mhurhangee/ep-ind-claims huggingface dataset:
A system for launching an Unmanned Aerial Vehicle, comprising: a capsule comprising at least two parts; a UAV configured to be encapsulated inside said capsule in a folded configuration; and an aerial carrier comprising a release mechanism, said carrier configured to carry said capsule said carrier further configured to be launched and eject said capsule upon arrival at a desired aerial location, using said release mechanism; wherein prior to said ejection, said carrier is further configured to execute vertical maneuvers upwards in order to reduce said carrier's speed and change said carrier's angle thereby creating suitable conditions for said ejection; said capsule is configured to split and release said UAV upon being ejected; wherein upon ejection from said carrier said UAV is being released from said capsule to allow its unfolding; characterised in that said release mechanism is a pyrotechnic mechanism; and in that said capsule further comprises a sealing layer configured to create a sealed cavity between said pyrotechnic mechanism and said capsule thereby enabling pressure created by said pyrotechnic mechanism to eject said capsule. a capsule comprising at least two parts; a UAV configured to be encapsulated inside said capsule in a folded configuration; and an aerial carrier comprising a release mechanism, said carrier configured to carry said capsule said carrier further configured to be launched and eject said capsule upon arrival at a desired aerial location, using said release mechanism; wherein prior to said ejection, said carrier is further configured to execute vertical maneuvers upwards in order to reduce said carrier's speed and change said carrier's angle thereby creating suitable conditions for said ejection; said capsule is configured to split and release said UAV upon being ejected; wherein upon ejection from said carrier said UAV is being released from said capsule to allow its unfolding; characterised in that said release mechanism is a pyrotechnic mechanism; and in that said capsule further comprises a sealing layer configured to create a sealed cavity between said pyrotechnic mechanism and said capsule thereby enabling pressure created by said pyrotechnic mechanism to eject said capsule.
Access network element for a cellular wireless access network, the access network comprising uplink radio transmission resources that are different to downlink radio transmission resources of the access network, the network element comprising means adapted for - instructing a first radio terminal to transmit data over a portion of the uplink transmission resources to the access network; and means adapted for - receiving the data from the first terminal over the portion of the uplink transmission resources; and means adapted for - instructing at least one further radio terminal (MS2, MS3, MS4) to receive the data transmitted by the first terminal over the portion of the uplink transmission resources directly via the uplink transmission resources; the access network element comprises means adapted for - performing at least one acknowledgement process (57, 59) with the at least one further radio terminal (MS2, MS3, MS4), the acknowledgement process (57, 59) being related to the data transmitted directly from the first radio terminal to the further radio terminal (MS2, MS3, MS4) characterised by the radio terminal (MS2, MS3, MS4) being operable for sending a negative acknowledgement to a base station if the terminal (MS2, MS3, MS4) cannot decode the data, the means adapted for performing the acknowledgement process comprise means adapted for retransmitting the data directly to the further terminal (MS2, MS3, MS4) upon reception of a negative acknowledgement (NACK) from the further terminal (MS2, MS3, MS4), the radio terminal (MS2, MS3, MS4) being further operable for reconstructing the data based on the retransmission from the base station and on the original data transmission. - instructing a first radio terminal to transmit data over a portion of the uplink transmission resources to the access network; and means adapted for - receiving the data from the first terminal over the portion of the uplink transmission resources; and means adapted for - instructing at least one further radio terminal (MS2, MS3, MS4) to receive the data transmitted by the first terminal over the portion of the uplink transmission resources directly via the uplink transmission resources; the access network element comprises means adapted for - performing at least one acknowledgement process (57, 59) with the at least one further radio terminal (MS2, MS3, MS4), the acknowledgement process (57, 59) being related to the data transmitted directly from the first radio terminal to the further radio terminal (MS2, MS3, MS4) characterised by
A blow-molded PET container comprising a wall having a density of between 1.370 g/cc and 1.385 g/cc, a heat induced crystallinity, a rigid amorphous phase and a mobile amorphous phase, the PET container, when filled with a liquid having a temperature of from 100° C. to 132° C., will not experience a change in volume of greater than 3%; characterized in that • the heat induced crystallinity is of from 16% to 24%, • the rigid amorphous phase is of from 55% to 70%, • the mobile amorphous phase is from 19% to 22%, and • the wall of the container has a moisture content of from 1850 ppm to 1930 ppm when exposed to ambient conditions for 4 days. • the heat induced crystallinity is of from 16% to 24%, • the rigid amorphous phase is of from 55% to 70%, • the mobile amorphous phase is from 19% to 22%, and • the wall of the container has a moisture content of from 1850 ppm to 1930 ppm when exposed to ambient conditions for 4 days.
Traction battery for a battery-electric powered mobile working machine, in particular an industrial truck, which traction battery is configured as a high-power battery and has a battery tray within which modules which are each constructed from at least one battery cell are arranged, and having a battery management system which comprises monitoring and control apparatuses, characterized in that the electronics components and operator control elements of the battery management system, which are not integrated into the modules, are arranged so as to bear against a side wall (2, 3) of the battery tray and are accessible via at least one opening (4, 7) of the side wall (2, 3) in order to allow the electronics components of the battery management system to be replaced in the event of a fault.
Seat having a base frame, a seating part removably connected to said base frame, a back rest joined to said base frame and a foot support which can be pivoted from an unused position pivoted downwards to an used position pivoted upwards which is joined to the seating part by means of at least one swivel fitting, whereby the swivel fitting of the foot support is joined to the back rest depending on the movement, whereby the seating part is pivoted opposite the base frame when the back rest is pivoted to a reclined position, whereby the back rest moves forwards together with the seating part relative to the base frame when the back rest is pivoted to a reclined position, such that the back rest can be pivoted in a predominantly wall-free manner and whereby the foot support in its unused position is arranged underneath the seating part, running approximately in parallel to it, and a foot cushion on the foot support is placed on the side facing away from the seating part.
Method for determination of the elevation profile of a route of a rail vehicle, comprising the following steps: - detection of position and elevation data by means of a receiver of a global navigation satellite system (GNSS), which is installed in the rail vehicle, by moving along the route at least once; - increase of the precision of the elevation data obtained via the GNSS system by determination of the carrier phase of the signal of the navigation satellite or satellites, - increase of the precision of the elevation data obtained via the GNSS system by differential correction of the elevation data with the help of an RTK network, - computation of the development of the elevation profile of the route by processing the position and elevation data detected in the preceding steps. - detection of position and elevation data by means of a receiver of a global navigation satellite system (GNSS), which is installed in the rail vehicle, by moving along the route at least once; - increase of the precision of the elevation data obtained via the GNSS system by determination of the carrier phase of the signal of the navigation satellite or satellites, - increase of the precision of the elevation data obtained via the GNSS system by differential correction of the elevation data with the help of an RTK network, - computation of the development of the elevation profile of the route by processing the position and elevation data detected in the preceding steps.
Pinch valve pushed onto a flexible tube line, in particular onto an end hose of a thick-matter delivery line, said valve having an annular cavity which is delimited by an elastomer material and which is connected to an inlet and outlet opening for filling and emptying with a pressurized gas, and having an annular enclosure which contains the cavity in its interior and which hinders the expansion of the elastomer material outward in the radial direction, characterized by an annular hose surrounding the cavity, which hose is composed of the elastomer material and is embedded in a collar, which collar surrounds the enclosure and is composed of elastomer material and has the form of a hollow cylinder, and is enclosed there, wherein the inner diameter of the collar is at least as large as the outer diameter of the tube line or the end hose.
A glove, preferably a cycling glove or motorbike glove, having finger parts (1 a, 1b, 1c, 1d, 1e) and pads (9, 10) of the inner side of the glove, wherein an airflow can move from the upper glove side via channel elements to the inner surface of the hand, said glove characterized in that the channel elements comprise tubes which open into one or more outlets at the inner glove side, with the outer air moving via an inlet between the finger parts (1 b, 1 c, 1 d, 1 e) at the knuckles of the upper hand into the channel elements.
A method for controlling a feeder furnishing an additive to an injection molding press molding granular resin into solid parts, the press including a barrel having a throat for resin feed into the barrel, a rotatable, longitudinally movable screw within the barrel, the feeder being located at the throat of the press for contributing an additive to the resin to produce a resin-additive mix fed into the barrel, including: a) feeding the resin-additive mix into the barrel through the throat; b) rotating the screw thereby converting the resin-additive mix into molten material collecting at a mold end of the barrel, while the screw retreats longitudinally due to force exerted on the screw by molten material collected at the mold end of the barrel; c) longitudinally advancing the screw thereby injecting molten material collected at the screw end into the mold; d) maintaining the screw at the longitudinally advanced position for time to allow for cooling of the molten material in the mold sufficiently that the material remains in the mold upon the screw retreating; e) repeating steps "a" through "d"; characterized by f) recording the time for performance of step "b"; g) determining the time for performance of steps "c" and "d"; and h) regulating the feeder to apportion the amounts of additive added to the resin during performance of step "b" and during performance of steps "c" and "d", according to the times determined in steps "f" and "g". a) feeding the resin-additive mix into the barrel through the throat; b) rotating the screw thereby converting the resin-additive mix into molten material collecting at a mold end of the barrel, while the screw retreats longitudinally due to force exerted on the screw by molten material collected at the mold end of the barrel; c) longitudinally advancing the screw thereby injecting molten material collected at the screw end into the mold; d) maintaining the screw at the longitudinally advanced position for time to allow for cooling of the molten material in the mold sufficiently that the material remains in the mold upon the screw retreating; e) repeating steps "a" through "d"; characterized by f) recording the time for performance of step "b"; g) determining the time for performance of steps "c" and "d"; and h) regulating the feeder to apportion the amounts of additive added to the resin during performance of step "b" and during performance of steps "c" and "d", according to the times determined in steps "f" and "g".
An antenna array for determining the angle of arrival, AoA, by detecting an incoming radio wave having an operating wavelength, comprising: a plurality of antenna elements, the antenna elements arranged in an array with a periodic repetition of the antenna elements; wherein each antenna element comprises a patch antenna and a slot cut out from the patch, the slot being diamond-shaped and having a first axis (A 1) and a second axis (A 2) orthogonal to the first axis; and wherein the slot has a length along each of the first and second axes in the range of about 0.05 - 0.2 times the operating wavelength of the incoming radio wave and the length of the slot along the first axis is longer than the length of the slot along the second axis and wherein the ratio of the length of the slot along the first axis to the length of the slot along the second axis is less than 2.5. a plurality of antenna elements, the antenna elements arranged in an array with a periodic repetition of the antenna elements; wherein each antenna element comprises a patch antenna and a slot cut out from the patch, the slot being diamond-shaped and having a first axis (A 1) and a second axis (A 2) orthogonal to the first axis; and wherein the slot has a length along each of the first and second axes in the range of about 0.05 - 0.2 times the operating wavelength of the incoming radio wave and the length of the slot along the first axis is longer than the length of the slot along the second axis and wherein the ratio of the length of the slot along the first axis to the length of the slot along the second axis is less than 2.5.
A passive radar comprising: - a reception antenna configured to receive a signal comprising sequences known by the passive radar transmitted by a non-cooperative transmitter, the received signal comprising a static contribution related to the propagation of the transmitted signal through a multi-path propagation channel and a dynamic contribution related to the propagation of echoes of the transmitted signal coming from a moving target, - a reception chain that includes a digital-analogue converter configured to output a digitised signal, - a moving target detection unit making use of the digitised signal, characterized in that the passive radar further comprises: - a digitised signal processing unit configured, during a calibration phase of the passive radar, to synchronise the received signal with the transmitted signal using the known sequences, to determine an estimation of the multi-path propagation channel from the synchronized received signal and the known sequences and generate an estimation of the static contribution, - a transmission chain configured to output an analogue signal representative of the estimation of the static contribution, and - a coupler configured to supply to the reception chain: ∘ the received signal during the calibration phase of the passive radar, ∘ the received signal from which the analogue signal representative of the estimation of the static contribution is subtracted during a usage phase of the passive radar to detect a moving target. - a reception antenna configured to receive a signal comprising sequences known by the passive radar transmitted by a non-cooperative transmitter, the received signal comprising a static contribution related to the propagation of the transmitted signal through a multi-path propagation channel and a dynamic contribution related to the propagation of echoes of the transmitted signal coming from a moving target, - a reception chain that includes a digital-analogue converter configured to output a digitised signal, - a moving target detection unit making use of the digitised signal, - a digitised signal processing unit configured, during a calibration phase of the passive radar, to synchronise the received signal with the transmitted signal using the known sequences, to determine an estimation of the multi-path propagation channel from the synchronized received signal and the known sequences and generate an estimation of the static contribution, - a transmission chain configured to output an analogue signal representative of the estimation of the static contribution, and - a coupler configured to supply to the reception chain: ∘ the received signal during the calibration phase of the passive radar, ∘ the received signal from which the analogue signal representative of the estimation of the static contribution is subtracted during a usage phase of the passive radar to detect a moving target. ∘ the received signal during the calibration phase of the passive radar, ∘ the received signal from which the analogue signal representative of the estimation of the static contribution is subtracted during a usage phase of the passive radar to detect a moving target.
A controller for an internal combustion engine, the internal combustion engine including: a cylinder; an intake passage connected to the cylinder; a water injection valve configured to inject water into the intake passage; a temperature sensor configured to detect a temperature of intake air flowing through the intake passage; and an intake valve configured to selectively open and close a connection port between the intake passage and the cylinder, wherein a period from when the intake valve closes to when the intake valve closes again after opening is referred to as a single cycle, and the controller is configured to execute: a water amount calculation process that calculates a water collection amount based on the temperature of the intake air, the water collection amount being an amount of water that collects on a wall surface of the intake passage; an injection process that causes the water injection valve to inject water when the intake valve is open in the single cycle; and an additional injection process that causes the water injection valve to inject water when the intake valve is closed in the single cycle in addition to the water injection in the injection process in a case in which the water collection amount is less than a specified value that has been defined in advance. a cylinder; an intake passage connected to the cylinder; a water injection valve configured to inject water into the intake passage; a temperature sensor configured to detect a temperature of intake air flowing through the intake passage; and an intake valve configured to selectively open and close a connection port between the intake passage and the cylinder, wherein a period from when the intake valve closes to when the intake valve closes again after opening is referred to as a single cycle, and the controller is configured to execute: a water amount calculation process that calculates a water collection amount based on the temperature of the intake air, the water collection amount being an amount of water that collects on a wall surface of the intake passage; an injection process that causes the water injection valve to inject water when the intake valve is open in the single cycle; and an additional injection process that causes the water injection valve to inject water when the intake valve is closed in the single cycle in addition to the water injection in the injection process in a case in which the water collection amount is less than a specified value that has been defined in advance. a water amount calculation process that calculates a water collection amount based on the temperature of the intake air, the water collection amount being an amount of water that collects on a wall surface of the intake passage; an injection process that causes the water injection valve to inject water when the intake valve is open in the single cycle; and an additional injection process that causes the water injection valve to inject water when the intake valve is closed in the single cycle in addition to the water injection in the injection process in a case in which the water collection amount is less than a specified value that has been defined in advance.
A sensor module configured for use as a component of a torque sensor assembly, the sensor module comprising: a sensor housing; a carrier secured to the sensor housing; a torque sensor (195, 197) secured to the carrier; and a first collector secured to the carrier and a second collector secured to the carrier; characterized by: each of the collectors extending from a first portion to a tab, the tab positioned adjacent to the torque sensor; a sensor module locator, the sensor module locator comprising: a body including a protrusion (240,242) extending from the body and a biasing member (245,247); wherein the sensor housing includes a protrusion opening (250,252) sized to receive the protrusion. a sensor housing; a carrier secured to the sensor housing; a torque sensor (195, 197) secured to the carrier; and a first collector secured to the carrier and a second collector secured to the carrier; characterized by: each of the collectors extending from a first portion to a tab, the tab positioned adjacent to the torque sensor; a sensor module locator, the sensor module locator comprising: a body including a protrusion (240,242) extending from the body and a biasing member (245,247); wherein the sensor housing includes a protrusion opening (250,252) sized to receive the protrusion. each of the collectors extending from a first portion to a tab, the tab positioned adjacent to the torque sensor; a sensor module locator, the sensor module locator comprising: a body including a protrusion (240,242) extending from the body and a biasing member (245,247); a body including a protrusion (240,242) extending from the body and a biasing member (245,247); wherein the sensor housing includes a protrusion opening (250,252) sized to receive the protrusion.
A self-propelled cleaning device with a housing, a fan and a surface cleaning system for cleaning a surface to be cleaned, wherein the cleaning device also has an above-floor cleaning system for cleaning an above-floor surface vertically offset relative to the surface, wherein the above-floor cleaning system has a flow connection to a suction and/or blower unit having a fan, the flow opening of which has a difference in height of roughly 3 cm or more relative to a standing surface of the cleaning device by comparison to a usual orientation of the cleaning device for a cleaning operation, characterized in that the fan that exposes the suction and/or blower unit to suction and/or blowing air is a fan designed separately to the fan of the surface cleaning device.