Hon Hai Precision Industry Co., Ltd.

Tsinghua University

Caesar Chen

Shou-Shan Fan

Kai-Li Jiang

Liang Liu

Hsi-Fu Lee

Ga-Lane Chen

Edmond Choy

Iosif R Korsunsky

Yu-San Hsiao

Lee-Ming Cheng

Li-Ming Po

Sidney Lu

Tsun Shen Shao

His-Fu Lee

Gwou-Jung Tseng

A method for manufacturing a field emission element, the method includes providing one supporting member and wrapping a carbon nanotube (CNT) film around an outer surface of the supporting member at least once. The CNT film includes a plurality of bundles of carbon nanotubes connected in series.

Manufacturing method of field emission element having carbon nanotubes

A given field emission element includes a carbon nanotube field emission wire and at least one supporting protective layer coating an outer surface of the carbon nanotube field emission wire. The carbon nanotube field emission wire is selected from a group consisting of a carbon nanotube yarn, a wire-shaped CNT-polymer composite, and a wire-shaped CNT-glass composite. A method for manufacturing the described field emission element includes the steps of: (a) providing one carbon nanotube field emission wire; (b) forming one supporting protective layer on an outer surface of the carbon nanotube field emission wire; and (c) cutting the carbon nanotube field emission wire to a predetermined length and treating the carbon nanotube emission wire to form the field emission element.

Field emission element having carbon nanotube and manufacturing method thereof

A field emission element includes one supporting wire and at least one field emission layer coated or otherwise formed on an outer surface of the supporting wire. Each field emission layer includes a plurality of carbon nanotubes (CNTs) and is selected from a group consisting of CNT-polymer composites, CNT-glass composites and single-layer/multi-layer CNT films. A method for manufacturing the described field emission element is also provided. The method includes the steps of: (a) providing one supporting wire; (b) forming at least one field emission layer on an outer surface of the supporting wire; and (c) cutting the supporting wire, after forming the at least one field emission layer thereon, according to a predetermined length and then treating the at least one field emission layer on the supporting wire to form the field emission element.

A field emission element includes at least one supporting wire and at least one carbon nanotube wire. The supporting wire and the carbon nanotube wire are twisted together. A method for manufacturing the described field emission element is also provided. The method includes the steps of: (a) providing at least one carbon nanotube wire and at least one supporting wire; (b) twisting the carbon nanotube wire and the supporting wire together to form a multi-strand structure by a spinning process; and (c) cutting the multi-strand structure according to a predetermined length to form a field emission element.

Field emission element and manufacturing method thereof

A coaxial cable () includes at least one conducting wire (), at least one insulating layer () coating a respective conducting wire (), at least one shielding layer () surrounding the at least one insulating layer (), and a single sheath () wrapping the at least one shielding layer (). The shielding layer () includes a metal layer and a carbon nanotube film.

Coaxial cable

A coaxial cable () includes at least one conducting wire (), at least one insulating layer () coating a respective conducting wire (), at least one shielding layer () surrounding the at least one insulating layer (), and a single sheath () wrapping the at least one shielding layer (). The shielding layer () is a carbon nanotube film.

A coaxial cable () includes at least one conducting wire (), at least one insulating layer () coating a respective conducting wire (), at least one shielding layer () surrounding the at least one insulating layer (), and a single sheath () wrapping the at least one shielding layer (). The shielding layer () includes a number of carbon nanotube yarns.

An electrical connector comprises a housing having first and second surfaces and forming a plurality of contact supports formed therein. A plurality of electrical contacts is moveably attached to each corresponding support and has a first contacting end extending beyond the first surface for driving the contact to move along the support upon mating with an electrical device.

Electrical connector

A system (10) for interconnecting two modules (100, 100') to the CUP chip, includes two opposite connectors (12, 14) in a head-to-head arrangement. The traces (200) each of which connects the two corresponding contacts 28/30 and 30'/28' each being located in the same position of the corresponding connector (12, 14), are generally arranged in a parallel relationship. One (12) of the connectors (12, 14) is substantially a standard one. The other (14) of the connectors (12, 14) is generally, but not exactly, of a mirror image with regard to the first one (12), wherein the positions of the two-row contacts (28'/30') with regard to the housing (16') along the lengthwise direction of the second connector (14) are arranged in an opposite relationship with regard to those in the first connector (12). When used, a standard module (100) can be inserted into the first connector (12) in a common way with its upside surface (106) facing up, or can be inserted into the second connector (14) in an opposite way with its back surface (108) facing up, whereby the pads (P1-P144) printed on both surfaces (106, 108) of the module (100, 100') can be respectively properly electrically connected to the corresponding traces (200) regardless of which connector (12, 14) it is inserted into.

Electrical assembly including two opposite head to head arranged

An electrical connector having positioning posts is disclosed. The electrical connector comprises a first and a second positioning posts formed on both longitudinal ends of a front surface of an insulating housing for inserting into a pair of holes of a printed circuit board. Each of the first and second positioning posts defines a respective longitudinal direction, and includes a pair of positioning members on both longitudinal ends, a stop bar between the pair of positioning members, and an open slot between each of the positioning members and the stop bar. The width of the positioning post defined by both sides of the stop bar is shorter than the length of the positioning post defined between respective longitudinal outer surfaces of the positioning members.

Electrical connector having positioning posts

A system (10) for interconnecting two modules (100, 100') to the CPU chip, includes two opposite connectors (12, 14) in a head-to-head arrangement. The traces (200) each of which connects the two corresponding contacts 28/30 and 30'/28' each being located in the same position of the corresponding connector (12, 14), are generally arranged in a parallel relationship. One (12) of the connectors (12, 14) is substantially a standard one which meets the requirements defined in the general specification. The other (14) of the connectors (12, 14) is generally, but not exactly, of a mirror image with regard to the first one (12), wherein the positions of the two-row contacts (28'/30') with regard to the housing (16') along the lengthwise direction of the second connector (14) are arranged in an opposite relationship with regard to those in the first connector (12). When used, a standard module (100) can be inserted into the first connector (12) in a common way with its upside surface (106) facing up, or can be inserted into the second connector (14) in an opposite way with its back surface (108) facing up, whereby the pads (P1-P144) printed on both surfaces (106, 108) of the module (100, 100') can be respectively properly electrically connected to the corresponding traces (200) regardless of which connector (12, 14) it is inserted into.

System for arranging a pair of opposite connectors

A card edge connector (10) includes an elongated housing (12) defining a central slot (14) along its lengthwise direction for receiving a card (100) therein. A plurality of passageways (16) are formed in the housing (12) by two sides of the slot (14). Two cavities (18) are formed at two opposite ends of the housing (12) for receiving a pair of corresponding ejectors (20) therein, respectively. A pair of retention bars (34) are positioned adjacent each end of the housing (12) and respectively on two sides of the slot (14). Each ejector (20) includes a main body (22) which is substantially higher than the adjacent retention bars (34). A pair of stopper blocks (32) are formed on two side surfaces (28) of the main body (22) for engagement with the corresponding retention bars (34), respectively, when the ejector (20) is in the vertical position. A locking peg (36) formed at the top of the main body (22) of the ejector (20), horizontally extends toward the central slot (14) and is substantially positioned over the corresponding retention bars (34).

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Santa Clara, CA, United States of America

Caesar Chen