mhurhangee/ep-ind-claims huggingface dataset:
System for characterising the physiological state of ligneous plants (2, 3) with branches (2A, 2B, 2C, 2D, 2E, 2F, 2G, 2H, 2I, 2K, 3A, 3B, 3C, 3D, 3E, 3F, 3G, 3H, 3I, 3K) cultivated in rows (4, 5, 6, 7, 8) of the vine or fruit tree type, said system comprising a vehicle designed to move between said rows (4, 5, 6, 7, 8) in a movement direction X-X', and also comprising a geolocation device installed on said vehicle as well as a processing unit, said system being characterised in that it comprises a sensor including a light source designed to emit a light beam and a light receiver, said light source and receiver being mounted on said vehicle so as to be able to be disposed on either side of a row, so that said light beam can, as the vehicle advances along said row, cross branches (2A, 2B, 2C, 2D, 2E, 2F, 2G, 2H, 21, 2K, 3A, 3B, 3C, 3D, 3E, 3F, 3G, 3H, 3I, 3K) belonging to the ligneous plants (2, 3) in said row (4, 5, 6, 7, 8), said light beam having, in the movement direction X-X', a dimension that is substantially greater than the diameter of the largest of the branches in said row, so that the interposition of a branch (2A, 2B, 2C, 2D, 2E, 2F, 2G, 2H, 2I, 2K, 3A, 3B, 3C, 3D, 3E, 3F, 3G, 3H, 3I, 3K) between the light source and the receiver only partially cuts said light beam and thus projects onto said light receiver a shadow (20A, 20B) from which the processing unit determines the local diameter (D1, D2) of the branch (2A, 2B) concerned, said processing unit being further designed so as to associate with said local diameter (D1, D2) of the branch concerned (2A, 2B) geolocation information on said branch (2A, 2B) coming from said geolocation device,
Method for populating a printed circuit board having a plurality of components (20, 22, 24), comprising the steps of: providing the components (20, 22, 24) with plug-through contacts (30, 32, 34) which, at least in end sections of the plug-through contacts (30, 32, 34), extend in a direction perpendicular to the heat-emitting areas (50, 52, 54) of the components (20, 22, 24), providing the printed circuit board with contact holes (40, 42, 44) for receiving plug-through contacts (30, 32, 34), characterized by fitting at least one plastically deformable fixing element (80, 82, 84) onto the printed circuit board, fitting the components (20, 22, 24) onto the fixing element (80, 82, 84) and at the same time inserting the plug-through contacts (30, 32, 34) into the corresponding contact holes (40, 42, 44) in the printed circuit board; wherein a planar surface, in particular of an arrangement body, moves the heat-emitting areas (50, 52, 54) of the components (20, 22, 24) in the direction of the printed circuit board, with plastic deformation of the fixing element, until all of the heat-emitting areas (50, 52, 54) of the components (20, 22, 24) lie in the same plane.
A mobile RFID reader including an RFID recognition part configured to recognize an RFID tag signal, the mobile RFID reader comprising: a flat plate panel for recognition of RFID tag information; a grip formed in a rod shape having a predetermined length so that the mobile RFID reader can be gripped by a hand; a coupling portion having a predetermined length, and configured such that the coupling portion is disposed to be substantially parallel to a horizontal direction of the recognition surface of the plate panel for recognition of RFID tag information, one end of the coupling portion is coupled to the plate panel for recognition of RFID tag information, and a remaining end of the coupling portion in the lengthwise direction of the coupling portion is coupled to the grip; characterized by a user terminal pocket detachably mounted on the coupling portion and configured to accommodate the user terminal, wherein the user terminal pocket comprises: a clamping holder configured to be coupled to the coupling portion; a tray configured to be coupled to the clamping holder and accommodate a user terminal; and a connection rod configured to connect the tray to the clamping holder. a flat plate panel for recognition of RFID tag information; a grip formed in a rod shape having a predetermined length so that the mobile RFID reader can be gripped by a hand; a coupling portion having a predetermined length, and configured such that the coupling portion is disposed to be substantially parallel to a horizontal direction of the recognition surface of the plate panel for recognition of RFID tag information, one end of the coupling portion is coupled to the plate panel for recognition of RFID tag information, and a remaining end of the coupling portion in the lengthwise direction of the coupling portion is coupled to the grip; characterized by a user terminal pocket detachably mounted on the coupling portion and configured to accommodate the user terminal, wherein the user terminal pocket comprises: a clamping holder configured to be coupled to the coupling portion; a tray configured to be coupled to the clamping holder and accommodate a user terminal; and a connection rod configured to connect the tray to the clamping holder. a clamping holder configured to be coupled to the coupling portion; a tray configured to be coupled to the clamping holder and accommodate a user terminal; and a connection rod configured to connect the tray to the clamping holder.
A modeling device for producing a three-dimensional object by a repeated process of applying a laser to a powder layer so as to partially solidify the powder layer, the powder layer being made of a powdery material and disposed in a chamber, the modeling device comprising: a discharge port for discharging into the chamber a gas for removing fume; a suction port for sucking the gas from the chamber; an absorber for absorbing at least one of oxygen and water vapor contained in the gas; a first circulation path and a second circulation path each communicating between the discharge port and the suction port so that the gas is circulated from the suction port to the discharge port, the absorber being provided on the first circulation path and not provided on the second circulation path; and a bypass passage connecting between an upstream side and a downstream side of the absorber in the first circulation path, wherein the modeling device further comprises a switching portion (80, 62, 91) for switching between a first state and a second state, the first state being a state where the first circulation path communicates with the absorber, so that the gas circulates from the suction port through the absorber to the discharge port, the second state being a state where communication between the first circulation path and the second circulation path is blocked, so that the gas circulates from the suction port through only the second circulation path to the discharge port, and the gas also circulates between the absorber and the bypass passage. a discharge port for discharging into the chamber a gas for removing fume; a suction port for sucking the gas from the chamber; an absorber for absorbing at least one of oxygen and water vapor contained in the gas; a first circulation path and a second circulation path each communicating between the discharge port and the suction port so that the gas is circulated from the suction port to the discharge port, the absorber being provided on the first circulation path and not provided on the second circulation path; and a bypass passage connecting between an upstream side and a downstream side of the absorber in the first circulation path, wherein the modeling device further comprises a switching portion (80, 62, 91) for switching between a first state and a second state, the first state being a state where the first circulation path communicates with the absorber, so that the gas circulates from the suction port through the absorber to the discharge port, the second state being a state where communication between the first circulation path and the second circulation path is blocked, so that the gas circulates from the suction port through only the second circulation path to the discharge port, and the gas also circulates between the absorber and the bypass passage.
An annexin variant: a) that binds to at least one phospholipid; b) that is not internalized into a cell, wherein one or more amino acids selected from polar amino acids Glu, Gln, Asp, Asn, Arg and Lys in the helices IA, ID, IIA, IID, IIIC, IIID and IVE and in the stretches connecting helices IC and ID, IIE and IIIA, IIIC and IIID, IIID and IIIE, and IVA and IVB are replaced by non-polar amino acids; c) that is bound to a recognizable compound. a) that binds to at least one phospholipid; b) that is not internalized into a cell, wherein one or more amino acids selected from polar amino acids Glu, Gln, Asp, Asn, Arg and Lys in the helices IA, ID, IIA, IID, IIIC, IIID and IVE and in the stretches connecting helices IC and ID, IIE and IIIA, IIIC and IIID, IIID and IIIE, and IVA and IVB are replaced by non-polar amino acids; c) that is bound to a recognizable compound.
A photosensitive sensor comprising multiple elementary sensors butted together (32, 34, 36, 38), each elementary sensor comprising a matrix of pixels (P;Q) organized in rows, the pixels of each row being connected to conductors of multiple types (Col, Sel, Vdd, VRst, Rst), including column conductors (Col) which are connected to read circuits of the sensor, characterised in that it comprises, connected to each of the column conductors (Col), a group of components that is separate from the conductor under consideration, the group of components forming a matching impedance of the conductor (Col) under consideration, in that in each elementary sensor (32, 34, 36, 38), the impedances have the same value and in that the impedances have different impedance values for different elementary sensors so as to balance the link impedances between the various read circuits and the corresponding column conductors (Col) for the various elementary sensors.
Cooking appliance device (10a-d; 10f-g; 10i), in particular induction oven device, having at least one heating unit (12a-d, 12f-g; 12i), which has at least one induction coil (14a-d; 14f-g; 14i) with at least one electric conductor (16a-d; 16f-g; 16i), at least one substrate unit (18a-d, 18f-g; 18i) and at least one fastening unit (20a-d; 20f-g, 20i), which fastens the induction coil (14a-d, 14f-g; 14i) to the substrate unit (18a-d; 18f-g; 18i), wherein the fastening unit (20a-d; 20f-g; 20i) fastens the conductor (16a-d; 16f-g; 16i) in at least one region on the substrate unit (18a-d; 18f-g; 18i) so as to be movable relative to the substrate unit (18a-d; 18f-g; 18i), characterised in that the fastening unit (20a-i) has at least one thread (22a-i) and the induction coil (14a-i) is fastened to the substrate unit (18a-i) by means of at least one joint having the thread (22a-i).
A system for handling a sheet of flexible material includes: a main carrier which comprises a plurality of parallel, flexible strips arranged in pairs; first and second braces connect parallel, flexible strips one to another at a plurality of locations so as to define a plurality of connector mounts that each support a releasable connector which selectively lifts or releases a sheet of flexible material; at least one end adjustment means is connected to a strip and imparts a tensile/compressive force on the strip; and at least one displacement means acts to displace at least one of a pair of parallel, flexible strips in a direction perpendicular to its longitudinal axis; the forces applied by the end adjustment means and the displacement means combine to provide a resultant force that causes bending along and twisting of at least one of the strips such that a polynomial curve is defined along the length of the at least one strip, thereby varying the orientation and/or the location of the mounts, so that active faces of the releasable connectors are presented parallel to a complex surface.
An aramid paper prepared by applying a second mixture comprising an aramid floc and an aramid pulp comprising 20 wt% or more fines on one or more of the top portion and the bottom portion of a substrate paper formed of a first mixture comprising an aramid floc and an aramid pulp having a length of 0.5-0.8 mm and a freeness of 150-250 mL and binding the same by calendering, wherein the aramid pulp comprising 20 wt% or more fines is prepared by beating an aramid floc mixture of 10-20 wt% of a floc having a length equal to or longer than 3 mm and shorter than 6 mm and 80-90 wt% of a floc having a length equal to or longer than 6 mm and equal to or shorter than 8 mm with a beater equipped with a refiner.
A method for coating a metal powder, having the following method steps: coating the individual particles of a metal powder with a layer, wherein the metal powder is a metal powder consisting of copper, silver, magnesium, nickel, cobalt, titanium, zinc, their alloys and/or mixtures of the metal powders and their alloys, wherein for coating the individual particles a vapour deposition by means of an atmospheric-pressure plasma source is carried out such that a gaseous substance which contains at least carbon atoms, silicon atoms and/or sulphur atoms is excited in a plasma and fragmented and a plasma polymerisation is carried out, and wherein the vapour deposition has the following method steps for the coating of the particles: - producing a plasma by means of an atmospheric-pressure plasma source, - mixing the plasma with a monomer and the metal powder and - forming the layer on the surfaces of the individual particles of the metal powder on the basis of the interaction of the plasma with the monomer, wherein the method is carried out at atmospheric pressure, and wherein the layer is organic, organometallic or semi-organometallic. coating the individual particles of a metal powder with a layer, wherein the metal powder is a metal powder consisting of copper, silver, magnesium, nickel, cobalt, titanium, zinc, their alloys and/or mixtures of the metal powders and their alloys, wherein for coating the individual particles a vapour deposition by means of an atmospheric-pressure plasma source is carried out such that a gaseous substance which contains at least carbon atoms, silicon atoms and/or sulphur atoms is excited in a plasma and fragmented and a plasma polymerisation is carried out, and wherein the vapour deposition has the following method steps for the coating of the particles: - producing a plasma by means of an atmospheric-pressure plasma source, - mixing the plasma with a monomer and the metal powder and - forming the layer on the surfaces of the individual particles of the metal powder on the basis of the interaction of the plasma with the monomer, - producing a plasma by means of an atmospheric-pressure plasma source, - mixing the plasma with a monomer and the metal powder and - forming the layer on the surfaces of the individual particles of the metal powder on the basis of the interaction of the plasma with the monomer, wherein the method is carried out at atmospheric pressure, and wherein the layer is organic, organometallic or semi-organometallic.
A device for fastening a plate-shaped component within a receiving groove of a support rail, with - a holding element for holding the plate-shaped component within the receiving groove in such a way that an end face of the plate-shaped component introduced into the receiving groove is supported by the holding element on the groove base of the receiving groove, - two clamping elements (30, 32) for clamping the plate-shaped component between the groove flanks (20, 22) of the receiving groove, and - at least one tension rod for positioning the clamping elements (30, 32), characterized in that the tension rod or at least one of the tension rods is designed to be flexible and reaches from the one side of the plate-shaped component around the end face of the plate-shaped component up to the clamping element to be positioned by this flexible tension rod on the other side of the plate-shaped component located opposite to the one side. - a holding element for holding the plate-shaped component within the receiving groove in such a way that an end face of the plate-shaped component introduced into the receiving groove is supported by the holding element on the groove base of the receiving groove, - two clamping elements (30, 32) for clamping the plate-shaped component between the groove flanks (20, 22) of the receiving groove, and - at least one tension rod for positioning the clamping elements (30, 32),
A method executed by a conference call server for controlling access, of a plurality of communication devices, to a conference call in a conference call system, the method comprising for each of the plurality of communication devices: the server determining contextual attributes related to the device, the contextual attributes comprising a location of the device and an identification of a type of peripheral used by the device; the server evaluating the contextual attributes against a set of access requirements, the set of access requirements including defined restrictions on a type of peripheral used by the device within specific locations of the device; and the server causing the device to be granted access to connect to the conference call if all of the evaluated contextual attributes satisfies the access requirements. the server determining contextual attributes related to the device, the contextual attributes comprising a location of the device and an identification of a type of peripheral used by the device; the server evaluating the contextual attributes against a set of access requirements, the set of access requirements including defined restrictions on a type of peripheral used by the device within specific locations of the device; and the server causing the device to be granted access to connect to the conference call if all of the evaluated contextual attributes satisfies the access requirements.
A method of manufacturing a magnesium welding wire, comprising: a step of preparing a base material made of pure magnesium or a magnesium-based alloy, a step of shaving a surface of the base material, a step of drawing the surface-shaved base material, and optionally a step of drawing the magnesium-based alloy before the step of shaving. a step of preparing a base material made of pure magnesium or a magnesium-based alloy, a step of shaving a surface of the base material, a step of drawing the surface-shaved base material, and optionally a step of drawing the magnesium-based alloy before the step of shaving.
An aerosol generating article (1, 2, 3, 4, 5) comprising: a first body of aerosol forming material; a first tubular member surrounding the first body of aerosol forming material, the first tubular member being inductively heatable in the presence of a time varying electromagnetic field; characterized by: a second body of aerosol forming material surrounding the first tubular member; a second tubular member surrounding the second body of aerosol forming material; wherein the second body of aerosol forming material includes at least one sheet (40, 42, 108) of aerosol forming material wrapped around the first tubular member and/or wherein the second body of aerosol forming material includes foam material and/or wherein at least part of the second body of aerosol forming material is adhered to the first tubular member and/or the second tubular member. a first body of aerosol forming material; a first tubular member surrounding the first body of aerosol forming material, the first tubular member being inductively heatable in the presence of a time varying electromagnetic field; characterized by: a second body of aerosol forming material surrounding the first tubular member; a second tubular member surrounding the second body of aerosol forming material; wherein the second body of aerosol forming material includes at least one sheet (40, 42, 108) of aerosol forming material wrapped around the first tubular member and/or wherein the second body of aerosol forming material includes foam material and/or wherein at least part of the second body of aerosol forming material is adhered to the first tubular member and/or the second tubular member. a second body of aerosol forming material surrounding the first tubular member; a second tubular member surrounding the second body of aerosol forming material; wherein the second body of aerosol forming material includes at least one sheet (40, 42, 108) of aerosol forming material wrapped around the first tubular member and/or wherein the second body of aerosol forming material includes foam material and/or wherein at least part of the second body of aerosol forming material is adhered to the first tubular member and/or the second tubular member.
A solid bowl centrifuge comprising a. a rotatable drum having at least one solid outlet and at least one liquid outlet, b. a screw, which is arranged in the drum and is rotatable at a differential speed in relation to the drum, and which has at least one coiled screw blade, c. and having a settling plate arrangement having a plurality of settling plates, which are arranged on the screw body in a partial region of the extension of the screw body, characterized by d. a throttle plate having openings, which is arranged between the settling plate arrangement and the at least one liquid outlet from the drum, e. wherein the throttle plate is coupled in a rotationally-fixed manner to the screw or is coupled in a rotationally-fixed manner to the drum, and f. wherein pressure is built up in the columns or settling gaps due to the throttle plate and due to the openings on the throttle plate in the region of the settling plate arrangement, since the size of the openings is smaller than is necessary per se for discharging the quantity of liquid to be discharged. a. a rotatable drum having at least one solid outlet and at least one liquid outlet, b. a screw, which is arranged in the drum and is rotatable at a differential speed in relation to the drum, and which has at least one coiled screw blade, c. and having a settling plate arrangement having a plurality of settling plates, which are arranged on the screw body in a partial region of the extension of the screw body, d. a throttle plate having openings, which is arranged between the settling plate arrangement and the at least one liquid outlet from the drum, e. wherein the throttle plate is coupled in a rotationally-fixed manner to the screw or is coupled in a rotationally-fixed manner to the drum, and f. wherein pressure is built up in the columns or settling gaps due to the throttle plate and due to the openings on the throttle plate in the region of the settling plate arrangement, since the size of the openings is smaller than is necessary per se for discharging the quantity of liquid to be discharged.
Emulsion polymer particles comprising from 25 to 45 wt% polymerized residues of at least one C 3 -C 6 carboxylic acid monomer and from 0.1 to 2 wt% polymerized residues of at least one crosslinker, wherein the particles have a Tg which occurs over a range of at least 60°C, said Tg being determined by modulated differential scanning calorimetry (MDSC) scanning from -150°C to 150°C while ramping temperature in a given sinusoidal modulation (oscillation) pattern overlaid on a conventional linear heating ramp at a ramp rate of 2.00°C/min to 150.00°C, taking the midpoint in the heat flow versus temperature transition as the Tg value.