mhurhangee/ep-ind-claims huggingface dataset:
An electrical device, especially a computer installation, wherein the electrical device, and the computer installation in particular, is housed in a closed or enclosed space, and the electrical device, and the computer installation in particular, comprises at least one rack, especially a 19" rack, which accommodates at least one electrical component, especially a computer, with a cooling device, especially an air-conditioning device, wherein the cooling device comprises at least one evaporator, one compressor and one condenser, and the compressor and the condenser are arranged outside of the closed or enclosed space preferably in an external unit (22, 22.1, 22.2), characterized in that - the evaporator is arranged within the frame, preferably in a side wall, and the evaporator is arranged in redundant configuration in a single housing; - the cooling device comprises at least two separate closed cooling circuits with separate feed lines (24.1, 24.2) to the evaporator and separates discharge lines (26.1, 26.2) from the evaporator; - the evaporator comprises two independent separate pipe works, resulting in one partial evaporator each, wherein each partial evaporator is respectively assigned to one of the two separate cooling circuits; - the at least two partial evaporators are housed in a housing, wherein the housing is arranged at least as a part of the side wall of the rack, and - air is sucked in via a side wall of the evaporator, cooled in the evaporator, and conveyed by means of fans and guide devices to the respective electrical device, especially the computer installation. - the evaporator is arranged within the frame, preferably in a side wall, and the evaporator is arranged in redundant configuration in a single housing; - the cooling device comprises at least two separate closed cooling circuits with separate feed lines (24.1, 24.2) to the evaporator and separates discharge lines (26.1, 26.2) from the evaporator; - the evaporator comprises two independent separate pipe works, resulting in one partial evaporator each, wherein each partial evaporator is respectively assigned to one of the two separate cooling circuits; - the at least two partial evaporators are housed in a housing, wherein the housing is arranged at least as a part of the side wall of the rack, and - air is sucked in via a side wall of the evaporator, cooled in the evaporator, and conveyed by means of fans and guide devices to the respective electrical device, especially the computer installation.
An eco-run control device that is mounted on a vehicle and is capable of performing an eco-run control operation to stop an engine if predetermined stop requirements are satisfied and later restart the engine if predetermined restart requirements are satisfied, the eco-run control device comprising: a starter drive request transmitting unit that transmits a starter drive allowing request signal to an engine control device, if the predetermined start requirements are satisfied while the engine is being shifted to a stopped state through the eco-run control operation; and a starter drive control unit that drives a starter, if receiving a starter drive allowing signal from the engine control device after the starter drive request transmitting unit transmits the starter drive allowing request signal to the engine control device, the starter drive control unit driving the starter if detecting a decrease of the engine speed to a predetermined speed or lower between the time when the starter drive request transmitting unit transmits the starter drive allowing request signal and a time when the starter drive allowing signal is received from the engine control device and even if the starter drive allowing signal is not received, wherein the predetermined speed is a speed with which the eco-run control device is able to enter the engine rotating state by fuel injection without the starter driving. a starter drive request transmitting unit that transmits a starter drive allowing request signal to an engine control device, if the predetermined start requirements are satisfied while the engine is being shifted to a stopped state through the eco-run control operation; and a starter drive control unit that drives a starter, if receiving a starter drive allowing signal from the engine control device after the starter drive request transmitting unit transmits the starter drive allowing request signal to the engine control device, the starter drive control unit driving the starter if detecting a decrease of the engine speed to a predetermined speed or lower between the time when the starter drive request transmitting unit transmits the starter drive allowing request signal and a time when the starter drive allowing signal is received from the engine control device and even if the starter drive allowing signal is not received, wherein the predetermined speed is a speed with which the eco-run control device is able to enter the engine rotating state by fuel injection without the starter driving.
A method of allocating sub-channel signal interleaving patterns to base stations, BSs, forming a wireless communication system capable of dividing a frequency band into a plurality of sub-carriers and including a plurality of sub-channels, which are a set of predetermined adjacent sub-carriers, the method comprising the steps of: creating a basic orthogonal sequence having a length identical to a number of sub-carriers forming a sub-channel creating a plurality of sequences having lengths identical to the length of the basic orthogonal sequence by applying, to the basic orthogonal sequence, a predetermined offset and a predetermined number of cyclic shifting; selecting a predetermined number of sequences corresponding to a number of the BSs from among the plurality of sequences; and allocating the selected sequences. creating a basic orthogonal sequence having a length identical to a number of sub-carriers forming a sub-channel creating a plurality of sequences having lengths identical to the length of the basic orthogonal sequence by applying, to the basic orthogonal sequence, a predetermined offset and a predetermined number of cyclic shifting; selecting a predetermined number of sequences corresponding to a number of the BSs from among the plurality of sequences; and allocating the selected sequences.
An image recognition device, configured to receive an image from an imaging device (2, 3), the image recognition device comprising: a contour extraction unit configured to separate the received image into at least two regions, based on the brightness of pixels in the image, select one of the regions as a notable region, and detect a plurality of contour points arranged on a contour line of the notable region, a shortest route detection unit configured to select a first contour point and a second contour point, of the contour points, the first and second contour points corresponding to respective ends of a shortest route formed by a straight line connecting portions of the contour line across an area external to the notable region by the shortest route, and a depressed portion determination unit configured to determine, when a length of a first route, that extends along the contour line between the first and second contour points, exceeds a predetermined first threshold and when a length ratio of the shortest route and the first route exceeds a second threshold that the portion surrounded by the shortest route and the first route, is a depressed portion in the notable region which is considered as a background region. a contour extraction unit configured to separate the received image into at least two regions, based on the brightness of pixels in the image, select one of the regions as a notable region, and detect a plurality of contour points arranged on a contour line of the notable region, a shortest route detection unit configured to select a first contour point and a second contour point, of the contour points, the first and second contour points corresponding to respective ends of a shortest route formed by a straight line connecting portions of the contour line across an area external to the notable region by the shortest route, and a depressed portion determination unit configured to determine, when a length of a first route, that extends along the contour line between the first and second contour points, exceeds a predetermined first threshold and when a length ratio of the shortest route and the first route exceeds a second threshold that the portion surrounded by the shortest route and the first route, is a depressed portion in the notable region which is considered as a background region.
A piezoelectric-transducer energy harvester, PEH, comprising a pendular unit subjected to external stresses applied to the harvester, the pendular unit comprising: - a beam that is elastically deformable in bending; - a beam mount with clamped coupling to a proximal end of the beam; and - an inertial mass, mounted at a free, distal end of the beam, wherein the beam is a piezoelectric beam adapted to convert into an oscillating electric signal (V OUT (t)) a mechanical energy produced by oscillations of the pendular unit, and wherein the piezoelectric beam comprises a flexible sandwiched structure including:. a central core;. a piezoelectric layer (46, 48) on at least one face of the central core; and. at least one surface electrode (52, 54) on an external face of the piezoelectric layer (46, 48), wherein the central core of the flexible sandwiched structure is made of a semiconductor material adapted to form an integrated circuit substrate and the substrate in a semiconductor material of the central core of the flexible sandwiched structure includes monolithic integrated structures, characterized in that the arrangement, over the extend of the substrate of the central core, of said monolithic integrated structures forms in a longitudinal direction a plurality of successive areas (z d, z c, z p) having different piezoelectric beam bending stiffness coefficients from an area to another. - a beam that is elastically deformable in bending; - a beam mount with clamped coupling to a proximal end of the beam; and - an inertial mass, mounted at a free, distal end of the beam, wherein the beam is a piezoelectric beam adapted to convert into an oscillating electric signal (V OUT (t)) a mechanical energy produced by oscillations of the pendular unit, and wherein the piezoelectric beam comprises a flexible sandwiched structure including:. a central core;. a piezoelectric layer (46, 48) on at least one face of the central core; and. at least one surface electrode (52, 54) on an external face of the piezoelectric layer (46, 48),. a central core;. a piezoelectric layer (46, 48) on at least one face of the central core; and. at least one surface electrode (52, 54) on an external face of the piezoelectric layer (46, 48), wherein the central core of the flexible sandwiched structure is made of a semiconductor material adapted to form an integrated circuit substrate and the substrate in a semiconductor material of the central core of the flexible sandwiched structure includes monolithic integrated structures, characterized in that the arrangement, over the extend of the substrate of the central core, of said monolithic integrated structures forms in a longitudinal direction a plurality of successive areas (z d, z c, z p) having different piezoelectric beam bending stiffness coefficients from an area to another.
A radiographic system comprising - a radiation source emitting a radiation beam, - a radiation sensor for detecting incident radiation from the radiation beam on a sensor area, - at least one collimator arranged between the radiation source and the radiation sensor for masking the radiation beam to irradiate a radiation area on the sensor which is smaller than the sensor area, - means for moving the collimator across the radiation beam, whereby the radiation area is moved across the sensor area; - where the sensor is a rolling shutter type sensor; - where the radiographic system is a computational tomography scanner; characterised in that the radiographic system is configured to compensate motion skew from the movement of the radiation source and the radiation sensor based on the time at which the collimator moves across the radiation beam. - a radiation source emitting a radiation beam, - a radiation sensor for detecting incident radiation from the radiation beam on a sensor area, - at least one collimator arranged between the radiation source and the radiation sensor for masking the radiation beam to irradiate a radiation area on the sensor which is smaller than the sensor area, - means for moving the collimator across the radiation beam, whereby the radiation area is moved across the sensor area; - where the sensor is a rolling shutter type sensor; - where the radiographic system is a computational tomography scanner; characterised in that the radiographic system is configured to compensate motion skew from the movement of the radiation source and the radiation sensor based on the time at which the collimator moves across the radiation beam.
Device for fitting together two elements, the device defining a reference axis comprising four elastic arms arranged in a petal configuration, extending from a lower edge to a free edge, the arms being joined at their lower edge, each arm comprising: - a body portion extending from the lower edge to an upper edge, having an axial extent, and comprising an elastic tab which projects radially away from the reference axis, this tab having a free end oriented towards the upper edge of the arm, - a head portion extending from the upper edge to the free edge and extending radially away from the reference axis. - a body portion extending from the lower edge to an upper edge, having an axial extent, and comprising an elastic tab which projects radially away from the reference axis, this tab having a free end oriented towards the upper edge of the arm, - a head portion extending from the upper edge to the free edge and extending radially away from the reference axis.
System of sliding floors and sliding walls used with load platforms of road semi-trailers for horizontal unloading in stages, mounted inside a loading platform mounted on road semi-trailers, and wherein this load platform has a rear side wall comprising a first sliding floor mounted on the base of the load platform, and a second sliding floor mounted on the first sliding floor, characterised by a vertically sliding sliding wall mounted on the second sliding floor, wherein the first floor carries out the "step 1" of the displacement, wherein it displaces and carries along with it the second floor and the sliding wall, and then the second floor is actuated, which moves over the first floor, wherein it carries out the "step 2" of the displacement, wherein it carries along with it the sliding wall mounted on it, and then the sliding wall is actuated, wherein it carries out the "step 3" of the unloading, wherein it moves over the second floor to the extreme end of the load platform as close as possible to the rear side wall.
A rodenticidal bait block comprising a foodstuff for the rodent comprising edible seed and/or cereal, at least one rodenticide, and a polymeric binder wherein the polymeric binder comprises a copolymer of a (meth)acrylic ester and styrene, wherein the bait block does not contain a wax binder.
The method for switching off an output of a junction box comprising an input and at least one output and also an, at the inlet side arranged, electronic switch and an, at the outlet side arranged, mechanical isolator that is connected in series thereto, and by means of said mechanical isolator the input is connected to the output so as to transmit energy, whereby the junction box comprises an internal evaluating unit having at least one processor and a data storage device, wherein an evaluating program is stored in the data storage device and said evaluating program is provided for the purpose of being performed by the processor, including the following steps: - Open the electronic switch by means of the evaluating unit; - Wait for a defined period of time (Δt); - Measure the potential at the output of the electronic switch by means of the evaluating unit and an electronic measuring device; - Compare the measured potential with a predefined value (U Ref); - Set a release parameter in dependence upon the measured potential being below the predetermined value (U Ref); - Open the mechanical isolator in dependence upon the release parameter. - Open the electronic switch by means of the evaluating unit; - Wait for a defined period of time (Δt); - Measure the potential at the output of the electronic switch by means of the evaluating unit and an electronic measuring device; - Compare the measured potential with a predefined value (U Ref); - Set a release parameter in dependence upon the measured potential being below the predetermined value (U Ref); - Open the mechanical isolator in dependence upon the release parameter.
Method for producing a rotor wherein the rotor comprises teeth (1.2) arranged at regular intervals, projecting from a rotor core (1.1) in a radial direction, and tapering in cross section towards the rotor core (1.1) and tangentially magnetized first and second magnets (2a, 2b) having a trapezoidal cross sectional shape, arranged in gaps between these teeth (1.2) and wherein the teeth (1.2) are connected to the rotor core (1.1) by bending joints (1.3), wherein the method is characterized by the following steps, by means of which the first and second magnets (2a, 2b) divided into outer magnet pieces (2.1) and inner magnet pieces (2.2) are inserted into the rotor: - in a first step all outer magnet pieces (2.1) of the first magnets arc inserted into every other gap between the teeth (1.2), wherein the teeth (1.2) respectively adjacent to one of the first magnets are deflected tangentially so that the outer magnet pieces (2.1) first inserted abut against the outer stops (1.4) in the region of the ends of the teeth (1.2) facing away from the rotor core (1.1), - in a further step the inner magnet pieces (2.2) are inserted, these being pressed by magnetic repulsion from the respective outer magnet piece (2.1) towards the rotor core (1.1) until they abut against the inner stops (1.5), - in a further step the outer magnet pieces (2.1) of the remaining magnets are inserted into the still unoccupied gaps between the teeth (1.2) wherein the outer magnet pieces (2.1) of the remaining magnets move so far from the rotor core (1.1) that they arc held by a tight fit with the lateral boundaries of the teeth (1.2). - in a first step all outer magnet pieces (2.1) of the first magnets arc inserted into every other gap between the teeth (1.2), wherein the teeth (1.2) respectively adjacent to one of the first magnets are deflected tangentially so that the outer magnet pieces (2.1) first inserted abut against the outer stops (1.4) in the region of the ends of the teeth (1.2) facing away from the rotor core (1.1), - in a further step the inner magnet pieces (2.2) are inserted, these being pressed by magnetic repulsion from the respective outer magnet piece (2.1) towards the rotor core (1.1) until they abut against the inner stops (1.5), - in a further step the outer magnet pieces (2.1) of the remaining magnets are inserted into the still unoccupied gaps between the teeth (1.2) wherein the outer magnet pieces (2.1) of the remaining magnets move so far from the rotor core (1.1) that they arc held by a tight fit with the lateral boundaries of the teeth (1.2).
A stop control system for an internal combustion engine, including stop means for stopping at least one of the ignition and the fuel injection of said engine based on a stop command, an intake air flow rate control valve for controlling an intake air flow rate of said engine, stop position control means for controlling a stop position of a piston of said engine by actuating said intake air flow rate control valve, and rotational angle detecting means for detecting a rotational angle of a crankshaft of said engine, and rotational speed detecting means for detecting a rotational speed of the said engine, wherein said stop position control means determines an valve opening amount (THCMD) of said intake air flow rate control valve using the engine rotational speed detected by said rotational speed detecting means and the rotational angle detected by said rotational angle detecting means, after the operation of said stop means, and actuates said intake air flow rate control valve so that the valve opening amount (THCMD) of said intake air flow rate control valve coincides with the determined valve opening amount (THCMD), thereby increasing the intake air flow rate, characterized in that a cylinder of the engine includes an overlapped state where both of the intake valve and the exhaust valve are opened, wherein said stop position control means determines the valve opening amount (THCMD) of said intake air flow rate control valve based on the detected rotational angle at the time when the detected engine rotational speed is within a predetermined OK range in which engine stoppage in the overlapped range of the intake and exhaust valves is avoided.
Level measuring device, wherein the measuring device is designed as a FMCW level measuring device, comprising: an integrated microwave circuit (201, 301, 1001) in form of a radar system on chip with multiple transmitting channels (904, 905, 906, 907, 804, 805) on the radar chip, each configured for generating a high-frequency transmission signal, and one or more receiving channels (904, 905, 906, 907, 804, 805) on the radar chip, each configured for receiving the transmission signals reflected at the surface of the filling material; characterized in a noise level suppression device (206, 303), configured for increasing a signal-noise ratio of a receiving signal, which is caused by the transmission signals reflected at the surface of the filling material, by averaging the results of multiple consecutive performed measurements, wherein each of the consecutive performed measurements comprises a frequency sweep and each of the measurements comprises a multitude of data collected during a single sweep (404, 405, 406) and/or a signal level boosting device, configured for combining two of the transmitting channels (804, 805) to generate a combined transmission signal with increased power and/or two of the receiving channels (804, 805) to generate a combined receiving signal with increased power. a noise level suppression device (206, 303), configured for increasing a signal-noise ratio of a receiving signal, which is caused by the transmission signals reflected at the surface of the filling material, by averaging the results of multiple consecutive performed measurements, wherein each of the consecutive performed measurements comprises a frequency sweep and each of the measurements comprises a multitude of data collected during a single sweep (404, 405, 406) and/or a signal level boosting device, configured for combining two of the transmitting channels (804, 805) to generate a combined transmission signal with increased power and/or two of the receiving channels (804, 805) to generate a combined receiving signal with increased power.