Why does couching stitch length relative to bead diameter determine how well a couched bead line holds its shape, and when is stitching between every bead versus every 2–3 beads the correct choice?

The couching stitch that anchors a bead string to fabric controls both the positional stability of individual beads and the flexibility of the bead string between anchor points — and these two properties are in tension. A couching stitch taken between every single bead (stitch spacing approximately equal to one bead diameter) anchors each bead individually so that it cannot slide along the bead string or rotate about its axis between anchoring points. On a straight line or very gentle curve, every-bead stitching produces the maximum possible positional control and the straightest, most geometrically precise bead line. The disadvantage of every-bead stitching becomes apparent on tight radius curves: when the couching thread locks each bead against the fabric surface individually with no slack between anchor points, the bead string cannot accommodate a tight curve because the locked beads resist the curvature — the bead string buckles slightly on the inside of the curve and produces a wavy, inconsistent line at tight corners and small radius arcs. Stitching between every 2–3 beads leaves a short span of bead string free between each anchor point. In this free span, the bead string can flex slightly in the plane of the fabric surface, accommodating the required curvature of the design line without buckling. For tight radius curves — the tips of teardrops, the inner corners of geometric shapes, the turning points of spiral motifs — every-2–3-bead stitching is mechanically required. The bead string's flexibility between anchor points must match the radius of curvature: the tighter the radius, the more flexibility needed, which means wider stitch spacing. For a 3mm radius turn using 1.6mm Miyuki Delica DB beads, a practical stitch spacing is every 2 beads (3.2mm spacing), which provides just enough slack for the bead string to follow the curve without buckling at the inner edge. For very tight 1–2mm radius turns, stitch spacing must widen to every 3–4 beads and the bead string may need to be shaped before couching by pre-curving it between the fingers. Document per design element: bead species and size, couching stitch spacing (every N beads), and the smallest radius curve at which this stitch spacing was tested without buckling. This specification prevents the most common couching error — applying the same stitch spacing from straight sections to curved sections without recognizing that the straight-section stitch spacing is too tight for the curve, producing consistent lines on straight runs but buckled, uneven lines at every turn.

What is the mechanical difference between backstitch through bead holes and standard bead couching, and why does the backstitch through-hole method resist pull-through under abrasion?

Standard bead couching attaches a pre-strung bead string to fabric with a separate couching thread that makes external stitches between beads — the couching thread wraps around the outside of the bead string at each stitch point, pressing the bead string against the fabric surface. The couching thread never passes through any individual bead hole. In backstitch bead attachment, each bead is threaded individually onto the working thread as it is attached: the needle exits the fabric at the bead's intended position, picks up one bead, advances forward the length of the bead, re-enters the fabric (completing what would be the forward stitch in backstitch), then passes back through the bead hole in reverse before exiting the fabric again at the next bead position. The critical mechanical event is the pass back through the bead hole: after the forward stitch exits through the bead, the thread doubles back through the same bead hole in the opposite direction. Inside the bead hole, the thread crosses itself — the outgoing thread and the returning thread both occupy the same hole and press against each other at the hole entry point. This thread-crossing-inside-the-hole is the lock mechanism: when lateral force is applied to the bead (from wear, abrasion, or repeated contact in a garment or accessory), the force pulls on the bead in the direction away from the fabric surface. In standard couching, this pull acts against only the external couching stitch — if the couching stitch thread fails or stretches, the bead can slide free of the couching loop. In backstitch, the pull acts against two thread segments inside the bead hole simultaneously: the thread must compress itself at the hole entry before the bead can move, because both the forward thread and the returning thread are in the hole and resist the pull by pressing against the hole walls from both sides. For most bead embroidery applications on decorative pieces, standard couching provides adequate stability and is faster to execute. Backstitch through-hole attachment is mechanically required for: bead embroidery on garments that will be laundered repeatedly, bags and accessories subject to handling and abrasion, areas of a piece that will contact surfaces during wear, and any single-layer bead line (not a fully beaded fill) where individual bead loss would create an obvious gap in the design. The labor cost of backstitch — approximately 3–4 times slower than couching per bead — is the reason it is reserved for high-wear applications rather than used universally.

What is the thread-path difference between single-stitch and double-stitch sequin attachment, and what determines which method produces a better result for a specific design?

Single-stitch sequin attachment and double-stitch sequin attachment produce the same visible result from the front — a flat sequin anchored to the fabric surface — but differ in the thread path at the sequin center hole, which determines whether the thread end is visible at the sequin center and whether the sequin is free to rotate after attachment. In single-stitch attachment, the working thread exits the fabric at a point aligned with the sequin center hole, passes up through the sequin center hole (traveling through the fabric and then through the hole in the sequin), lies across the top of the sequin from center hole to one edge, then re-enters the fabric at the sequin edge. The thread now anchors the sequin by lying across it from center to edge. The thread end (the tail) remains at the sequin center hole, visible from the front of the work as a small thread loop or thread end at the center of the sequin. Single-stitch attachment is fast (one stitch per sequin, two fabric penetrations) and is the standard method for production work. The thread at the center hole is the design tradeoff: in contexts where the sequin center is covered by subsequent stitches, a French knot, or a bead, the visible thread end is hidden — single-stitch is appropriate. In double-stitch attachment, the thread exits the fabric at the sequin center hole position, passes up through the center hole of the sequin, picks up a small seed bead on the needle, and then passes back down through the center hole of both the bead and the sequin and re-enters the fabric. The seed bead is now sitting in the sequin center hole, held by the thread returning through both the bead and the sequin simultaneously. The bead fills the center hole of the sequin, hiding the thread. From the front, the sequin appears with a decorative bead at its center and no visible thread. The seed bead in double-stitch serves two functions: it hides the thread (cosmetic) and it acts as a secondary anchor by filling the center hole and blocking the sequin from rotating — a sequin anchored only at center to edge can pivot around the edge stitch; a sequin with a bead in the center hole cannot pivot because the bead locks it against the fabric surface. For documentation in Patreon pattern PDFs: specify the attachment method per sequin, the seed bead color and size when double-stitch is used (the bead color should either match the sequin for an invisible center or contrast deliberately for a decorative effect), and the thread color relative to the sequin (matching thread blends into the sequin surface; contrasting thread highlights the stitch line and is visible from the side of the sequin in single-stitch work). For sequins used in bead embroidery where beads fill areas adjacent to sequins, double-stitch is typically required because the adjacent beadwork hides the sequin edge stitches and the bead-centered double-stitch produces a cleaner front appearance.

How does the spring-wire construction of purl beads determine the correct couching technique, and what differs between smooth purl, check purl, and pearl purl in terms of how each is attached?

Purl is not a bead in the bead-hole sense — it is a length of metal wire (typically copper wire plated with gold, silver, or colored metal) wound into a coil spring and sold in continuous lengths on a spool. The bead embroiderer cuts purl from the spool using fine embroidery scissors to the exact length required for the stitch, threads the cut piece on the needle like a bead (the coil spring has an opening through its center that the needle passes through), and couches it to the fabric surface using the same two-fabric-penetration method as a large bead. The spring construction of purl determines four properties that distinguish it from glass or seed beads and require different technique. First, purl is extremely fragile: cutting purl with dull scissors crushes the coil at the cut point instead of making a clean transverse cut, producing a purl section with collapsed coils at both ends that will not sit flat when couched. Scissors must be completely sharp and the cut must be made in a single motion, not a sawing motion. Second, purl cut length determines the arch height when couched: if the cut purl length exactly equals the distance between the two stitch points where it is anchored, the purl lies flat on the fabric surface. If the cut purl length is slightly longer than the stitch distance, the purl must arch above the fabric surface to accommodate the excess length — producing a raised, dimensional line. Cut purl to the exact stitch distance for flat couching and add 1–1.5mm per section for raised couching effects. Third, smooth purl, check purl, and pearl purl each have different wire profiles that affect couching thread tension. Smooth purl is wound from round wire — the coil exterior is smooth and round, and a couching thread laid across the coil exterior sits on the curve of each wire coil. At normal thread tension, the couching thread rests in the slight valley between adjacent coils, providing secure positioning. Check purl is wound from faceted wire cut to a square or triangular cross-section — the coil exterior has angular faces that catch more light and produce a sparkle texture, but the angular coil surface is less forgiving of couching thread position; a couching thread under too-high tension can catch on the angular edge of a coil face and produce a visible thread indentation in the purl surface. Pearl purl (sometimes called rough purl or coiled purl) is wound more loosely, with visible gaps between coils, and is most often used in goldwork couched to a design line directly rather than cut and couched as individual pieces — when pearl purl is cut for section couching, the couching thread must be placed with care not to slip into the gap between coils, which would produce a buried stitch that pulls the purl flat and closes the gap, distorting the spring's open character. For documentation: specify purl type, spool supplier and product code (different manufacturers' purl has different wire diameter affecting the coil spring's flexibility and the required cut-length-to-stitch-distance ratio), cut length in mm per section, and stitch distance in mm — the difference between these two numbers quantifies the intended arch height.

How does the Apple Tax affect bead embroidery Patreon creators from November 2026?

Apple's 30 percent fee on iOS Patreon in-app purchases starts November 1, 2026. Bead embroidery creator audiences are heavily iOS-weighted across all visual platforms. Instagram bead embroidery content — close-up photography of finished pieces showing surface texture, detail shots of individual bead sequences, in-progress layout photographs on Ultrasuede foundation — reaches 72 to 85 percent iOS audiences, matching Instagram's creative demographic composition among fiber arts and textile arts creators. YouTube bead embroidery tutorials — technique instruction for couching, backstitch, sequin attachment, goldwork purl handling — reach 55 to 68 percent iOS, lower than Instagram because viewers frequently follow along on a desktop or tablet propped at working distance while their hands are occupied with beadwork. TikTok bead embroidery process content — time-lapse bead laying, sequin arrangement reveals, metallic thread couching close-ups — reaches 70 to 80 percent iOS. Pinterest bead embroidery inspiration boards — technique reference pins, color palette collections, finished piece inspiration, pattern source directories — reach 68 to 78 percent iOS. Revenue impact: at $150 per month with 72 percent iOS, the Apple Tax costs $150 times 0.72 times 0.30 equals $32.40 per month ($388.80 per year). At $250 per month with 76 percent iOS: $250 times 0.76 times 0.30 equals $57 per month ($684 per year). At $350 per month with 80 percent iOS (Instagram-primary creator): $350 times 0.80 times 0.30 equals $84 per month ($1,008 per year). A bead embroidery creator at $350 per month with a predominantly Instagram audience loses over $1,000 per year to Apple beginning November 2026. KeepTier processes subscriptions through Stripe web checkout, bypassing the iOS Patreon IAP system entirely.

Patreon for bead embroidery creators: bead couching stitch-length-to-bead-diameter mechanics, backstitch two-pass lock through bead holes, single-stitch versus double-stitch sequin attachment, purl spring-wire cutting and couching mechanics, bugle bead directional catching stitch, and the Apple Tax in 2026

2026-08-08 · ~5,200 words · KeepTier

Bead embroidery — the practice of attaching individual beads, sequins, metallic purl wire, and bugle beads to fabric surfaces using a needle and thread — sustains long-term Patreon subscriptions for a specific reason: the medium looks approachable on camera (individual beads are large and visible, the fabric foundation is clear, the finished surface is immediately glamorous) but produces specific beginner failures rooted in mechanical misunderstandings that more demonstration does not resolve. A subscriber who understands why the couching stitch spacing relative to bead diameter determines whether a beaded curve buckles at its inner edge will not apply the same every-bead stitch spacing from straight sections to tight radius turns and then wonder why their corners look wrong. A subscriber who understands why backstitch through bead holes creates a thread lock inside the hole that standard couching cannot replicate will choose the correct attachment method for wearable work rather than discovering bead loss after the first use. A subscriber who understands why purl cut length relative to stitch distance sets the arch height when the purl is couched can produce flat, raised, or arched purl sections deliberately rather than producing inconsistent results across a goldwork piece. These are not errors of inattention or insufficient practice; they are errors of incomplete mechanical understanding that more demonstration does not fix because the demonstrations typically do not explain why a specific technique is required. This post covers five construction mechanics: how couching stitch spacing relative to bead diameter controls both positional precision on straight lines and flexibility for tight curves; how backstitch through bead holes creates a thread lock at the hole entry that resists pull-through; how single-stitch and double-stitch sequin attachment differ in thread path and what each hides and reveals at the sequin center; how purl spring-wire construction determines cut-length-to-stitch-distance ratio for flat versus arched results; and how bugle beads require a directional catching stitch between each bead to prevent rotation and axis misalignment.

Bead couching mechanics: stitch length relative to bead diameter and the flexibility requirement for curves

Bead couching is the foundational technique in Western bead embroidery and in Japanese nihon shishu (bead embroidery): a length of beads is strung on a foundation thread (typically a strong silk thread or a fine nylon thread depending on bead weight and design requirements), the strung bead string is laid along the design line on the fabric surface, and a separate couching thread — held in a second needle — makes small stitches at intervals between the beads, passing over the foundation thread and through the fabric to hold the bead string in position against the fabric. The bead string does not pass through the fabric; only the couching thread does. The critical variable in this two-thread system is the couching stitch spacing: specifically, how many beads are spanned between each couching stitch, and how this count relates to the design line's curvature at each point.

On a straight design line using Miyuki Delica DB size 11/0 beads (1.6mm diameter cylinder): a couching stitch placed between every single bead (stitch spacing of approximately 1.6mm — one bead diameter) means each bead is independently constrained against the fabric between the couching stitch before it and the couching stitch after it. The bead cannot slide forward or backward along the bead string because both adjacent couching stitches pin it to a specific fabric position. The bead cannot rotate about its vertical axis because the couching thread presses both sides of the bead against the foundation thread, which holds against the fabric. Every-bead couching on a straight line produces maximum control and maximum dimensional precision — this is the correct technique for straight geometric lines, regular grid fills, and parallel line sequences where consistent bead positioning determines the overall regularity of the finished surface. It is also the correct technique for any design element where the finished line must hold its position under handling, as a wearable garment or a textile accessory.

The limitation of every-bead couching becomes apparent when the design line curves. Consider a design with a teardrop motif whose pointed tip has an inner radius of approximately 3mm. At this radius, the design line completes a 180-degree turn over a length of approximately 9.4mm (half the circumference of a 3mm radius circle). Twelve Delica beads (12 × 1.6mm = 19.2mm strung) must follow a 9.4mm arc. The beads on the inside of the curve (the inner radius) are compressed — they must travel a shorter path than the beads on the outside of the curve (the outer radius). If every bead is individually couched against the fabric surface with no slack between anchor points, the bead string cannot accommodate the differential between inner and outer path lengths. The bead string buckles — the inner-radius beads push against each other, producing a visible pile-up at the inside of the curve, while the outer-radius beads separate, creating gaps. The finished curve does not follow the design line cleanly; instead it shows a characteristic zigzag or ripple at the most tightly curved section.

The solution is to widen the couching stitch spacing at curves. For the same 3mm radius teardrop tip in Delica beads: switching from every-bead stitching to every-2-bead stitching (stitch spacing 3.2mm) gives each span of bead string a small amount of freedom to flex between anchor points. This flex allows the bead string to navigate the curve without buckling because the inner-radius beads can compress slightly (accommodated by the wider stitch spacing) while the outer-radius beads splay slightly (also accommodated by the same wider spacing). The design line appears smooth at the curve when the stitch spacing is correctly matched to the radius. The rule is: the tighter the curve radius relative to bead diameter, the wider the stitch spacing must be. For Delica beads at a 10mm radius (a gentle curve): every-bead or every-2-bead stitching is fine. At a 5mm radius (a moderate curve): every-2-bead stitching. At a 3mm radius (a tight curve): every-3-bead stitching. For curves tighter than 2mm radius with Delica beads, every-3-to-4-bead stitching plus pre-curving the bead string before couching (bending the strung beads into the curve between the fingers and holding them in a gentle curve while positioning) is the most reliable method.

Patreon pattern PDFs should document couching stitch spacing as a specific number of beads per stitch, not as a general description ("anchor frequently" or "stitch close together"). The stitch spacing that produces a clean straight line is not the same as the stitch spacing that follows a curve cleanly, and the two are often present in the same design. Explicitly document: the bead type and size, the stitch spacing on straight sections (N beads per couching stitch), and the stitch spacing at each curve (curve radius in mm and corresponding stitch spacing). A subscriber executing a scrolling vine motif with multiple curves of different radii who knows the stitch spacing at each radius can execute the motif reproducibly. A subscriber told only to "couch closely" will apply whatever stitch spacing feels intuitive — which is usually too tight for curves and too loose for straight sections, producing the opposite of the intended result at both.

Backstitch through bead holes: the two-pass thread lock and when it is required over couching

In standard bead couching, no thread passes through any individual bead hole — the bead holes remain empty after couching, and the beads are held to the fabric surface entirely by the external couching stitches pressing the foundation thread against the fabric around them. In backstitch bead attachment, each bead is individually threaded by the working needle as it is placed, and the thread passes through the bead hole twice in opposite directions — once as the needle exits the bead and proceeds to the next fabric entry point, and once as the needle returns through the same bead hole in reverse before exiting the fabric to pick up the next bead. This double-pass through the hole is not redundancy; it is the mechanism that creates a thread lock at the hole entry.

The backstitch sequence for a single bead: (1) thread exits the fabric at the intended bead position; (2) bead is placed on the needle and the needle passes through the bead hole from the bottom surface of the bead to the top surface; (3) needle re-enters the fabric one bead-length ahead of the exit point (this is the forward stitch); (4) needle travels backward through the fabric (this is the return in backstitch) and exits the fabric at the original exit point; (5) needle passes through the bead hole again, this time from top surface of the bead to bottom surface (the return pass), exiting through the same hole; (6) needle exits the fabric at the next bead position to begin the sequence for the next bead. At step 5, the thread is now passing through the bead hole for the second time in the opposite direction. Inside the hole, the outgoing thread from step 2 and the returning thread from step 5 are both present and cross each other. The crossing happens at the hole entry — both threads are constrained inside the bead hole diameter, and they press against each other and against the hole walls.

This inside-hole thread crossing is the lock mechanism. When lateral force pulls the bead away from the fabric surface (from wear, from catching on an adjacent surface, from fabric flexing during use), the pull acts on both thread segments inside the hole simultaneously. Both threads resist the pull by pressing against each other and against the bead hole walls: the forward thread is being pulled upward and backward through the hole while the return thread is being pulled downward and forward through the hole — the two threads are being pulled in opposite directions at the crossing point, which means each thread resists the other's movement. The harder the bead is pulled, the more firmly the two threads lock against each other inside the hole. This is a different mechanism from couching, where the bead is only prevented from moving by the external pressure of the couching stitch against the foundation thread — if the couching stitch stretches or breaks, the bead slides free immediately.

The practical consequence: backstitch through bead holes is mechanically required for bead embroidery on wearable garments and accessories subject to repeated handling, flexing, and laundering. A beaded cuff on a garment that is worn and laundered repeatedly places each bead under repeated lateral stress as the cuff fabric flexes. Standard couching will produce bead loss within months of regular wear — the couching thread abrades at the stitch point and the bead slides free. Backstitch through-hole attachment on the same cuff will retain beads through years of regular wear because the thread lock inside the hole resists the exact pull direction that wearing and laundering produce. For decorative pieces displayed under glass or framed textiles that are never handled, couching is adequate and faster. For anything worn, carried, or handled regularly, backstitch through-hole attachment is the correct technique for any bead that cannot be easily replaced.

The labor cost of backstitch is approximately 3–4 times higher than couching per bead — two fabric penetrations plus a return pass for each bead, compared to one fabric penetration per couching stitch covering multiple beads. Document per Patreon pattern: which attachment method is specified per design area, and the rationale for each choice. A pattern that specifies couching for the background fill (not subject to repeated contact) and backstitch for the design line elements (which will be touched and handled) gives the subscriber the information to allocate their effort correctly. A pattern that specifies backstitch universally will be prohibitively slow for a large fill; a pattern that specifies couching universally on a wearable piece will produce a pattern that fails in use.

Sequin attachment: single-stitch and double-stitch thread paths and what each hides or reveals

Sequins in bead embroidery are typically flat, circular or shaped discs with a central hole, used for reflective surfaces in both traditional goldwork-adjacent bead embroidery and contemporary decorative textile work. Two attachment methods are in common use: single-stitch and double-stitch. The correct choice depends on whether the sequin center hole should be visible (showing either the thread tail or the fabric surface behind it) or hidden (covered by a decorative bead). Both methods anchor the sequin to the fabric with the same final result from front-on viewing — a flat sequin lying against the fabric surface — but they differ completely in the thread path at the sequin center hole and the degree of rotation resistance they provide.

Single-stitch sequin attachment: the working thread exits the fabric from below at a point directly aligned with the sequin center hole. The needle carries the thread up through the center hole of the sequin (the needle is passed up through the hole, not through the fabric again — the sequin is placed on the fabric surface and the needle exits through its hole). The thread now lies from the center hole outward to one edge of the sequin. The needle is passed down through the fabric at the sequin edge, making a single stitch that goes from center hole (inside the sequin, exiting upward) to the sequin edge (returning into the fabric). The stitch anchors the sequin by lying across its face from center to edge. The thread tail — the loose end where the thread exited the fabric at the center hole and traveled up through the sequin — remains visible inside the center hole of the sequin as a small loop or thread end at the sequin center. This tail is what gives single-stitch its characteristic center-hole appearance: a small thread visible at center, matching or contrasting with the sequin color. In many traditional applications — where sequins are placed in rows and each sequin overlaps the preceding one so that subsequent sequins hide the previous sequin's tail — single-stitch is appropriate because the tail is hidden by overlap.

The rotation behavior of single-stitch sequins: a sequin attached with a single stitch from center to one edge can pivot around the edge anchor stitch. If the sequin is bumped or catches on an adjacent element, it rotates until the center tail catches on the fabric surface and stops it — the sequin may end up rotated slightly from its original position, producing a slight misalignment that accumulates across a row of single-stitch sequins into a visible pattern disruption. For precise geometric layouts where sequins must maintain specific orientation, single-stitch requires periodic re-anchoring with additional stitches (typically two or three stitches from center to different edges, making the sequin a multi-anchor attachment instead of a single-stitch).

Double-stitch sequin attachment: the working thread exits the fabric from below at the sequin center hole position. The needle carries the thread up through the center hole of the sequin (same as single-stitch). A small seed bead (typically size 11/0 seed bead, approximately 2mm diameter) is placed on the needle. The needle is then passed down through the center hole of the seed bead and the center hole of the sequin simultaneously — both the bead hole and the sequin hole must align for the needle to pass through both — and then continues into the fabric below. The thread now forms a loop: it exits the fabric at center, passes through the sequin hole, through the seed bead hole, and returns through both holes back into the fabric. The seed bead sits in the sequin center hole, held by the thread loop passing through both holes. Because the seed bead fills the center hole of the sequin and is held firmly by the thread returning through both holes, the bead cannot be removed without cutting the thread — and it fills the center hole, hiding the thread beneath it. From the front of the work, the sequin appears with a bead sitting decoratively at its center and no visible thread. The bead can match the sequin color (invisible center, bead reads as a detail texture) or contrast deliberately (visible bead as a design element).

The rotation resistance of double-stitch: the seed bead filling the center hole and anchored through both bead and sequin holes prevents the sequin from rotating because the bead is held against the fabric surface at the center point, not at the edge. The center anchor plus the fabric penetration point below creates a moment arm that resists rotation — the sequin can only rotate if the bead also moves, which requires the thread to stretch or break. For bead embroidery designs where sequins must maintain strict geometric orientation (star patterns, directional scales, diamond arrays) or where sequins will be used in areas subject to contact, double-stitch is the mechanically correct choice. Document per pattern: sequin size and shape, attachment method, seed bead size and color for double-stitch, and whether the bead should match or contrast the sequin.

Purl spring-wire mechanics: cut length, arch height, and why smooth, check, and pearl purl require different technique

Purl is the foundational surface element in Western goldwork embroidery — the technique of applying metallic threads and metal wire elements to fabric surfaces in the English and Japanese goldwork traditions. Purl differs from every other element in bead embroidery in a fundamental way: it is not a manufactured bead with a fixed geometry but a continuous spool of spring-wound metal wire that the embroiderer cuts to the exact length required for each individual stitch. The spring construction of purl determines nearly all aspects of correct technique, and most beginner errors with purl result from treating it like a bead without understanding how its spring construction affects its behavior.

Purl is wound from metal wire in a tight helical coil — similar in structure to a compression spring, but much finer (wire diameter typically 0.1–0.3mm, coil outer diameter typically 1.0–2.5mm depending on purl type). Because of its spring construction, purl has an open center channel through which the embroidery needle can pass, as if threading a bead. The embroiderer scissors off a section of purl to the desired working length, threads the needle through the cut section, and attaches it to the fabric with two stitches: one at each end of the purl section. The purl sits on the fabric surface between the two attachment points, held at both ends.

Cut length relative to stitch distance determines arch height. If the cut purl length exactly equals the distance between the two fabric anchor points, the purl lies flat on the fabric surface in full contact — flat couching result. If the cut purl length is 1mm longer than the stitch distance, the purl must arch slightly above the fabric surface to accommodate the excess coil length — the purl lifts approximately 0.3–0.5mm above the fabric at its midpoint. At 2mm of excess, the arch height is approximately 0.6–1.0mm. This relationship between excess cut length and arch height is consistent for a given purl type and diameter, allowing the embroiderer to specify cut lengths to produce desired three-dimensional effects: a flat purl line uses exact-match cut lengths; a softly raised line uses 1–1.5mm excess per section; a pronounced raised arch uses 2–3mm excess per section. Document per design element: stitch distance in mm, cut length in mm, and the resulting arch height observed in a test on the same fabric and backing combination. Arch height varies slightly with different fabric stiffness (stiffer fabric substrate = slightly lower arch because the fabric pulls the purl ends more firmly flat; softer fabric = slightly higher arch).

The three purl types in common use require different technique at the cut and couching stages. Smooth purl is wound from round wire — the coil exterior presents a smooth, continuous curved surface. The couching needle passes through the smooth coil center easily because the coil interior has no obstructions. After attachment, the couching thread (if a visible thread technique is used, rather than the stitch-ends-into-fabric method) lies in the slight groove between adjacent coils at the stitch point. Smooth purl reflects light as a continuous curved metallic surface and is used where a clean, high-luster line is required. Cutting smooth purl with scissors at the correct angle (perpendicular to the coil axis) produces clean cut ends where the terminal coil is not deformed. Cutting at an angle or with dull scissors produces a crushed terminal coil that prevents the purl from threading easily onto the needle and leaves a visible irregularity at the stitch ends. The correct scissors for smooth purl are very fine embroidery scissors with sharp points and precision-aligned blades — the same scissors that feel adequate for fabric and thread are typically not sharp enough for clean purl cuts.

Check purl is wound from faceted wire — the wire cross-section is square or triangular rather than round, and the coil exterior presents a series of flat, angular faces that catch and reflect light at multiple angles, producing a sparkle texture rather than a continuous smooth luster. Check purl requires additional care at the couching stage because the angular wire faces create small stress concentration points where the couching thread can catch. A couching stitch placed with slightly excessive tension can engage the angular edge of a coil face and indent the thread into that edge — visible as a small depression in the purl surface at the stitch point. To prevent this, couching stitches over check purl should be placed with lighter tension than over smooth purl, and the couching thread should be angled slightly to distribute the contact point across the face rather than engaging a single angular edge. Document check purl couching thread tension as a calibration observation: "light tension — thread rests across coil face without compressing it visually."

Pearl purl differs from both smooth and check purl in that it is wound more loosely, with a visible gap between adjacent coils. This open-coil spring construction is what gives pearl purl its characteristic beaded or pearled appearance — the gaps between coils catch shadow and produce a texture that reads as a row of small spherical bumps rather than a continuous surface. Pearl purl is typically used in goldwork for outlining design elements by being couched directly as a continuous coil along the design line (not cut into individual sections and applied like a bead). When pearl purl is cut into sections for individual couching (a less common but valid technique for small accent dots and curve-end terminals), the thread used for attachment must be placed carefully to avoid slipping into the gap between coils during couching. A thread that drops into the gap when pulled snug is pulled tight against the bottom of the coil gap and becomes invisible — but the tension from the thread being held tightly in the gap can close the gap, altering the open-coil character of the pearl purl section and producing a flattened segment visible as a dull spot in the finished pearl purl surface. Couching threads for pearl purl sections should be silk thread in a diameter that cannot physically enter the coil gap — typically a size D silk thread (0.25–0.30mm diameter) for pearl purl with gaps wider than 0.3mm.

Bugle bead directional catching stitch: rotation prevention and why it is required

Bugle beads are elongated glass tube beads, available from 2mm to 30mm in length with a consistent diameter of approximately 2mm, manufactured by cutting glass cane to specific lengths. The defining characteristic of bugle beads — their elongated shape with a large length-to-diameter ratio — is also the source of their primary attachment challenge: bugle beads can rotate about their length axis on the fabric surface when couched without rotation prevention, producing a surface where adjacent bugle beads sit at different angles relative to the design line, creating a chaotic appearance that looks like misaligned tiles rather than a coherent surface.

The rotation mechanism: when a bugle bead is threaded on the foundation thread and couched to the fabric surface with stitches at each end of the bead, the couching stitches at both ends press only the bottom surface of the bead against the fabric — they do not prevent the bead from rotating about its long axis. The bead sits on its curved glass surface and can roll until friction from the fabric and the foundation thread stops it. In a freshly couched piece under controlled conditions, friction may hold the beads in alignment. As soon as the fabric is handled, moved, or placed in a hoop for subsequent work, the slight vibration of fabric movement causes bugle beads without rotation prevention to rotate to random orientations. A line of 20 bugle beads attached without rotation prevention will typically show 3–5 visibly misaligned beads after the first handling, and more after subsequent handling.

The directional catching stitch is the correct prevention technique. After each bugle bead is threaded on the foundation thread and positioned on the fabric, a small catching stitch is placed between the end of the current bugle and the beginning position of the next bugle. This catching stitch does not secure a bead; it bridges the small gap between beads and is pulled snug against the foundation thread on one side. The direction of the catching stitch matters: the stitch should be angled slightly — approximately 15–20 degrees off perpendicular to the design line — so that the slight lateral component of the stitch tension holds the current bugle against the fabric with a minor rotational force that opposes the bead's natural resting rotation. The correct direction of this lateral component depends on the natural resting rotation of the specific bugle beads being used: some bugle beads from some manufacturers have a slight natural rotation tendency (caused by the angle at which the glass cane was cut or small surface variations in the bead tube wall) and the catching stitch should oppose this tendency, not reinforce it. The correct stitch direction is determined by testing: couch 3–5 bugle beads with catching stitches in a test direction, then handle the fabric. If the bugles stay aligned, the stitch direction is correct. If they rotate despite the catching stitches, reverse the angle direction.

Length-to-diameter ratio determines how much rotation risk a bugle bead presents. A 2mm bugle (length equal to diameter) rotates almost as readily as a round seed bead — rotation risk is low because the bead is nearly isotropic in cross-section. A 6mm bugle (3:1 length-to-diameter ratio) can rotate freely 120 degrees before the long axis is displaced by more than one bead width — rotation risk is moderate. A 15mm bugle (7.5:1 length-to-diameter ratio) can rotate nearly 30 degrees before any misalignment is visible from a distance, but a full rotation of 90 degrees produces a bead lying perpendicular to the design line — immediately obvious and structurally disruptive to the design. Long bugle beads (15mm and above) require a catching stitch between every bead. Short bugle beads (2–4mm) can typically tolerate catching stitches between every 2–3 beads. Document per pattern: bugle bead length, catching stitch spacing, and catching stitch angle relative to design line direction. The catching stitch technique is rarely shown in tutorials because it is invisible in finished piece photographs — the beads appear correctly aligned and the viewer assumes alignment is automatic. Patrons who are not told about catching stitches will produce misaligned bugle bead work and attribute the problem to incorrect couching tension or bead quality rather than to the absence of rotation prevention technique.

Apple Tax on iOS Patreon subscriptions: what bead embroidery creators lose from November 2026

Apple's 30% iOS IAP fee on Patreon subscriptions takes effect November 1, 2026. Bead embroidery creator audiences are heavily iOS-weighted across all visual platforms where the craft appears. Instagram bead embroidery content — close-up photography of finished beaded surfaces showing the metallic luster of goldwork purl, the reflective surface of sequin fills, the geometric precision of couched Delica bead lines — reaches 72 to 85% iOS audiences. The visual-premium aesthetic of close-up bead surface photography performs on Instagram and among Instagram's creative craft demographic. Pinterest bead embroidery inspiration and technique boards reach 68 to 78% iOS. YouTube bead embroidery instruction — technique tutorials covering couching, backstitch attachment, sequin placement, goldwork purl couching — reaches 55 to 68% iOS, lower than Instagram because students frequently follow along at working distance on a desktop or tablet propped beside their work while their hands are occupied with needlework, shifting the viewing platform toward larger screens. TikTok bead embroidery process content — bead laying time-lapse, purl cutting close-up, sequin arrangement reveals — reaches 70 to 80% iOS.

Revenue impact from November 2026: at $150/month total Patreon revenue with 72% iOS: $150 × 0.72 × 0.30 = $32.40/month ($388.80/year). At $250/month total Patreon revenue with 76% iOS: $250 × 0.76 × 0.30 = $57/month ($684/year). At $350/month total Patreon revenue with 80% iOS (Instagram-primary creator): $350 × 0.80 × 0.30 = $84/month ($1,008/year). A bead embroidery creator at $350/month with a predominantly Instagram audience loses more than $1,000 per year to Apple beginning November 2026 — revenue extracted from creator income that produced no platform value for Apple beyond the existence of the iOS Patreon app through which the subscription happened to be processed.

KeepTier: web checkout that bypasses Apple IAP

KeepTier provides a branded web checkout page for creator subscriptions that operates outside Apple's In-App Purchase system entirely. Patron subscriptions processed through a KeepTier page are web transactions — Stripe Checkout in the web browser, not the iOS Patreon app — and Apple's 30% fee does not apply. For a bead embroidery creator at $250/month with 76% iOS audience, directing new patron subscriptions to a KeepTier page instead of the Patreon iOS app preserves $57/month — $684 annually — that would otherwise be permanently extracted beginning November 1, 2026. See keeptier.com to calculate your specific Apple Tax exposure and set up a web checkout page.

Tier structures for bead embroidery Patreon creators

Bead embroidery creator Patreons retain subscribers longest when tier content addresses the technical specification layer that free tutorial content systematically omits. Free tutorials demonstrate which beads and stitches to use and in what sequence; Patreon content that retains subscribers past three months documents the specifications that determine whether the technique produces the intended result: couching stitch spacing per bead type and curve radius, purl cut length relative to stitch distance for each arch height used in the design, sequin attachment method per design area with rationale, bugle bead catching stitch angle relative to design line, and thread type and diameter per technique component. These are the decisions that distinguish a pattern PDF that produces reliable results from one that produces inconsistent results despite accurate stitch identification.

A Pattern and Specification tier at $10–16/month covers documented pattern content: complete pattern files for each project with couching stitch spacing documented per design line and per curve radius, purl cut lengths documented in mm per design element with the arch height each cut length produces on the specific foundation fabric used, sequin attachment method specified per sequin group, bugle bead catching stitch angle documented per design direction, and finished-piece photographs taken at a raking 10–15 degree angle to show the metallic luster and dimensional quality of purl and raised elements. At this tier, a subscriber couching a scrolling vine motif with both straight and curved sections knows: on straight sections, stitch between every bead; at the main curve (8mm radius), stitch between every 2 beads; at the tight corner tip (2.5mm radius), stitch between every 3 beads and pre-curve the bead string before positioning. This specification eliminates the most common vine-motif error — applying a single consistent stitch spacing that works on straight sections but buckles at curves, forcing the subscriber to unpick and redo the curved sections after discovering the buckling.

A Technique Library tier at $22–35/month covers in-depth technique content that free tutorials structurally omit: a full goldwork purl handling module covering all three purl types (smooth, check, pearl) with photographed cut technique showing correct vs crushed cut ends, arch height calibration charts for different excess cut lengths on different foundation fabrics, and couching thread tension documentation for each purl type; a sequin techniques module covering single-stitch, double-stitch, and overlapping row attachment with photographed thread paths showing the mechanics of each; and a bugle bead module covering catching stitch angle determination, rotation testing protocol, and length-to-diameter ratio handling for 3mm, 6mm, 9mm, 15mm, and 20mm bugle beads. These modules replace trial-and-error for technique variables that are invisible in finished-piece photography and rarely explained in technique tutorials because they are assumed knowledge at the intermediate level. A subscriber who works through the goldwork purl module gains a complete specification framework for using purl in their own designs without further instruction — the value persists indefinitely beyond the month of the module release.

The kill trigger for expanding to three tiers: when the Technique Library tier shows 90% retention over three consecutive months, a third tier at $50–70/month for 4–6 patrons should offer project design review — the subscriber sends a design sketch or layout plan and the creator reviews the technical specifications, identifying elements where the stitch spacing, purl cut length, or attachment method will not produce the expected result before any beadwork is executed. A patron who avoids one design-stage error on a piece that would otherwise require hours of unpicking has received a clear, quantifiable value from the review. This tier is sustainable at 4–6 patrons because the review per patron is 30–60 minutes per month; above 6 patrons the review quality decreases. The waitlist for this tier is the signal to raise the price rather than expand the cap. For internal linking in your Patreon posts, reference the bead embroidery Patreon guide for bead selection specifications and foundation material comparisons and the KeepTier explainers for adjacent embroidery technique mechanics that inform multi-technique textile art work combining bead embroidery with goldwork, silk shading, or stumpwork.