Abstract: An aided design method for female underwear includes the following steps. The first is to receive at least one image associated with a profile of a female body. Then is to obtain a plurality of dynamic body parameters associated with the female body according to the at least one image. Then is to compare these dynamic body parameters with a content of a dynamic model database. Final is to generate an aided design parameter according to the comparison result, wherein the aided design parameter is a setting position, setting direction, shape, length, width, thickness, tensile strength, and combination thereof associated with at least one elastic support component on a female underwear.

Abstract: The present invention provides a garment with cups, which includes a garment body, a cup part and an elastic support structure. The cup part is located at the position of the garment body corresponding to the breasts of a wearer, and has a cladding portion, a cup neck portion and an underwire portion. The cup neck portion and the underwire portion are respectively arranged on both sides of the cladding portion. The elastic support structure is set on the cladding portion of the cup part and provides a supporting force from the underwire portion to the cup neck portion.

Abstract: A wearing supply for muscular strength training includes a textile fabric and a first flexibility elastic element. The textile fabric has an opening to be worn on a specific part of the human body and has a first surface and a second surface opposite to each other. The first flexibility elastic element is connected with the first surface of the textile fabric, and the stretchability of the first flexibility elastic element is greater than the stretchability of the silicone with short molecular chain. Through the textile fabric, the wearing supply can be worn comfortably on the human body without hurting the skin, and the flexibility elastic element with the excellent stretchability stimulates can stimulate the muscles of the human body, so that the user can perform muscular strength training at any time.

Abstract: A wearable physiologic state monitoring device includes a textile fabric, a flexible sensing unit, and a control unit. The textile fabric has a first surface and a second surface opposite to each other. The flexible sensing unit is joined to the first surface of the textile fabric and has a flexible substrate and a sensing element. The flexible substrate has a bearing surface, and a patterned conductive circuit is provided on the bearing surface. The sensing element is electrically connected to the patterned conductive circuit. The control unit is adjacent to the flexible sensing unit and is electrically connected to the patterned conductive circuit.

Abstract: A washable physiological state sensing device, including a flexible carrier, a flexible electrode and a flexible conductive circuit. The flexible carrier is made of elastic material and provided with a bonding surface; The flexible electrode is arranged on the bonding surface, and provided with a flexible substrate and a plurality of conductive particles; The conductive particles are doped in the flexible substrate, and the flexible substrate is made of elastic material. The flexible conductive circuit is arranged on the bonding surface and electrically connected with the flexible electrode.

Abstract: A washable physiological state sensing device, including a flexible carrier, a flexible electrode and a flexible conductive circuit. The flexible carrier is made of elastic material and provided with a bonding surface; The flexible electrode is arranged on the bonding surface, and provided with a flexible substrate and a plurality of conductive particles; The conductive particles are doped in the flexible substrate, and the flexible substrate is made of elastic material. The flexible conductive circuit is arranged on the bonding surface and electrically connected with the flexible electrode.

Abstract: A piezoelectric patch sensor for measuring muscle movement of contraction and extension is disclosed. The sensor is elongated and directly attached to a skin site of a user for the measuring via an interface circuit connected to a host processor. The piezoelectric patch sensor has an adhesive layer with an adhesive bottom surface for firmly attaching to the skin site. An elastic sheet is integrated on top of the adhesive layer. A piezoelectric thread is further integrated on top of the elastic sheet and has a bundle of aligned piezoelectric fibers. The thread is electrically coupled to the interface circuit via a pair of conductive wires, forming a piezoelectric measurement circuitry. Muscle movement under the skin site shrinks or extends the piezoelectric patch sensor in its entirety along the direction of muscle movement due to a corresponding shrinking or extending movement of the skin firmly attached to the adhesive layer.

Abstract: A piezoelectric patch sensor for measuring muscle movement of contraction and extension is disclosed. The sensor is elongated and directly attached to a skin site of a user for the measuring via an interface circuit connected to a host processor. The piezoelectric patch sensor has an adhesive layer with an adhesive bottom surface for firmly attaching to the skin site. An elastic sheet is integrated on top of the adhesive layer. A piezoelectric thread is further integrated on top of the elastic sheet and has a bundle of aligned piezoelectric fibers. The thread is electrically coupled to the interface circuit via a pair of conductive wires, forming a piezoelectric measurement circuitry. Muscle movement under the skin site shrinks or extends the piezoelectric patch sensor in its entirety along the direction of muscle movement due to a corresponding shrinking or extending movement of the skin firmly attached to the adhesive layer.

Abstract: A stretchable and flexible sensing device includes a first elastic membrane, a first strain sensor and a processing unit. The first elastic membrane has a first surface, a second surface and a plurality of electrode contacts. The first surface and the second surface are disposed of opposite to each other and the electrode contacts are disposed on the first surface. One of the electrode contacts is as ground terminal. The first strain sensor is disposed on the first surface by printing technology so as to electrically connect to the electrode contacts. The processing unit is electrically connected to the electrode contacts. The processing unit operates according to a stretch resistance value of one of the first strain sensor.

Abstract: A power controlling system and a method thereof are provided. The power controlling system includes a plurality of connection units, a management server and a user server. Each connection unit has a measuring unit. The measuring units measure power statuses of power provided to a plurality of electrical appliances from an external power to respectively generate power information. The connection units are divided into a plurality of connection unit groups, each of connection unit groups respectively represents power consumption intervals corresponding to the electrical appliances. The management server has a first microcontroller and a database. The database records a first predetermined electricity load value. The first microcontroller receives the power information and compares it with the first predetermined electricity load value to generate a power distribution proposal. The user controller has a control interface, receives the power distribution proposal and displays it to the control interface.

Abstract: A payment method based on identity recognition and a wrist-worn apparatus are provided. A physiological state of a user wearing the wrist-worn apparatus is detected and a physiological characteristic is obtained by a physiological sensor. The physiological characteristic is compared with a preset characteristic for verifying identity of the user. When the physiological characteristic matches the preset characteristic, a payment action is executed.