mhurhangee/ep-ind-claims huggingface dataset:
Method for preparing a leukocyte preparation from a leukocyte fraction, comprising the following method steps: a) sedimenting the leukocyte fraction until a dividing line has formed between the sedimented erythrocytes and a leukocyte supernatant, removing the leukocyte supernatant from the sediment, wherein the leukocyte supernatant is collected or remains in a leukocyte container, b) sedimenting the leukocytes in the leukocyte container, wherein a low-leukocyte supernatant is formed, and removing the low-leukocyte supernatant from the leukocyte container, c) washing the sediment in the leukocyte container with a saline solution, wherein the sedimented cells are resuspended in the saline solution, the solution is sedimented and a resulting supernatant is removed, and d) resuspending the sediment in the leukocyte container in a storage solution, e) storing the storage solution in a gas-permeable bag. a) sedimenting the leukocyte fraction until a dividing line has formed between the sedimented erythrocytes and a leukocyte supernatant, removing the leukocyte supernatant from the sediment, wherein the leukocyte supernatant is collected or remains in a leukocyte container, b) sedimenting the leukocytes in the leukocyte container, wherein a low-leukocyte supernatant is formed, and removing the low-leukocyte supernatant from the leukocyte container, c) washing the sediment in the leukocyte container with a saline solution, wherein the sedimented cells are resuspended in the saline solution, the solution is sedimented and a resulting supernatant is removed, and d) resuspending the sediment in the leukocyte container in a storage solution, e) storing the storage solution in a gas-permeable bag.
A heat releasing device for a solid-insulated electrical device, transferring heat by conduction, comprising: a metallic heat releasing member (2, 2a-2e), said heat releasing member having a predetermined area and heat thermal conductivity; a connecting conductor fixed to the heat releasing member and configured to be directly connected to a main circuit of the solid-insulated device; an insulating layer (4, 8) formed around the heat releasing member and the connecting conductor. an interface (5, 9) from which an end of the connecting conductor protrudes and is exposed; and a grounding layer (6, 10) formed on the outer circumference of the insulating layer (4, 8). a metallic heat releasing member (2, 2a-2e), said heat releasing member having a predetermined area and heat thermal conductivity; a connecting conductor fixed to the heat releasing member and configured to be directly connected to a main circuit of the solid-insulated device; an insulating layer (4, 8) formed around the heat releasing member and the connecting conductor. an interface (5, 9) from which an end of the connecting conductor protrudes and is exposed; and a grounding layer (6, 10) formed on the outer circumference of the insulating layer (4, 8).
A method of manufacturing a photodiode element responsive to dual band radiation, the method comprising: form a first p-type region; form a first n-type region that includes a n-type barrier layer on the first p-type region; form a second p-type region on the first n-type region such that the first n-type region is arranged between the first p-type region and the second p-type region to provide PN-junctions (109, 110); the first p-type region, second p-type region and first n-type region providing a first absorbing region for absorbing a shorter wave band and a second absorbing region for absorbing a longer waveband; the first absorbing region and the second absorbing region arranged on opposing sides of an n-type barrier provided by the n-type region, the n-type barrier being substantially non-absorbent to the longer wave band; and the method characterised in further comprising: use ion beam milling to type convert a portion of the second p-type region to provide a second n-type region that is in electrical and physical contact with both the second p-type region and the first n-type region; provide a first metallic ohmic contact on the second p-type region and a second metallic ohmic contact on the second n-type region; the second metallic ohmic contact being provided over a recess formed by the ion beam milling process. form a first p-type region; form a first n-type region that includes a n-type barrier layer on the first p-type region; form a second p-type region on the first n-type region such that the first n-type region is arranged between the first p-type region and the second p-type region to provide PN-junctions (109, 110); the first p-type region, second p-type region and first n-type region providing a first absorbing region for absorbing a shorter wave band and a second absorbing region for absorbing a longer waveband; the first absorbing region and the second absorbing region arranged on opposing sides of an n-type barrier provided by the n-type region, the n-type barrier being substantially non-absorbent to the longer wave band; and the method characterised in further comprising: use ion beam milling to type convert a portion of the second p-type region to provide a second n-type region that is in electrical and physical contact with both the second p-type region and the first n-type region; provide a first metallic ohmic contact on the second p-type region and a second metallic ohmic contact on the second n-type region; the second metallic ohmic contact being provided over a recess formed by the ion beam milling process. use ion beam milling to type convert a portion of the second p-type region to provide a second n-type region that is in electrical and physical contact with both the second p-type region and the first n-type region; provide a first metallic ohmic contact on the second p-type region and a second metallic ohmic contact on the second n-type region; the second metallic ohmic contact being provided over a recess formed by the ion beam milling process.
A peptidic compound having the formula: H 2 N-His-X2-X3-Gly-Thr-Phe-Thr-Ser-Asp-Leu-Ser-Lys-Gln-X14-X15-Glu-Glu-Ala-X19-Arg-Leu-Phe-Ile-Glu-Trp-Leu-Aib-X28-X29-Gly-Pro-Ser-Ser-Gly-Ala-Pro-Pro-Pro-Ser-R 1 X2 represents an amino acid residue selected from D-Ser and Ser, X3 represents an amino acid residue selected from Gln and His, X14 represents an amino acid residue with a functionalized -NH 2 side chain group, selected from the group consisting of Lys, Orn, Dab, or Dap, wherein the -NH 2 side chain group is functionalized by -Z-C -R 5, wherein Z represents a linker in all stereoisomeric forms and R 5 is a moiety comprising up to 50 carbon atoms and heteroatoms selected from N and O, X15 represents an amino acid residue selected from Glu and Asp, X19 represents an amino acid residue selected from Ala and Val, X28 represents an amino acid residue selected from Ala, Lys and Ser, X29 represents an amino acid residue selected from Thr, D-Ala and Gly, R 1 is NH 2 or OH, or a salt or solvate thereof. X2 represents an amino acid residue selected from D-Ser and Ser, X3 represents an amino acid residue selected from Gln and His, X14 represents an amino acid residue with a functionalized -NH 2 side chain group, selected from the group consisting of Lys, Orn, Dab, or Dap, wherein the -NH 2 side chain group is functionalized by -Z-C -R 5, wherein Z represents a linker in all stereoisomeric forms and R 5 is a moiety comprising up to 50 carbon atoms and heteroatoms selected from N and O, X15 represents an amino acid residue selected from Glu and Asp, X19 represents an amino acid residue selected from Ala and Val, X28 represents an amino acid residue selected from Ala, Lys and Ser, X29 represents an amino acid residue selected from Thr, D-Ala and Gly, R 1 is NH 2 or OH, or a salt or solvate thereof.
Aluminium alloy comprising alloy components, which have the following composition in % by weight: 2.91 % ≤ Mg ≤ 4.5 %, 0.5% ≤ Mn ≤ 0.8 %, 0.05 ≤ Cu ≤ 0.30 %, 0.05 % ≤ Cr ≤ 0.30 %, 0.05 % ≤ Zn ≤ 0.9 %, Fe ≤ 0.40 %, Si ≤ 0.25 %, Ti ≤ 0.20 %, the balance Al and impurities individually less than 0.05 % and in total a maximum of 0.15 % and wherein the following applies to the alloy components Zn, Cr, Cu and Mn: (2.3* %Zn + 1.25* %Cr + 0.65* %Cu + 0.05* %Mn) + 2.4 ≥ %Mg.
A method for producing a split rotor blade, comprising - providing a rotor blade having ∘ a spar cap (230, 231), and ∘ an extent in the longitudinal direction from a blade root region to a blade tip, - making at least one groove (400, 410) in the spar cap (230, 231), wherein the groove (400, 410) is arranged in a first connection region (300, 300', 300") of the rotor blade, and - splitting the rotor blade, in the first connection region (300, 300', 300"), into a rotor blade section facing the blade root and a rotor blade section facing away from the blade root, wherein a first groove section is arranged in the rotor blade section facing the blade root and a second groove section is arranged in the rotor blade section facing away from the blade root characterized in that the groove (400, 410) has a cross section in a plane orthogonal to a main direction of extent which is T-shaped and has curved edges. - providing a rotor blade having ∘ a spar cap (230, 231), and ∘ an extent in the longitudinal direction from a blade root region to a blade tip, ∘ a spar cap (230, 231), and ∘ an extent in the longitudinal direction from a blade root region to a blade tip, - making at least one groove (400, 410) in the spar cap (230, 231), wherein the groove (400, 410) is arranged in a first connection region (300, 300', 300") of the rotor blade, and - splitting the rotor blade, in the first connection region (300, 300', 300"), into a rotor blade section facing the blade root and a rotor blade section facing away from the blade root, wherein a first groove section is arranged in the rotor blade section facing the blade root and a second groove section is arranged in the rotor blade section facing away from the blade root
A coaxial connector with a floating mechanism, including a plug and a socket to be connected to each other, the plug including a plug-side center contact that is arranged at a center, a plug-side shell that is arranged outside the plug-side center contact, and a plug-side insulator that is interposed between the plug-side center contact and the plug-side shell, the socket including a socket-side center contact that is arranged at a center, a socket-side shell that is arranged outside the socket-side center contact, and a housing that holds the socket-side center contact and the socket-side shell in a mutually insulated state, the housing including a housing base portion that is fixed to a support member, and a housing movable portion that is radially movable over a plug-side end face of the housing base portion along with the socket-side center contact, a top side of the plug-side shell being fitted onto the housing movable portion, characterized in that the socket-side shell integrally includes a shell contact plate portion that is exposed from the plug-side end face of the housing base portion, and an end of the plug-side shell is configured to make contact with the shell contact plate portion, and a contact plate escape groove is circumferentially formed in the housing movable portion, and the shell contact plate portion is configured to be able to escape into the contact plate escape groove.
A dual-phase mouthwash composition comprising: an orally acceptable vehicle comprising a hydrophilic phase and a hydrophobic phase; a blue dye and/or a blue pigment having a blue to blue-violet color with a hue angle in the CIELAB system from 200 to 320 degrees; and a zinc lactate. an orally acceptable vehicle comprising a hydrophilic phase and a hydrophobic phase; a blue dye and/or a blue pigment having a blue to blue-violet color with a hue angle in the CIELAB system from 200 to 320 degrees; and a zinc lactate.
A heavy load pneumatic radial tire comprising in order, on a radial direction outer side of a carcass extending toroidally between a pair of bead portions, at least one belt reinforcing layer, two or more inclined belt layers, and a tread, wherein when the tire is mounted on a prescribed rim, with prescribed internal pressure applied and in a no-load condition, a width direction edge of the at least one belt reinforcing layer is located further toward a width direction outer side than a tread edge, and characterised in that the tire satisfies the expression: 2 × R 0 − R 1 / W 2 ≤ 0.06 where W2 is a width in the width direction of an inclined belt layer, among the inclined belt layers, having a largest width in the width direction, R0 is a curvature radius, at an intersection with a tire equatorial plane, of the inclined belt layer having the largest width in the width direction, and R1 is a curvature radius of the inclined belt layer having the largest width in the width direction at a belt edge thereof.
A portable structure, configurable between stored and erected conditions, comprising a base, one or more sides, a first resilient frame, a second resilient frame, and one or more spacing members; the base and the one or more sides comprising a flexible material; the first resilient frame being located at the interface of the base and one or more sides; the first resilient frame being connected to the flexible material to provide a shape to the base in the erected condition; the second resilient frame, located in a spaced-relationship from the first resilient frame, supporting the one or more sides of the portable structure; the one or more spacing members for supporting the flexible material of the one or more sides in a raised manner in the erected condition so as to form a container bounded by the flexible material of the base and one or more sides; wherein the first and second resilient frames (2, 3) are bendable and the one or more spacing members is/are foldable to allow the portable structure to adopt its stored condition wherein bending of the first and second resilient frames (2, 3) and/or folding of the spacing members provides energy for moving the portable structure from the stored condition to the erected condition thereof; characterised in that the diameter, effective diameter or longest distance across a cross-section of the portable structure with respect to a vertical axis decreases from the first resilient frame to the second resilient frame.
A biopsy device, comprising: (a) a body; (b) a needle extending distally relative to the body, wherein the needle defines a first lumen and a second lumen, wherein the needle includes an opening fluidly coupling the first lumen with the second lumen; (c) a cutter, wherein the cutter is configured to translate relative to the needle to sever tissue; (d) a vent opening, wherein the vent opening is in communication with atmospheric air; (e) a shuttle valve slider configured to translate, wherein the shuttle valve slider is configured to selectively move between a first longitudinal position and a second longitudinal position, wherein the second lumen is coupled with the vent opening when the shuttle valve slider is in the first longitudinal position, wherein the second lumen is substantially sealed relative to the vent opening when the shuttle valve slider is in the second longitudinal position; wherein the shuttle valve slider is configured to selectively move between the first longitudinal position and the second longitudinal position based at least in part on the longitudinal position of the cutter; characterized in that the shuttle valve slider is configured to translate in response to translation of the cutter such that the shuttle valve slider is translated by translation of the cutter. (a) a body; (b) a needle extending distally relative to the body, wherein the needle defines a first lumen and a second lumen, wherein the needle includes an opening fluidly coupling the first lumen with the second lumen; (c) a cutter, wherein the cutter is configured to translate relative to the needle to sever tissue; (d) a vent opening, wherein the vent opening is in communication with atmospheric air; (e) a shuttle valve slider configured to translate, wherein the shuttle valve slider is configured to selectively move between a first longitudinal position and a second longitudinal position, wherein the second lumen is coupled with the vent opening when the shuttle valve slider is in the first longitudinal position, wherein the second lumen is substantially sealed relative to the vent opening when the shuttle valve slider is in the second longitudinal position; wherein the shuttle valve slider is configured to selectively move between the first longitudinal position and the second longitudinal position based at least in part on the longitudinal position of the cutter; characterized in that the shuttle valve slider is configured to translate in response to translation of the cutter such that the shuttle valve slider is translated by translation of the cutter.
Method for carrying out a parking process for a vehicle, in which the parking process is carried out at least semi-autonomously, characterized in that a parking assistance device of the vehicle can carry out an autonomous parking process or a semi-autonomous parking process and, depending on environmental conditions of the vehicle, the parking assistance device decides whether a parking process is carried out autonomously or semi-autonomously.
A method of manufacturing an ophthalmic lens comprising: providing a lens substrate; providing a photocurable film; using a digital light projection system to photocure at least one region of the film, thereby producing at least one photocured gradient index optical element (7a, 7b) having an asymmetric refractive index profile; and applying the film to a surface of the lens substrate. providing a lens substrate; providing a photocurable film; using a digital light projection system to photocure at least one region of the film, thereby producing at least one photocured gradient index optical element (7a, 7b) having an asymmetric refractive index profile; and applying the film to a surface of the lens substrate.
Method of manufacturing a driver's cab for a vehicle, having a support module which constitutes the support unit of a driver's cab, i.e. it forms to the front and to the sides a passenger cell resting on a floor panel, and having a roof module; wherein the support module at least comprises: - a floor portion which forms the underside of the driver's cab, having a fastening device for fastening the support module to a chassis of the vehicle, - a front wall portion which is connected to the floor portion and which is oriented substantially vertically, - two A pillars connected to the front wall portion, - a front roof rail connected to the A pillars, - two B pillars connected to the floor portion, and - two lateral roof rails, wherein each lateral roof rail interconnects one of the A pillars and one of the B pillars; wherein the roof module at least comprises: - a roof portion, - a rear wall portion connected to the roof portion; and wherein the support module and the roof module form separate structural units which can be fastened to one another and can be preassembled independently of one another, comprising the following steps: - preassembling the support module; - installing first equipment elements on the support module; - preassembling the roof module; - installing second equipment elements on the roof module; - then fastening the roof module to the support module. - a floor portion which forms the underside of the driver's cab, having a fastening device for fastening the support module to a chassis of the vehicle, - a front wall portion which is connected to the floor portion and which is oriented substantially vertically, - two A pillars connected to the front wall portion, - a front roof rail connected to the A pillars, - two B pillars connected to the floor portion, and - two lateral roof rails, wherein each lateral roof rail interconnects one of the A pillars and one of the B pillars; - a roof portion, - a rear wall portion connected to the roof portion; - preassembling the support module; - installing first equipment elements on the support module; - preassembling the roof module; - installing second equipment elements on the roof module; - then fastening the roof module to the support module.
A terminal endpoint device, comprising: a control module configured to cause requesting an attached status, in which the terminal endpoint device is communicatively attached to a network entity, control a transceiver which is capable of communicating with the network entity via a medium by use of a default bearer allocated by the network entity in the attached status, characterized in that the control module is further configured to cause generating a default bearer operating information to be transmitted by the transceiver, the default bearer operating information indicating that the terminal endpoint device is adapted to stay attached without a default bearer allocation, cause the transceiver to transmit the default bearer operating information to the network entity, and, in the attached status, cause generating a disconnection request to be transmitted by the transceiver to the network entity, the disconnection request indicating release of the default bearer allocated by the network entity while maintaining the terminal endpoint device attached. cause requesting an attached status, in which the terminal endpoint device is communicatively attached to a network entity, control a transceiver which is capable of communicating with the network entity via a medium by use of a default bearer allocated by the network entity in the attached status, characterized in that the control module is further configured to cause generating a default bearer operating information to be transmitted by the transceiver, the default bearer operating information indicating that the terminal endpoint device is adapted to stay attached without a default bearer allocation, cause the transceiver to transmit the default bearer operating information to the network entity, and, in the attached status, cause generating a disconnection request to be transmitted by the transceiver to the network entity, the disconnection request indicating release of the default bearer allocated by the network entity while maintaining the terminal endpoint device attached.
A laminate comprising: a substrate made of a polymer material having a methyl or ester group; an undercoat layer disposed on an outer surface of the substrate and made up of an inorganic material containing an inorganic substance having a functional group; and an atomic layer deposition film disposed on the undercoat layer so as to cover an outer surface thereof, wherein the atomic layer deposition film is an inorganic oxide film containing at least one of Al, Si, and Ti, characterized in that the inorganic substance having a functional group contains SiSnO x with X in a range of 1.0 or more and 2.0 or less. a substrate made of a polymer material having a methyl or ester group; an undercoat layer disposed on an outer surface of the substrate and made up of an inorganic material containing an inorganic substance having a functional group; and an atomic layer deposition film disposed on the undercoat layer so as to cover an outer surface thereof, wherein the atomic layer deposition film is an inorganic oxide film containing at least one of Al, Si, and Ti, characterized in that the inorganic substance having a functional group contains SiSnO x with X in a range of 1.0 or more and 2.0 or less.