mhurhangee/ep-ind-claims huggingface dataset:
A method for reconfiguring a receiver in a wireless device, the method comprising: by the wireless device: receiving a data frame according to a first configuration of the receiver, the data frame having a first header including configuration information specifying a second configuration of the receiver; transmitting an acknowledgement of the data frame, the acknowledgement having a second header confirming the configuration information; reconfiguring the receiver according to the second configuration in response to the receiving the data frame; receiving a subsequent data frame, after the reconfiguring, according to the second configuration, characterized by: the subsequent data frame having a third header including second configuration information specifying a third configuration of a receiver of a sender of the subsequent data frame; and transmitting a second acknowledgement of the subsequent data frame, the second acknowledgement confirming the second configuration information. receiving a data frame according to a first configuration of the receiver, the data frame having a first header including configuration information specifying a second configuration of the receiver; transmitting an acknowledgement of the data frame, the acknowledgement having a second header confirming the configuration information; reconfiguring the receiver according to the second configuration in response to the receiving the data frame; receiving a subsequent data frame, after the reconfiguring, according to the second configuration, characterized by: the subsequent data frame having a third header including second configuration information specifying a third configuration of a receiver of a sender of the subsequent data frame; and transmitting a second acknowledgement of the subsequent data frame, the second acknowledgement confirming the second configuration information. the subsequent data frame having a third header including second configuration information specifying a third configuration of a receiver of a sender of the subsequent data frame; and transmitting a second acknowledgement of the subsequent data frame, the second acknowledgement confirming the second configuration information.
A computer-implemented method that separates multiple source seismic data acquired with substantially horizontally collocated multiple sources fired at different depths and at different times into upgoing and downgoing wavefield components, the method comprising: calculating a deghosting operator in a Laplace domain as a function of a time delay between firing a primary source and one or more secondary sources of the multiple sources; applying the deghosting operator to the multiple source seismic data to generate a first estimate of a primary source wavefield associated with the primary source; subtracting the primary source wavefield from the multiple source seismic data to generate an estimate of one or more secondary source wavefields; calculating a reghosting operator in the Laplace domain as a function of the time delay between firing the primary source and the one or more secondary sources of the multiple sources; applying the reghosting operator to the estimate of one or more secondary source wavefields to generate a second estimate of the primary source wavefield; and generating upgoing and downgoing wavefield components of the multiple source seismic data based on the first and second estimates of the primary wavefield and the estimate of the one or more secondary source wavefields, wherein the deghosting operator and the reghosting operator compensate for the different depths of the primary and secondary sources. calculating a deghosting operator in a Laplace domain as a function of a time delay between firing a primary source and one or more secondary sources of the multiple sources; applying the deghosting operator to the multiple source seismic data to generate a first estimate of a primary source wavefield associated with the primary source; subtracting the primary source wavefield from the multiple source seismic data to generate an estimate of one or more secondary source wavefields; calculating a reghosting operator in the Laplace domain as a function of the time delay between firing the primary source and the one or more secondary sources of the multiple sources; applying the reghosting operator to the estimate of one or more secondary source wavefields to generate a second estimate of the primary source wavefield; and generating upgoing and downgoing wavefield components of the multiple source seismic data based on the first and second estimates of the primary wavefield and the estimate of the one or more secondary source wavefields, wherein the deghosting operator and the reghosting operator compensate for the different depths of the primary and secondary sources.
A harvesting header operable to harvest crop, said harvesting header comprising: a header frame; a flexible cutterbar assembly mounted to the header frame to extend lengthwise in a lateral direction relative to the normal direction of travel of the header, said cutterbar assembly including a plurality of skids (44, 46), each of which has a lower skid margin configured to engage the ground such that the skids cooperatively cause flexing of the cutterbar assembly along the length thereof in response to changes in terrain as the header is advanced; and a draper assembly including an endless draper belt configured to receive severed crop materials from the cutterbar assembly and convey the materials laterally, each of said skids (44, 46) presenting a skid surface that projects from the lower skid margin at a ground angle measured relative to the normal direction of travel, with the ground angle dimension ranging from about six degrees to about ten degrees, wherein said draper belt presents laterally endmost margins, with upper and lower runs (114a, 114b) extending between the margins; and further comprising a lower run support assembly located below the lower run of the draper belt and at least partly over the skids (44, 46), said lower run support assembly including a run support panel extending laterally along the lower run, characterized in that said run support panel is being spaced from the skids (44, 46) to define a residue opening therebetween through which any crop residue failing onto the skids is permitted to pass. a header frame; a flexible cutterbar assembly mounted to the header frame to extend lengthwise in a lateral direction relative to the normal direction of travel of the header, said cutterbar assembly including a plurality of skids (44, 46), each of which has a lower skid margin configured to engage the ground such that the skids cooperatively cause flexing of the cutterbar assembly along the length thereof in response to changes in terrain as the header is advanced; and a draper assembly including an endless draper belt configured to receive severed crop materials from the cutterbar assembly and convey the materials laterally,
A wound filler comprising: a first portion having a first contrasting marker having a first color; characterized by a second portion having a second contrasting marker having a second color, wherein the first color and the second color are complementary colors. a first portion having a first contrasting marker having a first color; characterized by a second portion having a second contrasting marker having a second color, wherein the first color and the second color are complementary colors.
Method for determining phase currents (i a, i b, i c) of a rotating multiphase electrical machine fed by means of a PWM-controlled inverter, comprising the method steps of: a. determining injection voltages at a time point during one controller sampling period that are applied for drive of the electrical machine in at least one PWM period following this time point, the injection voltages here are composed of specified voltages, which generate a corresponding fundamental wave current, together with additional, high-frequency voltages, b. determining an evaluation direction of a phase current vector of the electrical machine depending on the injection voltages determined in step a and/or on an operating point of the electrical machine and/or on a temperature-dependency of the phase current vector, c. determining, for each of the phase currents (i a, i b, i c), a number of current measurements that should be carried out in each case in at least one passive switching state of the inverter within the at least one PWM period, depending on the evaluation direction determined in method step b, d. determining the phase currents (i a, i b, i c) that flow in the at least one PWM period in the electrical machine, depending on the respective number of current measurements determined in method step c. a. determining injection voltages at a time point during one controller sampling period that are applied for drive of the electrical machine in at least one PWM period following this time point, the injection voltages here are composed of specified voltages, which generate a corresponding fundamental wave current, together with additional, high-frequency voltages, b. determining an evaluation direction of a phase current vector of the electrical machine depending on the injection voltages determined in step a and/or on an operating point of the electrical machine and/or on a temperature-dependency of the phase current vector, c. determining, for each of the phase currents (i a, i b, i c), a number of current measurements that should be carried out in each case in at least one passive switching state of the inverter within the at least one PWM period, depending on the evaluation direction determined in method step b, d. determining the phase currents (i a, i b, i c) that flow in the at least one PWM period in the electrical machine, depending on the respective number of current measurements determined in method step c.
System for temporal access restriction in a cloud environment, wherein the cloud environment itself has a dedicated gatekeeper unit that allows or prevents downloading of payload data by a consumer-side application program on the basis of access rules containing time conditions and a current date and time; the access rules contain at least a current time and a current date on the side of the cloud memory and at least one desired local access time and at least one location or locality of the accessor as parameters; and the gatekeeper unit has an access rule memory and a clock, wherein the clock constitutes a location-independent uniform time base, and a relevant local time is determined using location information relating to the consumer-side application program.
An aromatic-cationic peptide or a pharmaceutically acceptable salt thereof for use in treating a subject suffering from Niemann-Pick Disease, wherein the aromatic cationic peptide is selected from the group consisting of 2',6'-Dmt-D-Arg-Phe-Lys-NH 2 (SS-02), Phe-D-Arg-Phe-Lys-NH 2 (SS-20), and D-Arg-2',6'-Dmt-Lys-Phe-NH 2 (SS-31), and wherein the Niemann-Pick Disease is characterized by cholesterol-induced mitochondrial dysfunction.
Seal device with a housing which envelops a piston rod, the housing including at least one ring groove (8 - 11) at a cylindrical inside that is oriented towards the piston rod, wherein a seal ring (12 - 15) configured as an annular disc which rests against the piston rod with sealing lips is inserted in the at least one ring groove (8 - 11), whereby the ring groove (8 - 11) at opposite side walls (18, 19) each has at least one protrusion (16, 17) which press against the inserted seal ring (12 - 15), characterized in that, in at least one ring groove (8 - 11) in a portion of the ring groove opening oriented towards the piston rod, protrusions (16, 17) are arranged opposite of each other which damp lateral movement of the seal ring (12 - 15).
Extraoral use of a composition, wherein said composition comprises as a dental material at least one radically polymerisable, difunctional phenylene sulfide according to Formula I, in which X, Y independently of each other in each case are absent or are O or NR 6, R 1, R 2 independently of each other in each case are H, a linear or branched C 1 -C 10 alkylene moiety, -OR 7, -SR 8, Cl or Br, R 3 is absent or is a C 1 -C 10 alkylene moiety that can be interrupted by O or S, R 4 is absent or is a C 1 -C 10 alkylene moiety that can be interrupted by O or S, R 5 is H or a C 1 -C 5 alkylene moiety, R 6, R 7, R 8 independently of each other in each case are H or a linear or branched C 1 -C 10 alkylene moiety, a, b, c, d independently of each other in each case are 0 or 1 and e is 1 or 2, and at least one additional radically polymerisable monomer selected from 2,2-bis[4-(2-hydroxy-3-methacryloyloxypropyl)phenyl]propane (bis-GMA), UDMA (an addition product of 2-hydroxyethyl methacrylate and 2,2,4-trimethylhexamethylene diisocyanate), TMX-UDMA (an addition product of a mixture of HEMA and hydroxypropyl methacrylate (HPMA) with α,α,α',α'-tetramethyl-m-xylylene diisocyanate), 1,10-decanediol dimethacrylate (D 3 MA), triethylene glycol dimethacrylate (TEGDMA), p-cumylphenoxyethylene glycol methacrylate (CMP-1E), bis(3-methacryloyloxymethyl)tricyclo-[5.2.1.0 2,6]-decane and 2-[4-2-methacryloyloxyethoxyethoxy)phenyl]-2-[4-2-methacryloyloxyethoxy)phenyl]-propane. X, Y independently of each other in each case are absent or are O or NR 6, R 1, R 2 independently of each other in each case are H, a linear or branched C 1 -C 10 alkylene moiety, -OR 7, -SR 8, Cl or Br, R 3 is absent or is a C 1 -C 10 alkylene moiety that can be interrupted by O or S, R 4 is absent or is a C 1 -C 10 alkylene moiety that can be interrupted by O or S, R 5 is H or a C 1 -C 5 alkylene moiety, R 6, R 7, R 8 independently of each other in each case are H or a linear or branched C 1 -C 10 alkylene moiety, a, b, c, d independently of each other in each case are 0 or 1 and e is 1 or 2, and
A light emitting device package, comprising: a package body; first and second lead frames (122, 124) located on the package body; a light source mounted on at least one of the first or second lead frames (122, 124); a lens located on the package body; and a wavelength conversion unit partially located on the package body between the package body and the lens, characterized in that a minor-axis length of the wavelength conversion unit located in a minor-axis direction of the light source is greater than a major-axis length of the wavelength conversion unit located in a major-axis direction of the light source. a package body; first and second lead frames (122, 124) located on the package body; a light source mounted on at least one of the first or second lead frames (122, 124); a lens located on the package body; and a wavelength conversion unit partially located on the package body between the package body and the lens,
An electronic device comprising - a communication interface, - processor means for executing a program, wherein the program contains executable program instructions (120, 122) and a file, wherein a chip card function is implemented by the program instructions, such that the electronic device attains the function of a chip card with a specific chip card function, wherein the chip card functions of further chip cards are integrated in the electronic device in that further programs of the same type as the program which contain corresponding chip card functions and data are stored in the electronic device, - a TPM for securing the program, wherein the program is designed to process a read command received via the communication interface and to output data, specified by the read command, of the file via the communication interface, wherein the TPM is designed to check a signature of the program, wherein the program instructions are executed only if the signature is valid, wherein the read command is a chip card command and the communication interface is designed such that it emulates a standard chip card interface, wherein the electronic device is a portable device. - a communication interface, - processor means for executing a program, wherein the program contains executable program instructions (120, 122) and a file, wherein a chip card function is implemented by the program instructions, such that the electronic device attains the function of a chip card with a specific chip card function, wherein the chip card functions of further chip cards are integrated in the electronic device in that further programs of the same type as the program which contain corresponding chip card functions and data are stored in the electronic device, - a TPM for securing the program,
A method comprising: storing codeword data, including program data and associated parity data, in a group of multi-level memory cells, the multi-level memory cells capable of being programmed to a respective one of more than two data states, wherein the storing of the codeword data comprises: storing more than one bit of program data in a first memory cell of the group of multi-level memory cells; storing only a single bit of parity data in a second memory cell of the group of multi-level memory cells, wherein said second memory cell is configured to store a single bit of parity data instead of storing multiple bits; changing the program data stored in the first memory cell of the group of multi-level memory cells; and responsive to changing the program data, reprogramming the second memory cell of the group of multi-level memory cells, wherein the parity data are capable of being changed more than once without prior erasing of the second memory cell of the group of multi-level cells. storing more than one bit of program data in a first memory cell of the group of multi-level memory cells; storing only a single bit of parity data in a second memory cell of the group of multi-level memory cells, wherein said second memory cell is configured to store a single bit of parity data instead of storing multiple bits; changing the program data stored in the first memory cell of the group of multi-level memory cells; and responsive to changing the program data, reprogramming the second memory cell of the group of multi-level memory cells, wherein the parity data are capable of being changed more than once without prior erasing of the second memory cell of the group of multi-level cells.
An attachment structure of a power semiconductor module, the power semiconductor module comprising: a first metal substrate on which a power semiconductor device is mounted; a second metal substrate on which a power semiconductor device is not mounted; and an electrically insulating resin package which seals said first metal substrate and said second metal substrate, wherein the back surface of said first metal substrate on the side opposite to the mounting surface of said power semiconductor device is made to expose outside said resin package to form a heat dissipation surface, wherein in the attachment structure, the heat dissipation surface of the power semiconductor module is attached to a base surface formed on a heat sink via an electrically insulating bonding member, wherein the first and second metal substrates (2a, 2b) are horizontally arranged in the same planar state in said resin package characterized in that a concave portion is formed in said resin package at a place where said first metal substrate is embedded, whereby the back surface on the opposite side of said first metal substrate is made to expose outside said resin package to form the heat dissipation surface. a first metal substrate on which a power semiconductor device is mounted; a second metal substrate on which a power semiconductor device is not mounted; and an electrically insulating resin package which seals said first metal substrate and said second metal substrate, wherein the back surface of said first metal substrate on the side opposite to the mounting surface of said power semiconductor device is made to expose outside said resin package to form a heat dissipation surface, wherein in the attachment structure, the heat dissipation surface of the power semiconductor module is attached to a base surface formed on a heat sink via an electrically insulating bonding member, wherein the first and second metal substrates (2a, 2b) are horizontally arranged in the same planar state in said resin package characterized in that a concave portion is formed in said resin package at a place where said first metal substrate is embedded, whereby the back surface on the opposite side of said first metal substrate is made to expose outside said resin package to form the heat dissipation surface.
A method for manufacturing a structural body, the method comprising: a lamination step of, while an in-process structural body is supported by a support member, laminating a plurality of times, a layer which is provided on a surface of a transfer member and which is to be formed into the structural body to the in-process structural body, wherein in the lamination step, the support member is moved by changing the state thereof by softening, and the softened support member, having an increased fluidity due to the softening, is moved so as to reach the surface of the transfer member, so as to form a surface for receiving a layer to be laminated in the following lamination, characterized in that: among the plurality of laminations in the lamination step, between a predetermined number-th lamination and a lamination following the predetermined number-th lamination, the support member is moved. a lamination step of, while an in-process structural body is supported by a support member, laminating a plurality of times, a layer which is provided on a surface of a transfer member and which is to be formed into the structural body to the in-process structural body, wherein in the lamination step, the support member is moved by changing the state thereof by softening, and the softened support member, having an increased fluidity due to the softening, is moved so as to reach the surface of the transfer member, so as to form a surface for receiving a layer to be laminated in the following lamination, characterized in that: among the plurality of laminations in the lamination step, between a predetermined number-th lamination and a lamination following the predetermined number-th lamination, the support member is moved.
Window regulator for raising and lowering a windowpane in a motor vehicle, comprising at least one guide rail, a drive mechanism, a first guide element and a second guide element, wherein the two guide elements (4, 5) in the guide rail are guided substantially linearly in a linear guide section of the guide rail, wherein the windowpane can be fastened to the two guide elements (4, 5), wherein the drive mechanism is connected at least to the first guide element, characterized in that at least the first guide element is configured as a lever element, wherein the first guide element has a guide shaft on which the first guide element is conducted in the guide rail and has a linkage shaft spaced apart from the guide shaft, at which the drive mechanism is connected to the first guide element, so that during a forced stop of the linear movement of the guide shaft in the guide rail and further drive via the drive mechanism, the first guide element performs a pivoting movement, so that a windowpane fastened to the first guide element executes a movement component perpendicularly to the linear guide in the guide rail.