Welcome to my presentation on cutting machine
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This presentation provides an overview of cutting machines used in garment production. It introduces different cutting techniques, including manual cutting with scissors, powered knives, and computerized methods. Specific machine types are described, such as straight knife cutters, band knife cutters, and round, die, and notcher cutters. The objectives of cutting are to separate fabric parts according to a pattern's dimensions for garment assembly. Precision, clean edges, and unfolded fabric are important for achieving cutting goals.
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Cutting technology in garment industry
Cutting is an important pre-production process that separates fabric parts precisely according to a pattern. There are manual, semi-automatic, and fully automatic cutting machines. Manual machines like scissors are used for small runs while automatic machines like computer-controlled knives cut large volumes quickly and consistently. Future innovations could automate the entire cutting process using roller cutters and feedback systems to reduce costs and improve efficiency.
Computerized cutting machine
Shakib Khan presented on computerized cutting machines. He discussed that cutting is a necessary step in garment production to separate fabric pieces according to a marker. There are manual, semi-automatic, and computerized cutting methods. Computerized knife cutting machines cut fabric according to a computer program without needing a marker, using an oval steel blade that moves precisely. Laser beam cutting machines cut fabric using a high-powered laser beam in a fine spot, controlled by a computer, cutting at 13 meters per minute. Computerized cutting machines provide accurate, high-speed cutting but have high initial and maintenance costs and require skilled operators.
Presentation on Garments Cutting
The document discusses cutting in the garments industry. It covers the cutting process, requirements for accurate cutting, different cutting methods including manual and computerized, and various cutting machines used such as straight knife cutters, round knife cutters, and band knife cutters. It also discusses quality control processes for the cutting section to ensure accurate cutting of garment pieces.
Presentation on fabric cutting
The document discusses different types of fabric cutting machines used in the garments industry. It begins by defining fabric cutting as accurately separating fabric parts from a spread according to a pattern's dimensions. There are three main types of cutting machines: manual (using scissors), semi-automatic (like straight knife cutters), and fully automatic (laser cutters, water jet, plasma torch). The key requirements for cutting are precision, clean edges, supported fabric, and minimized waste. Semi-automatic machines like straight knife cutters are versatile and affordable but pose risks, while automatic machines provide fast, consistent cutting but are more expensive. Overall cutting machines are important for efficient, accurate production in the apparel industry.
Presentation on fabric spreading
This document discusses fabric spreading, which involves laying multiple plies of fabric on top of each other in preparation for cutting. There are two types of spreads - flat spreads with all plies the same length, and stepped spreads built up in steps. Fabric spreading requires aligning plies in length and width, eliminating defects, ensuring correct ply direction, uniform tension, and avoiding distortion during cutting. Automatic spreading machines can fulfill these requirements through features like automatic loading/unloading, tensioning devices, and programmable lay lengths. Proper fabric spreading is important for alignment, tension, avoiding folds or crinkles, eliminating faults, correct ply direction, and matching checks and stripes.
Spreading methods
The document discusses different methods for spreading and laying out fabric prior to cutting, including face-to-face, face-up, and all-faces methods. It also describes factors like the direction of the fabric surface and design/nap direction. Key types are classified based on these factors. The linear properties of the material and whether it is cut or folded are also considered. Bundling systems for organizing cut pieces into production lots are outlined, including item, group, progressive, and unit production systems. An overview of the cutting room process is provided, from pattern making to numbering cut components to ensure proper assembly.
Fabric Spreading
Fabric spreading is a process that lays out fabric plies to the required length and width for cutting. There are two main types of spreading: flat, where all plies are the same length, and stepped, where plies are arranged in steps of decreasing length. Fabric can be spread manually using hands or hooks, or mechanically using semi-automatic or fully automatic machines. The process must ensure plies are flat, tensioned correctly, and flaws are removed to prepare fabric for accurate cutting in bulk. Splices are used to join fabric when faults are found, and come in straight line or interlocked styles.
Overlock Machines
The document describes an overlock machine, which is a specialized sewing machine used to finish fabric edges and seams. It can produce stitches at speeds up to 5000 stitches per minute. The overlock machine makes stitches using 1-5 threads depending on the number of needles and loopers. Common stitch types include 3-thread, 4-thread, and 5-thread overlocks. Key features of the overlock machine include its differential feed system and ability to stretch stitching up to 300%. Problems with thread chains are addressed through the use of a backlatcher or chain cutting device.
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Cutting technology in garment industry
Cutting is an important pre-production process that separates fabric parts precisely according to a pattern. There are manual, semi-automatic, and fully automatic cutting machines. Manual machines like scissors are used for small runs while automatic machines like computer-controlled knives cut large volumes quickly and consistently. Future innovations could automate the entire cutting process using roller cutters and feedback systems to reduce costs and improve efficiency.
Computerized cutting machine
Shakib Khan presented on computerized cutting machines. He discussed that cutting is a necessary step in garment production to separate fabric pieces according to a marker. There are manual, semi-automatic, and computerized cutting methods. Computerized knife cutting machines cut fabric according to a computer program without needing a marker, using an oval steel blade that moves precisely. Laser beam cutting machines cut fabric using a high-powered laser beam in a fine spot, controlled by a computer, cutting at 13 meters per minute. Computerized cutting machines provide accurate, high-speed cutting but have high initial and maintenance costs and require skilled operators.
Presentation on Garments Cutting
The document discusses cutting in the garments industry. It covers the cutting process, requirements for accurate cutting, different cutting methods including manual and computerized, and various cutting machines used such as straight knife cutters, round knife cutters, and band knife cutters. It also discusses quality control processes for the cutting section to ensure accurate cutting of garment pieces.
Presentation on fabric cutting
The document discusses different types of fabric cutting machines used in the garments industry. It begins by defining fabric cutting as accurately separating fabric parts from a spread according to a pattern's dimensions. There are three main types of cutting machines: manual (using scissors), semi-automatic (like straight knife cutters), and fully automatic (laser cutters, water jet, plasma torch). The key requirements for cutting are precision, clean edges, supported fabric, and minimized waste. Semi-automatic machines like straight knife cutters are versatile and affordable but pose risks, while automatic machines provide fast, consistent cutting but are more expensive. Overall cutting machines are important for efficient, accurate production in the apparel industry.
Presentation on fabric spreading
This document discusses fabric spreading, which involves laying multiple plies of fabric on top of each other in preparation for cutting. There are two types of spreads - flat spreads with all plies the same length, and stepped spreads built up in steps. Fabric spreading requires aligning plies in length and width, eliminating defects, ensuring correct ply direction, uniform tension, and avoiding distortion during cutting. Automatic spreading machines can fulfill these requirements through features like automatic loading/unloading, tensioning devices, and programmable lay lengths. Proper fabric spreading is important for alignment, tension, avoiding folds or crinkles, eliminating faults, correct ply direction, and matching checks and stripes.
Spreading methods
The document discusses different methods for spreading and laying out fabric prior to cutting, including face-to-face, face-up, and all-faces methods. It also describes factors like the direction of the fabric surface and design/nap direction. Key types are classified based on these factors. The linear properties of the material and whether it is cut or folded are also considered. Bundling systems for organizing cut pieces into production lots are outlined, including item, group, progressive, and unit production systems. An overview of the cutting room process is provided, from pattern making to numbering cut components to ensure proper assembly.
Fabric Spreading
Fabric spreading is a process that lays out fabric plies to the required length and width for cutting. There are two main types of spreading: flat, where all plies are the same length, and stepped, where plies are arranged in steps of decreasing length. Fabric can be spread manually using hands or hooks, or mechanically using semi-automatic or fully automatic machines. The process must ensure plies are flat, tensioned correctly, and flaws are removed to prepare fabric for accurate cutting in bulk. Splices are used to join fabric when faults are found, and come in straight line or interlocked styles.
Overlock Machines
The document describes an overlock machine, which is a specialized sewing machine used to finish fabric edges and seams. It can produce stitches at speeds up to 5000 stitches per minute. The overlock machine makes stitches using 1-5 threads depending on the number of needles and loopers. Common stitch types include 3-thread, 4-thread, and 5-thread overlocks. Key features of the overlock machine include its differential feed system and ability to stretch stitching up to 300%. Problems with thread chains are addressed through the use of a backlatcher or chain cutting device.
U 4 cutting technology
The document provides information about the cutting department processes at Aksum University's Textile Engineering department. It describes the standard operating procedures, including:
1) Receiving markers from the pattern department and cutting ratios from management.
2) Receiving fabric from the store and spreading it on cutting tables.
3) Placing markers on the fabric lay and cutting panels according to the marker. Numbering, bundling, inspecting, and replacing defective parts before sending cut panels to sewing.
It then discusses factors that influence marker efficiency such as fabric characteristics, pattern piece shapes, and grain line orientation. Different marker planning and fabric spreading methods - manual, semi-automatic, and fully automated - are also
Cutting
Cutting involves separating garment pieces from fabric according to a pattern. It requires precision and clean edges. Common cutting methods include manual scissors, straight knives (most common), and computerized techniques like laser cutting. Straight knife machines work by using an electric motor to power a reciprocating blade, guided by an operator. Factors like fabric type, accuracy needs, volume, and time constraints determine the best cutting method. Potential issues like fused edges can be addressed through techniques like lubricating the blade or reducing cutting speed.
Fabric cutting Machine
This document provides an overview of various fabric cutting methods used in the garment industry. It begins with an introduction to the purpose of fabric cutting and requirements for cutting. It then describes several cutting methods including manual (hand scissors, power knives), computerized (computer-controlled knife cutting, laser beam cutting, water jet cutting, plasma torch cutting), and their advantages and disadvantages. Popular garment cutting machine manufacturers are listed at the end.
Spreading and cutting machines
Fabric Spreading and Cutting Machines. Manual fabric spreading, Semi-automatic fabric spreading, fully automatic spreading machines. What is cutting of fabric? Manual cutting machines, semi-automatic cutting machines, computerized cutting machines
Sewingmachine types
This document provides information about different types of sewing machines. It begins by explaining the basic functioning of all sewing machines and then lists and describes 14 specific types of machines including plain/regular, overlock, chain stitch, feed arm, flatlock/interlock, Kansai special, buttonhole, button attaching, eyelet hole, bartack, snap attaching, blind stitch, basting, and zigzag machines. It also includes images of some of the machines and ends by listing brand names of popular sewing machines.
Fabric cutting
Cutting is the process of separating fabric into precise pattern pieces. Accurate cutting facilitates sewing while inaccurate cutting can cause fitting issues. Factors that influence cutting accuracy include marker lines, cutting technique, pitch, fabric movement, and equipment condition. Cutting is done using hand shears, portable straight/round knives, stationary band knives/dies, or automatic laser/waterjet systems. Proper cutting sets up quality sewing and assembly.
Marker making
This document introduces marker making in the garment industry. It defines marker making as the precise arrangement of pattern pieces on fabric. It discusses factors to consider like fabric width and length. It also covers marker efficiency calculation and factors that influence it. The document outlines manual and computerized marker making methods and their advantages/disadvantages. It describes problems in marker making like maintaining grain line and fabric characteristics. Finally, it discusses fabric wastage outside markers and different methods for drawing and duplicating markers.
Quality control
This document provides an overview of quality control systems in the garments industry. It defines key quality terms like defects, defective pieces, DHU, and percentage defective. It describes the quality control process flow from fabric inspection to final inspection. It also discusses critical defects, major/minor defects, and acceptable quality levels. Key performance indicators for quality like customer complaints, percentage defective, and DHU are presented. The document outlines how to improve quality through communication, clean workplaces, proper tools and training, and corrective measures.
Apparel manufacturing process
Garment manufacturing is an assembly- oriented activity with a great range of raw materials, product types, production volumes, supply chains, retail markets and associated technologies.
Companies range from small family business to multinationals.
The clothing industry is labour intensive industry.
Presentation On Marker Making
A marker is a diagram of a precise arrangement of pattern pieces for sizes of a specific style that are to be cut from in one spread.
Presentation on cutting section
I hope this presentation will help you to know about the cutting department of garments section. Though, there will be some up and downs for process optimization otherwise all good. I hope this will help you guys.
Straight knife cutting machine
The document discusses a straight knife cutting machine commonly used in garment factories in Bangladesh. It has a motorized blade that cuts fabric according to patterns. The main parts are the base plate, pressure foot, motor stand, sharp belt, pinion shaft, lever, and knife. It can cut a high depth of fabric in a single pass. Proper maintenance, including lubrication and inspection, is important to ensure the long and safe working of the machine. Potential issues include risks of damage from the high-speed blade and motor weight causing knife deflection.
Study on Pattern Making in Apparel Industry
This document provides information about pattern making in the apparel industry. It begins with an introduction that defines pattern and describes pattern making as an art that involves shaping flat fabric pieces to fit the human body. It then discusses the different types of paper patterns, including standardized, individual, final, block, readymade, graded, and commercial patterns. The document also describes the main methods of pattern making, which are pattern drafting, pattern draping, and making flat paper patterns. It provides details on pattern drafting, including measurements, ease allowances, and construction guidelines. Measurement guidelines and tools used for pattern drafting are also outlined.
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This document discusses fabric spreading and cutting machines used in the garment manufacturing process. It describes the marker and marker planning process used to optimize fabric utilization. It then explains different types of fabric spreading including manual, semi-automatic, and fully automatic methods. Key equipment for spreading such as tables, fabric loaders, and weights are identified. Finally, the document outlines various cutting machines from manual scissors to semi-automatic and fully-automatic computerized cutting machines. Precautions for each stage of spreading and cutting are also provided.
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This document discusses ultrasonic cutting machines. It begins by explaining that ultrasonic cutting uses high frequency sound waves to cut fabrics. It then describes the key components of an ultrasonic cutting machine including the generator, converter, booster and horn. The principle of operation is explained, noting that piezoelectric crystals convert electrical signals into mechanical vibrations. Features, specifications and applications are provided for ultrasonic cutters. Examples of materials that can be cut include synthetic fabrics and some natural fiber blends. The document focuses on the use of ultrasonic cutting in garment production.
Fabric Cutting
This document provides information about different cutting methods and knives used in fabric cutting. It introduces various fully manual and computerized cutting methods, including straight knives, round knives, band knives, die cutting, notchers, drills, laser cutting, water jet cutting, and plasma torch cutting. For each method, it describes the features, working principles, advantages, and disadvantages. The document is presented by a group of students and contains their names and student IDs.
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This document summarizes common faults that can occur during textile manufacturing processes and their potential causes and remedies. It discusses knitting, dyeing, finishing, printing, cutting, sewing, and garment faults. Examples of specific faults mentioned include holes, loops, lycra out, uneven dyeing, crease marks, squeezer marks, unfused edges, miss prints, weak stitches, seam puckering, and stains. Potential causes provided for each fault and recommended remedies such as properly cleaning machines, ensuring even dyeing conditions, using standard procedures, and removing contamination. The conclusion emphasizes the importance of care during processing and prevention to minimize faults.
Straight knife ppt
The document provides information about straight knife cutting machines. It discusses the parts, types of blades and abrasive belts, features, mechanisms, maintenance, models, advantages and disadvantages. Specifically, it summarizes 5 models of straight knife cutting machines - the Eastman 629X Blue Streak II, Eastman 627VS Brute Variable Speed, Eastman 629XPM/627XPM Plastic Master, Eastman 629XMF/627XMF Micro Fog, and Eastman 627X Brute. It provides the specifications and uses of each model.
(Sir Ashraful Alam) Full PDF Apparel Manufacturing I Sheet Part-1
The document discusses the differences between tailoring and industrial methods of apparel manufacturing. Tailoring requires fewer machines and workers but more time per garment. It has lower costs but higher fabric wastage. Industrial manufacturing uses standardized body measurements, requires pattern grading and many machines/workers but produces garments more quickly at larger scales with less fabric wastage. The document then outlines the typical sequence of apparel manufacturing from receiving technical specifications to final inspection and shipping. It also defines several related terms.
Marker efficiency
Mazadul Hasan prepared this document about marker making in the textile industry. A marker contains pattern pieces for different sizes of garments and provides instructions for cutting. Factors that affect marker efficiency include the marker planner's skills, pattern engineering, size variety, marker length, fabric characteristics, and the marker making method. Higher marker efficiency reduces fabric wastage and increases profits. The document concludes with information about Mazadul's visit to a garments factory in Gazipur, Bangladesh.
Cutting
The document discusses various techniques for cutting fabric pieces for garment making, including manual cutting, straight knife cutting machines, band knife machines, round knife machines, die cutters, water jet cutting, and laser cutting. It provides details on the components, operation, advantages and disadvantages of each cutting technique. Cutting is an important step in garment production used to separate fabric parts according to pattern pieces. Precision and clean cuts are required.
175035 apparel lab 03
This lab report summarizes an experiment comparing a straight knife cutting machine and round knife cutting machine. The straight knife machine uses a straight blade to cut large pieces of fabric and has high productivity. It can cut straight and curved lines. The round knife machine uses an octagonal blade and is better for cutting gentle curves and small pieces. Key differences are that the straight knife can cut fabric at any angle while the round knife cuts at 90 degrees. Regular maintenance like grinding and lubricating the blades is important for both machines.
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U 4 cutting technology
The document provides information about the cutting department processes at Aksum University's Textile Engineering department. It describes the standard operating procedures, including:
1) Receiving markers from the pattern department and cutting ratios from management.
2) Receiving fabric from the store and spreading it on cutting tables.
3) Placing markers on the fabric lay and cutting panels according to the marker. Numbering, bundling, inspecting, and replacing defective parts before sending cut panels to sewing.
It then discusses factors that influence marker efficiency such as fabric characteristics, pattern piece shapes, and grain line orientation. Different marker planning and fabric spreading methods - manual, semi-automatic, and fully automated - are also
Cutting
Cutting involves separating garment pieces from fabric according to a pattern. It requires precision and clean edges. Common cutting methods include manual scissors, straight knives (most common), and computerized techniques like laser cutting. Straight knife machines work by using an electric motor to power a reciprocating blade, guided by an operator. Factors like fabric type, accuracy needs, volume, and time constraints determine the best cutting method. Potential issues like fused edges can be addressed through techniques like lubricating the blade or reducing cutting speed.
Fabric cutting Machine
This document provides an overview of various fabric cutting methods used in the garment industry. It begins with an introduction to the purpose of fabric cutting and requirements for cutting. It then describes several cutting methods including manual (hand scissors, power knives), computerized (computer-controlled knife cutting, laser beam cutting, water jet cutting, plasma torch cutting), and their advantages and disadvantages. Popular garment cutting machine manufacturers are listed at the end.
Spreading and cutting machines
Fabric Spreading and Cutting Machines. Manual fabric spreading, Semi-automatic fabric spreading, fully automatic spreading machines. What is cutting of fabric? Manual cutting machines, semi-automatic cutting machines, computerized cutting machines
Sewingmachine types
This document provides information about different types of sewing machines. It begins by explaining the basic functioning of all sewing machines and then lists and describes 14 specific types of machines including plain/regular, overlock, chain stitch, feed arm, flatlock/interlock, Kansai special, buttonhole, button attaching, eyelet hole, bartack, snap attaching, blind stitch, basting, and zigzag machines. It also includes images of some of the machines and ends by listing brand names of popular sewing machines.
Fabric cutting
Cutting is the process of separating fabric into precise pattern pieces. Accurate cutting facilitates sewing while inaccurate cutting can cause fitting issues. Factors that influence cutting accuracy include marker lines, cutting technique, pitch, fabric movement, and equipment condition. Cutting is done using hand shears, portable straight/round knives, stationary band knives/dies, or automatic laser/waterjet systems. Proper cutting sets up quality sewing and assembly.
Marker making
This document introduces marker making in the garment industry. It defines marker making as the precise arrangement of pattern pieces on fabric. It discusses factors to consider like fabric width and length. It also covers marker efficiency calculation and factors that influence it. The document outlines manual and computerized marker making methods and their advantages/disadvantages. It describes problems in marker making like maintaining grain line and fabric characteristics. Finally, it discusses fabric wastage outside markers and different methods for drawing and duplicating markers.
Quality control
This document provides an overview of quality control systems in the garments industry. It defines key quality terms like defects, defective pieces, DHU, and percentage defective. It describes the quality control process flow from fabric inspection to final inspection. It also discusses critical defects, major/minor defects, and acceptable quality levels. Key performance indicators for quality like customer complaints, percentage defective, and DHU are presented. The document outlines how to improve quality through communication, clean workplaces, proper tools and training, and corrective measures.
Apparel manufacturing process
Garment manufacturing is an assembly- oriented activity with a great range of raw materials, product types, production volumes, supply chains, retail markets and associated technologies.
Companies range from small family business to multinationals.
The clothing industry is labour intensive industry.
Presentation On Marker Making
A marker is a diagram of a precise arrangement of pattern pieces for sizes of a specific style that are to be cut from in one spread.
Presentation on cutting section
I hope this presentation will help you to know about the cutting department of garments section. Though, there will be some up and downs for process optimization otherwise all good. I hope this will help you guys.
Straight knife cutting machine
The document discusses a straight knife cutting machine commonly used in garment factories in Bangladesh. It has a motorized blade that cuts fabric according to patterns. The main parts are the base plate, pressure foot, motor stand, sharp belt, pinion shaft, lever, and knife. It can cut a high depth of fabric in a single pass. Proper maintenance, including lubrication and inspection, is important to ensure the long and safe working of the machine. Potential issues include risks of damage from the high-speed blade and motor weight causing knife deflection.
Study on Pattern Making in Apparel Industry
This document provides information about pattern making in the apparel industry. It begins with an introduction that defines pattern and describes pattern making as an art that involves shaping flat fabric pieces to fit the human body. It then discusses the different types of paper patterns, including standardized, individual, final, block, readymade, graded, and commercial patterns. The document also describes the main methods of pattern making, which are pattern drafting, pattern draping, and making flat paper patterns. It provides details on pattern drafting, including measurements, ease allowances, and construction guidelines. Measurement guidelines and tools used for pattern drafting are also outlined.
Fabric Spreading and Cutting Machines
This document discusses fabric spreading and cutting machines used in the garment manufacturing process. It describes the marker and marker planning process used to optimize fabric utilization. It then explains different types of fabric spreading including manual, semi-automatic, and fully automatic methods. Key equipment for spreading such as tables, fabric loaders, and weights are identified. Finally, the document outlines various cutting machines from manual scissors to semi-automatic and fully-automatic computerized cutting machines. Precautions for each stage of spreading and cutting are also provided.
SPME ASSINGMENT 2
This document discusses ultrasonic cutting machines. It begins by explaining that ultrasonic cutting uses high frequency sound waves to cut fabrics. It then describes the key components of an ultrasonic cutting machine including the generator, converter, booster and horn. The principle of operation is explained, noting that piezoelectric crystals convert electrical signals into mechanical vibrations. Features, specifications and applications are provided for ultrasonic cutters. Examples of materials that can be cut include synthetic fabrics and some natural fiber blends. The document focuses on the use of ultrasonic cutting in garment production.
Fabric Cutting
This document provides information about different cutting methods and knives used in fabric cutting. It introduces various fully manual and computerized cutting methods, including straight knives, round knives, band knives, die cutting, notchers, drills, laser cutting, water jet cutting, and plasma torch cutting. For each method, it describes the features, working principles, advantages, and disadvantages. The document is presented by a group of students and contains their names and student IDs.
Fabric & Garments Fault with its remedies
This document summarizes common faults that can occur during textile manufacturing processes and their potential causes and remedies. It discusses knitting, dyeing, finishing, printing, cutting, sewing, and garment faults. Examples of specific faults mentioned include holes, loops, lycra out, uneven dyeing, crease marks, squeezer marks, unfused edges, miss prints, weak stitches, seam puckering, and stains. Potential causes provided for each fault and recommended remedies such as properly cleaning machines, ensuring even dyeing conditions, using standard procedures, and removing contamination. The conclusion emphasizes the importance of care during processing and prevention to minimize faults.
Straight knife ppt
The document provides information about straight knife cutting machines. It discusses the parts, types of blades and abrasive belts, features, mechanisms, maintenance, models, advantages and disadvantages. Specifically, it summarizes 5 models of straight knife cutting machines - the Eastman 629X Blue Streak II, Eastman 627VS Brute Variable Speed, Eastman 629XPM/627XPM Plastic Master, Eastman 629XMF/627XMF Micro Fog, and Eastman 627X Brute. It provides the specifications and uses of each model.
(Sir Ashraful Alam) Full PDF Apparel Manufacturing I Sheet Part-1
The document discusses the differences between tailoring and industrial methods of apparel manufacturing. Tailoring requires fewer machines and workers but more time per garment. It has lower costs but higher fabric wastage. Industrial manufacturing uses standardized body measurements, requires pattern grading and many machines/workers but produces garments more quickly at larger scales with less fabric wastage. The document then outlines the typical sequence of apparel manufacturing from receiving technical specifications to final inspection and shipping. It also defines several related terms.
Marker efficiency
Mazadul Hasan prepared this document about marker making in the textile industry. A marker contains pattern pieces for different sizes of garments and provides instructions for cutting. Factors that affect marker efficiency include the marker planner's skills, pattern engineering, size variety, marker length, fabric characteristics, and the marker making method. Higher marker efficiency reduces fabric wastage and increases profits. The document concludes with information about Mazadul's visit to a garments factory in Gazipur, Bangladesh.
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This lab report summarizes an experiment comparing a straight knife cutting machine and round knife cutting machine. The straight knife machine uses a straight blade to cut large pieces of fabric and has high productivity. It can cut straight and curved lines. The round knife machine uses an octagonal blade and is better for cutting gentle curves and small pieces. Key differences are that the straight knife can cut fabric at any angle while the round knife cuts at 90 degrees. Regular maintenance like grinding and lubricating the blades is important for both machines.
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Cutting is very important part in garments industry .Here i have enclosed some basic idea of cutting section . Cutting training Manual for Garments Industry .If we do not cut the fabric well as we will not produce good quality of products .Cutting PPT If you need any kind of assistance regarding technical compliance related .Please contract with me below address najmul0831@gmail.com
Training manual for cutting section
Cutting is very important part in garments industry .Here i have enclosed some basic idea of cutting section . Cutting training Manual for Garments Industry .If we do not cut the fabric well as we will not produce good quality of products .Cutting PPT
Tools & machines for apparel construction
This document discusses spreading and cutting techniques in garment production. It defines spreading as the smooth laying out of fabric layers according to specified lengths. There are three types of laying: single ply, multiple ply, and stepped lay. Spreading can be done manually, with a spreading carriage, or automatically. Cutting separates fabric parts using templates and markers. The objective is to accurately cut pattern pieces while minimizing fabric waste. Factors that determine cutting quality include precision, clean edges, consistent cutting, and fabric support. Common cutting methods are manual, powered knife, and computerized, while machine types include straight knife, band blade, and die cutter.
Cutting department
The document discusses the cutting department process in the apparel industry. It involves cutting pattern pieces from fabrics according to a marker and issue plan. Cutting is the decisive first stage that must be done accurately as mistakes are difficult to rectify. Processes include marker making, fabric spreading, cutting, numbering, checking, sorting, and bundling. Inspections ensure proper marker placement, shading, table marks, and tension. Factors like fabric type and thickness, design, and tools used affect the cutting method which can be manual, powered knife, or computerized.
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#Abstract:
- Learn more about the real-world methods for auditing AWS IAM (Identity and Access Management) as a pentester. So let us proceed with a brief discussion of IAM as well as some typical misconfigurations and their potential exploits in order to reinforce the understanding of IAM security best practices.
- Gain actionable insights into AWS IAM policies and roles, using hands on approach.
#Prerequisites:
- Basic understanding of AWS services and architecture
- Familiarity with cloud security concepts
- Experience using the AWS Management Console or AWS CLI.
- For hands on lab create account on [killercoda.com](https://killercoda.com/cloudsecurity-scenario/)
# Scenario Covered:
- Basics of IAM in AWS
- Implementing IAM Policies with Least Privilege to Manage S3 Bucket
- Objective: Create an S3 bucket with least privilege IAM policy and validate access.
- Steps:
- Create S3 bucket.
- Attach least privilege policy to IAM user.
- Validate access.
- Exploiting IAM PassRole Misconfiguration
-Allows a user to pass a specific IAM role to an AWS service (ec2), typically used for service access delegation. Then exploit PassRole Misconfiguration granting unauthorized access to sensitive resources.
- Objective: Demonstrate how a PassRole misconfiguration can grant unauthorized access.
- Steps:
- Allow user to pass IAM role to EC2.
- Exploit misconfiguration for unauthorized access.
- Access sensitive resources.
- Exploiting IAM AssumeRole Misconfiguration with Overly Permissive Role
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- Objective: Show how overly permissive IAM roles can lead to privilege escalation.
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- Create role with administrative privileges.
- Allow user to assume the role.
- Perform administrative actions.
- Differentiation between PassRole vs AssumeRole
Try at [killercoda.com](https://killercoda.com/cloudsecurity-scenario/)
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Originality and value: The results of the rainfall IDF curves can provide useful information to policymakers in making appropriate decisions in managing and minimizing floods in the study area.
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Welcome to my presentation on cutting machine
- 1. WELCOME TO MY PRESENTATION ON CUTTING MACHINE Submitted By MD. FAYSAL AHMED ID: 122 -23- 3048 DEPARTMENT OF TE Daffodil INTERNATIONAL UNIVERSITY Submitted To Md. Mominur Rahman Senior Lecturer Department Of TE Daffodil International University
- 2. Introduction Cutting: To make a complete garments,cutting is necessary . Cutting means to out the garments pieces from lays of the fabric with the help of templates(marker).Generally the marker is applied(drawn, traccd,sprayed,clipped,pinned) to the top ply of a lay. .Objectives of cutting: The objectives of cutting is to separate fabric parts from the spread of the lay according to the dimension of the marker for the purpose of garments making according to the pattern pieccs. Requirements of fabric cutting: In order to achieve these objectives,certain requirements must be fulfilled precision of cut..clean edges. un fused edges. support of the lay.consistent cutting.
- 3. Methods of fabric cutting There are mainly three types of cutting . Technique 1.Completely by munual hand operated scissors. 2.Manually operated powered knife. Straight knife. Band knife. Round knife. Die cutter. Notcher cutter. Drill. 3. Computerized techique. Knife cutting. Cutting by water jet. Leaser cutting. Plasma torch cutting.
- 4. Straight Knife Cutting Machine Specification Motors:Available with 1 phase motor of 110v and 220v &with 3 phase motor of 220v and 380v. Speed:with single/dual speed, variable speed is not available. Blades: High speed steel is standard blade.optional blade/s are carbon steel, telfon coated,wave edges, height:10-13, width 1.5-3cm, thickness 0.5mm. Belts:Fine ,medium, coarse, rough,waterproof are available. Weight:34 1bs;15.4 kgs. Horsepower: 65 hp .1 ph & .93hp .3ph
- 5. Band knife machine Features of Band Knife Machine: 1.This machine worked as saw mill technique. 2.Not possible to cut farbric directly from lay. 3.Block pieces of fabric required in bundle f rom to cut by this machine. 4.blade moving vertically through a flat working table. 5.Machine remains stationary and fabric is moveable.
- 6. Round knife
- 7. Die cutter
- 9. Drill
- 10. THANK YOU