mhurhangee/ep-ind-claims huggingface dataset:
A Power over Data Lines system for supplying power and data over a wire pair, the wire pair being a first wire and a second wire having first ends coupled to power sourcing equipment and having second ends coupled to a powered device, the system comprising: a DC voltage source in the power sourcing equipment having a first voltage source terminal and a second voltage source terminal, where a DC voltage is across the first voltage source terminal and the second voltage source terminal; a first series combination of two or more inductors (L1, L3) in the power sourcing equipment having a first terminal coupled to the first voltage source terminal, the series combination of inductors also having a second terminal outputting a first filtered DC voltage for coupling to the first end of the first wire; a second series combination of two or more inductors (L2, L4) in the power sourcing equipment having a third terminal coupled to the second voltage source terminal, the second series combination of inductors also having a fourth terminal outputting a second filtered DC voltage for coupling to the first end of the second wire; a differential data transceiver having a first data terminal and a second data terminal; a first capacitor having a fifth terminal coupled to the first data terminal, the first capacitor having a sixth terminal for coupling to the first end of the first wire to combine data with the first filtered DC voltage; and a second capacitor having a seventh terminal coupled to the second data terminal, the second capacitor having an eighth terminal for coupling to the first end of the second wire to combine the data with the second filtered DC voltage. a DC voltage source in the power sourcing equipment having a first voltage source terminal and a second voltage source terminal, where a DC voltage is across the first voltage source terminal and the second voltage source terminal; a first series combination of two or more inductors (L1, L3) in the power sourcing equipment having a first terminal coupled to the first voltage source terminal, the series combination of inductors also having a second terminal outputting a first filtered DC voltage for coupling to the first end of the first wire; a second series combination of two or more inductors (L2, L4) in the power sourcing equipment having a third terminal coupled to the second voltage source terminal, the second series combination of inductors also having a fourth terminal outputting a second filtered DC voltage for coupling to the first end of the second wire; a differential data transceiver having a first data terminal and a second data terminal; a first capacitor having a fifth terminal coupled to the first data terminal, the first capacitor having a sixth terminal for coupling to the first end of the first wire to combine data with the first filtered DC voltage; and a second capacitor having a seventh terminal coupled to the second data terminal, the second capacitor having an eighth terminal for coupling to the first end of the second wire to combine the data with the second filtered DC voltage.
An in vitro eukaryotic cell comprising (a) at least one or more endogenous low or high affinity clostridial toxin receptor(s) that bind(s) a clostridial toxin, and (b) a clostridial toxin substrate, said clostridial toxin substrate comprising: (i) a donor fluorophore; (ii) an acceptor having an absorbance spectrum overlapping the emission spectrum of said donor fluorophore; and (iii) a clostridial toxin recognition sequence comprising a cleavage site sequence, wherein said cleavage site intervenes between said donor fluorophore and said acceptor, wherein, under the appropriate conditions, resonance energy transfer is exhibited between said donor fluorophore and said acceptor. (a) at least one or more endogenous low or high affinity clostridial toxin receptor(s) that bind(s) a clostridial toxin, and (b) a clostridial toxin substrate, said clostridial toxin substrate comprising: (i) a donor fluorophore; (ii) an acceptor having an absorbance spectrum overlapping the emission spectrum of said donor fluorophore; and (iii) a clostridial toxin recognition sequence comprising a cleavage site sequence, wherein said cleavage site intervenes between said donor fluorophore and said acceptor, wherein, under the appropriate conditions, resonance energy transfer is exhibited between said donor fluorophore and said acceptor. (i) a donor fluorophore; (ii) an acceptor having an absorbance spectrum overlapping the emission spectrum of said donor fluorophore; and (iii) a clostridial toxin recognition sequence comprising a cleavage site sequence, wherein said cleavage site intervenes between said donor fluorophore and said acceptor,
A computer-implemented method of analyzing a volume of tissue, comprising: receiving, from a transducer, a set of acoustic signals derived from acoustic waveforms transmitted through the volume of tissue, wherein the transducer comprises an array of ultrasound transmitters and an array of ultrasound receivers configured to surround the volume of tissue, wherein an ultrasound transmitter/receiver pair comprises one of the array of ultrasound transmitters paired with one of the array of ultrasound receivers; generating a sound speed model that characterizes sound attenuation to represent a distribution of sound speed across a region of the volume of tissue; extracting a set of frequency components from the set of acoustic signals for each ultrasound transmitter/receiver pair, wherein the extracting comprises applying a time domain window on the acoustic waveform, computing a Fourier transform, and selecting a desired frequency component; generating a simulated wavefield in terms of a frequency component and the sound speed model; iteratively refining a value of the sound speed model with respect to the simulated wavefield for each of the set of frequency components until a threshold condition is satisfied, thereby producing a final value of the sound speed model; computing an attenuation representation from the final value of the sound speed model; and rendering one or more attenuation images for the volume of tissue based on the attenuation representation. receiving, from a transducer, a set of acoustic signals derived from acoustic waveforms transmitted through the volume of tissue, wherein the transducer comprises an array of ultrasound transmitters and an array of ultrasound receivers configured to surround the volume of tissue, wherein an ultrasound transmitter/receiver pair comprises one of the array of ultrasound transmitters paired with one of the array of ultrasound receivers; generating a sound speed model that characterizes sound attenuation to represent a distribution of sound speed across a region of the volume of tissue; extracting a set of frequency components from the set of acoustic signals for each ultrasound transmitter/receiver pair, wherein the extracting comprises applying a time domain window on the acoustic waveform, computing a Fourier transform, and selecting a desired frequency component; generating a simulated wavefield in terms of a frequency component and the sound speed model; iteratively refining a value of the sound speed model with respect to the simulated wavefield for each of the set of frequency components until a threshold condition is satisfied, thereby producing a final value of the sound speed model; computing an attenuation representation from the final value of the sound speed model; and rendering one or more attenuation images for the volume of tissue based on the attenuation representation.
A measuring bridge arrangement including a measuring bridge with at least one first half bridge with a first measuring terminal (+UD) and a second half bridge with a second measuring terminal (-UD), a reference voltage divider with at least a first and a second test terminal (+UR, -UR), a differential amplifier with at least a first and a second amplifier input (Vin+, Vin-) and at least one amplifier output (Vout) and a voltage gain and an output voltage working range, characterised in that the first amplifier input (Vin+) is connected to a first capacitor and the second amplifier input (Vin-) is connected to a second capacitor and the amplifier inputs can be selectively connected to the measuring terminals or the test terminals.
A storage device comprising: a nonvolatile memory device including a plurality of memory blocks; and a controller configured to use some memory blocks of the plurality of memory blocks as a buffer area, wherein memory blocks storing invalid data from among the some memory blocks are invalid memory blocks (BLK17-20), and characterised in that the controller is further configured to: identify memory blocks, of which an elapsed time after erase is greater than a reuse time, from among the invalid memory blocks as available memory blocks of the buffer area; and provide an available buffer size to an external host device, the available buffer size indicating a number and/or capacity of the available memory blocks, wherein the reuse time is a predetermined time against which the availability or unavailability of the memory block is judged on the basis of a time over which charges that are trapped as a result of an erase operation in a tunneling insulating layer or a blocking insulating layer of a memory cell of the memory block are discharged so as to lower the threshold voltage prior to the block being made available. a nonvolatile memory device including a plurality of memory blocks; and a controller configured to use some memory blocks of the plurality of memory blocks as a buffer area, wherein memory blocks storing invalid data from among the some memory blocks are invalid memory blocks (BLK17-20), and characterised in that the controller is further configured to: identify memory blocks, of which an elapsed time after erase is greater than a reuse time, from among the invalid memory blocks as available memory blocks of the buffer area; and provide an available buffer size to an external host device, the available buffer size indicating a number and/or capacity of the available memory blocks, wherein the reuse time is a predetermined time against which the availability or unavailability of the memory block is judged on the basis of a time over which charges that are trapped as a result of an erase operation in a tunneling insulating layer or a blocking insulating layer of a memory cell of the memory block are discharged so as to lower the threshold voltage prior to the block being made available.
A rubber composition for a tire tread, the rubber composition comprising: a raw material rubber including 20 to 50 parts by weight of a first styrene butadiene rubber, 20 to 50 parts by weight of a second styrene butadiene rubber, and 10 to 40 parts by weight of a butadiene rubber; wherein the first styrene butadiene rubber has a glass transition temperature (Tg) of -40 °C or higher, and includes 30 to 50 wt% of styrene and 10 to 30 wt% of vinyl, wherein the second styrene butadiene rubber has a glass transition temperature (Tg) of -60 °C or lower, and includes 5 to 20 wt% of styrene and 20 to 40 wt% of vinyl, and 80 to 180 parts by weight of a reinforcing filler, 2 to 50 parts by weight of a natural oil, and 2 to 30 parts by weight of a hydrocarbon resin with respect to 100 parts by weight of the raw material rubber. a raw material rubber including 20 to 50 parts by weight of a first styrene butadiene rubber, 20 to 50 parts by weight of a second styrene butadiene rubber, and 10 to 40 parts by weight of a butadiene rubber; wherein the first styrene butadiene rubber has a glass transition temperature (Tg) of -40 °C or higher, and includes 30 to 50 wt% of styrene and 10 to 30 wt% of vinyl, wherein the second styrene butadiene rubber has a glass transition temperature (Tg) of -60 °C or lower, and includes 5 to 20 wt% of styrene and 20 to 40 wt% of vinyl, and 80 to 180 parts by weight of a reinforcing filler, 2 to 50 parts by weight of a natural oil, and 2 to 30 parts by weight of a hydrocarbon resin with respect to 100 parts by weight of the raw material rubber.
A coupling element configured to mechanically and electrically couple a passive and/or active electrical unit to an electrical circuit unit, comprising: - at least one electrical contact element (10, 11) configured for electrical contact of the passive and/or active electrical unit with the electrical circuit unit; - at least one mechanical coupling configured to mechanically couple the electrical circuit unit; a first side, which faces toward the passive and/or active electrical unit; - a second side, which faces toward the electrical circuit unit; - characterized in that said at least one mechanical coupling is fixedly attached to the second side; - wherein the at least one electrical contact element (10, 11) comprises terminal surfaces that form a soldered electrical connection to provide said electrical contact between the passive and/or active electrical unit and the electrical circuit unit, through use of a surface-mounting technology; and, - wherein the at least one mechanical coupling comprises surfaces that form a soldered mechanical connection between the coupling element and the electrical circuit unit, through use of said surface-mounting technology, but which does not provide said electrical contact between the passive and/or active electrical unit and the electrical circuit unit. - at least one electrical contact element (10, 11) configured for electrical contact of the passive and/or active electrical unit with the electrical circuit unit; - at least one mechanical coupling configured to mechanically couple the electrical circuit unit; a first side, which faces toward the passive and/or active electrical unit; - a second side, which faces toward the electrical circuit unit; - characterized in that said at least one mechanical coupling is fixedly attached to the second side; - wherein the at least one electrical contact element (10, 11) comprises terminal surfaces that form a soldered electrical connection to provide said electrical contact between the passive and/or active electrical unit and the electrical circuit unit, through use of a surface-mounting technology; and, - wherein the at least one mechanical coupling comprises surfaces that form a soldered mechanical connection between the coupling element and the electrical circuit unit, through use of said surface-mounting technology, but which does not provide said electrical contact between the passive and/or active electrical unit and the electrical circuit unit.
A multilayer film comprising a layer sequence of (a) a layer (a) based on at least one low-density polyethylene (LDPE) with a density in the range from 0.915 to 0.930 g/cm 3 or a mixture of (α) at least one low-density polyethylene (LDPE) with a density in the range from 0.915 to 0.930 g/cm 3 and of (β) at least one non-cyclic C 2 -C 6 olefin homo- or copolymer which differs from polyethylene component (α), (b) a layer (b) based on a mixture of at least one low-density polyethylene (LDPE) with a density in the range from 0.915 to 0.930 g/cm 3 and at least one cycloolefin copolymer, and (c) a layer (c) based on at least one low-density polyethylene (LDPE) with a density in the range from 0.915 to 0.930 g/cm 3 or a mixture of (α) at least one low-density polyethylene (LDPE) with a density in the range from 0.915 to 0.930 g/cm 3 and of (β) at least one non-cyclic C 2 -C 6 olefin homo- or copolymer which differs from polyethylene component (α), characterized in that the thickness of the layer (a) and, respectively, the layer (c) is in each case from 5 μm to 25 μm and the thickness of the layer (b) is from 5 μm to 30 μm, whereby the tear propagation force for the multilayer film both in machine direction and perpendicularly to the machine direction is at most 1000 mN, and the ratio of the tear propagation force in machine direction to the tear propagation force perpendicularly to the machine direction, in each case determined by the Elmendorf test in accordance with DIN EN ISO 6383-2, is from 2:1 to 1:2. (a) a layer (a) based on at least one low-density polyethylene (LDPE) with a density in the range from 0.915 to 0.930 g/cm 3 or a mixture of (α) at least one low-density polyethylene (LDPE) with a density in the range from 0.915 to 0.930 g/cm 3 and of (β) at least one non-cyclic C 2 -C 6 olefin homo- or copolymer which differs from polyethylene component (α), (b) a layer (b) based on a mixture of at least one low-density polyethylene (LDPE) with a density in the range from 0.915 to 0.930 g/cm 3 and at least one cycloolefin copolymer, and (c) a layer (c) based on at least one low-density polyethylene (LDPE) with a density in the range from 0.915 to 0.930 g/cm 3 or a mixture of (α) at least one low-density polyethylene (LDPE) with a density in the range from 0.915 to 0.930 g/cm 3 and of (β) at least one non-cyclic C 2 -C 6 olefin homo- or copolymer which differs from polyethylene component (α),
A method in a wireless communication network, said wireless communication network providing radio access for a terminal device via at least a first and second type of wireless radio accesses operating with different radio access technologies, wherein the method comprises the steps of: - setting a common paging occasion configuration for the at least first and second radio access technologies; and - paging the terminal device via the first and/or the second radio access technologies according to the common paging occasion configuration characterized in that the setting of the common paging occasion configuration is based on a difference in radio frame length between the first and second radio access technologies; and in that the method further comprises synchronizing radio frame numbers across the first and second radio access technologies, wherein said synchronizing of the radio frame numbers is based on an association of a first time unit in the first radio access technology with a second time unit in the second radio access technology divided by an integer number. - setting a common paging occasion configuration for the at least first and second radio access technologies; and - paging the terminal device via the first and/or the second radio access technologies according to the common paging occasion configuration the setting of the common paging occasion configuration is based on a difference in radio frame length between the first and second radio access technologies; and in that the method further comprises synchronizing radio frame numbers across the first and second radio access technologies, wherein said synchronizing of the radio frame numbers is based on an association of a first time unit in the first radio access technology with a second time unit in the second radio access technology divided by an integer number.
A lifting device sensor unit, said sensor unit comprising: a housing configured to removably couple about a load line or a lifting hook of a lifting device; at least a first global navigation satellite system receiver coupled with said housing and configured for determining a sensor unit position in three dimensions and an angular orientation of said sensor unit; a load monitor coupled with said housing and configured for monitoring a load coupled with said load line or said lifting hook, including monitoring a load position and a load orientation of said load; and a wireless transceiver coupled with said housing and configured for wirelessly providing information including said load position, said load orientation, and said sensor unit position, to a display unit located apart from said sensor unit. a housing configured to removably couple about a load line or a lifting hook of a lifting device; at least a first global navigation satellite system receiver coupled with said housing and configured for determining a sensor unit position in three dimensions and an angular orientation of said sensor unit; a load monitor coupled with said housing and configured for monitoring a load coupled with said load line or said lifting hook, including monitoring a load position and a load orientation of said load; and a wireless transceiver coupled with said housing and configured for wirelessly providing information including said load position, said load orientation, and said sensor unit position, to a display unit located apart from said sensor unit.
A method for coding three-dimensional, 3D, video data comprising: coding a texture view video block; and coding a depth view video block, wherein the depth view video block is associated with the texture view video block, wherein coding the depth view video block includes coding a syntax element indicative of whether or not an inside view motion prediction, IVMP, mode is enabled such that motion information associated with the texture view video block is adopted as motion information associated with the depth view video block, wherein the texture view video block and the depth view video block are coded together in a unit, wherein if the IVMP mode is disabled, the motion information associated with the texture view video block is included in the unit and the motion information associated with the depth view video block is separately included in the unit, and wherein if the IVMP mode is enabled, the motion information associated with the texture view video block is included in the unit, and the motion information associated with the texture view video block is adopted as the motion information associated with the depth view video block. coding a texture view video block; and coding a depth view video block, wherein the depth view video block is associated with the texture view video block, wherein coding the depth view video block includes coding a syntax element indicative of whether or not an inside view motion prediction, IVMP, mode is enabled such that motion information associated with the texture view video block is adopted as motion information associated with the depth view video block, wherein the texture view video block and the depth view video block are coded together in a unit, wherein if the IVMP mode is disabled, the motion information associated with the texture view video block is included in the unit and the motion information associated with the depth view video block is separately included in the unit, and wherein if the IVMP mode is enabled, the motion information associated with the texture view video block is included in the unit, and the motion information associated with the texture view video block is adopted as the motion information associated with the depth view video block.
An electronic smoking article, the article comprising: an authenticated first section including, an aerosol generation unit (148, 211) having at least one heater; an authenticated second section including, a power supply configured to apply voltage to the at least one heater for heating a liquid in at least a portion of the aerosol generation unit (148, 211) to form an aerosol; and a conductive ink circuit (212, 222, 232, 242) embedded within the first and second sections (210, 220), the power supply and the aerosol generation unit being electrically connected upon joining the first and second sections (210, 220), and each of the first and second sections (210, 220) having a portion of the conductive ink circuit (212, 222, 232, 242). an authenticated first section including, an aerosol generation unit (148, 211) having at least one heater; an authenticated second section including, a power supply configured to apply voltage to the at least one heater for heating a liquid in at least a portion of the aerosol generation unit (148, 211) to form an aerosol; and a conductive ink circuit (212, 222, 232, 242) embedded within the first and second sections (210, 220), the power supply and the aerosol generation unit being electrically connected upon joining the first and second sections (210, 220), and each of the first and second sections (210, 220) having a portion of the conductive ink circuit (212, 222, 232, 242).