Abstract: Apparatuses, systems, and techniques to create one or more memory transaction software objects. In at least one embodiment, one or more circuits are to perform an application programming interface (API) to cause one or more software objects to indicate whether one or more memory transactions have been performed.

Abstract: Apparatuses, systems, and techniques to facilitate asynchronous data movement accounting. In at least one embodiment, one or more circuits are to perform an application programming interface (API) to cause one or more memory transactions to be performed without storing information about the one or more memory transactions.

Abstract: Apparatuses, systems, and techniques to store memory transaction information. In at least one embodiment, one or more circuits are to perform an application programming interface (API) to cause information received by the API about one or more memory transactions to be stored.

Abstract: Apparatuses, systems, and techniques to perform delayed memory transaction information check. In at least one embodiment, one or more circuits are to perform an application programming interface (API) to check for information provided by one or more users about one or more memory transactions after a timeout event indicated by one or more users.

Abstract: Apparatuses, systems, and techniques to cause information to be provided. In at least one embodiment, one or more circuits are to perform an application programming interface (API) to cause an amount of information to be accessed as a result of one or more memory transactions to be provided to one or more users.

Abstract: A cable includes a pair of conductors extending longitudinally and spaced apart from each other, an inner insulating layer circumferentially wrapped around an outside of the conductors and fixing the conductors, a conductive shielding layer circumferentially wrapped around an outside of the inner insulating layer, and an outer insulating layer circumferentially wrapped around an outer peripheral surface of the conductive shielding layer. At least one of the conductive shielding layer and the outer insulating layer includes a pair of diametrically opposed circumferential halves. Each circumferential half surrounds a part of a circumference of the inner insulating layer and extends longitudinally.

Abstract: A cable includes a pair of insulation core wires, a shielding layer and an air accommodating cavity. The pair of insulation core wires extend longitudinally parallel to each other. Each of the insulation core wires has a central conductor and a core wire insulation layer wrapped around the central conductor. The shielding layer is wrapped outside the pair of insulation core wires. The air accommodating cavity is formed between the core wire insulation layers of the pair of insulation core wires and the shielding layer, and is adapted to accommodate air.

Abstract: A ribbon cable includes a plurality of cable groups arranged side by side in a width direction of the ribbon cable and a wrapping film continuously wound on an outer side of the cable groups in a multi-turn wrapping manner at an inclined angle with respect to the width direction. There is a gap between every adjacent pair of cable groups.

Abstract: A cable includes a pair of insulation core wires arranged to extend longitudinally parallel to each other, each of the insulation core wires has a central conductor and a wire insulation layer circumferentially wrapped around the center conductor, a first insulation tape layer and a second insulation tape layer wrapped outside the first insulation tape layer, and a metal shielding layer wrapped outside the second insulation tape layer. The first insulation tape layer is wrapped outside the wire insulation layers of the pair of insulation core wires to fix the pair of insulation core wires and cause the wire insulation layers of the pair of insulation core wires to abut against each other and deform at outer peripheries of a pair of sides of the wire insulation layers facing each other.

Abstract: A cable includes a pair of conductors extending longitudinally and spaced apart from each other, an inner insulating layer circumferentially wrapped around an outside of the conductors and fixing the conductors, a conductive shielding layer circumferentially wrapped around an outside of the inner insulating layer, and an outer insulating layer circumferentially wrapped around an outer peripheral surface of the conductive shielding layer. At least one of the conductive shielding layer and the outer insulating layer includes a pair of diametrically opposed circumferential halves. Each circumferential half surrounds a part of a circumference of the inner insulating layer and extends longitudinally.

Abstract: A system for building-specific multi-peril risk assessment and mitigation is disclosed. The system comprises a multi-peril hazard module, a processor, a database and a graphical network module. The multi-peril hazard module is configured to obtain hazard information and create a multi-peril event catalogue configured to generate intensity measures for multiple perils. The processor is configured to derive a peril vulnerability function and determine building-specific risk assessment results based on the hazard information and the peril vulnerability function. The database is configured to store the derived plurality of peril vulnerability functions. The graphical network module is configured to create probabilistic networks, wherein the probabilistic networks are connected to the determined building-specific risk assessment results of the peril vulnerability functions that have strong interdependencies and determine a multi-peril risk associated with the building.

Abstract: A cable includes a pair of conductors extending longitudinally and spaced apart from each other, an inner insulating layer circumferentially extending around an outside of the conductors and fixing the conductors, a conductive shielding layer circumferentially extending around an outside of the inner insulating layer, and an insulating sheath extending around an outer peripheral surface of the conductive shielding layer. The insulating sheath is at least one of an extruded layer and a heat shrinkable sleeve.

Abstract: A method for seismic loss assessment including receiving by a computer system computer-readable input data regarding a seismic hazard and building conditions, generating by the computer system one or more mitigation options and for each of the mitigation options, configuring the computer system to: determine a structural response, determine damage states from the structural response, determine an outcome of each of the damage states; and, output a representation of each of the outcomes for each of the damage states. The output is used in a seismic risk mitigation plan and/or design for one or more building structures.

Abstract: A ribbon cable includes a plurality of cable groups arranged side by side in a width direction of the ribbon cable and a wrapping film continuously wound on an outer side of the cable groups in a multi-turn wrapping manner at an inclined angle with respect to the width direction. There is a gap between every adjacent pair of cable groups.

Abstract: A ribbon cable includes a plurality of cable groups arranged side by side with a gap between each pair of adjacent cable groups, a first covering film arranged on a first side of the cable groups, and a second covering film arranged on a second side of the cable groups opposite the first covering film. The first covering film has a first bonding portion and a first spacing portion. The second covering film has a second bonding portion and a second spacing portion. The first bonding portion and the second bonding portion are bonded to each of the cable groups. The first spacing portion and the second spacing portion are located at the gap and are separated from each other.

Abstract: A cable includes a pair of insulation core wires extending longitudinally parallel to each other, each of the insulation core wires has a central conductor and a core insulation layer circumferentially wrapped around the central conductor, an inner insulation layer wrapped on an outside of the core insulation layers of the insulation core wires to fix the insulation core wires, a metal shielding layer wrapped on an outside of the inner insulation layer, and an outer insulation layer wrapped on an outer circumferential surface of the metal shielding layer. The core insulation layers of the insulation core wires abut against each other on outer peripheries of first sides of the core insulation layers facing each other.

Abstract: A combined cable includes at least two cable groups, each comprising at least one cable arranged side by side. Each cable group further comprises an adhesive layer wrapping a periphery of the at least one cable and having adhesion agent located on an outside of the adhesive layer. Each cable group further includes two coating layers, respectively adhered to a periphery of the adhesive layer of each cable group with the adhesion agent from upper and lower sides of the at least two cable groups. The coating layers located between adjacent two cable groups are detachably abutted together.

Abstract: A cable comprises a pair of insulated core wires extending parallel to each other in a longitudinal direction. Each of the insulated core wires includes a central conductor and a core insulation layer wrapped around the central conductor in a circumferential direction. A first metal shielding layer is wrapped around the pair of insulated core wires. A second metal shielding layer is wrapped around the first metal shielding layer. An outer insulation layer is wrapped around an outer circumferential surface of the second metal shielding layer.

Abstract: A cable includes a pair of insulated core wires extending parallel to each other, each of the insulated core wires having a central conductor and a core insulation layer wrapped around the central conductor, an inner insulation layer wrapped around the core insulation layers, a metal shielding layer wrapped around the inner insulation layer, an outer insulation layer wrapped around the metal shielding layer, and a single drain wire disposed between the metal shielding layer and the outer insulation layer. The core insulation layers of the pair of insulated core wires abut against each other at a pair of first sides of the core insulation layers facing toward each other. The single drain wire is located at a second side of the core insulation layer of one of the pair of insulated core wires facing away from the other of the pair of insulated core wires in a radial direction.

Abstract: A method for seismic loss assessment including receiving by a computer system computer-readable input data regarding a seismic hazard and building conditions, generating by the computer system one or more mitigation options and for each of the mitigation options, configuring the computer system to: determine a structural response, determine damage states from the structural response, determine an outcome of each of the damage states; and, output a representation of each of the outcomes for each of the damage states. The output is used in a seismic risk mitigation plan and/or design for one or more building structures.