mhurhangee/patent-ind-claim-en huggingface dataset:
A pressure generating device having a piston and cylinder unit (DE) including a piston acting on both sides, which separates two working spaces within the cylinder from one another in a sealing manner, wherein the piston has two, in particular differently dimensioned effective areas (A1, A2), and each effective area (A1, A2) of the piston respectively delimits one working space , wherein each working space is in communication with a hydraulic circuit (K1, K2) via a hydraulic line (H3, H4), wherein at least one hydraulic chamber of a load (V1, V1K1, V1K2, V2K, V3K, V4K) is connected to each hydraulic circuit (K1, K2), wherein a drive (M) drives the piston of the piston and cylinder unit (DE), characterized in that either - each working space is in communication with a reservoir for a hydraulic medium by means of a hydraulic line (H1, H2), wherein at least one switching valve (PD1, PD2) is arranged in each hydraulic line (H1, H2) for optionally blocking or opening the hydraulic line (H1, H2), wherein the pressure from a hydraulic circuit (K1, K2) is released into the reservoir via the respective working space and the respective hydraulic line (H3, H4), when the switching valve (PD1, PD2) is open; or - one or both working space/s is or are in communication with a reservoir for a hydraulic medium by means of a hydraulic line (H1, H2), wherein in one or in both hydraulic line(s) (H1, H2), a switching valve (PD1, PD2) is arranged for optionally blocking or opening the hydraulic line (H1, H2), and wherein the pressure from a hydraulic circuit (K1, K2) is released into the reservoir via the respective working space and the respective hydraulic line (H3, H4), when the switching valve (PD1, PD2) is open; and/or one or more hydraulic chamber(s) of the loads each has or have an outlet valve (AVi) assigned for directly releasing pressure from the respective chamber into the reservoir , and that the pressure spaces and/or the hydraulic lines (H3, H4) are in communication with one another via a connecting line (H5), wherein a switching valve (ShV) for optionally opening or blocking the connecting line (H5) is arranged within the connecting line (H5). - each working space is in communication with a reservoir for a hydraulic medium by means of a hydraulic line (H1, H2), wherein at least one switching valve (PD1, PD2) is arranged in each hydraulic line (H1, H2) for optionally blocking or opening the hydraulic line (H1, H2), wherein the pressure from a hydraulic circuit (K1, K2) is released into the reservoir via the respective working space and the respective hydraulic line (H3, H4), when the switching valve (PD1, PD2) is open; or - one or both working space/s is or are in communication with a reservoir for a hydraulic medium by means of a hydraulic line (H1, H2), wherein in one or in both hydraulic line(s) (H1, H2), a switching valve (PD1, PD2) is arranged for optionally blocking or opening the hydraulic line (H1, H2), and wherein the pressure from a hydraulic circuit (K1, K2) is released into the reservoir via the respective working space and the respective hydraulic line (H3, H4), when the switching valve (PD1, PD2) is open;
A wireless transmit/receive unit, WTRU, comprising: a receiver configured to receive, from a network node, one or more configuration parameters associated with sidelink communication, wherein the one or more configuration parameters comprise a logical channel configuration; wherein the receiver is further configured to receive a sidelink resource grant; one or more processors configured to: select, based on the received logical channel configuration, one or more sidelink logical channels of a plurality of the sidelink logical channels of the apparatus to be served by the sidelink resource grant, and generate a medium access control, MAC, protocol data unit, PDU, comprising data associated with the selected one or more sidelink logical channels; and a transmitter configured to transmit the generated MAC PDU using the received sidelink resource grant. a receiver configured to receive, from a network node, one or more configuration parameters associated with sidelink communication, wherein the one or more configuration parameters comprise a logical channel configuration; wherein the receiver is further configured to receive a sidelink resource grant; one or more processors configured to: select, based on the received logical channel configuration, one or more sidelink logical channels of a plurality of the sidelink logical channels of the apparatus to be served by the sidelink resource grant, and generate a medium access control, MAC, protocol data unit, PDU, comprising data associated with the selected one or more sidelink logical channels; and select, based on the received logical channel configuration, one or more sidelink logical channels of a plurality of the sidelink logical channels of the apparatus to be served by the sidelink resource grant, and generate a medium access control, MAC, protocol data unit, PDU, comprising data associated with the selected one or more sidelink logical channels; and a transmitter configured to transmit the generated MAC PDU using the received sidelink resource grant.
A network interface comprising: a filter configured to assign a packet from a flow for allocation using a non-heavy flow allocation or a heavy flow allocation based at least, in part, on a receive rate of packets in the flow, wherein the filter is configured to apply a rule to allocate the packet from the flow, wherein the rule is to indicate whether the flow is assigned to a non-heavy flow or a heavy flow; a non-heavy flow allocator configured to assign the packet; a heavy flow allocator configured to assign the packet; and a direct memory access, DMA, engine configured to transfer the packet to an assigned queue associated with packet processing hardware based on the non-heavy flow allocation or the heavy flow allocation; characterized in that the network interface further comprises an application acceleration logic configured to allocate an application thread that is to access data from the flow for execution on a same core that is to process the flow. a filter configured to assign a packet from a flow for allocation using a non-heavy flow allocation or a heavy flow allocation based at least, in part, on a receive rate of packets in the flow, wherein the filter is configured to apply a rule to allocate the packet from the flow, wherein the rule is to indicate whether the flow is assigned to a non-heavy flow or a heavy flow; a non-heavy flow allocator configured to assign the packet; a heavy flow allocator configured to assign the packet; and a direct memory access, DMA, engine configured to transfer the packet to an assigned queue associated with packet processing hardware based on the non-heavy flow allocation or the heavy flow allocation; characterized in that the network interface further comprises an application acceleration logic configured to allocate an application thread that is to access data from the flow for execution on a same core that is to process the flow.
A method performed by a base station for transmitting a demodulation reference signal, DMRS, of a base station in a communication system, the method comprising: transmitting, to a terminal , DMRS configuration information via radio resource control, RRC signaling, the DMRS configuration information including information indicating a DMRS pattern and information associated with an extended DMRS; transmitting, to the terminal, downlink control information, DCI, for downlink data; and transmitting, to the terminal, the downlink data and the DMRS according to the DMRS configuration information, wherein a number of DMRS subcarriers in an orthogonal frequency division multiplexing, OFDM, symbol is determined according to the indicated DMRS pattern, and wherein the information indicating the DMRS pattern indicates whether a first DMRS pattern for supporting up to 8 DMRS antenna ports or a second DMRS pattern for supporting up to 12 DMRS antenna ports is used. transmitting, to a terminal , DMRS configuration information via radio resource control, RRC signaling, the DMRS configuration information including information indicating a DMRS pattern and information associated with an extended DMRS; transmitting, to the terminal, downlink control information, DCI, for downlink data; and transmitting, to the terminal, the downlink data and the DMRS according to the DMRS configuration information, wherein a number of DMRS subcarriers in an orthogonal frequency division multiplexing, OFDM, symbol is determined according to the indicated DMRS pattern, and wherein the information indicating the DMRS pattern indicates whether a first DMRS pattern for supporting up to 8 DMRS antenna ports or a second DMRS pattern for supporting up to 12 DMRS antenna ports is used.
A method of coating a glass container, which includes the steps of: (a) depositing a inorganic oxide on an exterior surface of a glass container substrate , (b) following said step (a), applying an organofunctional silane to the glass container over the inorganic oxide, and then (c) applying an organic coating to the glass container over the organofunctional silane, wherein said inorganic oxide is a silicon-based inorganic oxide. (a) depositing a inorganic oxide on an exterior surface of a glass container substrate , (b) following said step (a), applying an organofunctional silane to the glass container over the inorganic oxide, and then (c) applying an organic coating to the glass container over the organofunctional silane,
A method of recovering a registry, wherein the registry receives a Domain, Name Server, DNS, query and returns the IP address of a nameserver in response, the method comprising: accessing a plurality of registry zone files for the registry , wherein each of the registry zone files comprises at least domain names, nameserver server names, IP addresses, registrar IDs, and status information represented in a first format; archiving , on a first periodic basis, the plurality of registry zone files ; accessing bulk WHOIS data for the registry, wherein the bulk WHOIS data comprises at least domain names, nameserver server names, IP addresses, and status information represented in a second format; archiving , on a second periodic basis, the bulk WHOIS data ; validating , at a recovery registry , one of the plurality of archived registry zone files based on a comparison between the plurality of registry zone files including a most recently archived registry zone file, and the bulk WHOIS data ; publishing the validated registry zone file to the recovery registry's nameservers ; initiating a root zone change request, wherein the root zone change causes the recovery registry to operate in place of the registry ; and updating authoritative nameservers of the recovery registry , wherein the DNS query is directed to the recovery registry's nameserver as the authoritative nameserver. accessing a plurality of registry zone files for the registry , wherein each of the registry zone files comprises at least domain names, nameserver server names, IP addresses, registrar IDs, and status information represented in a first format; archiving , on a first periodic basis, the plurality of registry zone files ; accessing bulk WHOIS data for the registry, wherein the bulk WHOIS data comprises at least domain names, nameserver server names, IP addresses, and status information represented in a second format; archiving , on a second periodic basis, the bulk WHOIS data ; validating , at a recovery registry , one of the plurality of archived registry zone files based on a comparison between the plurality of registry zone files including a most recently archived registry zone file, and the bulk WHOIS data ; publishing the validated registry zone file to the recovery registry's nameservers ; initiating a root zone change request, wherein the root zone change causes the recovery registry to operate in place of the registry ; and updating authoritative nameservers of the recovery registry , wherein the DNS query is directed to the recovery registry's nameserver as the authoritative nameserver.
A method for operating a remote control device that controls an image display device and external devices , the method comprising: searching at least one of the image display device and external devices; acquiring device information on at least one of the searched image display device and external devices; receiving an input of fingerprint for a user preference setting operation; acquiring user preference setting information including a setting value of the user preference setting operation corresponding to the acquired device information and a fingerprint image corresponding to the input of the fingerprint; and storing the acquired user preference setting information in association with the fingerprint image, characterized in that the storing of the acquired user preference setting information comprises storing different user preference setting information in association with each of fingerprints of a plurality of fingers. searching at least one of the image display device and external devices; acquiring device information on at least one of the searched image display device and external devices; receiving an input of fingerprint for a user preference setting operation; acquiring user preference setting information including a setting value of the user preference setting operation corresponding to the acquired device information and a fingerprint image corresponding to the input of the fingerprint; and storing the acquired user preference setting information in association with the fingerprint image, characterized in that the storing of the acquired user preference setting information comprises storing different user preference setting information in association with each of fingerprints of a plurality of fingers.
An electrode structure of a flow battery, comprising an electrode fiber, characterized in that , the electrode fibers are composed of layer structures, wherein each layer structure is composed of parallel tows woven with at least two directions and the connection between the layered structures is made up of a vertical tow, which is perpendicular to the electrode surface, and wherein a density of vertical tows in the electrode fiber is larger than a density of parallel tows, and wherein the porosity of the electrode fiber of the center layer is 90-93%; and the porosity of the electrode fiber of the other layers is 93-96%, wherein the porosity measured is a volume porosity, and wherein a ratio of a throughhole volume to an electrode material volume is measured.
A method for assembling a printable semiconductor element on a receiving surface of a substrate, said method comprising the steps of: providing said printable semiconductor element comprising a unitary inorganic semiconductor structure; contacting said printable semiconductor element with a conformable transfer device comprising an elastomeric PDMS stamp having a three dimensional relief pattern on its external surface having recessed regions and relief features having a contact surface provided by the relief pattern, wherein contact between said contact surface and said printable semiconductor element binds said printable semiconductor element to said contact surface, thereby forming said contact surface having said printable semiconductor element disposed thereon; contacting said printable semiconductor element disposed on said contact surface with said receiving surface of said substrate; and separating said contact surface of said conformable transfer device comprising the elastomeric PDMS stamp and said printable semiconductor element, wherein said printable semiconductor element is transferred onto said receiving surface, thereby assembling said printable semiconductor element on said receiving surface of said substrate. providing said printable semiconductor element comprising a unitary inorganic semiconductor structure; contacting said printable semiconductor element with a conformable transfer device comprising an elastomeric PDMS stamp having a three dimensional relief pattern on its external surface having recessed regions and relief features having a contact surface provided by the relief pattern, wherein contact between said contact surface and said printable semiconductor element binds said printable semiconductor element to said contact surface, thereby forming said contact surface having said printable semiconductor element disposed thereon; contacting said printable semiconductor element disposed on said contact surface with said receiving surface of said substrate; and separating said contact surface of said conformable transfer device comprising the elastomeric PDMS stamp and said printable semiconductor element, wherein said printable semiconductor element is transferred onto said receiving surface, thereby assembling said printable semiconductor element on said receiving surface of said substrate.
An apparatus for managing fluid at a tissue site, comprising: a first layer comprising an outer surface , an inner surface , and a first plurality of supports extending from the inner surface , wherein the first layer is formed of foam; a second layer in stacked relationship with the first layer and oriented to be adjacent to the first plurality of supports ; a barrier between the inner surface of the first layer and the second layer , wherein the barrier , the first layer and the second layer define a first fluid pathway and a second fluid pathway therebetween; an aperture configured to provide fluid communication between the first fluid pathway , the second fluid pathway and the tissue site; and a port comprising: a first port opening configured to provide fluid communication between the first fluid pathway and a negative-pressure source; and a second port opening configured to provide fluid communication between the second fluid pathway and an instillation source. a first layer comprising an outer surface , an inner surface , and a first plurality of supports extending from the inner surface , wherein the first layer is formed of foam; a second layer in stacked relationship with the first layer and oriented to be adjacent to the first plurality of supports ; a barrier between the inner surface of the first layer and the second layer , wherein the barrier , the first layer and the second layer define a first fluid pathway and a second fluid pathway therebetween; an aperture configured to provide fluid communication between the first fluid pathway , the second fluid pathway and the tissue site; and a port comprising: a first port opening configured to provide fluid communication between the first fluid pathway and a negative-pressure source; and a second port opening configured to provide fluid communication between the second fluid pathway and an instillation source. a first port opening configured to provide fluid communication between the first fluid pathway and a negative-pressure source; and a second port opening configured to provide fluid communication between the second fluid pathway and an instillation source.
A kit of parts including a sensor unit assembly, comprising a sensor unit comprising a security monitoring unit with image capture means configured to capture an image and/or a video of a monitored area and a motion detector , configured to detect motion in a detection area and to provide dependent on the detection a signal to activate the image capture means ; and a plurality of interchangeable covers , each configured to be connected to the sensor unit , wherein different interchangeable covers are configured to restrict differently the field of view of the motion detector when connected to the sensor unit . a sensor unit comprising a security monitoring unit with image capture means configured to capture an image and/or a video of a monitored area and a motion detector , configured to detect motion in a detection area and to provide dependent on the detection a signal to activate the image capture means ; and a plurality of interchangeable covers , each configured to be connected to the sensor unit , wherein different interchangeable covers are configured to restrict differently the field of view of the motion detector when connected to the sensor unit .
A sensor assembly for monitoring a heater system for an aircraft probe sensor , the sensor assembly comprising; a current sensor module comprising: a current sensor core ; and an enclosure , formed from a high electromagnetically permeable material, around the current sensor core; an input wire pathway extending through the current sensor core and configured to receive a heater input wire ; a return wire pathway extending through the current sensor core and configured to receive a heater return wire ; and a tube , formed from a high electromagnetically permeable material, extending through the current sensor core and configured to extend around one of the input wire and the heater return wire. a current sensor module comprising: a current sensor core ; and an enclosure , formed from a high electromagnetically permeable material, around the current sensor core; an input wire pathway extending through the current sensor core and configured to receive a heater input wire ; a return wire pathway extending through the current sensor core and configured to receive a heater return wire ; and a tube , formed from a high electromagnetically permeable material, extending through the current sensor core and configured to extend around one of the input wire and the heater return wire.