mhurhangee/patent-ind-claim-en huggingface dataset:
A device for maneuvering an aerodynamic flap arranged on a motor vehicle, wherein it comprises mechanical means for causing the flap to pass from a retracted position to a deployed position, by performing movements in a given order: - extending the flap while keeping the plane of the flap parallel to the direction of an air flow circulating around the flap when the vehicle is moving, such that the aerodynamic pressure exerted on the flap when the vehicle is moving is substantially zero, then - pivoting the flap about a pivot axis (AA') situated in a plane of the flap and passing substantially through a center of aerodynamic thrust of the flap , such that the torque applied on the pivot axis (AA')and resulting from the aerodynamic forces exerted on the flap when the vehicle is moving is substantially zero, and, conversely, from a deployed position to a retracted position by performing said movements in reverse order. - extending the flap while keeping the plane of the flap parallel to the direction of an air flow circulating around the flap when the vehicle is moving, such that the aerodynamic pressure exerted on the flap when the vehicle is moving is substantially zero, then - pivoting the flap about a pivot axis (AA') situated in a plane of the flap and passing substantially through a center of aerodynamic thrust of the flap , such that the torque applied on the pivot axis (AA')and resulting from the aerodynamic forces exerted on the flap when the vehicle is moving is substantially zero,
A composition comprising a therapeutically effective amount of a combination of retinoic acid and an agonist of proliferator-activated receptor α ("PPARα"), wherein the agonist of PPARα is gemfibrozil; for use in treating a disease associated with aggregation of amyloid-β protein in the brain of a subject by reducing amyloid-β protein aggregates in the brain of a subject; wherein the therapeutically effective amount is an amount that stimulates the uptake of amyloid-β protein by astrocytes; or wherein the therapeutically effective amount is an amount that stimulates degradation of amyloid-β protein by astrocytes.
Lid for a large refuse container having a capacity of 1000 up to 1100 litres, wherein the lid is provided as a hinged lid in form of a flat lid, comprising a first lid part element and a second lid part element , wherein the first lid part element is attachable to a refuse container body of the large refuse container and the second lid part element is pivotably arranged at the first lid part element , wherein the first lid part element and the second lid part element are connected to each other via an articulating joint , such that the second lid part element can get folded back into an opened position, in which the second lid part element is placed on the outer surface of the first lid part element , characterized in that a fixing device is provided, that the fixing device is configured for fixing the second lid part element in the opened position, that the fixing device is comprised of two components , which are part of a mechanical lock device, that the first component is arranged on the outer surface of the first lid part element , that the second component is arranged on the outer surface of the second lid part element , and that, when the second lid part element is folded into the open position, both component interlock.
Process for manufacturing a composite material comprising fibres and at least one vinyl chloride polymer comprising the immersion of the fibres in a hydrosol of said polymer in order to obtain fibres coated with said hydrosol followed by the drying and gelling of said hydrosol coated on the fibres, wherein the hydrosol does not contain an organic solvent, and the hydrosol is a fluid and colloidal system having a dispersed phase and a continuous phase, the dispersed phase comprising the vinyl chloride polymer and the continuous phase is water, and further wherein the vinyl chloride polymer content of the hydrosol is greater than 15% by weight to less than 50% by weight.
A fluid machine comprising: a casing ; a first rotor fixed to a first shaft , the first rotor and first shaft being rotatable about a first axis, wherein the first shaft is rotatably supported by the casing; a second rotor supported by a second shaft , the second rotor being rotatable about a second axis, wherein the second rotor is configured to rotate about the second shaft and wherein the second shaft is supported by and fixed relative to the casing; a sump having a volume of lubricant contained therein; a first lubricant passage for supplying lubricant from the sump to a dynamic interface associated with the first rotor; and a second lubricant passage for supplying lubricant from the sump to a dynamic interface associated with the second rotor; wherein a pressure differential created within the fluid machine supplies the lubricant from the sump to the first lubricant passage and the second lubricant passage simultaneously. a casing ; a first rotor fixed to a first shaft , the first rotor and first shaft being rotatable about a first axis, wherein the first shaft is rotatably supported by the casing; a second rotor supported by a second shaft , the second rotor being rotatable about a second axis, wherein the second rotor is configured to rotate about the second shaft and wherein the second shaft is supported by and fixed relative to the casing; a sump having a volume of lubricant contained therein; a first lubricant passage for supplying lubricant from the sump to a dynamic interface associated with the first rotor; and a second lubricant passage for supplying lubricant from the sump to a dynamic interface associated with the second rotor; wherein a pressure differential created within the fluid machine supplies the lubricant from the sump to the first lubricant passage and the second lubricant passage simultaneously.
A camera module of an electronic device, comprising a circuit board , a chip , an image sensor and a connection frame , wherein the chip is arranged on the circuit board, the image sensor is arranged on the chip, the connection frame is arranged on the periphery of the chip, the chip is electrically connected with the circuit board by the connection frame, and the image sensor is located in the space surrounded by the connection frame; wherein the connection frame comprises a frame body and an electrical connection part arranged on the frame body, and the electrical connection part is electrically connected with the chip and the circuit board, wherein the frame body comprises an enclosure frame and a lap edge arranged at the top of the enclosure frame, the lap edge extends in a direction close to the axis of the enclosure frame, the enclosure frame is arranged on the periphery of the chip, and the lap edge is lapped on a top surface of the chip, the top surface is away from the circuit board; and wherein the electrical connection part is a lead wire affixed on the inner wall of the frame body, pins of one end of the lead wire are arranged on the lap edge, and pins of the other end of the lead wire are arranged between the bottom end of the enclosure frame and the circuit board; wherein the bottom end of the enclosure frame and the circuit board are fixedly connected by a conductive adhesive layer, and the conductive adhesive layer is electrically connected with the pins at the other end of the lead wire; wherein the pins at one end of the lead wire are connected with the chip through gold bump welding. wherein the connection frame comprises a frame body and an electrical connection part arranged on the frame body, and the electrical connection part is electrically connected with the chip and the circuit board, wherein the frame body comprises an enclosure frame and a lap edge arranged at the top of the enclosure frame, the lap edge extends in a direction close to the axis of the enclosure frame, the enclosure frame is arranged on the periphery of the chip, and the lap edge is lapped on a top surface of the chip, the top surface is away from the circuit board; and wherein the electrical connection part is a lead wire affixed on the inner wall of the frame body, pins of one end of the lead wire are arranged on the lap edge, and pins of the other end of the lead wire are arranged between the bottom end of the enclosure frame and the circuit board; wherein the bottom end of the enclosure frame and the circuit board are fixedly connected by a conductive adhesive layer, and the conductive adhesive layer is electrically connected with the pins at the other end of the lead wire; wherein the pins at one end of the lead wire are connected with the chip through gold bump welding.
A method of producing a radiation sensor semiconductor device with a multiple colour filter, comprising: - providing a semiconductor device comprising a semiconductor layer with at least one radiation sensor and a dielectric layer , - arranging a web comprising a plurality of recesses on the dielectric layer , and - introducing ink of different colours (A, B, C) in the recesses by inkjets (I), characterized in that - the web is formed from semiconductor material, which is applied on the surface of the dielectric layer . - providing a semiconductor device comprising a semiconductor layer with at least one radiation sensor and a dielectric layer , - arranging a web comprising a plurality of recesses on the dielectric layer , and - introducing ink of different colours (A, B, C) in the recesses by inkjets (I), characterized in that - the web is formed from semiconductor material, which is applied on the surface of the dielectric layer .
A mobile network system for provisioning mobile data services for one or more mobile devices that employ a secure element, the system comprising: a subscription manager data preparation server, wherein the subscription manager data preparation server is configured to: maintain a list of protected profiles, wherein the protected profiles are associated with one or more credentials of a mobile network operator of a mobile network; when the secure element is outside a range of the mobile network, receive a data service request associated with the secure element, the data service request specifying a timeframe for when the secure element is expected to be within the range of the mobile network; identify an available protected profile in the maintained list of protected profiles using the timeframe specified in the received data service request; and create a bound profile by associating the identified protected profile with the received data service request and a unique identifier associated with the secure element. maintain a list of protected profiles, wherein the protected profiles are associated with one or more credentials of a mobile network operator of a mobile network; when the secure element is outside a range of the mobile network, receive a data service request associated with the secure element, the data service request specifying a timeframe for when the secure element is expected to be within the range of the mobile network; identify an available protected profile in the maintained list of protected profiles using the timeframe specified in the received data service request; and create a bound profile by associating the identified protected profile with the received data service request and a unique identifier associated with the secure element.
A pitot tube comprising: a substantially cylindrical body portion having an interior defining a flow passage; and a tip portion extending along a pitot tube axis from the body portion, and characterised by the tip portion including: a disk in thermal contact with a heating element ; a tip cover pressed against the disk; and a high thermal conductive insert disposed between the disk and the tip cover and in thermal contact with both, wherein the high thermal conductive insert has higher thermal conductivity than the body portion, the disk, and the tip cover. a substantially cylindrical body portion having an interior defining a flow passage; and a tip portion extending along a pitot tube axis from the body portion, and characterised by the tip portion including: a disk in thermal contact with a heating element ; a tip cover pressed against the disk; and a high thermal conductive insert disposed between the disk and the tip cover and in thermal contact with both, wherein the high thermal conductive insert has higher thermal conductivity than the body portion, the disk, and the tip cover. a disk in thermal contact with a heating element ; a tip cover pressed against the disk; and a high thermal conductive insert disposed between the disk and the tip cover and in thermal contact with both, wherein the high thermal conductive insert has higher thermal conductivity than the body portion, the disk, and the tip cover.
A method of controlling a three phase voltage of a multilevel inverter , comprising: sensing (S1) a state of each of power cells of the multilevel inverter to determine whether or not failure occurs at each of the power cells ; bypassing (S2) power cells which are determined as being failed to connect power cells operating normally to each other in series per each phase; characterized by calculating an offset voltage value using a difference value between a phase voltage reference per each phase and output value of a bound function which uses a sum of each of direct current, DC, link voltages of the power cells which operate normally and configure each of the phases; calculating (S7) a pole voltage reference per each phase for maintaining an equivalence of a three phase line-to-line output voltage, using the phase voltage reference per each phase and the calculated offset voltage; and generating (S8) a switching control signal from the calculated pole voltage reference per each phase through a pulse width modulation (PWM), thereby outputting the switching control signal to each of the power cells . sensing (S1) a state of each of power cells of the multilevel inverter to determine whether or not failure occurs at each of the power cells ; bypassing (S2) power cells which are determined as being failed to connect power cells operating normally to each other in series per each phase; characterized by calculating an offset voltage value using a difference value between a phase voltage reference per each phase and output value of a bound function which uses a sum of each of direct current, DC, link voltages of the power cells which operate normally and configure each of the phases; calculating (S7) a pole voltage reference per each phase for maintaining an equivalence of a three phase line-to-line output voltage, using the phase voltage reference per each phase and the calculated offset voltage; and generating (S8) a switching control signal from the calculated pole voltage reference per each phase through a pulse width modulation (PWM), thereby outputting the switching control signal to each of the power cells .
A method for wireless communication , comprising: receiving , at a user equipment, UE, an indication of a time division duplexing, TDD, configuration over an unlicensed radio frequency spectrum band, wherein the indication of the TDD configuration comprises an indication of a consecutive number of uplink subframes; performing , by the UE, a clear channel assessment, CCA, on the unlicensed radio frequency spectrum band at a beginning of an uplink period in accordance with the TDD configuration; transmitting , by the UE, a preamble over the unlicensed radio frequency spectrum band when the CCA is successful, the preamble indicating a start of an uplink subframe according to the TDD configuration; and transmitting , following the transmission of the preamble, uplink data from the UE over the unlicensed radio frequency spectrum band in a number of uplink subframes and in accordance with the TDD configuration when the CCA is successful. receiving , at a user equipment, UE, an indication of a time division duplexing, TDD, configuration over an unlicensed radio frequency spectrum band, wherein the indication of the TDD configuration comprises an indication of a consecutive number of uplink subframes; performing , by the UE, a clear channel assessment, CCA, on the unlicensed radio frequency spectrum band at a beginning of an uplink period in accordance with the TDD configuration; transmitting , by the UE, a preamble over the unlicensed radio frequency spectrum band when the CCA is successful, the preamble indicating a start of an uplink subframe according to the TDD configuration; and transmitting , following the transmission of the preamble, uplink data from the UE over the unlicensed radio frequency spectrum band in a number of uplink subframes and in accordance with the TDD configuration when the CCA is successful.
Solid electrolyte for an alkali metal solid state battery, characterized in that the solid electrolyte comprises a mixture of two different alkali metal conducting salts and a semi-interpenetrating network (sIPN) of a crosslinked and a non-crosslinked polymer, wherein the semi-interpenetrating network comprises greater than or equal to 50 wt.-% and less than or equal to 80 wt.-% of a non-crosslinked polymer selected from the group consisting of polyethylene oxide (PEO), polycarbonate (PC), polycaprolactone (PCL), chain end modified derivatives of these polymers, or mixtures of at least two components thereof; and greater than or equal to 10 wt.-% and less than or equal to 50 wt.-% of a polycarbonate of crosslinkable polyalkyl carbonate monomers having a carbon number greater than or equal to 2 and less than or equal to 15 based on the single monomer as the crosslinked polymer, wherein the single polyalkyl carbonate monomer may be substituted or unsubstituted and comprises two crosslinkable groups selected from the group consisting of acrylic, methacrylic, epoxy, vinyl, isocyanide or mixtures of two different groups thereof. the solid electrolyte comprises a mixture of two different alkali metal conducting salts and a semi-interpenetrating network (sIPN) of a crosslinked and a non-crosslinked polymer, wherein the semi-interpenetrating network comprises greater than or equal to 50 wt.-% and less than or equal to 80 wt.-% of a non-crosslinked polymer selected from the group consisting of polyethylene oxide (PEO), polycarbonate (PC), polycaprolactone (PCL), chain end modified derivatives of these polymers, or mixtures of at least two components thereof; and greater than or equal to 10 wt.-% and less than or equal to 50 wt.-% of a polycarbonate of crosslinkable polyalkyl carbonate monomers having a carbon number greater than or equal to 2 and less than or equal to 15 based on the single monomer as the crosslinked polymer, wherein the single polyalkyl carbonate monomer may be substituted or unsubstituted and comprises two crosslinkable groups selected from the group consisting of acrylic, methacrylic, epoxy, vinyl, isocyanide or mixtures of two different groups thereof.
A plate processing line for producing a flexographic printing plate comprising: an imaging station configured to apply image information to the plate ; a first exposure station configured to expose the plate to radiation to cure the plate ; a processing station configured to process the plate by applying one or more of water, a solvent, and/or a thermal process to the plate ; at least one further station selected from a group consisting of a drying station configured to dry the plate and an after-exposure station configured to expose the plate to further radiation; plate transportation means configured to transport the plate between respective ones of the stations; and a central computer in communication with each of the stations and the plate transportation means, the central computer configured to coordinate operation of each of the stations and the plate transportation means to effect the producing of the flexographic printing plate , characterised in that the central computer is configured to control the plate transportation means to group printing plates having a same thickness in sequence with one another, in order to expedite processing. an imaging station configured to apply image information to the plate ; a first exposure station configured to expose the plate to radiation to cure the plate ; a processing station configured to process the plate by applying one or more of water, a solvent, and/or a thermal process to the plate ; at least one further station selected from a group consisting of a drying station configured to dry the plate and an after-exposure station configured to expose the plate to further radiation; plate transportation means configured to transport the plate between respective ones of the stations; and a central computer in communication with each of the stations and the plate transportation means, the central computer configured to coordinate operation of each of the stations and the plate transportation means to effect the producing of the flexographic printing plate , characterised in that the central computer is configured to control the plate transportation means to group printing plates having a same thickness in sequence with one another, in order to expedite processing.
A vacuum cleaner agitator system comprising: an agitator comprising: a spindle having a first end, a second end, and a longitudinal axis extending between the first end and the second end, one or more agitating devices projecting from the spindle to a first radial height, characterized by one or more friction surfaces projecting from the spindle to a second radial height; and one or more cleaning members positioned adjacent at least a portion of the agitator, the one or more cleaning members being adapted to move between a first position in which the one or more cleaning members do not engage the one or more friction surfaces, and a second position in which the one or more cleaning members engage the one or more friction surfaces to clean debris from the agitator, wherein the one or more cleaning members are arranged to be automatically moved between the first position and the second position based on a predetermined schedule or by means of a feedback control system. a spindle having a first end, a second end, and a longitudinal axis extending between the first end and the second end, one or more agitating devices projecting from the spindle to a first radial height, characterized by one or more friction surfaces projecting from the spindle to a second radial height; and one or more cleaning members positioned adjacent at least a portion of the agitator, the one or more cleaning members being adapted to move between a first position in which the one or more cleaning members do not engage the one or more friction surfaces, and a second position in which the one or more cleaning members engage the one or more friction surfaces to clean debris from the agitator, wherein the one or more cleaning members are arranged to be automatically moved between the first position and the second position based on a predetermined schedule or by means of a feedback control system.