mhurhangee/patent-ind-claim-en huggingface dataset:
A hash updating method of a blockchain integrated station, comprising: sending , by a cryptographic acceleration card assembled on the blockchain integrated station, negotiation information to a provider of a new version of disk image, wherein the negotiation information is used respectively by the provider and the cryptographic acceleration card to determine a deployment key, and the new version of disk image is used to update an old version of disk image deployed in the blockchain integrated station; receiving , by the cryptographic acceleration card, a new hash value encrypted by the provider using the deployment key, wherein the new hash value corresponds to the new version of disk image; replacing , by the cryptographic acceleration card, a stored old hash value corresponding to the old version of disk image with the new hash value, wherein the new hash value is used to be compared with a current hash value of a disk image deployed in the blockchain integrated station to determine whether the new version of disk image is deployed in the blockchain integrated station. sending , by a cryptographic acceleration card assembled on the blockchain integrated station, negotiation information to a provider of a new version of disk image, wherein the negotiation information is used respectively by the provider and the cryptographic acceleration card to determine a deployment key, and the new version of disk image is used to update an old version of disk image deployed in the blockchain integrated station; receiving , by the cryptographic acceleration card, a new hash value encrypted by the provider using the deployment key, wherein the new hash value corresponds to the new version of disk image; replacing , by the cryptographic acceleration card, a stored old hash value corresponding to the old version of disk image with the new hash value, wherein the new hash value is used to be compared with a current hash value of a disk image deployed in the blockchain integrated station to determine whether the new version of disk image is deployed in the blockchain integrated station.
Method for producing a composition, characterized in that it comprises the following four steps, carried out in this order: - a first product, containing predominantly polypropylene, is introduced into a mixer; - at the same time as or after the first product, an oxidant is introduced into the mixer; - after mixing the oxidant and the first product, an antioxidant is introduced into the mixer in order to limit the thermo-oxidative degradation of the polyolefins; - at the same time as or after the antioxidant, a second product, containing predominantly polyethylene and/or a copolymer of ethylene, is introduced into the mixer; and the following step: - at the same time as or immediately after one of the first or second products, at least one compatibilizing agent for polypropylene and polyethylene or for copolymers of ethylene is introduced into the mixer, the first and/or second product being products of recycling, and the antioxidant being a phosphite ester. - a first product, containing predominantly polypropylene, is introduced into a mixer; - at the same time as or after the first product, an oxidant is introduced into the mixer; - after mixing the oxidant and the first product, an antioxidant is introduced into the mixer in order to limit the thermo-oxidative degradation of the polyolefins; - at the same time as or after the antioxidant, a second product, containing predominantly polyethylene and/or a copolymer of ethylene, is introduced into the mixer; - at the same time as or immediately after one of the first or second products, at least one compatibilizing agent for polypropylene and polyethylene or for copolymers of ethylene is introduced into the mixer,
Lathe (D), with - a working space (A) above a machine bed (D2) containing at least one exchangeable machine part (D12, D33) and/or hand tool (H) on or above the machine bed (D2), and - at least one RFID transponder (S21, S22, S23) with at least one saved identification value associated to a machine part (D12, D33) and/or hand tool (H), characterized by - at least one RFID transmitter/receiver unit (S1a, S1b, S1c) which is arranged in a decentralized manner above the machine bed (D2) for monitoring the working space (A) in such a way that at least one characteristic value can be interrogated in a contactless manner by means of electromagnetic coupling and with electromagnetic radiation of at least the ultrahigh-frequency radio spectrum from at least one RFID transponder (S21, S22, S23), and - a control unit (S) which presets at least one control variable for the lathe (D) depending on the at least one characteristic value. - a working space (A) above a machine bed (D2) containing at least one exchangeable machine part (D12, D33) and/or hand tool (H) on or above the machine bed (D2), and - at least one RFID transponder (S21, S22, S23) with at least one saved identification value associated to a machine part (D12, D33) and/or hand tool (H), characterized by - at least one RFID transmitter/receiver unit (S1a, S1b, S1c) which is arranged in a decentralized manner above the machine bed (D2) for monitoring the working space (A) in such a way that at least one characteristic value can be interrogated in a contactless manner by means of electromagnetic coupling and with electromagnetic radiation of at least the ultrahigh-frequency radio spectrum from at least one RFID transponder (S21, S22, S23), and - a control unit (S) which presets at least one control variable for the lathe (D) depending on the at least one characteristic value.
A compound that is d 4 -domperidone 2, d 6 -domperidone 3, or d 10 -domperidone 5, or a pharmaceutically acceptable salt: for use in ameliorating gastroesophageal reflux disease.
A laser system for modification of a sample to form a modified region at a target location within the sample, the target location being disposed below a surface of the sample, the laser system comprising: a laser light source configured to provide laser light; a sample holder for supporting the sample; one or more optical elements configured to direct the laser light from the laser light source into the sample when the sample is supported by the sample holder, wherein the one or more optical elements are configured to focus the laser light into the sample, and wherein the one or more optical elements includes a component configured to correct for spherical aberration caused by mismatch in refractive index at the surface of the sample through which the laser light enters the sample such that the laser light is focused at the target location within the sample, characterised by : a tilt measurement device configured to measure a tilt angle of the surface of the sample relative to an optical axis of the laser light entering through the surface, and a drive mechanism for moving the sample holder and/or one or more of the optical elements based on the measured tilt angle to correct for coma aberration caused by the tilt angle. a laser light source configured to provide laser light; a sample holder for supporting the sample; one or more optical elements configured to direct the laser light from the laser light source into the sample when the sample is supported by the sample holder, wherein the one or more optical elements are configured to focus the laser light into the sample, and wherein the one or more optical elements includes a component configured to correct for spherical aberration caused by mismatch in refractive index at the surface of the sample through which the laser light enters the sample such that the laser light is focused at the target location within the sample, characterised by : a tilt measurement device configured to measure a tilt angle of the surface of the sample relative to an optical axis of the laser light entering through the surface, and a drive mechanism for moving the sample holder and/or one or more of the optical elements based on the measured tilt angle to correct for coma aberration caused by the tilt angle. a tilt measurement device configured to measure a tilt angle of the surface of the sample relative to an optical axis of the laser light entering through the surface, and a drive mechanism for moving the sample holder and/or one or more of the optical elements based on the measured tilt angle to correct for coma aberration caused by the tilt angle.
A method of forming a bonded abrasive body comprising: forming a mixture including a bond material and abrasive particles comprising microcrystalline alumina; shaping the mixture to form a green body; and sintering the green body to form a bonded abrasive body including a bond material comprising a single phase vitreous bond material, wherein the bonded abrasive body comprises a strength ratio (MOR/MOE) of at least about 0.80, characterized in that the bond material is formed from at least 45 wt% silicon oxide (SiO 2 ) and not greater than 55 wt% silicon oxide (SiO 2 ) and at least 0.5 wt % and not greater than 2.2 wt% alkali earth compounds (RO), for the total weight of the bond material. forming a mixture including a bond material and abrasive particles comprising microcrystalline alumina; shaping the mixture to form a green body; and sintering the green body to form a bonded abrasive body including a bond material comprising a single phase vitreous bond material, wherein the bonded abrasive body comprises a strength ratio (MOR/MOE) of at least about 0.80,
A machine for extracorporeal blood treatment, comprising at least one housing for accommodating operational components of the machine for extracorporeal blood treatment which forms part of the machine for extracorporeal blood treatment; and a light-emitting unit having no diffusion disk (LLa to LLe; OLa to OLe), wherein the light-emitting unit (LLa to LLe; OLa to OLe) is arranged in a predetermined route and/or with predetermined shaping on at least one portion of the housing , the light-emitting unit (LLa toLLe; OLa to OLe) is a flexible light conductor (LLa to LLe) including at least one end-face light coupling surface at a first end and at least one end-face light output surface at a second end, or is a self-luminous flat and/or flexible OLED unit (OLa to OLe), characterized in that at least a part of the machine surface lights up; and the light-emitting unit (LLa to LLe; OLa to OLe) is arranged to project, according to the ambient light principle, an operating condition and/or a therapy condition of the machine for extracorporeal blood treatment onto a surface in the environment of said machine in such a way that the operating condition and/or therapy condition of the machine for extracorporeal blood treatment is visible on a surface in the room illuminated by the light-emitting device.
A negative electrode active material for a secondary battery comprising: a silicate phase including Na, Si, and M x , wherein M x is an element other than an alkali metal or Si and includes at least one of Mg, Ca, Ti, Zr, Y, B, Al, Nb, V, La, Ta, and W; and silicon particles dispersed in the silicate phase, wherein, in the silicate phase, a Na content is 9 to 52 mol%, an M x content is 3 to 50 mol%, and a Si content is 25 mol% or more, each based on the total amount other than oxygen. a silicate phase including Na, Si, and M x , wherein M x is an element other than an alkali metal or Si and includes at least one of Mg, Ca, Ti, Zr, Y, B, Al, Nb, V, La, Ta, and W; and silicon particles dispersed in the silicate phase, wherein, in the silicate phase, a Na content is 9 to 52 mol%, an M x content is 3 to 50 mol%, and a Si content is 25 mol% or more, each based on the total amount other than oxygen.
Electronic shelf labelling system comprising: - at least one electronic shelf label , realized in particular as an electronic shelf label display, the shelf label being designed such that it can be contactlessly supplied with power, and - at least one shelf edge strip , to which at least one such shelf label is attached, and - an electronic supply device assigned to the shelf edge strip , in particular assigned only to this one shelf edge strip , which is designed to supply power contactlessly to the at least one electronic shelf label attached there, wherein the electronic supply device is also designed to communicate contactlessly with the shelf label using the same technology that is also used for transmitting power to the shelf label , characterized in that , the electronic supply device is designed to receive and forward a unique identifier of the shelf label participating in the communication, for the purpose of determining the position of the relevant shelf label . - at least one electronic shelf label , realized in particular as an electronic shelf label display, the shelf label being designed such that it can be contactlessly supplied with power, and - at least one shelf edge strip , to which at least one such shelf label is attached, and - an electronic supply device assigned to the shelf edge strip , in particular assigned only to this one shelf edge strip , which is designed to supply power contactlessly to the at least one electronic shelf label attached there, wherein the electronic supply device is also designed to communicate contactlessly with the shelf label using the same technology that is also used for transmitting power to the shelf label ,
A graphics processing unit (200; 614; 900; 1506) comprising: a set of memory controllers (912A-B; 1714); a cache memory (908; 1604); and at least one compute cluster (214; 906A-H) comprising at least one graphics multiprocessor (234; 325; 407; 1608) coupled to the set of memory controllers (912A, 912B; 1714), the at least one graphics multiprocessor (234; 325; 407; 1608) including an instruction unit (254; 332A-B), a plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), and a shared memory coupled to the plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), wherein the instruction unit (254; 332A-B) is configured to dispatch instructions for execution by at least one of the plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), wherein a compute mechanism supports a mixed precision fused multiply-accumulate, FMAC, instruction of D = A ∗ B + C with operands having different precisions; characterized in that the graphics processing unit (200; 614; 900; 1506) comprises a low power inference configuration of the at least one compute cluster (214; 906A-H) to perform inferencing computations on a trained neural network; and the FMAC instruction is supported by the inference configuration, wherein A and B are 8-bit integer data elements, and C is a 32-bit integer data element. a set of memory controllers (912A-B; 1714); a cache memory (908; 1604); and at least one compute cluster (214; 906A-H) comprising at least one graphics multiprocessor (234; 325; 407; 1608) coupled to the set of memory controllers (912A, 912B; 1714), the at least one graphics multiprocessor (234; 325; 407; 1608) including an instruction unit (254; 332A-B), a plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), and a shared memory coupled to the plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), wherein the instruction unit (254; 332A-B) is configured to dispatch instructions for execution by at least one of the plurality of processing cores (262; 406A-D; 1607; 1702A-1702N), wherein a compute mechanism supports a mixed precision fused multiply-accumulate, FMAC, instruction of D = A ∗ B + C with operands having different precisions; characterized in that the graphics processing unit (200; 614; 900; 1506) comprises a low power inference configuration of the at least one compute cluster (214; 906A-H) to perform inferencing computations on a trained neural network; and the FMAC instruction is supported by the inference configuration, wherein A and B are 8-bit integer data elements, and C is a 32-bit integer data element.
An isolated agonist antigen binding protein that specifically binds to human TREM2, wherein the agonist antigen binding protein is a monoclonal antibody or antigen-binding fragment thereof, comprising a light chain variable region comprising the amino acid sequence of SEQ ID NO: 330, and a heavy chain variable region comprising the amino acid sequence of SEQ ID NO: 331.
A cable retainer apparatus configured to be coupled to an outer surface of an aircraft wing and configured to retain a cable proximate said outer surface in an aerodynamic manner, the cable retainer apparatus comprising: a cable retainer having a cable channel that extends longitudinally through the cable retainer that is configured to receive and retain the cable ; and a fairing disposed about the cable retainer and configured to couple to the outer surface of the aircraft wing to support the cable retainer adjacent to the surface of the aircraft , characterized in that the cable retainer and fairing are cooperatively configured such that, in use, when the fairing is coupled to the outer surface of the aircraft wing , a first interference fit is defined between the cable retainer and the fairing , and a second interference fit is defined between the cable and the cable retainer . a cable retainer having a cable channel that extends longitudinally through the cable retainer that is configured to receive and retain the cable ; and a fairing disposed about the cable retainer and configured to couple to the outer surface of the aircraft wing to support the cable retainer adjacent to the surface of the aircraft , characterized in that the cable retainer and fairing are cooperatively configured such that, in use, when the fairing is coupled to the outer surface of the aircraft wing , a first interference fit is defined between the cable retainer and the fairing , and a second interference fit is defined between the cable and the cable retainer .
Method for transferring a two-dimensional material onto a target substrate by means of a free-standing bilayer polymeric membrane , comprising the following steps: - providing a two-dimensional material grown on a sacrificial substrate (step 100); - spin-coating the two-dimensional material with a soft and heat-resistant polymer and letting cure, for a predetermined first period of time and at a predetermined first temperature, to form a first polymeric layer (step 101); - spin-coating the first polymeric layer with a rigid polymer and letting cure, for a predetermined second period of time and at a predetermined second temperature, to form a second polymeric layer , the first polymeric layer and the second polymeric layer forming a free-standing bilayer polymeric membrane (step 102); - attaching, along the edge of the second polymeric layer , an elastomeric support frame (step 103); - delaminating the two-dimensional material from the sacrificial substrate (step 104); - rinsing the two-dimensional material (step 105); - fixing the assembly consisting of two-dimensional material , free-standing bilayer polymeric membrane and elastomeric support frame to a transfer tool and aligning it to a target substrate (step 106); - heating the target substrate and attaching thereto the assembly consisting of two-dimensional material , free-standing bilayer polymeric membrane and elastomeric support frame (step 107); - after having fixed the two-dimensional material to the target substrate, removing the free-standing bilayer polymeric membrane and the elastomeric support frame (step 108). - providing a two-dimensional material grown on a sacrificial substrate (step 100); - spin-coating the two-dimensional material with a soft and heat-resistant polymer and letting cure, for a predetermined first period of time and at a predetermined first temperature, to form a first polymeric layer (step 101); - spin-coating the first polymeric layer with a rigid polymer and letting cure, for a predetermined second period of time and at a predetermined second temperature, to form a second polymeric layer , the first polymeric layer and the second polymeric layer forming a free-standing bilayer polymeric membrane (step 102); - attaching, along the edge of the second polymeric layer , an elastomeric support frame (step 103); - delaminating the two-dimensional material from the sacrificial substrate (step 104); - rinsing the two-dimensional material (step 105); - fixing the assembly consisting of two-dimensional material , free-standing bilayer polymeric membrane and elastomeric support frame to a transfer tool and aligning it to a target substrate (step 106); - heating the target substrate and attaching thereto the assembly consisting of two-dimensional material , free-standing bilayer polymeric membrane and elastomeric support frame (step 107); - after having fixed the two-dimensional material to the target substrate, removing the free-standing bilayer polymeric membrane and the elastomeric support frame (step 108).
A motor control device comprising: a motor (MTR); a lower control device (ECU2) that controls rotation of the motor (MTR); and an upper control device (ECU1) that sends a torque command to the lower control device (ECU2) based on a command value, wherein the upper control device (ECU1) includes a disturbance estimation unit and a delay estimation unit , characterised in that the disturbance estimation unit estimates disturbance by using a torque command input to the lower control device (ECU2) and a feedback value of the motor (MTR), and the delay estimation unit estimates a delay by using a torque command output from the upper control device (ECU1), the feedback value of the motor (MTR), and disturbance torque (τd) estimated by the disturbance estimation unit. a motor (MTR); a lower control device (ECU2) that controls rotation of the motor (MTR); and an upper control device (ECU1) that sends a torque command to the lower control device (ECU2) based on a command value, wherein the upper control device (ECU1) includes a disturbance estimation unit and a delay estimation unit , characterised in that the disturbance estimation unit estimates disturbance by using a torque command input to the lower control device (ECU2) and a feedback value of the motor (MTR), and the delay estimation unit estimates a delay by using a torque command output from the upper control device (ECU1), the feedback value of the motor (MTR), and disturbance torque (τd) estimated by the disturbance estimation unit.