mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting information in a wireless system, the method comprising: determining traffic on a plurality of channels in the wireless system; selecting a bandwidth for a packet (501; 502; 503; 505; 506; 507; 510; 511) to be transmitted based on the determined traffic and available channel bandwidths in the wireless system, wherein the selected bandwidth for the packet (501; 502; 503; 505; 506; 507; 510; 511) is provided on a non-contiguous spectrum of the wireless system; selecting a modulation and a coding rate from a plurality of modulations and associated coding rates, the modulation and coding rate applied to a segment of a plurality of segments of the packet (501; 502; 503; 505; 506; 507; 510; 511), each segment including one or more bandwidth units; correlating phases of any synthesizers (1301; 1302; 1303; 1304; 1501) used for each of said segments in the transmitter; positioning two segments (210; 211; 403; 404) of the packet (501; 502; 503; 505; 506; 507; 510; 511) adjacent to each other on a waveform (901; 902) for transmission; and transmitting the packet (501; 502; 503; 505; 506; 507; 510; 511) on at least one channel of the plurality of channels, the packet (501; 502; 503; 505; 506; 507; 510; 511) comprising at least the two segments positioned adjacent to each other, including the segment having applied thereto the selected modulation and coding rate. determining traffic on a plurality of channels in the wireless system; selecting a bandwidth for a packet (501; 502; 503; 505; 506; 507; 510; 511) to be transmitted based on the determined traffic and available channel bandwidths in the wireless system, wherein the selected bandwidth for the packet (501; 502; 503; 505; 506; 507; 510; 511) is provided on a non-contiguous spectrum of the wireless system; selecting a modulation and a coding rate from a plurality of modulations and associated coding rates, the modulation and coding rate applied to a segment of a plurality of segments of the packet (501; 502; 503; 505; 506; 507; 510; 511), each segment including one or more bandwidth units; correlating phases of any synthesizers (1301; 1302; 1303; 1304; 1501) used for each of said segments in the transmitter; positioning two segments (210; 211; 403; 404) of the packet (501; 502; 503; 505; 506; 507; 510; 511) adjacent to each other on a waveform (901; 902) for transmission; and transmitting the packet (501; 502; 503; 505; 506; 507; 510; 511) on at least one channel of the plurality of channels, the packet (501; 502; 503; 505; 506; 507; 510; 511) comprising at least the two segments positioned adjacent to each other, including the segment having applied thereto the selected modulation and coding rate.
Regulating valve device, in particular for at least one gaseous fluid, having at least one throttle element, having at least one valve seat, having an actuator unit which is provided for moving the at least one throttle element relative to the at least one valve seat in at least one operating state, having at least one spring element which is provided for subjecting the at least one throttle element to a force which is directed at least substantially in the direction of the at least one valve seat, wherein the spring element is arranged between the throttle element and the housing of the regulating valve device, and having at least one valve tappet which is provided for transmitting a movement produced by the at least one actuator unit to the at least one throttle element, and wherein the valve tappet is of at least partially hollow form, and wherein there is provided at least one diaphragm which is provided for closing off at least one valve chamber at least on one side, characterized by at least one linear bearing which is provided for guidance of the at least one throttle element, wherein the at least one linear bearing is designed as a linear ball bearing, wherein the at least one spring element has a spring constant of at most 0.5 N/mm.
Machine for the working of tubes and similar elongated blanks, such as for example bars and profiled sections, comprising a working head carrying working tools suitable for carrying out one or more working operations on the tube, a tube feeding unit for feeding the tube along its longitudinal axis (x) towards the working head, and a programmable control unit arranged to control the tube feeding unit and the working head, said machine further comprising, downstream of the tube feeding unit, an optical sensor arranged to optically measure, while the tube is being worked, the forward displacement of the tube along its longitudinal axis (x) and/or the rotational displacement of the tube about its longitudinal axis (x), wherein the optical sensor comprises a light source for illuminating a surface portion of the tube, a camera for acquiring images of said surface portion of the tube, said machine being characterized by further comprising a digital processing unit for determining at each time instant, based on the comparison of the image of said surface portion of the tube acquired by the camera in that time instant with an image of said surface portion of the tube acquired by the camera at a preceding time instant, the forward displacement of the tube along its longitudinal axis (x) and/or the rotational displacement of the tube about its longitudinal axis (x).
A method for restricting the potential of a marrow adherent stromal cell to differentiate into a cell of the mesenchymal lineage, the method comprising: (a) transfecting marrow adherent stromal cells with a nucleic acid comprising sequences encoding a Notch intracellular domain (NICD); (b) placing the cells under selection for the nucleic acid of step (a); (c) withdrawing selection after a predetermined amount of time; and (d) expanding the cells of step (c). (a) transfecting marrow adherent stromal cells with a nucleic acid comprising sequences encoding a Notch intracellular domain (NICD); (b) placing the cells under selection for the nucleic acid of step (a); (c) withdrawing selection after a predetermined amount of time; and (d) expanding the cells of step (c).
Method for operating an air conditioning system, which can be operated as a heat pump for heating an interior of a vehicle in a heat pump mode and as a refrigeration machine for cooling the interior in a cooling mode, the air conditioning system having a compressor by means of which a refrigerant is compressed in the heat pump mode and in the cooling mode, at least one first heat exchanger operated in the heat pump mode as an evaporator for evaporating the refrigerant and in the cooling mode as a cooling device for cooling the refrigerant, and at least one second heat exchanger operated in the heat pump mode as a cooling device for cooling the refrigerant and in the cooling mode as an evaporator for evaporating the refrigerant, wherein the air conditioning system is operated in a defrosting mode in which the respective heat exchanger (20, 24) is operated in parallel as a cooling device for cooling the refrigerant and as an evaporator for evaporating the refrigerant, wherein the refrigerant flows in the defrosting mode through at least one respective first sub-region (26, 30) and through at least one second sub-region (28, 32) of the respective heat exchanger (20, 24), wherein the respective first sub-region (26, 30) is operated as a cooling device for cooling the refrigerant in the defrosting mode, and wherein the respective second sub-region (28, 32) is operated in parallel to the respective first sub-region (26, 30) as an evaporator for evaporating the refrigerant, characterised in that the refrigerant flows in the defrosting mode through the first sub-region of the first heat exchanger and through the second sub-region of the second heat exchanger with a first mass flow and through the second sub-region of the first heat exchanger and through the first sub-region of the second heat exchanger with a second mass flow which is different from the first mass flow.
A method for generating a digital fluorescence image, wherein a sample provided with a fluorescent substance is arranged in an object plane of a laser-scanning microscope and is acted upon by excitation light in a time sequence, pixel-by-pixel over a pixel dwell time, whereby an emission light is generated per pixel, said emission light being detected by a detector and converted, by quick sampling, into a digital signal in the form of a sequence of amplitudes, which are each associated with a respective measuring time and from which a total amplitude is formed, and the total amplitudes of all pixels are combined into a fluorescence image, characterised in that for each pixel, the sequence of amplitudes beginning at a later measuring time (t m) is autocorrelated at least once with the same sequence of amplitudes beginning at an earlier measuring time (t n), which has a time lag (τ) with respect to the later measuring time (t m), at least one respective specific correlation amplitude (K τ) is formed for the time lag (τ) and the total amplitude is determined from the at least one correlation amplitude (K τ) formed.
A high frequency glass antenna for automobiles, comprising: an antenna conductor, a feeding portion for the antenna conductor, an electric heating defogger having a plurality of heating wires and a plurality of bus bars for feeding the heating wires, and a ground-side feeding portion, characterized in that - the electric heating defogger, - the antenna conductor, - the feeding portion, and - the ground-side feeding portion, are adapted to be disposed in or on a rear window glass sheet for automobiles in such a way that when a signal received by the antenna conductor is taken out from the feeding portion, the ground-side feeding portion is utilized as a ground reference, wherein the ground-side feeding portion is electrically connected to the defogger so as to serve as a grounding conductor; and wherein an adjusting element (3,13, 23,33, and 36) is connected to the defogger, whose length is set so as to adjust the reception sensitivity of the antenna conductor. an antenna conductor, a feeding portion for the antenna conductor, an electric heating defogger having a plurality of heating wires and a plurality of bus bars for feeding the heating wires, and a ground-side feeding portion, characterized in that - the electric heating defogger, - the antenna conductor, - the feeding portion, and - the ground-side feeding portion, - the electric heating defogger, - the antenna conductor, - the feeding portion, and - the ground-side feeding portion, are adapted to be disposed in or on a rear window glass sheet for automobiles in such a way that when a signal received by the antenna conductor is taken out from the feeding portion, the ground-side feeding portion is utilized as a ground reference, wherein the ground-side feeding portion is electrically connected to the defogger so as to serve as a grounding conductor; and wherein an adjusting element (3,13, 23,33, and 36) is connected to the defogger, whose length is set so as to adjust the reception sensitivity of the antenna conductor.
Construction machine with a paving screed for the installation of a road surface, whereby the construction machine is a self-propelled road paver and comprises at least one power line for the power supply of at least one electric consumer of the paving screed, and whereby the construction machine contains at least one network for data transmission between at least one sender integrated in the network and at least one receiver integrated in the network, characterized by the condition that at least one section of the power line is integrated in the network and configured for data transmission between the sender and the receiver.
A system comprising: an Octal Small Formfactor Pluggable (OSFP) module, the module comprising: a front side and a back side opposite the front side; a substantially continuous top surface extending from a portion of the front side to a portion of the back side; rand a data connector formed on the front side; characterised in that the system further comprises: an air duct with a first end and a second end, the first end of the air duct forming a closed connection with the back side of the module; a blower, with a first end and an exhaust, the first end of the blower forming a closed connection with the second end of the air duct; and an airpath formed from the front side of the module to the exhaust end of the blower through at least the air duct. a front side and a back side opposite the front side; a substantially continuous top surface extending from a portion of the front side to a portion of the back side; rand a data connector formed on the front side; an air duct with a first end and a second end, the first end of the air duct forming a closed connection with the back side of the module; a blower, with a first end and an exhaust, the first end of the blower forming a closed connection with the second end of the air duct; and an airpath formed from the front side of the module to the exhaust end of the blower through at least the air duct.
Switchgear cabinet housing (1a-1d) having at least one rear wall, a base wall (4a, 4b), a top wall (6a-6d) and at least two side walls (11a, 11b), wherein the rear wall and the side walls (11a, 11b) are formed from a metal sheet (13a-13f) which is bent into a U shape and which has an encircling, inwardly bent edge (16a-16c) running in encircling fashion or in each case along the longitudinal sides of the side walls, wherein the metal sheet (13a-13f) is pre-coated, characterized in that • the base wall (4a, 4b) has at least one electrically insulated head part and at least one cover part; • the top wall (6a-6d) has at least one electrically insulated head part (8a-8d) and at least one cover part (10a-10c); wherein ∘ the respective head part (8a-8d, 12) is provided for being connected to the metal sheet (13a-13f) bent into a U shape, such that the respective edge (16a-16c) is covered; ∘ the respective cover part (10a-10c, 14) is provided for being fastened to the respective head part (8a-8d, 12) such that the latter is at least partially covered. • the base wall (4a, 4b) has at least one electrically insulated head part and at least one cover part; • the top wall (6a-6d) has at least one electrically insulated head part (8a-8d) and at least one cover part (10a-10c); wherein ∘ the respective head part (8a-8d, 12) is provided for being connected to the metal sheet (13a-13f) bent into a U shape, such that the respective edge (16a-16c) is covered; ∘ the respective cover part (10a-10c, 14) is provided for being fastened to the respective head part (8a-8d, 12) such that the latter is at least partially covered. ∘ the respective head part (8a-8d, 12) is provided for being connected to the metal sheet (13a-13f) bent into a U shape, such that the respective edge (16a-16c) is covered; ∘ the respective cover part (10a-10c, 14) is provided for being fastened to the respective head part (8a-8d, 12) such that the latter is at least partially covered.
Mechanical seal arrangement, comprising: - a mechanical seal having a rotating slide ring and a stationary slide ring which delimit a sealing gap therebetween, and - a housing component having an inner peripheral portion, - wherein the housing component comprises an outlet opening for discharging a fluid guided to the slide rings and an inflow portion, and - wherein the inflow portion includes at least one first transition channel (8; 9) which extends in a circumferential direction, continuously recesses towards the outlet opening, is formed in the housing component and opens at the outlet opening, characterized by - a second transition channel arranged at the outlet opening opposite to the first transition channel. - a mechanical seal having a rotating slide ring and a stationary slide ring which delimit a sealing gap therebetween, and - a housing component having an inner peripheral portion, - wherein the housing component comprises an outlet opening for discharging a fluid guided to the slide rings and an inflow portion, and - wherein the inflow portion includes at least one first transition channel (8; 9) which extends in a circumferential direction, continuously recesses towards the outlet opening, is formed in the housing component and opens at the outlet opening, - a second transition channel arranged at the outlet opening opposite to the first transition channel.
Driver assistance system for a motor vehicle, said system comprising at least a navigation data retrieval system, a compilation interface configured to create at least one sequence of events from the navigation data retrieved and a computer for calculating driver alert distance, characterized in that this driver alert distance is calculated, for each of the events of each sequence of events created, as a function of at least a natural deceleration distance of the vehicle specific to each event, said driver assistance system further comprising a management interface determining a priority among the events of each sequence of events according to the driver alert distance calculated for each event.
An apparatus for generating indexes of a quadratic polynominal permutation interleaving rule according to Π(i) = (f 1 *i + f 2 *i 2) mod K, wherein i = 0, 1, 2,..., K-1, i denotes bit indexes of an input stream, Π(i) denotes bit indexes of an output stream, K denotes a size of input data, and f 1 and f 2 denote coefficients calculated from K, the apparatus characterized by comprising: a main processor being adapated to calculate bit indexes Π to Π of the output stream for a first sixteen indexes of the input stream, and for transferring K, a result of (128*f 2) mod K and the bit indexes Π(j) and Π(j+8) where 0 ≤ j ≤ 7 to one of eight index operators; and the eight index operators being adapted to operate in parallel for calculating output index values II(n*8), II(n*8 + 1), Π(n*8 + 2), Π(n*8 + 3), Π(n*8 + 4), Π(n*8 + 5), Π(n*8 + 6), II(n*8 + 7) in parallel where 2 ≤ n ≤ K/8 -1, wherein a j-th index operator of the eight index operators calculates the index for an (i + j + 16) th bit using an equation of: ∏ i + j + 16 = 2 * ∏ i + j + 8 − ∏ i + j + 128 * f 2 mod K with i being increased by eight. a main processor being adapated to calculate bit indexes Π to Π of the output stream for a first sixteen indexes of the input stream, and for transferring K, a result of (128*f 2) mod K and the bit indexes Π(j) and Π(j+8) where 0 ≤ j ≤ 7 to one of eight index operators; and the eight index operators being adapted to operate in parallel for calculating output index values II(n*8), II(n*8 + 1), Π(n*8 + 2), Π(n*8 + 3), Π(n*8 + 4), Π(n*8 + 5), Π(n*8 + 6), II(n*8 + 7) in parallel where 2 ≤ n ≤ K/8 -1, wherein a j-th index operator of the eight index operators calculates the index for an (i + j + 16) th bit using an equation of: ∏ i + j + 16 = 2 * ∏ i + j + 8 − ∏ i + j + 128 * f 2 mod K with i being increased by eight.
A medical device lead (112, 212, 312), comprising: a lead body including a tubular member having a proximal end, a distal end, and a conductor lumen extending therebetween, the tubular member made of an electrically insulative material; an electrical conductor (126, 226, 326) extending within the conductor lumen from the proximal end of the tubular member toward the distal end of the tubular member; and a tubular conductive element (130, 230, 330, 430) disposed over the tubular member of the lead body between the proximal and distal ends thereof, the tubular conductive element (130, 230, 330, 430) having one or more kerfs formed therethrough so as to affect an electrical property thereof, and wherein the electrical conductor (126, 226, 326) is electrically coupled to the tubular conductive element (130, 230, 330, 430), wherein the tubular conductive element (130, 230, 330, 430) includes a first segment (148, 248, 348) and a second segment (150, 250, 350) extending distally from the first segment (148, 248, 348), wherein the one or more kerfs are formed in each of the first and second segments so as to affect an electrical property of the first and second segments, wherein the first segment (148, 248, 348) has a higher electrical impedance than the second segment (150, 250, 350) wherein the first segment (148, 248, 348) is operable to inhibit induced currents in the tubular conductive element (130, 230, 330, 430) in the presence of an external source of electromagnetic energy. a lead body including a tubular member having a proximal end, a distal end, and a conductor lumen extending therebetween, the tubular member made of an electrically insulative material; an electrical conductor (126, 226, 326) extending within the conductor lumen from the proximal end of the tubular member toward the distal end of the tubular member; and a tubular conductive element (130, 230, 330, 430) disposed over the tubular member of the lead body between the proximal and distal ends thereof, the tubular conductive element (130, 230, 330, 430) having one or more kerfs formed therethrough so as to affect an electrical property thereof, and wherein the electrical conductor (126, 226, 326) is electrically coupled to the tubular conductive element (130, 230, 330, 430), wherein the tubular conductive element (130, 230, 330, 430) includes a first segment (148, 248, 348) and a second segment (150, 250, 350) extending distally from the first segment (148, 248, 348), wherein the one or more kerfs are formed in each of the first and second segments so as to affect an electrical property of the first and second segments, wherein the first segment (148, 248, 348) has a higher electrical impedance than the second segment (150, 250, 350) wherein the first segment (148, 248, 348) is operable to inhibit induced currents in the tubular conductive element (130, 230, 330, 430) in the presence of an external source of electromagnetic energy.
An air electrode material for a metal air battery, comprising, carbon nanotubes, and an electron conductive material, wherein a content amount of the carbon nanotubes in the air electrode material is greater than or equal to 0.1 vol% and less than or equal to 50 vol%, and a content amount of the electron conductive material in the air electrode material is greater than or equal to 30 vol% and less than or equal to 99 vol%, characterized in that the electron conductive material is perovskite oxide that is expressed by the general formula ABO 3-δ (wherein δ≦0.4), wherein the perovskite oxide includes at least La at the A site and that includes at least Ni, Fe and Cu at the B site.