mhurhangee/patent-ind-claim-en huggingface dataset:
Filter device for fuel dispensing system , comprising: a first chamber extending along a first central axis (A) and having an inlet bore intended to be connected to a fuel tank, a second chamber extending along a second central axis (B) and having an outlet bore intended to be connected to a fuel dispensing system , the second chamber being arranged at substantially the same height as the first chamber and in fluid communication with the first chamber , a check valve arranged in the first chamber and covering the inlet bore , and a filter arranged in the second chamber and covering the outlet bore , wherein the first chamber is located at a predetermined distance from the second chamber in a longitudinal direction (L) of the filter device , the first central axis (A) of the first chamber being separated from the second central axis (B) of the second chamber , wherein the first central axis (A) is parallel to the second central axis (B), and wherein the longitudinal direction (L) of the filter device is perpendicular to the first central axis (A) and the second central axis (B) characterized by a lid covering the first chamber and the second chamber . a first chamber extending along a first central axis (A) and having an inlet bore intended to be connected to a fuel tank, a second chamber extending along a second central axis (B) and having an outlet bore intended to be connected to a fuel dispensing system , the second chamber being arranged at substantially the same height as the first chamber and in fluid communication with the first chamber , a check valve arranged in the first chamber and covering the inlet bore , and a filter arranged in the second chamber and covering the outlet bore , wherein the first chamber is located at a predetermined distance from the second chamber in a longitudinal direction (L) of the filter device , the first central axis (A) of the first chamber being separated from the second central axis (B) of the second chamber , wherein the first central axis (A) is parallel to the second central axis (B), and wherein the longitudinal direction (L) of the filter device is perpendicular to the first central axis (A) and the second central axis (B) characterized by a lid covering the first chamber and the second chamber .
A heat exchanger, comprising: a heat exchanger assembly, comprising: heat exchange tubes ; and fins , the fin comprising a fin main body formed as a waveform structure from a plate; the fin main body has two first side faces which are opposite each other in a first direction, two second side faces which are opposite each other in a second direction, and a wave crest and a wave trough on the second side faces ; moreover, the first direction and the second direction intersect each other; the fin main body comprises: first recesses , which are formed in the fin main body and located on the two first side faces of the fin main body ; wherein multiple heat exchange tubes and fins are arranged alternately in a row in such a way that first side faces of the fin main bodies of adjacent fins are adjacent to each other, thereby forming the heat exchanger assembly; the heat exchange tubes are located in the first recesses , wherein the fin main body also comprises: a second recess , which is formed in the fin main body and located on at least one of the two second side faces of the fin main body; characterized in that another heat exchange tube is provided in the second recess of the fin of the heat exchanger assembly, on at least one of the two second side faces of the fin main body .
A writing instrument comprising an erasing member which is attached to a front end part of a cap , wherein said end part has an fitting part which is arranged on a center axis and two connecting parts which connect said end part and said fitting part , said erasing member has a fitting hole which receives said fitting part and said connecting part , wherein in a state where said erasing member is attached, a clearance space is formed around said connecting part , wherein said writing instrument further comprises a supporting wall which surrounds part of said erasing member , a side surface of said part of said erasing member being provided with a ring shaped engagement projecting part , and said ring shaped engagement projecting part abutting against the inner circumferential surface of said supporting wall to be held so that said erasing member does not become loose, wherein said clearance space is defined by said fitting part , said connecting parts , and an inner circumferential surface of said fitting hole of said erasing member , characterised in that said fitting part has a corner part , a lock part is formed in said fitting hole , said corner part and said lock part are configured to engage when said erasing member is pulled out, and a circular vent opening is provided at said cap .
A vehicle of the saddle type, such as a motorcycle, the vehicle including steps that are steps on which an occupant can put the feet, the vehicle including a step operating mechanism that is configured to change a step position, and a control unit that is configured to change a position of the step in response to at least any of an acceleration operation, a deceleration operation, and a turn operation of the vehicle, wherein the step operating mechanism is a mechanism that is configured to change the height of the step for a driver, the vehicle being characterized in that the control unit is configured to carry out control i) to raise the height of the step position on an opposite side to the turn direction of the vehicle and ii) to keep the other step position at the low position.
A method for diagnosing a disease comprising the step detecting in a sample comprising antibodies from a patient an autoantibody binding to a polypeptide selected from the group comprising N-Ethylmaleimide-Sensitive Factor (NSF) and Syntaxin 1B (STX1B), wherein the disease is an autoimmune disease of the nervous system selected from the group comprising stiff-person syndrome and encephalitis.
A direct current (DC) residual current detection apparatus, wherein the apparatus is driven by a unipolar power supply (AA) and comprises a power conversion self-balancing circuit , a square wave pulse voltage driving circuit , a residual current transformer and a comparator ; an input end of the power conversion self-balancing circuit being connected to the unipolar power supply (AA), the power conversion self-balancing circuit being configured to convert the unipolar power supply (AA) to a bipolar power supply and to output the bipolar power supply, the power conversion self-balancing circuit being configured to supply power to the square wave pulse voltage driving circuit , the residual current transformer and the comparator ; the residual current transformer being formed with a RL multivibrator, the square wave pulse voltage driving circuit being configured to circularly apply positive or negative voltages to a secondary winding of the residual current transformer , the residual current transformer configured to output a corresponding sampling voltage; the comparator being configured to obtain the sampling voltage outputted by the residual current transformer , to compare the sampling voltage with a threshold voltage of the comparator and to generate a square wave signal alternating between positive and negative, the square wave signal being fed back as the output of the comparator to the square wave pulse voltage driving circuit as a driving signal; the output of the comparator being further used as the output (BB) of the apparatus for representing a polarity and scale of the DC residual current. an input end of the power conversion self-balancing circuit being connected to the unipolar power supply (AA), the power conversion self-balancing circuit being configured to convert the unipolar power supply (AA) to a bipolar power supply and to output the bipolar power supply, the power conversion self-balancing circuit being configured to supply power to the square wave pulse voltage driving circuit , the residual current transformer and the comparator ; the residual current transformer being formed with a RL multivibrator, the square wave pulse voltage driving circuit being configured to circularly apply positive or negative voltages to a secondary winding of the residual current transformer , the residual current transformer configured to output a corresponding sampling voltage; the comparator being configured to obtain the sampling voltage outputted by the residual current transformer , to compare the sampling voltage with a threshold voltage of the comparator and to generate a square wave signal alternating between positive and negative, the square wave signal being fed back as the output of the comparator to the square wave pulse voltage driving circuit as a driving signal; the output of the comparator being further used as the output (BB) of the apparatus for representing a polarity and scale of the DC residual current.
A cooling system for a turbine bucket including a multi-wall blade and a platform , the multi-wall blade extending radially away from a top surface of the platform , characterised in that it comprises: a cooling circuit for the multi-wall blade , the cooling circuit including a pressure side outer cavity circuit comprising a plurality of pressure side cavities, a suction side outer cavity circuit comprising a plurality of suction side cavities, a leading edge cavity , a plurality of trailing edge cavities , and a plurality of central cavities extending radially within the multi-wall blade and disposed between the pressure side outer cavity circuit and the suction side outer cavity circuit, one of the central cavities configured to collect cooling air from the pressure side outer cavity circuit; a platform core air feed for receiving the cooling air from the central cavity , the platform core air feed extending outward below the platform within a shank of the turbine bucket towards a side of the turbine bucket ; and an air passage for fluidly connecting the platform core air feed to a platform core of the platform , wherein the top surface of the platform includes a plurality of apertures for exhausting the cooling air from the platform core as cooling film; wherein a portion of the platform core air feed includes an end tab . a cooling circuit for the multi-wall blade , the cooling circuit including a pressure side outer cavity circuit comprising a plurality of pressure side cavities, a suction side outer cavity circuit comprising a plurality of suction side cavities, a leading edge cavity , a plurality of trailing edge cavities , and a plurality of central cavities extending radially within the multi-wall blade and disposed between the pressure side outer cavity circuit and the suction side outer cavity circuit, one of the central cavities configured to collect cooling air from the pressure side outer cavity circuit; a platform core air feed for receiving the cooling air from the central cavity , the platform core air feed extending outward below the platform within a shank of the turbine bucket towards a side of the turbine bucket ; and an air passage for fluidly connecting the platform core air feed to a platform core of the platform , wherein the top surface of the platform includes a plurality of apertures for exhausting the cooling air from the platform core as cooling film; wherein a portion of the platform core air feed includes an end tab .
A free-moving transport carriage for conveying at least one workpiece , in particular for conveying at least one vehicle body , along a conveying route (S F ) in variable conveying directions (R F ), having a) a chassis , which defines a main axis and a main alignment (A H ) of the transport carriage , a fastening device for at least one workpiece and a connecting device , which couples the chassis to the fastening device ; and b) a control device , which is designed to control the chassis along the conveying route (S F ) depending on position information which is provided by at least one position information transmitter, characterized in that c) in addition to the control device , the transport carriage has a near-field sensor arrangement , which can be coupled to a track control unit , wherein, via position raw information which can be determined by the near-field sensor arrangement , the track control unit can determine a relative position of one or more points of the free-moving transport carriage with regard to one or more position information sources of a near-field movement environment; and d) the main alignment (A H ) of the transport carriage and the conveying direction (R F ) can be adapted to one another by the track control unit . a) a chassis , which defines a main axis and a main alignment (A H ) of the transport carriage , a fastening device for at least one workpiece and a connecting device , which couples the chassis to the fastening device ; and b) a control device , which is designed to control the chassis along the conveying route (S F ) depending on position information which is provided by at least one position information transmitter, characterized in that c) in addition to the control device , the transport carriage has a near-field sensor arrangement , which can be coupled to a track control unit , wherein, via position raw information which can be determined by the near-field sensor arrangement , the track control unit can determine a relative position of one or more points of the free-moving transport carriage with regard to one or more position information sources of a near-field movement environment; and d) the main alignment (A H ) of the transport carriage and the conveying direction (R F ) can be adapted to one another by the track control unit .
A surgical device comprising: - at least one surgical tool comprising an end , called distal, configured to come in contact with a patient , and configured to be positioned in the patient , - at least one robotic mobile element on which the surgical tool is mounted, the robotic mobile element being configured to move said surgical tool , - at least one depth imaging tool configured to acquire at least one depth image at an acquisition area on the patient , said imaging tool being configured to move the acquisition area on the patient , said at least one imaging tool being independent of said at least one robotic mobile element , - a control tool configured to order an independent move of said at least one robotic mobile element and said imaging tool , - a control unit configured to receive information from the control tool and to order the move of said at least one robotic mobile element and/or the imaging tool so that the position of the acquisition area substantially coincides with the position of the distal end of the surgical tool , said control unit being configured to receive positional information coming from said at least one robotic mobile element and information coming from said imaging tool . - at least one surgical tool comprising an end , called distal, configured to come in contact with a patient , and configured to be positioned in the patient , - at least one robotic mobile element on which the surgical tool is mounted, the robotic mobile element being configured to move said surgical tool , - at least one depth imaging tool configured to acquire at least one depth image at an acquisition area on the patient , said imaging tool being configured to move the acquisition area on the patient , said at least one imaging tool being independent of said at least one robotic mobile element , - a control tool configured to order an independent move of said at least one robotic mobile element and said imaging tool , - a control unit configured to receive information from the control tool and to order the move of said at least one robotic mobile element and/or the imaging tool so that the position of the acquisition area substantially coincides with the position of the distal end of the surgical tool , said control unit being configured to receive positional information coming from said at least one robotic mobile element and information coming from said imaging tool .
Stimulation device for electrotherapy, in particular defibrillator and/or external pacemaker device, - comprising at least two contact electrodes that can be applied to suitable stimulation positions on the body of a patient and via which the body of the patient can be subjected to current pulses, wherein the first of the at least two contact electrodes acts as a charging electrode having positive polarity and the second of the at least two contact electrodes acts as a discharging electrode having negative polarity with respect to an emitted current pulse, and - comprising a current pulse generator that is or can be connected to the contact electrodes via line connections , characterised by a signal evaluation unit that is or can be connected to the contact electrodes , wherein the device is adapted, by means of the contact electrodes applied to the body of the patient, to record the body's own signals specific to the respective application location of the contact electrodes and to transmit them to the evaluation unit , wherein the evaluation unit is adapted to determine the actual application positions of the contact electrodes on the body of the patient on the basis of the specific signals determined by means of the contact electrodes . - comprising at least two contact electrodes that can be applied to suitable stimulation positions on the body of a patient and via which the body of the patient can be subjected to current pulses, wherein the first of the at least two contact electrodes acts as a charging electrode having positive polarity and the second of the at least two contact electrodes acts as a discharging electrode having negative polarity with respect to an emitted current pulse, and - comprising a current pulse generator that is or can be connected to the contact electrodes via line connections ,
A valve for a respiratory mask , the valve comprising: a valve body shaped to define a valve opening having opposing halves (30A and 30B) and a valve member which is mounted to the valve body such that the valve member is actuable between open and closed conditions relative to the valve body in response to a pressure differential across the valve , wherein the valve member comprises first and second portions arranged for contact with the valve body in the closed condition and the valve member is pivotably mounted such that the first and second portions of the valve member are actuated into the open condition in opposing directions relative to the valve body , characterised in that the valve member is loosely mounted to the valve body such that the valve member can tilt relative to the valve body , the tilting of the valve member in this manner opens both halves (30A and 30B) of the opening . a valve body shaped to define a valve opening having opposing halves (30A and 30B) and a valve member which is mounted to the valve body such that the valve member is actuable between open and closed conditions relative to the valve body in response to a pressure differential across the valve , wherein the valve member comprises first and second portions arranged for contact with the valve body in the closed condition and the valve member is pivotably mounted such that the first and second portions of the valve member are actuated into the open condition in opposing directions relative to the valve body , characterised in that the valve member is loosely mounted to the valve body such that the valve member can tilt relative to the valve body , the tilting of the valve member in this manner opens both halves (30A and 30B) of the opening .
Braking device for a rail vehicle, having a brake calliper unit , which acts on a brake disc by way of a brake pad and can be secured to a bracket of a bogie of the rail vehicle by means of at least one connecting element, wherein bearing reaction forces (F 1 , F 2 , F 3 ) can be transmitted from the brake calliper unit to the bracket by way of the at least one connecting element, and wherein at least one force sensor for measuring at least one of the bearing reaction forces (F 1 , F 2 ) is located at the bracket and/or the brake calliper unit and/or at the at least one connecting element between the bracket and the brake calliper unit in order to detect a braking torque (M B ) acting on the brake disc , characterised in that the at least one connecting element is designed and/or aligned such that at least one of the bearing reaction forces (F 3 ) is substantially oriented through an axis of rotation of the brake disc .
A winding wire comprising a stranded wire formed by twisting a plurality of element wires, the element wire having a copper wire having a wire diameter of 0.05 to 0.5 mm; and an extrusion coating layer coating the plurality of the element wires, wherein at least one of the element wires has a magnetic layer on an outer circumference of the copper wire, and the thickness of the extrusion coating layer is 40 to 400 μm.
A method for processing blockchain data, the method comprising: obtaining a data processing request (S2) by a blockchain node that is operating as a blockchain node in both a public blockchain network and an alliance-specific blockchain network, the blockchain node being a node which has a ledger for the public blockchain and a ledger for the alliance-specific blockchain; extracting an identifier from the data processing request that is used to identify the public blockchain network or the alliance-specific blockchain network as the blockchain network to which the data processing request belongs (S2); and executing corresponding processing logic on the data processing request based on the identifier by the blockchain node (S4). obtaining a data processing request (S2) by a blockchain node that is operating as a blockchain node in both a public blockchain network and an alliance-specific blockchain network, the blockchain node being a node which has a ledger for the public blockchain and a ledger for the alliance-specific blockchain; extracting an identifier from the data processing request that is used to identify the public blockchain network or the alliance-specific blockchain network as the blockchain network to which the data processing request belongs (S2); and executing corresponding processing logic on the data processing request based on the identifier by the blockchain node (S4).