mhurhangee/patent-ind-claim-en huggingface dataset:
Method for layer-wise additive manufacturing of an enclosure for an integrated circuit having at least one optical component and at least one electronic component , the method comprising the steps of: providing at least one thermal contact connected to at least one of the components ; and forming a heat sink that is integrally formed with and in direct contact with the enclosure , wherein the at least one thermal contact comprises electrically and thermally conductive metal suitable for transferring heat from the at least one component to the heat sink . providing at least one thermal contact connected to at least one of the components ; and forming a heat sink that is integrally formed with and in direct contact with the enclosure , wherein the at least one thermal contact comprises electrically and thermally conductive metal suitable for transferring heat from the at least one component to the heat sink .
A thermal cycling reaction block, comprising: a doughnut-shaped heating block forming a hollow part , said doughnut-shaped heating block comprising an inner heating block , an outer heating block , and an insulating material which is placed between the inner heating block and the outer heating block so as to separate the inner heating block from the outer heating block , wherein the doughnut-shaped heating block comprises the configuration that the inner heating block is contacted with an inner side of the insulating material in a radial direction and the outer heating block is contacted with an outer side of the insulating material in a radial direction, and a capillary tube wound around the doughnut-shaped heating block through a hollow part of the doughnut-shaped heating block at a regular interval to pass through the hollow part , and the wounded capillary tube be in contact with surfaces of the inner heating block , insulating material , outer heating block , insulating material , and inner heating block in this order, and wherein the capillary tube has an inlet to receive a sample to be subjected to a thermal cycling reaction and an outlet to output the sample after the thermal cycling reaction, wherein an inserting groove , which has a regular size and a regular interval for partial insertion of the capillary tube , is formed in an outer surface of the inner heating block and the outer heating block so as to increase a contacting surface area between the inner heating block and the outer 30 heating block and the capillary tube . a doughnut-shaped heating block forming a hollow part , said doughnut-shaped heating block comprising an inner heating block , an outer heating block , and an insulating material which is placed between the inner heating block and the outer heating block so as to separate the inner heating block from the outer heating block , wherein the doughnut-shaped heating block comprises the configuration that the inner heating block is contacted with an inner side of the insulating material in a radial direction and the outer heating block is contacted with an outer side of the insulating material in a radial direction, and a capillary tube wound around the doughnut-shaped heating block through a hollow part of the doughnut-shaped heating block at a regular interval to pass through the hollow part , and the wounded capillary tube be in contact with surfaces of the inner heating block , insulating material , outer heating block , insulating material , and inner heating block in this order, and wherein the capillary tube has an inlet to receive a sample to be subjected to a thermal cycling reaction and an outlet to output the sample after the thermal cycling reaction, wherein an inserting groove , which has a regular size and a regular interval for partial insertion of the capillary tube , is formed in an outer surface of the inner heating block and the outer heating block so as to increase a contacting surface area between the inner heating block and the outer 30 heating block and the capillary tube .
A degradation estimating device comprising: an acquiring unit that acquires time-series data of a state of charge, SOC, in an energy storage device, the time-series data including data of the SOC stored at corresponding pieces of sampling time; and an estimating unit that estimates degradation of the energy storage device based on a fluctuation magnitude of the SOC in the time-series data acquired by the acquiring unit , wherein the estimating unit calculates an estimated degradation value, which indicates the degradation, the estimated degradation value being increased in response to the fluctuation magnitude of the SOC. an acquiring unit that acquires time-series data of a state of charge, SOC, in an energy storage device, the time-series data including data of the SOC stored at corresponding pieces of sampling time; and an estimating unit that estimates degradation of the energy storage device based on a fluctuation magnitude of the SOC in the time-series data acquired by the acquiring unit , wherein the estimating unit calculates an estimated degradation value, which indicates the degradation, the estimated degradation value being increased in response to the fluctuation magnitude of the SOC.
A method for producing a thin film comprising: forming a vapor deposition film by depositing a thin film forming material on a substrate in a non-oxidizing atmosphere by a physical vapor deposition; and bringing the vapor deposition film into contact with a first acidic solution comprising an acidic substance and having a pH-value in the range of pH 2.5 or more and pH 3.5 or less, to obtain a first thin film having voids, wherein the thin film forming material is a mixture comprising indium oxide and silicon oxide, in which the indium oxide is contained in a range of 0.230 mol or more and 0.270 mol or less relative to 1 mol of the silicon oxide, wherein the indium oxide is In 2 O 3 and the silicon oxide contains 50% by mass or more of silicon monoxide, and wherein the refractive index of the first thin film is 1.300 or less and the first thin film has a voidage in a range of 30% or more and 90% or less. forming a vapor deposition film by depositing a thin film forming material on a substrate in a non-oxidizing atmosphere by a physical vapor deposition; and bringing the vapor deposition film into contact with a first acidic solution comprising an acidic substance and having a pH-value in the range of pH 2.5 or more and pH 3.5 or less, to obtain a first thin film having voids, wherein the thin film forming material is a mixture comprising indium oxide and silicon oxide, in which the indium oxide is contained in a range of 0.230 mol or more and 0.270 mol or less relative to 1 mol of the silicon oxide, wherein the indium oxide is In 2 O 3 and the silicon oxide contains 50% by mass or more of silicon monoxide, and wherein the refractive index of the first thin film is 1.300 or less and the first thin film has a voidage in a range of 30% or more and 90% or less.
A wiper movement detecting device comprising: an optical sensor that is installed to face a glass surface (G) in a vehicle and detect illuminance in an area of the glass surface (G) where the wiper (W) that reciprocates along the glass surface (G) passes through; and a movement detecting unit configured to detect a reduction time in which the illuminance detected by the optical sensor temporarily reduces due to the passing of the wiper (W), characterised by the movement detecting unit determining the movement of the wiper from an interval cycle based upon an interval between the reduction times. an optical sensor that is installed to face a glass surface (G) in a vehicle and detect illuminance in an area of the glass surface (G) where the wiper (W) that reciprocates along the glass surface (G) passes through; and a movement detecting unit configured to detect a reduction time in which the illuminance detected by the optical sensor temporarily reduces due to the passing of the wiper (W), characterised by the movement detecting unit determining the movement of the wiper from an interval cycle based upon an interval between the reduction times.
A method of manufacturing bulked continuous carpet filament, said method comprising: (A) providing a multi-screw extruder that comprises: eight satellite screw extruders (425A-H), wherein each of said eight satellite screw extruders (425A-H) comprise a satellite screw mounted to rotate about a respective central axis of each of said eight satellite screw extruders (425A-H); and a pressure regulation system that is adapted to maintain a pressure within said eight satellite screw extruders (425A-H) below about 1.8 millibars; (B) using said pressure regulation system to reduce a pressure within said eight satellite screw extruders (425A-H) below about 1.8 millibars (C) while maintaining said pressure within said eight satellite screw extruders (425A-H) below about 1.8 millibars, passing a melt comprising recycled polymer through said multi-screw extruder so that at least a portion of said melt passes through each of said eight satellite screw extruders (425A-H); (D) after said step of passing said melt of recycled polymer through said multi-screw extruder, forming said recycled polymer into bulked continuous carpet filament by feeding the melt comprising recycled polymer directly into a spinning machine after optionally passing the polymer melt through at least one filter. (A) providing a multi-screw extruder that comprises: eight satellite screw extruders (425A-H), wherein each of said eight satellite screw extruders (425A-H) comprise a satellite screw mounted to rotate about a respective central axis of each of said eight satellite screw extruders (425A-H); and a pressure regulation system that is adapted to maintain a pressure within said eight satellite screw extruders (425A-H) below about 1.8 millibars; eight satellite screw extruders (425A-H), wherein each of said eight satellite screw extruders (425A-H) comprise a satellite screw mounted to rotate about a respective central axis of each of said eight satellite screw extruders (425A-H); and a pressure regulation system that is adapted to maintain a pressure within said eight satellite screw extruders (425A-H) below about 1.8 millibars; (B) using said pressure regulation system to reduce a pressure within said eight satellite screw extruders (425A-H) below about 1.8 millibars (C) while maintaining said pressure within said eight satellite screw extruders (425A-H) below about 1.8 millibars, passing a melt comprising recycled polymer through said multi-screw extruder so that at least a portion of said melt passes through each of said eight satellite screw extruders (425A-H); (D) after said step of passing said melt of recycled polymer through said multi-screw extruder, forming said recycled polymer into bulked continuous carpet filament by feeding the melt comprising recycled polymer directly into a spinning machine after optionally passing the polymer melt through at least one filter.
Medical device comprising: - an artificial contractile structure comprising at least one contractile element adapted to contract an organ, in such way that said contractile element is in a resting or in an activated position, the activated position being defined with said contractile element constricting the organ and the resting position being defined with said contractile element not constricting the organ, - at least one actuator , - at least one control unit comprising and controlling said actuator , - at least one source of energy for powering said actuator , characterized in that said actuator comprises at least one electric motor provided with a gearhead and transmission means linked to the contractile element and further comprising a lead screw and a nut mounted on said lead screw, said actuator being designed to transmit to the contractile element a force induced by the electromotor in such a way that the ratio "current which is needed to maintain the contractile element in its activated position and in its resting position / current which is needed to move the contractile element between its activated position and its resting position" is less than 1/500, preferably less than 1/800, and more preferably less than 1/1000 and in that said medical device comprises means for reducing corrosion of the medical device, which comprise means for reducing corrosion in the control unit which comprises at least one first chamber , which is hermetically sealed and contains said electric motor and said gearhead which are the most sensitive to moisture, and on its side facing the contractile element, at least one second chamber which is not hermetically sealed and contains said lead screw and said nut and a part of the transmission means. - an artificial contractile structure comprising at least one contractile element adapted to contract an organ, in such way that said contractile element is in a resting or in an activated position, the activated position being defined with said contractile element constricting the organ and the resting position being defined with said contractile element not constricting the organ, - at least one actuator , - at least one control unit comprising and controlling said actuator , - at least one source of energy for powering said actuator ,
Method for detecting traffic signs and their installation location by a moving vehicle, comprising: - periodically or continuously determining a geographical position of the vehicle, - recording images using a first camera directed backwards from the point of view of the vehicle, - performing traffic sign recognition for the images from the first camera, and - when a traffic sign has been recognized, storing information representing the recognized traffic sign and an associated geographical position in a database, characterized in that the method furthermore comprises: - recording images using a second camera directed forwards from the point of view of the vehicle, - performing image recognition in an image region lying in the region of the oncoming lane, wherein the image recognition marks objects that have a typical shape of traffic signs as candidates, - estimating the time at which a candidate enters the detection range of the first camera and at which point in the image the entry occurs. - periodically or continuously determining a geographical position of the vehicle, - recording images using a first camera directed backwards from the point of view of the vehicle, - performing traffic sign recognition for the images from the first camera, and - when a traffic sign has been recognized, storing information representing the recognized traffic sign and an associated geographical position in a database, characterized in that the method furthermore comprises: - recording images using a second camera directed forwards from the point of view of the vehicle, - performing image recognition in an image region lying in the region of the oncoming lane, wherein the image recognition marks objects that have a typical shape of traffic signs as candidates, - estimating the time at which a candidate enters the detection range of the first camera and at which point in the image the entry occurs.
A method performed by a terminal in a wireless communication system, the method comprising: performing a frequency scanning for searching a cell on at least one frequency channel based on each beam included in a scan beam set of the terminal; establishing a connection with at least one cell identified based on the frequency scanning; and communicating with the at least one identified cell through a communication beam set, wherein a total number of beams in the scan beam set is smaller than a total number of beams in the communication beam set, and wherein the scan beam set is a partial set of the full communication beam set. performing a frequency scanning for searching a cell on at least one frequency channel based on each beam included in a scan beam set of the terminal; establishing a connection with at least one cell identified based on the frequency scanning; and communicating with the at least one identified cell through a communication beam set, wherein a total number of beams in the scan beam set is smaller than a total number of beams in the communication beam set, and wherein the scan beam set is a partial set of the full communication beam set.
An annuloplasty device comprising first and second support rings being configured to be arranged as a coil in a first configuration around an axial direction , wherein the first and second support rings are configured to be arranged on opposite sides of native heart valve leaflets of a heart valve, a stiffening unit arranged in an interior channel of the first and second support ring, wherein the stiffening unit is attached to the first or second support ring at one fixation point along the first or second support ring to allow a relative motion between the stiffening unit and the first or second support ring, wherein of the stiffening unit increases the stiffness of the first and/or second support rings. first and second support rings being configured to be arranged as a coil in a first configuration around an axial direction , wherein the first and second support rings are configured to be arranged on opposite sides of native heart valve leaflets of a heart valve, a stiffening unit arranged in an interior channel of the first and second support ring, wherein the stiffening unit is attached to the first or second support ring at one fixation point along the first or second support ring to allow a relative motion between the stiffening unit and the first or second support ring, wherein of the stiffening unit increases the stiffness of the first and/or second support rings.
A system comprising: a compressor connected to an evaporator ; a suction sensor that outputs a suction signal corresponding to a temperature of refrigerant entering said compressor; and a control module connected to said suction sensor ; wherein the control module is configured to determine an evaporator temperature, calculate a suction superheat temperature based on said evaporator temperature and said suction signal, and monitor an overheat condition of said compressor by comparing said suction superheat temperature with a predetermined temperature range having an upper limit temperature and a lower limit temperature; characterized in that the control module is configured, when it is determined that said suction superheat temperature is between said upper limit temperature and said lower limit temperature, to detect the overheat condition and reduce a speed of said compressor to a reduced speed determined based on said suction superheat temperature, wherein said lower limit temperature of said predetermined temperature range is seventeen degrees Celsius and said upper limit temperature of said predetermined temperature range is twenty-eight degrees Celsius. a compressor connected to an evaporator ; a suction sensor that outputs a suction signal corresponding to a temperature of refrigerant entering said compressor; and a control module connected to said suction sensor ; wherein the control module is configured to determine an evaporator temperature, calculate a suction superheat temperature based on said evaporator temperature and said suction signal, and monitor an overheat condition of said compressor by comparing said suction superheat temperature with a predetermined temperature range having an upper limit temperature and a lower limit temperature; characterized in that the control module is configured, when it is determined that said suction superheat temperature is between said upper limit temperature and said lower limit temperature, to detect the overheat condition and reduce a speed of said compressor to a reduced speed determined based on said suction superheat temperature, wherein said lower limit temperature of said predetermined temperature range is seventeen degrees Celsius and said upper limit temperature of said predetermined temperature range is twenty-eight degrees Celsius.
A holder for fastening an accessory part , in particular a two-wheeler lock, to a two-wheeler, comprising a base section for fastening the holder to the two-wheeler and a reception section for receiving a holding section , in particular a spigot-shaped holding section, of the accessory part , wherein the reception section has a continuous passage which extends along a passage axis (K) and which has an inlet section at a first end for introducing the holding section of the accessory part into the continuous passage as well as a constriction section at a second end opposite the first end , the cross-section of said constriction section being constricted with respect to the inlet section to limit the introduction of the holding section of the accessory part into the continuous passage , wherein the reception section has the shape of a circumferentially open sleeve; wherein at least one guide element which extends into the passage is formed at the reception section , in particular at an inner side of the reception section , to guide the introduction of the holding section at least regionally into the continuous passage in cooperation with a respective corresponding counter-element at the holding section of a respective accessory part ; and wherein the guide element is configured such that, in cooperation with the respective counter-element , it allows an introduction movement of the holding section along the passage axis (K) up to the limitation by the constriction section , but prevents any change to the angular orientation.