mhurhangee/patent-ind-claim-en huggingface dataset:
A skateboard control method, applied to a skateboard , wherein a skateboard deck of the skateboard is fixed on an axle of the skateboard , and a first sensor group and a second sensor group are sequentially arranged on the skateboard deck in a width direction, the method comprising: acquiring (101; 302) a first pressure value of the first sensor group and a second pressure value of the second sensor group ; controlling (102; 303) the skateboard to turn to a first direction when the first pressure value is greater than the second pressure value and a difference value between the first pressure value and the second pressure value is greater than a first threshold, wherein the first direction is a direction of the first sensor group relative to the second sensor group ; and controlling (103; 304) the skateboard to turn to a second direction when the second pressure value is greater than the first pressure value and a difference value between the second pressure value and the first pressure value is greater than a second threshold, wherein the second direction is a direction of the second sensor group relative to the first sensor group ; allowing the skateboard to slide when the pressure values of the first sensor group and the second sensor group are both greater than a preset starting value; prohibiting the skateboard from sliding when the pressure values of the first sensor group and the pressure value of the second sensor group are both less than the preset starting value; and prohibiting the skateboard from sliding when one of the pressure value of the first sensor group and the pressure value of the second sensor group is less than the preset starting value. acquiring (101; 302) a first pressure value of the first sensor group and a second pressure value of the second sensor group ; controlling (102; 303) the skateboard to turn to a first direction when the first pressure value is greater than the second pressure value and a difference value between the first pressure value and the second pressure value is greater than a first threshold, wherein the first direction is a direction of the first sensor group relative to the second sensor group ; and controlling (103; 304) the skateboard to turn to a second direction when the second pressure value is greater than the first pressure value and a difference value between the second pressure value and the first pressure value is greater than a second threshold, wherein the second direction is a direction of the second sensor group relative to the first sensor group ; allowing the skateboard to slide when the pressure values of the first sensor group and the second sensor group are both greater than a preset starting value; prohibiting the skateboard from sliding when the pressure values of the first sensor group and the pressure value of the second sensor group are both less than the preset starting value; and prohibiting the skateboard from sliding when one of the pressure value of the first sensor group and the pressure value of the second sensor group is less than the preset starting value.
Tyre for vehicle wheels, comprising a support structure and a tread band arranged in a radially outer position with respect to the support structure , wherein the support structure comprises a plurality of hybrid reinforcing cords , each of said hybrid reinforcing cords having at least two strands twisted together with a predetermined twisting pitch (P), wherein each of said at least two strands comprises: - at least one monofilament textile wire ; - at least one multifilament textile yarn comprising a plurality of textile filaments ; wherein, in any cross section of the hybrid reinforcing cord , said at least one monofilament textile wire is at least partially embedded in the filaments of said at least one multifilament textile yarn . - at least one monofilament textile wire ; - at least one multifilament textile yarn comprising a plurality of textile filaments ;
Clutch device for a motor vehicle, comprising a reaction plate intended to be rotationally coupled to a crankshaft , a friction disk intended to be coupled to an input shaft of a gearbox, a pressure plate actuated by a diaphragm , so as to clamp or release the friction disk against or from the reaction plate , damping means mounted between the friction disk and the input shaft of the gearbox, the damping means acting counter to the rotation of the friction disk with respect to the input shaft of the gearbox, the clutch device comprising rotational coupling means able to rotationally couple the reaction plate or a part fixed with respect to the reaction plate , on the one hand, and the crankshaft , on the other hand, characterized in that said rotational coupling means are elastically deformable along the axis (X) of the clutch device , and in that it comprises a bearing intended to be mounted between the reaction plate or the part fixed with respect to said reaction plate , on the one hand, and the input shaft of the gearbox, on the other hand, said bearing being able to form an axial support for the reaction plate or for the part fixed with respect to said reaction plate , on the one hand, on the input shaft of the gearbox, on the other hand, the rotational coupling means comprising a flexible metal plate able to be deformed elastically in the axial direction (X), the device further comprising an annular flywheel fastened to the reaction plate , the flexible metal plate being fastened at the radially outer periphery of said flywheel , the bearing being mounted at the radially inner end of the flywheel .
A semi-manufactured power semiconductor module , comprising: a substrate for bonding at least one power semiconductor chip ; a first leadframe bonded to the substrate and providing power terminals ; a second leadframe bonded to the substrate and providing auxiliary terminals ; wherein the first leadframe and/or the second leadframe comprise an interlocking element adapted for aligning the first leadframe and the second leadframe with respect to each other and/or with respect to a mold for molding an encapsulation around the substrate , the first leadframe and the second leadframe ; wherein the first leadframe and the second leadframe have a different thickness. a substrate for bonding at least one power semiconductor chip ; a first leadframe bonded to the substrate and providing power terminals ; a second leadframe bonded to the substrate and providing auxiliary terminals ; wherein the first leadframe and/or the second leadframe comprise an interlocking element adapted for aligning the first leadframe and the second leadframe with respect to each other and/or with respect to a mold for molding an encapsulation around the substrate , the first leadframe and the second leadframe ; wherein the first leadframe and the second leadframe have a different thickness.
On-load tap changer for uninterrupted switching over between winding taps (n, n+1) of a regulating winding , comprising - a changeover switch which comprises a first changeover contact (2.1), a second changeover contact (2.2) and a third changeover contact (2.3) and which can adopt a first setting in which the first and third changeover contacts (2.1, 2.3) are connected, a second setting in which the second and third changeover contacts (2.2, 2.3) are connected and a bridging setting in which the changeover contacts (2.1, 2.2, 2.3) are connected; - a first fixed contact which can be connected with an associated first winding tap (n); - a second fixed contact which can be connected with an associated second winding tap (n+1); - a first moved contact which can selectably contact each of the fixed contacts - a second moved contact which can selectably contact each of the fixed contacts ; - a main branch which directly connects the first moved contact with the first changeover contact (2.1); - an auxiliary branch which connects the second moved contact with the second changeover contact (2.2) by way of a current-limiting element which is constructed as a resistor; and - a switching element which is connected between the main branch and the second changeover contact (2.2) wherein - the moved contacts are actuable independently of one another. - a changeover switch which comprises a first changeover contact (2.1), a second changeover contact (2.2) and a third changeover contact (2.3) and which can adopt a first setting in which the first and third changeover contacts (2.1, 2.3) are connected, a second setting in which the second and third changeover contacts (2.2, 2.3) are connected and a bridging setting in which the changeover contacts (2.1, 2.2, 2.3) are connected; - a first fixed contact which can be connected with an associated first winding tap (n); - a second fixed contact which can be connected with an associated second winding tap (n+1); - a first moved contact which can selectably contact each of the fixed contacts - a second moved contact which can selectably contact each of the fixed contacts ; - a main branch which directly connects the first moved contact with the first changeover contact (2.1); - an auxiliary branch which connects the second moved contact with the second changeover contact (2.2) by way of a current-limiting element which is constructed as a resistor; and - a switching element which is connected between the main branch and the second changeover contact (2.2) - the moved contacts are actuable independently of one another.
A battery cell assembly , comprising: a lithium-ion pouch-type battery cell having a rectangular-shaped housing with an outer surface, and first and second electrical terminals extending from the housing; a thin film profile sensor being disposed on the housing, the thin film profile sensor having a microprocessor and a sensing circuit , the sensing circuit being coupled directly to the housing; the microprocessor and the sensing circuit being operably coupled together, the sensing circuit configured to generate a signal that is indicative of an operational parameter value of the battery cell; the microprocessor being programmed to determine the operational parameter value based on the signal from the sensing circuit; and the microprocessor being further programmed to store the operational parameter value in a memory device; a transparent protective layer coupled to and disposed over the thin film profile sensor such that the thin film profile sensor is disposed between the protective layer and the housing, wherein: the sensing circuit having a resistive trace having a resistance level that varies based on a temperature level of the battery cell; and the operational parameter value comprises a temperature value corresponding to the temperature level of the battery cell, and the signal comprises a first voltage on the sensing circuit; the thin film profile sensor further includes a heat generating circuit having a heating element trace disposed directly on the housing, the heating element trace being electrically coupled to the microprocessor. a lithium-ion pouch-type battery cell having a rectangular-shaped housing with an outer surface, and first and second electrical terminals extending from the housing; a thin film profile sensor being disposed on the housing, the thin film profile sensor having a microprocessor and a sensing circuit , the sensing circuit being coupled directly to the housing; the microprocessor and the sensing circuit being operably coupled together, the sensing circuit configured to generate a signal that is indicative of an operational parameter value of the battery cell; the microprocessor being programmed to determine the operational parameter value based on the signal from the sensing circuit; and the microprocessor being further programmed to store the operational parameter value in a memory device; a transparent protective layer coupled to and disposed over the thin film profile sensor such that the thin film profile sensor is disposed between the protective layer and the housing, the sensing circuit having a resistive trace having a resistance level that varies based on a temperature level of the battery cell; and the operational parameter value comprises a temperature value corresponding to the temperature level of the battery cell, and the signal comprises a first voltage on the sensing circuit; the thin film profile sensor further includes a heat generating circuit having a heating element trace disposed directly on the housing, the heating element trace being electrically coupled to the microprocessor.
A process for preparing a pharmaceutical dosage unit tablet core, the process comprising: blending a particulate pharmaceutical drug active which is cobimetinib hemifumarate polymorph Form A, an intragranular filler comprising lactose or lactose and microcrystalline cellulose, wherein the weight ratio of lactose to microcrystalline cellulose is from about 1:1.5 to about 4:1, an intragranular disintegrant comprising sodium starch glycolate, croscarmellose sodium, and combinations thereof, and an intragranular lubricant comprising magnesium stearate, sodium stearyl fumarate, and combinations thereof, to form a pre-blend, wherein the particulate pharmaceutical drug active has a particle size D[v, 0.5] of from about 25 μm to about 65 μm, from about 25μm to about 50 μm, or from about 30μm to about 40 μm; compacting the pre-blend by application of a compaction force of from about 1 kN/cm to about 8 kN/cm, from about 2 kN/cm to about 5 kN/cm or from about 2 kN/cm to about 4 kN/cm; milling and screening the compacted pre-blend to form granules; and tableting the granules by application of a tableting compression force of from about 5 kN to about 20 kN, from about 14 kN to about 19 kN, from about 14 kN to about 18 kN, or from about 8 kN to about 13 kN to form the pharmaceutical dosage unit tablet core. blending a particulate pharmaceutical drug active which is cobimetinib hemifumarate polymorph Form A, an intragranular filler comprising lactose or lactose and microcrystalline cellulose, wherein the weight ratio of lactose to microcrystalline cellulose is from about 1:1.5 to about 4:1, an intragranular disintegrant comprising sodium starch glycolate, croscarmellose sodium, and combinations thereof, and an intragranular lubricant comprising magnesium stearate, sodium stearyl fumarate, and combinations thereof, to form a pre-blend, wherein the particulate pharmaceutical drug active has a particle size D[v, 0.5] of from about 25 μm to about 65 μm, from about 25μm to about 50 μm, or from about 30μm to about 40 μm; compacting the pre-blend by application of a compaction force of from about 1 kN/cm to about 8 kN/cm, from about 2 kN/cm to about 5 kN/cm or from about 2 kN/cm to about 4 kN/cm; milling and screening the compacted pre-blend to form granules; and tableting the granules by application of a tableting compression force of from about 5 kN to about 20 kN, from about 14 kN to about 19 kN, from about 14 kN to about 18 kN, or from about 8 kN to about 13 kN to form the pharmaceutical dosage unit tablet core.
A plant for producing compressed air exploitable by a user unit , comprising: - a compression unit configured to receive air to be compressed (A), to perform a compression work on said air to be compressed (A) and to eject compressed air (B, C), - a heating apparatus configured to receive a first portion of said compressed air (B), to provide heat to said first portion of compressed air (B), and to eject heated compressed air (D), - an expansion unit configured to receive said heated compressed air (D), to generate an expansion work, and to eject expanded air (E), - a transmission apparatus , configured to receive said expansion work generated by the expansion unit and to drive the compression unit , characterized in that: - the plant is not driven electrically, and - the plant comprises a user conduit configured to receive a second portion of said compressed air (C) and to convey said second portion of compressed air (C) to said user unit , - said expansion work being used, under steady-state conditions, only to drive said compression unit . - a compression unit configured to receive air to be compressed (A), to perform a compression work on said air to be compressed (A) and to eject compressed air (B, C), - a heating apparatus configured to receive a first portion of said compressed air (B), to provide heat to said first portion of compressed air (B), and to eject heated compressed air (D), - an expansion unit configured to receive said heated compressed air (D), to generate an expansion work, and to eject expanded air (E), - a transmission apparatus , configured to receive said expansion work generated by the expansion unit and to drive the compression unit , - the plant is not driven electrically, and - the plant comprises a user conduit configured to receive a second portion of said compressed air (C) and to convey said second portion of compressed air (C) to said user unit , - said expansion work being used, under steady-state conditions, only to drive said compression unit .
A ferrule for an implantable medical device , having a frame body including an upper surface and an opposing lower surface an interior perimeter surface extending between the upper and lower surface s for attachment to an insulator assembly an exterior perimeter surface extending between the upper and lower surface s for attachment to a housing of the implantable medical device , and characterized by a single flange extending from the exterior perimeter surface and having an upper surface facing the upper surface of the frame body , the upper surface of the flange to serve as a stop against an interior surface of the housing to limit a position of the housing along the exterior perimeter surface in a direction toward the bottom surface of the frame body , wherein a distance from the top surface of the single flange to the top surface of the frame body is not greater than 1.5 times a thickness of the housing to enable a butt-weld to be made between exterior perimeter surface and housing .
An aquaculture system , the system comprising: a fish holding unit fluidly connected to a first water recirculation conduit having a pump and a water treatment unit , the system further comprising a water inlet, a feed storage unit , and a feed loading section , wherein the feed loading section is located in the first water recirculation conduit , so that when feed is added into the system at the feed loading section it is hydraulically transported as a solid-liquid flow to the fish holding unit , and the feed loading section is located downstream of the water treatment unit , or wherein the aquaculture system further comprises a second water recirculation conduit comprising a pump and the feed loading section , so that when feed is added into the system at the feed loading section it is hydraulically transported as a solid-liquid flow to the fish holding unit . a fish holding unit fluidly connected to a first water recirculation conduit having a pump and a water treatment unit , the system further comprising a water inlet, a feed storage unit , and a feed loading section , wherein the feed loading section is located in the first water recirculation conduit , so that when feed is added into the system at the feed loading section it is hydraulically transported as a solid-liquid flow to the fish holding unit , and the feed loading section is located downstream of the water treatment unit , or wherein the aquaculture system further comprises a second water recirculation conduit comprising a pump and the feed loading section , so that when feed is added into the system at the feed loading section it is hydraulically transported as a solid-liquid flow to the fish holding unit .
A method of providing a key management service with a key management device for transferring control of an asset private key, the method comprising: receiving, at the key management device, an asset private key splitting request from an initiating user computing device; creating, with the key management device, group mapping information associated with at least one user ID; and sending, from the key management device to the initiating user computing device, key splitting instructions for execution in a web browser of the initiating user computing device, wherein the key splitting instructions include: splitting the asset private key into a plurality of subkeys with a key splitting algorithm; identifying a first portion of the subkeys for distribution to a plurality of users; identifying a second portion of the subkeys, the second portion including at least one validator subkey; storing ones of the first portion of the subkeys on a plurality of cold storage devices for transfer to the plurality of users; randomly generating a validator asymmetric public-private key pair; encrypting the at least one validator subkey with the validator public key; and transmitting the at least one encrypted validator subkey to the key management device for storage on a distributed file system. receiving, at the key management device, an asset private key splitting request from an initiating user computing device; creating, with the key management device, group mapping information associated with at least one user ID; and sending, from the key management device to the initiating user computing device, key splitting instructions for execution in a web browser of the initiating user computing device, wherein the key splitting instructions include: splitting the asset private key into a plurality of subkeys with a key splitting algorithm; identifying a first portion of the subkeys for distribution to a plurality of users; identifying a second portion of the subkeys, the second portion including at least one validator subkey; storing ones of the first portion of the subkeys on a plurality of cold storage devices for transfer to the plurality of users; randomly generating a validator asymmetric public-private key pair; encrypting the at least one validator subkey with the validator public key; and transmitting the at least one encrypted validator subkey to the key management device for storage on a distributed file system. splitting the asset private key into a plurality of subkeys with a key splitting algorithm; identifying a first portion of the subkeys for distribution to a plurality of users; identifying a second portion of the subkeys, the second portion including at least one validator subkey; storing ones of the first portion of the subkeys on a plurality of cold storage devices for transfer to the plurality of users; randomly generating a validator asymmetric public-private key pair; encrypting the at least one validator subkey with the validator public key; and transmitting the at least one encrypted validator subkey to the key management device for storage on a distributed file system.