mhurhangee/ep-ind-claims huggingface dataset:
A patient support apparatus comprising a frame including a patient support deck, control circuitry carried by the frame, a footboard coupled to the frame and having an interior region, a compression module located within the interior region of the footboard and operable to inflate and deflate a compression sleeve worn on a limb of a patient, the compression module having module circuitry, a sleeve port pneumatically coupled to the compression module, the sleeve port being configured for attachment to at least one tube extending from the compression sleeve, and a heater (420, 420') or cooler (420, 420') configured to introduce temperature controlled air into an air stream provided from the compression module to the sleeve port. a frame including a patient support deck, control circuitry carried by the frame, a footboard coupled to the frame and having an interior region, a compression module located within the interior region of the footboard and operable to inflate and deflate a compression sleeve worn on a limb of a patient, the compression module having module circuitry, a sleeve port pneumatically coupled to the compression module, the sleeve port being configured for attachment to at least one tube extending from the compression sleeve, and a heater (420, 420') or cooler (420, 420') configured to introduce temperature controlled air into an air stream provided from the compression module to the sleeve port.
A base assembly for a dryer, the base assembly comprising: a bottom plate; an air duct shell disposed on the bottom plate and having a cavity, wherein a heat exchanger is mounted within the cavity; and at least one connection member detachably connected to the bottom plate and/or the air duct shell to fix the air duct shell on the bottom plate; wherein: the at least one connection member is detachably connected to the bottom plate; and the at least one connection member is at least partially pressed against the air duct shell to fix the air duct shell on the bottom plate; preferably, wherein the at least one connection member matches with an outer contour of the air duct shell, and characterised in that the at least one connection member comprises a first connection member having two ends detachably connected to the bottom plate; and at least a part of the air duct shell is located between a middle part of the first connection member and the bottom plate. wherein: the at least one connection member is detachably connected to the bottom plate; and the at least one connection member is at least partially pressed against the air duct shell to fix the air duct shell on the bottom plate; preferably, wherein the at least one connection member matches with an outer contour of the air duct shell, and characterised in that the at least one connection member comprises a first connection member having two ends detachably connected to the bottom plate; and at least a part of the air duct shell is located between a middle part of the first connection member and the bottom plate.
An oral delivery product comprising: a semi-permeable pouch designed for being placeable in an oral cavity of a subject; and multiple solid particles of at least one alginate salt and comprising at least one biologically active substance, wherein said multiple solid particles are enclosed in said semi-permeable pouch, characterized in that said at least one alginate salt is at least one alginate salt of monovalent cation and said at least one biologically active substance is comprised within a matrix formed by said at least one alginate salt of monovalent cation and representing a substantially isolated environment for said at least one biologically active substance. a semi-permeable pouch designed for being placeable in an oral cavity of a subject; and multiple solid particles of at least one alginate salt and comprising at least one biologically active substance, wherein said multiple solid particles are enclosed in said semi-permeable pouch, characterized in that said at least one alginate salt is at least one alginate salt of monovalent cation and said at least one biologically active substance is comprised within a matrix formed by said at least one alginate salt of monovalent cation and representing a substantially isolated environment for said at least one biologically active substance.
Hollow camshaft for an internal combustion engine, comprising a drive wheel arranged on a longitudinal end side, in particular comprising a chain wheel or belt pulley, and comprising at least one first bearing arranged in the region of the drive wheel and a second bearing arranged in another part of the camshaft, characterised in that - at least the first bearing is in the form of a rolling bearing and has an internal diameter of approximately 24 mm < d i < 30 mm, the internal diameter d i being larger than the external diameter d a of the camshaft on the second bearing, - the first bearing is arranged on a bearing shoulder of the drive wheel, or - in that a bush is arranged on the camshaft in the region of the first bearing, on which bush the first bearing is mounted, the bush being pressed onto the camshaft or thermally joined thereto, or - in that the camshaft is expanded at the longitudinal end thereof, in particular in the region of the drive wheel, and the first bearing is arranged on the expanded region of the camshaft. - at least the first bearing is in the form of a rolling bearing and has an internal diameter of approximately 24 mm < d i < 30 mm, the internal diameter d i being larger than the external diameter d a of the camshaft on the second bearing, - the first bearing is arranged on a bearing shoulder of the drive wheel, or - in that a bush is arranged on the camshaft in the region of the first bearing, on which bush the first bearing is mounted, the bush being pressed onto the camshaft or thermally joined thereto, or - in that the camshaft is expanded at the longitudinal end thereof, in particular in the region of the drive wheel, and the first bearing is arranged on the expanded region of the camshaft.
Method for producing a plug connector, comprising the steps of: - stripping the sheath from a cable at a free end of the cable in a first region and in a second region, wherein the sheath of the cable is severed in the first region and the sheath of the cable and the shielding which is formed on the cable beneath the sheath are severed in the second region, - arranging a first electrically conductive spring element in the first region, - removing the sheath and the shielding in the second region so as to form an end section of the free end of the cable, in which section the cores of the cable are exposed, - arranging contact elements on the exposed cores of the cable, - arranging a shielding sleeve around the first spring element which is arranged in the first region, and - arranging an insulating housing in such a way that the insulating housing at least partially surrounds the shielding sleeve and the free end of the cable, characterized in that the shielding sleeve is fastened to the sheath of the cable in front of and behind the first spring element. - stripping the sheath from a cable at a free end of the cable in a first region and in a second region, wherein the sheath of the cable is severed in the first region and the sheath of the cable and the shielding which is formed on the cable beneath the sheath are severed in the second region, - arranging a first electrically conductive spring element in the first region, - removing the sheath and the shielding in the second region so as to form an end section of the free end of the cable, in which section the cores of the cable are exposed, - arranging contact elements on the exposed cores of the cable, - arranging a shielding sleeve around the first spring element which is arranged in the first region, and - arranging an insulating housing in such a way that the insulating housing at least partially surrounds the shielding sleeve and the free end of the cable, characterized in that the shielding sleeve is fastened to the sheath of the cable in front of and behind the first spring element.
An electric actuator, comprising: a motor; a motor case configured to accommodate the motor; and a motion conversion mechanism configured to convert a rotary motion generated through drive by the motor into a linear motion in a direction parallel to an output shaft of the motor, wherein the motion conversion mechanism comprises a movable part, which is arranged in parallel with the output shaft and is configured to perform the linear motion, wherein the movable part and the motor overlap one another in a radial direction of the motor, wherein a sensor target is arranged on the moveable part, and wherein a non-contact sensor configured to detect a position of the sensor target in a linear motion direction in a non-contact manner is arranged in the motor case, characterized in that a shaft cover configured to cover a periphery of the movable part is provided integrally with the motor case, and in that the non-contact sensor is mounted to a retreating portion, which is formed between a case main body out of the motor case and the shaft cover at a location, in which an outer peripheral surface of the motor case inwardly retreats. a motor; a motor case configured to accommodate the motor; and a motion conversion mechanism configured to convert a rotary motion generated through drive by the motor into a linear motion in a direction parallel to an output shaft of the motor, wherein the motion conversion mechanism comprises a movable part, which is arranged in parallel with the output shaft and is configured to perform the linear motion, wherein the movable part and the motor overlap one another in a radial direction of the motor, wherein a sensor target is arranged on the moveable part, and wherein a non-contact sensor configured to detect a position of the sensor target in a linear motion direction in a non-contact manner is arranged in the motor case, characterized in that a shaft cover configured to cover a periphery of the movable part is provided integrally with the motor case, and in that the non-contact sensor is mounted to a retreating portion, which is formed between a case main body out of the motor case and the shaft cover at a location, in which an outer peripheral surface of the motor case inwardly retreats.
A rocket propulsion system, which comprises: - a combustion chamber, - an oxygen supply system, which comprises an oxygen supply duct and is configured to supply oxygen to the combustion chamber, - a hydrogen supply system, which comprises a hydrogen supply duct and is configured to supply hydrogen to the combustion chamber, - an ignition unit, to which at least a portion of the oxygen supplied to the combustion chamber and at least a portion of the hydrogen supplied to the combustion chamber can be supplied and which is configured to initiate combustion of the oxygen-hydrogen mixture in the combustion chamber, and - a cooling duct, which extends along an inner surface of a combustion chamber wall and which is adapted to be flown through with at least a portion of the oxygen supplied to the combustion chamber or at least a portion of the hydrogen supplied to the combustion chamber, characterized in that the cooling duct comprises a section, which extends between an outer surface of the ignition unit and a section of the inner surface of the combustion chamber wall lying opposite the outer surface of the ignition unit and opens into a combustion section of the combustion chamber arranged downstream of an exit area of the ignition unit. - a combustion chamber, - an oxygen supply system, which comprises an oxygen supply duct and is configured to supply oxygen to the combustion chamber, - a hydrogen supply system, which comprises a hydrogen supply duct and is configured to supply hydrogen to the combustion chamber, - an ignition unit, to which at least a portion of the oxygen supplied to the combustion chamber and at least a portion of the hydrogen supplied to the combustion chamber can be supplied and which is configured to initiate combustion of the oxygen-hydrogen mixture in the combustion chamber, and - a cooling duct, which extends along an inner surface of a combustion chamber wall and which is adapted to be flown through with at least a portion of the oxygen supplied to the combustion chamber or at least a portion of the hydrogen supplied to the combustion chamber,
Non-therapeutic use of a disinfectant composition for skin disinfection, in the form of a gel comprising at least one alcohol, water and at least one thickening agent, characterized in that it further comprises water-insoluble particles which fall off at the end of an application time, selected from a group comprising waxes, polymers and/or inorganic substances, wherein the particles serve as an indicator for the predetermined application time, wherein a size of the particles is in a range of about 100 μm and about 1 mm and wherein the water-insoluble particles are present in an amount in a range of about 0.15 wt.-% to about 1.00 wt.-%, based on the total amount of the composition.
A cryogenic machine of the regenerative type, comprising: - a pressure oscillator, - at least one cold finger in fluid connection with the pressure oscillator, said machine being characterized in that the pressure oscillator comprises a centrifugal compressor and a fluid distribution member configured to alternately distribute high pressure and low pressure working fluid from the centrifugal compressor into said cold finger. - at least one cold finger in fluid connection with the pressure oscillator, said machine being characterized in that the pressure oscillator comprises a centrifugal compressor and a fluid distribution member configured to alternately distribute high pressure and low pressure working fluid from the centrifugal compressor into said cold finger.
A troubleshooting method, wherein the method comprises: monitoring (201, 301), by a virtualized network function, "VNF", an operating status of at least one virtual machine, "VM", comprising the VNF, for a fault occurring on the VM; when a fault occurs on the VM, determining (202, 303), by the VNF according to the fault, whether to perform rebuilding recovery of the VM; and sending (203, 304), by the VNF, a rebuilding recovery request to a virtualized network function manager, "VNFM", when determining to perform the VM rebuilding recovery, wherein the VNFM is configured to instruct, according to the rebuilding recovery request, a virtualized infrastructure manager, "VIM", to perform rebuilding recovery for the VM, characterized in that the rebuilding recovery request includes: a rebuild type used to instruct the VIM to perform rebuilding recovery corresponding to the rebuild type, and a VM identifier of the VM for determining a location of the VM. monitoring (201, 301), by a virtualized network function, "VNF", an operating status of at least one virtual machine, "VM", comprising the VNF, for a fault occurring on the VM; when a fault occurs on the VM, determining (202, 303), by the VNF according to the fault, whether to perform rebuilding recovery of the VM; and sending (203, 304), by the VNF, a rebuilding recovery request to a virtualized network function manager, "VNFM", when determining to perform the VM rebuilding recovery, wherein the VNFM is configured to instruct, according to the rebuilding recovery request, a virtualized infrastructure manager, "VIM", to perform rebuilding recovery for the VM, characterized in that the rebuilding recovery request includes: a rebuild type used to instruct the VIM to perform rebuilding recovery corresponding to the rebuild type, and a VM identifier of the VM for determining a location of the VM.
A conjugate of formula ConjA: ConjB: ConjC: ConjD: Or ConjE: Wherein Ab is an antibody that binds to CD22, the antibody comprising a VH domain paired with a VL domain, the VH and VL domains having sequences of SEQ ID NO. 1 paired with SEQ ID NO. 2; and wherein the drug loading (p) of drugs to antibody (Ab) is an integer from 1 to about 8.
A method for locating a user equipment, UE, performed by a first entity (105, 110-1, 110-2, 110-3, 110-4) in a wireless network, the method comprising: receiving a request for locating the UE from a second entity (152, 154, 110-1, 110-2) in the wireless network, wherein the request for locating the UE is based on a location request initiated by an external client and is received by the first entity from the second entity using control plane signaling, and wherein the request for locating the UE received by the first entity includes an indication of using user plane signaling to report the location information and an address to which the location information is to be reported; obtaining first location information for the UE using control plane signaling; and reporting the first location information for the UE to the external client using user plane signaling. receiving a request for locating the UE from a second entity (152, 154, 110-1, 110-2) in the wireless network, wherein the request for locating the UE is based on a location request initiated by an external client and is received by the first entity from the second entity using control plane signaling, and wherein the request for locating the UE received by the first entity includes an indication of using user plane signaling to report the location information and an address to which the location information is to be reported; obtaining first location information for the UE using control plane signaling; and reporting the first location information for the UE to the external client using user plane signaling.
An integrated hydrocracking process for producing diesel and/or naphtha product streams, respectively boiling in the range from 180 °C to 370 °C and 26 °C to 180 °C, from a vacuum gas oil feedstock, including: a. separating the vacuum gas oil feed into an aromatic-lean fraction and an aromatic-rich fraction; b. hydroprocessing the aromatic-rich fraction in a first hydroprocessing reaction zone at a temperature in the range of from 300 °C to 500 °C, a reaction pressure in the range of from 130 bars to 180 bars, a hydrogen feed rate up to 2500 standard liters per liter of hydrocarbon feed (SLt/Lt), and a feed rate in the range of from 0.25 h -1 to 3.0 h -1, to produce a first hydroprocessing reaction zone effluent; c. hydroprocessing the aromatic-lean fraction in a second hydroprocessing reaction zone at a reaction temperature in the range of from 300 °C to 500 °C, a reaction pressure in the range of from 60 bars to 100 bars, a hydrogen feed rate below 2500 SLt/Lt, and a feed rate in the range of from 1.0 h -1 to 5.0 h -1, to produce a second hydroprocessing reaction zone effluent; and d. fractionating the first hydroprocessing reaction zone effluent and second hydroprocessing reaction zone effluents to produce one or more diesel and/or naphtha product streams and a one or more bottoms streams. a. separating the vacuum gas oil feed into an aromatic-lean fraction and an aromatic-rich fraction; b. hydroprocessing the aromatic-rich fraction in a first hydroprocessing reaction zone at a temperature in the range of from 300 °C to 500 °C, a reaction pressure in the range of from 130 bars to 180 bars, a hydrogen feed rate up to 2500 standard liters per liter of hydrocarbon feed (SLt/Lt), and a feed rate in the range of from 0.25 h -1 to 3.0 h -1, to produce a first hydroprocessing reaction zone effluent; c. hydroprocessing the aromatic-lean fraction in a second hydroprocessing reaction zone at a reaction temperature in the range of from 300 °C to 500 °C, a reaction pressure in the range of from 60 bars to 100 bars, a hydrogen feed rate below 2500 SLt/Lt, and a feed rate in the range of from 1.0 h -1 to 5.0 h -1, to produce a second hydroprocessing reaction zone effluent; and d. fractionating the first hydroprocessing reaction zone effluent and second hydroprocessing reaction zone effluents to produce one or more diesel and/or naphtha product streams and a one or more bottoms streams.
A battery monitoring system for a battery having a plurality of cells, the system comprising: a plurality of refill control valves, one for each of the cells; a feed tube for directing a fluid to the refill control valves; a flow rate sensor in fluid communication with the feed tube to detect the flow rate of the fluid moving through the feed tube, the flow rate sensor providing an output; and a controller electrically coupled to the output of the flow rate sensor, wherein the controller is operable to: measure the flow rate of the fluid moving through the feed tube based on the output of the flow rate sensor; and determine an amount of the fluid added to the battery through the feed tube and the refill control valves during a period of time in which the measured flow rate exceeds a minimum flow rate. a plurality of refill control valves, one for each of the cells; a feed tube for directing a fluid to the refill control valves; a flow rate sensor in fluid communication with the feed tube to detect the flow rate of the fluid moving through the feed tube, the flow rate sensor providing an output; and a controller electrically coupled to the output of the flow rate sensor, wherein the controller is operable to: measure the flow rate of the fluid moving through the feed tube based on the output of the flow rate sensor; and determine an amount of the fluid added to the battery through the feed tube and the refill control valves during a period of time in which the measured flow rate exceeds a minimum flow rate. measure the flow rate of the fluid moving through the feed tube based on the output of the flow rate sensor; and determine an amount of the fluid added to the battery through the feed tube and the refill control valves during a period of time in which the measured flow rate exceeds a minimum flow rate.
A fabric, comprising: first strands that run along a first dimension; and interwoven second strands (28, 28-1, 28-2, 28-3) that run along a second dimension that is orthogonal to the first dimension, wherein the second strands include pairs of insulating strands that are interwoven with the first strands and include stacked strands (28I, 28C) located between opposing first and second insulating strands in each pair of insulating strands and wherein the stacked strands include conductive and insulating stacked strands, wherein the fabric has at least one portion in which one of the conductive stacked strands is sandwiched between a pair of the insulating stacked strands, wherein at least one of the first strands is a conductive first strand, and wherein the conductive first strand and the conductive stacked strand intersect at an open circuit intersection, in which the conductive first strand and the conductive stacked strand are isolated from each other. first strands that run along a first dimension; and interwoven second strands (28, 28-1, 28-2, 28-3) that run along a second dimension that is orthogonal to the first dimension, wherein the second strands include pairs of insulating strands that are interwoven with the first strands and include stacked strands (28I, 28C) located between opposing first and second insulating strands in each pair of insulating strands and wherein the stacked strands include conductive and insulating stacked strands, wherein the fabric has at least one portion in which one of the conductive stacked strands is sandwiched between a pair of the insulating stacked strands, wherein at least one of the first strands is a conductive first strand, and wherein the conductive first strand and the conductive stacked strand intersect at an open circuit intersection, in which the conductive first strand and the conductive stacked strand are isolated from each other.