mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: authenticating an identity of a user on a first computing node of a plurality of nodes within a computing environment; calculating, at the first computing node using at least one machine learning model, a first authentication score for the user, the first authentication score characterizing interactions of the user with the first computing node; monitoring, subsequent to the authenticating, traversal by the user from the first computing node to other computing nodes among the plurality of computing nodes; calculating, at each of the nodes using respective machine learning models executing on such nodes, an authentication score characterizing interactions of the user with the corresponding computing node, wherein the respective machine learning models use, as an attribute, an authentication score calculated at a previously traversed computing node; and initiating an action at one of the computing nodes based on the calculated authentication scores. authenticating an identity of a user on a first computing node of a plurality of nodes within a computing environment; calculating, at the first computing node using at least one machine learning model, a first authentication score for the user, the first authentication score characterizing interactions of the user with the first computing node; monitoring, subsequent to the authenticating, traversal by the user from the first computing node to other computing nodes among the plurality of computing nodes; calculating, at each of the nodes using respective machine learning models executing on such nodes, an authentication score characterizing interactions of the user with the corresponding computing node, wherein the respective machine learning models use, as an attribute, an authentication score calculated at a previously traversed computing node; and initiating an action at one of the computing nodes based on the calculated authentication scores.
A method of manufacturing a panel comprising (a) providing a rigid middle layer comprising a polymer foam, wherein the polymer foam is a standardised insulation product; b) at least sectionally structuring at least one surface, and preferably both surfaces of the middle layer; c) applying a fibre-reinforced material to the structured middle layer and/or underlaying the structured middle layer with a fibre-reinforced material; and d) connecting the middle layer to the fibre-reinforced material and/or hardening the fibre-reinforced material. (a) providing a rigid middle layer comprising a polymer foam, wherein the polymer foam is a standardised insulation product; b) at least sectionally structuring at least one surface, and preferably both surfaces of the middle layer; c) applying a fibre-reinforced material to the structured middle layer and/or underlaying the structured middle layer with a fibre-reinforced material; and d) connecting the middle layer to the fibre-reinforced material and/or hardening the fibre-reinforced material.
A drive device comprising: a drive circuit that is configured to drive a plurality of channels on an individual basis, the plurality of channels including a plurality of light emitting elements; and a detection circuit that is configured to collectively detect abnormalities of all the channels, wherein the drive device is configured to be electrically and mechanically connectable, via a plurality of microbumps, to a light emitting element array that includes the plurality of light emitting elements, characterized in that the detection circuit includes a plurality of pseudo-resistors (Ra) configured to represent an internal resistance of the light emitting elements of the respective channels in a pseudo-manner, and a plurality of shunt switches that is series-connected to the respective pseudo-resistors (Ra), and in a case where the light emitting element array is not connected, an operating voltage of the light emitting elements of all the channels is generated in a pseudo-manner by bringing the plurality of shunt switches into conduction. a drive circuit that is configured to drive a plurality of channels on an individual basis, the plurality of channels including a plurality of light emitting elements; and a detection circuit that is configured to collectively detect abnormalities of all the channels, wherein the drive device is configured to be electrically and mechanically connectable, via a plurality of microbumps, to a light emitting element array that includes the plurality of light emitting elements, the detection circuit includes a plurality of pseudo-resistors (Ra) configured to represent an internal resistance of the light emitting elements of the respective channels in a pseudo-manner, and a plurality of shunt switches that is series-connected to the respective pseudo-resistors (Ra), and a plurality of pseudo-resistors (Ra) configured to represent an internal resistance of the light emitting elements of the respective channels in a pseudo-manner, and a plurality of shunt switches that is series-connected to the respective pseudo-resistors (Ra), and in a case where the light emitting element array is not connected, an operating voltage of the light emitting elements of all the channels is generated in a pseudo-manner by bringing the plurality of shunt switches into conduction.
A method performed by a user equipment, UE, in a mobile communication system, the method comprising: receiving an allocation of a fast access scheduling, FAS, cell radio network temporary identifier, C-RNTI, to the UE by an evolved universal terrestrial radio access network, E-UTRAN, node B, eNB; detecting a type of a uplink, UL, grant periodically allocated to the UE by the eNB; determining whether the detected type of the UL grant is an FAS grant mapped to the FAS C-RNTI; and determining not to transmit a padding medium access control, MAC, protocol data unit, PDU, to the eNB using the FAS grant if the detected type of the UL grant is the FAS grant and there is no data to transmit using the FAS grant, wherein the FAS C-RNTI is a C-RNTI that is allocated to the UE to allow the UE not to transmit the padding MAC PDU using the FAS grant. receiving an allocation of a fast access scheduling, FAS, cell radio network temporary identifier, C-RNTI, to the UE by an evolved universal terrestrial radio access network, E-UTRAN, node B, eNB; detecting a type of a uplink, UL, grant periodically allocated to the UE by the eNB; determining whether the detected type of the UL grant is an FAS grant mapped to the FAS C-RNTI; and determining not to transmit a padding medium access control, MAC, protocol data unit, PDU, to the eNB using the FAS grant if the detected type of the UL grant is the FAS grant and there is no data to transmit using the FAS grant, wherein the FAS C-RNTI is a C-RNTI that is allocated to the UE to allow the UE not to transmit the padding MAC PDU using the FAS grant.
A method of preparing a bone graft comprising: mixing bone marrow aspirate with an effective amount of a binding reagent that is capable of binding with red blood cells in the bone marrow aspirate to form bound red blood cells; aggregating the bound red blood cells; separating the aggregated bound red blood cells from the bone marrow aspirate to provide a supernatant; placing the osteoconductive matrix into a receptacle having an outlet port; and passing the supernatant through the receptacle to cause the supernatant to be associated with the osteoconductive matrix, wherein a substantially constant pressure is used to urge the supernatant through the osteoconductive matrix to substantially uniformly distribute the supernatant in the osteoconductive matrix. mixing bone marrow aspirate with an effective amount of a binding reagent that is capable of binding with red blood cells in the bone marrow aspirate to form bound red blood cells; aggregating the bound red blood cells; separating the aggregated bound red blood cells from the bone marrow aspirate to provide a supernatant; placing the osteoconductive matrix into a receptacle having an outlet port; and passing the supernatant through the receptacle to cause the supernatant to be associated with the osteoconductive matrix, wherein a substantially constant pressure is used to urge the supernatant through the osteoconductive matrix to substantially uniformly distribute the supernatant in the osteoconductive matrix.
Generator for a wind energy installation, which generator has teeth, which are surrounded by windings and are separated by slots, and permanent magnets (4c, 4c'; 4d, 4d', 4d'', 4d'''), which form the poles (5c, 5c') of the excitation field, characterized in that front and rear edges (6c, 6c'; 7c, 7c') of each individual pole (5c, 5c') are inclined in the same direction with respect to the rotation axis of the rotor, and the front and rear edges (6c, 6c'; 7c, 7c'), which are arranged immediately next to one another, of successive poles (5c, 5c') or successive groups of poles which are inclined in the same direction are inclined in respectively opposite directions with respect to the rotation axis of the rotor.
A process for forming a stable liquid blend of a) pentaerythritol tetrakis(3-(3,5-di-tert-butyl-4-hydroxyphenyl)propionate, b) octadecyl 3-(3,5-di-tert-butyl-4-hydroxyphenyl)propionate and c) tris-(2,4-di-tert-butylphenyl)phosphite, which process comprises preparing a solid mixture comprising 2 parts to 3 parts by weight a), 2 parts to 3 parts by weight b) and 2 parts to 12 parts by weight c), heating the mixture to 185°C or higher for a sufficient time to obtain a clear liquid blend of a), b) and c), cooling the liquid blend to a temperature of from 90°C to 140°C and maintaining the liquid blend at a temperature of from 90°C to 140°C, where the liquid blend of a), b) and c) is stable at the temperature at which it is maintained for greater than 120 hours, wherein stable means that no observed precipitation or solid is observed. a) pentaerythritol tetrakis(3-(3,5-di-tert-butyl-4-hydroxyphenyl)propionate, b) octadecyl 3-(3,5-di-tert-butyl-4-hydroxyphenyl)propionate and c) tris-(2,4-di-tert-butylphenyl)phosphite,
Automatic transmission device comprising: a number n of planetary gears (1, 2, 3, 11, 13, 15) arranged coaxially in a row, each planetary gear (1, 2, 3, 11, 13, 15) comprising a sun wheel, a planetary carrier carrying pivoted planetary wheels and an annular gear, an input column connected to a sun wheel of a first planetary gear of the row of planetary gears (3, 15), a general gear (4, 17) positioned adjacent to the row of planetary gears next to a last planetary gear (3, 15), n mediator gears (5, 6, 7, 12, 14, 16), each mounted on an output column and connected to the output column via a freewheel assembly such that the mediator gears (5, 6, 7, 12, 14, 16) are freely rotatable in one direction relative to the output column; each mediator gear being in engagement with one of the annular gears, wherein a planetary carrier of the last planetary gear (3, 15) is fixed to the general gear (4, 17), and a planetary carrier of each planetary gear but not the last planetary gear (3, 15) being connected to a sun wheel of a following planetary gear (2, 3, 13, 15) positioned adjacently towards the last planetary gear (3, 15), wherein rotation of any of the mediator gears (5, 6, 7, 12, 14, 16) can be stopped selectively. a number n of planetary gears (1, 2, 3, 11, 13, 15) arranged coaxially in a row, each planetary gear (1, 2, 3, 11, 13, 15) comprising a sun wheel, a planetary carrier carrying pivoted planetary wheels and an annular gear, an input column connected to a sun wheel of a first planetary gear of the row of planetary gears (3, 15), a general gear (4, 17) positioned adjacent to the row of planetary gears next to a last planetary gear (3, 15), n mediator gears (5, 6, 7, 12, 14, 16), each mounted on an output column and connected to the output column via a freewheel assembly such that the mediator gears (5, 6, 7, 12, 14, 16) are freely rotatable in one direction relative to the output column; each mediator gear being in engagement with one of the annular gears, wherein a planetary carrier of the last planetary gear (3, 15) is fixed to the general gear (4, 17), and a planetary carrier of each planetary gear but not the last planetary gear (3, 15) being connected to a sun wheel of a following planetary gear (2, 3, 13, 15) positioned adjacently towards the last planetary gear (3, 15), wherein rotation of any of the mediator gears (5, 6, 7, 12, 14, 16) can be stopped selectively.
A composite material for bone repair based on decellularized biological tissue matrix material, comprising 10%-90% of a decellularized biological tissue matrix material as organic phase and 90%-10% of a calcium salt as inorganic phase; wherein the inorganic phase as a dispersed phase is distributed in form of particles within the organic phase as a continuous phase; the inorganic phase can be distributed homogeneously in the organic phase, or be distributed with a certain gradient in the organic phase; and the decellularized biological tissue matrix material has a microfibrillar shape, and the microfibrillar decellularized biological tissue matrix material has a diameter of 1-250 micrometers and a length of 100-4000 micrometers.
A composition for use in a method of affecting weight loss or treating obesity comprising a first compound, a second compound, and a pharmaceutically acceptable carrier, wherein the first compound is an opioid antagonist and the second compound is bupropion.
A shin guard comprising: a protective shell that includes a convex outer surface and a concave inner surface; a cushioning element coupled to the protective shell such that the cushioning element abuts the inner surface; and a polymeric texture disposed on the outer surface, the polymeric texture including a plurality of protrusions that each extend from the outer surface by a maximum distance of from about 1 mm to about 5 mm and that each have a hardness measured on the Shore A scale of from about 20A to about 60A. a protective shell that includes a convex outer surface and a concave inner surface; a cushioning element coupled to the protective shell such that the cushioning element abuts the inner surface; and a polymeric texture disposed on the outer surface, the polymeric texture including a plurality of protrusions that each extend from the outer surface by a maximum distance of from about 1 mm to about 5 mm and that each have a hardness measured on the Shore A scale of from about 20A to about 60A.
On-board power supply unit for a vehicle, comprising: - a battery of electric accumulators having a length between a first end and a second end in a direction of elongation (I-I), - a charger, which is fixed to said first end of the battery of electric accumulators, having an output connected to said battery of electric accumulators, and having an input designed to connect to an external source of electrical energy, in which: - the input comprises an electrical connection cable, a first end of which is fixed and permanently connected to the charger, and a second end of which is free and provided with a male plug designed to fit with and connect to a connection socket of said external source of electrical energy, - a plug receptacle is designed to receive and retain said male plug when the electrical connection cable is in a rest position, wherein: - the plug receptacle is provided at one end of the power supply unit, characterized in that: - in said rest position, the electrical connection cable runs along said battery of electric accumulators, - the plug receptacle can be moved, in the direction of elongation (I-I), between a near position and a remote position, the plug receptacle being permanently biased by a return means that pushes it towards its remote position so as to tension the electrical connection cable into the rest position. - a battery of electric accumulators having a length between a first end and a second end in a direction of elongation (I-I), - a charger, which is fixed to said first end of the battery of electric accumulators, having an output connected to said battery of electric accumulators, and having an input designed to connect to an external source of electrical energy, - the input comprises an electrical connection cable, a first end of which is fixed and permanently connected to the charger, and a second end of which is free and provided with a male plug designed to fit with and connect to a connection socket of said external source of electrical energy, - a plug receptacle is designed to receive and retain said male plug when the electrical connection cable is in a rest position, - the plug receptacle is provided at one end of the power supply unit, characterized in that: - in said rest position, the electrical connection cable runs along said battery of electric accumulators, - the plug receptacle can be moved, in the direction of elongation (I-I), between a near position and a remote position, the plug receptacle being permanently biased by a return means that pushes it towards its remote position so as to tension the electrical connection cable into the rest position. - in said rest position, the electrical connection cable runs along said battery of electric accumulators, - the plug receptacle can be moved, in the direction of elongation (I-I), between a near position and a remote position, the plug receptacle being permanently biased by a return means that pushes it towards its remote position so as to tension the electrical connection cable into the rest position.
A method for operating an internal combustion engine, comprising a gas combustion system and an exhaust gas after-treatment system, wherein exhaust gas leaving the gas combustion system is conducted for cleaning via the exhaust gas after-treatment system, characterized in that the exhaust gas is conducted via at least one CH 4 oxidation catalytic converter of the exhaust gas after-treatment system, and in that the CH 4/ NO 2 mol ratio in the exhaust gas is adjusted by at least one measure on the exhaust gas combustion system side and/or exhaust gas after-treatment system side upstream of at least one CH 4 oxidation catalytic converter to be smaller than or equal to 2, preferably smaller than 1.5, most preferably smaller than 1.
A Hookah Heat Management Accessory comprising: a plate configured to hold hot charcoal, or other heat source, and conduct heat to tobacco; a wall attached to the plate that is configured to contain heat produced by hot charcoal or other heat source: wherein the plate has bulbous protrusions, rods, cones, pyramids, ridges, rings or other shaped protrusions on the bottom of the plate, characterized in that the hookah heat management accessory further comprises: a lower lid with vents for air and heat that rests on the wall; and an upper lid with vents for air and heat that rests on the lower lid. a plate configured to hold hot charcoal, or other heat source, and conduct heat to tobacco; a wall attached to the plate that is configured to contain heat produced by hot charcoal or other heat source: wherein the plate has bulbous protrusions, rods, cones, pyramids, ridges, rings or other shaped protrusions on the bottom of the plate, characterized in that the hookah heat management accessory further comprises: a lower lid with vents for air and heat that rests on the wall; and an upper lid with vents for air and heat that rests on the lower lid. wherein the plate has bulbous protrusions, rods, cones, pyramids, ridges, rings or other shaped protrusions on the bottom of the plate, characterized in that the hookah heat management accessory further comprises: a lower lid with vents for air and heat that rests on the wall; and an upper lid with vents for air and heat that rests on the lower lid. a lower lid with vents for air and heat that rests on the wall; and an upper lid with vents for air and heat that rests on the lower lid.
An automatic injection device (10, 20, 30, 40, 50, 60, 70, 90, 1000, 1100), comprising: a container body (105, 405, 505, 705) configured to be filled with a liquid medication having a tubular form, wherein the container body comprises a proximal end and an open distal end through which a piston (104, 504, 5041, 904) is inserted, wherein the piston (104, 504, 5041, 904) is slidably disposed within the container body (105, 405, 505, 705) and contacting the inner walls of the container body (105, 405, 505, 705); characterized in that the automatic injection device further comprises: a spring disposed between the piston (104, 504, 5041, 904) and the proximal end of the container body (105, 405, 505, 705) contacting the proximal end of the container body (105, 405, 505, 705); a releasable restraining means (102c, 405b, 504b) configured to releasably restrain the piston (104, 504, 5041, 904) in a locked state against the biasing of the spring, wherein, upon release of the releasable restraining means (102c, 405b, 504b), the piston (104, 504, 5041, 904) moves under force of the spring toward the open distal end of the container body (105, 405, 505, 705); an activation means (101b, 501b, 701a) configured to release the releasable restraining means (102c, 405b, 504b); a needle cap (107, 307, 607, 707, 907, 1007, 1107) placed at the open distal end of the container body; and a needle (108, 908, 1008) placed at the open distal end of said container body (105, 405, 505, 705). a spring disposed between the piston (104, 504, 5041, 904) and the proximal end of the container body (105, 405, 505, 705) contacting the proximal end of the container body (105, 405, 505, 705); a releasable restraining means (102c, 405b, 504b) configured to releasably restrain the piston (104, 504, 5041, 904) in a locked state against the biasing of the spring, wherein, upon release of the releasable restraining means (102c, 405b, 504b), the piston (104, 504, 5041, 904) moves under force of the spring toward the open distal end of the container body (105, 405, 505, 705); an activation means (101b, 501b, 701a) configured to release the releasable restraining means (102c, 405b, 504b); a needle cap (107, 307, 607, 707, 907, 1007, 1107) placed at the open distal end of the container body; and a needle (108, 908, 1008) placed at the open distal end of said container body (105, 405, 505, 705).
A device for sanitizing objects, comprising a decontamination chamber; a source of biocidal fluid; means for feeding said fluid to said chamber and at least one source of compressed air, characterized in that said compressed air is medical air, preferably said source being a cylinder of medical compressed air.