mhurhangee/patent-ind-claim-en huggingface dataset:
System for holding a workpiece in position and exposing it to a laser radiation, such that: - said workpiece comprises: - a workpiece bottom surface ; - a workpiece top surface ; said workpiece bottom surface and said workpiece top surface being electrically insulated from each other; - said system comprising: - a first electrostatic charge generating device for generating electrostatic charges on said workpiece top surface ; - an electrically conductive support for forming, on the workpiece bottom surface , electrostatic charges of opposite sign to those generated by said electrostatic charge generating device ; - a laser device for machining or welding said workpiece by laser radiation; said first electrostatic charge generating device being arranged to be activated before or during the laser machining or welding of said workpiece , such that said workpiece is held in position relative to said electrically conductive support during its exposure to a laser radiation. - said workpiece comprises: - a workpiece bottom surface ; - a workpiece top surface ; said workpiece bottom surface and said workpiece top surface being electrically insulated from each other; - a workpiece bottom surface ; - a workpiece top surface ; - said system comprising: - a first electrostatic charge generating device for generating electrostatic charges on said workpiece top surface ; - an electrically conductive support for forming, on the workpiece bottom surface , electrostatic charges of opposite sign to those generated by said electrostatic charge generating device ; - a laser device for machining or welding said workpiece by laser radiation; - a first electrostatic charge generating device for generating electrostatic charges on said workpiece top surface ; - an electrically conductive support for forming, on the workpiece bottom surface , electrostatic charges of opposite sign to those generated by said electrostatic charge generating device ; - a laser device for machining or welding said workpiece by laser radiation;
A method for configuring data duplication and transmission, comprising: acquiring , by a terminal device, data duplication and transmission information configured by a network device, wherein corresponding to one bearer, a quantity of logical channels available to data duplication and transmission is greater than two; and performing , by the terminal device, the data duplication and transmission according to the data duplication and transmission information; wherein, the data duplication and transmission information comprises a cell group identity corresponding to an available logical channel identity. acquiring , by a terminal device, data duplication and transmission information configured by a network device, wherein corresponding to one bearer, a quantity of logical channels available to data duplication and transmission is greater than two; and performing , by the terminal device, the data duplication and transmission according to the data duplication and transmission information; wherein, the data duplication and transmission information comprises a cell group identity corresponding to an available logical channel identity.
Apparatus for removing rubber from a rubber component , preferably a rubber tire, wherein the rubber component comprises an outer rubber layer on top of textile components, the apparatus comprising: a measurement sensor system configured to transmit an electromagnetic signal with a terahertz frequency onto the rubber component , to receive an electromagnetic signal refracted or reflected at the rubber component, and to determine the thickness of the outer rubber layer on top of the textile components based on the received electromagnetic signal; and a remover device configured to remove the rubber from the outer rubber layer based on the determined thickness of the outer rubber layer on top of the textile components. a measurement sensor system configured to transmit an electromagnetic signal with a terahertz frequency onto the rubber component , to receive an electromagnetic signal refracted or reflected at the rubber component, and to determine the thickness of the outer rubber layer on top of the textile components based on the received electromagnetic signal; and a remover device configured to remove the rubber from the outer rubber layer based on the determined thickness of the outer rubber layer on top of the textile components.
Device for machining a workpiece , comprising a rotatably drivable tool on a tool head , a suction device arranged on the tool head and having a hood arranged around the tool , wherein a mouthpiece rotatable about the tool is arranged on the hood , via which mouthpiece a particle stream can be sucked in during machining, characterized in that an upper side of the hood is closed by a cover element held on the tool head .
Method for regulating a position (P F ) of an X-ray focus (FFS) on the anode of an X-ray source of a scan unit of an X-ray imaging system , wherein - a combined actual position (POS φ_ist ) of the X-ray focus (FFS) is determined by a combination of - a measured position (POS φ_mess_entk ) of the X-ray focus (FFS) and - of a model based position (POS φ_mod , POS φ_mess_mod ) of the X-ray focus (FFS), which is determined based on a measuring value of a deflection current (I φ ), - a manipulated variable (U φ_stell ) is determined based on the combined actual-position (POS φ_ist ) and a target-position (POS φ_soll , POS z_soll ) of the X-ray focus and - a regulation is performed for correction of a deviation of the position (P F ) of the X-ray focus (FFS) from its target position (POS φ_soll , POS z_soll ) based on the determined manipulated variable (U φ_stell ). - a combined actual position (POS φ_ist ) of the X-ray focus (FFS) is determined by a combination of - a measured position (POS φ_mess_entk ) of the X-ray focus (FFS) and - of a model based position (POS φ_mod , POS φ_mess_mod ) of the X-ray focus (FFS), which is determined based on a measuring value of a deflection current (I φ ), - a measured position (POS φ_mess_entk ) of the X-ray focus (FFS) and - of a model based position (POS φ_mod , POS φ_mess_mod ) of the X-ray focus (FFS), which is determined based on a measuring value of a deflection current (I φ ), - a manipulated variable (U φ_stell ) is determined based on the combined actual-position (POS φ_ist ) and a target-position (POS φ_soll , POS z_soll ) of the X-ray focus and - a regulation is performed for correction of a deviation of the position (P F ) of the X-ray focus (FFS) from its target position (POS φ_soll , POS z_soll ) based on the determined manipulated variable (U φ_stell ).
A method for supporting proxy mobile internet protocol, PMIP, in a mobile access gateway, MAG, the method comprising: receiving, at the MAG, a request for multicast services from at least one of a plurality of wireless transmit/receive units, WTRUs, wherein the plurality of WTRUs are associated with a multicast group; transmitting, from the MAG to a multicast local mobility anchor, LMA, a request for multicast information in response to the request for multicast services received from the plurality of WTRUs, via an aggregated multicast tunnel; receiving, at the MAG from the multicast LMA via the aggregated multicast tunnel, multicast information for distribution to the plurality of WTRUs in the multicast group; multicasting the received multicast information from the MAG to the plurality of WTRUs in the multicast group via a multicast channel; characterized by determining whether a handover of any one of the plurality of WTRUs is imminent; and on a condition a handover is determined to be imminent, transmitting a message, from the MAG to the LMA, indicating the imminent handover condition. receiving, at the MAG, a request for multicast services from at least one of a plurality of wireless transmit/receive units, WTRUs, wherein the plurality of WTRUs are associated with a multicast group; transmitting, from the MAG to a multicast local mobility anchor, LMA, a request for multicast information in response to the request for multicast services received from the plurality of WTRUs, via an aggregated multicast tunnel; receiving, at the MAG from the multicast LMA via the aggregated multicast tunnel, multicast information for distribution to the plurality of WTRUs in the multicast group; multicasting the received multicast information from the MAG to the plurality of WTRUs in the multicast group via a multicast channel; characterized by determining whether a handover of any one of the plurality of WTRUs is imminent; and on a condition a handover is determined to be imminent, transmitting a message, from the MAG to the LMA, indicating the imminent handover condition.
A method for the recovery of particles by means of a microfluidic system , which comprises at least one collecting chamber , at least one outlet , at least one inlet and a moving assembly , which is adapted to move at least one given particle at least at the collecting chamber ; the collecting chamber , the outlet and the inlet are connected to one another in a fluidic manner; the method comprises a feeding step, during which a fluid is fed from the inlet to the outlet so as to generate a flow of the fluid; the method being characterized in that it comprises a moving step, which takes place during, in particular, at least partially simultaneously with the feeding step and during which a force is exerted upon at least one given particle of a group of particles arranged in the collecting chamber so as to move at least the given particle until it selectively reaches, relative to other particles of the group , a release area in which a dragging force created by the fluid flow is such as to move the given particle towards the outlet ; the collecting chamber comprises a standing area , where the group of particles is arranged and the dragging force is not sufficient to substantially move the particles of the group of particles towards the outlet. the method comprises a feeding step, during which a fluid is fed from the inlet to the outlet so as to generate a flow of the fluid; the method being characterized in that it comprises a moving step, which takes place during, in particular, at least partially simultaneously with the feeding step and during which a force is exerted upon at least one given particle of a group of particles arranged in the collecting chamber so as to move at least the given particle until it selectively reaches, relative to other particles of the group , a release area in which a dragging force created by the fluid flow is such as to move the given particle towards the outlet ; the collecting chamber comprises a standing area , where the group of particles is arranged and the dragging force is not sufficient to substantially move the particles of the group of particles towards the outlet.
A thermal control method for a gas turbine casing including an inner casing arranged around a central axis, the inner casing defining an opening therethrough in communication with an interior of the gas turbine , and an outer casing arranged around the inner casing , the method including: supplying thermal control gas from a compressor to a space between the outer casing and the inner casing; and transferring the thermal control gas from the space into an area and from that area through the opening in the inner casing , wherein the area is defined between a plate and an outer surface of the inner casing, the plate being attached to the inner casing and having an inner surface opposing the outer surface of the inner casing and an outer surface opposite the inner surface, the plate further comprising a flange that extends radially inwardly from the inner surface towards the inner casing and entirely about a perimeter of the plate, wherein a plurality of holes are defined through the plate from the inner surface to the outer surface, wherein the plurality of holes is arranged with a predetermined non-uniform distribution in the plate corresponding to a desired preferential impingement pattern for providing non-uniform heat transfer from the area during operation of the gas turbine so as to control temperature of the inner casing across the area, wherein the flange is disposed within a slot defined within the outer surface of the inner casing forming a seal between the outer surface of the inner casing and the flange. supplying thermal control gas from a compressor to a space between the outer casing and the inner casing; and transferring the thermal control gas from the space into an area and from that area through the opening in the inner casing , wherein the area is defined between a plate and an outer surface of the inner casing, the plate being attached to the inner casing and having an inner surface opposing the outer surface of the inner casing and an outer surface opposite the inner surface, the plate further comprising a flange that extends radially inwardly from the inner surface towards the inner casing and entirely about a perimeter of the plate, wherein a plurality of holes are defined through the plate from the inner surface to the outer surface, wherein the plurality of holes is arranged with a predetermined non-uniform distribution in the plate corresponding to a desired preferential impingement pattern for providing non-uniform heat transfer from the area during operation of the gas turbine so as to control temperature of the inner casing across the area, wherein the flange is disposed within a slot defined within the outer surface of the inner casing forming a seal between the outer surface of the inner casing and the flange.
A connection system for fluid-flowing components for medical and/or medical technology, having an actuator having a cylindrical portion with an outer surface , - wherein a handle is arranged at a first end of the cylindrical portion , - wherein the cylindrical portion has a hollow space in the region of a second end , which is open towards the second end , and - wherein at least two gate-shaped passage openings for a fluid connection are arranged in the region of the second end , and a base housing , having a base body and at least two fluid passages arranged laterally on the base body , - wherein the base body has a cavity with an open first end , a base in the region of a second end and at least two laterally arranged openings , which each establish a fluid connection to the corresponding fluid passages , - wherein the cavity receives the cylindrical portion of the actuator in a rotatable manner through the open first end and the inner diameter of the cavity corresponds to the outer diameter of the cylindrical portion of the actuator , and - wherein the laterally arranged openings correspond to the passage openings of the actuator , characterised in that a substantially cylindrical pin for supporting the second end of the actuator is arranged on the base of the base body , and a circumferential groove is formed in the region of the second end of the actuator , which groove at least partially embraces the pin and thus forms a counter-bearing for the second end of the actuator , wherein the groove contacts the pin , and the upper edge of the pin is not higher than the lower edge of one of the fluid passages . - wherein a handle is arranged at a first end of the cylindrical portion , - wherein the cylindrical portion has a hollow space in the region of a second end , which is open towards the second end , and - wherein at least two gate-shaped passage openings for a fluid connection are arranged in the region of the second end , and - wherein the base body has a cavity with an open first end , a base in the region of a second end and at least two laterally arranged openings , which each establish a fluid connection to the corresponding fluid passages , - wherein the cavity receives the cylindrical portion of the actuator in a rotatable manner through the open first end and the inner diameter of the cavity corresponds to the outer diameter of the cylindrical portion of the actuator , and - wherein the laterally arranged openings correspond to the passage openings of the actuator , a substantially cylindrical pin for supporting the second end of the actuator is arranged on the base of the base body , and a circumferential groove is formed in the region of the second end of the actuator , which groove at least partially embraces the pin and thus forms a counter-bearing for the second end of the actuator , wherein the groove contacts the pin , and the upper edge of the pin is not higher than the lower edge of one of the fluid passages .
A system for treating a substrate , the system comprising; a treatment module , wherein the treatment module is a plasma module; the treatment module comprising at least two elongate electrodes ; wherein the elongate electrodes comprise a ground electrode and a RF electrode; each of the ground electrode and the RF electrode having at least one elongated planar surface, in which the planar surface of the ground electrode and the planar surface of the RF electrode are parallel; a substrate plane along which a substrate extends; and wherein a fluid is deliverable via the treatment module to a plasma region between the treatment module and the substrate plane to form a plasma for treating the substrate ; and characterised in that the relative distance between the treatment module and the substrate is changeable, to permit the passage of a sample from outside a plasma region generated by the elongate electrodes into the plasma region. a treatment module , wherein the treatment module is a plasma module; the treatment module comprising at least two elongate electrodes ; wherein the elongate electrodes comprise a ground electrode and a RF electrode; each of the ground electrode and the RF electrode having at least one elongated planar surface, in which the planar surface of the ground electrode and the planar surface of the RF electrode are parallel; a substrate plane along which a substrate extends; and wherein a fluid is deliverable via the treatment module to a plasma region between the treatment module and the substrate plane to form a plasma for treating the substrate ; and characterised in that the relative distance between the treatment module and the substrate is changeable, to permit the passage of a sample from outside a plasma region generated by the elongate electrodes into the plasma region.
A drive method of a crane for selecting and applying a preferential load curve adapted to a work configuration of a crane , said crane comprising a mast supporting a luffing jib comprising at least one jib structural element (31; 32), said crane drive method implementing the following steps: - an inclination measurement step implementing a measurement of an actual inclination of the jib structural element (31; 32) with respect to a reference axis in the work configuration, by means of an inclinometer (61; 62) mounted on said jib structural element; - a selection step implementing an automated selection of the preferential load curve according to the actual inclination of said jib structural element (31; 32), said preferential load curve being selected from among a plurality of load curves stored in a memory and calculated beforehand for several inclinations of said jib structural element (31; 32); - a drive step implementing an application of said preferential load curve for maneuvers of lifting and moving a load along the luffing jib in the work configuration of the crane . - an inclination measurement step implementing a measurement of an actual inclination of the jib structural element (31; 32) with respect to a reference axis in the work configuration, by means of an inclinometer (61; 62) mounted on said jib structural element; - a selection step implementing an automated selection of the preferential load curve according to the actual inclination of said jib structural element (31; 32), said preferential load curve being selected from among a plurality of load curves stored in a memory and calculated beforehand for several inclinations of said jib structural element (31; 32); - a drive step implementing an application of said preferential load curve for maneuvers of lifting and moving a load along the luffing jib in the work configuration of the crane .
A compound of the formula I: H 2 N-His-Aib-His-Gly-Thr-Phe-Thr-Ser-Asp-Leu-Ser-Lys-Leu-X14-Glu-Glu-Gln-Arg-Gln-X20-Glu-Phe-Ile-Glu-Trp-Leu-Lys-Ala-X29-Gly-X31-Pro-Ser-Aib-Lys-Pro-Pro-Pro-Lys-R 1 I wherein 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(O)-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, X20 represents an amino acid residue selected from Aib and Lys, X29 represents an amino acid residue selected from D-Ala and Gly, X31 represents an amino acid residue selected from His and Pro, R 1 is NH 2 or OH, or a salt or solvate thereof. 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(O)-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, wherein the -NH 2 side chain group is functionalized by -Z-C(O)-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, X20 represents an amino acid residue selected from Aib and Lys, X29 represents an amino acid residue selected from D-Ala and Gly, X31 represents an amino acid residue selected from His and Pro, R 1 is NH 2 or OH, or a salt or solvate thereof.
A coagulate obtainable by the thermal and/or mechanical and/or ultrasound-initiated coagulation of an aqueous polymer dispersion, comprising (i) at least one polymer dispersed in an aqueous phase and selected from the group consisting of polyurethane, vinyl acetate/ethylene copolymers, poly(vinyl acetate) (PVAc), polyacrylate, poly(styrene/acrylate), styrene/butadiene (block) copolymer, styrene/isoprene (block) copolymer, polyisoprene copolymer, polychloroprene, polyolefin homopolymers and copolymers of C 2 -C 8 alkenes, polyepoxide and polylactic acid, (ii) thermoplastic microspheres containing a blowing agent, and (iii) at least one additional component selected from the group consisting of polyols, polyamines and thermoplastic polymers selected from the group consisting of polyamide, polyester and polystyrene. (i) at least one polymer dispersed in an aqueous phase and selected from the group consisting of polyurethane, vinyl acetate/ethylene copolymers, poly(vinyl acetate) (PVAc), polyacrylate, poly(styrene/acrylate), styrene/butadiene (block) copolymer, styrene/isoprene (block) copolymer, polyisoprene copolymer, polychloroprene, polyolefin homopolymers and copolymers of C 2 -C 8 alkenes, polyepoxide and polylactic acid, (ii) thermoplastic microspheres containing a blowing agent, and (iii) at least one additional component selected from the group consisting of polyols, polyamines and thermoplastic polymers selected from the group consisting of polyamide, polyester and polystyrene.