mhurhangee/patent-ind-claim-en huggingface dataset:
Conveyor device for determining the three-dimensional position of a centre of gravity (MSS) of an item of piece goods resting on a conveyor surface (10a-c, 60a, 60b) of a load-carrying device of the conveyor device , with at least two dynamometers (4a-h, 54a-d) which are spaced apart from one another and which are set up to measure weight force components (F1, F2, F3, F4) of the conveyor device or of the load-carrying device, wherein a first part of the conveyor surface (10a-c, 60a, 60b) of a first conveyor is arranged in a first weighing plane and a second part of the conveyor surface (10a-c, 60a, 60b) of a second conveyor is arranged in a second weighing plane, wherein the first weighing plane and the second weighing plane are arranged at angle (α) to one another that is different from zero, and wherein the first conveyor and the second conveyor in each case have at least two dynamometers (4a-h) spaced apart from one another for measuring weight force components (F1, F2, F3, F4) of the conveyors or of their load-carrying devices, wherein the conveyor device furthermore has a position-detection device with which a position of the item of piece goods can be detected respectively on the first part and on the second part of the conveyor surface (10a-c, 60a, 60b), and with an evaluation device that is set up to determine the three-dimensional position of the centre of gravity from the weight force components (F1, F2, F3, F4) measured in the first weighing plane and in the second weighing plane and from the recorded positions, wherein the conveyor device is set up for the simultaneous recording of the weight force components (F1, F2, F3, F4) and of the position of the item of piece goods respectively on the first part of the conveyor surface and the second part of the conveyor surface. and wherein the first conveyor and the second conveyor in each case have at least two dynamometers (4a-h) spaced apart from one another for measuring weight force components (F1, F2, F3, F4) of the conveyors or of their load-carrying devices, wherein the conveyor device furthermore has a position-detection device with which a position of the item of piece goods can be detected respectively on the first part and on the second part of the conveyor surface (10a-c, 60a, 60b), and with an evaluation device that is set up to determine the three-dimensional position of the centre of gravity from the weight force components (F1, F2, F3, F4) measured in the first weighing plane and in the second weighing plane and from the recorded positions, wherein the conveyor device is set up for the simultaneous recording of the weight force components (F1, F2, F3, F4) and of the position of the item of piece goods respectively on the first part of the conveyor surface and the second part of the conveyor surface.
A friction engagement device for a work vehicle , the friction engagement device comprising: a rotating shaft ; a plurality of first friction plates that rotate with the rotating shaft ; a plurality of second friction plates arranged to face the first friction plates ; an oil chamber to which hydraulic fluid is supplied; a piston movably provided between an engagement position and a release position, the piston engaging the first friction plates and the second friction plates at the engagement position, the piston releasing the first friction plates and the second friction plates at the release position, the piston being pressed towards the engagement position by hydraulic pressure of the oil chamber ; a first return spring that contacts the piston from the engagement position to a standby position between the release position and the engagement position and urges the piston toward the release position; a second return spring that contacts the piston from the engagement position to the release position and urges the piston toward the release position; wherein a center axis of the first return spring is arranged to coincide with a center axis (A1) of the rotating shaft , and a center axis of the second return spring is arranged to coincide with the center axis (A1) of the rotating shaft ; a spacer arranged between the piston and the first return spring ; and a restriction member restricting a movement of the spacer toward the release position; and wherein the spacer is separated from the piston when the piston is located at the release position. a rotating shaft ; a plurality of first friction plates that rotate with the rotating shaft ; a plurality of second friction plates arranged to face the first friction plates ; an oil chamber to which hydraulic fluid is supplied; a piston movably provided between an engagement position and a release position, the piston engaging the first friction plates and the second friction plates at the engagement position, the piston releasing the first friction plates and the second friction plates at the release position, the piston being pressed towards the engagement position by hydraulic pressure of the oil chamber ; a first return spring that contacts the piston from the engagement position to a standby position between the release position and the engagement position and urges the piston toward the release position; a second return spring that contacts the piston from the engagement position to the release position and urges the piston toward the release position; wherein a center axis of the first return spring is arranged to coincide with a center axis (A1) of the rotating shaft , and a center axis of the second return spring is arranged to coincide with the center axis (A1) of the rotating shaft ; a spacer arranged between the piston and the first return spring ; and a restriction member restricting a movement of the spacer toward the release position; and wherein the spacer is separated from the piston when the piston is located at the release position.
A process for the selective removal of hydrogen sulfide over carbon dioxide from a fluid stream comprising carbon dioxide and hydrogen sulfide, in which the fluid stream is contacted with an absorbent, which absorbent contains an aqueous solution, comprising an amine of formula (I) and optionally an amine of formula (II) wherein U-V-W is CH-O-CHR 5 , N-CO-CHR 5 or N-CO-NR 5 ; U'-V'-W' is C-O-CR 5 ; R 1 is independently C 1 -C 5 -alkyl; R 2 is selected from hydrogen and C 1 -C 5 -alkyl; R 3 is independently selected from hydrogen and C 1 -C 5 -alkyl; R 4 is independently selected from hydrogen and C 1 -C 5 -alkyl; R 5 is selected from hydrogen, C 1 -C 5 -alkyl, (C 1 -C 5 -alkoxy)-C 1 -C 5 -alkyl, and hydroxy-C 1 -C 5 -alkyl; and x is an integer from 1 to 10, wherein the absorbent comprises a total amount of 15% to 70% by weight of the amine of formula (I) and (II), based on the total weight of absorbent, wherein a laden absorbent and a treated fluid stream are obtained.
A user interface for a patient support apparatus , the user interface comprising a frame including a first side and a second side , a support structure positioned on the second side, the support structure being configured to support personal digital assistants of varying sizes, wherein the support structure includes a fixed base and a movable clamp , characterized in that the movable clamp is movable relative to the fixed base with a locking mechanism lockable to resist movement of the movable clamp away from the base, wherein the locking mechanism includes a lock that has a pair of arms , the arms formed to include catches , and the locking mechanism further includes guides that are each engaged by the respective catches of the arms, in which the locking mechanism precludes movement of the movable clamp away from the base when the guides are engaged by the catches. a frame including a first side and a second side , a support structure positioned on the second side, the support structure being configured to support personal digital assistants of varying sizes, wherein the support structure includes a fixed base and a movable clamp , characterized in that the movable clamp is movable relative to the fixed base with a locking mechanism lockable to resist movement of the movable clamp away from the base,
An intraoral sensing system which is configured to sense a biological information using a sensor module installed in an oral cavity, comprising: a sensor module configured to be installed in an oral cavity of a patient and configured to store data acquired when the biological information is sensed; a storage configured to acquire the data and an identification information of the patient stored by the sensor module , associate the acquired data with the identification information of the patient, and store the association; a terminal apparatus for a dentist configured to analyze the data stored in the storage for each of the identification information of the patient; and a terminal apparatus for a doctor configured to acquire the data associated with a patient who has a developed disease among the data of patients stored in the storage , from the terminal apparatus for a dentist, characterized in that the terminal apparatus for a dentist further comprises a database constructed such that a disease name and sensor data relating to that disease are associated with each other. a sensor module configured to be installed in an oral cavity of a patient and configured to store data acquired when the biological information is sensed; a storage configured to acquire the data and an identification information of the patient stored by the sensor module , associate the acquired data with the identification information of the patient, and store the association; a terminal apparatus for a dentist configured to analyze the data stored in the storage for each of the identification information of the patient; and a terminal apparatus for a doctor configured to acquire the data associated with a patient who has a developed disease among the data of patients stored in the storage , from the terminal apparatus for a dentist, characterized in that the terminal apparatus for a dentist further comprises a database constructed such that a disease name and sensor data relating to that disease are associated with each other.
A common downlink control channel transmission method, comprising: receiving , by a User Equipment, UE, a target signal from a network side device, wherein a resource set for transmitting a common downlink control channel is associated with the target signal; and determining , by the UE, the resource set in accordance with the target signal, and receiving the common downlink control channel from the network side device through the resource set, wherein the target signal includes a synchronization signal block, wherein configuration information of the resource set is determined through the synchronization signal block and/or predefined in a protocol, wherein one synchronization signal block corresponds to at least one resource set for transmitting the common downlink control channel, wherein there is a relationship predefined in a protocol between the configuration information and the synchronization signal block, wherein an Orthogonal Frequency Division Multiplexing, OFDM, symbol occupied by the resource set is the same as an OFDM symbol occupied by the synchronization signal block, and a transmission periodicity of the common downlink control channel is the same as a transmission periodicity of the synchronization signal block, wherein a time-frequency-domain resource occupied by the resource set and a time-frequency-domain resource occupied by the synchronization signal block are used in a Frequency Division Multiplexing, FDM, manner, all contents of configuration information of the resource set are predefined in a protocol. receiving , by a User Equipment, UE, a target signal from a network side device, wherein a resource set for transmitting a common downlink control channel is associated with the target signal; and determining , by the UE, the resource set in accordance with the target signal, and receiving the common downlink control channel from the network side device through the resource set, wherein the target signal includes a synchronization signal block, wherein configuration information of the resource set is determined through the synchronization signal block and/or predefined in a protocol, wherein one synchronization signal block corresponds to at least one resource set for transmitting the common downlink control channel, wherein there is a relationship predefined in a protocol between the configuration information and the synchronization signal block, wherein an Orthogonal Frequency Division Multiplexing, OFDM, symbol occupied by the resource set is the same as an OFDM symbol occupied by the synchronization signal block, and a transmission periodicity of the common downlink control channel is the same as a transmission periodicity of the synchronization signal block, wherein a time-frequency-domain resource occupied by the resource set and a time-frequency-domain resource occupied by the synchronization signal block are used in a Frequency Division Multiplexing, FDM, manner, all contents of configuration information of the resource set are predefined in a protocol.
A prosthesis comprising: an expandable tubular frame structure having a proximal frame end and a distal frame end ; a covering disposed along the frame structure , the covering including a first liner , a proximal liner , and a distal liner discrete from the proximal liner, the first liner comprising a plurality of first liner layers , wherein at least one of the first liner layers is an extended layer extending beyond a proximal end of the remaining first liner layers and a distal end of the remaining first liner layers of the first liner, and comprises an extended liner layer proximal end , an extended liner layer distal end and an intermediate segment disposed between the extended liner layer proximal and distal end wherein the extended liner layer proximal end is bonded to the proximal liner along the proximal frame end at a first coupling segment , and the extended liner layer distal end is bonded to the distal liner along the distal frame end at a second coupling segment , and wherein one of the first liner layers immediately adjacent to the expandable tubular frame structure remains unbonded to the expandable tubular frame structure along an intermediate region of the frame structure disposed between the proximal and distal frame ends . an expandable tubular frame structure having a proximal frame end and a distal frame end ; a covering disposed along the frame structure , the covering including a first liner , a proximal liner , and a distal liner discrete from the proximal liner, the first liner comprising a plurality of first liner layers , wherein at least one of the first liner layers is an extended layer extending beyond a proximal end of the remaining first liner layers and a distal end of the remaining first liner layers of the first liner, and comprises an extended liner layer proximal end , an extended liner layer distal end and an intermediate segment disposed between the extended liner layer proximal and distal end wherein the extended liner layer proximal end is bonded to the proximal liner along the proximal frame end at a first coupling segment , and the extended liner layer distal end is bonded to the distal liner along the distal frame end at a second coupling segment , and wherein one of the first liner layers immediately adjacent to the expandable tubular frame structure remains unbonded to the expandable tubular frame structure along an intermediate region of the frame structure disposed between the proximal and distal frame ends .
Ventilation device designed to generate a flow of air towards a heat exchanger of a motor vehicle, comprising ducts through which a flow of air is intended to pass, the ducts being provided with at least one opening for the flow of air to pass through, this being distinct from their ends, the ducts being aligned along a direction perpendicular to a direction of extent of the ducts with a pitch greater than or equal to 15 mm, preferably greater than or equal to 20 mm, more preferably greater than or equal to 23 mm, and less than or equal to 30 mm, preferably less than or equal to 27 mm, more preferably less than or equal to 25 mm.
A medical device comprising: a shaft portion that is elongate; and an expansion body provided at a distal portion of the shaft portion to be expandable and contractable in a radial direction, wherein the shaft portion includes a central shaft extending along an axis of the expansion body , the expansion body includes a plurality of wire portions that are expandable and contractable in the radial direction, each of the wire portions includes a contact portion that comes into contact with the central shaft , when contracted, characterised in that an opening portion is formed in at least one of the contact portion and the central shaft , a protruding portion is formed in at least the other one of the contact portion and the central shaft , and when the expansion body is contracted, at least a part of the protruding portion enters an inside of the opening portion , and comes into contact with the opening portion . a shaft portion that is elongate; and an expansion body provided at a distal portion of the shaft portion to be expandable and contractable in a radial direction, wherein the shaft portion includes a central shaft extending along an axis of the expansion body , the expansion body includes a plurality of wire portions that are expandable and contractable in the radial direction, each of the wire portions includes a contact portion that comes into contact with the central shaft , when contracted, characterised in that an opening portion is formed in at least one of the contact portion and the central shaft , a protruding portion is formed in at least the other one of the contact portion and the central shaft , and when the expansion body is contracted, at least a part of the protruding portion enters an inside of the opening portion , and comes into contact with the opening portion .
A carbon material for a negative electrode of a lithium ion secondary battery, which has a carbonaceous film on a surface of graphitized material particles of a mesophase microbead, a 50% by volume particle diameter (D 50 ) in a cumulative frequency distribution being 1.0 μm or more and less than 5.0 μm, a specific surface area (S SET ) by a BET method being 6.5 m 2 /g or less, a tap density (D TAP ) being 0.70 g/cm 3 or more, a Raman R value obtained by Raman spectroscopy being more than 0.100 and less than 0.300, and a specific surface area ratio (S BET /S CALC ) between the specific surface area (S BET : m 2 /g) obtained by the BET method and the specific surface area (S CALC : m 2 /g) calculated from the following equation of 5.0 or less, S CALC = 6 / D 50 × ρ wherein D 50 is the 50% by volume particle diameter (μm) in the cumulative frequency distribution, and ρ is a true specific gravity (g/cm 3 ).
Computer implemented method of determining vessel fluid flow velocity of a fluid in a vessel segment of a body of a human or another mammal, the method comprising: obtaining a natural length model of the vessel representing a length of the vessel; obtaining a two-dimensional model of the vessel segment; dividing the two-dimensional model in vessel sections; receiving a set of images including image data of the vessel sections, each image corresponding to a different moment in time; based on the images of the set, assigning, for each image of the set, at least one intensity value to each vessel section; identifying, in a first image related to a first moment in time, a first vessel section, based on an intensity criterion; identifying, in a second image related to a second moment in time, a second vessel section, based on the intensity criterion, the second moment in time being later than the first moment in time and the second vessel section being distal to the first vessel section; obtaining a propagation length by relating the first vessel section and the second vessel section to the natural length; and determining a vessel fluid flow velocity based on the propagation length, and a difference between the first moment in time and the second moment in time. obtaining a natural length model of the vessel representing a length of the vessel; obtaining a two-dimensional model of the vessel segment; dividing the two-dimensional model in vessel sections; receiving a set of images including image data of the vessel sections, each image corresponding to a different moment in time; based on the images of the set, assigning, for each image of the set, at least one intensity value to each vessel section; identifying, in a first image related to a first moment in time, a first vessel section, based on an intensity criterion; identifying, in a second image related to a second moment in time, a second vessel section, based on the intensity criterion, the second moment in time being later than the first moment in time and the second vessel section being distal to the first vessel section; obtaining a propagation length by relating the first vessel section and the second vessel section to the natural length; and determining a vessel fluid flow velocity based on the propagation length, and a difference between the first moment in time and the second moment in time.
A commingled yarn comprising a continuous thermoplastic resin fiber, a continuous reinforcing fiber, and a surface treatment agent for the continuous reinforcing fiber and/or sizing agent for the continuous reinforcing fiber; wherein the commingled yarn comprises the surface treatment agent and/or sizing agent in a content of 2.0% by weight or more, relative to a total amount of the continuous thermoplastic resin fiber and the continuous reinforcing fiber, and has a dispersibility of the continuous thermoplastic resin fiber and the continuous reinforcing fiber of 70% or larger; wherein the dispersibility is calculated using the equation below: D % = 1 − Lcf + Lpoly / Ltot ∗ 100 (in the formula, D represents the dispersibility, and Lcf, Lpoly and Ltot are determined according to the specification).