mhurhangee/ep-ind-claims huggingface dataset:
A medical apparatus comprising a basic unit comprising a coupling point, an accessory component (7, 8) to be coupled to the coupling point, and a controller, wherein the accessory component (7, 8) comprises an information carrier including information concerning the accessory component (7, 8), the basic unit comprises a sensor configured to read-out the information concerning the accessory component (7, 8), coupled to the basic unit from the information carrier, and the controller is configured to identify the accessory component (7, 8) by the read-out information, characterized in that the information concerning the accessory component (7,8) includes information as to interference edges of the accessory component(7,8), and in that the controller is configured to perform an active collision monitoring based on the read-out information, wherein interference edges of the identified accessory component (7, 8) are monitored such that collisions between the identified accessory component (7, 8) and the medical apparatus or another immobile object can be prevented. a basic unit comprising a coupling point, an accessory component (7, 8) to be coupled to the coupling point, and a controller, wherein the accessory component (7, 8) comprises an information carrier including information concerning the accessory component (7, 8), the basic unit comprises a sensor configured to read-out the information concerning the accessory component (7, 8), coupled to the basic unit from the information carrier, and the controller is configured to identify the accessory component (7, 8) by the read-out information, characterized in that the information concerning the accessory component (7,8) includes information as to interference edges of the accessory component(7,8), and in that the controller is configured to perform an active collision monitoring based on the read-out information, wherein interference edges of the identified accessory component (7, 8) are monitored such that collisions between the identified accessory component (7, 8) and the medical apparatus or another immobile object can be prevented.
A system configured to cool a continuous-form print medium downstream of a printing system, the system comprising: a plurality of hollow rollers disposed along a media path of the continuous-form print medium that remove heat from the continuous-form print medium utilizing airflows directed through interiors of the plurality of hollow rollers; an air supply configured to provide the airflows; and characterised in that the system further comprises ductwork in fluid communication with the air supply that is configured to direct the airflows through the interiors of at least two of the plurality of hollow rollers in opposing directions from each other to reduce a temperature differential across a width of the continuous-form print medium. a plurality of hollow rollers disposed along a media path of the continuous-form print medium that remove heat from the continuous-form print medium utilizing airflows directed through interiors of the plurality of hollow rollers; an air supply configured to provide the airflows; and characterised in that the system further comprises ductwork in fluid communication with the air supply that is configured to direct the airflows through the interiors of at least two of the plurality of hollow rollers in opposing directions from each other to reduce a temperature differential across a width of the continuous-form print medium.
Method for the determination of the electrical transition properties (R Ü) in the contact region between a first contact element of a first plug device and a second contact element, being complementary with the first contact element, of a second plug device, wherein the first contact element is a socket and the second contact element is a plug pin or vice versa, and wherein the properties of a current path are evaluated, which current path includes the first contact element, the contact region, and from the second plug device only the second contact element; characterized in that - the current path is closed and includes only the first contact element, the contact region, and the second contact element; - an induction voltage (U ind) is generated in the current path, with the aid of which measurements are made in the current path to allow conclusions about the transition properties of interest. wherein the first contact element is a socket and the second contact element is a plug pin or vice versa, and wherein the properties of a current path are evaluated, which current path includes the first contact element, the contact region, and from the second plug device only the second contact element; characterized in that - the current path is closed and includes only the first contact element, the contact region, and the second contact element; - an induction voltage (U ind) is generated in the current path, with the aid of which measurements are made in the current path to allow conclusions about the transition properties of interest. - the current path is closed and includes only the first contact element, the contact region, and the second contact element; - an induction voltage (U ind) is generated in the current path, with the aid of which measurements are made in the current path to allow conclusions about the transition properties of interest.
A control means comprising a grip arranged to be held by a hand, where the hand is oriented with its thumb side directed upwards, the grip having a connection end at its lower end and a free upper end arranged opposite to the connection end where the grip is arranged between the connection end and the free end, at least one activation means (10A-10C, 11A-11C) arranged at at least one of the free end and the grip, where the activation means (10A-10C, 11A-11C) are intended to be operated with a part of the hand, a thumb or a finger, whereby the grip is provided with a hand support in order to support the hand of a user, characterised in that the hand support is pliable such that the control means can be adapted to a user's hand and in that the hand support has a free outer end that is arranged to come into contact with the back of the hand.
A method of operating a mixed reality system that maintains virtual content, the method comprising, with at least one processor: selecting virtual content in the environment; storing in non-volatile computer storage medium saved scene data, characterised in that the saved scene data comprises: data representing the selected virtual content; and position information indicating position of the selected virtual content relative to a saved scene anchor node, and in that the method further comprises causing the mixed reality system to load the saved scene data in a location where it was saved or in a different location from the location where it was saved. selecting virtual content in the environment; storing in non-volatile computer storage medium saved scene data, characterised in that the saved scene data comprises: data representing the selected virtual content; and position information indicating position of the selected virtual content relative to a saved scene anchor node, and in that the method further comprises causing the mixed reality system to load the saved scene data in data representing the selected virtual content; and position information indicating position of the selected virtual content relative to a saved scene anchor node, and in that the method further comprises causing the mixed reality system to load the saved scene data in a location where it was saved or in a different location from the location where it was saved.
A peptide, or a pharmaceutically acceptable salt thereof, comprising or consisting of the amino acid sequence HX 2 QGTX 6 TSDX 10 SX 12 YLX 15 X 16 RX 18 AQDFVQWLX 27 DT (SEQ ID NO:20) Wherein X 2 is D-serine, L-alanine, or 1-amino-cyclobutane carboxylic acid; X 6 is L-phenylalanine, para-fluoro phenylalanine or threo-β-phenylserine; X 10 is L-lysine or para-aminomethyl phenylalanine; X 12 is L-lysine or L-leucine; X 15 is L-glutamic acid, L-leucine, or L-aspartic acid X 16 is L-alanine or L-valine; X 18 is L-alanine or L-arginine; X 27 is L-leucine, methionine sulfone, or L-norleucine; the amino acid at position 10 is conjugated to a palmitoyl group by a gamma-glutamic acid-gamma-glutamic acid dipeptide (yEyE) spacer; and, the peptide optionally includes a protecting group that, if present, is joined to the C-terminal carboxy group of the peptide, wherein the peptide is a co-agonist of the glucagon receptor and the GLP-1 receptor and has a ratio of EC 50 at the glucagon receptor to EC 50 at the GLP-1 receptor of 0.88 to 1.25. Wherein X 2 is D-serine, L-alanine, or 1-amino-cyclobutane carboxylic acid; X 6 is L-phenylalanine, para-fluoro phenylalanine or threo-β-phenylserine; X 10 is L-lysine or para-aminomethyl phenylalanine; X 12 is L-lysine or L-leucine; X 15 is L-glutamic acid, L-leucine, or L-aspartic acid X 16 is L-alanine or L-valine; X 18 is L-alanine or L-arginine; X 27 is L-leucine, methionine sulfone, or L-norleucine; the amino acid at position 10 is conjugated to a palmitoyl group by a gamma-glutamic acid-gamma-glutamic acid dipeptide (yEyE) spacer; and, the peptide optionally includes a protecting group that, if present, is joined to the C-terminal carboxy group of the peptide, wherein the peptide is a co-agonist of the glucagon receptor and the GLP-1 receptor and has a ratio of EC 50 at the glucagon receptor to EC 50 at the GLP-1 receptor of 0.88 to 1.25.
Connector for electrically connecting two panels having switchgear, which connector comprises: - two cups (2, 3) having a truncated cone shape for arrangement in a panel, the cups each having a conductor end extending through the tip of the cone and into the cup; - an insulating body having two opposite truncated cone shaped outer surface (12, 13) each for reception in one of the cups and having a central passage; - an electrically conducting element for connecting with the conductor ends extending in the central passage of the insulating body; characterized in that the insulating body is a moulded body having an earth wire moulded in; and in that a coating of an electrical conducting layer is arranged on the earth wire and at least part of the insulating body. - two cups (2, 3) having a truncated cone shape for arrangement in a panel, the cups each having a conductor end extending through the tip of the cone and into the cup; - an insulating body having two opposite truncated cone shaped outer surface (12, 13) each for reception in one of the cups and having a central passage; - an electrically conducting element for connecting with the conductor ends extending in the central passage of the insulating body; characterized in that the insulating body is a moulded body having an earth wire moulded in; and in that a coating of an electrical conducting layer is arranged on the earth wire and at least part of the insulating body.
A method for transmitting multiplexed uplink control channels, comprising: determining that first and second control channels with assigned first and second resources respectively require simultaneous transmission; transmitting a selected one of the first and second control channel with the corresponding one of the first and second resources for indicating the selected one without indicating the unselected one of the first and second control channel; and transmitting a selected one of the first and second control channel with the noncorresponding one of the first and second resources for indicating both of the first and second control channels; wherein the first and second control channels comprise receipt of data acknowledgement and service request; the method further comprising multiplexing the service request and the ACK/NACK based upon a downlink, DL, transmission mode; determining that the downlink, DL, transmission mode is multiple input multiple output, MIMO, with rank two transmission; and receiving a scheduling restriction to select single input multiple output, SIMO, or MIMO rank one when downlink transmission corresponds to service request sub-frame; and multiplexing ACK and service request by utilizing an ACIC/NACK channel by quadrature phase-shift keying, QPSK, modulation. determining that first and second control channels with assigned first and second resources respectively require simultaneous transmission; transmitting a selected one of the first and second control channel with the corresponding one of the first and second resources for indicating the selected one without indicating the unselected one of the first and second control channel; and transmitting a selected one of the first and second control channel with the noncorresponding one of the first and second resources for indicating both of the first and second control channels; wherein the first and second control channels comprise receipt of data acknowledgement and service request; the method further comprising multiplexing the service request and the ACK/NACK based upon a downlink, DL, transmission mode; determining that the downlink, DL, transmission mode is multiple input multiple output, MIMO, with rank two transmission; and receiving a scheduling restriction to select single input multiple output, SIMO, or MIMO rank one when downlink transmission corresponds to service request sub-frame; and multiplexing ACK and service request by utilizing an ACIC/NACK channel by quadrature phase-shift keying, QPSK, modulation.
Method for relaxing a strained material layer, comprising providing a strained material layer and a low-viscosity layer comprising a compliant material and capable of plastic deformation during a heat treatment formed on a first face of the strained material layer; forming a stiffening layer on at least one part of a second face of the strained material layer opposite to the first face without completely covering the strained material layer thereby forming a multilayer stack; and subjecting the multilayer stack to the heat treatment with a temperature of at least the glass transition temperature of the compliant material thereby at least partially relaxing the strained material layer at parts not covered by the stiffening layer, wherein the step of forming the stiffening layer comprises depositing the stiffening layer continuously on the strained material layer and patterning the deposited stiffening layer such that the stiffening layer is partially removed from the strained material layer characterized in that further subsequent steps of patterning the stiffening layer for size reduction and subjecting the multilayer stack to the heat treatment are repeated in this order at least once.
A method of transmitting a Sounding Reference Signal, SRS, by a user equipment, UE, in a wireless communication system, the method comprising: receiving configuration information for one or more SRS resource sets, via radio resource control, RRC, signaling, wherein the configuration information includes first spatial relation information, and wherein a type of the SRS is configured as an aperiodic SRS; receiving downlink control information, DCI, for triggering a transmission of the aperiodic SRS; and transmitting the aperiodic SRS by applying a spatial relation assumption based on the first spatial relation information; wherein the method further comprising: receiving second spatial relation information for the aperiodic SRS via medium access control-control element, MAC-CE, signaling, wherein the spatial relation assumption is updated based on the second spatial relation information, and wherein each of the first spatial relation information and the second spatial relation information comprises information for downlink reference signals related with the spatial relation assumption for the aperiodic SRS. receiving configuration information for one or more SRS resource sets, via radio resource control, RRC, signaling, wherein the configuration information includes first spatial relation information, and wherein a type of the SRS is configured as an aperiodic SRS; receiving downlink control information, DCI, for triggering a transmission of the aperiodic SRS; and transmitting the aperiodic SRS by applying a spatial relation assumption based on the first spatial relation information; wherein the method further comprising: receiving second spatial relation information for the aperiodic SRS via medium access control-control element, MAC-CE, signaling, wherein the spatial relation assumption is updated based on the second spatial relation information, and wherein each of the first spatial relation information and the second spatial relation information comprises information for downlink reference signals related with the spatial relation assumption for the aperiodic SRS. receiving second spatial relation information for the aperiodic SRS via medium access control-control element, MAC-CE, signaling, wherein the spatial relation assumption is updated based on the second spatial relation information, and wherein each of the first spatial relation information and the second spatial relation information comprises information for downlink reference signals related with the spatial relation assumption for the aperiodic SRS.
An infusion pump with catch-up of interrupted delivery of an infusion, the infusion pump comprising: a processor; a memory coupled to the processor, the memory containing programming code to: receive an updated drug library with a catch-up rate factor, receive a desired infusion rate from the user at the infusion pump; calculate an expected accumulated infusion volume as a function of time from the desired infusion rate; request delivery of the infusion at the desired infusion rate; determine an actual accumulated infusion volume at a particular time; increase the desired infusion rate by the catch-up rate factor to generate a catch-up infusion rate when at the particular time the actual accumulated infusion volume is less than the expected accumulated infusion volume; and request delivery of the infusion at the catch-up infusion rate. a processor; a memory coupled to the processor, the memory containing programming code to: receive an updated drug library with a catch-up rate factor, receive a desired infusion rate from the user at the infusion pump; calculate an expected accumulated infusion volume as a function of time from the desired infusion rate; request delivery of the infusion at the desired infusion rate; determine an actual accumulated infusion volume at a particular time; increase the desired infusion rate by the catch-up rate factor to generate a catch-up infusion rate when at the particular time the actual accumulated infusion volume is less than the expected accumulated infusion volume; and request delivery of the infusion at the catch-up infusion rate. receive an updated drug library with a catch-up rate factor, receive a desired infusion rate from the user at the infusion pump; calculate an expected accumulated infusion volume as a function of time from the desired infusion rate; request delivery of the infusion at the desired infusion rate; determine an actual accumulated infusion volume at a particular time; increase the desired infusion rate by the catch-up rate factor to generate a catch-up infusion rate when at the particular time the actual accumulated infusion volume is less than the expected accumulated infusion volume; and request delivery of the infusion at the catch-up infusion rate.
A method for producing a silicon epitaxial wafer, comprising: a growth step at which an epitaxial layer is grown on a silicon single crystal substrate; a first polishing step at which, before the growth step, at least a front surface of the silicon single crystal substrate is polished only by an abrasive cloth and using slurry not containing abrasive grains; and a second polishing step at which at least the front surface of the silicon single crystal substrate is subjected to finish polishing after the growth step. a growth step at which an epitaxial layer is grown on a silicon single crystal substrate; a first polishing step at which, before the growth step, at least a front surface of the silicon single crystal substrate is polished only by an abrasive cloth and using slurry not containing abrasive grains; and a second polishing step at which at least the front surface of the silicon single crystal substrate is subjected to finish polishing after the growth step.
A method for analyzing an activation state of a signaling pathway in a cell or tissue separated from a subject, the method comprising the steps of: (a) immobilizing a first protein in the signaling pathway on a substrate by treating the substrate with an extract of cells or tissues separated from the subject including the first protein; (b) inducing an interaction between of first protein and a second fluorescence-labeled protein by supplying to the substrate the second fluorescence-labeled protein that interacts with the first protein, wherein the second protein is another protein in the signaling pathway; and (c) analyzing the interaction between the first protein and the second protein based on a fluorescent signal of a fluorescent label of the second protein, and analyzing an activation state of the signaling pathway in real time using a total internal reflection microscope, wherein the number of the second fluorescence-labeled proteins that are bound to the first protein on the substrate in a predetermined frame determined by using a single molecule fluorescent observation algorithm is observed, and wherein one image is generated by averaging a predetermined number of frames and the number of single-molecule signals is measured by analyzing the image. (a) immobilizing a first protein in the signaling pathway on a substrate by treating the substrate with an extract of cells or tissues separated from the subject including the first protein; (b) inducing an interaction between of first protein and a second fluorescence-labeled protein by supplying to the substrate the second fluorescence-labeled protein that interacts with the first protein, wherein the second protein is another protein in the signaling pathway; and (c) analyzing the interaction between the first protein and the second protein based on a fluorescent signal of a fluorescent label of the second protein, and analyzing an activation state of the signaling pathway in real time using a total internal reflection microscope, wherein the number of the second fluorescence-labeled proteins that are bound to the first protein on the substrate in a predetermined frame determined by using a single molecule fluorescent observation algorithm is observed, and
A banknote comprising: a base sheet material; and a photo-catalytic material on or about said base sheet material; wherein the photo-catalytic material is a nanoparticle metal oxide material or a nanoparticle semiconductor material; wherein said photo-catalytic material, when energized, generates the transfer of electrons and holes that in turn can generate hydroxyl and other radicals that cause chemical oxidation and reduction reactions on or about said sheet material. a base sheet material; and a photo-catalytic material on or about said base sheet material; wherein the photo-catalytic material is a nanoparticle metal oxide material or a nanoparticle semiconductor material; wherein said photo-catalytic material, when energized, generates the transfer of electrons and holes that in turn can generate hydroxyl and other radicals that cause chemical oxidation and reduction reactions on or about said sheet material.