A garment 1 indudes an outer fabric and a lining 2. The lining 2 is a stretch fabric. An elastic thread is partially inserted in the stretch fabric in the body width direction, and an elastic thread insertion portion 4 contracts to make gathers 5. The stretch fabric is a one-way fabric that is stretchable in the body width direction. It is preferable that a plurality of elastic threads are inserted in the stretch fabric in parallel with each other, and the gathers 5 are oriented in the body length direction. Thus, the garment has a high heat retention effect by dividing the space between the garment and the human body into small areas to prevent warm air from escaping to the outside.

This disclosure relates to athletic shorts, such as those that can be worn while playing tennis, with moisture protection features and including readily accessible pockets, such as pockets that hold tennis balls in a manner that makes those balls readily accessible during a tennis match. An example pair of shorts includes a pocket accessible via an opening, and a rib biased toward a centerline of the opening and configured to direct fluid away from the opening. This disclosure also relates to a corresponding method.

This disclosure relates to athletic shorts, such as those that can be worn while playing tennis, with moisture protection features and including readily accessible pockets, such as pockets that hold tennis balls in a manner that makes those balls readily accessible during a tennis match. An example pair of shorts includes a pocket accessible via an opening, and a rib biased toward a centerline of the opening and configured to direct fluid away from the opening. This disclosure also relates to a corresponding method.

Disclosed is a new multi-layer nonwoven interlining and the production process thereof. The process allows a multi-layer nonwoven interlining to be obtained simultaneously with a single process on a single production line. The process includes a fiber opening step, a fiber feeding step, a carding step, a levelling step of the additional layer by the thermal treatment, and a point bonding step of the carded web and additional layer. As a result of the process, a structure is obtained where the carded web is point-bonded onto the additional layer.

The present invention is garments, articles of clothing, and body equipment systems having a bladder system for providing better fit of garments, articles of clothing, and body equipment systems to certain applicable body part(s) or area(s) of a user during use, and for providing greater support, comfort and/or stability to certain applicable body part(s) or area(s) of a user during use. As a non-limiting example, the present invention is compression garments having a clothing component and a bladder system, compression articles of clothing having a clothing component and a bladder system, and also to compression body equipment systems having a bladder system for providing better fit of compression garments, compression articles of clothing, and compression body equipment systems to certain applicable body part(s) or area(s) of a user during use, and for providing greater support, comfort and/or stability to certain applicable body part(s) or area(s) of a user during use.

A method for manufacturing individualized protective gear such as pads based on a scan, and the resulting pads, are disclosed herein. A garment comprising a pocket with a visibly defined border is selected. A wearer dons the garment. A scan is taken of at least a portion of the garment over the wearer's body at the location where the pocket is disposed over the wearer's body. The scan is converted to a mesh model. The mesh model is used to define a first surface of the equipment configured to form to the wearer's body at the location where the pocket is disposed over the wearer's body and a second surface offset from the first surface. The model may be checked to identify production defects, which, if present, are removed. The equipment may be manufactured using additive printing technology.

A method for manufacturing individualized protective gear such as pads based on a scan, and the resulting pads, are disclosed herein. A garment comprising a pocket with a visibly defined border is selected. A wearer dons the garment. A scan is taken of at least a portion of the garment over the wearer's body at the location where the pocket is disposed over the wearer's body. The scan is converted to a mesh model. The mesh model is used to define a first surface of the equipment configured to form to the wearer's body at the location where the pocket is disposed over the wearer's body and a second surface offset from the first surface. The model may be checked to identify production defects, which, if present, are removed. The equipment may be manufactured using additive printing technology.

A garment for patients receiving medical treatment is disclosed. The garment has a sleeve that has an outer surface and an inner surface each made of a first material, a fastener coupled to the sleeve and configured to open and close the sleeve, an inner lining attached to the inner surface of the sleeve. The inner lining is made of a second material that has a higher elasticity than the first material. The garment has a series of pockets disposed on the inner lining configured to hold a heating element to keep the patient's arms warm while in the treatment position.

A garment for patients receiving medical treatment is disclosed. The garment has a sleeve that has an outer surface and an inner surface each made of a first material, a fastener coupled to the sleeve and configured to open and close the sleeve, an inner lining attached to the inner surface of the sleeve. The inner lining is made of a second material that has a higher elasticity than the first material. The garment has a series of pockets disposed on the inner lining configured to hold a heating element to keep the patient's arms warm while in the treatment position.

Mesh fabric panels that provide a compressive force to a wearer's mid-section and tummy-covering garments equipped with the mesh fabric panels are disclosed. The mesh fabric panels can be formed of a material having a suitable rigidity for providing the compressive force. The mesh fabric panels include left and right panels adapted to be stitched or otherwise affixed to left and right front sections, respectively, of a garment such as a pant, a dress, a skirt, shorts, swimwear, or the like. Each of the left and right mesh fabric panels includes a seam side edge adapted to be affixed to a corresponding seam side of a tummy-covering garment, a fly side edge adapted to be affixed to a fly facing of the garment, a waist edge, and a bottom edge. The left and/or right mesh fabric panel may be a dual layer panel.