mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating at least two data processing units (VCC1, VCC2) with high availability, in which a second data processing unit (VCC2) automatically removes at least one entry for a process to be executed from a memory unit or automatically places itself into a standby mode, wherein the removal of the at least one entry or the placing into the standby mode occurs in dependence on the operating state (Z1 to Z6) of a transport machine, for the operation of which the data processing units (VCC1, VCC2) are used, wherein the operating state (Z1 to Z6) comprises stopping (Z2, Z5) and travelling (Z1, Z3, Z4), and wherein the removal of the at least one entry or the placing into the standby mode occurs in the stopping operating state (Z2, Z5).
Assembly comprising at least one writing instrument comprising a cap and a storage and presentation device for storing and presenting a plurality of writing instruments , the storage and presentation device comprising a plurality of supports , each support being configured to support a writing instrument , all the supports being rotatably mounted about the same axis (X) extending substantially perpendicularly to the longitudinal direction (L) of the writing instruments when they are supported by the supports , said storage and presentation device having a storage position in which the angle between all the supports about the axial direction (X) is less than 2°, and a presentation position in which, for all the supports , the angle (β) between two adjacent supports about the axial direction (X) is greater than or equal to 5°, at least one support being configured to cooperate with the cap of the writing instrument such that the force required to remove the cap from the support is greater than the force required to remove the body of the writing instrument from the cap .
A controller for a fuel cell based power generator, comprising: a memory ; and a processor configured to execute executable instructions stored in the memory to: receive a pressure in an anode loop of the fuel cell based power generator, wherein the anode loop includes a hydrogen generator and an anode loop blower ; determine whether the pressure in the anode loop falls below a lower threshold pressure; and control the anode loop blower to increase the speed of the blower in response to the pressure in the anode loop falling below the lower threshold pressure such that the hydrogen generator provides hydrogen to an anode of a fuel cell via the blower and the anode loop at a controlled pressure. a memory ; and a processor configured to execute executable instructions stored in the memory to: receive a pressure in an anode loop of the fuel cell based power generator, wherein the anode loop includes a hydrogen generator and an anode loop blower ; determine whether the pressure in the anode loop falls below a lower threshold pressure; and control the anode loop blower to increase the speed of the blower in response to the pressure in the anode loop falling below the lower threshold pressure such that the hydrogen generator provides hydrogen to an anode of a fuel cell via the blower and the anode loop at a controlled pressure. receive a pressure in an anode loop of the fuel cell based power generator, wherein the anode loop includes a hydrogen generator and an anode loop blower ; determine whether the pressure in the anode loop falls below a lower threshold pressure; and control the anode loop blower to increase the speed of the blower in response to the pressure in the anode loop falling below the lower threshold pressure such that the hydrogen generator provides hydrogen to an anode of a fuel cell via the blower and the anode loop at a controlled pressure.
A computing device (102; 200), comprising: an input device to receive data from a user; and a processor (104; 202) in communication with the input device , the processor (104; 202) configured to: request the user to provide a private key associated with the user, wherein the request includes a public key specifying a set of object categories; receive , via the input device , the private key in response to the request, wherein the private key includes a sequence of images based on the set of categories of the public key; and authenticate the user when each image in the sequence of images of the private key is associated with a particular object previously associated with the user based on the set of categories of the public key. an input device to receive data from a user; and a processor (104; 202) in communication with the input device , the processor (104; 202) configured to: request the user to provide a private key associated with the user, wherein the request includes a public key specifying a set of object categories; receive , via the input device , the private key in response to the request, wherein the private key includes a sequence of images based on the set of categories of the public key; and authenticate the user when each image in the sequence of images of the private key is associated with a particular object previously associated with the user based on the set of categories of the public key. request the user to provide a private key associated with the user, wherein the request includes a public key specifying a set of object categories; receive , via the input device , the private key in response to the request, wherein the private key includes a sequence of images based on the set of categories of the public key; and authenticate the user when each image in the sequence of images of the private key is associated with a particular object previously associated with the user based on the set of categories of the public key.
A method for creating a virtual machine, comprises: receiving a virtual machine creation request for creating a virtual machine, wherein the virtual machine creation request comprises parameter information of a virtual network interface card occupied by the virtual machine to be created; obtaining current resource usage information of a network interface card resource pool of at least one computing node on a cloud platform, wherein each computing node comprises a network interface card resource pool comprising each physical network interface card configured on the computing node; determining , in the at least one computing node based on the parameter information and the current resource usage information of each network interface card resource pool, a target computing node used to create the virtual machine requested to be created by the virtual machine creation request; and invoking the target computing node to create the virtual machine, characterized in that the parameter information comprises affinity information of the virtual network interface card, wherein the affinity information indicates whether different virtual network interface cards occupied by a same virtual machine come from a same physical network interface card. receiving a virtual machine creation request for creating a virtual machine, wherein the virtual machine creation request comprises parameter information of a virtual network interface card occupied by the virtual machine to be created; obtaining current resource usage information of a network interface card resource pool of at least one computing node on a cloud platform, wherein each computing node comprises a network interface card resource pool comprising each physical network interface card configured on the computing node; determining , in the at least one computing node based on the parameter information and the current resource usage information of each network interface card resource pool, a target computing node used to create the virtual machine requested to be created by the virtual machine creation request; and invoking the target computing node to create the virtual machine, characterized in that the parameter information comprises affinity information of the virtual network interface card, wherein the affinity information indicates whether different virtual network interface cards occupied by a same virtual machine come from a same physical network interface card.
A process for producing a layered lithium-manganese-nickel-cobalt oxide material, which includes producing a raw layered lithium-manganese-nickel-cobalt oxide ('LMNC') material by maintaining a solution comprising a dissolved lithium compound, a dissolved manganese compound, a dissolved nickel compound, a dissolved cobalt compound, optionally a dissolved dopant compound of a dopant capable of enhancing the performance of the layered LMNC material when used as a cathode material in an electrochemical cell, a hydroxycarboxylic acid, and a polyhydroxy alcohol, at an elevated temperature T 1 , where T 1 is below the boiling point of the solution, until the solution gels; maintaining the gel at an elevated temperature until it ignites and burns to form a Li-Mn-Ni-Co-O powder; and calcining the Li-Mn-Ni-Co-O powder to burn off carbon and/or other impurities present in the powder, thereby to obtain the raw layered LMNC material; before any annealing of the raw layered LMNC material is effected, subjecting it to microwave treatment, to obtain a treated material; and annealing the treated material, to obtain the layered LMNC material. maintaining a solution comprising a dissolved lithium compound, a dissolved manganese compound, a dissolved nickel compound, a dissolved cobalt compound, optionally a dissolved dopant compound of a dopant capable of enhancing the performance of the layered LMNC material when used as a cathode material in an electrochemical cell, a hydroxycarboxylic acid, and a polyhydroxy alcohol, at an elevated temperature T 1 , where T 1 is below the boiling point of the solution, until the solution gels; maintaining the gel at an elevated temperature until it ignites and burns to form a Li-Mn-Ni-Co-O powder; and calcining the Li-Mn-Ni-Co-O powder to burn off carbon and/or other impurities present in the powder, thereby to obtain the raw layered LMNC material;
A method for producing a polydioxolane, the method comprising: polymerizing a 1,3-dioxolane compound represented by formula and an optional comonomer in the presence of a cationic catalyst and a sterically hindered phenol in an amount of 10 to 1,500 ppm, based on the 1,3-dioxolane compound, wherein R1 to R6 are the same or different and each independently represents a hydrogen atom, an alkyl group, an aryl group, a hydroxyalkyl group, an alkyloxy group, or an aryloxy group, wherein an amount of the optional comonomer if present is less than 20 parts by mass relative to 100 parts by mass of the 1,3-dioxolane compound, and wherein the cationic catalyst is at least one selected from the group consisting of a heteropolyacid, an isopolyacid, a perfluoroalkylsulfonic acid, and derivatives thereof. wherein R1 to R6 are the same or different and each independently represents a hydrogen atom, an alkyl group, an aryl group, a hydroxyalkyl group, an alkyloxy group, or an aryloxy group, wherein an amount of the optional comonomer if present is less than 20 parts by mass relative to 100 parts by mass of the 1,3-dioxolane compound, and wherein the cationic catalyst is at least one selected from the group consisting of a heteropolyacid, an isopolyacid, a perfluoroalkylsulfonic acid, and derivatives thereof.
A radio communication apparatus comprising: a receiver , which, in operation, receives control information associated with a number of bits; and circuitry , which, in operation: generates a bit sequence by forcibly setting each of the number of bits out of a plurality of bits to a 1, the number of bits being determined based on the control information the plurality of bits forming a modulation symbol in the bit sequence; and modulates the bit sequence by mapping the plurality of bits on a single modulation mapper, wherein said circuity, in operation, forcibly sets each of the number of bits to the 1 such that the modulation symbol is mapped on a constellation of M-ary number which is lower than M-ary number of the single modulation mapper. a receiver , which, in operation, receives control information associated with a number of bits; and circuitry , which, in operation: generates a bit sequence by forcibly setting each of the number of bits out of a plurality of bits to a 1, the number of bits being determined based on the control information the plurality of bits forming a modulation symbol in the bit sequence; and modulates the bit sequence by mapping the plurality of bits on a single modulation mapper, generates a bit sequence by forcibly setting each of the number of bits out of a plurality of bits to a 1, the number of bits being determined based on the control information the plurality of bits forming a modulation symbol in the bit sequence; and modulates the bit sequence by mapping the plurality of bits on a single modulation mapper, wherein said circuity, in operation, forcibly sets each of the number of bits to the 1 such that the modulation symbol is mapped on a constellation of M-ary number which is lower than M-ary number of the single modulation mapper.
A pneumatic brake control module , comprising: a housing with: a first inlet port for supplying compressed air to the module ; a first outlet port for feeding the compressed air to a brake control line; a first piston and a second piston arranged within the housing and movable relative to each other; and a pneumatic valve for actuating the first piston , wherein: the actuated first piston opens a plate valve within the second piston against a restoring force of a spring element, the open plate valve connecting the first inlet port and the first outlet port; and compressed air can be exhausted from the brake control line by disengaging the plate valve and the first piston ; wherein the second piston comprises a first tubular part and a second tubular part : the first tubular part providing a support for a telescopic structure in which the spring element is embedded; and the second tubular part providing an end stop for a first tubular element of the telescopic structure ; wherein the first tubular part is snap-fitted to the second tubular part , characterized in that the first tubular part of the second piston comprises an outer wall with a circumferential groove . a housing with: a first inlet port for supplying compressed air to the module ; a first outlet port for feeding the compressed air to a brake control line; a first inlet port for supplying compressed air to the module ; a first outlet port for feeding the compressed air to a brake control line; a first piston and a second piston arranged within the housing and movable relative to each other; and a pneumatic valve for actuating the first piston , wherein: the actuated first piston opens a plate valve within the second piston against a restoring force of a spring element, the open plate valve connecting the first inlet port and the first outlet port; and compressed air can be exhausted from the brake control line by disengaging the plate valve and the first piston ; the actuated first piston opens a plate valve within the second piston against a restoring force of a spring element, the open plate valve connecting the first inlet port and the first outlet port; and compressed air can be exhausted from the brake control line by disengaging the plate valve and the first piston ; wherein the second piston comprises a first tubular part and a second tubular part : the first tubular part providing a support for a telescopic structure in which the spring element is embedded; and the second tubular part providing an end stop for a first tubular element of the telescopic structure ; the first tubular part providing a support for a telescopic structure in which the spring element is embedded; and the second tubular part providing an end stop for a first tubular element of the telescopic structure ; wherein the first tubular part is snap-fitted to the second tubular part , characterized in that the first tubular part of the second piston comprises an outer wall with a circumferential groove .
A sanitary outlet fitting, comprising - a housing base body , including a wall opening in a housing wall , - a connecting nipple fixed to the wall opening, which nipple has a passage opening in fluid communication with a fluid outlet of the housing base body, and - an outlet body fixed coaxially to the connecting nipple in axial direction and with the passage opening ending therein, - wherein the connecting nipple , in an installed position, has a first locking element on an upper side thereof, and the outlet body has a corresponding second locking element on an interior side, wherein the first and second locking elements cooperate to form a fixation. - a housing base body , including a wall opening in a housing wall , - a connecting nipple fixed to the wall opening, which nipple has a passage opening in fluid communication with a fluid outlet of the housing base body, and - an outlet body fixed coaxially to the connecting nipple in axial direction and with the passage opening ending therein, - wherein the connecting nipple , in an installed position, has a first locking element on an upper side thereof, and the outlet body has a corresponding second locking element on an interior side, wherein the first and second locking elements cooperate to form a fixation.
X-ray imaging device including: a collimator formed of a support , said carrier being a plate in the form of a disc or portion of a disc, the support being capable of being rotationally moveable around itself and with respect to an axis (Δ) of rotation passing through a plane of the support called "main plane of the support", the support including a region which is opaque to X-rays, at least one first slot and at least one second slot passing through said opaque region, the first slot and the second slot being transparent to X-rays, the first slot and the second slot each extending in a given plane parallel to the main plane of the support and respectively in a first direction passing through the axis of rotation and in a second direction which is not secant to the axis of rotation, such that when an X-ray source is positioned to provide X-rays, two planes of rotating X-rays are generated downstream of said slots. a collimator formed of a support , said carrier being a plate in the form of a disc or portion of a disc, the support being capable of being rotationally moveable around itself and with respect to an axis (Δ) of rotation passing through a plane of the support called "main plane of the support", the support including a region which is opaque to X-rays, at least one first slot and at least one second slot passing through said opaque region, the first slot and the second slot being transparent to X-rays, the first slot and the second slot each extending in a given plane parallel to the main plane of the support and respectively in a first direction passing through the axis of rotation and in a second direction which is not secant to the axis of rotation, such that when an X-ray source is positioned to provide X-rays, two planes of rotating X-rays are generated downstream of said slots.
1.- A method comprising: performing passive monitoring of a wireless network , wherein the passive monitoring includes capturing wireless network data from the wireless network and performing post processing on the captured wireless network data; identifying a subscriber identity module, SIM, card change in user equipment, UE, based on changes in identifiers in the captured wireless network data; detecting a commercial user communication from a commercial user with the UE after the SIM card change; wherein the commercial user communication is detected based on any of i) a short message service, SMS, communication including any of a short code number and an alphanumeric sender identifier and ii) detection of an identifier of the commercial user in packet data to the UE, and detecting potentially fraudulent activity for the UE based on a combination of the SIM card change, the commercial user communication, and a time period therebetween. performing passive monitoring of a wireless network , wherein the passive monitoring includes capturing wireless network data from the wireless network and performing post processing on the captured wireless network data; identifying a subscriber identity module, SIM, card change in user equipment, UE, based on changes in identifiers in the captured wireless network data; detecting a commercial user communication from a commercial user with the UE after the SIM card change; wherein the commercial user communication is detected based on any of i) a short message service, SMS, communication including any of a short code number and an alphanumeric sender identifier and ii) detection of an identifier of the commercial user in packet data to the UE, and detecting potentially fraudulent activity for the UE based on a combination of the SIM card change, the commercial user communication, and a time period therebetween.
A composite article having increased pull-off strength and comprising: A. a first layer comprising a low surface energy polymer; B. a poly(meth)acrylate layer disposed on and in direct contact with said first layer, wherein said poly(meth)acrylate layer comprises a poly(meth)acrylate that comprises the reaction product of at least one (meth)acrylate polymerized in the presence of an organoborane initiator; and C. an epoxide layer disposed on and in direct contact with said poly(meth)acrylate layer, wherein said epoxide layer comprises an epoxide; wherein said composite article has a pull-off strength of greater than zero N/m (zero pli) measured between the poly(meth)acrylate layer and the epoxide layer using ASTM D4541 and wherein said epoxide is an epoxy-polyurethane hybrid. A. a first layer comprising a low surface energy polymer; B. a poly(meth)acrylate layer disposed on and in direct contact with said first layer, wherein said poly(meth)acrylate layer comprises a poly(meth)acrylate that comprises the reaction product of at least one (meth)acrylate polymerized in the presence of an organoborane initiator; and C. an epoxide layer disposed on and in direct contact with said poly(meth)acrylate layer, wherein said epoxide layer comprises an epoxide;
A combination of an antibody against the cancer stem cell marker LGR5 and a checkpoint inhibitor, for use in a method of treating a tumour in a subject, wherein the LGR5 antibody comprises a heavy chain CDR1 having amino acids GYSFTAYW (SEQ ID NO:1), a heavy chain CDR2 having amino acids ILPGSDST (SEQ ID NO:2), a heavy chain CDR3 having amino acids ARSGYYGSSQY (SEQ ID NO:3), a light chain CDR1 having amino acids ESVDSYGNSF (SEQ ID NO:4), a light chain CDR2 having amino acids LTS (SEQ ID NO:5), and a light chain CDR3 having amino acids QQNAEDPRT (SEQ ID NO:6), and wherein the immune checkpoint inhibitor is an antibody inhibitor of PD-1. a heavy chain CDR2 having amino acids ILPGSDST (SEQ ID NO:2), a heavy chain CDR3 having amino acids ARSGYYGSSQY (SEQ ID NO:3), a light chain CDR1 having amino acids ESVDSYGNSF (SEQ ID NO:4), a light chain CDR2 having amino acids LTS (SEQ ID NO:5), and a light chain CDR3 having amino acids QQNAEDPRT (SEQ ID NO:6), and wherein the immune checkpoint inhibitor is an antibody inhibitor of PD-1.