mhurhangee/patent-ind-claim-en huggingface dataset:
Multipurpose tractor comprising a base structure , wheels and/or tracks , at least one electric motor , first tool means that can perform work in a work area A located on a first side of the base structure, second tool means that can perform work in a work area B located on the second side of the base structure, and a control means, the base structure consisting of a peripheral frame defining an opening that forms a central work area (C'), at least two of said wheels and/or tracks comprising an integrated drive, the central work area (C') having no traction and/or transmission member connected to the movement of the tractor, said tractor being characterized in that the peripheral frame comprises at least two side members bearing at least one battery which powers the motors of the wheels .
An autoinjector comprising: a case , a syringe carrier slidably disposed within the case , the syringe carrier adapted to hold a syringe including a stopper ; a plunger slidably disposed within the syringe carrier , the plunger adapted to apply a force on the stopper ; a drive spring disposed within the plunger and biasing the plunger relative to the syringe carrier ; a needle shroud slidably disposed within the case , the needle shroud telescopically arranged over the syringe carrier , and a control spring biasing the needle shroud to an extended position. a case , a syringe carrier slidably disposed within the case , the syringe carrier adapted to hold a syringe including a stopper ; a plunger slidably disposed within the syringe carrier , the plunger adapted to apply a force on the stopper ; a drive spring disposed within the plunger and biasing the plunger relative to the syringe carrier ; a needle shroud slidably disposed within the case , the needle shroud telescopically arranged over the syringe carrier , and a control spring biasing the needle shroud to an extended position.
A heat-pump hot-water supply outdoor unit comprising: a box-shaped heat insulator ; and a water-refrigerant heat exchanger accommodated in the heat insulator and configured to heat water with refrigerant, wherein an inner bottom portion of the heat insulator has an uneven shape with a protruding portion and a recessed portion , and the water-refrigerant heat exchanger is placed on the protruding portion , characterized in that the recessed portion is formed with a drain hole extending through the inner bottom portion , the inner bottom portion includes a plurality of the protruding portions , and a plurality of the protruding portions are spaced apart from each other in a direction oriented in a longitudinal direction of the water-refrigerant heat exchanger when the water-refrigerant heat exchanger is viewed in plan. a box-shaped heat insulator ; and a water-refrigerant heat exchanger accommodated in the heat insulator and configured to heat water with refrigerant, an inner bottom portion of the heat insulator has an uneven shape with a protruding portion and a recessed portion , and the water-refrigerant heat exchanger is placed on the protruding portion , the recessed portion is formed with a drain hole extending through the inner bottom portion , the inner bottom portion includes a plurality of the protruding portions , and a plurality of the protruding portions are spaced apart from each other in a direction oriented in a longitudinal direction of the water-refrigerant heat exchanger when the water-refrigerant heat exchanger is viewed in plan.
Artificial neuron (1; 1') comprising: - a capacitance, called membrane capacitance (Cm), - an input, called external synaptic excitation current (I ex ), the membrane capacitance (Cm) integrating this input current, - a negative feedback pulse circuit supplied by a power supply (Vs, Vd) at negative voltage (Vs) lying between -200 mV and 0 mV and at positive voltage (Vd) lying between 0 mV and + 200 mV, consisting of: o a bridge based on PMOS and NMOS transistors in series and connected, at the drains thereof, by a midpoint to the membrane capacitance (Cm), this midpoint defining the output of the artificial neuron (1; 1'), o at least one capacitance, called delay capacitance (Cna, Ck), between the gate and the source of one of the transistors of the bridge, - only two CMOS inverters connected in a cascade-like manner, each being composed of two transistors, the input of the first inverter being connected to the membrane capacitance (Cm) and the output of said inverter being connected to the input of the second inverter and to the gate of one of the transistors (7; 8) of the bridge, the output of the second inverter being connected to the gate of the other transistor (7; 8) of the bridge, the artificial neuron comprising only six transistors. - a capacitance, called membrane capacitance (Cm), - an input, called external synaptic excitation current (I ex ), the membrane capacitance (Cm) integrating this input current, - a negative feedback pulse circuit supplied by a power supply (Vs, Vd) at negative voltage (Vs) lying between -200 mV and 0 mV and at positive voltage (Vd) lying between 0 mV and + 200 mV, consisting of: o a bridge based on PMOS and NMOS transistors in series and connected, at the drains thereof, by a midpoint to the membrane capacitance (Cm), this midpoint defining the output of the artificial neuron (1; 1'), o at least one capacitance, called delay capacitance (Cna, Ck), between the gate and the source of one of the transistors of the bridge, o a bridge based on PMOS and NMOS transistors in series and connected, at the drains thereof, by a midpoint to the membrane capacitance (Cm), this midpoint defining the output of the artificial neuron (1; 1'), o at least one capacitance, called delay capacitance (Cna, Ck), between the gate and the source of one of the transistors of the bridge, - only two CMOS inverters connected in a cascade-like manner, each being composed of two transistors, the input of the first inverter being connected to the membrane capacitance (Cm) and the output of said inverter being connected to the input of the second inverter and to the gate of one of the transistors (7; 8) of the bridge, the output of the second inverter being connected to the gate of the other transistor (7; 8) of the bridge, the artificial neuron comprising only six transistors.
An internal combustion engine having a bearing arrangement of a first camshaft and a second camshaft on a cylinder head of the internal combustion engine, in which the particular camshaft is rotatably mounted on the cylinder head and has a recess that is formed in a particular outer circumferential jacket surface of the particular camshaft and is open to the outside in the radial direction of the particular camshaft , into which recess a tool can be inserted and thereby brought into positive engagement with the particular camshaft , whereby the particular camshaft can be secured against rotation by means of the tool, wherein the particular recess is arranged offset in the radial direction with respect to the particular center (M) of the particular camshaft , and wherein a cylinder head cover is placed on the cylinder head and the camshafts , which cylinder head cover has, for each recess , a through opening associated with the particular recess through which the tool can be inserted, characterized in that a first wall region (W1) of the cylinder head cover at least partially delimiting a first of the through openings and a second wall region (W2) of the cylinder head cover at least partially delimiting a second of the through openings and the recesses are arranged at different heights.
A planar antenna having at least one mmWave resonant frequency, comprising: a ground plane disposed on a substrate ; a first antenna element disposed on the substrate; a second antenna element disposed on the substrate; an arm disposed on the substrate, the arm connecting the second antenna element to the ground plane; a feed line disposed on the substrate and connected to the first antenna element, the feed line for feeding a radio frequency signal to the first antenna element; and a balun disposed on the substrate and connecting the first antenna element to the ground plane independently from the arm , wherein the balun is configured to electrically balance the antenna; and wherein the ground plane, first antenna element, second antenna element, arm, feed line and balun are coplanar, characterized in that the second antenna element and the arm are separate from the feed line , the first antenna element and the balun so that a conductive pathway between the first and second antenna elements is not present other than by way of the ground plane . a ground plane disposed on a substrate ; a first antenna element disposed on the substrate; a second antenna element disposed on the substrate; an arm disposed on the substrate, the arm connecting the second antenna element to the ground plane; a feed line disposed on the substrate and connected to the first antenna element, the feed line for feeding a radio frequency signal to the first antenna element; and a balun disposed on the substrate and connecting the first antenna element to the ground plane independently from the arm , wherein the balun is configured to electrically balance the antenna; and wherein the ground plane, first antenna element, second antenna element, arm, feed line and balun are coplanar, characterized in that the second antenna element and the arm are separate from the feed line , the first antenna element and the balun so that a conductive pathway between the first and second antenna elements is not present other than by way of the ground plane .
A polypeptide represented by the following formula : W-L 1 -X n -Y ... in which W represents an amino acid sequence of the entirety of P domain of the capsid protein of norovirus as an immunogen; L 1 represents a first linker sequence having 10 to 40 amino acids; X represents an amino acid sequence represented by SEQ ID NO: 1; Y represents an amino acid sequence of a cell introduction domain; and repetition number n of X is an integer of 1 to 3, wherein the amino acid sequence of the cell introduction domain Y is represented by the following formula : Y 1 -L 2 -Y 2 -Y 3 ... in which Y 1 represents an amino acid sequence of SEQ ID NO: 2; Y 2 represents any one amino acid sequence selected from the group consisting of SEQ ID NOs: 6 to 9; L 2 represents a second linker sequence having 0 to 5 amino acids; Y 3 represents an amino acid sequence for purifying or protecting the polypeptide; and either of Y 2 and Y 3 may be absent, wherein the amino acid sequence represented by X n , Y 1 or Y 2 may be a modified amino acid sequence thereof obtained by deleting, substituting, or adding one or more amino acid residues from, with, or to the original amino acid sequence represented by X n , Y 1 or Y 2 included in formula or , the number of modifications of amino acid residues in each amino acid sequence is ≤ 2n in the case of X n ; ≤ 10 in the case of Y 1 ; and ≤ 5 in the case of Y 2 . in which W represents an amino acid sequence of the entirety of P domain of the capsid protein of norovirus as an immunogen; L 1 represents a first linker sequence having 10 to 40 amino acids; X represents an amino acid sequence represented by SEQ ID NO: 1; Y represents an amino acid sequence of a cell introduction domain; and repetition number n of X is an integer of 1 to 3, wherein the amino acid sequence of the cell introduction domain Y is represented by the following formula : Y 1 -L 2 -Y 2 -Y 3 ... in which Y 1 represents an amino acid sequence of SEQ ID NO: 2; Y 2 represents any one amino acid sequence selected from the group consisting of SEQ ID NOs: 6 to 9; L 2 represents a second linker sequence having 0 to 5 amino acids; Y 3 represents an amino acid sequence for purifying or protecting the polypeptide; and either of Y 2 and Y 3 may be absent, wherein the amino acid sequence represented by X n , Y 1 or Y 2 may be a modified amino acid sequence thereof obtained by deleting, substituting, or adding one or more amino acid residues from, with, or to the original amino acid sequence represented by X n , Y 1 or Y 2 included in formula or , the number of modifications of amino acid residues in each amino acid sequence is ≤ 2n in the case of X n ; ≤ 10 in the case of Y 1 ; and ≤ 5 in the case of Y 2 .
A method, comprising: providing a first view of a virtual environment to a first head-mounted display (HMD), the first view being defined from a first location in the virtual environment, and associated to a first virtual character having a first view direction towards a virtual object in the virtual environment; simultaneous with the providing the first view, providing a second view of the virtual environment to a second HMD, the second view being defined from the first location in the virtual environment, and associated to a second virtual character in the virtual environment; characterised by providing the second view includes rendering the first virtual character in the second view, the rendering of the first virtual character in the second view being configured to present the first virtual character as having a second location in the virtual environment, the rendering of the first virtual character in the second view being further configured to present the first virtual character as having a second view direction that is adjusted relative to the first view direction so as to be towards the virtual object as shown in the second view. providing a first view of a virtual environment to a first head-mounted display (HMD), the first view being defined from a first location in the virtual environment, and associated to a first virtual character having a first view direction towards a virtual object in the virtual environment; simultaneous with the providing the first view, providing a second view of the virtual environment to a second HMD, the second view being defined from the first location in the virtual environment, and associated to a second virtual character in the virtual environment; characterised by providing the second view includes rendering the first virtual character in the second view, the rendering of the first virtual character in the second view being configured to present the first virtual character as having a second location in the virtual environment, the rendering of the first virtual character in the second view being further configured to present the first virtual character as having a second view direction that is adjusted relative to the first view direction so as to be towards the virtual object as shown in the second view.
A capacitive measuring tilt sensor , in particular a capacitive evaluated circular bubble level configured for measuring two axis level information, comprising, ▪ a cavity comprising a fluid and a bubble of a gas with dissimilar relative dielectric constants, which cavity is configured with, o an electrically conducting or conductively plated dome forming a dome electrode, and o a base with at least three, preferably four, bottom electrodes , ▪ a capacitance measuring unit configured to determine electrical capacitances between the dome electrode and each of the bottom electrodes , and ▪ an evaluation unit configured to derive a tilt information on basis of the capacitances , ▪ wherein the base is configured as an electronic PCB comprising conductive circuit tracks and isolating base material , and the bottom electrodes are formed by the circuit tracks of the PCB under the dome , wherein ▪ the cavity and the fluid are configured in such a way, that the bubble touches a top of the dome and the base , characterized in that ▪ the bottom electrodes are covered by a layer of material in-between the electrodes and the fluid , which layer is configured to provide a surface that is configured to be wetted by the fluid , in particular to interact with the fluid in such a way that an at least monomolecular film of the fluid covers the layer . ▪ a cavity comprising a fluid and a bubble of a gas with dissimilar relative dielectric constants, which cavity is configured with, o an electrically conducting or conductively plated dome forming a dome electrode, and o a base with at least three, preferably four, bottom electrodes , o an electrically conducting or conductively plated dome forming a dome electrode, and o a base with at least three, preferably four, bottom electrodes , ▪ a capacitance measuring unit configured to determine electrical capacitances between the dome electrode and each of the bottom electrodes , and ▪ an evaluation unit configured to derive a tilt information on basis of the capacitances , ▪ wherein the base is configured as an electronic PCB comprising conductive circuit tracks and isolating base material , and the bottom electrodes are formed by the circuit tracks of the PCB under the dome , wherein ▪ the cavity and the fluid are configured in such a way, that the bubble touches a top of the dome and the base , characterized in that ▪ the bottom electrodes are covered by a layer of material in-between the electrodes and the fluid , which layer is configured to provide a surface that is configured to be wetted by the fluid , in particular to interact with the fluid in such a way that an at least monomolecular film of the fluid covers the layer .
A load balancing method for allocating a to-be-processed task in a load balancing cluster, comprising: determining (S301) topology information of each of a plurality of pods in the load balancing cluster comprising at least two nodes which include a first node, wherein a pod is a smallest management unit in the cluster and the plurality of pods are distributed on at the least two nodes; determining (S302) a weight of each of the plurality of pods based on the topology information of each pod, wherein the weight of a pod reflects a topological location relationship of the pod with respect to the first node , a value of the weight reflecting a quantity of layers of switches between a node in which each pod is located and the first node; and selecting a target pod from the plurality of pods based on the weight of each pod, wherein the target pod is configured to process the currently to-be-processed task in the first node. determining (S301) topology information of each of a plurality of pods in the load balancing cluster comprising at least two nodes which include a first node, wherein a pod is a smallest management unit in the cluster and the plurality of pods are distributed on at the least two nodes; determining (S302) a weight of each of the plurality of pods based on the topology information of each pod, wherein the weight of a pod reflects a topological location relationship of the pod with respect to the first node , a value of the weight reflecting a quantity of layers of switches between a node in which each pod is located and the first node; and selecting a target pod from the plurality of pods based on the weight of each pod, wherein the target pod is configured to process the currently to-be-processed task in the first node.
An object comprising: a body additively manufactured, formed of an electrically non-conductive material an electrically conductive channel embedded within the body ; a sensing device in electrical communication with the electrically conductive channel, wherein the sensing device is affected by a disruption in a current applied through the electrically conductive channel , said sensing device being embedded within the body ; and a signal emitter to emit a wireless signal in response to the sensing device being affected by a disruption in the applied current, said signal emitter being embedded within the body. a body additively manufactured, formed of an electrically non-conductive material an electrically conductive channel embedded within the body ; a sensing device in electrical communication with the electrically conductive channel, wherein the sensing device is affected by a disruption in a current applied through the electrically conductive channel , said sensing device being embedded within the body ; and a signal emitter to emit a wireless signal in response to the sensing device being affected by a disruption in the applied current, said signal emitter being embedded within the body.
A battery charging method, comprising: measuring a temperature of a battery; estimating a state of charge, SOC, and a state of health, SOH, of the battery; acquiring an F mapping relationship that maps F values to C-rates and SOCs at the temperature and the SOH, the F value denoting a ratio of variation of SOC to variation of voltage; and generating a charging profile that is a sequence of charging C-rates for each of the SOCs for charging the battery,. wherein the generating of the charging profile comprises: extracting F values corresponding to the estimated SOC from the F mapping relationship; determining a charging C-rate corresponding to the estimated SOC based on the F values corresponding to the estimated SOC; extracting F values corresponding to a subsequent SOC of the estimated SOC from the F mapping relationship; and determining a charging C-rate corresponding to the subsequent SOC based on the F values corresponding to the subsequent SOC. measuring a temperature of a battery; estimating a state of charge, SOC, and a state of health, SOH, of the battery; acquiring an F mapping relationship that maps F values to C-rates and SOCs at the temperature and the SOH, the F value denoting a ratio of variation of SOC to variation of voltage; and generating a charging profile that is a sequence of charging C-rates for each of the SOCs for charging the battery,. wherein the generating of the charging profile comprises: extracting F values corresponding to the estimated SOC from the F mapping relationship; determining a charging C-rate corresponding to the estimated SOC based on the F values corresponding to the estimated SOC; extracting F values corresponding to a subsequent SOC of the estimated SOC from the F mapping relationship; and determining a charging C-rate corresponding to the subsequent SOC based on the F values corresponding to the subsequent SOC. extracting F values corresponding to the estimated SOC from the F mapping relationship; determining a charging C-rate corresponding to the estimated SOC based on the F values corresponding to the estimated SOC; extracting F values corresponding to a subsequent SOC of the estimated SOC from the F mapping relationship; and determining a charging C-rate corresponding to the subsequent SOC based on the F values corresponding to the subsequent SOC.
A carbon nanotube (CNT) cable, comprising: a pair of plated twisted wires, each wire comprising one or more sub-cores, at least one sub-core comprising CNT yarn, the CNT yarn being chemically pretreated using chlorosulfonic acid; a dielectric surrounding the plated twisted wires; and an electrical layer surrounding the dielectric, the electical layer shielding the CNT cable. a pair of plated twisted wires, each wire comprising one or more sub-cores, at least one sub-core comprising CNT yarn, the CNT yarn being chemically pretreated using chlorosulfonic acid; a dielectric surrounding the plated twisted wires; and an electrical layer surrounding the dielectric, the electical layer shielding the CNT cable.