mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communications, comprising: receiving, at a user equipment, UE, a grant from a base station on a control channel, the grant including content indicating a mini-slot having a start symbol and a duration assigned to the UE; interpreting the grant based on a current configuration of a data channel to determine the mini-slot wherein interpreting the grant includes: determining a location of the grant within the control channel; determining a type of mini-slot based on the location; and determining assignment of resources based on the type of mini-slot and the content; and communicating with the base station during the mini-slot indicated by the grant. receiving, at a user equipment, UE, a grant from a base station on a control channel, the grant including content indicating a mini-slot having a start symbol and a duration assigned to the UE; interpreting the grant based on a current configuration of a data channel to determine the mini-slot wherein interpreting the grant includes: determining a location of the grant within the control channel; determining a type of mini-slot based on the location; and determining assignment of resources based on the type of mini-slot and the content; and communicating with the base station during the mini-slot indicated by the grant. determining a location of the grant within the control channel; determining a type of mini-slot based on the location; and determining assignment of resources based on the type of mini-slot and the content; and communicating with the base station during the mini-slot indicated by the grant.
A bench-scale pressure reactor system for extracting minerals and metals in a chemical leaching process, comprising: - a batch reactor having means for heating and continuous mixing of metals or minerals, the reactor comprising a charging funnel with a first valve for discharging feed materials inside the reactor; - a gas pressure application means (3, V2) for applying pressure inside the reactor by adapting one of air nitrogen and argon, the means comprising perforations and having side arms with perforations thereon, each arm disposed at different angles inside the reactor; - a pressure sensor, including a pressure controller, connected with the reactor, and a resistance temperature detector mounted on the reactor, the resistance temperature detector being connected to one each PID-controller (17, 18) allocated for control of pressure and temperature inside the reactor; - a chiller unit fillable with ice or cold water, and having one each horizontal and vertical coil (5a, 5b) provided to the reactor, the vertical coil and the horizontal coil being respectively connected to the pressure controller and a pressure transmitter via condenser; - a third valve for taking out the products on completion of the reaction time in the reactor; - a sensor to determine the amount of current passing through the heating means of the reactor; - a data acquisitions means connected to a host computer for collecting, processing and outputting the on-line data for monitoring and control of the chemical leaching process; and - analyzing means to analyze the slurry and filtrate produced during the process implementation. - a batch reactor having means for heating and continuous mixing of metals or minerals, the reactor comprising a charging funnel with a first valve for discharging feed materials inside the reactor; - a gas pressure application means (3, V2) for applying pressure inside the reactor by adapting one of air nitrogen and argon, the means comprising perforations and having side arms with perforations thereon, each arm disposed at different angles inside the reactor; - a pressure sensor, including a pressure controller, connected with the reactor, and a resistance temperature detector mounted on the reactor, the resistance temperature detector being connected to one each PID-controller (17, 18) allocated for control of pressure and temperature inside the reactor; - a chiller unit fillable with ice or cold water, and having one each horizontal and vertical coil (5a, 5b) provided to the reactor, the vertical coil and the horizontal coil being respectively connected to the pressure controller and a pressure transmitter via condenser; - a third valve for taking out the products on completion of the reaction time in the reactor; - a sensor to determine the amount of current passing through the heating means of the reactor; - a data acquisitions means connected to a host computer for collecting, processing and outputting the on-line data for monitoring and control of the chemical leaching process; and - analyzing means to analyze the slurry and filtrate produced during the process implementation.
A finger protection strip, in particular for outward swinging doors and sliding swinging doors for vehicles, comprising a hollow chamber whose outer wall is deformable and which in a deformation area (100, 120; 160) is provided in each case with an internal slot (102, 122) or a notch on the inner side, wherein the hollow chamber is connected to a pressure sensing device, characterized in that the outer wall has a greater thickness in the deformation area, wherein due to the internal slot (102, 122) provided in the deformation area or due to the notch in the outer wall of the hollow chamber a locally defined flexibility is present, which provides an inwardly directed deformation of the hollow chamber in the deformation area and provides a maximum volume compression when a change in volume or pressure occurs, in order to trigger the pressure sensing device.
System for providing information about presence in a space, the system comprising: - a movement sensor configured to generate a first signal upon detecting movement within its movement detection field; - a presence sensor configured to generate a second signal upon detecting presence within its presence detection field, the presence sensor being a temperature-based matrix sensor comprising an array of sensing elements; the movement detection field and the presence detection field being within the space; the system comprises: - processing and/or control means in communication with the movement sensor and the presence sensor, the processing and/or control means being configured to generate a presence signal upon receiving the first signal and/or the second signal from the movement sensor and/or the presence sensor, respectively; the processing and/or control means being configured to obtain background information of the presence detection field, the background information comprising reference temperature values of the array of sensing elements of the presence sensor, the background information being obtained: - upon the movement sensor not detecting movement within its movement detection field; and/or, - upon the presence sensor detecting presence within its presence detection field, and for each sensing element of the array of sensing elements in which presence has been detected by the presence sensor, using the measured temperature value of some surrounding sensing elements which do not have human presence, or, if all surrounding sensing elements have human presence, using the measured temperature value of some sensing elements surrounding the former surrounding sensing elements which do not have human presence. - a movement sensor configured to generate a first signal upon detecting movement within its movement detection field; - a presence sensor configured to generate a second signal upon detecting presence within its presence detection field, the presence sensor being a temperature-based matrix sensor comprising an array of sensing elements; - processing and/or control means in communication with the movement sensor and the presence sensor, the processing and/or control means being configured to generate a presence signal upon receiving the first signal and/or the second signal from the movement sensor and/or the presence sensor, respectively; - upon the movement sensor not detecting movement within its movement detection field; and/or, - upon the presence sensor detecting presence within its presence detection field, and for each sensing element of the array of sensing elements in which presence has been detected by the presence sensor, using the measured temperature value of some surrounding sensing elements which do not have human presence, or, if all surrounding sensing elements have human presence, using the measured temperature value of some sensing elements surrounding the former surrounding sensing elements which do not have human presence.
A charging member comprising an electro-conductive support, an elastic layer containing electro-conductive particles dispersed in the elastic layer, and a surface layer, wherein the elastic layer holds polyethylene particles in such a manner that at least a part of the polyethylene particles are exposed from the elastic layer, and a surface of the elastic layer is roughened thereby, the surface of the elastic layer is covered with the surface layer in such a manner that the surface shape of the elastic layer is reflected in the surface shape of the charging member, and wherein the surface layer contains a high-molecular compound having a constitutional unit represented by formula: wherein in formula, R 1 and R 2 each independently represent any one of formulae to: wherein in formulae to, R 3 to R 7, R 10 to R 14, R 19, R 20, R 24, and R 25 each independently represent hydrogen, an alkyl group having 1 to 4 carbon atoms, a hydroxy group, a carboxyl group, or an amino group; R 8, R 9, R 15 to R 18, R 22, R 23, and R 27 to R 30 each independently represent hydrogen or an alkyl group having 1 to 4 carbon atoms; n, m, I, q, s, and t each independently represent an integer of 1 to 8; p and r each independently represent an integer of 4 to 12; x and y each independently represent 0 or 1; each of the symbols "*" represents a binding site to a corresponding one of the silicon atoms in formula; and each of the symbols "**" represents a binding site to a corresponding one of the oxygen atoms in formula.
A ceramic silicone rubber foam, comprising, by weight: 60 to 100 parts of silicone rubber; 20 to 100 parts of silicon dioxide; 1 to 20 parts of silicone oil; 0.1 to 10 parts of a coupling agent; 20 to 120 parts of ceramic powder, wherein the ceramic powder is one or more of silicate glass powder, borate glass powder, phosphate glass powder and lead-based glass powder; 10 to 35 parts of a foaming agent; and 1 to 10 parts of a foaming auxiliary agent. 60 to 100 parts of silicone rubber; 20 to 100 parts of silicon dioxide; 1 to 20 parts of silicone oil; 0.1 to 10 parts of a coupling agent; 20 to 120 parts of ceramic powder, wherein the ceramic powder is one or more of silicate glass powder, borate glass powder, phosphate glass powder and lead-based glass powder; 10 to 35 parts of a foaming agent; and 1 to 10 parts of a foaming auxiliary agent.
An electrical strip or electrical sheet with at least one heat-hardening hotmelt varnish, namely a baked enamel layer, provided on its flat sides, which has an epoxy resin base, at least one hardener, and at least one filler, characterized in that the filler of the baked enamel layer contains a metal carbonate, sulfate, sulfide, silicate, or phosphate or any mix of a plurality of these.
A method for adjusting a channel frequency domain offset of a Physical Random Access Channel, PRACH, characterized in that the method comprising operations of: determining (S110, S210) a current frequency domain position of the PRACH; u. obtaining (S120, S220) Interference Over Thermal, IOT, values of all Physical Resource Blocks, PRBs, in an uplink subframe; v. comparing (S130, S230) the IOT values of all the PRBs in the uplink subframe with an IOT detection threshold to determine a number of PRBs with their IOT values above the IOT detection threshold among all the PRBs in the uplink subframe; w. judging (S140, S240) whether the PRBs with their IOT values above the IOT detection threshold overlap with the current frequency domain position of the PRACH; and x. if it is determined that there are overlapping frequency domain positions, then adjusting (S150, S250) a channel frequency domain offset for the current frequency domain position of the PRACH under a preset adjustment rule to determine an adjusted channel frequency domain offset. determining (S110, S210) a current frequency domain position of the PRACH; u. obtaining (S120, S220) Interference Over Thermal, IOT, values of all Physical Resource Blocks, PRBs, in an uplink subframe; v. comparing (S130, S230) the IOT values of all the PRBs in the uplink subframe with an IOT detection threshold to determine a number of PRBs with their IOT values above the IOT detection threshold among all the PRBs in the uplink subframe; w. judging (S140, S240) whether the PRBs with their IOT values above the IOT detection threshold overlap with the current frequency domain position of the PRACH; and x. if it is determined that there are overlapping frequency domain positions, then adjusting (S150, S250) a channel frequency domain offset for the current frequency domain position of the PRACH under a preset adjustment rule to determine an adjusted channel frequency domain offset.
A pressure measuring line comprising a membrane and a connector for connecting the pressure measuring line to a blood treatment apparatus, wherein the pressure measuring line additionally comprises at least two consecutive lumen sections, namely the first lumen section and the second lumen section, the first lumen section comprising a first lumen geometry and the second lumen section comprising a second lumen geometry, wherein the first lumen geometry and the second lumen geometry differ from each other at least in their diameter.
A method for accessing a machine-readable document, in particular an electronic identity card, with an identification datum contained therein via a reading device, wherein - a token being in a communication connection to the reading device carries out an authentication procedure with respect to the electronic document via the reading device, wherein the token transmits to the document a signature enabling the token, in the case of a successful check by the document, to access the data of the document, - the token, after successful authentication to the document, reads out the identification datum of the document by means of the reading device, - the token checks whether the read-out identification datum matches a reference datum stored in the token, - the token, in the case of a match of the identification datum with the reference datum, reads out and temporarily stores further data of the document, the readout of which was requested by the reading device, - the reading device reads out the temporarily stored data from the token, and - the token, in the case of a non-match of the identification datum with the reference datum, denies access to data of the document by the reading device. - a token being in a communication connection to the reading device carries out an authentication procedure with respect to the electronic document via the reading device, wherein the token transmits to the document a signature enabling the token, in the case of a successful check by the document, to access the data of the document, - the token, after successful authentication to the document, reads out the identification datum of the document by means of the reading device, - the token checks whether the read-out identification datum matches a reference datum stored in the token, - the token, in the case of a match of the identification datum with the reference datum, reads out and temporarily stores further data of the document, the readout of which was requested by the reading device, - the reading device reads out the temporarily stored data from the token, and - the token, in the case of a non-match of the identification datum with the reference datum, denies access to data of the document by the reading device.
A method of printing a tissue construct with embedded vasculature, the method comprising: (i) depositing one or more cell-laden filaments each comprising a plurality of viable cells on a substrate to form one or more tissue patterns, each of the tissue patterns comprising one or more predetermined cell types; (ii) depositing one or more sacrificial filaments on the substrate to form a vascular channel pattern interpenetrating the one or more tissue patterns, each of the sacrificial filaments comprising a fugitive ink, wherein the fugitive ink comprises additional viable cells; followed by: (iii) at least partially surrounding the one or more tissue patterns and the vascular channel pattern with an extracellular matrix composition, and (iv) removing the fugitive ink to create a perfusable interconnected vascular channel network interpenetrating the one or more tissue patterns in the extracellular matrix composition, wherein at least a portion of the additional viable cells remains in the interconnected vascular channel network after removal of the fugitive ink. (i) depositing one or more cell-laden filaments each comprising a plurality of viable cells on a substrate to form one or more tissue patterns, each of the tissue patterns comprising one or more predetermined cell types; (ii) depositing one or more sacrificial filaments on the substrate to form a vascular channel pattern interpenetrating the one or more tissue patterns, each of the sacrificial filaments comprising a fugitive ink, wherein the fugitive ink comprises additional viable cells; (iii) at least partially surrounding the one or more tissue patterns and the vascular channel pattern with an extracellular matrix composition, and (iv) removing the fugitive ink to create a perfusable interconnected vascular channel network interpenetrating the one or more tissue patterns in the extracellular matrix composition, wherein at least a portion of the additional viable cells remains in the interconnected vascular channel network after removal of the fugitive ink.
A process for the preparation of a molecule of the formula: X-[Ar 1 -SO 2 -Ar 2]-[Ar 3] n -[Ar 1 -SO 2 -Ar 2] m -X wherein n and m are independently 0, 1, 2, 3 or 4; wherein X is an halogen selected from chlorine, fluorine, bromine and iodine; wherein Ar 1, Ar 2 are equal or different from each other and are aromatic moieties of the formula: wherein Ar 3 is selected from the group consisting of: wherein each Ri is independently selected from the group consisting of: hydrogen, halogen, alkyl, alkenyl, alkynyl, aryl, ether, thioether, carboxylic acid, ester, amide, imide, alkali or alkaline earth metal sulfonate, alkyl sulfonate, alkali or alkaline earth metal phosphonate, alkyl phosphonate, amine and quaternary ammonium; by reacting together at least one acid, sulfur trioxide and at least one halobenzene and wherein the at least one acid is selected from the group consisting of phosphonic, sulfonic, carboxylic acids or mixtures thereof wherein n and m are independently 0, 1, 2, 3 or 4; wherein X is an halogen selected from chlorine, fluorine, bromine and iodine; wherein Ar 1, Ar 2 are equal or different from each other and are aromatic moieties of the formula: wherein Ar 3 is selected from the group consisting of: wherein each Ri is independently selected from the group consisting of: hydrogen, halogen, alkyl, alkenyl, alkynyl, aryl, ether, thioether, carboxylic acid, ester, amide, imide, alkali or alkaline earth metal sulfonate, alkyl sulfonate, alkali or alkaline earth metal phosphonate, alkyl phosphonate, amine and quaternary ammonium; by reacting together at least one acid, sulfur trioxide and at least one halobenzene and wherein the at least one acid is selected from the group consisting of phosphonic, sulfonic, carboxylic acids or mixtures thereof hydrogen, halogen, alkyl, alkenyl, alkynyl, aryl, ether, thioether, carboxylic acid, ester, amide, imide, alkali or alkaline earth metal sulfonate, alkyl sulfonate, alkali or alkaline earth metal phosphonate, alkyl phosphonate, amine and quaternary ammonium; by reacting together at least one acid, sulfur trioxide and at least one halobenzene and wherein the at least one acid is selected from the group consisting of phosphonic, sulfonic, carboxylic acids or mixtures thereof
A multi-layer structured tissue comprising an outer surface having an Average Peak to Valley Waviness of 140 microns or less, wherein the Average Peak to Valley Waviness is computed as the average peak height plus the average valley depth both taken as positive values relative to the meanline, and wherein the Average Peak to Valley Waviness is measured according to the method described herein.
An aseptic coupling device (100, 200), comprising: a main body (102, 202) defining a front face (118, 218); a membrane (1320, 1360) coupled to the front face, the membrane including a first portion coupled to the front face and a second portion folded over on the first portion; a low friction member positioned between the first and second portions of the membrane, wherein the low friction member is made of a material with a coefficient of friction that is lower than a coefficient of friction of the membrane, wherein the low friction member is coupled to the second portion, wherein the low friction member is coupled to the second portion such that the membrane can be removed from the front face without folding the low friction member. a main body (102, 202) defining a front face (118, 218); a membrane (1320, 1360) coupled to the front face, the membrane including a first portion coupled to the front face and a second portion folded over on the first portion; a low friction member positioned between the first and second portions of the membrane, wherein the low friction member is made of a material with a coefficient of friction that is lower than a coefficient of friction of the membrane, wherein the low friction member is coupled to the second portion, wherein the low friction member is coupled to the second portion such that the membrane can be removed from the front face without folding the low friction member.
Measuring arrangement for recording the rotational movement of a shaft in a machine housing, having a multi-pole ring which is connected to the shaft, at least one measuring sensor which is present on the machine housing and interacts with the multi-pole ring, and a measuring transducer which is connected to the measuring sensor, the measuring sensor(s) being designed to be supplied with current by at least one separate energy store, and the current for the energy store being generated by the multi-pole ring connected to the shaft in interaction with an opposite stator, characterized in that the measuring arrangement comprises further measuring sensors (15 to 20) which are used to measure the pressure (15, 16) and/or the temperature (17, 18) in the space to be sealed and/or the environment and/or the leakage and/or the torque and are integrally combined, with a regulator, an energy store, a transmitting unit and the seal resting against the shaft for the purpose of sealing the gap between the shaft and the machine housing, to form a structural unit.