mhurhangee/ep-ind-claims huggingface dataset:
Bulletproof structure comprising a flexible base consisting of intertwined or unidirectional ballistic fibers on which rigid metallic or ceramic elements (20; 30; 41, 41', 41",...) are adhered adjacent to each other, wherein - the face of said elements adhering to the fibers is convex and the face of said rigid elements (20; 30; 41, 41', 41",...) opposite to said convex face is concave; - the thickness at the edge of the element is between 0.5 and 2 mm greater than the thickness at the center of the same element; - the rigid elements adhere to the flexible base for a fraction of said convex surface; and - in a plan view they have a polygonal or pseudo-polygonal shape, such that there are no voids between the sides of two abutting elements. - the face of said elements adhering to the fibers is convex and the face of said rigid elements (20; 30; 41, 41', 41",...) opposite to said convex face is concave; - the thickness at the edge of the element is between 0.5 and 2 mm greater than the thickness at the center of the same element; - the rigid elements adhere to the flexible base for a fraction of said convex surface; and - in a plan view they have a polygonal or pseudo-polygonal shape, such that there are no voids between the sides of two abutting elements.
A thermogenerator comprising at least one thermoelement and two phase-change materials (MCP1, MCP2) having different phase-change temperatures (T f1, T f2), said at least one thermoelement having two opposite main faces (8, 10), and each of said faces (8, 10) being covered by one of the phase-change materials (MCP1, MCP2), such that the thermoelement is subject only to the temperature gradient imposed by the two phase-change materials (MCP1, MCP2), during a phase of heating or cooling.
A heat exchanger having a circulation guide, the heat exchanger comprising: a heat exchanger body having a water chamber formed inside thereof; an inlet port, which is connected to a bottom end of the heat exchanger body and through which water is supplied to the water chamber; a discharge port, which is connected to a top end of the heat exchanger body and through which water is discharged from the water chamber; a top body tube installed at a top end of an inside of the heat exchanger body and having a fire chamber formed inside thereof; a bottom end plate installed at a bottom end of the inside of the heat exchanger body; and a plurality of combustion pipes, which each have a top end connected to pass through a floor surface of the top body tube and a bottom end connected to pass through the bottom end plate and through which a combustion gas at a high temperature introduced through the fire chamber is discharged, wherein sidewalls that constitute the top body tube are spaced apart from an inner circumferential surface of the heat exchanger body, characterized by a spiral guide that protrudes along a spiral shape is installed at inner circumferential surfaces of the sidewalls. a heat exchanger body having a water chamber formed inside thereof; an inlet port, which is connected to a bottom end of the heat exchanger body and through which water is supplied to the water chamber; a discharge port, which is connected to a top end of the heat exchanger body and through which water is discharged from the water chamber; a top body tube installed at a top end of an inside of the heat exchanger body and having a fire chamber formed inside thereof; a bottom end plate installed at a bottom end of the inside of the heat exchanger body; and a plurality of combustion pipes, which each have a top end connected to pass through a floor surface of the top body tube and a bottom end connected to pass through the bottom end plate and through which a combustion gas at a high temperature introduced through the fire chamber is discharged, wherein sidewalls that constitute the top body tube are spaced apart from an inner circumferential surface of the heat exchanger body, characterized by a spiral guide that protrudes along a spiral shape is installed at inner circumferential surfaces of the sidewalls.
Coupling element, in the shape of an eyelet for laces or a button or a buckle or other similar element, in which a through-hole is formed and is adapted to be traversed by a pin of a rivet in a plastic material, to be fixed to a shoe or to a garment by riveting the tip of the pin so as to form a counterhead, characterized by the fact that the through-hole includes a frusto-conical portion adapted to receive the counterhead.
An electronic device comprising a processing circuit (110, 120) configured to: transmit, through a Group Common-Physical Downlink Control Channel, GC-PDCCH, control information related to data in a previous time slot of a time slot where the GC-PDCCH is located; wherein the processing circuit is further configured to: transmit the control information related to the data in the previous time slot through the GC-PDCCH when the GC-PDCCH is not transmitted in the previous time slot. transmit, through a Group Common-Physical Downlink Control Channel, GC-PDCCH, control information related to data in a previous time slot of a time slot where the GC-PDCCH is located; wherein the processing circuit is further configured to: transmit the control information related to the data in the previous time slot through the GC-PDCCH when the GC-PDCCH is not transmitted in the previous time slot.
A method, performed by a computing device (102, 150), for scaling a raster image for a selected geographic area, wherein the raster image includes a representation of a body of water having a color gradient (402, 422), the method comprising: receiving a description of geometry of the body of water (208, 320) for a selected geographic area; receiving a first blur raster image (210, 325) and a second blur raster image (212, 330) for rendering the body of water with a color gradient, wherein the first blur raster image (210, 325) and the second blur raster image (212, 330) are associated with a first blur radius and a second blur radius, respectively; generating a raster image (202, 400) for a starting zoom level using the description of geometry of the body of water and the first blur raster image; and generating a plurality of raster images (202, 420) at different zoom levels other than the starting zoom level using the description of the geometry of the body of water (208, 320), the first blur raster image (210, 325), and the second blur raster image (212, 330), wherein the color gradient (402, 422) has a constant apparent blur radius during zooming. receiving a description of geometry of the body of water (208, 320) for a selected geographic area; receiving a first blur raster image (210, 325) and a second blur raster image (212, 330) for rendering the body of water with a color gradient, wherein the first blur raster image (210, 325) and the second blur raster image (212, 330) are associated with a first blur radius and a second blur radius, respectively; generating a raster image (202, 400) for a starting zoom level using the description of geometry of the body of water and the first blur raster image; and generating a plurality of raster images (202, 420) at different zoom levels other than the starting zoom level using the description of the geometry of the body of water (208, 320), the first blur raster image (210, 325), and the second blur raster image (212, 330), wherein the color gradient (402, 422) has a constant apparent blur radius during zooming.
A spinal implant comprising: an agent; and a foldable covering comprising a sheet including a first surface having a loop configuration and disposed with the agent, and a second surface having a hook configuration connectable with the first surface to intra-operatively dispose the covering in a selected configuration; wherein the covering comprises a plurality of panels (30, 30a, 30b) connected by fold lines, the panels (30, 30a, 30b) being folded such that a portion of the second surface disposed with the panel is adjacent and facing a portion of the first surface disposed with the panel and the agent is encased by the panels (30, 30a, 30b); and wherein the first and second surfaces (16, 24) are connected via the hook and loop configuration (26, 28) in a folded configuration; wherein the agent comprises autograft bone or allograft bone; or demineralized bone matrix comprising particles and fibers of demineralized bone; or protein, bone morphogenetic proteins, carbohydrate, lipids, collagen, tricalcium phosphate, hydroxyapatite, growth and differentiation factors, carriers for growth factors, growth factors extracts of tissue, bone marrow aspirate, concentrates of lipid derived or marrow derived adult stem cells, umbilical cord derived stem cells, committed or partially committed cells from osteogenic or chondrogenic lineage, antimicrobials, antibiotics, statins, peptide sequences such as RGD or combinations thereof. comprising: an agent; and a foldable covering comprising a sheet including a first surface having a loop configuration and disposed with the agent, and a second surface having a hook configuration connectable with the first surface to intra-operatively dispose the covering in a selected configuration; wherein the covering comprises a plurality of panels (30, 30a, 30b) connected by fold lines, the panels (30, 30a, 30b) being folded such that a portion of the second surface disposed with the panel is adjacent and facing a portion of the first surface disposed with the panel and the agent is encased by the panels (30, 30a, 30b); and wherein the first and second surfaces (16, 24) are connected via the hook and loop configuration (26, 28) in a folded configuration; wherein the agent comprises autograft bone or allograft bone; or demineralized bone matrix comprising particles and fibers of demineralized bone; or protein, bone morphogenetic proteins, carbohydrate, lipids, collagen, tricalcium phosphate, hydroxyapatite, growth and differentiation factors, carriers for growth factors, growth factors extracts of tissue, bone marrow aspirate, concentrates of lipid derived or marrow derived adult stem cells, umbilical cord derived stem cells, committed or partially committed cells from osteogenic or chondrogenic lineage, antimicrobials, antibiotics, statins, peptide sequences such as RGD or combinations thereof.
A method for controlling a transmission power of a terminal performing a device to device, D2D, discovery in a wireless communication system, the method comprising: receiving, by the terminal, information on D2D discovery resources for transmitting a discovery signal and power control information corresponding to the D2D discovery resources from a base station, the information on the D2D discovery resources including a number of repetitive transmission for each D2D resource pool; identifying a maximum transmission power based on a discovery range class of the terminal; identifying a first transmission power based on the power control information; comparing the maximum transmission power with the identified first transmission power; and determining the transmission power as a minimum transmission power value of the maximum transmission power and the identified first transmission power; identifying a resource for the discovery signal based on a predefined pattern and the number of repetitive transmission; and transmitting the discovery signal based on the determined transmission power and identified resource, wherein the first transmission power is identified by an equation of 10 ∗ log 10 +P 0 +α ∗ PL, M being the number of resource blocks of the identified resource, P 0 being a cell-specific value, and a being a value associated with path-loss PL. receiving, by the terminal, information on D2D discovery resources for transmitting a discovery signal and power control information corresponding to the D2D discovery resources from a base station, the information on the D2D discovery resources including a number of repetitive transmission for each D2D resource pool; identifying a maximum transmission power based on a discovery range class of the terminal; identifying a first transmission power based on the power control information; comparing the maximum transmission power with the identified first transmission power; and determining the transmission power as a minimum transmission power value of the maximum transmission power and the identified first transmission power; identifying a resource for the discovery signal based on a predefined pattern and the number of repetitive transmission; and transmitting the discovery signal based on the determined transmission power and identified resource, wherein the first transmission power is identified by an equation of 10 ∗ log 10 +P 0 +α ∗ PL, M being the number of resource blocks of the identified resource, P 0 being a cell-specific value, and a being a value associated with path-loss PL.
A method comprising: receiving, by a wireless device from a base station, at least one message comprising at least one uplink power control parameter associated with an uplink transmission; receiving a control message indicating activation of semi-persistent channel state information, SP CSI, reporting; determining a transmission power for a transmission of at least one SP CSI report, wherein the transmission power is based on: the at least one uplink power control parameter; and at least one correction value changed based on the activation; and transmitting, via an uplink channel and based on the transmission power, the at least one SP CSI report. receiving, by a wireless device from a base station, at least one message comprising at least one uplink power control parameter associated with an uplink transmission; receiving a control message indicating activation of semi-persistent channel state information, SP CSI, reporting; determining a transmission power for a transmission of at least one SP CSI report, wherein the transmission power is based on: the at least one uplink power control parameter; and at least one correction value changed based on the activation; and the at least one uplink power control parameter; and at least one correction value changed based on the activation; and transmitting, via an uplink channel and based on the transmission power, the at least one SP CSI report.
One or more computer-readable memories storing instructions which, when executed by one or more processors disposed in a device, implement a method for real-time sharing of location during a phone call between a local party and a remote party using respective local and remote devices, comprising: during the phone call, exposing a user interface (1000, 1500) for initiating the real-time sharing of a current location of the local device with the remote device; exposing one or more controls for selecting an expiration for the location sharing, in which location sharing is discontinued at the expiration, the expiration being expressed using time or the expiration being expressed using an occurrence of an event; and displaying a map (1205, 1605) that graphically shows one of a location of the local device, a location of the remote device, or the locations of both the local and remote devices. during the phone call, exposing a user interface (1000, 1500) for initiating the real-time sharing of a current location of the local device with the remote device; exposing one or more controls for selecting an expiration for the location sharing, in which location sharing is discontinued at the expiration, the expiration being expressed using time or the expiration being expressed using an occurrence of an event; and displaying a map (1205, 1605) that graphically shows one of a location of the local device, a location of the remote device, or the locations of both the local and remote devices.
A computing device for multi-threaded message passing, the computing device comprising: a host process module adapted to (i) create a first message passing interface endpoint for a first thread of a plurality of threads established by a host process of the computing device and (ii) assign the first thread to a first proxy process, wherein the host process includes a message passing interface library; a message passing module adapted to (i) receive, during execution of the first thread, a first message passing interface operation associated with the first message passing interface endpoint and (ii) communicate the first message passing interface operation from the first thread to the first proxy process; and a proxy process module adapted to: establish, by the first proxy process, a first instance of the message passing interface library configured to execute in a single-threaded mode of execution; use the first instance of the message passing interface library established by the first proxy process to perform the first message passing interface operation by the first proxy process. a host process module adapted to (i) create a first message passing interface endpoint for a first thread of a plurality of threads established by a host process of the computing device and (ii) assign the first thread to a first proxy process, wherein the host process includes a message passing interface library; a message passing module adapted to (i) receive, during execution of the first thread, a first message passing interface operation associated with the first message passing interface endpoint and (ii) communicate the first message passing interface operation from the first thread to the first proxy process; and a proxy process module adapted to: establish, by the first proxy process, a first instance of the message passing interface library configured to execute in a single-threaded mode of execution; use the first instance of the message passing interface library established by the first proxy process to perform the first message passing interface operation by the first proxy process. establish, by the first proxy process, a first instance of the message passing interface library configured to execute in a single-threaded mode of execution; use the first instance of the message passing interface library established by the first proxy process to perform the first message passing interface operation by the first proxy process.
Metering apparatus for granular material, in particular seed material, wherein the metering apparatus comprises a conveying device, which is mounted in a rotatable manner in a housing and interacts with a housing wall or a guide element such that granular material can be conveyed from a receiving region into a dispensing region, wherein the metering apparatus comprises a pre-metering unit, which opens out into the housing via a side wall of the housing; wherein the pre-metering unit can introduce granular material into the housing; and wherein the pre-metering unit comprises a rotor, of which the axis of rotation encloses an angle of smaller than 10° with the axis of rotation of the conveying device, characterized in that the pre-metering unit comprises an airlock for the granular material, it being possible for the airlock to be driven by the rotor.
A semiconductor ultraviolet light avalanche photodetector, comprising: a body of silicon carbide comprising at least one first epitaxial layer and one second epitaxial layer (8; 108) having a first and a second conductivity type, respectively, and arranged on top of each other; the body having a non-planar body surface (3A; 103A), including a projecting portion (3A1), a sloped lateral portion (3A2), and an edge portion (3A3); an edge region (11; 111; 211; 311) of dielectric material, extending over the sloped lateral portion (3A2) and the edge portion (3A3) of the body surface; an anode region, of the second conductivity type and formed by the second epitaxial layer (8; 108), the anode region being delimited by the projecting portion (3A1) and by the sloped lateral portion (3A2) of the body surface (3A; 103A) and being configured to receive ultraviolet light; a cathode region, of the first conductivity type and a first doping level, formed by the first epitaxial layer underneath the anode region; and a buried region (10; 310; 410), of the first conductivity type and a second doping level, higher than the first doping level, extending between the anode region and the cathode region, the buried region being located underneath the projecting portion (3A1) of the body surface, characterized in that the buried region is spaced apart from the sloped lateral portion (3A2) of the body surface (3A; 103A) as well as from the edge region (11; 111; 211; 311). a body of silicon carbide comprising at least one first epitaxial layer and one second epitaxial layer (8; 108) having a first and a second conductivity type, respectively, and arranged on top of each other; the body having a non-planar body surface (3A; 103A), including a projecting portion (3A1), a sloped lateral portion (3A2), and an edge portion (3A3); an edge region (11; 111; 211; 311) of dielectric material, extending over the sloped lateral portion (3A2) and the edge portion (3A3) of the body surface; an anode region, of the second conductivity type and formed by the second epitaxial layer (8; 108), the anode region being delimited by the projecting portion (3A1) and by the sloped lateral portion (3A2) of the body surface (3A; 103A) and being configured to receive ultraviolet light; a cathode region, of the first conductivity type and a first doping level, formed by the first epitaxial layer underneath the anode region; and a buried region (10; 310; 410), of the first conductivity type and a second doping level, higher than the first doping level, extending between the anode region and the cathode region, the buried region being located underneath the projecting portion (3A1) of the body surface, characterized in that the buried region is spaced apart from the sloped lateral portion (3A2) of the body surface (3A; 103A) as well as from the edge region (11; 111; 211; 311).
A semiconductor device comprising: a block module (2, 52) which internally includes a power semiconductor element and a first heatsink, and from which a main circuit terminal (4, 54) and a control terminal (5, 55) are drawn; a control substrate (3, 53) connected to the control terminal (5, 55); a package in which the block module (2, 52) and the control substrate (3, 53) are housed; and a second heatsink to which the package is fixed by a connection screw (60, 61), wherein the connection screw (60, 61) is inserted into the second heatsink so as to be inclined at an inclination angle θ relative to a normal to a surface of the second heatsink, a bottom surface of the package is inclined at the inclination angle θ relative to a surface of the second heatsink in a situation where the package is not fixed to the second heatsink, and when the package is not fixed to the second heatsink, a virtual line connecting opposite inner ends of the inclined surface of the package passes through an interior of the first heatsink of the block module (2, 52). a block module (2, 52) which internally includes a power semiconductor element and a first heatsink, and from which a main circuit terminal (4, 54) and a control terminal (5, 55) are drawn; a control substrate (3, 53) connected to the control terminal (5, 55); a package in which the block module (2, 52) and the control substrate (3, 53) are housed; and a second heatsink to which the package is fixed by a connection screw (60, 61), wherein the connection screw (60, 61) is inserted into the second heatsink so as to be inclined at an inclination angle θ relative to a normal to a surface of the second heatsink, a bottom surface of the package is inclined at the inclination angle θ relative to a surface of the second heatsink in a situation where the package is not fixed to the second heatsink, and when the package is not fixed to the second heatsink, a virtual line connecting opposite inner ends of the inclined surface of the package passes through an interior of the first heatsink of the block module (2, 52).