mhurhangee/patent-ind-claim-en huggingface dataset:
An ultra-low temperature freezer comprising: an insulated case defining a storage compartment having an opening in an upper face; an insulated door configured to be able to open and close the opening; a first refrigeration unit configured such that a first compressor , a first condenser , and a first decompressor are mounted on a first mounting board ; a second refrigeration unit configured such that a second compressor , a second condenser , and a second decompressor are mounted on a second mounting board ; a machinery compartment provided adjacent to the insulated case , the machinery compartment being configured to house the first refrigeration unit and the second refrigeration unit so as to be drawable in a horizontal direction; and characterized in that a first reinforcing portion is formed on a lower surface side of the first mounting board , to extend along the drawing-out direction of the first refrigeration unit , wherein the first reinforcing portion is a plate member that is folded along the drawing-out direction of the first refrigeration unit and mounted to a lower surface of the first mounting board . an insulated case defining a storage compartment having an opening in an upper face; an insulated door configured to be able to open and close the opening; a first refrigeration unit configured such that a first compressor , a first condenser , and a first decompressor are mounted on a first mounting board ; a second refrigeration unit configured such that a second compressor , a second condenser , and a second decompressor are mounted on a second mounting board ; a machinery compartment provided adjacent to the insulated case , the machinery compartment being configured to house the first refrigeration unit and the second refrigeration unit so as to be drawable in a horizontal direction; and characterized in that a first reinforcing portion is formed on a lower surface side of the first mounting board , to extend along the drawing-out direction of the first refrigeration unit , wherein the first reinforcing portion is a plate member that is folded along the drawing-out direction of the first refrigeration unit and mounted to a lower surface of the first mounting board .
An internal combustion engine comprising a detection device which is applied to the internal combustion engine, the internal combustion engine including a sensor with a temperature varying member , the sensor being further equipped with a cover comprising holes , which cover covers the temperature varying member , the temperature varying member is provided in an exhaust system , and the temperature of the temperature varying member varies due to gas flow in the exhaust system ; the detection device comprising a temperature correlation value detection unit which is adapted to detect a correlation value which correlates with the temperature of the temperature varying member ; the internal combustion device being characterized in that the detection device further comprises a variation calculating unit which is adapted to calculate a variation of the correlation value, in a time period when the gas flow arises and temperature of the gas changes, detected by the temperature correlation value detection unit , wherein an exhaust temperature sensor for detecting the temperature of the gas is provided on a streamline which is approximately same as the streamline where the temperature varying member is provided in the exhaust system , and wherein the variation calculating unit is adapted to calculate a rate of the variation of the correlation value to a variation of an exhaust temperature detected by the exhaust temperature sensor and detects clogging of the holes or cracking in the cover based on the rate of the variation.
An imaging apparatus comprising: a plurality of pixels (PIX); a plurality of signal lines , each of the plurality of signal lines being connected to at least a different one of the plurality of pixels; a plurality of comparators , each of the plurality of comparators corresponds to one of the plurality of signal lines; a plurality of switch means (230-235), each of the plurality of switch means being connected to one of the plurality of signal lines and one of the plurality of comparators corresponding to the one signal line; and a bypass line to which at least two of the plurality of switch means are commonly connected, wherein each of the at least two switch means includes: a first type switch including a first terminal connected to the one signal line and a second terminal connected to the one comparator; a second type switch including a first terminal and a second terminal, the first terminal being connected to the one signal line and the first terminal of the first type switch, the second terminal being connected to the bypass line; and a third type switch including a first terminal and a second terminal, the first terminal being connected to the one comparator and the second terminal of the first type switch, the second terminal being connected to the bypass line. a plurality of pixels (PIX); a plurality of signal lines , each of the plurality of signal lines being connected to at least a different one of the plurality of pixels; a plurality of comparators , each of the plurality of comparators corresponds to one of the plurality of signal lines; a plurality of switch means (230-235), each of the plurality of switch means being connected to one of the plurality of signal lines and one of the plurality of comparators corresponding to the one signal line; and a bypass line to which at least two of the plurality of switch means are commonly connected, a first type switch including a first terminal connected to the one signal line and a second terminal connected to the one comparator; a second type switch including a first terminal and a second terminal, the first terminal being connected to the one signal line and the first terminal of the first type switch, the second terminal being connected to the bypass line; and a third type switch including a first terminal and a second terminal, the first terminal being connected to the one comparator and the second terminal of the first type switch, the second terminal being connected to the bypass line.
A control apparatus, comprising: an orchestrator unit , configured to receive a service request for requesting to carry out a service, wherein the service request comprises service deployment information for requesting to deploy a first service, service flow identification information for identifying a first packet flow and service flow steering information; and a control unit , configured to send the service deployment information to a computing apparatus, and send the service flow identification information and the service flow steering information to an identifying and steering apparatus, wherein the service flow steering information is used for indicating that the first packet flow is to be steered to the computing apparatus by the identifying and steering apparatus, and the service deployment information is used for deploying the first service, and performing processing of the first service by the computing apparatus. an orchestrator unit , configured to receive a service request for requesting to carry out a service, wherein the service request comprises service deployment information for requesting to deploy a first service, service flow identification information for identifying a first packet flow and service flow steering information; and a control unit , configured to send the service deployment information to a computing apparatus, and send the service flow identification information and the service flow steering information to an identifying and steering apparatus, wherein the service flow steering information is used for indicating that the first packet flow is to be steered to the computing apparatus by the identifying and steering apparatus, and the service deployment information is used for deploying the first service, and performing processing of the first service by the computing apparatus.
An encoder apparatus comprising: a temporal noise shaping, TNS, tool for performing linear prediction, LP, filtering (S33, S35, S36) on an audio signal including a plurality of frames; and a controller configured to control the TNS tool so that the TNS tool performs LP filtering with: a first filter whose impulse response has a higher energy (S36); and a second filter whose impulse response has a lower energy (S35) than the impulse response of the first filter , wherein the second filter is not an identity filter, wherein the controller is configured to choose (S34) between filtering (S36) with the first filter and filtering (S35) with the second filter on the basis of a frame metrics , characterized in that the controller is further configured to: modify the first filter so as to obtain the second filter in which the filter's impulse response energy is reduced. a temporal noise shaping, TNS, tool for performing linear prediction, LP, filtering (S33, S35, S36) on an audio signal including a plurality of frames; and a controller configured to control the TNS tool so that the TNS tool performs LP filtering with: a first filter whose impulse response has a higher energy (S36); and a second filter whose impulse response has a lower energy (S35) than the impulse response of the first filter , wherein the second filter is not an identity filter, a first filter whose impulse response has a higher energy (S36); and a second filter whose impulse response has a lower energy (S35) than the impulse response of the first filter , wherein the second filter is not an identity filter, wherein the controller is configured to choose (S34) between filtering (S36) with the first filter and filtering (S35) with the second filter on the basis of a frame metrics ,
A system to treat a patient having pelvic floor dysfunction or disorder comprising: a processor for operating a signal generator according to a stimulation protocol to provide at least one stimulation signal, said processor configured to store at least one of a plurality of stimulation parameters effective in treating at least one symptom of a pelvic floor dysfunction or disorder when said at least one stimulation signal is applied to a saphenous nerve within a lower limb of a patient; at least a first neurostimulator coupled to said processor and said signal generator , the at least first neurostimulator configured to provide the at least one stimulation signal in accordance with said stimulation protocol; and, at least one stimulator for receiving the at least one stimulation signal from said at least first neurostimulator , said at least one stimulator positioned adjacent to at least a portion of the saphenous nerve for applying said at least one stimulation signal to the saphenous nerve, whereby the patient pelvic dysfunction or disorder is treated. a processor for operating a signal generator according to a stimulation protocol to provide at least one stimulation signal, said processor configured to store at least one of a plurality of stimulation parameters effective in treating at least one symptom of a pelvic floor dysfunction or disorder when said at least one stimulation signal is applied to a saphenous nerve within a lower limb of a patient; at least a first neurostimulator coupled to said processor and said signal generator , the at least first neurostimulator configured to provide the at least one stimulation signal in accordance with said stimulation protocol; and, at least one stimulator for receiving the at least one stimulation signal from said at least first neurostimulator , said at least one stimulator positioned adjacent to at least a portion of the saphenous nerve for applying said at least one stimulation signal to the saphenous nerve, whereby the patient pelvic dysfunction or disorder is treated.
A replaceable cartridge for a liquid diffusion device, the replaceable cartridge comprising: a cartridge housing including a plurality of housing pieces fixedly coupled together and defining an internal housing cavity partially filled with a liquid to be aerosolized; and a venturi device positioned within the internal housing cavity for generating aerosolized matter from the liquid contained in the internal housing cavity , wherein the plurality of housing pieces include an internal housing body defining at least a portion of a receptacle for the liquid to be aerosolized, an upper housing cap including an outlet through which the aerosolized matter is discharged during use, and an outer casing surrounding at least a lower portion of the internal housing body , wherein the internal housing body defines at least a portion of a gas supply conduit that extends from a bottom end of the replaceable cartridge to the venturi device and through the liquid to be aerosolized, and characterized in that a liquid retention device is positioned within the gas supply conduit adjacent the venturi device to retain liquid that may pass downward through the venturi device into the gas supply conduit . a cartridge housing including a plurality of housing pieces fixedly coupled together and defining an internal housing cavity partially filled with a liquid to be aerosolized; and a venturi device positioned within the internal housing cavity for generating aerosolized matter from the liquid contained in the internal housing cavity , wherein the plurality of housing pieces include an internal housing body defining at least a portion of a receptacle for the liquid to be aerosolized, an upper housing cap including an outlet through which the aerosolized matter is discharged during use, and an outer casing surrounding at least a lower portion of the internal housing body , wherein the internal housing body defines at least a portion of a gas supply conduit that extends from a bottom end of the replaceable cartridge to the venturi device and through the liquid to be aerosolized, and characterized in that a liquid retention device is positioned within the gas supply conduit adjacent the venturi device to retain liquid that may pass downward through the venturi device into the gas supply conduit .
A method for robotically wiring electrical components of an electrical switchgear arranged on a mounting plate, comprising the steps: - Providing a design of a switchgear having at least location information and orientation information about a plurality of electrical components of the switchgear on a mounting plate and wiring information about a plurality of electrical wirings between every two of the electrical components ; - Extracting a cable routing including a cable source coordinate, a cable destination coordinate, and a routing path between the cable source coordinate and the cable destination coordinate from the wiring information for at least one of the plurality of wirings ; - Generating trajectory and/or vector points along the cable routing and parameterizing the trajectory and/or vector points to generate a robot control; and - Controlling a robot with the robot control; characterized by applying a test routine to the wiring information to determine a degree of automation of the wirings , and optionally adjusting the wiring information to maximize the degree of automation. - Providing a design of a switchgear having at least location information and orientation information about a plurality of electrical components of the switchgear on a mounting plate and wiring information about a plurality of electrical wirings between every two of the electrical components ; - Extracting a cable routing including a cable source coordinate, a cable destination coordinate, and a routing path between the cable source coordinate and the cable destination coordinate from the wiring information for at least one of the plurality of wirings ; - Generating trajectory and/or vector points along the cable routing and parameterizing the trajectory and/or vector points to generate a robot control; and - Controlling a robot with the robot control;
A method performed by a wireless communication node, comprising: receiving a random access preamble from a wireless communication device which currently camps in a first cell in which a first radio access technology, RAT, is used, transmitting a message as a random access response, RAR, to the wireless communication device for the wireless communication device to select a second cell to stay, wherein the message indicates information about the second cell in which a second RAT, different from the first RAT, is used, wherein the information indicates whether to switch to the second cell based on a coverage mode of the wireless communication device. receiving a random access preamble from a wireless communication device which currently camps in a first cell in which a first radio access technology, RAT, is used, transmitting a message as a random access response, RAR, to the wireless communication device for the wireless communication device to select a second cell to stay, wherein the message indicates information about the second cell in which a second RAT, different from the first RAT, is used, wherein the information indicates whether to switch to the second cell based on a coverage mode of the wireless communication device.
A method of capping a hydrocarbon well comprising: (a) cutting a well casing string , wherein an internal production casing of the well casing string is cut lower than the external surface casing of the well casing string ; (b) inserting a first plate under a cut level of said surface casing and over a cut level of said production casing , said first plate having a single hole formed in said first plate ; (c) welding a threaded pipe section over said hole ; (d) installing a coupler section onto said threaded pipe section ; (e) inserting a stopper into said coupler section ; (f) welding said first plate to inside the surface casing to cap the surface casing , wherein the top of the stopper rests below the top surface of the surface casing ; and (g) welding a cap to the top of the surface casing to provide a vented seal. (a) cutting a well casing string , wherein an internal production casing of the well casing string is cut lower than the external surface casing of the well casing string ; (b) inserting a first plate under a cut level of said surface casing and over a cut level of said production casing , said first plate having a single hole formed in said first plate ; (c) welding a threaded pipe section over said hole ; (d) installing a coupler section onto said threaded pipe section ; (e) inserting a stopper into said coupler section ; (f) welding said first plate to inside the surface casing to cap the surface casing , wherein the top of the stopper rests below the top surface of the surface casing ; and (g) welding a cap to the top of the surface casing to provide a vented seal.
Method for drying and purifying hydrogen-containing gases that arise during electrolytic water splitting with electric current in the form of an oxygen-rich gas (A) and a hydrogen-rich gas (B), which contain residues of the other gas, the oxygen-rich gas (A) is discharged into the atmosphere or to a consumer, the hydrogen-rich gas (B) is heated in a heater and subjected to an exothermic reaction in a reactor in which the residual oxygen and the hydrogen are converted into water and a hot, moist process gas (C) is formed, then the water from this process gas (C) is removed under excess pressure by adsorption of the water on an adsorbent in at least two adsorbers connected through connecting pipes (23,24;29,30) and switching valves (25,26,27,28;31,32,33,34) until the adsorbent is loaded with water in the respective adsorber , after leaving the respective adsorber the dried process gas (C) is diverted to the consumer via a filter as high-purity hydrogen clean gas (D) in a clean gas pipe and the untreated process gas is transferred to the unloaded adsorber for continuing of the loading, and at the same time the loaded adsorbent is regenerated by a partial quantity (TR) of the clean gas (D) as regeneration gas (E) which is heated by an electric heater and the heated gas is fed in a regeneration gas pipe counter to the direction of the flow of the respective adsorber that is currently being loaded, wherein a control unit switches the adsorber into the adsorption phase and regeneration phase or vice versa depending on the loading of the adsorbent and all electrical users are supplied with electricity from the connected power supply via a power line , characterized in that a gas-booster with frequency converter, which is connected to the regeneration gas pipe ( sucks in the partial quantity (TR) of the clean gas (D) as regeneration gas (E) and a flow transmitter with an integrated flow computer adjusts the volume flow of the partial quantity (TR) by determining a current rotational speed value of the gas-booster as an actual value or as a fixed value via the control unit , which, if the power supply fails, triggers by a switching device a switchover of all electrical power consumer units such as gas-booster , control unit , switching valves (25,26,27,28; 31,32,33,34;43;45;49) and if necessary the pump , to an internal/external power source for temporary electrical energy supply via the power line , wherein until the end of the regeneration the gas-booster generates a suction flow circulation of the residual gas (G) that is present when the device switched off on the adsorber forming clean and desorption gas (D,F), through an internal flow path (K) that passes through the gas pipes (14, 16, 18, 19, 23, 24, 29, 30, the adsorbers , the electric heater , the heat exchanger , separator und filter .
A nonvolatile memory device comprising: multiple nonvolatile, NV, memory arrays (1-10; 232; 560) to collectively store a block of data, each array to store a portion of the block of data, and one of the NV memory arrays to store a write count for the block of data; and a command bus interface (242; 542) to receive a write command to write the block of data to the NV memory arrays , wherein the NV memory arrays are configured to perform an internal pre-write read of the block of data in the NV memory arrays in response to receipt of the write command, said internal pre-write read being performed without sending the write count to a controller (120; 220; 520) to be incremented, wherein the one NV memory array is configured to perform a pre-write read of the write count, increment the write count internal to the one NV memory array, and write the incremented write count to the one NV memory array, wherein the NV memory arrays are configured to perform the internal pre-write read of the block of data in the NV memory arrays, compare data in the NV memory arrays with data to be written, and only write bits having a different value due to the write command. multiple nonvolatile, NV, memory arrays (1-10; 232; 560) to collectively store a block of data, each array to store a portion of the block of data, and one of the NV memory arrays to store a write count for the block of data; and a command bus interface (242; 542) to receive a write command to write the block of data to the NV memory arrays , wherein the NV memory arrays are configured to perform an internal pre-write read of the block of data in the NV memory arrays in response to receipt of the write command, said internal pre-write read being performed without sending the write count to a controller (120; 220; 520) to be incremented, wherein the one NV memory array is configured to perform a pre-write read of the write count, increment the write count internal to the one NV memory array, and write the incremented write count to the one NV memory array, wherein the NV memory arrays are configured to perform the internal pre-write read of the block of data in the NV memory arrays, compare data in the NV memory arrays with data to be written, and only write bits having a different value due to the write command.