MOLLE Webbing Layout Design

How Is MOLLE Webbing Assembled?

Traditional MOLLE webbing is usually sewn to a prepared outer panel before that section is joined to the rest of the bag. Hidden backing is positioned first, followed by horizontal rows and vertical bar tacks or reinforced seams that create the attachment channels.

A controlled assembly sequence may follow this order:

1. Cut the outer panel with grain direction and finished shape confirmed.
2. Stabilize the panel if the fabric stretches or curls.
3. Mark the vertical centerline and fixed horizontal references.
4. Position the hidden backing or load-distribution tape.
5. Place the first 25.4 mm webbing strip.
6. Confirm its distance from the nearest seam, zipper, or panel edge.
7. Mark the next row using the fixed panel reference.
8. Maintain a 25.4 mm clear opening between strips.
9. Sew the 38.1 mm vertical columns.
10. Check the grid before adding foam, pockets, or lining.
11. Complete the panel assembly.
12. Recheck channel clearance after the bag takes its finished shape.

Rows should be positioned from fixed datum lines rather than measured one after another. Measuring every new strip from the preceding row allows small errors to accumulate. A 1 mm shift repeated across five spaces produces a visible 5 mm difference by the final row.

Webbing tension also needs control.

If the strip is pulled tightly during sewing, the base panel may curl when machine pressure is released. If it is fed too loosely, waves and oversized loops can appear. The ideal condition keeps the material flat without stretching either the strip or the supporting fabric.

End treatment depends on the construction. Webbing ends may be:

• captured inside a seam;
• folded and secured;
• heat-cut where suitable;
• covered by binding;
• locked beneath another structural part.

The ends should not create thick lumps beside zippers or narrow the outer attachment channels.

The reverse side deserves equal attention. Dense stitching through unnecessary layers can make the channels difficult to use. Pocket bags, lining, and foam should be kept clear of the weaving path unless the approved construction intentionally includes them.

How Many Rows and Columns Are Needed?

The required grid size depends on the planned modules and available panel area. The largest possible layout is rarely the most useful one.

Each standard column occupies approximately 38.1 mm horizontally.

The number of rows determines vertical coverage. Each strip is about 25.4 mm high, with a 25.4 mm opening between adjacent strips.

For a panel with 220 mm of usable width, five columns require 190.5 mm, leaving 29.5 mm for the two outer clearances. Six columns require 228.6 mm and therefore do not fit without compression.

Reducing each column to force six positions into the space may cause wide pouches to misalign. Five complete columns provide more practical value.

Vertical planning should consider the height of the attachment straps, not only the visible body of the pouch. A pouch may have three rows of backing straps but extend much farther above or below the connected area.

The following checks help determine an efficient grid size:

• How many modules must fit at the same time?
• Which pouch is the widest?
• Which item is the heaviest?
• Do any modules overlap adjacent columns?
• Is free space needed for hand access?
• Will one deep pouch cover rows below it?
• Does the logo need to remain visible?
• Are side clearances sufficient for seams and binding?

Grid capacity should not be described only by counting every theoretical opening. Several positions may not be usable together once real pouches are attached.

A practical layout drawing should therefore show both the grid and the intended modules at full scale.

Where Should MOLLE Webbing Be Placed?

The best position is a stable, accessible surface that keeps the mounted load close to the carrying structure without blocking normal bag use.

Common locations include the front panel, side panels, waist belt, shoulder straps, flap, and internal organizer surfaces.

Heavy modules should usually sit lower and closer to the body. Mounting dense equipment high on the front of a backpack increases backward pull. The same weight placed lower and nearer the back panel feels more stable.

Side-mounted items affect width and balance. A bottle on one side and a radio pouch on the other may look balanced while empty, but their loaded weights can differ greatly. The complete carrying arrangement should be reviewed, not just the appearance of the bare bag.

Attachment areas should also be checked while the product is worn.

A side grid may sit beneath the elbow. A waist-belt pouch may press into the hip when seated. A shoulder-strap attachment may rub against the neck. These issues are difficult to predict from a flat sample on a worktable.

Access direction matters as well. A frequently used medical pouch may need to open with one hand. A tool module may need to remain upright. A radio pouch may require cable routing above it. The grid position should support these actions rather than forcing the user to rotate or remove the bag.

For products intended to move between outdoor and everyday settings, partial coverage often works better than a full tactical surface. A compact lower grid can preserve modular function while leaving the upper area clean for branding and easier pocket access.

How Do Pockets and Zippers Affect the Layout?

Pockets and zippers often reduce functional MOLLE space more than their visible dimensions suggest.

A pouch body can extend beyond its backing straps and cover the zipper beside it. A mounted module can also restrict the opening angle of a flap, interfere with a buckle, or make a concealed pocket difficult to reach.

The layout should be checked in three conditions:

• no module attached;
• module attached but empty;
• module attached and loaded.

Loaded pouches expand and change shape. A utility pouch may become 30–50 mm deeper after filling, bringing it into contact with nearby features that appeared clear during the first fitting.

A front pocket carrying MOLLE rows must also be structurally connected to the main body. If the rows are sewn only onto a floating pocket face, loaded modules may pull the pocket outward.

The pocket should be reviewed for:

• side-seam strength;
• lower-seam support;
• backing coverage;
• connection to the main panel;
• zipper-tape stress;
• distortion when the pouch is loaded.

In some constructions, the grid should stop before the pocket edge. In others, hidden tapes can carry force past the pocket and into the main seam.

Zipper placement may divide one wide grid into two smaller zones. This is acceptable when the proposed accessories match those sections. It becomes a problem when the visual layout suggests a wide attachment field that cannot support a wide pouch across the zipper.

How Are Curved and Reinforced Areas Designed?

Curved attachment areas need physical trials because flat dimensions change when the panel is shaped.

Common curved locations include:

• rounded front pockets;
• side gussets;
• padded waist belts;
• shoulder straps;
• molded back panels;
• cylindrical utility bags.

When a flat panel bends, the outer surface travels a longer path than the inner layers. This can narrow the channels, lift the webbing edges, angle the bar tacks, and create uneven openings.

Several methods can reduce these problems:

• limit the grid to the flatter center section;
• divide one large field into smaller zones;
• adjust webbing tension for the final curve;
• use shaped reinforcement rather than a rigid rectangle;
• keep bar tacks away from abrupt seam transitions;
• prepare a panel trial using the real foam and backing;
• check the grid after the section is fully assembled.

Reinforcement should follow the expected load direction.

A pouch mounted on the front pulls outward and downward. A backing patch should therefore extend beyond the loaded bar tacks and connect toward stable seams where possible.

A floating patch that stops inside the panel may strengthen the immediate stitch area but still allow the entire surface to bow.

Useful reinforcement methods include:

• a second woven fabric layer;
• internal webbing tape;
• laminated support;
• foam combined with stable backing;
• connection to side seams;
• connection to the panel base;
• wider stitch distribution around the loaded zone.

More layers do not automatically create a stronger construction. Excessive thickness can cause:

• difficult strap insertion;
• bulky bar tacks;
• hard surface transitions;
• uneven feeding through the sewing machine;
• coating damage;
• reduced flexibility.

The best reinforcement spreads force without turning the panel into a stiff plate.

For new materials or unfamiliar curves, a separate trial panel is worth preparing before the complete sample. It allows row gaps, stitch density, backing shape, and bending behavior to be checked with less time and material.

When Should a Custom Layout Be Simplified?

A layout should be simplified when extra rows increase weight, sewing time, stiffness, or visual density without adding useful attachment capacity.

Simplification is particularly valuable when:

• only one or two accessories are planned;
• the panel is narrow or heavily curved;
• the bag must remain lightweight;
• large zippers occupy the front surface;
• the outer material is soft;
• a clean visual style matters;
• attached pouches would cover most of the rows;
• edge channels would be incomplete;
• dense stitching could weaken the fabric;
• the available area cannot support standard dimensions.

Several practical options are available.

A full-width grid can be divided into two smaller blocks. Six rows can be reduced to three. Traditional webbing can be placed only on the lower front. Side rows can be removed where they interfere with arm movement. A removable internal panel can replace permanent exterior coverage.

Simplification should remove low-value attachment positions, not the areas most likely to be used.

A compact, fully compatible grid is better than a large surface containing compressed columns, blocked openings, and weak outer edges. The final arrangement should support the intended equipment, preserve bag operation, and remain comfortable when loaded.

How Does a Factory Test the Design?

A MOLLE design is tested through dimensional measurement, attachment fitting, load checks, sewing inspection, movement trials, and finished-bag evaluation. The grid must retain its approved geometry after foam, lining, pockets, binding, and curved seams are assembled. Testing should confirm not only that a pouch can be installed, but also that it stays stable, nearby functions remain accessible, and the same construction can be repeated during volume production.

The inspection begins before the first complete bag is sewn. Webbing width, thickness, stiffness, base fabric, reinforcement, thread, needle size, and bar-tack settings should be checked on a trial panel. This smaller panel helps reveal tight channels, fabric puckering, coating damage, stitch imbalance, and poor load transfer without consuming the time and materials needed for a complete sample.

Testing should cover six connected areas:

The most important test is performed on the finished three-dimensional product. A flat MOLLE panel may measure correctly before assembly, but foam compression, curved seams, lining, binding, and pocket layers can reduce the usable openings.

A grid that passes on the cutting table may fail after the bag is completed.

What Does the MOLLE Sample Process Include?

The sample process should turn a drawing into a measurable, usable construction. Each stage needs a clear result before the next stage begins.

A practical sequence includes:

1. Review the intended bag use and attached equipment.
2. Confirm the outer dimensions and usable attachment zones.
3. Record the number of rows and columns.
4. Select webbing, outer fabric, backing, foam, thread, and hardware.
5. Prepare a trial panel when the structure is new or heavily loaded.
6. Sew the complete bag sample.
7. Measure the finished grid.
8. Fit several reference pouches.
9. Load the pouches to their intended service weight.
10. Check zippers, pockets, buckles, straps, balance, and comfort.
11. Record corrections with photographs and dimensions.
12. Produce a revised sample when required.
13. Create an approved construction record for production.

The early review should define the exact attachment modules. A note such as “compatible with MOLLE pouches” is too broad. More useful information includes:

• one-column, two-column, or four-column pouch;
• number of backing straps;
• strap width and thickness;
• soft or reinforced strap construction;
• pouch depth when filled;
• expected loaded weight;
• mounting position;
• access direction.

A trial panel is especially useful for:

• heavy or unusually stiff webbing;
• coated outer fabrics;
• laminated panels;
• laser-cut structures;
• dense bar-tack programs;
• padded curved surfaces;
• large attachment areas;
• heavily loaded tool or equipment pouches.

The trial panel should use the real material stack. Testing webbing on a single scrap of outer fabric will not predict how it behaves over backing, foam, pocket layers, or lining.

A complete sample record may include:

Photographs alone are not enough. Camera angle and lens distortion can hide dimensional differences. Written measurements should accompany every important correction.

The physical sample should also be compared with the material record. Substituting a slightly thicker webbing or softer backing later may change attachment clearance even when the visible layout remains the same.

How Long Does a Custom MOLLE Sample Take?

A straightforward custom bag sample commonly takes 5–7 days after the main construction, materials, dimensions, and artwork are confirmed. Some simple developments may be completed in 2–3 days. A new tactical backpack with several MOLLE zones, custom patterns, special materials, or repeated fit testing may need additional time.

The sewing time is only one part of the schedule.

A simple modification to an established bag can move quickly. A new design takes longer because several parts affect one another.

For example, moving the grid upward by 20 mm may appear minor, yet it can affect:

• the logo position;
• top-pocket clearance;
• zipper access;
• internal reinforcement;
• sewing marks;
• webbing cut lengths;
• bar-tack templates;
• pouch balance.

Material sourcing should be separated from sample sewing time. A sample room may complete the bag within several days once all materials are ready, while a custom webbing color, molded buckle, laminate, or special zipper may require a longer preparation period.

Shipping time is also separate. The development schedule should distinguish:

• specification review;
• material preparation;
• sample construction;
• internal inspection;
• courier transit;
• review time;
• revision time.

Rushing the first sample rarely saves time when functional checks are skipped. Discovering that a four-column pouch cannot be installed after several hundred panels have been sewn creates a much larger delay than adding one careful trial before production.

How Are Bar Tacks and Reinforced Areas Checked?

Bar tacks secure the horizontal rows to the supporting panel and divide the webbing into usable columns. Their position, thread formation, density, length, width, and interaction with the fabric all affect performance.

The first dimensional check confirms that the vertical attachment columns follow the approved 38.1 mm pitch. The inspection should measure from consistent reference locations, preferably stitch center to stitch center.

Both sides of the panel should be examined.

The front side reveals:

• vertical alignment;
• webbing distortion;
• puckering;
• skipped stitches;
• thread color;
• edge folding;
• bar-tack position.

The reverse side reveals:

• loose loops;
• unbalanced thread tension;
• tangled thread;
• damaged backing;
• exposed needle holes;
• incomplete stitch locking;
• reinforcement coverage.

A dense bar tack is not automatically a strong bar tack. Too many needle penetrations in a small area can cut yarns in coated fabric and create a tear line. Thread size, needle size, stitch count, webbing thickness, outer fabric, and backing must work as one structure.

The reinforcement should extend beyond the loaded stitch area. A backing patch that ends directly beneath the outer bar tack creates a hard transition and may shift the failure to the edge of the patch.

Useful backing arrangements include:

• a second layer of stable woven fabric;
• internal structural webbing;
• laminated support;
• shaped reinforcement connected toward side seams;
• support linked to the lower panel seam;
• a wider load-distribution layer behind several columns.

The backing should follow the force direction. A loaded pouch normally pulls outward and downward. Reinforcement that supports only the upper edge may leave the lower rows exposed to greater stress.

The test sequence should include:

• visual inspection before loading;
• dimensional measurement;
• pouch installation;
• static load holding;
• movement or repeated handling;
• pouch removal;
• post-load measurement;
• inspection of thread, holes, coating, fabric, and backing.

The load must reflect the real use. A lightweight first-aid pouch and a metal tool pouch should not share the same acceptance value without review.

For internal development, the normal service load can be tested first, followed by an agreed additional margin. The value, holding time, pouch position, and bag orientation should be written in the project record rather than left to personal judgment.

After loading, examine:

• elongated needle holes;
• broken or loose thread;
• permanent row stretching;
• outer-panel bowing;
• coating cracks;
• backing movement;
• seam distortion;
• webbing curl;
• changes in pouch position.

A panel can remain unbroken yet still fail functionally. Permanent bowing, excessive movement, or difficult zipper access may be enough to require a structural change.

Do Standard MOLLE Pouches Fit the Sample?

Reference pouches should be installed on every intended attachment zone, not only on the easiest section of the sample.

Pouch backing systems vary. Some use soft woven straps, while others use stiff reinforced straps, snaps, clips, or molded polymer attachments. A grid that works with a soft strap may be unusable with a thicker one.

A useful fitting set includes:

• a narrow one- or two-column pouch;
• a medium three-column pouch;
• a wide four-column pouch;
• a flat organizer;
• a deep utility pouch;
• a soft attachment strap;
• a firm reinforced attachment;
• a snap or clip closure.

Wide pouches are valuable because they reveal accumulated spacing errors. A two-column module may fit correctly in the center even when the complete grid becomes narrower toward the edges.

The installation check should record:

The fitting should be performed with the pouch empty and loaded.

An empty pouch can hide several problems:

• the body expands into a zipper when filled;
• the center of gravity pulls the panel outward;
• the lower edge presses against another pocket;
• the attached item swings during walking;
• the bag becomes unbalanced;
• the pouch blocks the main opening.

The complete bag should be worn during review. Tabletop inspection cannot show arm interference, hip pressure, neck contact, backward pull, or uneven side loading.

Useful movement checks include:

• walking;
• climbing stairs;
• bending;
• sitting;
• placing the bag on the ground;
• opening the main compartment;
• tightening compression straps;
• removing the mounted item while wearing gloves when relevant.

Attachment force should feel controlled. If the strap must be forced through with pliers or another tool, the channels are too tight. If the strap falls through with almost no resistance and the pouch moves freely, the structure may be too loose.

The reference pouches used for approval should be kept or documented clearly. A later production run should not be judged with an unknown accessory whose strap thickness differs significantly from the original test item.

Which QC Checks Reduce Bulk Production Risk?

The most effective inspection plan begins with materials and continues through panel sewing, bag assembly, finished-product checks, packing, and shipment. Final inspection alone cannot correct webbing already trapped inside completed construction.

The control stages should be tied to the way the defect is created.

Incoming webbing should be checked across more than one location on the roll. A strip that changes width or stiffness can create inconsistent openings even when the sewing template remains accurate.

Color should be compared with the approved reference under consistent lighting. Black, olive, khaki, tan, and similar shades often show differences between fabric, webbing, thread, plastic parts, and zipper tape.

The first completed panel from each setup should be inspected before the remaining work continues. Changing operators, machines, templates, thread, needles, or material lots can alter the result.

The setup review should confirm:

• webbing tension;
• row opening;
• column pitch;
• first and final stitch positions;
• bar-tack program;
• backing location;
• thread balance;
• absence of blocked channels.

Several consecutive panels should be reviewed after the first piece. One acceptable unit does not prove that the setup remains stable during normal sewing speed.

Templates and gauges improve consistency.

A useful gauge can show:

• top-row position;
• each 25.4 mm opening;
• 38.1 mm column references;
• outer grid width;
• edge clearance;
• zipper exclusion zones.

A rigid or semi-rigid go/no-go template is faster and more reliable than repeatedly measuring every feature with a flexible tape.

Inspection frequency should reflect risk. New constructions, curved areas, heavily loaded zones, and recently corrected defects deserve more frequent checks than a stable repeated style.

Defects should be separated by their effect.

A functional defect should not be treated as minor simply because the product still looks neat.

Production records should retain:

• approved sample version;
• material lot;
• webbing lot;
• pattern revision;
• template revision;
• machine setting;
• reference pouch;
• critical dimensions;
• inspection result;
• correction history.

When a correction is made, the updated instruction must reach pattern, cutting, sewing, inspection, and packing teams. Changing only the sample without changing the production records leaves the original problem in place.

Multi-stage control is more effective than relying on a final check. Jundong’s documented quality process begins with incoming materials and continues through production, packing, and shipment, with different inspection priorities set according to the bag structure and intended use.

The purpose of testing is not to create a thick inspection file. It is to prove that the approved MOLLE layout fits real equipment, supports the intended load, preserves the bag’s other functions, and can be repeated with controlled variation.

How Should You Start a Custom Project?

A custom MOLLE project should begin with the intended use, attached equipment, finished size, expected load, material direction, quantity, packing method, and delivery schedule. A complete technical pack is helpful but not essential at the first stage. A reference photo, sketch, existing sample, or full-scale layout can establish the direction, followed by confirmation of grid dimensions, reinforcement, hardware, logo, testing, and production requirements.

The most expensive changes are rarely color changes. They are structural changes made after patterns, materials, pocket positions, and sewing templates have already been confirmed.

Moving a MOLLE grid upward by 20 mm may affect the top pocket, logo position, reinforcement, zipper access, webbing cut length, and stitching template. Adding one extra row may force the front pocket lower, reduce the logo area, or place the bottom strip too close to an abrasion zone.

For this reason, early discussions should settle function before appearance.

A useful project sequence is:

A project can start with incomplete information, but it should not enter sampling with unresolved assumptions about size, material, quantity, or function.

What Information Should Be Shared First?

The first set of information should explain what the bag must do, what it must carry, how it will be used, and which details are already fixed.

A long file is not necessary. Clear information is more useful than a large amount of general description.

The most important starting details are:

For a MOLLE bag, five extra details are especially useful:

• the width of the largest planned pouch;
• the number of attachment straps on each pouch;
• the loaded weight of external modules;
• whether the pouch must be removed frequently;
• which zippers, logos, and handles must remain unobstructed.

A three-column pouch does not always occupy only 114.3 mm. Its backing straps may fit three columns, while the filled pouch body extends 10–30 mm beyond each side. That extra width may cover a zipper or interfere with a neighboring module.

The depth of the pouch also matters. A 50 mm-deep organizer remains close to the panel. A 120 mm-deep tool pouch creates much more leverage, even when both use the same backing width.

When a physical sample is available, useful review details include:

• which parts must stay unchanged;
• which parts need improvement;
• preferred fabric feel;
• acceptable weight;
• current defects;
• expected unit cost;
• target packing size.

Sending a reference sample without notes can create another product that looks similar but repeats the same problems.

A clear brief might read:

“Develop a 28-liter tactical backpack for field service. The lower front grid must hold one four-column tool pouch weighing 2.5 kg when loaded. The upper zipper must remain fully accessible. Use black woven fabric with a firm structure, embroidered logo above the grid, 800 pieces, individually packed with barcode labels.”

That statement gives enough direction to begin a meaningful review.

What Affects Custom MOLLE Bag Cost?

The cost of a custom MOLLE bag comes from the complete construction, not only from the number of horizontal rows.

Two bags with the same outside size may have very different costs because of fabric grade, backing structure, zipper quality, foam, hardware, sewing time, logo work, packing, and inspection requirements.

The main cost areas are:

MOLLE rows add more than webbing cost. Each strip must be cut, positioned, aligned, and secured. Every vertical column requires stitching. Backing has to be placed correctly. More rows also create more inspection locations.

A simple comparison shows how coverage changes sewing work:

This simplified count does not include row-end securing, backing work, inspection, or panel preparation. It shows why a large full-front grid needs more time than a compact lower attachment zone.

Material grade can create an equally large difference. A basic polyester construction with standard hardware is not priced the same as a dense nylon shell with branded zippers, molded buckles, structured foam, reinforced shoulder anchors, and matched webbing.

The most useful quotation should identify:

• finished size;
• outer fabric and lining;
• webbing type;
• reinforcement;
• zipper and buckle level;
• logo method;
• quantity;
• packing;
• sample charge;
• expected sampling period;
• production period;
• any setup, mold, or special-process charge.

A price that does not define these items is difficult to compare fairly.

Changing the grid from sewn webbing to laser-cut construction also changes the cost structure. Traditional construction uses more separate strips and stitch operations. Laser-cut construction may reduce visible sewing but requires a suitable laminate, stable bonding, cutting time, and often additional support.

Neither method should be selected on material price alone.

Cost can often be controlled without weakening the essential function. Useful adjustments include:

• reducing unused MOLLE rows;
• using one attachment zone instead of three;
• keeping standard hardware colors;
• limiting the number of custom trims;
• using one logo process;
• simplifying internal pockets;
• keeping one outer fabric across several SKUs;
• using standard packing instead of a rigid gift box.

Cutting reinforcement, narrowing standard columns, or removing structural stitching is not a sensible saving when loaded modules depend on those areas.

How Should Tactical Bag Factories Be Compared?

A tactical bag factory should be compared through physical samples, material control, pattern accuracy, sewing consistency, functional testing, inspection records, and the ability to preserve approved details during repeat production.

Product photographs reveal appearance. They do not show whether a four-column pouch fits, whether the back panel deforms under load, or whether the approved dimensions can be repeated.

A useful comparison can follow these areas:

The sample should be tested rather than only viewed.

A useful review includes:

• attach the widest planned pouch;
• load it to a realistic weight;
• open all nearby zippers;
• tighten compression straps;
• wear the bag for 20–30 minutes;
• walk, bend, and sit;
• remove the pouch;
• inspect bar tacks, holes, backing, and panel shape.

Several warning signs are easy to miss during a quick visual check:

• MOLLE openings narrow after final assembly;
• wide pouches align in the center but not near the edges;
• the webbing twists when a strap is inserted;
• the front pocket pulls away under moderate load;
• backing ends inside the loaded area;
• bar tacks cause fabric puckering or coating damage;
• side modules rub against the arm;
• attached pouches block the clamshell opening;
• materials differ from the sample record;
• important dimensions are not written down.

Technical disagreement can be a positive sign.

Adding another row may look simple but leave too little clearance above a pocket. A thicker webbing may sound stronger but make straps harder to weave. A larger reinforcement patch may increase stiffness without improving the actual load path.

A reliable development team should explain such conflicts before the sample is made.

The comparison should also include repeat-order control. Ask how the following are preserved:

• webbing source;
• fabric code;
• color standard;
• zipper specification;
• buckle model;
• pattern revision;
• bar-tack program;
• approved sample;
• packaging record.

A good first sample is valuable. The ability to reproduce it six months later is more valuable.

When Is the Design Ready for Bulk Production?

A MOLLE bag is ready for volume production only after the physical sample, materials, dimensions, attachment performance, logo, packing, and inspection requirements have been confirmed.

Visual approval alone is not enough.

The approved sample should be supported by written records because a physical item cannot explain which details are critical or which differences are acceptable.

A release checklist may include:

Production should not begin while important details remain described as:

• similar material;
• matching color;
• standard zipper;
• normal webbing;
• approximately the same;
• decide during production.

These phrases leave too much room for variation.

The final sample should also be checked against the latest drawing. During development, it is common for the physical item to change while the drawing remains old. That mismatch can create confusion when cutting, sewing, inspection, and packing teams follow different references.

Before release, confirm that:

• the final sample matches the latest specification;
• the material list matches the physical sample;
• intended modules fit all required attachment zones;
• loaded pouches do not block essential features;
• reinforcement supports the planned weight;
• stitch positions are recorded;
• packaging has been tested with the real bag;
• inspection methods are available;
• every sample change has been added to the production record.

Jundong’s standard MOQ is normally 500 pieces per design. Straightforward styles may be reviewed at 200–300 pieces depending on the construction. Sampling usually takes 5–7 days after details and materials are confirmed, while some simple styles may take 2–3 days. Volume production commonly takes 20–30 days after approval; transport time is separate. Sample charges can be refunded or deducted when an order reaches 2,000 pieces.

These periods should be treated as planning references rather than fixed promises. Custom-colored webbing, special hardware, multiple revisions, complex packing, or additional testing can extend the schedule.

Are Custom MOLLE Layouts Suitable for Every Bag?

MOLLE is useful when equipment must be removed, rearranged, replaced, or shared across several carrying products. It is unnecessary when dedicated pockets already organize the contents well or when external rows reduce comfort, appearance, flexibility, or weight performance.

A MOLLE layout is usually appropriate when:

• several pouch combinations are planned;
• one bag must support different tasks;
• external access is important;
• accessories are part of the same product line;
• attached modules need to be replaced quickly;
• the supporting structure can carry the expected load.

It may be unsuitable when:

• the bag must remain extremely lightweight;
• the outer panel is soft and unsupported;
• a clean fashion appearance is essential;
• modules would block the main opening;
• the available surface is strongly curved;
• internal organization provides better protection;
• no compatible accessories are planned;
• the added sewing and material create little practical value.

Partial modularity often provides the best balance.

The final layout should be tested with the actual equipment placed at full scale.

Before approval, check:

• total attached width;
• loaded pouch depth;
• hand access;
• zipper clearance;
• logo visibility;
• body movement;
• left-to-right balance;
• empty bag weight;
• packed carton size.

A MOLLE grid should be included because it solves a real carrying need, not simply because the bag is intended to look tactical.

Jundong can review a reference photo, drawing, existing sample, dimensions, intended modules, loaded weight, material direction, logo, quantity, packing needs, and delivery schedule. Project information can be sent to info@jundongfactory.com for an initial structure and sampling review.