SEO guides · 2026-07-17

Patreon for kumihimo creators: braid structure notation, thread and fiber documentation, spool weight, and the Apple Tax in 2026

Kumihimo Patreons retain when they document the layer below the marudai footage: move sequence notation at the starting-position level so patrons can reproduce any braid structure without guessing; thread specification by Tex count or momme with twist direction documented so patrons understand why their surface character differs from the creator’s; and spool weight in grams so the tension that produced a specific braid tightness can be replicated. Kumihimo audiences are TikTok and Instagram-primary with high iOS rates — Apple Tax exposure begins November 1, 2026.

What kumihimo documentation retains Patreon subscribers?

Kumihimo is the Japanese technique of braiding multiple threads using a marudai (a wooden round stand with a central hole, used for round and flat braids) or a takadai (a flat stand used for flat and patterned braids), with weighted bobbins called tama hanging from the strand positions. The braid structure is determined entirely by four variables: the number of threads (bobbins), their starting positions, the move sequence, and the spool weight. A critical point for Patreon documentation is that the same number of threads with a different move sequence produces a completely different braid structure — a Kongo-gumi and an Edo-yatsu are both 8-strand braids, but they are not interchangeable and a subscriber cannot derive one from the other through video observation alone.

Braid structure documentation is the core retention deliverable. The named braid structures that kumihimo creators most frequently teach on Patreon include: Kongo-gumi, the 8-strand round braid with a diagonal crossing structure and the most common starting point for marudai learners; Edo-yatsu, an 8-strand flat braid with a different crossing sequence from Kongo-gumi that produces a rectangular cross-section; Naiki-gumi, a 16-strand braid that introduces more complex passing sequences and a greater range of surface patterns; Keiraku-gumi, a 24-strand braid producing the most complex surface patterns; and Asa-no-ha, a diagonal float pattern on the marudai that requires spool position tracking notation because strands float across multiple positions before being secured. Without written notation and sequential overhead photographs of the marudai at each step, Asa-no-ha cannot be reproduced from video footage alone. This documentation gap is precisely what creates Patreon subscriber demand.

Move sequence notation for each braid is the deliverable that converts a YouTube subscriber into a Patreon patron. Kongo-gumi notation: label the 8 starting positions 1–8 clockwise from the top of the marudai. Document each step as a specific move: “strand at position 1 moves to position 5, crossing in front of strand at position 2; strand at position 5 moves to position 1.” Provide a top-down diagram of the marudai at each step, with each strand position labeled by number and the moved strands highlighted. After 4 steps, the full Kongo-gumi move sequence repeats; document the full repeat, not just the first step, so patrons can verify their position tracking at the end of each cycle. For Edo-yatsu, document the entire crossing sequence explicitly, including the crossing direction at each step (left over right vs right over left), because Kongo-gumi and Edo-yatsu use overlapping positions and a patron who conflates the two crossing sequences will produce a hybrid structure that is structurally incorrect.

Starting position documentation is distinct from the move sequence: it is the specific strand arrangement at setup before the first move is made. Document the starting position as a labeled overhead diagram showing which strand occupies which position. For color-pattern braids, include a color assignment table: strand 1 = color A, strand 2 = color B, and so on, separate from the position diagram, so patrons can substitute colors while maintaining the structural layout. Thread count per strand is the second variable in starting position documentation: 8 strands with 1 thread per bobbin produces a fine, lightweight braid; 8 strands with 4 threads per bobbin produces a thick cord with the same surface structure. Document strand count and threads-per-strand as separate values: “8 bobbins, 2 threads of 16/2 silk per bobbin.”

Thread, fiber, and finishing documentation

Thread specification for kumihimo Patreon content requires two measurement systems because the kumihimo tradition spans both Japanese silk thread (measured in momme) and modern synthetic thread (measured in Tex or denier). Momme is a traditional Japanese unit: 1 momme equals 3.75 g per 9.09 mm width per meter of thread length. Warp silk for kumihimo is typically designated 16/2 (16 denier, 2-ply, producing a fine, smooth thread appropriate for detailed surface patterns) or 8/2 for coarser work. Tex is the mass in grams per 1,000 m of thread; it is the most unambiguous weight measure across thread types and manufacturers, and a Tex specification allows patrons to find equivalent threads from different suppliers. Include both the traditional designation (16/2 silk, or perle cotton #5) and the Tex value where possible, since conversion is not always straightforward across fiber types.

Cotton substitutes for silk are common among beginning kumihimo practitioners: perle cotton #3 (approximately 250–275 Tex, the heaviest) corresponds to 8/2 silk in scale; perle cotton #5 (approximately 140–160 Tex) corresponds to 16/2 silk; perle cotton #8 (approximately 70–85 Tex) is finer than most silk warp and produces a very delicate braid. Document the perle cotton number alongside the Tex value so patrons can select the correct weight for the pricking or marudai setup used in the pattern.

Thread twist direction is the documentation variable most frequently omitted from kumihimo tutorials and most consequential for surface character. Silk and cotton thread for kumihimo is spun in either S-twist (fiber spun in the direction of the diagonal of the letter S when held vertically) or Z-twist (fiber spun in the direction of the Z diagonal). The interaction between thread twist direction and braid twist direction determines the surface character of the finished braid. S-twist thread worked in a Z-twist braid (such as standard Kongo-gumi, which imparts a right-hand helical twist to the surface strands) counter-rotates against the thread spin: the braid’s twisting motion untwists the individual thread fibers, causing the surface of the braid to appear fluffy, with individual fiber ends protruding. Z-twist thread worked in a Z-twist braid adds twist to the thread fiber, making each strand compact and tightly twisted on the braid surface — the strands appear well-defined and the surface has a slight sheen from the compacted fiber. Document the twist direction for every thread used in a pattern because patrons who substitute a thread without matching the twist direction will produce a braid with a visibly different surface character, even if the strand count, thread weight, and move sequence are otherwise identical.

Spool weight on the marudai tama determines braid tension and, consequently, braid tightness, diameter, and surface character. The standard spool weight range for S-twist silk warp thread (16/2) on a marudai in a standard 8-strand Kongo-gumi setup is 30–50 g per tama. Heavier tama produce more tension: the braid is tighter, the diameter is smaller, and the surface structure is more defined. Lighter tama produce a looser, softer braid with a slightly larger diameter. Document the tama weight in grams for each project run alongside the fiber type and strand count. Calibrate against a test braid: load the tama at the documented weight, braid a 5 cm test section, measure the finished diameter with calipers, and record the diameter alongside the tama weight in the project documentation. Patrons who calibrate their own tama against this measured reference can replicate the braid tightness even if their tama differ from the creator’s.

Metallic thread introduces a documentation variable not present in fiber braids: metallic thread does not compress or flex like spun fiber, and the braid pattern must account for the thread’s non-elastic behavior. A metallic thread that is nominally the same Tex weight as a silk thread will behave differently in the crossing sequence because metallic threads are typically wrapped around a core fiber (nylon or polyester) and the outer metal wrap does not absorb the deformation of the crossing move the way spun fiber does. Document whether metallic thread is used in a pattern, the specific product (including the core fiber type and wrapping material), and any modifications to the spool weight or crossing sequence required to produce acceptable tension with the metallic thread.

Finishing methods for kumihimo braid ends depend on the intended application of the finished braid. End stabilization for obi cord (the traditional application of kumihimo braid as a sash fastener): thread wrapping with a matching silk thread for 1–2 cm at each end, followed by hand-stitching the braid to a saya (sheath) lining using a running stitch in matching thread. End stabilization for jewelry applications: a half-inch of braid is inserted into a metal end cap and secured with jeweler’s adhesive or by crimping, with the thread ends trimmed flush inside the cap. Synthetic braid finished with heat sealing (for nylon or polyester thread): hold the braid end 1–2 cm from a flame source until the fibers fuse together; this is appropriate only for fully synthetic thread and will damage silk, cotton, or metallic thread. Cyanoacrylate adhesive (superglue) applied to the end of the braid for 5–8 mm before trimming works for mixed-fiber braids where heat sealing is not appropriate. Document the finishing method, adhesive product, and any curing time alongside the fiber specification for each pattern.

Apple Tax for kumihimo creator audiences

Kumihimo audiences are concentrated on platforms with above-average iOS rates. YouTube kumihimo tutorials and pattern demonstrations: 60–72% iOS — tutorial content attracts a proportion of desktop viewers (particularly those using the video as a reference while braiding at a desk), but the majority are still mobile. Instagram braiding and textile art photography: 70–82% iOS — finished braid and jewelry photography performs in visual discovery feeds dominated by iOS users. TikTok fiber arts process content: 72–82% iOS — time-lapse disk moves and braid close-ups perform in recommendation and reach a heavily iOS audience.

Apple Tax at the November 1, 2026 rate: at $150/month with 60% iOS: approximately $27/month ($324/year). At $250/month with 65% iOS: approximately $48.75/month ($585/year). Instagram-primary creator at $350/month with 72% iOS: approximately $75.60/month ($907.20/year). Enable Patreon’s web-only billing toggle before October 31, 2026, update all social bio links to the Patreon web URL, and verify with a test Safari subscription from iPhone.

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


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