mhurhangee/ep-ind-claims huggingface dataset:
An apparatus including an unmanned autonomous operating vehicle having an electric motor supplied with power from a battery for operating an operating machine, prime movers for driving wheels, and magnetic sensors for detecting intensity of a magnetic field of an area wire of the apparatus, the apparatus being adapted for controlling the vehicle to run about in an operating area defined by the area wire through wheels driven by the prime movers to perform an operation in an operating mode using the operating machine and to return to a charging device installed on the area wire so as to charge the battery, wherein the apparatus further comprises: a turn-back portion formed by bending the area wire at a position in a direction into the operating area and again bending the area wire to return in the same direction with a predetermined distance (w) so as to divide the operating area into at least first and second zones; characterized in that the apparatus further comprises a running controller (42, S16, S112, S206) adapted to control the vehicle to be prohibited from going across the turn-back portion and to run on the area wire to follow a trajectory to move from the charging device located in the first zone to the second zone and then entering the operating mode to run about within the second zone, wherein the turn-back portion is formed by firstly bending the area wire at a position near a narrow passage connecting the first and second zones, and then bending the area wire again to return in the same direction. a turn-back portion formed by bending the area wire at a position in a direction into the operating area and again bending the area wire to return in the same direction with a predetermined distance (w) so as to divide the operating area into at least first and second zones; characterized in that the apparatus further comprises a running controller (42, S16, S112, S206) adapted to control the vehicle to be prohibited from going across the turn-back portion and to run on the area wire to follow a trajectory to move from the charging device located in the first zone to the second zone and then entering the operating mode to run about within the second zone, wherein the turn-back portion is formed by firstly bending the area wire at a position near a narrow passage connecting the first and second zones, and then bending the area wire again to return in the same direction.
Method for operating at least partially electrically driven vehicles, in which, in addition to a first electric motor of a main drive, further electric motors are provided for auxiliary drives and/or electrically driven additional assemblies and can be driven by energy from a common energy store, wherein the output ends of the main drive and of at least one auxiliary drive or additional assembly can be coupled to each other via a mechanical additional transmission, which is preferably provided with a freewheel, such that the auxiliary drives and/or additional assemblies are switchably driven either by their electric motors (8, 12), which are supplied from the energy store, or mechanically via the additional transmission, characterized in that, during generator operation of the first motor, which is required for the recuperation, one or more of the auxiliary drives or assemblies are driven only via the mechanical additional transmission.
A connector comprising: a valve housing defining an inlet port, and an outlet port, the valve housing further including an inner wall and one or more channels in the inner wall forming a fluid path from the inlet port to the outlet port; a valve plug operable to seal the inlet port when the connector is in an unactuated state thereby closing the fluid path through the connector; a diaphragm in the valve housing, the diaphragm separating the valve plug from an inner volume in the valve housing; characterised by: the diaphragm sealing the inner volume; and a valve insert disposed within the valve housing, the valve insert comprising a bowl sealed by the diaphragm to form the inner volume, the valve insert further comprising a stem extending into the outlet port, the stem configured such that a cross-sectional flow area of the outlet port is equivalent to a cross-sectional flow are of the flow path formed by the one or more channels in the inner wall of the valve housing; wherein upon actuation of the connector the valve plug deforms the diaphragm into the inner volume thereby unsealing the inlet port and opening the fluid path through the connector. a valve housing defining an inlet port, and an outlet port, the valve housing further including an inner wall and one or more channels in the inner wall forming a fluid path from the inlet port to the outlet port; a valve plug operable to seal the inlet port when the connector is in an unactuated state thereby closing the fluid path through the connector; a diaphragm in the valve housing, the diaphragm separating the valve plug from an inner volume in the valve housing; characterised by: the diaphragm sealing the inner volume; and a valve insert disposed within the valve housing, the valve insert comprising a bowl sealed by the diaphragm to form the inner volume, the valve insert further comprising a stem extending into the outlet port, the stem configured such that a cross-sectional flow area of the outlet port is equivalent to a cross-sectional flow are of the flow path formed by the one or more channels in the inner wall of the valve housing; wherein upon actuation of the connector the valve plug deforms the diaphragm into the inner volume thereby unsealing the inlet port and opening the fluid path through the connector. the diaphragm sealing the inner volume; and a valve insert disposed within the valve housing, the valve insert comprising a bowl sealed by the diaphragm to form the inner volume, the valve insert further comprising a stem extending into the outlet port, the stem configured such that a cross-sectional flow area of the outlet port is equivalent to a cross-sectional flow are of the flow path formed by the one or more channels in the inner wall of the valve housing; wherein upon actuation of the connector the valve plug deforms the diaphragm into the inner volume thereby unsealing the inlet port and opening the fluid path through the connector.
A gas turbine engine comprising: an annular bypass duct defined between a radially inner wall and a radially outer wall; and a pylon radially extending across the bypass duct and attached at a radially outer end to the outer wall and at a radially inner end to the inner wall, the upstream end of the pylon acting as a source region; wherein the inner wall and/or the outer wall each comprise a recessed section (34, 35), and characterised in that each recessed section extends from an axial position upstream of the upstream end of the pylon to an axial position downstream of the downstream end of the pylon. an annular bypass duct defined between a radially inner wall and a radially outer wall; and a pylon radially extending across the bypass duct and attached at a radially outer end to the outer wall and at a radially inner end to the inner wall, the upstream end of the pylon acting as a source region;
A grindstone with a rod-shaped measuring electrode which is guided through the grindstone to a working side from a side which is opposite to the working side and is connected to the grindstone, characterized by a vibration absorber which has a spring element and an absorbing element, and which connects the measuring electrode to the grindstone on the opposite side.
Method for assisting a user in applying an adhesive sticker by roller-pressing to a face of an ophthalmic lens with an initial contour prior to edging, the method comprising: - maintaining the ophthalmic lens with its initial contour using a support (102; 121), - determining, from geometric data of the final contour to be produced for the ophthalmic lens, a positioning of the final contour inside the initial contour of the ophthalmic lens, - forming a visual aid for the user, allowing them to apply the adhesive sticker by roller-pressing to the ophthalmic lens with its initial contour prior to edging, such that the adhesive sticker can be applied by roller-pressing inside the final contour. - maintaining the ophthalmic lens with its initial contour using a support (102; 121), - determining, from geometric data of the final contour to be produced for the ophthalmic lens, a positioning of the final contour inside the initial contour of the ophthalmic lens, - forming a visual aid for the user, allowing them to apply the adhesive sticker by roller-pressing to the ophthalmic lens with its initial contour prior to edging, such that the adhesive sticker can be applied by roller-pressing inside the final contour.
A method of making a preformed seal, said method comprising: coupling a first section of a mold to a second section of the mold such that a mold cavity is defined, wherein a cross-sectional shape of the mold cavity corresponds to a cross-sectional shape of the preformed seal; providing a reservoir comprising a port in flow communication with a reservoir cavity, wherein the reservoir cavity extends to a parting surface of the reservoir; filling the reservoir cavity with wet sealant such that the wet sealant is flush with the parting surface, and a bead of wet sealant protrudes from the port; coupling the reservoir to the first section and the second section such that the reservoir cavity is in flow communication with the mold cavity at the parting surface; injecting wet sealant from a nozzle through the reservoir into the mold cavity; and curing the wet sealant in the mold cavity to make the preformed seal. coupling a first section of a mold to a second section of the mold such that a mold cavity is defined, wherein a cross-sectional shape of the mold cavity corresponds to a cross-sectional shape of the preformed seal; providing a reservoir comprising a port in flow communication with a reservoir cavity, wherein the reservoir cavity extends to a parting surface of the reservoir; filling the reservoir cavity with wet sealant such that the wet sealant is flush with the parting surface, and a bead of wet sealant protrudes from the port; coupling the reservoir to the first section and the second section such that the reservoir cavity is in flow communication with the mold cavity at the parting surface; injecting wet sealant from a nozzle through the reservoir into the mold cavity; and curing the wet sealant in the mold cavity to make the preformed seal.
Packaging machine comprising a sealing station which uses a sealing means (11, 12, 20) to seal an upper film web to a lower film web, said sealing means (11, 12, 20) having at least one opening, connected to a vacuum source and/or to a source of substitute gas, characterized in that in the sealing means (11, 12, 20) or a nozzle in the sealing station is provided at least one valve, with which the flow at the opening is adjustable.
TTA implant system comprising a TTA implant comprising an implant body for insertion into a bone gap, a first fastening device formed on a proximal region of the implant body for fastening the implant body to the bone, characterized in that the TTA implant further comprises: a second fastening device in or on a distal region of the implant body for a flexible fastening means; and the TTA implant system further comprises the flexible fastening means, which can be fastened to the second fastening device of the TTA implant; and an anchoring device which can be anchored in the bone at a point remote from the TTA implant and which is designed such that the flexible fastening means can be secured thereto. a TTA implant comprising an implant body for insertion into a bone gap, a first fastening device formed on a proximal region of the implant body for fastening the implant body to the bone, characterized in that the TTA implant further comprises: a second fastening device in or on a distal region of the implant body for a flexible fastening means; and the TTA implant system further comprises the flexible fastening means, which can be fastened to the second fastening device of the TTA implant; and an anchoring device which can be anchored in the bone at a point remote from the TTA implant and which is designed such that the flexible fastening means can be secured thereto. a second fastening device in or on a distal region of the implant body for a flexible fastening means; and the TTA implant system further comprises the flexible fastening means, which can be fastened to the second fastening device of the TTA implant; and an anchoring device which can be anchored in the bone at a point remote from the TTA implant and which is designed such that the flexible fastening means can be secured thereto.
A cooking appliance, comprising: a main body provided therein with a cooking space; a door configured to open and close the cooking space; a packing member disposed at an entrance of the cooking space, and configured to seal a gap that is created in a portion where the main body contacts the door in a closed state; and a bracket coupled to a lower portion of the door for preventing contact between the packing member and a foreign substance moving to the lower portion of the door when the door is closed, the bracket, comprising: a base part coupled to the lower portion of the door; and an additional edge part connected to the base part, and having a shape extending in a front-rear direction of the main body when the door is closed, characterized in that the addition edge part is disposed in the horizontal direction with respect to the cooking appliance and configured to cover an upper surface of the packing member when the door is closed. a main body provided therein with a cooking space; a door configured to open and close the cooking space; a packing member disposed at an entrance of the cooking space, and configured to seal a gap that is created in a portion where the main body contacts the door in a closed state; and a bracket coupled to a lower portion of the door for preventing contact between the packing member and a foreign substance moving to the lower portion of the door when the door is closed, the bracket, comprising: a base part coupled to the lower portion of the door; and an additional edge part connected to the base part, and having a shape extending in a front-rear direction of the main body when the door is closed, characterized in that the addition edge part is disposed in the horizontal direction with respect to the cooking appliance and configured to cover an upper surface of the packing member when the door is closed. a base part coupled to the lower portion of the door; and an additional edge part connected to the base part, and having a shape extending in a front-rear direction of the main body when the door is closed, characterized in that the addition edge part is disposed in the horizontal direction with respect to the cooking appliance and configured to cover an upper surface of the packing member when the door is closed.
Device for managing a service, wherein the service is related to at least two network slices, the device being configured to - obtain management data for the service from at least one of the slices, wherein the management data comprises analytics data about the service, - evaluate at least one assurance indicator of the service based on the analytics data, wherein the assurance indicator is information whether the service can fulfil these requirements or not; and - generate further management data, comprising configuration management, CM, data for modification of the service and/or at least one of the slices, according to the evaluation result. - obtain management data for the service from at least one of the slices, wherein the management data comprises analytics data about the service, - evaluate at least one assurance indicator of the service based on the analytics data, wherein the assurance indicator is information whether the service can fulfil these requirements or not; and - generate further management data, comprising configuration management, CM, data for modification of the service and/or at least one of the slices, according to the evaluation result.
A powdered lithium transition metal oxide comprising a lithium transition metal oxide particle, a cation doped interface layer formed near the surface of particle, and an outer layer, with the cation doped interface layer and the outer layer being reaction products of (i) the lithium transition metal oxide and (ii) a strong lithium acceptor compound supplying the cation, wherein the lithium transition metal oxide has a layered or spinel crystal structure and is represented by the general formula Li x MO 2, wherein M is a transition metal selected from the group consisting of manganese, cobalt and nickel, or a combination of two or more thereof, provided that M can also further contain a minor amount of cationic dopants such as Mg, Al, Ti, Cu, Fe, Zn, Ta, Cr, B, Ga, and x is in the range of 0 < x < 1, wherein the strong lithium acceptor compound comprises an earth-alkali-fluoride, a Li-earth-alkali-fluoride, an aluminum phosphate or an aluminum fluoride. wherein the lithium transition metal oxide has a layered or spinel crystal structure and is represented by the general formula Li x MO 2, wherein M is a transition metal selected from the group consisting of manganese, cobalt and nickel, or a combination of two or more thereof, provided that M can also further contain a minor amount of cationic dopants such as Mg, Al, Ti, Cu, Fe, Zn, Ta, Cr, B, Ga, and x is in the range of 0 < x < 1, wherein the strong lithium acceptor compound comprises an earth-alkali-fluoride, a Li-earth-alkali-fluoride, an aluminum phosphate or an aluminum fluoride.
A wireless communication apparatus, comprising: a preamble generation section configured to generate a preamble that is to be deployed at a top of a transmission frame and includes header information; a midamble generation section configured to generate a midamble that is to be deployed in a middle of the transmission frame and includes information of at least part of the header information; a wireless transmission processing section configured to transmit the transmission frame including the preamble and the midamble; a wireless reception processing section configured to detect reception power of a received reception frame; and a transmission power controlling section configured to control transmission power of the transmission frame based on the reception power, wherein the transmission power has a value equal to or lower than a predetermined value that is determined by the reception power. a preamble generation section configured to generate a preamble that is to be deployed at a top of a transmission frame and includes header information; a midamble generation section configured to generate a midamble that is to be deployed in a middle of the transmission frame and includes information of at least part of the header information; a wireless transmission processing section configured to transmit the transmission frame including the preamble and the midamble; a wireless reception processing section configured to detect reception power of a received reception frame; and a transmission power controlling section configured to control transmission power of the transmission frame based on the reception power, wherein the transmission power has a value equal to or lower than a predetermined value that is determined by the reception power.
A method of controlling fuel flow in a gas turbine engine, comprising: receiving a requested fuel flow; determining a density corrected fuel flow based on the requested fuel flow and a fuel density error; determining a differential pressure error based on a bypass fuel flow, a metering valve inlet pressure and a discharge pressure, wherein the bypass fuel flow is based on a fuel flow of a fuel pump, a corrected fuel flow, and an actuation system leakage fuel flow of an actuation system; determining a differential pressure corrected fuel flow by dividing the density corrected fuel flow value by the differential pressure error; applying the differential pressure corrected fuel flow value to a flow-to-stroke map to determine an uncorrected metering valve position; adding the uncorrected metering valve position to a position error value to determine a requested metering valve position; and controlling a metering valve based on the requested metering valve position. receiving a requested fuel flow; determining a density corrected fuel flow based on the requested fuel flow and a fuel density error; determining a differential pressure error based on a bypass fuel flow, a metering valve inlet pressure and a discharge pressure, wherein the bypass fuel flow is based on a fuel flow of a fuel pump, a corrected fuel flow, and an actuation system leakage fuel flow of an actuation system; determining a differential pressure corrected fuel flow by dividing the density corrected fuel flow value by the differential pressure error; applying the differential pressure corrected fuel flow value to a flow-to-stroke map to determine an uncorrected metering valve position; adding the uncorrected metering valve position to a position error value to determine a requested metering valve position; and controlling a metering valve based on the requested metering valve position.
An iris capture apparatus comprising: a rotatable movable mirror; a human detection unit that uses a human sensor detecting a user to measure a distance to the user; a control unit that controls rotation of the movable mirror; a capture unit that captures different regions of a face of the user via the movable mirror and outputs a group of images while the control unit rotates the movable mirror by a predetermined angle; and an iris image acquisition unit that acquires an image of an iris of the user from the group of images; characterized in that the control unit dynamically determines, based on the distance to the user, the number of repetitions of rotation of the movable mirror thus controlling a capturing range of the capture unit. a rotatable movable mirror; a human detection unit that uses a human sensor detecting a user to measure a distance to the user; a control unit that controls rotation of the movable mirror; a capture unit that captures different regions of a face of the user via the movable mirror and outputs a group of images while the control unit rotates the movable mirror by a predetermined angle; and an iris image acquisition unit that acquires an image of an iris of the user from the group of images; characterized in that the control unit dynamically determines, based on the distance to the user, the number of repetitions of rotation of the movable mirror thus controlling a capturing range of the capture unit.