1. Even-count versus odd-count peyote: the turn sequence
Peyote stitch is a bead-weaving structure in which beads are added one at a time in a zigzag thread path, with each new bead dropping into the gap between two beads of the prior row. The thread passes through the bead holes of the prior row rather than looping under the thread between them, which is what distinguishes peyote from brick stitch mechanically.
The most important structural distinction in flat peyote is between even-count and odd-count versions, and it hinges on what happens at the turn at the end of each row.
In even-count peyote, the total bead count in the first two setup rows is an even number. At the end of each row, the last new bead placed causes the needle to exit that bead pointing directly toward the starting position of the next row, with a prior-row “up” bead already sitting in the first gap of the new row. The turn is automatic: pick up the next bead, pass through the first up-bead from the prior row, and continue. No special maneuver is required. This is why beginner peyote patterns almost always specify even-count: the turn is invisible in the instructions because it requires no extra step.
In odd-count peyote, the total bead count in the first two setup rows is an odd number. Odd-count is required when the design is symmetric and centered on a single bead rather than on a gap between two beads — which means any pattern with a single central column of a specific bead type (a center stripe, a centered motif, a single spine element) requires odd-count. The problem: at the end of every other row, the needle exits the last placed bead pointing away from the starting position of the next row. There is no adjacent up-bead to pass through on the correct side. Simply picking up the next bead and proceeding is not possible without first repositioning the needle.
The odd-count turn repositions the needle by passing it back through the last several beads of the existing work in a specific sequence before emerging on the correct side to place the first bead of the new row. The most commonly taught version: after placing the last bead of the problem row, the needle passes through the next-to-last bead of that row (entering from the side you just came from), then passes through the end bead of the prior row (the one just below), then passes through the last bead of the first setup row (the original bottom row), turns, and exits on the correct side. This path is described as a figure-8 through the bottom-corner beads of the existing work.
The exact beads included in the turn path vary by pattern writer, with some versions adding one more pass and others fewer. What matters structurally is that the needle emerges pointing in the correct direction without creating a visible thread loop at the turn edge. The consistent beginner error is missing one pass in the turn sequence, causing the needle to emerge in the wrong direction, or reversing the entry direction at one of the beads in the turn path. Either error produces a visible gap or thread loop at the turn edge that catches on other beads and is structurally weaker than the correctly executed turn.
For Patreon tutorial content, odd-count peyote patterns require demonstrating the turn in video at a bead-by-bead pace rather than a row-by-row pace, because the turn path is not visible in finished photographs and is extremely difficult to reconstruct from still images alone. Naming which beads are included in the turn path (by position from the end of the row, not by bead color or pattern position) makes the instruction robust against variations in subscriber pattern size and bead color choices.
2. Tubular peyote: circumference calculation and the mandatory step-up
Tubular peyote is flat even-count peyote worked in the round on a core (a pen, a dowel, a mandrel) rather than flat. The starting ring of beads determines the tube’s circumference, and the total bead count in the starting ring must be an even number for the stitch to work correctly.
Circumference calculation: decide on the target tube diameter in inches. Multiply by π (3.14159) to get the circumference in inches. Multiply the circumference in inches by the beads-per-inch in the column direction for your specific bead type, measured from a finished swatch rather than calculated from nominal dimensions. For Miyuki 11/0 Delica in peyote, this is typically 18 to 19 beads per inch (the horizontal direction of the bead, which is the shorter dimension of the cylinder); for Toho 11/0 round in peyote, approximately 16 to 17 beads per inch due to the rounder profile. Round the result to the nearest even number.
Example for a 1cm diameter tube: 1cm = 0.39 inches; 0.39 × π = 1.23 inches circumference; 1.23 × 18.5 = 22.7 beads; round to 22 (the nearest even number). A 22-bead starting ring produces a tube with 11 “up” beads alternating per round in peyote, which means 11 “columns” of beads spiraling around the tube.
The step-up is the mandatory pass at the end of each round. After placing the last bead of a round, the needle does not immediately begin the next round. Instead, it passes forward through the first bead placed in that same round (the bead that started the round you just completed), without picking up a new bead. Only after this pass through the first bead of the round does the needle pick up the first bead of the next round.
The step-up repositions the needle to the correct height offset for the new round and keeps the alternating “up” bead positions aligned with the previous round’s gaps. Without the step-up, the needle starts the new round from a position that is one bead too late in the spiral, producing a visible diagonal step in the pattern at the point where the round “lapped” and a row of beads that are all slightly too low or too high relative to their neighbors. The misalignment propagates through all subsequent rounds and produces a fabric that is technically complete but visually distorted at the step-over line.
The step-up is easy to forget because it produces no visible bead — it feels like an unnecessary extra pass. A useful physical reminder: at the end of each round, before picking up the first bead of the new round, press one finger against the tube surface at the last bead placed and explicitly feel for the step-up pass to the adjacent bead before proceeding.
3. Brick stitch: the foundation row and the bridge-loop mechanics
Brick stitch produces fabric with the same visual offset pattern as peyote — each bead is offset half a bead width from the bead above and below it, like bricks in a wall — but the thread path is structurally different. In peyote, the thread passes through bead holes to attach new beads; in brick stitch, the thread loops under the exposed thread bridges between beads in the prior row to attach new beads. This difference in attachment mechanics produces different fabric properties.
The foundation row of brick stitch is built using ladder stitch. Ladder stitch produces a row in which each bead is connected to both its neighbors by two parallel thread passes running through the bead holes in opposite directions. The construction: pick up two beads, pass through both again from the start (creating a ring around both beads with a figure-8 thread path), tighten until the beads sit side by side with their holes pointing up; pick up one more bead, pass through the last bead of the previous pair and through the new bead from the opposite direction, tighten; continue adding one bead at a time in this alternating two-direction path until the foundation row is the required length. The result is a rigid, dimensionally stable row of beads standing upright side by side, connected to their neighbors by dual thread passes, with thread bridges visible running along the top edge between each pair of adjacent beads.
These thread bridges are the attachment points for all subsequent brick stitch rows.
For each bead in a subsequent brick stitch row: bring the needle up from behind the prior row, loop the thread under the bridge between two adjacent beads (the thread slides through the gap between the two beads from front to back under the bridge), then bring the needle back up through the new bead. The loop under the bridge anchors the new bead to the prior row.
The tension of the bridge loop is the critical variable. Correct tension: the new bead seats flush against the top face of the prior row’s beads, sitting at the same height and angle as adjacent new beads. Too little tension: the loop through the bridge hangs loose, the new bead tips outward at an angle and does not sit flush. Too much tension: the loop pulls the bridge downward, distorting the prior row out of its correct alignment. The correct tension feel is a firm snug pull that seats the bead without pulling the prior row; the bead should not rock when pressed sideways.
The first bead of each brick stitch row requires special handling. In the standard method, the first bead loops under the first bridge from the prior row. But the first bridge from the foundation row is at the very end of the row, and the loop passes only under one thread rather than under the full two-thread bridge that interior positions have. This produces an anchor that is mechanically weaker than interior positions, and the first bead of each row tends to tilt outward unless the thread is wrapped around the bridge twice before adding the bead. Some teachers recommend adding the first bead of each row using the second bridge from the end, then adding a “skip” bead at the end of the row to fill the first position — this produces a neater row edge at the cost of a slightly more complex turn sequence.
The characteristic half-bead offset at the ends of brick stitch rows is structurally correct. Beginners often notice that each row appears to be one half-bead shorter on each end than the row below it and try to correct this by pulling the end beads outward or by adding an extra bead to fill the apparent gap. The offset is correct: it is the visual consequence of the brick offset pattern, in which end beads sit over bridges that are themselves one half-bead width in from the edge of the foundation row. Attempting to eliminate the offset produces irregular row edges with dangling beads.
4. Herringbone (Ndebele) stitch: the 2-drop V-pair and twist accumulation
Herringbone stitch (also called Ndebele stitch after the South African beadwork tradition in which it is prominent) builds fabric from V-shaped pairs of beads. In two-drop herringbone (the standard form, in which each stitch picks up two beads), the needle comes up through the last bead of a column, picks up two beads, passes down through the adjacent column bead in the prior row, travels along the base to the next column, comes up through that column’s top bead, picks up two more beads, passes down through the next adjacent column, and continues across the row. The two beads of each stitch form a V because the thread tension pulls the bottom of the pair together (at the junction with the prior row) while the tops of the pair angle outward and away from each other.
The characteristic visual texture of herringbone is this repeated V pattern: columns of beads angling outward from a central spine, creating a herringbone or chevron surface. The texture is vivid in beads with different colors on alternating columns and in beads with surface finishes that change appearance at different angles.
The mechanical consequence of the V geometry is twist accumulation in flat herringbone strips. Each V-pair exerts a small rotational force on the fabric: the left bead of each pair pulls slightly leftward relative to the column axis, and the right bead pulls slightly rightward. In a two-column herringbone strip, these forces largely cancel. In a wider strip worked across eight, ten, or twelve columns (a typical bracelet width), the rotational forces from all the V-pairs compound along the strip’s length axis: one side of the strip accumulates tension slightly differently from the other, and the strip twists end-to-end like a drill bit.
The amount of twist depends on thread tension, the number of columns, the bead weight, and the consistency of the turn at each row end. Higher thread tension generally increases twist because the V-pair geometry is held tighter, amplifying the rotational force. More columns means more V-pairs per row length, more cumulative rotational force, more twist. Inconsistent turn direction (turning left at some row ends and right at others) causes twist to alternate rather than accumulate directionally, producing a wavy rather than spiral result.
Practical prevention:
Consistent thread tension: work at the same pull force for every stitch throughout the piece. Establish a tension check at the start of each work session by comparing new stitches to stitches from the previous session under raking light; tension drift between sessions produces a visible band of tighter or looser fabric.
Backing material: a thin strip of Ultrasuede, ribbon, or soft leather stitched to the back of the completed herringbone strip holds it mechanically flat regardless of the V-pair forces. The backing is applied after the main body of the strip is woven and before the clasp tabs are added. Back-and-forth stitching through the Ultrasuede and the herringbone fabric at 4 to 5mm intervals across the full width of the strip prevents any section of the backing from peeling away from the beadwork during wear.
Consistent turn direction: at the end of every row in flat herringbone, the needle passes through specific base beads before picking up the first V-pair of the new row. Always approaching the turn from the same side (always a left-turn at the left edge and a right-turn at the right edge) keeps the twist accumulation consistent in direction rather than alternating; a consistent direction of twist can be compensated by the backing material; alternating twist produces a wavy edge that backing cannot flatten.
5. Right-angle weave: unit structure and the 4-pass requirement
Right-angle weave (RAW) builds fabric from interlocking rings of four beads each. Each completed unit is a four-bead ring in which each bead occupies one of the four compass positions: top, left, bottom, and right. The thread path through a completed ring exits each bead at a right angle to the thread that entered it, which is the origin of the name.
The 4-pass requirement for each unit: to close a four-bead ring, the needle picks up all four beads and then passes through the first bead again from the other side. This closing pass through the first bead is the pass that locks the ring into a closed circle rather than leaving it as an open chain. Counting from the initial thread position: exit thread, bead 1 picked up (pass 1), bead 2 picked up (pass 2), bead 3 picked up (pass 3), bead 4 picked up (pass 4), pass through bead 1 again (closing pass). The closing pass is mandatory; a ring of four beads without the closing pass is an open chain that collapses flat.
In practice, subsequent units in a RAW row share one bead (the shared “wall” bead, which is the right or left position bead from the prior unit, now becoming the left or right position bead of the new unit). For a shared-wall unit: the needle is already exiting through the shared wall bead; pick up three new beads (positions 2, 3, and 4 of the new ring); pass through the shared wall bead again from the other side (closing pass). The shared wall bead is passed through twice per unit: once from each side. This is the structural basis for why RAW fabric holds together.
The alternating unit orientation is the most confusing aspect of RAW for beginners. In the first unit, the needle exits through the top bead going right. After closing the first unit and passing through the shared wall bead, the needle is exiting through the wall bead going left (the direction reverses at each wall crossing). In the second unit, the needle exits through the top bead going left. This alternating left-right exit direction means that the needle approach direction reverses at every unit boundary, and the beads that occupy the “top” position alternate between the top beads from the first pass and the top beads added in subsequent units.
The consequence of alternating orientation is the characteristic drape of RAW fabric. Each row of units can tilt relative to adjacent rows along the column axis because the shared wall bead is free to rotate within its hole (the thread passes through but does not rigidly fix the bead orientation). RAW fabric drapes at the diagonal — the angle of loosest resistance is 45 degrees to the row and column directions — and hangs more flexibly than either peyote or brick stitch per unit area. This diagonal drape makes RAW ideal for necklaces and flexible earrings but requires backing for rigid applications.
Adding a second layer of RAW (flat RAW or cubic RAW) locks the units into fixed orientations by passing a second needle path through the ring in the perpendicular plane, producing a fabric that is stiffer than single-layer RAW and can hold three-dimensional shapes. The second-layer path adds two more passes per unit, for a total of six passes in cubic RAW.
6. Thread tension mechanics: Fireline permanent set versus Nymo post-wear settlement
The mechanical behavior of beadweaving thread under tension determines how finished beadwork feels, how it maintains shape over time, and how to compensate during working. Fireline and Nymo behave differently in ways that directly affect working technique.
Fireline (Berkley, gelspun UHMWPE fiber) has near-zero stretch. Ultra-high-molecular-weight polyethylene produced by gel-spinning has an elongation at break of approximately 3 to 4 percent, compared to oriented nylon monofilament at 15 to 30 percent at break. The practical consequence: tension set during stitching is permanent. Every pull of the thread during working locks the stitch at exactly the force applied. There is no subsequent relaxation, no breaking-in period, no “settling.” The finished Fireline piece is dimensionally stable from the moment the last knot is tied.
What this means for tension control: Fireline requires consistent pull force for every single stitch throughout a piece. Any variation in pull force produces visible variation in bead seating. Too-tight Fireline tension (pulling each pass harder than the beadwork naturally accommodates) causes bead cupping: the edges of the finished fabric curve upward toward the viewer because the thread between beads is contracting slightly under tension and the beads at the edges have less thread to resist the inward pull. Too-loose Fireline tension produces visible thread gaps at the turns and along the rows where the thread segment between beads is longer than the bead-to-bead distance the structure wants. Neither error can be corrected in finished Fireline beadwork without removing and reworking the affected section.
Nymo (oriented nylon 6,6 monofilament thread) stretches. Oriented nylon monofilament used in beading thread products typically elongates 10 to 20 percent at normal working tensions and reaches its break elongation of 20 to 30 percent at much higher forces than beading normally applies. The stretch that matters in practice is not at-break elongation; it is the creep relaxation that occurs at the working tensions used in beadweaving: the nylon fiber slowly yields under sustained load, producing dimensional change over hours to days after the piece is completed.
The practical consequence: a Nymo piece worked at a tension that feels correct in the hand feels slightly too tight immediately after completion and then “settles” over the first few wearings as the nylon creep relaxes. The correct working tension for Nymo is therefore one level tighter than the finished dimension you want: what feels slightly too snug during working becomes correct after breaking in.
Pre-stretching Nymo reduces post-wear dimensional change. Grip a 45 to 60cm length of Nymo between both hands (not between hands and a fixed point — you need to control the force) and pull until you feel the initial elastic resistance give way to a firmer but yielding stretch. Hold for three to five seconds. Release and repeat once. This pre-stretch moves the nylon through a portion of its elastic range before working, reducing the remaining stretch available during and after use. Pre-stretched Nymo still settles slightly post-completion, but by less than un-pre-stretched thread, and the settling period is shorter. Do not pre-stretch Fireline — the UHMWPE fiber does not benefit from pre-stretching and risks damage at excessive forces.
Thread length management also differs between the two. Fireline (being slick and resistant to knotting at its surface) can be worked in longer lengths — 90 to 120cm working lengths are common — without producing excessive tangles, because the fiber does not grip itself. Nymo tangles more readily and is typically worked in 45 to 60cm lengths to minimize the tangles that accumulate as the thread folds back on itself during looping stitches.
7. Thread conditioning: beeswax and Thread Heaven
Thread conditioning reduces friction when drawing thread through tight bead holes and through thread stacks (multiple thread passes already occupying a bead hole). The two standard options have different chemistries and different behaviors.
Beeswax is a natural material composed primarily of long-chain hydrocarbons, wax monoesters, and diesters secreted by honey bees for comb construction. The wax melts at approximately 62 to 65°C (144 to 149°F) and is solid at room temperature. Thread is conditioned by drawing it across the flat or cut surface of a solid block of beeswax; the wax deposits onto the fiber surface as a thin coating.
Beeswax conditioning reduces thread splitting when the thread is dragged through tight bead holes: the wax fills the small gaps between the fiber strands of the thread, reducing the tendency of the thread to splay and catch on the glass edge of the bead hole. Beeswax also mildly stiffens thread — a conditioned length of Nymo holds its shape better when being threaded through a needle eye than an unconditioned length. The mild stiffening is useful for threading but is not significant enough to change the structural behavior of the finished beadwork.
Beeswax has a slightly sticky surface. This stickiness provides grip that can be useful when the thread needs to hold a temporary position during a complex stitch, but it also causes the thread to catch on rough bead surfaces (particularly Czech seed beads, which have more surface texture than Japanese beads) and on existing thread passes in bead holes. When a thread stack in a bead hole already holds two or three thread passes and a fourth pass must be added, beeswax-conditioned thread is harder to draw through than silicone-conditioned thread because the wax coating creates friction between the thread passes. Apply beeswax lightly — a single pass across the wax block is sufficient; multiple passes build up visible wax residue on the finished beadwork, particularly in pale beads where the yellowish wax color is visible.
Thread Heaven is a thread conditioner based on polydimethylsiloxane (PDMS), a silicon-oxygen polymer chain that produces an extremely low-friction surface coating. PDMS is the same material used in medical device coatings and premium personal care products for its hydrophobic, non-reactive, and very-low-friction properties. Thread Heaven is supplied as a solid white block of PDMS in a wax carrier; thread is conditioned by drawing it across the block surface once.
The PDMS coating is slicker than beeswax and does not stiffen thread. Thread conditioned with Thread Heaven feels similar to Fireline in handling: smooth, slightly slippery, and low-friction. This slickness is the primary advantage for thread stacks: drawing a PDMS-conditioned thread through a bead hole that already holds two or three thread passes requires significantly less force than drawing beeswax-conditioned thread through the same hole. For brick stitch (where each bead hole must accommodate at least two thread passes) and for techniques that require three or four thread passes through a single bead, Thread Heaven-conditioned thread is easier to use and reduces the risk of breaking the glass bead by excessive needle force.
Thread Heaven availability: the original product was discontinued in 2023 and supplies have been depleting since. Functional equivalents include Renaissance Wax (a microcrystalline petroleum wax with a smoother surface than beeswax, less sticky) and proprietary silicone thread lubricants sold by beading supply companies. If Thread Heaven is unavailable, Renaissance Wax applied once is the closest functional substitute for the low-friction stack-threading application.
Fireline does not need conditioning. UHMWPE fiber is inherently hydrophobic and presents a low-friction surface without added coating. Waxing Fireline does not meaningfully reduce friction at bead hole passages and can cause the thread to grip uneven surfaces inconsistently. Condition Nymo; leave Fireline plain.
8. Apple Tax and beadweaving Patreon creator revenue
Beadweaving Patreon audiences are iOS-dominant. The primary discovery platforms for beadweaving tutorial content — YouTube, Instagram, and Pinterest — all have high iOS proportions in the craft and jewelry category. YouTube beadweaving and seed bead tutorial channels reach 62 to 74% iOS viewers. Instagram beadweaving jewelry and pattern accounts reach 72 to 82% iOS. Pinterest seed bead, peyote, and RAW pattern boards reach 72 to 82% iOS (Pinterest is the most iOS-skewed major platform across all categories, and craft pattern content is among its highest-iOS content types). Patreon audiences built from these discovery channels inherit similar iOS ratios, with the upper end of the range for creators whose primary channel is Instagram or Pinterest.
Starting November 1, 2026, Patreon applies Apple’s 30% billing fee to all subscriptions purchased or renewed through the Patreon iOS app. A subscriber who finds a beadweaving Patreon via a Pinterest pattern pin, clicks a link that opens the Patreon iOS app, and subscribes through the app checkout triggers Apple’s in-app purchase billing. The creator loses 30% of that subscriber’s monthly payment.
At $12/month, 68% iOS subscribers, 60 subscribers: $12 × 0.68 × 0.30 = $2.45 per subscriber per month × 60 = $146.88/month ($1,762.56/year).
At $20/month, 72% iOS subscribers, 45 subscribers: $20 × 0.72 × 0.30 = $4.32 per subscriber per month × 45 = $194.40/month ($2,332.80/year).
At $35/month, 76% iOS subscribers, 25 subscribers: $35 × 0.76 × 0.30 = $7.98 per subscriber per month × 25 = $199.50/month ($2,394/year).
The mitigation is the same for beadweaving as for every other creator type: update all Pinterest, Instagram, and YouTube profile links to the Patreon web URL rather than to the iOS app deeplink, and enable web-only billing for any tiers you want fully protected from Apple in-app purchase. Web-only billing disables iOS app checkout for those tiers entirely; all new subscribers are routed through the Patreon web checkout regardless of which device they use or how they found the page. The deadline is October 31, 2026 — any subscriber who renews through the iOS app on or after November 1, 2026 triggers the Apple billing.