mhurhangee/ep-ind-claims huggingface dataset:
Marine vessel waste treatment installation, which installation is intended for treatment of dry waste and wet waste, and which installation comprises at least one waste receiving unit (2,3) including a first waste receiving unit for dry waste and a second waste receiving unit for wet waste, at least one waste transport means, and at least one incinerator unit provided with an inlet, characterized in that the at least one waste transport means includes dual waste-feeding screws arranged to receive dry waste from the first waste receiving unit by means of a dry waste chute and wet waste from the second waste receiving unit by means of a wet waste chute, the dual waste-feeding screws being configured to mix the dry waste and the wet waste, and in that the dual waste-feeding screws are connected to the inlet of the incinerator unit in order to feed the mixed dry waste and wet waste into the inlet of the incinerator unit and in that the incinerator unit comprises a moving grate arranged inside the incinerator unit, after the inlet of the incinerator unit and downstream of the dual waste-feeding screws.
Combustion chamber assembly unit for a fuel-operated vehicle heater, comprising a combustion chamber housing with a combustion chamber defined by a circumferential wall and by a bottom area, wherein a flame tube is provided, which follows the circumferential wall in the direction of a housing longitudinal direction and surrounds a waste gas flow space, which is open in the direction of the housing longitudinal axis, wherein a waste gas backflow space is formed between the flame tube and a housing surrounding the latter, wherein the waste gas flow space is open to the waste gas backflow space in a first axial end area of the waste gas backflow space, wherein an oxidation catalytic converter device, through which combustion waste gases can flow, is provided in the waste gas backflow space downstream in relation to the combustion chamber, characterized in that the oxidation catalytic converter device and a hydrocarbon storage device or/and a nitrogen oxide storage device are provided in a second axial end region of the waste gas backflow space, that a combustion air feed space surrounding the circumferential wall is open to the combustion chamber via a plurality of combustion air feed openings provided in the circumferential wall, and that a partition separating the combustion air feed space from the waste gas backflow space is provided, wherein the oxidation catalytic converter device is arranged such that it surrounds the partition.
Adapter device for mounting of receiving bodies (10, 102) of different sizes, wherein the adapter device comprises: a carrier apparatus for carrying a mounted receiving body (10, 102); first coupling structures (106 to 108) at the carrier apparatus which are designed for mounting a first receiving body of a first size by sliding on and locking at the first coupling structures (106 to 108); second coupling structures (110 to 112) at the carrier apparatus which are designed for mounting a second receiving body of a second size by sliding on and locking at the second coupling structures (110 to 112), wherein the first coupling structures (106 to 108) comprise at least one first guide rail, wherein, along the at least one first guide rail, the first receiving body is slideable on up to a first locking position, characterised in that the first coupling structures (106 to 108) comprise at least one first locking body, wherein, during sliding on the first receiving body along the at least one first guide rail up to the first locking position, the at least one first locking body is designed for, at the first locking position, vertical irremovable locking the first receiving body at the adapter device. a carrier apparatus for carrying a mounted receiving body (10, 102); first coupling structures (106 to 108) at the carrier apparatus which are designed for mounting a first receiving body of a first size by sliding on and locking at the first coupling structures (106 to 108); second coupling structures (110 to 112) at the carrier apparatus which are designed for mounting a second receiving body of a second size by sliding on and locking at the second coupling structures (110 to 112), wherein the first coupling structures (106 to 108) comprise at least one first guide rail, wherein, along the at least one first guide rail, the first receiving body is slideable on up to a first locking position, characterised in that the first coupling structures (106 to 108) comprise at least one first locking body, wherein, during sliding on the first receiving body along the at least one first guide rail up to the first locking position, the at least one first locking body is designed for, at the first locking position, vertical irremovable locking the first receiving body at the adapter device.
A direction finding system for radio direction finding of a target emitting at least one signal, comprising at least one receiver unit with several receivers deployed around the estimated location of the target, at least one antenna assigned to the at least one receiver unit having the several receivers and a central processing unit connected to the at least one receiver unit, wherein each of these receivers has one antenna, wherein each receiver is configured to measure the absolute receiving power of the signal emitted by the target such that the at least one receiver unit is configured to measure an absolute receiving power or a relative receiving power of the signal emitted by the target, wherein the central processing unit is configured to determine the power level of the respective power received by the at least one receiver unit, and wherein the central processing unit is configured to determine interpolated constant power contours in order to locate the target, characterized in that the direction finding system comprises a direction finding unit for approaching the location of the target until a significant change per meter of the free space path loss occurs.
A method comprising: receiving a request to generate configuration data for configurable hardware using a specification for application logic of the configurable hardware; generating the configuration data for the configurable hardware, the configuration data comprising data for implementing the application logic; encrypting the configuration data to generate encrypted configuration data; signing the encrypted configuration data using a private key; and transmitting the signed encrypted configuration data in response to the request; wherein the generating the configuration data includes generating host logic that constrains functionality of the application logic by masking the application logic from communicating directly with a central processing unit on a host server computer including the configurable hardware; wherein the generating the configuration data includes analyzing the application logic to determine whether the application logic includes ring oscillators, continuing with the generating of the configuration data if the application logic does not include ring oscillators, and aborting the generating of the configuration data if the application logic includes ring oscillators. receiving a request to generate configuration data for configurable hardware using a specification for application logic of the configurable hardware; generating the configuration data for the configurable hardware, the configuration data comprising data for implementing the application logic; encrypting the configuration data to generate encrypted configuration data; signing the encrypted configuration data using a private key; and transmitting the signed encrypted configuration data in response to the request; wherein the generating the configuration data includes generating host logic that constrains functionality of the application logic by masking the application logic from communicating directly with a central processing unit on a host server computer including the configurable hardware; wherein the generating the configuration data includes analyzing the application logic to determine whether the application logic includes ring oscillators, continuing with the generating of the configuration data if the application logic does not include ring oscillators, and aborting the generating of the configuration data if the application logic includes ring oscillators.
A process for preventing or minimizing precipitation of arsenic or arsenic based compounds as impurity in a phosphorus-containing compound aqueous composition, wherein the phosphorus-containing compound is a phosphonium compound or an alkyl-substituted phosphine having arsenic as impurity, comprising the step of adding to said composition an efficient arsenic stabilizing amount of a compound selected from the group consisting of ammonia, ammonium salt, organic amino acid, peptide and polypeptide, said efficient arsenic stabilizing amount being a concentration of between 40 and 10 000 ppm in said aqueous composition.
An aerosol delivery device (100, 200) comprising: a puff sensor (108, 208) configured to detect a puff input to the aerosol delivery device; a heater (134, 234) configured to heat aerosol precursor composition to form an inhalable substance; and processing circuitry coupled with the puff sensor and heater, wherein the processing circuitry is configured to cause the aerosol delivery device to at least: determine a characteristic of the puff input; determine a control function having a defined association with the characteristic; and perform the control function in response to the puff input, wherein in at least one other instance in which another puff input does not have the characteristic, the aerosol delivery device does not perform the control function, and is instead caused to control power supplied to the heater to heat the aerosol precursor composition. a puff sensor (108, 208) configured to detect a puff input to the aerosol delivery device; a heater (134, 234) configured to heat aerosol precursor composition to form an inhalable substance; and processing circuitry coupled with the puff sensor and heater, wherein the processing circuitry is configured to cause the aerosol delivery device to at least: determine a characteristic of the puff input; determine a control function having a defined association with the characteristic; and perform the control function in response to the puff input, wherein in at least one other instance in which another puff input does not have the characteristic, the aerosol delivery device does not perform the control function, and is instead caused to control power supplied to the heater to heat the aerosol precursor composition. determine a characteristic of the puff input; determine a control function having a defined association with the characteristic; and perform the control function in response to the puff input, wherein in at least one other instance in which another puff input does not have the characteristic, the aerosol delivery device does not perform the control function, and is instead caused to control power supplied to the heater to heat the aerosol precursor composition.
Apparatus for driving a fastening element into a base material, comprising a power unit and a driving element which is designed in particular as a piston and is driven by the power unit in a driving direction from a starting position into a setting position in order to drive a fastening element into the base material, furthermore comprising a braking element with a contact surface which defines the setting position of the driving element and against which the driving element lies in particular in the setting position, furthermore comprising a pressing element which has an end surface which can be pressed in the driving direction onto the base material, wherein, in the driving direction, the end surface and the contact surface are at a distance from each other which defines a driving depth of the fastening element into the base material, furthermore comprising an adjustment device with which the distance between the end surface and the contact surface can be adjusted, wherein the adjustment device comprises an adjusting element which is connected by means of a first threaded connection to the braking element and by means of a second threaded connection to the pressing element, and therefore rotation of the adjusting element firstly offsets the adjusting element relative to the braking element and secondly offsets the pressing element relative to the braking element, characterized in that rotation of the adjusting element offsets the adjusting element relative to the pressing element.
A composition for use in a method of treatment, wherein the method is for exterminating animal parasites, the composition comprising, as an active ingredient, at least one amide derivative represented by the following Formula: wherein, in Formula, Q 1 represents a phenyl group or a phenyl group substituted with a halogen atom; X 1 represents a fluorine atom; X 2, X 3, and X 4 each represent a hydrogen atom; R 1 represents a hydrogen atom or a C1-C3 alkyl group; R 2 represents a hydrogen atom; Y 1 and Y 5 each independently represent a halogen atom or a C1-C3 haloalkyl group; Y 2 and Y 4 each represent a hydrogen atom; and Y 3 represents a heptafluoroisopropyl.
Motor vehicle front crossmember intended to be fastened via deformable structures to the front end of the side rails of the vehicle, characterized in that the crossmember comprises a sheet-metal tubular structure shaped so as to obtain a mainly rectangular cross section, and in that a rear wall of the crossmember has a portion extending beyond the mainly rectangular cross section of the tubular structure of the crossmember, substantially vertically beyond the upper wall, forming a fin along the crossmember, the fin having perforations allowing the fastening of accessories.
A punching system for an electrode base material, in which the electrode base material coated with an active material on a surface of a collector is molded or cut in a predetermined shape, the punching system comprising: an unwinder on which the electrode base material wound in the form of a roll is mounted and around which the electrode base material is unwound; a punching device disposed to be spaced a predetermined distance from the unwinder, the punching device being configured to mold or cut the electrode base material supplied from the unwinder in a predetermined shape; characterised by a curl correcting device disposed between the unwinder and the punching device to inject or suction air onto a surface of the electrode base material while the electrode base material moves to the punching device so as to planarize the electrode base material wherein the curl correcting device comprises: an upper housing disposed above a moving path of the electrode base material; and a lower housing disposed below the moving path of the electrode base material, wherein a plurality of air passage holes through which the air is injected or suctioned are provided in each of the upper housing and the lower housing. an unwinder on which the electrode base material wound in the form of a roll is mounted and around which the electrode base material is unwound; a punching device disposed to be spaced a predetermined distance from the unwinder, the punching device being configured to mold or cut the electrode base material supplied from the unwinder in a predetermined shape; characterised by a curl correcting device disposed between the unwinder and the punching device to inject or suction air onto a surface of the electrode base material while the electrode base material moves to the punching device so as to planarize the electrode base material wherein the curl correcting device comprises: an upper housing disposed above a moving path of the electrode base material; and a lower housing disposed below the moving path of the electrode base material, wherein a plurality of air passage holes through which the air is injected or suctioned are provided in each of the upper housing and the lower housing. an upper housing disposed above a moving path of the electrode base material; and a lower housing disposed below the moving path of the electrode base material, wherein a plurality of air passage holes through which the air is injected or suctioned are provided in each of the upper housing and the lower housing.
Manually guided ground-working appliance, in particular a lawn mower, with a housing and with a guide device, wherein the guide device has two guide members (22, 24) guided telescopically one inside the other, wherein the first guide member has a handle comprising a switch unit, and wherein the second guide member has a pivoting unit for pivotably mounting the guide device relative to the housing of the ground-working appliance, and with a fixing unit for releasably fixing the guide members (22, 24) to each other, which fixing unit is arranged on the first guide member, characterized in that the pivoting unit has an actuatable securing device which, in an unactuated state, prevents a pivoting of the guide device with respect to the housing, wherein the first guide member has an unlocking element which is designed to actuate the securing device of the second guide member.
An axial flow turbine engine compressor comprising: a casing presenting an inside wall of general shape that defines an aerodynamic reference surface defining a gas-passing passage; a rotor wheel mounted to rotate relative to the casing in said passage; the wheel carrying a plurality of radial blades, each having a tip, a leading edge, and a trailing edge; a circumferential trench being formed in the inside wall of the casing; the shape of said trench being defined essentially by three substantially conical surfaces (32A, 32B, 32C), namely an upstream surface, a middle surface, and a downstream surface, the surfaces following one after another from upstream to downstream; the middle surface being substantially parallel to said aerodynamic reference surface; and the downstream surface extending downstream at least as far as the trailing edges of the blades; the compressor being characterized in that: the upstream surface extends upstream from the leading edges of the blades; and the junction between the middle and downstream surfaces is situated in the range 30% to 80% and preferably in the range 50% to 65% of the axial length of the blades starting from the leading edge. a casing presenting an inside wall of general shape that defines an aerodynamic reference surface defining a gas-passing passage; a rotor wheel mounted to rotate relative to the casing in said passage; the wheel carrying a plurality of radial blades, each having a tip, a leading edge, and a trailing edge; a circumferential trench being formed in the inside wall of the casing; the shape of said trench being defined essentially by three substantially conical surfaces (32A, 32B, 32C), namely an upstream surface, a middle surface, and a downstream surface, the surfaces following one after another from upstream to downstream; the middle surface being substantially parallel to said aerodynamic reference surface; and the downstream surface extending downstream at least as far as the trailing edges of the blades; the compressor being characterized in that: the upstream surface extends upstream from the leading edges of the blades; and the junction between the middle and downstream surfaces is situated in the range 30% to 80% and preferably in the range 50% to 65% of the axial length of the blades starting from the leading edge. the upstream surface extends upstream from the leading edges of the blades; and the junction between the middle and downstream surfaces is situated in the range 30% to 80% and preferably in the range 50% to 65% of the axial length of the blades starting from the leading edge.
Pressure modulator for an anti-lock braking system, comprising a casing having a hydraulic input and a hydraulic output connected thereto via a hydraulic line, wherein a volume accumulator designed to be opened against the spring force of a spring element is provided, said volume accumulator increasing the volume of the hydraulic line when an anti-lock function is activated, wherein a linear drive comprising a rotor bar is provided and displacement of the rotor bar effects opening of the volume accumulator, wherein the spring element is supported at least indirectly on the casing and the rotor bar and wherein the spring element is arranged in the rotor bar, characterised by a control piston rigidly connected to the casing and projecting into the rotor bar, the spring element being supported on said control piston.
A unitary dispensing nozzle for co-injecting two or more liquids, comprising: (a) a first end; (b) a second, opposite end; (c) one or more sidewalls between said first and second ends; (d) one or more first flow passages for flowing a first fluid through said nozzle, wherein each of said first flow passages is defined by a first inlet and a first outlet, wherein said first inlet(s) is/are located at the first end of said nozzle, and wherein said first outlet(s) is/are located at the second end of said nozzle; and (e) one or more second flow passages for flowing a second fluid through said nozzle, where said second fluid is different from said first fluid in viscosity, solubility, and/or miscibility, wherein each of said second flow passages is defined by a second inlet and a second outlet, wherein said second outlet(s) is/are substantially surrounded by said first outlet(s) and located at the second end of said nozzle wherein said unitary dispensing nozzle is an integral piece free of any movable parts and substantially free of dead space, characterized in that said second inlet(s) is/are located on or near at least one of said sidewalls so that said one or more second flow passages extend through said at least one of the sidewalls and the second end of said nozzle. (a) a first end; (b) a second, opposite end; (c) one or more sidewalls between said first and second ends; (d) one or more first flow passages for flowing a first fluid through said nozzle, wherein each of said first flow passages is defined by a first inlet and a first outlet, wherein said first inlet(s) is/are located at the first end of said nozzle, and wherein said first outlet(s) is/are located at the second end of said nozzle; and (e) one or more second flow passages for flowing a second fluid through said nozzle, where said second fluid is different from said first fluid in viscosity, solubility, and/or miscibility, wherein each of said second flow passages is defined by a second inlet and a second outlet, wherein said second outlet(s) is/are substantially surrounded by said first outlet(s) and located at the second end of said nozzle wherein said unitary dispensing nozzle is an integral piece free of any movable parts and substantially free of dead space, characterized in that said second inlet(s) is/are located on or near at least one of said sidewalls so that said one or more second flow passages extend through said at least one of the sidewalls and the second end of said nozzle.