Prior to the Industrial Revolution the art of patternmaking was highly revered. Tailors meticulously worked with their client's personal measurements
to customize patterns. Clothing made by tailors was elaborate and relegated only to the very rich. With the onset of the Industrial Revolution,
standardized patterns were essential to the success of ready-to-wear clothing. Initial attempts to create standardized patterns resulted in poorly
fitting garments with little detail. Men's suits were boxy, plain, ill-fitting sacks. After lengthy experimentation and standardized sizing,
patternmaking made a triumphant transformation from customization to standardization.
Patterns can be formed by either a 2D or 3D process. Often a combination of methods is used to create the pattern. The most common 2D patternmaking
methods are flat, drafting and reverse engineering. In the flat method, a pattern is generated from an existing foundation pattern called a sloper or
block. A sloper is a pattern that has no seam allowances or style lines. From a sloper a myriad of garment styles can be generated. The patternmaker
creates a new style by adding design details such as a collar, pocket and pleats. The flat patternmaking method is widely used in the ready-to-wear
market because it is fast and accurate.
In the drafting method, patterns are made directly from measurements taken from a preexisting garment, an individual or a body form. Using the
collected measurements, the pattern is drawn directly onto paper.
Reverse engineering is sometimes referred to as garment deconstruction or a knock-off. In the reverse engineering process, patterns are made from an
existing garment. The garment is taken apart, analyzed and the patterns pieces are made.
In the 3D patternmaking process, the pattern pieces are generated from a 3D form. Draping is one of the oldest methods used to generate a pattern. In
the traditional draping process, a garment is produced by molding, cutting and pinning fabric to a mannequin or individual. Style lines and
constructions details of the drape are carefully marked and removed. Fabric pieces with the construction and style details are generated. The fabric
pieces are then laid flat over pattern paper and traced. The pattern is finalized by adding directional markings such as grainlines, notches,
buttonholes, correct seam and hem allowances and facings. Draping is especially helpful when developing intricate garment styles or using unusual
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Computers have been used by apparel companies since the early 1980's. Pattern Design Systems (PDS) have become invaluable tools to the patternmaker,
assisting in much of the repetitive tasks associated with patternmaking. PDS systems are capable of storing an incredible amount of data that can be
quickly retrieved, tweaked and re-filed. Using a mouse or stylus, patternmakers are able to swiftly add style details and make changes. There are many
benefits to PDS - speed, accuracy and ease of data transmission being some of the most obvious. In today's competitive environment, software companies
are zeroing in on the growing demands of the apparel manufacturer.
The ability to mass produce customized patterns according to an individual's unique body shape could offer tremendous benefits to the consumer,
retailer and apparel manufacturer.The textile industry continues to research this exciting field with a long term goal of bringing superior fit and performance to
the customer.
The apparel industry is notoriously fast-paced and competitive. Innovative software companies continue to make improvements to their PDS to enable
apparel companies to better serve their customers. Current research focuses on generating patterns that produce better fitting garments and 3D
visualization tools to help fine tune style. With ongoing technological advances and diligent research, patternmaking software companies continue to
successfully address the needs of their customers.