mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a wireless communication device configured for use in a wireless communication system , the method comprising: performing , by a first radio access technology, RAT, module (18-1) of the wireless communication device , functions relating to a first RAT; performing , by a second RAT module (18-2) of the wireless communication device , functions relating to a second RAT; and performing , by the second RAT module, a subset (22-1S) of functions relating to the first RAT on behalf of the first RAT module (18-1) when one or more defined conditions are met, characterized in that , the one or more defined conditions include a remaining battery level of the wireless communication device being below a defined threshold. performing , by a first radio access technology, RAT, module (18-1) of the wireless communication device , functions relating to a first RAT; performing , by a second RAT module (18-2) of the wireless communication device , functions relating to a second RAT; and performing , by the second RAT module, a subset (22-1S) of functions relating to the first RAT on behalf of the first RAT module (18-1) when one or more defined conditions are met, characterized in that , the one or more defined conditions include a remaining battery level of the wireless communication device being below a defined threshold.
Method for producing a non-woven aggregate , wherein at least one spunbond non-woven is produced as a spunbond base layer and wherein at least one elastomeric polymer is applied to at least one side or to the top of the spunbond base layer , wherein the spunbond base layer has crimped continuous filaments and preferably consists of at least 50% by weight of crimped continuous filaments , wherein the elastomeric polymer is only applied in some areas and specifically in at least two, preferably in at least three spaced-apart application areas on at least one side or on the top of the spunbond base layer and wherein the elastomeric polymer is applied in the form of a hot-melt binding agent, tension-free or substantially tension-free, to one side of the spunbond base layer .
An electrolytic solution for a magnesium battery comprising: a compound represented by the general formula (I); a Lewis acid or a compound represented by the general formula (A); and a solvent that are mixed together; wherein two X's each independently represent a halogeno group, and R 1 represents an alkyl group having 1 to 6 carbon atoms; an alkoxy group having 1 to 6 carbon atoms, a phenoxy group, an -OMgX group, an aryl group having 6 to 18 carbon atoms that has, as a substituent, an alkyl group having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, a vinyl group, a phenyl group, a phenoxy group, a halogeno group, or a -B(OMgX) 2 group or is unsubstituted; or a monocyclic or bicyclic heterocyclic group that has, as a substituent, an alkyl group having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, a vinyl group, a phenyl group, a phenoxy group, a halogeno group, or a -B(OMgX) 2 group or is unsubstituted, X in the -OMgX group and the -B(OMgX) 2 group is the same as X described above; and Mg [N(SO 2 R 6 ) 2 ] 2 (A) wherein four R 6 's each independently represent an alkyl group having 1 to 6 carbon atoms, a perfluoroalkyl group having 1 to 6 carbon atoms, a phenyl group, or a perfluorophenyl group.
An electrode assembly, in which a plurality of unit electrodes and a plurality of separators are alternately laminated, wherein each of the unit electrodes is provided by connecting a plurality of electrodes by adhesion to each other, each of which is entirely made of a solid electrode mixture without a collector, the solid electrode mixture is provided by further mixing at least one or more of a conductive material and a binder with an electrode active material, and an electrode tab attached to the unit electrode , wherein the electrode tab is attached to at least one or more of a surface or an edge of the unit electrode, wherein the electrode tab is provided as an electrode wire having flexibility and conductivity, is bent to match an inner space of a battery case to be freely adjusted in position. wherein each of the unit electrodes is provided by connecting a plurality of electrodes by adhesion to each other, each of which is entirely made of a solid electrode mixture without a collector, the solid electrode mixture is provided by further mixing at least one or more of a conductive material and a binder with an electrode active material, and an electrode tab attached to the unit electrode , wherein the electrode tab is attached to at least one or more of a surface or an edge of the unit electrode, wherein the electrode tab is provided as an electrode wire having flexibility and conductivity, is bent to match an inner space of a battery case to be freely adjusted in position.
An in vitro Or method for identifying a compound that modulates sterile inflammation through the modulation of the interaction of FHR1 with EMR2/ADGRE2 in a cell, comprising the steps of a) contacting at least one of FHR1, an EMR2/ADGRE2 binding fragment of FHR1, a cell expressing FHR1, and/or a cell expressing an EMR2/ADGRE2 binding fragment of FHR1 with at least one compound that potentially modulates the interaction of FHR1 with EMR2/ADGRE2 in a cell b) identifying a modulation of the binding of FHR1 or said fragment to EMR2/ADGRE2 in the presence of said at least one compound, and c) identifying a compound as identified in step b) as specifically modulating sterile inflammation. a) contacting at least one of FHR1, an EMR2/ADGRE2 binding fragment of FHR1, a cell expressing FHR1, and/or a cell expressing an EMR2/ADGRE2 binding fragment of FHR1 with at least one compound that potentially modulates the interaction of FHR1 with EMR2/ADGRE2 in a cell b) identifying a modulation of the binding of FHR1 or said fragment to EMR2/ADGRE2 in the presence of said at least one compound, and c) identifying a compound as identified in step b) as specifically modulating sterile inflammation.
Offshore semi-submersible platform for supporting a wind turbine , the offshore semi-submersible platform comprising: - at least three stabilizing columns ; - a truss structure securing the at least three stabilizing columns to one another; - for at least one of the stabilizing columns , a substantially horizontal perforated plate and a fastening arranged for fastening the substantially horizontal perforated plate to the stabilizing column at least in a working position below a bottom surface of the stabilizing column ,creating a wave load attenuation chamber being defined between the substantially horizontal perforated plate in said working position and the bottom surface of the stabilizing column . - at least three stabilizing columns ; - a truss structure securing the at least three stabilizing columns to one another; - for at least one of the stabilizing columns , a substantially horizontal perforated plate and a fastening arranged for fastening the substantially horizontal perforated plate to the stabilizing column at least in a working position below a bottom surface of the stabilizing column ,creating a wave load attenuation chamber being defined between the substantially horizontal perforated plate in said working position and the bottom surface of the stabilizing column .
Oscillating power tool, having an electric motor which has an armature shaft having an armature with an armature core and a fan wheel , having an eccentric arranged on the armature shaft at one end of the armature shaft , having a first balancing mass which is arranged in the proximity of the eccentric but at an axial distance therefrom, and having a second balancing mass , having a first bearing which is arranged on the armature shaft between the fan wheel and the first balancing mass , wherein the second balancing mass is arranged at an end facing away from the eccentric on the armature shaft between a second bearing and the armature , and wherein the first balancing mass is configured as a first balancing disc which is arranged adjacent to the eccentric on the armature shaft , and wherein an eccentric bearing is received on the eccentric , and wherein the first balancing mass is configured to balance the unbalance of the eccentric and eccentric bearing , and the second balancing mass is configured to balance the remaining couple unbalance caused by the axial distance between the eccentric and the first balancing weight .
A graphics processor comprising: a set of processing resources configured to perform a supersampling anti-aliasing operation via a mixed precision convolutional neural network, the set of processing resources including circuitry configured to: receive, at an input block of a first neural network model, a set of data including previous frame data, current frame data, and velocity data, wherein the previous frame data includes one or more previously generated output frames, the current frame data includes output of a raster and lighting stage of a render pipeline, and the velocity data includes motion vectors generated by the render pipeline; pre-process the set of data to generate pre-processed data, wherein to pre-process the set of data includes to generate residual motion vectors via a second neural network model; provide first pre-processed data to a feature extraction network of the first neural network model and second pre-processed data to an output block of the first neural network model, the first pre-processed data at a first precision and the second pre-processed data at a second precision that is higher than the first precision; process the pre-processed data at the feature extraction network via one or more encoder stages and one or more decoder stages; output tensor data from the feature extraction network to the output block; and generate an output frame via the output block based on the second pre-processed data from the input block and the tensor data output from the feature extraction network, wherein the output frame is an anti-aliased frame. receive, at an input block of a first neural network model, a set of data including previous frame data, current frame data, and velocity data, wherein the previous frame data includes one or more previously generated output frames, the current frame data includes output of a raster and lighting stage of a render pipeline, and the velocity data includes motion vectors generated by the render pipeline; pre-process the set of data to generate pre-processed data, wherein to pre-process the set of data includes to generate residual motion vectors via a second neural network model; provide first pre-processed data to a feature extraction network of the first neural network model and second pre-processed data to an output block of the first neural network model, the first pre-processed data at a first precision and the second pre-processed data at a second precision that is higher than the first precision; process the pre-processed data at the feature extraction network via one or more encoder stages and one or more decoder stages; output tensor data from the feature extraction network to the output block; and generate an output frame via the output block based on the second pre-processed data from the input block and the tensor data output from the feature extraction network, wherein the output frame is an anti-aliased frame.
Magnetic resonance imaging device comprising a field generation unit configured to provide a magnetic field in an imaging volume of the magnetic resonance imaging device , wherein the field generation unit comprises at least one magnet, wherein a surface directed towards the imaging volume of the at least one magnet comprises a concave shape, wherein the at least one magnet is designed to accommodate a patient in a sitting position on the surface directed towards the imaging volume , characterized in that a direction of access to the imaging volume is oriented essentially perpendicular to a main direction of magnetic field lines in the imaging volume and wherein the at least one magnet comprises at least one recess configured for accommodating a leg of the patient positioned in the sitting position. wherein a surface directed towards the imaging volume of the at least one magnet comprises a concave shape, wherein the at least one magnet is designed to accommodate a patient in a sitting position on the surface directed towards the imaging volume , characterized in that a direction of access to the imaging volume is oriented essentially perpendicular to a main direction of magnetic field lines in the imaging volume and wherein the at least one magnet comprises at least one recess configured for accommodating a leg of the patient positioned in the sitting position.
Slave cylinder having a housing which is arranged concentrically about a transmission input shaft, and having an annular piston which is movable axially in said housing and which is operatively connected to a disengagement bearing , and the disengagement bearing obtains an axial prestress by means of an energy accumulator which is supported on the housing and which encloses the piston , wherein the energy accumulator is surrounded by a protective bellows which is received by one end (6.1) thereof on the housing and by its disengagement bearing-side end (6.2) by a fastening ring connected to the disengagement bearing , wherein the disengagement bearing-side end (6.2) of the protective bellows can be clipped into the fastening ring by means of an axial movement of the piston , and the protective bellows is thus fastened both in the axial and in the radial direction, wherein, during a movement of the piston into its minimal end position, at least one latching element (7.1) arranged on the outer circumference of the fastening ring can be brought into engagement with a complementarily formed receiving element (6.3) of the disengagement bearing-side end (6.2) of the protective bellows , and wherein the fastening ring has, on the disengagement bearing side, at least one radially outwardly directed shielding element (7.2) which prevents contact between disengagement bearing and protective bellows , characterized in that the shielding element (7.2) of the fastening ring is formed by a plurality of radial tongues which are arranged in a distributed manner over the circumference and which are arranged so as to be axially spaced apart from the latching element (7.1).
Carrier construction, in particular a frame or link construction, for a motor vehicle, preferably a utility vehicle, having at least one carrier support to which at least one transverse carrier and a frame construction are connected, preferably in order to enable a force path (KF) which comprises at least the carrier support , the transverse carrier and the frame construction , wherein the transverse carrier is arranged lower than the frame construction and a height displacement (HV) is thereby produced , characterised by at least one support device which is arranged between the transverse carrier and the frame construction and/or which is arranged at least partially within the height displacement (HV) in order to strengthen the carrier support or in order to at least reduce or smooth a discontinuous force path (KF') which comprises at least the carrier support , the transverse carrier and the frame construction and which would otherwise occur owing to the height displacement (HV), whereby a gentler force path direction change can preferably be produced.
A method, comprising: receiving an access network, AN, request at a first access network , from a wireless terminal , for connecting the wireless terminal to a second access network , the AN request requesting network connectivity or channel availability information ; wherein the AN request includes an Info ID field that indicates the AN request as a white space protocol frame and the white space protocol frame is transmitted when the wireless terminal is in a non-associated or an associated state relative to the first access network ; and forwarding the AN request to a database , wherein the database is connected to the first access network , the database comprising network connectivity or channel availability information for connecting the wireless terminal to the second access network , wherein the second access network is a white space network. receiving an access network, AN, request at a first access network , from a wireless terminal , for connecting the wireless terminal to a second access network , the AN request requesting network connectivity or channel availability information ; wherein the AN request includes an Info ID field that indicates the AN request as a white space protocol frame and the white space protocol frame is transmitted when the wireless terminal is in a non-associated or an associated state relative to the first access network ; and forwarding the AN request to a database , wherein the database is connected to the first access network , the database comprising network connectivity or channel availability information for connecting the wireless terminal to the second access network , wherein the second access network is a white space network.
A reconfigurable integrated circuit for carrying out a plurality of processing tasks, comprising a configuration generator ; and a dynamic data path comprising one or more control units comprising configuration memory , one or more adaptive data routers and one or more data path operators , wherein the one or more adaptive data routers are arranged to route data from a data memory through the dynamic data path , the data memory storing the data to be processed, and wherein the one or more adaptive data routers couple the data memory to the one or more data path operators , wherein the one or more data path operators output the result of a required data processing function, wherein the configuration memory is adapted to store a modifiable configuration for the dynamic data path , the configuration generator is adapted to receive one or more run-time variables and to generate configuration information to modify the stored configuration in dependence on the one or more run-time variables, the one or more control units are adapted to receive and apply configuration information from the configuration generator to modify the stored configuration, wherein each of the one or more adaptive data routers is coupled to one of the one or more control units adapted to receive configuration information from the configuration generator , wherein each of the one or more adaptive data routers acts in accordance with the configuration stored in the respective one of the one or more control units , and the one or more adaptive data routers are adapted to modify the dynamic data path for a required processing task by routing data from the data memory through the dynamic data path in accordance with the modified stored configuration such that the coupling of particular areas of the data memory to the one or more data path operators is modified.
A method comprising steps of: - arranging a radiation receiving device (8; 22) directly on a surface of a subject above a specific region of the subject, wherein the specific region is located below the surface of the subject or at the surface of the subject, wherein the specific region contains a radioactive substance, wherein the radiation receiving device (8; 22) has a mass density larger than the mass density of air and is adapted to generate a signal from radiation emitted by the radioactive substance and entering the radiation receiving device (8; 22), wherein the radiation receiving device (8; 22) is formed as a patch having a layer and/or a container of a radiation receiving material , wherein the radiation receiving material is a plastic material, a rubber material, a silicon rubber material, a foam material or a combination thereof or a gel material, wherein the method further comprises fixing the radiation receiving device (8; 22) to the surface of the subject by an adhesive, and - detecting the signal by a detection device (3a, 3b; 21), wherein - the radioactive substance emits positrons and the radiation receiving device is adapted to prevent an escape of the positrons and to generate annihilation radiation within the radiation receiving device , said annihilation radiation corresponding to the signal generated by the radiation receiving device and detected by the detection device . - arranging a radiation receiving device (8; 22) directly on a surface of a subject above a specific region of the subject, wherein the specific region is located below the surface of the subject or at the surface of the subject, wherein the specific region contains a radioactive substance, wherein the radiation receiving device (8; 22) has a mass density larger than the mass density of air and is adapted to generate a signal from radiation emitted by the radioactive substance and entering the radiation receiving device (8; 22), wherein the radiation receiving device (8; 22) is formed as a patch having a layer and/or a container of a radiation receiving material , wherein the radiation receiving material is a plastic material, a rubber material, a silicon rubber material, a foam material or a combination thereof or a gel material, wherein the method further comprises fixing the radiation receiving device (8; 22) to the surface of the subject by an adhesive, and - detecting the signal by a detection device (3a, 3b; 21), - the radioactive substance emits positrons and the radiation receiving device is adapted to prevent an escape of the positrons and to generate annihilation radiation within the radiation receiving device , said annihilation radiation corresponding to the signal generated by the radiation receiving device and detected by the detection device .
Heatable high-pressure cleaning device with a fuel-operated heat exchanger and a fuel tank having a tank upper section with a closable filling opening and a tank lower section forming the base of the fuel tank , wherein the tank upper section is connected to the tank lower section in a materially joined manner via a join area , wherein the join area extends in a horizontal plane in the horizontal position of use of the high-pressure cleaning device , and wherein the fuel tank comprises a filling level limiting device for limiting the maximum filling level of the fuel tank in the horizontal position of use of the high-pressure cleaning device characterized in that the fuel tank is fillable with liquid fuel only up to beneath the join area in a horizontal position of use of the high-pressure cleaning device , wherein the maximum filling level of the fuel tank in the horizontal position of use of the high-pressure cleaning device can be limited by the filling level limiting device to a filling level height which is less than the distance between the join area and the base of the fuel tank , and wherein the high-pressure cleaning device has a chassis and the fuel tank is integrated into the chassis , wherein the chassis comprises a chassis lower section produced from plastic and a chassis upper section produced from plastic, wherein the chassis lower section is welded to the chassis upper section and wherein the chassis lower section forms the tank lower section and the chassis upper section the tank upper section of the fuel tank .
A flying pest trap comprising an attracting element and being adapted to retain an immobilisation element , wherein a first housing of the flying pest trap is adapted to be mounted to a wall, characterised by comprising a second housing adapted to retain at least a portion of the immobilisation element , wherein the second housing is adapted to pivot with respect to the first housing .
A portable ultrafiltration device in which a suction bellows is connected by a tube passing through a solenoid valve to a first dialysate connector of a hemofilter incorporated into a blood circuit itself consisting of arterial lines extending from a vascular access and passing through a peristaltic pump and of venous lines , and connecting to the vascular access , characterised in that the hemofilter has another dialysate connector that is connected to an ultrafiltration pressure sensor , the venous lines passing through an electronic safety block .