Cutting to Packing Process in Garments Industry

Introduction

The garment manufacturing industry involves several interconnected processes that transform fabric into finished clothing products. From T-shirts and polo shirts to hoodies, sweatshirts, trousers, and jackets, every garment passes through multiple production stages before it is ready for shipment.

Among these stages, the cutting to packing process in the garments industry is particularly important because it directly affects garment quality, production efficiency, material utilization, and delivery performance.

After fabric is received and approved for production, it is prepared for cutting. The cut fabric panels are then transferred to sewing, where they are assembled into garments. After sewing, the garments pass through finishing, inspection, folding, and packing before being prepared for shipment.

Each stage requires proper planning, skilled workers, suitable machinery, and effective quality control. A mistake during cutting, sewing, or packing can result in defective products, material waste, shipment delays, and additional costs.

In this article, we will explain the complete cutting to packing process step by step, using practical examples from the garment manufacturing industry, especially knit garment production.

What Is the Cutting to Packing Process?

The cutting to packing process refers to the sequence of garment manufacturing operations that begins with preparing fabric for cutting and ends with packing finished garments into cartons.

The main stages typically include:

1. Fabric inspection and relaxation
2. Fabric spreading
3. Marker making
4. Fabric cutting
5. Numbering and bundling
6. Printing or embroidery, where required
7. Sewing and garment assembly
8. Inline and end-line quality inspection
9. Thread trimming and garment finishing
10. Measurement and final quality inspection
11. Pressing or steaming, where required
12. Folding and tagging
13. Polybag packing
14. Carton packing and final shipment preparation

The exact sequence can vary according to garment style, factory layout, buyer requirements, and the use of special processes such as washing, printing, or embroidery.

Step 1: Fabric Inspection

Fabric inspection is one of the first important activities before bulk cutting begins.

The purpose is to identify fabric defects that could affect the appearance, quality, or measurements of the finished garments.

The fabric inspection team checks the fabric according to the factory's approved inspection procedure. Common inspection systems include the four-point system, depending on factory and buyer requirements.

Common fabric defects

• Holes and broken yarns
• Oil stains and dirt marks
• Uneven dyeing
• Shade variation
• Knitting defects
• Barre marks
• Fabric contamination
• Uneven GSM
• Width variation
• Spirality or other dimensional problems

For knit garments, shade variation is particularly important because different fabric rolls may have slightly different colors, even when they are identified as the same color.

The quality team may check fabric rolls for shade consistency, usable width, GSM, and other specified requirements.

Why is fabric inspection important?

If defective fabric is cut and converted into garments, the factory may lose time and money during sewing and finishing. Early detection allows the team to isolate defective rolls and take corrective action before production continues.

Practical example: If a fabric roll contains oil stains or visible knitting defects, the cutting team should be informed before using that roll for bulk production.

Step 2: Fabric Relaxation

Fabric relaxation is the process of allowing fabric to rest before cutting so that internal tension can reduce and the fabric can stabilize.

Knitted fabrics, especially single jersey, may stretch during winding, transportation, and handling. Cutting fabric before sufficient relaxation can contribute to dimensional changes and garment measurement problems.

Fabric relaxation procedure

1. Receive the approved fabric rolls.
2. Identify the fabric type and applicable relaxation requirements.
3. Open or unwind the fabric according to the factory procedure.
4. Allow the fabric to relax for the required period.
5. Check the fabric condition before spreading.

The required relaxation time depends on fabric construction, fiber content, finishing process, and factory practice.

For example, cotton single jersey and cotton-spandex jersey may behave differently during relaxation. Therefore, the factory should follow the approved procedure for each fabric type instead of using the same relaxation time for every order.

Benefits of fabric relaxation

• Reduces the risk of dimensional changes after cutting.
• Supports better cutting accuracy.
• Helps maintain garment measurements.
• Reduces the possibility of unexpected fabric shrinkage affecting production.

Fabric relaxation should be coordinated with the cutting plan so that it does not create unnecessary production delays.

Step 3: Marker Making

Marker making is the process of arranging garment pattern pieces on a fabric layout to minimize fabric waste while ensuring that all required garment parts can be cut correctly.

The marker contains pattern pieces for the garment sizes and quantities included in a cutting plan.

Marker making is commonly performed using CAD software, although manual methods may also be used in some factories.

Important considerations in marker making

• Garment size ratio
• Fabric usable width
• Pattern dimensions
• Grain direction
• Knit fabric direction and pattern requirements
• Print or stripe matching, where applicable
• Fabric defects and shade limitations
• Fabric utilization and marker efficiency

For example, if a buyer orders 1,000 T-shirts in sizes S, M, L, and XL, the marker must reflect the required size ratio.

If the order contains more large sizes, the marker arrangement may differ from one containing mostly small sizes.

Marker efficiency formula

Marker efficiency is calculated as:

[
\text{Marker Efficiency (%)}=
\frac{\text{Total Pattern Area}}{\text{Marker Area}}\times100
]

Suppose the total pattern area is 80 square meters and the marker area is 100 square meters.

[
\text{Marker Efficiency}=\frac{80}{100}\times100=80%
]

Therefore, the marker efficiency is 80%.

Higher marker efficiency generally indicates better fabric utilization, although the best achievable result depends on the garment style, size assortment, fabric width, and production constraints.

Step 4: Fabric Spreading

Fabric spreading is the process of laying fabric in multiple layers on the cutting table according to the approved marker and cutting plan.

The spread is prepared to ensure that the fabric layers remain properly aligned and can be cut accurately.

Types of fabric spreading

Manual spreading: Workers spread fabric layers by hand.

Automatic spreading: A spreading machine lays the fabric according to the required length and spreading settings.

The suitable method depends on factory capacity, fabric type, order quantity, and available equipment.

Important points during spreading

• Use the correct fabric lot and shade.
• Confirm the fabric width.
• Maintain proper alignment.
• Avoid excessive tension.
• Prevent wrinkles and folds.
• Follow the planned number of plies.
• Check fabric defects during spreading.
• Ensure the marker is positioned correctly.

For knit fabrics, excessive tension during spreading can cause problems because the fabric may stretch and later relax, affecting the accuracy of the cut panels.

The cutting team must also follow the buyer's shade requirements. Where shade segregation is necessary, panels from different shade groups should not be mixed in the same garment.

Step 5: Fabric Cutting

Fabric cutting is the process of cutting the spread fabric according to the approved marker.

The objective is to produce accurate garment panels that match the pattern shape and required measurements.

Common cutting equipment

• Straight knife cutting machine
• Round knife cutting machine
• Band knife cutting machine
• Die cutting machine for suitable applications
• Computer-controlled automatic cutting machine

The cutting method depends on the fabric type, spread height, pattern complexity, order quantity, and factory equipment.

Cutting procedure

1. Verify the approved marker.
2. Check the fabric spread and ply height.
3. Position the marker correctly.
4. Secure the fabric layers when required.
5. Cut the fabric according to the pattern outlines.
6. Separate and check the cut panels.
7. Identify any cutting defects.
8. Transfer approved panels to the next operation.

Common cutting defects

• Incorrect panel dimensions
• Notches in the wrong position
• Uneven cutting edges
• Missing panels
• Mixed fabric shades
• Frayed or damaged edges
• Fabric shifting during cutting

Accurate cutting is essential because incorrect panels can create problems during sewing and may cause garments to fail measurement inspection.

Practical example: If the front panel of a T-shirt is cut wider than the approved pattern, the sewing operator may struggle to match it correctly with the back panel, resulting in an incorrect chest measurement.

Step 6: Numbering, Sorting, and Bundling

After cutting, garment panels are identified, sorted, and bundled for the next production operations.

Numbering and bundling help maintain panel traceability and reduce the risk of mixing different sizes, colors, or fabric shades.

A bundle may contain the required components for a specific number of garments, depending on the factory's production system.

Typical bundling information

• Style number
• Purchase order or cutting order number
• Color
• Size
• Bundle number
• Quantity
• Fabric shade or lot identification, where applicable

For example, a bundle may contain 20 sets of medium-size black T-shirt panels.

The cutting team transfers the bundles to printing, embroidery, or sewing, depending on the production sequence.

Why is bundling important?

Proper bundling helps:

• Prevent size mixing.
• Reduce missing garment components.
• Maintain shade consistency.
• Track production quantities.
• Support smooth sewing-line operations.

Incorrect bundling can lead to garments with mismatched shades, wrong sizes, or missing panels.

Step 7: Printing or Embroidery

Not every garment requires printing or embroidery. However, for graphic T-shirts, branded polos, hoodies, and similar products, this stage may take place between cutting and sewing.

The exact sequence depends on the garment construction and production method.

Printing process

For garments requiring prints, the cut panels may be sent to the printing section before sewing.

Common printing methods include:

• Screen printing
• Heat transfer printing
• Digital printing
• Other approved specialty printing methods

The printing team must follow the buyer's approved artwork, color references, print dimensions, and placement instructions.

Important quality checkpoints include:

• Correct artwork
• Correct print color
• Print size
• Print placement
• Registration
• Adhesion and curing
• Cracking or other print defects

Embroidery process

Embroidery may be applied to cut panels or finished garments, depending on the design and manufacturing method.

The team must check embroidery placement, thread colors, density, appearance, and fabric damage.

After printing or embroidery, the panels should be checked according to the required quality standards before being transferred to sewing.

Step 8: Sewing and Garment Assembly

Sewing is the process of joining the cut fabric panels to produce the required garment.

This is often one of the most labor-intensive stages of garment manufacturing.

The sewing sequence depends on the garment design, construction, and production-line layout.

Example: Basic knit T-shirt sewing sequence

A simplified T-shirt sewing sequence may include:

1. Shoulder joining
2. Neck rib preparation
3. Neck rib attachment
4. Neck seam finishing or topstitching, if required
5. Sleeve attachment
6. Side seam joining
7. Sleeve hem stitching
8. Bottom hem stitching
9. Label attachment at the required operation
10. Final sewing inspection

The exact operation sequence may vary according to the garment's construction and the factory's production method.

Common sewing machines

• Single-needle lockstitch machine
• Overlock machine
• Flatlock machine
• Coverstitch machine
• Specialized machines for specific operations

For knit T-shirts, overlock and coverstitch machines are commonly used for joining and hemming operations.

Common sewing defects

• Skipped stitches
• Broken stitches
• Open seams
• Uneven stitching
• Incorrect seam allowance
• Uneven neckline
• Twisted side seams
• Puckering
• Incorrect label placement

The sewing supervisor and quality team must monitor production continuously to identify defects before they spread across large quantities.

Step 9: Inline and End-Line Quality Inspection

Quality inspection should not be limited to the final stage. It must be integrated into the production process.

Inline inspection

Inline inspection takes place while garments are being manufactured.

Quality inspectors check sewing operations, measurements where applicable, workmanship, and compliance with the approved sample.

If a defect is identified, the responsible operator or supervisor should be informed immediately.

End-line inspection

End-line inspection is conducted when a garment has completed the required sewing operations.

The team checks the garment for visible defects and verifies that the required components and construction details are correct.

Important inspection points

• Seam quality
• Stitch density and consistency, where specified
• Neckline shape
• Sleeve attachment
• Side seam alignment
• Hem quality
• Label placement
• Print or embroidery quality
• Visible stains and holes
• General appearance

Early inspection reduces rework and helps prevent defective garments from moving to the finishing section.

Step 10: Thread Trimming and Garment Cleaning

After sewing, garments often contain loose thread ends that must be removed.

Thread trimming and cleaning improve garment appearance and prepare the products for finishing and final inspection.

Main activities

• Remove loose thread ends.
• Check seams and stitching.
• Remove removable dust or loose fibers.
• Inspect garments for stains.
• Check print and embroidery appearance.
• Separate defective garments for correction.

Care should be taken not to damage the garment while trimming threads.

If oil stains, holes, broken stitches, or other defects are found, the garment should be sent for appropriate correction or further evaluation.

Step 11: Garment Washing and Special Finishing

Some garments require washing or special finishing after sewing.

This stage is especially relevant to washed T-shirts, denim products, pigment-dyed garments, and certain fashion styles.

Common processes may include:

• Enzyme washing
• Softener washing
• Pigment washing
• Garment dyeing
• Special effects washing
• Other buyer-approved finishing treatments

Not every garment requires washing. Basic T-shirts may proceed directly to finishing and inspection.

Important washing checkpoints

• Approved color and appearance
• Measurement changes
• Shrinkage
• Shade consistency
• Hand feel
• Print durability and appearance
• Seam condition
• Required testing results

Washing can affect garment measurements and color. Therefore, the factory should verify the relevant requirements and carry out required checks before proceeding to packing.

Step 12: Measurement Checking and Final Quality Inspection

After sewing and any required washing, garments are checked against the approved measurement chart and quality standards.

The quality team checks the finished garment to determine whether it meets the buyer's requirements.

Measurement checking

For a T-shirt, common measurement points include:

• Chest width
• Body length
• Shoulder width
• Sleeve length
• Sleeve opening
• Bottom opening
• Neck width
• Neck drop

Measurements should be taken using the buyer's specified measurement method and tolerance.

Final quality inspection

The final inspection may include checks for:

• Fabric defects
• Sewing defects
• Incorrect measurements
• Color and shade problems
• Print or embroidery defects
• Incorrect labels
• Stains and holes
• Overall garment appearance

Some buyers require a formal final inspection using an agreed sampling plan or AQL-based procedure.

AQL, or Acceptable Quality Limit, is used in certain inspection systems to determine acceptance criteria for a sample. The required inspection standard should be confirmed with the buyer rather than assumed.

If the garments fail inspection, the factory may need to sort, repair, recheck, or reinspect the affected goods before shipment.

Step 13: Pressing or Steaming

Depending on the product and buyer requirements, garments may be pressed or steamed before folding.

Pressing helps improve garment appearance, remove unwanted creases, and prepare garments for presentation.

However, not all knit garments require conventional pressing. Some products may be finished through steaming, shaping, or other approved methods.

Important precautions

• Use the appropriate temperature.
• Avoid shine marks.
• Prevent scorching.
• Protect prints and heat-sensitive decorations.
• Avoid stretching or distorting the garment.
• Follow the fabric care and finishing requirements.

The finishing team should use a method appropriate for the fabric composition and garment construction.

Step 14: Folding and Tagging

Once garments pass the required quality checks, they are prepared for folding and tagging.

Folding methods depend on the buyer's packing instructions and product presentation requirements.

For example, a T-shirt may be folded into a standard rectangular shape, while a hoodie may require a different folding method because of its bulk.

Tagging activities

Depending on the order, the team may attach:

• Main labels, if not already attached
• Brand hangtags
• Price tickets
• Barcode stickers
• Size stickers
• Promotional tags
• Other required product information

The merchandiser and quality team should verify that the correct tags, barcodes, and labels are used for each style, color, and size.

Incorrect barcodes or size stickers can create serious problems during warehouse receiving and retail distribution.

Step 15: Polybag Packing

Polybag packing involves placing folded garments into individual or grouped polybags according to the buyer's packing instructions.

Some orders require one garment per bag, while others use multiple garments in one bag.

Important polybag checks

• Correct bag size
• Correct bag type and thickness, where specified
• Proper garment folding
• Correct barcode or size sticker
• Required warning labels
• Correct quantity per bag
• Compliance with applicable packaging requirements

Some buyers require recyclable packaging, recycled-content materials, reduced packaging, or specific plastic restrictions. The factory must follow the applicable buyer and destination-market requirements.

The packing team should ensure that the correct garment is placed inside each bag.

For example, a size-L T-shirt should not be packed with a size-M sticker or barcode.

Step 16: Carton Packing

After polybag packing, garments are packed into export cartons according to the approved packing plan.

The carton-packing process must maintain the correct style, color, size, and quantity breakdown.

Carton packing procedure

1. Confirm the correct carton type and dimensions.
2. Verify the packing ratio.
3. Place the required quantity of garments inside each carton.
4. Check the style, color, and size assortment.
5. Close and seal the carton according to instructions.
6. Apply the required shipping marks.
7. Record the carton quantity and identification details.
8. Transfer the cartons to the finished-goods area.

What is a packing ratio?

A packing ratio indicates how garments are distributed across sizes within a carton or packing unit.

For example, a carton ratio might specify:

S = 2 pieces, M = 4 pieces, L = 4 pieces, XL = 2 pieces.

The total quantity per carton is:

2 + 4 + 4 + 2 = 12 pieces.

This is only an example. The factory must follow the actual ratio specified by the buyer.

Carton information

Depending on buyer instructions, carton markings may include:

• Buyer name
• Purchase order number
• Style number
• Color
• Size or size assortment
• Carton number
• Quantity
• Gross weight
• Net weight
• Carton dimensions
• Destination or shipping marks

Accurate carton information helps the warehouse, freight forwarder, and buyer identify and handle the shipment correctly.

Step 17: Final Packing Audit and Shipment Readiness

Before shipment, the factory should verify that the finished goods and packing documents are consistent.

The final packing audit may include checking carton quantities, packing ratios, barcode accuracy, shipping marks, carton condition, and the required inspection status.

The merchandiser should compare the packing list with the actual packed quantities.

For example, if a purchase order requires 5,000 pieces but the packing list shows 4,950 pieces, the discrepancy must be investigated before the shipment documents are finalized.

The team should also confirm that the required final inspection has been completed and that the goods are ready for dispatch.

Once all required checks are completed, the packed garments can be transferred to the warehouse or arranged for shipment according to the buyer's instructions.

Cutting to Packing Process Flow Chart

The following flow summarizes the typical production sequence:

Fabric Inspection → Fabric Relaxation → Marker Making → Fabric Spreading → Fabric Cutting → Numbering and Bundling → Printing or Embroidery (if required) → Sewing → Inline and End-Line Inspection → Thread Trimming → Washing (if required) → Final Measurement and Quality Inspection → Pressing or Steaming (if required) → Folding and Tagging → Polybag Packing → Carton Packing → Final Packing Audit

The sequence may vary according to the garment style, production method, and buyer requirements.

Common Problems in the Cutting to Packing Process

Garment factories may experience several problems during production. Identifying these issues early helps improve efficiency and quality.

1. Fabric shade variation

Different fabric rolls may have different shades, causing visible color differences between garment panels.

Solution: Follow shade segregation and fabric-lot control procedures.

2. Cutting inaccuracies

Incorrect marker placement, fabric movement, or cutting mistakes can produce panels with the wrong dimensions.

Solution: Check the marker, spreading alignment, and cutting accuracy before bulk operations continue.

3. Mixed sizes or bundles

Incorrect numbering or bundle handling can lead to garments with mismatched sizes or components.

Solution: Maintain clear bundle identification and production tracking.

4. Sewing defects

Poor machine settings, incorrect handling, or insufficient operator training can cause stitching problems.

Solution: Monitor inline quality and correct defects at the source.

5. Measurement failures

Incorrect patterns, fabric shrinkage, or sewing variations can cause garments to fall outside the required tolerances.

Solution: Verify patterns, follow approved process controls, and conduct measurement checks at suitable stages.

6. Incorrect labeling or barcodes

Wrong labels, hangtags, or barcodes can create receiving and distribution problems.

Solution: Verify label approvals and scan barcodes where the process supports it.

7. Packing quantity discrepancies

Incorrect carton quantities can result in shipment shortages or documentation errors.

Solution: Reconcile packed quantities with the packing list and purchase order before dispatch.

How to Improve Efficiency in Cutting to Packing

Factories can improve productivity and reduce losses by applying practical production-management methods.

• Maintain a clear production flow between departments.
• Use accurate markers and review marker efficiency.
• Control fabric spreading tension.
• Separate fabric shades and lots where required.
• Train cutting and sewing operators.
• Perform quality checks throughout production.
• Reduce unnecessary movement of cut panels and finished garments.
• Track daily production targets and actual output.
• Maintain accurate bundle and carton records.
• Monitor rework and defect rates.
• Follow the buyer's approved packing instructions.
• Communicate production bottlenecks early.

A well-organized production system helps reduce waste, improve product quality, and support on-time delivery.

Role of the Merchandiser in the Cutting to Packing Process

Although the cutting, sewing, quality, and packing departments perform the physical operations, the merchandiser plays an important coordination role.

The merchandiser should:

1. Confirm that the technical pack and required approvals are available.
2. Follow up on fabric and accessories readiness.
3. Coordinate the production timeline with the planning team.
4. Ensure that approved samples and specifications are communicated to production.
5. Monitor cutting and sewing progress.
6. Follow up on printing, washing, and other special processes.
7. Coordinate with quality teams regarding inspection status.
8. Check packing instructions and labeling requirements.
9. Monitor packed quantities against the purchase order.
10. Coordinate shipment readiness with the commercial and logistics teams.

Effective communication between merchandising and production departments helps prevent avoidable mistakes and supports smooth order execution.

Frequently Asked Questions (FAQ)

1. What is the cutting to packing process in the garments industry?

It is the sequence of operations that transforms inspected fabric into finished, packed garments. It generally includes spreading, cutting, bundling, sewing, quality inspection, finishing, folding, polybag packing, and carton packing.

2. What is the first step before garment cutting?

Fabric inspection and the required fabric relaxation or preparation are important steps before spreading and cutting. The exact preparation sequence depends on the fabric and factory process.

3. What is marker making in garment manufacturing?

Marker making is the arrangement of garment pattern pieces on a fabric layout to support accurate cutting and improve fabric utilization.

4. What is bundling in the cutting department?

Bundling means grouping cut garment panels and identifying them by details such as style, size, color, quantity, and bundle number so that the correct pieces reach the next production operation.

5. What is the difference between inline and final inspection?

Inline inspection takes place during production to identify defects early. Final inspection evaluates finished garments against the applicable quality requirements before packing or shipment.

6. What is the purpose of garment finishing?

Garment finishing includes activities such as thread trimming, cleaning, pressing or steaming where required, measurement checking, and preparing garments for final presentation and packing.

7. What is the difference between polybag packing and carton packing?

Polybag packing involves placing garments into individual or grouped bags according to the packing instructions. Carton packing involves arranging the required bags or garments into shipping cartons with the correct quantity and markings.

8. Why is the packing list important?

The packing list records the shipment's packing details, such as styles, colors, sizes, quantities, and carton information. It helps the factory, freight forwarder, and buyer verify the shipment.

9. Is printing always done before sewing?

No. Printing may be performed on cut panels before sewing or on completed garments, depending on the printing method, garment design, and factory process.

10. Who is responsible for quality during the cutting to packing process?

Quality is a shared responsibility. Cutting, sewing, finishing, and packing teams must follow the approved procedures, while the quality assurance department monitors compliance. The merchandiser coordinates requirements and follows up on issues affecting the buyer's order.

Conclusion

The cutting to packing process in the garments industry is a sequence of important operations that converts fabric into finished products ready for shipment. Each stage, from fabric inspection and relaxation to spreading, cutting, sewing, finishing, and packing, contributes to the final garment's quality and commercial value.

Accurate cutting helps maintain garment measurements. Proper sewing ensures construction quality. Effective finishing improves appearance, while correct folding, labeling, and packing help ensure that buyers receive the right products in the required condition.

For garment merchandisers, textile engineers, production managers, and quality professionals, understanding this complete process is essential for effective coordination and problem-solving.

By following approved specifications, maintaining proper quality checkpoints, and communicating clearly between departments, garment factories can reduce production waste, improve efficiency, and deliver customer orders on time.

If you are learning garment manufacturing, understanding the cutting to packing process is an excellent foundation for developing practical knowledge of the apparel industry.