mhurhangee/ep-ind-claims huggingface dataset:
An inverter circuit comprising: an inverter (202, 502, 802); a driver (248, 548, 848) coupled to the inverter, the driver being configured to receive a first signal (350, 650); and a slew rate control module (244, 544, 844) coupled to the driver, the slew rate control module being configured to receive the first signal and a second signal (246, 546) indicating a magnitude of a load driven by the inverter circuit, wherein the slew rate control module modifies a slew rate of the driver based on the second signal, wherein the slew rate control module is configured to receive a third signal indicating a mode configuration of the inverter circuit, and the slew rate control module modifies the slew rate of the driver based on the third signal, and wherein the slew rate control module modifies the slew rate of the driver to a predetermined level when the third signal indicates the inverter circuit operates in dynamic voltage scaling mode or multi-phase mode. an inverter (202, 502, 802); a driver (248, 548, 848) coupled to the inverter, the driver being configured to receive a first signal (350, 650); and a slew rate control module (244, 544, 844) coupled to the driver, the slew rate control module being configured to receive the first signal and a second signal (246, 546) indicating a magnitude of a load driven by the inverter circuit, wherein the slew rate control module modifies a slew rate of the driver based on the second signal, wherein the slew rate control module is configured to receive a third signal indicating a mode configuration of the inverter circuit, and the slew rate control module modifies the slew rate of the driver based on the third signal, and wherein the slew rate control module modifies the slew rate of the driver to a predetermined level when the third signal indicates the inverter circuit operates in dynamic voltage scaling mode or multi-phase mode.
An exhaust gas treatment system for an internal combustion engine, the system comprising: an exhaust gas pathway configured to receive exhaust gas from the internal combustion engine; a temperature sensor configured to sense a temperature of the exhaust gas; a first injector configured to inject a first reductant into the exhaust gas pathway at a first location when the sensed temperature is below a threshold temperature; a first treatment element positioned downstream of the first location; a second injector configured to inject a second reductant of a different composition than the first reductant into the exhaust gas pathway at a second location downstream of the first treatment element when the sensed temperature is above the threshold temperature; and a second treatment element positioned downstream of the second location, further comprising a reservoir, configured to store a volume of the second reductant, characterized in that the system further comprises a reaction chamber configured to receive a quantity of the second reductant from the reservoir and convert the second reductant into the first reductant, further comprising an electric heating element configured to selectively heat the reaction chamber to convert the second reductant into the first reductant. an exhaust gas pathway configured to receive exhaust gas from the internal combustion engine; a temperature sensor configured to sense a temperature of the exhaust gas; a first injector configured to inject a first reductant into the exhaust gas pathway at a first location when the sensed temperature is below a threshold temperature; a first treatment element positioned downstream of the first location; a second injector configured to inject a second reductant of a different composition than the first reductant into the exhaust gas pathway at a second location downstream of the first treatment element when the sensed temperature is above the threshold temperature; and a second treatment element positioned downstream of the second location, further comprising a reservoir, configured to store a volume of the second reductant, characterized in that the system further comprises a reaction chamber configured to receive a quantity of the second reductant from the reservoir and convert the second reductant into the first reductant, further comprising an electric heating element configured to selectively heat the reaction chamber to convert the second reductant into the first reductant.
A system for processing a workpiece, the system comprising: a rotary drive having a path along which a flow of a fluid is associated during operation thereof, wherein the rotary drive has a rotational axis; a rotary-drive sensor in communication with the path, wherein the rotary-drive sensor generates a signal responsive to the flow of the fluid and does not generate the signal responsive to an absence of the flow of the fluid, the signal having a duration interval; and a controller communicatively coupled to the rotary-drive sensor, wherein the controller is configured to enable the operation of the rotary drive subsequent to a termination of the signal if the duration interval of the signal is greater than or equal to a predetermined value; and the controller is configured to prevent the operation of the rotary drive subsequent to the termination of the signal if the duration interval of the signal is less than the predetermined value. a rotary drive having a path along which a flow of a fluid is associated during operation thereof, wherein the rotary drive has a rotational axis; a rotary-drive sensor in communication with the path, wherein the rotary-drive sensor generates a signal responsive to the flow of the fluid and does not generate the signal responsive to an absence of the flow of the fluid, the signal having a duration interval; and a controller communicatively coupled to the rotary-drive sensor, wherein the controller is configured to enable the operation of the rotary drive subsequent to a termination of the signal if the duration interval of the signal is greater than or equal to a predetermined value; and the controller is configured to prevent the operation of the rotary drive subsequent to the termination of the signal if the duration interval of the signal is less than the predetermined value. the controller is configured to enable the operation of the rotary drive subsequent to a termination of the signal if the duration interval of the signal is greater than or equal to a predetermined value; and the controller is configured to prevent the operation of the rotary drive subsequent to the termination of the signal if the duration interval of the signal is less than the predetermined value.
A pharmaceutical composition for topical use, comprising as active principles at least a non-specific immunomodulator having microbial origin and polyclonal anti-testosterone antibodies, characterised in that said non-specific immunomodulator consists of insoluble fragments of the cellular wall of Corynebacterium granulosum delipidated, crushed and purified.
Lost formwork with formwork wall of formwork panels (5, 51, 66, 76, 81, 85) for foundation plates, base plates and other foundation slabs for buildings, wherein the foundation slabs are poured from concrete, and the formwork wall forms the edge of the foundation slabs, characterised in that the formwork panels (5, 51, 66, 76, 81, 85) are maintained with separate feet (4, 50, 60, 70, 80), wherein a connection assembly is provided between the formwork panels (5, 51, 66, 76, 81, 85) and the feet (4, 50, 60, 70, 80), wherein the thickness of the panels is at least 80mm, wherein the feet (4, 50, 60, 70, 80), at least at the foundation slab side, extend so far and are stressed with concrete as the concrete is poured for the foundation slab, such that, at least from the superimposed load, the formwork is prevented from yielding and shifting under the pressure of the liquid concrete, wherein the space at the concrete side between the feet (4, 50, 80, 70, 80) is laid out with foamed plastic panels, and wherein the concrete is poured onto a sealing film that at least covers the feet (4, 50, 60, 70, 80) of the formwork panels (5, 51, 66, 76, 81, 85) and is hoisted up on the formwork panels (5, 51, 66, 76, 81, 85) in order to prevent leakage of the concrete.
A medication delivery device comprising - a housing having a proximal end and a distal end, - a cartridge for holding a medication, the cartridge having an outlet, - a moveable piston being retained within the cartridge, - a drive member moveable in a proximal direction with respect to the housing for setting a dose of medication to be delivered and in a distal direction with respect to the housing for delivering the dose and - a piston rod adapted to drive the piston in the distal direction with respect to the cartridge for delivering the dose, the drive member being releasably coupled to the piston rod characterized in that the medication delivery device further comprises a resilient member which is arranged to move the drive member in the proximal direction with respect to the housing after dose delivery, thereby reducing pressure of the piston rod on the piston, wherein the resilient member and the drive member are arranged for a force in the distal direction to be exerted on the resilient member during dose delivery such that the resilient member is biased in such a way that after dose delivery and after removing the force in the distal direction, the biased resilient member moves the drive member in the proximal direction with respect to the housing. - a housing having a proximal end and a distal end, - a cartridge for holding a medication, the cartridge having an outlet, - a moveable piston being retained within the cartridge, - a drive member moveable in a proximal direction with respect to the housing for setting a dose of medication to be delivered and in a distal direction with respect to the housing for delivering the dose and - a piston rod adapted to drive the piston in the distal direction with respect to the cartridge for delivering the dose,
A method for determining a replacement distance between a location and a point of impact of a bullet in a horizontal plane in common with the location, wherein a target distance D between the location and a target, which are arranged on a line of sight, is determined, and wherein an elevation angle α, which is enclosed by the line of sight and the horizontal plane, is determined, wherein, as a replacement distance, an equivalent horizontal distance E is calculated by multiplying the target distance D by a correction factor KF, characterised in that a value of a correction factor KF(D, α) to a value pair (D, α) of a value of the target distance D and a value of the elevation angle α is calculated by interpolation on the basis of correction factors KF ij of a correction factor table, wherein in the correction factor table a value of correction factor KF ij is assigned in each case to a value pair (Di, αj) of a value of target distance D and a value of elevation angle α (i.e. KF ij = KF(D i, α j)), and that the following steps are carried out: a) values of correction factor KF for the different value pairs (Di, αj) of the correction factor table are calculated from data of the charge of the ammunition using a ballistic program; b) the calculations according to step a) are carried out for different types of ammunition; c) the respective values of correction factor KF ij to the different value pairs (Di, αj) in the correction factor table are calculated by taking a mean value from the values of correction factors KF ij to the different types of ammunition. a) values of correction factor KF for the different value pairs (Di, αj) of the correction factor table are calculated from data of the charge of the ammunition using a ballistic program; b) the calculations according to step a) are carried out for different types of ammunition; c) the respective values of correction factor KF ij to the different value pairs (Di, αj) in the correction factor table are calculated by taking a mean value from the values of correction factors KF ij to the different types of ammunition.
Starch-containing microspheres, wherein the particle size of the starch-containing microspheres has a uniformly distributed polydispersity in a particle size concentrated distribution interval, characterized by: evenly dividing the particle size concentrated distribution interval into n intervals, wherein the proportion of microspheres in each interval is as follows: 100 n % ± 10 n % wherein n is an integer greater than 1; preferably, n is an integer between 4 and 10; wherein said starch-containing microspheres comprise a zwitterionic surfactant with a formula: wherein m is an integer of 2-6, preferably m is 3 or 4; R is a saturated carbon chain having 1-18 carbon atoms, preferably 12-18 carbon atoms; and wherein the starch-containing microspheres contain a constitutional unit derived from epoxy chloropropane as a crosslinking agent. wherein n is an integer greater than 1; preferably, n is an integer between 4 and 10; wherein said starch-containing microspheres comprise a zwitterionic surfactant with a formula: wherein m is an integer of 2-6, preferably m is 3 or 4; R is a saturated carbon chain having 1-18 carbon atoms, preferably 12-18 carbon atoms; and wherein the starch-containing microspheres contain a constitutional unit derived from epoxy chloropropane as a crosslinking agent.
An electrical connector comprising: a housing (58, 122) that retains a plurality of electrical contacts, wherein the electrical contacts (60, 138) includes a plurality of signal contacts and a plurality of ground contacts; and a shieldless ground shorting bar (94,144) that is connected to more than one of the ground contacts and places at least a portion of the ground contacts in electrical communication with each other characterized in that, pairs of signal contacts form differential signal pairs, ground contacts are disposed between the pairs of signal contacts, and the electrical connector is devoid of metallic crosstalk plates. a housing (58, 122) that retains a plurality of electrical contacts, wherein the electrical contacts (60, 138) includes a plurality of signal contacts and a plurality of ground contacts; and a shieldless ground shorting bar (94,144) that is connected to more than one of the ground contacts and places at least a portion of the ground contacts in electrical communication with each other characterized in that, pairs of signal contacts form differential signal pairs, ground contacts are disposed between the pairs of signal contacts, and the electrical connector is devoid of metallic crosstalk plates.
Interconnect circuitry for a data processing apparatus, said interconnect circuitry being configured to provide data routes via which at least one initiator device 5 may access at least one recipient device, said interconnect circuitry comprising: at least one input for receiving transaction requests from said at least one initiator device; at least one output for outputting transaction requests to said at least one recipient device; at least one path for transmitting said transaction requests between said at least one input and said at least one output; control circuitry for routing said received transaction requests from said at least one input to said at least one output; wherein said control circuitry is configured to respond to a barrier transaction request to maintain an ordering of at least some transaction requests with respect to said barrier transaction request within a stream of transaction requests passing along one of said at least one paths, by not allowing reordering of at least some transactions requests that occur before said barrier transaction request in said stream of transaction requests with respect to at least some transaction requests that occur after said barrier transaction request in said stream of transaction requests, by delaying transmission along said at least one path of said at least some transaction requests while allowing other transaction requests to proceed; wherein said barrier transaction request comprising an indicator indicating which of said transaction requests within said stream of transaction requests comprise said at least some transaction requests whose ordering is to be maintained. at least one input for receiving transaction requests from said at least one initiator device; at least one output for outputting transaction requests to said at least one recipient device; at least one path for transmitting said transaction requests between said at least one input and said at least one output; control circuitry
A group III-V compound semiconductor photo detector, comprising: a semiconductor substrate having a principal surface; an absorption layer being disposed on the principal surface of the semiconductor substrate; an InP layer being disposed on the absorption layer and having a first portion and a second portion; and an anode region of p-type semiconductor extending from a surface of the first portion of the InP layer toward the absorption layer, the bandgap energy of the absorption layer being smaller than the bandgap energy of InP, the InP layer being doped with n-type dopant, the majority carrier in the second portion of the InP layer being electrons, and the concentration of electrons in the second portion of the InP layer being not less than 1×10 16 cm -3, wherein the absorption layer has a group III-V compound semiconductor layer containing at least antimony as a group V element. wherein the InP layer contains antimony as impurity. a semiconductor substrate having a principal surface; an absorption layer being disposed on the principal surface of the semiconductor substrate; an InP layer being disposed on the absorption layer and having a first portion and a second portion; and an anode region of p-type semiconductor extending from a surface of the first portion of the InP layer toward the absorption layer, the bandgap energy of the absorption layer being smaller than the bandgap energy of InP, the InP layer being doped with n-type dopant, the majority carrier in the second portion of the InP layer being electrons, and the concentration of electrons in the second portion of the InP layer being not less than 1×10 16 cm -3, wherein the absorption layer has a group III-V compound semiconductor layer containing at least antimony as a group V element. wherein the InP layer contains antimony as impurity.
A surface treatment composition for paper, paperboard or other fibrous webs, characterized in that the composition comprises starch particles in an amount of more than 65% by weight, and at least 10% by weight of the starch in the composition consists of starch particles in the entire temperature range of 20-50°C and wherein the starch particles comprise at least one salt of a multivalent metal and wherein the ratio between salt and starch of the composition is between 1:50 to 1:5 and the salt is incorporated in the starch particle.
A method for separating a rod-like or tubular object made of a brittle material, especially glass, in which at first at least one circumferential notch is made on the surface of the object at a predetermined point, whereupon impulsive force of a chosen amplitude and waveform is applied to the fixed object, characterized in that the force pulse is applied in the direction of the longitudinal axis of the object to be separated to produce a longitudinal stress wave propagating through the object in the direction of its longitudinal axis, the stress wave being reflected from the free end of the separated object in the form of a tensile wave which in the region weakened by the circumferential notch closest to the free end of the object causes separation of the end preform, wherein the length of the of the stress wave is smaller than twice the length of the desired perform.
An ink jet recording apparatus performing printing of a dot matrix on a printing target through ink particles ejected from a nozzle, comprising: a charging electrode configured to charge the ink particles ejected from the nozzle; a deflecting electrode (23, 24) configured to deflect the ink particles charged by the charging electrode; an operating unit configured to input and to set printing conditions for performing the printing; and a control unit, wherein the control unit is configured to receive a moving distance in a direction in which the printing target is conveyed from the operating unit, wherein the moving distance indicates an area designating a distance by which it is desired to move a position of a printing dot to correct a bending of printing, wherein the control unit is configured to calculate the number of non-printing particles on the basis of the moving distance, and to perform control for changing to a dot pattern relative to the number of non-printing particles, wherein the inkjet recording apparatus is configured by being configured to receive, from the operating unit, a designation of a column of dots in the dot matrix to be subject to curved printing correction and a position of the dot in the column. a charging electrode configured to charge the ink particles ejected from the nozzle; a deflecting electrode (23, 24) configured to deflect the ink particles charged by the charging electrode; an operating unit configured to input and to set printing conditions for performing the printing; and a control unit, wherein the control unit is configured to receive a moving distance in a direction in which the printing target is conveyed from the operating unit, wherein the moving distance indicates an area designating a distance by which it is desired to move a position of a printing dot to correct a bending of printing, wherein the control unit is configured to calculate the number of non-printing particles on the basis of the moving distance, and to perform control for changing to a dot pattern relative to the number of non-printing particles, wherein the inkjet recording apparatus is configured by being configured to receive, from the operating unit, a designation of a column of dots in the dot matrix to be subject to curved printing correction and a position of the dot in the column.
An azeotrope or azeotrope-like composition, comprising: i) 75 to 85 weight percent trans-1,2-dichloroethylene; ii) 1 to 5 weight percent methyl perfluoroheptene ether; iii) 10 to 15 weight percent 1,1,2,2,3,3,4-heptafluorocyclopentane; and iv) 1 to 5 weight percent ethanol or isopropanol. i) 75 to 85 weight percent trans-1,2-dichloroethylene; ii) 1 to 5 weight percent methyl perfluoroheptene ether; iii) 10 to 15 weight percent 1,1,2,2,3,3,4-heptafluorocyclopentane; and iv) 1 to 5 weight percent ethanol or isopropanol.