mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for providing force feedback to a pilot input device comprising: a force feedback drive (140, 142) including: a motor including an output shaft; and a gear train including a sun gear mounted to the output shaft of the motor, a plurality of planet gears mounted to a fixed position carrier, and a ring gear, the plurality of planet gears radially positioned between the sun gear and the ring gear, wherein the position of the fixed position carrier is fixed throughout operation; and a linkage (162, 190) configured to operably couple the force feedback drive to the pilot input device, the linkage is configured to be operably coupled to the pilot input device, the linkage being operably coupled to the ring gear such that rotation of the ring gear causes motion of the linkage. a force feedback drive (140, 142) including: a motor including an output shaft; and a gear train including a sun gear mounted to the output shaft of the motor, a plurality of planet gears mounted to a fixed position carrier, and a ring gear, the plurality of planet gears radially positioned between the sun gear and the ring gear, wherein the position of the fixed position carrier is fixed throughout operation; and a motor including an output shaft; and a gear train including a sun gear mounted to the output shaft of the motor, a plurality of planet gears mounted to a fixed position carrier, and a ring gear, the plurality of planet gears radially positioned between the sun gear and the ring gear, wherein the position of the fixed position carrier is fixed throughout operation; and a linkage (162, 190) configured to operably couple the force feedback drive to the pilot input device, the linkage is configured to be operably coupled to the pilot input device, the linkage being operably coupled to the ring gear such that rotation of the ring gear causes motion of the linkage.
An electrical resistor comprising: - a resistance conductor, which is applied to a carrier layer, and - two connection elements, which are electrically conductively connected to the resistance conductor, wherein the two connection elements are configured to each be weldable or solderable to an electrical contact, and in that the resistance conductor for each connection element has a region overlapping the corresponding connection element, which region electrically conductively connects the corresponding connection element, characterized in that the electrical resistor has a first and a second insulation layer (6a, 6b) on a first side of the carrier layer and on a second side of the carrier layer facing away from the first side, respectively, wherein the connection elements protrude between the two insulation layers (6a, 6b). - a resistance conductor, which is applied to a carrier layer, and - two connection elements, which are electrically conductively connected to the resistance conductor, wherein the two connection elements are configured to each be weldable or solderable to an electrical contact, and in that the resistance conductor for each connection element has a region overlapping the corresponding connection element, which region electrically conductively connects the corresponding connection element, characterized in that the electrical resistor has a first and a second insulation layer (6a, 6b) on a first side of the carrier layer and on a second side of the carrier layer facing away from the first side, respectively, wherein the connection elements protrude between the two insulation layers (6a, 6b).
Aircraft windscreen comprising: - a laminated window pane, comprising a superposition of plies and having a peripheral edge, - a frame belonging to a primary structure of the aircraft, - and a flange fastened to the frame by fastening screws having screw heads retracted into the thickness of the flange, - at each fastening screw, a load-transferring and distributing member (10, 10', 10") is inserted between an outer surface of the flange and said fastening screw, a cavity being arranged in the flange to accommodate the load-transferring and distributing member, a hole being provided at the bottom of the cavity for passing a screw shank of the fastening screw, the load-transferring and distributing member in turn having a recess for accommodating the screw head and a drilled hole for passing the screw shank, characterised in that the flange is fastened to the peripheral edge of the window pane and comprises a superposition of plates including an outer plate (61, 61 ', 61")covering the peripheral edge of the laminated window pane and an inner plate forming an inner surface of the flange, at least part of which bears against a web of the frame, and in that at least one of the plates of the flange, qualified as anchoring plate, is embedded between two plies (21,23) of the window pane along the peripheral edge of the window pane. - a laminated window pane, comprising a superposition of plies and having a peripheral edge, - a frame belonging to a primary structure of the aircraft, - and a flange fastened to the frame by fastening screws having screw heads retracted into the thickness of the flange, - at each fastening screw, a load-transferring and distributing member (10, 10', 10") is inserted between an outer surface of the flange and said fastening screw, a cavity being arranged in the flange to accommodate the load-transferring and distributing member, a hole being provided at the bottom of the cavity for passing a screw shank of the fastening screw, the load-transferring and distributing member in turn having a recess for accommodating the screw head and a drilled hole for passing the screw shank,
A method for manufacturing disposable diapers and pants, comprising: a step of carrying a first continuous web and a second continuous web in a predetermined carrying direction; a first slitting step of slitting the first continuous web along a virtual first cut-off line extending in the carrying direction, thereby dividing the first continuous web into a wider first divided web and a narrower second divided web; a step of sandwiching an around-torso elastic member extending in a girth direction between the wider first divided web and the second continuous web; a welding step of welding together the first divided web, the second continuous web and the around-torso elastic member intermittently in the carrying direction, thereby producing a layered sheet; and a bonding step of sandwiching an around-leg elastic member meandering relative to the carrying direction between the layered sheet and the narrower second divided web, and attaching the around-leg elastic member thereto by an adhesive, thereby producing a stretchable continuous sheet. a step of carrying a first continuous web and a second continuous web in a predetermined carrying direction; a first slitting step of slitting the first continuous web along a virtual first cut-off line extending in the carrying direction, thereby dividing the first continuous web into a wider first divided web and a narrower second divided web; a step of sandwiching an around-torso elastic member extending in a girth direction between the wider first divided web and the second continuous web; a welding step of welding together the first divided web, the second continuous web and the around-torso elastic member intermittently in the carrying direction, thereby producing a layered sheet; and a bonding step of sandwiching an around-leg elastic member meandering relative to the carrying direction between the layered sheet and the narrower second divided web, and attaching the around-leg elastic member thereto by an adhesive, thereby producing a stretchable continuous sheet.
A vacuum insulation panel, comprising: core material for a vacuum insulation panel, consisting of porous aluminosilicate having an argon adsorption Brunauer-Emmett-Teller surface area of 300 m 2 /g or more and an external specific surface area of 150 m 2 /g or more, wherein the ESA of the porous aluminosilicate is determined from gas sorption experiments as a difference between the BET surface area of the porous aluminosilicate and the specific surface area from micropores, wherein the micropore is a pore having a pore size of less than 2 nm and the specific surface area of the micropore is estimated from t-plot method, wherein the porous aluminosilicate has pores satisfying the following Equation 1: V meso / V micro > 3.0 wherein V meso represents a Barrett-Joyner-Halenda cumulative volume of a mesopore having a pore size of 2 nm to 300 nm, and V micro represents a volume of a micropore having a pore size of less than 2 nm, as calculated from argon adsorption Brunauer-Emmett-Teller surface area by the t-plot method; and an outer shell material sealing and covering the core material. wherein V meso represents a Barrett-Joyner-Halenda cumulative volume of a mesopore having a pore size of 2 nm to 300 nm, and V micro represents a volume of a micropore having a pore size of less than 2 nm, as calculated from argon adsorption Brunauer-Emmett-Teller surface area by the t-plot method; and an outer shell material sealing and covering the core material.
A computer-implemented method for routing in a network, the method comprising: establishing a pseudo node that represents potential connectivity provided by a server layer among nodes in a client layer of a multi-layer network (20, 22, 24); generating a link state advertisement at a first node in the client layer, the link state advertisement including information about a link between the first node and the pseudo node; broadcasting the link state advertisement from the first node in the client layer to other nodes in the client layer; and enabling routing between a pair of nodes in the client layer via the pseudo node. establishing a pseudo node that represents potential connectivity provided by a server layer among nodes in a client layer of a multi-layer network (20, 22, 24); generating a link state advertisement at a first node in the client layer, the link state advertisement including information about a link between the first node and the pseudo node; broadcasting the link state advertisement from the first node in the client layer to other nodes in the client layer; and enabling routing between a pair of nodes in the client layer via the pseudo node.
A combustion heater comprising: a heating plate; a layout plate disposed opposite to the heating plate; an annular outer circumferential wall interposed between the heating plate and the layout plate; a partition plate disposed between the heating plate and the layout plate; a combustion chamber disposed inside the outer circumferential wall along the outer circumferential wall; an inflow passage configured to flow fuel gas into the combustion chamber using the layout plate and the partition plate as a lateral wall thereof; and an outflow passage configured to discharge exhaust gas from the combustion chamber to an outside using the heating plate and the partition plate as a lateral wall thereof, and to preheat the fuel gas using heat of the exhaust gas via the partition plate, characterized by further comprising clipping parts configured to sandwich the heating plate, the layout plate, and the outer circumferential wall so that at least one of the heating plate and the layout plate is allowed to expand in an extending direction thereof. a heating plate; a layout plate disposed opposite to the heating plate; an annular outer circumferential wall interposed between the heating plate and the layout plate; a partition plate disposed between the heating plate and the layout plate; a combustion chamber disposed inside the outer circumferential wall along the outer circumferential wall; an inflow passage configured to flow fuel gas into the combustion chamber using the layout plate and the partition plate as a lateral wall thereof; and an outflow passage configured to discharge exhaust gas from the combustion chamber to an outside using the heating plate and the partition plate as a lateral wall thereof, and to preheat the fuel gas using heat of the exhaust gas via the partition plate, characterized by further comprising clipping parts configured to sandwich the heating plate, the layout plate, and the outer circumferential wall so that at least one of the heating plate and the layout plate is allowed to expand in an extending direction thereof.
A method performed in a base station for determining channel interference in a radio network comprising a device-to-device, D2D, capable UE and the base station serving at least one cellular UE, said method comprising: configuring the at least one cellular UE with a Demodulation RS, DMRS related parameter; transmitting the DMRS related parameter associated with the at least one cellular UE to the D2D capable UE; and obtaining information of interference to the D2D capable UE measured by the D2D capable UE using the DMRS related parameter. configuring the at least one cellular UE with a Demodulation RS, DMRS related parameter; transmitting the DMRS related parameter associated with the at least one cellular UE to the D2D capable UE; and obtaining information of interference to the D2D capable UE measured by the D2D capable UE using the DMRS related parameter.
An accelerometer system comprising: a seesaw-mounted proof-mass; a plurality of capacitive sensors configured to sense position of the proof-mass; a plurality of driver devices configured to apply a force to the proof-mass based on a received feedback signal; a controller configured to: receive proof-mass position information from one or more of the sensors; generate the feedback signal based on the received proof-mass position information in order to keep the proof-mass at a null position; send the feedback signal to at least one of the driver devices; determine whether closed-loop saturation has occurred based on the feedback signal; if closed-loop saturation has been determined to occur, determine an open-loop acceleration value based on the sensed proof-mass position information and determine an acceleration value based upon both the determined open-loop acceleration value and a maximum closed-loop acceleration value; and if the closed-loop saturation has not been determined to occur, determine the acceleration value as a closed-loop acceleration value based on the feedback signal; and output the determined acceleration value. a seesaw-mounted proof-mass; a plurality of capacitive sensors configured to sense position of the proof-mass; a plurality of driver devices configured to apply a force to the proof-mass based on a received feedback signal; a controller configured to: receive proof-mass position information from one or more of the sensors; generate the feedback signal based on the received proof-mass position information in order to keep the proof-mass at a null position; send the feedback signal to at least one of the driver devices; determine whether closed-loop saturation has occurred based on the feedback signal; if closed-loop saturation has been determined to occur, determine an open-loop acceleration value based on the sensed proof-mass position information and determine an acceleration value based upon both the determined open-loop acceleration value and a maximum closed-loop acceleration value; and if the closed-loop saturation has not been determined to occur, determine the acceleration value as a closed-loop acceleration value based on the feedback signal; and output the determined acceleration value. receive proof-mass position information from one or more of the sensors; generate the feedback signal based on the received proof-mass position information in order to keep the proof-mass at a null position; send the feedback signal to at least one of the driver devices; determine whether closed-loop saturation has occurred based on the feedback signal; if closed-loop saturation has been determined to occur, determine an open-loop acceleration value based on the sensed proof-mass position information and determine an acceleration value based upon both the determined open-loop acceleration value and a maximum closed-loop acceleration value; and if the closed-loop saturation has not been determined to occur, determine the acceleration value as a closed-loop acceleration value based on the feedback signal; and output the determined acceleration value.
A mold assembly for thermal reforming of a 2D glass sheet, comprising: a mold having a mold cavity defined by a mold surface having a three-dimensional shape and at least one opening for communication of fluid or vacuum to the mold cavity; a plenum base mounted to the mold such that a chamber is defined between the plenum base and the mold, the chamber being in communication with the at least one opening in the mold; a cooling plate arranged in the chamber; characterized by an outer tube and an inner tube each having a first end proximate the plenum base and a second end remote from the plenum base, the outer tube and inner tube being concentrically arranged such that a fluid passage is defined between the outer tube and inner tube; a first fluid conduit extending through the inner tube and a first opening in the plenum base to the chamber; and a second fluid conduit extending from the fluid passage through a port in the outer tube and a second opening in the plenum base to the cooling plate. a mold having a mold cavity defined by a mold surface having a three-dimensional shape and at least one opening for communication of fluid or vacuum to the mold cavity; a plenum base mounted to the mold such that a chamber is defined between the plenum base and the mold, the chamber being in communication with the at least one opening in the mold; a cooling plate arranged in the chamber; characterized by an outer tube and an inner tube each having a first end proximate the plenum base and a second end remote from the plenum base, the outer tube and inner tube being concentrically arranged such that a fluid passage is defined between the outer tube and inner tube; a first fluid conduit extending through the inner tube and a first opening in the plenum base to the chamber; and a second fluid conduit extending from the fluid passage through a port in the outer tube and a second opening in the plenum base to the cooling plate.
A method in a first base station for handling a data transferral in a cellular network, which first base station serves a user equipment via a first cell in the cellular network, the method comprising: when obtaining an indication that a second cell in the cellular network provides a coverage for the user equipment, - sending (201, 301, 401) a message to a second base station serving the second cell, which message commands the second base station to receive the uplink data from the user equipment via the second cell, wherein the message further commands the second base station to forward the uplink data to the first base station, characterized by - sending (203, 402, 303) a request to the user equipment, which request commands the user equipment to send the same uplink data both via the first cell and via the second cell, and wherein the request further commands that the uplink data is to be sent via first cell and via the second cell in predetermined subframes and in respective separate intra frequency transmissions, wherein the separate intra frequency transmissions means sending a cell specific transmission to each of the first base station and the second base station while using the same frequency for both transmissions. when obtaining an indication that a second cell in the cellular network provides a coverage for the user equipment, - sending (201, 301, 401) a message to a second base station serving the second cell, which message commands the second base station to receive the uplink data from the user equipment via the second cell, wherein the message further commands the second base station to forward the uplink data to the first base station, - sending (201, 301, 401) a message to a second base station serving the second cell, which message commands the second base station to receive the uplink data from the user equipment via the second cell, wherein the message further commands the second base station to forward the uplink data to the first base station, characterized by - sending (203, 402, 303) a request to the user equipment, which request commands the user equipment to send the same uplink data both via the first cell and via the second cell, and wherein the request further commands that the uplink data is to be sent via first cell and via the second cell in predetermined subframes and in respective separate intra frequency transmissions, wherein the separate intra frequency transmissions means sending a cell specific transmission to each of the first base station and the second base station while using the same frequency for both transmissions. - sending (203, 402, 303) a request to the user equipment, which request commands the user equipment to send the same uplink data both via the first cell and via the second cell, and wherein the request further commands that the uplink data is to be sent via first cell and via the second cell in predetermined subframes and in respective separate intra frequency transmissions, wherein the separate intra frequency transmissions means sending a cell specific transmission to each of the first base station and the second base station while using the same frequency for both transmissions.
A thermal transfer sheet comprising: a substrate; and a transfer layer, wherein the transfer layer comprises at least a peeling layer, and the peeling layer contains a vinyl resin and an alcohol alkoxylate, characterized in that the alcohol alkoxylate is represented by the following general formula: C m H 2m+1 -O-(CH 2 CH 2 O) n -H wherein m denotes an integer in the range of 30 to 53, n denotes an integer in the range of 2 to 100, and n/m is 3.0 or less. a substrate; and a transfer layer, wherein the transfer layer comprises at least a peeling layer, and the peeling layer contains a vinyl resin and an alcohol alkoxylate, characterized in that the alcohol alkoxylate is represented by the following general formula: C m H 2m+1 -O-(CH 2 CH 2 O) n -H wherein m denotes an integer in the range of 30 to 53, n denotes an integer in the range of 2 to 100, and n/m is 3.0 or less.
Arrangement for generating mixed light, comprising at least one semiconductor chip that emits an electromagnetic primary radiation, a luminescence conversion element in the beam path of the primary radiation of the semiconductor chip, a connecting element and a carrier element that shapes the luminescence conversion element, wherein the luminescence conversion element converts the primary radiation at least partly into an electromagnetic secondary radiation, wherein the luminescence conversion element is introduced into the beam path by means of the carrier element, wherein, for the positioning of the luminescence conversion element, a cavity is provided in the carrier element, in which cavity the luminescence conversion element and additionally the connecting element are arranged, wherein the cavity is subdivided into three subareas (2a, 2b, 2c) which are bounded by different planes parallel to a base area, wherein one of the three subareas (2a, 2b, 2c) of the cavity in the carrier element is used to position the connecting element and a further one of the three subareas (2a, 2b, 2c) is used to position the luminescence conversion element, wherein the semiconductor chip is connected to an LED carrier and the base area is a contact area for the LED carrier, and the luminescence conversion element is positioned opposite the semiconductor chip by means of the carrier element and wherein the connecting element generates a holding force between the carrier element and the LED carrier by adhesion.