mhurhangee/ep-ind-claims huggingface dataset:
A domestic extracting machine that is designed to extract herbs contained inside a capsule, comprising: a capsule-compartment that is designed to receive the capsule, a condensation-compartment, an air blower, a heating mechanism, a stirring mechanism, a stirring activator, and a control mechanism; wherein said capsule-compartment includes a hot-air hole through which hot air can flow from the air blower into the capsule-compartment and into the capsule through perforations in the capsule, wherein the capsule-compartment also includes an outlet-opening through which vapors can flow from the capsule into the condensation-compartment; wherein the stirring activator is designed to rotate the stirring mechanism that in turns can rotate a stirring arm that is positioned inside the capsule and by that to whirl the herbs inside the capsule; wherein the air blower is designed to blow air that can be heated by the heating mechanism, wherein the hot air can flow through the capsule and heat and vaporize the herbs wherein the vapors include active ingredients that can flow into the condensation-compartment; wherein the condensation-compartment includes condensation mechanism that is designed to thicken the vapors and turn them into a liquid state such as drops or wax; wherein said control mechanism is designed to control the operation of the domestic extracting machine and its components; and wherein the condensation-compartment further includes a drainage and sweeper mechanisms that is designed to collect and drainage dirt from the vapors, and further includes an air filter for filtering the air that flows outside through air outlet opening. wherein said capsule-compartment includes a hot-air hole through which hot air can flow from the air blower into the capsule-compartment and into the capsule through perforations in the capsule, wherein the capsule-compartment also includes an outlet-opening through which vapors can flow from the capsule into the condensation-compartment; wherein the stirring activator is designed to rotate the stirring mechanism that in turns can rotate a stirring arm that is positioned inside the capsule and by that to whirl the herbs inside the capsule; wherein the air blower is designed to blow air that can be heated by the heating mechanism, wherein the hot air can flow through the capsule and heat and vaporize the herbs wherein the vapors include active ingredients that can flow into the condensation-compartment; wherein the condensation-compartment includes condensation mechanism that is designed to thicken the vapors and turn them into a liquid state such as drops or wax; wherein said control mechanism is designed to control the operation of the domestic extracting machine and its components; and wherein the condensation-compartment further includes a drainage and sweeper mechanisms that is designed to collect and drainage dirt from the vapors, and further includes an air filter for filtering the air that flows outside through air outlet opening.
A method comprising: making a composition for dyeing a cellulosic material, the making of the composition comprising mixing together a wetting agent, a reactive dye and water to form a solution, mixing a thickener into the solution for five minutes to one hour to form a partial composition, and mixing or blending an alkali either to the partial composition or merging it with the partial composition; and within thirty minutes, spraying the composition onto the cellulosic material. making a composition for dyeing a cellulosic material, the making of the composition comprising mixing together a wetting agent, a reactive dye and water to form a solution, mixing a thickener into the solution for five minutes to one hour to form a partial composition, and mixing or blending an alkali either to the partial composition or merging it with the partial composition; and mixing together a wetting agent, a reactive dye and water to form a solution, mixing a thickener into the solution for five minutes to one hour to form a partial composition, and mixing or blending an alkali either to the partial composition or merging it with the partial composition; and within thirty minutes, spraying the composition onto the cellulosic material.
A liquid dispenser, comprising: a tank having an upper opening and a chamber defined by a wall; a pump provided in the chamber; a pipe to transfer liquid discharged from the pump; a plate provided above the tank and supplied with liquid from the pipe; and a base provided below the wall of the tank to support the wall, wherein the wall defines a cross-sectional area, the cross-section area increases from an upper end of the tank to a lower end of the tank, the wall is inclined inward from a bottom end to a top end, the wall includes a main wall having a bottom end provided on the base and an upper end from which an upper wall extends, and wherein an upper end of the upper wall includes an upper opening that is exposed when the plate is lifted away from the upper wall, wherein a UV light that emits UV light toward the main wall, wherein the UV light is provided at a position that has a height at or below a midpoint height of the main wall. a tank having an upper opening and a chamber defined by a wall; a pump provided in the chamber; a pipe to transfer liquid discharged from the pump; a plate provided above the tank and supplied with liquid from the pipe; and a base provided below the wall of the tank to support the wall, wherein the wall defines a cross-sectional area, the cross-section area increases from an upper end of the tank to a lower end of the tank, the wall is inclined inward from a bottom end to a top end, the wall includes a main wall having a bottom end provided on the base and an upper end from which an upper wall extends, and wherein an upper end of the upper wall includes an upper opening that is exposed when the plate is lifted away from the upper wall, wherein a UV light that emits UV light toward the main wall, wherein the UV light is provided at a position that has a height at or below a midpoint height of the main wall.
An oscillator circuit comprising a Voltage Controlled Oscillator, a VCO, the VCO comprising a resonator coupled to a first amplifier, with an output signal (10, 11) from the resonator being arranged to be the output signal from the VCO, the oscillator circuit also comprising a second amplifier connected to receive the output signal (10, 11) from the VCO, with the output signal of the second amplifier being arranged to be the output signal from the oscillator circuit, the oscillator circuit being characterized in that the second amplifier is arranged to provide the VCO with a feedback signal (12, 13) which is in phase with the phase of the output signal from the VCO, and in that the second amplifier comprise reative elements to create an amplifier gain as a function of frequency which is such that the amplitude of the output signal from the oscillator circuit is constant over an operational frequency range of the oscillator circuit, with the second amplifier being arranged to provide the VCO with said feedback signal (12, 13) to the resonator of the VCO.
A compressor for use in a refrigeration appliance, in particular a domestic refrigerator, comprising a cylinder block having a compression chamber and a cylinder head having an intake chamber and separately therefrom, an exhaust chamber, each being in fluid connection with the compression chamber through a valve plate interposed between a front surface of the cylinder block and the cylinder head, further comprising an exhaust silencer, separately provided from the cylinder block and the cylinder head, for attenuating pressure pulsation of a refrigerant received from the exhaust chamber, characterized in that it comprises - a metal silencer tube for guiding the refrigerant from the exhaust chamber to the exhaust silencer and - a metal mounting piece having a hollow part fluidly joined to an opening of an end portion of the silencer tube which are form-fittingly embedded into a notch formed in the cylinder block, wherein the hollow part is in fluid communication with the exhaust chamber via a through hole formed in the valve plate, wherein the silencer tube between the mounting piece and the exhaust silencer is installed external to the cylinder block. - a metal silencer tube for guiding the refrigerant from the exhaust chamber to the exhaust silencer and - a metal mounting piece having a hollow part fluidly joined to an opening of an end portion of the silencer tube which are form-fittingly embedded into a notch formed in the cylinder block, wherein the hollow part is in fluid communication with the exhaust chamber via a through hole formed in the valve plate,
Microelectromechanical and/or nanoelectromechanical device comprising at least two assemblies, one assembly called the first assembly and one assembly called the second assembly, each first and second assembly comprising at least one first part (2, 102) and at least one second part (4, 104) free to move relative to each other at least in an out-of-plane direction, the first part (2, 102) comprising a first support and at least first electrodes (8, 108, 108') extending parallel to the direction of displacement, the second part (4, 104) comprising a second support and at least second electrodes (20, 120, 120') extending parallel to said out-of-plane displacement direction, the first electrodes (8, 108, 108') and the second electrodes (20, 120, 120') being arranged relative to each other such that they are interdigitated, the second support comprising at least one face perpendicular to the out-of-plane displacement direction, the first electrodes (8, 108, 108') comprising a first end and a second end in the direction of displacement, the second electrodes (20, 120, 120') comprising a first end and a second end in the direction of displacement, in which the second ends of the second electrodes (20, 120, 120') are directly connected to the face of the second support and their first end is located between the two ends of the first electrodes (8, 108, 108') such that only part of the face of each second electrode (20, 120, 120') is facing a first electrode (8, 108, 108') at rest, characterized in that the first part of the first assembly is mechanically connected to the second part of the second assembly and the second part of the first assembly is mechanically connected to the first part of the second assembly and wherein the first assembly and the second assembly are located with respect to each other so that when the first support of the first part of the first assembly comes closer to the second support of the second part of the first assembly, the first support of the first part of the second assembly moves away from the second support of the second part of the second assembly, and vice versa.
A system for internally insulating buildings in particular slanted roofs, the system comprising: a, particularly wooden, base structure including rafter elements in form of rafters or beams, the system comprising also slat elements in form of slats and/or profile strips which are transversally arranged at the rafter elements and at a distance from the rafter elements and at a distance from each other, the system comprising also insulation elements arranged from an interior of a room at the rafter elements and between the rafter elements and the slat elements (10, 32) for thermal and/or sound insulation forming an inner insulation placed in front of the rafter elements, and attachment devices for supporting the insulation elements and for attaching the slat elements (10, 32) at the rafter elements offset therefrom for forming a support lattice structure at which a covering towards an interior of the room is attachable, wherein the attachment devices are respectively formed from a base element that is attachable at the rafter element and an attachment element that is adjustable relative to the base element and interlockable at the rafter element in a predetermined adjustment position and wherein a receiving element (50, 78) for receiving the slat element (10, 32) is arranged at the end of the attachment element that is remote from the rafter characterized in that the base element includes a pedestal which includes a receiving sleeve for an elevation adjustable reception of the attachment element and that the attachment element is configured as an insertion element that is insertable into the receiving sleeve, which insertion element is clampable or fixable in a predetermined insertion position of the insertion element in the sleeve through form and/or friction locking and in that the pedestal is configured with a single wall and subdivided into bars arranged on top of one another by introducing slots that extend perpendicular to the pedestal, wherein the bars are formed at both pedestal sides in outward direction cambered for forming a receiver in a form of said receiving sleeve.
A method for determining a return time of a returning light pulse by a Single Photon LiDAR scanner, SPL scanner (10, 10', 10", 10''', 10''''), the method comprising - transmitting a light pulse, - detecting a returning light pulse (4',20,20',20'',20''',20'''') and converting low amounts of photons or single photons to electrical signals, and - processing the data and determining the return time of the returning light pulse (4',20,20',20'',20''',20'''') by the steps of • identifying a group of detected photons potentially representing a return pulse event (20,20',20'',20"',20'''') and creating a return pulse signal, • identifying a rising edge (201,201') and a falling edge of the return pulse signal based on the identified group of detected photons potentially representing a return pulse event (20,20',20'',20''',20''''), and • determining the return time for the return pulse event (20,20',20'',20''',20'''') based on the rising edge and the falling edge of the return pulse signal, characterized in that the step of identifying a group of detected photons potentially representing a return pulse event and creating a return pulse signal is based on a criterion involving a temporal probability distribution for the detected photons, in particular a defined minimum of consecutively detected low amounts of photons or single photons. - transmitting a light pulse, - detecting a returning light pulse (4',20,20',20'',20''',20'''') and converting low amounts of photons or single photons to electrical signals, and - processing the data and determining the return time of the returning light pulse (4',20,20',20'',20''',20'''') by the steps of • identifying a group of detected photons potentially representing a return pulse event (20,20',20'',20"',20'''') and creating a return pulse signal, • identifying a rising edge (201,201') and a falling edge of the return pulse signal based on the identified group of detected photons potentially representing a return pulse event (20,20',20'',20''',20''''), and • determining the return time for the return pulse event (20,20',20'',20''',20'''') based on the rising edge and the falling edge of the return pulse signal, • identifying a group of detected photons potentially representing a return pulse event (20,20',20'',20"',20'''') and creating a return pulse signal, • identifying a rising edge (201,201') and a falling edge of the return pulse signal based on the identified group of detected photons potentially representing a return pulse event (20,20',20'',20''',20''''), and • determining the return time for the return pulse event (20,20',20'',20''',20'''') based on the rising edge and the falling edge of the return pulse signal,
A method for load balancing across clusters, including: obtaining, by a software defined network, SDN, controller, load information which is reported by a source server cluster; determining based on the load information that the source server cluster is in an overload state; in response to determining that the source server cluster is in an overload state, updating the state of the source server cluster in a cross-cluster table of the SDN controller; searching the cross-cluster table for a target server cluster which is in an idle state and which is located in a server cluster group which the source server cluster belongs to; sending a load switch command to a predetermined network device which is located in a front path of the source server cluster, wherein the load switch command includes identification of the source server cluster and identification of a target server cluster and wherein the front path is a path between a load balance device of the source server cluster and an external host. obtaining, by a software defined network, SDN, controller, load information which is reported by a source server cluster; determining based on the load information that the source server cluster is in an overload state; in response to determining that the source server cluster is in an overload state, updating the state of the source server cluster in a cross-cluster table of the SDN controller; searching the cross-cluster table for a target server cluster which is in an idle state and which is located in a server cluster group which the source server cluster belongs to; sending a load switch command to a predetermined network device which is located in a front path of the source server cluster, wherein the load switch command includes identification of the source server cluster and identification of a target server cluster and wherein the front path is a path between a load balance device of the source server cluster and an external host.
A controller for a vehicle, the controller being configured to: receive a road load signal indicative of a torque output suitable for maintaining the current speed of the vehicle; determine a road load accelerator pedal position signal in dependence on the road load signal, the road load accelerator pedal position signal being indicative of a reference accelerator pedal position; determine a reference accelerator pedal position signal in dependence on the road load accelerator pedal position signal; receive an accelerator pedal position signal indicative of the current position of the accelerator pedal; and, compare the reference accelerator pedal position signal and the accelerator pedal position signal to determine the position of the accelerator pedal with respect to the reference accelerator pedal position; and, determine a torque output in dependence on an acceleration pedal map if the position of the accelerator pedal is greater than the reference accelerator pedal position; or, determine a torque output in dependence on a deceleration pedal map if the position of the accelerator pedal is less than the reference accelerator pedal position. receive a road load signal indicative of a torque output suitable for maintaining the current speed of the vehicle; determine a road load accelerator pedal position signal in dependence on the road load signal, the road load accelerator pedal position signal being indicative of a reference accelerator pedal position; determine a reference accelerator pedal position signal in dependence on the road load accelerator pedal position signal; receive an accelerator pedal position signal indicative of the current position of the accelerator pedal; and, compare the reference accelerator pedal position signal and the accelerator pedal position signal to determine the position of the accelerator pedal with respect to the reference accelerator pedal position; and, determine a torque output in dependence on an acceleration pedal map if the position of the accelerator pedal is greater than the reference accelerator pedal position; or, determine a torque output in dependence on a deceleration pedal map if the position of the accelerator pedal is less than the reference accelerator pedal position.
A loop reactor apparatus comprising: a plurality of major segments; a plurality of minor segments, each minor segment connecting two of the major segments to each other, whereby the major and minor segments form a continuous flow path for carrying slurry; a monomer feed attached to one of the segments; a catalyst feed attached to one of the segments; a product take-off attached to one of the segments; a pump within an arced pump case, the pump case being positioned in one of the segments, the pump having at least one impeller mounted on a shaft, the impeller having blades that are oriented at an angle between 0 to 90 degrees to the shaft, the pump having a bulge positioned along the shaft proximate the at least one impeller, such that a curved flow path is defined between the bulge and the pump case, the flow path being disposed such that the slurry flows by the blades and is redirected out of the pump case by the flow path; and wherein the loop reactor apparatus further includes guide vanes situated along the flow path to redirect rotational flow of the slurry upon discharge from the impeller. a plurality of major segments; a plurality of minor segments, each minor segment connecting two of the major segments to each other, whereby the major and minor segments form a continuous flow path for carrying slurry; a monomer feed attached to one of the segments; a catalyst feed attached to one of the segments; a product take-off attached to one of the segments; a pump within an arced pump case, the pump case being positioned in one of the segments, the pump having at least one impeller mounted on a shaft, the impeller having blades that are oriented at an angle between 0 to 90 degrees to the shaft, the pump having a bulge positioned along the shaft proximate the at least one impeller, such that a curved flow path is defined between the bulge and the pump case, the flow path being disposed such that the slurry flows by the blades and is redirected out of the pump case by the flow path; and wherein the loop reactor apparatus further includes guide vanes situated along the flow path to redirect rotational flow of the slurry upon discharge from the impeller.