mhurhangee/patent-ind-claim-en huggingface dataset:
An electrochemical machining system comprising: a component having a passage , said passage having an opening and an internal surface formed along said passage ; a conductive wire having insulation covering portions of said conductive wire forming gaps having exposed wire , said conductive wire being inserted in said passage ; a power source coupled to said component and said conductive wire forming an electrical circuit , wherein said component comprises an anode and said conductive wire comprises a cathode ; and an electrolyte within said passage contacting said internal surface and said exposed wire , wherein the electrolyte comprises a charge-carrying liquid configured to complete the electrical circuit between the cathode and anode ; a spacer coupled to said wire proximate said insulation , the spacer being configured to prevent the wire from touching the internal surface of the passage to prevent a short circuit, wherein said spacer comprises a body having a bore and a standoff coupled to said body , said standoff configured to contact said internal surface and configured to centrally locate said wire within the passage , characterised in that : said spacer comprises an electrically conductive disk in electrical contact with the wire and located within the body insulated from direct contact with the internal surface . a component having a passage , said passage having an opening and an internal surface formed along said passage ; a conductive wire having insulation covering portions of said conductive wire forming gaps having exposed wire , said conductive wire being inserted in said passage ; a power source coupled to said component and said conductive wire forming an electrical circuit , wherein said component comprises an anode and said conductive wire comprises a cathode ; and an electrolyte within said passage contacting said internal surface and said exposed wire , wherein the electrolyte comprises a charge-carrying liquid configured to complete the electrical circuit between the cathode and anode ; a spacer coupled to said wire proximate said insulation , the spacer being configured to prevent the wire from touching the internal surface of the passage to prevent a short circuit, wherein said spacer comprises a body having a bore and a standoff coupled to said body , said standoff configured to contact said internal surface and configured to centrally locate said wire within the passage ,
A remote control , comprising: a remote control body ; and a display assembly , the display assembly comprising a display screen , the display assembly being rotatably connected to the remote control body by using a hinge , characterized in that the hinge comprises: a rotation member , the rotation member comprising a rotation shaft ; a fixing block , fixed to the display assembly , and provided with a second through hole , the rotation shaft penetrating through the second through hole , one side of the fixing block being fixed to the display assembly , and the other side of the fixing block being fixed to the rotation shaft ; and a fixing member , the fixing member being fixed to the remote control body , and being provided with a first through hole , and the rotation shaft penetrating through the first through hole ; wherein the fixing member includes a fixing rod , which is stretched out by the fixing member towards one side; wherein the rotation member is rotatably connected to a side, far from the fixing member , of the fixing rod ; the first through hole is disposed on the fixing rod ; the fixing rod is fixed on the remote control body . a remote control body ; and a display assembly , the display assembly comprising a display screen , the display assembly being rotatably connected to the remote control body by using a hinge , characterized in that the hinge comprises: a rotation member , the rotation member comprising a rotation shaft ; a fixing block , fixed to the display assembly , and provided with a second through hole , the rotation shaft penetrating through the second through hole , one side of the fixing block being fixed to the display assembly , and the other side of the fixing block being fixed to the rotation shaft ; and a fixing member , the fixing member being fixed to the remote control body , and being provided with a first through hole , and the rotation shaft penetrating through the first through hole ; wherein the fixing member includes a fixing rod , which is stretched out by the fixing member towards one side; wherein the rotation member is rotatably connected to a side, far from the fixing member , of the fixing rod ; the first through hole is disposed on the fixing rod ; the fixing rod is fixed on the remote control body . a rotation member , the rotation member comprising a rotation shaft ; a fixing block , fixed to the display assembly , and provided with a second through hole , the rotation shaft penetrating through the second through hole , one side of the fixing block being fixed to the display assembly , and the other side of the fixing block being fixed to the rotation shaft ; and a fixing member , the fixing member being fixed to the remote control body , and being provided with a first through hole , and the rotation shaft penetrating through the first through hole ; wherein the fixing member includes a fixing rod , which is stretched out by the fixing member towards one side; wherein the rotation member is rotatably connected to a side, far from the fixing member , of the fixing rod ; the first through hole is disposed on the fixing rod ; the fixing rod is fixed on the remote control body .
A method for testing a fuel tank for an aircraft at a phase of manufacturing , the method comprising: sending electrical power to an optical data concentrator for the fuel tank for the aircraft , the optical data concentrator being located outside the fuel tank ,from a power supply such that the optical data concentrator sends optical signals to optical sensors installed inside the fuel tank through optical fibers connecting the optical data concentrator to the optical sensors inside the fuel tank , wherein the electrical power is sent during the phase of manufacturing of the aircraft , converting, by photovoltaic converters located within each of the optical sensors , the optical signals sent by the optical data concentrator into electrical power in order to power the respective optical sensors; receiving, by a computer system in communication with the optical data concentrator , test data from the optical data concentrator , wherein the test data is based on optical response signals received from the optical sensors ; determining, by the computer system , states for the optical sensors using the test data ; and displaying, by the computer system a graphical indication of the states determined for the optical sensors in the fuel tank in a graphical user interface on a display system wherein the powered optical sensor is configured to automatically start producing raw sensor data, convert the raw sensor data back into an optical signal, and transmit the converted optical signal back to the optical fuel quantity data concentrator . sending electrical power to an optical data concentrator for the fuel tank for the aircraft , the optical data concentrator being located outside the fuel tank ,from a power supply such that the optical data concentrator sends optical signals to optical sensors installed inside the fuel tank through optical fibers connecting the optical data concentrator to the optical sensors inside the fuel tank , wherein the electrical power is sent during the phase of manufacturing of the aircraft , converting, by photovoltaic converters located within each of the optical sensors , the optical signals sent by the optical data concentrator into electrical power in order to power the respective optical sensors; receiving, by a computer system in communication with the optical data concentrator , test data from the optical data concentrator , wherein the test data is based on optical response signals received from the optical sensors ; determining, by the computer system , states for the optical sensors using the test data ; and displaying, by the computer system a graphical indication of the states determined for the optical sensors in the fuel tank in a graphical user interface on a display system wherein the powered optical sensor is configured to automatically start producing raw sensor data, convert the raw sensor data back into an optical signal, and transmit the converted optical signal back to the optical fuel quantity data concentrator .
A compound of formula (I) a stereo-isomeric form, a pharmaceutically acceptable salt, solvate or polymorph thereof comprising a mono- or di-substituted indole group; said compound is selected from the group wherein: R 1 is H, R 2 is F or Cl and R 3 is H or CH 3 ; R 1 is F, R 2 is F and R 3 is H; R 1 is CH 3 , R 2 is OCH 3 and R 3 is H; R 1 is CH 3 , R 2 is F and R 3 is H; R 1 is CH 3 , R 2 is H and R 3 is F; R 1 is Cl, R 2 is H and R 3 is CH 3 ; R 1 is OCF 3 , R 2 is H or OCH 3 and R 3 is H and R 1 is OCF 3 , R 2 is H and R 3 is CH 3 . R 1 is H, R 2 is F or Cl and R 3 is H or CH 3 ; R 1 is F, R 2 is F and R 3 is H; R 1 is CH 3 , R 2 is OCH 3 and R 3 is H; R 1 is CH 3 , R 2 is F and R 3 is H; R 1 is CH 3 , R 2 is H and R 3 is F; R 1 is Cl, R 2 is H and R 3 is CH 3 ; R 1 is OCF 3 , R 2 is H or OCH 3 and R 3 is H and R 1 is OCF 3 , R 2 is H and R 3 is CH 3 .
A method of manufacturing food packaging comprising a receptacle of a final shape and a coating , the method comprising: fabricating (S10) the receptacle from raw materials, the raw materials comprising a fibrous material and a biopolymer, wherein forming (S12) the final shape of the receptacle comprises thermoforming; applying (S20) at least one layer of the coating to the receptacle , the coating comprising a biopolymer coating, wherein applying the at least one layer of the coating comprises spraying the receptacle using a Twin Air Spray System; and drying (S30) the at least one layer of the coating . fabricating (S10) the receptacle from raw materials, the raw materials comprising a fibrous material and a biopolymer, wherein forming (S12) the final shape of the receptacle comprises thermoforming; applying (S20) at least one layer of the coating to the receptacle , the coating comprising a biopolymer coating, wherein applying the at least one layer of the coating comprises spraying the receptacle using a Twin Air Spray System; and drying (S30) the at least one layer of the coating .
A locking device intended to prevent opening of a door or doors, said locking device comprising a body , which is capable of being coupled immovably to a door handle and prevents opening of a door/doors (o1, o2), the body being provided with a coupling arrangement adjustable with adjustment elements for locking the handle against an external surface (U) of the door (o1) by being propped immovably on a vertical frame member (y) of the door or on a handle of the adjacent door (o2), said coupling arrangement comprises an intermediate member and a movable body member (2"), and which members (2', 2") are mutually movable and included in the body , characterized in that the intermediate member comprises threading and that the adjustment elements are configured to, when used, form a distance between the intermediate member and the movable body member (2") so that the intermediate member with threading engages behind the rear surface of the door handle and the movable body member (2") engages against the external surface (U) of the door.
A positive electrode for a secondary battery, comprising: a current collector layer; a lower mixture layer disposed on one or both surfaces of the current collector layer; and an upper mixture layer disposed on the lower mixture layer, wherein the lower mixture layer and the upper mixture layer both include an active material containing Li x NiO 2 , wherein 1.1≤x≤2.5, (LNO), wherein based on 100 parts by weight of the active material contained in the lower mixture layer, a content of the LNO in the lower mixture is 60 parts by weight or more, and wherein based on a total 100 parts by weight of the active material contained in the upper mixture layer, a content of the LNO in the upper mixture layer is in a range of 1 to 40 parts by weight. a current collector layer; a lower mixture layer disposed on one or both surfaces of the current collector layer; and an upper mixture layer disposed on the lower mixture layer, wherein the lower mixture layer and the upper mixture layer both include an active material containing Li x NiO 2 , wherein 1.1≤x≤2.5, (LNO), wherein based on 100 parts by weight of the active material contained in the lower mixture layer, a content of the LNO in the lower mixture is 60 parts by weight or more, and wherein based on a total 100 parts by weight of the active material contained in the upper mixture layer, a content of the LNO in the upper mixture layer is in a range of 1 to 40 parts by weight.
An apparatus comprising: protocol stack circuitry configured to: receive a flow control unit, flit, header and a transaction layer packet, TLP, payload, the TLP payload comprising a first portion and a second portion, forward the flit header and the first portion of the TLP payload to a link partner based on the flit header being free from errors, identify that the flit contains an error from the second portion of the TLP payload, and send a data link layer packet, DLLP, to the link partner to indicate the error in the TLP payload. receive a flow control unit, flit, header and a transaction layer packet, TLP, payload, the TLP payload comprising a first portion and a second portion, forward the flit header and the first portion of the TLP payload to a link partner based on the flit header being free from errors, identify that the flit contains an error from the second portion of the TLP payload, and send a data link layer packet, DLLP, to the link partner to indicate the error in the TLP payload.
Method for operating an interactive operator control device , in particular in a motor vehicle , having a display device and information that can be displayed and/or is displayed on the display surface and contains at least one operating element , comprising the following steps: a. detecting an approach of an actuating element of a user as a user input, b. determining an operating intention for the at least one operating element of the operating element shown on the display surface , c. adapting the information displayed on the display surface as a function of the determined operating intention so that the at least one operating element is represented in an optimized manner for the activation of the at least one operating element , wherein, when an operating intention is determined, the local position of the at least one operating element is changed in that, when the actuating element approaches, the at least one operating element is displaced into the one reach area of the user, characterized in that the at least one operating element is reduced in size. a. detecting an approach of an actuating element of a user as a user input, b. determining an operating intention for the at least one operating element of the operating element shown on the display surface , c. adapting the information displayed on the display surface as a function of the determined operating intention so that the at least one operating element is represented in an optimized manner for the activation of the at least one operating element ,
A seal device fitted in a seal cavity formed between a housing and a rotating shaft , for sealing a sealed fluid between the housing and the rotating shaft , the seal device comprising: in the seal cavity, a radial sliding bearing for supporting the rotating shaft ; and a sealing means on a side opposite to a sealed fluid source of the radial sliding bearing in a rotation axis direction, for sealing the sealed fluid, the sealing means being a mechanical seal provided with a stationary-side seal ring and a rotating-side seal ring that faces and slides on a sliding face of the stationary-side seal ring , the stationary-side seal ring being fixed in the housing , thereby constituting the radial sliding bearing ; characterized by a pressing member for axially biasing the rotating-side seal ring toward and against the sliding face of the stationary-side seal ring, wherein a fluid introduction hole is provided in the stationary-side seal ring for connecting the sealed fluid source side and the vicinity of the sealing means on a high-pressure fluid side, and a foreign substance removal filter is fitted in an inlet of the fluid introduction hole of the stationary-side seal ring on the sealed fluid source side. in the seal cavity, a radial sliding bearing for supporting the rotating shaft ; and a sealing means on a side opposite to a sealed fluid source of the radial sliding bearing in a rotation axis direction, for sealing the sealed fluid, the sealing means being a mechanical seal provided with a stationary-side seal ring and a rotating-side seal ring that faces and slides on a sliding face of the stationary-side seal ring , the stationary-side seal ring being fixed in the housing , thereby constituting the radial sliding bearing ; characterized by a pressing member for axially biasing the rotating-side seal ring toward and against the sliding face of the stationary-side seal ring, wherein a fluid introduction hole is provided in the stationary-side seal ring for connecting the sealed fluid source side and the vicinity of the sealing means on a high-pressure fluid side, and a foreign substance removal filter is fitted in an inlet of the fluid introduction hole of the stationary-side seal ring on the sealed fluid source side.
A method in a communication network node of transmitting to user equipments an earthquake and/or tsunami warning message over a radio interface in a communication network system comprising communication network nodes each serving at least one cell in which said user equipments are situated, characterized in that , the method comprises the steps of: - receiving a request to transmit an earthquake and/or tsunami primary notification warning message ; - sending said earthquake and/or tsunami primary notification warning message within paging request messages ; wherein information on said earthquake and/or tsunami primary notification warning message is included within rest octets of said paging request message, the method further comprising - segmenting said earthquake and/or tsunami primary notification warning message in several paging request messages, whereby an amount of earthquake and/or tsunami primary notification information that is included in each paging request message is constant in order to allow reception of segments in any order. - receiving a request to transmit an earthquake and/or tsunami primary notification warning message ; - sending said earthquake and/or tsunami primary notification warning message within paging request messages ; wherein information on said earthquake and/or tsunami primary notification warning message is included within rest octets of said paging request message, the method further comprising - segmenting said earthquake and/or tsunami primary notification warning message in several paging request messages, whereby an amount of earthquake and/or tsunami primary notification information that is included in each paging request message is constant in order to allow reception of segments in any order.
An intraoral scanning system, comprising: an intraoral scanner, comprising: one or more structured light projectors , each structured light projector configured to project a pattern on an intraoral three-dimensional surface; and one or more cameras , configured to capture a series of images, each image including at least a portion of the projected pattern; and a processor , configured to: compare the series of images captured by the one or more cameras ; determine which of the portions of the projected pattern can be tracked across the series of images based on the comparison of the series of images; and construct a three-dimensional model of the intraoral three-dimensional surface based at least in part on the comparison of the series of images. an intraoral scanner, comprising: one or more structured light projectors , each structured light projector configured to project a pattern on an intraoral three-dimensional surface; and one or more cameras , configured to capture a series of images, each image including at least a portion of the projected pattern; and one or more structured light projectors , each structured light projector configured to project a pattern on an intraoral three-dimensional surface; and one or more cameras , configured to capture a series of images, each image including at least a portion of the projected pattern; and a processor , configured to: compare the series of images captured by the one or more cameras ; determine which of the portions of the projected pattern can be tracked across the series of images based on the comparison of the series of images; and construct a three-dimensional model of the intraoral three-dimensional surface based at least in part on the comparison of the series of images. compare the series of images captured by the one or more cameras ; determine which of the portions of the projected pattern can be tracked across the series of images based on the comparison of the series of images; and construct a three-dimensional model of the intraoral three-dimensional surface based at least in part on the comparison of the series of images.
Hose line which is configured as a dualchamber or multiple-chamber hose line and has an outer hose , the inside hose cross section of which is penetrated by at least one inner hose , the outer hose being assigned at least one hose coupling with a hose nipple , around which hose nipple an associated hose end region of the outer hose engages tightly, the hose coupling having an end-side receiving cavity , in which a hose connector for the at least one inner hose is provided, which hose connector has an outer part which can be inserted into the receiving cavity of the hose coupling , in which outer part at least two holes which penetrate the outer part are provided, of which the outer part engages around a hose end region of the at least one inner hose at least in one hole , and an inner part of the hose connector projecting into the hose end region of the at least one inner hose , which inner part is widened in such a way that the inner hose is clamped in a tight and fixing manner between the inner part , projecting into this inner hose , and the outer part , characterized in that the outer part has a pot-shaped part region which can be inserted into the receiving cavity of the hose coupling , and in that a sleeve-shaped part region of reduced cross section projects on the pot bottom of this pot shape, into which sleeve-shaped part region of the outer part the hose end region of the inner hose is clamped in a tight and fixing manner by means of the inner part of the hose connector , and in that the hose end region of in each case one inner hose is held in a tight and fixing manner in each of the holes in the outer part of the hose connector .
A vortex generator configured for mounting to either of a suction side or a pressure side of a rotor blade , the vortex generator comprising; a base portion comprising a curvature in an uninstalled state that substantially aligns with or conforms to a contour of a plurality of locations on either of the suction side or the pressure side of the rotor blade ; a protrusion member extending upwardly from the base portion , the protrusion member comprising a plurality of tines separated by at least one slit , the base portion and the protrusion member being constructed of a rigid material; characterized in that the vortex generator further comprises: a flexible coating material that completely surrounds the base portion and the protrusion member and that is configured at least partially within or around the at least one slit .