mhurhangee/ep-ind-claims huggingface dataset:
An electric steering lock device, comprising: a frame having a shape of box with an opened surface and having a housing chamber formed inside the frame; a motor disposed inside the housing chamber, including a driving shaft, and configured to serve as a driving source; a worm gear fixed to the driving shaft of the motor; a worm wheel having a shape of disk, having a center shaft with one end pivotally supported by a bottom portion of the housing chamber, and disposed to be meshable with the worm gear; a motor cover configured to pivotally support the other end of the center shaft of the worm wheel and disposed inside the housing chamber while in contact with the motor; and a frame cover having a shape of box with an opened surface and mounted on the frame and seal an opening of the housing chamber, characterized by wherein the motor cover includes an edge portion located outside an inner side surface of the frame cover with the motor cover being disposed inside the housing chamber, configured to push the frame cover wider when the frame cover is mounted onto the frame, and configured to be pressed by the frame cover from the opened surface of the frame with the frame cover being mounted on the frame. a frame having a shape of box with an opened surface and having a housing chamber formed inside the frame; a motor disposed inside the housing chamber, including a driving shaft, and configured to serve as a driving source; a worm gear fixed to the driving shaft of the motor; a worm wheel having a shape of disk, having a center shaft with one end pivotally supported by a bottom portion of the housing chamber, and disposed to be meshable with the worm gear; a motor cover configured to pivotally support the other end of the center shaft of the worm wheel and disposed inside the housing chamber while in contact with the motor; and a frame cover having a shape of box with an opened surface and mounted on the frame and seal an opening of the housing chamber,
Device for immobilising and securing a swap body (15, 15.1, 15.2) unloaded from a truck, said device comprising a head, swap bodies (15, 15.1, 15.2) being transported by truck have on their underside guides cooperating with the truck, said head being placed on said immobilising and securing device sliding underneath the swap body (15, 15.1, 15.2) and immobilising it by blocking the underside of the swap body, said head including a metal structure supporting at least one means of detection of the underside of the swap body and means for blocking said swap body, the device being characterised in that the blocking means are at least two lateral arms (3a, 3b) moving symmetrically outwards from the metal structure until they abut against the guides, each arm (3a, 3b) being equipped with a non-slip contact pad (6a, 6b) which rests against the corresponding guide and retractable blocking pieces (10a,10b), which can be blocked against the cross members.
A carbonator for producing carbonated beverage comprising a carbonator head to which a beverage bottle may be fastened and a carbonator dissolver nozzle for introducing CO 2 -gas into a beverage, wherein the nozzle is adapted to protrude downward from the carbonator head and into the beverage bottle, the nozzle comprising - an upstream end that is adapted to be attached to the carbonator head, - a downstream end that is adapted to be immersed in the beverage within the bottle, and - a conduit leading though the nozzle from the upstream end to the downstream end, wherein at least the portion (p) of the nozzle that is immersed in the beverage during use is entirely made of metal, or wherein said portion (p) consists of parts entirely made of metal with non-metal sealing material between said parts, wherein at least the portion (p) of the nozzle that is immersed in the beverage during use has an outer surface of metal, characterized in that the area of the conduit is reduced in steps and comprises a main conduit section, and outlet taper section and an ultimate conduit section. - an upstream end that is adapted to be attached to the carbonator head, - a downstream end that is adapted to be immersed in the beverage within the bottle, and - a conduit leading though the nozzle from the upstream end to the downstream end, wherein at least the portion (p) of the nozzle that is immersed in the beverage during use is entirely made of metal, or wherein said portion (p) consists of parts entirely made of metal with non-metal sealing material between said parts, wherein at least the portion (p) of the nozzle that is immersed in the beverage during use has an outer surface of metal, characterized in that the area of the conduit is reduced in steps and comprises a main conduit section, and outlet taper section and an ultimate conduit section.
An actuator designed to control a robotic device and defining a first output and a second output; said outputs (1a, 1b) being designed to control the motion of said robotic device; said actuator comprising - a motor designed to generate motion; - a planetary gear train comprising ∘ a sun gear designed to receive motion from said motor, ∘ a satellite group, ∘ a planetary gear defining said first output and ∘ a crown defining said second output; - a selector designed to selectively lock the rotation of said planetary gear and of said crown defining a first operating condition wherein said crown is locked and said robotic device is moved by said first output and a second operating condition wherein said planetary gear is locked and said robotic device is moved by said second output; characterized in that - said actuation group comprises a crankcase; and wherein said selector comprises: a first lock for locking said crown to said crankcase; a second lock for locking said planetary gear to said crankcase; and a control for activating said locks (61, 62); and in that - said first lock comprises a first drum attached to said crown and comprising at least a first hole; a first pin designed for being inserted in said first hole; a first guide designed to allow said first pin to slide with respect to said crankcase; and first return means designed to work in opposition to the entry of said first pin in said first hole. - a motor designed to generate motion; - a planetary gear train comprising ∘ a sun gear designed to receive motion from said motor, ∘ a satellite group, ∘ a planetary gear defining said first output and ∘ a crown defining said second output; ∘ a sun gear designed to receive motion from said motor, ∘ a satellite group, ∘ a planetary gear defining said first output and ∘ a crown defining said second output; - a selector designed to selectively lock the rotation of said planetary gear and of said crown defining a first operating condition wherein said crown is locked and said robotic device is moved by said first output and a second operating condition wherein said planetary gear is locked and said robotic device is moved by said second output; characterized in that - said actuation group comprises a crankcase; and wherein said selector comprises: a first lock for locking said crown to said crankcase; a second lock for locking said planetary gear to said crankcase; and a control for activating said locks (61, 62); and in that - said first lock comprises a first drum attached to said crown and comprising at least a first hole; a first pin designed for being inserted in said first hole; a first guide designed to allow said first pin to slide with respect to said crankcase; and first return means designed to work in opposition to the entry of said first pin in said first hole.
Electrically operated tool appliance, having a rotatable tool head, having an electric-motor drive means for driving the tool head, having a control-system means for controlling the electric-motor drive means, and having an energy supply means for supplying at least the drive means with electrical energy, the tool appliance having a first cooling means for cooling the drive means and/or the control-system means, wherein a cooling capacity of the cooling means can be controlled independently of a rotational speed of the electric-motor drive means, wherein the first cooling means is arranged directly adjacent to the drive means, characterized in that the inlet openings for a flow duct for cooling air are arranged in the region of an energy supply means, wherein the cooling device is arranged in the tool appliance between the drive means and at least one outlet opening of the flow duct, and wherein the flow duct runs through the drive means at least partially transversely with respect to a drive shaft which is driven by the drive means.
Facility for the production of radionuclides, in particular diagnostic and therapeutic radionuclides, based on the principle of photonuclear irradiation, comprising • an electron accelerator, producing an electron beam, and a beam transfer line, • a converter target assembly with a converter target that converts the electron beam to Bremsstrahlung photons, • a number of production targets, irradiated by the Bremsstrahlung photons and thereby producing said radionuclides, characterised in that the converter target assembly comprises a sealed housing, the housing • enclosing a cavity which holds the converter target, • comprising an entry window with a window disk for the electron beam and an exit window for the Bremsstrahlung photons, • comprising cooling medium ports, these ports being part of a cooling circuit for establishing a cooling flow through the cavity, thereby cooling the converter target and the window disk, wherein • the converter target comprises a number of rotatable converter disks, • the electron beam is set off-center with respect to the respective converter disk, and wherein the respective converter disk is designed to rotate during operation of the facility, thereby, in the course of time, spreading the focal spot of the electron beam over an annular area of the converter disk. • an electron accelerator, producing an electron beam, and a beam transfer line, • a converter target assembly with a converter target that converts the electron beam to Bremsstrahlung photons, • a number of production targets, irradiated by the Bremsstrahlung photons and thereby producing said radionuclides, • enclosing a cavity which holds the converter target, • comprising an entry window with a window disk for the electron beam and an exit window for the Bremsstrahlung photons, • comprising cooling medium ports, these ports being part of a cooling circuit for establishing a cooling flow through the cavity, thereby cooling the converter target and the window disk, • the converter target comprises a number of rotatable converter disks, • the electron beam is set off-center with respect to the respective converter disk,
A system for limiting operating speed at high temperatures in a hydraulically-driven, self-propelled, agricultural product applicator having a hydraulic system including a pump supplying pressurized hydraulic fluid to a variable-displacement hydraulic motor (12, 14, 16, 18) operatively connected for propelling the applicator, the system comprising: a temperature sensor is operatively connected for detecting a temperature of the pressurized hydraulic fluid in the hydraulic system; and a propel controller is operatively connected to the temperature sensor and the propulsion motor (12, 14, 16, 18) and configured for limiting displacement of the propulsion motor (12, 14, 16, 18) according to a predetermined de-rated condition resulting in reduced motor speed, when a predetermined motor de-rating activation temperature limit of the hydraulic fluid is detected by the temperature sensor, characterised in that the propel controller is further configured for maintaining the propulsion motor (12, 14, 16, 18) in the de-rated condition until the temperature sensor detects that the hydraulic fluid temperature has dropped to a predetermined motor de-rating de-activation temperature that is lower than the motor de-rating activation temperature. a temperature sensor is operatively connected for detecting a temperature of the pressurized hydraulic fluid in the hydraulic system; and a propel controller is operatively connected to the temperature sensor and the propulsion motor (12, 14, 16, 18) and configured for limiting displacement of the propulsion motor (12, 14, 16, 18) according to a predetermined de-rated condition resulting in reduced motor speed, when a predetermined motor de-rating activation temperature limit of the hydraulic fluid is detected by the temperature sensor, characterised in that the propel controller is further configured for maintaining the propulsion motor (12, 14, 16, 18) in the de-rated condition until the temperature sensor detects that the hydraulic fluid temperature has dropped to a predetermined motor de-rating de-activation temperature that is lower than the motor de-rating activation temperature.
Electrically heatable item of clothing (2, 2') with heating elements (7, 7', 7", 27, 37) comprising an electrically conductive heating fabric, wherein the item of clothing (2, 2') has fixing elements for variation of the shape and or the size of the item of clothing (2, 2'), characterised in that the heating elements (7, 7', 7", 27, 37) have contacting elements (19, 19', 19") for electrical connection with neighbouring heating elements (7, 7', 7", 27, 37), and that the contacting elements of the heating element are short circuited with the fixing elements (11, 18) assigned to this heating element.
A method for studying a sample containing a bacterial population of Staphylococcus aureus by a mass spectrometry technique comprising the following steps: a) placing the sample in contact with the medium allowing ionization by action of a laser beam of the molecules present in the sample, b) ionizing the molecules present in the sample by means of a laser beam, c) accelerating the ionized molecules obtained by a potential difference, d) letting the ionized and accelerated molecules freely move in at least one tube under reduced pressure, e) detecting at least one portion of the ionized and accelerated molecules which have freely moved, so as to measure the time they took for covering at least one tube under reduced pressure and for obtaining a signal corresponding to the number of detected ionized molecules at a given instant, f) calculating the mass over charge ratio [m/z] of the detected molecules, so as to obtain a signal corresponding to the number of ionized molecules of a same mass over charge ratio [m/z], depending on the m/z ratio of the detected molecules, g) determining either directly or indirectly whether the ionized molecules obtained in step b), there were or not ionized molecules of a mass/charge ratio [m/z] equal to 3005 ± 5 Th or equal to 3035 ± 5 Th, h) issuing a decision conditioned by the results obtained in step g). a) placing the sample in contact with the medium allowing ionization by action of a laser beam of the molecules present in the sample, b) ionizing the molecules present in the sample by means of a laser beam, c) accelerating the ionized molecules obtained by a potential difference, d) letting the ionized and accelerated molecules freely move in at least one tube under reduced pressure, e) detecting at least one portion of the ionized and accelerated molecules which have freely moved, so as to measure the time they took for covering at least one tube under reduced pressure and for obtaining a signal corresponding to the number of detected ionized molecules at a given instant, f) calculating the mass over charge ratio [m/z] of the detected molecules, so as to obtain a signal corresponding to the number of ionized molecules of a same mass over charge ratio [m/z], depending on the m/z ratio of the detected molecules, g) determining either directly or indirectly whether the ionized molecules obtained in step b), there were or not ionized molecules of a mass/charge ratio [m/z] equal to 3005 ± 5 Th or equal to 3035 ± 5 Th, h) issuing a decision conditioned by the results obtained in step g).
- A method of manufacturing one or more electronic modules, characterised in that it comprises at least the following steps: Using: A flexible substrate comprising a plurality of connection holes passing through and on a first side at least one electrically conductive area, at the ends of which are one or more connection pads, and a second side, and An electrically conductive support comprising, on a first side, one or more connection areas, and a second side, Joining the second side of said flexible substrate to said second side of said electrically conductive support by means of an adhesive layer, Positioning an integrated circuit on or at the first side of said substrate, Connecting one or more contacts of said integrated circuit to the connection area(s) via said connection holes, and to the connection pads, Applying a protective layer to the integrated circuit. Using: A flexible substrate comprising a plurality of connection holes passing through and on a first side at least one electrically conductive area, at the ends of which are one or more connection pads, and a second side, and An electrically conductive support comprising, on a first side, one or more connection areas, and a second side, A flexible substrate comprising a plurality of connection holes passing through and on a first side at least one electrically conductive area, at the ends of which are one or more connection pads, and a second side, and An electrically conductive support comprising, on a first side, one or more connection areas, and a second side, Joining the second side of said flexible substrate to said second side of said electrically conductive support by means of an adhesive layer, Positioning an integrated circuit on or at the first side of said substrate, Connecting one or more contacts of said integrated circuit to the connection area(s) via said connection holes, and to the connection pads, Applying a protective layer to the integrated circuit.
Expansion anchor having - an anchor bolt with a rear face, - a displaceable body located adjacent to the anchor bolt, - at least one wedge body located in a front region of the anchor bolt, wherein the wedge body has a converging zone for displacing the displaceable body, and - an optically readable code, which is located at the rear face of the anchor bolt, characterized in that - the expansion anchor has at least one code protection protrusion, which projects, from the anchor bolt, rearwardly beyond the optically readable code. - an anchor bolt with a rear face, - a displaceable body located adjacent to the anchor bolt, - at least one wedge body located in a front region of the anchor bolt, wherein the wedge body has a converging zone for displacing the displaceable body, and - an optically readable code, which is located at the rear face of the anchor bolt, - the expansion anchor has at least one code protection protrusion, which projects, from the anchor bolt, rearwardly beyond the optically readable code.
A medical container (1A, 1B) comprising: a tube body having, at a distal end portion thereof, a mouth section through which a liquid can enter and exit; and a bag body which is disposed inside the tube body and which is flexible and reversible, wherein when a liquid enters and exits through the mouth section, the bag body is reversed so as to change the volume of a space surrounded by the tube body and the bag body wherein the bag body is reversed with a portion as a fulcrum, and wherein the bag body has a bottom section and a side section; characterized in that the portion is near an intermediate part in the axial direction inside the tube body, the side section is integrally formed at an edge portion of the bottom section, wherein when the bag body is reversed, the side section is brought into close contact with a portion of the tube body that is positioned on the distal end side relative to the fulcrum, and the bag body is reversed with the portion near an intermediate part in the axial direction inside the tube body, and wherein the thickness of the side section is smaller than the thickness of the bottom section and/or the material of the bottom section is harder than the material of the side section. a tube body having, at a distal end portion thereof, a mouth section through which a liquid can enter and exit; and a bag body which is disposed inside the tube body and which is flexible and reversible, wherein when a liquid enters and exits through the mouth section, the bag body is reversed so as to change the volume of a space surrounded by the tube body and the bag body wherein the bag body is reversed with a portion as a fulcrum, and wherein the bag body has a bottom section and a side section;
A system comprising: an electrically conductive heating element, a sensor assembly, wherein the sensor assembly comprises a coupler having a sight opening configured to receive a wavelength directly from the electrically conductive heating element, and an optical sensor configured to receive the wavelength from the electrically conductive heating element directly through the sight opening of the coupler, the optical sensor being configured to provide an over-temperature feedback signal in response to the wavelength from the electrically conductive heating element, the over-temperature feedback signal being representative of a temperature of the electrically conductive heating element; and a heater controller configured to drive the electrically conductive heating element to a desired temperature of the electrically conductive heating element, the heater controller being further configured to limit power delivered to the electrically conductive heating element in response to the over-temperature feedback signal. an electrically conductive heating element, a sensor assembly, wherein the sensor assembly comprises a coupler having a sight opening configured to receive a wavelength directly from the electrically conductive heating element, and an optical sensor configured to receive the wavelength from the electrically conductive heating element directly through the sight opening of the coupler, the optical sensor being configured to provide an over-temperature feedback signal in response to the wavelength from the electrically conductive heating element, the over-temperature feedback signal being representative of a temperature of the electrically conductive heating element; and a heater controller configured to drive the electrically conductive heating element to a desired temperature of the electrically conductive heating element, the heater controller being further configured to limit power delivered to the electrically conductive heating element in response to the over-temperature feedback signal.
Method for preparing handover of a mobile device from a serving base station in a radio communications system, comprising the steps of - sending an identity indicator of the mobile device, from the serving base station to each base station of a predetermined list of neighbouring base stations located in the vicinity of the serving base station; - receiving, from at least a subset of said neighbouring base stations, detection data representing the respective base station's ability to detect the mobile device; - sending cell identity data, based on the received detection data, from the serving base station to the mobile device, said cell identity data representing an instruction for the mobile device to conduct measurements on a set of candidate base stations selected from the list of neighbouring base stations. - sending an identity indicator of the mobile device, from the serving base station to each base station of a predetermined list of neighbouring base stations located in the vicinity of the serving base station; - receiving, from at least a subset of said neighbouring base stations, detection data representing the respective base station's ability to detect the mobile device; - sending cell identity data, based on the received detection data, from the serving base station to the mobile device, said cell identity data representing an instruction for the mobile device to conduct measurements on a set of candidate base stations selected from the list of neighbouring base stations.