mhurhangee/ep-ind-claims huggingface dataset:
A method of producing vials containing a liquid composition comprising a recombinant protein, the method comprising: a. providing a container containing a composition comprising a recombinant protein optionally wherein the container has been stored under positive pressure; b. applying a vacuum to the container; c. allowing the vacuum to degas the composition; and filling vials with the degassed composition comprising a recombinant protein, wherein a bubble indicator value is at least 5.9 and is calculated using the following formula: BI = h a ∗ t ∗ 1000 / h l ∗ PV, wherein V= volume of solution (mL) P=degassing vacuum (mbar) t=degassing time (hr) h 1 =height of liquid (cm) (calculated assuming tank is cylinder) and h a =height of air/headspace (cm). a. providing a container containing a composition comprising a recombinant protein optionally wherein the container has been stored under positive pressure; b. applying a vacuum to the container; c. allowing the vacuum to degas the composition; and V= volume of solution (mL) P=degassing vacuum (mbar) t=degassing time (hr) h 1 =height of liquid (cm) (calculated assuming tank is cylinder) and h a =height of air/headspace (cm).
A valve for a cylinder with pressurized gas, said cylinder comprising a tank with pressurized gas and said valve being configured to seal the pressurized gas of the tank, said tank comprising a threaded opening and said valve comprising an at least partially threaded connection adapted to couple with the threaded opening of the tank, characterized in that it comprises a metal ring arranged so as to wind a portion of the connection of the valve, said metal ring being configured to damage a portion of the threaded opening of the tank during the coupling of the valve with the tank.
A process for scrubbing CO 2 from industrial gas streams through a cyclic pressurized carbonator reactor to produce high purity carbonates/bicarbonates, and pure CO 2 streams, wherein the said carbonator reactor comprises a steel tank with stirrer and cooled double walls, a heat exchanger that cools the carbonator, a coolant volume, a cooled surface area, an Impeller that disperses the gas, preferably three baffles that extend through almost all of the working volume of the said tank, motors with variable speed drives, and the shaft seal is preferably of a double mechanical type with cooling, and wherein said industrial gas stream including the CO 2 is fed into the carbonator reactor and bubbled to react with soluble hydroxide and saturated carbonates/bicarbonates mixture, producing precipitates of high purity carbonates/bicarbonates in a slurry, characterised in that said impeller is mounted on a hollow shaft drawing gas from the gas volume at the top of the reactor.
A drive device, which comprises: a component carrier which comprises a stack comprising at least one electrically conductive layer structure and at least one electrically insulating layer structure and a cavity formed in the stack; a driven body arranged at least partially in the cavity and configured for being drivable to move relative to the component carrier, wherein the driven body is plate-shaped; at least one drive coil for creating a magnetic drive field; at least one drive magnet arranged for interacting with the magnetic drive field created by the at least one drive coil to thereby generate a force for moving the driven body relative to the component carrier; wherein one of the at least one drive magnet and the at least one drive coil forms part of the component carrier and the other one of the at least one drive magnet and the at least one drive coil forms part of the driven body. a component carrier which comprises a stack comprising at least one electrically conductive layer structure and at least one electrically insulating layer structure and a cavity formed in the stack; a driven body arranged at least partially in the cavity and configured for being drivable to move relative to the component carrier, wherein the driven body is plate-shaped; at least one drive coil for creating a magnetic drive field; at least one drive magnet arranged for interacting with the magnetic drive field created by the at least one drive coil to thereby generate a force for moving the driven body relative to the component carrier; wherein one of the at least one drive magnet and the at least one drive coil forms part of the component carrier and the other one of the at least one drive magnet and the at least one drive coil forms part of the driven body.
A system (200, 300) for treating a patient, the system comprising: a cerebrospinal fluid, CSF, shunt configured for deployment through a venous system of the patient, the shunt comprising a proximal portion, a distal portion having a distal anchoring mechanism, and a shunt lumen in fluid communication with one or more distal openings in the distal portion and one or more proximal openings in the proximal portion; and a delivery system configured for creating an anastomosis between an inferior petrosal sinus and a CSF-filled subarachnoid space of the patient, and for deploying the shunt in the anastomosis with the distal portion of the shunt positioned in the subarachnoid space, such that, when the shunt is deployed in the anastomosis, CSF flows from the subarachnoid space through the one or more distal openings, lumen, and one or more proximal openings of the shunt, respectively, into the venous system of the patient, the delivery system further comprising a delivery catheter (304, 304') having a tissue penetrating distal tip (306, 352), a delivery catheter lumen (305, 341), and an open distal end in communication with the delivery catheter lumen (305, 341), wherein the delivery catheter lumen (305, 341) is configured to carry the shunt through a passage of the venous system of the patient for deployment in the anastomosis. a cerebrospinal fluid, CSF, shunt configured for deployment through a venous system of the patient, the shunt comprising a proximal portion, a distal portion having a distal anchoring mechanism, and a shunt lumen in fluid communication with one or more distal openings in the distal portion and one or more proximal openings in the proximal portion; and a delivery system configured for creating an anastomosis between an inferior petrosal sinus and a CSF-filled subarachnoid space of the patient, and for deploying the shunt in the anastomosis with the distal portion of the shunt positioned in the subarachnoid space, such that, when the shunt is deployed in the anastomosis, CSF flows from the subarachnoid space through the one or more distal openings, lumen, and one or more proximal openings of the shunt, respectively, into the venous system of the patient, the delivery system further comprising a delivery catheter (304, 304') having a tissue penetrating distal tip (306, 352), a delivery catheter lumen (305, 341), and an open distal end in communication with the delivery catheter lumen (305, 341), wherein the delivery catheter lumen (305, 341) is configured to carry the shunt through a passage of the venous system of the patient for deployment in the anastomosis.
A system comprising: a memory storing instructions; and a processor communicatively coupled to the memory and configured to execute the instructions to: determine, based on data received from an active imaging device (302, 404-1) configured to capture imagery of an internal view of a body, a device-specific parameter characterizing an extent of a field of view of the active imaging device (302, 404-1), determine a spatial pose of the active imaging device (302, 404-1) as the active imaging device (302, 404-1) captures the imagery of the internal view of the body, and based on the device-specific parameter and the spatial pose of the active imaging device (302, 404-1), direct a display device to display, together with an external view of the body, a shape overlay (420, 500, 702, 802, 902, 1002, 1302, 1402) indicative of the extent of the field of view relative to the body. a memory storing instructions; and a processor communicatively coupled to the memory and configured to execute the instructions to: determine, based on data received from an active imaging device (302, 404-1) configured to capture imagery of an internal view of a body, a device-specific parameter characterizing an extent of a field of view of the active imaging device (302, 404-1), determine a spatial pose of the active imaging device (302, 404-1) as the active imaging device (302, 404-1) captures the imagery of the internal view of the body, and based on the device-specific parameter and the spatial pose of the active imaging device (302, 404-1), direct a display device to display, together with an external view of the body, a shape overlay (420, 500, 702, 802, 902, 1002, 1302, 1402) indicative of the extent of the field of view relative to the body. determine, based on data received from an active imaging device (302, 404-1) configured to capture imagery of an internal view of a body, a device-specific parameter characterizing an extent of a field of view of the active imaging device (302, 404-1), determine a spatial pose of the active imaging device (302, 404-1) as the active imaging device (302, 404-1) captures the imagery of the internal view of the body, and based on the device-specific parameter and the spatial pose of the active imaging device (302, 404-1), direct a display device to display, together with an external view of the body, a shape overlay (420, 500, 702, 802, 902, 1002, 1302, 1402) indicative of the extent of the field of view relative to the body.
A self-propelled vehicle having a longitudinal axis and comprising: a chassis; first and second rear drive wheels fixed to the chassis, each wheel being driven and controlled by a separate drive system; first and second front caster wheels connected to the chassis, the first and second front caster wheels being rotatably mounted about a rotational axis, pivotally connected about a vertical pivot axis at a swivel joint, and suspended by a suspension system comprising a suspension element; an operator station forward of the driven rear wheels with at least a portion of the operator station overlapping the front caster wheels along the longitudinal axis; a suspension system control connected to the suspension element;and a control system to control the rate of rotation of the drive rear wheels, the control system being capable of controlling the rear wheels in at least a counter-steering mode in which the rear wheels rotate in opposite directions and a zero-turn steering mode in which one rear wheel is stationary while the other wheel rotates, wherein the suspension system control is suspended in the counter-steering mode and the zero-turn steering mode. a chassis; first and second rear drive wheels fixed to the chassis, each wheel being driven and controlled by a separate drive system; first and second front caster wheels connected to the chassis, the first and second front caster wheels being rotatably mounted about a rotational axis, pivotally connected about a vertical pivot axis at a swivel joint, and suspended by a suspension system comprising a suspension element; an operator station forward of the driven rear wheels with at least a portion of the operator station overlapping the front caster wheels along the longitudinal axis; a suspension system control connected to the suspension element;and a control system to control the rate of rotation of the drive rear wheels, the control system being capable of controlling the rear wheels in at least a counter-steering mode in which the rear wheels rotate in opposite directions and a zero-turn steering mode in which one rear wheel is stationary while the other wheel rotates, wherein the suspension system control is suspended in the counter-steering mode and the zero-turn steering mode.
A mover for a linear motor system, comprising: a magnet subassembly; a magnetic structure disposed on at least one side of the magnet subassembly and creating with the magnetic subassembly a resultant magnetic field, the magnetic structure being centered on a center of a magnetic field of the magnet subassembly; and a body structure mounted on or with reference to the magnetic structure to position a physical center of the body structure at approximately the detected center of the resultant magnetic field of the magnet subassembly; wherein the magnetic structure comprises a top plate and two lateral plates (50, 52), the top plate comprises lateral slots (60, 62), and each of the lateral plates (50, 52) comprise a tab (54, 56) that enters into a respective slot (60, 62) of the top plate when the plates (54, 56, 58) are positioned around the magnet subassembly; characterized in that gaps (76, 78) are formed between each tab (54, 56) and the respective slot (60, 62), the gaps (76, 78) being configured to enable lateral movement of the top plate to center the magnetic structure on the detected center of the resultant magnetic field of the magnet subassembly. a magnet subassembly; a magnetic structure disposed on at least one side of the magnet subassembly and creating with the magnetic subassembly a resultant magnetic field, the magnetic structure being centered on a center of a magnetic field of the magnet subassembly; and a body structure mounted on or with reference to the magnetic structure to position a physical center of the body structure at approximately the detected center of the resultant magnetic field of the magnet subassembly; wherein the magnetic structure comprises a top plate and two lateral plates (50, 52), the top plate comprises lateral slots (60, 62), and each of the lateral plates (50, 52) comprise a tab (54, 56) that enters into a respective slot (60, 62) of the top plate when the plates (54, 56, 58) are positioned around the magnet subassembly; characterized in that gaps (76, 78) are formed between each tab (54, 56) and the respective slot (60, 62), the gaps (76, 78) being configured to enable lateral movement of the top plate to center the magnetic structure on the detected center of the resultant magnetic field of the magnet subassembly.
A powdered milk product comprising angiogenin and/or angiogenin hydrolysate in an amount of 1.4 to 24 mg/15 g and cystatin and/or cystatin hydrolysate in the mass ratio to the angiogenin and/or angiogenin hydrolysate of 0.03 to 1.3.
A coating composition comprising a binder composition, the binder composition comprising a polyester material, wherein the polyester material comprises the reaction product of; (a) a polyacid, (b) a polyol and (c) a phosphorous acid, wherein the polyester material has a number-average molecular weight (Mn) from 5,000 Da to 25,000 Da, wherein the number-average molecular weight is measured as specified in the description; and wherein the polydispersity index (Mw/Mn) of the polyester material is from 1 to 10; and wherein the polyester material is present in said binder composition in amounts of more than 10 weight percent (wt%) based on the total solid weight of the binder composition. (a) a polyacid, (b) a polyol and (c) a phosphorous acid, wherein the polyester material has a number-average molecular weight (Mn) from 5,000 Da to 25,000 Da, wherein the number-average molecular weight is measured as specified in the description; and wherein the polydispersity index (Mw/Mn) of the polyester material is from 1 to 10; and wherein the polyester material is present in said binder composition in amounts of more than 10 weight percent (wt%) based on the total solid weight of the binder composition.
A curing apparatus having at least one UV module, wherein the UV module has at least one UV light source for irradiating the inner wall of a pipe, wherein the UV module that has been introduced into the pipe is connected, by means of a cable of the curing apparatus, to a control device of the curing apparatus that is situated outside of the pipe, characterized in that each UV module has at least one operating appliance of the curing device connected to the cable and the UV light source, the control device being set up to control each operating appliance via the cable for operating the UV light source, each operating appliance having a power supply circuit which is designed to control or regulate the operating current of the UV light source, wherein the operating appliance of each UV light source has an input-side rectifier connected to the power supply line and an inverter connected to the rectifier and controlled by a microcontroller, wherein the inverter is connected on the output side to the UV light source, the cable comprising two or more wires as a power supply line and two or more further wires as a data line, two or more operating appliances being connected in parallel to the power supply line and the data line, wherein via the data line a bidirectional communication between the control device and the operating appliances takes place in order to control and monitor the UV light sources individually.
An organic electroluminescence device comprising an anode; an emitting player; and a cathode, wherein the emitting layer comprises a first compound and a second compound, the first compound is a thermally activated delayed fluorescent compound, the second compound is a fluorescent compound, wherein said second compound is one selected from the group consisting of a bisarylamino pyrene derivative, an aryl-substituted pyrene derivative, a bisarylamino chrysene derivative, an aryl-substituted chrysene derivative, a bisarylamino fluoranthene derivative, an aryl-substituted fluoranthene derivative, an indenoperylene derivative, a pyrromethene boron complex compound, a compound having a pyrromethene skeleton or a metal complex thereof, a diketopyrrolopyrrole derivative, and a perylene derivative, an emission quantum efficiency of the first compound is 70% or less, said emission quantum efficiency is determined as described in the specification, and an ionization potential Ip1 of the first compound and an ionization potential Ip2 of the second compound satisfy a relationship of 0 ≤ Ip2 − Ip1 ≤ 0.8 eV and the emitting layer further comprises a third compound, and a singlet energy of the third compound is larger than a singlet energy of the first compound. an anode; an emitting player; and a cathode, wherein the emitting layer comprises a first compound and a second compound, the first compound is a thermally activated delayed fluorescent compound, the second compound is a fluorescent compound, wherein said second compound is one selected from the group consisting of a bisarylamino pyrene derivative, an aryl-substituted pyrene derivative, a bisarylamino chrysene derivative, an aryl-substituted chrysene derivative, a bisarylamino fluoranthene derivative, an aryl-substituted fluoranthene derivative, an indenoperylene derivative, a pyrromethene boron complex compound, a compound having a pyrromethene skeleton or a metal complex thereof, a diketopyrrolopyrrole derivative, and a perylene derivative, an emission quantum efficiency of the first compound is 70% or less, said emission quantum efficiency is determined as described in the specification, and an ionization potential Ip1 of the first compound and an ionization potential Ip2 of the second compound satisfy a relationship of 0 ≤ Ip2 − Ip1 ≤ 0.8 eV and the emitting layer further comprises a third compound, and a singlet energy of the third compound is larger than a singlet energy of the first compound.
A wedge for use between rotor poles of a generator for supporting windings of the poles, comprising: a plurality of outer walls; and at least one fluid orifice extending through at least one of the plurality of outer walls parallel to an axis of a generator with which the wedge is configured for use and configured to receive a fluid from a shaft of the generator and to allow the fluid to flow through the at least one of the plurality of outer walls to reduce a temperature of the windings; wherein the plurality of outer walls includes three radially outward walls (202,204,206) and two radially inward walls (208, 210) that are configured to join at a junction proximal to the shaft and are each curved, the plurality of outer walls together defining an internal wedge cavity. a plurality of outer walls; and at least one fluid orifice extending through at least one of the plurality of outer walls parallel to an axis of a generator with which the wedge is configured for use and configured to receive a fluid from a shaft of the generator and to allow the fluid to flow through the at least one of the plurality of outer walls to reduce a temperature of the windings; wherein the plurality of outer walls includes three radially outward walls (202,204,206) and two radially inward walls (208, 210) that are configured to join at a junction proximal to the shaft and are each curved, the plurality of outer walls together defining an internal wedge cavity.
An anchor device intended to retain insulating blocks against a supporting wall, wherein the anchor device includes: a clamping assembly including a lower plate, an upper plate parallel to the lower plate, a connecting member connecting the lower plate to the upper plate and a spacing member arranged between the lower plate and the upper plate, the spacing member including an abutment part defining a minimum spacing between the lower plate and the upper plate in an abutment position of the lower and upper plates against the abutment part, the abutment part comprising a rigid part and an anchor rod projecting from the clamping assembly perpendicularly to the lower plate, the anchor rod including a lower end intended to be attached to a supporting wall and an upper end opposite the lower end and coupled to the lower plate to be able to exert traction on the lower plate in the direction of the lower end, the anchor device being characterised in that the spacing member further includes an elastically compressible member (39, 69) tending to maintain the lower plate and the upper plate in an apart position, the connecting member defining a maximum spacing between the lower plate and the upper plate in the apart position, said maximum spacing being greater than said minimum spacing, the elastically compressible member (39, 69) being configured to be compressed elastically as far as said abutment position of the lower and upper plates (31, 32) against the abutment part in response to a force tending to move the upper plate toward the lower plate. a clamping assembly including a lower plate, an upper plate parallel to the lower plate, a connecting member connecting the lower plate to the upper plate and a spacing member arranged between the lower plate and the upper plate, the spacing member including an abutment part defining a minimum spacing between the lower plate and the upper plate in an abutment position of the lower and upper plates against the abutment part, the abutment part comprising a rigid part and an anchor rod projecting from the clamping assembly perpendicularly to the lower plate, the anchor rod including a lower end intended to be attached to a supporting wall and an upper end opposite the lower end and coupled to the lower plate to be able to exert traction on the lower plate in the direction of the lower end, the anchor device being characterised in that the spacing member further includes an elastically compressible member (39, 69) tending to maintain the lower plate and the upper plate in an apart position, the connecting member defining a maximum spacing between the lower plate and the upper plate in the apart position, said maximum spacing being greater than said minimum spacing, the elastically compressible member (39, 69) being configured to be compressed elastically as far as said abutment position of the lower and upper plates (31, 32) against the abutment part in response to a force tending to move the upper plate toward the lower plate.