mhurhangee/ep-ind-claims huggingface dataset:
A pump set for use with a pumping apparatus, the pump set comprising: tubing (45, 77) for carrying a liquid, the tubing (45, 77) comprising an inlet section for connection to a liquid source and a pump engagement section configured for engagement by the pumping apparatus to pump the liquid through the tubing (45, 77); and a valve mechanism (66, 68) attached to the tubing (45, 77) between the inlet section and the pump engagement section, the valve mechanism (66, 68) comprising a first port connected to the inlet section of the tubing, a second port connected to the pump engagement section of the tubing, and a valve disposed between the first and second ports (69, 71), the valve including a rotatable stem to selectively communicate the first port with the second port, the stem including a flow passage extending through the stem from an inlet end of the flow passage to an outlet end of the flow passage whereby the inlet end of the flow passage communicates with the first port and the outlet end of the flow passage communicates with the second port to place the inlet section of the tubing (45, 77) in communication with the pump engagement section of the tubing (45, 77), the flow passage increasing in cross-sectional area from the inlet end toward the outlet end, wherein the cross-sectional area of the flow passage changes at different rates through the flow passage from the inlet end to the outlet end. tubing (45, 77) for carrying a liquid, the tubing (45, 77) comprising an inlet section for connection to a liquid source and a pump engagement section configured for engagement by the pumping apparatus to pump the liquid through the tubing (45, 77); and a valve mechanism (66, 68) attached to the tubing (45, 77) between the inlet section and the pump engagement section, the valve mechanism (66, 68) comprising a first port connected to the inlet section of the tubing, a second port connected to the pump engagement section of the tubing, and a valve disposed between the first and second ports (69, 71), the valve including a rotatable stem to selectively communicate the first port with the second port, the stem including a flow passage extending through the stem from an inlet end of the flow passage to an outlet end of the flow passage whereby the inlet end of the flow passage communicates with the first port and the outlet end of the flow passage communicates with the second port to place the inlet section of the tubing (45, 77) in communication with the pump engagement section of the tubing (45, 77), the flow passage increasing in cross-sectional area from the inlet end toward the outlet end, wherein the cross-sectional area of the flow passage changes at different rates through the flow passage from the inlet end to the outlet end.
Straightening device for long or rod-shaped metal products, comprising an upper roll unit and a lower roll unit mounted on a bearing structure, wherein the upper roll unit is mobile and can be positioned vertically at least in the step where a passage gap of said products is set to a desired value, wherein a hydraulic safety/control device is associated with the lower roll unit and comprises a single-effect hydraulic actuator (19, 119) of the selectively yielding type when an overload condition higher than a predetermined value is detected on said lower roll unit, wherein said hydraulic safety/control device comprises a mobile part, or piston unit (27, 127), comprising a support directly anchored to said lower roll unit, and a fixed part (28, 29, 39, 40) anchored to said bearing structure or to another fixed part of the straightening device, said mobile part (27, 127) and said fixed part (28, 29, 39, 40) being separated by a chamber (26, 126) which can be selectively filled with/emptied of hydraulic fluid, wherein said chamber (26, 126) has an upper face directly in contact with a corresponding lower face of the mobile part (27, 127) and a lower face directly in contact with a corresponding upper face of the fixed part (28, 29, 39, 40), wherein said mobile part further comprises an intermediate sleeve or flange (22, 38) with a lower face directly in contact with the upper face of the chamber (26, 126), and a first metal tube (23, 123) which contains the intermediate sleeve or flange (22, 38), and wherein a mechanical abutment tooth protruding towards the outside of the first metal tube (23, 123) is provided on said mobile part (27, 127) of the single-effect hydraulic actuator (19, 119), the abutment tooth being vertically movable inside a cavity so as to determine the maximum raised position in the filling step of said chamber (26, 126) when the abutment tooth is in abutment with a fixed striker plate defined above said cavity, to take said lower roll unit to its stable maximum raised operating position.
A locking element for cooperation with a curtain rail, comprising: - at least one carrying structure configured to be received at least partially in a space enclosed by a curtain rail, - at least one locking member movably connected to the at least one carrying structure, wherein the at least one locking member is movable between a locked state, in which the at least one locking member engages under tension with an inner surface of the curtain rail whereby the carrying structure is substantially locked with respect to the curtain rail, and an unlocked state, in which the at least one locking member does not lock the carrying structure with respect to the curtain rail, and characterized in that at least one actuating member cooperating with the at least one locking member for manual displacement of the at least one locking member between the locked state and the unlocked state, wherein the at least one actuating member is configured to project at least partially with respect to the curtain rail. - at least one carrying structure configured to be received at least partially in a space enclosed by a curtain rail, - at least one locking member movably connected to the at least one carrying structure, wherein the at least one locking member is movable between a locked state, in which the at least one locking member engages under tension with an inner surface of the curtain rail whereby the carrying structure is substantially locked with respect to the curtain rail, and an unlocked state, in which the at least one locking member does not lock the carrying structure with respect to the curtain rail, and
Method of franking a mail item through a telecommunication network, characterized in that it comprises the following steps: - at a portable communication device of a sender of this mail item, inputting an identifier of a mailbox attached to a mail receiving office and in which said mail item will be deposited, - transmitting of this identifier with other postal data, including at least one postage amount and a unique identification code relating to this mail item, to a franking dealer server responsible for providing franking authorization to the sender after verifying of its access rights and confirmation of payment after debiting said postage amount if the credit of the sender is sufficient, - depositing said mail item in said mailbox, and - transferring or giving access rights from said franking dealer server, based on said identifier of the mailbox, of all postal data corresponding to the mail items deposited in said mailbox to or at a server of said mail receiving office to which said mailbox is attached for allowing a control of the validity of said mail item by said mail receiving office. - at a portable communication device of a sender of this mail item, inputting an identifier of a mailbox attached to a mail receiving office and in which said mail item will be deposited, - transmitting of this identifier with other postal data, including at least one postage amount and a unique identification code relating to this mail item, to a franking dealer server responsible for providing franking authorization to the sender after verifying of its access rights and confirmation of payment after debiting said postage amount if the credit of the sender is sufficient, - depositing said mail item in said mailbox, and - transferring or giving access rights from said franking dealer server, based on said identifier of the mailbox, of all postal data corresponding to the mail items deposited in said mailbox to or at a server of said mail receiving office to which said mailbox is attached for allowing a control of the validity of said mail item by said mail receiving office.
Heat exchanger (1, 1b) for switches, with a condensation chamber (20, 20b) comprising a chamber ceiling (21, 21b) and a chamber base (22, 22b), a connecting opening (30, 30b) for connection to a geothermal heat pipe leading into said condensation chamber, wherein the condensation chamber (20, 20b) is arranged on the inside in a one-piece main component (10, 10b), characterised in that the main component (10, 10b) is a cast component or a sintered component, wherein the condensation chamber (20, 20b) is recast all around.
Monitoring system for coffee machines, comprising: - a remote server; - at least one coffee machine having - an electronic circuitry (14, 40, 41) configured for collecting and storing usage parameters of the machine; - a display connected to the electronic circuitry, - a device external to the machine; characterized in that said electronic circuitry (14, 40, 41) is configured so as to display on the display a menu for selection of the usage parameters of the machine or of a subset of such parameters by a user, and the electronic circuit is further configured for encoding the selected parameters into one or more bar codes of the QR code type; in that the display is configured for displaying information processed by the electronic circuitry (14, 40, 41) in the form of the one or more QR codes coded by the electronic circuitry; and in that said device external to the machine is a device of the smart-phone type configured for - acquiring through photos the information processed and coded by the electronic circuitry and displayed on the display in the form of the one or more QR codes, - decoding the one or more QR codes displayed on the display and forming a data string; and - transmitting it to the remote server. - a remote server; - at least one coffee machine having - an electronic circuitry (14, 40, 41) configured for collecting and storing usage parameters of the machine; - a display connected to the electronic circuitry, - an electronic circuitry (14, 40, 41) configured for collecting and storing usage parameters of the machine; - a display connected to the electronic circuitry, - a device external to the machine; - acquiring through photos the information processed and coded by the electronic circuitry and displayed on the display in the form of the one or more QR codes, - decoding the one or more QR codes displayed on the display and forming a data string; and - transmitting it to the remote server.
Cooling front panel for a vehicle, in particular a motor vehicle, having a member associated with at least one stud for holding and vibratory filtration of the said member, the stud having a filtration device made of deformable material, which is surrounded at least partially by a cage made of non-deformable material, the cage carrying an interfacing system with the said member of the cooling front panel, the filtration device having at least one first portion for receiving the cage, this first portion being cylindrical in shape, characterized in that the filtration device has at least one second portion for receiving the cage, the cage being selectively secured around the first cylindrical receiving portion by surrounding it at least partially or around the second receiving portion.
Method for creating magnetic resonance images of a target object with the method steps - Recording of a separate reference dataset for each slice of the target object to be imaged by means of a magnetic resonance system by carrying out a respective reference scan (16, 18, 20, 21, RE1) of the target object by means of a GRE sequence or a RARE sequence for each slice of the target object to be imaged, - Recording of a separate correction dataset for each slice of the target object to be imaged by means of the magnetic resonance system by carrying out a respective phase correction scan (23, 24, 26, 27, E1, E2, E3) of the target object by means of a non-phase-encoding EPI sequence for each slice of the target object to be imaged, - Recording of a measurement dataset of the target object by means of the magnetic resonance system by means of an SMS sequence (14, 15), - Determination of slice-specific GRAPPA kernels from the reference dataset, and - Creation of the magnetic resonance images of the target object from the measurement dataset by a slice GRAPPA method by means of a data processing device, wherein - Data of the measurement dataset belonging to different slices of the slices imaged is separated from one another by means of the slice-specific GRAPPA kernels, and - Nyquist-N/2 ghost artifacts in the measurement dataset are corrected by means of the correction dataset. - Recording of a separate reference dataset for each slice of the target object to be imaged by means of a magnetic resonance system by carrying out a respective reference scan (16, 18, 20, 21, RE1) of the target object by means of a GRE sequence or a RARE sequence for each slice of the target object to be imaged, - Recording of a separate correction dataset for each slice of the target object to be imaged by means of the magnetic resonance system by carrying out a respective phase correction scan (23, 24, 26, 27, E1, E2, E3) of the target object by means of a non-phase-encoding EPI sequence for each slice of the target object to be imaged, - Recording of a measurement dataset of the target object by means of the magnetic resonance system by means of an SMS sequence (14, 15), - Determination of slice-specific GRAPPA kernels from the reference dataset, and - Creation of the magnetic resonance images of the target object from the measurement dataset by a slice GRAPPA method by means of a data processing device, wherein - Data of the measurement dataset belonging to different slices of the slices imaged is separated from one another by means of the slice-specific GRAPPA kernels, and - Nyquist-N/2 ghost artifacts in the measurement dataset are corrected by means of the correction dataset. - Data of the measurement dataset belonging to different slices of the slices imaged is separated from one another by means of the slice-specific GRAPPA kernels, and - Nyquist-N/2 ghost artifacts in the measurement dataset are corrected by means of the correction dataset.
Method in a base station for transmitting information data to a terminal, the base station and the terminal and a control node are comprised within a wireless communication network, the information data comprises a first data block and a second data block, which first and second data blocks (301, 302) are arranged to be transmitted to the same terminal or to different terminals (120, 130), the method comprising the steps of: obtaining a first access grant parameter, Uplink State Flag "USF" value, and a second access grant parameter,USF value, to be sent across the first data block and the second data block, obtaining a first modulation technique associated with the first data block, encoding first parts of the obtained first and second USF values (310, 320) and the first data block for the obtained first modulation technique, modulating the encoded first parts of the first and second USF values (310, 320) and the encoded first data block, according to the obtained first modulation technique, transmitting the modulated first parts of the first and second USF values (310, 320) and the modulated first data block, obtaining a second modulation technique associated with the second data block, encoding second parts of the obtained first and second USF values (310, 320) and the second data block for the obtained second modulation technique, modulating the encoded second parts of the first and second USF values (310, 320) and the encoded second data block according to the obtained second modulation technique, and transmitting the modulated second parts of the first and second USF values (310, 320) and the modulated second data block. obtaining a first access grant parameter, Uplink State Flag "USF" value, and a second access grant parameter,USF value, to be sent across the first data block and the second data block, obtaining a first modulation technique associated with the first data block, encoding first parts of the obtained first and second USF values (310, 320) and the first data block for the obtained first modulation technique, modulating the encoded first parts of the first and second USF values (310, 320) and the encoded first data block, according to the obtained first modulation technique, transmitting the modulated first parts of the first and second USF values (310, 320) and the modulated first data block, obtaining a second modulation technique associated with the second data block, encoding second parts of the obtained first and second USF values (310, 320) and the second data block for the obtained second modulation technique, modulating the encoded second parts of the first and second USF values (310, 320) and the encoded second data block according to the obtained second modulation technique, and transmitting the modulated second parts of the first and second USF values (310, 320) and the modulated second data block.
An Infrared Suppression System (24, 24') adapted to be installed in an aircraft having an airframe, comprising: an exhaust manifold (26, 26') which is configured to receive, in an installed condition, an engine exhaust flow generally along a longitudinal engine axis, and have, in said installed condition, an inboard portion and an outboard portion with respect to said airframe, said exhaust manifold (26, 26') defining an exhaust manifold plane which passes through said inboard portion and said outboard portion; and said exhaust manifold (26; 26') is configured to have, in said installed condition, a longitudinal extension along said longitudinal engine axis; characterized in that said system further comprise an exhaust duct (28, 28') which is configured to have a high aspect ratio';, as defined by the ratio of maximum nozzle length to maximum nozzle width of the exhaust duct (28, 28'), and said exhaust duct (28, 28') is configured to extend along said longitudinal extension of said exhaust manifold (26, 26'), such as to be, in said installed condition, longitudinally in-line with said longitudinal engine axis and extending laterally from said exhaust manifold (26, 26') on one side of said exhaust manifold plane to vector said engine exhaust flow towards a predefined aft angle and a predefined outboard angle relative to said exhaust manifold plane. an exhaust manifold (26, 26') which is configured to receive, in an installed condition, an engine exhaust flow generally along a longitudinal engine axis, and have, in said installed condition, an inboard portion and an outboard portion with respect to said airframe, said exhaust manifold (26, 26') defining an exhaust manifold plane which passes through said inboard portion and said outboard portion; and said exhaust manifold (26; 26') is configured to have, in said installed condition, a longitudinal extension along said longitudinal engine axis; characterized in that said system further comprise an exhaust duct (28, 28') which is configured to have a high aspect ratio';, as defined by the ratio of maximum nozzle length to maximum nozzle width of the exhaust duct (28, 28'), and said exhaust duct (28, 28') is configured to extend along said longitudinal extension of said exhaust manifold (26, 26'), such as to be, in said installed condition, longitudinally in-line with said longitudinal engine axis and extending laterally from said exhaust manifold (26, 26') on one side of said exhaust manifold plane to vector said engine exhaust flow towards a predefined aft angle and a predefined outboard angle relative to said exhaust manifold plane.
A real-time galley power management and fault monitoring system for an aircraft, the system comprising: an aircraft cabin having an aircraft cabin interior provided with a network server and a galley complex (22, 24, 26, 28) in the interior of the aircraft cabin, a wireless galley control unit and a plurality of galley inserts (42, 44, 46) inside the galley complex (22, 24, 26, 28), the wireless galley control unit being configured for wireless communication with the network server and to communicate status information and fault information of the plurality of galley inserts (42, 44, 46) to the network server, wherein the network server has a memory that records status information and fault information communicated to the network server by the wireless galley control unit.
Use of an apparatus for heat treatment of motor vehicles or motor vehicle parts, in particular for the purpose of killing pests, wherein the apparatus comprises an insulated sea freight container for temperature-controlled transportation, at least one fan, a refrigeration unit which is optionally arranged within the container and which is optionally functional, and at least one heat exchanger.
Fully automatic filling device for filling battery cells, in particular lead-acid accumulator cells, with an electrolyte solution, in particular a sulfuric electrolyte solution, the device comprising a. a mixing unit, in particular a mixing cylinder, for preparing an electrolyte solution from several components at temperatures between -25°C and 0°C; b. a dosing unit for introducing the electrolyte solution into the battery cell, wherein the dosing unit is fluidically connected to the mixing unit and arranged downstream thereof in the direction of flow of the electrolyte solution; c. a controlling/regulating unit for fully automatic control and regulation of at least the mixing unit and the dosing unit, the controlling/regulating unit comprising a digital data processing means, a digital data storage as well as sensors and actuators connected to the mixing unit and/or dosing unit in data transmitting manner, characterized by a vibration unit for generating high-frequency vibrations within the electrolyte solution. a. a mixing unit, in particular a mixing cylinder, for preparing an electrolyte solution from several components at temperatures between -25°C and 0°C; b. a dosing unit for introducing the electrolyte solution into the battery cell, wherein the dosing unit is fluidically connected to the mixing unit and arranged downstream thereof in the direction of flow of the electrolyte solution; c. a controlling/regulating unit for fully automatic control and regulation of at least the mixing unit and the dosing unit, the controlling/regulating unit comprising a digital data processing means, a digital data storage as well as sensors and actuators connected to the mixing unit and/or dosing unit in data transmitting manner,
A housing for accommodating an electronic functional element, in particular an LED and/or a FET, comprising: - a base body made of metal, having an upper surface which at least partially defines a mounting area for at least one electronic functional element so that said base body forms a heat sink for at least one electronic functional element, and further having a lower surface, and a lateral surface; and - at least one connecting body made of metal, for at least one electronic functional element, which is joined to the base body at least by one glass layer; characterized in that the bonding glass layer is formed by an alkali titanium silicate glass. - a base body made of metal, having an upper surface which at least partially defines a mounting area for at least one electronic functional element so that said base body forms a heat sink for at least one electronic functional element, and further having a lower surface, and a lateral surface; and - at least one connecting body made of metal, for at least one electronic functional element, which is joined to the base body at least by one glass layer; the bonding glass layer is formed by an alkali titanium silicate glass.