mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a flat steel product made of a steel comprising (in % by wt): 0.070 to 0.15 C, max 0.50 Si, 1.0 to 2.0 Mn, 0.6 to 1.5 Al and 0.2 to 1.0 Cr, residual Fe and unavoidable impurities, comprising at least the following steps: (A) production of a hot-rolled strip, (B) winding of the hot-rolled strip, wherein the winding takes place at a temperature of 540 to 620 °C and (C) where appropriate, cold-rolling and subsequent annealing with an optional following coating. 0.070 to 0.15 C, max 0.50 Si, 1.0 to 2.0 Mn, 0.6 to 1.5 Al and 0.2 to 1.0 Cr, (A) production of a hot-rolled strip, (B) winding of the hot-rolled strip, wherein the winding takes place at a temperature of 540 to 620 °C and (C) where appropriate, cold-rolling and subsequent annealing with an optional following coating.
A glass door for a refrigerating unit comprising a glass pane , a handle assembly comprising a transparent base part made of glass material and bonded at an adhesion surface to an outer glass surface of the glass pane , and wherein the handle assembly further comprises a handle part made in a transparent material, preferably Polymethylmethacrylat (PMMA), wherein the handle assembly further comprises a mounting connection for mounting the handle part to said base part , wherein the mounting connection is provided by one or more protrusions of the handle part and by one or more recess(es) in the base part or one or more recess(es) provided between the base part and the outer glass surface , and wherein the handle assembly is configured to provide a detachment of the handle part from the base part upon physical impact to the handle part by an external force being above a first limit value (F1) without causing a detachment of the base part from the outer glass surface . a glass pane , a handle assembly comprising a transparent base part made of glass material and bonded at an adhesion surface to an outer glass surface of the glass pane , and wherein the handle assembly further comprises a handle part made in a transparent material, preferably Polymethylmethacrylat (PMMA), wherein the handle assembly further comprises a mounting connection for mounting the handle part to said base part , wherein the mounting connection is provided by one or more protrusions of the handle part and by one or more recess(es) in the base part or one or more recess(es) provided between the base part and the outer glass surface , and wherein the handle assembly is configured to provide a detachment of the handle part from the base part upon physical impact to the handle part by an external force being above a first limit value (F1) without causing a detachment of the base part from the outer glass surface .
A granular column aggregate drill including a drill flight where, the drill is a tubular drill including a drill body which is a tube, such that the drill flight is attached to a body outer surface of the drill body and the body outer surface is the exposed outer surface of the drill body characterised in that , the drill body includes one or more compactors , where each compactor present extends radially from the drill body and each compactor extends, at least partially, between two facing portions of the drill flight such that each compactor present is a minimum of 1m to 3m from a ground terminal end of the drill .
A multi-polarized antenna array for localization comprising: a plurality of metal patches , each metal patch having four feed-points (124a,126a,128a,130a; 124b,126b,128b,130b) ; a multiplexer coupled to each of the four feed-points of each of the plurality of metal patches and having a signal terminal and a control terminal ; wherein the antenna array is configurable to switchably couple each feed-point (124a, 126a, 128a, 130a; 124b,126b,128b,130b) one at a time to the signal terminal , and to provide RF signals received via each feedpoint to a controller configured to determine location information: wherein for each metal patch: when the first feed-point of each metal patch is selected, the antenna array is configured to preferentially detect a signal having a first polarization; when the second feed-point is selected the antenna array is configured to preferentially detect a signal having a second polarization; when the third feed-point is selected the antenna array is configured to preferentially detect a signal having a third polarization; when the fourth feed-point is selected the antenna array is configured to preferentially detect a signal having a fourth polarization; and wherein the difference between the second polarization and the first polarization is approximately 45 degrees, the difference between the third polarization and the second polarization is approximately 45 degrees, and the difference between the fourth polarization and the third polarization is approximately 45 degrees. a plurality of metal patches , each metal patch having four feed-points (124a,126a,128a,130a; 124b,126b,128b,130b) ; a multiplexer coupled to each of the four feed-points of each of the plurality of metal patches and having a signal terminal and a control terminal ; wherein the antenna array is configurable to switchably couple each feed-point (124a, 126a, 128a, 130a; 124b,126b,128b,130b) one at a time to the signal terminal , and to provide RF signals received via each feedpoint to a controller configured to determine location information: when the first feed-point of each metal patch is selected, the antenna array is configured to preferentially detect a signal having a first polarization; when the second feed-point is selected the antenna array is configured to preferentially detect a signal having a second polarization; when the third feed-point is selected the antenna array is configured to preferentially detect a signal having a third polarization; when the fourth feed-point is selected the antenna array is configured to preferentially detect a signal having a fourth polarization; and wherein the difference between the second polarization and the first polarization is approximately 45 degrees, the difference between the third polarization and the second polarization is approximately 45 degrees, and the difference between the fourth polarization and the third polarization is approximately 45 degrees.
A system for autonomously onboarding a vehicle on a ramp comprising one or more ramp paths , wherein the system comprises: - a first sensor arranged to be positioned in front of a first front wheel of the vehicle , - a second sensor arranged to be positioned in front of the second front wheel of the vehicle , - the first and second sensors are configured to obtain a three dimensional view of at least an area in front of the first and the second front wheel , wherein the area at least comprises an area under the vehicle in front of the first and the second front wheels , - a control unit configured to: - receive the three dimensional view from the first and second sensors , - identify the one or more ramp paths of the ramp in the three dimensional view, - calculate a three dimensional path (P) for onboarding the vehicle on the one or more ramp paths of the ramp and, - control the vehicle to autonomously onboard the vehicle on to the one or more ramp paths of the ramp along the three dimensional path (P). - a first sensor arranged to be positioned in front of a first front wheel of the vehicle , - a second sensor arranged to be positioned in front of the second front wheel of the vehicle , - the first and second sensors are configured to obtain a three dimensional view of at least an area in front of the first and the second front wheel , wherein the area at least comprises an area under the vehicle in front of the first and the second front wheels , - a control unit configured to: - receive the three dimensional view from the first and second sensors , - identify the one or more ramp paths of the ramp in the three dimensional view, - calculate a three dimensional path (P) for onboarding the vehicle on the one or more ramp paths of the ramp and, - control the vehicle to autonomously onboard the vehicle on to the one or more ramp paths of the ramp along the three dimensional path (P). - receive the three dimensional view from the first and second sensors , - identify the one or more ramp paths of the ramp in the three dimensional view, - calculate a three dimensional path (P) for onboarding the vehicle on the one or more ramp paths of the ramp and, - control the vehicle to autonomously onboard the vehicle on to the one or more ramp paths of the ramp along the three dimensional path (P).
A control method performed by an electronic device , the method comprising monitoring current consumption for each of a plurality of components of the electronic device ; determining a first surface temperature (T1, T2) to be predicted of the electronic device based on power consumption of the plurality of components corresponding to the monitored current consumption and detecting a location (P1, P2) where heat is generated; determining a second surface temperature to be predicted by analyzing power consumption of a component of said plurality of components corresponding to the location (P1, P2) where heat is generated; determining whether the predicted second surface temperature is greater than or equal to a predetermined temperature; when the predicted second surface temperature is greater than or equal to the predetermined temperature, setting a target temperature and controlling the component to reduce the power consumption; wherein determining the first surface temperature (T1, T2) and determining the second surface temperature are based on a thermal resistance value and a thermal capacitance value for each of the plurality of components and the current consumption (q1, q2), and wherein the first surface temperature (T1, T2) is related to a current surface temperature of the electronic device and the second surface temperature is related to a future surface temperature of the electronic device . monitoring current consumption for each of a plurality of components of the electronic device ; determining a first surface temperature (T1, T2) to be predicted of the electronic device based on power consumption of the plurality of components corresponding to the monitored current consumption and detecting a location (P1, P2) where heat is generated; determining a second surface temperature to be predicted by analyzing power consumption of a component of said plurality of components corresponding to the location (P1, P2) where heat is generated; determining whether the predicted second surface temperature is greater than or equal to a predetermined temperature; when the predicted second surface temperature is greater than or equal to the predetermined temperature, setting a target temperature and controlling the component to reduce the power consumption; wherein determining the first surface temperature (T1, T2) and determining the second surface temperature are based on a thermal resistance value and a thermal capacitance value for each of the plurality of components and the current consumption (q1, q2), and wherein the first surface temperature (T1, T2) is related to a current surface temperature of the electronic device and the second surface temperature is related to a future surface temperature of the electronic device .
A thermal management loop system comprising: an accumulator ; an evaporator in fluid receiving communication with the accumulator ; a condenser in fluid receiving communication with the evaporator ; and a membrane separator in fluid receiving communication with the condenser , the membrane separator configured to separate gas-phase fluid from liquid-phase fluid and to recirculate uncondensed gas to the condenser and to provide liquid to the accumulator , characterized by a flow sensor coupled to said membrane separator , wherein identifying a heat transfer load on the thermal management loop system is based on flow data received from the flow sensor. an accumulator ; an evaporator in fluid receiving communication with the accumulator ; a condenser in fluid receiving communication with the evaporator ; and a membrane separator in fluid receiving communication with the condenser , the membrane separator configured to separate gas-phase fluid from liquid-phase fluid and to recirculate uncondensed gas to the condenser and to provide liquid to the accumulator , characterized by a flow sensor coupled to said membrane separator , wherein identifying a heat transfer load on the thermal management loop system is based on flow data received from the flow sensor.
A traffic apparatus location system comprising: a traffic apparatus ; a beacon system affixed to said traffic apparatus , said beacon system configured to broadcast apparatus data including a functional identifier associated with a function of said traffic apparatus ; a remote device configured to receive the apparatus data broadcast by said beacon system , responsive to a measure of a signal strength of the beacon system identified by the remote device ; and a computer processing system configured to receive information associated with the apparatus data from said remote device , the information including the functional identifier associated with the function of said traffic apparatus ; wherein at least one of the remote device and the computer processing system is configured to use the information to derive location data associated with a location in space at which said traffic apparatus is deployed; and wherein at least one of the remote device and the computer processing system is configured to record the function of said traffic apparatus , and record the location in space at which said traffic apparatus was deployed when the signal strength was at or near a maximum. a traffic apparatus ; a beacon system affixed to said traffic apparatus , said beacon system configured to broadcast apparatus data including a functional identifier associated with a function of said traffic apparatus ; a remote device configured to receive the apparatus data broadcast by said beacon system , responsive to a measure of a signal strength of the beacon system identified by the remote device ; and a computer processing system configured to receive information associated with the apparatus data from said remote device , the information including the functional identifier associated with the function of said traffic apparatus ; wherein at least one of the remote device and the computer processing system is configured to use the information to derive location data associated with a location in space at which said traffic apparatus is deployed; and wherein at least one of the remote device and the computer processing system is configured to record the function of said traffic apparatus , and record the location in space at which said traffic apparatus was deployed when the signal strength was at or near a maximum.
A computer-implemented risk control method, the risk control method comprising: acquiring risk information of a user operation, wherein the user operation is an operation for an amount and the risk information comprises a risk type and a parameter characterizing a magnitude of a risk corresponding to the risk type, the risk type being a remote risk for a personal computer; calculating , for an identity verification mode corresponding to historical identity verification, a security coefficient according to the risk information and security information corresponding to the identity verification mode, wherein the historical identity verification comprises identity verification for a current user prior to the user operation, and the security information is information related to security of the identity verification mode; calculating an expected asset loss according to the security coefficient and the amount corresponding to the user operation; and performing prescribed risk control processing on the user operation when the expected asset loss satisfies a preset condition, wherein the prescribed risk control processing comprises not allowing the user operation, and waiving performing the prescribed risk control processing on the user operation when the expected asset loss does not satisfy the preset condition. acquiring risk information of a user operation, wherein the user operation is an operation for an amount and the risk information comprises a risk type and a parameter characterizing a magnitude of a risk corresponding to the risk type, the risk type being a remote risk for a personal computer; calculating , for an identity verification mode corresponding to historical identity verification, a security coefficient according to the risk information and security information corresponding to the identity verification mode, wherein the historical identity verification comprises identity verification for a current user prior to the user operation, and the security information is information related to security of the identity verification mode; calculating an expected asset loss according to the security coefficient and the amount corresponding to the user operation; and performing prescribed risk control processing on the user operation when the expected asset loss satisfies a preset condition, wherein the prescribed risk control processing comprises not allowing the user operation, and waiving performing the prescribed risk control processing on the user operation when the expected asset loss does not satisfy the preset condition.
Apparatus for voltage monitoring of a device which implements or monitors a safety function of a machine or technical installation and has at least two processing channels , comprising: an input for receiving an input voltage , a voltage regulator for generating a defined output voltage from the input voltage , an output for providing the defined output voltage for the operation of the device , a voltage monitor configured to compare a voltage, which is present at the output , with the defined output voltage , and a first interface and a second interface for connecting said voltage regulator to the at least two processing channels of the device , wherein the first interface and the second interface are configured to connect a first processing channel and a second processing channel of the at least two processing channels of the device separately with the voltage regulator , characterized in that the voltage regulator is adjustable so that its output voltage can be adjusted by a specific control of the first interface and the second interface in such a way that on the one hand an undervoltage, which is smaller than the defined output voltage, and on the other hand an overvoltage, which is larger than the defined output voltage, is provided, and in that the voltage monitor is configured to switch off the output in the event that the voltage, which is present at the output , deviates from the defined output voltage. an input for receiving an input voltage , a voltage regulator for generating a defined output voltage from the input voltage , an output for providing the defined output voltage for the operation of the device , a voltage monitor configured to compare a voltage, which is present at the output , with the defined output voltage , and a first interface and a second interface for connecting said voltage regulator to the at least two processing channels of the device , wherein the first interface and the second interface are configured to connect a first processing channel and a second processing channel of the at least two processing channels of the device separately with the voltage regulator , characterized in that the voltage regulator is adjustable so that its output voltage can be adjusted by a specific control of the first interface and the second interface in such a way that on the one hand an undervoltage, which is smaller than the defined output voltage, and on the other hand an overvoltage, which is larger than the defined output voltage, is provided, and in that the voltage monitor is configured to switch off the output in the event that the voltage, which is present at the output , deviates from the defined output voltage.
A filter housing for use in filtration of fuel, hydraulic fluids or lubricating fluids comprising: (a) a surrounding wall defining an interior volume ; the surrounding wall having an interior surface in communication with the interior volume and an opposite exterior surface ; the housing having first and second opposite ends , and an open mouth in communication with the interior volume at the first end ; (i) a longitudinal axis extending through the first and second ends of the housing ; and (b) a threaded section for connecting with a filter head with a threaded section first end and an opposite threaded section second end ; the threaded section first end being above the threaded section second end when the housing is oriented with longitudinal axis extending vertically and the housing first end being above the housing second end ; (i) the threaded section being angled at an angle relative to a line parallel to the longitudinal axis, as the threaded section extends from the threaded section first end next to the mouth toward the threaded section second end spaced from the mouth ; (ii) the angle being at least 1 degree; characterized in that the filter housing further includes a recess located axially between the threaded section and the mouth , the recess holding a seal member . (a) a surrounding wall defining an interior volume ; the surrounding wall having an interior surface in communication with the interior volume and an opposite exterior surface ; the housing having first and second opposite ends , and an open mouth in communication with the interior volume at the first end ; (i) a longitudinal axis extending through the first and second ends of the housing ; and (i) a longitudinal axis extending through the first and second ends of the housing ; and (b) a threaded section for connecting with a filter head with a threaded section first end and an opposite threaded section second end ; the threaded section first end being above the threaded section second end when the housing is oriented with longitudinal axis extending vertically and the housing first end being above the housing second end ; (i) the threaded section being angled at an angle relative to a line parallel to the longitudinal axis, as the threaded section extends from the threaded section first end next to the mouth toward the threaded section second end spaced from the mouth ; (ii) the angle being at least 1 degree; (i) the threaded section being angled at an angle relative to a line parallel to the longitudinal axis, as the threaded section extends from the threaded section first end next to the mouth toward the threaded section second end spaced from the mouth ; (ii) the angle being at least 1 degree;
An implant for providing a shunt having an adjustable flow rate, wherein the implant comprises a valve element having a passage, characterized in that the valve element comprises a plunger that is travelable between a pass position and a closed position, that has a permanent magnet, and that is spring loaded such that it is preloaded into its closed position.