Industrial Technology Research Institute

National Taiwan University

An-Li Chen

De-Yau Lin

Chuan-Sheng Chuang

Wei-Chin Huang

Chih-Chieh Huang

Ching-Chih Lin

Hsin-Hsin Shen

Yi-Hung Wen

Yi-Hung Lin

Sung-Ho Liu

Jui-Sheng Sun

Pei-Yi Tsai

Chun-Feng Chen

Pei-I Tsai

Bo Min Xu

Chih-Hsien Wu

Sung-Yueh Wu

Kuo-Yi Yang

Fang-Jie Jang

Fon-Yih Tsuang

Jo-Ping Lee

Tsung-Wen Tsai

Kuang-Po Chang

Shih-Ping Lin

Hsin-hsin Shen

Kun-ta Wu

Shu-Fen Yeh

Wei-lun Fan

Ting-Ni Huang

An expandable spinal implant includes a flexible body, an expander component, a fastener and an anti-reverse mechanism. The flexible body includes a base portion and flexible arms each having a free end and a fixed end connecting the base portion. The flexible arms surround an installation space. The expander component is partially in the installation space and exerts pressure on the free ends to move the free ends away from one another. The fastener includes a head portion and a screw portion. The head portion and the expander component are at opposite sides of the base portion. The screw portion passes through the base portion and screwed into the expander component. The anti-reverse mechanism is fixed to the base portion and blocks one side of the head portion located away from the expander component. The anti-reverse mechanism and the expander component are at opposite sides of the base portion.

Expandable spinal implant

A manufacturing process for electrode of neuromodulation probe includes the steps of: preparing a plurality of the manufacturing fixtures for electrode of neuromodulation probe; preparing a plurality of the manufacturing fixtures for electrode in a surrounding manner by having the first-layer frames to be externally disposed side by side with the bevels of the two neighboring first-layer frames close to each other, so that the second-layer frames, the plurality of electrodes and the plurality of wires are enclosed thereinside; placing a cylinder amid the plurality of manufacturing fixtures for electrode to have the plurality of wires to surround the cylinder; having a fluid plastic to surround the cylinder by filling all the spaces between the plurality of wires and the plurality of electrodes, and waiting the fluid plastic to cure; removing the plurality of first-layer frames and the plurality of second-layer frames; and, pulling off the cylinder.

Manufacturing fixture and process for electrode of neuromodulation probe

The disclosure relates to a reconstruction prosthesis including a plurality of prosthesis units connected in series. Each of the prosthesis units includes a main part and a cushion structure. The main part has an abutment insertion opening and an accommodation space. The cushion structure is located in the accommodation space and movably located at the abutment insertion opening and defining an abutment mounting hole connected to the abutment insertion opening. The cushion structure is deformable with respect to the main part.

Reconstruction prosthesis

The disclosed embodiments relate to a temporomandibular joint prosthesis including a joint portion, a fixation portion, and at least one flexible unit. The joint portion is configured to be as a temporomandibular joint and movably connected to cranial skeleton. The fixation portion is configured to be fixed on mandible. The flexible unit is located between and connected to the joint portion and the fixation portion. The fixation portion is movable with respect to the joint portion via the flexible unit.

Temporomandibular joint prosthesis

The disclosure relates to a vertebral body implant including a flexible main body and at least one pedicle screw joint. The flexible main body is an integrally formed single piece having at least one joint-accommodating hole and at least one opening connected to the at least one joint-accommodating hole. The pedicle screw joint is an integrally formed single piece movably accommodated in the at least one joint-accommodating hole.

Vertebral body implant

The disclosure relates to a reconstruction prosthesis including a main section, at least one serpentine structure, and at least one mount section. The at least one serpentine structure is connected to one end of the main section. The at least one mount section is connected to the main section via the at least one serpentine structure. The at least one mount section is configured to be connected to osseous tissue. When the at least one serpentine structure is deformed by force, the relative position of the main section and the at least one mount section is changed.

A smart mechanical component has a mechanical part main body; a mechanical part secondary body located inside of the mechanical part main body; a three dimensional three-dimensional (3-D) reserved space located between the mechanical part main body and the mechanical part secondary body; at least one connecting unit connecting the mechanical part main body and the mechanical part secondary body; wherein the mechanical part main body, the mechanical part secondary body and the three dimensional three-dimensional (3-D) reserved space form a capacitor; the connecting unit forms an inductor; the inductor and the capacitor forms an inductor-capacitor circuit.

Smart mechanical component

A bionic fixing apparatus is provided. The bionic fixing apparatus includes a body having a through hole and at least one slit. The through hole penetrates the body from the top surface to the bottom surface to form a top opening and a bottom opening. An inner diameter of the top opening is larger than an inner diameter of the bottom opening. The slit is connected to the bottom opening and extends upwardly from the bottom surface of the body, such that the body has a flexible bottom portion.

Bionic fixing apparatus and apparatus for pulling out the same

A bionic apparatus is provided. The bionic apparatus includes a flexible portion having a plurality of pores, a rigid portion connected with the flexible portion, and a supporting element disposed in the flexible portion. The pore size of each pore is between 50 &#x3bc;m to 500 &#x3bc;m. The flexible portion, the rigid portion and the supporting element are one-piece formed by a additive manufacturing process.

Bionic fixing apparatus

An additive manufacturing method for a 3D object is provided and includes (a) providing a 3D digital model of the 3D object; (b) dividing the 3D digital model into repeat arrangement of at least one type of polyhedral 3D units and an X-Y plane is an acute angle or an obtuse angle; (c) cutting the 3D digital model along a Z-axis into a plurality of 2D slices; (d) defining a scanning path covering one of the 2D slices; (e) providing an energy beam to a material on a working plane along the scanning path to form a construction layer corresponding to the one of the 2D slices; and (f) repeating the steps (d) and (e) to build up the 3D object by adding a plurality of construction layers in sequence.

Additive manufacturing method for three-dimensional object

A bionic fixing apparatus is provided. The bionic fixing apparatus includes a flexible portion having at least one trench. The trench is disposed on the surface of the flexible portion and has a first end and a second end. An interval is disposed between the first end and the second end. The trench is disposed for spreading the stress applied on the bionic fixing apparatus and preventing stress concentration and stress shielding.

Growing community of inventors

Tainan, Taiwan

An-Li Chen