mhurhangee/patent-ind-claim-en huggingface dataset:
A stent comprising: a helical main stent component comprising a single band that forms a plurality of helical windings, wherein the single band has an undulating pattern; and a securement interconnecting the main stent component helical windings, wherein the securement structurally supports an entire length of the helical main stent component in a tubular form; characterized in a first end band having the undulating pattern, a first edge and a second edge , said first end band connected to the single band and extending at an angle offset from said single band when the stent is laid flat; a second end band having the undulating pattern, a first edge and a second edge , said second end band connected to the single band and extending at an angle offset from said single band when the stent is laid flat, wherein the end bands extend at an angle from the single band at ends of the stent, the end bands being configured to form a substantial right cylinder to a longitudinal axis of the stent at the ends of the stent; and wherein, in the tubular form, first edge of the first end band is brought together with second edge of the first end band and the first edge of the second end band is brought together with second edge of the second end band . a helical main stent component comprising a single band that forms a plurality of helical windings, wherein the single band has an undulating pattern; and a securement interconnecting the main stent component helical windings, wherein the securement structurally supports an entire length of the helical main stent component in a tubular form; characterized in a first end band having the undulating pattern, a first edge and a second edge , said first end band connected to the single band and extending at an angle offset from said single band when the stent is laid flat; a second end band having the undulating pattern, a first edge and a second edge , said second end band connected to the single band and extending at an angle offset from said single band when the stent is laid flat, a first end band having the undulating pattern, a first edge and a second edge , said first end band connected to the single band and extending at an angle offset from said single band when the stent is laid flat; a second end band having the undulating pattern, a first edge and a second edge , said second end band connected to the single band and extending at an angle offset from said single band when the stent is laid flat, wherein the end bands extend at an angle from the single band at ends of the stent, the end bands being configured to form a substantial right cylinder to a longitudinal axis of the stent at the ends of the stent; and wherein, in the tubular form, first edge of the first end band is brought together with second edge of the first end band and the first edge of the second end band is brought together with second edge of the second end band .
A method to produce hot-rolled steel strips from continuously cast thick or thin slabs comprising Si between 0.10 and 3.00 wt.% and at least 0.80 wt.% Mn, the method comprising heating or reheating the slab to a reheating temperature of at least 1100 °C in a reheating or homogenising furnace, optionally hot-rolling the slab to a transfer bar in a roughing mill consisting of one or more rough rolling stands, transferring the slab or transfer bar to a tandem finishing mill consisting of a plurality of finishing mill rolling stands, descaling the slab or transfer bar in a descaler, and rolling the descaled slab or transfer bar in said plurality of finishing mill rolling stands to a hot-rollec strip having a final thickness of less than about 8.0 mm, wherein the temperature of the strip at exit of the last stand in the finishing mill rolling T is determined by T (°C) > 41.823 ln(wt.% Si) + 980.4 and the time between the descaler and the first finishing mill rolling stand t d-F1 is determined by t d-F1 (s) < -0.603 ln(wt.% Si) + 4.8731.
A method of transmitting positioning information by a user equipment, UE, in a wireless communication system supporting sidelink, the method comprising: receiving configuration information for a positioning signal via a higher layer signal from a network, wherein the configuration information for positioning signal transmissions at network nodes includes a bandwidth for the positioning signal, a positioning configuration index for determining periodicity of the positioning signal and a subframe offset of the positioning signal, muting information for the positioning signal and a number of consecutive subframes for the positioning signal; receiving (S901), from the network or a transmitting UE, the positioning signal including N consecutive tones based on the configuration information, where N is an integer, wherein reference signals are mapped to the N consecutive tones; performing (S903) measurements on the reference signals mapped to the N consecutive tones; and transmitting (S905), to the network or the transmitting UE, positioning information including a result of the measurements, wherein the result of the measurements includes a sum of measured phase differences between a reference signal mapped to an anchor tone and each of the reference signals mapped to the N consecutive tones, and wherein, based on a phase variation of the channel carrying the positioning signal being low, the anchor tone is determined as a first tone among the N consecutive tones, and wherein, based on the phase variation of the channel carrying the positioning signal being large, the anchor tone is determined as a middle tone among the N consecutive tones. receiving configuration information for a positioning signal via a higher layer signal from a network, wherein the configuration information for positioning signal transmissions at network nodes includes a bandwidth for the positioning signal, a positioning configuration index for determining periodicity of the positioning signal and a subframe offset of the positioning signal, muting information for the positioning signal and a number of consecutive subframes for the positioning signal; receiving (S901), from the network or a transmitting UE, the positioning signal including N consecutive tones based on the configuration information, where N is an integer, wherein reference signals are mapped to the N consecutive tones; performing (S903) measurements on the reference signals mapped to the N consecutive tones; and transmitting (S905), to the network or the transmitting UE, positioning information including a result of the measurements, wherein the result of the measurements includes a sum of measured phase differences between a reference signal mapped to an anchor tone and each of the reference signals mapped to the N consecutive tones, and wherein, based on a phase variation of the channel carrying the positioning signal being low, the anchor tone is determined as a first tone among the N consecutive tones, and wherein, based on the phase variation of the channel carrying the positioning signal being large, the anchor tone is determined as a middle tone among the N consecutive tones.
1. A method comprising injection moulding a plastics layer on a plurality of sides of each tooth of a plurality of teeth for mounting to a circumferential support of a stator or rotor of an electric motor or generator, with a first gap formed in the injection moulded plastics layer on a first side of each tooth, and placing a first insulation element in the first gap formed in the injection moulded plastics layer, wherein the injection moulded plastics layer and the first insulation element are arranged to electrically insulate each respective tooth from coil windings arranged to be wound around each respective tooth; mounting each respective tooth on the circumferential support by engaging second engagement means of each respective tooth with respective first engagement means distributed about the circumferential support for allowing each respective tooth to be mounted to the circumferential support in a radial direction.
A method to control lost circulation in a lost circulation zone in a wellbore, comprising: introducing an altered drilling fluid into the wellbore such that the altered drilling fluid contacts the lost circulation zone and reduces a rate of lost circulation into the lost circulation zone, where the altered drilling fluid comprises a drilling fluid and a lost circulation material (LCM), wherein the LCM comprises: a plurality of date tree trunk fibers produced from date tree trunks and a plurality of date tree rachis fibers produced from date tree rachises, each of the plurality of date tree trunk fibers and the plurality of date tree rachis fibers having a length in the range of 20 microns (μm) to 300 μm.
Device for preparing a distillation measurement of a liquid, comprising: a hole plate ; a container with an opening; a heating unit which is placeable on the hole plate and which is configured for heating the container which contains the liquid which is placed on the hole plate for performing a standardized test for a determination of evaporation properties of the liquid; a, in particular electric, displacing system which is configured to displace the heating unit and to interrupt a further displacement of the heating unit , if a pressing force (F) of the hole plate which is placed on the heating unit against the container reaches a threshold value, wherein the displacing system encompasses a displaceable carrier system by which the heating unit is supported, wherein the device is configured to monitor and/or to determine a quantity which is indicative for a length and/or a position (z) along a displacing path of the carrier system , in particular a number of steps of a stepping motor . a hole plate ; a container with an opening; a heating unit which is placeable on the hole plate and which is configured for heating the container which contains the liquid which is placed on the hole plate for performing a standardized test for a determination of evaporation properties of the liquid; a, in particular electric, displacing system which is configured to displace the heating unit and to interrupt a further displacement of the heating unit , if a pressing force (F) of the hole plate which is placed on the heating unit against the container reaches a threshold value, wherein the displacing system encompasses a displaceable carrier system by which the heating unit is supported, wherein the device is configured to monitor and/or to determine a quantity which is indicative for a length and/or a position (z) along a displacing path of the carrier system , in particular a number of steps of a stepping motor .
An electronic device comprising: a camera ; a sensor device ; an initializer comprising hardware and/or instructions executable by a processor, the initializer being configured to: adjust one or more settings of the camera prior to initialization of the camera and during a standby mode of operation of the camera, the one or more settings adjusted based on one or more second measurements performed in response to an indication of motion associated with the electronic device, wherein the indication of motion is generated prior to initializing the camera, the motion being detected using a first measurement performed by the sensor device, wherein the one or more second measurements include one or more of a depth measurement, an illuminance measurement, or a spectral measurement, the one or more second measurements being performed using one or more sensors of the sensor device; and a processing device configured to: execute a camera application to initialize the camera after adjustment of the one or more settings; control the camera to capture an image based on the adjusted one or more settings after initializing the camera application; and readjust, after capturing the first image, the one or more settings; wherein the power consumption level of the initialized camera is greater than the power consumption level of the camera in standby mode. a camera ; a sensor device ; an initializer comprising hardware and/or instructions executable by a processor, the initializer being configured to: adjust one or more settings of the camera prior to initialization of the camera and during a standby mode of operation of the camera, the one or more settings adjusted based on one or more second measurements performed in response to an indication of motion associated with the electronic device, wherein the indication of motion is generated prior to initializing the camera, the motion being detected using a first measurement performed by the sensor device, wherein the one or more second measurements include one or more of a depth measurement, an illuminance measurement, or a spectral measurement, the one or more second measurements being performed using one or more sensors of the sensor device; and a processing device configured to: execute a camera application to initialize the camera after adjustment of the one or more settings; control the camera to capture an image based on the adjusted one or more settings after initializing the camera application; and readjust, after capturing the first image, the one or more settings; wherein the power consumption level of the initialized camera is greater than the power consumption level of the camera in standby mode. execute a camera application to initialize the camera after adjustment of the one or more settings; control the camera to capture an image based on the adjusted one or more settings after initializing the camera application; and readjust, after capturing the first image, the one or more settings; wherein the power consumption level of the initialized camera is greater than the power consumption level of the camera in standby mode.
A graphics processing system for generating a shadow map texture for use in a subsequent render comprising: a tiling unit configured to tile a first view of a scene into a plurality of tiles, the first view being a point of view of a light source; a processing unit configured to identify a first subset of the tiles that are associated with a region of the scene that is viewable in a second view, the second view being a point of view of the subsequent render, and wherein the first subset of tiles are identified in dependence on a frustum model comprising primitives representing a view frustum of the second view; and a rendering unit configured to render to a shadow map texture each of the identified tiles ; the graphics processing system being characterised in that : the tiling unit is configured to tile the frustum model from the first view into the plurality of tiles and generate a list of frustum primitives associated with each of the tiles; and the processing unit is configured to identify the first subset of tiles in dependence on the list of frustum primitives. a tiling unit configured to tile a first view of a scene into a plurality of tiles, the first view being a point of view of a light source; a processing unit configured to identify a first subset of the tiles that are associated with a region of the scene that is viewable in a second view, the second view being a point of view of the subsequent render, and wherein the first subset of tiles are identified in dependence on a frustum model comprising primitives representing a view frustum of the second view; and a rendering unit configured to render to a shadow map texture each of the identified tiles ; the tiling unit is configured to tile the frustum model from the first view into the plurality of tiles and generate a list of frustum primitives associated with each of the tiles; and the processing unit is configured to identify the first subset of tiles in dependence on the list of frustum primitives.
A wireless charging intensity indication method, comprising: obtaining, by a charged device, wireless charging electrical signal intensity of the charged device at a present charging position, and displaying , on a display screen of the charged device, the wireless charging electrical signal intensity at the present charging position, wherein the step of displaying the wireless charging electrical signal intensity on the display screen is intended to provide a basis for a user to select a charging position, characterized in that the step of obtaining, by the charged device, the wireless charging electrical signal intensity of the charged device at the present charging position comprises: detecting , by the charged device, a charging electrical signal at an initial charging position and the charging electrical signal at the present charging position; and performing, by the charged device, a division operation on the detected charging electrical signal at the present charging position and the charging electrical signal at the initial charging position to derive a calculation result, and multiplying the calculation result by a reference wireless charging electrical signal intensity at the initial charging position, to obtain the wireless charging intensity at the present charging position. obtaining, by a charged device, wireless charging electrical signal intensity of the charged device at a present charging position, and displaying , on a display screen of the charged device, the wireless charging electrical signal intensity at the present charging position, wherein the step of displaying the wireless charging electrical signal intensity on the display screen is intended to provide a basis for a user to select a charging position, characterized in that the step of obtaining, by the charged device, the wireless charging electrical signal intensity of the charged device at the present charging position comprises: detecting , by the charged device, a charging electrical signal at an initial charging position and the charging electrical signal at the present charging position; and performing, by the charged device, a division operation on the detected charging electrical signal at the present charging position and the charging electrical signal at the initial charging position to derive a calculation result, and multiplying the calculation result by a reference wireless charging electrical signal intensity at the initial charging position, to obtain the wireless charging intensity at the present charging position. detecting , by the charged device, a charging electrical signal at an initial charging position and the charging electrical signal at the present charging position; and performing, by the charged device, a division operation on the detected charging electrical signal at the present charging position and the charging electrical signal at the initial charging position to derive a calculation result, and multiplying the calculation result by a reference wireless charging electrical signal intensity at the initial charging position, to obtain the wireless charging intensity at the present charging position.
Process for controlling the lubrication of a compressor unit of a refrigerating machine which is equipped with an expansion valve which has an adjustable degree of opening and which has an inlet and an outlet and which is in fluid communication with a casing of said compressor unit to be passed through by a flow tapped from the latter; within said casing , refrigerant fluid and lubricating oil for lubricating said compressor unit being present; the outlet of said expansion valve being connected to an intake duct of said compressor so as to replenish the latter with said tapped flow; said process comprises a check procedure which comprises: - a tapping operation which involves drawing a flow from said compressor and passing it through said expansion valve , so as to expand it; - a measurement operation which involves measuring a temperature difference which said fluid has between the inlet and the outlet of said expansion valve ; - a verification operation which is positive if the modulus of the measured temperature difference, in said measurement operation, exceeds a threshold value; - a replenishment operation which involves the introduction of lubricating oil into said compressor ; said replenishment operation being carried out when said verification operation is positive. - a tapping operation which involves drawing a flow from said compressor and passing it through said expansion valve , so as to expand it; - a measurement operation which involves measuring a temperature difference which said fluid has between the inlet and the outlet of said expansion valve ; - a verification operation which is positive if the modulus of the measured temperature difference, in said measurement operation, exceeds a threshold value; - a replenishment operation which involves the introduction of lubricating oil into said compressor ; said replenishment operation being carried out when said verification operation is positive.
A heat exchanger comprising a core , said core defining a first fluid circuit and a second fluid circuit, said first fluid circuit including one flow section (C) through which a first fluid flows in one direction, said second fluid circuit being divided into flow sections, which are in fluid communication to one another and through which a second fluid flows in different directions, said one flow section (C) of said first fluid circuit and said flow sections of said second fluid circuit being defined by a plurality of flow passages , said second fluid circuit is divided into a first flow section (R1), a second flow section (R2) and a third flow section (R3), said first, second and third flow sections (R1, R2, R3) being configured so that said first flow section (R1) is in fluid communication with said second flow section (R2) and said second flow section (R2) is in fluid communication with said third flow section (R3) and a direction of flow in said first and third flow sections (R1, R3) is opposite to said direction of flow in said one flow section (C) of said first fluid circuit and a direction of flow in said second flow section (R2) is the same as said direction of flow in said one flow section (C) of said first fluid circuit; characterized in that a number NR3 of said flow passages of said third flow section (R3) is greater than a number NR2 of said flow passages of said second flow section (R2) and said number NR3 of said flow passages of said third flow section (R3) is smaller than or equal to a number NR1 of said flow passages in said first flow section (R1).
A lighter comprising a safety protection device , an ignition switch and an energy supply module , wherein the safety protection device comprises a safety switch , a trigger module and a wireless transceiver module , wherein the wireless transceiver module is capable of transmitting a wireless request signal, receiving a wireless response signal and transmitting the received wireless response signal to the trigger module , wherein the trigger module is configured to trigger the safety switch according to the wireless response signal to enable the safety switch to act so that ignition can be realized, and the lighter is further configured such that the ignition cannot be realized even the ignition switch is actuated when the wireless transceiver module does not receive the wireless response signal.