mhurhangee/patent-ind-claim-en huggingface dataset:
Method for supplying a consumer with a cryogen (H2) from a storage tank , comprising the following steps: a) introducing (S1) part of the cryogen (H2) from the storage tank into a volume that can be closed off from the consumer and from the storage tank , b) closing off (S2) the volume from the consumer and from the storage tank by first closing a supply valve (V1) arranged between the volume and the consumer , and then closing an inlet valve (V2) arranged between the storage tank and the volume , c) vaporizing (S3) the cryogen (H2) in the volume so as to subject the volume to a pressure (p14) which is higher than a pressure (p2) prevailing in the storage tank , characterized by d) discharging (S4) the vaporized cryogen (H2) from the volume to the consumer when the consumer has a load requirement (L) by opening the supply valve (V1), wherein, when the supply valve (V1) is open, the inlet valve (V2) is opened as soon as the pressure (p14) in the volume falls below the pressure (p2) prevailing in the storage tank . a) introducing (S1) part of the cryogen (H2) from the storage tank into a volume that can be closed off from the consumer and from the storage tank , b) closing off (S2) the volume from the consumer and from the storage tank by first closing a supply valve (V1) arranged between the volume and the consumer , and then closing an inlet valve (V2) arranged between the storage tank and the volume , c) vaporizing (S3) the cryogen (H2) in the volume so as to subject the volume to a pressure (p14) which is higher than a pressure (p2) prevailing in the storage tank , characterized by d) discharging (S4) the vaporized cryogen (H2) from the volume to the consumer when the consumer has a load requirement (L) by opening the supply valve (V1), wherein, when the supply valve (V1) is open, the inlet valve (V2) is opened as soon as the pressure (p14) in the volume falls below the pressure (p2) prevailing in the storage tank .
A method of wireless communications by a first transmission reception point, TRP (110; 208), comprising: obtaining information regarding a first configuration indicating resources available to at least a second TRP (110; 208) for transmitting demodulation reference signals, DMRS, for a physical downlink shared channel, PDSCH; receiving signaling indicating whether the first and second TRPs transmit DMRS or data on non-overlapping resources, potentially partially overlapping resources, or potentially fully overlapping resources; determining , based on the first configuration, that DMRS or data transmissions from the second TRP potentially overlap with DMRS or data transmissions from the first TRP; and performing rate matching around potential DMRS transmissions of the second TRP when transmitting a PDSCH to a user equipment, UE , based on the determination only if the signaling indicates the first and second TRPs transmit DMRS on potentially partially or fully overlapping resources. obtaining information regarding a first configuration indicating resources available to at least a second TRP (110; 208) for transmitting demodulation reference signals, DMRS, for a physical downlink shared channel, PDSCH; receiving signaling indicating whether the first and second TRPs transmit DMRS or data on non-overlapping resources, potentially partially overlapping resources, or potentially fully overlapping resources; determining , based on the first configuration, that DMRS or data transmissions from the second TRP potentially overlap with DMRS or data transmissions from the first TRP; and performing rate matching around potential DMRS transmissions of the second TRP when transmitting a PDSCH to a user equipment, UE , based on the determination only if the signaling indicates the first and second TRPs transmit DMRS on potentially partially or fully overlapping resources.
A method, comprising: receiving a particular packet, by a first network node in a network ; adding, by the first network node, first In-Situ Operations, Administration, and Maintenance, IOAM data and second IOAM data to the particular packet , with the first IOAM data related to the first network node and the second IOAM data related to a second network node ; and sending the particular packet from the first network node ; wherein said adding second IOAM data to the particular packet is performed in response to at least one of: (i) receiving, by the first network node , notification of an IOAM processing state that the second network node is suspending adding IOAM data to packets, and (ii) the first network node determining IOAM processing capability or IOAM processing state of the second network node indicating that the second network node would not add said second IOAM data to the particular packet . receiving a particular packet, by a first network node in a network ; adding, by the first network node, first In-Situ Operations, Administration, and Maintenance, IOAM data and second IOAM data to the particular packet , with the first IOAM data related to the first network node and the second IOAM data related to a second network node ; and sending the particular packet from the first network node ; wherein said adding second IOAM data to the particular packet is performed in response to at least one of: (i) receiving, by the first network node , notification of an IOAM processing state that the second network node is suspending adding IOAM data to packets, and (ii) the first network node determining IOAM processing capability or IOAM processing state of the second network node indicating that the second network node would not add said second IOAM data to the particular packet .
A system for insulating a structural element in a motor vehicle, the system comprising: a structural element having a first constituent part (12.1, 14.1) and a second constituent part (12.2, 14.2), wherein the constituent parts (12.1, 12.2, 14.1, 14.2) are joined together at a first joining point and at a second joining point , and wherein the structural element forms a cavity ; a device having a carrier and a first expandable adhesive (13.1), wherein the carrier is arranged on the first constituent part (12.1, 14.1) of the structural element by way of a fastening element ; and a second expandable adhesive (13.2) which is arranged on the second constituent part (12.2, 14.2) of the structural element ; wherein the first expandable adhesive (13.1) and the second expandable adhesive (13.2) are in a non-expanded state and are configured, and arranged, in such a way that, after the adhesives (13.1, 13.2) have been expanded, the device and the second adhesive (13.2) substantially completely fill a cross section of the structural element . a structural element having a first constituent part (12.1, 14.1) and a second constituent part (12.2, 14.2), wherein the constituent parts (12.1, 12.2, 14.1, 14.2) are joined together at a first joining point and at a second joining point , and wherein the structural element forms a cavity ; a device having a carrier and a first expandable adhesive (13.1), wherein the carrier is arranged on the first constituent part (12.1, 14.1) of the structural element by way of a fastening element ; and a second expandable adhesive (13.2) which is arranged on the second constituent part (12.2, 14.2) of the structural element ; wherein the first expandable adhesive (13.1) and the second expandable adhesive (13.2) are in a non-expanded state and are configured, and arranged, in such a way that, after the adhesives (13.1, 13.2) have been expanded, the device and the second adhesive (13.2) substantially completely fill a cross section of the structural element .
A method comprising: sending, by a wireless device to an access and mobility management function, AMF, , a packet data unit, PDU, session establishment request message requesting establishment of a PDU session for an always-on PDU session; receiving, by the wireless device from the AMF, a message; the message indicating at least one allowed service associated with the always-on PDU session by comprising an information element indicating an application identifier of the at least one allowed service associated with the always-on PDU session; and sending, by the wireless device, at least one packet of the at least one allowed service via the always-on PDU session. sending, by a wireless device to an access and mobility management function, AMF, , a packet data unit, PDU, session establishment request message requesting establishment of a PDU session for an always-on PDU session; receiving, by the wireless device from the AMF, a message; the message indicating at least one allowed service associated with the always-on PDU session by comprising an information element indicating an application identifier of the at least one allowed service associated with the always-on PDU session; and sending, by the wireless device, at least one packet of the at least one allowed service via the always-on PDU session.
A method for rendering Digital Cinema Initiative (DCI)-image data compliant with the "Digital Cinema System Specification", Version 1.2, on an Enhanced Dynamic Range (EDR) projector system, the EDR projector system having a larger dynamic range than a standard DCI projector and being capable of reproducing higher light levels than DCI light levels, the EDR projector system further comprising a first modulator (106; 208) and a second modulator (110; 216), said first modulator being illuminated by a light source and providing a halftone image to an optical system, said optical system blurring the halftone image to generate a blurred halftone image, the blurred halftone image being received by the second modulator, said second modulator modulating the blurred halftone image to produce a desired image, the method comprising: receiving (step 802) input image data; determining (step 804) whether the input image data comprises DCI image data; if the input image data comprises DCI image data, performing dynamic range processing on the DCI image data, the dynamic range processing comprising: setting the first modulator to produce the halftone image with a light level according to a ratio of DCI max luminance to max luminance of the EDR projector system; and sending signals to the second modulator to modulate light from the first modulator to form the desired image from said input image data. receiving (step 802) input image data; determining (step 804) whether the input image data comprises DCI image data; if the input image data comprises DCI image data, performing dynamic range processing on the DCI image data, the dynamic range processing comprising: setting the first modulator to produce the halftone image with a light level according to a ratio of DCI max luminance to max luminance of the EDR projector system; and sending signals to the second modulator to modulate light from the first modulator to form the desired image from said input image data. setting the first modulator to produce the halftone image with a light level according to a ratio of DCI max luminance to max luminance of the EDR projector system; and sending signals to the second modulator to modulate light from the first modulator to form the desired image from said input image data.
An intra vaginal device to aid in determining muscle strength of a patient, said device including: an elongated body having a longitudinal axis , an end portion , a base spaced from the end portion , and a longitudinally extending side wall extending between the end portion and the base ; a first sensor , the first sensor being mounted on the side wall and to provide an indication of pressure applied thereto by pubococcygeus contractions of the patient; a second sensor , the second sensor being mounted on the side wall so as to be spaced angularly about said longitudinal axis from the first sensor , and to provide an indication of the pressure applied to the second sensor by the patient's puborectalis; and characterized in that said side wall includes a first side wall portion to which the first sensor is attached, and a second side wall portion to which the second sensor is attached, with the second sensor being angularly displaced about said axis from the first sensor by approximately 80° to 90°, and in that the base is elongated in a direction transverse of said longitudinal axis to aid a user to manipulate the device and to aid in correctly positioning the device by having the base engage the vaginal entrance so that a first sensor pressure is applied to the first sensor by the pubococcygeus contractions and a second sensor pressure is applied to the second sensor by the puborectalis, with the device providing a user with separate measurements of the first sensor pressure and second sensor pressure, and in that the first and second wall portions are planar. an elongated body having a longitudinal axis , an end portion , a base spaced from the end portion , and a longitudinally extending side wall extending between the end portion and the base ; a first sensor , the first sensor being mounted on the side wall and to provide an indication of pressure applied thereto by pubococcygeus contractions of the patient; a second sensor , the second sensor being mounted on the side wall so as to be spaced angularly about said longitudinal axis from the first sensor , and to provide an indication of the pressure applied to the second sensor by the patient's puborectalis; and characterized in that said side wall includes a first side wall portion to which the first sensor is attached, and a second side wall portion to which the second sensor is attached, with the second sensor being angularly displaced about said axis from the first sensor by approximately 80° to 90°, and in that the base is elongated in a direction transverse of said longitudinal axis to aid a user to manipulate the device and to aid in correctly positioning the device by having the base engage the vaginal entrance so that a first sensor pressure is applied to the first sensor by the pubococcygeus contractions and a second sensor pressure is applied to the second sensor by the puborectalis, with the device providing a user with separate measurements of the first sensor pressure and second sensor pressure, and in that the first and second wall portions are planar.
A method for additive fabrication of an object represented by three-dimensional model data , the method comprising: computing, using first scan data obtained from a scanner after fabricating a first part of the object forming a first surface of the object, first surface data characterizing the first surface of the object; determining second fabrication data characterizing a second set of layers for additive fabrication on the first surface of the object according to the first surface data and the three-dimensional model data for the object, wherein at least one layer of the second set of layers represents a non-planar surface and/or a non-uniform material composition determined from the first surface data; and providing the second fabrication data to control a printer for fabricating the second set of layers. computing, using first scan data obtained from a scanner after fabricating a first part of the object forming a first surface of the object, first surface data characterizing the first surface of the object; determining second fabrication data characterizing a second set of layers for additive fabrication on the first surface of the object according to the first surface data and the three-dimensional model data for the object, wherein at least one layer of the second set of layers represents a non-planar surface and/or a non-uniform material composition determined from the first surface data; and providing the second fabrication data to control a printer for fabricating the second set of layers.
A method of making processed DRI in a continuous system for making processed DRI, the method comprising the steps of: a. assembling a rotatable chamber having a feed end and an exit end, and having an internal screen capable of supporting DRI during tumbling as the DRI moves through the rotating chamber from the feed end to the exit end and having at last one opening along the chamber to permit fines removed from the DRI during tumbling to exit the chamber, b. delivering DRI to the rotatable chamber through the feed end and rotating the chamber to tumble the DRI on the screen in the chamber while the DRI moves through the chamber from the feed end to the exit end while removing fines from the DRI, and c. removing processed DRI from the discharge end of the rotatable chamber, where the screen has a mesh size between 1/8 and 1/4 mesh, where the DRI is tumbled in the rotatable chamber at between 20 and 40 revolutions per minute for a residence time of at least 10 minutes in the chamber. a. assembling a rotatable chamber having a feed end and an exit end, and having an internal screen capable of supporting DRI during tumbling as the DRI moves through the rotating chamber from the feed end to the exit end and having at last one opening along the chamber to permit fines removed from the DRI during tumbling to exit the chamber, b. delivering DRI to the rotatable chamber through the feed end and rotating the chamber to tumble the DRI on the screen in the chamber while the DRI moves through the chamber from the feed end to the exit end while removing fines from the DRI, and c. removing processed DRI from the discharge end of the rotatable chamber, where the screen has a mesh size between 1/8 and 1/4 mesh, where the DRI is tumbled in the rotatable chamber at between 20 and 40 revolutions per minute for a residence time of at least 10 minutes in the chamber.
Method for building a new ballastway for an at least single-track rail line for an initially non-existing track, wherein the new ballastway comprises at least a PS layer and a ballast layer and the PS layer is built on a ground subgrade and the ballast layer is built on the PS layer in a continuous work sequence in a working direction (A), wherein the PS layer is built by a PS layer finisher and the ballast layer is built by a ballast bed finisher which is operated at a predetermined distance behind the PSL finisher in relation to the working direction (A) and is provided with a chain or crawler running gear for traveling on the PS layer , characterized in that the materials (K, S) required for building the PS layer and the ballast layer are supplied to the PSL finisher and to the ballast bed finisher by means of a respective correlated conveying device from at least one open-top wagon which is operated at a predetermined distance in front of the PSL finisher in relation to the working direction (A).
An electronic device (12") for providing travel information to an occupant of a vehicle, the electronic device comprising a processor, a housing and a plug extending therefrom, the plug being insertable into an in-vehicle power supply socket for providing power to the electronic device, the housing comprising: a network transceiver for communicating with a wireless telecommunications network; a global navigation satellite system (GNSS) receiver ; and an FM RDS radio transmitter , wherein the GNSS receiver is arranged, in use, to determine a position of the electronic device and the network transceiver is arranged, in use, to send the position determined by the GNSS receiver to a remote server via the network and to receive travel information from the remote server via the network based on the determined position, wherein the processor is arranged, using the radio transmitter , to broadcast the received travel information to an in-vehicle radio receiver unit , and wherein the radio transmitter is arranged to transmit the received travel information to an in-vehicle radio receiver unit as: a text message; and/or an encoded location referenced message. a text message; and/or an encoded location referenced message.
An array substrate , comprising a base substrate , and a plurality of gate lines extending in a first direction and a plurality of data lines extending in a second direction arranged on the base substrate , wherein each gate line crosses the plurality of data lines to define a plurality of sub-pixels , wherein the array substrate further comprises: a plurality of touch signal lines extending in the second direction and arranged in light shielding regions of the sub-pixels ; a plurality of touch electrodes insulated from each other and each coupled to at least one touch signal line ; and a plurality of metal pattern units corresponding to the sub-pixels respectively and each arranged in the light shielding region of the corresponding sub-pixel , wherein the metal pattern unit comprises a first metal strip arranged on at least one side of the data line and extending in the second direction, an overlapping area between an orthogonal projection of the first metal strip onto the base substrate and an orthogonal projection of the touch signal line onto the base substrate is A, and a ratio of the overlapping area A to an area of the orthogonal projection of the touch signal line onto the base substrate is greater than a threshold; wherein the touch signal line is covered by at least a part of the metal pattern unit and the metal pattern unit is configured to shield light. a plurality of touch signal lines extending in the second direction and arranged in light shielding regions of the sub-pixels ; a plurality of touch electrodes insulated from each other and each coupled to at least one touch signal line ; and a plurality of metal pattern units corresponding to the sub-pixels respectively and each arranged in the light shielding region of the corresponding sub-pixel , wherein the metal pattern unit comprises a first metal strip arranged on at least one side of the data line and extending in the second direction, an overlapping area between an orthogonal projection of the first metal strip onto the base substrate and an orthogonal projection of the touch signal line onto the base substrate is A, and a ratio of the overlapping area A to an area of the orthogonal projection of the touch signal line onto the base substrate is greater than a threshold; wherein the touch signal line is covered by at least a part of the metal pattern unit and the metal pattern unit is configured to shield light.