mhurhangee/patent-ind-claim-en huggingface dataset:
A system for facilitating retrograde fluid flow within a vein, the system comprising: a fistula stent configured to be implantable in a fistula between an artery and a vein ; and an endovascular prosthesis configured to be placed in the vein , the endovascular prosthesis comprising: a stent; and wherein the stent comprises a graft to inhibit fluid flow through a sidewall of the prosthesis , the graft being configured to direct retrograde blood flow through a lumen of the prosthesis , the graft being further configured to line the vein , wherein lining the vein comprises covering collateral vessels of the vein such that blood flow from the collateral vessels is inhibited from entering the lumen, wherein the endovascular prosthesis is separate from the fistula stent ; and wherein a proximal end segment of the endovascular prosthesis is configured to overlap with a distal end segment of the fistula stent ; or wherein a proximal end segment of the endovascular prosthesis is configured to abut a distal end segment of the fistula stent . a fistula stent configured to be implantable in a fistula between an artery and a vein ; and an endovascular prosthesis configured to be placed in the vein , the endovascular prosthesis comprising: a stent; and wherein the stent comprises a graft to inhibit fluid flow through a sidewall of the prosthesis , the graft being configured to direct retrograde blood flow through a lumen of the prosthesis , the graft being further configured to line the vein , wherein lining the vein comprises covering collateral vessels of the vein such that blood flow from the collateral vessels is inhibited from entering the lumen, wherein the endovascular prosthesis is separate from the fistula stent ; and a stent; and wherein the stent comprises a graft to inhibit fluid flow through a sidewall of the prosthesis , the graft being configured to direct retrograde blood flow through a lumen of the prosthesis , the graft being further configured to line the vein , wherein lining the vein comprises covering collateral vessels of the vein such that blood flow from the collateral vessels is inhibited from entering the lumen, wherein the endovascular prosthesis is separate from the fistula stent ; and wherein a proximal end segment of the endovascular prosthesis is configured to overlap with a distal end segment of the fistula stent ; or wherein a proximal end segment of the endovascular prosthesis is configured to abut a distal end segment of the fistula stent .
A resource allocation method, comprising: receiving , by user equipment, a response message sent by a base station, wherein the response message is used to provide a D2D communication resource of a first cell to the user equipment, and the first cell is a secondary cell or a non-serving cell of the user equipment; and performing , by the user equipment, D2D communication in the first cell; wherein, before the receiving, by user equipment, a response message sent by a base station, the method further comprises: transmitting, by the user equipment, a request message to the base station, wherein the request message is used to request a resource used by the user equipment to perform D2D communication; wherein the method further comprises: reporting, by the user equipment, a neighbor cell measurement report to the base station, so that the base station determines, according to the neighbor cell measurement report, that the user equipment can perform D2D communication in the first cell, wherein the neighbor cell measurement report comprises the signal quality that is measured by the user equipment and that is in the first cell. receiving , by user equipment, a response message sent by a base station, wherein the response message is used to provide a D2D communication resource of a first cell to the user equipment, and the first cell is a secondary cell or a non-serving cell of the user equipment; and performing , by the user equipment, D2D communication in the first cell; wherein, before the receiving, by user equipment, a response message sent by a base station, the method further comprises: transmitting, by the user equipment, a request message to the base station, wherein the request message is used to request a resource used by the user equipment to perform D2D communication; wherein the method further comprises: reporting, by the user equipment, a neighbor cell measurement report to the base station, so that the base station determines, according to the neighbor cell measurement report, that the user equipment can perform D2D communication in the first cell, wherein the neighbor cell measurement report comprises the signal quality that is measured by the user equipment and that is in the first cell. transmitting, by the user equipment, a request message to the base station, wherein the request message is used to request a resource used by the user equipment to perform D2D communication; wherein the method further comprises: reporting, by the user equipment, a neighbor cell measurement report to the base station, so that the base station determines, according to the neighbor cell measurement report, that the user equipment can perform D2D communication in the first cell, wherein the neighbor cell measurement report comprises the signal quality that is measured by the user equipment and that is in the first cell.
A computer-implemented method of configuring an Industrial Internet of Things, IIoT, edge node in an IIoT network to perform one or more functions, comprising: receiving data from at least one device; performing a situation analysis to determine that the received data requires a change in an analytical model, a runtime component, and a functional block of the IIoT edge node ; based on the situation analysis, automatically selecting a new or updated functional module that provides functionality to analyze the received data; and receiving, by the IIoT edge node , the selected new or updated functional module, the new or updated functional module including one or more components, wherein each component includes at least one of a rules set, a complex domain expression with respect to a process industry, an analytical model, and a protocol decoder; and processing the received data using the functional module; and outputting the processed data to the at least one device. receiving data from at least one device; performing a situation analysis to determine that the received data requires a change in an analytical model, a runtime component, and a functional block of the IIoT edge node ; based on the situation analysis, automatically selecting a new or updated functional module that provides functionality to analyze the received data; and receiving, by the IIoT edge node , the selected new or updated functional module, the new or updated functional module including one or more components, wherein each component includes at least one of a rules set, a complex domain expression with respect to a process industry, an analytical model, and a protocol decoder; and processing the received data using the functional module; and outputting the processed data to the at least one device.
A method performed by a user equipment, UE, supporting carrier aggregation for performing a radio frontend, RF, retuning, the method comprising: - receiving a message from a network node ; - determining whether the message contains an indicator indicating whether the UE is allowed to perform the RF retuning at cell activation or at cell configuration; and when the message contains the indicator: - performing the RF retuning at cell activation or at cell configuration according to the indication of the indicator in the received message. - receiving a message from a network node ; - determining whether the message contains an indicator indicating whether the UE is allowed to perform the RF retuning at cell activation or at cell configuration; and when the message contains the indicator: - performing the RF retuning at cell activation or at cell configuration according to the indication of the indicator in the received message. - performing the RF retuning at cell activation or at cell configuration according to the indication of the indicator in the received message.
Assembly of a part and of a device for retaining said part on a support , comprising a clamp arranged in contact with a first face of the part , the first face being opposite a second face of the part intended to be placed in contact with the support , a clamp fixing device able to fix said clamp to the support and a clamp tensioning device , the clamp comprising an elastically deformable element , wherein said elastically deformable element is a leaf spring placed against said first face and intended to apply pressure to the first face of the part when the clamp is tensioned by the tensioning device , characterized in that said clamp comprises two tie bars pivot-mounted on the elastically deformable element , the fixing device being configured to fix the free end of a first tie bar to the support and the tensioning device being configured to fix the free end of the second tie bar to the support , each tie bar being intended to be positioned along a lateral face of the part .
Portable power chiseling tool , comprising a tool holder for holding a tool on a working axis , an electric motor , a striking mechanism , which has an exciter piston coupled to the motor , a striker guided on the working axis , a pneumatic chamber , which is closed by the exciter piston and the striker and is provided for coupling a movement of the striker to the exciter piston , characterized in that a speed of the electric motor corresponds to at least 20 times a striking rate of the striking mechanism , a speed of the electric motor is greater than 80,000 revolutions per minute, and a ratio of the mass of the electric motor to the rated power of the electric motor is less than 0.2 g/W. a tool holder for holding a tool on a working axis , an electric motor , a striking mechanism , which has an exciter piston coupled to the motor , a striker guided on the working axis , a pneumatic chamber , which is closed by the exciter piston and the striker and is provided for coupling a movement of the striker to the exciter piston , characterized in that a speed of the electric motor corresponds to at least 20 times a striking rate of the striking mechanism , a speed of the electric motor is greater than 80,000 revolutions per minute, and a ratio of the mass of the electric motor to the rated power of the electric motor is less than 0.2 g/W.
A computing system for a vehicle , the computing system comprising one or more processors for controlling operation of the computing system , and a memory for storing data and program instructions usable by the one or more processors, wherein the one or more processors are configured to execute instructions stored in the memory to: determine when the vehicle is currently in a user-selected predefined driving situation; and responsive to a determination that the vehicle is currently in the user-selected predefined driving situation, control operation of the vehicle to implement a user-selected vehicle response mode associated with the user-selected predefined driving situation, the vehicle response mode including an initial control mode specifying one or more user-selected initial indicators of the vehicle response mode, and a conditional secondary control mode specifying one or more user-selected secondary indicators of the vehicle response mode, wherein the one or more initial indicators and the one or more secondary indicators are configured to be perceivable by a person exterior of the vehicle. determine when the vehicle is currently in a user-selected predefined driving situation; and responsive to a determination that the vehicle is currently in the user-selected predefined driving situation, control operation of the vehicle to implement a user-selected vehicle response mode associated with the user-selected predefined driving situation, the vehicle response mode including an initial control mode specifying one or more user-selected initial indicators of the vehicle response mode, and a conditional secondary control mode specifying one or more user-selected secondary indicators of the vehicle response mode, wherein the one or more initial indicators and the one or more secondary indicators are configured to be perceivable by a person exterior of the vehicle.
An isolated population of human pluripotent stem cells comprising at least 50% human pluripotent stem cells characterized by an OCT4 + /TRA1-60 - /TRA1-81 - /SSEA1 + /SSEA4 - expression signature, wherein said human pluripotent stem cells are capable of differentiating into endoderm, ectoderm and mesoderm embryonic germ layers.
An exoskeleton adapted to assist, in use, at least one upper limb of a wearer of said exoskeleton when lifting and carrying a load, said exoskeleton comprising: - at least one arm including at one of its ends called "front end", at least one means for attaching an upper limb of the wearer, - a load-bearing structure intended to be secured to the wearer and including at least one support point , - at least one compensation member secured to said arm by a first pivot , extending between said arm and said load-bearing structure to which said member is secured, and exerting a compensation force moment on said arm by the deformation of at least one elastic element , - a force transmission element extending between a low point of the compensation member and an end called "rear end" of said arm opposite to the front end, the at least one elastic element and said force transmission element being continuously loaded in tension during use of the exoskeleton, and being configured so that the force moment varies with the inclination of the arm, and said transmission element being secured to the arm by a second pivot located at the rear end of the arm, the first pivot being located between the second pivot and the front end of the arm. - at least one arm including at one of its ends called "front end", at least one means for attaching an upper limb of the wearer, - a load-bearing structure intended to be secured to the wearer and including at least one support point , - at least one compensation member secured to said arm by a first pivot , extending between said arm and said load-bearing structure to which said member is secured, and exerting a compensation force moment on said arm by the deformation of at least one elastic element , - a force transmission element extending between a low point of the compensation member and an end called "rear end" of said arm opposite to the front end, the at least one elastic element and said force transmission element being continuously loaded in tension during use of the exoskeleton, and being configured so that the force moment varies with the inclination of the arm, and said transmission element being secured to the arm by a second pivot located at the rear end of the arm, the first pivot being located between the second pivot and the front end of the arm.
Process of producing a multilayer lignocellulosic composite comprising one or more lignocellulosic composite layers or a single-layer lignocellulosic composite, comprising at least the following steps: a) providing or preparing a mixture at least comprising - lignocellulosic particles and - a binder comprising as components for hardening the binder via esterification at least ▪ (c2) one, two or more polymers comprising multiple hydroxy groups and, for crosslinking said polymers, ▪ one, two or more polymer or monomer compounds having two or more carboxyl groups; b) compacting the mixture; and c) applying a high-frequency electrical field to the mixture during and/or after compacting, so that the binder hardens via esterification of said components and binds the lignocellulosic particles, so that a single-layer lignocellulosic composite or a layer of a multilayer lignocellulosic composite results. a) providing or preparing a mixture at least comprising - lignocellulosic particles and - a binder comprising as components for hardening the binder via esterification at least ▪ (c2) one, two or more polymers comprising multiple hydroxy groups and, for crosslinking said polymers, ▪ one, two or more polymer or monomer compounds having two or more carboxyl groups; - lignocellulosic particles and - a binder comprising as components for hardening the binder via esterification at least ▪ (c2) one, two or more polymers comprising multiple hydroxy groups and, for crosslinking said polymers, ▪ one, two or more polymer or monomer compounds having two or more carboxyl groups; ▪ (c2) one, two or more polymers comprising multiple hydroxy groups and, for crosslinking said polymers, ▪ one, two or more polymer or monomer compounds having two or more carboxyl groups; b) compacting the mixture; and c) applying a high-frequency electrical field to the mixture during and/or after compacting, so that the binder hardens via esterification of said components and binds the lignocellulosic particles, so that a single-layer lignocellulosic composite or a layer of a multilayer lignocellulosic composite results.
An energy-storing resistive, ESR, haptic controller , comprising: a base ; first (202 , 204) and second (202 , 206) capstans rotationally secured to the base and configured to rotate around a common axis; an energy storage mechanism connected between the first and second capstans; a user engagement assembly secured to the first capstan, wherein the user engagement assembly comprises an arm ; a first cord wound around the first capstan and having a first end secured relative to the base and a second end secured to a first actuator that is secured relative to the base; a second cord wound around the second capstan and having a first end secured relative to the base and a second end secured to a second actuator that is secured relative to the base; a sensor configured to sense an angular orientation of the arm relative to the base and/or rotation of the arm relative to the base; and a controller configured to control actuation of the first and second actuators based at least in part upon data from the sensor, wherein the controller is configured, in response to a user imparting forces on the arm, to control the second capstan via the second actuator and the first capstan via the first actuator to create different resistance to rotation on the first capstan than the second capstan, the differential loading the energy storing mechanism. a base ; first (202 , 204) and second (202 , 206) capstans rotationally secured to the base and configured to rotate around a common axis; an energy storage mechanism connected between the first and second capstans; a user engagement assembly secured to the first capstan, wherein the user engagement assembly comprises an arm ; a first cord wound around the first capstan and having a first end secured relative to the base and a second end secured to a first actuator that is secured relative to the base; a second cord wound around the second capstan and having a first end secured relative to the base and a second end secured to a second actuator that is secured relative to the base; a sensor configured to sense an angular orientation of the arm relative to the base and/or rotation of the arm relative to the base; and a controller configured to control actuation of the first and second actuators based at least in part upon data from the sensor, wherein the controller is configured, in response to a user imparting forces on the arm, to control the second capstan via the second actuator and the first capstan via the first actuator to create different resistance to rotation on the first capstan than the second capstan, the differential loading the energy storing mechanism.
A home appliance comprising: a motor configured to execute a predetermined function of the home appliance; and a processor configured to: determine an upper limit of noise of the home appliance based on ambient noise information of the home appliance, and control a driving speed of the motor to have magnitude of noise of the home appliance equal to or less than the upper limit of the noise, characterised in that the processor is further configured to determine the upper limit of the noise of the home appliance by removing the noise generated by the home appliance from the ambient noise information of the home appliance using noise information of the home appliance. a motor configured to execute a predetermined function of the home appliance; and a processor configured to: determine an upper limit of noise of the home appliance based on ambient noise information of the home appliance, and control a driving speed of the motor to have magnitude of noise of the home appliance equal to or less than the upper limit of the noise, determine an upper limit of noise of the home appliance based on ambient noise information of the home appliance, and control a driving speed of the motor to have magnitude of noise of the home appliance equal to or less than the upper limit of the noise, characterised in that the processor is further configured to determine the upper limit of the noise of the home appliance by removing the noise generated by the home appliance from the ambient noise information of the home appliance using noise information of the home appliance.