mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a replaceable, longitudinally compressible membrane in a chip testing system for separately receiving a succession of chips for testing for forming a plurality of temporary mechanical and electrical connections between a device under test having a plurality of terminals and a load board having a plurality of contact pads , each contact pad being laterally arranged to correspond to exactly one terminal , comprising: a flexible, electrically insulating top contact plate longitudinally adjacent to the terminals on the device under test ; a flexible, electrically insulating bottom contact plate longitudinally adjacent to the contact pads on the load board ; a longitudinally resilient, electrically insulating interposer between the top and bottom contact plates ; wherein said interposer including a resilient honeycomb of interconnected elastomeric supporting member cells each cell including longitudinal pin-supporting holes (230/240)) there through;_ a plurality of longitudinally compressible, electrically conductive pin pairs extending through longitudinal holes in the top contact plate , the interposer and the bottom contact plate , each pin pair in the plurality being laterally arranged to correspond to exactly one terminal on the device under test ; wherein when a particular pin pair is longitudinally compressed, the pins in the pair slide past each other along a virtual interface surface that is inclined with respect to a surface normal of the interposer ;and wherein said pins each including a pair of planar opposed sidewalls, which engage with said elastomeric material in said cells(210/240). a flexible, electrically insulating top contact plate longitudinally adjacent to the terminals on the device under test ; a flexible, electrically insulating bottom contact plate longitudinally adjacent to the contact pads on the load board ; a longitudinally resilient, electrically insulating interposer between the top and bottom contact plates ; wherein said interposer including a resilient honeycomb of interconnected elastomeric supporting member cells each cell including longitudinal pin-supporting holes (230/240)) there through;_ a plurality of longitudinally compressible, electrically conductive pin pairs extending through longitudinal holes in the top contact plate , the interposer and the bottom contact plate , each pin pair in the plurality being laterally arranged to correspond to exactly one terminal on the device under test ; wherein when a particular pin pair is longitudinally compressed, the pins in the pair slide past each other along a virtual interface surface that is inclined with respect to a surface normal of the interposer ;and wherein said pins each including a pair of planar opposed sidewalls, which engage with said elastomeric material in said cells(210/240).
A vehicle braking system, comprising a pedal assembly , a hydraulic assembly , a reversing assembly , a driving wheel assembly, a pedal feel simulator , and a first electronic control unit, ECU, wherein the pedal assembly is connected to an input push rod of the hydraulic assembly , and the first ECU is electrically connected to the reversing assembly , and controls the reversing assembly to switch a working location, and the reversing assembly comprises at least two working locations, wherein when the reversing assembly is at a first working location, a brake fluid output port of the hydraulic assembly is connected to the driving wheel assembly through the reversing assembly ; and when the reversing assembly is at a second working location, the brake fluid output port of the hydraulic assembly is connected to the pedal feel simulator through the reversing assembly , and the first ECU is electrically connected to the driving wheel assembly, and controls the driving wheel assembly to provide brake force, wherein the first ECU is configured to obtain a brake signal; and characterised in that , the first ECU is configured to control the reversing assembly to switch a working location based on the brake signal, to the first working location, when a vehicle deceleration capability is less than a preset value; or to switch the working location to the second working location, when a vehicle deceleration capability is greater than a preset value. wherein the pedal assembly is connected to an input push rod of the hydraulic assembly , and the first ECU is electrically connected to the reversing assembly , and controls the reversing assembly to switch a working location, and the reversing assembly comprises at least two working locations, wherein when the reversing assembly is at a first working location, a brake fluid output port of the hydraulic assembly is connected to the driving wheel assembly through the reversing assembly ; and when the reversing assembly is at a second working location, the brake fluid output port of the hydraulic assembly is connected to the pedal feel simulator through the reversing assembly , and the first ECU is electrically connected to the driving wheel assembly, and controls the driving wheel assembly to provide brake force, wherein the first ECU is configured to obtain a brake signal; and characterised in that , the first ECU is configured to control the reversing assembly to switch a working location based on the brake signal, to the first working location, when a vehicle deceleration capability is less than a preset value; or to switch the working location to the second working location, when a vehicle deceleration capability is greater than a preset value.
A system for supplying power to an implantable blood pump , the system comprising: a base module operatively coupled with the blood pump to supply electrical power to drive the implantable blood pump ; a first modular energy storage device configured to be operatively coupled to the base module to supply electrical power to the base module ; and a second modular energy storage device operatively coupled to the first modular energy storage device to supply electrical power to the first modular energy storage device , wherein the second modular energy storage device is mechanically coupled in series to the first modular energy storage device and electrically coupled in parallel to the first modular energy storage device , wherein the first and second modular energy storage devices are configured to provide redundant sources of power to drive the implantable blood pump . a base module operatively coupled with the blood pump to supply electrical power to drive the implantable blood pump ; a first modular energy storage device configured to be operatively coupled to the base module to supply electrical power to the base module ; and a second modular energy storage device operatively coupled to the first modular energy storage device to supply electrical power to the first modular energy storage device , wherein the second modular energy storage device is mechanically coupled in series to the first modular energy storage device and electrically coupled in parallel to the first modular energy storage device , wherein the first and second modular energy storage devices are configured to provide redundant sources of power to drive the implantable blood pump .
Assembly , comprising: a housing comprising a first layer and a second layer opposite the first layer, wherein the first layer and the second layer are spaced apart to define a confined interior space between the first and the second layers, a semi-permeable membrane attached to the first layer, the semi-permeable membrane covering a porous membrane area portion of the first layer, an outlet port and an inlet port in fluid communication with the interior space, first means for circulating a first fluid between the outlet port and the inlet port, and second means for circulating a second fluid along an exterior surface of the semi-permeable membrane, wherein the second means comprises a fluid duct attached to or integrated within the housing, wherein the semi-permeable membrane forms a barrier allowing for exchange of compounds across the semi-permeable membrane, characterised in that the fluid duct is isolated from the interior space and is porous to provide fluid access to an exterior surface of the semi-permeable membrane. a housing comprising a first layer and a second layer opposite the first layer, wherein the first layer and the second layer are spaced apart to define a confined interior space between the first and the second layers, a semi-permeable membrane attached to the first layer, the semi-permeable membrane covering a porous membrane area portion of the first layer, an outlet port and an inlet port in fluid communication with the interior space, first means for circulating a first fluid between the outlet port and the inlet port, and second means for circulating a second fluid along an exterior surface of the semi-permeable membrane, wherein the second means comprises a fluid duct attached to or integrated within the housing, wherein the semi-permeable membrane forms a barrier allowing for exchange of compounds across the semi-permeable membrane, characterised in that the fluid duct is isolated from the interior space and is porous to provide fluid access to an exterior surface of the semi-permeable membrane.
Metering unit for flowable solids, having an outlet nozzle which is moulded from a first flexibly elastic material and has at one end an inlet opening , which is designed for fixing on the outlet of a storage container, and at its other end a substantially slot-shaped outlet opening , which is formed between two opposite sealing lips of the outlet nozzle and is elastically preloaded in the direction of its closed position and can be transferred against its elastic preloading to an open position as a result of compressive forces (F) which act approximately in its direction of extent, characterized in that the substantially slot-shaped outlet opening of the outlet nozzle is elastically preloaded into its closed position by means of a separate clamp made from a second flexibly elastic material, which can be mounted releasably on the outer circumference of the sealing lips bounding the outlet opening , wherein the legs of the clamp , which rest on the outside of the sealing lips in the mounted state, are elastically preloaded in the direction of the position in which they are close together and can be moved elastically away from one another as a result of the compressive forces (F) which act approximately in their direction of extent.
A method for providing semi-finished tubular manufactured articles to be closed by stitching at an axial end thereof for the production of socks, which comprises a step of providing the body of a tubular manufactured article and a step of providing an end portion of the tubular manufactured article which is intended to be removed during the subsequent stitching operation in order to close an axial end of the tubular manufactured article , said step of providing the end portion comprising: - a step of providing an intermediate band connected to said body of the manufactured article and thinner than the thickness at least of the rows of knitting of the body of the manufactured article which are connected to said intermediate band ; - a step of providing an end edge thicker than the thickness of said intermediate band ; characterized in that the height of said intermediate band , proximate to the regions that constitute the lateral ends of the two flaps of said end portion to be overlapped in order to stitch the axial end to be closed of the tubular manufactured article , is lower than the height of the remaining part of said intermediate band . - a step of providing an intermediate band connected to said body of the manufactured article and thinner than the thickness at least of the rows of knitting of the body of the manufactured article which are connected to said intermediate band ; - a step of providing an end edge thicker than the thickness of said intermediate band ;
A feeder device for robots and robotic arms, automation systems and the like, comprising, on a frame : a set of conveyor belts (3', 3") constituting a closed loop for transporting objects designed to be gripped by a robot in such a way that the objects circulate cyclically and continuously within the closed loop; said conveyor belts (3', 3") comprising at least a first belt and a second belt (3") having, respectively, a first direction of extension and a second direction of extension (10") substantially parallel to each other and oriented in opposite directions; it being possible to orient at least one of said conveyor belts (3', 3"), using means for adjusting the slope, along an operating axis substantially normal relative to the ground, between a first position wherein the relative first or second direction of extension (10', 10") is substantially parallel to the ground and a second inclined position, wherein said relative first or second direction of extension (10") defines an angle (A) with the ground; means (11', 11") for adjusting the orientation of the flow of said objects from said first belt to said second belt ; a chute (8', 8") associated to a part of an edge of said conveyor belts (3', 3"), in such a way as to accompany the change in level which said objects must overcome due to the slope in said second inclined position; characterised in that it comprises means for adjusting the angle of inclination of the chute (8', 8"), said angle of inclination being defined by the direction normal to the ground and by the profile of said chute (8', 8"). a set of conveyor belts (3', 3") constituting a closed loop for transporting objects designed to be gripped by a robot in such a way that the objects circulate cyclically and continuously within the closed loop; said conveyor belts (3', 3") comprising at least a first belt and a second belt (3") having, respectively, a first direction of extension and a second direction of extension (10") substantially parallel to each other and oriented in opposite directions; it being possible to orient at least one of said conveyor belts (3', 3"), using means for adjusting the slope, along an operating axis substantially normal relative to the ground, between a first position wherein the relative first or second direction of extension (10', 10") is substantially parallel to the ground and a second inclined position, wherein said relative first or second direction of extension (10") defines an angle (A) with the ground; means (11', 11") for adjusting the orientation of the flow of said objects from said first belt to said second belt ; a chute (8', 8") associated to a part of an edge of said conveyor belts (3', 3"), in such a way as to accompany the change in level which said objects must overcome due to the slope in said second inclined position; characterised in that it comprises means for adjusting the angle of inclination of the chute (8', 8"), said angle of inclination being defined by the direction normal to the ground and by the profile of said chute (8', 8").
A process for manufacturing a transfer paper for use for transferring a print of ink onto a fabric, said transfer paper comprising: i) a base paper ; ii) an additive comprising a starch component, and a binding agent; wherein said starch component being a starch selected from the group comprising: unmodified starch or a modified starch or a mixture thereof; and wherein said binding agent being a binding agent selected from the group comprising: an alkyl ketene dimer, a tall oil/fumaric acid copolymer, a styrene/acrylate copolymer and an alkenyl succinic anhydride and a mixture thereof; and wherein said base paper comprises an amount of said additive by being impregnated therewith; wherein said base paper having a water uptake as defined by a Cobb-45 value of 10 - 100 g/m 2 and a having a Gurley porosity of 10 - 140 seconds, wherein the process comprising the steps: a) providing a base paper ; b) impregnating said base paper with an additive as defined above; c) drying the impregnated paper obtained in step b). i) a base paper ; ii) an additive comprising a starch component, and a binding agent; wherein said starch component being a starch selected from the group comprising: unmodified starch or a modified starch or a mixture thereof; and wherein said binding agent being a binding agent selected from the group comprising: an alkyl ketene dimer, a tall oil/fumaric acid copolymer, a styrene/acrylate copolymer and an alkenyl succinic anhydride and a mixture thereof; and wherein said base paper comprises an amount of said additive by being impregnated therewith; wherein said base paper having a water uptake as defined by a Cobb-45 value of 10 - 100 g/m 2 and a having a Gurley porosity of 10 - 140 seconds, wherein the process comprising the steps: a) providing a base paper ; b) impregnating said base paper with an additive as defined above; c) drying the impregnated paper obtained in step b). a) providing a base paper ; b) impregnating said base paper with an additive as defined above; c) drying the impregnated paper obtained in step b).
A method of multi-rate WLAN communication between a transmitter and a receiver over a channel, wherein the transmitter is capable of transmitting packets with multiple data rates, each data rate corresponding to a respective channel condition with regards to the performance of the WLAN communication, wherein at the level of the transmitter recording stable data rates that are used, wherein a stable data rate is a rate at which the number of continuously transmitted packets is equal to or larger than a predetermined value or at which the total transmission time is equal to or larger than a predetermined value, and upon detection of a disappearance of a deterioration of the channel condition, selecting a maximum stable data rate from among the recorded stable data rates that were stably used before the disappearance of the deterioration, but larger than the last data rate used before disappearance of the deterioration; and transmitting packets at said selected maximum data rate .
A magnetic element for generating a skyrmion , the magnetic element comprising a two-dimensional stacked film , wherein the two-dimensional stacked film is formed of a plurality of multiple layered films stacked with each other, each of the plurality of multiple layered films including a first non-magnetic film (13-1a, 13-2a, 13-Na), a magnetic film having a thickness equal to or less than 100 nm and stacked on the first non-magnetic film (13-1a, 13-2a, 13-Na), and second a non-magnetic film (13-1b, 13-2b, 13-Nb) stacked on the magnetic film , in the two-dimensional stacked film , at least a skyrmion crystal phase in which the skyrmion is generated and a ferromagnetic phase appear in accordance with an applied magnetic field, and in the two-dimensional stacked film , the skyrmion appears by applying a magnetic field substantially perpendicular to a two-dimensional surface having a thin layer shape. the two-dimensional stacked film is formed of a plurality of multiple layered films stacked with each other, each of the plurality of multiple layered films including a first non-magnetic film (13-1a, 13-2a, 13-Na), a magnetic film having a thickness equal to or less than 100 nm and stacked on the first non-magnetic film (13-1a, 13-2a, 13-Na), and second a non-magnetic film (13-1b, 13-2b, 13-Nb) stacked on the magnetic film , in the two-dimensional stacked film , at least a skyrmion crystal phase in which the skyrmion is generated and a ferromagnetic phase appear in accordance with an applied magnetic field, and in the two-dimensional stacked film , the skyrmion appears by applying a magnetic field substantially perpendicular to a two-dimensional surface having a thin layer shape.
A multiple-input multiple-output communication system, comprising: a plurality of antennas configured to receive a plurality of wireless signals; and a symbol detector configured to: convert the received wireless signals to input signals; and implement a lattice-reduction (LR)-aided K-best algorithm in a complex domain to detect a symbol in the input signals by: conducting a search of a plurality of layers of candidate symbols; performing a two-stage one-dimensional Schnorr-Euchner (SE) expansion to identify K-best candidate symbols for each of the plurality of layers, wherein the two-stage 1D SE expansion includes a first stage expansion on real parts of all child nodes of a layer, and a second stage expansion on imaginary parts of all child nodes obtained from the first stage; implementing a priority queue to store the K-best candidate symbols for each of the plurality of layers; and updating the priority queue based on the two-stage 1D SE expansion; and output at least one symbol. a plurality of antennas configured to receive a plurality of wireless signals; and a symbol detector configured to: convert the received wireless signals to input signals; and implement a lattice-reduction (LR)-aided K-best algorithm in a complex domain to detect a symbol in the input signals by: conducting a search of a plurality of layers of candidate symbols; performing a two-stage one-dimensional Schnorr-Euchner (SE) expansion to identify K-best candidate symbols for each of the plurality of layers, wherein the two-stage 1D SE expansion includes a first stage expansion on real parts of all child nodes of a layer, and a second stage expansion on imaginary parts of all child nodes obtained from the first stage; implementing a priority queue to store the K-best candidate symbols for each of the plurality of layers; and updating the priority queue based on the two-stage 1D SE expansion; and convert the received wireless signals to input signals; and implement a lattice-reduction (LR)-aided K-best algorithm in a complex domain to detect a symbol in the input signals by: conducting a search of a plurality of layers of candidate symbols; performing a two-stage one-dimensional Schnorr-Euchner (SE) expansion to identify K-best candidate symbols for each of the conducting a search of a plurality of layers of candidate symbols; performing a two-stage one-dimensional Schnorr-Euchner (SE) expansion to identify K-best candidate symbols for each of the plurality of layers, wherein the two-stage 1D SE expansion includes a first stage expansion on real parts of all child nodes of a layer, and a second stage expansion on imaginary parts of all child nodes obtained from the first stage; implementing a priority queue to store the K-best candidate symbols for each of the plurality of layers; and updating the priority queue based on the two-stage 1D SE expansion; and implementing a priority queue to store the K-best candidate symbols for each of the plurality of layers; and updating the priority queue based on the two-stage 1D SE expansion; and