mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a main body comprising a storage area (21, 22 and 23); an inner door comprising a door storage space , the inner door being rotatably coupled with the main body ; an outer door ; a hinge rotatably coupling the outer door with the inner door , the hinge comprising a hinge bracket that comprises a fixing plate coupled with the inner door , and a hinge shaft on which the outer door is rotatable; and a hinge cover covering a portion of the hinge bracket , the portion being positioned outside the inner door , wherein the inner door further comprises a front plate forming a front surface of the inner door , and an upper cap coupled with an upper end of the front plate , wherein the front plate comprises a through hole , and wherein the hinge bracket penetrates the through hole such that the fixing plate is coupled with the upper cap , characterized in that the hinge bracket is positioned inside the inner door , a hinge cover covering a portion of the hinge bracket , the portion being positioned outside the inner door ." a main body comprising a storage area (21, 22 and 23); an inner door comprising a door storage space , the inner door being rotatably coupled with the main body ; an outer door ; a hinge rotatably coupling the outer door with the inner door , the hinge comprising a hinge bracket that comprises a fixing plate coupled with the inner door , and a hinge shaft on which the outer door is rotatable; and a hinge cover covering a portion of the hinge bracket , the portion being positioned outside the inner door , wherein the inner door further comprises a front plate forming a front surface of the inner door , and an upper cap coupled with an upper end of the front plate , wherein the front plate comprises a through hole , and wherein the hinge bracket penetrates the through hole such that the fixing plate is coupled with the upper cap , characterized in that the hinge bracket is positioned inside the inner door , a hinge cover covering a portion of the hinge bracket , the portion being positioned outside the inner door ."
A prosthetic system consisting of a prosthesis and an encased electromagnetic transducer coil with coil ends , which is spatially separated from the prosthesis and acts as a bioelectric transducer, wherein a primary electromechanical transducer with a directly coupled primary electromagnetic transducer for the conversion of mechanical energy into electromagnetic waves , caused by movement, force, pressure and load changes acting on or in the prosthesis , is arranged on or in the prosthesis , characterized in that the coil ends , spatially separated therefrom, of the secondary electromagnetic transducer coil converting the electromagnetic waves into electrical signals are arranged as electrodes in a ceramic or plastic-based moulding which is electrically nonconductive.
A method for detecting a background noise of a sensor , comprising: receiving a sampling value output by the sensor , and judging whether the sampling value falls within a background noise acceptable range; wherein an upper boundary value of the background noise acceptable range is a sum of a previous background noise sampling value and a half of a preset background noise channel width; a lower boundary value of the background noise acceptable range is a difference between the previous background noise sampling value and the half of the background noise channel width; selecting the sampling value as a current background noise sampling value when the sampling value falls within the background noise acceptable range; and calculating a current background noise of the sensor according to a previous background noise and the current background noise sampling value of the sensor . receiving a sampling value output by the sensor , and judging whether the sampling value falls within a background noise acceptable range; wherein an upper boundary value of the background noise acceptable range is a sum of a previous background noise sampling value and a half of a preset background noise channel width; a lower boundary value of the background noise acceptable range is a difference between the previous background noise sampling value and the half of the background noise channel width; selecting the sampling value as a current background noise sampling value when the sampling value falls within the background noise acceptable range; and calculating a current background noise of the sensor according to a previous background noise and the current background noise sampling value of the sensor .
An over voltage response module for a brushless current-excited synchronous electric machine, comprising: an input configured to receive a power output value of the electric machine; a first output configured to drive a first switchable element at a first leg of an H bridge and a second output configured to drive a second switchable element at a second leg of the H bridge , the H bridge further including an exciter stator of the electric machine disposed between the first leg and the second leg; a third output configured to drive a third switchable element upstream of the H bridge , the third switchable element forming part of a buck converter ; a controller module configured to compare the power output value with an over voltage condition of the electric machine, defining a first comparison, and in response to a determination an over voltage condition exists based on the first comparison: controllably operate the first switchable element to open, by way of the first output, and the second switchable element to open, by way of the second output, and after a predetermined period of time, compare the power output value with the over voltage condition of the electric machine, defining a second comparison; and in response to a determination the over voltage condition exists based on the second comparison, controllably operate the third switchable element to open. an input configured to receive a power output value of the electric machine; a first output configured to drive a first switchable element at a first leg of an H bridge and a second output configured to drive a second switchable element at a second leg of the H bridge , the H bridge further including an exciter stator of the electric machine disposed between the first leg and the second leg; a third output configured to drive a third switchable element upstream of the H bridge , the third switchable element forming part of a buck converter ; a controller module configured to compare the power output value with an over voltage condition of the electric machine, defining a first comparison, and in response to a determination an over voltage condition exists based on the first comparison: controllably operate the first switchable element to open, by way of the first output, and the second switchable element to open, by way of the second output, and after a predetermined period of time, compare the power output value with the over voltage condition of the electric machine, defining a second comparison; and in response to a determination the over voltage condition exists based on the second comparison, controllably operate the third switchable element to open. controllably operate the first switchable element to open, by way of the first output, and the second switchable element to open, by way of the second output, and after a predetermined period of time, compare the power output value with the over voltage condition of the electric machine, defining a second comparison; and in response to a determination the over voltage condition exists based on the second comparison, controllably operate the third switchable element to open.
A crown structure , comprising: a corrosion resistant layer aligning and disposing plural pieces of refractory blocks to be a vault shape at a furnace inner side of a glass melting furnace; and a gas leakage blocking layer including plural pieces of heat-insulating blocks disposed with gaps between them and disposed at an upper layer of the refractory blocks of the corrosion resistant layer , a dense castable refractory provided at the gaps between the heat-insulating blocks and provided to cover at least joints of the refractory blocks , and a lightweight heat-insulating castable refractory provided at the gaps between the heat-insulating blocks , stacked on the dense castable refractory and provided to embed a space formed by the heat-insulating blocks and the dense castable refractory , wherein the dense castable refractory has a bulk specific gravity of 3.0 or more at 110°C, wherein the lightweight heat-insulating castable refractory has as bulk specific gravity of 1.2 or less at 110°C and a thermal conductivity at 1000°C of 0.7 W/(m·K) or less. a corrosion resistant layer aligning and disposing plural pieces of refractory blocks to be a vault shape at a furnace inner side of a glass melting furnace; and a gas leakage blocking layer including plural pieces of heat-insulating blocks disposed with gaps between them and disposed at an upper layer of the refractory blocks of the corrosion resistant layer , a dense castable refractory provided at the gaps between the heat-insulating blocks and provided to cover at least joints of the refractory blocks , and a lightweight heat-insulating castable refractory provided at the gaps between the heat-insulating blocks , stacked on the dense castable refractory and provided to embed a space formed by the heat-insulating blocks and the dense castable refractory , wherein the dense castable refractory has a bulk specific gravity of 3.0 or more at 110°C, wherein the lightweight heat-insulating castable refractory has as bulk specific gravity of 1.2 or less at 110°C and a thermal conductivity at 1000°C of 0.7 W/(m·K) or less.
A hearing device configured to be worn at an ear of a user, where the hearing device comprising; - a ground unit , - an antenna unit , and - a feeder unit for feeding a current to the antenna unit ; wherein the antenna unit comprises: - an active unit being connected to the ground unit by the feeder unit, the active unit includes an active surface ; and - a shield unit having a continuous surface , where a first section of the continuous surface is arranged adjacent to the active surface and a second section of the continuous surface is arranged with the first section having a first inner angle in an inner space between the first section and the second section , and where the first inner angle is between 25 deg. and 160 deg.; wherein the active unit is positioned closer to the center of a housing of the hearing device than the shield unit, the center of the housing being the half width of the housing in the ear-to-ear axis; and wherein the active surface is configured to transmit an electric field in a direction along or perpendicular to an ear-to-ear axis (X) of the user when the hearing device is worn in its operational position by the user, whereby the electric field is coupled by a capacitive coupling towards the first section generating an electromagnetic near field, and where the shield unit is configured to focus the electromagnetic near field inside the hearing device. - a ground unit , - an antenna unit , and - a feeder unit for feeding a current to the antenna unit ; - an active unit being connected to the ground unit by the feeder unit, the active unit includes an active surface ; and - a shield unit having a continuous surface , where a first section of the continuous surface is arranged adjacent to the active surface and a second section of the continuous surface is arranged with the first section having a first inner angle in an inner space between the first section and the second section , and where the first inner angle is between 25 deg. and 160 deg.; wherein the active unit is positioned closer to the center of a housing of the hearing device than the shield unit, the center of the housing being the half width of the housing in the ear-to-ear axis; and wherein the active surface is configured to transmit an electric field in a direction along or perpendicular to an ear-to-ear axis (X) of the user when the hearing device is worn in its operational position by the user, whereby the electric field is coupled by a capacitive coupling towards the first section generating an electromagnetic near field, and where the shield unit is configured to focus the electromagnetic near field inside the hearing device.
A chimeric Factor IX ("FIX") polypeptide comprising human FIX having an amino acid sequence identical to amino acids 1 to 415 of SEQ ID NO: 2 and human Fc as an FcRn binding partner, for use in a method of prophylactically treating bleeding or bleeding episodes in a human subject with hemophilia B, comprising intravenously administering to the human subject multiple doses of 50 IU/kg to 100 IU/kg of the chimeric FIX polypeptide at a dosing interval of 9 days to 18 days.
A supercontinuum radiation source comprising: a modulator (Mod) being operable to modulate pump laser radiation comprising a train of radiation pulses (LP) to provide modulated pump laser radiation (B mod ), said modulation being such to selectively provide a burst of said pulses; and a hollow-core photonic crystal fiber (HC-PCF) being operable to receive the modulated pump laser radiation and excite a working medium contained within the hollow-core photonic crystal fiber so as to generate supercontinuum radiation (B out ). a modulator (Mod) being operable to modulate pump laser radiation comprising a train of radiation pulses (LP) to provide modulated pump laser radiation (B mod ), said modulation being such to selectively provide a burst of said pulses; and a hollow-core photonic crystal fiber (HC-PCF) being operable to receive the modulated pump laser radiation and excite a working medium contained within the hollow-core photonic crystal fiber so as to generate supercontinuum radiation (B out ).
A sensor belt system for localizing an in-vivo device in a gastrointestinal tract of a subject, comprising: a belt wearable by a subject; a plurality N of magnetic field generating coils distributed along a length of the belt , configured to generate magnetic fields; a plurality M of magnetic field sensors distributed along the length of the belt , configured to sense the magnetic fields generated by the magnetic field generating coils ; wherein the N magnetic field generating coils are interspersed between the M magnetic field sensors ; and a controller configured to: select magnetic field generating coils from the N magnetic field generating coils and activate the selected magnetic field generating coils sequentially to generate magnetic fields; select, for each activated magnetic field generating coil , magnetic field sensors from the M magnetic field sensors to sense the pertinent magnetic field; and calculate a geometry of the belt from the sensed magnetic fields, said geometry to be used as a coordinate system for localizing an in-vivo device . a belt wearable by a subject; a plurality N of magnetic field generating coils distributed along a length of the belt , configured to generate magnetic fields; a plurality M of magnetic field sensors distributed along the length of the belt , configured to sense the magnetic fields generated by the magnetic field generating coils ; wherein the N magnetic field generating coils are interspersed between the M magnetic field sensors ; and a controller configured to: select magnetic field generating coils from the N magnetic field generating coils and activate the selected magnetic field generating coils sequentially to generate magnetic fields; select, for each activated magnetic field generating coil , magnetic field sensors from the M magnetic field sensors to sense the pertinent magnetic field; and calculate a geometry of the belt from the sensed magnetic fields, said geometry to be used as a coordinate system for localizing an in-vivo device . select magnetic field generating coils from the N magnetic field generating coils and activate the selected magnetic field generating coils sequentially to generate magnetic fields; select, for each activated magnetic field generating coil , magnetic field sensors from the M magnetic field sensors to sense the pertinent magnetic field; and calculate a geometry of the belt from the sensed magnetic fields, said geometry to be used as a coordinate system for localizing an in-vivo device .
Optical unit for an alignment system of a light curtain monitoring a protective field, said optical unit comprising: an optical processing element for generating a defined radiation pattern from the radiation emitted by an alignment radiation source , and at least one additional optical functional element being formed integrally with said optical processing element , wherein said additional optical functional element comprises a beam expansion unit for adapting a cross sectional shape of a beam emitted by said alignment radiation source to a dimension of an active area of the optical processing element . an optical processing element for generating a defined radiation pattern from the radiation emitted by an alignment radiation source , and at least one additional optical functional element being formed integrally with said optical processing element , wherein said additional optical functional element comprises a beam expansion unit for adapting a cross sectional shape of a beam emitted by said alignment radiation source to a dimension of an active area of the optical processing element .
Robotic vacuum cleaner for autonomously cleaning surfaces, comprising an appliance housing and at least one side arm which is movably mounted in or beneath the appliance housing and on which at least one brush element is arranged, wherein, in a first position, the at least one side arm partially projects in front of the appliance housing and, in a second position, is received by the appliance housing , wherein the at least one side arm comprises a first arm element having a first end (16.1) and a second end (16.2), wherein the first arm element is movably mounted in the appliance housing at the first end (16.1), wherein the side arm comprises a second arm element having a first end (18.1) and a second end (18.2), wherein the first end (18.1) of the second arm element is movably mounted in the appliance housing and the second end (18.2) thereof is movably connected to the second end (16.2) of the first arm element , wherein the first end (18.1) of the second arm element is slidingly mounted in the appliance housing .
An integrated circuit, which, in operation, is adapted to control a process of a master mobile terminal for grouping with a remote mobile terminal, wherein the master mobile terminal and the remote mobile terminal are connected to a radio base station in a mobile communication network, the master mobile terminal being capable to serve as a relay respectively for one or more remote mobile terminals so as to relay communication between the one or more remote mobile terminals and the radio base station, and wherein the process comprises: discovering the remote mobile terminal and an identifier of the remote mobile terminal, transmitting a group request message to the radio base station, the group request message comprising the remote mobile terminal identifier and a request to group the remote mobile terminal with the master mobile terminal, and receiving a group request confirm message from the radio base station, confirming that the remote mobile terminal and the master mobile terminal are grouped together. discovering the remote mobile terminal and an identifier of the remote mobile terminal, transmitting a group request message to the radio base station, the group request message comprising the remote mobile terminal identifier and a request to group the remote mobile terminal with the master mobile terminal, and receiving a group request confirm message from the radio base station, confirming that the remote mobile terminal and the master mobile terminal are grouped together.
A processor comprising: configuration storage to store an indicator to enable a restricted speculative execution mode of operation of the processor , wherein the processor is to restrict speculative execution when operating in restricted speculative execution mode; an execution circuit to perform speculative execution; and a controller to restrict speculative execution by the execution circuit when the restricted speculative execution mode is enabled; wherein the controller is to determine that a speculation frontier , which is a frontier in an order of operations, is reached and to restrict the speculative execution until the speculation frontier is reached and to allow the speculative execution after the speculation frontier is reached. configuration storage to store an indicator to enable a restricted speculative execution mode of operation of the processor , wherein the processor is to restrict speculative execution when operating in restricted speculative execution mode; an execution circuit to perform speculative execution; and a controller to restrict speculative execution by the execution circuit when the restricted speculative execution mode is enabled; wherein the controller is to determine that a speculation frontier , which is a frontier in an order of operations, is reached and to restrict the speculative execution until the speculation frontier is reached and to allow the speculative execution after the speculation frontier is reached.