mhurhangee/patent-ind-claim-en huggingface dataset:
Transparent Li 2 O-Al 2 O 3 -SiO 2 - (LAS) glass-ceramic characterized • in that it comprises high-quartz mixed crystals as main crystal phase, • in that , apart from unavoidable raw-material impurities, it is arsenic-free and antimony-free, • in that it comprises the following components (in % by weight on an oxide basis): TiO 2 1.6 - < 2.5 Nd 2 O 3 0.005 - 0.15 MgO 0.2 - 1.0 ZnO 1 - 2.5 CaO + SrO 0 - 1.5 BaO 0 - 1.5 with the following proviso B1: MgO + ZnO > CaO + SrO + BaO. • in that it comprises high-quartz mixed crystals as main crystal phase, • in that , apart from unavoidable raw-material impurities, it is arsenic-free and antimony-free, • in that it comprises the following components (in % by weight on an oxide basis): TiO 2 1.6 - < 2.5 Nd 2 O 3 0.005 - 0.15 MgO 0.2 - 1.0 ZnO 1 - 2.5 CaO + SrO 0 - 1.5 BaO 0 - 1.5 with the following proviso B1: MgO + ZnO > CaO + SrO + BaO.
A method of operating an electric powered appliance , the appliance being electrically coupled to a first electrical supply main and a second electrical supply main lines supplying electrical power to the appliance , and including suspending a supply of power through at least one of said electrical supply main lines. characterized in that the method comprising the step of receiving, by a communication module of a power control device, power information related to a supply of power to the appliance from an external electric power source supplying electrical power to the appliance and operating the appliance in a demand response mode based on the received power information . the appliance being electrically coupled to a first electrical supply main and a second electrical supply main lines supplying electrical power to the appliance , and including suspending a supply of power through at least one of said electrical supply main lines. characterized in that the method comprising the step of receiving, by a communication module of a power control device, power information related to a supply of power to the appliance from an external electric power source supplying electrical power to the appliance and operating the appliance in a demand response mode based on the received power information .
A method for controlling a vehicle, the method comprising: determining a distance between a user and the vehicle; acquiring a face image of the user in response to determining that the distance is smaller than or equal to a preset threshold; determining user information of the user based on the face image; and sending an unlocking instruction to the vehicle, in response to determining that the user information satisfies a preset condition, wherein the user information comprises a credit value, wherein the credit value is obtained by analysis of income, expenditure and historical behaviour data on shopping websites of the user by a bank or other third-party institutions; and the sending an unlocking instruction to the vehicle, in response to determining that the user information satisfies a preset condition, comprises: sending the unlocking instruction to the vehicle, in response to determining that the credit value is greater than a preset credit value threshold. determining a distance between a user and the vehicle; acquiring a face image of the user in response to determining that the distance is smaller than or equal to a preset threshold; determining user information of the user based on the face image; and sending an unlocking instruction to the vehicle, in response to determining that the user information satisfies a preset condition, wherein the user information comprises a credit value, wherein the credit value is obtained by analysis of income, expenditure and historical behaviour data on shopping websites of the user by a bank or other third-party institutions; and the sending an unlocking instruction to the vehicle, in response to determining that the user information satisfies a preset condition, comprises: sending the unlocking instruction to the vehicle, in response to determining that the credit value is greater than a preset credit value threshold.
A method of wireless communication by a wireless device, the method comprising: generating , by the wireless device, a protocol data unit, PDU, header of an angle of arrival, AoA, packet, wherein the PDU header includes a reserved for future use, RFU, field; generating , by the wireless device, a PDU payload of the AoA packet corresponding to the PDU header, wherein generating the PDU payload includes: inserting a supplemental field into the PDU payload to enable another wireless device to determine an angle of arrival of the AoA packet, and inserting a cyclic redundancy check, CRC, field into the PDU payload, the CRC field corresponding to a CRC of at least the supplemental field; modifying the PDU header by replacing one or more reserved bits of the RFU field to indicate that the PDU payload includes the supplemental field; and transmitting the AoA packet with a single antenna of the wireless device. generating , by the wireless device, a protocol data unit, PDU, header of an angle of arrival, AoA, packet, wherein the PDU header includes a reserved for future use, RFU, field; generating , by the wireless device, a PDU payload of the AoA packet corresponding to the PDU header, wherein generating the PDU payload includes: inserting a supplemental field into the PDU payload to enable another wireless device to determine an angle of arrival of the AoA packet, and inserting a cyclic redundancy check, CRC, field into the PDU payload, the CRC field corresponding to a CRC of at least the supplemental field; inserting a supplemental field into the PDU payload to enable another wireless device to determine an angle of arrival of the AoA packet, and inserting a cyclic redundancy check, CRC, field into the PDU payload, the CRC field corresponding to a CRC of at least the supplemental field; modifying the PDU header by replacing one or more reserved bits of the RFU field to indicate that the PDU payload includes the supplemental field; and transmitting the AoA packet with a single antenna of the wireless device.
A method for controlling one or more brakes, in particular disc brakes, of a brake system of a vehicle, in particular a trailer vehicle, comprising at least the following steps: a) providing the vehicle having the brake system with at least one or more brakes with brake pads that have a pad carrier plate and a friction lining, and with at least one evaluation and control device ; b) determining the braking energy per brake converted during one or more brake applications by means of the evaluation and control device ; c) comparing the braking energy determined with at least one setpoint value by means of the evaluation and control device ; characterised in that the method also comprises the following step: d) increasing the energy input during a current and/or one or more subsequent brake applications by means of the evaluation and control device when the braking energy determined falls below the setpoint value. a) providing the vehicle having the brake system with at least one or more brakes with brake pads that have a pad carrier plate and a friction lining, and with at least one evaluation and control device ; b) determining the braking energy per brake converted during one or more brake applications by means of the evaluation and control device ; c) comparing the braking energy determined with at least one setpoint value by means of the evaluation and control device ; characterised in that the method also comprises the following step: d) increasing the energy input during a current and/or one or more subsequent brake applications by means of the evaluation and control device when the braking energy determined falls below the setpoint value.
A method for geo-localizing the environment of a carrier, comprising the following steps: - acquiring a plurality of shots of the environment of the carrier; - determining at least one piece of information relating to the position of the carrier for a set of shots; - generating a virtual reconstruction of the environment from the shots of said set, from the positional information and from a measurement bias parameter for each position, said virtual reconstruction being parameterized depending on the measurement bias ; and - modifying the measurement bias parameter to be applied at each position to obtain a virtual reconstruction parameterized by a modified measurement bias, the modification being carried out so as to minimize the distance between said modified virtual reconstruction and an a priori virtual representation of the environment. - acquiring a plurality of shots of the environment of the carrier; - determining at least one piece of information relating to the position of the carrier for a set of shots; - generating a virtual reconstruction of the environment from the shots of said set, from the positional information and from a measurement bias parameter for each position, said virtual reconstruction being parameterized depending on the measurement bias ; and - modifying the measurement bias parameter to be applied at each position to obtain a virtual reconstruction parameterized by a modified measurement bias, the modification being carried out so as to minimize the distance between said modified virtual reconstruction and an a priori virtual representation of the environment.
An image processing method comprising: acquiring a captured image obtained by imaging; generating a first image by correcting a blur component of the captured image; and generating a second image based on the captured image, the first image, and weight information, characterized in that the weight information is generated based on (i) information on brightness of the captured image or information on a scene of the captured image and (ii) information on a saturated area in the captured image, wherein the information on the saturated area is acquired by inputting the captured image into a machine learning model, wherein the machine learning model is trained by using a saturation effect ground truth map indicating a relationship between (i) a range of an area in which an object in the saturated area has been spread by the blur component and (ii) a signal value corresponding to the area. acquiring a captured image obtained by imaging; generating a first image by correcting a blur component of the captured image; and generating a second image based on the captured image, the first image, and weight information, characterized in that the weight information is generated based on (i) information on brightness of the captured image or information on a scene of the captured image and (ii) information on a saturated area in the captured image,
An evaporative cooling system comprising: a primary cooling unit that utilizes a cooling fluid flowing through a primary heat exchange medium to cool supply air flowing past the primary heat exchange medium, the primary cooling unit including a supply line for supplying the cooling fluid to the primary heat exchange medium, a return reservoir for collecting the cooling fluid supplied to the primary heat exchange medium, and a pump for recirculating the cooling fluid collected in the reservoir back to the supply line ; a bleed line configured to bleed a portion of the recirculating cooling fluid from the primary cooling unit , the bleed line being directly connected to the supply line at a position downstream of the pump ; and a secondary cooling unit disposed upstream of the primary cooling unit with respect to a flow direction of the supply air, the secondary cooling unit comprising a secondary heat exchange medium configured to receive the cooling fluid bled from the primary cooling unit through the bleed line . a primary cooling unit that utilizes a cooling fluid flowing through a primary heat exchange medium to cool supply air flowing past the primary heat exchange medium, the primary cooling unit including a supply line for supplying the cooling fluid to the primary heat exchange medium, a return reservoir for collecting the cooling fluid supplied to the primary heat exchange medium, and a pump for recirculating the cooling fluid collected in the reservoir back to the supply line ; a bleed line configured to bleed a portion of the recirculating cooling fluid from the primary cooling unit , the bleed line being directly connected to the supply line at a position downstream of the pump ; and a secondary cooling unit disposed upstream of the primary cooling unit with respect to a flow direction of the supply air, the secondary cooling unit comprising a secondary heat exchange medium configured to receive the cooling fluid bled from the primary cooling unit through the bleed line .
Electromechanical actuating drive for rack-and-pinion steering, wherein the actuating drive has a stator and a rotor , and wherein the actuating drive has an electronic system, wherein the electronic system has at least one first electronic sub-system with a first power output stage , a first control unit and a first rotor-position sensor arrangement and a second electronic sub-system with a second power output stage , a second control unit and a second rotor-position sensor arrangement , wherein the first electronic sub-system and the second electronic sub-system are together operatively connected to the stator and the rotor , characterized in that the first electronic sub-system is arranged at least on a first circuit carrier plane and a second circuit carrier plane and the second electronic sub-system is arranged at least on the first circuit carrier plane and a third circuit carrier plane , wherein the first, second and third circuit carrier planes are arranged perpendicular to an axis of rotation of the rotor and spaced apart from one another along the axis of rotation , wherein the first power output stage , the second power output stage , the first rotor-position sensor arrangement and the second rotor-position sensor arrangement are arranged on the first circuit carrier plane , the first control unit is arranged on the second circuit carrier plane and the second control unit is arranged on the third circuit carrier plane .
An apparatus comprising: an actuator arranged to move in a first direction and a second direction in response to an electrical input signal; a plurality of elongate members , adjacent to the actuator and arranged to extend towards the second direction; and wherein the actuator is arranged relative to the plurality of elongate members so that displacement of the plurality of elongate members caused by movement of the actuator in the first direction is restricted and displacement of the plurality of elongate members caused by movement of the actuator in the second direction is adapted to provide a tactile output for a user. an actuator arranged to move in a first direction and a second direction in response to an electrical input signal; a plurality of elongate members , adjacent to the actuator and arranged to extend towards the second direction; and wherein the actuator is arranged relative to the plurality of elongate members so that displacement of the plurality of elongate members caused by movement of the actuator in the first direction is restricted and displacement of the plurality of elongate members caused by movement of the actuator in the second direction is adapted to provide a tactile output for a user.
An ejector (200; 300; 400; 600) comprising: a primary inlet ; a secondary inlet ; an outlet ; a primary flowpath from the primary inlet to the outlet; a secondary flowpath from the secondary inlet to the outlet; a mixer convergent section downstream of the secondary inlet; and a motive nozzle surrounding the primary flowpath upstream of a junction with the secondary flowpath and having an exit ; characterised in that : a secondary inlet passageway (218; 218A, 218B; 218'A, 218'B; 218"A, 218"B) has a terminal portion oriented along a secondary axis to discharge a secondary flow along the secondary flowpath at an angle (θ) of 10-75° off-parallel to a local direction of the primary flowpath; a center of an outlet of the terminal portion is at a radius (R1) from an axis of the motive nozzle and axially recessed by a distance (L1) relative to the exit of the motive nozzle , wherein the distance (L1) is less than 100 mm and the radius (R1) is 0.25 to 100 mm; and the secondary axis intersects the axis of the motive nozzle at a location between 2.0 times the radius (R1) upstream and 1.0 times the radius (R1) downstream of the motive nozzle exit . a primary inlet ; a secondary inlet ; an outlet ; a primary flowpath from the primary inlet to the outlet; a secondary flowpath from the secondary inlet to the outlet; a mixer convergent section downstream of the secondary inlet; and a motive nozzle surrounding the primary flowpath upstream of a junction with the secondary flowpath and having an exit ; characterised in that : a secondary inlet passageway (218; 218A, 218B; 218'A, 218'B; 218"A, 218"B) has a terminal portion oriented along a secondary axis to discharge a secondary flow along the secondary flowpath at an angle (θ) of 10-75° off-parallel to a local direction of the primary flowpath; a center of an outlet of the terminal portion is at a radius (R1) from an axis of the motive nozzle and axially recessed by a distance (L1) relative to the exit of the motive nozzle , wherein the distance (L1) is less than 100 mm and the radius (R1) is 0.25 to 100 mm; and the secondary axis intersects the axis of the motive nozzle at a location between 2.0 times the radius (R1) upstream and 1.0 times the radius (R1) downstream of the motive nozzle exit . a secondary inlet passageway (218; 218A, 218B; 218'A, 218'B; 218"A, 218"B) has a terminal portion oriented along a secondary axis to discharge a secondary flow along the secondary flowpath at an angle (θ) of 10-75° off-parallel to a local direction of the primary flowpath; a center of an outlet of the terminal portion is at a radius (R1) from an axis of the motive nozzle and axially recessed by a distance (L1) relative to the exit of the motive nozzle , wherein the distance (L1) is less than 100 mm and the radius (R1) is 0.25 to 100 mm; and the secondary axis intersects the axis of the motive nozzle at a location between 2.0 times the radius (R1) upstream and 1.0 times the radius (R1) downstream of the motive nozzle exit .
A working machine comprising; a hydraulic fluid circuit arranged to provide hydraulic fluid to one or more hydraulic actuators to perform a working operation such as displacing a working arm ; a ground engaging propulsion structure; an electrical energy storage device configured to provide electrical energy to an electric motor (M, 30) to provide, at least in part, tractive power to the ground engaging propulsion structure and/or power to a hydraulic pump to provide pressurised hydraulic fluid to displace the or each hydraulic actuator; an operator structure ; an operator structure heater arranged to provide heat energy to selectively warm the operator structure ; a heat exchanger arranged to selectively remove heat energy from the hydraulic fluid circuit ; and a thermal management system connecting the heat exchanger to the operator structure heater to transfer heat from the hydraulic fluid to the operator structure heater ; characterised in that : the working machine comprises an electric heater arranged to supply heat energy to the thermal management system to pre-heat the hydraulic fluid and/or the operator structure . a hydraulic fluid circuit arranged to provide hydraulic fluid to one or more hydraulic actuators to perform a working operation such as displacing a working arm ; a ground engaging propulsion structure; an electrical energy storage device configured to provide electrical energy to an electric motor (M, 30) to provide, at least in part, tractive power to the ground engaging propulsion structure and/or power to a hydraulic pump to provide pressurised hydraulic fluid to displace the or each hydraulic actuator; an operator structure ; an operator structure heater arranged to provide heat energy to selectively warm the operator structure ; a heat exchanger arranged to selectively remove heat energy from the hydraulic fluid circuit ; and a thermal management system connecting the heat exchanger to the operator structure heater to transfer heat from the hydraulic fluid to the operator structure heater ; characterised in that : the working machine comprises an electric heater arranged to supply heat energy to the thermal management system to pre-heat the hydraulic fluid and/or the operator structure .
Protection system for a paper product with two lids pivotally connected to each other at their rear side, comprising a protective sheet for protecting the lids of the paper product , the protective sheet comprising two opposing longitudinal edges and two lateral edges running between the longitudinal edges, respectively, wherein the protective sheet has on one of the transverse sides a pocket open on two sides for inserting a front edge of one of the lids of the paper product, characterized in that the pocket is closed on this transverse side as well as on one of the longitudinal edges in that the protection system further comprises at least three flat adhesive closures for closing the pocket open on two sides and a pocket open on three sides formed on the opposite transverse side by wrapping in the protective sheet, in each case over a longitudinal edge of the protective sheet, wherein the adhesive closures each comprise at least two adhesive regions and a folding region arranged between the adhesive regions.
A method for treating the surface of paper and/or at least one of the layers thereof, comprising the following successive steps: i) Supplying an aqueous suspension S of polysaccharide; ii) Supplying an aqueous dispersion D comprising (a) particles of at least one anionic water-swellable polymer P and (b) at least one compound selected from a mineral salt, an organic salt, an organic dispersing polymer and the mixtures thereof; iii) Mixing the suspension S and the dispersion D to obtain a mixture M; iv) Applying the mixture M to the surface of the paper and/or to at least one of the layers thereof. i) Supplying an aqueous suspension S of polysaccharide; ii) Supplying an aqueous dispersion D comprising (a) particles of at least one anionic water-swellable polymer P and (b) at least one compound selected from a mineral salt, an organic salt, an organic dispersing polymer and the mixtures thereof; iii) Mixing the suspension S and the dispersion D to obtain a mixture M; iv) Applying the mixture M to the surface of the paper and/or to at least one of the layers thereof.