mhurhangee/ep-ind-claims huggingface dataset:
A genetically modified mouse, whose germline genome comprises: a first engineered endogenous immunoglobulin κ light chain locus comprising: (a) one or more human Vλ gene segments, (b) one or more human Jλ gene segments, and (c) one mouse Cλ gene, wherein the one or more human Vλ gene segments of (a) and the one or more human Jλ gene segments of (b) are in place of one or more endogenous mouse Vκ gene segments and one or more endogenous mouse Jκ gene segments; wherein the one or more human Vλ gene segments of (a) and the one or more human Jλ gene segments of (b) are operably linked to the one mouse Cλ gene of (c); wherein the genetically modified mouse comprises a population of B cells that express antibodies, wherein the antibodies include immunoglobulin λ light chains that each include a human immunoglobulin λ light chain variable domain; and wherein the genetically modified mouse lacks a mouse Cκ gene at the first engineered endogenous immunoglobulin k light chain locus. a first engineered endogenous immunoglobulin κ light chain locus comprising: (a) one or more human Vλ gene segments, (b) one or more human Jλ gene segments, and (c) one mouse Cλ gene, (a) one or more human Vλ gene segments, (b) one or more human Jλ gene segments, and (c) one mouse Cλ gene, wherein the one or more human Vλ gene segments of (a) and the one or more human Jλ gene segments of (b) are in place of one or more endogenous mouse Vκ gene segments and one or more endogenous mouse Jκ gene segments; wherein the one or more human Vλ gene segments of (a) and the one or more human Jλ gene segments of (b) are operably linked to the one mouse Cλ gene of (c); wherein the genetically modified mouse comprises a population of B cells that express antibodies, wherein the antibodies include immunoglobulin λ light chains that each include a human immunoglobulin λ light chain variable domain; and wherein the genetically modified mouse lacks a mouse Cκ gene at the first engineered endogenous immunoglobulin k light chain locus.
A GNSS receiver, comprising: - a plurality of circuits configured to receive positioning signals comprising a carrier modulated by a subcarrier and a PRN code, from a plurality of satellites in GNSS constellations, - a plurality of first signal processing channels configured for processing a first selection of said positioning signals and determining associated first pseudo ranges, - at least one second signal processing channel configured for processing a second selection of said positioning signals, and determining associated second pseudo ranges, and - a computer logic configured for calculating an unbiased position and time measurement, Wherein: - the first pseudo ranges are non-ambiguous pseudo ranges determined from the subcarrier and code of positioning signals, - the second pseudo ranges are ambiguous pseudo ranges determined from the subcarrier and code of positioning signals, the GNSS receiver being characterized in that the computer logic is configured to calculate the unbiased position and time measurement from the first and second pseudo ranges, all said pseudo ranges being determined from positioning signals originating from distinct satellites. - a plurality of circuits configured to receive positioning signals comprising a carrier modulated by a subcarrier and a PRN code, from a plurality of satellites in GNSS constellations, - a plurality of first signal processing channels configured for processing a first selection of said positioning signals and determining associated first pseudo ranges, - at least one second signal processing channel configured for processing a second selection of said positioning signals, and determining associated second pseudo ranges, and - a computer logic configured for calculating an unbiased position and time measurement, - the first pseudo ranges are non-ambiguous pseudo ranges determined from the subcarrier and code of positioning signals, - the second pseudo ranges are ambiguous pseudo ranges determined from the subcarrier and code of positioning signals,
A hair care appliance comprising a body; a fluid flow path extending through the body from a fluid inlet through which a fluid flow enters the appliance to a fluid outlet for emitting the fluid flow from a front end of the body; and an attachment for adjusting at least one parameter of fluid emitted from the appliance, the attachment comprising an upstream end for attaching to the appliance, the front end of the body including a number of magnets radially spaced around an end wall, the end wall extending radially inwards of the outer wall of the body, the number of magnets coupling with a ring of magnetic material provided at the upstream end of the outer wall of the attachment, the ring of magnetic material being fully exposed or partially concealed at an upstream face of the upstream end, and both parts of of the magnetic attachment being flush with the respective end wall and the upstream face.
A method for operating a first base station for a wireless communication system, the method comprising: transmitting, to a second base station, first information related to channel state information, CSI, of terminals that are served by the base station and second information related to usage of resources of the first base station by the first base station; and receiving, from the second base station, third information that is determined based on the first information and the second information, wherein the first information includes at least one index for at least one CSI process configuration and at least one channel quality indicator, CQI, and wherein the third information includes information regarding utilization constraint of resources. transmitting, to a second base station, first information related to channel state information, CSI, of terminals that are served by the base station and second information related to usage of resources of the first base station by the first base station; and receiving, from the second base station, third information that is determined based on the first information and the second information, wherein the first information includes at least one index for at least one CSI process configuration and at least one channel quality indicator, CQI, and wherein the third information includes information regarding utilization constraint of resources.
Refrigerator, in particular domestic refrigerator, having at least one storage shelf, which is mounted on a pivot arm hinged on a first axis fixed to the housing, which is hinged on a second axis on the storage shelf which is parallel to the axis fixed to the housing, such that the storage shelf is height-adjustable between a raised position and a down position along a substantially circular movement path, which is delimited by movement stops (20a, 20b), characterised in that the movement stops (20a, 20b) as stop sections are embodied directly on the pivot arm and can be brought into contact with a corresponding counter contour on the storage shelf.
Method for temporary communication between a device for configuration, interrogation and/or diagnosis that is a master unit for the period of the communication and a smart, configurable and/or interchangeable product such as an actuator, pre-actuator, sensor or detector that is a slave unit for the period of the communication, with said product comprising at least one processing unit, a direct current power supply input or power supply line, and at least one output line and/or output interface, with said product being connected, in running operation in its usual application, to at least one evaluation and power supply system by its power supply input or power supply line and by its output interface or output line, method characterised in that it consists, the product being independent of the device in running operation, in connecting it as a slave product to the master device, while the product is disconnected from the system, and then for the purpose of a configuration, a calibration, a parameterization, an interrogation or else a test or a diagnosis, in transmitting to the product data that can be interpreted by its processing unit by means of the power supply line, by creating a modulation of the power supply voltage and in transmitting data back from the product to the device by means of the output line or output interface connected to said device.
A power generator circuit comprising first and second clamping means and sampling means, characterized in that: said first clamping means is configured to clamp the high level of a clock pulse having a phase opposite the phase of the input clock to a reference voltage at or lower than ground level; said second clamping means is configured to clamp the high level of a clock pulse, having a positive phase with respect to the input clock phase, to a reference voltage at or lower than ground level; wherein a positive feedback is applied between the first and second clamping means (35, 36); said sampling means is configured to sample the high level of the clamped output of the first clamping means based on the high level of the clamped output of the second clamping means, wherein a negative power supply voltage with respect to the reference voltage is generated; wherein said power generator circuit has a first and second condenser (33, 34) in the pre-stage of said first and said second clamping means (35, 36;) to cut the respective direct current components of said reverse phase clock and said positive phase clock; wherein said first clamping means is comprised of a PMOS transistor connected between the output end of the first condenser and ground and having a gate connected to the output end of the second condenser; wherein said second clamping means is comprised of a PMOS transistor connected between the output end of the second condenser and ground and having a gate connected to the output end of the first condenser; and wherein said sampling means is comprised of an NMOS transistor connected between the output end of the second condenser and a circuit output terminal and having a gate connected to the output end of the first condenser. said first clamping means is configured to clamp the high level of a clock pulse having a phase opposite the phase of the input clock to a reference voltage at or lower than ground level; said second clamping means is configured to clamp the high level of a clock pulse, having a positive phase with respect to the input clock phase, to a reference voltage at or lower than ground level; wherein a positive feedback is applied between the first and second clamping means (35, 36);
A hydrogen fuel system for providing hydrogen to a power generator, the hydrogen fuel system comprising: a fuel delivery assembly configured to receive hydrogen fuel from a hydrogen fuel source and to provide the hydrogen fuel from the hydrogen fuel source to the power generator; a purge gas source fluidly coupled to the fuel delivery assembly and configured to provide a purge gas to the fuel delivery assembly; a vent opening fluidly coupled to the fuel delivery assembly and configured to vent hydrogen fuel from the fuel delivery assembly when the purge gas is provided to the fuel delivery assembly; a vent line fluidly connecting the fuel delivery assembly to the vent opening a diverter valve fluidly coupling the fuel delivery assembly to the vent line, the diverter valve including a first position and a second position, wherein, in the first position, the diverter valve allows hydrogen fuel to flow through the fuel delivery assembly, and wherein, in the second position, the diverter valve closes off a portion of the hydrogen fuel system and fluidly couples the fuel delivery assembly to the vent line; and a fuel input array, the fuel delivery assembly being selectively fluidly coupled to the vent opening at a position upstream of the fuel input array. a fuel delivery assembly configured to receive hydrogen fuel from a hydrogen fuel source and to provide the hydrogen fuel from the hydrogen fuel source to the power generator; a purge gas source fluidly coupled to the fuel delivery assembly and configured to provide a purge gas to the fuel delivery assembly; a vent opening fluidly coupled to the fuel delivery assembly and configured to vent hydrogen fuel from the fuel delivery assembly when the purge gas is provided to the fuel delivery assembly; a vent line fluidly connecting the fuel delivery assembly to the vent opening a diverter valve fluidly coupling the fuel delivery assembly to the vent line, the diverter valve including a first position and a second position, wherein, in the first position, the diverter valve allows hydrogen fuel to flow through the fuel delivery assembly, and wherein, in the second position, the diverter valve closes off a portion of the hydrogen fuel system and fluidly couples the fuel delivery assembly to the vent line; and a fuel input array, the fuel delivery assembly being selectively fluidly coupled to the vent opening at a position upstream of the fuel input array.
A method comprising: receiving a resource assignment; determining a first set of time-frequency resources in a subframe from the resource assignment; determining a second set of time-frequency resources in the subframe, the second set of time-frequency resources used for a low latency data transmission, and the second set of time-frequency resources overlapping with at least a portion of the first set of time-frequency resources; and decoding a regular latency data transmission in the subframe based on the determined first and second set of time-frequency resources, where the regular latency transmission has a longer latency than the low latency transmission, characterized by further comprising adjusting log likelihood ratio values of bits corresponding to regular latency data transmission and mapped to the second set of time-frequency resources, wherein decoding further comprises decoding the regular latency transmission in the subframe based on the adjusted log likelihood ratio. receiving a resource assignment; determining a first set of time-frequency resources in a subframe from the resource assignment; determining a second set of time-frequency resources in the subframe, the second set of time-frequency resources used for a low latency data transmission, and the second set of time-frequency resources overlapping with at least a portion of the first set of time-frequency resources; and decoding a regular latency data transmission in the subframe based on the determined first and second set of time-frequency resources, where the regular latency transmission has a longer latency than the low latency transmission, characterized by further comprising adjusting log likelihood ratio values of bits corresponding to regular latency data transmission and mapped to the second set of time-frequency resources, wherein decoding further comprises decoding the regular latency transmission in the subframe based on the adjusted log likelihood ratio.
A device for current and/or voltage measurement in an industrial and automation control system, in particular a substation or power grid automation system, comprising an input circuit configured to receive an electrical input signal (100, 101, 102), to scale the electrical input signal by a scaling factor, to receive a scaling signal, and to set the scaling factor according to the scaling signal to at least a first or a second value, an Analog-to-Digital Converter, ADC, having an analog end, the analog end being electrically connected to the input circuit, and a digital end, wherein the ADC is configured to convert the scaled electrical input signal into an intermediate digital signal and to output the intermediate digital signal at the digital end, a first signal path connected to the digital end of the ADC and configured to create the scaling signal and to send the scaling signal to the input circuit, and a second signal path connected to the digital end of the ADC and configured to create a refined digital signal from the intermediate digital signal using the scaling factor, wherein the device is configured to set, based on the intermediate digital signal of a sample period and the scaling factor of the sample period, the scaling factor for a subsequent sample period, and wherein the second signal path has a second sampling rate and the first signal path has a first sampling rate higher than the second sampling rate. an input circuit configured to receive an electrical input signal (100, 101, 102), to scale the electrical input signal by a scaling factor, to receive a scaling signal, and to set the scaling factor according to the scaling signal to at least a first or a second value, an Analog-to-Digital Converter, ADC, having an analog end, the analog end being electrically connected to the input circuit, and a digital end, wherein the ADC is configured to convert the scaled electrical input signal into an intermediate digital signal and to output the intermediate digital signal at the digital end, a first signal path connected to the digital end of the ADC and configured to create the scaling signal and to send the scaling signal to the input circuit, and a second signal path connected to the digital end of the ADC and configured to create a refined digital signal from the intermediate digital signal using the scaling factor, wherein the device is configured to set, based on the intermediate digital signal of a sample period and the scaling factor of the sample period, the scaling factor for a subsequent sample period, and wherein the second signal path has a second sampling rate and the first signal path has a first sampling rate higher than the second sampling rate.
An indexable insert having a top side and an underside which are connected together by a peripherally extending side surface comprising a plurality of surface portions (2a, b, c, d), wherein at least a part of the intersection lines between the surface portions (2a, b, c, d) and the top side and the underside, respectively, form equivalent cutting edges (3a, b, c, d), the indexable insert in a plan view onto both, the top side and the underside (1, 1'), is in the shape of a non-rectangular parallelogram with an almost rhombic basic shape and has a notional intermediate plane which is spanned by four corners of a notional rhombus, whose sides (z1, z2, z3, z4) extend at a spacing relative to the top side and the underside along the peripherally extending side surface in a plane in such a way that each of the equivalent cutting edges (3a, c; 3b', d') of the top side and the underside has the same variation in spacing and angle relative to the intermediate plane, wherein two mutually diagonally opposite corners (4a, 4c) of the top side and two corresponding diagonally opposite corners of the underside (4a', 4c') are at a greater spacing from the intermediate plane than the respective interposed mutually diagonally opposite corners (4b, 4d; 4b', 4d') of the top side and the underside, wherein the mutually diagonally opposite corners (4a, b, c, d) of the top side as well as the mutually diagonally opposite corners (4a', 4b', 4c', 4d') of the underside are displaced in parallel relationship with the intermediate plane and in the plan view onto the intermediate plane, in mutually opposite directions away from the associated diagonal (d1, d2) of the rhombus spanning the intermediate plane, and wherein the rhombus which defines the intermediate plane and which is spanned by sides (z 1, z 2, z 3, z 4) extending along the peripherally extending side surface is non-rectangular and includes at its acute-angled corners an angle of between 60° and 88°, characterized in that the top side and the underside are respectively formed by two substantially triangular surfaces (1a, b) of which a respective tip coincides with the acute-angled corner of the parallelogram-shaped top side and underside, respectively, wherein the sides of the triangular surfaces, that are opposite of said tip, extend parallel to each other and extend approximately between the obtuse-angled corners of the parallelogram shape and wherein said triangular surfaces include an angle of between about 110 and 165°, preferably between 135 and 155°.
A method of establishing a Packet Data Unit, PDU, session in a data communications network, comprising: receiving, by a component of the data communications network, a create session request from a Mobility Management Entity, MME, of a 4G network, the component having interworking functionality to interwork between the MME and a Session Management Function, SMF, of a 5G network; generating, by the component of the data communications network, a create session management context request; transmitting, by the component of the data communications network, the generated create session management context request to the SMF; receiving, by the component of the data communications network, a create session management context request response from the SMF; generating, by the component of the data communications network, a create session request response; and transmitting, by the component of the data communications network, the create session request response to the MME; characterized by receiving a modify bearer request from the MME; generating an update session management context request; transmitting the generated update session management context request to the SMF; receiving an update session management context request response from the SMF; generating a modify bearer request response; and transmitting the modify bearer request response to the MME. receiving, by a component of the data communications network, a create session request from a Mobility Management Entity, MME, of a 4G network, the component having interworking functionality to interwork between the MME and a Session Management Function, SMF, of a 5G network; generating, by the component of the data communications network, a create session management context request; transmitting, by the component of the data communications network, the generated create session management context request to the SMF; receiving, by the component of the data communications network, a create session management context request response from the SMF; generating, by the component of the data communications network, a create session request response; and transmitting, by the component of the data communications network, the create session request response to the MME; characterized by receiving a modify bearer request from the MME; generating an update session management context request; transmitting the generated update session management context request to the SMF; receiving an update session management context request response from the SMF; generating a modify bearer request response; and transmitting the modify bearer request response to the MME.