mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication method, applied to a terminal device, comprising: sending, by the terminal device, reporting information to a network device, characterized in that: the reporting information comprises first indication information for indicating a transmission mode of information to be transmitted of a sidelink unicast service; wherein the reporting information further comprises an address of the information to be transmitted; wherein the transmission mode of the information to be transmitted comprises at least one of: unicast or broadcast; wherein the address of the information to be transmitted comprises at least one of: a source address, a target address, an application layer address, or a layer 2 address. sending, by the terminal device, reporting information to a network device, characterized in that: the reporting information comprises first indication information for indicating a transmission mode of information to be transmitted of a sidelink unicast service; wherein the reporting information further comprises an address of the information to be transmitted; wherein the transmission mode of the information to be transmitted comprises at least one of: unicast or broadcast; wherein the address of the information to be transmitted comprises at least one of: a source address, a target address, an application layer address, or a layer 2 address. the reporting information comprises first indication information for indicating a transmission mode of information to be transmitted of a sidelink unicast service; wherein the reporting information further comprises an address of the information to be transmitted; wherein the transmission mode of the information to be transmitted comprises at least one of: unicast or broadcast; wherein the address of the information to be transmitted comprises at least one of: a source address, a target address, an application layer address, or a layer 2 address.
An assembly including: - a panel having a primary face and a secondary face which are opposite one another; - a bumper fixed to the panel by means of a fixing lug, the bumper extending facing the secondary face, the fixing lug having an extreme upper part by means of which the fixing lug is fixed to the primary face and an extreme lower part by means of which the fixing lug is secured to the bumper; characterized in that the fixing lug includes, between the extreme lower part and the extreme upper part, a C-shaped portion which extends in a plane PO parallel to the primary face. - a panel having a primary face and a secondary face which are opposite one another; - a bumper fixed to the panel by means of a fixing lug, the bumper extending facing the secondary face, the fixing lug having an extreme upper part by means of which the fixing lug is fixed to the primary face and an extreme lower part by means of which the fixing lug is secured to the bumper;
A water-soluble and thermoformable film, the water-soluble film comprising: at least 50 wt.% of a water-soluble polyvinyl alcohol resin, wherein this resin comprises a mixture of polyvinyl alcohol polymers, the resin having an average viscosity, as determined by measuring a freshly made solution of 4% aqueous polyvinyl alcohol solution at 20°C, using a Brookfield LV type viscometer with UL adapter, as described in British Standard EN ISO 15023-2:2006 Annex E Brookfield Test method, in a range of 13.5 cP to 20 cP and a degree of hydrolysis in a range of 84% to 92% as determined according to the formula H° = ∑( W i · H i) where W i is the weight fraction of the respective polyvinyl alcohol polymers, and H i is the respective degrees of hydrolysis; wherein the film has no more than 30 wt.% of a polyvinyl alcohol polymer having an average viscosity, as determined by measuring a freshly made solution of 4% aqueous polyvinyl alcohol solution at 20°C, using a Brookfield LV type viscometer with UL adapter, as described in British Standard EN ISO 15023-2:2006 Annex E Brookfield Test method, of less than 11 cP; and wherein, when the film has a thickness of 76 microns, the film has: (a) a Dissolution Index in a range of 620 to 920s, as determined by the equation Dissolution Index = 7 ∗ (Dissolution Time) + (Burst Strength), wherein the Dissolution Time is determined by the Slide Dissolution Test as set out in the description, and wherein the Burst Strength is determined by the Burst Strength Test as set out in the description, and (b) a Stress Index in a range of 145 to 626 MPa 2, as determined by the equation Stress Index = (Stress at 100% Elongation) ∗ (Ultimate Tensile Strength), where Stress at 100% Elongation and Ultimate Tensile Strength are measured utilizing ASTM D 882. (a) a Dissolution Index in a range of 620 to 920s, as determined by the equation Dissolution Index = 7 ∗ (Dissolution Time) + (Burst Strength), wherein the Dissolution Time is determined by the Slide Dissolution Test as set out in the description, and wherein the Burst Strength is determined by the Burst Strength Test as set out in the description, and (b) a Stress Index in a range of 145 to 626 MPa 2, as determined by the equation Stress Index = (Stress at 100% Elongation) ∗ (Ultimate Tensile Strength), where Stress at 100% Elongation and Ultimate Tensile Strength are measured utilizing ASTM D 882.
A base station, comprising S multi-beam forming apparatuses, wherein S is a natural number greater than 1; wherein each multi-beam forming apparatus comprises: a phased array submodule, an interface module, and at least one radio frequency channel submodule; wherein the interface module is configured to transmit a baseband signal of a baseband data unit external to the base station to the radio frequency channel submodule; the radio frequency channel submodule is configured to convert the baseband signal received by the interface module from the outside into a radio frequency signal, and to send the radio frequency signal to the phased array submodule; and the phased array submodule is configured to perform beam forming on the radio frequency signal sent by the radio frequency channel submodule, and then to send, by using an antenna array, the radio frequency signal obtained after the beam forming; wherein the interface module of each multi-beam forming apparatus further comprises a multi-module expansion interface that is connected to the multi-module expansion interface of another multi-beam forming apparatus of the base station; and wherein the multi-module expansion interface comprises: a clock synchronization interface for clock synchronization among a plurality of multi-beam forming apparatuses, a frequency synchronization interface for frequency synchronization among a plurality of multi-beam forming apparatuses that are combined, and a multi-module correction interface for physical signal correction among a plurality of multi-beam forming apparatuses that are combined. a phased array submodule, an interface module, and at least one radio frequency channel submodule; wherein the interface module is configured to transmit a baseband signal of a baseband data unit external to the base station to the radio frequency channel submodule; the radio frequency channel submodule is configured to convert the baseband signal received by the interface module from the outside into a radio frequency signal, and to send the radio frequency signal to the phased array submodule; and the phased array submodule is configured to perform beam forming on the radio frequency signal sent by the radio frequency channel submodule, and then to send, by using an antenna array, the radio frequency signal obtained after the beam forming; wherein the interface module of each multi-beam forming apparatus further comprises a multi-module expansion interface that is connected to the multi-module expansion interface of another multi-beam forming apparatus of the base station; and wherein the multi-module expansion interface comprises: a clock synchronization interface for clock synchronization among a plurality of multi-beam forming apparatuses, a frequency synchronization interface for frequency synchronization among a plurality of multi-beam forming apparatuses that are combined, and a multi-module correction interface for physical signal correction among a plurality of multi-beam forming apparatuses that are combined.
A communication method for a mobile station operating in accordance with a time frame structure that includes a plurality of frames, each frame comprising a plurality of subframes, each subframe comprising a plurality of time slots, each time slot comprising a plurality of Orthogonal Frequency Division Multiplexing, OFDM, symbols, the method comprising: receiving from a base station information about availability of a random access channel; transmitting a random access signal over the random access channel within an uplink frequency band, wherein the random access signal contains a code sequence that is designated to the base station and sub-sampled with respect to a system sampling rate; and the random access signal has a time duration longer than multiple of the OFDM symbols; receiving an acknowledgement to the random access signal from the base station, the acknowledgement carrying an identifier associated with the mobile station and power and time adjustments; and transmitting a message over a control channel as an OFDM signal within the uplink frequency band having a timing and power based on the time and power adjustments. receiving from a base station information about availability of a random access channel; transmitting a random access signal over the random access channel within an uplink frequency band, wherein the random access signal contains a code sequence that is designated to the base station and sub-sampled with respect to a system sampling rate; and the random access signal has a time duration longer than multiple of the OFDM symbols; the random access signal contains a code sequence that is designated to the base station and sub-sampled with respect to a system sampling rate; and the random access signal has a time duration longer than multiple of the OFDM symbols; receiving an acknowledgement to the random access signal from the base station, the acknowledgement carrying an identifier associated with the mobile station and power and time adjustments; and transmitting a message over a control channel as an OFDM signal within the uplink frequency band having a timing and power based on the time and power adjustments.
A method of producing a supernatant of brown adipocytes, or brown adipocytes that can be used for producing the supernatant of brown adipocytes, comprising the steps of: maintaining and culturing pluripotent stem cells feeder-free, dispersing the cells of step and culturing them non-adhesively in a serum-free environment without adding any one of the cytokines of BMP4, BMP7, VEGF, SCF, FIt3L, IL6, and IGF2 to form cell aggregates, and culturing the cells of step in a serum-free environment without adding any one of the cytokines of BMP7, VEGF, SCF, FIt3L, IL6, and IGF2. maintaining and culturing pluripotent stem cells feeder-free, dispersing the cells of step and culturing them non-adhesively in a serum-free environment without adding any one of the cytokines of BMP4, BMP7, VEGF, SCF, FIt3L, IL6, and IGF2 to form cell aggregates, and culturing the cells of step in a serum-free environment without adding any one of the cytokines of BMP7, VEGF, SCF, FIt3L, IL6, and IGF2.
A surgical anvil assembly for use with a circular stapling instrument, comprising: an anvil center rod having a distal portion and a proximal portion, the proximal portion defining a pair of slots (150a, 150b) therein; and an anvil head pivotally coupled to distal portion of the anvil center rod and movable between a first, operative condition and a second, tilted condition; wherein the surgical anvil assembly further comprises a pair of legs (152, 154) received within the pair of slots, each of the pair of legs including a distal end portion (152b, 154b) fixedly coupled to the proximal body portion, and a proximal end portion (152a, 154a) free to pivot within the respective slot, the pair of legs cooperatively defining a cavity therebetween dimensioned for receipt of an anvil retainer, characterised in that the distal end portion (152b, 154b) of each of the pair of legs (152, 154) is welded to an inner periphery of the proximal portion of the anvil center rod. an anvil center rod having a distal portion and a proximal portion, the proximal portion defining a pair of slots (150a, 150b) therein; and an anvil head pivotally coupled to distal portion of the anvil center rod and movable between a first, operative condition and a second, tilted condition; wherein the surgical anvil assembly further comprises a pair of legs (152, 154) received within the pair of slots, each of the pair of legs including a distal end portion (152b, 154b) fixedly coupled to the proximal body portion, and a proximal end portion (152a, 154a) free to pivot within the respective slot, the pair of legs cooperatively defining a cavity therebetween dimensioned for receipt of an anvil retainer, characterised in that the distal end portion (152b, 154b) of each of the pair of legs (152, 154) is welded to an inner periphery of the proximal portion of the anvil center rod.
Control unit (10; 10a), in particular for vehicle navigation or for automated driving, having a housing which is composed of at least two housing elements (11, 12), having at least one circuit carrier (16; 16a; 17; 17a; 52) on which at least one heat-generating component is arranged, having a heat-conducting element which is composed of metal and which serves for dissipating the heat generated by the at least one heat-generating component, having at least one sensor element (40, 41) which is connected to the at least one circuit carrier (16; 16a; 17; 17a; 52), and having at least one plug connector body which is composed of plastic and which has connector elements for the electrical contacting of the at least one circuit carrier (16; 16a; 17; 17a; 52), characterized in that the plug connector body is, in the region of a frame-like or lid-like housing element composed of plastic, formed in one piece with said housing element or formed as a component separate from the housing element, in that the heat-conducting element is arranged as an insert part in a housing element composed substantially of plastic, in that the heat-conducting element is thermally connectable to a carrier element for the housing, in that the housing element composed of plastic has an elevation, in the region of which the housing element projects further into the interior space of the housing than in the other regions of the housing element, wherein the elevation is arranged in that region of the circuit carrier (16; 16a; 17; 17a; 52) in the region of which the heat-generating component is situated, and in that the heat-generating component, which is arranged in operative connection with the heat-conducting element via a heat-conducting adhesive, is arranged on the at least one circuit carrier (16; 16a; 17; 17a; 52), wherein a subregion of the heat-conducting element extends into the elevation and interacts via the heat-conducting adhesive with the underside of the circuit carrier (16; 16a; 17; 17a; 52).
A non-aqueous photopolymerizable composition comprising: a polymerizable monomer comprising diethylene glycol dimethacrylate; a polymerization initiator; and a polyether-modified polysiloxane compound represented by the following general formula: <General Formula > (CH 3) 3 Si-O-[Si(CH 3) 2 -O] a -[Si(CH 3) -O] b -Si(CH 3) 3 where X represents R(C 2 H 4 O) c (C 3 H 6 O) d -R', R is a single bond or an alkylene group, R' is a hydrogen atom or an alkyl group, and a to d each denote an average polymerization degree including a case where either c or d is 0. a polymerizable monomer comprising diethylene glycol dimethacrylate; a polymerization initiator; and a polyether-modified polysiloxane compound represented by the following general formula: <General Formula > (CH 3) 3 Si-O-[Si(CH 3) 2 -O] a -[Si(CH 3) -O] b -Si(CH 3) 3 where X represents R(C 2 H 4 O) c (C 3 H 6 O) d -R', R is a single bond or an alkylene group, R' is a hydrogen atom or an alkyl group, and a to d each denote an average polymerization degree including a case where either c or d is 0.
Elevator system, comprising: a lifting platform for fastening to a plurality of fastening positions in an elevator shaft; at least one guide rail for vertically guiding an elevator cabin in the elevator shaft, the guide rail being fastenable to a lateral wall of the elevator shaft by means of a rail clamp; characterized in that the lifting platform has a protective roof which is designed to protect the lifting platform against falling objects; the protective roof having a rail opening through which the guide rail extends, a cross section of the rail clamp being arranged completely within the cross section of the rail opening; the protective roof having a cover for covering the rail opening, which cover has a cover opening through which the guide rail extends. a lifting platform for fastening to a plurality of fastening positions in an elevator shaft; at least one guide rail for vertically guiding an elevator cabin in the elevator shaft, the guide rail being fastenable to a lateral wall of the elevator shaft by means of a rail clamp; characterized in that the lifting platform has a protective roof which is designed to protect the lifting platform against falling objects; the protective roof having a rail opening through which the guide rail extends, a cross section of the rail clamp being arranged completely within the cross section of the rail opening; the protective roof having a cover for covering the rail opening, which cover has a cover opening through which the guide rail extends.
A change-tolerant method of generating an identifier for a plurality of assets associated with a computing environment with respect to embedded personalization information comprising a plurality of ciphertext constants, each of the assets having an asset parameter associated therewith, the method comprising: retrieving asset parameters for the plurality of assets; generating a share corresponding to each asset parameter by combining each asset parameter with a respective ciphertext constant of the plurality of ciphertext constants to generate a plurality of shares; applying a secret sharing algorithm to a plurality of subsets of shares to derive a plurality of candidate identifiers corresponding to the plurality of subsets of shares; and selecting a most prevalent candidate identifier from the plurality of candidate identifiers as a final identifier for the plurality of assets, wherein the secret sharing algorithm is a (M-k, N)-secret sharing algorithm, where N is the number of the plurality of shares, M<N, and k is equal to 1. retrieving asset parameters for the plurality of assets; generating a share corresponding to each asset parameter by combining each asset parameter with a respective ciphertext constant of the plurality of ciphertext constants to generate a plurality of shares; applying a secret sharing algorithm to a plurality of subsets of shares to derive a plurality of candidate identifiers corresponding to the plurality of subsets of shares; and selecting a most prevalent candidate identifier from the plurality of candidate identifiers as a final identifier for the plurality of assets,
A drink-printing system for printing on a current drink comprising: a. an ink-jet printer defining a target-location; b. a plurality of colorant reservoirs; c. one or more sensor(s) for sensing property-data of a current drink that is currently at the target location so as to perform at least one of the following drink-distinguishing operations for the current drink: distinguishing between a coffee and beer; distinguishing between multiple types of coffee; distinguishing between multiple types beer; d. control circuitry for: i. causing the ink-jet printer to print, on an upper surface of the current drink, a pre-stored digital image; and ii. response to output of the sensor(s), causing the ink-jet printer to dynamically select a colorant reservoir for the ink-jet printing in accordance with the results of drink-distinguishing operation(s). a. an ink-jet printer defining a target-location; b. a plurality of colorant reservoirs; c. one or more sensor(s) for sensing property-data of a current drink that is currently at the target location so as to perform at least one of the following drink-distinguishing operations for the current drink: distinguishing between a coffee and beer; distinguishing between multiple types of coffee; distinguishing between multiple types beer; distinguishing between a coffee and beer; distinguishing between multiple types of coffee; distinguishing between multiple types beer; d. control circuitry for: i. causing the ink-jet printer to print, on an upper surface of the current drink, a pre-stored digital image; and ii. response to output of the sensor(s), causing the ink-jet printer to dynamically select a colorant reservoir for the ink-jet printing in accordance with the results of drink-distinguishing operation(s). i. causing the ink-jet printer to print, on an upper surface of the current drink, a pre-stored digital image; and ii. response to output of the sensor(s), causing the ink-jet printer to dynamically select a colorant reservoir for the ink-jet printing in accordance with the results of drink-distinguishing operation(s).
A polyolefin-based composition comprising: a first polymer composition comprising: a polyolefin grafted with an unsaturated monomer; a second polymer composition comprising: a polyethylene; and a third polymer composition comprising: (i) a first polyisobutylene having a Viscosity Average Molecular Weight (VAMW 1); and (ii) a second polyisobutylene having a Viscosity Average Molecular Weight (VAMW 2) wherein VAMW 1 is from 3 ∗ 10 4 to 1 ∗ 10 5 grams per mole; and VAMW 2 is from 2 ∗ 10 5 to 5 ∗ 10 6 grams per mole. a first polymer composition comprising: a polyolefin grafted with an unsaturated monomer; a second polymer composition comprising: a polyethylene; and a third polymer composition comprising: (i) a first polyisobutylene having a Viscosity Average Molecular Weight (VAMW 1); and (ii) a second polyisobutylene having a Viscosity Average Molecular Weight (VAMW 2) wherein VAMW 1 is from 3 ∗ 10 4 to 1 ∗ 10 5 grams per mole; and VAMW 2 is from 2 ∗ 10 5 to 5 ∗ 10 6 grams per mole. (i) a first polyisobutylene having a Viscosity Average Molecular Weight (VAMW 1); and (ii) a second polyisobutylene having a Viscosity Average Molecular Weight (VAMW 2)
An in vitro method for obtaining cells for reptile leather production comprising the steps of: a. obtaining cells from a hatched reptile egg, and b. isolating and/or culturing keratinocytes, fibroblasts, melanocytes, stem cells, or precursor cells. a. obtaining cells from a hatched reptile egg, and b. isolating and/or culturing keratinocytes, fibroblasts, melanocytes, stem cells, or precursor cells.