Explainers · 2026-06-25 · ~4,200 words

Patreon for weaving creators: complete 2026 guide — draft documentation mechanics, tapestry cartoon development, selvedge management, and the Apple Tax

Weaving Patreons retain when they deliver the decision layer beneath the draft: the threading rationale that produces understanding rather than a sequence to follow, the tapestry cartoon development process that makes structural constraints visible for the first time, and the selvedge management documentation that turns color-interlocking areas from a source of accumulated error into a diagnosable system. Weaving audiences have below-average iOS rates due to active-reference consumption, but the Apple Tax dollar amounts at these patron levels are still meaningful and November 1, 2026 requires action before the deadline.

Draft documentation: the decision layer that distinguishes a framework from a recipe

A weaving draft — the threading sequence, tie-up, and treadling order — is available in hundreds of published sources. What is not available in published sources, and what constitutes the exclusive value of a weaving creator's Patreon, is the decision documentation: why this threading sequence for this structure and this yarn, how the tie-up was designed to produce the specific intersection behavior, and what treadling variations the creator tested and what each would produce.

A patron who has access to the draft notation has a recipe. A patron who has the draft notation plus the decision documentation behind each element has a framework for designing their own drafts — the difference between following and understanding.

Threading sequence rationale

The threading sequence specifies which warp thread goes through which heddle shaft. For a given weave structure, there are often multiple threading options that produce superficially similar draft notation but structurally different cloth. The decision documentation for the threading sequence covers: which structure was chosen and why for this yarn and intended fabric hand (a 4-shaft twill threads differently than an 8-shaft networked twill on the same yarn, and the choice has consequences for the visual texture, drape, and sett at which the cloth balances); what threading variations the creator considered and why the chosen sequence was selected over alternatives; and what the threading sequence means for what the cloth can and cannot do — some threading sequences support treadling variations that produce fundamentally different surface patterns; others are constrainted to one family of patterns by the threading logic.

For network drafts: the threading interval and block width determine the size and character of the network pattern — a creator who documents the relationship between the interval chosen and the visual scale of the networked pattern at the finished cloth's dimensions gives patrons the ability to design threading intervals for their own projects rather than copying the creator's interval without understanding it. For overshot: the block sequence and the relationship between threading blocks and tie-up options is not obvious from the draft notation, and the creator who documents why the block sequence produces the pattern behavior it does in the finished cloth — and what a different block sequence would change — gives patrons a design vocabulary. For plain weave with supplementary weft: which threads were threaded on reserved shafts for the supplementary weft pickup and why those threads specifically, what pickup sequences the creator uses and what each produces.

Tie-up documentation: design logic for intersection behavior

The tie-up specifies which treadles connect to which shafts. For floor loom weavers, the tie-up is a physical configuration of the loom; for jack looms, it determines which shafts rise together on each treadle. The visual pattern of the woven cloth emerges from the intersection of the threading sequence and the tie-up — the same threading produces different surface patterns with different tie-ups.

Tie-up documentation that produces patron value: the design goal the tie-up was built to achieve (producing a specific twill angle, creating a specific pattern of color intersection in a double weave, achieving the long floats of a huck lace structure without shaft limitations); what alternative tie-ups were considered and what each would produce on the same threading (a rosepath tie-up versus a straight tie-up versus a pointed tie-up on the same overshot threading each produce different pattern relationships, and the creator who shows this variation space gives patrons a design tool rather than a finished product); and what the tie-up means for treadling options — some tie-up configurations support a wide range of treadling variations and the resulting pattern families; others produce a single pattern regardless of how the treadles are ordered.

The practical test for documentation quality: can a patron who has read the tie-up documentation design a modified tie-up for a different project goal on the same threading? If yes, the documentation has transferred understanding. If no — if the patron knows only what the creator did and not why — the documentation has transferred only the recipe.

Treadling sequence and variation effects

The treadling sequence is typically the most accessible variable for patrons to modify — changing the order in which treadles are depressed changes the pattern without requiring re-threading or re-tying the tie-up. But the effects of treadling variations on the visual and structural result are not obvious from the draft notation, and documentation of the variation space is what converts a single draft into an expandable design framework.

Treadling variation documentation covers: the advancing versus retreating treadling distinction (advancing treadling follows the tie-up sequence in order; retreating treadling reverses partway through, producing a mirrored pattern) and the visual result of each; the effect of changing the number of picks per treadle on the proportion of the pattern units (a pattern unit that is square when woven one pick per treadle becomes elongated when woven two picks per treadle and compressed when the warp sett is adjusted relative to the treadling); the possibilities for blended treadlings that combine elements of two different sequences within the same piece (documented as: what was combined, at what pick intervals the transitions occurred, and what the visual result of the blend was).

A creator who documents treadling variations across multiple projects builds a visual vocabulary for patrons that functions like a structured exercise — the patron can see the same threading in ten different treadling contexts and develop an understanding of what the threading is capable of producing. This is qualitatively different from a book of drafts, where each draft appears once and the variation space is left for the weaver to discover independently.

Tapestry cartoon development: structural constraints from image to woven cloth

Tapestry cartoon development is the stage where the compositional and structural decisions that determine what the finished tapestry will look like are made — and it is the stage that is almost entirely invisible in process videos. The creator who documents cartoon development gives patrons access to the decision architecture that makes representational weaving possible rather than improvisational.

Scaling method and resolution constraints

The first decision in tapestry cartoon development is how to scale the source image to the loom dimensions. The scaling is not just a size adjustment: it determines the structural resolution limit of the finished piece, which constrains what level of detail the tapestry can render.

The resolution constraint is determined by the warp sett. At 8 epi (ends per inch), each horizontal inch of the tapestry contains 8 warp threads. A diagonal line at 45 degrees must step one warp and one weft at a time — at 8 epi with a 1:1 warp-to-weft ratio (where the weft cover equals the warp sett), each step is 1/8 inch horizontally and 1/8 inch vertically, and a 1-inch diagonal line consists of 8 steps each 1/8 inch in both dimensions. An image with fine diagonal details that appear smooth at screen resolution will render as visible steps in the woven cloth at this sett, and the cartoon development process involves determining which details are above the resolution limit (reproducible cleanly) and which require simplification.

The scaling documentation covers: the source image dimensions and the target loom dimensions (loom width in inches, maximum height in picks), the scaling ratio applied and what it does to the structural resolution limit, and the examination at actual loom scale that preceded the cartoon finalization — printed at actual width, projected onto the warping area, or gridded at the warp sett to show where the structural steps will land relative to the image's lines. This examination step is what allows the creator to catch resolution problems before warping, not after weaving 12 inches.

Structural simplifications for technique constraints

After scaling, the cartoon development identifies areas where the source image requires compositional adjustment to work within the structural constraints of tapestry weaving. The structural constraints are not failures of the technique — they are properties of the weave structure that produce the characteristic tapestry aesthetic, and working within them rather than against them is the technical skill that distinguishes experienced tapestry weavers.

The constraints that most commonly require cartoon adjustments: diagonal resolution (as above — fine diagonals must be simplified to step angles the sett can resolve); curve representation (smooth curves require a minimum number of steps in the warp direction to look smooth rather than jagged — an 8-epi tapestry requires approximately 8 steps per 1-inch radius of curve to render a smooth arc, and tighter curves must be adjusted or simplified); fine text and typographic elements (letterforms below a certain scale cannot be rendered clearly at any tapestry sett because the negative spaces in counters — the enclosed areas in letters like O, B, P — close up when the minimum structural element is larger than the counter opening); and color transition gradients (smooth value gradients require multiple intermediate tones that each occupy enough of the warp width to be woven, and very narrow gradient steps may be technically possible but create weft management problems at the selvedge).

Documentation at this stage: for each simplification made, what was changed and what structural constraint drove the change. "The original source image had a gradual horizon line with a gentle S-curve. At 10 epi over a 30-inch warp, the S-curve would require the horizon to change by one warp at each of approximately 40 picks across the 30-inch width — technically achievable, but the cartoon adjustment concentrated the curve into the central 10 inches of the width and straightened the flanking sections, which simplified the weft management at the selvedge for the adjacent color areas."

Color selection documentation at the specific yarn level

Color selection for tapestry is a decision that cannot be made from looking at colors in isolation — colors in tapestry interact with each other at their boundaries in ways that depend on the specific yarn's sheen, value, and hue, and the same color combination that reads as harmonious in a sample may read as discordant at full warp width where the colors meet over many picks.

The documentation covers: which specific yarns from which supplier were chosen for each color area (supplier, product line, colorway name or number — not a description like "warm terracotta" but the actual product identifier that makes the result reproducible); how the colors were tested together before warping (small samples woven on a test warp or a frame at the working sett, photographed at the same light conditions as the source image for comparison); what the samples showed that changed the initial color plan (a yarn that appeared lighter in the skein was darker at the sett; two adjacent colors that read as distinct values in good lighting became too similar under warm light; a color that appeared warm in isolation read as cool next to its adjacent neighbor); and which color compromises were made relative to the original source and why those specific compromises were acceptable rather than which would have undermined the compositional intent.

The patron value of this documentation: the color result in the finished tapestry is never fully recoverable from the image alone — understanding which yarn in which position produced which visual result requires the specific product-level information. A patron who wants to reproduce a similar color palette has the starting point for their own yarn selection; a patron who wants to understand color interaction in tapestry has a documented case study of what changed between initial plan and final palette and why.

Selvedge management in heavy color-interlocking areas

Selvedge management in color-interlocking tapestry is the technical skill that most differentiates experienced tapestry weavers from intermediate practitioners, and it is almost never shown clearly in process videos because the relevant decisions happen at the selvedge edge in the space of two or three picks and are compressed or excluded from the edited process footage.

Weft angle at the selvedge: the bubble calculation for section widths

In a single-color pick across the full warp width, the weaver bubbles the weft — arcs it upward in the shed before beating — to ensure there is enough weft length to travel over and under each warp thread without pulling the selvedge threads inward. The standard guidance is to bubble the weft to approximately 30% of the warp width over the width of the shed, which ensures adequate weft length for the path the weft must travel at the interlacement.

In a color-interlocking area, each weft color covers only a portion of the total warp width. A weft color covering 6 inches of a 24-inch warp must still bubble sufficiently to cover the path its threads travel — but a weft covering 6 inches does not need the same absolute bubble height as one covering 24 inches. The percentage relationship holds approximately: the weft covering 6 inches should bubble to approximately 30% of 6 inches, not 30% of 24 inches. This distinction matters because weavers who learn bubbling on full-width picks often overbubble narrow color sections (creating loose weft that beats unevenly) or underbubble (pulling the selvedge inward in the narrow section).

The documentation: for each project, the creator states the bubble depth used for color sections of different widths, and what the beat produced — did the section weave to the same pick height as adjacent sections, indicating correct bubble depth, or did it produce a high or low pick indicating over- or under-bubble. A table of observed bubble depths and outcomes at a given sett serves patrons as a starting calibration for their own work.

Draw-in accumulation mechanics

Draw-in in color-interlocking areas accumulates from two sources that compound over many picks: weft bubble errors (under-bubbling creates direct tension on the selvedge threads), and interlock point tension (where two weft colors interlock at an interior point, the joining action creates a small lateral tension on the adjacent warp threads).

At a single interlock point on a single pick, the tension effect is small and recovers within a few picks if the weft bubble is correct. Over 40 or 50 picks in the same interlock position, the cumulative tension from each interlock event can narrow the weaving by 1/4 to 1/2 inch at the interlock location — a structural problem that is difficult to correct after the fact and visible in the finished piece as a narrowing or pinching at the color boundary.

The monitoring protocol: holding a ruler against the selvedge every 10–15 picks and confirming that the warp width at the interlocking zone matches the full warp width. This is a 10-second check that catches draw-in before it accumulates into a structural problem. The correction protocol when early draw-in appears: loosening the bubble specifically in the color sections adjacent to the interlock point, not across the full width, and observing whether the draw-in stabilizes or continues over the next 5–10 picks. Documentation of where draw-in appeared in a specific tapestry, what caused it (identified from the monitoring record), and how it was corrected gives patrons a diagnostic framework applicable to their own work.

Beat consistency across color transitions

The pick height in tapestry — how much vertical space each individual pick occupies in the woven cloth — depends on weft diameter, beat force, and the number of warp threads the weft travels over. When a pick changes color at an interior point, the weft to the left of the color join and the weft to the right of the color join are beaten simultaneously by the same beater stroke, but they cover different warp thread counts. If the beat force is calibrated for the wider section, the narrower section will receive an equivalent absolute beat force on fewer threads, resulting in a proportionally harder beat and a shorter pick height in the narrower section.

The visual consequence is the characteristic stepped edge at color boundaries that indicates different pick heights on either side — the color boundary appears as a zigzag rather than a clean diagonal or smooth curve, because the picks on one side of the boundary are shorter (harder beat) than the picks on the other side (softer beat on more threads). This problem is most visible when one color area is significantly narrower than the adjacent color area, and when the weft yarns on each side are similar in diameter.

The beat adjustment: some weavers use a separate beater stroke for narrow color sections, applying a lighter stroke to account for the fewer warp threads. Others use the same stroke and compensate with bubble depth — slightly increasing the bubble in the narrower section so the interlacement path is longer and the weft takes more space despite the same beat force. Documentation of which method the creator uses, in what configuration of color section widths, and what the beat calibration produces in the pick height at both sides of the boundary gives patrons a practical framework for their own calibration.

Apple Tax for weaving creator audiences

Weaving creator iOS rates are lower than most fiber arts categories. The structural reason is content consumption mode: weaving technique content is consumed disproportionately in active-reference mode — patrons watching at the loom are more likely to use a propped tablet or monitor than to hold a phone. YouTube floor loom and structure content: 45–55% iOS. YouTube rigid heddle and beginner weaving: 55–65% iOS. YouTube tapestry weaving: 50–60% iOS. Instagram fiber and weaving accounts: 70–80% iOS. Weaving podcasts: 65–75% iOS.

The important caveat for iOS rate calculations: the iOS rate for Patreon billing purposes counts how many existing subscriptions are processed through Apple IAP, which is determined by how the patron discovered and subscribed — not how they later consume content. A patron who discovers the Patreon page on Instagram (70–80% iOS) and subscribes on iOS in the moment of discovery generates an iOS-billed subscription even if they consume all content on a desktop monitor at the loom. The platform distribution of the creator's audience is therefore a reasonable proxy for iOS billing exposure, but creators with strong Instagram presence will have higher effective iOS billing rates than the YouTube-only numbers suggest.

In dollar terms at November 1, 2026 rates: a floor loom weaving educator at $400/month with 50% iOS faces approximately $60/month ($720/year) in Apple fees. At $500/month with 55% iOS: approximately $82.50/month ($990/year). A tapestry artist at $350/month with 55% iOS: approximately $57.75/month ($693/year). A rigid heddle educator at $600/month with 60% iOS: approximately $108/month ($1,296/year). Even at the below-average iOS rates that are typical for weaving, the dollar amounts compound significantly at eighteen to twenty-four months.

Action before October 31, 2026: enable Patreon's web-only billing toggle. Update YouTube channel descriptions and Instagram bios to link directly to the Patreon web URL rather than the iOS app link. Update pinned posts in any Discord server to direct new patrons to the web subscription URL. The patron who arrives at the Patreon website on an iPhone and subscribes there does not generate an iOS-billed subscription — the billing path determines the Apple Tax exposure, not the device. Verify the full subscription flow from an iOS device before November 1 to confirm that no iOS billing dialog appears and that the web subscription completes cleanly through Stripe.


KeepTier is a self-hosted membership page for creators who want 100% of their tier revenue and zero Apple tax. Plans start at $9/month.