mhurhangee/ep-ind-claims huggingface dataset:
Control method for a device for providing compressed air pulses for an ophthalmological instrument, wherein a pressure system is acted on with pressure by means of a compressed air generator and wherein a valve of the pressure system is activated by a control device by means of a control signal in order to produce the compressed air pulses, wherein using a pressure sensor the applied system pressure is measured and wherein at least for the production of compressed air pulse rates of a specific value range the control signal is produced by the control device taking into account the measurement value of the system pressure, characterised in that, for small compressed air pulse rates of less than 500 compressed air pulses per minute, the control signal predetermines an opening time of the valve, in that, for mean compressed air pulse rates of 500 and 1500 compressed air pulses per minute, the control signal predetermines a fixed ratio between the opening time and the closing time of the valve, and in that, for high compressed air pulse rates of more than 1500 compressed air pulses per minute, the control signal 6 is determined by the control device in accordance with the measurement value of the system pressure.
A panel light, comprising a light cover, a light body and a light-emitting assembly, wherein the light-emitting assembly comprises a light guide plate, a reflective film, a light strip and a lamp connector; the light cover and the light body enclose and form a receiving cavity, the lamp connector is arranged in the receiving cavity, and the light strip is connected to the lamp connector; the reflective film abuts against the inner bottom surface of the light body, the light guide plate has a connecting side surface abutting against the reflective film and a light-emitting surface facing away from the connecting side surface; a circumferential side surface of the light guide plate is provided with the light strip; the cover comprising a bottom wall and a flange surrounding the bottom wall, wherein the light cover further comprises an optical bulge arranged on the bottom wall, the optical bulge being arranged on a side surface of the bottom wall facing a light source, and the optical bulge abutting against the light-emitting assembly of the panel light, and the light cover further has a cavity for receiving the light reflected by the optical bulge, the cavity being arranged between the optical bulge and the flange and wherein the optical bulge, the flange, the bottom wall and the lamp connector enclose and form the cavity.
A toner cartridge, comprising: a hollow body including an inner space in which toner is received and a toner discharge portion through which the toner is discharged; a plunger, accommodated in the inner space, movable from a first position to a second position along the inner space to push the toner through the toner discharge portion; characterized by a first hook provided on the body; and a second hook, provided on the plunger and having a shape complementary to a shape of the first hook, to be elastically coupled to the first hook when the plunger is at the second position. a hollow body including an inner space in which toner is received and a toner discharge portion through which the toner is discharged; a plunger, accommodated in the inner space, movable from a first position to a second position along the inner space to push the toner through the toner discharge portion; characterized by a first hook provided on the body; and a second hook, provided on the plunger and having a shape complementary to a shape of the first hook, to be elastically coupled to the first hook when the plunger is at the second position.
A control method for a hybrid vehicle, the hybrid vehicle comprising an engine, a driving motor, an electric generator, and a power battery, the engine being configured to selectively output power to a wheel end, the driving motor being configured to output power to the wheel end, the electric generator being connected to the engine and driven by the engine to generate electricity, the power battery being configured to supply electricity to the driving motor and be charged with an alternating current outputted by the electric generator or the driving motor, and the capacity of the power battery being greater than or equal to a first preset capacity, the control method comprising: acquiring a traveling parameter of the hybrid vehicle; controlling the engine, the driving motor and the electric generator according to the traveling parameter, to enable the engine to operate in an economic zone by charging and discharging control of the power battery; characterized by comparing the equivalent fuel consumptions when the hybrid vehicle is in a series mode, a parallel mode, and an EV mode, to select an operation mode of minimum equivalent fuel consumption as a current operation mode of the hybrid vehicle; wherein when the engine operates in the economic zone, the engine is controlled to operate on an optimum economic line if SOC of the power battery is greater than or equal to a first preset value, or the engine is controlled to operate on the optimum economic line if SOC of the power battery is less than the first preset value and the output power of the engine is greater than or equal to a required wheel power, wherein the first preset value inversely correlates with the first preset capacity. acquiring a traveling parameter of the hybrid vehicle; controlling the engine, the driving motor and the electric generator according to the traveling parameter, to enable the engine to operate in an economic zone by charging and discharging control of the power battery; characterized by comparing the equivalent fuel consumptions when the hybrid vehicle is in a series mode, a parallel mode, and an EV mode, to select an operation mode of minimum equivalent fuel consumption as a current operation mode of the hybrid vehicle; wherein when the engine operates in the economic zone, the engine is controlled to operate on an optimum economic line if SOC of the power battery is greater than or equal to a first preset value, or the engine is controlled to operate on the optimum economic line if SOC of the power battery is less than the first preset value and the output power of the engine is greater than or equal to a required wheel power, wherein the first preset value inversely correlates with the first preset capacity.
A water supply apparatus for supplying a machine tool with water, comprising - a water pump; - a storage device for storing water; - an intake line for guiding water from the storage device to the water pump; - a supply line for guiding water from the water pump to the machine tool; and - a valve device which is reversibly settable at least to a first position and a second position, wherein the water pump is positioned at a higher location than the valve device and a first connecting line for guiding water from the intake line to the valve device, a second connecting line for guiding water from the supply line to the valve device as well as a return line for guiding water from the valve device to the water reservoir are provided, and wherein, in the first position, the first connecting line, the second connecting line as well as the return line are connected to one another in such a way that water from the water pump, from the first connecting line, from the second connecting line, from at least a portion of the intake line and from at least a portion of the supply line can be conveyed into the return line and wherein, in the second position, the first connecting line, the second connecting line as well as the return line are not connected to one another, wherein the valve device is designed as a self-resetting 3/2-way valve. - a water pump; - a storage device for storing water; - an intake line for guiding water from the storage device to the water pump; - a supply line for guiding water from the water pump to the machine tool; and - a valve device which is reversibly settable at least to a first position and a second position,
A retractor for supporting or moving at least a portion of an internal organ of a patient, the retractor comprising: a retractor body comprising a first linkage member and a second linkage member coupled to the first linkage member; wherein the first linkage member comprises a first end configured to engage the internal organ and a second end, wherein the second linkage member comprises a first end and a second end, wherein the retractor body has a low-profile configuration and an expansive configuration for engaging at least a portion of the internal organ; wherein in response to an applied magnetic force, the retractor body is configured to exert a force on at least a portion of the internal organ, characterised by at least a first magnetic portion having a first polarity and a second magnetic portion having a second polarity opposite the first polarity, wherein the first magnetic portion is disposed on the second end of the first linkage member, and wherein the second magnetic portion is disposed on the first end of the second linkage member; a third magnetic portion disposed on the second end of the second linkage member, wherein the third magnetic portion has the second polarity opposite the first polarity. a retractor body comprising a first linkage member and a second linkage member coupled to the first linkage member; wherein the first linkage member comprises a first end configured to engage the internal organ and a second end, wherein the second linkage member comprises a first end and a second end, wherein the retractor body has a low-profile configuration and an expansive configuration for engaging at least a portion of the internal organ; wherein in response to an applied magnetic force, the retractor body is configured to exert a force on at least a portion of the internal organ, characterised by at least a first magnetic portion having a first polarity and a second magnetic portion having a second polarity opposite the first polarity, wherein the first magnetic portion is disposed on the second end of the first linkage member, and wherein the second magnetic portion is disposed on the first end of the second linkage member; a third magnetic portion disposed on the second end of the second linkage member, wherein the third magnetic portion has the second polarity opposite the first polarity.
A process for coating chocolate cores comprising the steps of: a) providing at least one chocolate core to be coated, b) applying to the at least one chocolate core a first liquid medium comprising a whitening agent, so as to obtain at least one layer of a pre-coating, wherein the first liquid medium comprises 0.1 to 30% by weight of the whitening agent, based on the total dry solids of the pre-coating, wherein the whitening agent is TiO 2, c) solidifying the at least one layer of the pre-coating, so as to obtain at least one pre-coated chocolate core, and d) applying to the at least one pre-coated chocolate core a second liquid medium comprising isomaltulose and a binding agent coating 2, so as to obtain at least one layer of a second coating, wherein the second liquid medium is free of TiO 2, wherein the total coating comprising the first and the second coating comprises 10 to 40 % by weight of the first coating and 60 to 90 % by weight of the second coating, each based on the dry weight of the total coating, wherein the first and/or the second liquid medium is applied to the cores by spraying, wherein the spraying pressure is from 10 to 100 bar, and wherein optionally the steps b) and c) are repeated at least 2 times as to build up more than one layer of the pre-coating. a) providing at least one chocolate core to be coated, b) applying to the at least one chocolate core a first liquid medium comprising a whitening agent, so as to obtain at least one layer of a pre-coating, wherein the first liquid medium comprises 0.1 to 30% by weight of the whitening agent, based on the total dry solids of the pre-coating, wherein the whitening agent is TiO 2, c) solidifying the at least one layer of the pre-coating, so as to obtain at least one pre-coated chocolate core, and d) applying to the at least one pre-coated chocolate core a second liquid medium comprising isomaltulose and a binding agent coating 2, so as to obtain at least one layer of a second coating, wherein the second liquid medium is free of TiO 2,
A cerebral spinal fluid shunt plug (410, 710), comprising: a shunt plug housing (418, 718) including an upper surface (432, 732), a lower surface, continuous side walls extending between the upper surface (432, 732) and the lower surface, as well as about the periphery of the shunt plug housing, a shunt valve recess (438, 738) being formed in the upper surface (432, 732) of the shunt plug housing (418, 718) and either an intracranial monitoring recess with an access hole or a window recess with a central access hole being formed in the upper surface (432, 732) of the shunt plug housing (418, 718), the shunt plug housing (418, 718) further including passageways allowing the shunt valve recess (438, 738) to communicate with an exterior of the shunt plug housing, the access holes (484, 784) or passageways being shaped and dimensioned to allow for connection of a ventricular catheter and a peritoneal catheter with the shunt valve housed within the recess (438, 738) of the shunt plug housing (418, 718), the housing (418, 718) being shaped and dimensioned for positioning within a physician formed cranial hole in a manner allowing the upper surface (432, 732) of the housing (418, 718) to be substantially flush with an outer surface of a skull and a projection (434p, 734p) along the lower surface being positioned within the cranial hole; and a window or an intracranial monitoring device shaped and dimensioned for respectively positioning within either the window recess or the intracranial monitoring recess of the shunt plug housing (418, 718). a shunt plug housing (418, 718) including an upper surface (432, 732), a lower surface, continuous side walls extending between the upper surface (432, 732) and the lower surface, as well as about the periphery of the shunt plug housing, a shunt valve recess (438, 738) being formed in the upper surface (432, 732) of the shunt plug housing (418, 718) and either an intracranial monitoring recess with an access hole or a window recess with a central access hole being formed in the upper surface (432, 732) of the shunt plug housing (418, 718), the shunt plug housing (418, 718) further including passageways allowing the shunt valve recess (438, 738) to communicate with an exterior of the shunt plug housing, the access holes (484, 784) or passageways being shaped and dimensioned to allow for connection of a ventricular catheter and a peritoneal catheter with the shunt valve housed within the recess (438, 738) of the shunt plug housing (418, 718), the housing (418, 718) being shaped and dimensioned for positioning within a physician formed cranial hole in a manner allowing the upper surface (432, 732) of the housing (418, 718) to be substantially flush with an outer surface of a skull and a projection (434p, 734p) along the lower surface being positioned within the cranial hole; and a window or an intracranial monitoring device shaped and dimensioned for respectively positioning within either the window recess or the intracranial monitoring recess of the shunt plug housing (418, 718).
A powered lawn dethatcher (100, 200, 300, 400), comprising: a dethatching mechanism (106, 206, 306, 406) adapted to dethatch lawn; a driving mechanism (108, 208, 308, 408) adapted to drive the dethatching mechanism (106, 206, 306, 406), the driving mechanism (108, 208, 308, 408) comprises a motor operably connected with the dethatching mechanism; and a collection mechanism (112, 212, 312A, 312B, 412) arranged to collect at least some dust and debris agitated by the dethatching mechanism (106, 206, 306, 406) during operation, characterized in that the collection mechanism (112, 212, 312A, 312B, 412) comprises: an inlet (1121, 2121, 4121) through which dust and debris may pass; an outlet through which air may pass; a motor-and-fan assembly for generating suction for collecting the dust and debris; and a collector arranged to store the collected the dust and debris. a dethatching mechanism (106, 206, 306, 406) adapted to dethatch lawn; a driving mechanism (108, 208, 308, 408) adapted to drive the dethatching mechanism (106, 206, 306, 406), the driving mechanism (108, 208, 308, 408) comprises a motor operably connected with the dethatching mechanism; and a collection mechanism (112, 212, 312A, 312B, 412) arranged to collect at least some dust and debris agitated by the dethatching mechanism (106, 206, 306, 406) during operation, characterized in that the collection mechanism (112, 212, 312A, 312B, 412) comprises: an inlet (1121, 2121, 4121) through which dust and debris may pass; an outlet through which air may pass; a motor-and-fan assembly for generating suction for collecting the dust and debris; and a collector arranged to store the collected the dust and debris. an inlet (1121, 2121, 4121) through which dust and debris may pass; an outlet through which air may pass; a motor-and-fan assembly for generating suction for collecting the dust and debris; and a collector arranged to store the collected the dust and debris.
A device for a vacuum cleaner filter bag, comprising: a holding device with a through opening; and a closing device formed separately from the holding device for closing the through opening of the holding device; wherein the closing device comprises a closing flap and an elastic element made of a cross-linked silicone elastomer, and wherein the elastic element is biased in a state in which the closing flap closes the through opening of the holding device. a holding device with a through opening; and a closing device formed separately from the holding device for closing the through opening of the holding device; wherein the closing device comprises a closing flap and an elastic element made of a cross-linked silicone elastomer, and wherein the elastic element is biased in a state in which the closing flap closes the through opening of the holding device.
A cutting tool comprising: a first blade; a second blade pivotally coupled to the first blade, wherein the first blade and the second blade together perform a cutting action on an object placed therebetween; a top handle and a bottom handle which are operatively coupled with the second blade and the first blade respectively; a drive unit operatively coupled to at least one of the first blade and the second blade, wherein the drive unit is configured to selectively provide a supplemental motor force to assist a movement of at least one of the first blade and the second blade to perform the cutting action; and a rope operatively coupled to the drive unit, wherein the rope provides force for a movement of the first blade; an adapter operatively coupling the first blade with the rope; wherein the first blade is releasably coupled to the second blade and wherein the first blade is releasably coupled to a handle and wherein the first blade is releasably coupled to the adapter. a first blade; a second blade pivotally coupled to the first blade, wherein the first blade and the second blade together perform a cutting action on an object placed therebetween; a top handle and a bottom handle which are operatively coupled with the second blade and the first blade respectively; a drive unit operatively coupled to at least one of the first blade and the second blade, wherein the drive unit is configured to selectively provide a supplemental motor force to assist a movement of at least one of the first blade and the second blade to perform the cutting action; and a rope operatively coupled to the drive unit, wherein the rope provides force for a movement of the first blade; an adapter operatively coupling the first blade with the rope; wherein the first blade is releasably coupled to the second blade and wherein the first blade is releasably coupled to a handle and wherein the first blade is releasably coupled to the adapter.
A method of evaluating a tire ground contact property, the method comprising: preparing a variety of flat plates modeling various actual road surfaces, each flat plate having a predetermined unevenness on at least one surface of the flat plate; selecting, for each flat plate, a wavelength of a terahertz wave that is greater than a roughness average length (Rsm) in at least a portion of the at least one surface of the flat plate and/or greater than a roughness average height (Ra) in at least a portion of the at least one surface of the flat plate, the terahertz wave having a frequency of 0.1 THz to 10 THz, mounting the tire on one surface of one of the flat plates; placing a predetermined load on the tire or placing the tire in a no-load state; irradiating the tire with the terahertz wave having the wavelength selected for that flat plate from another surface side of the flat plate or from inside the flat plate; detecting the reflected terahertz wave from the tire; and evaluating a ground contact property of the tire on the basis of a detection result. preparing a variety of flat plates modeling various actual road surfaces, each flat plate having a predetermined unevenness on at least one surface of the flat plate; selecting, for each flat plate, a wavelength of a terahertz wave that is greater than a roughness average length (Rsm) in at least a portion of the at least one surface of the flat plate and/or greater than a roughness average height (Ra) in at least a portion of the at least one surface of the flat plate, the terahertz wave having a frequency of 0.1 THz to 10 THz, mounting the tire on one surface of one of the flat plates; placing a predetermined load on the tire or placing the tire in a no-load state; irradiating the tire with the terahertz wave having the wavelength selected for that flat plate from another surface side of the flat plate or from inside the flat plate; detecting the reflected terahertz wave from the tire; and evaluating a ground contact property of the tire on the basis of a detection result.
An aqueous pharmaceutical composition comprising an aqueous solution of pirfenidone adapted for nebulized inhalation administration by a liquid nebulization device to the lungs of a human, for use in the prevention, management or treatment of interstitial lung disease by inhalation on a continuous dosing schedule, wherein each inhaled dose is less than 1/8 of 801 mg of an orally administered dosage of pirfenidone wherein the blood AUC 0-24 of pirfenidone from each inhaled dose is less than the blood AUC 0-24 of 801 mg of an orally administered dosage of pirfenidone. for use in the prevention, management or treatment of interstitial lung disease by inhalation on a continuous dosing schedule, wherein each inhaled dose is less than 1/8 of 801 mg of an orally administered dosage of pirfenidone wherein the blood AUC 0-24 of pirfenidone from each inhaled dose is less than the blood AUC 0-24 of 801 mg of an orally administered dosage of pirfenidone.
A composition comprising: A. 10-99 wt% Ethylene-based polymer; B. 0.1-1 wt% Polyalkylene glycol; C. 0.1-1 wt% Tertiary hindered amine stabilizer; D. 0.1-1 wt% Sulphur-containing hindered phenol antioxidant; E. 0.1-3 wt% Peroxide; and F. 0-1 wt% Coagent; in which the tertiary hindered amine stabilizer is Chimassorb 119 FL. A. 10-99 wt% Ethylene-based polymer; B. 0.1-1 wt% Polyalkylene glycol; C. 0.1-1 wt% Tertiary hindered amine stabilizer; D. 0.1-1 wt% Sulphur-containing hindered phenol antioxidant; E. 0.1-3 wt% Peroxide; and F. 0-1 wt% Coagent;