mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoelectric module layer comprising: a thermoelectric conversion chip , which has a thermoelectric conversion element pair consisting of a n-type semiconductor element (21a 1 ) and a p-type semiconductor element (21a 2 ), electrodes sandwiching a plurality of the thermoelectric conversion element pair connected and further, a thermal insulation rubber , wherein the thermoelectric conversion element pair and the electrodes of the thermoelectric conversion chip are surrounded by the thermal insulation rubber as a pressurized thermal-cured product containing a rubber component of a silicone rubber and a hollow filler forming a plurality of expanded air gaps that are independent from one another, and the thermoelectric conversion chip has an insulation sheet which is stacked and bonded to the electrodes, characterized in that the hollow filler has a shell made from a resin, and heat-expandable liquid hydrocarbon is encapsulated in the hollow of the shell. a thermoelectric conversion chip , which has a thermoelectric conversion element pair consisting of a n-type semiconductor element (21a 1 ) and a p-type semiconductor element (21a 2 ), electrodes sandwiching a plurality of the thermoelectric conversion element pair connected and further, a thermal insulation rubber , wherein the thermoelectric conversion element pair and the electrodes of the thermoelectric conversion chip are surrounded by the thermal insulation rubber as a pressurized thermal-cured product containing a rubber component of a silicone rubber and a hollow filler forming a plurality of expanded air gaps that are independent from one another, and the thermoelectric conversion chip has an insulation sheet which is stacked and bonded to the electrodes, characterized in that the hollow filler has a shell made from a resin, and heat-expandable liquid hydrocarbon is encapsulated in the hollow of the shell.
A composition comprising a conditioned cell culture medium obtained or obtainable by a process which comprises culturing a population of mesenchymal stromal cells (MSCs) or immortalized cells obtained therefrom, in which at least 50% of said population by number of cells are MSCs obtained from a mammal pertaining to the genus canis or immortalized cells obtained therefrom, in a nutrient rich liquid or a basal media suitable for propagating canine MSCs, and collecting the conditioned cell culture medium, wherein said composition is for use in the xenogeneic treatment of psoriasis in a human subject.
A dye of formula wherein R 1 is cyano; R 2 is chloro; R 3 is hydrogen, chloro, bromo, methoxy, trifluoromethyl, nitro or cyano; and R 4 is methyl, ethyl, n-propyl, 2-methoxyethyl, methoxycarbonylmethyl or 2-methoxycarbonylethyl. R 1 is cyano; R 2 is chloro; R 3 is hydrogen, chloro, bromo, methoxy, trifluoromethyl, nitro or cyano; and R 4 is methyl, ethyl, n-propyl, 2-methoxyethyl, methoxycarbonylmethyl or 2-methoxycarbonylethyl.
A sensor device for measuring a temperature in a photovoltaic laminate structure , the sensor device comprising: a capillary for being embedded in the laminate structure between two layers thereof; a medium arranged within the capillary ; and an optical fiber extending through the capillary and surrounded by the medium , wherein at least a portion of the optical fiber has temperature-dependent transmission characteristics; and a strain sensor configured to measure strain in proximity to the portion of the optical fiber with temperature-dependent transmission characteristics, wherein in proximity means within a distance of the diameter of the capillary , wherein the strain sensor is another optical fiber with strain-dependent transmission characteristics arranged outside the capillary . a capillary for being embedded in the laminate structure between two layers thereof; a medium arranged within the capillary ; and an optical fiber extending through the capillary and surrounded by the medium , wherein at least a portion of the optical fiber has temperature-dependent transmission characteristics; and a strain sensor configured to measure strain in proximity to the portion of the optical fiber with temperature-dependent transmission characteristics, wherein in proximity means within a distance of the diameter of the capillary , wherein the strain sensor is another optical fiber with strain-dependent transmission characteristics arranged outside the capillary .
A processing device comprising: a fibrillation portion configured to fibrillate fiber containing materials (M3) containing fibers in air; a particle supply portion configured to supply particles (RM) having Mohs' hardness of 2 or more and 5 or less to the fiber containing materials during or after fibrillation for collision; and a particle removal portion configured to remove the particles from the fiber containing materials to which the particles are supplied; wherein the particle supply portion comprises an ejection portion , connected to or disposed in the fibrillation portion , for ejecting the particles (RM) to the fiber containing materials in the fibrillation portion ; wherein the ejection portion contains a pipe and a blower . a fibrillation portion configured to fibrillate fiber containing materials (M3) containing fibers in air; a particle supply portion configured to supply particles (RM) having Mohs' hardness of 2 or more and 5 or less to the fiber containing materials during or after fibrillation for collision; and a particle removal portion configured to remove the particles from the fiber containing materials to which the particles are supplied; wherein the particle supply portion comprises an ejection portion , connected to or disposed in the fibrillation portion , for ejecting the particles (RM) to the fiber containing materials in the fibrillation portion ; wherein the ejection portion contains a pipe and a blower .
A GaAs substrate having a first surface, wherein particles are present in the first surface, whereby the particles are foreign matter and oxides, damages are present inside a second surface of the GaAs substrate, whereby the damages are faults, a sum of a number of the particles having a longer diameter of more than or equal to 0.16 μm, per cm 2 , and a number of the damages having a longer diameter of more than or equal to 0.16 μm, per cm 2 , is less than or equal to 2.1, whereby the longer diameter of a particle refers to a distance between two points separated most in an outer circumference of the particle, and the longer diameter of a damage refers to a distance between two points separated most in an outer circumference of the damage, the damages being determined, when etching the first surface of the GaAs substrate by 0.5 μm in a depth direction. particles are present in the first surface, whereby the particles are foreign matter and oxides, damages are present inside a second surface of the GaAs substrate, whereby the damages are faults, a sum of a number of the particles having a longer diameter of more than or equal to 0.16 μm, per cm 2 , and a number of the damages having a longer diameter of more than or equal to 0.16 μm, per cm 2 , is less than or equal to 2.1, whereby the longer diameter of a particle refers to a distance between two points separated most in an outer circumference of the particle, and the longer diameter of a damage refers to a distance between two points separated most in an outer circumference of the damage, the damages being determined, when etching the first surface of the GaAs substrate by 0.5 μm in a depth direction.
A compound of formula (I): or a pharmaceutically acceptable salt, solvate or polymorph thereof, including all tautomers and stereoisomers thereof, wherein: A is heteroaryl selected from 1H-benzimidazol-5-yl or 1H-benzimidazol-6-yl and imidazo[1,2-a]pyridin-7-yl; R 1 represents hydrogen, alkyl or halogen; R 2 represents hydrogen, alkyl or halogen; R 3 represents hydrogen, alkyl or alkoxy; R 4 represents hydrogen or alkyl; and R 5 represents hydrogen, alkyl or halogen; and wherein the above alkyl or alkoxy groups are optionally substituted by one or more halogen. A is heteroaryl selected from 1H-benzimidazol-5-yl or 1H-benzimidazol-6-yl and imidazo[1,2-a]pyridin-7-yl; R 1 represents hydrogen, alkyl or halogen; R 2 represents hydrogen, alkyl or halogen; R 3 represents hydrogen, alkyl or alkoxy; R 4 represents hydrogen or alkyl; and R 5 represents hydrogen, alkyl or halogen; and wherein the above alkyl or alkoxy groups are optionally substituted by one or more halogen.
A voting system for collecting votes from multiple voters , the voters being associated with multiple identity public keys that each identify one voter, the voting system comprising: multiple node computer devices configured to collect the votes and to combine the votes into a vote container and to store the vote container including the votes on a public data store, characterised in that the multiple node computer devices are further configured to generate voting public keys, wherein there is an association between voting public keys and the identity public keys via corresponding signatures, each of the multiple node computer devices is further configured to communicate the voting public keys between the node computer devices by using cryptography to remove the association between the voting public keys and the identity public keys to create a list of anonymised voting public keys, each of the multiple node computer devices is further configured, after the association between the voting public keys and the identity public keys is removed, to communicate votes, authenticated by the anonymised voting public keys, by using cryptography to remove an association between the votes and the voting public keys to create anonymised votes and combine the anonymised votes into the vote container. multiple node computer devices configured to collect the votes and to combine the votes into a vote container and to store the vote container including the votes on a public data store, characterised in that the multiple node computer devices are further configured to generate voting public keys, wherein there is an association between voting public keys and the identity public keys via corresponding signatures, each of the multiple node computer devices is further configured to communicate the voting public keys between the node computer devices by using cryptography to remove the association between the voting public keys and the identity public keys to create a list of anonymised voting public keys, each of the multiple node computer devices is further configured, after the association between the voting public keys and the identity public keys is removed, to communicate votes, authenticated by the anonymised voting public keys, by using cryptography to remove an association between the votes and the voting public keys to create anonymised votes and combine the anonymised votes into the vote container.
An aircraft , comprising two adjacent frames or ribs ; a skin of the aircraft attached to the two adjacent frames or ribs; wherein a portion of the skin is located between the two adjacent frames or ribs and comprises a first crack retarding region and a second crack retarding region that are separate from each other; wherein each of the first and second crack retarding regions is induced by Laser Shock Peening and comprises compressive residual stresses ; characterized in that each of the first and second crack retarding regions has a longitudinal extension; and wherein the compressive residual stresses of each of the first and second crack retarding regions are largest along the direction of the longitudinal extension.
Weaving loom comprising a system for quickly coupling heald frames (H) to respective actuating tie rods wherein said tie rods are arranged in groups of adjacent tie rods which operate, by lateral coupling, on a same connection area of the heald frames (H) and in which each one of said tie rods is provided with a semi-automatic push-coupling device to a respective heald frame connection , characterized in that said system comprises one multiple lever support which houses in a pre-coupling position all the active tie rods of each one of said groups of tie rods, in which pre-coupling position the coupling device of each active tie rod is laterally aligned to the respective heald frame connection and is adjacent to the vertical insertion path of said heald frame (H) with a predetermined clearance , in that said multiple lever support drives the shift of said active tie rods between: a. said pre-coupling position, and b. a coupling position, wherein the coupling devices of all the active actuating tie rods are engaged with the respective heald frame connections , and in that, each heald frame (H) in said pre-coupling position directly leans, through the heald frame connections , on a support surface of the respective coupling devices , when inserted into its working position. characterized in that said system comprises one multiple lever support which houses in a pre-coupling position all the active tie rods of each one of said groups of tie rods, in which pre-coupling position the coupling device of each active tie rod is laterally aligned to the respective heald frame connection and is adjacent to the vertical insertion path of said heald frame (H) with a predetermined clearance , in that said multiple lever support drives the shift of said active tie rods between: a. said pre-coupling position, and b. a coupling position, wherein the coupling devices of all the active actuating tie rods are engaged with the respective heald frame connections , a. said pre-coupling position, and b. a coupling position, wherein the coupling devices of all the active actuating tie rods are engaged with the respective heald frame connections , and in that, each heald frame (H) in said pre-coupling position directly leans, through the heald frame connections , on a support surface of the respective coupling devices , when inserted into its working position.
A method implemented in one or more wireless access points, the method comprising: receiving , at the one or more wireless access points and from a first device, wherein the first device is a wireless device, a request to connect to a first network through a wireless network managed by the one or more wireless access points, wherein the one or more wireless access points is controlling access to the first network through a plurality of ports, wherein each port connects one wireless device to the first network; determining each port in the plurality of ports is connected to a respective wireless device, wherein each respective wireless device is allowed to access the first network through the respective port; adding the first device to a queue, wherein the queue stores device identifying information, and wherein the queue includes at least a second wireless device that was added prior to the first device, where devices in the queue are not allowed to access the first network while in the queue; and computing an estimated wait time for the first device to be allowed access to the first network based on sessions of devices connected to the plurality of ports, including computing an estimated wait time based on historical usage data of the system and a number of devices in the respective queue by identifying an average session length over an interval of time and using the average session length and the device's position in the queue as a basis for the estimated wait time. receiving , at the one or more wireless access points and from a first device, wherein the first device is a wireless device, a request to connect to a first network through a wireless network managed by the one or more wireless access points, wherein the one or more wireless access points is controlling access to the first network through a plurality of ports, wherein each port connects one wireless device to the first network; determining each port in the plurality of ports is connected to a respective wireless device, wherein each respective wireless device is allowed to access the first network through the respective port; adding the first device to a queue, wherein the queue stores device identifying information, and wherein the queue includes at least a second wireless device that was added prior to the first device, where devices in the queue are not allowed to access the first network while in the queue; and computing an estimated wait time for the first device to be allowed access to the first network based on sessions of devices connected to the plurality of ports, including computing an estimated wait time based on historical usage data of the system and a number of devices in the respective queue by identifying an average session length over an interval of time and using the average session length and the device's position in the queue as a basis for the estimated wait time.
Air suspension for a rail vehicle , arranged between the body or superstructure and the chassis , wherein the air suspension has a working volume , which is bounded by a rim connected to the superstructure, an air-spring lobe and a chassis-side piston , wherein the air-spring lobe is segmentally reinforced in partial regions of its circumference by reinforcing elements in such a way that, when the air-spring lobe undergoes springing or deflection in the horizontal direction over the circumference of the lobe, there is a greater stiffness of the air-spring lobe in the region of the segments/circumferential regions that are reinforced than in the circumferential regions that are not reinforced by reinforcing elements, wherein the reinforced segments are provided by preferably rubberized reinforcing elements laid in partial regions of the circumference of the air-spring lobe, within its wall thickness, in particular by textile cords or steel cords that are optionally knitted together and/or arranged crosswise, characterized in that the reinforced segments of the air-spring lobe are formed such that there are different stiffnesses in the travelling direction and in a horizontal direction at an angle to the travelling direction, in particular in the travelling direction x and in a lateral direction y perpendicular to the travelling direction.
An optical member comprising a hard coat film that is formed with a coating composition comprising (A) an acrylate component and (B) zirconia, wherein a mass ratio (B)/(A) of (B) the zirconia to (A) the acrylate component is from 0.1 to 2.0, (A) the acrylate component comprises the following components (a-1), (a-2) and (a-3), and a content ratio X of the component (a-1), a content ratio Y of the component (a-2) and a content ratio Z of the component (a-3) satisfies the following conditions and : (a-1): a polyfunctional acrylate compound having 3 or more acrylate groups in one molecule; (a-2): a dendritic aliphatic compound having an acrylate group at an end thereof; and (a-3): an acrylate compound having 1 or 2 acrylate groups in one molecule; or a mixture of an acrylate compound having 1 or 2 acrylate groups in one molecule and an acrylate compound other than the components (a-1) and (a-2), the condition : in (A) the acrylate component, X is from 40 to 60% by mass, and a total of Y and Z is from 60 to 40% by mass, and the condition : in the total of Y and Z, Z is 0% by mass or more and less than 100% by mass. (a-1): a polyfunctional acrylate compound having 3 or more acrylate groups in one molecule; (a-2): a dendritic aliphatic compound having an acrylate group at an end thereof; and (a-3): an acrylate compound having 1 or 2 acrylate groups in one molecule; or a mixture of an acrylate compound having 1 or 2 acrylate groups in one molecule and an acrylate compound other than the components (a-1) and (a-2), the condition : in (A) the acrylate component, X is from 40 to 60% by mass, and a total of Y and Z is from 60 to 40% by mass, and the condition : in the total of Y and Z, Z is 0% by mass or more and less than 100% by mass.
A composition comprising native umbilical tissue, wherein the umbilical tissue comprises one or more engineered channels, and wherein the structural integrity of the native umbilical tissue is preserved.
A computer-implemented method for compression of data, the method comprising: receiving (405; 610; 810; 910), at compression hardware and from a memory management program, a compression command including an address in physical computer memory of uncompressed data to be compressed into compressed data and an identification of available buffers for storing the compressed data output by the compression hardware, the available buffers having different sizes; retrieving (620; 820; 920), by the compression hardware, the uncompressed data from the physical computer memory using the received address; determining (410; 630; 930), by the compression hardware, a size of the compressed data; selecting (420; 640; 840; 940), by the compression hardware, one or more of the available buffers identified in the received compression command in which to store the compressed data, the selection being based on an amount of unused space that will remain in the one or more of the available buffers after the compressed data is stored in the one or more of the available buffers; and communicating (430; 650; 950), by the compression hardware, to the memory management program, information associated with the selected one or more of the available buffers. receiving (405; 610; 810; 910), at compression hardware and from a memory management program, a compression command including an address in physical computer memory of uncompressed data to be compressed into compressed data and an identification of available buffers for storing the compressed data output by the compression hardware, the available buffers having different sizes; retrieving (620; 820; 920), by the compression hardware, the uncompressed data from the physical computer memory using the received address; determining (410; 630; 930), by the compression hardware, a size of the compressed data; selecting (420; 640; 840; 940), by the compression hardware, one or more of the available buffers identified in the received compression command in which to store the compressed data, the selection being based on an amount of unused space that will remain in the one or more of the available buffers after the compressed data is stored in the one or more of the available buffers; and communicating (430; 650; 950), by the compression hardware, to the memory management program, information associated with the selected one or more of the available buffers.
A two-wheeler lock, in particular a frame lock , which is preferably at least partly drivable in a motorized manner, comprising a sensor for detecting different positions of an element of the lock movable along a defined movement path, wherein the movable element has a permanent magnet and the sensor is configured as a magnetic sensor, characterized in that the magnetic sensor is configured for a three-dimensional magnetic detection to detect positions or movements of the movable element differing from the defined movement path and/or to detect manipulation attempts carried out by means of external magnets.