mhurhangee/patent-ind-claim-en huggingface dataset:
A rotating electrical machine including a coil formed of collective conductors which are composed of a plurality of layers of element wire conductors formed of rectangular conductors stacked in a radial direction of the rotating electrical machine , comprising: - insulating objects arranged in parallel between adjacent element wire conductors of a plurality of the element wire conductors in a circumferential direction of the rotating electrical machine on each of both sides interposing a dislocating portion of the element wire conductor and linearly extending along the adjacent element wire conductors ; - a storage space formed between the linear insulating objects arranged in parallel at each of the both sides interposing the dislocating portion ; and - a temperature detection sensor configured to detect a temperature of the element wire conductors and stored in the storage spaces at each of the both sides interposing the dislocating portion across both sides interposing the dislocating portion , wherein the hardness of the insulating objects is lower than the hardness of the element wire conductors . - insulating objects arranged in parallel between adjacent element wire conductors of a plurality of the element wire conductors in a circumferential direction of the rotating electrical machine on each of both sides interposing a dislocating portion of the element wire conductor and linearly extending along the adjacent element wire conductors ; - a storage space formed between the linear insulating objects arranged in parallel at each of the both sides interposing the dislocating portion ; and - a temperature detection sensor configured to detect a temperature of the element wire conductors and stored in the storage spaces at each of the both sides interposing the dislocating portion across both sides interposing the dislocating portion ,
A magnetic sensor system for redundantly measuring a physical quantity associated with a magnetic field, comprising i. a substrate , ii. a first sensor on the substrate , the first sensor being based on a first sensing technology and sensing a parameter characteristic of the magnetic field at a first sensing point in space, and iii. a second sensor on the substrate , the second sensor being based on a second sensing technology and sensing a parameter characteristic of the magnetic field at a second sensing point in space, the second sensing technology differing from the first sensing technology; wherein the first sensor and the second sensor are both sensitive to a same magnetic field component, and characterized in that - the first sensing point and the second sensing point are substantially aligned in a direction normal to the substrate , and - a distance along the normal direction between the first sensing point and the second sensing point is less than 200 μm. i. a substrate , ii. a first sensor on the substrate , the first sensor being based on a first sensing technology and sensing a parameter characteristic of the magnetic field at a first sensing point in space, and iii. a second sensor on the substrate , the second sensor being based on a second sensing technology and sensing a parameter characteristic of the magnetic field at a second sensing point in space, the second sensing technology differing from the first sensing technology; - the first sensing point and the second sensing point are substantially aligned in a direction normal to the substrate , and - a distance along the normal direction between the first sensing point and the second sensing point is less than 200 μm.
A battery cell comprising: a housing having a prismatic shape; an electrode assembly (8, C 1 , C 2 ) fixedly arranged inside the housing ; wherein the housing comprises a venting side and at least one terminal side being different from the venting side ; wherein at least one terminal (T 1 , T 2 ) is arranged on each of the terminal sides ; wherein the venting side comprises venting valve ; wherein the venting valve is configured for being in a closed state and in an open state and is further configured for switching between the closed state and the open state; wherein the venting valve , when being in the open state, provides a vent opening (O2) in the venting side , the vent opening (O2) extending over at least 70 % of the area of the venting side ; wherein the electrode assembly (8, C 1 , C 2 ) is fixed inside the battery cell by an anchorage; and wherein the electrode assembly (8, C 1 , C 2 ) is configured for sliding or being slid through the venting opening (O2), when the venting valve is in an open state and the electrode assembly (8, C 1 , C 2 ) has been detached from the anchorage. a housing having a prismatic shape; an electrode assembly (8, C 1 , C 2 ) fixedly arranged inside the housing ; wherein the housing comprises a venting side and at least one terminal side being different from the venting side ; wherein at least one terminal (T 1 , T 2 ) is arranged on each of the terminal sides ; wherein the venting side comprises venting valve ; wherein the venting valve is configured for being in a closed state and in an open state and is further configured for switching between the closed state and the open state; wherein the venting valve , when being in the open state, provides a vent opening (O2) in the venting side , the vent opening (O2) extending over at least 70 % of the area of the venting side ; wherein the electrode assembly (8, C 1 , C 2 ) is fixed inside the battery cell by an anchorage; and wherein the electrode assembly (8, C 1 , C 2 ) is configured for sliding or being slid through the venting opening (O2), when the venting valve is in an open state and the electrode assembly (8, C 1 , C 2 ) has been detached from the anchorage.
A train scheduling method of an intelligent train scheduling system , comprising: obtaining train schedule information which includes train line information and information about operation time of each train; generating a time extension network which includes stations, as nodes, at which the trains included in the train schedule information stop, lines, as edges, between the stations included in the train schedule information, and operation time information of each train included in the train schedule information; and calculating predictive information about a traffic volume in each section and a traffic volume of each train for the train schedule on the basis of the time extension network, wherein the time extension network includes a time extension node group classified into a station arrival node, a station departure node, a demand generation node, or a demand end node and a time extension edge group classified into an inter-station movement edge, a stop edge, a transit edge, a demand generation edge, or a demand end edge. obtaining train schedule information which includes train line information and information about operation time of each train; generating a time extension network which includes stations, as nodes, at which the trains included in the train schedule information stop, lines, as edges, between the stations included in the train schedule information, and operation time information of each train included in the train schedule information; and calculating predictive information about a traffic volume in each section and a traffic volume of each train for the train schedule on the basis of the time extension network, wherein the time extension network includes a time extension node group classified into a station arrival node, a station departure node, a demand generation node, or a demand end node and a time extension edge group classified into an inter-station movement edge, a stop edge, a transit edge, a demand generation edge, or a demand end edge.
A method of fabricating a quantum circuit device, the method comprising: providing a device having a first layer and a second layer in contact with a surface of the first layer , wherein the second layer comprises a first superconductor material that exhibits superconducting properties at or below a corresponding superconducting critical temperature; forming a buffer material on a surface of the second layer to form an etch buffer layer , wherein an etch rate selectivity of the buffer material relative to the second layer upon exposure to a photoresist developer is such that the underlying second layer is not etched during exposure of the buffer layer to the photoresist developer; depositing and removing a selected portion of a resist layer to uncover a first portion of the etch buffer layer , wherein removing the selected portion of the resist layer comprises applying the photoresist developer to the selected portion of the resist layer ; removing the uncovered first portion of the etch buffer layer to uncover a first portion of the second layer ; and forming a dielectric material or a second superconductor material , which exhibits superconducting properties at or below a corresponding superconducting temperature, on the uncovered first portion of the second layer , wherein the second layer and the dielectric material or the second layer and the second superconductor material form part of the quantum circuit device, the quantum circuit device comprises a parallel plate capacitor, a microstrip resonator, or a transmission line. providing a device having a first layer and a second layer in contact with a surface of the first layer , wherein the second layer comprises a first superconductor material that exhibits superconducting properties at or below a corresponding superconducting critical temperature; forming a buffer material on a surface of the second layer to form an etch buffer layer , wherein an etch rate selectivity of the buffer material relative to the second layer upon exposure to a photoresist developer is such that the underlying second layer is not etched during exposure of the buffer layer to the photoresist developer; depositing and removing a selected portion of a resist layer to uncover a first portion of the etch buffer layer , wherein removing the selected portion of the resist layer comprises applying the photoresist developer to the selected portion of the resist layer ; removing the uncovered first portion of the etch buffer layer to uncover a first portion of the second layer ; and forming a dielectric material or a second superconductor material , which exhibits superconducting properties at or below a corresponding superconducting temperature, on the uncovered first portion of the second layer , wherein the second layer and the dielectric material or the second layer and the second superconductor material form part of the quantum circuit device, the quantum circuit device comprises a parallel plate capacitor, a microstrip resonator, or a transmission line.
A method for detecting an error in an LCD source driver while driving an LCD, the source driver having at least one dummy channel (400/500) in addition to a plurality of active channels, the method comprising the steps of: driving the dummy channel (400/500) and all active channels (300/350) to be used with original signals; receiving the dummy channel signal as a received dummy channel signal; characterized by comparing the received dummy channel signal with the original signal; and alerting upstream logic that an error has occurred when the received dummy channel signal does not match the original signal. driving the dummy channel (400/500) and all active channels (300/350) to be used with original signals; receiving the dummy channel signal as a received dummy channel signal; characterized by comparing the received dummy channel signal with the original signal; and alerting upstream logic that an error has occurred when the received dummy channel signal does not match the original signal.
Robot having a first assembly , and a second assembly , wherein said first assembly is a first robotic arm and said second assembly is a second robotic arm, wherein said second robotic arm is connected to said first robotic arm in a manner pivotable about a pivot axis extending in the axial direction (A), wherein bearing arrangements , by which said second robotic arm can be moved relative to said first robotic arm , are provided in said first robotic arm , wherein said bearing arrangements comprise a first fastening element and rotatably mounted shafts , and said second robotic arm comprises a second fastening element , wherein said first fastening element or said second fastening element forms a receptacle , and the other of said first fastening element and said second fastening element forms a protrusion , and wherein for fastening, said protrusion can be inserted into said receptacle in a direction of insertion (E), and wherein said first robotic arm comprises at one end two jaws extending in parallel and at a distance, wherein said second robotic arm is mounted between said jaws , and said rotatably mounted shafts are provided coaxially in both jaws , or wherein said second robotic arm comprises at one end two jaws extending in parallel and at a distance, wherein said first robotic arm is mounted between said jaws , and the ends of at least one of said shafts arranged in said first robotic arm are provided coaxially on both outer sides of said first robotic arm , characterized in that said protrusion is formed to be conical in said direction of insertion (E). a first assembly , and a second assembly , wherein said first assembly is a first robotic arm and said second assembly is a second robotic arm, wherein said second robotic arm is connected to said first robotic arm in a manner pivotable about a pivot axis extending in the axial direction (A), wherein bearing arrangements , by which said second robotic arm can be moved relative to said first robotic arm , are provided in said first robotic arm , wherein said bearing arrangements comprise a first fastening element and rotatably mounted shafts , and said second robotic arm comprises a second fastening element , wherein said first fastening element or said second fastening element forms a receptacle , and the other of said first fastening element and said second fastening element forms a protrusion , and wherein for fastening, said protrusion can be inserted into said receptacle in a direction of insertion (E), and wherein said first robotic arm comprises at one end two jaws extending in parallel and at a distance, wherein said second robotic arm is mounted between said jaws , and said rotatably mounted shafts are provided coaxially in both jaws , or wherein said second robotic arm comprises at one end two jaws extending in parallel and at a distance, wherein said first robotic arm is mounted between said jaws , and the ends of at least one of said shafts arranged in said first robotic arm are provided coaxially on both outer sides of said first robotic arm , characterized in that said protrusion is formed to be conical in said direction of insertion (E).
A computer-readable medium having instructions stored thereon that are executable by a control system associated with the infusion device to perform a method of operating an infusion device capable of delivering insulin to a patient, the method comprising: obtaining , by a control system associated with the infusion device via a user interface, an input qualitative meal indication comprising a qualitative meal size; obtaining historical data for the patient corresponding to historical meal events associated with the input qualitative meal indication; determining an estimated carbohydrate amount corresponding to the input qualitative meal indication based at least in part on historical carbohydrate amounts associated with the historical meal events associated with the input qualitative meal indication; determining , by the control system, a bolus dosage of the insulin based at least in part on the estimated carbohydrate amount; and operating , by the control system, an actuation arrangement of the infusion device to deliver the bolus dosage of the insulin to the patient. obtaining , by a control system associated with the infusion device via a user interface, an input qualitative meal indication comprising a qualitative meal size; obtaining historical data for the patient corresponding to historical meal events associated with the input qualitative meal indication; determining an estimated carbohydrate amount corresponding to the input qualitative meal indication based at least in part on historical carbohydrate amounts associated with the historical meal events associated with the input qualitative meal indication; determining , by the control system, a bolus dosage of the insulin based at least in part on the estimated carbohydrate amount; and operating , by the control system, an actuation arrangement of the infusion device to deliver the bolus dosage of the insulin to the patient.
A method, comprising: performing, by a peripheral device implemented at a resource host at a bus implemented at the resource host, wherein the peripheral device implements virtual storage interfaces and wherein the bus connects the peripheral device with host system processing components implemented at the resource host which implement a virtual compute instance: presenting a virtual interface implemented on the peripheral device, of a storage partition of a non-volatile storage device connected to the peripheral device via a peripheral interconnect; receiving an access request directed to the storage partition from the virtual compute instance via the virtual interface; sending a physical access request to the non-volatile storage device connected to the peripheral device to perform the access request with respect to the storage partition at the non-volatile storage device; and based on an acknowledgement of the physical access request from the non-volatile storage device, providing an indication of completion for the access request to the virtual compute instance via the virtual interface. presenting a virtual interface implemented on the peripheral device, of a storage partition of a non-volatile storage device connected to the peripheral device via a peripheral interconnect; receiving an access request directed to the storage partition from the virtual compute instance via the virtual interface; sending a physical access request to the non-volatile storage device connected to the peripheral device to perform the access request with respect to the storage partition at the non-volatile storage device; and based on an acknowledgement of the physical access request from the non-volatile storage device, providing an indication of completion for the access request to the virtual compute instance via the virtual interface.
An anti-decubitus mattress or mat to be positioned on a rigid support for supporting at least part of a patient's body, said mattress or mat being composed of at least one layer or sponge made of viscoelastic or elastic shape-memory polyurethane foam and said mattress or mat having an upper surface (A) suitable for coming into contact with at least part of the patient's body and a lower surface (B) suitable for being connected with the rigid support, said mattress or mat comprises at least one strip or insert in polymer gel, said gel having adhesive properties for ensuring the adhesion of at least part of said lower surface (B) to said rigid support characterized in that said mattress or mat comprises various geometrical-shaped inserts in adhesive polymer gel and distributed over at least part of the lower surface (B) of the mattress or mat , said geometrical-shaped inserts with a round, square, oval or similar base are provided in combination with said one or more strips i.e. elongated inserts with a rectangular base or the like, said strips and inserts in polymer gel have a thickness ranging from 0.01 cm to 10 cm.
A radio frequency system for providing an amplified radio signal, wherein the radio frequency system comprises a signal generator configured to generate a radio frequency signal as well as an amplifier , wherein the amplifier has at least one amplifier stage (20 - 24) connected to the signal generator , a measurement coupler and a radio frequency output , wherein the amplifier stage (20 - 24) comprises at least one pre-amplifier , at least one local oscillator as well as at least one switch that is located between the local oscillator and the pre-amplifier , wherein the switch has a first switching position and a second switching position, wherein the switch is configured to forward the radio frequency signal of the signal generator in the first switching position, wherein the switch is configured to forward a local oscillator signal of the local oscillator in the second switching position, wherein the switch is configured to forward either the radio frequency signal of the signal generator or the local oscillator signal of the local oscillator to the pre-amplifier , and wherein the radio frequency system comprises at least one detector , wherein the at least one detector is arranged between the signal generator and the switch and/or wherein the at least one detector is arranged between the switch and the pre-amplifier . wherein the amplifier has at least one amplifier stage (20 - 24) connected to the signal generator , a measurement coupler and a radio frequency output , wherein the amplifier stage (20 - 24) comprises at least one pre-amplifier , at least one local oscillator as well as at least one switch that is located between the local oscillator and the pre-amplifier , wherein the switch has a first switching position and a second switching position, wherein the switch is configured to forward the radio frequency signal of the signal generator in the first switching position, wherein the switch is configured to forward a local oscillator signal of the local oscillator in the second switching position, wherein the switch is configured to forward either the radio frequency signal of the signal generator or the local oscillator signal of the local oscillator to the pre-amplifier , and wherein the radio frequency system comprises at least one detector , wherein the at least one detector is arranged between the signal generator and the switch and/or wherein the at least one detector is arranged between the switch and the pre-amplifier .