mhurhangee/ep-ind-claims huggingface dataset:
A transmission device having a function of performing transmission by single-input single-output (SISO) as well as multiple-input single-output (MISO) and multiple-input multiple-output (MIMO), the transmission device being configured to: transmit, by MISO, a modulated signal modulated by a first PLP, physical layer pipe, data for MISO and a modulated signal modulated by a second PLP data for MISO that is different from the first PLP data for MISO, the modulated signal modulated by the first PLP data for MISO and the modulated signal modulated by the second PLP data for MISO being simultaneously transmitted using two antennas at an identical frequency; transmit, by MIMO, a modulated signal modulated by a first PLP data for MIMO and a modulated signal modulated by a second PLP data for MIMO that is different from the first PLP data for MIMO, the modulated signal modulated by the first PLP data for MIMO and the modulated signal modulated by the second PLP data for MIMO being simultaneously transmitted using the two antennas at an identical frequency; and transmit, by SISO, a modulated signal modulated by PLP data for SISO, the modulated signal modulated by the PLP data for SISO being simultaneously transmitted using the two antennas at an identical frequency and employing different transmission power for each antenna such that the transmission power of each antenna in SISO matches the transmission power of each antenna used in MISO and MIMO. transmit, by MISO, a modulated signal modulated by a first PLP, physical layer pipe, data for MISO and a modulated signal modulated by a second PLP data for MISO that is different from the first PLP data for MISO, the modulated signal modulated by the first PLP data for MISO and the modulated signal modulated by the second PLP data for MISO being simultaneously transmitted using two antennas at an identical frequency; transmit, by MIMO, a modulated signal modulated by a first PLP data for MIMO and a modulated signal modulated by a second PLP data for MIMO that is different from the first PLP data for MIMO, the modulated signal modulated by the first PLP data for MIMO and the modulated signal modulated by the second PLP data for MIMO being simultaneously transmitted using the two antennas at an identical frequency; and transmit, by SISO, a modulated signal modulated by PLP data for SISO, the modulated signal modulated by the PLP data for SISO being simultaneously transmitted using the two antennas at an identical frequency and employing different transmission power for each antenna such that the transmission power of each antenna in SISO matches the transmission power of each antenna used in MISO and MIMO.
A box producing apparatus comprising: a printing section comprising a plurality of print units (2a-2d) including a flexo print machine; an image obtaining unit configured to obtain an image of a printed face which is printed on a box material sheet by the printing section; and a register correction control unit configured to compare a typical picture in a master image of a sample for the print, and a corresponding pictures corresponding to the typical picture in the image of the printed face obtained by the image obtaining unit to determine an amount of register displacement in each of the print units (2a-2d), and to control a register adjustment mechanism (26a-26d) provided in each of the print units (2a-2d) based on the amount of register displacement to correct a register of the print, wherein the typical picture is a picture including at least an area where a plurality of colors do not overlap, and the register correction control unit comprises a picture extracting section that extracts the typical picture. a printing section comprising a plurality of print units (2a-2d) including a flexo print machine; an image obtaining unit configured to obtain an image of a printed face which is printed on a box material sheet by the printing section; and a register correction control unit configured to compare a typical picture in a master image of a sample for the print, and a corresponding pictures corresponding to the typical picture in the image of the printed face obtained by the image obtaining unit to determine an amount of register displacement in each of the print units (2a-2d), and to control a register adjustment mechanism (26a-26d) provided in each of the print units (2a-2d) based on the amount of register displacement to correct a register of the print, wherein the typical picture is a picture including at least an area where a plurality of colors do not overlap, and the register correction control unit comprises a picture extracting section that extracts the typical picture.
Armrest device, in particular for commercial vehicle seats, having a guide rail system for guiding a displacement movement of a first rail relative to a second rail which can be connected to the armrest device, in a displacement direction, wherein the displacement movement of the first rail can be arrested by the engagement of a locking element of a locking device in at least one recess in the first rail, characterized in that the locking element is connected to the locking device by a locking element support and the locking device is rigidly connected to the armrest device by a first end and can be deflected in a height direction by a second end, the locking element engaging in the recess in a non-deflected position of the locking device.
A double-wishbone suspension of a vehicle, with a wheel carrier for a wheel, which is articulatedly connected to the vehicle chassis by means of an upper wishbone arm and a lower wishbone arm, and with a spring element at least partly supporting the vehicle chassis relative to the wheel carrier, and a damper for damping compressive and/or rebounding movements of the wheel carrier relative to the vehicle chassis, for which purpose a first component of the damper is supported on the vehicle chassis and a second component thereof is supported on the wheel carrier, and wherein the spring element is supported on the wheel carrier exclusively via the component of the damper supported on the wheel carrier, such that forces between the vehicle chassis and the wheel carrier are transmitted serially by the intermediate spring element and the damper component supported on the wheel carrier, characterised in that the spring element is a transverse leaf spring and the damper has a fork-shaped extension, at the free ends of which the spring element is supported.
A light curtain for detecting objects in a surveillance area with a series arrangement of transmitters integrated in a transmitter housing, each of which emits light beams with a beam angle, with a series arrangement of receivers integrated in a receiver housing, each of which receives light beams within a viewing angle, the light beams of a transmitter striking an associated receiver, which forms a beam axis with this transmitter, in a working mode of the light curtain when the surveillance area is free, and having an evaluation unit which is designed to generate an object detection signal as a function of received signals from the receivers, at least one alignment receiver being provided in the receiver housing as alignment means, whose viewing angle is greater than the viewing angles of the receivers, characterised in that the alignment receiver is assigned to one of the receivers, i.e. is arranged spatially close to the latter, in such a way that light beams from the transmitter assigned to this receiver are directed not only onto the assigned receiver but also onto the alignment receiver, but also on the alignment receiver and the alignment receiver is set up to receive light beams from the transmitter assigned to this receiver, and in that during an alignment process an alignment of the transmitter housing relative to the receiver housing can be carried out as a function of the quantity of light from the light beams from this transmitter incident on the alignment receiver.
Composition for kneading, comprising: - flour obtained by grinding grains treated with ozone prior to said grinding; - sea salt (NaCl) in a quantity of between at least 1.4% and at least 1.6% by weight relative to the weight of the flour; - water. - flour obtained by grinding grains treated with ozone prior to said grinding; - sea salt (NaCl) in a quantity of between at least 1.4% and at least 1.6% by weight relative to the weight of the flour; - water.
A power tool comprising: a tool housing; a blade assembly; a drive assembly within the tool housing for driving the blade assembly; and a cover that is coupled to the power tool and is movable between at least two positions; wherein the blade assembly is fixedly retained by the power tool when the cover is in a first position and is detachable from the power tool when the cover is in a second position; characterized in that the cover has tool-less means for coupling the blade assembly to the cover when the cover is in the second position. a tool housing; a blade assembly; a drive assembly within the tool housing for driving the blade assembly; and a cover that is coupled to the power tool and is movable between at least two positions; wherein the blade assembly is fixedly retained by the power tool when the cover is in a first position and is detachable from the power tool when the cover is in a second position; characterized in that the cover has tool-less means for coupling the blade assembly to the cover when the cover is in the second position.
A vehicular lamp fitting comprising: an outer lens including a first closed end portion, a first open end portion opposite to the first closed end portion, and an inner member containing portion between the first closed end portion and the first open end portion; a housing including a second closed end portion and a second open end portion opposite to the second closed end portion; an inner member that forms a seal groove between the inner member and an inner surface of the first open end portion in a state in which the inner member is contained in the inner member containing portion; and an adhesive filled in the seal groove, characterized in that an open end surface of the housing is provided with a protruding portion inserted in the adhesive filled in the seal groove. an outer lens including a first closed end portion, a first open end portion opposite to the first closed end portion, and an inner member containing portion between the first closed end portion and the first open end portion; a housing including a second closed end portion and a second open end portion opposite to the second closed end portion; an inner member that forms a seal groove between the inner member and an inner surface of the first open end portion in a state in which the inner member is contained in the inner member containing portion; and an adhesive filled in the seal groove, characterized in that an open end surface of the housing is provided with a protruding portion inserted in the adhesive filled in the seal groove.
High carbon steel wire rod excellent in drawability and the fatigue characteristics after wire drawing which consists of, by mass%, C: 0.5 to 1.2%, Si: 0.15 to 2.5%, Mn: 0.20 to 0.9%, P ≤ 0.025%, S: 0.004 to 0.025%, Al: 0.000005 to 0.002%, Ca: 0.00001 to 0.002%, Mg: 0.00001 to 0.001%, Na: 0.000005 to 0.001%, and F: 0.000005 to 0.001%, has a total oxygen amount of 16 to 30 ppm, and optionally further including REM: 0.000005 to 0.001%, B: 0.0005 to 0.002%, Cr: 0.05 to 1.0%, Ni: 0.05 to 1.0%, Cu: 0.05 to 1.0%, Ti: 0.001 to 0.25%, Nb: 0.001 to 0.25%, V: 0.001 to 0.25%, Mo: 0.05 to 1.0% and/or Co: 0.1 to 2%, and which has a balance of Fe and unavoidable impurities, the high carbon steel wire rod characterized in that the number ratio of inclusions satisfying (%SiO 2) = 40 to 95%, (%CaO) = 0.5 to 30%, (%Al 2 O 3) = 0.5 to 30%, (%MgO) = 0.5 to 20%, and (%MnO) = 0.5 to 10% and further satisfying (%Na) = 0.2 to 7% and (%F) = 0.17 to 8% (below, referred to as "inclusions covered due to composition") in the oxide-based nonmetallic inclusions of a short axis of 0.5pm or more, a long axis of 1.0μm or more, and a circle equivalent diameter (area converted to diameter) of 1μm or more which are seen in the L direction cross-section of the wire rod (below, referred to as "inclusions covered due to size"), that is, the number of inclusions covered due to composition/number of inclusions covered due to size x 100, is 80% or more: where (%SiO 2), (%CaO), (%Al 2 O 2), (%MgO), (%MnO), (%Na), and (%F) respectively are the contents of SiO 2, CaO, Al 2 O 2, MgO, MnO, Na, and F in the inclusions (mass%). C: 0.5 to 1.2%, Si: 0.15 to 2.5%, Mn: 0.20 to 0.9%, P ≤ 0.025%, S: 0.004 to 0.025%, Al: 0.000005 to 0.002%, Ca: 0.00001 to 0.002%, Mg: 0.00001 to 0.001%, Na: 0.000005 to 0.001%, and F: 0.000005 to 0.001%, REM: 0.000005 to 0.001%, B: 0.0005 to 0.002%, Cr: 0.05 to 1.0%, Ni: 0.05 to 1.0%, Cu: 0.05 to 1.0%, Ti: 0.001 to 0.25%, Nb: 0.001 to 0.25%, V: 0.001 to 0.25%, Mo: 0.05 to 1.0% and/or Co: 0.1 to 2%,
Adsorber for the production and supplying of oxygen to passengers of an aircraft, comprising, in a cylindrical casing and around a central gas duct coaxial to the casing, an adsorbent mass adsorbing preferentially nitrogen, characterised in that the adsorbent mass has an average axial dimension h, i.e. the length passed through by the gas, greater than 25 cm and an outer diameter φ such that h/φ is between 0.8 and 2.
A composition comprising a first composition comprising the following: A) a first ethylene/α-olefin interpolymer that has a weight average molecular weight (Mw) greater than 90,000 g/mole and a MWD less than, or equal to 3, each as determined by conventional GPC; B) a second ethylene/α-olefin interpolymer; and wherein the first composition has a number average molecular weight (Mn) less than 10,000 g/mole as determined by conventional GPC; and wherein the α-olefin of first interpolymer is the same as the α-olefin of the second interpolymer. A) a first ethylene/α-olefin interpolymer that has a weight average molecular weight (Mw) greater than 90,000 g/mole and a MWD less than, or equal to 3, each as determined by conventional GPC; B) a second ethylene/α-olefin interpolymer; and
A method for testing a hearing device comprising at least one microphone unit and a receiver unit, the method comprising the steps of: - indicating a predefined position for positioning the hearing device on a display unit comprised in an accessory device, - positioning the hearing device on the display unit at the predefined position in relation to the accessory device comprising a microphone and a loudspeaker, - generating a first sound signal by the loudspeaker, - recording the first sound signal by the microphone unit, - generating a second sound signal by the receiver unit, the second sound signal being at least partly dependent on the recorded first sound signal, - recording the second sound signal by the microphone, - evaluating the recorded second sound signal, and - at least triggering further action based on results of evaluating the recorded second sound signal in case the results do not conform to predefined expectation. - indicating a predefined position for positioning the hearing device on a display unit comprised in an accessory device, - positioning the hearing device on the display unit at the predefined position in relation to the accessory device comprising a microphone and a loudspeaker, - generating a first sound signal by the loudspeaker, - recording the first sound signal by the microphone unit, - generating a second sound signal by the receiver unit, the second sound signal being at least partly dependent on the recorded first sound signal, - recording the second sound signal by the microphone, - evaluating the recorded second sound signal, and - at least triggering further action based on results of evaluating the recorded second sound signal in case the results do not conform to predefined expectation.
Method for determining wind speed components by way of a lidar sensor, said lidar sensor being oriented substantially vertically in order to carry out the measurements in at least one substantially horizontal measurement plane, each measurement plane comprising at least two measurement points (b1, b2, b3, b4), characterized in that the following steps are implemented: a) acquiring measurement signals from said lidar sensor for each measurement point (b1, b2, b3, b4) of said at least one measurement plane; b) determining the mean wind direction (Dir) and the mean wind speed ( v) in said at least one measurement plane by way of a reconstruction of the wind based on said measurement signals; c) constructing a projection line perpendicular to said determined wind direction (Dir) in said at least one measurement plane; d) determining a time offset (δt) between each measurement point (b1, b2, b3, b4) of said at least one measurement plane and said constructed projection line, by way of said determined mean wind speed ( v); e) for each measurement point (b1, b2, b3, b4) of said at least one measurement plane, determining a corrected measurement signal, said corrected measurement signal corresponding to the measurement signal at a time preceding the time under consideration minus a duration corresponding to said time offset (δt); and f) determining said wind speed components in said at least one measurement plane by way of said corrected measurement signals. a) acquiring measurement signals from said lidar sensor for each measurement point (b1, b2, b3, b4) of said at least one measurement plane; b) determining the mean wind direction (Dir) and the mean wind speed ( v) in said at least one measurement plane by way of a reconstruction of the wind based on said measurement signals; c) constructing a projection line perpendicular to said determined wind direction (Dir) in said at least one measurement plane; d) determining a time offset (δt) between each measurement point (b1, b2, b3, b4) of said at least one measurement plane and said constructed projection line, by way of said determined mean wind speed ( v); e) for each measurement point (b1, b2, b3, b4) of said at least one measurement plane, determining a corrected measurement signal, said corrected measurement signal corresponding to the measurement signal at a time preceding the time under consideration minus a duration corresponding to said time offset (δt); and f) determining said wind speed components in said at least one measurement plane by way of said corrected measurement signals.
Refrigeration and/or freezer device, comprising at least one body and at least one closure element closing an opening of the body, as well as at least one profile assembly, arranged in a gap formed between the closure element and the body, comprising a base, at least one fastening assembly, at least one sealing assembly and at least one profile element, wherein at least one free end of the profile element is arranged on the sealing assembly, wherein at least one further free end of the profile element is connected to the base via at least one movement assembly projecting at least partially into the sealing assembly and comprising at least two movement portions (40, 41) arranged approximately opposite one another, wherein the sealing assembly comprises at least one insulating element arranged spaced apart from the profile element via at least one hollow chamber (34, 35), integrally connected thereto and formed as a web, characterised in that the insulating element formed as a web is arranged on the sealing assembly in parallel to the profile element, in that the insulating element formed as a web has a heat transmission resistance R in accordance with EN ISO 6946 of approximately 30 to 450 (m 2 ·K) / W, preferably approximately 40 to 400 (m 2 ·K) / W, particularly preferably approximately 50 to 350 (m 2 ·K) / W, for a wall thickness of approximately 1.5 to 10 mm.
A ballistic resistant article comprising a plurality of fibrous layers, each of said layers comprising a network of fibers, wherein the fibers have a strength of at least 800 mN/tex (1100 MPa) according to ASTM D 7269-07 and a matrix material, wherein the matrix material comprises a mixture comprising - at least one styrene butadiene random copolymer resin, and - at least one tackifier. - at least one styrene butadiene random copolymer resin, and - at least one tackifier.
A test and measurement instrument, comprising: a splitter configured to split an input signal having a particular bandwidth into a plurality of split signals (14, 16), wherein each split signal (14, 16) includes substantially the entire bandwidth of the input signal;a plurality of harmonic mixers (18, 24), each harmonic mixer (18, 24) configured to mix an associated split signal of the plurality of split signals (14, 16) with an associated harmonic signal (20, 26) to generate an associated mixed signal (22, 28), wherein the associated harmonic signal includes a zeroth-order harmonic; and a plurality of digitizers (30, 32), each digitizer configured to digitize a mixed signal of an associated harmonic mixer (22, 28) of the plurality of harmonic mixers (18, 24); wherein a first-order harmonic of at least one harmonic signal associated with the harmonic mixers (18, 24) is different from an effective sample rate of at least one of the digitizers (30, 32); and wherein the plurality of digitized mixed signals, when combined, create a substantially accurate representation of the input signal. a splitter configured to split an input signal having a particular bandwidth into a plurality of split signals (14, 16), wherein each split signal (14, 16) includes substantially the entire bandwidth of the input signal;a plurality of harmonic mixers (18, 24), each harmonic mixer (18, 24) configured to mix an associated split signal of the plurality of split signals (14, 16) with an associated harmonic signal (20, 26) to generate an associated mixed signal (22, 28), wherein the associated harmonic signal includes a zeroth-order harmonic; and a plurality of digitizers (30, 32), each digitizer configured to digitize a mixed signal of an associated harmonic mixer (22, 28) of the plurality of harmonic mixers (18, 24); wherein a first-order harmonic of at least one harmonic signal associated with the harmonic mixers (18, 24) is different from an effective sample rate of at least one of the digitizers (30, 32); and wherein the plurality of digitized mixed signals, when combined, create a substantially accurate representation of the input signal.
A measurement data processing unit having a plurality of relaying units (20M, 20S, 40S), to which one or more measuring devices can be connected, and processing means for collecting and processing the measurement data transmitted from the plurality of relaying units (20M, 20S, 40S), wherein the plurality of relaying units (20M, 20S, 40S) are serially connected to the processing means, and wherein each relaying unit (20M, 20S, 40S) has: a detection unit that is adapted to detect that nothing is connected to an input terminal of the relaying unit; an address-transmitting means for setting an address data ID by adding a number of the measuring device connected to the respective relaying unit to another address data ID transmitted from a preceding relaying unit, and for transmitting the newly set address data ID to a succeeding relaying unit; and a transmission unit that is adapted to transmit a transmission identifying signal indicating a completion of an address setting to the processing means when the address data ID is transmitted from the rest of the plurality of relaying units. a detection unit that is adapted to detect that nothing is connected to an input terminal of the relaying unit; an address-transmitting means for setting an address data ID by adding a number of the measuring device connected to the respective relaying unit to another address data ID transmitted from a preceding relaying unit, and for transmitting the newly set address data ID to a succeeding relaying unit; and a transmission unit that is adapted to transmit a transmission identifying signal indicating a completion of an address setting to the processing means when the address data ID is transmitted from the rest of the plurality of relaying units.