mhurhangee/patent-ind-claim-en huggingface dataset:
A wrap for bundling cable, comprising: a multilayer wrap that comprises: (a) an outermost layer comprising a first polymer textile; (b) an innermost layer comprising a second polymer textile; and (c) a single adhesive layer between the outermost and innermost layers, wherein the first and second textiles differ from one another, wherein the multilayer wrap comprises an abrasion resistance that exceeds an abrasion resistance of the innermost and outermost layers alone, as measured under the ISO 6722 Standard, and further wherein the multilayer wrap comprises a damping resistance of at least class B, as measured under the LV 312 Standard wherein the first polymer textile of the outermost layer is a cloth comprising polyethylene terephthalate (PET), polyester, polyamide or a combination thereof, having a basis weight of 100 g/m 2 to 400 g/m 2 and a thickness of 150 μm to 350 μm, wherein the second polymer textile of the innermost layer is a fleece, having a basis weight of 50 g/m 2 to 250 g/m 2 and a thickness of 150 μm to 600 μm. a multilayer wrap that comprises: (a) an outermost layer comprising a first polymer textile; (b) an innermost layer comprising a second polymer textile; and (c) a single adhesive layer between the outermost and innermost layers, (a) an outermost layer comprising a first polymer textile; (b) an innermost layer comprising a second polymer textile; and (c) a single adhesive layer between the outermost and innermost layers, wherein the first and second textiles differ from one another, wherein the multilayer wrap comprises an abrasion resistance that exceeds an abrasion resistance of the innermost and outermost layers alone, as measured under the ISO 6722 Standard, and further wherein the multilayer wrap comprises a damping resistance of at least class B, as measured under the LV 312 Standard wherein the first polymer textile of the outermost layer is a cloth comprising polyethylene terephthalate (PET), polyester, polyamide or a combination thereof, having a basis weight of 100 g/m 2 to 400 g/m 2 and a thickness of 150 μm to 350 μm, wherein the second polymer textile of the innermost layer is a fleece, having a basis weight of 50 g/m 2 to 250 g/m 2 and a thickness of 150 μm to 600 μm.
A charging method for traction battery, applied to a charging apparatus, the charging apparatus comprises N energy storage units connected in series, each energy storage unit comprises an energy storage battery and a first DC/DC converter connected to the energy storage battery, and each charging period of the charging apparatus comprises a stage in which the traction battery is charged and a stage in which the traction battery discharges to the N energy storage units, N being a positive integer greater than 1; and the charging method being characterised by further comprising: in the discharge stage, obtaining a current voltage of the energy storage battery in each energy storage unit; determining , based on the current voltage of the energy storage battery in each energy storage unit, a first voltage output by the first DC/DC converter in each energy storage unit, wherein the first voltage output by the first DC/DC converter in each energy storage unit is inversely proportional to the current voltage of the energy storage battery in each energy storage unit; and sending a first control signal to the first DC/DC converter in each energy storage unit, wherein the first control signal is used to control the first DC/DC converter to output the first voltage, so as to cause the energy storage battery in each energy storage unit to receive, at the first voltage via the first DC/DC converter in each energy storage unit, electrical energy released by the traction battery. in the discharge stage, obtaining a current voltage of the energy storage battery in each energy storage unit; determining , based on the current voltage of the energy storage battery in each energy storage unit, a first voltage output by the first DC/DC converter in each energy storage unit, wherein the first voltage output by the first DC/DC converter in each energy storage unit is inversely proportional to the current voltage of the energy storage battery in each energy storage unit; and sending a first control signal to the first DC/DC converter in each energy storage unit, wherein the first control signal is used to control the first DC/DC converter to output the first voltage, so as to cause the energy storage battery in each energy storage unit to receive, at the first voltage via the first DC/DC converter in each energy storage unit, electrical energy released by the traction battery.
Surfboard having a hull and a jet drive arranged in the hull , whereby the jet drive is mounted on a carrier and the carrier can be releasably fastened to the hull by fastening means and can be removed from the hull together with the jet drive after the release of the fastening means and a battery for the jet drive is arranged in the hull and the battery is arranged separately from the carrier in the surfboard and is not removable together with the carrier , characterised in that a jet tube , a rotor, a motor , a controller and a converter are mounted on the carrier .
Cleaning basket for timepiece or jewellery components comprising a receptacle arranged for receiving components, said receptacle including at least a bottom , which is arranged to serve as support surface for said components, and at least one peripheral partition , arranged to retain said components inside said receptacle and defining a separation between the internal volume of said receptacle , and an environment outside said cleaning basket , said basket including a plurality of flow orifices arranged to allow the flow of cleaning and/or drying fluids through said bottom and/or said at least one peripheral partition , characterized in that said cleaning basket includes, in said bottom and/or in said at least one peripheral partition , a plurality of said flow orifices , which are flared holes , whose cross-section is smaller towards said receptacle than towards said external environment.
A method comprising: receiving, at data processing hardware of a robot , a target box location for a box held by the robot , the box having a top surface (26, 26 T ), a bottom surface (26, 26 B ), and side surfaces ; positioning, by the robot , the box at an initial position adjacent to the target box location ; tilting, by the robot , the box at an angle relative to a ground plane , the angle formed between the ground plane and the bottom surface of the box ; shifting, by the robot , the box from the initial position in a first direction (D 1 ) to a first alignment position that satisfies a threshold first alignment distance ; shifting, by the robot , the box from the first alignment position in a second direction (D 2 ) to the target box location that satisfies a threshold second alignment distance ; and releasing, by the robot , the box from the robot , the release of the box causing the box to pivot toward a boundary edge of the target box location . receiving, at data processing hardware of a robot , a target box location for a box held by the robot , the box having a top surface (26, 26 T ), a bottom surface (26, 26 B ), and side surfaces ; positioning, by the robot , the box at an initial position adjacent to the target box location ; tilting, by the robot , the box at an angle relative to a ground plane , the angle formed between the ground plane and the bottom surface of the box ; shifting, by the robot , the box from the initial position in a first direction (D 1 ) to a first alignment position that satisfies a threshold first alignment distance ; shifting, by the robot , the box from the first alignment position in a second direction (D 2 ) to the target box location that satisfies a threshold second alignment distance ; and releasing, by the robot , the box from the robot , the release of the box causing the box to pivot toward a boundary edge of the target box location .
A system for delivery of an implant to a target position in a body passage, the system comprising: an elongate, tubular sheath , which is adapted to be passed through the body passage while containing the implant in a compressed state inside the sheath, wherein the sheath has a distal end with an aperture formed therein; an ejector , which is adapted to force the implant in a distal direction, thus stretching the aperture so as to expand the aperture , whereby the implant passes through the aperture; and characterized in that the system is further provided with a catheter having a lumen and a compressible distended portion ; wherein at least a portion of the catheter is positioned through the implant , and the compressible distended portion is configured to slidably open and slidably obstruct the aperture thus controlling the passage of the implant therethrough. an elongate, tubular sheath , which is adapted to be passed through the body passage while containing the implant in a compressed state inside the sheath, wherein the sheath has a distal end with an aperture formed therein; an ejector , which is adapted to force the implant in a distal direction, thus stretching the aperture so as to expand the aperture , whereby the implant passes through the aperture; and characterized in that the system is further provided with a catheter having a lumen and a compressible distended portion ; wherein at least a portion of the catheter is positioned through the implant , and the compressible distended portion is configured to slidably open and slidably obstruct the aperture thus controlling the passage of the implant therethrough.
An electricity meter arranged to measure the electricity consumption of an installation, the electricity meter (10; 30; 51; 61) also being arranged to be connected to at least one pair of conductors comprising an upstream conductor belonging to a distribution network and a downstream conductor belonging to the installation, the electricity meter comprising: · a housing (13; 37) arranged to be fastened to a vertical support, the housing having a rear face (18; 36) for positioning against the vertical support; · connection means integrated inside the housing and comprising, for each pair of conductors, a pair of connection means comprising upstream connection means (20; 32) arranged to be connected to the upstream conductor of said pair of conductors, and downstream connection means (21; 34) arranged to be connected to the downstream conductor of said pair of conductors; · an upstream access (25; 31) giving access, from outside the electricity meter, to the upstream connection means, the upstream access being situated in the rear face of the housing, characterized in that the electricity meter further comprises a downstream access giving access, from outside the electricity meter, to the downstream connection means, the downstream access being situated in a front face of the housing. · a housing (13; 37) arranged to be fastened to a vertical support, the housing having a rear face (18; 36) for positioning against the vertical support; · connection means integrated inside the housing and comprising, for each pair of conductors, a pair of connection means comprising upstream connection means (20; 32) arranged to be connected to the upstream conductor of said pair of conductors, and downstream connection means (21; 34) arranged to be connected to the downstream conductor of said pair of conductors; · an upstream access (25; 31) giving access, from outside the electricity meter, to the upstream connection means, the upstream access being situated in the rear face of the housing,
A device, comprising: an electronic component positioned on a base ; and, a structural component surrounding the electronic component to provide at least a portion of a shield can around the electronic component; the structural component having a first thickness (D 1 ) defined between opposing first and second surfaces and an inwardly facing tab , and, wherein the inwardly facing tab defines an upper surface extending downwardly from the first surface , an offset lower surface extending upwardly from the second surface past at least a portion of the upper surface, and a surface connecting the upper surface and the offset lower surface and having a second thickness (D 5 ) that is less than the first thickness (D 1 ); wherein the second thickness (D 5 ) is measured at a narrowest point between the upper surface and the lower surface and the second thickness (D 5 ) is less than 0.25 x the first thickness (D 1 ). an electronic component positioned on a base ; and, a structural component surrounding the electronic component to provide at least a portion of a shield can around the electronic component; the structural component having a first thickness (D 1 ) defined between opposing first and second surfaces and an inwardly facing tab , and, wherein the inwardly facing tab defines an upper surface extending downwardly from the first surface , an offset lower surface extending upwardly from the second surface past at least a portion of the upper surface, and a surface connecting the upper surface and the offset lower surface and having a second thickness (D 5 ) that is less than the first thickness (D 1 ); wherein the second thickness (D 5 ) is measured at a narrowest point between the upper surface and the lower surface and the second thickness (D 5 ) is less than 0.25 x the first thickness (D 1 ).
A memory controller comprising: a first interface for receiving memory access requests generated by one or more computing resources executing one or more applications; a second interface for sending the memory access requests to a memory device comprising a plurality of ranks, each rank comprising a plurality of banks; and control logic , wherein the control logic is configured to: receive information identifying the one or more applications; characterized in that the control logic is further configured to: predict a first latency between accesses of a given rank of the plurality of ranks based at least upon the received information; and determine whether to perform an all-bank refresh operation for the given rank or perform a per-bank refresh operation on a given bank of the plurality of banks in the given rank based at least upon comparing the first latency and a second latency of an all-bank refresh operation; in response to receiving an indication to start a refresh interval for the given rank: select one or more refresh operations based upon the first latency; and perform the selected one or more refresh operations on the given rank. a first interface for receiving memory access requests generated by one or more computing resources executing one or more applications; a second interface for sending the memory access requests to a memory device comprising a plurality of ranks, each rank comprising a plurality of banks; and control logic , wherein the control logic is configured to: receive information identifying the one or more applications; predict a first latency between accesses of a given rank of the plurality of ranks based at least upon the received information; and determine whether to perform an all-bank refresh operation for the given rank or perform a per-bank refresh operation on a given bank of the plurality of banks in the given rank based at least upon comparing the first latency and a second latency of an all-bank refresh operation; in response to receiving an indication to start a refresh interval for the given rank: select one or more refresh operations based upon the first latency; and perform the selected one or more refresh operations on the given rank. select one or more refresh operations based upon the first latency; and perform the selected one or more refresh operations on the given rank.
An optical imaging device for reading optical codes; the device comprising: an area sensor comprising a first plurality of lines of pixels, the area sensor being configured to sense with only a second plurality of lines of pixels, the second plurality of lines of pixels being arranged in a predetermined position of the area sensor and including fewer lines of pixels than the number of lines of pixels in the first plurality of lines of pixels; a lens , the lens having an optical axis forming a portion of an optical imaging axis of the optical imaging device ; an exit window angled to the optical imaging axis ; and a reflective surface disposed along the optical imaging axis between the lens and the exit window , the reflective surface being configured to fold the imaging axis , characterized in that the reflective surface is tilted at an angle (A) of at least 45.5 degrees with respect to the optical axis of the lens . an area sensor comprising a first plurality of lines of pixels, the area sensor being configured to sense with only a second plurality of lines of pixels, the second plurality of lines of pixels being arranged in a predetermined position of the area sensor and including fewer lines of pixels than the number of lines of pixels in the first plurality of lines of pixels; a lens , the lens having an optical axis forming a portion of an optical imaging axis of the optical imaging device ; an exit window angled to the optical imaging axis ; and a reflective surface disposed along the optical imaging axis between the lens and the exit window , the reflective surface being configured to fold the imaging axis , characterized in that the reflective surface is tilted at an angle (A) of at least 45.5 degrees with respect to the optical axis of the lens .
An interference noise-control unit (1, 1', 1"), for installation on a sound arresting wall for reducing noise from trains, comprising: a housing to be secured on a sound arresting wall, wherein the housing comprises a hollow compartment comprising at least one first channel and at least one second channel , wherein said first channel has a first channel height A and a first channel length B, and wherein said second channel has a second channel height A' and a second channel length B', characterized in that said first channel height A is different from said second channel height A', wherein said first channel length B is between 0.08-1.1 m and wherein said second channel length B' is between 0.05-0.8 m, wherein the relationship between said first channel height A and said second channel height A' is in the interval of 1.1-3.0, and preferably 1.5. a housing to be secured on a sound arresting wall, wherein the housing comprises a hollow compartment comprising at least one first channel and at least one second channel , wherein said first channel has a first channel height A and a first channel length B, and wherein said second channel has a second channel height A' and a second channel length B', characterized in that said first channel height A is different from said second channel height A', wherein said first channel length B is between 0.08-1.1 m and wherein said second channel length B' is between 0.05-0.8 m, wherein the relationship between said first channel height A and said second channel height A' is in the interval of 1.1-3.0, and preferably 1.5. characterized in that said first channel height A is different from said second channel height A', wherein said first channel length B is between 0.08-1.1 m and wherein said second channel length B' is between 0.05-0.8 m, wherein the relationship between said first channel height A and said second channel height A' is in the interval of 1.1-3.0, and preferably 1.5.
A filter , comprising: a substrate (110, 110-1); a stepped medium disposed on the substrate (110, 110-1); a first mirror (130-1, 558) disposed on the stepped medium ; wherein the first mirror (130-1, 558) forms a stepped mirror surface, wherein each step, of the stepped mirror surface corresponds to a channel, of a set of channels, of the filter ; a spacer disposed on the stepped mirror surface; and a second mirror (130-2, 562( disposed on another surface of the spacer ; wherein the stepped medium forms a set of pillars, and characterised in that at least one pillar, of the set of pillars, forms an inactive channel , wherein a portion of the first mirror (130-1) and a portion of the second mirror (130-2) aligned with the at least one pillar does not sandwich a portion of spacer such that structural support is provided at the inactive channel . a substrate (110, 110-1); a stepped medium disposed on the substrate (110, 110-1); a first mirror (130-1, 558) disposed on the stepped medium ; wherein the first mirror (130-1, 558) forms a stepped mirror surface, wherein each step, of the stepped mirror surface corresponds to a channel, of a set of channels, of the filter ; wherein the first mirror (130-1, 558) forms a stepped mirror surface, wherein each step, of the stepped mirror surface corresponds to a channel, of a set of channels, of the filter ; a spacer disposed on the stepped mirror surface; and a second mirror (130-2, 562( disposed on another surface of the spacer ; wherein the stepped medium forms a set of pillars, and characterised in that at least one pillar, of the set of pillars, forms an inactive channel , wherein a portion of the first mirror (130-1) and a portion of the second mirror (130-2) aligned with the at least one pillar does not sandwich a portion of spacer such that structural support is provided at the inactive channel .
An uninterruptible power supply (UPS) system comprising: a plurality of UPSs ; a ring bus coupled to said plurality of UPSs ; a plurality of chokes , each choke of said plurality of chokes electrically coupling a respective UPS of said plurality of UPSs to said ring bus ; and at least one switch coupled between an associated UPS of said plurality of UPSs and said ring bus , said at least one switch being configured to be switched to selectively bypass at least one choke of said plurality of chokes wherein said at least one switch is configured to be selectively switched to bypass said at least one choke in response to a fault occurring at said associated UPS ; characterized in that said at least one switch is a static switch and the system further comprises a first fuse coupled to said associated UPS , wherein said first fuse is configured to electrically disconnect said associated UPS from said ring bus in response to a fault current from said ring bus exceeding a predetermined threshold, wherein said at least one static switch is configured to be selectively switched to selectively bypass said at least one choke to provide the fault current to said first fuse . a plurality of UPSs ; a ring bus coupled to said plurality of UPSs ; a plurality of chokes , each choke of said plurality of chokes electrically coupling a respective UPS of said plurality of UPSs to said ring bus ; and at least one switch coupled between an associated UPS of said plurality of UPSs and said ring bus , said at least one switch being configured to be switched to selectively bypass at least one choke of said plurality of chokes wherein said at least one switch is configured to be selectively switched to bypass said at least one choke in response to a fault occurring at said associated UPS ; characterized in that said at least one switch is a static switch and the system further comprises a first fuse coupled to said associated UPS , wherein said first fuse is configured to electrically disconnect said associated UPS from said ring bus in response to a fault current from said ring bus exceeding a predetermined threshold, wherein said at least one static switch is configured to be selectively switched to selectively bypass said at least one choke to provide the fault current to said first fuse .
Respiratory therapy apparatus including a vibratory PEP therapy device including a valve that is opened and closed by breathing through the device such as to produce an oscillating resistance to breathing through the device, characterised in that the apparatus includes a sensor responsive to acoustic pressure waves transmitted through air caused by movement of the valve, that the sensor is arranged to provide a signal indicative of use of the device, and that the sensor is separate from the device but placed close to it to receive the acoustic pressure waves transmitted from the device through air to the sensor