mhurhangee/patent-ind-claim-en huggingface dataset:
A system for correcting gait comprising: - at least one orientation sensor and at least one stimulator and - a computing device receiving orientation sensor data, wherein the at least one stimulator is adapted for being activated by the computing device if the sensor data exceeds acceptable threshold levels, characterised in that the system is for correcting dog gait, whereby said orientation sensor and stimulator are adapted for attaching to a limb of the dog. - at least one orientation sensor and at least one stimulator and - a computing device receiving orientation sensor data,
An interdental brush comprising a spine of twisted wire , bristles projecting from the spine of the twisted wire, a protective tip at an end of the twisted wire above the said bristles wherein the protective tip comprises a ductile cover enveloping at the end of the twisted wire, molded and attached to the end of the wire and centered around the end of the wire; characterized in that said ductile cover has a plurality of protrusions is dome shaped at a closed end and chamfer shaped at the bristle end . a spine of twisted wire , bristles projecting from the spine of the twisted wire, a protective tip at an end of the twisted wire above the said bristles wherein the protective tip comprises a ductile cover enveloping at the end of the twisted wire, molded and attached to the end of the wire and centered around the end of the wire; characterized in that said ductile cover has a plurality of protrusions is dome shaped at a closed end and chamfer shaped at the bristle end .
Household refrigeration appliance with a housing and a door , which is arranged on the housing in such a manner that it can be pivoted by means of hinges , wherein at least one hinge has a door closing fitting part with a closing clip on the door side and a bearing element with a closing cam being configured on the housing, the closing cam being coupled to the closing clip when the door is in the closed state, wherein the closing cam has a coupling projection , which has a recess on a coupling contour that is facing when coupled to the closing clip , in which recess a projection end piece configured on the closing clip engages in the coupled state, characterised in that the door closing fitting part comprises a fastening segment having a depression on each opposing side, an end wall of the door has a cutout configured with the correspondingly same shape, and the household refrigeration appliance comprises a separate connecting piece having a first sub-segment and a second sub-segment , wherein the first sub-segment is inserted with a form fit optionally into one or the other depression in the fastening segment depending on the mounted position of the door closing fitting part and the second sub-segment engages with a form fit in the cutout , wherein the door closing fitting part is fastened to the door by means of the connecting piece .
Process for air conditioning or refrigeration for industrial or commercial premises by means of a heat transfer installation using a scroll compressor and containing a heat transfer composition, the heat transfer composition comprising: - a refrigerant fluid which comprises 2,3,3,3-tetrafluoropropene, and - a lubricant; in which the lubricant comprises a polyol ester, the solubility of the 2, 3, 3, 3-tetrafluoropropene in the lubricant at 0°C and at an absolute pressure of 2.2 bar being less than the solubility of 1,1,1,2-tetrafluoroethane in the lubricant at 0°C and at an absolute pressure of 2.0 bar; the process comprising the successive steps: - of evaporating a refrigerant fluid; - of superheating the refrigerant fluid from 1 to 10°C; - of compressing the refrigerant fluid. - a refrigerant fluid which comprises 2,3,3,3-tetrafluoropropene, and - a lubricant; in which the lubricant comprises a polyol ester, the solubility of the 2, 3, 3, 3-tetrafluoropropene in the lubricant at 0°C and at an absolute pressure of 2.2 bar being less than the solubility of 1,1,1,2-tetrafluoroethane in the lubricant at 0°C and at an absolute pressure of 2.0 bar; the process comprising the successive steps: - of evaporating a refrigerant fluid; - of superheating the refrigerant fluid from 1 to 10°C; - of compressing the refrigerant fluid. - of evaporating a refrigerant fluid; - of superheating the refrigerant fluid from 1 to 10°C; - of compressing the refrigerant fluid.
An audible indicator for use with a drug delivery device comprising a monostable resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) configured to reside in two or more states (S1, S2) having two or more different conformations, - wherein in a relaxed state (S1), the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is relaxed in a first conformation, - wherein in a biased state (S2), the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is biased to store energy in a second conformation different to the first conformation whilst a low holding force is maintained which is lower than a maximum of the force for changing from the relaxed state into the biased state, and - wherein the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) releases stored energy to generate an audible signal when changing from the biased state (S2) into the relaxed state (S1) due to a transition from the second conformation to the first conformation, wherein the resilient force member (313.1, 413.1, 513.1) is supported by a retaining element (10, 15.2, 110, 210, 310, 410, 510, 610) in the biased state (S2) in order to prevent transition into the relaxed state (S1). - wherein in a relaxed state (S1), the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is relaxed in a first conformation, - wherein in a biased state (S2), the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is biased to store energy in a second conformation different to the first conformation whilst a low holding force is maintained which is lower than a maximum of the force for changing from the relaxed state into the biased state, and - wherein the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) releases stored energy to generate an audible signal when changing from the biased state (S2) into the relaxed state (S1) due to a transition from the second conformation to the first conformation, wherein the resilient force member (313.1, 413.1, 513.1) is supported by a retaining element (10, 15.2, 110, 210, 310, 410, 510, 610) in the biased state (S2) in order to prevent transition into the relaxed state (S1).
Mobile work machine with lighting by means of lighting units, in particular position safety lights , wherein the lighting units are LEDs , a plurality of which are integrated in lines and/or surface areas in the external contour of the mobile work machine in order to form position safety lights , characterized in that the mobile work machine is a battery-powered electric industrial truck and that the LEDs are continuously switched on by operating the mobile work machine .
Method for the operation of a field device (FG) which is compatible with a fieldbus protocol, wherein the fieldbus protocol has at least one command, said command serving to execute a first function or to execute a second function of the field device (FG) depending on a value of an auxiliary variable, wherein the first function differs from the second function, wherein the command is a prespecified command or manufacturer-specific command of the fieldbus protocol of the field device (FG) which is compatible with a fieldbus protocol, wherein the command is a write command designed to write a parameter value of the field device to a memory unit of the field device, wherein the first function is the function predefined for the command by the fieldbus protocol, wherein the second function involves inhibiting the execution of the first function, and wherein the same response telegram and/or the same feedback information is transmitted over the fieldbus by the field device (FG) as a response to the at least one command, independently of the function that is executed in the field device depending on the auxiliary variable.
An agricultural baler , comprising: a chassis ; a main bale chamber ; an axle arrangement coupled with the chassis; the axle arrangement includes: a first axle with a first end and a second end , the first end being coupled with the chassis by a first leaf spring and a generally vertically arranged first hydraulic cylinder , the second end being coupled with the chassis by a second leaf spring and a generally vertically arranged second hydraulic cylinder ; a second axle with a first end and a second end , the first end being coupled with the chassis by a first leaf spring and a generally vertically arranged first hydraulic cylinder , the second end being coupled with the chassis by a second leaf spring and a generally vertically arranged second hydraulic cylinder ; characterized in that : the axle arrangement further includes: a hydraulic circuit fluidly interconnecting the first hydraulic cylinder on the first axle with the first hydraulic cylinder on the second axle , and fluidly interconnecting the second hydraulic cylinder on the first axle with the second hydraulic cylinder on the second axle . a chassis ; a main bale chamber ; an axle arrangement coupled with the chassis; the axle arrangement includes: a first axle with a first end and a second end , the first end being coupled with the chassis by a first leaf spring and a generally vertically arranged first hydraulic cylinder , the second end being coupled with the chassis by a second leaf spring and a generally vertically arranged second hydraulic cylinder ; a second axle with a first end and a second end , the first end being coupled with the chassis by a first leaf spring and a generally vertically arranged first hydraulic cylinder , the second end being coupled with the chassis by a second leaf spring and a generally vertically arranged second hydraulic cylinder ; characterized in that : the axle arrangement further includes: a hydraulic circuit fluidly interconnecting the first hydraulic cylinder on the first axle with the first hydraulic cylinder on the second axle , and fluidly interconnecting the second hydraulic cylinder on the first axle with the second hydraulic cylinder on the second axle . a first axle with a first end and a second end , the first end being coupled with the chassis by a first leaf spring and a generally vertically arranged first hydraulic cylinder , the second end being coupled with the chassis by a second leaf spring and a generally vertically arranged second hydraulic cylinder ; a second axle with a first end and a second end , the first end being coupled with the chassis by a first leaf spring and a generally vertically arranged first hydraulic cylinder , the second end being coupled with the chassis by a second leaf spring and a generally vertically arranged second hydraulic cylinder ; characterized in that : the axle arrangement further includes: a hydraulic circuit fluidly interconnecting the first hydraulic cylinder on the first axle with the first hydraulic cylinder on the second axle , and fluidly interconnecting the second hydraulic cylinder on the first axle with the second hydraulic cylinder on the second axle .
A data transmission method , wherein the method comprises: receiving, by a receive end by using secondary radio, a feature narrowband signal sent by a transmit end; enabling, by the receive end, primary radio based on the feature narrowband signal, wherein a receiving bandwidth of the secondary radio is less than a receiving bandwidth and a sending bandwidth of the primary radio; and sending, by the receive end, a first broadband signal to the transmit end by using the primary radio, wherein the first broadband signal is used to notify the transmit end that the receive end has enabled the primary radio, characterised in that, before receiving, by the receive end by using secondary radio, a feature narrowband signal sent by the transmit end, the method further comprises: receiving, by the receive end, a beacon narrowband signal sent by the transmit end; sending, by the receive end, a measurement report to the transmit end, wherein the measurement report is used to notify of at least one of a signal measurement result or a channel measurement result; and receiving, by the receive end, wake-up configuration information sent by the transmit end based on the measurement report, wherein the wake-up configuration information is used to indicate feature information of the feature narrowband signal. receiving, by a receive end by using secondary radio, a feature narrowband signal sent by a transmit end; enabling, by the receive end, primary radio based on the feature narrowband signal, wherein a receiving bandwidth of the secondary radio is less than a receiving bandwidth and a sending bandwidth of the primary radio; and sending, by the receive end, a first broadband signal to the transmit end by using the primary radio, wherein the first broadband signal is used to notify the transmit end that the receive end has enabled the primary radio, receiving, by the receive end, a beacon narrowband signal sent by the transmit end; sending, by the receive end, a measurement report to the transmit end, wherein the measurement report is used to notify of at least one of a signal measurement result or a channel measurement result; and receiving, by the receive end, wake-up configuration information sent by the transmit end based on the measurement report, wherein the wake-up configuration information is used to indicate feature information of the feature narrowband signal.
A medical system for treating a defective mitral valve (MV) having an annulus (A), said system comprising in combination: a removable and flexible elongate displacement unit for temporary insertion into a coronary sinus (CS) adjacent said valve, wherein said displacement unit has a delivery state for delivery into said CS, and an activated state to which the displacement unit is temporarily and reversibly transferable from said delivery state, said displacement unit comprises a proximal expandable portion , a distal anchoring portion being movable in relation to said proximal expandable portion in a longitudinal direction of said displacement unit to said activated state in which the shape of the annulus is modified to a modified shape (A'); and an annuloplasty device for permanent fixation at the mitral valve annulus by annuloplasty of the valve when said modified shape is obtained, wherein said annuloplasty device comprises a fixation structure that is adapted to retain said modified shape, characterized in that said proximal expandable portion is reversibly expandable and reversibly foldable to an expanded state for positioning against a tissue wall at the entrance of said CS for providing a counter force against said distal anchoring portion, and wherein said proximal expandable portion comprises expandable wire lobes for positioning against a tissue wall at the entrance of said CS. a removable and flexible elongate displacement unit for temporary insertion into a coronary sinus (CS) adjacent said valve, wherein said displacement unit has a delivery state for delivery into said CS, and an activated state to which the displacement unit a delivery state for delivery into said CS, and an activated state to which the displacement unit a proximal expandable portion , a distal anchoring portion being movable in relation to said proximal expandable portion in a longitudinal direction of said displacement unit to said activated state in which the shape of the annulus is modified to a modified shape (A'); and an annuloplasty device for permanent fixation at the mitral valve annulus by annuloplasty of the valve when said modified shape is obtained, wherein said annuloplasty device comprises a fixation structure that is adapted to retain said modified shape, characterized in that said proximal expandable portion is reversibly expandable and reversibly foldable to an expanded state for positioning against a tissue wall at the entrance of said CS for providing a counter force against said distal anchoring portion, and wherein said proximal expandable portion comprises expandable wire lobes for positioning against a tissue wall at the entrance of said CS.
A gas separation apparatus that separates carbon dioxide and water vapor individually from a first mixture gas containing at least hydrogen, carbon dioxide and water vapor, the gas separation apparatus comprising a first separation membrane and a second separation membrane that are made of different materials, wherein the first separation membrane is a CO 2 facilitated transport membrane having a CO 2 /H 2 selective separation performance under a temperature condition of 100°C or higher, when the first mixture gas is supplied, the first separation membrane separates a second mixture gas containing carbon dioxide and water vapor from the first mixture gas by allowing permeation of the carbon dioxide and water vapor and preventing permeation of the hydrogen, and when the second mixture gas is supplied, the second separation membrane separates water vapor from the second mixture gas by allowing permeation of the water vapor and preventing permeation of the carbon dioxide, wherein the water vapor that has permeated through the second separation membrane is re-utilized by, in use, supplying the water vapor to a stage before the second separation membrane.
A system comprising a drone (B) having an onboard entity (B1) on board said drone (B) and a control entity (A) for controlling the drone and situated remotely from the drone (B), the control entity (A) being connected to a human-machine interface (C) adapted to enable an operator to select instructions for sending from the control entity (A) to the onboard entity (B1), the onboard entity (B1) being adapted to receive the instructions sent by the control entity (A) and to execute actions as a function of the instructions as received in this way by the onboard entity, the system being characterized in that : - the onboard entity (B1) is arranged to generate a message from the instructions received by the onboard entity (B1) and to transmit this message to the control entity (A); and - the control entity (A) is arranged to control warning means (D) to generate an information signal (S) representative of said message transmitted by the onboard entity (B1) and received by the control entity (A) ; the system further comprising validation means (E) connected to the control entity (A), the control entity (A) also being arranged to act as a function of the operator acting on said validation means (E) after said information signal S has been generated in order to transmit an intention message to the onboard entity (B1); and the onboard entity (B1) being arranged to make execution of said actions conditional as a function of said intention message , which actions correspond to the instructions previously received by the onboard entity. - the onboard entity (B1) is arranged to generate a message from the instructions received by the onboard entity (B1) and to transmit this message to the control entity (A); and - the control entity (A) is arranged to control warning means (D) to generate an information signal (S) representative of said message transmitted by the onboard entity (B1) and received by the control entity (A) ;
A method of single submerged arc welding of a high-Cr CSEF steel, which comprises single submerged arc welding using a combination of: a welding wire comprising less than 0.05% by mass of C, 0.055% by mass or less of N, and more than 0.05% by mass and 0.50% by mass or less of Si, with the balance being Fe and inevitable impurities, and a welding flux comprising 2 to 30% by mass of CaF 2 , 2 to 20% by mass of CaO, 20 to 40% by mass of MgO, 5 to 25% by mass of Al 2 O 3 , and 5 to 25% by mass of Si and SiO 2 in total (in terms of SiO 2 ), and further comprising, in limited amounts, 25% by mass or less of BaO, 10% by mass or less of ZrO 2 , and less than 5% by mass of TiO 2 , wherein the high-Cr CSEF steel is a high-Cr Creep Strength-Enhanced Ferritic steel and includes 0.07 to 0.14% by mass of C, 0.50% by mass or less of Si, 0.70% by mass or less of Mn, 0.025% by mass or less of P, 0.015% by mass or less of S, 0.50% by mass or less of Ni, 8.00 to 11.50% by mass of Cr, 0.25 to 1.10% by mass of Mo, 0.15 to 0.35% by mass of V, 0.04 to 0.10% by mass of Nb, and 0.03 to 0.10% by mass of N, optionally 1.70% by mass or less of Cu, 0.060% by mass or less of B, 2.50% by mass or less of W, and 3.0% by mass or less of Co, with the balance being Fe and inevitable impurities. a welding wire comprising less than 0.05% by mass of C, 0.055% by mass or less of N, and more than 0.05% by mass and 0.50% by mass or less of Si, with the balance being Fe and inevitable impurities, and a welding flux comprising 2 to 30% by mass of CaF 2 , 2 to 20% by mass of CaO, 20 to 40% by mass of MgO, 5 to 25% by mass of Al 2 O 3 , and 5 to 25% by mass of Si and SiO 2 in total (in terms of SiO 2 ), and further comprising, in limited amounts, 25% by mass or less of BaO, 10% by mass or less of ZrO 2 , and less than 5% by mass of TiO 2 , wherein the high-Cr CSEF steel is a high-Cr Creep Strength-Enhanced Ferritic steel and includes 0.07 to 0.14% by mass of C, 0.50% by mass or less of Si, 0.70% by mass or less of Mn, 0.025% by mass or less of P, 0.015% by mass or less of S, 0.50% by mass or less of Ni, 8.00 to 11.50% by mass of Cr, 0.25 to 1.10% by mass of Mo, 0.15 to 0.35% by mass of V, 0.04 to 0.10% by mass of Nb, and 0.03 to 0.10% by mass of N, optionally 1.70% by mass or less of Cu, 0.060% by mass or less of B, 2.50% by mass or less of W, and 3.0% by mass or less of Co, with the balance being Fe and inevitable impurities. 0.07 to 0.14% by mass of C, 0.50% by mass or less of Si, 0.70% by mass or less of Mn, 0.025% by mass or less of P, 0.015% by mass or less of S, 0.50% by mass or less of Ni, 8.00 to 11.50% by mass of Cr, 0.25 to 1.10% by mass of Mo, 0.15 to 0.35% by mass of V, 0.04 to 0.10% by mass of Nb, and 0.03 to 0.10% by mass of N, 1.70% by mass or less of Cu, 0.060% by mass or less of B, 2.50% by mass or less of W, and 3.0% by mass or less of Co,
A fin field-effect transistor, FinFET, comprising: one or more fins arranged in parallel, a plurality of valid gates, and first dummy polycrystalline silicon, wherein the one or more fins all extend in a first direction, and the plurality of valid gates and the first dummy polycrystalline silicon all extend in a second direction and cover surfaces of the one or more fins arranged in parallel; the first dummy polycrystalline silicon is located on one side of the plurality of valid gates, and fins on both sides of each of the plurality of valid gates are respectively coupled to a source terminal and a drain terminal of the FinFET; the plurality of valid gates are coupled to a gate terminal of the FinFET; and the first dummy polycrystalline silicon is coupled between the gate terminal of the FinFET and a resistor potential terminal. one or more fins arranged in parallel, a plurality of valid gates, and first dummy polycrystalline silicon, wherein the one or more fins all extend in a first direction, and the plurality of valid gates and the first dummy polycrystalline silicon all extend in a second direction and cover surfaces of the one or more fins arranged in parallel; the first dummy polycrystalline silicon is located on one side of the plurality of valid gates, and fins on both sides of each of the plurality of valid gates are respectively coupled to a source terminal and a drain terminal of the FinFET; the plurality of valid gates are coupled to a gate terminal of the FinFET; and the first dummy polycrystalline silicon is coupled between the gate terminal of the FinFET and a resistor potential terminal.