Abstract: The present invention discloses a monitoring system of a cable laying state, comprising: a rotary connector, a composite steel cable and a monitoring system. Both ends of the rotary connector are respectively connected with a laid cable and the composite steel cable, wherein the rotary connector is provided with a tension sensor, a video sensor and an inertial navigation measurement module; and tensile force, video, and inertial navigation information are transmitted to the monitoring system through the composite steel cable. The monitoring system of the cable laying state disclosed by the present invention combines a video technology, a measurement technology and an inertial navigation technology and can monitor an environment in a pipeline, a cable core stress state and a three-dimensional coordinate of an actual path during a cable laying process in real time.

Abstract: The present invention discloses a monitoring system of a cable laying state, comprising: a rotary connector, a composite steel cable and a monitoring system. Both ends of the rotary connector are respectively connected with a laid cable and the composite steel cable, wherein the rotary connector is provided with a tension sensor, a video sensor and an inertial navigation measurement module; and tensile force, video, and inertial navigation information are transmitted to the monitoring system through the composite steel cable. The monitoring system of the cable laying state disclosed by the present invention combines a video technology, a measurement technology and an inertial navigation technology and can monitor an environment in a pipeline, a cable core stress state and a three-dimensional coordinate of an actual path during a cable laying process in real time.

Abstract: An integrated circuit product package configured to continuity testing is described. The integrated circuit product package includes a package substrate. The package substrate includes internal routing connections. The integrated circuit product package also includes a semiconductor die coupled to the package substrate. The semiconductor die includes input/output (I/O) pins and switches. The switches selectively coupled the I/O pins to facilitate a daisy chain connection. The daisy chain connection includes circuitry fabricated on the semiconductor die, more than two of the internal routing connections, more than two of the I/O pins and at least one switch.

Abstract: A method and apparatus for composite socket probing for a mobile memory interface. An embodiment provides an integrated circuit package that includes a memory supported by an interposer. The interposer is also removably coupled to a package controller through a first socket. A clamp operates to provide clamping force to couple the interposer and the package controller with the first socket and also with a second socket.

Abstract: An integrated circuit product package configured to continuity testing is described. The integrated circuit product package includes a package substrate. The package substrate includes internal routing connections. The integrated circuit product package also includes a semiconductor die coupled to the package substrate. The semiconductor die includes input/output (I/O) pins and switches. The switches selectively coupled the I/O pins to facilitate a daisy chain connection. The daisy chain connection includes circuitry fabricated on the semiconductor die, more than two of the internal routing connections, more than two of the I/O pins and at least one switch.

Abstract: A first apparatus, such as a die or a semiconductor package, has signal paths extending through the apparatus. The signal paths can include through vias and other components. The signal paths are operable to communicate with a second apparatus when the second apparatus is stacked with the first apparatus. The first apparatus also has pass gates. Each pass gate is configurable in response to a signal, to short a pair of the signal paths to enable substantially simultaneous testing of the signal paths. The pass gates may be configurable to isolate the signal paths during operation of the first apparatus.

Abstract: An electrical connector for electrically connecting to pads of a land grid array formed on an electronic component includes a dielectric layer including opposing first and second surfaces, and a multiple number of contact elements extending above the first surface of the dielectric layer. Each contact element includes a conductive portion disposed to engage a respective pad of the land grid array for providing electrical connection to the land grid array. In particular, the multiple number of contact elements includes a first contact element and a second contact element whereby the first contact element has an operating property different than an operating property of the second contact element. In one embodiment, the operating property includes a mechanical or an electrical property. For example, the first contact element can have a larger elasticity than the second contact element.

Abstract: A connector for electrically connecting to pads of a land grid array includes a dielectric layer including opposing first and second surfaces, and a multiple number of contact elements formed on the first surface of the dielectric layer. Each contact element includes a base portion of conductive material and an elastic portion of conductive material formed integrally with the base portion. The elastic portion extends from the base portion and protrudes above the first surface of the dielectric layer. Each elastic portion of the multiple number of contact elements elastically engages a respective pad of the land grid array for providing electrical connection to the land grid array. In particular, each elastic portion has an elastic working range on the order of the electrical path length of the contact element.

Abstract: A connector for electrically connecting to pads of a land grid array formed on an electronic component includes a dielectric layer including opposing first and second surfaces, and a multiple number of contact elements extending above the first surface of the dielectric layer. Each contact element includes a conductive portion disposed to engage a respective pad of the land grid array for providing electrical connection to the land grid array. The connector further includes an electrical circuit formed on or within the dielectric layer. The electrical circuit is electrically connected to at least one of the multiple number of contact elements. In one embodiment, the electrical circuit includes an electrical component, such as a decoupling capacitor. In another embodiment, the electrical circuit operates to connect two contact elements together. For instance, the contact elements connecting to the ground potential can be connected together through the electrical circuit.

Abstract: A connector for electrically connecting to pads of a land grid array formed on an electronic component includes a dielectric layer including opposing first and second surfaces, and a multiple number of contact elements extending above the first surface of the dielectric layer. Each contact element includes a conductive portion disposed to engage a respective pad of the land grid array for providing electrical connection to the land grid array. The connector further includes an electrical circuit formed on or within the dielectric layer. The electrical circuit is electrically connected to at least one of the multiple number of contact elements. In one embodiment, the electrical circuit includes an electrical component, such as a decoupling capacitor. In another embodiment, the electrical circuit operates to connect two contact elements together. For instance, the contact elements connecting to the ground potential can be connected together through the electrical circuit.

Abstract: An electrical connector for electrically connecting to pads of a land grid array formed on an electronic component includes a dielectric layer including opposing first and second surfaces, and a multiple number of contact elements extending above the first surface of the dielectric layer. Each contact element includes a conductive portion disposed to engage a respective pad of the land grid array for providing electrical connection to the land grid array. In particular, the multiple number of contact elements includes a first contact element and a second contact element whereby the first contact element has an operating property different than an operating property of the second contact element. In one embodiment, the operating property includes a mechanical or an electrical property. For example, the first contact element can have a larger elasticity than the second contact element.

Abstract: A connector for electrically connecting to pads of a land grid array includes a dielectric layer including opposing first and second surfaces, and a multiple number of contact elements formed on the first surface of the dielectric layer. Each contact element includes a base portion of conductive material and an elastic portion of conductive material formed integrally with the base portion. The elastic portion extends from the base portion and protrudes above the first surface of the dielectric layer. Each elastic portion of the multiple number of contact elements elastically engages a respective pad of the land grid array for providing electrical connection to the land grid array. In particular, each elastic portion has an elastic working range on the order of the electrical path length of the contact element.