mhurhangee/ep-ind-claims huggingface dataset:
A brake control device for delivering air under controlled pressure to a pneumatic brake actuator, with a valve assembly (1,1a,1b) comprising: - one or more inlet ports (51,52) coupled to at least a compressed air supply circuit, - a working port coupled to a service brake chamber of the brake actuator, - one or more venting ports for releasing air to the atmosphere - a first inlet solenoid valve for connecting one or more inlet ports to the working port, upon selective control, - a first outlet solenoid valve for connecting the working port to one or more venting ports, upon selective control, characterized by - a second inlet solenoid valve for connecting one or more inlet ports to the working port, upon selective control, - a second outlet solenoid valve for connecting the working port to one or more venting ports, upon selective control, - a biased check valve, for coupling the working port to one of the venting port(s), the brake control device further comprising: - a first local electronic control unit for controlling first inlet solenoid valve and first outlet solenoid valve, - a second local electronic control unit for controlling second inlet solenoid valve and second outlet solenoid valve. - one or more inlet ports (51,52) coupled to at least a compressed air supply circuit, - a working port coupled to a service brake chamber of the brake actuator, - one or more venting ports for releasing air to the atmosphere - a first inlet solenoid valve for connecting one or more inlet ports to the working port, upon selective control, - a first outlet solenoid valve for connecting the working port to one or more venting ports, upon selective control, characterized by - a second inlet solenoid valve for connecting one or more inlet ports to the working port, upon selective control, - a second outlet solenoid valve for connecting the working port to one or more venting ports, upon selective control, - a biased check valve, for coupling the working port to one of the venting port(s), - a first local electronic control unit for controlling first inlet solenoid valve and first outlet solenoid valve, - a second local electronic control unit for controlling second inlet solenoid valve and second outlet solenoid valve.
An inserting and removing device for a compressor, comprising: an intermediate supporting portion which is configured to support a bundle, before the bundle is inserted into a compressor casing formed in a tubular shape about a horizontal axis in a direction of the horizontal axis, at an outer peripheral side of the bundle at a position closer to an insertion side than an end portion on a side opposite to the insertion side of the bundle; a moving portion which can move the intermediate supporting portion and the compressor casing relative to each other in the direction of the horizontal axis; the device being characterised in that it further comprises a threaded rod which extends to be parallel to the horizontal axis, has a distal end fixable to a fixing hole formed on an end surface on the insertion side of the compressor casing, and is inserted into a through-hole (6a, 7a) formed in the intermediate supporting portion; and a nut which is attached to the threaded rod so as to come into contact with the intermediate supporting portion on a side closer to the end portion of the bundle than the intermediate supporting portion. an intermediate supporting portion which is configured to support a bundle, before the bundle is inserted into a compressor casing formed in a tubular shape about a horizontal axis in a direction of the horizontal axis, at an outer peripheral side of the bundle at a position closer to an insertion side than an end portion on a side opposite to the insertion side of the bundle; a moving portion which can move the intermediate supporting portion and the compressor casing relative to each other in the direction of the horizontal axis; the device being characterised in that it further comprises a threaded rod which extends to be parallel to the horizontal axis, has a distal end fixable to a fixing hole formed on an end surface on the insertion side of the compressor casing, and is inserted into a through-hole (6a, 7a) formed in the intermediate supporting portion; and a nut which is attached to the threaded rod so as to come into contact with the intermediate supporting portion on a side closer to the end portion of the bundle than the intermediate supporting portion.
Machine for cambering, shaping, bending or curving a bar along a bending axis, said machine including: • an arm, • a bending shank carried by the arm, • a bending head comprising a rotatable bending lug that is rotatable relative to the bending axis, and • a feeding station located upstream from the bending shank for moving the bar along an axis of travel and across the bending shank. which machine is characterized in that the bending head also comprises: • a first connecting rod carrying the bending lug, • a second connecting rod, a head of which is coupled to a head of the first connecting rod so as to rotate relative to a hinge axis perpendicular to the axis of travel, • a first drive means for driving in translation a leg of the first connecting rod along an axis parallel to the axis of travel, and a second drive means for driving in translation a leg of the second connecting rod along an axis parallel to the axis of travel. • an arm, • a bending shank carried by the arm, • a bending head comprising a rotatable bending lug that is rotatable relative to the bending axis, and • a feeding station located upstream from the bending shank for moving the bar along an axis of travel and across the bending shank. which machine is characterized in that the bending head also comprises: • a first connecting rod carrying the bending lug, • a second connecting rod, a head of which is coupled to a head of the first connecting rod so as to rotate relative to a hinge axis perpendicular to the axis of travel, • a first drive means for driving in translation a leg of the first connecting rod along an axis parallel to the axis of travel, and a second drive means for driving in translation a leg of the second connecting rod along an axis parallel to the axis of travel.
A method performed by a base station in a wireless communication system, the method comprising: obtaining a value indicating a processing state of data for a plurality of terminals; identifying whether a quality of experience, QoE, achievement degree of the plurality of terminals increases based on the processing state; in case that the QoE achievement degree of the plurality of terminals does not increase, determining a scheduling scheme for the plurality of terminals to increase a scheduling metric for the plurality of terminals; identifying a ratio of a number of terminals not achieving the QoS achievement degree to a number of the plurality of terminals; in case that the ratio is over a preset value, determining a scheduling scheme for each of the plurality of terminals to decrease a scheduling metric for terminals belonging to a lowest service class among a plurality of service classes; and performing a scheduling based on the determined scheduling scheme for the plurality of terminals and the determined scheduling scheme for each of the plurality of terminals. obtaining a value indicating a processing state of data for a plurality of terminals; identifying whether a quality of experience, QoE, achievement degree of the plurality of terminals increases based on the processing state; in case that the QoE achievement degree of the plurality of terminals does not increase, determining a scheduling scheme for the plurality of terminals to increase a scheduling metric for the plurality of terminals; identifying a ratio of a number of terminals not achieving the QoS achievement degree to a number of the plurality of terminals; in case that the ratio is over a preset value, determining a scheduling scheme for each of the plurality of terminals to decrease a scheduling metric for terminals belonging to a lowest service class among a plurality of service classes; and performing a scheduling based on the determined scheduling scheme for the plurality of terminals and the determined scheduling scheme for each of the plurality of terminals.
An extreme temperature gasket material comprising: 5 to 20 wt% inorganic fiber; and being characterized by comprising 75 to 90 wt% inorganic filler; and 1 to 5 wt% organic binder; wherein the inorganic filler is substantially talc, and wherein the amount of organic material present in the extreme temperature gasket material is less than 5 wt%. 5 to 20 wt% inorganic fiber; and being characterized by comprising 75 to 90 wt% inorganic filler; and 1 to 5 wt% organic binder;
Use of one or more substances selected from the group consisting of 4-isopropylbenzyl salicylate, 2-ethylhexyl salicylate, homomenthyl salicylate for masking the odour of ammonia as degradation product of the urea in cosmetic or dermatological preparations.
A method for detecting a presence or absence of a screen cover on an electronic device, the method comprising: receiving an image of a front side of an electronic device, the electronic device having a screen and a non-screen periphery at the front side; automatically identifying line segments in a portion of the image corresponding to at least the non-screen periphery using image processing; determining respective angles of the identified line segments relative to a first axis parallel to an edge of the electronic device; determining a first amount of the identified line segments having respective angles within a first predetermined range about the first axis; determining respective angles of the identified line segments relative to a second axis of the electronic device orthogonal to the first axis; determining a second amount of the identified line segments having respective angles within a second predetermined range about the second axis; and determining a presence or absence of a screen cover on the electronic device based at least in part on the first amount, the second amount, or both, wherein determining the presence or absence of a screen cover on the electronic device includes determining the presence of a screen cover on the electronic device when the first amount, the second amount, both the first and second amounts, a ratio of the first amount to the total amount of the identified line segments, or a ratio of the second amount to the total amount exceeds a predetermined threshold amount. receiving an image of a front side of an electronic device, the electronic device having a screen and a non-screen periphery at the front side; automatically identifying line segments in a portion of the image corresponding to at least the non-screen periphery using image processing; determining respective angles of the identified line segments relative to a first axis parallel to an edge of the electronic device; determining a first amount of the identified line segments having respective angles within a first predetermined range about the first axis; determining respective angles of the identified line segments relative to a second axis of the electronic device orthogonal to the first axis; determining a second amount of the identified line segments having respective angles within a second predetermined range about the second axis; and determining a presence or absence of a screen cover on the electronic device based at least in part on the first amount, the second amount, or both, wherein determining the presence or absence of a screen cover on the electronic device includes determining the presence of a screen cover on the electronic device when the first amount, the second amount, both the first and second amounts, a ratio of the first amount to the total amount of the identified line segments, or a ratio of the second amount to the total amount exceeds a predetermined threshold amount.
Continuous liquid phase process for preparing metal-containing nanoparticles and/or nanoparticle dispersions in a microreactor, characterized by the following steps: a) injection into or passing through a microreaction technology system of a pre-mixed precursor solution containing at least one reactant and at least one surfactant with volume flow throughputs of from 0.05 ml/min to 500 ml/min, b) optionally injection or passing of a further precursor solution containing at least one further reactant and at least one surfactant, and mixing of the two precursor solutions a) and b) via a suitable mixing element (e.g. micromixer) to give a reaction solution, c) initiation of nucleation by heating rapidly the reaction solution consisting of at least 2 precursor solutions to a temperature at which reaction and nucleation take place to a significant extent, to a temperature of more than 200°C, d) controlled growth of the nanoparticles by thermostatting/heating the reaction solution in a residence time reactor to a temperature of more than 150°C, with the temperature having to be lower than the temperature required for nucleation. a) injection into or passing through a microreaction technology system of a pre-mixed precursor solution containing at least one reactant and at least one surfactant with volume flow throughputs of from 0.05 ml/min to 500 ml/min, b) optionally injection or passing of a further precursor solution containing at least one further reactant and at least one surfactant, and mixing of the two precursor solutions a) and b) via a suitable mixing element (e.g. micromixer) to give a reaction solution, c) initiation of nucleation by heating rapidly the reaction solution consisting of at least 2 precursor solutions to a temperature at which reaction and nucleation take place to a significant extent, to a temperature of more than 200°C, d) controlled growth of the nanoparticles by thermostatting/heating the reaction solution in a residence time reactor to a temperature of more than 150°C, with the temperature having to be lower than the temperature required for nucleation.
An artificial lung comprising: a gas exchanger portion that is provided with an external circulation-type gas exchanging hollow fiber membrane bundle; and a wound heat exchanger portion that is provided with a heat exchanging element comprised of a resin tube, wherein the artificial lung is designed such that when a heat exchange performance coefficient of the artificial lung, a blood filling amount of the artificial lung, and a blood side pressure loss of the artificial lung are measured, and when Fp3=heat exchange performance coefficient of artificial lung/(blood filling amount of artificial lung ×blood side pressure loss of artificial lung [mmHg/(L/min)]) is calculated, a value of Fp3 is equal to or greater than 0.15. a gas exchanger portion that is provided with an external circulation-type gas exchanging hollow fiber membrane bundle; and a wound heat exchanger portion that is provided with a heat exchanging element comprised of a resin tube, wherein the artificial lung is designed such that when a heat exchange performance coefficient of the artificial lung, a blood filling amount of the artificial lung, and a blood side pressure loss of the artificial lung are measured, and when Fp3=heat exchange performance coefficient of artificial lung/(blood filling amount of artificial lung ×blood side pressure loss of artificial lung [mmHg/(L/min)]) is calculated, a value of Fp3 is equal to or greater than 0.15.
Housing comprising a battery compartment, which can be closed by a pivotable cover, wherein the cover is detachable from the housing, and wherein a strip, when a battery has been inserted, lies underneath the battery and captively connects the cover to the housing, characterized in that the strip has a torsion resistance that is sufficient to guide the cover into a correct position relative to the battery compartment on closing.
A vacuum adapter (20,40) for a power tool with a bit holder extending from a front end of the power tool, which vacuum adapter (20,40) is arranged to house said bit holder and to suck screws into alignment with a bit arranged inside said bit holder, and which vacuum adapter (20,40) comprises: - a connection part (21,41) for connecting the vacuum adapter (20,40) to said front end of said power tool, such that the vacuum adapter covers said bit holder of said tool, - a vacuum connection (22,42) for connecting the vacuum adapter to a negative pressure source, wherein the vacuum adapter (20,40) comprises a cover part (24,44) that is arranged to cover the bit holder and that may be separately disconnected from the power tool, leaving the connection part (21,41) attached to the power tool, characterised in that the vacuum adapter (20,40) comprises a quick coupling (23a,23b;43a,43b) for rapid disconnection of at least a part of said vacuum adapter (20,40) in order to access said bit holder for exchanging bits, wherein the cover part (24,44) is connected to the connection part (21,41) via said quick coupling, wherein said quick coupling comprises a female part (23a;43a) and a male part (23b;43b), and wherein an O-ring (33; 43) adapted to keep the connection between the male and female parts fluid tight is arranged on the inside of said female part (23a; 43a). - a connection part (21,41) for connecting the vacuum adapter (20,40) to said front end of said power tool, such that the vacuum adapter covers said bit holder of said tool, - a vacuum connection (22,42) for connecting the vacuum adapter to a negative pressure source,
Method for generating a target light starting from a plurality of light sources, each having an individual emission spectrum, comprising the steps of: - selecting a target colour from a target region of a colour space; and - emitting a target light from said light sources according to a weighted combination of light sources corresponding to said target colour; wherein, for said target colour, said weighted combination is obtained from an output model which is optimized according to an optimization parameter, and characterized in that said output model is previously determined in a modelling stage comprising the following steps: - calculating a plurality of mixed spectra, each being a weighted combination of said individual emission spectra of said plurality of light sources; - for each mixed spectrum of said plurality of mixed spectra, calculating its colour coordinates and its optimization parameter; - partitioning in sectors a modelling region of said colour space; - for each sector, selecting an optimized mixed spectrum as the mixed spectrum contained in said sector having the best optimization parameter; thus obtaining an optimized weighted combination for said sector, as the weighted combination of said optimized mixed spectrum; - using the optimized weighted combination of each of said sectors, establishing a correspondence between colour coordinates and weighted combinations; - thus obtaining said output model. - selecting a target colour from a target region of a colour space; and - emitting a target light from said light sources according to a weighted combination of light sources corresponding to said target colour; - calculating a plurality of mixed spectra, each being a weighted combination of said individual emission spectra of said plurality of light sources; - for each mixed spectrum of said plurality of mixed spectra, calculating its colour coordinates and its optimization parameter; - partitioning in sectors a modelling region of said colour space; - for each sector, selecting an optimized mixed spectrum as the mixed spectrum contained in said sector having the best optimization parameter; thus obtaining an optimized weighted combination for said sector, as the weighted combination of said optimized mixed spectrum; - using the optimized weighted combination of each of said sectors, establishing a correspondence between colour coordinates and weighted combinations; - thus obtaining said output model.
A wearable robotic device comprising: a first body assembly having a first portion of a self-aligning, self-drawing coupler; a second body assembly having a second portion of the self-aligning, self-drawing coupler; a power source; a motive device powered by the power source and configured to move at least a portion of the first or second body assembly (200; 300) relative to the other of the first or second body assembly (200; 300); and a latch configured to draw the first portion of the self-aligning, self-drawing coupler to a latched position relative to the second portion of the self-aligning, self-drawing coupler, in which the first portion of the self-aligning, self-drawing coupler includes a tapered male portion receivable in a complimentary tapered female portion of the second portion of the self-aligning, self-drawing coupler, in which the latch includes a manually operable lever, and in which the second portion of the self-aligning, self-drawing coupler includes a linkage device configured to transmit motion from the manual lever to the latch to draw the tapered male portion into the complimentary tapered female portion to a latched position. a first body assembly having a first portion of a self-aligning, self-drawing coupler; a second body assembly having a second portion of the self-aligning, self-drawing coupler; a power source; a motive device powered by the power source and configured to move at least a portion of the first or second body assembly (200; 300) relative to the other of the first or second body assembly (200; 300); and a latch configured to draw the first portion of the self-aligning, self-drawing coupler to a latched position relative to the second portion of the self-aligning, self-drawing coupler, in which the first portion of the self-aligning, self-drawing coupler includes a tapered male portion receivable in a complimentary tapered female portion of the second portion of the self-aligning, self-drawing coupler, in which the latch includes a manually operable lever, and in which the second portion of the self-aligning, self-drawing coupler includes a linkage device configured to transmit motion from the manual lever to the latch to draw the tapered male portion into the complimentary tapered female portion to a latched position.
A mechanism for reducing the speed of road traffic on public thoroughfares comprising: [a] a collapsible surface adapted to move reversibly between a first raised position and a second lowered position, where said collapsible surface is normally in said first raised position, such that it is visible to the road traffic, and [b] retaining means adapted to retain said collapsible surface in said raised position, where said retaining means comprise a pneumatic or hydraulic circuit, said pneumatic or hydraulic circuit being completely independent of an electric supply characterized in that said pneumatic or hydraulic circuit comprises a hose break valve, said retaining means being directly activated by the speed of movement of said collapsible surface when touched by the front wheel of a vehicle, and said retaining means are adapted to be activated when the speed of movement of said collapsible surface is greater than a predetermined maximum speed.