mhurhangee/patent-ind-claim-en huggingface dataset:
A device comprising: a surgical tool having a body , a control end , and a distal end , the body shaped and sized for insertion past a sacral hiatus and into a spinal canal of a patient, the control end positioned outside the patient when the surgical tool is positioned for use, and the distal end positioned inside the spinal canal when the surgical tool is positioned for use; a compound curve in the body of the surgical tool, the compound curve including at least a first bend with a predetermined stiffness positioned to provide a point of contact between the surgical tool and a supporting tissue region of the spinal canal when a distal tip of the distal end is positioned for a procedure on a surgical target within the spinal canal, thereby providing mechanical support for a position of the distal tip, and the compound curve including a second bend with a predetermined stiffness positioned to direct the distal tip toward the surgical target; and one or more balloons coupled to an exterior of the body and inflatable to move the body within the spinal canal, which, when inflated, are operable to distribute a contact force of the body of the device at the point of contact between the surgical tool and the supporting tissue region. a surgical tool having a body , a control end , and a distal end , the body shaped and sized for insertion past a sacral hiatus and into a spinal canal of a patient, the control end positioned outside the patient when the surgical tool is positioned for use, and the distal end positioned inside the spinal canal when the surgical tool is positioned for use; a compound curve in the body of the surgical tool, the compound curve including at least a first bend with a predetermined stiffness positioned to provide a point of contact between the surgical tool and a supporting tissue region of the spinal canal when a distal tip of the distal end is positioned for a procedure on a surgical target within the spinal canal, thereby providing mechanical support for a position of the distal tip, and the compound curve including a second bend with a predetermined stiffness positioned to direct the distal tip toward the surgical target; and one or more balloons coupled to an exterior of the body and inflatable to move the body within the spinal canal, which, when inflated, are operable to distribute a contact force of the body of the device at the point of contact between the surgical tool and the supporting tissue region.
A method of placing a fastener plate on a structure made of composite material, the structure being obtained by a technique of injecting resin under a vacuum, the technique comprising placing a fiber preform in a closed mold, injecting a thermosetting resin into the mold, and polymerizing the resin prior to cooling, the method consisting in mounting a metal fastener plate against a wall of the mold before putting the fiber preform into place, the fastener plate coming into contact with one of the faces of the fiber preform while it is being put into place in the mold, and the resin becoming deposited between the fastener plate and the fiber preform while it is being injected into the mold.
A method of forming a solid compound given by Formula I: wherein R 1 is -I, -Cl, -Br, or R 2 is C(O)R 3 ; R 3 is -O - and a positive counterion is ionically associated with Formula I; P 1 is a nitrogen protecting group; comprising reacting a reactant of Formula II with a base and resolving the racemic mixture by crystallization with a chiral reagent. R 1 is -I, -Cl, -Br, or R 2 is C(O)R 3 ; R 3 is -O - and a positive counterion is ionically associated with Formula I; P 1 is a nitrogen protecting group; comprising reacting a reactant of Formula II with a base and resolving the racemic mixture by crystallization with a chiral reagent.
An in-mold lid closing apparatus , comprising: a frame ; a first actuation assembly configured to linearly position a lid engagement member between a first linear position and a second linear position relative to an in-mold lid , the first actuation assembly comprising: a first support moveably coupled to the frame , and a first actuator coupled to a frame support of the frame and having a first actuator drive element coupled to the first support ; and a second actuation assembly configured to rotatably position the lid engagement member between a first rotational position and a second rotational position relative to the in-mold lid , the second actuation assembly comprising: a second support moveably coupled to the frame and disposed between the frame support and the first support , and a second actuator coupled to the second support and extending from the second support through an opening defined by the frame support and having a second actuator drive element coupled to the first support . a frame ; a first actuation assembly configured to linearly position a lid engagement member between a first linear position and a second linear position relative to an in-mold lid , the first actuation assembly comprising: a first support moveably coupled to the frame , and a first actuator coupled to a frame support of the frame and having a first actuator drive element coupled to the first support ; and a first support moveably coupled to the frame , and a first actuator coupled to a frame support of the frame and having a first actuator drive element coupled to the first support ; and a second actuation assembly configured to rotatably position the lid engagement member between a first rotational position and a second rotational position relative to the in-mold lid , the second actuation assembly comprising: a second support moveably coupled to the frame and disposed between the frame support and the first support , and a second actuator coupled to the second support and extending from the second support through an opening defined by the frame support and having a second actuator drive element coupled to the first support . a second support moveably coupled to the frame and disposed between the frame support and the first support , and a second actuator coupled to the second support and extending from the second support through an opening defined by the frame support and having a second actuator drive element coupled to the first support .
A delivery accumulating apparatus comprising: a collection base which is capable of accumulating a plurality of deliveries (P) to be sequentially overlapped in a standing state in an accumulating direction (Q) on a surface thereof; an accumulating paddle which is capable of supporting a plurality of the deliveries (P) accumulated on the collection base from an opposite direction of the accumulating direction (Q), the accumulation paddle being arranged from above the collection base so that evacuation is possible; and an accommodation box which is arranged below the collection base , and is capable of accommodating a plurality of the deliveries (P); the collection base is rotated and thereby its evacuation is possible from above the accommodation box , wherein the delivery accumulating apparatus further comprising: characterized by a first guide which slidably contacts with the delivery (P) which is arranged on a rear surface side of the collection base , and a second guide which is arranged on the rear surface side of the collection base , wherein the second guide being rotatable in a state in a standing state on the first guide at an upstream side from the first guide in the accumulating direction (Q). a collection base which is capable of accumulating a plurality of deliveries (P) to be sequentially overlapped in a standing state in an accumulating direction (Q) on a surface thereof; an accumulating paddle which is capable of supporting a plurality of the deliveries (P) accumulated on the collection base from an opposite direction of the accumulating direction (Q), the accumulation paddle being arranged from above the collection base so that evacuation is possible; and an accommodation box which is arranged below the collection base , and is capable of accommodating a plurality of the deliveries (P); the collection base is rotated and thereby its evacuation is possible from above the accommodation box , wherein the delivery accumulating apparatus further comprising: characterized by a first guide which slidably contacts with the delivery (P) which is arranged on a rear surface side of the collection base , and a second guide which is arranged on the rear surface side of the collection base , wherein the second guide being rotatable in a state in a standing state on the first guide at an upstream side from the first guide in the accumulating direction (Q). characterized by a first guide which slidably contacts with the delivery (P) which is arranged on a rear surface side of the collection base , and a second guide which is arranged on the rear surface side of the collection base , wherein the second guide being rotatable in a state in a standing state on the first guide at an upstream side from the first guide in the accumulating direction (Q).
A data communication method, comprising: receiving (S110), by a terminal, first indication signaling sent by a base station, the first indication signaling indicating the terminal to communicate first semi-persistent scheduling, SPS, data at a first Transmission Time Interval, TTI, on a target time unit of a target carrier, wherein the target time unit is a frame, a subframe or a timeslot; receiving (S120), by the terminal, second indication signaling sent by the base station, the second indication signaling indicating the terminal to communicate second dynamic scheduling, DS, data at a second TTI on the target time unit of the target carrier, wherein a length of the first TTI is unequal to a length of the second TTI, moreover, the length of the first TTI is smaller than or equal to a length of the target time unit, and the length of the second TTI is smaller than or equal to the length of the target time unit; determining (S130), by the terminal, a location of a first time resource occupied by SPS transmission in the target time unit and a location of a second time resource occupied by DS transmission in the target time unit; and determining (S140), by the terminal, to communicate at least one of the first data or the second data according to the location of the first time resource in the target time unit and the location of the second time resource in the target time unit. receiving (S110), by a terminal, first indication signaling sent by a base station, the first indication signaling indicating the terminal to communicate first semi-persistent scheduling, SPS, data at a first Transmission Time Interval, TTI, on a target time unit of a target carrier, wherein the target time unit is a frame, a subframe or a timeslot; receiving (S120), by the terminal, second indication signaling sent by the base station, the second indication signaling indicating the terminal to communicate second dynamic scheduling, DS, data at a second TTI on the target time unit of the target carrier, wherein a length of the first TTI is unequal to a length of the second TTI, moreover, the length of the first TTI is smaller than or equal to a length of the target time unit, and the length of the second TTI is smaller than or equal to the length of the target time unit; determining (S130), by the terminal, a location of a first time resource occupied by SPS transmission in the target time unit and a location of a second time resource occupied by DS transmission in the target time unit; and determining (S140), by the terminal, to communicate at least one of the first data or the second data according to the location of the first time resource in the target time unit and the location of the second time resource in the target time unit.
Method for producing a metal foil composed of an aluminium-magnesium alloy which comprises scandium and zirconium, comprising Provision of an intermediate of an aluminium-magnesium alloy which comprises scandium and zirconium; and Rolling-out of the intermediate by hot and/or cold rolling to a thickness of 5 to 50 μm, wherein the rolling-out of the intermediate takes place in a plurality of steps, wherein at least once between two steps of the rolling-out there is an interim heat treatment at a temperature of 200 - 450°C for a period of 3 - 6 h, and wherein the aluminium-magnesium alloy which comprises scandium and zirconium is selected from aluminium alloys from groups AA5024 and/or AA5028. Provision of an intermediate of an aluminium-magnesium alloy which comprises scandium and zirconium; and Rolling-out of the intermediate by hot and/or cold rolling to a thickness of 5 to 50 μm, wherein the rolling-out of the intermediate takes place in a plurality of steps, wherein at least once between two steps of the rolling-out there is an interim heat treatment at a temperature of 200 - 450°C for a period of 3 - 6 h, and wherein the aluminium-magnesium alloy which comprises scandium and zirconium is selected from aluminium alloys from groups AA5024 and/or AA5028.
A nanothermite initiatory composition, comprising a: (i) a nanothermite suspension of a metal(M)oxide and a metal (M') in a solvent, wherein the average particle size of the metal(M)oxide and a metal (M') is less than 1000 nm, provided that (M) ≠ (M'), (ii) wherein said nanothermite suspension comprises a charging reagent, comprising a chelate or ligand capable of forming a stable complex with each of the metal(M)oxide and the metal (M'), to form a metal(M)oxide complex, and a metal (M') complex, such that said metal(M)oxide complex and said metal (M') complex repel each other in said suspension, wherein the admixture of the nanothermite suspension, charging reagent, has been caused to be mixed under Resonant Acoustic Mixing to provide a stable suspension of the nanothermite composition. (i) a nanothermite suspension of a metal(M)oxide and a metal (M') in a solvent, wherein the average particle size of the metal(M)oxide and a metal (M') is less than 1000 nm, provided that (M) ≠ (M'), (ii) wherein said nanothermite suspension comprises a charging reagent, comprising a chelate or ligand capable of forming a stable complex with each of the metal(M)oxide and the metal (M'), to form a metal(M)oxide complex, and a metal (M') complex, such that said metal(M)oxide complex and said metal (M') complex repel each other in said suspension,
A method for operating a transport assembly in the form of a long stator linear motor, in which a plurality of transport units (TEi) are moved along a transport path , wherein the movement of the transport units (TEi) along the transport path is controlled by setting setpoints (S) of movement through at least one transport unit control , characterized in that for at least one first transport unit (TEi) it is preemptively determined, if for the transport unit (TEi) a stopping maneuver (SMi) with a predetermined cinematic may be executed, so that a) a collision of this transport unit (TEi) with a preceding second transport unit (TEk) or with a barrier (B) of the transport path is avoided, or b) exceeding of a predetermined local speed limitation (v G ) in a position (p G ) of the transport path by the first transport unit (TEi) is avoided, or c) a matching movement of the first transport unit (TEi) to a speed (v k * ) of a preceding second transport unit (TEk) is possible, and that the stopping maneuver (SMi) of the first transport unit (TEi) is effectively activated, when at least one of these conditions is violated. a) a collision of this transport unit (TEi) with a preceding second transport unit (TEk) or with a barrier (B) of the transport path is avoided, or b) exceeding of a predetermined local speed limitation (v G ) in a position (p G ) of the transport path by the first transport unit (TEi) is avoided, or c) a matching movement of the first transport unit (TEi) to a speed (v k * ) of a preceding second transport unit (TEk) is possible,
A synchronous reluctance motor, comprising: a stator core and a rotor core , wherein the stator core comprises stator teeth , the rotor core comprises a plurality of magnetic barrier groups arranged in a circumferential direction, each of the magnetic barrier groups comprises a plurality of magnetic flux barriers arranged at intervals in a radial direction, a magnetic conduction channel is defined by every two adjacent magnetic flux barriers on a same pole, and a relationship between a quantity of the stator teeth N s , a quantity of layers B s of the magnetic flux barriers on each pole, a quantity of rotor poles 2p is as follows: N s /2p = B s +1, characterized in that the rotor poles are uniformly distributed along a circumferential direction, wherein a magnetic flux barrier on a same pole comprises a first part extending in a tangential direction of the rotor core and a second part located at each of two ends of the first part , and the second part is bent outwards in the radial direction with respect to the first part , wherein in a section perpendicular to a central axis of the rotor core , extension lines of two side walls of the second part of each magnetic flux barrier intersect an outer circumference of the rotor core , to form a class-A point close to a Q axis and a class-B point away from the Q axis, wherein an included angle formed by connection lines between the central axis of the rotor core and two class-A points of a magnetic flux barrier on a same pole and on an outermost side of the rotor core in the radial direction is A 0 , wherein 0.27 < A 0 /(π/p) < 0.3. wherein a magnetic flux barrier on a same pole comprises a first part extending in a tangential direction of the rotor core and a second part located at each of two ends of the first part , and the second part is bent outwards in the radial direction with respect to the first part , wherein in a section perpendicular to a central axis of the rotor core , extension lines of two side walls of the second part of each magnetic flux barrier intersect an outer circumference of the rotor core , to form a class-A point close to a Q axis and a class-B point away from the Q axis, wherein an included angle formed by connection lines between the central axis of the rotor core and two class-A points of a magnetic flux barrier on a same pole and on an outermost side of the rotor core in the radial direction is A 0 , wherein 0.27 < A 0 /(π/p) < 0.3.
A system suitable for providing beneficial insects or mites in a protected cropping environment, comprising a carrier ribbon and a plurality of substantially planar sachets carried on the ribbon , wherein each sachet comprises a dispensing compartment for beneficial insects or mites and a first emergence hole on one side of the compartment and a second emergence hole so that insects or mites can emerge and be dispensed in the protected cropping environment, wherein the position of the second emergence hole mirrors the position of the first emergence hole on an opposite side face of the sachet , and wherein the sachets are arranged along the carrier ribbon in a regularly spaced arrangement said spacing being in the range from 10cm to 90cm; and wherein the carrier ribbon is of a length in the range of 10m to 200m.
Method for impregnating a garment or other textile, said method comprising the steps of - hanging the garment or other textile onto an inner support and; - providing an outer surface spaced from the inner support and the garment or other textile , - providing a plurality of nozzles , said nozzles creating a mist of impregnating agent in the space created by the inner support and the outer surface , where the mist is circulated in the space; - evacuating the mist from the space after a predetermined period of time; characterised in that the inner support and the outer surface are electrically conductive, such that the garment or other textile is arranged between the inner support and the outer surface ; - providing an electrostatic field between said inner support and said outer surface across said garment or other textile, - providing the impregnating agent with said plurality of nozzles within the electrostatic field on an outer side in relation to the outer side of the garment or other textile, - the impregnating agent having particles being electrically charged or being of a polar nature and being sprayed towards the outer side of the garment or other textile, and - the impregnating agent being influenced by the electrostatic field between said inner support and said outer surface across said garment or other textile such that the impregnating agent will move towards the inner support and thereby be applied to the garment or other textile to be treated. - hanging the garment or other textile onto an inner support and; - providing an outer surface spaced from the inner support and the garment or other textile , - providing a plurality of nozzles , said nozzles creating a mist of impregnating agent in the space created by the inner support and the outer surface , where the mist is circulated in the space; - evacuating the mist from the space after a predetermined period of time; characterised in that the inner support and the outer surface are electrically conductive, such that the garment or other textile is arranged between the inner support and the outer surface ; - providing an electrostatic field between said inner support and said outer surface across said garment or other textile, - providing the impregnating agent with said plurality of nozzles within the electrostatic field on an outer side in relation to the outer side of the garment or other textile, - the impregnating agent having particles being electrically charged or being of a polar nature and being sprayed towards the outer side of the garment or other textile, and - the impregnating agent being influenced by the electrostatic field between said inner support and said outer surface across said garment or other textile such that the impregnating agent will move towards the inner support and thereby be applied to the garment or other textile to be treated.
A method for beam management, comprising: sending, by User Equipment, UE, a Media Access Control, MAC, Control Element, CE, message for Beam Failure Recovery request, BFRQ, to a first Secondary Cell, SCell, wherein the MAC CE message is carried in a first Physical Uplink Shared Channel (PUSCH) at slot n, and the first PUSCH corresponds to a first Hybrid Automatic Repeat request, HARQ, process number; characterized by monitoring, by the UE, a first Downlink Control Information, DCI, in a first time window, wherein the first DCI is used for scheduling the first PUSCH corresponding to the first HARQ process number; and in response to not receiving the first DCI within the first time window, determining, by the UE, that beam failure recovery for the first SCell is completed. sending, by User Equipment, UE, a Media Access Control, MAC, Control Element, CE, message for Beam Failure Recovery request, BFRQ, to a first Secondary Cell, SCell, wherein the MAC CE message is carried in a first Physical Uplink Shared Channel (PUSCH) at slot n, and the first PUSCH corresponds to a first Hybrid Automatic Repeat request, HARQ, process number; characterized by monitoring, by the UE, a first Downlink Control Information, DCI, in a first time window, wherein the first DCI is used for scheduling the first PUSCH corresponding to the first HARQ process number; and in response to not receiving the first DCI within the first time window, determining, by the UE, that beam failure recovery for the first SCell is completed.
Method for using a processor unit of an autonomously movable vehicle , wherein, in a charging process of an electric energy store of the vehicle , a processing power of the processor unit is made available to at least one vehicle-external computing network or to a grouping of vehicle-external computing networks , characterised in that the processing power of the processor unit is made available to the computing network or to the grouping in dependence of the charging state of the energy store of the vehicle , and wherein the processing power of the processor unit of the vehicle made available to the computing network or to the grouping is increased as the amount of electric energy stored in the energy store of the vehicle increases.