mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a vehicle drive train having an engine and a double clutch transmission, said transmission during braking downshift comprising two clutches (2A, 2B) one of which is transmitting engine braking torque being the active clutch whilst the other one constituting the incoming clutch associated with a lower gear, wherein there is a torque handover phase in which the overall engine braking torque transmitted by the active clutch and the incoming clutch is constant, followed by an engine synchronizing phase in which the engine speed is synchronized to the speed required by the lower gear, the incoming clutch transmitting, during the synchronizing phase, a torque which is higher than the overall engine braking torque, the vehicle being retarded by a braking moment of the engine after the engine synchronising phase is completed, characterized in that a motor control injects additional fuel for assisting engine speed synchronization during the synchronizing phase.
Piston pin assembly for an internal combustion piston engine, which piston pin assembly comprises a piston pin having at its first end (14.1) and its second end (14.2) a first and a second affixing area for attaching the piston pin to a piston and between the first and the second ends, at a center area (14.3) a third affixing area for attaching the piston pin assembly to a connecting rod, and in which piston pin assembly the first and the second ends having a common first central axis (14.4) and the center area having a second central axis (14.6) which axes are offset at a distance from each other by means of a rotatable eccentric sleeve arranged around the piston pin at the center area, which assembly comprises a mechanism which includes at least a first setting and a second setting, which first setting the mechanism locks the position of the second central axis in respect to the first central axis (14.4) and which second setting the mechanism actuates a change in the position of the second central (14.6) axis in respect to the first central axis when in use and can be assembled to a cranking or operating internal combustion piston engine, characterized in that the mechanism comprises a number of radially extending through-holes arranged at a longitudinal position to the sleeve, a pin arranged into each of the through-hole, the pins having a length which is more than the radial thickness of the eccentric sleeve at the location of the pin, and a cavity at the longitudinal position in the piston pin, the cavity having a diameter allowing anyone of the pins to enter the cavity and having a depth of a predetermined coupling length.
An antitumor composition based on a C 6 -C 18 -acylated derivative of hyaluronic acid according to the general formula where R is H + or Na +, and where R 1 is H or -C(=O)C x H y or -C(=O)CH=CH-het, where x is an integer within the range of 5-17 and y is an integer within the range of 11-35 and C x H y is a linear or branched, saturated or unsaturated C 5 -C 17 chain and het is a heterocyclic or heteroaromatic residue, optionally containing N, S or O atoms, wherein at least in one repeating unit one or more R 1 is -C(=O)C x H y or -C(=O)CH=CH-het, and where n is within the range of 12 to 4000, characterized by that it further contains inorganic nanoparticles with the stabilizing oleic acid, wherein the inorganic nanoparticles are selected from the group consisting of superparamagnetic nanoparticles, upconversion nanoparticles or zinc oxide nanoparticles, especially superparamagnetic nanoparticles.
A polyester resin composition comprising: a polylactic acid; a poly(3-hydroxyalkanoate); pentaerythritol; and a silicate, wherein: an amount of the polylactic acid is not less than 55 parts by weight and not more than 75 parts by weight, and an amount of the poly(3-hydroxyalkanoate) is not less than 25 parts by weight and not more than 45 parts by weight, with respect to 100 parts by weight of a total amount of the polylactic acid and the poly(3-hydroxyalkanoate); an amount of the pentaerythritol is not less than 0.05 parts by weight and not more than 20 parts by weight with respect to 100 parts by weight of the total amount of the polylactic acid and the poly(3-hydroxyalkanoate); and an amount of the silicate is not less than 10 parts by weight and not more than 40 parts by weight with respect to 100 parts by weight of the total amount of the polylactic acid and the poly(3-hydroxyalkanoate). a polylactic acid; a poly(3-hydroxyalkanoate); pentaerythritol; and a silicate, wherein: an amount of the polylactic acid is not less than 55 parts by weight and not more than 75 parts by weight, and an amount of the poly(3-hydroxyalkanoate) is not less than 25 parts by weight and not more than 45 parts by weight, with respect to 100 parts by weight of a total amount of the polylactic acid and the poly(3-hydroxyalkanoate); an amount of the pentaerythritol is not less than 0.05 parts by weight and not more than 20 parts by weight with respect to 100 parts by weight of the total amount of the polylactic acid and the poly(3-hydroxyalkanoate); and an amount of the silicate is not less than 10 parts by weight and not more than 40 parts by weight with respect to 100 parts by weight of the total amount of the polylactic acid and the poly(3-hydroxyalkanoate). an amount of the polylactic acid is not less than 55 parts by weight and not more than 75 parts by weight, and an amount of the poly(3-hydroxyalkanoate) is not less than 25 parts by weight and not more than 45 parts by weight, with respect to 100 parts by weight of a total amount of the polylactic acid and the poly(3-hydroxyalkanoate); an amount of the pentaerythritol is not less than 0.05 parts by weight and not more than 20 parts by weight with respect to 100 parts by weight of the total amount of the polylactic acid and the poly(3-hydroxyalkanoate); and an amount of the silicate is not less than 10 parts by weight and not more than 40 parts by weight with respect to 100 parts by weight of the total amount of the polylactic acid and the poly(3-hydroxyalkanoate).
A fluidized bed boiler of the circulating type, comprising - a furnace, in which a fluidized bed comprising a mixture of solid bed material and gas is configured to form, - a particle separator configured to separate from the mixture a solid bed material fraction and a flue gas fraction, - a primary first channel configured to convey the mixture from the furnace to the particle separator, - a first heat exchanger comprising a heat exchanger tube configured to recover heat from at least a part of the bed material fraction and arranged upstream from the furnace, - a primary second channel configured to convey at least the part of the bed material fraction from the particle separator to the first heat exchanger, and - a primary third channel configured to convey at least a part of the bed material fraction from the first heat exchanger to the furnace, - means for feeding a sulphur-containing reagent to the bed material fraction upstream from the heat exchanger tube, characterized by - a sulphur removal unit, - a channel configured to convey the flue gas fraction to the sulphur removal unit, - a second heat exchanger (410, 420) configured to recover heat from the flue gas fraction, the second heat exchanger (410, 420) being arranged downstream from the particle separator and upstream from the sulphur removal unit in the direction of flow of the flue gas fraction, and - a pipeline configured to convey heat exchange medium from the second heat exchanger (410, 420) to the first heat exchanger. - a furnace, in which a fluidized bed comprising a mixture of solid bed material and gas is configured to form, - a particle separator configured to separate from the mixture a solid bed material fraction and a flue gas fraction, - a primary first channel configured to convey the mixture from the furnace to the particle separator, - a first heat exchanger comprising a heat exchanger tube configured to recover heat from at least a part of the bed material fraction and arranged upstream from the furnace, - a primary second channel configured to convey at least the part of the bed material fraction from the particle separator to the first heat exchanger, and - a primary third channel configured to convey at least a part of the bed material fraction from the first heat exchanger to the furnace, - means for feeding a sulphur-containing reagent to the bed material fraction upstream from the heat exchanger tube, - a sulphur removal unit, - a channel configured to convey the flue gas fraction to the sulphur removal unit, - a second heat exchanger (410, 420) configured to recover heat from the flue gas fraction, the second heat exchanger (410, 420) being arranged downstream from the particle separator and upstream from the sulphur removal unit in the direction of flow of the flue gas fraction, and - a pipeline configured to convey heat exchange medium from the second heat exchanger (410, 420) to the first heat exchanger.
Laundry care appliance with a pump for pumping washing liquid, wherein the pump comprises a suction chamber, which has a suction nozzle for fluidically connecting to a suction line, wherein the pump comprises a repumping pressure chamber, which has a repumping pressure nozzle for fluidically connecting to a repumping pressure line, wherein the repumping pressure chamber is fluidically connected to the suction chamber by way of a repumping suction connection, wherein the pump comprises a pumping-out pressure chamber, which has a pumping-out pressure nozzle for fluidically connecting to a pumping-out pressure line, wherein the pumping-out pressure chamber is connected to the suction chamber by way of a pumping-out suction connection, wherein the pump has a first pump motor for pumping the washing liquid out of the pumping-out pressure chamber and a second pump motor for pumping the washing liquid out of the repumping pressure chamber, and a pump controller for controlling the first and second pump motor (135, 139), wherein the repumping suction connection and the pumping-out suction connection are coupled in the suction chamber in terms of flow, and the pump comprises a filter element for filtering out impurities from the washing liquid, wherein the filter element is arranged in the suction chamber, wherein the pump controller is embodied to activate one of the two pump motors (135, 139) in an activation time period, in order to pump washing liquid out of the suction chamber, through the filter element and through one of the suction connections (119, 129), into one of the pressure chambers (111, 115), and wherein the activated pump motor (135, 139) is embodied to draw in washing liquid from the other suction connection (119, 129) during the activation time period, in order to pump impurities which have accumulated at the other suction connection (119, 129) through the filter element and through the one suction connection (119, 129) into the one pressure chamber (111, 115), characterised in that the repumping suction connection comprises a repumping pressure chamber opening, which fluidically connects the suction chamber and the repumping pressure chamber, wherein the pumping-out suction connection comprises a pumping-out suction pipe with a pumping-out suction pipe inlet and a pumping-out suction pipe outlet, wherein at least one pumping-out suction pipe opening is arranged between the pumping-out suction pipe inlet and the pumping-out suction pipe outlet, wherein the at least one pumping-out suction pipe opening is coupled to the repumping pressure chamber opening in terms of flow.
A subsurface electromagnetic measuring system comprising: a transmitting member; a magnet; and a receiving member, wherein the transmitting member is arranged to induce transient currents in a subsurface geological formation; wherein the magnet is formed from an electrically non-conductive material and wherein the magnet is arranged to be in magnetic communication with said transmitting member and the subsurface geological formation; and wherein the receiving member is arranged to generate a return signal in response to a termination of current supply to said transmitting member after a steady state magnetic field has been established in the subsurface geological formation, wherein diffusion of the transient currents is affected by said magnet, and wherein the return signal is used to determine characteristics of the subsurface geological formation. a transmitting member; a magnet; and a receiving member, wherein the transmitting member is arranged to induce transient currents in a subsurface geological formation; wherein the magnet is formed from an electrically non-conductive material and wherein the magnet is arranged to be in magnetic communication with said transmitting member and the subsurface geological formation; and wherein the receiving member is arranged to generate a return signal in response to a termination of current supply to said transmitting member after a steady state magnetic field has been established in the subsurface geological formation, wherein diffusion of the transient currents is affected by said magnet, and wherein the return signal is used to determine characteristics of the subsurface geological formation. wherein the transmitting member is arranged to induce transient currents in a subsurface geological formation; wherein the magnet is formed from an electrically non-conductive material and wherein the magnet is arranged to be in magnetic communication with said transmitting member and the subsurface geological formation; and wherein the receiving member is arranged to generate a return signal in response to a termination of current supply to said transmitting member after a steady state magnetic field has been established in the subsurface geological formation, wherein diffusion of the transient currents is affected by said magnet, and wherein the return signal is used to determine characteristics of the subsurface geological formation.
A patient interface for providing breathable gas to a person comprising a face engaging cushion, the cushion comprising an internal cavity that is adapted to contain fluid and a control means being capable of communicating with the fluid for inciting a raise in temperature of the fluid, characterised in that fluid path, along which the heated fluid is supplied to the cushion, extends along a breathing tube providing breathable gas to the patient interface.
An adjustment device for adjusting shutoff elements of an air inlet of a motor compartment of a motor vehicle between at least a first position in which the air inlet is substantially closed and a second position in which the air inlet is substantially open, wherein the adjustment device is provided with a drive unit comprising drive elements (2a, 2b, 2c), characterized in that the adjustment device is furthermore provided with a condition determining unit for determining a motion condition of at least one of the drive elements (2a, 2b, 2c), wherein the motion condition of the drive element (2a, 2b, 2c), which is either a reduction element of a drive train of the drive unit, or an output shaft of an electric motor of the drive unit or an output shaft of the drive unit, comprises at least one of a position, a motion velocity, a motion acceleration and/or a motion direction of the drive element (2a, 2b, 2c).
Method for continuous production of stably dispersible, magnetic, single-core nanoparticles which do not aggregate in aqueous media, comprise iron oxide and have a diameter between 20 and 200 nm, comprising the steps a) preparing an aqueous solution comprising at least one base and at least one oxidant; b) preparing an aqueous solution comprising at least one iron salt, preferably at least one Fe salt, particularly preferably at least one Fe salt and an iron salt which is different from an Fe(ll) salt in a lower concentration than the Fe(ll) salt; c) preparing an aqueous solution comprising at least one hydrophilic stabiliser, wherein the hydrophilic stabiliser comprises or consists of a substance selected from the group consisting of glycosidic flavonoids, phenols, phosphoric acid derivatives, triphosphate, polymers with more than 3 histidine residues, hydrophilic polymers and carboxylic acid or carboxylic anhydride; d) mixing the aqueous solution of a) and b) to form a mixture in a micromixer, wherein Fe 2 is formed which precipitates out of the solution and oxidises to form magnetic single-core nanoparticles; e) mixing of the mixture from d) with the aqueous solution from c), wherein the at least one stabiliser binds to the iron oxide. characterized in that, in a) to e), it is tempered to a temperature of 10°C to 200°C, wherein, in step e), stably dispersible, magnetic, single-core nanoparticles are formed which do not aggregate in aqueous media, comprise iron oxide and the stabiliser and have a diameter between 20 and 200 nm. a) preparing an aqueous solution comprising at least one base and at least one oxidant; b) preparing an aqueous solution comprising at least one iron salt, preferably at least one Fe salt, particularly preferably at least one Fe salt and an iron salt which is different from an Fe(ll) salt in a lower concentration than the Fe(ll) salt; c) preparing an aqueous solution comprising at least one hydrophilic stabiliser, wherein the hydrophilic stabiliser comprises or consists of a substance selected from the group consisting of glycosidic flavonoids, phenols, phosphoric acid derivatives, triphosphate, polymers with more than 3 histidine residues, hydrophilic polymers and carboxylic acid or carboxylic anhydride; d) mixing the aqueous solution of a) and b) to form a mixture in a micromixer, wherein Fe 2 is formed which precipitates out of the solution and oxidises to form magnetic single-core nanoparticles; e) mixing of the mixture from d) with the aqueous solution from c), wherein the at least one stabiliser binds to the iron oxide.
A washing machine comprising: a cabinet; a tub placed within the cabinet; a drum rotatably placed within the tub; at least one electric device mounted to the drum and operable by electric power; a motor (40a,b,c) mounted to a rear wall of the tub to rotate the drum; and a drive shaft (430a,b,c) having one end connected to a rear plate of the drum and another end connected to the motor, wherein the drive shaft is configured to transmit rotational power of the motor to the drum characterized in that the drive shaft (430a, b, c) allows a conductor to extend to the at least one electric device, wherein the drive shaft (430a,b) is a hollow drive shaft comprising a hollow circular column to allow passage of an electric wire as the conductor or wherein the drive shaft is formed as a circular column and includes a longitudinal groove in a curved peripheral surface of the circular column to allow passage of an electric wire as the conductor along the groove, or wherein the drive shaft is formed as the conductor to transmit electricity. a cabinet; a tub placed within the cabinet; a drum rotatably placed within the tub; at least one electric device mounted to the drum and operable by electric power; a motor (40a,b,c) mounted to a rear wall of the tub to rotate the drum; and a drive shaft (430a,b,c) having one end connected to a rear plate of the drum and another end connected to the motor, wherein the drive shaft is configured to transmit rotational power of the motor to the drum characterized in that the drive shaft (430a, b, c) allows a conductor to extend to the at least one electric device, wherein the drive shaft (430a,b) is a hollow drive shaft comprising a hollow circular column to allow passage of an electric wire as the conductor or wherein the drive shaft is formed as a circular column and includes a longitudinal groove in a curved peripheral surface of the circular column to allow passage of an electric wire as the conductor along the groove, or wherein the drive shaft is formed as the conductor to transmit electricity.
Device for determining the position of a movable camera or of a cover or of an emblem of a motor vehicle, which can be set in motion between a working position and a rest position by means of a drive, having a detection element, in particular only one, for determining the working position and/or the rest position of the movable component, and an actuating element, in particular only one, for acting on the detection element, the device being designed such that the movement of the movable component can be transmitted to the detection element via the actuating element, is characterized in that the detection element and/or the actuating element are/is designed for determining the working position and the rest position of the movable component.
A cooking safety device (20A, 20B), comprising: a thermal sensor that detects infrared radiation to generate thermal images of a cooktop over time, wherein a field of view of the thermal sensor is positioned such that individuals located near a front of the cooktop mask one or more heating elements of the cooktop from the field of view of the thermal sensor; and a controller that uses the thermal images over time to determine whether IR energy emitted by the cooktop is blocked or not blocked by an individual in the thermal images over time, and in response to determine whether the cooktop is unattended, based on changes in the thermal images over time. a thermal sensor that detects infrared radiation to generate thermal images of a cooktop over time, wherein a field of view of the thermal sensor is positioned such that individuals located near a front of the cooktop mask one or more heating elements of the cooktop from the field of view of the thermal sensor; and a controller that uses the thermal images over time to determine whether IR energy emitted by the cooktop is blocked or not blocked by an individual in the thermal images over time, and in response to determine whether the cooktop is unattended, based on changes in the thermal images over time.
An aerial vehicle harpoon device for securing an aerial vehicle (31, 55) to a grid of a landing site, the aerial vehicle (31, 55) comprises a landing leg (3, 33) having a supporting surface for supporting the aerial vehicle (31, 55) when being in contact with the ground, the harpoon device further comprises a securing element arranged adjacent the supporting surface for said securing of the aerial vehicle, whereby the harpoon device further comprises a resilient actuating device which is adapted to extend the securing element beyond the supporting surface of the landing leg (3, 33) in an unloaded state, when the aerial vehicle has landed and the harpoon device is engaged to the grid, and which resilient actuating device in a loaded state is compressed by the weight of the aerial vehicle (31, 55) when contacting the ground so that the securing element automatically retracts into the landing leg (3, 33) and the supporting surface contacts the ground.