mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing an anonymised value for a data element stored with an original value in a database of a database system , wherein the data element is part of a dataset relating to a person and furthermore contains additional, non-anonymised data elements, and wherein the method comprises the following steps: generating an additional data element for the data element stored in the database ; establishing the anonymised value of the data element from the original value by applying a mapping rule programmed into the database system for determining anonymised values, and storing the anonymised value in the additional data element; and including the additional data element in the dataset and linking the additional data element to the data element, such that, in case an access command relating to the data element is received from a user connected to the database system, the additional data element is read and the anonymised value contained therein is transmitted to the user, wherein the additional data element is generated independently from the receipt of an access command and is stored in the database with the anonymised value contained in the additional data element. generating an additional data element for the data element stored in the database ; establishing the anonymised value of the data element from the original value by applying a mapping rule programmed into the database system for determining anonymised values, and storing the anonymised value in the additional data element; and including the additional data element in the dataset and linking the additional data element to the data element, such that, in case an access command relating to the data element is received from a user connected to the database system, the additional data element is read and the anonymised value contained therein is transmitted to the user, wherein the additional data element is generated independently from the receipt of an access command and is stored in the database with the anonymised value contained in the additional data element.
A hard X-ray photoelectron spectroscopy (HAXPES) system , in particular a laboratory-based system, comprising: an X-ray tube providing a beam of photons, which via an X-ray monochromator is directed through the system so as to excite electrons from an illuminated sample, the X-ray tube being connected to a monochromator vacuum chamber in which a crystal is configured to monochromatize and focus the beam onto the sample, the illuminated sample being mounted on a manipulator , movable in at least one direction to allow for measurements at different sample angles, inside an analysis vacuum chamber , the analysis vacuum chamber being connected to an electron energy analyser , which is mounted onto the analysis vacuum chamber , characterised in that the monochromator vacuum chamber is connected to the analysis vacuum chamber via a flexible vacuum bellow , which is fixed to both vacuum chambers , the flexibility of the bellow allowing alignment of the monochromatized and focused beam, a gap is provided between the X-ray tube and the monochromator vacuum chamber , which gap is provided with a first radiation trap to shield the ambient from the radiation when the gap is illuminated with X-rays from the X-ray tube , the first radiation trap is of sufficient thickness to block the most energetic radiation emitted from the X-ray tube, comprising a first radiation wall part being affixed to a part of the vacuum vessel wall of the X-ray tube, a second and a third radiation wall part , both of which are affixed to the monochromator vacuum chamber body . an X-ray tube providing a beam of photons, which via an X-ray monochromator is directed through the system so as to excite electrons from an illuminated sample, the X-ray tube being connected to a monochromator vacuum chamber in which a crystal is configured to monochromatize and focus the beam onto the sample, the illuminated sample being mounted on a manipulator , movable in at least one direction to allow for measurements at different sample angles, inside an analysis vacuum chamber , the analysis vacuum chamber being connected to an electron energy analyser , which is mounted onto the analysis vacuum chamber , a first radiation wall part being affixed to a part of the vacuum vessel wall of the X-ray tube, a second and a third radiation wall part , both of which are affixed to the monochromator vacuum chamber body .
A vehicle headlamp comprising: a lamp unit for low beam configured to project a light distribution pattern (LLP, RLP) for low beam on a roadway in front of a vehicle (C); a lamp unit for high beam configured to project a light distribution pattern (LHP, RHP) for high beam, that is compatible with a light distribution pattern for shoulder edge beam, on the roadway in front of the vehicle (C); and a swivel device configured to rotate around a vertical axis of the lamp unit for low beam, wherein each of the lamp units comprises a semiconductor-type light source and a reflector configured to project light from the semiconductor-type light source on the roadway in front of the vehicle (C), wherein the lamp unit for low beam is configured to provide only the light distribution pattern (LLP, RLP) for low beam, and the lamp unit for high beam is configured to provide only the light distribution pattern (LHP, RHP) for high beam and the light distribution pattern for shoulder edge beam, wherein the lamp unit for low beam and the lamp unit for high beam are integrally mounted to a heat sink member , the lamp unit for low beam being disposed closer to an outside of the vehicle (C) than the lamp unit for high beam, in a direction extending between left and right of the vehicle (C), and wherein the vertical axis of the swivel device passes through a center or a substantial center of the lamp unit for low beam so that the lamp unit for low beam and the lamp unit for high beam are integrally rotatable around the vertical axis via the heat sink member by means of the swivel device . a lamp unit for low beam configured to project a light distribution pattern (LLP, RLP) for low beam on a roadway in front of a vehicle (C); a lamp unit for high beam configured to project a light distribution pattern (LHP, RHP) for high beam, that is compatible with a light distribution pattern for shoulder edge beam, on the roadway in front of the vehicle (C); and a swivel device configured to rotate around a vertical axis of the lamp unit for low beam, wherein each of the lamp units comprises a semiconductor-type light source and a reflector configured to project light from the semiconductor-type light source on the roadway in front of the vehicle (C), wherein the lamp unit for low beam is configured to provide only the light distribution pattern (LLP, RLP) for low beam, and the lamp unit for high beam is configured to provide only the light distribution pattern (LHP, RHP) for high beam and the light distribution pattern for shoulder edge beam, wherein the lamp unit for low beam and the lamp unit for high beam are integrally mounted to a heat sink member , the lamp unit for low beam being disposed closer to an outside of the vehicle (C) than the lamp unit for high beam, in a direction extending between left and right of the vehicle (C), and wherein the vertical axis of the swivel device passes through a center or a substantial center of the lamp unit for low beam so that the lamp unit for low beam and the lamp unit for high beam are integrally rotatable around the vertical axis via the heat sink member by means of the swivel device .
A spray cap for a spray container , the spray cap comprising a tubular wall for connection to the spray container, a cap plate and means to admit air into the space defined by the tubular wall but which prevents the outflow of liquid from the said space to the exterior, wherein the cap plate comprises a support plate of polymeric material in which an aperture is formed and an insert of more resilient polymeric material is retained in the aperture and forms a liquid tight seal with the support plate , that the support plate and the insert define a liquid flow path and include respective opposed annular sealing areas characterised in that a plurality of spray slits is formed in said insert of said cap plate and whereby said liquid flow path is between said space and said plurality of flow slits and said opposed annular sealing areas are situated upstream of the plurality of spray slits in the liquid flow path and which are biased into sealing contact with one another by the resilience of the insert, whereby when the spray cap is inverted and an increased pressure is produced in the said space the pressure acts on the insert and the insert is caused to deform such that the sealing areas move out of sealing contact and liquid can flow to the plurality of spray slits .
A compound, which is: (R)-5-(4-chlorophenyl)-1-isopropyl-2-methyl-4-(3-(4-(4-((4-((1-(phenylthio)-4-(4-(phosphonooxy)piperidin-1-yl)butan-2-yl)amino)-3-((trifluoromethyl)sulfonyl)phenyl)sulfonamido)phenyl)piperazin-1-yl)phenyl)-1H-pyrrole-3-carboxylic acid, or a pharmaceutically acceptable salt thereof.
System for controlling work lights in a forestry machine, which system includes - a harvester head having a body and a cutting device , attached to a set of booms of the forestry machine , and a valve control unit for controlling valves of the harvester head , - at least one work light for illuminating the harvester head and its surroundings attached to the harvester head which said work light is located in connection with the cutting device and oriented to illuminate the cutting device, and - control means for controlling the operation of the work light , characterized in that the harvester head further includes a rotator , by means of which the harvester head is arranged to be suspended rotatably from the set of booms , stripping blades and feed rollers and the harvester head is arranged for felling and processing trees and said work light control means are the harvester head valve control unit , which is arranged to feed power and/or control the power feed to the said light and said control unit includes several valve-control outputs , through at least one of which outputs the control unit is arranged to feed power to the said work light . - a harvester head having a body and a cutting device , attached to a set of booms of the forestry machine , and a valve control unit for controlling valves of the harvester head , - at least one work light for illuminating the harvester head and its surroundings attached to the harvester head which said work light is located in connection with the cutting device and oriented to illuminate the cutting device, and - control means for controlling the operation of the work light , characterized in that the harvester head further includes a rotator , by means of which the harvester head is arranged to be suspended rotatably from the set of booms , stripping blades and feed rollers and the harvester head is arranged for felling and processing trees and said work light control means are the harvester head valve control unit , which is arranged to feed power and/or control the power feed to the said light and said control unit includes several valve-control outputs , through at least one of which outputs the control unit is arranged to feed power to the said work light .
A pipe-connecting device (A) comprising: a resin-made tube ; and an inner ring in which a flared portion is formed in an outer circumferential portion of an inner ring body that is to be press-inserted into the resin-made tube , and a tip-contracted outer-circumferential flared surface which is press-inserted into an end portion from an opening of the tube to cause the end portion of the tube to be flared and deformed is formed in a tip end side of the flared portion , characterized in that a section shape of the outer-circumferential flared surface in a direction extending along an axis (P) of the inner ring body is formed into a convex curved surface passing through: a first place (e1) which is a maximum-diameter portion of the flared portion ; a second place (e2) which is a tip end on a side of the tube press insertion; and a third place (e3) which is between the first place (e1) and the second place (e2), and in which a diameter is equal to an outer diameter (D) of the tube with respect to the axis (P), and an angle (α) formed by the tangential line (L) of the outer-circumferential flared surface in the third place (e3) and the axis (P) is 30 to 60 degrees (30° ≤ α ≤ 60°). a resin-made tube ; and an inner ring in which a flared portion is formed in an outer circumferential portion of an inner ring body that is to be press-inserted into the resin-made tube , and a tip-contracted outer-circumferential flared surface which is press-inserted into an end portion from an opening of the tube to cause the end portion of the tube to be flared and deformed is formed in a tip end side of the flared portion , characterized in that a section shape of the outer-circumferential flared surface in a direction extending along an axis (P) of the inner ring body is formed into a convex curved surface passing through: a first place (e1) which is a maximum-diameter portion of the flared portion ; a second place (e2) which is a tip end on a side of the tube press insertion; and a third place (e3) which is between the first place (e1) and the second place (e2), and in which a diameter is equal to an outer diameter (D) of the tube with respect to the axis (P), and an angle (α) formed by the tangential line (L) of the outer-circumferential flared surface in the third place (e3) and the axis (P) is 30 to 60 degrees (30° ≤ α ≤ 60°).
A cylindrical closure for a product-retaining container constructed for being inserted and securely retained in a portal-forming neck of said container, said closure comprising at least one thermoplastic polymer and at least one natural organic filler, wherein the at least one natural organic filler is comprised in an amount in the range of from 0.5 wt.% to 75 wt.%, based on the total weight of the closure, wherein the at least one thermoplastic polymer is selected from the group consisting of polyethylenes, metallocene catalyst polyethylenes, polybutanes, polybutylenes, polyurethanes, silicones, vinyl-based resins, thermoplastic elastomers, polyesters, ethylenic acrylic copolymers, ethylene-vinyl-acetate copolymers, ethylene-methyl-acrylate copolymers, thermoplastic polyurethanes, thermoplastic olefins, thermoplastic vulcanizates, flexible polyolefins, fluorelastomers, fluoropolymers, polyethylenes, polytetrafluoroethylenes, and blends thereof, ethylene-butyl-acrylate copolymers, ethylene-propylene-rubber, styrene butadiene rubber, styrene butadiene block copolymers, ethylene-ethyl-acrylic copolymers, ionomers, polypropylenes, and copolymers of polypropylene and copolymerizable ethylenically unsaturated comonomers, olefin copolymers, olefin block copolymers, cyclic olefin copolymers, styrene ethylene butadiene styrene block copolymers, styrene ethylene butylene styrene block copolymers, styrene ethylene butylene block copolymers, styrene butadiene styrene block copolymers, styrene butadiene block copolymers, styrene isoprene styrene block copolymers, styrene isobutylene block copolymers, styrene isoprene block copolymers, styrene ethylene propylene styrene block copolymers, styrene ethylene propylene block copolymers, polyvinylalcohol, polyvinylbutyral, polyhydroxyalkanoates, copolymers of hydroxyalkanoates and monomers of biodegradable polymers, poly(lactic acid), copolymers of lactic acid and monomers of biodegradable polymers, aliphatic copolyesters, aromatic-aliphatic copolyesters, and mixtures thereof; and the at least one natural organic filler is selected from the group consisting of grape seed flour, grape skin powder, grape pomace flour, rice hull flour, oat hull flour, peanut hull flour, soybean hull flour, starch flour, corn starch flour, cellulose flour, microcrystalline cellulose, nanocellulose, wood flour, rice straw flour, corn cob flour, cricket flour, bagasse flour, kenaf flour, and hemp flour; and wherein the lateral surface of said closure has a hardness of 40 to 90 Shore A according to ASTM D2240-10; or wherein the dynamic coefficient of friction of the lateral surface of said closure is from 0.35 to 0.7 according to ASTM D1894-14; or wherein the lateral surface of said closure has a hardness of 40 to 90 Shore A according to ASTM D2240-10 and the dynamic coefficient of friction of the lateral surface of said closure is from 0.35 to 0.7 according to ASTM D1894-14.
A formulation for forming a photoactive layer of an organic photosensitive electronic device comprising an anode, a cathode and a photoactive layer between the cathode and the anode, the formulation comprising an n-type organic semiconductor, a p-type organic semiconductor and a solvent mixture comprising a first solvent and a second solvent wherein the first solvent is a trimethylbenzene and the second solvent is a benzene substituted with two or more substituents including at least two C 1-6 alkoxy groups.
An arthrodesis plate for joint fusion, wherein the arthrodesis plate comprises: a proximal-distal direction, a longitudinal direction in the proximal-distal direction, and a medio-lateral direction, a proximal anchoring region and a distal anchoring region which are mechanically and rigidly connected to each other, wherein a transversal cross-section of the anchoring regions has a height (h) relative to the longitudinal direction and has a width (b) in the medio-lateral direction, wherein the width is greater than the height, characterized in that the proximal anchoring region and the distal anchoring region have an outer contour with an undulating cross-section in a plane parallel to the sagittal plane and/or in a transversal plane, and in that the anchoring regions can be introduced in a medio-lateral direction into a planar slot , wherein the undulating cross-section is arranged to press with its crests into the boundary surfaces of the planar slot. a proximal-distal direction, a longitudinal direction in the proximal-distal direction, and a medio-lateral direction, a proximal anchoring region and a distal anchoring region which are mechanically and rigidly connected to each other, wherein a transversal cross-section of the anchoring regions has a height (h) relative to the longitudinal direction and has a width (b) in the medio-lateral direction, wherein the width is greater than the height, characterized in that the proximal anchoring region and the distal anchoring region have an outer contour with an undulating cross-section in a plane parallel to the sagittal plane and/or in a transversal plane, and in that the anchoring regions can be introduced in a medio-lateral direction into a planar slot , wherein the undulating cross-section is arranged to press with its crests into the boundary surfaces of the planar slot.
A medical apparatus comprising: a probe comprising: a handle having a longitudinal axis ; a distal tip disposed on the longitudinal axis; and a position sensor , which is disposed in the handle on the longitudinal axis at a predefined distance (D) from the distal tip and is configured to output a signal indicative of a location of the probe; and an alignment jig , which comprises: a connector configured to be fixed removably to the distal tip of the probe; and three protrusions , which extend from the connector and are configured to contact a surface of a body of a patient at respective points, which are disposed in a plane perpendicular to the longitudinal axis when the connector is fixed to the distal tip of the probe. a probe comprising: a handle having a longitudinal axis ; a distal tip disposed on the longitudinal axis; and a position sensor , which is disposed in the handle on the longitudinal axis at a predefined distance (D) from the distal tip and is configured to output a signal indicative of a location of the probe; and a handle having a longitudinal axis ; a distal tip disposed on the longitudinal axis; and a position sensor , which is disposed in the handle on the longitudinal axis at a predefined distance (D) from the distal tip and is configured to output a signal indicative of a location of the probe; and an alignment jig , which comprises: a connector configured to be fixed removably to the distal tip of the probe; and three protrusions , which extend from the connector and are configured to contact a surface of a body of a patient at respective points, which are disposed in a plane perpendicular to the longitudinal axis when the connector is fixed to the distal tip of the probe. a connector configured to be fixed removably to the distal tip of the probe; and three protrusions , which extend from the connector and are configured to contact a surface of a body of a patient at respective points, which are disposed in a plane perpendicular to the longitudinal axis when the connector is fixed to the distal tip of the probe.
A roof rack load carrying bar , comprising, - a cross sectional profile having a front bar portion and a rear bar portion with respect to a travel direction (T) of said load carrying bar during use, said front bar portion having a front edge , said rear bar portion having a profile tapering rearwards with respect to said travel direction (T) and towards a rear edge of said rear bar portion , said front edge comprising a first curved-shaped profile extending from an upper portion to a lower portion of said front bar portion , wherein the upper portion is an utmost portion of the load carrying bar 100 with respect to a height direction (h), and the lower portion is a lowest portion of the load carrying bar with respect to the height direction (h), wherein, said first curved-shaped profile having a first distinct angular shift , wherein a distinct angular shift is defined as an interruption of the outer profile of the load carrying bar such that an edge appears on the outer profile, characterized in that the first distinct angular shift is angled inwardly towards a center point of the load carrying bar's profile, and wherein said first curved-shaped profile has the first distinct angular shift at a very front portion of said front edge , wherein the very front portion is defined as the portion of the load carrying bar being located furthest to the front of the load carrying bar with respect to a width direction and the travel direction (T) during use of the load carrying bar . - a cross sectional profile having a front bar portion and a rear bar portion with respect to a travel direction (T) of said load carrying bar during use, said front bar portion having a front edge , said rear bar portion having a profile tapering rearwards with respect to said travel direction (T) and towards a rear edge of said rear bar portion , said front edge comprising a first curved-shaped profile extending from an upper portion to a lower portion of said front bar portion , wherein the upper portion is an utmost portion of the load carrying bar 100 with respect to a height direction (h), and the lower portion is a lowest portion of the load carrying bar with respect to the height direction (h), wherein,