mhurhangee/patent-ind-claim-en huggingface dataset:
A computer program product, comprising a group of program code, performing the method comprising: receiving , by an SDN controller, virtual network information sent by a cloud computing platform, wherein the virtual network information comprises a correspondence between information about a virtual machine, VM, and information about a server running the VM; acquiring , by the SDN controller, physical network information, wherein the physical network information comprises a correspondence between information about a top-of-rack, TOR, switch connected to the server and the information about the server; and acquiring , by the SDN controller, a correspondence between the information about the VM and the information about the TOR switch according to the virtual network information and the physical network information; the information about the VM comprises a VM MAC address or a VM IP address; the information about the server comprises at least one of the following elements: a network interface card address of the server, a SystemName of the server, a universally unique identifier, UUID, of the server, and an identifier of a virtual switch, vSwitch, on the server; and the information about the TOR switch comprises an equipment identity of the TOR switch, and information about a physical port connected to the server. receiving , by an SDN controller, virtual network information sent by a cloud computing platform, wherein the virtual network information comprises a correspondence between information about a virtual machine, VM, and information about a server running the VM; acquiring , by the SDN controller, physical network information, wherein the physical network information comprises a correspondence between information about a top-of-rack, TOR, switch connected to the server and the information about the server; and acquiring , by the SDN controller, a correspondence between the information about the VM and the information about the TOR switch according to the virtual network information and the physical network information; the information about the VM comprises a VM MAC address or a VM IP address; the information about the server comprises at least one of the following elements: a network interface card address of the server, a SystemName of the server, a universally unique identifier, UUID, of the server, and an identifier of a virtual switch, vSwitch, on the server; and the information about the TOR switch comprises an equipment identity of the TOR switch, and information about a physical port connected to the server.
A method performed by a user equipment, UE, comprising acting as a cooperating UE, CUE, to assist at least one target UE, TUE, by: receiving a signal from a base station carrying a first modulated scrambled data block; demodulating, de-scrambling and decoding the first modulated scrambled data block to produce a decoded data block ; determining that the decoded data block is for said at least one TUE; encoding the decoded data block to produce an encoded data block, and scrambling the encoded data block based on at least a group identifier, ID, to produce a scrambled data block ; modulating the scrambled data block to produce a second modulated scrambled data block ; transmitting the second modulated scrambled data block for reception by the at least one TUE ; characterized in that the method further comprises: transmitting sidelink control information, SCI, signaling indicating transmission resources and parameters for use by the at least one TUE in detecting and decoding second modulated scrambled data block; wherein transmitting sidelink control information, SCI, signaling further comprises: scrambling a cyclic redundancy check, CRC, of a set of sidelink control information, SCI, information bits based on at least the group ID, the SCI information bits and the scrambled CRC together forming an SCI coded block; scrambling the SCI coded block based on at least the group ID to produce a scrambled SCI coded block; modulating the scrambled SCI coded block to produce a modulated SCI coded block; and transmitting the modulated SCI coded block for reception by the at least one TUE; wherein the group ID is known by the CUE and the at least one target UE, TUE. receiving a signal from a base station carrying a first modulated scrambled data block; demodulating, de-scrambling and decoding the first modulated scrambled data block to produce a decoded data block ; determining that the decoded data block is for said at least one TUE; encoding the decoded data block to produce an encoded data block, and scrambling the encoded data block based on at least a group identifier, ID, to produce a scrambled data block ; modulating the scrambled data block to produce a second modulated scrambled data block ; transmitting the second modulated scrambled data block for reception by the at least one TUE ; transmitting sidelink control information, SCI, signaling indicating transmission resources and parameters for use by the at least one TUE in detecting and decoding second modulated scrambled data block; scrambling a cyclic redundancy check, CRC, of a set of sidelink control information, SCI, information bits based on at least the group ID, the SCI information bits and the scrambled CRC together forming an SCI coded block; scrambling the SCI coded block based on at least the group ID to produce a scrambled SCI coded block; modulating the scrambled SCI coded block to produce a modulated SCI coded block; and transmitting the modulated SCI coded block for reception by the at least one TUE;
A thermogenic cannabis composition for oral administration, the composition comprising at least one cannabinoid and 5%-60% w/w of at least one anhydrous thermogenic agent selected from calcium chloride (CaCl2), calcium sulfate (CaSO4), calcium nitrate (Ca(NO3)2), calcium carbonate (CaCO3), calcium oxide (Ca(OH)2), calcium bromide (CaBr2), calcium iodide (CaI2), potassium phosphate (K3PO4), magnesium chloride (MgCl2), magnesium sulfate (MgSO4) magnesium nitrate (Mg(NO3)2), magnesium carbonate (MgCO3), magnesium bromide (MgBr2), magnesium iodide (MgI2), sodium carbonate (Na2CO3) potassium carbonate (K2CO3), sodium acetate (NaC2H3O2), potassium acetate (KC2H3O2), sodium oxide (NaOH), potassium oxide (KOH), citric acid (C 6 H 8 O 7 ), lithium chloride (LiCl), and lithium.
Knife (100; 100') arranged for being fitted to a cutting apparatus to obtain incision lines and cuts on a capsule made of plastics intended to close a container, said knife (100; 100') being suitable for performing cuts and incisions on a side wall of said capsule when said capsule by rotating around a rotation axis (R) is moved along a path to interact with said knife (100; 100') in an advancement direction (T), said knife (100; 100') comprising a plurality of cutting tools arranged in a layered structure, in which said cutting tools are parallel to a plane (P) and stacked in the direction of a vertical axis (Z) orthogonal to said plane (P), said layered structure comprising: - a first horizontal cutting tool arranged for performing circumferential cuts on said side wall at a first height on said vertical axis (Z) to define a tamper ring in said capsule ; - a second horizontal cutting tool , arranged for performing further circumferential cuts on said side wall at a second height different from said first height on said vertical axis (Z); and - a third cutting tool (30; 30'), arranged for performing oblique cuts on said side wall and for determining in use together with said second horizontal cutting tool and with said first horizontal cutting tool connecting portions connecting said tamper ring and said side wall ; characterised in that said third cutting tool (30; 30') comprises at least two tilted cutting edges (32a, 34; 32a', 34') having a tilt different from each other, said tilt referring to a reference plane passing through said vertical axis (Z) and tangent to said advancement direction (T) of said capsule , said third cutting tool (30; 30') being interposed between said first horizontal cutting tool and said second horizontal cutting tool , wherein said third cutting tool (30; 30') is arranged to be disassembled from said layered structure in order to be replaced with a different third cutting tool to obtain a different shape of said connecting portions . - a first horizontal cutting tool arranged for performing circumferential cuts on said side wall at a first height on said vertical axis (Z) to define a tamper ring in said capsule ; - a second horizontal cutting tool , arranged for performing further circumferential cuts on said side wall at a second height different from said first height on said vertical axis (Z); and - a third cutting tool (30; 30'), arranged for performing oblique cuts on said side wall and for determining in use together with said second horizontal cutting tool and with said first horizontal cutting tool connecting portions connecting said tamper ring and said side wall ;
A membrane electrode assembly with gas diffusion layer comprising: a membrane electrode assembly including an electrolyte membrane , a catalyst layer located on one surface of said electrolyte membrane , and a subgasket bonded to said one surface of said electrolyte membrane at a position on said one surface of said electrolyte membrane external to said catalyst layer ; and a gas diffusion layer covering said catalyst layer on one side of said catalyst layer and bonded to said membrane electrode assembly through a bonding part , wherein said gas diffusion layer includes: a gas diffusion layer base material ; and a microporous layer adhesively bonded to said gas diffusion layer base material and located between said gas diffusion layer base material and said catalyst layer , and power of adhesion of said microporous layer to said gas diffusion layer base material determined by a test under ISO 29862:2007 is equal to or greater than 0.392 N/25 mm (40 gf/25 mm). a membrane electrode assembly including an electrolyte membrane , a catalyst layer located on one surface of said electrolyte membrane , and a subgasket bonded to said one surface of said electrolyte membrane at a position on said one surface of said electrolyte membrane external to said catalyst layer ; and a gas diffusion layer covering said catalyst layer on one side of said catalyst layer and bonded to said membrane electrode assembly through a bonding part , wherein said gas diffusion layer includes: a gas diffusion layer base material ; and a microporous layer adhesively bonded to said gas diffusion layer base material and located between said gas diffusion layer base material and said catalyst layer , and power of adhesion of said microporous layer to said gas diffusion layer base material determined by a test under ISO 29862:2007 is equal to or greater than 0.392 N/25 mm (40 gf/25 mm). a gas diffusion layer base material ; and a microporous layer adhesively bonded to said gas diffusion layer base material and located between said gas diffusion layer base material and said catalyst layer , and power of adhesion of said microporous layer to said gas diffusion layer base material determined by a test under ISO 29862:2007 is equal to or greater than 0.392 N/25 mm (40 gf/25 mm).
A shaking and/or mixing device, comprising: a drive having a drive shaft , an eccentric unit driven by the drive shaft and having an eccentric hub , and a holder for receiving at least one sample to be treated by the shaking and/or mixing device , wherein the eccentric hub and the holder are connectable to one another by means of a releasable connection in order to transmit a movement of the eccentric hub onto the holder , the releasable connection being provided as an extension of the drive shaft , and wherein a middle axis (M) of the holder is spaced apart from the drive shaft . a drive having a drive shaft , an eccentric unit driven by the drive shaft and having an eccentric hub , and a holder for receiving at least one sample to be treated by the shaking and/or mixing device , wherein the eccentric hub and the holder are connectable to one another by means of a releasable connection in order to transmit a movement of the eccentric hub onto the holder , the releasable connection being provided as an extension of the drive shaft , and wherein a middle axis (M) of the holder is spaced apart from the drive shaft .
A waste compacting device adapted to be movably mounted in a receiving space , said compacting device comprising: - a column adapted to be carried substantially vertically in the centre of said receiving space ; - a return block rotatably mounted on said column , said return block being mounted in the extension of said column ; - a compacting roller having an end which is rotatably mounted on said return block , said compacting roller extending in a direction substantially perpendicular to said column ; - drive members to be able to simultaneously drive said return block in rotation relative to said column and said compacting roller in rotation relative to said return block ; and, - cutting means installed between said column and said compacting roller to cut said waste surrounding said column ; said cutting means comprising a shearing member mounted on said column and a shearing counter-member mounted on said return block adapted to intersect said shearing member on each turn of said return block ; characterised in that said shearing counter-member has a groove , while said shearing member comprises a finger capable of extending inside said groove . - a column adapted to be carried substantially vertically in the centre of said receiving space ; - a return block rotatably mounted on said column , said return block being mounted in the extension of said column ; - a compacting roller having an end which is rotatably mounted on said return block , said compacting roller extending in a direction substantially perpendicular to said column ; - drive members to be able to simultaneously drive said return block in rotation relative to said column and said compacting roller in rotation relative to said return block ; and, - cutting means installed between said column and said compacting roller to cut said waste surrounding said column ; said cutting means comprising a shearing member mounted on said column and a shearing counter-member mounted on said return block adapted to intersect said shearing member on each turn of said return block ; characterised in that said shearing counter-member has a groove , while said shearing member comprises a finger capable of extending inside said groove .
A silicon-based molten composition used for a solution growth method for forming a silicon carbide single crystal, and represented by the following Formula 1, including silicon (Si), a first metal M1, a second metal M2 and a third metal M3, wherein: the first metal M1 is nickel (Ni), the second metal M2 is titanium (Ti), and the third metal M3 is aluminum (Al): Si a M1 b M2 c M3 d Formula 1 wherein a is 0.3 to 0.8, b is 0.1 to 0.5, c is 0.01 to 0.3, d is 0.01 to 0.2, and a+b+c+d is 1.
A brake lining for a railroad car, in use the lining being pressed by a brake caliper against a sliding surface of a brake disc, the brake lining comprising: friction members in use to be pressed onto the sliding surface of the brake disc; and a back plate attachable to the brake caliper and supporting the friction members , wherein the friction members are distributed such that two or more thereof are arranged in each of a radial direction and a circumferential direction of the brake disc, an elastic member disposed between each respective friction member and the back plate , characterized in that each respective friction member has an outer peripheral surface located radially outside the elastic member, the surface being formed in a convex curved shape, so that when a light pressing force is applied, a uniform surface pressure is achieved by transmitting a pressing force from the back plate to the friction members via the elastic members, and when a heavy pressing force is applied, the uniform surface pressure is maintained as much as possible by means of the convex curved surfaces making contact with the back plate , to directly transmit the pressing force to the friction members . friction members in use to be pressed onto the sliding surface of the brake disc; and a back plate attachable to the brake caliper and supporting the friction members , wherein the friction members are distributed such that two or more thereof are arranged in each of a radial direction and a circumferential direction of the brake disc, an elastic member disposed between each respective friction member and the back plate , characterized in that each respective friction member has an outer peripheral surface located radially outside the elastic member, the surface being formed in a convex curved shape, so that when a light pressing force is applied, a uniform surface pressure is achieved by transmitting a pressing force from the back plate to the friction members via the elastic members, and when a heavy pressing force is applied, the uniform surface pressure is maintained as much as possible by means of the convex curved surfaces making contact with the back plate , to directly transmit the pressing force to the friction members .
Brake system for motor vehicles, comprising • at least four hydraulically actuatable wheel brakes (10a - 10d), • a main pressure medium reservoir that is under atmospheric pressure, • a first electrohydraulic brake control device , which comprises a wheel-specific outlet (120a - 120d) for each of the four wheel brakes, and • a second electrohydraulic brake control device , which, for each of the four wheel brakes, comprises a wheel-specific inlet (30a - 30d), which is connected to the wheel-specific outlet (120a - 120d) of the first brake control device that is associated with the wheel brake, a wheel-specific wheel outlet (40a - 40d), which is connected to the wheel brake, and a hydraulic wheel connecting line (32a - 32d), which connects the inlet (30a - 30d) to the wheel outlet (40a - 40d), wherein the second brake control device comprises a first pump with a first pressure side and a first suction side , wherein the first pressure side is connected to a first and a second wheel connecting line of the four wheel connecting lines, and a second pump with a second pressure side and a second suction side , wherein the second pressure side is connected to the two other wheel connecting lines, namely the third and the fourth wheel connecting line , characterized in that the second brake control device comprises at least a first and a second pressure medium reservoir that are under atmospheric pressure and are integrated into the second brake control device. • at least four hydraulically actuatable wheel brakes (10a - 10d), • a main pressure medium reservoir that is under atmospheric pressure, • a first electrohydraulic brake control device , which comprises a wheel-specific outlet (120a - 120d) for each of the four wheel brakes, and • a second electrohydraulic brake control device , which, for each of the four wheel brakes, comprises a wheel-specific inlet (30a - 30d), which is connected to the wheel-specific outlet (120a - 120d) of the first brake control device that is associated with the wheel brake, a wheel-specific wheel outlet (40a - 40d), which is connected to the wheel brake, and a hydraulic wheel connecting line (32a - 32d), which connects the inlet (30a - 30d) to the wheel outlet (40a - 40d),
Method of preparation of an excavation material comprising the following step: a) inerting the excavation material in order to obtain an inerted material; step a) being carried out by addition of an organic acid, of a complexing agent or of a diaminotetracarboxylic acid to the excavation material, the complexing agent being chosen from a sugar alcohol, a cationic surface-active agent and their mixtures. a) inerting the excavation material in order to obtain an inerted material; step a) being carried out by addition of an organic acid, of a complexing agent or of a diaminotetracarboxylic acid to the excavation material, the complexing agent being chosen from a sugar alcohol, a cationic surface-active agent and their mixtures.
A vacuum capacitor, comprising: a hermetically sealed dielectric body having a cylindrical shape including a hemispherical end portion; a vacuum chamber formed inside the dielectric body ; an anode located on an outer surface of the dielectric body , wherein the anode does not contact the vacuum chamber ; and a cathode installed in the vacuum chamber , wherein a major portion of the cathode does not contact the dielectric body . a hermetically sealed dielectric body having a cylindrical shape including a hemispherical end portion; a vacuum chamber formed inside the dielectric body ; an anode located on an outer surface of the dielectric body , wherein the anode does not contact the vacuum chamber ; and a cathode installed in the vacuum chamber , wherein a major portion of the cathode does not contact the dielectric body .
A method comprising: receiving an indication to determine a work offset for a robot operating in a work environment , wherein the work offset describes a location and an angular orientation of a working plane of the work environment relative to a base plane of the robot; in response to the indication, identifying, based on image data from a camera, the working plane within the work environment, wherein the identified working plane comprises a surface in the work environment upon which one or more objects are resting; controlling the robot to navigate respective paths toward the surface of the identified working plane in order to cause the robot to contact three points on the surface of the working plane; determining respective point locations of the three contacted points on the surface of the working plane relative to the base plane based on respective positions of the robot at respective times of contact; determining the location and angular orientation of the working plane relative to the base plane based on the determined respective point locations of the three contacted points on the surface of the working plane; and controlling the robot to manipulate the one or more objects resting on the surface of the working plane based on the determined location and angular orientation of the working plane relative to the base plane. receiving an indication to determine a work offset for a robot operating in a work environment , wherein the work offset describes a location and an angular orientation of a working plane of the work environment relative to a base plane of the robot; in response to the indication, identifying, based on image data from a camera, the working plane within the work environment, wherein the identified working plane comprises a surface in the work environment upon which one or more objects are resting; controlling the robot to navigate respective paths toward the surface of the identified working plane in order to cause the robot to contact three points on the surface of the working plane; determining respective point locations of the three contacted points on the surface of the working plane relative to the base plane based on respective positions of the robot at respective times of contact; determining the location and angular orientation of the working plane relative to the base plane based on the determined respective point locations of the three contacted points on the surface of the working plane; and controlling the robot to manipulate the one or more objects resting on the surface of the working plane based on the determined location and angular orientation of the working plane relative to the base plane.