mhurhangee/patent-ind-claim-en huggingface dataset:
A device for repairing a damaged spot in a repair area of a glass pane , the device comprising - an attachment portion for releasable attachment of the device to a main surface of the glass pane , - a repair portion for repairing the glass pane , - an injector unit configured to release a repair agent, and - a control device , characterized in that the device includes a first sensor device which is configured to be brought into, or which is in, data connection with the control device and which is configured to determine a contact pressure with which the injector unit , which is disposable or disposed on the repair portion , is pressed onto the repair area . - an attachment portion for releasable attachment of the device to a main surface of the glass pane , - a repair portion for repairing the glass pane , - an injector unit configured to release a repair agent, and - a control device ,
A garment hanger comprising:- a body including, a suspension portion for suspending the hanger from a rail, a garment support portion for supporting a garment thereon, a connecting portion connecting said suspension and garment support portions and including a first connection portion connected to said suspension portion, a second connection portion connected to said garment support portion and a hinge connected therebetween allowing said suspension portion to fold towards said garment support portion; and a size marker for attachment to said connecting portion, wherein said size marker is movable selectively allowing the hanger to be changed from a transportation condition in which said hinge can move to a display condition in which said suspension portion and said garment support portion are substantially fixed relative to one another characterised in that in said transportation condition said size marker is not engaged with said second connection portion and in said display condition said size marker is engaged with both said first and second connection portions. a body including, a suspension portion for suspending the hanger from a rail, a garment support portion for supporting a garment thereon, a connecting portion connecting said suspension and garment support portions and including a first connection portion connected to said suspension portion, a second connection portion connected to said garment support portion and a hinge connected therebetween allowing said suspension portion to fold towards said garment support portion; and a suspension portion for suspending the hanger from a rail, a garment support portion for supporting a garment thereon, a connecting portion connecting said suspension and garment support portions and including a first connection portion connected to said suspension portion, a second connection portion connected to said garment support portion and a hinge connected therebetween allowing said suspension portion to fold towards said garment support portion; and a size marker for attachment to said connecting portion, wherein said size marker is movable selectively allowing the hanger to be changed from a transportation condition in which said hinge can move to a display condition in which said suspension portion and said garment support portion are substantially fixed relative to one another characterised in that in said transportation condition said size marker is not engaged with said second connection portion and in said display condition said size marker is engaged with both said first and second connection portions.
A method for real-time monitoring of stress changes in an excavation , such as in a mine or a tunnel, the method comprising: - determining strain data of the excavation by at least six strain measurement devices (15, 25; 15A-15C), wherein the strain measurement devices (15, 25; 15A-15C) are arranged surrounding the excavation to determine the strain data along different directions with respect to each other, and wherein: none of said different directions is parallel relative to any other of said directions, and/or the at least six strain measurement devices (15, 25; 15A-15C) form two sets of three measurement devices (15A-15C) arranged in opposite directions with respect to a longitudinal direction of the excavation , wherein one of the two sets is arranged to deviate from a perpendicular plane relative to the longitudinal direction of the excavation and into one side of the plane, and the other of the two sets is arranged to deviate from the perpendicular plane relative to the longitudinal direction of the excavation and into the other side of the plane, - receiving the determined strain data on a processing unit arranged in connection with the strain measurement devices (15, 25; 15A-15C), and - back-calculating , by the processing unit , a three-dimensional stress change as a tensor based on the received strain data, and on strain components determined based on pre-determined unit loads with respect to said directions and on corresponding loading factors. - determining strain data of the excavation by at least six strain measurement devices (15, 25; 15A-15C), wherein the strain measurement devices (15, 25; 15A-15C) are arranged surrounding the excavation to determine the strain data along different directions with respect to each other, and wherein: none of said different directions is parallel relative to any other of said directions, and/or the at least six strain measurement devices (15, 25; 15A-15C) form two sets of three measurement devices (15A-15C) arranged in opposite directions with respect to a longitudinal direction of the excavation , wherein one of the two sets is arranged to deviate from a perpendicular plane relative to the longitudinal direction of the excavation and into one side of the plane, and the other of the two sets is arranged to deviate from the perpendicular plane relative to the longitudinal direction of the excavation and into the other side of the plane, - receiving the determined strain data on a processing unit arranged in connection with the strain measurement devices (15, 25; 15A-15C), and - back-calculating , by the processing unit , a three-dimensional stress change as a tensor based on the received strain data, and on strain components determined based on pre-determined unit loads with respect to said directions and on corresponding loading factors.
Process for preparing an inverse EMI 1 emulsion comprising the following step: Forming an inverse EMI 1 emulsion by mixing an aqueous solution of water-soluble (co)polymer A of at least one cationic monomer and an inverse EMI 2 emulsion of water-soluble (co)polymer B of at least one cationic monomer.
A method for manufacturing a solid propellant, the method characterised by : forming a tool of layers of a first material wherein cuts in the layers form a first interior chamber in the tool; using the tool to mold a second material in the first interior chamber; removing the molded second material from the tool ; using the molded second material to mold an interior chamber in a rocket propellant grain ; removing the molded second material from the rocket propellant grain ; and the removing the molded second material from the rocket propellant grain stretches the second material. forming a tool of layers of a first material wherein cuts in the layers form a first interior chamber in the tool; using the tool to mold a second material in the first interior chamber; removing the molded second material from the tool ; using the molded second material to mold an interior chamber in a rocket propellant grain ; removing the molded second material from the rocket propellant grain ; and the removing the molded second material from the rocket propellant grain stretches the second material.
A vehicle-mounted type back scattering inspection system, comprising a carriage and a back scattering imaging device ; wherein the back scattering imaging device comprises a back scattering imaging module, and the back scattering imaging module is rotatably arranged around a vertical shaft to change the scanning range of the back scattering imaging device ; wherein the vehicle-mounted type back scattering inspection system further comprising a tray arranged in the carriage and rotatably arranged relative to the carriage , wherein in a vehicle-mounted working state in which the back scattering imaging device performs inspection work in the carriage , the back scattering imaging device is fixedly arranged on the tray to rotate under drive of the tray ; and wherein the back scattering imaging device further comprises a carrier module for carrying the back scattering imaging module, and the back scattering imaging module is rotatably arranged relative to the carrier module .
A lower vehicle-body structure of a vehicle, the lower vehicle-body structure comprising: a floor panel that constitutes a floor face portion of the vehicle; a side sill that extends in a vehicle front-rear direction on a vehicle-width-direction end portion of the vehicle; and a frame member that extends in a front-rear direction on a vehicle-width-direction inner side of the side sill and forms a closed cross-section together with the floor panel by being joined to the floor panel in an up-down direction, the frame member including a front-rear extended portion that is in abutment against the side sill on the vehicle-width-direction inner side and extends in the vehicle front-rear direction along the side sill , wherein the front-rear extended portion includes: a first face portion that faces the floor panel in the up-down direction; an inner wall portion that extends toward the floor panel from an inner end portion of the first face portion in a vehicle width direction; and an inner-side flange that extends to the vehicle-width-direction inner side from a distal end portion of the inner wall portion and is joined to the floor panel , characterised in that a deformation facilitating portion that facilitates deformation of the first face portion in the vehicle width direction when a collision load in the vehicle width direction is input is formed in the first face portion . a floor panel that constitutes a floor face portion of the vehicle; a side sill that extends in a vehicle front-rear direction on a vehicle-width-direction end portion of the vehicle; and a frame member that extends in a front-rear direction on a vehicle-width-direction inner side of the side sill and forms a closed cross-section together with the floor panel by being joined to the floor panel in an up-down direction, the frame member including a front-rear extended portion that is in abutment against the side sill on the vehicle-width-direction inner side and extends in the vehicle front-rear direction along the side sill , wherein the front-rear extended portion includes: a first face portion that faces the floor panel in the up-down direction; an inner wall portion that extends toward the floor panel from an inner end portion of the first face portion in a vehicle width direction; and an inner-side flange that extends to the vehicle-width-direction inner side from a distal end portion of the inner wall portion and is joined to the floor panel , characterised in that a first face portion that faces the floor panel in the up-down direction; an inner wall portion that extends toward the floor panel from an inner end portion of the first face portion in a vehicle width direction; and an inner-side flange that extends to the vehicle-width-direction inner side from a distal end portion of the inner wall portion and is joined to the floor panel , characterised in that a deformation facilitating portion that facilitates deformation of the first face portion in the vehicle width direction when a collision load in the vehicle width direction is input is formed in the first face portion .
A two-wire process variable transmitter for use in an industrial process , comprising: a process variable sensor configured to sense a process variable of a process fluid of the industrial process ; output circuitry configured to provide a loop current on a two-wire process control loop which is related to the sensed process variable; terminal voltage measurement circuitry of the output circuitry configured to measure a terminal voltage of the process variable transmitter , the terminal voltage comprising a voltage measured across an electrical connection of the two-wire process variable transmitter to the two-wire process control loop ; a microprocessor configured to: during normal operation of the two-wire process control loop, use loop current values for loop currents set in response to the sensed process variable and measured terminal voltages in order to set coefficients of a polynomial equation which relates to loop current and to terminal voltage; perform loop diagnostics on the two-wire process control loop based upon a determined loop current, a further measured terminal voltage and upon the coefficients of the polynomial. a process variable sensor configured to sense a process variable of a process fluid of the industrial process ; output circuitry configured to provide a loop current on a two-wire process control loop which is related to the sensed process variable; terminal voltage measurement circuitry of the output circuitry configured to measure a terminal voltage of the process variable transmitter , the terminal voltage comprising a voltage measured across an electrical connection of the two-wire process variable transmitter to the two-wire process control loop ; a microprocessor configured to: during normal operation of the two-wire process control loop, use loop current values for loop currents set in response to the sensed process variable and measured terminal voltages in order to set coefficients of a polynomial equation which relates to loop current and to terminal voltage; perform loop diagnostics on the two-wire process control loop based upon a determined loop current, a further measured terminal voltage and upon the coefficients of the polynomial. use loop current values for loop currents set in response to the sensed process variable and measured terminal voltages in order to set coefficients of a polynomial equation which relates to loop current and to terminal voltage; perform loop diagnostics on the two-wire process control loop based upon a determined loop current, a further measured terminal voltage and upon the coefficients of the polynomial.
Crystaline form of 2-acrylamido-2-methylpropanesulphonic acid sodium salt ATBS.Na having an X-ray powder diffraction pattern comprising peaks at 11.7°; 12,2°; 13,2°; 13,5°; 15,6°; 16,8°; 17,8°; 18,5°; 19,1°; 20,6°; 21,4°; 23,3°; 25,1°; 25,8°; 26,9°; 29,1°; 29,5°; 31,0°; 33,0°; 33,6°; 34,4°; 35,2°; 35,9°; 37,1°; 38,4°; 39,6°; 41,1°; 42,9°; 45,1°; 46,0°; 47,2°; 47,6° 2-theta angles (+/- 0.1°).
A smokeless incinerator comprising: a first combustion chamber (A) provided with: a main combustor (A1) into which wastes can be thrown, the main combustor (A1) having firebrick walls (A12) and an auxiliary burner (A31) for supporting burning of the wastes; and a water cooling jacket (A2) that is located above the main combustor (A1) and has water cooling jacket walls (A27); a second combustion chamber (B) that is located on top of the first combustion chamber (A) and has a re-burning burner (B1) for burning unburned gas; a filter-equipped combustion chamber (C) that is aligned with and adjacent to the second combustion chamber (B) and has a ceramic filter (C1); a third combustion chamber (D) that is aligned with and adjacent to the filter-equipped combustion chamber (C) and has a dust collection cyclone (D3); a fourth combustion chamber (E) that is located on top of the third combustion chamber (D) and has a re-burning burner (E1) for burning unburned gas; and an exhaust stack (F) that is located on top of the fourth combustion chamber (E) and has a unit of forced exhaust (F2, F5), wherein the re-burning burner (B1) of the second combustion chamber (B) is fixed obliquely on a side face adjacent to an opposed face to the filter-equipped combustion chamber (C) at an acute angle (α) with respect to a direction toward the filter-equipped combustion chamber (C). a first combustion chamber (A) provided with: a main combustor (A1) into which wastes can be thrown, the main combustor (A1) having firebrick walls (A12) and an auxiliary burner (A31) for supporting burning of the wastes; and a water cooling jacket (A2) that is located above the main combustor (A1) and has water cooling jacket walls (A27); a main combustor (A1) into which wastes can be thrown, the main combustor (A1) having firebrick walls (A12) and an auxiliary burner (A31) for supporting burning of the wastes; and a water cooling jacket (A2) that is located above the main combustor (A1) and has water cooling jacket walls (A27); a second combustion chamber (B) that is located on top of the first combustion chamber (A) and has a re-burning burner (B1) for burning unburned gas; a filter-equipped combustion chamber (C) that is aligned with and adjacent to the second combustion chamber (B) and has a ceramic filter (C1); a third combustion chamber (D) that is aligned with and adjacent to the filter-equipped combustion chamber (C) and has a dust collection cyclone (D3); a fourth combustion chamber (E) that is located on top of the third combustion chamber (D) and has a re-burning burner (E1) for burning unburned gas; and an exhaust stack (F) that is located on top of the fourth combustion chamber (E) and has a unit of forced exhaust (F2, F5), wherein the re-burning burner (B1) of the second combustion chamber (B) is fixed obliquely on a side face adjacent to an opposed face to the filter-equipped combustion chamber (C) at an acute angle (α) with respect to a direction toward the filter-equipped combustion chamber (C).
A method of mapping a glint to a light source (107; 153), comprising: illuminating an object with patterns of a plurality of light sources (107; 153); capturing a plurality of images of the object at a camera (105; 134) while illuminating the object with corresponding ones of the patterns, wherein each of the light sources (107; 153) is off for at least one of the plurality of captured images and on for at least one of the plurality of captured images; analyzing glints in the plurality of captured images, including determining a minimum image for a first of the light sources (107; 153) that is a per-pixel minimum of all of the images for which the first light source (107; 153) is on, determining a maximum image for the first of the light sources (107; 153) that is a per-pixel maximum of all of the images for which the first light source (107; 153) is off, and computing a difference image for the first of the light sources (107; 153) that is a per-pixel unsigned saturated subtract operation of the maximum image for the first light source (107; 153) subtracted from the minimum image for the first light source (107; 153); and mapping a glint in the difference image for the first light source (107; 153) to the first light source (107; 153). illuminating an object with patterns of a plurality of light sources (107; 153); capturing a plurality of images of the object at a camera (105; 134) while illuminating the object with corresponding ones of the patterns, wherein each of the light sources (107; 153) is off for at least one of the plurality of captured images and on for at least one of the plurality of captured images; analyzing glints in the plurality of captured images, including determining a minimum image for a first of the light sources (107; 153) that is a per-pixel minimum of all of the images for which the first light source (107; 153) is on, determining a maximum image for the first of the light sources (107; 153) that is a per-pixel maximum of all of the images for which the first light source (107; 153) is off, and computing a difference image for the first of the light sources (107; 153) that is a per-pixel unsigned saturated subtract operation of the maximum image for the first light source (107; 153) subtracted from the minimum image for the first light source (107; 153); and mapping a glint in the difference image for the first light source (107; 153) to the first light source (107; 153).
A wind turbine rotor blade , with a rotor blade shell , which envelops an internal volume , and at least one vortex generator in the internal volume , wherein first vortex generators are arranged on an interior side of the rotor blade shell , and protrude into the internal volume , further with at least one web in the internal volume along a longitudinal direction (L) of the rotor blade , wherein second vortex generators are arranged on the at least one web . a rotor blade shell , which envelops an internal volume , and at least one vortex generator in the internal volume , wherein first vortex generators are arranged on an interior side of the rotor blade shell , and protrude into the internal volume , further with at least one web in the internal volume along a longitudinal direction (L) of the rotor blade , wherein second vortex generators are arranged on the at least one web .
Tent frame , in particular for a sunshade or play tent, having at least two tent frame modules each having two longitudinal struts which run vertically in the intended state of assembly; the tent frame modules being fastened to one another by a coupling device such that they can be folded against one another, wherein three transversely extending transverse struts are present in the tent frame modules in addition to the longitudinal struts ; wherein the transverse struts are each attached at their one end to any one of the two longitudinal struts and at their other end to the other of the two longitudinal struts and extend horizontally in the intended assembled state. two longitudinal struts which run vertically in the intended state of assembly; the tent frame modules being fastened to one another by a coupling device such that they can be folded against one another, wherein three transversely extending transverse struts are present in the tent frame modules in addition to the longitudinal struts ; wherein the transverse struts are each attached at their one end to any one of the two longitudinal struts and at their other end to the other of the two longitudinal struts and extend horizontally in the intended assembled state.
A method of operating a first node in a communication network , comprising: detecting establishment of a new physical communication link with a second node in the communication network; receiving a link layer discovery protocol, LLDP, message from the second node the method being characterised in that the LLDP message comprises a field that identifies a logical interface type that is to be supported over the new physical communication link; identifying a service associated with the identified logical interface type; and activating the identified service. detecting establishment of a new physical communication link with a second node in the communication network; receiving a link layer discovery protocol, LLDP, message from the second node the method being characterised in that the LLDP message comprises a field that identifies a logical interface type that is to be supported over the new physical communication link; identifying a service associated with the identified logical interface type; and activating the identified service.