mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for heating a hydraulic impact device of a rock treating machine (Rtm) in low-temperature operating conditions; and wherein the arrangement is provided with a selectively executable warm-up mode for feeding pre-heated hydraulic fluid through at least one feed channel to a hydraulic circuit of the impact device; and wherein the hydraulic circuit of the impact device is connected to at least one pressure accumulator (Pa) provided with pre-charge pressure (Pcp); characterized in that the feed channel is provided with at least one control element for limiting the feeding of the pre-heated hydraulic fluid in response to the selected warm-up mode; and the control element is configured to limit the feeding of the pre-heated hydraulic fluid in the feed channel so that pressure is below first pre-charge pressure of a first pressure accumulator (Pal) which is located first in downstream of the fed flow. and wherein the arrangement is provided with a selectively executable warm-up mode for feeding pre-heated hydraulic fluid through at least one feed channel to a hydraulic circuit of the impact device; and wherein the hydraulic circuit of the impact device is connected to at least one pressure accumulator (Pa) provided with pre-charge pressure (Pcp); characterized in that the feed channel is provided with at least one control element for limiting the feeding of the pre-heated hydraulic fluid in response to the selected warm-up mode; and the control element is configured to limit the feeding of the pre-heated hydraulic fluid in the feed channel so that pressure is below first pre-charge pressure of a first pressure accumulator (Pal) which is located first in downstream of the fed flow.
Method for determining a critical angle of the total internal reflection in TIRF microscopy, comprising: illuminating a sample with an excitation light beam, recording fluorescence images of at least one part of the sample for a multiplicity of different angles of incidence of the excitation light beam, and determining a critical angle of the total internal reflection at an interface of the sample on the basis of an analysis of the images, wherein the critical angle is determined on the basis of contrast information of the images, characterized in that recording images comprises recording images for at least two different image planes (43, 44). illuminating a sample with an excitation light beam, recording fluorescence images of at least one part of the sample for a multiplicity of different angles of incidence of the excitation light beam, and determining a critical angle of the total internal reflection at an interface of the sample on the basis of an analysis of the images, wherein the critical angle is determined on the basis of contrast information of the images,
A steering lock device comprising: a motor configured to rotate a motor shaft; a worm attached to the motor shaft of the motor; a main gear configured to rotate along with rotation of the worm; a cam member integrally provided with the main gear; and a rod including an insertion and extraction portion which is configured to be inserted into and extracted from an opening provided on a steering shaft side in accordance with an operation of the cam member along with rotation of the main gear, wherein at least a part of at least one member of the worm and the insertion and extraction portion is configured to be accommodated in a circumferential region of the main gear when the main gear is viewed in a plan view along a rotation axis direction of the main gear, characterized in that the main gear is an arc-shaped gear including teeth in an arc shape, which forms a part of a circle, wherein the main gear has a shape in which a space is secured in a remaining portion of the circle, i.e. a portion exclusive of the substantially semicircular main gear, and a stopper is formed in a portion of the space in a circumferential region of the main gear. a motor configured to rotate a motor shaft; a worm attached to the motor shaft of the motor; a main gear configured to rotate along with rotation of the worm; a cam member integrally provided with the main gear; and a rod including an insertion and extraction portion which is configured to be inserted into and extracted from an opening provided on a steering shaft side in accordance with an operation of the cam member along with rotation of the main gear, wherein at least a part of at least one member of the worm and the insertion and extraction portion is configured to be accommodated in a circumferential region of the main gear when the main gear is viewed in a plan view along a rotation axis direction of the main gear, characterized in that the main gear is an arc-shaped gear including teeth in an arc shape, which forms a part of a circle, wherein the main gear has a shape in which a space is secured in a remaining portion of the circle, i.e. a portion exclusive of the substantially semicircular main gear, and a stopper is formed in a portion of the space in a circumferential region of the main gear.
A multiple seat shipping container comprising: a bottom base structure configured to attach one or more first seats; a forward wall with a lower portion pivotally attached to a forward side of the bottom base structure; a top wall pivotally attached to an upper portion of the forward wall, the top wall configured to attach one or more second seats; and a rear wall attached to a rear side of the bottom base structure, wherein the multiple seat shipping container is configured to fold into a box shape configuration such that the one or more second seats are suspended from the top wall adjacent to the one or more first seats; characterised in that: the forward wall is configured as a bifold panel with the lower portion pivotally attached to the upper portion; and the rear wall is configured as a bifold panel with a lower portion of the rear wall pivotally attached to an upper portion of the rear wall; and the bottom base structure comprises a riser configured to interface with the forward wall such that in absence of the one or more of the first seats and one or more of the second seats, the multiple seat shipping container is collapsible into a compact configuration whereby the forward wall is positioned in a bifolded condition above the rear wall in a bifolded condition. a bottom base structure configured to attach one or more first seats; a forward wall with a lower portion pivotally attached to a forward side of the bottom base structure; a top wall pivotally attached to an upper portion of the forward wall, the top wall configured to attach one or more second seats; and a rear wall attached to a rear side of the bottom base structure, wherein the multiple seat shipping container is configured to fold into a box shape configuration such that the one or more second seats are suspended from the top wall adjacent to the one or more first seats; characterised in that: the forward wall is configured as a bifold panel with the lower portion pivotally attached to the upper portion; and the rear wall is configured as a bifold panel with a lower portion of the rear wall pivotally attached to an upper portion of the rear wall; and the bottom base structure comprises a riser configured to interface with the forward wall such that in absence of the one or more of the first seats and one or more of the second seats, the multiple seat shipping container is collapsible into a compact configuration whereby the forward wall is positioned in a bifolded condition above the rear wall in a bifolded condition. the forward wall is configured as a bifold panel with the lower portion pivotally attached to the upper portion; and the rear wall is configured as a bifold panel with a lower portion of the rear wall pivotally attached to an upper portion of the rear wall; and the bottom base structure comprises a riser configured to interface with the forward wall such that in absence of the one or more of the first seats and one or more of the second seats, the multiple seat shipping container is collapsible into a compact configuration whereby the forward wall is positioned in a bifolded condition above the rear wall in a bifolded condition.
A composition, comprising: manganese vanadium tantalum oxide having the formula Mn x V y Ta z O w, where 1 ≤ x ≤ 3, 0.001 ≤ y ≤ 3, 0.001 ≤ z ≤ 2, and w = 7. manganese vanadium tantalum oxide having the formula Mn x V y Ta z O w, where 1 ≤ x ≤ 3, 0.001 ≤ y ≤ 3, 0.001 ≤ z ≤ 2, and w = 7.
Inductance circuit, comprising: a) a core made of a single-piece magnetic material with overall volume V, comprising a frame, and a bar located at the centre of the frame so as to form two rectangular magnetic loops symmetric about the bar, contiguous at a plane of symmetry of the bar, and with effective magnetic length I, the straight parts of the frame have a cross-section with area A, and the bar has a cross-section 2A equal to twice the cross-section A, b) a coil comprising a number N of turns designed to generate magnetic induction in the bar, c) fins exposed to the external environment and designed to dissipate heat, the fins being made of the same magnetic material as the core, the inductance circuit being characterised in that the fins are at least partly within at least one volume zone (24a, 24b) of the frame, located along the prolongation of at least one end of the bar. a) a core made of a single-piece magnetic material with overall volume V, comprising a frame, and a bar located at the centre of the frame so as to form two rectangular magnetic loops symmetric about the bar, contiguous at a plane of symmetry of the bar, and with effective magnetic length I, the straight parts of the frame have a cross-section with area A, and the bar has a cross-section 2A equal to twice the cross-section A, b) a coil comprising a number N of turns designed to generate magnetic induction in the bar, c) fins exposed to the external environment and designed to dissipate heat, the fins being made of the same magnetic material as the core,
A blend consisting essentially of, based on the weight of the blend: A. 80 to less than 100 wt% vinylidene chloride interpolymer, wherein the VDC interpolymer comprises mer units derived from one or more of an alkyl acrylate, alkyl methacrylate or acrylonitrile monomer; and B. Greater than zero to 20 wt% poly(butylene succinate), wherein the PBS has a Mw of 6.64x10 -23 to 1.66x10 -21 kg (40,000 to 1,000,000 Daltons). A. 80 to less than 100 wt% vinylidene chloride interpolymer, wherein the VDC interpolymer comprises mer units derived from one or more of an alkyl acrylate, alkyl methacrylate or acrylonitrile monomer; and B. Greater than zero to 20 wt% poly(butylene succinate), wherein the PBS has a Mw of 6.64x10 -23 to 1.66x10 -21 kg (40,000 to 1,000,000 Daltons).
A respiratory therapy system, comprising: a flow generator that generates a flow of a breathing gas, the flow generator comprising an outlet for the flow of the breathing gas; a flexible breathing tube assembly comprising a connector and a tube, the tube having a first end and a second end, wherein the first end is coupled to the connector in a substantially non-rotatable manner, and wherein the connector couples the breathing tube to the outlet of the flow generator; a patient interface coupled to the second end of the breathing tube such that the breathing tube can deliver the flow of the breathing gas from the flow generator to the patient interface; a swivel elbow that is rotatably coupled to the connector of the breathing tube, the swivel elbow comprising an engagement portion that at least partially surrounds the breathing tube to couple the swivel elbow to the breathing tube, the swivel elbow further comprising a curved surface portion that guides a first portion of the breathing tube into a curved shape; and wherein the breathing tube is rotatable relative to the engagement portion of the swivel elbow such that the swivel elbow can be rotated relative to the connector to vary a direction in which the breathing tube extends relative to the flow generator. a flow generator that generates a flow of a breathing gas, the flow generator comprising an outlet for the flow of the breathing gas; a flexible breathing tube assembly comprising a connector and a tube, the tube having a first end and a second end, wherein the first end is coupled to the connector in a substantially non-rotatable manner, and wherein the connector couples the breathing tube to the outlet of the flow generator; a patient interface coupled to the second end of the breathing tube such that the breathing tube can deliver the flow of the breathing gas from the flow generator to the patient interface; a swivel elbow that is rotatably coupled to the connector of the breathing tube, the swivel elbow comprising an engagement portion that at least partially surrounds the breathing tube to couple the swivel elbow to the breathing tube, the swivel elbow further comprising a curved surface portion that guides a first portion of the breathing tube into a curved shape; and wherein the breathing tube is rotatable relative to the engagement portion of the swivel elbow such that the swivel elbow can be rotated relative to the connector to vary a direction in which the breathing tube extends relative to the flow generator.
A node configuration method, comprising: determining, by a controller, a target network based on an original network, wherein the original network is for flooding control topology information, the target network is for flooding service topology information, and a quantity of flooding paths in the target network is less than a quantity of flooding paths in the original network, wherein the control topology information comprises a link-state advertisement, LSA, and the service topology information comprises traffic engineering, TE topology information that includes maximum link bandwidth, maximum reservable bandwidth, current reserved bandwidth, a priority, and the like of a TE link; determining, by the controller, attributes of all interfaces on each node, wherein the attributes of the interfaces comprise a first attribute and a second attribute, an interface with the first attribute is configured to flood the service topology information to a corresponding adjacent node, and receive service topology information flooded by another node, and an interface with the second attribute is not configured to flood the service topology information but may flood the control topology information; and generating, by the controller, first configuration information based on the attributes of all the interfaces on each node, and sending, to each node, the first configuration information corresponding to each node, wherein the first configuration information indicates each node to configure the attributes of all the local interfaces. determining, by a controller, a target network based on an original network, wherein the original network is for flooding control topology information, the target network is for flooding service topology information, and a quantity of flooding paths in the target network is less than a quantity of flooding paths in the original network, wherein the control topology information comprises a link-state advertisement, LSA, and the service topology information comprises traffic engineering, TE topology information that includes maximum link bandwidth, maximum reservable bandwidth, current reserved bandwidth, a priority, and the like of a TE link; determining, by the controller, attributes of all interfaces on each node, wherein the attributes of the interfaces comprise a first attribute and a second attribute, an interface with the first attribute is configured to flood the service topology information to a corresponding adjacent node, and receive service topology information flooded by another node, and an interface with the second attribute is not configured to flood the service topology information but may flood the control topology information; and generating, by the controller, first configuration information based on the attributes of all the interfaces on each node, and sending, to each node, the first configuration information corresponding to each node, wherein the first configuration information indicates each node to configure the attributes of all the local interfaces.
Polymer particles composed of at least a poly(lactic-co-glycolic acid)-polyethylene glycol-poly(lactic-co-glycolic acid) (PLGA-PEG-PLGA) copolymer, or a mixture of poly(lactic-co-glycolic acid) (PLGA) polymer and of poly(lactic-co-glycolic acid)-polyethylene glycol-poly(lactic-co-glycolic acid) (PLGA-PEG-PLGA) copolymer, in which the ratio by weight of the poly(lactic-co-glycolic acid) (PLGA) polymer to the poly(lactic-co-glycolic acid)-polyethylene glycol-poly(lactic-co-glycolic acid) (PLGA-PEG-PLGA) copolymer varies from 40/60 to 60/40, combined with hyaluronic acid molecules or hyaluronic acid salts.
An apparatus comprising: an analog-to-digital converter, ADC, configured to convert an analog input signal to a digital output signal; a machine learning system configured to compensate the digital output signal for analog-to-digital conversion errors produced within circuitry of the ADC; a filter configured to reconstruct a sine wave input signal to the ADC from the digital output signal by filtering out all but the fundamental frequency of the sine wave input signal from the digital output signal; and circuitry configured to input a Process-Voltage-Temperature, PVT, parameter into the machine learning system; wherein the machine learning system has been trained to compensate for the analog-to-digital conversion errors with an error signal that is a difference between an output of the machine learning system and a target signal, wherein the target signal is a function of a filtered output from the ADC; wherein the digital output of the ADC varies as a function of a value of the PVT parameter, wherein the machine learning system has been trained to compensate for the analog-to-digital conversion errors while factoring in an effect on the digital output of the ADC resulting from the value of the PVT parameter, wherein the filtered output from the ADC is produced by the filter. an analog-to-digital converter, ADC, configured to convert an analog input signal to a digital output signal; a machine learning system configured to compensate the digital output signal for analog-to-digital conversion errors produced within circuitry of the ADC; a filter configured to reconstruct a sine wave input signal to the ADC from the digital output signal by filtering out all but the fundamental frequency of the sine wave input signal from the digital output signal; and circuitry configured to input a Process-Voltage-Temperature, PVT, parameter into the machine learning system; wherein the machine learning system has been trained to compensate for the analog-to-digital conversion errors with an error signal that is a difference between an output of the machine learning system and a target signal, wherein the target signal is a function of a filtered output from the ADC; wherein the digital output of the ADC varies as a function of a value of the PVT parameter, wherein the machine learning system has been trained to compensate for the analog-to-digital conversion errors while factoring in an effect on the digital output of the ADC resulting from the value of the PVT parameter, wherein the filtered output from the ADC is produced by the filter.
An adaptor (30; 60) for connecting a rotating electrical machine to a prime mover, the adaptor comprising side walls (40, 42; 70, 72), a top wall (36; 66) and a bottom wall (38; 68) and a plurality of air outlets (50, 52, 54, 56; 80, 82, 84, 86), characterised in that: each of the walls (36, 38, 40, 42; 66, 68, 70, 72) has an air outlet (50, 52, 54, 56; 80, 82, 84, 86); the air outlet (50, 52, 54, 56; 80, 82, 84, 86) is provided in a first part of the wall, in the direction of air flow; a second part of each of the walls (36, 38, 40, 42; 66, 68, 70, 72) is without an air outlet or has an air outlet which is blocked off; the second part of each of the walls is arranged to direct air flow to an air outlet (50, 52, 54, 56; 80, 82, 84, 86) in a subsequent wall; and the second part of each of the walls (36, 38, 40, 42; 66, 68, 70, 72) is arranged to provide an increase in a cross-sectional area of air flow towards the air outlet (50, 52, 54, 56; 80, 82, 84, 86) such that a progressive reduction in air velocity is achieved within the adaptor towards the outlet. each of the walls (36, 38, 40, 42; 66, 68, 70, 72) has an air outlet (50, 52, 54, 56; 80, 82, 84, 86); the air outlet (50, 52, 54, 56; 80, 82, 84, 86) is provided in a first part of the wall, in the direction of air flow; a second part of each of the walls (36, 38, 40, 42; 66, 68, 70, 72) is without an air outlet or has an air outlet which is blocked off; the second part of each of the walls is arranged to direct air flow to an air outlet (50, 52, 54, 56; 80, 82, 84, 86) in a subsequent wall; and the second part of each of the walls (36, 38, 40, 42; 66, 68, 70, 72) is arranged to provide an increase in a cross-sectional area of air flow towards the air outlet (50, 52, 54, 56; 80, 82, 84, 86) such that a progressive reduction in air velocity is achieved within the adaptor towards the outlet.
A porous electrode base material comprising: short carbon fibers which are dispersed in random directions in a substantially two-dimensional plane and have a fiber diameter of 3 to 9 μm and a length of 2 to 12 mm: an amorphous carbonized resin which binds said short carbon fibers; and a filamentary carbonized resin which further cross-links said short carbon fibers, wherein said porous electrode base material has a thickness of 150 μm or less.
An object-gripping attachment, capable of being detachably attached to an arm section of an industrial robot and comprising a three-dimensional shaped object, wherein the three-dimensional shaped object is a cured product of a resin composition (550, 650) configured for producing the three-dimensional shaped object by selectively irradiating the liquid resin composition (550, 650) with an active energy ray, characterized in that the resin composition (550, 650) comprises (i) a photocurable compound and (ii) metal-containing particles that are detectable by a metal detector and are surface-modified with a surface modifier, and wherein a content of the metal-containing particles is 10 mass% or more and 55 mass% or less based on the solid content of the resin composition (550, 650), the solid content of the resin composition (550, 650) meaning the total amount of components which remain in the resin composition (550, 650) when the resin composition (550, 650) is cured. wherein the three-dimensional shaped object is a cured product of a resin composition (550, 650) configured for producing the three-dimensional shaped object by selectively irradiating the liquid resin composition (550, 650) with an active energy ray, characterized in that the resin composition (550, 650) comprises (i) a photocurable compound and (ii) metal-containing particles that are detectable by a metal detector and are surface-modified with a surface modifier, and wherein a content of the metal-containing particles is 10 mass% or more and 55 mass% or less based on the solid content of the resin composition (550, 650), the solid content of the resin composition (550, 650) meaning the total amount of components which remain in the resin composition (550, 650) when the resin composition (550, 650) is cured.