mhurhangee/ep-ind-claims huggingface dataset:
Compression apparatus for applying cyclical compression to an appendage of the body for use in deep vein thrombosis prophylaxis, the compression apparatus comprising: an inflatable bladder (24a, 24b, 24c) for being at least partially wrapped around the appendage; a controller adapted for fluid connection to the bladder (24a, 24b, 24c) for cyclically inflating and deflating the bladder (24a, 24b, 24c) to selectively apply and remove compression from the appendage; hook material including a multiplicity of hooks; loop material including a multiplicity of loops characterized in that the loop material has a first color and defines a colored hook-engagement area, the loops being engageable by the hooks of the hook material when the inflatable bladder is wrapped at least partially around the appendage for use in holding the inflatable bladder on the appendage, the loop material further including an other area separate from the hook-engagement area, the loops in the other area having a second color different from the first, the loops of the loop material having the first color being adapted to be broken by repeated connection and disconnection of the hook material with the loop material so that the first color of the hook-engagement area becomes less distinct from the second color. an inflatable bladder (24a, 24b, 24c) for being at least partially wrapped around the appendage; a controller adapted for fluid connection to the bladder (24a, 24b, 24c) for cyclically inflating and deflating the bladder (24a, 24b, 24c) to selectively apply and remove compression from the appendage; hook material including a multiplicity of hooks; loop material including a multiplicity of loops characterized in that the loop material has a first color and defines a colored hook-engagement area, the loops being engageable by the hooks of the hook material when the inflatable bladder is wrapped at least partially around the appendage for use in holding the inflatable bladder on the appendage, the loop material further including an other area separate from the hook-engagement area, the loops in the other area having a second color different from the first, the loops of the loop material having the first color being adapted to be broken by repeated connection and disconnection of the hook material with the loop material so that the first color of the hook-engagement area becomes less distinct from the second color.
A planar contact arrangement, formed for generating a dielectric barrier plasma on an application side of the contact arrangement, having a planar electrode arrangement, which is embedded in a planar dielectric material, can be supplied with high-voltage signals, and is shielded on all sides against an unobstructed current flow, wherein the contact arrangement extends with a width in a longitudinal direction and wherein the length of the contact arrangement is resizable in this longitudinal direction, characterized in that the contact arrangement comprises multiple identically constructed sections in the longitudinal direction each having a dielectric section in the width of the contact arrangement and each having at least one electrode section, wherein the electrode sections of the sections adjoin one another in the longitudinal direction and form an electrode arrangement extending over the entire length, in that at least one section is separable at an intended separation line extending transversely to the longitudinal direction from an adjacent section to reduce the size of the application area in the longitudinal direction, and in that an insulating component is provided to cover the intended separation line on the remaining section.
A modified silicone elastomer base composition comprising at least one silicone elastomer base and a handling additive composition comprising: at least one boric acid derivative, selected from borinic acids, boronic acids and mixtures thereof; a silicone polymer; and, an optional powder. at least one boric acid derivative, selected from borinic acids, boronic acids and mixtures thereof; a silicone polymer; and, an optional powder.
A system configured for treating cerebrospinal fluid of a human or animal subject, the system comprising: means configured for withdrawing a volume of fluid comprising CSF from a CSF-containing space of the subject at a first flow rate; means for treating the volume of fluid, wherein the means for treating the volume of fluid are configured for filtering the volume of fluid into permeate and retentate using a tangential flow filter; means configured for measuring a characteristic of the volume of fluid using a sensor; means configured for returning at least a portion of the treated volume of fluid to the CSF-containing space of the subject at a second flow rate; means configured for updating a parameter of a set of operation parameters based on the measured characteristic responsive to determining that the measured characteristic passes a predetermined threshold; and wherein the system is further configured for increasing a rate at which the volume of fluid passes through the tangential flow filter by diverting a portion of the permeate back through the tangential flow filter. means configured for withdrawing a volume of fluid comprising CSF from a CSF-containing space of the subject at a first flow rate; means for treating the volume of fluid, wherein the means for treating the volume of fluid are configured for filtering the volume of fluid into permeate and retentate using a tangential flow filter; means configured for measuring a characteristic of the volume of fluid using a sensor; means configured for returning at least a portion of the treated volume of fluid to the CSF-containing space of the subject at a second flow rate; means configured for updating a parameter of a set of operation parameters based on the measured characteristic responsive to determining that the measured characteristic passes a predetermined threshold; and wherein the system is further configured for increasing a rate at which the volume of fluid passes through the tangential flow filter by diverting a portion of the permeate back through the tangential flow filter.
A solar cell module comprising: a plurality of solar cells (C1, C2) each including a semiconductor substrate and first and second electrodes on the semiconductor substrate, the first and second electrodes being alternately positioned in a first direction and extended in a second direction intersecting the first direction; a first conductive line extended in the first direction to intersect the first and second electrodes in each solar cell, connected to the first electrode at an intersection between the first electrode and the first conductive line by a first conductive layer, and insulated from the second electrode at an intersection between the second electrode and the first conductive line by an insulating layer; and a second conductive line positioned in parallel with the first conductive line, connected to the second electrode at an intersection between the second electrode and the second conductive line by the first conductive layer, and insulated from the first electrode at an intersection between the first electrode and the second conductivline by the insulating layer, wherein each of the first and second electrodes includes a bridge electrode (143a, 143b) connecting adjacent first electrodes or adjacent second electrodes, characterized in that each of the first and second conductive lines is attached to the bridge electrode (143a, 14b) by a second conductive layer, wherein a width of the second conductive layer in the first direction is greater than a width of the first conductive layer in the first direction. a plurality of solar cells (C1, C2) each including a semiconductor substrate and first and second electrodes on the semiconductor substrate, the first and second electrodes being alternately positioned in a first direction and extended in a second direction intersecting the first direction; a first conductive line extended in the first direction to intersect the first and second electrodes in each solar cell, connected to the first electrode at an intersection between the first electrode and the first conductive line by a first conductive layer, and insulated from the second electrode at an intersection between the second electrode and the first conductive line by an insulating layer; and a second conductive line positioned in parallel with the first conductive line, connected to the second electrode at an intersection between the second electrode and the second conductive line by the first conductive layer, and insulated from the first electrode at an intersection between the first electrode and the second conductivline by the insulating layer, wherein each of the first and second electrodes includes a bridge electrode (143a, 143b) connecting adjacent first electrodes or adjacent second electrodes, characterized in that each of the first and second conductive lines is attached to the bridge electrode (143a, 14b) by a second conductive layer, wherein a width of the second conductive layer in the first direction is greater than a width of the first conductive layer in the first direction.
A resin composition for sealing electrical electronic components, containing a crystalline polyester-based elastomer, a phenol-modified alkylbenzene resin, and a polyolefin resin, and having a melt viscosity of 5 dPa·s or more and 3000 dPa·s or less when dried to a water content of 0.1% or less, heated to 220°C, subjected to a pressure of 1 MPa, and extruded through a die with a hole diameter of 1.0 mm and a thickness of 10 mm, wherein the crystalline polyester-based elastomer is a polyester having a chemical structure formed by condensation polymerization of a polyvalent carboxylic acid compound and a polyhydric alcohol compound and having a glass transition temperature of 0 degrees C or lower and a melting temperature of 100 degrees C or higher, wherein the glass transition temperature and the melting point are determined by using a differential scanning calorimeter "DSC 220 model", manufactured by Seiko Electronics Industrial Co., Ltd., wherein measurement was carried out by putting 5 mg of a measurement specimen in an aluminum pan, sealing the specimen by pressing a lid, holding it once at 250°C for 5 minutes, quenching it with liquefied nitrogen, and thereafter carrying out heating from -150°C to 250°C at a rate of temperature rise of 20°C/min, and the inflection point in the obtained curve was defined as the glass transition temperature and the heat absorption peak was defined as the melting point. a crystalline polyester-based elastomer, a phenol-modified alkylbenzene resin, and a polyolefin resin, and having a melt viscosity of 5 dPa·s or more and 3000 dPa·s or less when dried to a water content of 0.1% or less, heated to 220°C, subjected to a pressure of 1 MPa, and extruded through a die with a hole diameter of 1.0 mm and a thickness of 10 mm, wherein the crystalline polyester-based elastomer is a polyester having a chemical structure formed by condensation polymerization of a polyvalent carboxylic acid compound and a polyhydric alcohol compound and having a glass transition temperature of 0 degrees C or lower and a melting temperature of 100 degrees C or higher, wherein the glass transition temperature and the melting point are determined by using a differential scanning calorimeter "DSC 220 model", manufactured by Seiko Electronics Industrial Co., Ltd., wherein measurement was carried out by putting 5 mg of a measurement specimen in an aluminum pan, sealing the specimen by pressing a lid, holding it once at 250°C for 5 minutes, quenching it with liquefied nitrogen, and thereafter carrying out heating from -150°C to 250°C at a rate of temperature rise of 20°C/min, and the inflection point in the obtained curve was defined as the glass transition temperature and the heat absorption peak was defined as the melting point.
A silicon carbide, SiC, super-junction, SJ, device, comprising: an active area including two or three charge balance, CB, layers, wherein each CB layer comprises: a semiconductor layer having a first conductivity-type; and a plurality of floating regions having a second conductivity-type disposed in a surface of the semiconductor layer, wherein the plurality of floating regions and the semiconductor layer are both configured to deplete to provide equal amounts of charge from ionized dopants when a reverse bias is applied to the SiC-SJ device; the plurality of floating regions has a dopant concentration of 1.7×10 17 cm -3 ± 10%; the semiconductor layer has a dopant concentration of either 8×10 15 cm -3 ± 10% or 9×10 15 cm -3 ± 10%; wherein if the semiconductor layer has a dopant concentration of 8×10 15 cm -3 ± 10%, then the active area includes three CB layers; and wherein if the semiconductor layer has a dopant concentration of 9×10 15 cm -3 ± 10%, then the active area includes two CB layers; a thickness of each of the plurality of floating regions is 1 μm; a width of each of the plurality of floating regions is 2 μm; a spacing between the plurality of floating regions is 3 μm; and the two or three CB layers each has a thickness of 10 μm. an active area including two or three charge balance, CB, layers, wherein each CB layer comprises: a semiconductor layer having a first conductivity-type; and a plurality of floating regions having a second conductivity-type disposed in a surface of the semiconductor layer, wherein a semiconductor layer having a first conductivity-type; and a plurality of floating regions having a second conductivity-type disposed in a surface of the semiconductor layer, wherein the plurality of floating regions and the semiconductor layer are both configured to deplete to provide equal amounts of charge from ionized dopants when a reverse bias is applied to the SiC-SJ device; the plurality of floating regions has a dopant concentration of 1.7×10 17 cm -3 ± 10%; the semiconductor layer has a dopant concentration of either 8×10 15 cm -3 ± 10% or 9×10 15 cm -3 ± 10%; wherein if the semiconductor layer has a dopant concentration of 8×10 15 cm -3 ± 10%, then the active area includes three CB layers; and wherein if the semiconductor layer has a dopant concentration of 9×10 15 cm -3 ± 10%, then the active area includes two CB layers; wherein if the semiconductor layer has a dopant concentration of 8×10 15 cm -3 ± 10%, then the active area includes three CB layers; and wherein if the semiconductor layer has a dopant concentration of 9×10 15 cm -3 ± 10%, then the active area includes two CB layers; a thickness of each of the plurality of floating regions is 1 μm; a width of each of the plurality of floating regions is 2 μm; a spacing between the plurality of floating regions is 3 μm; and the two or three CB layers each has a thickness of 10 μm.
Pull-out guide having a carcass rail securable to a furniture carcass, a pull-out rail securable to a pull-out furniture part, and a middle rail arranged between the carcass rail and the pull-out rail, the rails (4 - 6) being guided displaceably relative to one another and the carcass rail having a first rack profile and the pull-out rail having a second rack profile, and on the middle rail there being arranged at least one gear unit having at least one gear wheel (35, 36) which meshes with the first rack profile and the second rack profile for forced control of a synchronous running of the rails on pulling out the pull-out rail in a pull-out direction and pushing in the pull-out rail counter to the pull-out direction, characterised in that at least the pull-out rail is displaceably guided relative to the middle rail by means of rollers (12 - 17) rotatably mounted on at least one of the rails, and in that at least one section of the longitudinal extent of one of the rack profiles (30, 31) is elastically deflectable from an initial position into a release position, in which the meshing with the gear unit is released.
An internal or external light, in particular a ceiling or hanging light, with a light housing which has at least one longitudinal groove in which multiple light-emitting diodes and one light-guiding element, which extends beyond the light-emitting diodes, are accomodated, wherein the light-guiding element has a light entry surface facing the light-emitting diodes and a light-emitting surface, characterized in that the light entry surface and/or the light-emitting surface comprise(s) a corrugated structure with regularly arranged ridges which extend parallel to each other and orthogonally to the longitudinal groove, wherein the longitudinal groove has a bottom surface and two wall surfaces, wherein a. the bottom surface is equipped with a light-absorbing, in particular black, layer below the light-emitting diodes, and/or b. the wall surfaces are equipped with such a layer at least below the light-guiding element. a. the bottom surface is equipped with a light-absorbing, in particular black, layer below the light-emitting diodes, and/or b. the wall surfaces are equipped with such a layer at least below the light-guiding element.
A tread for a pneumatic tire comprising a rubber composition comprising at least: - a diene elastomer; - at least 60 phr of silica; - 20 to 100 phr of a plasticizer comprising more than 4 phr of a mercapto-modified silicone oil. - a diene elastomer; - at least 60 phr of silica; - 20 to 100 phr of a plasticizer comprising more than 4 phr of a mercapto-modified silicone oil.
Deuterated thiazolidinone derivative according to formula wherein: each Y is independently from each other selected from the group consisting of: "hydrogen, deuterium "; X is selected from the group consisting of: "S, sulfoxide"; R1, R2 are independently from each other selected from the group consisting of: "hydrogen, deuterium, methyl, CH 2 D, CHD 2, CD 3, ethyl, CHDCH 3, CHDCH 2 D, CHDCHD 2, CHDCD 3, CD 2 CH 3, CD 2 CH 2 D, CD 2 CHD 2, CD 2 CD 3 "; with the proviso that (i) Y 15, Y 16, Y 17, Y 18 are deuterium, or (ii) Y 1, Y 2, Y 3, Y 4, Y 5 are deuterium, or (iii) one of R1, R2 comprises at least one deuterium; optionally, at least one carbon atom is independently from each other replaced by 13 C; and the physiologically acceptable salts, solvates, tautomers and stereoisomers thereof, including mixtures thereof in all ratios. each Y is independently from each other selected from the group consisting of: "hydrogen, deuterium "; X is selected from the group consisting of: "S, sulfoxide"; R1, R2 are independently from each other selected from the group consisting of: "hydrogen, deuterium, methyl, CH 2 D, CHD 2, CD 3, ethyl, CHDCH 3, CHDCH 2 D, CHDCHD 2, CHDCD 3, CD 2 CH 3, CD 2 CH 2 D, CD 2 CHD 2, CD 2 CD 3 "; with the proviso that (i) Y 15, Y 16, Y 17, Y 18 are deuterium, or (ii) Y 1, Y 2, Y 3, Y 4, Y 5 are deuterium, or (iii) one of R1, R2 comprises at least one deuterium; optionally, at least one carbon atom is independently from each other replaced by 13 C; (i) Y 15, Y 16, Y 17, Y 18 are deuterium, or (ii) Y 1, Y 2, Y 3, Y 4, Y 5 are deuterium, or (iii) one of R1, R2 comprises at least one deuterium; and the physiologically acceptable salts, solvates, tautomers and stereoisomers thereof, including mixtures thereof in all ratios.
A gas turbine comprising: a gas-turbine fuel nozzle that includes a plurality of fuel supply channels (3a;57a) to which fuel is supplied, a plurality of fuel/scavenging-fluid supply channels (3b;57b) to which fuel or a scavenging fluid for scavenging the fuel is supplied, and a plurality of injection holes (7a,7b) that are provided at downstream ends of the fuel supply channels (3a;57a) or the fuel/scavenging-fluid supply channels (3b;57b) for injecting the fuel guided from the fuel supply channels (3a;57a) or the fuel or scavenging fluid guided from the fuel/scavenging-fluid supply channels (3b;57b); a scavenging-fluid supply channel that is connected to the fuel/scavenging-fluid supply channels (3b;57b) and is for guiding the scavenging fluid; wherein the scavenging-fluid supply channel is connected to the fuel/scavenging-fluid supply channels and to a casing of the gas turbine and is provided to guide, as the scavenging fluid, a fluid extracted from the casing; characterized by: scavenging-fluid cooling means for cooling the scavenging fluid to a temperature lower than a self-ignition temperature of the fuel, wherein the scavenging-fluid cooling means is a plurality of projections that are provided around the scavenging-fluid supply channel. a gas-turbine fuel nozzle that includes a plurality of fuel supply channels (3a;57a) to which fuel is supplied, a plurality of fuel/scavenging-fluid supply channels (3b;57b) to which fuel or a scavenging fluid for scavenging the fuel is supplied, and a plurality of injection holes (7a,7b) that are provided at downstream ends of the fuel supply channels (3a;57a) or the fuel/scavenging-fluid supply channels (3b;57b) for injecting the fuel guided from the fuel supply channels (3a;57a) or the fuel or scavenging fluid guided from the fuel/scavenging-fluid supply channels (3b;57b); a scavenging-fluid supply channel that is connected to the fuel/scavenging-fluid supply channels (3b;57b) and is for guiding the scavenging fluid; wherein the scavenging-fluid supply channel is connected to the fuel/scavenging-fluid supply channels and to a casing of the gas turbine and is provided to guide, as the scavenging fluid, a fluid extracted from the casing; characterized by: scavenging-fluid cooling means for cooling the scavenging fluid to a temperature lower than a self-ignition temperature of the fuel, wherein the scavenging-fluid cooling means is a plurality of projections that are provided around the scavenging-fluid supply channel.
A method for providing supplementary services to IP multimedia subsystem, IMS, devices and non-IMS devices using common IMS network components, the method being characterised by providing an interoperability standard/session initiation protocol, IOS/SIP, adapter configured to communicate with a base station subsystem and an IMS network; and at the IOS/SIP adapter, receiving, from the base station subsystem, a request comprising an IOS message for providing a supplementary service to a non-IMS device in communication with the base station subsystem, and in response to the request, sending a message to a call session control function, CSCF, (304, 306) in the IMS network that provides the supplementary service to the non-IMS device and to IMS devices; wherein the message is a SIP INVITE message that includes IOS mapped SIP bearer parameters and is sent after radio resources are assigned by the base station subsystem
Runner vane of a hydraulic fluid flow machine, especially a turbine, pump or pump-turbine, consisting of a hub and runner vanes without a ring gear, where the runner vanes are secured rotatably or fixedly on the hub and have an anti-cavitation strip on the outer diameter, characterized in that the anti-cavitation strip has several areas with different heights, where the anti-cavitation strip has a higher area measuring 120-250%, preferably 130-220%, of the height of the rest of the anti-cavitation strip following a starting area that comes after the very flat leading edge of the anti-cavitation strip, and a height of 100% in the subsequent area, where the runner vane can be designed as a profile with a variable thickness distribution.