mhurhangee/ep-ind-claims huggingface dataset:
A method for selectively actuating engine valves in an internal combustion engine configured to provide positive power operation according to main valve events and in which fuel is supplied to and combusted within a cylinder of the plurality of cylinders, the internal combustion engine further configured to provide engine braking operation according to engine braking valve events in which the internal combustion engine is operated as an air compressor, wherein engine braking operation occurs when positive power operation does not, the method_comprising the steps of: a) disabling main exhaust and intake valve events (923, 932); b) providing for engine braking two compression release valve events and at least one brake gas recirculation events (922, 924) for an exhaust valve_for every two revolutions of a crankshaft, and providing for engine braking one or two intake valve events for an intake valve for every two revolutions of the crankshaft; and c) reinstituting the main exhaust and intake valve events (923, 932) for positive power operation while disabling at least the compression release valve events and the intake valve events, characterized in that disabling the main exhaust and intake valve events further comprises disabling a main intake valve event and, subsequent to disabling the main intake valve event, disabling a main exhaust valve event. a) disabling main exhaust and intake valve events (923, 932); b) providing for engine braking two compression release valve events and at least one brake gas recirculation events (922, 924) for an exhaust valve_for every two revolutions of a crankshaft, and c) reinstituting the main exhaust and intake valve events (923, 932) for positive power operation while disabling at least the compression release valve events and the intake valve events,
A radio receiver, comprising: an in-phase mixer configured to generate an in-phase, I, signal; a quadrature mixer configured to generate a quadrature, Q, signal; a first analog-to-digital, A/D, converter configured to generate first digital samples from one of the I signal and the Q signal; a second analog-to-digital, A/D, converter configured to generate second digital samples from the other of the I signal and the Q signal; and a compensation system comprising a control loop configured to compensate for frequency-dependent I-Q imbalance that varies across input signal component frequencies based on results, for each of multiple of the first digital samples, of cross-correlation of the first digital sample with each of multiple of the second digital samples, wherein at least one of the multiple second digital samples has a time index that is different from a time index of the first digital sample, and wherein the time indexes for the respective digital samples indicate time-based positions within the signals from which the digital samples were generated. an in-phase mixer configured to generate an in-phase, I, signal; a quadrature mixer configured to generate a quadrature, Q, signal; a first analog-to-digital, A/D, converter configured to generate first digital samples from one of the I signal and the Q signal; a second analog-to-digital, A/D, converter configured to generate second digital samples from the other of the I signal and the Q signal; and a compensation system comprising a control loop configured to compensate for frequency-dependent I-Q imbalance that varies across input signal component frequencies based on results, for each of multiple of the first digital samples, of cross-correlation of the first digital sample with each of multiple of the second digital samples, wherein at least one of the multiple second digital samples has a time index that is different from a time index of the first digital sample, and wherein the time indexes for the respective digital samples indicate time-based positions within the signals from which the digital samples were generated.
A method for converting CO 2 produced by an internal combustion engine on a moving vehicle into hydrocarbon fuel, comprising: (i) transporting exhaust gas containing CO 2 and produced by said ICE to a heat exchanger to remove excess heat from said gas to form a heat exchanged exhaust gas and moving said heat exchanged exhaust gas to a CO 2 separator to remove CO 2 therefrom, by contacting said heat exchanged exhaust gas with a CO 2 separator which is a membrane permeable to CO 2 and gaseous H 2 O but not other gases present in said exhaust gas produced by said ICE; and (iii) combining said CO 2 with water in an electrochemical reactor to form hydrocarbon fuel. (i) transporting exhaust gas containing CO 2 and produced by said ICE to a heat exchanger to remove excess heat from said gas to form a heat exchanged exhaust gas and moving said heat exchanged exhaust gas to a CO 2 separator to remove CO 2 therefrom, by contacting said heat exchanged exhaust gas with a CO 2 separator which is a membrane permeable to CO 2 and gaseous H 2 O but not other gases present in said exhaust gas produced by said ICE; and (iii) combining said CO 2 with water in an electrochemical reactor to form hydrocarbon fuel.
A device for treating particulate solid materials, wherein the device comprises: - at least one reactor into which the particulate solid materials can be introduced, wherein the reactor comprises o a first grating and o a second grating, which delimit a reaction chamber and retain in the reaction chamber the particulate solid materials that have been introduced into the reaction chamber, and - at least one closeable or closed receiving space into which the reactor can be introduced, - a supply line for supplying a process fluid into the receiving space, - at least one conveyor unit for conveying the process fluid and a reaction mixture made up of the process fluid and the particulate solid materials through the receiving space, wherein the receiving space is configured such that, when the conveyor unit is activated, the process fluid and the reaction mixture flow through the first grating, the reaction chamber, and the second grating when the reactor is introduced into the receiving space. - at least one reactor into which the particulate solid materials can be introduced, wherein the reactor comprises o a first grating and o a second grating, which delimit a reaction chamber and retain in the reaction chamber the particulate solid materials that have been introduced into the reaction chamber, and o a first grating and o a second grating, which delimit a reaction chamber and retain in the reaction chamber the particulate solid materials that have been introduced into the reaction chamber, and - at least one closeable or closed receiving space into which the reactor can be introduced, - a supply line for supplying a process fluid into the receiving space, - at least one conveyor unit for conveying the process fluid and a reaction mixture made up of the process fluid and the particulate solid materials through the receiving space, wherein the receiving space is configured such that, when the conveyor unit is activated, the process fluid and the reaction mixture flow through the first grating, the reaction chamber, and the second grating when the reactor is introduced into the receiving space.
A measuring apparatus for measuring a fluid pressure and a temperature of the fluid, wherein a common sensor element is provided for both measurements which has a fluid chamber and a membrane and onto which both a resistance measurement bridge associated with the pressure measurement and having at least one pressure-dependent resistor element (R1-R4) for generating a bridge voltage (U D) which is proportional to the fluid pressure and a resistance measurement bridge associated with the temperature measurement and having at least one temperature-dependent resistor element for generating a bridge voltage (U T) proportional to the fluid temperature are applied at the side of the membrane remote from the fluid chamber, characterized in that the resistance measurement bridge associated with the pressure measurement and the resistance measurement bridge associated with the temperature measurement are each applied in thin-film technology, with the resistor elements (R1-R4) associated with the pressure measurement being produced from a first material and the at least one temperature-dependent resistor element associated with the temperature measurement being produced from a second material different from the first material.
A motor drive, comprising: a controller configured to generate a control or communication signal for transmission to a component of an automation system coupled to the motor drive; and an interface configured to receive from the component an operational condition signal indicative of a fault in the component, wherein the controller comprises a processor configured to: analyze the operational control signal; determine a likelihood of at least one fault causing the operational control signal; and generate a likelihood ranking value to be displayed on a display, wherein the likelihood ranking value is related to a likelihood of a solution to correct the at least one fault. a controller configured to generate a control or communication signal for transmission to a component of an automation system coupled to the motor drive; and an interface configured to receive from the component an operational condition signal indicative of a fault in the component, wherein the controller comprises a processor configured to: analyze the operational control signal; determine a likelihood of at least one fault causing the operational control signal; and generate a likelihood ranking value to be displayed on a display, wherein the likelihood ranking value is related to a likelihood of a solution to correct the at least one fault. analyze the operational control signal; determine a likelihood of at least one fault causing the operational control signal; and generate a likelihood ranking value to be displayed on a display, wherein the likelihood ranking value is related to a likelihood of a solution to correct the at least one fault.
A medical device, comprising: a handle assembly including a handle body defining a chamber therein; and a probe-and-amplifier assembly, including: a probe extending distally from a distal end of the handle assembly; and a microwave amplifier unit disposed within the chamber, wherein the microwave amplifier unit and the probe are mechanically coupled to one another to form a unitary body, wherein the probe-and-amplifier assembly is releaseably coupled with the handle assembly, characterized by a removable portion disposed at the distal end of the handle body and configured to allow removal of the probe-and-amplifier assembly from the handle body. a handle assembly including a handle body defining a chamber therein; and a probe-and-amplifier assembly, including: a probe extending distally from a distal end of the handle assembly; and a microwave amplifier unit disposed within the chamber, wherein the microwave amplifier unit and the probe are mechanically coupled to one another to form a unitary body, a probe extending distally from a distal end of the handle assembly; and a microwave amplifier unit disposed within the chamber, wherein the microwave amplifier unit and the probe are mechanically coupled to one another to form a unitary body, wherein the probe-and-amplifier assembly is releaseably coupled with the handle assembly, characterized by a removable portion disposed at the distal end of the handle body and configured to allow removal of the probe-and-amplifier assembly from the handle body.
An antibacterial and antifungal composition, comprising: 1,2-octanediol; at least one kind of monoalkyl glyceryl ether having a linear alkyl group containing 6 to 8 carbon atoms, a branched alkyl group containing 6 to 8 carbon atoms, or a cycloalkyl group containing 6 to 8 carbon atoms; and at least one kind of aromatic alcohol represented by the following general formula: wherein n represents a natural number of from 1 to 4, wherein when the total mass of Component, Component, and Component is 100 parts by mass, the contents of Component, Component, and Component fall within ranges of from 5 parts by mass to 60 parts by mass, from 5 parts by mass to 60 parts by mass, and from 15 parts by mass to 40 parts by mass, respectively. 1,2-octanediol; at least one kind of monoalkyl glyceryl ether having a linear alkyl group containing 6 to 8 carbon atoms, a branched alkyl group containing 6 to 8 carbon atoms, or a cycloalkyl group containing 6 to 8 carbon atoms; and at least one kind of aromatic alcohol represented by the following general formula:
Absorption system, preferably a mobile absorption system, in particular, for the absorption of organic substances from fluid media, wherein two absorption containers (9, 10), which can be subsequently flowed through by the fluid medium to be cleansed, are available, wherein, at least one absorption bag - preferably a replaceable one - is arranged in each of the absorption containers (9, 10) filled with an absorption agent, wherein the bag walls of the absorption bag are made of fluid-permeable non-woven fabric consisting of fibres or filaments and are primarily made thereof. and wherein shaped particles or pellets of the absorption agent are accommodated within the inner bag space of the absorption bag, wherein the shaped particles or pellets are made of a percentage of least 85% by weight, preferably at least 90% by weight of at least one natural rubber and at least one filler material, in particular, carbon black. wherein the shaped particles or pellets are loosely filled in the adsorption bag and wherein the bulk density of the shaped particles or pellets is 250 to 500 g/l.
Knee orthosis for support of a knee joint in the case of instability, comprising a thigh portion, attachable on the thigh via fixing means, with an upper half shell and hinge plates attached to the upper half shell, a lower leg portion attachable on the lower leg via fixing means with a lower half shell and splint elements attached laterally on the lower half shell, which splint elements are connected via articulation means to the respective hinge plate and in which splint elements, in the regions remote from the articulation means, the lower half shell is pivotably borne about a pivot axis and is pivotable, via adjustment means, toward the lower leg, where the adjustment means are formed by at least one longitudinally stable, flexible traction element, whose one end region is held on a member of the articulation means pivotable with respect to the splint elements by means of a first holding device, whose other endregion is held on the lower half shell by means of a second holding device and which longitudinally stable, flexible traction element is diverted between the first holding device and the second holding device about a diversion element mounted on the splint element.
A slide-easy slide seat structure for a portable and liftable rod, comprising: a slide sleeve, a main body, an insertion seat for fixing a shower head, and a hold tight mechanism; the slide sleeve includes a hollow portion and a through-hole, the main body is fixed to the hollow portion of the slide sleeve, one end of slide sleeve is connected to the insertion seat; wherein, the hold tight mechanism includes a movable piece, a hold tight piece, and a restoring spring; one end of restoring spring is disposed in the main body, and the other end of the restoring spring is connected to the movable piece; the movable piece is disposed in the main body and having a slant slide face; the slant slide face approaches a liftable rod along a longitudinal direction, one end of hold tight piece is located close to the movable piece, to act in cooperation with the slant slide face of the movable piece; the other end of the hold tight piece is pressed against the liftable rod; wherein the hold tight mechanism includes a control sway rod, wherein one end of the control sway rod is disposed in the main body and a central portion of the control sway rod is hinged to the main body, and wherein the hold tight piece is detached from the liftable rod through cooperation with the control sway rod and the movable piece. a slide sleeve, a main body, an insertion seat for fixing a shower head, and a hold tight mechanism; the slide sleeve includes a hollow portion and a through-hole, the main body is fixed to the hollow portion of the slide sleeve, one end of slide sleeve is connected to the insertion seat; wherein, the hold tight mechanism includes a movable piece, a hold tight piece, and a restoring spring; one end of restoring spring is disposed in the main body, and the other end of the restoring spring is connected to the movable piece; the movable piece is disposed in the main body and having a slant slide face; the slant slide face approaches a liftable rod along a longitudinal direction, one end of hold tight piece is located close to the movable piece, to act in cooperation with the slant slide face of the movable piece; the other end of the hold tight piece is pressed against the liftable rod; wherein the hold tight mechanism includes a control sway rod, wherein one end of the control sway rod is disposed in the main body and a central portion of the control sway rod is hinged to the main body, and wherein the hold tight piece is detached from the liftable rod through cooperation with the control sway rod and the movable piece.
A microfluidic filtering system comprising: a first microfluidic channel (24; 1424; 1724; 1924); a first pump (28; 728; 828) to move fluid along the first microfluidic channel (24; 1424; 1724; 1924) in a first direction; a second microfluidic channel (34; 1934); a second pump (38; 738; 838; 1938) to move fluid along the second microfluidic channel in a second direction opposite to the first direction; and a filter channel (40; 243; 1243; 1843; 1943) dimensioned and/or shaped with a size or cross-sectional area so as to impede or block the flow of selected particles or elements having at least one dimensional size greater than a predetermined dimensional size, the filter channel extending between and interconnecting the first microfluidic channel (24; 1424; 1724; 1924) and the second microfluidic channel (34; 1934), characterized in that the filter channel (40; 243; 1243; 1843; 1943) forms an obtuse angle adjacent the first microfluidic channel (24; 1424; 1724; 1924) facing the first direction and an obtuse angle adjacent the second microfluidic channel (34; 1934) facing the second direction. a first microfluidic channel (24; 1424; 1724; 1924); a first pump (28; 728; 828) to move fluid along the first microfluidic channel (24; 1424; 1724; 1924) in a first direction; a second microfluidic channel (34; 1934); a second pump (38; 738; 838; 1938) to move fluid along the second microfluidic channel in a second direction opposite to the first direction; and a filter channel (40; 243; 1243; 1843; 1943) dimensioned and/or shaped with a size or cross-sectional area so as to impede or block the flow of selected particles or elements having at least one dimensional size greater than a predetermined dimensional size, the filter channel extending between and interconnecting the first microfluidic channel (24; 1424; 1724; 1924) and the second microfluidic channel (34; 1934), characterized in that the filter channel (40; 243; 1243; 1843; 1943) forms an obtuse angle adjacent the first microfluidic channel (24; 1424; 1724; 1924) facing the first direction and an obtuse angle adjacent the second microfluidic channel (34; 1934) facing the second direction.
A grinding machine comprising a housing having a base for supporting the grinding machine, a shaft for holding a grindstone, a motor for rotating the shaft and a trough holder for holding a trough for grinding liquid underneath the grindstone, the trough holder being arranged below the shaft, wherein the trough holder is movable in a vertical direction between the base of the housing and the shaft for holding a grindstone, so that the trough for grinding liquid may be raised so that the grindstone, in use, is contacting grinding liquid in the trough and that the grinding machine comprises a lifting/lowering arrangement for moving the trough holder in said vertical direction, characterized in that the trough holder is configured to be guided in a vertical slot in the housing of the grinding machine, wherein the vertical slot extends along an axis extending from the base of the grinding machine through the shaft for holding a grindstone.
An impact mill comprising a base portion pon which is disposed a rotor rotatably mounted in a bearing housing, said rotor having an upwardly aligned conical surface portion coaxial with the rotational axis, said impact mill provided with a mill casing within which is located a conical grinding track assembly which surrounds said rotor to form a conical grinding path, said mill casing having a downwardly aligned cylindrical collar which may be axially adjusted to set a grinding gap between said rotor provided with a plurality of impact knives complementary with a plurality of impact knives disposed on the inner housing surface of said mill casing, said conical track assembly provided with serrated impact surfaces which serrations project as a line on a plane of the rotor axis forming a slope relative to said rotor axis, characterized in that the improvement comprises a power transmission means comprising a synchronous sprocketed belt accommodated on a sprockeled drive sheave on the rotor.
A mobile station comprising: an antenna for receiving broadcast information broadcast by a base station to a plurality of mobile stations including the mobile station; a switching unit configured to determine whether or not to acquire a timing correction amount of an uplink transmission timing from a base station for the mobile station, the determination being based on the value of a variable contained in the broadcast information broadcast by the base station and received by the mobile station; and an uplink transmission timing determining unit configured such that, when the switching unit determines not to acquire the timing correction amount from the base station, the uplink transmission timing determining unit sets the timing correction amount to zero or calculates the timing correction amount, wherein the calculation uses a value of a variable which is included in the broadcast information which the base station transmits. an antenna for receiving broadcast information broadcast by a base station to a plurality of mobile stations including the mobile station; a switching unit configured to determine whether or not to acquire a timing correction amount of an uplink transmission timing from a base station for the mobile station, the determination being based on the value of a variable contained in the broadcast information broadcast by the base station and received by the mobile station; and an uplink transmission timing determining unit configured such that, when the switching unit determines not to acquire the timing correction amount from the base station, the uplink transmission timing determining unit sets the timing correction amount to zero or calculates the timing correction amount, wherein the calculation uses a value of a variable which is included in the broadcast information which the base station transmits.