous color, while the exposed sections absorb the dye bath. In warp ikat, the warp threads carry the full pattern and the weft is a plain un-patterned color; in weft ikat, the weft carries the pattern and the warp is a single plain color; in double ikat, both warp and weft are patterned so the full motif only appears when a patterned warp thread and a patterned weft thread cross at the correct calculated intersection. The characteristic blurry edge called abrash arises because individual threads shift slightly during dyeing and weaving, and the boundary between dyed and undyed sections blurs across approximately 3–8 thread widths — this is the defining visual signature of hand-dyed ikat, distinguishing it from printed imitation.

What is the step-by-step process for warp ikat, from designing the pattern to warping the loom?

Warp ikat follows a fixed sequence: design the motif on grid paper with one column per warp thread and one row per length unit equal to the pattern repeat; measure the warp on a warping board to the calculated length maintaining the thread cross; mark every binding boundary position using removable tape or chalk; divide the warp into bundles of 2–4 threads corresponding to motif columns and bind each bundle at the boundary positions with resist material extending 3–5 mm past each edge; dye in sequence from lightest to darkest color, re-binding and un-binding between each bath; rinse, un-bind, and dry completely before loading onto the loom; wind the dyed warp onto the warp beam maintaining the exact thread order from the warping cross; thread heddles and sley the reed at the design sett; and weave with a plain un-patterned weft matched to one of the background colors.

What makes weft ikat different from warp ikat at the loom, and why is shuttle registration challenging?

In weft ikat the warp is plain and the weft threads carry the pattern, which means pattern registration depends on every weft pick being beaten with consistent force and landing in the correct position across the warp width. The weft must be wound to lengths exactly matching the physical warped width of the loom — any deviation compresses or stretches the pattern horizontally. Registration is maintained at the loom using a full-scale cartoon (a 1:1 drawing of the intended pattern placed behind the warp), checked after every 3–5 picks and corrected by adjusting arc (bubbling) in the next pick. Weft ikat is woven at a weft-dominant sett — typically 110–125% of the maximum tabby sett — so the weft completely covers the warp and the full pattern reads without warp color interference.

What binding materials produce sharp ikat edges versus soft blurry edges, and which dye chemistry works for cotton, wool, and silk?

Plastic electrical tape gives the sharpest edge (1–2 thread widths of blurring) because the film is completely impermeable; wax-coated thread or dental floss with 10–15 tight wraps gives a moderately sharp edge (2–4 thread widths); natural raffia gives the classic ikat blurry edge (3–8 mm transition) due to porosity — traditional ikat uses raffia specifically for this soft aesthetic. For cotton, linen, and rayon: fiber-reactive dye (Procion MX) with soda ash pre-soak at pH 11, batched 24 hours at room temperature. For wool and silk: acid dye with citric acid mordant bath at pH 4–5, heat-set at 85°C for wool or 75°C for silk. For indigo on any fiber: sodium hydrosulfite vat, 1–2 minute dips with 3–5 minute air oxidation between dips, 4–6 dips for mid-blue, 10–12 dips for deep navy.

What is the Apple Tax on ikat and fiber arts Patreon audiences from November 2026, and what are the actual monthly amounts at typical creator income levels?

Instagram ikat, natural dyeing, and fiber arts accounts run 72–86% iOS audiences; Pinterest craft dyeing, weaving, and textile boards run 76–89% iOS; YouTube fiber arts and craft dyeing tutorials run 60–75% iOS; Facebook weaving and dyeing groups run 55–68% iOS. Apple Tax deductions on Patreon iOS subscriptions from November 1, 2026: at $100/month with 74% iOS, $22.20/month ($266.40/year); at $200/month with 77% iOS, $46.20/month ($554.40/year); at $350/month with 80% iOS, $84/month ($1,008/year). Web-only billing at Patreon or moving to KeepTier's web-only subscription page prevents these deductions by keeping all transactions outside Apple's in-app purchase system.

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