mhurhangee/ep-ind-claims huggingface dataset:
A method of processing data, the method comprising: executing, with a graphics processing unit, a first set of commands via a graphics pipeline of the GPU in response to receiving a draw call, the draw call defining one or more primitives that are to be rendered by execution of the first set of commands; receiving, with the GPU, a preemption notification during execution of the first set of commands and prior to rendering all of the one or more primitives; in response to receiving the preemption notification, disconnecting, with at least a first hardware switch, an output of a local memory of the GPU from a stage of the graphics pipeline and connecting, with at least a second hardware switch, the output of the local memory of the GPU to a hardware stream out unit of the GPU to dynamically configure interconnection of stages of the graphics pipeline during execution of the first set of commands; outputting, from the hardware stream out unit, intermediate data generated during execution of one or more commands of the first set of commands to a memory that is external to the GPU due to the dynamic configuration of the interconnection of stages of the graphics pipeline of the GPU, during execution of the first set of commands; preempting, with the GPU, the execution of the first set of commands, prior to completing the execution of the first set of commands to render the one or more primitives of the draw call, for executing a second set of commands; and executing the second set of commands. executing, with a graphics processing unit, a first set of commands via a graphics pipeline of the GPU in response to receiving a draw call, the draw call defining one or more primitives that are to be rendered by execution of the first set of commands; receiving, with the GPU, a preemption notification during execution of the first set of commands and prior to rendering all of the one or more primitives; in response to receiving the preemption notification, disconnecting, with at least a first hardware switch, an output of a local memory of the GPU from a stage of the graphics pipeline and connecting, with at least a second hardware switch, the output of the local memory of the GPU to a hardware stream out unit of the GPU to dynamically configure interconnection of stages of the graphics pipeline during execution of the first set of commands; outputting, from the hardware stream out unit, intermediate data generated during execution of one or more commands of the first set of commands to a memory that is external to the GPU due to the dynamic configuration of the interconnection of stages of the graphics pipeline of the GPU, during execution of the first set of commands; preempting, with the GPU, the execution of the first set of commands, prior to completing the execution of the first set of commands to render the one or more primitives of the draw call, for executing a second set of commands; and executing the second set of commands.
Low-voltage, medium-voltage or high-voltage switchgear assembly having individual functional components to be controlled, wherein the electrical wiring between the electrical functional components of the switchgear assembly is replaced by wiring in a box, and wherein the electrical components are each now connected directly to the box only by means of a bound cable run, characterized in that the box is a control, signalling and display unit integrated in a single housing, and in that the box comprises a connecting strip to which all of the individual components to be controlled in the switchgear cabinet or in the switch panel can be connected by means of in each case one cable harness, which is connected to a plug, and in that a coding plug can be fitted to the connecting strip, on which plug the desired function-determining wiring or contacts can be physically implemented by means of switching elements (5, 6).
An electrophoretic fluid comprising charged pigment particles dispersed in a mixture of saturated linear or branched aliphatic hydrocarbons, said mixture of hydrocarbons comprising hydrocarbons having 8, 9 and 10 carbon atoms, the fluid being characterized in that less than 20% of the hydrocarbons have less than 8 carbon atoms or more than 10 carbon atoms.
An absorbent article comprising an absorbent core, which comprises a primary water-absorbing agent, comprising water-absorbing resin particles obtained by polymerizing an acid group-containing unsaturated monomer, said primary water-absorbing agent having a Centrifuge Retention Capacity from 5 to 20g/g, and said agent comprising (i) a compound that includes a constitutional unit derived from polyalkyleneglycol, that is other than an unsaturated monomer; and (ii) a polyvalent metal salt, whereby said compound has a weight average molecular weight of from 500 to 50000 and whereby said compound is present without forming a chemical bond with the water-absorbing resin particles and/ or whereby said compound is separable from the water-absorbing resin particles.
Sample carrier system with (i) a sample carrier for cryopreservation of biological samples comprising: - a sample carrier housing and - a sample carrier insert, the sample carrier insert having a first insert section which can be introduced into a sample carrier, the first insert section having a recess for receiving a second insert section of the sample carrier insert and for receiving at least one cooling agent, and wherein the second insert section is insertable into the recess of the first insert section and the second insert section further comprises a plurality of receiving portions (21, 22) for receiving containers (31, 32), wherein the sample carrier insert is arranged integrally, integrated and/or reversibly insertable in the sample carrier housing and is designed to be attachable therein; and (ii) at least one container (31, 32) for receiving in at least one of the receiving portions (21, 22) of the sample carrier, wherein at least one of the containers (31, 32) contains isopentane. (i) a sample carrier for cryopreservation of biological samples comprising: - a sample carrier housing and - a sample carrier insert, the sample carrier insert having a first insert section which can be introduced into a sample carrier, the first insert section having a recess for receiving a second insert section of the sample carrier insert and for receiving at least one cooling agent, and wherein the second insert section is insertable into the recess of the first insert section and the second insert section further comprises a plurality of receiving portions (21, 22) for receiving containers (31, 32), wherein the sample carrier insert is arranged integrally, integrated and/or reversibly insertable in the sample carrier housing and is designed to be attachable therein; and - a sample carrier housing and - a sample carrier insert, the sample carrier insert having a first insert section which can be introduced into a sample carrier, the first insert section having a recess for receiving a second insert section of the sample carrier insert and for receiving at least one cooling agent, and wherein the second insert section is insertable into the recess of the first insert section and the second insert section further comprises a plurality of receiving portions (21, 22) for receiving containers (31, 32), wherein the sample carrier insert is arranged integrally, integrated and/or reversibly insertable in the sample carrier housing and is designed to be attachable therein; (ii) at least one container (31, 32) for receiving in at least one of the receiving portions (21, 22) of the sample carrier, wherein at least one of the containers (31, 32) contains isopentane.
A mobile station apparatus comprising: a reception unit configured to receive information indicative of a value of a UE-specific parameter f DMRS for generation of a demodulation reference signal sequence, the value of the parameter f DMRS is provided by a higher layer and the demodulation reference signal is associated with transmission of a physical uplink shared channel; a transmission unit configured to transmit a transport block on the physical uplink shared channel corresponds to a random access response grant or retransmission of the same transport block as part of a contention based random access procedure; and a generation unit configured to generate the demodulation reference signal sequence based on the parameter f DMRS, characterized in that the mobile station apparatus is configured to generate the demodulation reference signal sequence without using the value in a case that the transmission of the physical uplink shared channel corresponds to the random access response grant or retransmission of the same transport block as part of the contention based random access procedure. a reception unit configured to receive information indicative of a value of a UE-specific parameter f DMRS for generation of a demodulation reference signal sequence, the value of the parameter f DMRS is provided by a higher layer and the demodulation reference signal is associated with transmission of a physical uplink shared channel; a transmission unit configured to transmit a transport block on the physical uplink shared channel corresponds to a random access response grant or retransmission of the same transport block as part of a contention based random access procedure; and a generation unit configured to generate the demodulation reference signal sequence based on the parameter f DMRS, characterized in that the mobile station apparatus is configured to generate the demodulation reference signal sequence without using the value in a case that the transmission of the physical uplink shared channel corresponds to the random access response grant or retransmission of the same transport block as part of the contention based random access procedure.
A valve assembly for a gas lighter, comprising: a tubular rigid body having a lower end provided with a hole designed to be in communication with a gas reservoir and an upper end provided with an upper opening; a hollow rod extending along a central axis through the upper opening from a lower end located within said tubular body to an upper end located outside the tubular body, said hollow rod having a lower enlarged portion located within the tubular body and an upper enlarged portion located outside which is designed for cooperating with a command lever; a retaining member which surrounds a cylindrical portion of the hollow rod and on which the upper end of the tubular body is crimped, said hollow rod being movable through the retaining member between a closed position and an opened position enabling a gas to flow from the hole of the lower end to the upper end of the hollow rod; characterized in that said retaining member has an annular shape with a slit extending from an inner side of the retaining member to an outer side of the retaining member and wherein said retaining member is made of synthetic resin for enabling a circumferential expansion of said slit. a tubular rigid body having a lower end provided with a hole designed to be in communication with a gas reservoir and an upper end provided with an upper opening; a hollow rod extending along a central axis through the upper opening from a lower end located within said tubular body to an upper end located outside the tubular body, said hollow rod having a lower enlarged portion located within the tubular body and an upper enlarged portion located outside which is designed for cooperating with a command lever; a retaining member which surrounds a cylindrical portion of the hollow rod and on which the upper end of the tubular body is crimped, said hollow rod being movable through the retaining member between a closed position and an opened position enabling a gas to flow from the hole of the lower end to the upper end of the hollow rod; characterized in that said retaining member has an annular shape with a slit extending from an inner side of the retaining member to an outer side of the retaining member and wherein said retaining member is made of synthetic resin for enabling a circumferential expansion of said slit.
A process for the production of a composition comprising one or more conductive nano-filler(s), one or more polyarylethersulphone thermoplastic polymer(s), one or more uncured thermoset resin precursor(s), and optionally one or more curing agent(s) therefor, wherein said process comprises mixing or dispersing a first composition comprising one or more conductive nano-filler(s) and one or more polyarylethersulphone thermoplastic polymer(s) with or into one or more uncured thermoset resin precursor(s), and optionally one or more curing agent(s) therefor.
An electric machine comprising a cylindrical stator and a frame surrounding the stator, the stator comprising an axial centre line (Z1-Z1), a vertical centre plane (Y1-Y1) passing through the axial centre line (Z1-Z1) and dividing the stator into a left half and a right half, and a horizontal centre plane (X1-X1) passing through the axial centre line (Z1-Z1) and dividing the stator into an upper half and a lower half, the stator being supported on the frame with support necks (P1, P2, P3, P4) in at least two axially (Z1-Z1) spaced support locations (S1, S2), a first support location being positioned at a first axial end portion of the stator and a second support location being positioned at a second axial end portion of the stator, the support necks (P1, P2, P3, P4) in the first support location and in the second support location comprising a first group of support necks (P1, P2) and a second group of support necks (P3, P4), the first group of the support necks (P1, P2) comprising at least one upper support neck positioned in the upper half of the stator in a first sector extending 35 degrees on opposite sides of the vertical centre plane (Y1-Y1) and at least one lower support neck positioned in the lower half of the stator in a second sector extending 35 degrees on opposite sides of the vertical centre plane (Y1-Y1), the second group of support necks (P3, P4) comprising a first side support neck and a second side support neck being positioned opposite to each other in relation to the vertical centre plane (Y1-Y1), characterized in the first side support neck being positioned in the left half of the stator at a first angular distance above or below the horizontal centre plane (X1-X1), the second side support neck being positioned in the right half of the stator at a second angular distance above or below the horizontal centre plane (X1-X1), the first angular distance and the second angular distance being equal and defined by a first angle (α1), which is in degrees within the range α1 = 1.2*90/P and α1 = 0.8*90/P, where P is the number of poles of the electric machine and P > 2.
A method for making a transistor formed in a stack of superimposed semi-conductor layers, the method comprising the steps of: a) providing on a substrate, at least one semi-conductor structure formed by a stack comprising alternating layer(s) (12, 12', 12") based on at least one first semi-conductor material and layer(s) (16, 16') based on at least one second semi-conductor material different from the first semi-conductor material, b) making amorphous, using one or more implantations, at least one zone (Z1, Z2, R, R') of the structure, the zone made amorphous comprising one or more portions (16 1, 16' 1, 16 2, 16' 2, 16 3, 16' 3) of one or more layers based on the second semi-conductor material, c) removing the portions (16 1, 16' 1, 16 2, 16' 2, 16 3, 16' 3) by selectively etching the second semi-conductor material made amorphous towards the first semi-conductor material. a) providing on a substrate, at least one semi-conductor structure formed by a stack comprising alternating layer(s) (12, 12', 12") based on at least one first semi-conductor material and layer(s) (16, 16') based on at least one second semi-conductor material different from the first semi-conductor material, b) making amorphous, using one or more implantations, at least one zone (Z1, Z2, R, R') of the structure, the zone made amorphous comprising one or more portions (16 1, 16' 1, 16 2, 16' 2, 16 3, 16' 3) of one or more layers based on the second semi-conductor material, c) removing the portions (16 1, 16' 1, 16 2, 16' 2, 16 3, 16' 3) by selectively etching the second semi-conductor material made amorphous towards the first semi-conductor material.
A share generating device (11, 21), wherein N is an integer greater than or equal to 2, m is an integer greater than or equal to 1, m(i) is an integer greater than or equal to 0, i = 0,..., N-1 holds, P is a function, and a range of the function P belongs to a set F m whose members are sequences of m elements of field, and the share generating device includes a seed generation unit that obtains N seeds s 0,..., s N-1, and an arithmetic unit that obtains a function value y = g(x, e) ∈ F m of plaintext x ∈ F m and a function value e, where P(s 0),..., P(s N-1) ∈ F m are function values of the seeds s 0,..., s N-1 and e = f(P(s 0),..., P(s N-1)) ∈ F m is a function value of the function values P(s 0),..., P(s N-1) ∈ F m, characterized in that: w is an integer which satisfies 1 ≤ w < m/N, and the share generating device (11, 21) further includes a share generation unit (116, 216) that obtains information containing a member y i ∈ F m(i) and N-1 seeds s d ∈ F w, where d ∈ {O,..., N-1} and d ≠ i, as a share SS i of the plaintext x in secret sharing and outputs the share SS i, where the function value y is expressed by members y 0 ∈ F m,..., y N-1 ∈ F m(N-1) which satisfy m = m +...+m(N-1). N is an integer greater than or equal to 2, m is an integer greater than or equal to 1, m(i) is an integer greater than or equal to 0, i = 0,..., N-1 holds, P is a function, and a range of the function P belongs to a set F m whose members are sequences of m elements of field, and the share generating device includes a seed generation unit that obtains N seeds s 0,..., s N-1, and an arithmetic unit that obtains a function value y = g(x, e) ∈ F m of plaintext x ∈ F m and a function value e, where P(s 0),..., P(s N-1) ∈ F m are function values of the seeds s 0,..., s N-1 and e = f(P(s 0),..., P(s N-1)) ∈ F m is a function value of the function values P(s 0),..., P(s N-1) ∈ F m, a seed generation unit that obtains N seeds s 0,..., s N-1, and an arithmetic unit that obtains a function value y = g(x, e) ∈ F m of plaintext x ∈ F m and a function value e, where P(s 0),..., P(s N-1) ∈ F m are function values of the seeds s 0,..., s N-1 and e = f(P(s 0),..., P(s N-1)) ∈ F m is a function value of the function values P(s 0),..., P(s N-1) ∈ F m, characterized in that: w is an integer which satisfies 1 ≤ w < m/N, and the share generating device (11, 21) further includes a share generation unit (116, 216) that obtains information containing a member y i ∈ F m(i) and N-1 seeds s d ∈ F w, where d ∈ {O,..., N-1} and d ≠ i, as a share SS i of the plaintext x in secret sharing and outputs the share SS i, where the function value y is expressed by members y 0 ∈ F m,..., y N-1 ∈ F m(N-1) which satisfy m = m +...+m(N-1). w is an integer which satisfies 1 ≤ w < m/N, and the share generating device (11, 21) further includes a share generation unit (116, 216) that obtains information containing a member y i ∈ F m(i) and N-1 seeds s d ∈ F w, where d ∈ {O,..., N-1} and d ≠ i, as a share SS i of the plaintext x in secret sharing and outputs the share SS i, where the function value y is expressed by members y 0 ∈ F m,..., y N-1 ∈ F m(N-1) which satisfy m = m +...+m(N-1).
A method of transmitting an uplink signal, by a user equipment, UE, in a wireless communication system, the method comprising: reporting, to a base station, BS, capability information, wherein the capability information comprises information related to the simultaneous transmission capability for the uplink signal of different transmission time interval, TTI, lengths; receiving a downlink data channel in at least one serving cell based on the capability information; and transmitting a first uplink control channel for the downlink data channel, characterized in that the cell to carry the first uplink control channel is a primary cell of an uplink control channel group to which the at least one serving cell belongs, and the primary cell to carry the first uplink control channel is configured to support a short TTI, sTTI,-based operation based on the sTTI-based operation configured to the at least one serving cell. reporting, to a base station, BS, capability information, wherein the capability information comprises information related to the simultaneous transmission capability for the uplink signal of different transmission time interval, TTI, lengths; receiving a downlink data channel in at least one serving cell based on the capability information; and transmitting a first uplink control channel for the downlink data channel, characterized in that the cell to carry the first uplink control channel is a primary cell of an uplink control channel group to which the at least one serving cell belongs, and the primary cell to carry the first uplink control channel is configured to support a short TTI, sTTI,-based operation based on the sTTI-based operation configured to the at least one serving cell.
A light emitting device comprising: a light emitting element (204A, 304A) having a semiconductor layer (204b, 304b), a transparent substrate (204a, 304a) and two electrodes (204c, 304c) disposed on and connected to the semiconductor layer (204b, 304b); two electrically conductive members respectively directly or through a die-bonding member connected to the corresponding electrodes (204c, 304c) a reflective member applied so as to expose at least a portion of a side surface and a top surface of the transparent substrate (204a, 304a), and so as to cover the side surfaces of the electrodes (204c, 304c), a side surface of the semiconductor layer (204b, 304b) and the side surfaces of the electrically conductive members; and a light transmissive member covering the top surface and the side surface of the transparent substrate (204a, 304a) and an upper surface and the side surfaces of the light emitting element, wherein said upper surface is opposite to the surface where the electrodes are disposed, wherein the lower surface of the electrically conductive members are exposed to the outside of the light emitting device and constitute a portion of the outer surface to the light emitting device, and wherein the reflective member is extendendly disposed on the lower portion of the light emitting device so as to be exposed at the side surfaces of the light emitting device. a light emitting element (204A, 304A) having a semiconductor layer (204b, 304b), a transparent substrate (204a, 304a) and two electrodes (204c, 304c) disposed on and connected to the semiconductor layer (204b, 304b); two electrically conductive members respectively directly or through a die-bonding member connected to the corresponding electrodes (204c, 304c) a reflective member applied so as to expose at least a portion of a side surface and a top surface of the transparent substrate (204a, 304a), and so as to cover the side surfaces of the electrodes (204c, 304c), a side surface of the semiconductor layer (204b, 304b) and the side surfaces of the electrically conductive members; and a light transmissive member covering the top surface and the side surface of the transparent substrate (204a, 304a) and an upper surface and the side surfaces of the light emitting element, wherein said upper surface is opposite to the surface where the electrodes are disposed, wherein the lower surface of the electrically conductive members are exposed to the outside of the light emitting device and constitute a portion of the outer surface to the light emitting device, and wherein the reflective member is extendendly disposed on the lower portion of the light emitting device so as to be exposed at the side surfaces of the light emitting device.