mhurhangee/ep-ind-claims huggingface dataset:
A system for opening a door of an aircraft, the system comprising: - a connection assembly adapted to connect the door to a fuselage section of the aircraft, the connection assembly including: - a main hinge adapted to be pivotally connected to the fuselage section; and - a link assembly (18, 20, 22, 26) adapted to connect the door to the main hinge and adapted to be connected to the fuselage section, the link assembly including one member slidingly and pivotally connected to the door; a latch mechanism (52, 54) between the door and the main hinge, the latch mechanism being adapted to be actuated, characterised in that the system is adapted to move the door upwardly and inwardly along a predetermined path without moving the main hinge through movement of the latch mechanism and, subsequently, to pivot the door around a virtual pivot point located outside of the aircraft by moving the main hinge once the door has reached an end of the predetermined path. - a connection assembly adapted to connect the door to a fuselage section of the aircraft, the connection assembly including: - a main hinge adapted to be pivotally connected to the fuselage section; and - a link assembly (18, 20, 22, 26) adapted to connect the door to the main hinge and adapted to be connected to the fuselage section, the link assembly including one member slidingly and pivotally connected to the door; - a main hinge adapted to be pivotally connected to the fuselage section; and - a link assembly (18, 20, 22, 26) adapted to connect the door to the main hinge and adapted to be connected to the fuselage section, the link assembly including one member slidingly and pivotally connected to the door;
Method for clamping a workpiece pallet or a workpiece with at least two draw-in nipples on at least two clamping devices which each comprise a locking device for locking a draw-in nipple in a draw-in nipple receptacle of the respective clamping device and each a fixing device by means of which the respective clamping device is releasably fixable in a working position on a support, wherein the method comprises the following: - arranging the clamping devices at a predetermined distance (D, D') from each other on a support; - fixing the clamping devices on the support by means of in each case one fixing device which comprises a vacuum clamping apparatus; - clamping the workpiece pallet or the workpiece by inserting the draw-in nipples each into a draw-in nipple receptacle of one of the clamping devices and locking the draw-in nipples by means of the respective locking device. - arranging the clamping devices at a predetermined distance (D, D') from each other on a support; - fixing the clamping devices on the support by means of in each case one fixing device which comprises a vacuum clamping apparatus; - clamping the workpiece pallet or the workpiece by inserting the draw-in nipples each into a draw-in nipple receptacle of one of the clamping devices and locking the draw-in nipples by means of the respective locking device.
A method of vibration testing of a component, the method comprising steps to: a in a model of the component, define at least four alignment points corresponding to physical features of the component; b in the model, define measurement points at positions which vibrate when excited at predefined excitation frequencies (f e), the excitation frequencies (f e) each corresponding to one or more vibrational modes; c on the component measure, using a laser source, the position of the physical features corresponding to the alignment points in the model; d excite the component at an excitation frequency (f e) and measure the amplitude of vibration at each measurement point using the laser; e extract the mode shape or operating deflection shape from the measured vibration amplitudes; f in the model, extract the mode shape or operating deflection shape in ta selected frequency range from the component model; and g compare the mode shapes or operating deflection shapes extracted from the model and from measured vibration amplitudes characterised in that the method comprises steps to: h before step d, calculate the position of the laser source using the measured positions of the physical features corresponding to the alignment points; and i before step f, in the model, rotate a local coordinate system (x, y, z) at each measurement point until one axis is directed towards the position of the laser source. a in a model of the component, define at least four alignment points corresponding to physical features of the component; b in the model, define measurement points at positions which vibrate when excited at predefined excitation frequencies (f e), the excitation frequencies (f e) each corresponding to one or more vibrational modes; c on the component measure, using a laser source, the position of the physical features corresponding to the alignment points in the model; d excite the component at an excitation frequency (f e) and measure the amplitude of vibration at each measurement point using the laser; e extract the mode shape or operating deflection shape from the measured vibration amplitudes; f in the model, extract the mode shape or operating deflection shape in ta selected frequency range from the component model; and g compare the mode shapes or operating deflection shapes extracted from the model and from measured vibration amplitudes h before step d, calculate the position of the laser source using the measured positions of the physical features corresponding to the alignment points; and i before step f, in the model, rotate a local coordinate system (x, y, z) at each measurement point until one axis is directed towards the position of the laser source.
A method implemented at a network exposure node, wherein the network exposure node is a service capability exposure function, SCEF, or network exposure function, NEF, the method comprising: receiving, from a first application server in operator trust domain, configuration information that can be used for data delivery for a terminal device; receiving data from one of the terminal device and the first application server; and forwarding the data to the other of the terminal device and the first application server based on the configuration information; the method being characterized in that the data received from the terminal device is in a form of Internet protocol, IP, data or non-IP data; and wherein the IP data is forwarded through a same interface as is used for the non-IP data; and wherein the same interface is T8 non-IP data delivery, NIDD, interface. receiving, from a first application server in operator trust domain, configuration information that can be used for data delivery for a terminal device; receiving data from one of the terminal device and the first application server; and forwarding the data to the other of the terminal device and the first application server based on the configuration information; the method being characterized in that the data received from the terminal device is in a form of Internet protocol, IP, data or non-IP data; and wherein the IP data is forwarded through a same interface as is used for the non-IP data; and wherein the same interface is T8 non-IP data delivery, NIDD, interface.
A integrated structure of an MEMS pressure sensor and an MEMS inertia sensor comprising: a substrate, an insulating layer formed on the substrate, a first lower electrode and a second lower electrode both formed on the insulating layer, further comprising a first upper electrode supported above the first lower electrode by a first support part, a second upper electrode supported above the second lower electrode by a second support part and a cavity between the first upper electrode and the first lower electrode, wherein the first upper electrode is a pressure-sensitive film and a cavity between the first upper electrode and the first lower electrode is an airtight cavity, so that the first upper electrode and the first lower electrode form an air pressure-sensitive capacitor of the pressure sensor; the second upper electrode is a pressure-sensitive film, the second upper electrode and the second lower electrode form a reference capacitor whose capacitance is not changed along with the outside air pressure, and the reference capacitor further includes a position-limiting structure which is used to limit the second upper electrode to deform under application of the outside air pressure, the reference capacitor being provided with a supporting column for supporting the second upper electrode to form the position-limiting structure; the structure further comprising: an inertia-sensitive structure supported above the substrate by a third support part, a fixed electrode plate forming an inertia detecting capacitor of an inertia sensor together with the inertia-sensitive structure, and a cover body by means of which the inertia detecting capacitor composed of the inertia-sensitive structure and the fixed electrode plate are packaged on the substrate.
An apparatus for a wireless communication system, the apparatus comprising circuitry (102, 104) configured to: generate configuration information for a user equipment performing device to device communication, the configuration information comprising retransmission number relevant information, wherein the retransmission number relevant information indicates the number of retransmissions of signal transmission between user equipments performing device to device communication, the number of retransmissions being set according to at least a reception accuracy of a device to device signal and a resource utilization rate, wherein the resource utilization rate depends on the number of user equipments performing device to device communication; and transmit the generated configuration information to the user equipment performing device to device communication. generate configuration information for a user equipment performing device to device communication, the configuration information comprising retransmission number relevant information, wherein the retransmission number relevant information indicates the number of retransmissions of signal transmission between user equipments performing device to device communication, the number of retransmissions being set according to at least a reception accuracy of a device to device signal and a resource utilization rate, wherein the resource utilization rate depends on the number of user equipments performing device to device communication; and transmit the generated configuration information to the user equipment performing device to device communication.
A positron emission tomography, PET, scanner, wherein a plurality of detector rings (12a, 12b, 12c) in which detectors arranged in a ring shape or in a polygonal shape are arranged, with an open space kept between the detector rings (12a, 12b, 12c) along the axial direction in the body axis direction, configured to measure coincidences for some of or all of detector pairs connecting the detector rings (12a, 12b, 12c) apart from the open space to perform three-dimensional image reconstruction, thereby configured to image the open space between the detector rings (12a, 12b, 12c) as a tomographic image; the PET scanner characterized in that the open space defines a clearance region, wherein the size of the clearance region is adjustable by translating at least one of the detector rings (12a, 12b, 12c) in the back and forth direction.
A camera objective lens for an endoscope (18, 19), comprising a first optical axis and a second optical axis which is offset relative to the first optical axis, an object-side first prism and an image-side second prism, a first lens system arranged on the object side of the first prism and a second lens system arranged on the image side of the first prism, wherein the first lens system is arranged along the first optical axis, and wherein the second lens system is arranged along the second optical axis, and a sensor surface arranged at the image-side end of the camera objective lens parallel to the first optical axis, wherein the first lens system forms an eyepiece optical system and the second lens system forms an adapter optical system, wherein the first prism and the second prism are configured to cause a first to third beam deflection as a three-fold beam deflection so that by means of the first prism the first and second beam deflection is caused as a two-fold beam deflection from the first optical axis to the second optical axis and by means of the second prism the third beam deflection is caused as a simple beam deflection from the second optical axis to the sensor surface arranged parallel to the first optical axis, characterized in that the first lens system includes a biconcave first lens, a biconvex second lens, a third lens formed as a rod lens, a plane-concave fourth lens and a biconvex fifth lens in this order as viewed from the object side, and that the second lens system includes a convex-plane sixth lens, a seventh lens formed as a meniscus lens, a biconvex eighth lens and a biconcave ninth lens in this order as viewed from the object side.
A case latch assembly (10, 50, 60) comprising: a strike plate member provided on a first lock mounting part; a hinge member mounted for pivotable movement on a second lock mounting part; a strike plate engagement member mounted on the hinge member for reciprocal linear movement thereon and having a coupling slot (38, 54) provided therein which extends generally lengthways and having a cam slot (40, 56, 62) provided therein which extends generally crossways; a lock nut, rotatably mounted to the hinge member; a cam pin connected to the lock nut at an off-centre position and engaged with the cam slot (40,56,62); and a coupling pin connected to the lock nut at a second position and located through the coupling slot, wherein rotation of the lock nut is translated by movement of the cam pin within the cam slot (40,56,62) into linear movement of the strike plate engagement member between a closed position and an extended position and wherein the coupling pin moves along the coupling slot (38,54) during the rotation of the lock nut. a strike plate member provided on a first lock mounting part; a hinge member mounted for pivotable movement on a second lock mounting part; a strike plate engagement member mounted on the hinge member for reciprocal linear movement thereon and having a coupling slot (38, 54) provided therein which extends generally lengthways and having a cam slot (40, 56, 62) provided therein which extends generally crossways; a lock nut, rotatably mounted to the hinge member; a cam pin connected to the lock nut at an off-centre position and engaged with the cam slot (40,56,62); and a coupling pin connected to the lock nut at a second position and located through the coupling slot, wherein rotation of the lock nut is translated by movement of the cam pin within the cam slot (40,56,62) into linear movement of the strike plate engagement member between a closed position and an extended position and wherein the coupling pin moves along the coupling slot (38,54) during the rotation of the lock nut.
Adjustment element, for positioning an attachment part on a structural part of a vehicle with an adjustment portion which can be connected to the attachment part, and with a bearing portion which is mounted movably on the adjustment portion and has a supporting surface which can be placed on the structural part of the vehicle, the bearing portion being fastened via a connection which is elastic in shape to the adjustment portion, and the bearing portion being mounted movably on the adjustment portion in such a way that the supporting surface can be pivoted with respect to the adjustment portion.
An electronic device for a wireless communication system, the electronic device comprising: a receiver configured to receive, from a transmitting device, a packet signal comprising a legacy Physical Layer portion and a data portion including duration information, wherein the legacy PHY portion includes first length information and first rate information, the first length information has an upper limit value and is calculated based on the first rate information, and the packet signal requests the electronic device to transmit a response packet and includes address information of the electronic device, the address information causing to avoid transmitting another response packet from another electronic device of the wireless communication system; processing circuitry configured to decode the legacy PHY portion and the data portion, and set a second length and a second rate in a second legacy PHY portion in order that the value of (second length)/(second rate) equals to the duration until a next packet signal is transmitted from the transmitting device; and a transmitter configured to transmit the response packet including the second legacy PHY portion, to the transmitting device, at a predetermined timing based on the address information of the transmitting device. a receiver configured to receive, from a transmitting device, a packet signal comprising a legacy Physical Layer portion and a data portion including duration information, wherein the legacy PHY portion includes first length information and first rate information, the first length information has an upper limit value and is calculated based on the first rate information, and the packet signal requests the electronic device to transmit a response packet and includes address information of the electronic device, the address information causing to avoid transmitting another response packet from another electronic device of the wireless communication system; processing circuitry configured to decode the legacy PHY portion and the data portion, and set a second length and a second rate in a second legacy PHY portion in order that the value of (second length)/(second rate) equals to the duration until a next packet signal is transmitted from the transmitting device; and a transmitter configured to transmit the response packet including the second legacy PHY portion, to the transmitting device, at a predetermined timing based on the address information of the transmitting device.
A mobile terminal device for use in a wireless communications system, comprising: a receiver for receiving a signal from M number of transmit antennas (403-1, 403-2, 403-3, 403-4), which signal includes a number of subcarriers; wherein the mobile terminal device is characterized by further comprising: a processing unit for determining a channel quality indicator, CQI, reporting format for a collection of said subcarriers based on a selected transmit antenna configuration associated with said collection of subcarriers and for determining P CQI, number of CQI values, relating to said collection of subcarriers in accordance with a determined CQI reporting format, wherein the processing unit is arranged to adapt the CQI reporting format to the selected transmit antenna configuration such that the granularity of CQI reporting depends on the number m of transmit antennas of the selected transmit antenna configuration; and a transmitter for transmitting said P CQI CQI values to a base station in a feedback signal. a receiver for receiving a signal from M number of transmit antennas (403-1, 403-2, 403-3, 403-4), which signal includes a number of subcarriers; a processing unit for determining a channel quality indicator, CQI, reporting format for a collection of said subcarriers based on a selected transmit antenna configuration associated with said collection of subcarriers and for determining P CQI, number of CQI values, relating to said collection of subcarriers in accordance with a determined CQI reporting format, wherein the processing unit is arranged to adapt the CQI reporting format to the selected transmit antenna configuration such that the granularity of CQI reporting depends on the number m of transmit antennas of the selected transmit antenna configuration; and a transmitter for transmitting said P CQI CQI values to a base station in a feedback signal.
A method, comprising: identifying a plurality of different anatomical sub-regions of the cardiovascular system of a subject in image data of the subject based on a subject specific cardiovascular anatomical model, wherein the plurality of different regions corresponds to regions where calcifications occur; searching for and identifying calcifications in the sub-regions based on voxel grey value intensity values of the image data; and generating a signal indicative of one or more regions of voxels of the image data respectively corresponding to sub-regions including identified calcifications, characterized by employing a pre-determined threshold to identify a calcification in a sub-region, wherein a first threshold is used for a first sub-region, a second threshold is used for a second sub-region of the regions, and the first and second thresholds are different. identifying a plurality of different anatomical sub-regions of the cardiovascular system of a subject in image data of the subject based on a subject specific cardiovascular anatomical model, wherein the plurality of different regions corresponds to regions where calcifications occur; searching for and identifying calcifications in the sub-regions based on voxel grey value intensity values of the image data; and generating a signal indicative of one or more regions of voxels of the image data respectively corresponding to sub-regions including identified calcifications, characterized by employing a pre-determined threshold to identify a calcification in a sub-region, wherein a first threshold is used for a first sub-region, a second threshold is used for a second sub-region of the regions, and the first and second thresholds are different.
A ballet slipper, comprising: a thin, flexible compartment for receiving a foot, the compartment having a forefoot section (11, 14), a mid-section, and a heel section; the compartment having a top surface for securing the foot and a ground-facing surface having a sole divided into at least two portions comprising at least a midfoot portion and divided therefrom a paired forefoot portion; wherein each pair of sole portions (25, 26) is divided along a flexural line running generally transverse to the longitudinal axis of the foot, and wherein the sole portions and flexural line(s), in combination with the flexible compartment, have a material construction and are arranged so as to facilitate a close conforming of the ballet slipper to the foot of an intended user through plantar flexion to dorsiflexion foot movements, wherein the forefoot sole portion has a proximal edge extending to just proximal at least four of the five metatarsal heads, at least one metatarsal head being the first metatarsal, and has a distal edge that extends to about the metatarsal-phalangal joints, wherein the forefoot sole portion is wider than it is long and is disposed so as to cover at least four of the five metatarsal heads. a thin, flexible compartment for receiving a foot, the compartment having a forefoot section (11, 14), a mid-section, and a heel section; the compartment having a top surface for securing the foot and a ground-facing surface having a sole divided into at least two portions comprising at least a midfoot portion and divided therefrom a paired forefoot portion; wherein each pair of sole portions (25, 26) is divided along a flexural line running generally transverse to the longitudinal axis of the foot, and wherein the sole portions and flexural line(s), in combination with the flexible compartment, have a material construction and are arranged so as to facilitate a close conforming of the ballet slipper to the foot of an intended user through plantar flexion to dorsiflexion foot movements, wherein the forefoot sole portion has a proximal edge extending to just proximal at least four of the five metatarsal heads, at least one metatarsal head being the first metatarsal, and has a distal edge that extends to about the metatarsal-phalangal joints, wherein the forefoot sole portion is wider than it is long and is disposed so as to cover at least four of the five metatarsal heads.