mhurhangee/ep-ind-claims huggingface dataset:
Transition from a stripline to a waveguide, wherein the stripline, preferably a microstrip line, is located on a substrate, wherein an upper side of the substrate has a metallised surface and the lower side of the substrate has a metal layer, preferably a high-frequency ground-potential layer, wherein the upper side and the lower side are connected by vias, wherein the metallised surface on the upper side of the substrate at least partially acts as a waveguide wall, wherein the stripline is contacted by a step-like structure connected to the waveguide, which is located within a block that is metallised or consists of metal, wherein the block comprises a plurality of waveguide structures, and wherein a plurality of vias contact the block in a transition region, wherein the block has a rectangular waveguide which propagates an electrical wave, wherein the waveguide wave is guided onward within the block by means of a 90° bend which is located directly on the remote side of the step-like structure, so that the metallised surface on the upper side of the substrate acts as a waveguide wall only in the transition region. wherein the metallised surface on the upper side of the substrate at least partially acts as a waveguide wall, wherein the stripline is contacted by a step-like structure connected to the waveguide, which is located within a block that is metallised or consists of metal, wherein the block comprises a plurality of waveguide structures, and wherein a plurality of vias contact the block in a transition region, wherein the block has a rectangular waveguide which propagates an electrical wave, wherein the waveguide wave is guided onward within the block by means of a 90° bend which is located directly on the remote side of the step-like structure, so that the metallised surface on the upper side of the substrate acts as a waveguide wall only in the transition region.
A method for simultaneously manufacturing a plurality of porous three-dimensional parts, by manufacturing a three-dimensional structure of the plurality of porous three-dimensional parts connected to each other, the method including depositing interconnected filaments of a build material in a predetermined arrangement in a plurality of consecutively stacked layers, wherein the build material comprises a viscous material composition comprising an inorganic particulate material, wherein the filaments of the consecutive layers are connected to one another at least at contact points between filaments of consecutive layers to obtain the porous structure with interconnected pores between the filaments, the filaments of the consecutive layers being at an angle to each other, wherein a plurality of less frangible regions are formed in the arrangement of filaments to form the plurality of three-dimensional parts, wherein one or more preselected frangible regions are formed in the arrangement of filaments between the plurality of three-dimensional parts, and wherein the filaments are deposited such that the one or more frangible regions of the porous structure are connected to the plurality of less-frangible regions, wherein the frangible regions connect adjacently positioned three-dimensional parts together, wherein the predetermined arrangement of interconnected filaments is configured such that the one or more frangible regions form structurally weakened zones of the porous structure such that the porous structure breaks along said one or more frangible regions under influence of a load and/or a stress which does not break the less frangible regions, in order to make the plurality of three-dimensional parts releasable under influence of the load and/or stress.
A rotary table box manipulator, comprising a horizontal supporting plane, a first rotary table inscribed in and coplanar with said horizontal plane, A conveyor belt arranged in a loop and movable along a longitudinal advancement direction above the supporting plane and the table, equipped with a distribution of rotating balls whose lower part is in contact with the upper surface of the plane and of the table, so as to define an upper movable surface for supporting and transporting one or more boxes or packages of boxes, bundles or other, characterized in that it comprises at least one second rotary table inscribed in and coplanar with said first rotating table, able to move independently from it. a horizontal supporting plane, a first rotary table inscribed in and coplanar with said horizontal plane, A conveyor belt arranged in a loop and movable along a longitudinal advancement direction above the supporting plane and the table, equipped with a distribution of rotating balls whose lower part is in contact with the upper surface of the plane and of the table, so as to define an upper movable surface for supporting and transporting one or more boxes or packages of boxes, bundles or other, characterized in that it comprises at least one second rotary table inscribed in and coplanar with said first rotating table, able to move independently from it.
An aviation obstruction marking for support cables of cableways, comprising a travel assembly which is displaceable on the support cable and from which an operational travel means, in particular a gondola, is supported by way of a suspension means, characterised in that there is provided a warning body provided with an opening, through which the support cable leads and which is clamped directly to the support cable at one side from below within the opening by means of an overrideable cable clamp, wherein the opening is of such a configuration that it permits the travel assembly of the cableway to pass therethrough.
An automated preparation and mass spectrometry analysis system for preparing and analyzing a plurality of biological specimens, comprising: a housing; a sample preparation station (12, 20) comprising a matrix interference removal station, the sample preparation station (12, 20) being configured to prepare samples taken from the plurality of biological specimens; and a sample analysis station (14, 24) comprising a liquid chromatography station and a mass spectrometer configured to quantify one or more analytes in one or more of the prepared samples; wherein the sample preparation station (12, 20) and the sample analysis station (14, 24) are contained within the housing; wherein the matrix interference removal station comprises a centrifuge; wherein the mass spectrometer is positioned at a height that is lower than a height of the sample preparation station (12, 20); and wherein the mass spectrometer includes an ionization source positioned towards a front face of the housing. a housing; a sample preparation station (12, 20) comprising a matrix interference removal station, the sample preparation station (12, 20) being configured to prepare samples taken from the plurality of biological specimens; and a sample analysis station (14, 24) comprising a liquid chromatography station and a mass spectrometer configured to quantify one or more analytes in one or more of the prepared samples; wherein the sample preparation station (12, 20) and the sample analysis station (14, 24) are contained within the housing; wherein the matrix interference removal station comprises a centrifuge; wherein the mass spectrometer is positioned at a height that is lower than a height of the sample preparation station (12, 20); and wherein the mass spectrometer includes an ionization source positioned towards a front face of the housing.
A combination of a drum, a band-shaped member and a measurement apparatus comprising: a plurality of measurement markers disposed on an outer circumferential surface of the drum, the band-shaped member being arranged on the outer circumferential surface of the drum so as not to overlap with the plurality of measurement markers; at least one measurement sensor configured to acquire measurement information on only a portion of the band-shaped member near the longitudinal edge (10a, 10b) of the band-shaped member and simultaneously acquire position information on a portion of the plurality of measurement markers near the longitudinal edge (10a, 10b) of the band-shaped member when the band-shaped member is arranged on the drum; and a calculator configured to calculate a position of a measurement marker in the plurality of measurement markers based on the measurement information acquired by the measurement sensor and to calculate misalignment between an actual position of the measurement marker measured in advance and the position of the measurement marker calculated by the calculator, wherein the calculator is further configured to calculate an arrangement condition of the band-shaped member on the drum based on the measurement information on the band-shaped member acquired by the measurement sensor. a plurality of measurement markers disposed on an outer circumferential surface of the drum, the band-shaped member being arranged on the outer circumferential surface of the drum so as not to overlap with the plurality of measurement markers; at least one measurement sensor configured to acquire measurement information on only a portion of the band-shaped member near the longitudinal edge (10a, 10b) of the band-shaped member and simultaneously acquire position information on a portion of the plurality of measurement markers near the longitudinal edge (10a, 10b) of the band-shaped member when the band-shaped member is arranged on the drum; and a calculator configured to calculate a position of a measurement marker in the plurality of measurement markers based on the measurement information acquired by the measurement sensor and to calculate misalignment between an actual position of the measurement marker measured in advance and the position of the measurement marker calculated by the calculator, wherein the calculator is further configured to calculate an arrangement condition of the band-shaped member on the drum based on the measurement information on the band-shaped member acquired by the measurement sensor.
A cooling element (10, 40) comprising: a first surface for receiving an electric component, a second surface which is provided with fins (14, 14') for forwarding a heat load received from the electric component via the first surface to surroundings, wherein one or more of the fins (14, 14') are provided with a flow channel for passing a fluid within each respective fin, the flow channel having a capillary dimension and a meandering shape for providing a pulsating heat pipe, characterized in that the cooling element comprises a base plate with the first surface and the second surface and the flow channels of the different fins (14, 14') are in fluid communication with each other via the base plate, or the cooling element comprises a base plate with the first surface for receiving the electric component, and a second plate with the second surface which is provided with fins (14, 14'), the second plate is stacked against the base plate such that the first and second surfaces are facing opposite directions, the one or more fins (14, 14') provided with a flow channel comprises two respective openings (24, 25) in opposite ends of the respective flow channel, the openings (24, 25) facing the second plate, and the second plate is provided with through holes at the locations of the openings (24, 25) such that one opening of two adjacent fins are in fluid communication with each other via one through hole provided in the second plate. a first surface for receiving an electric component, a second surface which is provided with fins (14, 14') for forwarding a heat load received from the electric component via the first surface to surroundings, wherein one or more of the fins (14, 14') are provided with a flow channel for passing a fluid within each respective fin, the flow channel having a capillary dimension and a meandering shape for providing a pulsating heat pipe, characterized in that the cooling element comprises a base plate with the first surface and the second surface and the flow channels of the different fins (14, 14') are in fluid communication with each other via the base plate, or the cooling element comprises a base plate with the first surface for receiving the electric component, and a second plate with the second surface which is provided with fins (14, 14'), the second plate is stacked against the base plate such that the first and second surfaces are facing opposite directions, the one or more fins (14, 14') provided with a flow channel comprises two respective openings (24, 25) in opposite ends of the respective flow channel, the openings (24, 25) facing the second plate, and the second plate is provided with through holes at the locations of the openings (24, 25) such that one opening of two adjacent fins are in fluid communication with each other via one through hole provided in the second plate.
Water outlet fitting having a base, a water outlet that projects from the base in a connecting region thereof, and an operating element arranged on the base, wherein the operating element is configured in the manner of a stirrup-shaped handle, characterised in that the stirrup-shaped handle encompasses the water outlet and/or the base in vertical projection, the stirrup-shaped handle being articulated on the rear upper face of the base so that it encompasses the connecting region of the base at approximately the same distance therefrom towards the front and towards the sides.
A power control system comprising: a power control device; and a server device comprising a controller queue, wherein the power control device is configured to acquire a control instruction by polling the server device, the server device is configured to extract at least one of an elapsed time and a remaining number of control instructions not acquired by the power control device by the polling and to provide a warning when at least one of the elapsed time and the remaining number is at least a predetermined value, and the power control device is configured to create, when the server device does not respond to polling, a control instruction based on control guideline information and to execute the control instruction, characterized in that the server device is configured to change, upon receipt of polling from the power control device, a status of the control instruction acquired by the power control device by the polling and to store the status in the controller queue, and the server device is configured to extract at least one of the elapsed time and the remaining number of the control instructions not acquired by the power control device by the polling based on the status of the control instruction stored in the controller queue. a power control device; and a server device comprising a controller queue, wherein the power control device is configured to acquire a control instruction by polling the server device, the server device is configured to extract at least one of an elapsed time and a remaining number of control instructions not acquired by the power control device by the polling and to provide a warning when at least one of the elapsed time and the remaining number is at least a predetermined value, and the power control device is configured to create, when the server device does not respond to polling, a control instruction based on control guideline information and to execute the control instruction, characterized in that the server device is configured to change, upon receipt of polling from the power control device, a status of the control instruction acquired by the power control device by the polling and to store the status in the controller queue, and the server device is configured to extract at least one of the elapsed time and the remaining number of the control instructions not acquired by the power control device by the polling based on the status of the control instruction stored in the controller queue.
An array antenna configured to be placed at a determined position above the ground surface, said array antenna is assembled by a plurality of UAVs, each of said UAVs comprises a control unit configured and operable to control movement of said UAV for accurately maintaining the UAV in position within the formation of UAVs above the ground surface, one or more antenna elements of said array antenna, and at least one imager/camera configured to acquire imagery data of other UAVs in the formation; said plurality of UAVs configured to create and maintain a defined formation at said determined position above the ground and thereby align the one or more antenna elements carried by the UAVs to form said array antenna, said array antenna configured to receive electromagnetic signals reflected from a region of interest, or from one or more objects, within its line of sight; wherein said control unit is configured to receive data indicative of a position in which the UAV needs to be in the formation, and to process said imagery data, determine distances of said UAV from at least one of said other UAVs, and whenever needed, apply correcting movements to said UAV based on imagery data of other UAVs in the formation from said at least one imager/camera, for accurately placing the UAV in its position in the formation and maintaining said UAV in its accurate position in the formation of UAVs.
A system comprising: a headset comprising at least one ear cup (108a, 108b) comprising foam, the headset further comprising an adjustable ear cup shaper configurable into at least two configurations, wherein: when said ear cup shaper is configured in a first of said configurations, said ear cup (108a, 108b) is shaped to contact the temple of a wearer of said headset; and when said adjustable ear cup shaper is configured in a second of said configurations, said ear cup (108a, 108b) is shaped to accommodate the temple piece of a pair of eyeglasses of a wearer of said headset, characterized in that said adjustable ear cup shaper comprises a strap (118a, 118b) or a plunger (902a, 902b), wherein when said adjustable ear cup shaper is configured in said second of said configurations, said adjustable ear cup shaper creates a depression (dl, d2) in said foam by the strap (118a, 118b) or by the plunger (902a, 902b), wherein the plunger is held by a magnetic force of a magnet. a headset comprising at least one ear cup (108a, 108b) comprising foam, the headset further comprising an adjustable ear cup shaper configurable into at least two configurations, wherein: when said ear cup shaper is configured in a first of said configurations, said ear cup (108a, 108b) is shaped to contact the temple of a wearer of said headset; and when said adjustable ear cup shaper is configured in a second of said configurations, said ear cup (108a, 108b) is shaped to accommodate the temple piece of a pair of eyeglasses of a wearer of said headset, when said ear cup shaper is configured in a first of said configurations, said ear cup (108a, 108b) is shaped to contact the temple of a wearer of said headset; and when said adjustable ear cup shaper is configured in a second of said configurations, said ear cup (108a, 108b) is shaped to accommodate the temple piece of a pair of eyeglasses of a wearer of said headset, characterized in that said adjustable ear cup shaper comprises a strap (118a, 118b) or a plunger (902a, 902b), wherein when said adjustable ear cup shaper is configured in said second of said configurations, said adjustable ear cup shaper creates a depression (dl, d2) in said foam by the strap (118a, 118b) or by the plunger (902a, 902b), wherein the plunger is held by a magnetic force of a magnet.
An electronic gastrointestinal capsule being protected by an outer biocompatible shell resistant to the environment in the digestive system and by internally comprising: - at least one light source; - splitting means configured to split the light beam coming from the light source and direct it to the reference arm and the sampling arm; - an adjustable group delay element depending on the distance to the tissue to analyse, located in at least one of the arms (6,9); - optical moving means configured to move the intersection of the light beam of the sampling arm across the tissue to analyse; - an optical system configured to focus the light beam from the sampling arm on the tissue surface to analyse; - interference means configured to produce interference between the reflected light coming from the sampling arm and reference arm; - at least one detector receiving said interference between the light coming from the reference arm and sampling arm; - processing means configured to process the information acquired by the detector; - power supply means configured to electrically supply power to the capsule without a physical connection to the outside; - video equipment configured to capture images of tissue in the capsule surroundings; and - identifying means configured to identify the position of an outgoing light beam from the sampling arm of an optical coherence tomography system in an image obtained by the video equipment. - at least one light source; - splitting means configured to split the light beam coming from the light source and direct it to the reference arm and the sampling arm; - an adjustable group delay element depending on the distance to the tissue to analyse, located in at least one of the arms (6,9); - optical moving means configured to move the intersection of the light beam of the sampling arm across the tissue to analyse; - an optical system configured to focus the light beam from the sampling arm on the tissue surface to analyse; - interference means configured to produce interference between the reflected light coming from the sampling arm and reference arm; - at least one detector receiving said interference between the light coming from the reference arm and sampling arm; - processing means configured to process the information acquired by the detector; - power supply means configured to electrically supply power to the capsule without a physical connection to the outside; - video equipment configured to capture images of tissue in the capsule surroundings; and - identifying means configured to identify the position of an outgoing light beam from the sampling arm of an optical coherence tomography system in an image obtained by the video equipment.
A method of testing a self-contained device under test having at least a circuit under test and a power source, comprising: at least temporarily enabling power from the power source to the circuit under test; determining a first voltage across the circuit under test; determining a second voltage across the circuit under test after a test duration; and calculating an average current of the circuit under test based at least partially on the first voltage, the second voltage and the test duration. at least temporarily enabling power from the power source to the circuit under test; determining a first voltage across the circuit under test; determining a second voltage across the circuit under test after a test duration; and calculating an average current of the circuit under test based at least partially on the first voltage, the second voltage and the test duration.