mhurhangee/ep-ind-claims huggingface dataset:
Brake system for a motor vehicle, comprising - a hydraulic brake, whose main brake cylinder has a first and a second brake piston (12-1, 12-2), wherein the first brake piston supplies a first brake circuit assigned to a first vehicle axis with hydraulic brake pressure and the second brake piston supplies a second brake circuit separated from the first and assigned to a second vehicle axis with hydraulic brake pressure; - an electric motor usable as a recuperator at the first vehicle axis and - a blending means, which removes hydraulic fluid from the first brake circuit assigned to the first vehicle axis during a recuperation phase of the electric motor, wherein a partition wall is formed in the main brake cylinder between the first and the second brake piston (12-1, 12-2), which divides the main brake cylinder into a first pressure chamber assigned to the first brake piston and into a second pressure chamber separated from the first and assigned to the second brake piston and in that the first and second brake pistons (12-1, 12-2) are rigidly connected to each other, characterised in that the two brake circuits (14-1, 14-2) are connectable to each other in a hydraulically communicative manner via a floating piston that can be switched on and off. - a hydraulic brake, whose main brake cylinder has a first and a second brake piston (12-1, 12-2), wherein the first brake piston supplies a first brake circuit assigned to a first vehicle axis with hydraulic brake pressure and the second brake piston supplies a second brake circuit separated from the first and assigned to a second vehicle axis with hydraulic brake pressure; - an electric motor usable as a recuperator at the first vehicle axis and - a blending means, which removes hydraulic fluid from the first brake circuit assigned to the first vehicle axis during a recuperation phase of the electric motor,
A method for receiving broadcast signals modulated using Quadrature Amplitude Modulation/Orthogonal Frequency Division Multiplexing, QAM/OFDM, with M-QAM constellations, the method comprising; receiving first and second broadcast signals through first and second antennas and demodulating the received broadcast signals by an OFDM method; frequency de-interleaving the demodulated first and second broadcast signals; parsing first and second signal frames from the frequency de-interleaved first and second broadcast signals to output at least one Physical Layer Pipe, PLP; time de-interleaving first and second data in each PLP; performing Multi-input Multi-Output, MIMO, processing on the time de-interleaved first and second data to output first and second output signals including probability information of bits, wherein the MIMO processing is performed by applying a MIMO processing matrix represented as 1 1 + a 2 1 a a − 1 = 1 1 + a 2 a 1 + a 2 a 1 + a 2 − 1 1 + a 2 = cos θ sin θ sin θ − cos θ with a = 2 + 4 2 + 2 for M=16; bit de-interleaving bits of a single stream generated by a combination of the first and second output signals; and Forward Error Correction, FEC, decoding the bit de-interleaved bits.
A catheter for debulking of an undesired deposit from an inner surface of at least one of a blood vessel wall, a stent located in a blood vessel, and a body cavity, said catheter comprises: a tip section comprising a wall at an end of said tip section, the wall having a circular cross-section, the tip section having a central longitudinal axis, the tip section comprising: circumferentially directed laser optics comprising a plurality of optical fibers disposed along a surface of said wall and positioned parallel to said central longitudinal axis and configured to provide transmission of laser radiation, parallel to said central longitudinal axis from a distal end of said tip section to an undesired deposit, when in use; and a cutter, wherein said cutter is formed from a distal edge of said wall of said tip section or affixed to said distal end of said wall of said tip section inwardly or outwardly to the plurality of optical fibers and wherein said cutter is positioned outside an optical path of said laser radiation; wherein the circumferentially directed laser optics are configured to transmit laser radiation for modifying an area of the undesired deposit thereby preparing said area for penetration of said cutter; and wherein said cutter is configured to cut through said modified area and thereby debulk at least a part of the undesired deposit. circumferentially directed laser optics comprising a plurality of optical fibers disposed along a surface of said wall and positioned parallel to said central longitudinal axis and configured to provide transmission of laser radiation, parallel to said central longitudinal axis from a distal end of said tip section to an undesired deposit, when in use; and a cutter, wherein said cutter is formed from a distal edge of said wall of said tip section or affixed to said distal end of said wall of said tip section inwardly or outwardly to the plurality of optical fibers and wherein said cutter is positioned outside an optical path of said laser radiation; wherein the circumferentially directed laser optics are configured to transmit laser radiation for modifying an area of the undesired deposit thereby preparing said area for penetration of said cutter; and wherein said cutter is configured to cut through said modified area and thereby debulk at least a part of the undesired deposit.
An inverter, wherein an input end of the inverter is configured to connect to at least one photovoltaic string of a photovoltaic device, and the inverter comprises a control circuit and a reverse charging circuit; the control circuit is configured to enable the reverse charging circuit to output a first direct current when the inverter tests the photovoltaic string of the photovoltaic device; the reverse charging circuit is configured to output the first direct current to the photovoltaic string of the photovoltaic device; the first direct current is used to excite the photovoltaic string of the photovoltaic device to emit light; wherein input of the reverse charging circuit comprises a second direct current; and characterised by a confluence circuit and an inverter circuit, an input end of the confluence circuit is connected to the input end of the inverter, an output end of the confluence circuit is connected to an input end of the inverter circuit, and an output end of the inverter circuit is connected to an output end of the inverter. the control circuit is configured to enable the reverse charging circuit to output a first direct current when the inverter tests the photovoltaic string of the photovoltaic device; the reverse charging circuit is configured to output the first direct current to the photovoltaic string of the photovoltaic device; the first direct current is used to excite the photovoltaic string of the photovoltaic device to emit light; wherein input of the reverse charging circuit comprises a second direct current; and characterised by a confluence circuit and an inverter circuit, an input end of the confluence circuit is connected to the input end of the inverter, an output end of the confluence circuit is connected to an input end of the inverter circuit, and an output end of the inverter circuit is connected to an output end of the inverter.
A monoclonal or polyclonal antibody directed against the BDCA-2 protein for use in the prevention or the treatment of pathologies involving activation of plasmacytoid dendritic cells, said pathologies being autoimmune diseases or inflammatory diseases, said antibody having a fucosylation level of less than 60% of glycosylated forms, and said antibody involving destruction of plasmacytoid DC cells by the ADCC mechanism.
A USB flash memory device comprising: a plurality of flash die; and a USB memory controller comprising: a microprocessor a plurality of memory buffers; characterised in that the USB memory controller further comprises: a USB interface to directly deposit data from an external bus into the plurality of memory buffers; and a flash DMA module to directly access data in the plurality of memory buffers and transfer the data from a first memory buffer to a flash die while the USB interface is depositing data from the external bus in a second memory buffer. a plurality of flash die; and a USB memory controller comprising: a microprocessor a plurality of memory buffers; characterised in that the USB memory controller further comprises: a USB interface to directly deposit data from an external bus into the plurality of memory buffers; and a flash DMA module to directly access data in the plurality of memory buffers and transfer the data from a first memory buffer to a flash die while the USB interface is depositing data from the external bus in a second memory buffer. a microprocessor a plurality of memory buffers; characterised in that the USB memory controller further comprises: a USB interface to directly deposit data from an external bus into the plurality of memory buffers; and a flash DMA module to directly access data in the plurality of memory buffers and transfer the data from a first memory buffer to a flash die while the USB interface is depositing data from the external bus in a second memory buffer. a USB interface to directly deposit data from an external bus into the plurality of memory buffers; and a flash DMA module to directly access data in the plurality of memory buffers and transfer the data from a first memory buffer to a flash die while the USB interface is depositing data from the external bus in a second memory buffer.
A pneumatic tire, comprising a breaker cushion and a breaker adjacent to the breaker cushion, wherein the breaker cushion is formed from a rubber composition for a breaker cushion, which contains an isoprene-based rubber in an amount of 35 to 100% by mass based on 100% by mass of a rubber component of the rubber composition for a breaker cushion and has a net sulfur content derived from crosslinking agents of 2.1 to 6.0 parts by mass for each 100 parts by mass of the rubber component, and the breaker comprises breaker cords topped with a rubber composition for a breaker cord topping, wherein a rubber vulcanizate obtained by vulcanizing the rubber composition for a breaker cushion alone at 170°C for 12 minutes, has an elongation at break of 350% or more, and the net sulfur content derived from crosslinking agents in the rubber composition for a breaker cushion and a net sulfur content derived from crosslinking agents in the rubber composition for a breaker cord topping satisfy the following relation: 0.00 < the net sulfur content derived from crosslinking agents in the rubber composition for a breaker cord topping - the net sulfur content derived from crosslinking agents in the rubber composition for a breaker cushion < 3.99.
A lead-acid battery comprising: a positive electrode plate; a negative electrode plate; a separator interposed between the positive electrode plate and the negative electrode plate; and an electrolyte solution, wherein the separator includes a first rib on the negative electrode plate side and a second rib on the positive electrode plate side, an average height of the first rib is 0.05 mm or more and 0.40 mm or less, an average height of the second rib is 0.3 mm or more and 1.0 mm or less, the negative electrode plate contains a negative electrode material, and the negative electrode material contains graphite particles. a positive electrode plate; a negative electrode plate; a separator interposed between the positive electrode plate and the negative electrode plate; and an electrolyte solution, wherein the separator includes a first rib on the negative electrode plate side and a second rib on the positive electrode plate side, an average height of the first rib is 0.05 mm or more and 0.40 mm or less, an average height of the second rib is 0.3 mm or more and 1.0 mm or less, the negative electrode plate contains a negative electrode material, and the negative electrode material contains graphite particles.
A computer-implemented method for ranking multiple computer modules to reduce failure impacts of failing computer modules, the method comprising: associating the multiple computer modules with multiple services (300, 302, 312, 318, 324) that rely on the multiple computer modules, at least one of the multiple services (302, 312) relying on more than one of the multiple computer modules, wherein said services and computer modules are arranged to control a technical system; determining numerical values (404, 408, 412, 416) of the multiple services (302, 312, 318, 324) that represent criticality of the respective services at different time periods of the service schedule; ranking the multiple computer modules based on the numerical values of the multiple services which rely on the respective computer modules, wherein said ranking is dynamically determined as the service criticality changes due to service transitions from one time period to another time period of its schedule; operating the computer modules according to the result of the ranking by dynamically adjusting the monitoring frequency of computer modules according to the result of the ranking. associating the multiple computer modules with multiple services (300, 302, 312, 318, 324) that rely on the multiple computer modules, at least one of the multiple services (302, 312) relying on more than one of the multiple computer modules, wherein said services and computer modules are arranged to control a technical system; determining numerical values (404, 408, 412, 416) of the multiple services (302, 312, 318, 324) that represent criticality of the respective services at different time periods of the service schedule; ranking the multiple computer modules based on the numerical values of the multiple services which rely on the respective computer modules, wherein said ranking is dynamically determined as the service criticality changes due to service transitions from one time period to another time period of its schedule; operating the computer modules according to the result of the ranking by dynamically adjusting the monitoring frequency of computer modules according to the result of the ranking.
A toner cartridge for use with a developer unit of an image forming device, comprising: a housing having a front, a rear, a top, a bottom and a pair of sides (109, 110), the housing having a reservoir for holding toner; an outlet port on a front portion of the housing for transferring toner from the reservoir to the developer unit through an inlet port on the developer unit; characterized by a first engagement member projecting from the front of the housing, the first engagement member having a first leading ramped front surface that projects further forward as it travels up the front of the toner cartridge, the first ramped front surface leading to a first vertical front surface positioned above the first ramped front surface; and a second engagement member projecting from the front of the housing spaced toward one of the sides (109, 110) of the housing from the first engagement member, the second engagement member having a second leading ramped front surface that projects further forward as it travels up the front of the toner cartridge, the second ramped front surface leading to a second vertical front surface positioned above the second ramped front surface, the second vertical front surface and at least a portion of the second ramped front surface projecting further forward than the first vertical front surface. a housing having a front, a rear, a top, a bottom and a pair of sides (109, 110), the housing having a reservoir for holding toner; an outlet port on a front portion of the housing for transferring toner from the reservoir to the developer unit through an inlet port on the developer unit; characterized by a first engagement member projecting from the front of the housing, the first engagement member having a first leading ramped front surface that projects further forward as it travels up the front of the toner cartridge, the first ramped front surface leading to a first vertical front surface positioned above the first ramped front surface; and a second engagement member projecting from the front of the housing spaced toward one of the sides (109, 110) of the housing from the first engagement member, the second engagement member having a second leading ramped front surface that projects further forward as it travels up the front of the toner cartridge, the second ramped front surface leading to a second vertical front surface positioned above the second ramped front surface, the second vertical front surface and at least a portion of the second ramped front surface projecting further forward than the first vertical front surface.
A cooling device comprising - a freshfood compartment wherein foods to be cooled are disposed, - a freezer compartment which is shaped as an open-front box having a base, a ceiling and rear and side walls and which is disposed on top of the freshfood compartment, and wherein foods to be frozen are disposed, and which is kept at a lower temperature than the freshfood compartment, - an evaporator which is disposed onto the rear wall of the freshfood compartment and which draws the thermal energy in the freshfood compartment, and - a freezer evaporator which draws the thermal energy in the freezer compartment, the freezer evaporator having - a sheet which is in quadrilateral form and which is shaped as an open-front and open-back box by being bent and which is disposed onto the inner surface of the freezer compartment, - a tube which is installed to the sheet portions (S, C), conesponding to the base, side walls and ceiling of the freezer compartment, in a serpentine form, characterized in that the tube does not exist in the sheet portion that correspond to the base of the freezer compartment, and in that the pitch distance (d) of the serpentine coils of the tube is less as moved down on the side walls of the freezer compartment. - a freshfood compartment wherein foods to be cooled are disposed, - a freezer compartment which is shaped as an open-front box having a base, a ceiling and rear and side walls and which is disposed on top of the freshfood compartment, and wherein foods to be frozen are disposed, and which is kept at a lower temperature than the freshfood compartment, - an evaporator which is disposed onto the rear wall of the freshfood compartment and which draws the thermal energy in the freshfood compartment, and - a freezer evaporator which draws the thermal energy in the freezer compartment, the freezer evaporator having - a sheet which is in quadrilateral form and which is shaped as an open-front and open-back box by being bent and which is disposed onto the inner surface of the freezer compartment, - a tube which is installed to the sheet portions (S, C), conesponding to the base, side walls and ceiling of the freezer compartment, in a serpentine form, characterized in that the tube does not exist in the sheet portion that correspond to the base of the freezer compartment, and in that the pitch distance (d) of the serpentine coils of the tube is less as moved down on the side walls of the freezer compartment.
A method for determining a distance between ears of a wearer of a sound generating object, the method comprising: selecting a model for representing shape of the head of the wearer of the sound generating object so as to obtain a center axis of the wearer's head, wherein the center axis is an axis substantially perpendicular to a horizontal, ground plane and intersecting a head pivot point of the wearer's head, associating the first sound generating object with an ear of the wearer, wherein the first sound generating object comprises a first accelerometer and a second accelerometer, the respective accelerometers (10, 12) being arranged to measure at least an acceleration component (a1, a2) intersecting at a substantially right angle the center axis of the wearer's head, wherein the first and second accelerometers (10, 12) are so arranged that a straight line that intersects the center axis of the wearer's head at a substantially right angle crosses the first and second accelerometers (10, 12) such that the acceleration components (a1, a2) have the same direction, the first and second accelerometers (10, 12) being spaced by a known distance (Δr), when the head of the wearer is in motion, determining, by means of the first accelerometer, a value of a first acceleration component and, by means of the second accelerometer, a value of a second acceleration component, determining the distance between the ears of the wearer on the basis of the model, the obtained values of the first and second acceleration components (a1, a2), and the known distance between the first accelerometer and the second accelerometer. selecting a model for representing shape of the head of the wearer of the sound generating object so as to obtain a center axis of the wearer's head, wherein the center axis is an axis substantially perpendicular to a horizontal, ground plane and intersecting a head pivot point of the wearer's head, associating the first sound generating object with an ear of the wearer, wherein the first sound generating object comprises a first accelerometer and a second accelerometer, the respective accelerometers (10, 12) being arranged to measure at least an acceleration component (a1, a2) intersecting at a substantially right angle the center axis of the wearer's head, wherein the first and second accelerometers (10, 12) are so arranged that a straight line that intersects the center axis of the wearer's head at a substantially right angle crosses the first and second accelerometers (10, 12) such that the acceleration components (a1, a2) have the same direction, the first and second accelerometers (10, 12) being spaced by a known distance (Δr), when the head of the wearer is in motion, determining, by means of the first accelerometer, a value of a first acceleration component and, by means of the second accelerometer, a value of a second acceleration component, determining the distance between the ears of the wearer on the basis of the model, the obtained values of the first and second acceleration components (a1, a2), and the known distance between the first accelerometer and the second accelerometer.