mhurhangee/patent-ind-claim-en huggingface dataset:
Method of controlling a stimulator by using image data, the method comprising: receiving coordinate data of a plurality of stimulus units from a user terminal or a stimulator connected to the user terminal; obtaining, from a hospital terminal, primary image data including coordinate data of a target area estimated to be an affected area of a user; generating matching data by matching the coordinate data of the plurality of stimulus units to the primary image data; generating stimulus intensity control data capable of controlling stimulus intensities of the plurality of stimulus units by using the matching data; the method characterised by the following method steps: transmitting the stimulus intensity control data to the user terminal; and after the transmitting of the stimulus intensity control data, receiving secondary image data from the hospital terminal and comparing the primary image data with the secondary image data and considering an amount of change in volume of the target area to regenerate the stimulus intensity control data capable of controlling the stimulus intensities of the plurality of stimulus units. receiving coordinate data of a plurality of stimulus units from a user terminal or a stimulator connected to the user terminal; obtaining, from a hospital terminal, primary image data including coordinate data of a target area estimated to be an affected area of a user; generating matching data by matching the coordinate data of the plurality of stimulus units to the primary image data; generating stimulus intensity control data capable of controlling stimulus intensities of the plurality of stimulus units by using the matching data; the method characterised by the following method steps: transmitting the stimulus intensity control data to the user terminal; and after the transmitting of the stimulus intensity control data, receiving secondary image data from the hospital terminal and comparing the primary image data with the secondary image data and considering an amount of change in volume of the target area to regenerate the stimulus intensity control data capable of controlling the stimulus intensities of the plurality of stimulus units. transmitting the stimulus intensity control data to the user terminal; and after the transmitting of the stimulus intensity control data, receiving secondary image data from the hospital terminal and comparing the primary image data with the secondary image data and considering an amount of change in volume of the target area to regenerate the stimulus intensity control data capable of controlling the stimulus intensities of the plurality of stimulus units.
A gas supply valve comprising: - a body provided with a gas inlet , a gas outlet between which a gas flows, the body further comprising a first channel , a second channel , a first cavity , and a second cavity through which the gas can flow from the gas inlet to the gas outlet , the first channel opening, on the one hand, into the first cavity and, on the other hand, into the gas outlet , the second channel opening on the one hand into the second cavity and on the other hand into the first cavity , - a regulating cone housed in the first cavity of the body and rotatable about a longitudinal axis X to regulate the gas flow rate between a minimum position and a maximum position, the gas inlet being in fluid communication with the first cavity , and - a regulating member arranged in the second cavity and comprising an internal passage with an inlet and a first outlet , characterised in that the body comprises a corridor which opens, on the one hand, into the first cavity and, on the other hand, into the second cavity , and in that the regulating member is arranged so as to rotate about an axis parallel to the longitudinal axis between: - a first position in which the regulating member releases an exit from the corridor and - a second position in which the regulating member closes the exit from the corridor . - a body provided with a gas inlet , a gas outlet between which a gas flows, the body further comprising a first channel , a second channel , a first cavity , and a second cavity through which the gas can flow from the gas inlet to the gas outlet , the first channel opening, on the one hand, into the first cavity and, on the other hand, into the gas outlet , the second channel opening on the one hand into the second cavity and on the other hand into the first cavity , - a regulating cone housed in the first cavity of the body and rotatable about a longitudinal axis X to regulate the gas flow rate between a minimum position and a maximum position, the gas inlet being in fluid communication with the first cavity , and - a regulating member arranged in the second cavity and comprising an internal passage with an inlet and a first outlet , - a first position in which the regulating member releases an exit from the corridor and - a second position in which the regulating member closes the exit from the corridor .
Agricultural machine (100, 100a-100h) having a travel direction (FR 1 , FR 2 ) and a travel direction axis (FRA) and having at least one pickup device (200, 200a-2001), at which the pickup device (200, 200a-2001) comprises at least one pick-up drum (1, 1a-1f) which is rotatable in a rotation (R 1 , R 3 , R 5 ) and driven by means of at least one rotary drive (RA 1 ), the pick-up drum (1, 1a-1f) having conveying elements (4, 4a-4g) and conveyor tines (5, 5a-5y) for the take-up of fodder or stalk (FG 1 -FG 6 ), from an agricultural land area (F 1 -F 6 ), and at least one conveyor aid (FH, FH 1 -FH 4 ) rotatable in a counter-rotation (R 2 , R 4 , R 6 ), wherein the conveyor aid (FH, FH 1 -FH 4 ) is driven by means of at least one rotary drive (RA 2 ), characterized in that an adjusting mechanism is arranged for the conveyor aid (FH 3 ) and a vertical height distance (A) as well as a horizontal offset (V) of the axis of rotation of the conveyor aid (FH 3 ) along the direction of travel axis (FRA) are selectively adjustable in front of, equidistant to or behind the rotation axis of the pickup drum .
A track link assembly comprising a track link body with at least one window opening for receiving a nut , a track shoe attached to the track link body by means of at least one screw , the nut comprising an internally threaded section for receiving the screw , a sensor arrangement comprising a sensor element attached to the track link body and electronic elements for operating the sensor arrangement , characterized in that the nut has an internal receiving space in which the electronic elements for operating the sensor arrangement are arranged. a track link body with at least one window opening for receiving a nut , a track shoe attached to the track link body by means of at least one screw , the nut comprising an internally threaded section for receiving the screw , a sensor arrangement comprising a sensor element attached to the track link body and electronic elements for operating the sensor arrangement , characterized in that the nut has an internal receiving space in which the electronic elements for operating the sensor arrangement are arranged.
A surgical instrument comprising: a handle ; an articulation cam that is movable relative to the handle between at least a first position and a second position, the articulation cam including a first cam profile and a second cam profile , wherein the articulation cam is rotationally movable relative about a rotation axis of the articulation cam to move the articulation cam from the first position to the second position, wherein the first and second cam profiles are located on opposing sides of the rotation axis of the articulation cam ; and an elongated shaft assembly extending distally from the handle , the elongated shaft assembly comprising: a first shaft including a proximal portion coupled to the first cam profile ; and a second shaft including a proximal portion coupled to the second cam profile , the second shaft coaxially arranged relative to the first shaft , wherein the proximal portion of the first shaft is coupled to the first cam profile with a first pin and the proximal portion of the second shaft is coupled to the second cam profile with a second pin , and wherein moving the articulation cam from the first position to the second position radially displaces the proximal portion of the first shaft and the proximal portion of the second shaft relative to the rotation axis of the articulation cam . a handle ; an articulation cam that is movable relative to the handle between at least a first position and a second position, the articulation cam including a first cam profile and a second cam profile , wherein the articulation cam is rotationally movable relative about a rotation axis of the articulation cam to move the articulation cam from the first position to the second position, wherein the first and second cam profiles are located on opposing sides of the rotation axis of the articulation cam ; and an elongated shaft assembly extending distally from the handle , the elongated shaft assembly comprising: a first shaft including a proximal portion coupled to the first cam profile ; and a second shaft including a proximal portion coupled to the second cam profile , the second shaft coaxially arranged relative to the first shaft , a first shaft including a proximal portion coupled to the first cam profile ; and a second shaft including a proximal portion coupled to the second cam profile , the second shaft coaxially arranged relative to the first shaft , wherein the proximal portion of the first shaft is coupled to the first cam profile with a first pin and the proximal portion of the second shaft is coupled to the second cam profile with a second pin , and wherein moving the articulation cam from the first position to the second position radially displaces the proximal portion of the first shaft and the proximal portion of the second shaft relative to the rotation axis of the articulation cam .
A passive cooling system comprising: a fan configured to generate an air flow path for a radiator , the air flow path extending from the fan to the radiator ; and a cooling pipe extended between a turbocharger and an intake manifold , the cooling pipe positioned in the air flow path between the fan and the radiator characterized in that the cooling pipe is parallel to a line from the turbocharger to the intake manifold . a fan configured to generate an air flow path for a radiator , the air flow path extending from the fan to the radiator ; and a cooling pipe extended between a turbocharger and an intake manifold , the cooling pipe positioned in the air flow path between the fan and the radiator characterized in that the cooling pipe is parallel to a line from the turbocharger to the intake manifold .
A method in a network unit for monitoring a fiber line between a radio base station and a radio head in a Fiber to the Radio head communications network, which Fiber to the Radio head communications network comprises a ring architecture or a tree architecture of fiber, with Subcarrier Multiplexing, SCM, downstream transmissions and Wavelength Division Multiplexing, WDM, upstream transmissions, wherein the monitoring comprises the steps of: - comparing a transmit power of a laser diode in a Radio over Fiber master against a threshold value; - when the transmit power exceeds the threshold value, checking that the laser diode in the Radio over Fiber master is working properly, - detecting an indication of a fault along the fiber line based on monitoring power, wherein the detecting is based on read receiver power from a photo diode in a Radio over Fiber master; - in response to detect the indication, initiating an Optical x Domain Reflectometry, OxDR, measurement over the fiber line; and - analyzing a trace from the OxDR measurement for localizing the fault along the fiber line or for deciding that the indicated fault is not a fault along the fiber line, - when the trace indicate no fault along the fiber line, checking a photo diode at the radio base station or the network unit and/or a laser diode of a receiving unit connected to the radio head in the communications network to determine whether the photo diode and/or the laser diode is working properly, and - reporting the fiber fault when the trace indicates fault to an operator of the network unit or a node. - comparing a transmit power of a laser diode in a Radio over Fiber master against a threshold value; - when the transmit power exceeds the threshold value, checking that the laser diode in the Radio over Fiber master is working properly, - detecting an indication of a fault along the fiber line based on monitoring power, wherein the detecting is based on read receiver power from a photo diode in a Radio over Fiber master; - in response to detect the indication, initiating an Optical x Domain Reflectometry, OxDR, measurement over the fiber line; and - analyzing a trace from the OxDR measurement for localizing the fault along the fiber line or for deciding that the indicated fault is not a fault along the fiber line, - when the trace indicate no fault along the fiber line, checking a photo diode at the radio base station or the network unit and/or a laser diode of a receiving unit connected to the radio head in the communications network to determine whether the photo diode and/or the laser diode is working properly, and - reporting the fiber fault when the trace indicates fault to an operator of the network unit or a node.
A method for making a pressurised fluid storage tank, comprising the following steps: a) providing an axisymmetric rigid sealed shell including two opposite rounded ends and at least one opening arranged in one of said two opposite ends ; b) providing a composite tape comprising a thermoplastic polymer material and a fibrous material embedded in said polymer material; c) causing the melting of the polymer material of said tape and helically winding said tape around said sealed shell by making a plurality of contiguous turns and superposed turns so as to form a composite layer around said sealed shell ; characterised by , before step c), further providing a rigid cap and capping one of said opposite rounded ends of said shell being with said rigid cap . a) providing an axisymmetric rigid sealed shell including two opposite rounded ends and at least one opening arranged in one of said two opposite ends ; b) providing a composite tape comprising a thermoplastic polymer material and a fibrous material embedded in said polymer material; c) causing the melting of the polymer material of said tape and helically winding said tape around said sealed shell by making a plurality of contiguous turns and superposed turns so as to form a composite layer around said sealed shell ;
Pump assembly comprising a pump unit and an electric motor driving said pump unit, comprising a rotor having a rotor shaft and a rotor stack fastened thereon, characterised by the fastening of the rotor stack on the rotor shaft being formed by a circular wedge-shaped connection comprising at least one circular wedge-shaped segment and one complementary circular wedge-shaped segment , wherein the rotor is wet running and an opening in the circumferential direction through which the liquid surrounding the rotor can flow during operation of the pump assembly is formed in the uptight state of the circular wedge-shaped connection between at least one circular wedge-shaped segment and one complementary circular wedge-shaped segment that is adjacent in the circumferential direction, and in which the circular wedge-shaped connection forms a peripheral contact surface with an overall peripheral angle between 180° and 330°.
Closure device for a backflow preventer of a pipeline, comprising a closing element , a rotatably mounted closing plate and a connecting element , which mechanically connects the closing element to the closing plate , wherein the connecting element , which has a head region and a foot region , consists of an elastic material, characterized in that the connecting element has a T-shaped cross section, wherein the foot region forms the bottom vertical part and the head region forms the top horizontal part in the T-shaped cross section, wherein the head region correspondingly has a larger diameter than the foot region , wherein the connecting element has a plurality of openings, which are spaced apart from the centre axis of the connecting element , are continuous through the head region of the connecting element in the edge region of the head region and in each of which a sleeve is arranged in a force-fitting, form-fitting and/or materially bonded manner, wherein the connecting element is connected to the closing plate by means of a fastening element , which is arranged within the sleeve of the connecting element and within a cutout in the closing plate , and in that the closing element is connected to the connecting element , wherein the closing plate and the closing element are each connected to the connecting element via a separate fastening.
An air supply device for extracting exhaust air from a room and leading fresh supply air into the room comprising - a casing , forming an outer layer of the air supply device , - a body, made of elastic material, arranged inside the casing , wherein the body is divided in at least an upper part and a lower part which are arranged on top of each other, - an exhaust air channel arranged inside the body for extracting the exhaust air from the room, and - a supply air channel arranged inside the body for leading the supply air into the room, wherein - the air supply device further comprises adjusting means , characterized in that - the upper part and the lower part of the body are arranged to be squeezed against each other and the casing by the adjusting means , whereby the supply air channel and the exhaust air channel are sealed, - the casing comprises a separate bottom sheet , and wherein the adjusting means are arranged to adjust the vertical position of the bottom sheet , wherein the bottom sheet arranged to squeeze the upper part and the lower part against each other and the casing when the bottom sheet is lifted. - a casing , forming an outer layer of the air supply device , - a body, made of elastic material, arranged inside the casing , wherein the body is divided in at least an upper part and a lower part which are arranged on top of each other, - an exhaust air channel arranged inside the body for extracting the exhaust air from the room, and - a supply air channel arranged inside the body for leading the supply air into the room, wherein - the air supply device further comprises adjusting means , characterized in that - the upper part and the lower part of the body are arranged to be squeezed against each other and the casing by the adjusting means , whereby the supply air channel and the exhaust air channel are sealed, - the casing comprises a separate bottom sheet , and
An optical element made of a first material (M1), the first material (M1) comprising a matrix made of a second material (M2) and a set of particles , which are made of a third material (M3) and are included in the matrix , characterised in that the first material (M1)has a molar fraction of SiO 2 higher than or equal to 75 percent, preferably between 85 percent and 95 percent, each particle has a dimension smaller than or equal to 80 nanometers, preferably smaller than or equal to 10 nanometers, and in that the first material (M1) comprises at least 90% by weight, with respect to the total weight of the first material, of a composition according to the following formula: (SiO 2 ) x (Ga 2 O 3 ) a (Oxy1) b (Oxy2) c where: o Oxy1 represents an oxide chosen from ZnO, MgO, NbO 2.5 , WO 3 , NiO, SnO, TiO 2 , BiO 1.5 , AgO, CaO, MnO, or a mixture thereof, preferably chosen from ZnO, MgO, AgO, BiO 1.5 or a mixture thereof, o Oxy2 represents an oxide chosen from Na 2 O, K 2 O or a mixture thereof, preferably Oxy2 represents Na 2 O, o x is larger than 75 and smaller than 99, in particular smaller than 95, o a is between 5 and 25, o b is between 1 and 25, o c is between 0 and 5, and o x, a, b and c are such that x + a + b + c = 100. o Oxy1 represents an oxide chosen from ZnO, MgO, NbO 2.5 , WO 3 , NiO, SnO, TiO 2 , BiO 1.5 , AgO, CaO, MnO, or a mixture thereof, preferably chosen from ZnO, MgO, AgO, BiO 1.5 or a mixture thereof, o Oxy2 represents an oxide chosen from Na 2 O, K 2 O or a mixture thereof, preferably Oxy2 represents Na 2 O, o x is larger than 75 and smaller than 99, in particular smaller than 95, o a is between 5 and 25, o b is between 1 and 25, o c is between 0 and 5, and o x, a, b and c are such that x + a + b + c = 100.
Compound of Formula III-A, its salts, solvates or hydrates thereof. wherein, R 1 and R 2 are independently C 1 -C 8 alkyl or they are connected via C1 to C8 carbon chain which may be saturated, unsaturated or substituted. R 3 and R 4 are independently H, C 1 -C 8 alkyl, vinyl, or allyl, X is any halogen, Y is O or S; or Y is NR 5 wherein R 5 is H, C 1 -C 8 alkyl, vinyl or allyl, and A is C 1 -C 8 alkyl or an aliphatic, aromatic or heterocyclic ring. wherein, R 1 and R 2 are independently C 1 -C 8 alkyl or they are connected via C1 to C8 carbon chain which may be saturated, unsaturated or substituted. R 3 and R 4 are independently H, C 1 -C 8 alkyl, vinyl, or allyl, X is any halogen, Y is O or S; or Y is NR 5 wherein R 5 is H, C 1 -C 8 alkyl, vinyl or allyl, and A is C 1 -C 8 alkyl or an aliphatic, aromatic or heterocyclic ring.
A medium for triplet-triplet annihilation up-conversion (TTA-UC) comprising a solid host matrix which comprises an aliphatic polysulfone having a structural unit of the following general formula wherein each R independently represents a substituted or unsubstituted aliphatic C4-C25 hydrocarbon group; at least one sensitizer compound which is distributed in the solid host matrix; and at least one emitter compound which is distributed in the solid host matrix.
A method for computation, with special number detection, in a computational device having a core with a multiple-pipeline architecture, the method comprising: running , in parallel, a first and second pipeline of data from a memory , wherein the first pipeline is configured to receive a first operand from the memory and the second pipeline is configured to receive a second operand from the memory, wherein the first operand and the second operand are input operands for performing a computational operation and wherein the first pipeline operates at least one cycle ahead of the second pipeline; generating a memory address in the memory for the first operand; reading , on the first pipeline, the first operand from the generated memory address; and detecting whether the first operand is a special number, wherein a special number is a numerical value that yields a predictable operation result of the computational operation; and storing a result of the computational operation in the memory based on the detection of whether the first operand is the special number. running , in parallel, a first and second pipeline of data from a memory , wherein the first pipeline is configured to receive a first operand from the memory and the second pipeline is configured to receive a second operand from the memory, wherein the first operand and the second operand are input operands for performing a computational operation and wherein the first pipeline operates at least one cycle ahead of the second pipeline; generating a memory address in the memory for the first operand; reading , on the first pipeline, the first operand from the generated memory address; and detecting whether the first operand is a special number, wherein a special number is a numerical value that yields a predictable operation result of the computational operation; and storing a result of the computational operation in the memory based on the detection of whether the first operand is the special number.