mhurhangee/ep-ind-claims huggingface dataset:
A scroll compressor comprising: - a hermetic container; - a compression mechanism disposed in the hermetic container and including a fixed scroll and an orbiting scroll each including a spiral body (1b, 2b) disposed on a baseplate (1a, 2a), the spiral body (1b, 2b) of the fixed scroll and the spiral body (1b, 2b) of the orbiting scroll being combined together to form a plurality of chambers including a compression chamber (71a, 71b); - a motor mechanism configured to drive the orbiting scroll; and - a rotation shaft coupled to the orbiting scroll, with the orbiting scroll being eccentric from the motor mechanism, the rotation shaft being configured to transmit torque of the motor mechanism to the orbiting scroll to cause the orbiting scroll to orbit, wherein a tooth tip of the spiral body of the orbiting scroll has a tip seal; the baseplate of the fixed scroll has a first injection port intermittently opened and closed by the tooth tip of the spiral body of the orbiting scroll as the orbiting scroll orbits; and characterised in that the first injection port is open to a suction chamber of the plurality of chambers at some rotation phases, and is located within an angular range (α) defined by a line connecting a winding-end contact point of the orbiting scroll at a compression start phase with a base circle center of the fixed scroll and one of two lines tangent to a winding-end point locus of the tip seal at the tooth tip of the spiral body of the orbiting scroll and passing through the base circle center of the fixed scroll, the one being closer to the winding-end contact point, and the first injection port does not interfere with the tip seal at the tooth tip of the spiral body of the orbiting scroll. - a hermetic container; - a compression mechanism disposed in the hermetic container and including a fixed scroll and an orbiting scroll each including a spiral body (1b, 2b) disposed on a baseplate (1a, 2a), the spiral body (1b, 2b) of the fixed scroll and the spiral body (1b, 2b) of the orbiting scroll being combined together to form a plurality of chambers including a compression chamber (71a, 71b); - a motor mechanism configured to drive the orbiting scroll; and - a rotation shaft coupled to the orbiting scroll, with the orbiting scroll being eccentric from the motor mechanism, the rotation shaft being configured to transmit torque of the motor mechanism to the orbiting scroll to cause the orbiting scroll to orbit,
An apparatus comprising a loading arm for loading drill rods from a cassette to a drilling position in a rock drilling machine, wherein the loading arm is a longitudinal structure extending parallel to the cassette and the rods in the cassette and the loading arm is rotatable about its longitudinal axis between two loading positions for receiving drill rods and the drilling position for loading drill rods from the cassette to the rock drilling machine, wherein said two loading positions for receiving drill rods comprise a first position for receiving drill rods from the cassette, and a second position for receiving drill rods from an external source, said second position being different to said first position and said drilling position and wherein said loading arm can position a drill rod received in said second position from said external source in said drilling position for loading the drill rod into the rock drilling machine or said loading arm can position a drill rod received in said second position from said external source in said first loading position for reloading said cassette with drill rods and wherein drill rods received by the loading arm are rotated between the two loading positions and the drilling position about the longitudinal axis of the loading arm in an orientation extending parallel to the loading arm.
A method for determining the operating state of radiator with a radiator control valve, wherein at times Δ t - the valve stroke (h) of the radiator control valve and - the quantity of heat (Δ Q) emitted by the radiator are recorded and used to create a heat output characteristic curve in which the quantity of heat (Δ Q) emitted at different times (Δ t) is described as a function of the valve stroke (h) and in which the heat output characteristic curve produced is compared with a target characteristic curve, wherein the operating state of the radiator with the radiator control valve is derived from the result of the comparison, characterized in that the target characteristic curve is described by an enveloping function ( F min, F max), wherein a first enveloping function ( F min) describes the lower threshold of the quantity of heat (Δ Q) to be emitted as a function of the valve stroke (h) and a second enveloping function ( F max) describes the upper threshold of the quantity of heat (Δ Q) to be emitted and that for each data point (Δ Q, h) which is described by the quantity of heat (Δ Q) emitted with a particular valve stroke (h), it is decided according to the equation F min h < Δ Q h < F max h whether the data point (Δ Q, h) lies within or outside the target characteristic curve. - the valve stroke (h) of the radiator control valve and - the quantity of heat (Δ Q) emitted by the radiator are recorded and used to create a heat output characteristic curve in which the quantity of heat (Δ Q) emitted at different times (Δ t) is described as a function of the valve stroke (h) and in which the heat output characteristic curve produced is compared with a target characteristic curve, wherein the operating state of the radiator with the radiator control valve is derived from the result of the comparison, characterized in that the target characteristic curve is described by an enveloping function ( F min, F max), wherein a first enveloping function ( F min) describes the lower threshold of the quantity of heat (Δ Q) to be emitted as a function of the valve stroke (h) and a second enveloping function ( F max) describes the upper threshold of the quantity of heat (Δ Q) to be emitted and that for each data point (Δ Q, h) which is described by the quantity of heat (Δ Q) emitted with a particular valve stroke (h), it is decided according to the equation F min h < Δ Q h < F max h whether the data point (Δ Q, h) lies within or outside the target characteristic curve.
A breast pump system comprising: a pump unit; an actuator for driving the pump unit; and a power supply arranged to supply electrical power to the actuator; characterized by an actuator speed regulating module arranged to drive the actuator at a first speed when the pump unit is turned on, and to continue to drive the actuator at a second speed higher than the first speed after a load on the actuator reaches a predetermined level. a pump unit; an actuator for driving the pump unit; and a power supply arranged to supply electrical power to the actuator; an actuator speed regulating module arranged to drive the actuator at a first speed when the pump unit is turned on, and to continue to drive the actuator at a second speed higher than the first speed after a load on the actuator reaches a predetermined level.
An image processing device comprising: an image input unit adapted to input a plurality of images including at least one of images which is captured with light having a plurality of wavelength ranges not overlapping one another, at least one wavelength range of the plurality of wavelength ranges being common among the plurality of images, and the at least one of images being captured using a filter having a principal wavelength range and a sub-wavelength range which are not overlapping one another; a correspondence point detection unit adapted to detect correspondence points among the plurality of images based on a component of the at least one common wavelength range of a plurality of image signals corresponding to the plurality of images; a registration unit adapted to perform registration of the plurality of images based on the detected correspondence points; and an interference elimination unit adapted to eliminate an influence of light having a wavelength range different from a specific wavelength range on the plurality of images subjected to the registration, wherein the specific wavelength range is any one wavelength range of the plurality of wavelength ranges and is a different wavelength range for each of the plurality of images, and preferably, the image input unit inputs, as the plurality of images, a plurality of images, all of which are captured with light having the plurality of wavelength ranges. an image input unit adapted to input a plurality of images including at least one of images which is captured with light having a plurality of wavelength ranges not overlapping one another, at least one wavelength range of the plurality of wavelength ranges being common among the plurality of images, and the at least one of images being captured using a filter having a principal wavelength range and a sub-wavelength range which are not overlapping one another; a correspondence point detection unit adapted to detect correspondence points among the plurality of images based on a component of the at least one common wavelength range of a plurality of image signals corresponding to the plurality of images; a registration unit adapted to perform registration of the plurality of images based on the detected correspondence points; and an interference elimination unit adapted to eliminate an influence of light having a wavelength range different from a specific wavelength range on the plurality of images subjected to the registration, wherein the specific wavelength range is any one wavelength range of the plurality of wavelength ranges and is a different wavelength range for each of the plurality of images, and preferably, the image input unit inputs, as the plurality of images, a plurality of images, all of which are captured with light having the plurality of wavelength ranges.
A video image quality diagnostic system, comprising: a video monitoring system and a video image quality diagnostic server; the video monitoring system includes at least two video monitoring points and at least one polling host; the polling host is configured to poll each video monitoring point to acquire video streams and then perform the video preview, and send the acquired video streams to the video image quality diagnostic server; the video image quality diagnostic server is configured to receive the video streams and perform the video image quality diagnosis on at least part of the received video streams; characterized in that, the polling host is configured to store the polling video of the corresponding monitoring point after polling each video monitoring point to acquire video streams and performing the video preview, and send the stored polling video to the video image quality diagnostic server during the network trough; and the video image quality diagnostic server is configured to receive the polling video and perform the video image quality diagnosis on the received polling video.
A method for delivering an audio-video live content, time being divided into transmission periods (TP1, TP2, TP3, TP4), the audio-video live content being divided into chunks, a server device executing the method performing: - obtaining (301; 351) at least one multicast reference stream (400; 420; 440) intended to transport one chunk of the audio-video live content per transmission period; - obtaining (302; 352) at least one multicast side stream (410; 430; 450) intended to transport, for each transmission period, a plurality of chunks of the audio-video live content which at least comprises the same chunk as in each multicast reference stream and at least one preceding chunk (411; 412); and - synchronously (303; 353) transmitting each multicast reference stream and each multicast side stream along the transmission periods; wherein a device (101; 101a; 101b) willing to receive the audio-video live content performs: - joining one said multicast side stream for obtaining at least one chunk of the audio-video live content transmitted in a first transmission period; and - leaving the multicast side stream and joining one said multicast reference stream for obtaining subsequent chunks of the audio-video live content which are transmitted from a second transmission period following the first transmission period; and in each transmission period, the chunks transported by each multicast side stream are transported in a reverse sequence order with regard to the audio-video live content. - obtaining (301; 351) at least one multicast reference stream (400; 420; 440) intended to transport one chunk of the audio-video live content per transmission period; - obtaining (302; 352) at least one multicast side stream (410; 430; 450) intended to transport, for each transmission period, a plurality of chunks of the audio-video live content which at least comprises the same chunk as in each multicast reference stream and at least one preceding chunk (411; 412); and - synchronously (303; 353) transmitting each multicast reference stream and each multicast side stream along the transmission periods; - joining one said multicast side stream for obtaining at least one chunk of the audio-video live content transmitted in a first transmission period; and - leaving the multicast side stream and joining one said multicast reference stream for obtaining subsequent chunks of the audio-video live content which are transmitted from a second transmission period following the first transmission period; and in each transmission period, the chunks transported by each multicast side stream are transported in a reverse sequence order with regard to the audio-video live content.
A method for creating a metal-carbon composite comprising the steps of: a. providing a polymer Schiff base transition metal complex precursor film having a chemical structure of the formula [M(Schiff)] n and the recurring unit of the following structure: wherein n is an integer between 2 and 50,000; M is a transition metal selected from the group consisting of nickel, palladium, platinum, cobalt, copper, iron; Schiff is a tetradentate Schiff base ligand selected from the group consisting of Salen (residue of bis(salicylaldehyde)-ethylenediamine), Saltmen (residue of bis(salicylaldehyde)-tetramethylethylenediamine, Salphen (residue of bis-(salicylaldehyde)-o-phenylenediamine), R is a substituent in a Schiff base selected from the group consisting of H-, and carbon-containing substituents, preferably CH 3 -, C 2 H 5 -, CH 3 O-, C 2 H 5 O-, and Y is a bridge in a Schiff base and has the following structure: -CH 2 -CH 2 - in Salen in Saltmen in Salphen b. depositing the polymer Schiff base transition metal complex precursor film onto a support substrate; and c. heating the polymer Schiff base transition metal complex precursor film and support substrate in a furnace in an inert atmosphere. a. providing a polymer Schiff base transition metal complex precursor film having a chemical structure of the formula [M(Schiff)] n and the recurring unit of the following structure: wherein n is an integer between 2 and 50,000; M is a transition metal selected from the group consisting of nickel, palladium, platinum, cobalt, copper, iron; Schiff is a tetradentate Schiff base ligand selected from the group consisting of Salen (residue of bis(salicylaldehyde)-ethylenediamine), Saltmen (residue of bis(salicylaldehyde)-tetramethylethylenediamine, Salphen (residue of bis-(salicylaldehyde)-o-phenylenediamine), R is a substituent in a Schiff base selected from the group consisting of H-, and carbon-containing substituents, preferably CH 3 -, C 2 H 5 -, CH 3 O-, C 2 H 5 O-, and Y is a bridge in a Schiff base and has the following structure: -CH 2 -CH 2 - in Salen in Saltmen in Salphen b. depositing the polymer Schiff base transition metal complex precursor film onto a support substrate; and c. heating the polymer Schiff base transition metal complex precursor film and support substrate in a furnace in an inert atmosphere.
A concrete structure, comprising: a repair cross section which is formed at a deteriorated or damaged part in the concrete structure; a reinforcing grid in which a plurality of reinforcing spacers and a plurality of reinforcing channels, at certain intervals, are arranged in a grid shape; a reinforcing panel precast-fabricated in a fabricating place with the reinforcing grid embedded therein; a set anchor which comprises an anchor bolt and an anchor nut and fixes the reinforcing panel to the repair cross section of the concrete structure; and repairing cement mortar injected between the repair cross section of the concrete structure and the reinforcing panel, the concrete structure being characterized in that the reinforcing channels form a plurality of openings and that the repairing cement mortar is injected into the openings formed by the reinforcing channels to integrate the concrete structure with the reinforcing panel. a repair cross section which is formed at a deteriorated or damaged part in the concrete structure; a reinforcing grid in which a plurality of reinforcing spacers and a plurality of reinforcing channels, at certain intervals, are arranged in a grid shape; a reinforcing panel precast-fabricated in a fabricating place with the reinforcing grid embedded therein; a set anchor which comprises an anchor bolt and an anchor nut and fixes the reinforcing panel to the repair cross section of the concrete structure; and repairing cement mortar injected between the repair cross section of the concrete structure and the reinforcing panel, the concrete structure being characterized in that the reinforcing channels form a plurality of openings and that the repairing cement mortar is injected into the openings formed by the reinforcing channels to integrate the concrete structure with the reinforcing panel.
A semiconductor device, comprising: a semiconductor body disposed above a substrate, the semiconductor body comprising a top surface and a pair of side walls; a gate stack disposed above the top surface and adjacent to the sidewalls of the semiconductor body, wherein the gate stack is comprised of a gate electrode disposed above a gate dielectric layer, and wherein the gate stack defines a channel region in the semiconductor body; an inter-layer dielectric film directly adjacent to the gate dielectric layer along sidewalls of said gate electrode; and a pair of epitaxial source/drain regions disposed in the semiconductor body on either side of the channel region, wherein the epitaxial source/drain regions have no tip extensions, wherein the pair of source/drain regions is in direct contact with the gate dielectric layer, characterized in that the lattice constant of the pair of source/drain regions is different than the lattice constant of the channel region. a semiconductor body disposed above a substrate, the semiconductor body comprising a top surface and a pair of side walls; a gate stack disposed above the top surface and adjacent to the sidewalls of the semiconductor body, wherein the gate stack is comprised of a gate electrode disposed above a gate dielectric layer, and wherein the gate stack defines a channel region in the semiconductor body; an inter-layer dielectric film directly adjacent to the gate dielectric layer along sidewalls of said gate electrode; and a pair of epitaxial source/drain regions disposed in the semiconductor body on either side of the channel region, wherein the epitaxial source/drain regions have no tip extensions, wherein the pair of source/drain regions is in direct contact with the gate dielectric layer, characterized in that the lattice constant of the pair of source/drain regions is different than the lattice constant of the channel region.
A method comprising: configuring a plurality of nodes (301-1, 301-2), included in a server cluster to be expanded, as one or more server units, each server unit of the one or more server units including at least two nodes (301-1, 301-2) and being configured to perform a session synchronization between the at least two nodes included in each server unit; determining whether a performance parameter of the server cluster is greater than a preset performance parameter threshold, the performance parameter being determined based on the number of sessions and/or load pressure on the one or more server units; in response to determining that the performance parameter of the server cluster is greater than the preset performance parameter threshold: adding a plurality of nodes (501-1, 501-2) into the server cluster as newly added nodes (501-1, 501-2), and configuring the newly added nodes (501-1, 501-2) as at least one newly added server unit in the server cluster, each newly added server unit including at least two nodes (501-1, 501-2); and posting routing information of the at least one newly added server unit. configuring a plurality of nodes (301-1, 301-2), included in a server cluster to be expanded, as one or more server units, each server unit of the one or more server units including at least two nodes (301-1, 301-2) and being configured to perform a session synchronization between the at least two nodes included in each server unit; determining whether a performance parameter of the server cluster is greater than a preset performance parameter threshold, the performance parameter being determined based on the number of sessions and/or load pressure on the one or more server units; in response to determining that the performance parameter of the server cluster is greater than the preset performance parameter threshold: adding a plurality of nodes (501-1, 501-2) into the server cluster as newly added nodes (501-1, 501-2), and configuring the newly added nodes (501-1, 501-2) as at least one newly added server unit in the server cluster, each newly added server unit including at least two nodes (501-1, 501-2); and posting routing information of the at least one newly added server unit. adding a plurality of nodes (501-1, 501-2) into the server cluster as newly added nodes (501-1, 501-2), and configuring the newly added nodes (501-1, 501-2) as at least one newly added server unit in the server cluster, each newly added server unit including at least two nodes (501-1, 501-2); and posting routing information of the at least one newly added server unit.
Tarpaulin body of a utility vehicle, in particular a truck, trailer or semitrailer, with two longitudinal roof spars and with a sliding roof which is supported on the longitudinal roof spars and is adjustable relative to the longitudinal roof spars from a closed position closing the roof into an open position releasing the roof for loading the tarpaulin body and back, wherein the sliding roof has at least one bow connecting the longitudinal roof spars to one another and longitudinally displaceable relative to the longitudinal roof spars, wherein the bow has at least two carriages, respectively with at least one roof roller engaging in at least one guide link of each longitudinal roof spar for displacing the bow relative to the longitudinal roof spars, wherein the guide link has respectively at least one running surface for rolling the at least one roof roller and respectively at least one baffle surface arranged adjacent to an end face of the roof roller, characterized in that the baffle surfaces are formed at least in sections by at least one inlay formed from a different material relative to the base material of the longitudinal roof spars.