mhurhangee/ep-ind-claims huggingface dataset:
A wound rotor for a rotating electrical machine having a shaft rotating around an axis of rotation and a core extending longitudinally along and radially around said axis of rotation, said core comprising a plurality of coils having first and second lateral parts positioned in corresponding first and second cavities of said core, said first and second lateral parts of said coils being reciprocally connected by corresponding coil heads, wherein the wound rotor comprises supporting and retaining means of said coil heads, said supporting and retaining means comprising a supporting ring rigidly connected to said core, concentrically positioned with respect to said axis of rotation, and internally positioned in the radial direction with respect to said coil heads, characterized in that the wound rotor comprises a plurality of fixing plates (60, 70, 80) externally positioned in the radial direction with respect to said coil heads and rigidly connected to said supporting ring, said coil heads being interposed between said supporting ring and said fixing plates (60, 70, 80)
A spectrometer (100; 200; 500; 720) comprising: an image sensor (110; 10) comprising a pixel array (111; 210; 510); and a photonics layer (120; 20) disposed on the pixel array (111; 210; 510) and comprising a plurality of resonators (241, 242; 340; 341, 342; 540) and a plurality of couplers (121, 123; 221, 222, 231, 232; 320, 330; 521, 522, 531, 532) evanescently coupled to the plurality of resonators (241, 242; 340; 341, 342; 540), wherein at least two couplers of the plurality of couplers (121, 123; 221, 222, 231, 232; 320, 330; 521, 522, 531, 532) are arranged in succession in each row of the pixel array (111; 210; 510), and wherein the photonics layer (120; 20) comprises a plurality of detection areas, the plurality of resonators (241, 242; 340; 341, 342; 540) disposed in one of the plurality of detection areas comprise in each row of the pixel array at least two types of resonators (241, 242; 340; 341, 342; 540) having at least two different wavelength characteristics. an image sensor (110; 10) comprising a pixel array (111; 210; 510); and a photonics layer (120; 20) disposed on the pixel array (111; 210; 510) and comprising a plurality of resonators (241, 242; 340; 341, 342; 540) and a plurality of couplers (121, 123; 221, 222, 231, 232; 320, 330; 521, 522, 531, 532) evanescently coupled to the plurality of resonators (241, 242; 340; 341, 342; 540), wherein at least two couplers of the plurality of couplers (121, 123; 221, 222, 231, 232; 320, 330; 521, 522, 531, 532) are arranged in succession in each row of the pixel array (111; 210; 510), and wherein the photonics layer (120; 20) comprises a plurality of detection areas, the plurality of resonators (241, 242; 340; 341, 342; 540) disposed in one of the plurality of detection areas comprise in each row of the pixel array at least two types of resonators (241, 242; 340; 341, 342; 540) having at least two different wavelength characteristics.
Knitted textile fabric having a base structure and pile loops anchored therein, wherein a plurality of self-standing pile loops are arranged on the base structure by means of drop stitch tied on one side, the two legs of which pile loops are arranged on the same stitch wale, wherein the height of the pile loops is greater than the distance between the stitch wales and the knitted fabric has between 5.5 and 8.6 stitch wales per centimetre, and wherein the pile loops are arranged only on the technically reverse side of the product and the knitted fabric has between 14 and 40 stitch courses per centimetre.
An electric range, comprising: a case having an inner space and an upper portion being open; a base plate disposed in the inner space to separate the inner space into the upper portion and a lower portion of the case; a substrate and an air blowing fan in the lower portion of the case, a working coil disposed in the upper portion and on the base plate (108; and an air guide disposed under/below the base plate in the lower portion of the case, the air guide is configured to cover the substrate, and having an inlet disposed at the air blowing fan; characterised by an elastic supporter disposed between the air guide and the base plate, and configured to elastically support different positions of a lower surface of the base plate. a case having an inner space and an upper portion being open; a base plate disposed in the inner space to separate the inner space into the upper portion and a lower portion of the case; a substrate and an air blowing fan in the lower portion of the case, a working coil disposed in the upper portion and on the base plate (108; and an air guide disposed under/below the base plate in the lower portion of the case, the air guide is configured to cover the substrate, and having an inlet disposed at the air blowing fan; characterised by an elastic supporter disposed between the air guide and the base plate, and configured to elastically support different positions of a lower surface of the base plate.
A XNOR compute in memory, CIM, bit cell circuit comprising: a static random access memory, SRAM, bit cell coupled to a system voltage and a ground; a first signal line coupled to the SRAM bit cell; a second signal line coupled to the SRAM bit cell; a third signal line coupled to the SRAM bit cell; a fourth signal line coupled to the SRAM bit cell; a read transistor coupled to a first read signal line, an output of the SRAM bit cell, and a first read bit line; a capacitor coupled to the SRAM bit cell output and the system voltage; wherein the SRAM bit cell comprises a first transistor coupled to the first signal line, a second transistor coupled to the second signal line, a third transistor coupled to the third signal line, and a fourth transistor coupled to the fourth signal line; wherein the SRAM bit cell comprises four transistors configured as a first inverter and a second inverter to perform a latch function on a data bit; and wherein the first transistor is a P type transistor, the second transistor is a P type transistor, the third transistor is an N type transistor, and a fourth transistor is an N type transistor. a static random access memory, SRAM, bit cell coupled to a system voltage and a ground; a first signal line coupled to the SRAM bit cell; a second signal line coupled to the SRAM bit cell; a third signal line coupled to the SRAM bit cell; a fourth signal line coupled to the SRAM bit cell; a read transistor coupled to a first read signal line, an output of the SRAM bit cell, and a first read bit line; a capacitor coupled to the SRAM bit cell output and the system voltage; wherein the SRAM bit cell comprises a first transistor coupled to the first signal line, a second transistor coupled to the second signal line, a third transistor coupled to the third signal line, and a fourth transistor coupled to the fourth signal line; wherein the SRAM bit cell comprises four transistors configured as a first inverter and a second inverter to perform a latch function on a data bit; and wherein the first transistor is a P type transistor, the second transistor is a P type transistor, the third transistor is an N type transistor, and a fourth transistor is an N type transistor.
An apparatus for generating a dynamic model and a dynamic simulation result to determine a specification for at least one of a design of a plant, devices in the plant, and a sizing of the plant, and/or to check a dynamic behavior of the plant, the apparatus, comprising: a static model acquiring unit configured to acquire a static model; a storage unit configured to store the static model; a result acquiring unit configured to acquire a simulation result of the static model indicating a first steady state of the plant; an initial state generating unit configured to generate, based on the simulation result, a first initial value of a state parameter of a dynamic model that is a model calculating a dynamic state of the plant; and a dynamic plant simulator configured to provide the dynamic simulation result of the plant based on the dynamic model, characterized in that the initial state generating unit is further configured to convert one of a unit, a physical amount, and a variable of a state parameter value of at least one device of the plant included in the static model into the first initial value of the state parameter of at least one corresponding device ot the plant in the dynamic model that respectively corresponds to the at least one device included in the static model, the state parameter value being calculated by a simulation using the static model. a static model acquiring unit configured to acquire a static model; a storage unit configured to store the static model; a result acquiring unit configured to acquire a simulation result of the static model indicating a first steady state of the plant; an initial state generating unit configured to generate, based on the simulation result, a first initial value of a state parameter of a dynamic model that is a model calculating a dynamic state of the plant; and a dynamic plant simulator configured to provide the dynamic simulation result of the plant based on the dynamic model, characterized in that the initial state generating unit is further configured to convert one of a unit, a physical amount, and a variable of a state parameter value of at least one device of the plant included in the static model into the first initial value of the state parameter of at least one corresponding device ot the plant in the dynamic model that respectively corresponds to the at least one device included in the static model, the state parameter value being calculated by a simulation using the static model.
A soluble T cell receptor, having high affinity for a peptide/MHC ligand exhibiting an affinity for that ligand between 10 7 M -1 to 10 10 M -1, wherein the soluble TCR is a mutant TCR carrying one or more mutations in CDR3α, and wherein the soluble TCR is made by a method comprising the steps of: (a) mutagenizing a nucleic acid encoding the soluble TCR to create mutant TCR coding sequences having one or more mutations in CDR3α; (b) transforming DNA comprising the mutant TCR coding sequences for mutant TCRs into yeast cells; (c) inducing expression of the mutant TCR coding sequences such that the mutant TCRs are displayed on the surface of yeast cells; (d) contacting the yeast cells with a fluorescent label which binds to the ligand to produce selected yeast cells; (e) isolating the yeast cells showing the highest fluorescence; (f) obtaining the mutant TCR coding sequence corresponding to the yeast cells showing highest fluorescence, introducing the mutant TCR coding sequence in a yeast secretion system, and producing soluble TCR in the yeast secretion system; and (g) isolating the soluble TCR from the yeast secretion system. (a) mutagenizing a nucleic acid encoding the soluble TCR to create mutant TCR coding sequences having one or more mutations in CDR3α; (b) transforming DNA comprising the mutant TCR coding sequences for mutant TCRs into yeast cells; (c) inducing expression of the mutant TCR coding sequences such that the mutant TCRs are displayed on the surface of yeast cells; (d) contacting the yeast cells with a fluorescent label which binds to the ligand to produce selected yeast cells; (e) isolating the yeast cells showing the highest fluorescence; (f) obtaining the mutant TCR coding sequence corresponding to the yeast cells showing highest fluorescence, introducing the mutant TCR coding sequence in a yeast secretion system, and producing soluble TCR in the yeast secretion system; and (g) isolating the soluble TCR from the yeast secretion system.
A filtering method for a micro-electromechanical system sensor rate signal comprising: providing a micro-electromechanical system sensor rate signal; characterized by subtracting from the micro-electromechanical system sensor rate signal, a feedback signal from a feedback loop, to produce a first combined signal; filtering the first combined signal to produce a filtered rate output; and subtracting the micro-electromechanical system sensor rate signal from the filtered rate output to produce an error signal, wherein the error signal is used in the feedback loop to generate a feedback signal for a future time step. providing a micro-electromechanical system sensor rate signal; characterized by subtracting from the micro-electromechanical system sensor rate signal, a feedback signal from a feedback loop, to produce a first combined signal; filtering the first combined signal to produce a filtered rate output; and subtracting the micro-electromechanical system sensor rate signal from the filtered rate output to produce an error signal, wherein the error signal is used in the feedback loop to generate a feedback signal for a future time step.
Connection system for hose lines with a lever arm coupling, consisting of a male coupling, a female coupling, two lever arms and a sealing ring, wherein the female coupling has a receiving region, the male coupling can be inserted into this receiving region, the sealing ring is inserted in the receiving region of the female coupling, the lever arms are arranged on the female coupling so as to be pivotable about an axis of rotation, have a pressing section for the male coupling with a cam and can take an open position, a closed position and an intermediate position, the pressing section has, from the axis of rotation and in the direction of the receiving region, a thickness d in the open position, a thickness a in the closed position and a thickness b in the intermediate position near the cam, and between the axis of rotation and the extremity of the cam a thickness c, with a > c > b > d, so that upon decoupling by pivoting the lever arms from the closed position to the intermediate position the male and female couplings (1, 2) are moved away from each other, and by pivoting the lever arms from the intermediate position to the open position, the male and female couplings (1, 2) are moved towards one another before they are completely decoupled, wherein the thickness d is sufficiently small so that the pressing section does not engage in the receiving region, and the male coupling can be freely inserted in and removed from the female coupling, wherein the cam of the lever arm is rounded, so that the cam has a curved but tapering shape and does not protrude squarely from the pressing section of the lever arm, so that the pressing section the lever arm is always tangentially in contact with the male coupling between the closed position and the intermediate position, and wherein the contact pressure between the female coupling or the male coupling and the sealing ring is reduced to allow a passage, so that the sealing ring does not seal completely in the intermediate position, and the pressure can escape from the hose.
Process for producing mat surfaces, characterized in that a radiation-curable coating agent is applied to a substrate, the radiation-curable coating of step is irradiated with UV-light of the wavelength ≥ 200 nm to ≤ 420 nm at a radiation dose of 25 to 120 mJ/cm 2, the coating obtained from step is irradiated with UV-light of the wavelength ≥ 120 nm to ≤ 230 nm, the coating obtainable from step is end-cured by means of actinic radiation, wherein in step the coating agent is applied to the substrate in a film thickness of ≥ 24 μm to ≤ 500 μm. a radiation-curable coating agent is applied to a substrate, the radiation-curable coating of step is irradiated with UV-light of the wavelength ≥ 200 nm to ≤ 420 nm at a radiation dose of 25 to 120 mJ/cm 2, the coating obtained from step is irradiated with UV-light of the wavelength ≥ 120 nm to ≤ 230 nm, the coating obtainable from step is end-cured by means of actinic radiation,
A method for monitoring an elevator car in which - by means of a mobile terminal device having a sensor, measurement values in an elevator car are collected, - the collected measurement values are transmitted by a mobile terminal device to a central evaluation unit, and - the transmitted measurement values are evaluated by the evaluation unit, characterized in that - the mobile terminal device activates a measurement mode, thus preparing itself for collection of measurement values, when it detects that it is located in the region of a shaft door (18a, 18b, 18c) of the elevator system. - by means of a mobile terminal device having a sensor, measurement values in an elevator car are collected, - the collected measurement values are transmitted by a mobile terminal device to a central evaluation unit, and - the transmitted measurement values are evaluated by the evaluation unit, - the mobile terminal device activates a measurement mode, thus preparing itself for collection of measurement values, when it detects that it is located in the region of a shaft door (18a, 18b, 18c) of the elevator system.
An integrated steering drive axle for a vehicle, used for mounting two wheels respectively at corresponding opposite sides thereof and driving the wheels to rotate and turn, comprising: an integrally rigid axle beam, which can be arranged to extend between the two wheels along a lateral direction of the vehicle; characterised by two motor drive systems mounted at the axle beam, each of which can independently drive a corresponding one of the two wheels to rotate and turn, wherein each motor drive system comprises: a first drive electric motor, arranged separately from the corresponding wheel; a first transmission mechanism, arranged between the first drive electric motor and the corresponding wheel and used for transferring the output power of the first drive electric motor to the corresponding wheel to drive the corresponding wheel to rotate; and a second drive electric motor, used for providing steering power necessary for turning the corresponding wheel. a first drive electric motor, arranged separately from the corresponding wheel; a first transmission mechanism, arranged between the first drive electric motor and the corresponding wheel and used for transferring the output power of the first drive electric motor to the corresponding wheel to drive the corresponding wheel to rotate; and a second drive electric motor, used for providing steering power necessary for turning the corresponding wheel.
Tray dispenser for dispensing of trays such as trays for packaging where the tray dispenser includes a tray dispenser cassette and a base station which can be placed on a stand and where the tray dispenser cassette can be interconnected to the base station wherein the base station contains the electronic components and where the tray dispenser cassette, containing solely mechanical components made of materials that are corrosion resistant, can be cleaned by immersion in a cleaning liquid, wherein the base station contains at least one motor which can operate the tray dispenser cassette via a mechanical coupling characterised in that the connection of the base station and the tray dispenser cassette is a snap coupling mechanism that connects opposing gear teeth or splines on the coupling surfaces resulting from axle couplings (17 and 18), wherein the tray dispenser cassette comprises the axle coupling which is operated by the base station via the mechanical coupling and which, via a power transmission component and a chain or a belt transfers the energy from the base station's motor to a plurality of tray dispenser augers.
A process for producing an alkali-free glass substrate comprising, by weight %, 50 to 70% of SiO 2, 1 to 20% of Al 2 O 3, 0 to 15% of B 2 O 3, 0 to 30% of MgO, 0 to 30% of CaO, 0 to 30% of SrO, and 0 to 30% of BaO, said process comprising melting and forming a glass raw material, characterized in that, in a cooling step during said forming, an average cooling rate in a temperature range from an annealing point to a temperature lowered by 100°C from the annealing temperature is 300°C/min or more.
A stretchable composite sheet comprising a stretch sheet and a nonstretch sheet laminated with the stretch sheet and having a first direction and a second direction perpendicular to the first direction, the stretch sheet having a first zone with elastic stretchability and a second zone with less elastic stretchability than that of the first zone, the first and the second zones (14, 15) extending in the first direction and alternate in the second direction, the stretch sheet and the nonstretch sheet being bonded to each other on their facing sides, with the stretch sheet being in its stretched state when bonded to the nonstretch sheet, the stretchable composite sheet as a whole having stretchability in at least the second direction, and the stretchable composite sheet having, in a natural, relaxed state, a large number of ridges extending in the first direction on the nonstretch sheet side in a portion where the stretch sheet and the nonstretch sheet are bonded to each other over substantially the entire area, the stretchable composite sheet having, in a natural, relaxed state, a large number of protrusions extending in the first direction on the side opposite to the nonstretch sheet side, wherein the ridges and the protrusions alternate with each other in the second direction, wherein the stretch sheet comprises two extensible nonwoven fabric layers (11, 12) and a large number of elastic filaments bonded to the nonwoven fabric layers (11, 12) in their substantially nonstretched state over the whole length thereof, the elastic filaments being arranged to extend in the same direction without intersecting with each other, and the stretch sheet having stretchability in the direction in which the elastic filaments extend, wherein the direction in which the elastic filaments extend is perpendicular to the first direction, and wherein the stretch sheet is obtained by stretching a precursor sheet of the stretch sheet between a pair of intermeshing toothed surfaces each having alternate ridges and grooves to form the first and the second zones in the precursor sheet.
A system comprising: a first plug (202; 310) including contacts (206; 314) disposed with rotational symmetry about a center point (210; 318) of the first plug (202; 310); a second plug (220; 312) including contacts (222; 316) disposed with rotational symmetry about a center point (224; 320) of the second plug (220; 312), the second plug (220; 312) having a different size and number of contacts (222; 316) relative to the first plug (202; 310); a receptacle (204; 302) including contacts (208; 306) disposed with rotational symmetry about a center point (212; 308) of the receptacle (204; 302), the receptacle (204; 302) adapted to receive the first plug (202; 310), and also adapted to receive the second plug (220; 312); detection circuitry to determine an orientation of the first (202; 310) or second (220; 312) plug inserted into the receptacle (204; 302); and selection control circuitry to change a connection path coupled to the contacts (208; 306) of the receptacle (204; 302) based on the orientation of the first (202; 310) or second (220; 312) plug. a first plug (202; 310) including contacts (206; 314) disposed with rotational symmetry about a center point (210; 318) of the first plug (202; 310); a second plug (220; 312) including contacts (222; 316) disposed with rotational symmetry about a center point (224; 320) of the second plug (220; 312), the second plug (220; 312) having a different size and number of contacts (222; 316) relative to the first plug (202; 310); a receptacle (204; 302) including contacts (208; 306) disposed with rotational symmetry about a center point (212; 308) of the receptacle (204; 302), the receptacle (204; 302) adapted to receive the first plug (202; 310), and also adapted to receive the second plug (220; 312); detection circuitry to determine an orientation of the first (202; 310) or second (220; 312) plug inserted into the receptacle (204; 302); and selection control circuitry to change a connection path coupled to the contacts (208; 306) of the receptacle (204; 302) based on the orientation of the first (202; 310) or second (220; 312) plug.