mhurhangee/ep-ind-claims huggingface dataset:
Plastic modifier comprising natural rubber characterized by the fact that it is formed from a polymer composition comprising: between 10% and 35%, in weight, of a non-vulcanized natural rubber; between 5% and 25%, in weight, of an alpha-olefin ethylene copolymer between 10% and 70%, in weight, of ethylene vinyl acetate copolymer with VA content of 19%; between 10% and 70%, in weight, of ethylene vinyl acetate copolymer with VA content of 28%; where the referred plastic modifier is added to a plastic in ratios between 3% and 50%, in volume, of the final plastic composition comprising the modifier. between 10% and 35%, in weight, of a non-vulcanized natural rubber; between 5% and 25%, in weight, of an alpha-olefin ethylene copolymer between 10% and 70%, in weight, of ethylene vinyl acetate copolymer with VA content of 19%; between 10% and 70%, in weight, of ethylene vinyl acetate copolymer with VA content of 28%; where the referred plastic modifier is added to a plastic in ratios between 3% and 50%, in volume, of the final plastic composition comprising the modifier.
A fluid valve comprising: a first input port (222, 322, 1522, 2822); a second input port (220, 320, 420, 1520, 2820); an output port (221, 321, 421, 1521, 2821); and an elastomeric portion (102, 202, 302, 1502, 1902, 2802) that allows a fluid path from the second input port to the output port to be open when there is no fluid flow of a high-pressure liquid of a pressure higher than a certain pressure from the first input port to the output port, wherein the fluid valve is configured such that the fluid path from the second input port to the output port is passively closed by a change of shape of the elastomeric portion when the high-pressure liquid flows through the first input port to the output port, characterized in that the first input port and the output port are aligned with respect to a direction of fluid flow from the first input port to the output port along a straight line. a first input port (222, 322, 1522, 2822); a second input port (220, 320, 420, 1520, 2820); an output port (221, 321, 421, 1521, 2821); and an elastomeric portion (102, 202, 302, 1502, 1902, 2802) that allows a fluid path from the second input port to the output port to be open when there is no fluid flow of a high-pressure liquid of a pressure higher than a certain pressure from the first input port to the output port, wherein the fluid valve is configured such that the fluid path from the second input port to the output port is passively closed by a change of shape of the elastomeric portion when the high-pressure liquid flows through the first input port to the output port, characterized in that the first input port and the output port are aligned with respect to a direction of fluid flow from the first input port to the output port along a straight line.
A heterogeneous three-dimensional circuit stack comprising: a first processor; a second processor communicatively coupled with the first processor through one or more through silicon vias, wherein the first processor and the second processor are graphics processors; and interconnect logic to communicatively couple the first processor and the second processor to a shared resource, the interconnect logic to couple with the first processor and the second processor via corresponding on-chip interconnects; wherein the interconnect logic includes bandwidth sharing logic to adjust bandwidth to the shared resource; and wherein the shared resource includes shared memory to cache data to be received via the interconnect logic; characterised in that the interconnect logic is to operate at a higher frequency than one of the first processor or the second processor, and in that the interconnect logic is to divide a message transmitted from the first or the second processor to another processor into a number of separate messages based on the frequency ratio of the interconnect logic and the processors. a first processor; a second processor communicatively coupled with the first processor through one or more through silicon vias, wherein the first processor and the second processor are graphics processors; and interconnect logic to communicatively couple the first processor and the second processor to a shared resource, the interconnect logic to couple with the first processor and the second processor via corresponding on-chip interconnects; wherein the interconnect logic includes bandwidth sharing logic to adjust bandwidth to the shared resource; and wherein the shared resource includes shared memory to cache data to be received via the interconnect logic; characterised in that the interconnect logic is to operate at a higher frequency than one of the first processor or the second processor, and in that the interconnect logic is to divide a message transmitted from the first or the second processor to another processor into a number of separate messages based on the frequency ratio of the interconnect logic and the processors.
Method for regulating a compressor of a pressurized air supply system of a vehicle, wherein the compressor is switched on and off in dependence on a limit temperature of one or more components of the pressurized air supply system ascertained with the aid of a temperature calculation method, wherein the respective limit temperature for switching the compressor on or off is ascertained using the temperature calculation method in dependence on one or more of the parameters: system pressure, ambient temperature, and running time of the compressor, characterized in that the temperature of the component is ascertained by correlating the reciprocal temperature dependence existing as a result of heat transfer between adjacent components.
A dynamic random access memory, DRAM, device, comprising: a set of DRAM cells; a set of replacement DRAM cells including: cells to store replacement data bits for predetermined faulty cells in the set of DRAM cells; and associated with the cells to store replacement data bits, address cells to store address bits that identify the predetermined faulty cells; and a remapping circuit configured to remap an access to a cell in the set of DRAM cells with an associated replacement cell in the set of replacement DRAM cells based on the address bits stored in the set of replacement DRAM cells, wherein the DRAM device is further adapted to group several columns for column-decoding of the DRAM replacement cells with respect to column-decoding of the DRAM cells. a set of DRAM cells; a set of replacement DRAM cells including: cells to store replacement data bits for predetermined faulty cells in the set of DRAM cells; and associated with the cells to store replacement data bits, address cells to store address bits that identify the predetermined faulty cells; and cells to store replacement data bits for predetermined faulty cells in the set of DRAM cells; and associated with the cells to store replacement data bits, address cells to store address bits that identify the predetermined faulty cells; and a remapping circuit configured to remap an access to a cell in the set of DRAM cells with an associated replacement cell in the set of replacement DRAM cells based on the address bits stored in the set of replacement DRAM cells, wherein the DRAM device is further adapted to group several columns for column-decoding of the DRAM replacement cells with respect to column-decoding of the DRAM cells.
A method for distributed processing, the method comprising: receiving a processing request at an orchestrator, the orchestrator comprising a processor, a network interface, and a memory, the orchestrator connected via the networking interface to a network of processing nodes (120a-c, 125a-b), the network of processing nodes comprising a token network, wherein the processing nodes (120a-c) that are members of the token network are capable of securely receiving processing tasks apportioned by the orchestrator and are associated with tokens (130a-130c); identifying one or more tasks within the processing request; apportioning, via the network interface, the one or more tasks of the processing request to a set of nodes of the network for processing, the apportioning based on a scorecard for each node of the set of nodes; receiving, via the network interface, a completed task from a node of the set of nodes; performing a determination whether the completed task was processed by a node in the token network; in response to a determination that the completed task was processed by a node not in the token network, updating a value of a progress metric for the node not in the token network; performing a determination whether the value of the progress metric exceeds a predetermined value; and in response to a determination that the value of the progress metric exceeds a predetermined value, adding the node to the token network. receiving a processing request at an orchestrator, the orchestrator comprising a processor, a network interface, and a memory, the orchestrator connected via the networking interface to a network of processing nodes (120a-c, 125a-b), the network of processing nodes comprising a token network, wherein the processing nodes (120a-c) that are members of the token network are capable of securely receiving processing tasks apportioned by the orchestrator and are associated with tokens (130a-130c); identifying one or more tasks within the processing request; apportioning, via the network interface, the one or more tasks of the processing request to a set of nodes of the network for processing, the apportioning based on a scorecard for each node of the set of nodes; receiving, via the network interface, a completed task from a node of the set of nodes; performing a determination whether the completed task was processed by a node in the token network; in response to a determination that the completed task was processed by a node not in the token network, updating a value of a progress metric for the node not in the token network; performing a determination whether the value of the progress metric exceeds a predetermined value; and in response to a determination that the value of the progress metric exceeds a predetermined value, adding the node to the token network.
A dynamic beamforming method applicable to a base station, the method comprising: transmitting a first reference signal; transmitting a first configuration message comprising a first oversampling rate of a first dimension associated with a two dimensional codebook and a first oversampling rate of a second dimension associated with the two dimensional codebook; receiving a first information feedback of the first reference signal based on the first oversampling rate of the first dimension associated with the two dimensional codebook and the first oversampling rate of the second dimension associated with the two dimensional codebook in response to transmitting the first configuration message; and transmitting a second configuration message comprising a second oversampling rate of the first dimension associated with the two dimensional codebook and a second oversampling rate of the second dimension associated with the two dimensional codebook after receiving the first information feedback of the first reference signal, wherein the second oversampling rate of the first dimension is greater or less than the first oversampling rate of the first dimension. transmitting a first reference signal; transmitting a first configuration message comprising a first oversampling rate of a first dimension associated with a two dimensional codebook and a first oversampling rate of a second dimension associated with the two dimensional codebook; receiving a first information feedback of the first reference signal based on the first oversampling rate of the first dimension associated with the two dimensional codebook and the first oversampling rate of the second dimension associated with the two dimensional codebook in response to transmitting the first configuration message; and transmitting a second configuration message comprising a second oversampling rate of the first dimension associated with the two dimensional codebook and a second oversampling rate of the second dimension associated with the two dimensional codebook after receiving the first information feedback of the first reference signal, wherein the second oversampling rate of the first dimension is greater or less than the first oversampling rate of the first dimension.
Evaporator for a thermal control device controlling thermal loads in a spacecraft by an evaporation-condensation cycle of a working fluid which is kept inside the mentioned thermal control device, the evaporator being adapted to effect evaporation of the working fluid in the evaporation-condensation cycle, the evaporator comprising vapor grooves within its internal structure, characterised in that the evaporator comprises a heater comprising at least one thermally conductive cartridge as a first thermally conductive envelope, in the inside of which a heating element for effecting start-up of the evaporator is kept, the at least one conductive cartridge being directly inserted into at least one of the vapor grooves of the evaporator for providing a direct thermal interface between the working fluid and the heating element, wherein the conductive cartridge is made of a metallic material, and wherein the cartridge is welded at joint points in the vapor grooves of the body of the evaporator, providing a leak proof joint.
A Sidelink, SL, feedback information processing method, comprising: acquiring, by a terminal device, a time interval set, an element in the time interval set being used to determine a time interval between an SL feedback channel and an Uplink, UL, transmission channel, and the UL transmission channel being used to carry SL feedback information reported by the terminal device to a network device; and determining, by the terminal device according to a slot for the UL transmission channel and the time interval set, the SL feedback information carried by the UL transmission channel, characterized in that, the method further comprises: determining, by the terminal device according to a number of elements in the time interval set, a total number of Hybrid Automatic Repeat reQuest, HARQ, information fields of the SL feedback information carried by the UL transmission channel; or determining, by the terminal device according to a period of the SL feedback channel and a number of elements in the time interval set, a total number of HARQ information fields of the SL feedback information carried by the UL transmission channel. acquiring, by a terminal device, a time interval set, an element in the time interval set being used to determine a time interval between an SL feedback channel and an Uplink, UL, transmission channel, and the UL transmission channel being used to carry SL feedback information reported by the terminal device to a network device; and determining, by the terminal device according to a slot for the UL transmission channel and the time interval set, the SL feedback information carried by the UL transmission channel, characterized in that, the method further comprises: determining, by the terminal device according to a number of elements in the time interval set, a total number of Hybrid Automatic Repeat reQuest, HARQ, information fields of the SL feedback information carried by the UL transmission channel; or determining, by the terminal device according to a period of the SL feedback channel and a number of elements in the time interval set, a total number of HARQ information fields of the SL feedback information carried by the UL transmission channel. determining, by the terminal device according to a number of elements in the time interval set, a total number of Hybrid Automatic Repeat reQuest, HARQ, information fields of the SL feedback information carried by the UL transmission channel; or determining, by the terminal device according to a period of the SL feedback channel and a number of elements in the time interval set, a total number of HARQ information fields of the SL feedback information carried by the UL transmission channel.
A hub for a motor vehicle wheel, the hub providing: a cylindrical portion which extends in an axial direction, and a flange extending in a radially outer direction from an axially outer end of the cylindrical portion, wherein the hub comprises a core of metallic material which extends into the cylindrical portion and in the flange of the hub, and a covering body of plastic material applied over the core; wherein the core forms, as a single piece, a cylindrical core portion which extends in the axial direction and a core flange which extends in a radially outer direction from an axially outer end of the cylindrical core portion, the cylindrical core portion and the core flange defining the cylindrical portion and the flange of the hub, respectively; wherein the covering body embeds the core flange; and wherein mounting holes are formed through the core flange; characterized in that the core flange is star shaped and is formed by a plurality of spokes which are uniformly arranged around a central rotation axis (x) of the hub and extend radially outwardly from the axially outer end of the cylindrical core portion, wherein each spoke has a root connected directly to the axially outer end and a free end portion connected to the corresponding root, each root and each free end portion being axially inwardly delimited by respective inner surfaces (51a, 52a) transverse to the central rotation axis (x), wherein the inner surface of the root is axially recessed with respect to the inner surface of the free end portion, wherein each free end portion is axially outwardly delimited by a respective outer surface transverse to the central rotation axis (x) and parallel to the corresponding inner surface, and wherein each hole is formed through the inner and outer surfaces (52a, 52b) of the corresponding free end portion, which surfaces are coplanar and exposed with respect to a axially inner radial face and an axially outer radial face of the covering body. a cylindrical portion which extends in an axial direction, and a flange extending in a radially outer direction from an axially outer end of the cylindrical portion,
An injectable ocular composition comprising: i) 99 to 60 % (w/w) of a photopolymerizable composition selected from the group consisting of polyalkylene glycol diacrylate and polyalkylene glycol dimethacrylate, wherein the photopolymerizable composition has a molecular weight in the range of 200 to 20,000 Dalton; ii) a biodegradable polymer selected from the group consisting of lactide/glycolide copolymer (PLGA), polylactic acid, polyglycolic acid, polycaprolactone, lactide/caprolactone copolymer, poly (L-lactide) (PLLA) and mixtures, copolymers, and block copolymers thereof; iii) a photoinitiator; and iv) a therapeutic agent. i) 99 to 60 % (w/w) of a photopolymerizable composition selected from the group consisting of polyalkylene glycol diacrylate and polyalkylene glycol dimethacrylate, wherein the photopolymerizable composition has a molecular weight in the range of 200 to 20,000 Dalton; ii) a biodegradable polymer selected from the group consisting of lactide/glycolide copolymer (PLGA), polylactic acid, polyglycolic acid, polycaprolactone, lactide/caprolactone copolymer, poly (L-lactide) (PLLA) and mixtures, copolymers, and block copolymers thereof; iii) a photoinitiator; and iv) a therapeutic agent.
A skin care formulation which lightens skin tone upon topical application to skin and which comprises: A) 0.5 to 10 % by weight of an emulsion polymer film former, wherein the emulsion polymer film former is prepared by emulsion polymerisation and has a glass transition temperature, Tg, from -1 to 120 °C; B) 0.05 to 1 % by weight of a poly(ethylene oxide) resin having the general formula [-CH 2 CH 2 O-] n, wherein n = 1,000-200,000; C) 2 to 70 %, by weight, of one or more moisturizing agents; and D) 0.1 to 15 %, by weight, of one or more stabilizers. A) 0.5 to 10 % by weight of an emulsion polymer film former, wherein the emulsion polymer film former is prepared by emulsion polymerisation and has a glass transition temperature, Tg, from -1 to 120 °C; B) 0.05 to 1 % by weight of a poly(ethylene oxide) resin having the general formula [-CH 2 CH 2 O-] n, wherein n = 1,000-200,000; C) 2 to 70 %, by weight, of one or more moisturizing agents; and D) 0.1 to 15 %, by weight, of one or more stabilizers.
A method for a first playback device the method comprising: receiving an input for playback in a first bonded zone, the first bonded zone comprising the first playback device; in response to receiving the input for playback, determining whether a second playback device that is sharable between the first bonded zone and a second bonded zone comprising a third playback device is currently active in the first bonded zone; if the second playback device is not currently active in the first bonded zone, determining whether the second playback device is available to join the first bonded zone; if the second playback device is available to join the first bonded zone, causing the second playback device to join the first bonded zone; and in response to the second playback device joining the first bonded zone, adjusting one or more audio parameters of the playback devices of the first bonded zone. receiving an input for playback in a first bonded zone, the first bonded zone comprising the first playback device; in response to receiving the input for playback, determining whether a second playback device that is sharable between the first bonded zone and a second bonded zone comprising a third playback device is currently active in the first bonded zone; if the second playback device is not currently active in the first bonded zone, determining whether the second playback device is available to join the first bonded zone; if the second playback device is available to join the first bonded zone, causing the second playback device to join the first bonded zone; and in response to the second playback device joining the first bonded zone, adjusting one or more audio parameters of the playback devices of the first bonded zone.
A shipping container comprising a liner having a plurality of panels (12, 18, 20, 24, 26, 28, 30) each of which panels is constituted by a plurality of inflatable tubes, there being a row of side wall panels (12, 24, 26, 28, 30) which, in use, stand vertically and protect the sides of the article being shipped, and an outer enclosure, comprising a base, side walling and a lid, into which said liner fits, said liner being between the article and the outer enclosure to provide thermal and mechanical protection, characterised by a base panel on one side of the row of panels (12, 24, 26, 28, 30) and on which said article being shipped stands, a top panel on the opposite side of the row of panels (12, 24, 26, 28, 30) to the base panel and which overlies the article being shipped, wherein said outer enclosure is in the form of a soft bag, there being a stiff sheet inserted into the lower part of the bag in contact with the base of the bag.