mhurhangee/ep-ind-claims huggingface dataset:
A laryngoscope comprising a handle, an arm, and a sheath, wherein: the arm comprises walls, a light, and a camera, wherein the walls are structured and arranged such that the light and the camera are confined within the walls and wherein at least one of the walls is transparent; the arm is coupled to the handle, and the arm further comprises a sheath connector ridge located on the arm at a coupling point; the sheath is slideably coupled to the arm, the sheath comprising one or more clasps capable of cooperative coupling with said sheath connector ridge, and the sheath being removably couplable to the arm at the coupling point; the handle comprises an ejection switch, the ejection switch comprising an ejection rod and a plunger block comprising a protrusion; a retaining receptacle is arranged above the plunger block to nest the protrusion and maintain the ejection switch in a rest position; a return spring is coupled to the ejection switch to maintain the ejection rod in a retracted position as a rest state; and the sheath is arranged to be remotely ejectable by depressing the ejection switch on the handle to release a clasp of the one or more clasps at the sheath connection ridge located on the arm at the coupling point. the arm comprises walls, a light, and a camera, wherein the walls are structured and arranged such that the light and the camera are confined within the walls and wherein at least one of the walls is transparent; the arm is coupled to the handle, and the arm further comprises a sheath connector ridge located on the arm at a coupling point; the sheath is slideably coupled to the arm, the sheath comprising one or more clasps capable of cooperative coupling with said sheath connector ridge, and the sheath being removably couplable to the arm at the coupling point; the handle comprises an ejection switch, the ejection switch comprising an ejection rod and a plunger block comprising a protrusion; a retaining receptacle is arranged above the plunger block to nest the protrusion and maintain the ejection switch in a rest position; a return spring is coupled to the ejection switch to maintain the ejection rod in a retracted position as a rest state; and the sheath is arranged to be remotely ejectable by depressing the ejection switch on the handle to release a clasp of the one or more clasps at the sheath connection ridge located on the arm at the coupling point.
A method for treating process material using a plurality of autoclaves, each of the plurality of autoclaves comprising a hollow vessel having a longitudinal axis and an interior for receiving process material to be treated, wherein each of the plurality of autoclaves cycles through the following: introducing steam from one or more of the plurality of autoclaves to the interior of the vessel of another of the one or more of the plurality of autoclaves; increasing a temperature within the vessel by adding heat to the interior of the vessel using an indirect heat source; reducing the temperature and pressure within the vessel by flashing a portion of the steam within the interior of the vessel to another one of the plurality of vessels while maintaining the temperature in the vessel within the range of the process material cooking temperature; increasing the temperature within the vessel by continuing to add heat to the interior of the vessel using the indirect heat source after flashing the portion of the steam within the interior of the vessel; reducing a moisture content of the process material in the interior of vessel to a predetermined value with the heat from the indirect heat source; and venting a remaining portion of the steam to another one of the plurality of vessels. introducing steam from one or more of the plurality of autoclaves to the interior of the vessel of another of the one or more of the plurality of autoclaves; increasing a temperature within the vessel by adding heat to the interior of the vessel using an indirect heat source; reducing the temperature and pressure within the vessel by flashing a portion of the steam within the interior of the vessel to another one of the plurality of vessels while maintaining the temperature in the vessel within the range of the process material cooking temperature; increasing the temperature within the vessel by continuing to add heat to the interior of the vessel using the indirect heat source after flashing the portion of the steam within the interior of the vessel; reducing a moisture content of the process material in the interior of vessel to a predetermined value with the heat from the indirect heat source; and venting a remaining portion of the steam to another one of the plurality of vessels.
A device for testing MEMS hysteresis, comprising: at least one MEMS digital variable capacitor, DVC, device, the MEMS device comprising a movable plate, an RF electrode, one or more pull-down electrodes and one or more pull-up electrodes; a first switch coupled to either the one or more pull-down electrodes or the one or more pull-up electrodes, wherein the first switch is additionally coupled to ground; a second switch coupled to either the one or more pull-down electrodes or the one or more pull-up electrodes; and a power management system coupled to the second switch, wherein the at least one MEMS device, the first switch, the second switch and the power management system are all disposed in a single package, and the first switch and the second switch are both coupled to the one or more pull-down electrodes, or the first switch and the second switch are both coupled to the one or more one or more pull-up electrodes; wherein the power management system causes the movable plate to move between the one or more pull-down electrodes and the one or more pull-up electrodes for testing the hysteresis behaviour of the MEMS digital variable capacitor, DVC device. at least one MEMS digital variable capacitor, DVC, device, the MEMS device comprising a movable plate, an RF electrode, one or more pull-down electrodes and one or more pull-up electrodes; a first switch coupled to either the one or more pull-down electrodes or the one or more pull-up electrodes, wherein the first switch is additionally coupled to ground; a second switch coupled to either the one or more pull-down electrodes or the one or more pull-up electrodes; and a power management system coupled to the second switch, wherein the at least one MEMS device, the first switch, the second switch and the power management system are all disposed in a single package, and the first switch and the second switch are both coupled to the one or more pull-down electrodes, or the first switch and the second switch are both coupled to the one or more one or more pull-up electrodes; wherein the power management system causes the movable plate to move between the one or more pull-down electrodes and the one or more pull-up electrodes for testing the hysteresis behaviour of the MEMS digital variable capacitor, DVC device.
A composite separation membrane which comprises: a porous support; and a separation functional layer formed on the porous support, wherein the separation functional layer is a polyamide membrane having a first layer portion which is composed of a single polyamide membrane that is corrugated in the thickness direction of the separation functional layer to form a plurality of projections (15a-15e), the first layer portion covering the entire surface of the porous support, and a second layer portion which is formed of a polyamide membrane that branches off from one or some of the projections (15a, 15b) and that covers at least one or some of the projections (15c, 15d), characterized in that the second layer portion covers 50 to 90% of a region where the first layer portion is formed, when observed in a direction perpendicular to the surface of the composite separation membrane. a porous support; and a separation functional layer formed on the porous support, wherein the separation functional layer is a polyamide membrane having a first layer portion which is composed of a single polyamide membrane that is corrugated in the thickness direction of the separation functional layer to form a plurality of projections (15a-15e), the first layer portion covering the entire surface of the porous support, and a second layer portion which is formed of a polyamide membrane that branches off from one or some of the projections (15a, 15b) and that covers at least one or some of the projections (15c, 15d), characterized in that the second layer portion covers 50 to 90% of a region where the first layer portion is formed, when observed in a direction perpendicular to the surface of the composite separation membrane.
A hand tool comprising: a hand-holdable body; a tool member coupled to the body; a field generator coupled to the body, the field generator operable to emit a field for detection by a sensor of a position-sensing system, the field permitting determination of the position of the sensor relative to the field generator; and a correction unit configured to correct a position of the sensor based at least in part on the determined position of the sensor relative to an axis of the tool member and a fixed point on the tool member to which the field generator has a known spatial relationship, wherein the field generator is coupled to the body by an adjustable coupling permitting the field generator to be moved relative to the body and wherein the tool member has an axis of rotation and the coupling is configured to permit rotation of the field generator about the axis of rotation of the tool member, characterised in that the tool comprises a plurality of mounting couplings that are angularly spaced apart around the axis of rotation, and the field generator is detachably affixable to each of the plurality of mounting couplings. a hand-holdable body; a tool member coupled to the body; a field generator coupled to the body, the field generator operable to emit a field for detection by a sensor of a position-sensing system, the field permitting determination of the position of the sensor relative to the field generator; and a correction unit configured to correct a position of the sensor based at least in part on the determined position of the sensor relative to an axis of the tool member and a fixed point on the tool member to which the field generator has a known spatial relationship, wherein the field generator is coupled to the body by an adjustable coupling permitting the field generator to be moved relative to the body and wherein the tool member has an axis of rotation and the coupling is configured to permit rotation of the field generator about the axis of rotation of the tool member, characterised in that the tool comprises a plurality of mounting couplings that are angularly spaced apart around the axis of rotation, and the field generator is detachably affixable to each of the plurality of mounting couplings.
A centrifuge for rotating a sample carrier having at least one container for receiving a liquid sample, having a rotatable rotor having at least one receiving section for receiving the sample carrier, and a rotor chamber, in which the rotor is arranged, wherein the centrifuge has at least one radiation source (6, 22) for emitting radiation into the rotor chamber with a wavelength of at most 350 nm, wherein the rotor chamber is delimited by a rotor housing, characterized in that the radiation source (6, 22) has an emitter which is connected to the rotor housing in a thermally conductive manner by means of a heat transfer section.
A user equipment, UE, comprising: a receiving unit configured to receive from an evolved NodeB, eNB, a system information block for device-to-device, D2D, services and a system information block for Vehicle-to-Everything, V2X, service, the system information block for V2X service being different from the system information block for D2D services and including at least an information element indicating resource pool configuration for the V2X service, and a transmitting unit configured to transmit V2X related UE side information indicating a frequency layer for the V2X service. a receiving unit configured to receive from an evolved NodeB, eNB, a system information block for device-to-device, D2D, services and a system information block for Vehicle-to-Everything, V2X, service, the system information block for V2X service being different from the system information block for D2D services and including at least an information element indicating resource pool configuration for the V2X service, and a transmitting unit configured to transmit V2X related UE side information indicating a frequency layer for the V2X service.
A recombinant vaccinia virus comprising an expression promoter and a cDNA of hepatitis C virus genome, which cDNA is: (a) DNA represented by SEQ ID NO:2; or (b) DNA that hybridizes with DNA having a nucleotide sequence complementary to the nucleotide sequence represented by SEQ ID NO:2 under stringent conditions, that has 95% or more homology with the nucleotide sequence represented by SEQ ID NO: 2 and that codes for the nonstructural protein of hepatitis C virus. (a) DNA represented by SEQ ID NO:2; or (b) DNA that hybridizes with DNA having a nucleotide sequence complementary to the nucleotide sequence represented by SEQ ID NO:2 under stringent conditions, that has 95% or more homology with the nucleotide sequence represented by SEQ ID NO: 2 and that codes for the nonstructural protein of hepatitis C virus.
Disposable injector with a housing in which or on which are arranged, in each case at least in some regions, at least one mechanical spring energy reservoir, at least one cylinder/piston unit that can be filled at least temporarily with active substance, at least one piston-actuating ram and at least one trigger unit, - wherein the piston-actuating ram is positioned between the spring energy reservoir and the piston of the cylinder/piston unit, - wherein the spring energy reservoir comprises at least one pre-tensioned spring element, - wherein the spring-loaded piston-actuating ram has a ram plate, - wherein the spring-loaded piston-actuating ram is supported on the housing at the ram plate via at least one support rod, - wherein the individual support rod is in each case integrally formed on the housing and constitutes an elastic flexural beam, - wherein the contact zone located between an individual support rod and the ram plate constitutes a wedge gear pairing that forces the respective support rod radially outwards, - wherein the support rods bear on, and press radially outwards, at least one trigger element mounted on the housing and positioned in a blocking position, - wherein the trigger element, as part of a trigger unit, can be brought by displacement to a triggering position that releases the piston-actuating ram and has no supporting action, characterized in that the ram plate is for supporting the spring energy reservoir, in that the diameter of the piston slide is slightly smaller than the internal diameter of the cylinder of the cylinder/piston unit, and in that the diameter of the ram plate is a few tenths of a millimetre smaller than the internal diameter of the housing, and in that the trigger element is a slide sleeve mounted slidably on the outside of the housing. - wherein the piston-actuating ram is positioned between the spring energy reservoir and the piston of the cylinder/piston unit, - wherein the spring energy reservoir comprises at least one pre-tensioned spring element, - wherein the spring-loaded piston-actuating ram has a ram plate, - wherein the spring-loaded piston-actuating ram is supported on the housing at the ram plate via at least one support rod, - wherein the individual support rod is in each case integrally formed on the housing and constitutes an elastic flexural beam, - wherein the contact zone located between an individual support rod and the ram plate constitutes a wedge gear pairing that forces the respective support rod radially outwards, - wherein the support rods bear on, and press radially outwards, at least one trigger element mounted on the housing and positioned in a blocking position, - wherein the trigger element, as part of a trigger unit, can be brought by displacement to a triggering position that releases the piston-actuating ram and has no supporting action,
A centrifugal compressor, which comprises a compressor head, a motor, a cooler, a support frame, a bearing beam and a chassis; the cooler and the support frame are fixedly mounted on the chassis; the bearing beam is disposed above the cooler and the support frame, the support frame supports the bearing beam; the compressor head and the motor are disposed above the bearing beam and fixedly mounted on the bearing beam, characterized in that, a first damping pad is provided between the support frame and the bearing beam, the first damping pad being fixedly connected to the support frame and the bearing beam, respectively.
Multi component fibres for the reduction of the damaging activity of wound exudate components such as protein degrading enzymes and inflammatory mediators in wounds, the fibres comprising: from 10% to 100% by weight of the fibres of pectin and a sacrificial proteinaceous material in a weight ratio of 90:10 to 10:90 pectin to sacrificial proteinaceous material, wherein the pectin is low methoxy pectin with a methoxyl content lower than 15%, or amidated pectin with a degree of esterification in a range from 10 to 30% and a degree of amidation comprised between 10 and 30%; and from 0% to 90% by weight of the fibres of another polysaccharide or a water soluble polymer, wherein the sacrificial proteinaceous material is selected from gelatin, collagen, whey, soy, casein or albumin. from 10% to 100% by weight of the fibres of pectin and a sacrificial proteinaceous material in a weight ratio of 90:10 to 10:90 pectin to sacrificial proteinaceous material, wherein the pectin is low methoxy pectin with a methoxyl content lower than 15%, or amidated pectin with a degree of esterification in a range from 10 to 30% and a degree of amidation comprised between 10 and 30%; and from 0% to 90% by weight of the fibres of another polysaccharide or a water soluble polymer, wherein the sacrificial proteinaceous material is selected from gelatin, collagen, whey, soy, casein or albumin.
A replaceable cartridge for a chlorinator, comprising: a cartridge body removable from the chlorinator, the cartridge body having a plurality of electrically-chargeable plates; and a printed circuit board positioned in said cartridge body and in electrical communication with said electrically-chargeable plates, said printed circuit board including a non-volatile memory for storing information relating to operation of the replaceable cartridge; wherein said cartridge body houses said non-volatile memory, said printed circuit board, and said electrically-chargeable plates; wherein said cartridge body, said non-volatile memory, said printed circuit board and said electrically-chargeable plates form a single unit removable from the chlorinator; and wherein said electrically-chargeable plates and said cartridge body of said single unit are positioned along a first axis defining a fluid flow path such that fluid enters, exits and flows through said electrically-chargeable plates and said cartridge body of said single unit along the first axis, the first axis being transverse to a second axis along which the single unit is removable from the chlorinator. a cartridge body removable from the chlorinator, the cartridge body having a plurality of electrically-chargeable plates; and a printed circuit board positioned in said cartridge body and in electrical communication with said electrically-chargeable plates, said printed circuit board including a non-volatile memory for storing information relating to operation of the replaceable cartridge; wherein said cartridge body houses said non-volatile memory, said printed circuit board, and said electrically-chargeable plates; wherein said cartridge body, said non-volatile memory, said printed circuit board and said electrically-chargeable plates form a single unit removable from the chlorinator; and wherein said electrically-chargeable plates and said cartridge body of said single unit are positioned along a first axis defining a fluid flow path such that fluid enters, exits and flows through said electrically-chargeable plates and said cartridge body of said single unit along the first axis, the first axis being transverse to a second axis along which the single unit is removable from the chlorinator.
A mito-ATO compound of formula wherein X is selected from an unsubstituted C 1 -C 20 alkyl, substituted C 1 -C 20 alkyl, C 2 -C 20 alkenyl, phenyl, phenyl substituted C 1 -C 20 alkyl, cycloalkyl substituted C 1 -C 20 alkyl, an aminoacid, and polyethylene glycol; each Y is independently selected from -H, -CF 3, methyl (Me), Cl, OMe, C CH 3, NO 2, and N(Me) 2; R is selected from H, F, Cl, Br, and I; and Z - is selected from halogen, 2,2,2-trifluoroacetic acid, HO -, RCOO -, and acetic acid. X is selected from an unsubstituted C 1 -C 20 alkyl, substituted C 1 -C 20 alkyl, C 2 -C 20 alkenyl, phenyl, phenyl substituted C 1 -C 20 alkyl, cycloalkyl substituted C 1 -C 20 alkyl, an aminoacid, and polyethylene glycol; each Y is independently selected from -H, -CF 3, methyl (Me), Cl, OMe, C CH 3, NO 2, and N(Me) 2; R is selected from H, F, Cl, Br, and I; and Z - is selected from halogen, 2,2,2-trifluoroacetic acid, HO -, RCOO -, and acetic acid.
An alarm for detecting damage to a multiple glazed window unit, the alarm comprising: a humidity sensor positioned between panes of glazing in the multiple-glazed window unit; and a movement sensor positioned between panes of glazing in the multiple-glazed window unit, the movement sensor being a vibration sensor, an acoustic sensor, a mechanical shock sensor, or a piezo-electric sonic sensor; and a storage registry to store detected values of humidity; wherein, when the movement sensor detects movement of the multiple-glazed window unit, the humidity sensor compares the current detected humidity in the multiple-glazed window unit with a previously stored detected humidity, and if the humidity has changed by a predetermined threshold, a damage alarm is triggered. a humidity sensor positioned between panes of glazing in the multiple-glazed window unit; and a movement sensor positioned between panes of glazing in the multiple-glazed window unit, the movement sensor being a vibration sensor, an acoustic sensor, a mechanical shock sensor, or a piezo-electric sonic sensor; and a storage registry to store detected values of humidity; wherein, when the movement sensor detects movement of the multiple-glazed window unit, the humidity sensor compares the current detected humidity in the multiple-glazed window unit with a previously stored detected humidity, and if the humidity has changed by a predetermined threshold, a damage alarm is triggered.