mhurhangee/ep-ind-claims huggingface dataset:
A process using: a database system (102, 330) associating software with a hardware identity of an identified hardware entity used by said software, and associating said hardware identity with a location in a data center; and a collaboration enhanced mobilized sensor system, CEMASS,, the process comprising: automatically detecting a performance problem associated with an application; automatically identifying a virtual resource used by said application; automatically identifying a used hardware device used by said virtual resource; determining, by said database system, the location of the identified hardware device; navigating said CEMASS, using a wheeled propulsion system of said CEMASS, to said location; using capturing sensors (401, 402, 410) of said CEMASS, capturing identity information from a located hardware device at said location to determine from said identity information whether said located hardware device is said identified hardware device; and using video conferencing equipment of said CEMASS for communication between off-site personnel and on-site personnel. a database system (102, 330) associating software with a hardware identity of an identified hardware entity used by said software, and associating said hardware identity with a location in a data center; and a collaboration enhanced mobilized sensor system, CEMASS,, automatically detecting a performance problem associated with an application; automatically identifying a virtual resource used by said application; automatically identifying a used hardware device used by said virtual resource; determining, by said database system, the location of the identified hardware device; navigating said CEMASS, using a wheeled propulsion system of said CEMASS, to said location; using capturing sensors (401, 402, 410) of said CEMASS, capturing identity information from a located hardware device at said location to determine from said identity information whether said located hardware device is said identified hardware device; and using video conferencing equipment of said CEMASS for communication between off-site personnel and on-site personnel.
A resin composition for masks, comprising: a first resin obtainable by an addition reaction of a polybasic acid anhydride with an adduct of an ethylenically unsaturated compound having a carboxyl group and a bifunctional epoxy resin; and a second resin having a group obtainable by an addition reaction of an epoxy group with a monocarboxylic acid and a group obtainable by an reaction of an epoxy group with a polybasic acid, wherein the ethylenically unsaturated compound contains a ω-carboxy-polycaprolactone monoacrylate represented by the following general formula: H 2 C-CHCOO(C 5 H 10 COO) n H wherein n is an integer of 1 or more. a first resin obtainable by an addition reaction of a polybasic acid anhydride with an adduct of an ethylenically unsaturated compound having a carboxyl group and a bifunctional epoxy resin; and a second resin having a group obtainable by an addition reaction of an epoxy group with a monocarboxylic acid and a group obtainable by an reaction of an epoxy group with a polybasic acid, wherein the ethylenically unsaturated compound contains a ω-carboxy-polycaprolactone monoacrylate represented by the following general formula: H 2 C-CHCOO(C 5 H 10 COO) n H wherein n is an integer of 1 or more.
A container for gas or fluid comprising: a first end, a second end, a plurality of valves fluidly connected to said container whereby a gas or fluid may enter, flow through and exit said container, the container comprising a first valve fluidly connected to said first container end, a second valve fluidly connected to said second container end whereby a gas or fluid may enter through said first valve, flow through said container, and exit through said second valve; wherein said second end is an open end exhibiting a rolled lip; the container further comprising a cap disposed through said open end; characterized in that the cap exhibits a partially rolled flange, whereby when said cap is disposed through said open end, said partially rolled flange communicates with said rolled lip forming a seal; and said cap wall further comprises an expanded lip providing pressure on said rolled lip, wherein said rolled lip is compressed between said rolled flange and said expanded lip.
An immunogenic composition comprising an adjuvant formulation and an immunologically effective amount of an antigen component, wherein the adjuvant formulation comprises a saponin, a sterol, a quaternary ammonium compound, a polyacrylic acid and a glycolipid.
A catheter pump system comprising: a catheter for insertion into a patient into a position extending through an aorta of the patient, a distal end portion of the catheter being located near or extending through an aortic valve of the patient, the catheter having an inlet port at or near a distal end and an outlet port proximally of the inlet port and communicating with the inlet port via a blood flow channel; a pump (13; 113) having a fluid displacement member in the blood flow channel; a pneumatic motor (15; 115) for driving the pump; a flexible drive shaft (34, 134) extending through the catheter, the drive shaft coupling the pump to the motor; characterized by a motor controller (16; 116) for controlling motor speed, the motor controller having: - a supply channel (27, 127) extending through the motor controller between an inlet for connection to a pressure source and an outlet in fluid communication with the motor, - a variable restriction valve (31; 131) connected and arranged for controlling flow through the supply channel, and - an input interface for inputting control signals to the motor controller; wherein the variable restriction valve (31; 131) is arranged for reducing flow through the supply channel and allowing an increase of flow through the supply channel in response to control signals received via the input interface. a catheter for insertion into a patient into a position extending through an aorta of the patient, a distal end portion of the catheter being located near or extending through an aortic valve of the patient, the catheter having an inlet port at or near a distal end and an outlet port proximally of the inlet port and communicating with the inlet port via a blood flow channel; a pump (13; 113) having a fluid displacement member in the blood flow channel; a pneumatic motor (15; 115) for driving the pump; a flexible drive shaft (34, 134) extending through the catheter, the drive shaft coupling the pump to the motor; characterized by a motor controller (16; 116) for controlling motor speed, the motor controller having: - a supply channel (27, 127) extending through the motor controller between an inlet for connection to a pressure source and an outlet in fluid communication with the motor, - a variable restriction valve (31; 131) connected and arranged for controlling flow through the supply channel, and - an input interface for inputting control signals to the motor controller; - a supply channel (27, 127) extending through the motor controller between an inlet for connection to a pressure source and an outlet in fluid communication with the motor, - a variable restriction valve (31; 131) connected and arranged for controlling flow through the supply channel, and - an input interface for inputting control signals to the motor controller; wherein the variable restriction valve (31; 131) is arranged for reducing flow through the supply channel and allowing an increase of flow through the supply channel in response to control signals received via the input interface.
A method of manufacturing a component in a cast state of a steel alloy which comprises, in percent by mass: - 0.17 to 0.23 carbon; - 1.40 to 1.60 silicon; - 0.50 to 0.60 manganese; - up to 0.020 phosphor; - up to 0.020 sulfur; - up to 0.30 chrome; - up to 0.12 molybdenum; - up to 0.80 nickel; - up to 0.30 copper; - up to 0.03 vanadium; the remainder being iron and incidental impurities, wherein the component is made from the steel alloy by casting, wherein after the casting the component is subjected to a heat treatment which comprises a normalizing of the component, and wherein the normalizing is carried out in a temperature range extending from 900 degrees centigrade to 980 degrees centigrade.
A nerve stimulation appliance, having: a first stimulator which is designed to sequentially trigger several first stimuli at a first position in a nerve fibre of a nerve of a human being or a mammal which only propagate in a first direction in the nerve fibre; a second stimulator which is designed to sequentially trigger several second stimuli at a second position in the nerve fibre which only propagate in a second direction, which is opposite to the first direction, in the nerve fibre, wherein the second position is spaced from the first position in the first direction, and wherein the first stimulator and the second stimulator are synchronised such that a first stimulus and a second stimulus, respectively, are generated within a predetermined time window so that the first and the second stimuli block each other in the nerve fibre, wherein the first stimulator has first stimulus generating means and the second stimulator has second stimulus generating means which are each designed to couple a stimulus into the nerve fibre, wherein the first and the second stimulus generating means each have a first stimulus electrode (21 1, 22 1) and a second stimulus electrode (21 2, 22 2), wherein the first stimulus electrode (21 1, 22 1) and the second stimulus electrode (21 2, 22 2) are each spatially spaced from one another, and wherein the second stimulus electrode (22 1) of the first stimulus generating means and the second stimulus electrode (22 2) of the second stimulus generating means are formed by a common electrode. a first stimulator which is designed to sequentially trigger several first stimuli at a first position in a nerve fibre of a nerve of a human being or a mammal which only propagate in a first direction in the nerve fibre; a second stimulator which is designed to sequentially trigger several second stimuli at a second position in the nerve fibre which only propagate in a second direction, which is opposite to the first direction, in the nerve fibre, wherein the second position is spaced from the first position in the first direction, and wherein the first stimulator and the second stimulator are synchronised such that a first stimulus and a second stimulus, respectively, are generated within a predetermined time window so that the first and the second stimuli block each other in the nerve fibre, wherein the first stimulator has first stimulus generating means and the second stimulator has second stimulus generating means which are each designed to couple a stimulus into the nerve fibre, wherein the first and the second stimulus generating means each have a first stimulus electrode (21 1, 22 1) and a second stimulus electrode (21 2, 22 2), wherein the first stimulus electrode (21 1, 22 1) and the second stimulus electrode (21 2, 22 2) are each spatially spaced from one another, and wherein the second stimulus electrode (22 1) of the first stimulus generating means and the second stimulus electrode (22 2) of the second stimulus generating means are formed by a common electrode.
A method, in a base station, for determining a control timing configuration, the control timing configuration providing a subframe timing setting for configuring Physical Uplink Shared Channel, PUSCH, and associated uplink Hybrid Automatic Retransmission Request Acknowledgment, HARQ-ACK, control timing for a cell serving a user equipment in a multiple cell communications network, wherein the user equipment is served by a Time Division Duplex, TDD, based cell, and a Frequency Division Duplex, FDD, based cell, the method comprising: determining a control timing configuration for a scheduled secondary cell, the scheduled secondary cell being the FDD based cell, and, the type of the scheduling cell being the TDD based cell; and implementing the control timing configuration for PUSCH and associated uplink HARQ-ACK control timing for a cell serving the user equipment; and for the cell serving the user equipment is the FDD based cell, the determining further comprising determining the control timing configuration for the PUSCH to follow a control timing configuration according to an FDD configuration of the FDD based cell. determining a control timing configuration for a scheduled secondary cell, the scheduled secondary cell being the FDD based cell, and, the type of the scheduling cell being the TDD based cell; and implementing the control timing configuration for PUSCH and associated uplink HARQ-ACK control timing for a cell serving the user equipment; and for the cell serving the user equipment is the FDD based cell, the determining further comprising determining the control timing configuration for the PUSCH to follow a control timing configuration according to an FDD configuration of the FDD based cell.
A session processing method, comprising: determining, by a Multicast Broadcast -Session Management Function network element, to deactivate a Multicast Broadcast Service session, and sending, via an Access and Mobility management Function network element, an MBS session suspend request to an access network device; and receiving, by the MB-SMF network element, an MBS session suspend response from the access network device, wherein the SMF stores context information for the deactivated MBS session; wherein determining, by the MB-SMF network element, to deactivate the MBS session comprises: determining, by the MB-SMF network element, to deactivate the MBS session according to received indication information; wherein the indication information is used to indicate that no data transmission exists on the MBS session in an active state. determining, by a Multicast Broadcast -Session Management Function network element, to deactivate a Multicast Broadcast Service session, and sending, via an Access and Mobility management Function network element, an MBS session suspend request to an access network device; and receiving, by the MB-SMF network element, an MBS session suspend response from the access network device, wherein the SMF stores context information for the deactivated MBS session; wherein determining, by the MB-SMF network element, to deactivate the MBS session comprises: determining, by the MB-SMF network element, to deactivate the MBS session according to received indication information; wherein the indication information is used to indicate that no data transmission exists on the MBS session in an active state. determining, by the MB-SMF network element, to deactivate the MBS session according to received indication information; wherein the indication information is used to indicate that no data transmission exists on the MBS session in an active state.
A method for blood pathogen reduction of a blood product comprising: removing oxygen from a blood product to prepare an oxygen reduced blood product with SO2 of 25% or less; reducing blood pathogens from said blood product comprising: adding amustaline (S-303) to a final concentration of between 0.1 and 0.5 millimolar (mM); adding glutathione to a final concentration of between 2 to 20 mM; and incubating said oxygen reduced blood product comprising said S-303 and GSH under oxygen reduced conditions for up to 9 hours, whereby residual pathogens are reduced between 60 and 100% and said S-303 concentration level is reduced to a concentration less than a concentration of acridine (S-300). removing oxygen from a blood product to prepare an oxygen reduced blood product with SO2 of 25% or less; reducing blood pathogens from said blood product comprising: adding amustaline (S-303) to a final concentration of between 0.1 and 0.5 millimolar (mM); adding glutathione to a final concentration of between 2 to 20 mM; and incubating said oxygen reduced blood product comprising said S-303 and GSH under oxygen reduced conditions for up to 9 hours, whereby residual pathogens are reduced between 60 and 100% and said S-303 concentration level is reduced to a concentration less than a concentration of acridine (S-300). adding amustaline (S-303) to a final concentration of between 0.1 and 0.5 millimolar (mM); adding glutathione to a final concentration of between 2 to 20 mM; and incubating said oxygen reduced blood product comprising said S-303 and GSH under oxygen reduced conditions for up to 9 hours, whereby residual pathogens are reduced between 60 and 100% and said S-303 concentration level is reduced to a concentration less than a concentration of acridine (S-300).
A rotating electrical machine comprising: a rotor having a rotor core provided with a plurality of magnet holes in a circumferential direction, and permanent magnets (23, 23a, 23b) embedded in the magnet holes and forming magnetic poles; and a stator having a plurality of tooth portions which are disposed in the circumferential direction and on which coils are wound, wherein the rotor is disposed on an inner circumferential side of the stator with a magnetic gap therebetween, and an outer circumferential portion of the rotor core has petal portions disposed so as to correspond to the respective magnetic poles and each having an arc shape with a diameter smaller than a rotor diameter, and interpole bridges (27, 27A, 27B) each located at a non-magnetic portion between the adjacent magnetic poles and disposed on an outer circumferential side with respect to the permanent magnets (23, 23a, 23b), characterized in that the interpole bridges (27, 27A, 27B) each have an outer circumferential surface facing the magnetic gap and formed by two flat surfaces (27a, 27b), and a connection portion between the two flat surfaces (27a, 27b) is recessed with respect to the magnetic gap. a rotor having a rotor core provided with a plurality of magnet holes in a circumferential direction, and permanent magnets (23, 23a, 23b) embedded in the magnet holes and forming magnetic poles; and a stator having a plurality of tooth portions which are disposed in the circumferential direction and on which coils are wound, wherein the rotor is disposed on an inner circumferential side of the stator with a magnetic gap therebetween, and an outer circumferential portion of the rotor core has petal portions disposed so as to correspond to the respective magnetic poles and each having an arc shape with a diameter smaller than a rotor diameter, and interpole bridges (27, 27A, 27B) each located at a non-magnetic portion between the adjacent magnetic poles and disposed on an outer circumferential side with respect to the permanent magnets (23, 23a, 23b), characterized in that the interpole bridges (27, 27A, 27B) each have an outer circumferential surface facing the magnetic gap and formed by two flat surfaces (27a, 27b), and a connection portion between the two flat surfaces (27a, 27b) is recessed with respect to the magnetic gap.
An automatic sample dispensing device comprising: at least one sample holder which receives at least one sample reel; a cutting element placed in a cutting region; at least one motor which rotationally activates the at least one sample holder and which places at least one sample in the cutting region, wherein the at least one sample is automatically detached from the sample reel by the cutting element; at least one electronic module is activated by an electric circuit upon an activation button being touched; the at least one electronic module activates the at least one motor for a predetermined time when the activation button is touched; the at least one electronic module intermittently controls the at least one motor; characterized in that, the at least one electronic module comprises a touch sensor associated with the activation button and connected to the electric circuit, the sample reel comprises a plurality of preferably equidistant printed samples, each one provided with a base film whereon there is a region for placement of the product covered by a covering film; and the region for placement of the product receives products from among fragrances, cosmetics or makeup). at least one sample holder which receives at least one sample reel; a cutting element placed in a cutting region; at least one motor which rotationally activates the at least one sample holder and which places at least one sample in the cutting region, wherein the at least one sample is automatically detached from the sample reel by the cutting element; at least one electronic module is activated by an electric circuit upon an activation button being touched; the at least one electronic module activates the at least one motor for a predetermined time when the activation button is touched; the at least one electronic module intermittently controls the at least one motor; characterized in that, the at least one electronic module comprises a touch sensor associated with the activation button and connected to the electric circuit, the sample reel comprises a plurality of preferably equidistant printed samples, each one provided with a base film whereon there is a region for placement of the product covered by a covering film; and the region for placement of the product receives products from among fragrances, cosmetics or makeup).
A studless winter tire, comprising a cap tread formed from a rubber composition for studless winter tires, the rubber composition comprising: a rubber component; a chemically modified microfibrillated cellulose; carbon black; and silica, the chemically modified microfibrillated cellulose having an average fiber diameter of 0.1 μm or less, the rubber component having a combined amount of natural rubber and polybutadiene rubber of 30% to 100% by mass based on 100% by mass of the rubber component, the rubber composition comprising, per 100 parts by mass of the rubber component, 1 to 10 parts by mass of the chemically modified microfibrillated cellulose, 10 to 80 parts by mass of the carbon black, and 10 to 80 parts by mass of the silica. a rubber component; a chemically modified microfibrillated cellulose; carbon black; and silica, the chemically modified microfibrillated cellulose having an average fiber diameter of 0.1 μm or less, the rubber component having a combined amount of natural rubber and polybutadiene rubber of 30% to 100% by mass based on 100% by mass of the rubber component, the rubber composition comprising, per 100 parts by mass of the rubber component, 1 to 10 parts by mass of the chemically modified microfibrillated cellulose, 10 to 80 parts by mass of the carbon black, and 10 to 80 parts by mass of the silica.