mhurhangee/ep-ind-claims huggingface dataset:
Printhead for a 3D printer, comprising an actuating device which is arranged in a housing of the printhead and is intended for activating a piston, a feeder for a printable material, a flange which is arranged on the housing and the feeder and has a cooling device, a nozzle head which has heating elements (61, 63) for making the material transition from a solid phase to a liquid phase, and a nozzle for dispensing the liquid phase of the material from the nozzle head, wherein the solid phase of the material comprises granules, characterized in that the feeder has a blowing device for dislodging the granules from one another. an actuating device which is arranged in a housing of the printhead and is intended for activating a piston, a feeder for a printable material, a flange which is arranged on the housing and the feeder and has a cooling device, a nozzle head which has heating elements (61, 63) for making the material transition from a solid phase to a liquid phase, and a nozzle for dispensing the liquid phase of the material from the nozzle head, wherein the solid phase of the material comprises granules, characterized in that the feeder has a blowing device for dislodging the granules from one another.
A clamp assembly (230; 400), comprising: a clamping band; and a retaining assembly comprising: a bracket assembly (250; 310) having a first bracket end and a second bracket end, the first bracket end being configured to mount to a clamping band, wherein the bracket assembly (250; 310) comprises a first L-bracket having a first hinge aperture and a second L-bracket having a second hinge aperture; and a retention component having a clevis (244; 325) coupled to the second bracket end, wherein the retention component comprises a spring loaded clip, wherein a first clamping arm of the clamping band is coupled to the first L-bracket and configured to pivot about a first hinge and a second clamping arm of the clamping band is coupled to the second L-bracket and configured to pivot about a second hinge, and wherein the clamping band is configured to join a first tube end of a first tube to a second tube end of a second tube. a clamping band; and a retaining assembly comprising: a bracket assembly (250; 310) having a first bracket end and a second bracket end, the first bracket end being configured to mount to a clamping band, wherein the bracket assembly (250; 310) comprises a first L-bracket having a first hinge aperture and a second L-bracket having a second hinge aperture; and a retention component having a clevis (244; 325) coupled to the second bracket end, wherein the retention component comprises a spring loaded clip, wherein a first clamping arm of the clamping band is coupled to the first L-bracket and configured to pivot about a first hinge and a second clamping arm of the clamping band is coupled to the second L-bracket and configured to pivot about a second hinge, and wherein the clamping band is configured to join a first tube end of a first tube to a second tube end of a second tube. a bracket assembly (250; 310) having a first bracket end and a second bracket end, the first bracket end being configured to mount to a clamping band, wherein the bracket assembly (250; 310) comprises a first L-bracket having a first hinge aperture and a second L-bracket having a second hinge aperture; and a retention component having a clevis (244; 325) coupled to the second bracket end, wherein the retention component comprises a spring loaded clip, wherein a first clamping arm of the clamping band is coupled to the first L-bracket and configured to pivot about a first hinge and a second clamping arm of the clamping band is coupled to the second L-bracket and configured to pivot about a second hinge, and wherein the clamping band is configured to join a first tube end of a first tube to a second tube end of a second tube.
A portable appliance wherein the portable appliance is a brake bleeder or a clutch bleeder and wherein the portable appliance comprises: a body for supporting the portable appliance wherein the body has at least one support wheel (6a, 6b) for movably supporting the portable appliance on a surface; a handle for manipulation of the portable appliance; a pump with an inlet and an outlet; a fluid reservoir fluidly coupled to the inlet of the pump; a removable filler cap for replenishing the fluid reservoir with new fluid; and an electric motor for operating the pump to cause pumping of fluid from the inlet to the outlet when the motor is energized by an electrical power supply, wherein the fluid reservoir is integral with the body and characterised in that the filler cap and the majority of the capacity of the fluid reservoir are located below the middle of the integral body and fluid reservoir when the portable appliance is orientated in its normal condition of operation. a body for supporting the portable appliance wherein the body has at least one support wheel (6a, 6b) for movably supporting the portable appliance on a surface; a handle for manipulation of the portable appliance; a pump with an inlet and an outlet; a fluid reservoir fluidly coupled to the inlet of the pump; a removable filler cap for replenishing the fluid reservoir with new fluid; and an electric motor for operating the pump to cause pumping of fluid from the inlet to the outlet when the motor is energized by an electrical power supply, wherein the fluid reservoir is integral with the body and characterised in that the filler cap and the majority of the capacity of the fluid reservoir are located below the middle of the integral body and fluid reservoir when the portable appliance is orientated in its normal condition of operation.
Medical capsule including an electrical circuit and an internal power source for selectively supplying the electrical circuit with electrical energy, a switching element; a switch driver connected to the electrical circuit; at least one photosensitive element configured to output a driver control signal to the switch driver to initiate the supply of electrical energy to the electrical circuit, characterised by: a feedback control signal configured to be output by the electrical circuit to the switch driver, wherein the switch driver is configured to maintain the supply of electrical energy to the electrical circuit when the feedback control signal is present, even if the photosensitive element is not exposed to light and does not output the driver control signal. a switching element; a switch driver connected to the electrical circuit; at least one photosensitive element configured to output a driver control signal to the switch driver to initiate the supply of electrical energy to the electrical circuit, characterised by: a feedback control signal configured to be output by the electrical circuit to the switch driver, wherein the switch driver is configured to maintain the supply of electrical energy to the electrical circuit when the feedback control signal is present, even if the photosensitive element is not exposed to light and does not output the driver control signal.
Method for delaying a signal in the form of a light pulse, wherein in order to split the frequency components the signal is first exposed to a first element with chromatic dispersion, D akk, which causes the frequency components of the signal to shift temporally, the frequency components of the split signal undergo a phase modulation, and the signal which has been processed in this way is exposed to a second element with a corresponding chromatic dispersion with inverse prefix, -D akk, to compensate for the dispersion produced, the phase modulation is a temporally rising phase modulation, with which a linear phase response is applied to a signal which has been split temporally into its frequency components, wherein the temporally rising phase modulation is realised by a phase modulator with a sawtooth signal, characterized in that the chromatic dispersion in the first element is brought about by a standard single-mode fibre (SSMF) of predefined length.
A process for cleaning raw product gas produced by gasifying a carbonaceous material, the process comprising: a) contacting the raw product gas with a flow of char or char-supported catalyst to reform organic contaminants in the raw product gas and to remove particulates, wherein the raw product gas flows in a direction perpendicular to the flow of the catalyst; and b) cooling the resulting product gas from step a) via heat exchange with a heat exchange medium in the presence of char or a solid adsorbent medium to condense remaining organic contaminants and inorganic contaminants on the char or solid adsorbent medium and to filter out fine particulates. a) contacting the raw product gas with a flow of char or char-supported catalyst to reform organic contaminants in the raw product gas and to remove particulates, wherein the raw product gas flows in a direction perpendicular to the flow of the catalyst; and b) cooling the resulting product gas from step a) via heat exchange with a heat exchange medium in the presence of char or a solid adsorbent medium to condense remaining organic contaminants and inorganic contaminants on the char or solid adsorbent medium and to filter out fine particulates.
A shot approval indicator for sports shooters comprising an optical indicator and a firing frame for a shot target capable of being fired at with a projectile along at least one shot direction, wherein the firing frame has a passage opening and a frame body, and the frame body includes at least one outer surface; wherein the frame body is at least partially composed of a transparent or semi-transparent material and the optical indicator is arranged behind the outer surface of the firing frame along the shot direction for protecting the optical indicator from projectiles, and the optical indicator is an indicator for shot approval.
A process for the preparation of a glycol ether ester, the process comprising (a) contacting in a reaction zone benzoic acid and/or benzoic acid anhydride with a glycol ether feed, wherein the glycol ether feed comprises a glycol ether represented by Formula I: where R 1 is a C 1 -C 10 alkyl group, phenyl, or benzyl, R 2 is H, methyl or ethyl, and n is 1 to 3 and a catalytic amount of phosphoric acid, to form a reaction mixture, under reaction conditions sufficient to produce a glycol ether ester product and water, wherein the feed comprises a glycol ether and butanal, and wherein the water and butanal are at least partially vaporized in the reaction zone and are passed to a separation zone where the water and butanal are substantially removed from the separation zone, thus providing a first crude product comprising the glycol ether ester, and wherein the process is operated under conditions of temperature and pressure such that essentially no glycol ether leaves the separation zone, other than as a component of an azeotrope wherein the temperature at the top of the separation zone in step (a) is at most the boiling point of the azeotrope and wherein the azeotrope is formed by water and the glycol ether.
A carrier for liquefied natural gas comprising: one or more cargo holds provided on a hull such that upper portions thereof are opened; one or more storage containers (50, 791); a plurality of first and second upper supports installed on the cargo holds in a width direction and a length direction to partition the upper portions of the cargo holds into a plurality of openings, wherein said storage containers (50, 791) are vertically inserted into the openings and supported; and a lower support installed under the cargo holds and supporting the bottoms of the storage containers inserted into the openings, characterized in that said one or more storage container has a dual structure (51,52); and in that a connection passage is provided between the dual structure (51,52) of the storage container and the inside of the storage container for pressure balance between an internal pressure of the dual structure (51,52) of the storage container and an internal pressure of the storage container, the storage container being suitable for a pressurized LNG liquefied at a pressure of 13 to 25 bar and a temperature of -120 to -95°C. one or more cargo holds provided on a hull such that upper portions thereof are opened; one or more storage containers (50, 791); a plurality of first and second upper supports installed on the cargo holds in a width direction and a length direction to partition the upper portions of the cargo holds into a plurality of openings, wherein said storage containers (50, 791) are vertically inserted into the openings and supported; and a lower support installed under the cargo holds and supporting the bottoms of the storage containers inserted into the openings, characterized in that said one or more storage container has a dual structure (51,52); and in that a connection passage is provided between the dual structure (51,52) of the storage container and the inside of the storage container for pressure balance between an internal pressure of the dual structure (51,52) of the storage container and an internal pressure of the storage container, the storage container being suitable for a pressurized LNG liquefied at a pressure of 13 to 25 bar and a temperature of -120 to -95°C.
A composition [composition (COMP)] comprising: - at least one alkali metal salt of bis(fluoro sulfonyl)imide [FSI-salt]; - at least one compound of formula or an alkali metal salt thereof as represented in the following formulae, in an amount below 25 ppm, as measured by ionic chromatography: - at least one alkali metal salt of bis(fluoro sulfonyl)imide [FSI-salt]; - at least one compound of formula or an alkali metal salt thereof as represented in the following formulae, in an amount below 25 ppm, as measured by ionic chromatography:
Locking device having a lock cylinder, which comprises a cylinder housing and a cylinder core which is rotatable relative to the cylinder housing, blocking pins being provided in order to prevent the cylinder core from rotating in the cylinder housing, which blocking pins can be transferred into a release position by means of a mechanical key, and having a control device for controlling an actuator, the actuator being in the form of a mechatronic additional blocking means of the lock cylinder, the additional blocking means having an additional blocking element, which in a release position does not impede a rotational movement of the cylinder core in the cylinder housing and in a blocking position prevents a rotational movement of the cylinder core in the cylinder housing, a motion sensor being provided for the purpose of detecting movements of at least one part of the locking device caused by manipulation attempts, the actuator transferring the additional blocking element from the release position thereof into the blocking position thereof in the case of a manipulation attempt, characterized in that the locking device comprises an evaluation device for evaluating signals from the motion sensor that are filtered by means of a filter device.
A sensor for measuring a sample in a measuring cell, characterized in that the sensor comprises a helix conductor that is at both ends short-circuited to a shell structure and located at the measuring cell elsewhere than in the space enclosed by the measuring cell, a wall structure of the measuring cell being made of an electrically non-conductive material; a chamber, inside which the measuring cell and at least part of the helix conductor are placeable and which comprises the shell structure made of an electrically conductive material, the coupling of both ends (114, 116) of the helix conductor to the shell structure of the chamber being the same; a radio-frequency signal input element in a frequency range up to 800 MHz is adapted to couple with loop coupling a radio-frequency signal inductively to the helix conductor in the chamber for the purpose of creating at least one helix resonance in the helix conductor; and a radio-frequency signal output element that is responsive to at least one helix resonance of the helix conductor by forming with loop coupling an inductive coupling to the resonating helix conductor and that is adapted to transmit a radio-frequency signal for measurement.
A medical device system comprising: an electric field generating circuit configured to generate one or more electric fields; and a control circuit in communication with the electric field generating circuit, the control circuit configured to control delivery of the one or more electric fields from the electric field generating circuit; two or more electrodes to deliver the electric fields to a site of a cancerous tumor within a patient; a heating element disposed on a lead, wherein the control circuit is configured to cause the heating element to generate heat and heat a surrounding of the heating element through thermal conduction; and a temperature sensor to measure the temperature of tissue at the site of the cancerous tumor, the temperature sensor in electronic communication with the control circuit; wherein the control circuit causes the electric field generating circuit to generate one or more electric fields at frequencies selected from a range of between 10 kHz to 1 MHz. an electric field generating circuit configured to generate one or more electric fields; and a control circuit in communication with the electric field generating circuit, the control circuit configured to control delivery of the one or more electric fields from the electric field generating circuit; two or more electrodes to deliver the electric fields to a site of a cancerous tumor within a patient; a heating element disposed on a lead, wherein the control circuit is configured to cause the heating element to generate heat and heat a surrounding of the heating element through thermal conduction; and a temperature sensor to measure the temperature of tissue at the site of the cancerous tumor, the temperature sensor in electronic communication with the control circuit; wherein the control circuit causes the electric field generating circuit to generate one or more electric fields at frequencies selected from a range of between 10 kHz to 1 MHz.
A metallic material comprising: an iron-based metallic material; an oxide layer that is formed on the surface of the iron-based metallic material, wherein the thickness of the oxide layer is in the range of 0.02 to 2 μm, wherein the oxide layer includes 2 to 30 atom% of Fe, wherein the oxide includes at least one kind of iron oxide selected from a group consisting of γ-Fe 2 O 3, α-Fe 2 O 3, and Fe 3 O 4, and at least one kind of metal selected from a group consisting of Zr, Ti, and Hf, wherein the amount of the metal included in the oxide layer is in the range of 10 to 1000 mg/m 2 as the total amount expressed in terms of AO 2. an iron-based metallic material; an oxide layer that is formed on the surface of the iron-based metallic material, wherein the thickness of the oxide layer is in the range of 0.02 to 2 μm, wherein the oxide layer includes 2 to 30 atom% of Fe, wherein the oxide includes at least one kind of iron oxide selected from a group consisting of γ-Fe 2 O 3, α-Fe 2 O 3, and Fe 3 O 4, and at least one kind of metal selected from a group consisting of Zr, Ti, and Hf, wherein the amount of the metal included in the oxide layer is in the range of 10 to 1000 mg/m 2 as the total amount expressed in terms of AO 2.
A method for manufacturing an organic light emitting device, the method comprising: forming a first electrode disposed on a substrate; forming a hole function layer directly on the first electrode; forming a first emission layer directly on the hole function layer; performing a melting process at a temperature higher than the glass transition temperature Tg of the hole function layer and the first emission layer to slightly melt surfaces of the hole function layer and the first emission layer while avoiding complete phase transition from solid to liquid; forming a second emission layer comprising a dopant on the first emission layer; forming an electron function layer on the second emission layer; and forming a second electrode on the electron function layer, wherein forming the second emission layer is performed after the melting process, such that the melting process is performed before the formation of the second emission layer comprising the dopant and thermal denaturation of the dopant material does not occur. forming a first electrode disposed on a substrate; forming a hole function layer directly on the first electrode; forming a first emission layer directly on the hole function layer; performing a melting process at a temperature higher than the glass transition temperature Tg of the hole function layer and the first emission layer to slightly melt surfaces of the hole function layer and the first emission layer while avoiding complete phase transition from solid to liquid; forming a second emission layer comprising a dopant on the first emission layer; forming an electron function layer on the second emission layer; and forming a second electrode on the electron function layer, wherein forming the second emission layer is performed after the melting process, such that the melting process is performed before the formation of the second emission layer comprising the dopant and thermal denaturation of the dopant material does not occur.
A tank for a vacuum truck, comprising a cylindrical peripheral wall, delimiting its internal volume, and one end of which is closed by a front wall while the other end comprises an opening for emptying at least part of the internal volume of the tank, a portion of the peripheral wall defining the bottom of the tank, and said internal volume, having an axis X, being organized into a compartment for storing cleaning water and a compartment for receiving wastewater by means of a separating partition, said tank also having on its peripheral wall at least one hole in communication with said compartment for storing cleaning water and one hole in communication with the compartment for receiving wastewater, the separating partition extending with an incline between the front wall and the emptying opening so as to have an upper face oriented toward the emptying opening and a lower face oriented toward the bottom of the tank, and the compartment for receiving cleaning water extending between the front wall, the peripheral wall and the lower face of the separating partition while the compartment for receiving wastewater extends between the peripheral wall, the emptying opening and the upper face of the separating partition, characterized in that the separating partition has a semicircular cross-section.
Hand-held power tool having a tool holder for retaining a tool, an electric motor for driving the tool holder, a shiftable planetary gear, which is mounted in a gear housing between the tool holder and the electric motor, wherein the planetary gear has a sun gear, a planet carrier, a set of planet gears, which are mounted on the planet carrier, a first ring gear and a second ring gear, wherein the planet gears have a first toothing formation, which meshes with the first ring gear and the sun gear and a second toothing formation, which meshes with the second ring gear, a shifting ring, which can be displaced axially in the gear-mechanism housing between a first setting and a second setting, wherein the shifting ring, in the first setting, engages in the second ring gear, wherein the shifting ring is arranged in a rotationally fixed manner in the gear-mechanism housing, a manually actuable actuating element, which, in a first position, forces the shifting ring into the first setting and which, in a second position, forces the shifting ring into the second setting, wherein the first toothing formation has a first diameter and the second toothing formation has a second diameter, wherein the first diameter is greater than the second diameter, characterized in that the shifting ring, in the second setting, engages in the planet carrier, and the first toothing formation and the second toothing formation have the same number of teeth.