mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (10; 100; 200; 300) for the capture and recovery of xenon from an article of manufacture having xenon contained therein, comprising; a pressure vessel (20; 120; 220; 320) capable of being sealed, comprising an input for receiving articles of manufacture having xenon contained therein and a crusher (32; 132; 232; 332) which takes the articles of manufacture to release crude xenon and form a residue, wherein the pressure vessel (20; 120; 220; 320) is provided with one or more lines, and optionally a bulk dust collector (111; 211; 311); a feed hopper (5; 105; 205; 205) to receive feed comprising the articles of manufacture and having a conduit to the input of the pressure vessel (20; 120; 220; 320); a vacuum pump (140; 240) in fluid communication with the line(s) of the pressure vessel (20; 120; 220; 320) and adapted to evacuate the sealed pressure vessel (20; 120; 220; 320); a recovery line from the pressure vessel (20; 120; 220; 320) capable of removing crude xenon from the pressure vessel (20; 120; 220; 320); and a process controller (50; 150; 250; 350; 450) in electrical communication with the vacuum pump (140; 240).
An extruded aluminum flat multi-hole tube that is a flat multi-hole tube made of aluminum or aluminum alloy and manufactured by extrusion molding, wherein the flat multi-hole tube comprises therein a plurality of refrigerant passages extending in a tube length direction and including an upper wall surface and a lower wall surface opposed to each other and a pair of opposed sidewall surfaces, a ridge extending in the tube length direction is formed only on the upper wall surface of the refrigerant passage, a height of the ridge is 5 to 25% of a vertical width of the refrigerant passage, a ratio of a horizontal width at 1/2 the height of the ridge with respect to the horizontal width of the refrigerant passage is 0.05 to 0.30; characterised in that the ratio of the horizontal width per inter-ridge flat portion of the upper wall surface with respect to the horizontal width of the refrigerant passage is 0.20 or less, and the horizontal width of the refrigerant passage is 0.45 to 2 mm.
A processing system comprising an input device, a processing device and a display, the processing system comprising: an input device comprising one or more pressure sensors operable to sense pressure inputs from a user; a processing unit operable to identify an imminent dropping of the input device from measurements obtained by the pressure sensors; and characterized by: a warning unit operable to provide a warning to a user when the processing unit identifies an imminent drop, wherein the warning unit causes a warning to be shown when one or more criteria are met, the criteria being selected from the list consisting of: i. when pressure inputs change by at least a threshold amount; and ii. when pressure inputs change at a rate greater than a threshold amount. an input device comprising one or more pressure sensors operable to sense pressure inputs from a user; a processing unit operable to identify an imminent dropping of the input device from measurements obtained by the pressure sensors; and i. when pressure inputs change by at least a threshold amount; and ii. when pressure inputs change at a rate greater than a threshold amount.
A method for scanning an incoming optical wavelength division multiplex signal by tuning a local oscillator laser in an optical component, comprising the steps of - broadening a linewidth of a generated oscillator laser signal and scanning the incoming wavelength division multiplex signal with high speed utilizing the broadened linewidth; and - when an incoming signal of said wavelength division multiplex signal is detected, scanning it further with reduced speed. - broadening a linewidth of a generated oscillator laser signal and scanning the incoming wavelength division multiplex signal with high speed utilizing the broadened linewidth; and - when an incoming signal of said wavelength division multiplex signal is detected, scanning it further with reduced speed.
A computer-implemented method for wireless communication, comprising: generating a preamble for a physical protocol data unit, PPDU, the PPDU to correspond to a below 1 GHz frequency band transmission, the PPDU to comprise a plurality of orthogonal frequency-division multiplexing, OFDM, symbols, the preamble to comprise a signal field and a short training field, STF, and a long training field, LTF, prior to the signal field (1015, 1035), the signal field (1015, 1035) characterized in comprising: a bandwidth parameter to designate a down-clocked bandwidth of the PPDU, the designated bandwidth to correspond to an Institute of Electrical and Electronics Engineers, IEEE, 802.11ac bandwidth of 20, 40, 80 or 160 MHz divided by an integer; and a modulation and coding scheme parameter set to indicate staggered quadrature phase-shift keying as a modulation format. a bandwidth parameter to designate a down-clocked bandwidth of the PPDU, the designated bandwidth to correspond to an Institute of Electrical and Electronics Engineers, IEEE, 802.11ac bandwidth of 20, 40, 80 or 160 MHz divided by an integer; and a modulation and coding scheme parameter set to indicate staggered quadrature phase-shift keying as a modulation format.
A PN junction, comprising a p-type CIGS semiconductor thin film layer and an n-type CIGS semiconductor thin film layer, characterised in that the Cu to In molar ratio in the p-type CIGS semiconductor thin film layer is within a range of 1.8 to 2, and wherein the Cu to In molar ratio in the n-type CIGS semiconductor thin film layer is within a range of 1.1 to 1.2.
A method, comprising: establishing a plurality of cryptographically secure channels, each channel between a monitoring device and a plurality of monitored devices, each monitored device of the plurality of monitored devices associated with a unique address; transmitting a first heartbeat from the monitoring device to a first monitored device of the plurality of monitored devices via a first secure channel, corresponding to the first monitored device, of the plurality of secure channels; if a response to the first heartbeat is received, transmitting a second heartbeat from the monitoring device to a second monitored device of the plurality of monitor devices via the first secure channel; and if a response to the first heartbeat is not received, executing a spoofing detection scheme, comprising: transmitting a second heartbeat to the first monitored device via a unique address associated with a second monitored device; receiving a response to the second heartbeat; and determining that a spoofing attack has occurred by the fact that the response to the second heartbeat has been received. establishing a plurality of cryptographically secure channels, each channel between a monitoring device and a plurality of monitored devices, each monitored device of the plurality of monitored devices associated with a unique address; transmitting a first heartbeat from the monitoring device to a first monitored device of the plurality of monitored devices via a first secure channel, corresponding to the first monitored device, of the plurality of secure channels; if a response to the first heartbeat is received, transmitting a second heartbeat from the monitoring device to a second monitored device of the plurality of monitor devices via the first secure channel; and if a response to the first heartbeat is not received, executing a spoofing detection scheme, comprising: transmitting a second heartbeat to the first monitored device via a unique address associated with a second monitored device; receiving a response to the second heartbeat; and determining that a spoofing attack has occurred by the fact that the response to the second heartbeat has been received. transmitting a second heartbeat to the first monitored device via a unique address associated with a second monitored device; receiving a response to the second heartbeat; and determining that a spoofing attack has occurred by the fact that the response to the second heartbeat has been received.
A metering valve for a fluid dispenser, the metering valve comprising a valve body that defines a metering chamber in which a valve member slides between a rest position and an actuated position, the metering valve being characterized in that said valve body and/or said valve member is/are made by injection-molding a material comprising a PBT matrix and glass microspheres dispersed in said PBT matrix.
A method for wavefront analysis comprising: forming a real image of an object at an image plane; analyzing an image wavefront corresponding to said real image at said image plane; and utilizing results of said analyzing to reconstruct an object wavefront, corresponding to said object, a wavefront transformer, operative to provide a plurality of differently phase changed transformed wavefronts (120, 122, 124) corresponding to said image wavefront which has an amplitude and a phase; an intensity map generator, operative to provide a plurality of intensity maps (130, 132, 134) of said plurality of phase changed transformed wavefronts; and an intensity map utilizer, employing said plurality of intensity maps (130, 132, 134) to provide an output indicating said amplitude and phase of said image wavefront; utilizing an elongated light source to illuminate the object and to obtain said image wavefront; wherein said plurality of different phase changes are applied to a region of said transformed wavefort, said region having a shape of said elongated light source. forming a real image of an object at an image plane; analyzing an image wavefront corresponding to said real image at said image plane; and utilizing results of said analyzing to reconstruct an object wavefront, corresponding to said object, a wavefront transformer, operative to provide a plurality of differently phase changed transformed wavefronts (120, 122, 124) corresponding to said image wavefront which has an amplitude and a phase; an intensity map generator, operative to provide a plurality of intensity maps (130, 132, 134) of said plurality of phase changed transformed wavefronts; and an intensity map utilizer, employing said plurality of intensity maps (130, 132, 134) to provide an output indicating said amplitude and phase of said image wavefront; utilizing an elongated light source to illuminate the object and to obtain said image wavefront; wherein said plurality of different phase changes are applied to a region of said transformed wavefort, said region having a shape of said elongated light source.
A tracheal cannula inner tube to be inserted into a tracheal cannula outer tube of a tracheal cannula, comprising a tubular cannula with a first opening at a first free end and a second opening at a second free end, wherein the cannula has an arch-shaped curved region between the two free ends (2 and 3), the curved region changes at the first free end into a conically expanding tube region with a subsequent straight tube region the diameter of which is larger than the diameter of the tracheal cannula inner tube in the curved region, characterized in that a pivoting, sleep-shaped adapter piece which has an unlimited rotation capability of 360° around its rotating axis (-X-X-) or a rotation capability limited by stop units is attached to the straight tube region and in which the outer surface of the straight tube region is provided with a circumferential groove into which a circumferential bead of the inner surface of the adapter piece engages in an accurately fitting manner such that a friction bearing is formed by the groove and bead between the outer surface of the straight tube region and the inner surface of the adapter piece which are in a slight surface contact with each other.
A breathing apparatus for aircraft, the breathing apparatus being intended to supply a respiratory gas to a user and including: - a breathing mask comprising a shell (14, 17), the shell (14, 17) has a cavity (13, 15) and is configured for contacting the user's head around the user's mouth and nose, the shell (14, 17) supporting a transparent lens and comprising an upper edge portion extending above the transparent lens, - an inflatable harness configured for extending around the user's head opposite the shell in order to hold the shell in contact with the user's face, the harness comprising at least one rear portion intended to be placed facing an occipital portion of the user's head, - a guiding link having an upper end and a lower end, the upper end being linked to the upper edge portion, and - a plate linked to the lower end of the guiding link and having a bearing face configured for contacting the shell (14, 17) and facing the cavity (13, 15), the plate being linked to the rear portion of the harness, wherein: - the guiding link has an upper portion and a lower portion, the upper portion being rigid, the apparatus being characterized in that: - the guiding link is configured for being folded with the upper portion on the plate and the lower portion between the upper portion and the plate, - the upper portion has a length greater than or equal to 10 centimetres, - the upper portion is rotatably mounted on the upper edge portion, and - the lower portion is at least partly flexible and arranged between the upper portion and the plate. - a breathing mask comprising a shell (14, 17), the shell (14, 17) has a cavity (13, 15) and is configured for contacting the user's head around the user's mouth and nose, the shell (14, 17) supporting a transparent lens and comprising an upper edge portion extending above the transparent lens, - an inflatable harness configured for extending around the user's head opposite the shell in order to hold the shell in contact with the user's face, the harness comprising at least one rear portion intended to be placed facing an occipital portion of the user's head, - a guiding link having an upper end and a lower end, the upper end being linked to the upper edge portion, and - a plate linked to the lower end of the guiding link and having a bearing face configured for contacting the shell (14, 17) and facing the cavity (13, 15), the plate being linked to the rear portion of the harness, - the guiding link has an upper portion and a lower portion, the upper portion being rigid, - the guiding link is configured for being folded with the upper portion on the plate and the lower portion between the upper portion and the plate, - the upper portion has a length greater than or equal to 10 centimetres, - the upper portion is rotatably mounted on the upper edge portion, and - the lower portion is at least partly flexible and arranged between the upper portion and the plate.
A method, performed by a target device, for enabling detection of a narrowband positioning reference signal, NPRS, location in a radio frame, wherein the method comprises: - obtaining, from a location server, assistance data related to neighbour cells in a reference and neighbour cell list, wherein for each neighbour cell the assistance data comprises timing offset information for each neighbour cell within the reference and neighbour cell list, wherein the timing offset information comprises an indication of a subframe number offset between the neighbour cell and a reference cell or a serving cell, wherein the assistance information further comprises NPRS configuration information for the neighbour cell, which NPRS configuration information comprises an indication of subframes in which NPRSs are transmitted in the neighbour cell, and wherein the indication of subframes comprises a bitmap, where each bit of the bitmap corresponds to a subframe, and indicates whether the corresponding subframe contains an NPRS or not, - determining a time of a NPRS subframe for each neighbour cell and/or NPRS sequence based on the timing offset information, - measuring a positioning reference signal, PRS, for the neighbour cell based on the determined time, and - reporting the measured PRS to the location server. - obtaining, from a location server, assistance data related to neighbour cells in a reference and neighbour cell list, wherein for each neighbour cell the assistance data comprises timing offset information for each neighbour cell within the reference and neighbour cell list, wherein the timing offset information comprises an indication of a subframe number offset between the neighbour cell and a reference cell or a serving cell, wherein the assistance information further comprises NPRS configuration information for the neighbour cell, which NPRS configuration information comprises an indication of subframes in which NPRSs are transmitted in the neighbour cell, and wherein the indication of subframes comprises a bitmap, where each bit of the bitmap corresponds to a subframe, and indicates whether the corresponding subframe contains an NPRS or not, - determining a time of a NPRS subframe for each neighbour cell and/or NPRS sequence based on the timing offset information, - measuring a positioning reference signal, PRS, for the neighbour cell based on the determined time, and - reporting the measured PRS to the location server.
A fingerprint identification module, comprising a fingerprint identification chip and a package structure for packaging the fingerprint identification chip, a fingerprint sensing region of the fingerprint identification chip being exposed outside the package structure, wherein the package structure comprises: a film layer arranged on an upper surface of the fingerprint sensing region, wherein the film layer is made from lamination of two materials of silicon dioxide and silicon nitride, and has a thickness between 1 and 3 μm; a protection layer with a predetermined thickness arranged on an upper surface of the film layer, the protection layer protecting the fingerprint sensing region exposed outside the package structure and causing the fingerprint identification chip to have a predefined fingerprint identification distance; and a plastic package arranged on a substrate and surrounding the fingerprint identification chip, wherein an upper surface of the plastic package and an upper surface of the protection layer are in the same horizontal plane; and wherein the fingerprint identification module further comprises a solder ball array electrically connected to an external circuit; wherein the solder ball array is arranged under the fingerprint identification chip and is electrically connected to a through-silicon via structure of the fingerprint identification chip via a solder pad on a lower surface of the fingerprint identification chip such that the fingerprint identification chip is electrically connected to the external circuit, wherein the substrate is arranged under the solder ball array, a contact array is arranged under the substrate, and the solder ball array is electrically connected to the external circuit via the contact array. a film layer arranged on an upper surface of the fingerprint sensing region, wherein the film layer is made from lamination of two materials of silicon dioxide and silicon nitride, and has a thickness between 1 and 3 μm; a protection layer with a predetermined thickness arranged on an upper surface of the film layer, the protection layer protecting the fingerprint sensing region exposed outside the package structure and causing the fingerprint identification chip to have a predefined fingerprint identification distance; and a plastic package arranged on a substrate and surrounding the fingerprint identification chip, wherein an upper surface of the plastic package and an upper surface of the protection layer are in the same horizontal plane; and wherein
A device (100, 100', 200, 300) for filling gas storage tanks, comprising: - a frame (110, 210, 310) and/or a housing; - a gas buffer storage tank (120, 220, 320) for a gas, the gas buffer storage tank (120, 220, 320) being arranged movably relative to the frame and/or the housing and mounted rotatably about an at least substantially horizontally oriented first axis (y); - a first valve (130, 230, 330, 331) having an inlet connected to the gas buffer storage tank (120, 220, 320) and an outlet for connection to a gas storage tank to be filled; and - a weighing device (140, 240, 340) connected to the gas buffer storage tank (120, 220, 320) for weighing the gas buffer storage tank (120, 220, 320). - a frame (110, 210, 310) and/or a housing; - a gas buffer storage tank (120, 220, 320) for a gas, the gas buffer storage tank (120, 220, 320) being arranged movably relative to the frame and/or the housing and mounted rotatably about an at least substantially horizontally oriented first axis (y); - a first valve (130, 230, 330, 331) having an inlet connected to the gas buffer storage tank (120, 220, 320) and an outlet for connection to a gas storage tank to be filled; and - a weighing device (140, 240, 340) connected to the gas buffer storage tank (120, 220, 320) for weighing the gas buffer storage tank (120, 220, 320).
A transdermal adhesive patch assembly, the assembly comprising: a backing having a first major surface and a second major surface; a skin-contact adhesive coupled to the second major surface of the backing; a matrix comprising an active ingredient, the matrix coupled to the second major surface of the backing; a microneedle array located in at least partially overlapping relationship with the matrix; and a carrier positioned to couple the microneedle array to the matrix opposite the backing, wherein the carrier and the microneedle array form a skin treatment assembly that is configured to be decoupled from the matrix, when desired, to expose the matrix; wherein a portion of the backing and at least a portion of the skin-contact adhesive extend beyond the skin treatment assembly in at least one direction to form an anchor, and wherein the matrix and the skin treatment assembly are located on a flap that is movable with respect to the anchor between a first position in which the flap is not folded back relative to the anchor and a second position in which the flap is folded back relative to the anchor. a backing having a first major surface and a second major surface; a skin-contact adhesive coupled to the second major surface of the backing; a matrix comprising an active ingredient, the matrix coupled to the second major surface of the backing; a microneedle array located in at least partially overlapping relationship with the matrix; and a carrier positioned to couple the microneedle array to the matrix opposite the backing, wherein the carrier and the microneedle array form a skin treatment assembly that is configured to be decoupled from the matrix, when desired, to expose the matrix; wherein a portion of the backing and at least a portion of the skin-contact adhesive extend beyond the skin treatment assembly in at least one direction to form an anchor, and wherein the matrix and the skin treatment assembly are located on a flap that is movable with respect to the anchor between a first position in which the flap is not folded back relative to the anchor and a second position in which the flap is folded back relative to the anchor.