mhurhangee/ep-ind-claims huggingface dataset:
A construction machine, which comprises a cabin in which a driver is seated, the construction machine comprising: an air conditioning device configured to adjust an internal temperature of the cabin; and ducts extending from the air conditioning device and configured to guide an air flow, wherein the ducts branch to comprise: a first duct extending toward an upper side of the cabin; a second duct extending toward a rear side of the ventilated seat, and a second nozzle disposed at an end of the second duct, characterised in that the construction machine further comprises a ventilated seat having fans, wherein the ventilated seat comprises a cushion configured to support the driver's lower body, and a second fan is installed in the cushion, wherein the second fan protrudes from a lowermost end of the ventilated seat, and wherein the second nozzle is disposed at the same height as the second fan. an air conditioning device configured to adjust an internal temperature of the cabin; and ducts extending from the air conditioning device and configured to guide an air flow, wherein the ducts branch to comprise: a first duct extending toward an upper side of the cabin; a second duct extending toward a rear side of the ventilated seat, and a second nozzle disposed at an end of the second duct, characterised in that the construction machine further comprises a ventilated seat having fans, wherein the ventilated seat comprises a cushion configured to support the driver's lower body, and a second fan is installed in the cushion, wherein the second fan protrudes from a lowermost end of the ventilated seat, and wherein the second nozzle is disposed at the same height as the second fan. a first duct extending toward an upper side of the cabin; a second duct extending toward a rear side of the ventilated seat, and a second nozzle disposed at an end of the second duct, characterised in that the construction machine further comprises a ventilated seat having fans, wherein the ventilated seat comprises a cushion configured to support the driver's lower body, and a second fan is installed in the cushion, wherein the second fan protrudes from a lowermost end of the ventilated seat, and wherein the second nozzle is disposed at the same height as the second fan.
A light emitting device comprising: an LED emitting ultraviolet or blue light; and one or more phosphors excited by the ultraviolet or blue light and in response emitting longer wavelength light to provide a combined phosphor emission spectrum having an emission peak at wavelength λ pk with a full width at half maximum of FWHM, the wavelength λ pk satisfying 525 nm ≥ λ pk ≥ 0.039 * FWHM + 492.7 nm with λ pk and FWHM expressed in nm, and the combined phosphor emission spectrum having an x,y color point in the 1931 CIE color space that does not satisfy x < 0.2 and 0.32 < y < 0.4; optical output from the light emitting device, formed from at least the light emitted by the one or more phosphors and including blue light emitted by the LED, having an x,y color point with x < 0.2 and 0.32 < y < 0.4 in the 1931 CIE color space; the blue light from the LED shifting the x,y color point of the optical output of the light emitting device from that of the combined phosphor emission spectrum to the color point for which x < 0.2 and 0.32 < y < 0.4; and the one or more phosphors being selected from the group consisting of (a) M 4 B 14 O 25:Eu 2+ + (b) A 3 B 5 O 12:Ce 3+, wherein M comprises one or more of Sr and Ca, wherein A comprises one or more of Y, Gd, and Lu, and wherein B comprises one or more of Al, Ga, In and Sc. an LED emitting ultraviolet or blue light; and one or more phosphors excited by the ultraviolet or blue light and in response emitting longer wavelength light to provide a combined phosphor emission spectrum having an emission peak at wavelength λ pk with a full width at half maximum of FWHM, the wavelength λ pk satisfying 525 nm ≥ λ pk ≥ 0.039 * FWHM + 492.7 nm with λ pk and FWHM expressed in nm, and the combined phosphor emission spectrum having an x,y color point in the 1931 CIE color space that does not satisfy x < 0.2 and 0.32 < y < 0.4; optical output from the light emitting device, formed from at least the light emitted by the one or more phosphors and including blue light emitted by the LED, having an x,y color point with x < 0.2 and 0.32 < y < 0.4 in the 1931 CIE color space; the blue light from the LED shifting the x,y color point of the optical output of the light emitting device from that of the combined phosphor emission spectrum to the color point for which x < 0.2 and 0.32 < y < 0.4; and the one or more phosphors being selected from the group consisting of (a) M 4 B 14 O 25:Eu 2+ + (b) A 3 B 5 O 12:Ce 3+, wherein M comprises one or more of Sr and Ca, wherein A comprises one or more of Y, Gd, and Lu, and wherein B comprises one or more of Al, Ga, In and Sc.
A stain removal device (301B, 401B) for treating a stained area on a cloth, the stain removal device (301B, 401B) comprising: - a heating plate for heating a bleach chemical solution previously dosed onto the stained area, - a housing for enclosing the stained area and the heating plate, - an absorption component for absorbing vapours of said bleach chemical solution generated from the stained area, said absorption component cooperating with said housing and being arranged above said heating plate. - a heating plate for heating a bleach chemical solution previously dosed onto the stained area, - a housing for enclosing the stained area and the heating plate, - an absorption component for absorbing vapours of said bleach chemical solution generated from the stained area, said absorption component cooperating with said housing and being arranged above said heating plate.
A cardiac rhythm management device comprising: a pulse generator for generating electrical pulses to be delivered to a heart at a pacing rate; a processor in communication with the pulse generator; one or more sensors for sensing pulmonary function and cardiac function, the one or more sensors in communication with the processor (20,24); and the processor configured to determine a rate of change in the pulmonary function and a rate of change in the cardiac function, and calculate a target pacing rate based on an existing pacing rate, the rate of change in the pulmonary function and the rate of change in the cardiac function (fig. 2); characterized in that the processor is configured to make the target pacing rate faster than the existing pacing rate when the pulmonary function is increasing with time and the cardiac function is increasing with time, to make the target pacing rate equal to the existing pacing rate when the pulmonary function is increasing with time and the cardiac function is decreasing with time, and to make the target pacing rate less than the existing pacing rate when the pulmonary function is decreasing with time, wherein the cardiac function comprises stroke volume. a pulse generator for generating electrical pulses to be delivered to a heart at a pacing rate; a processor in communication with the pulse generator; one or more sensors for sensing pulmonary function and cardiac function, the one or more sensors in communication with the processor (20,24); and the processor configured to determine a rate of change in the pulmonary function and a rate of change in the cardiac function, and calculate a target pacing rate based on an existing pacing rate, the rate of change in the pulmonary function and the rate of change in the cardiac function (fig. 2); characterized in that the processor is configured to make the target pacing rate faster than the existing pacing rate when the pulmonary function is increasing with time and the cardiac function is increasing with time, to make the target pacing rate equal to the existing pacing rate when the pulmonary function is increasing with time and the cardiac function is decreasing with time, and to make the target pacing rate less than the existing pacing rate when the pulmonary function is decreasing with time, wherein the cardiac function comprises stroke volume.
A hydrogen generator comprising: an enclosure to contain an electrolyte, an anode and cathode in the enclosure, and electrical connections to the anode and cathode for supplying power to cause an electrolysis reaction to take place to decompose the electrolyte and produce hydrogen gas, and an outlet for feeding out hydrogen gas from the enclosure, characterised in that the hydrogen generator also comprises a series of spaced plates contained within the enclosure and defining between them liquidtight cells, between the anode and the cathode, a plate forming a first wall of each cell being of a relatively more noble material and a plate forming a second wall of that cell being of a relatively less noble material such that a concurrent galvanic reaction will take place between the plates (14a, 14b) simultaneously with said electrolysis reaction so that less energy is required to decompose the electrolyte and produce hydrogen gas. an enclosure to contain an electrolyte, an anode and cathode in the enclosure, and electrical connections to the anode and cathode for supplying power to cause an electrolysis reaction to take place to decompose the electrolyte and produce hydrogen gas, and an outlet for feeding out hydrogen gas from the enclosure, characterised in that the hydrogen generator also comprises a series of spaced plates contained within the enclosure and defining between them liquidtight cells, between the anode and the cathode, a plate forming a first wall of each cell being of a relatively more noble material and a plate forming a second wall of that cell being of a relatively less noble material such that a concurrent galvanic reaction will take place between the plates (14a, 14b) simultaneously with said electrolysis reaction so that less energy is required to decompose the electrolyte and produce hydrogen gas.
A combustion/pyrolization system comprising: a base frame; a combustion/pyrolization chamber being supported by the base frame; a perforated grate forming a bottom surface of the combustion/pyrolization chamber, and the perforated grate having a plurality of openings formed therein to facilitate passage of at least char and boichar therethrough; the combustion/pyrolization chamber being open along at a top to facilitate feeding of feed material into the combustion/pyrolization chamber; a first blower for supplying a first source of combustion air across the top of the combustion/pyrolization chamber and forming an air curtain during operation of the blower as well as supplying a first source of combustion air to the combustion/pyrolization chamber; an air manifold being coupled to the first blower; a char collection/transfer chamber being located below the perforated grate for collecting the at least char and biochar that passes through the perforated grate, and the char collection/transfer chamber having a conveying mechanism for transferring at least the char and biochar out of the combustion/pyrolization system for collection; a second blower for supplying secondary air to the char collection/transfer chamber, the secondary air being heated as the secondary air flows through and cools the char collection/transfer chamber, and the heated secondary air eventually flows into the char collection/transfer chamber and through the perforated grate thereby providing secondary combustion air for the combustion/pyrolization chamber; and an air plenum chamber being coupled to the second blower. a base frame; a combustion/pyrolization chamber being supported by the base frame; a perforated grate forming a bottom surface of the combustion/pyrolization chamber, and the perforated grate having a plurality of openings formed therein to facilitate passage of at least char and boichar therethrough; the combustion/pyrolization chamber being open along at a top to facilitate feeding of feed material into the combustion/pyrolization chamber; a first blower for supplying a first source of combustion air across the top of the combustion/pyrolization chamber and forming an air curtain during operation of the blower as well as supplying a first source of combustion air to the combustion/pyrolization chamber; an air manifold being coupled to the first blower; a char collection/transfer chamber being located below the perforated grate for collecting the at least char and biochar that passes through the perforated grate, and the char collection/transfer chamber having a conveying mechanism for transferring at least the char and biochar out of the combustion/pyrolization system for collection; a second blower for supplying secondary air to the char collection/transfer chamber, the secondary air being heated as the secondary air flows through and cools the char collection/transfer chamber, and the heated secondary air eventually flows into the char collection/transfer chamber and through the perforated grate thereby providing secondary combustion air for the combustion/pyrolization chamber; and an air plenum chamber being coupled to the second blower.
Medical ventilator comprising a motorized micro-blower and electronic components, and additionally comprising: - a patient air circuit fluidically connecting a patient air inlet to a suction inlet of the micro-blower in order to supply the micro-blower with air, and - a cooling air circuit comprising a cooling air inlet in order to convey cooling air which, by thermal exchange, is intended to cool at least some of the electronic components, and in which the patient air inlet of the patient air circuit is equipped with a first filter, and the cooling air inlet of the cooling air circuit is equipped with a second filter, characterized in that: - the first and second filters (31, 32) are carried by a detachable common filtration cartridge, - the filtration cartridge is configured to fasten detachably to the ventilator at the region of the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit, and - the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit are situated in at least one inlet compartment open towards the outside, said inlet compartment being configured to accommodate the filtration cartridge having the first and second filters (31, 32). - a patient air circuit fluidically connecting a patient air inlet to a suction inlet of the micro-blower in order to supply the micro-blower with air, and - a cooling air circuit comprising a cooling air inlet in order to convey cooling air which, by thermal exchange, is intended to cool at least some of the electronic components, and in which the patient air inlet of the patient air circuit is equipped with a first filter, and the cooling air inlet of the cooling air circuit is equipped with a second filter, characterized in that: - the first and second filters (31, 32) are carried by a detachable common filtration cartridge, - the filtration cartridge is configured to fasten detachably to the ventilator at the region of the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit, and - the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit are situated in at least one inlet compartment open towards the outside, said inlet compartment being configured to accommodate the filtration cartridge having the first and second filters (31, 32). - the first and second filters (31, 32) are carried by a detachable common filtration cartridge, - the filtration cartridge is configured to fasten detachably to the ventilator at the region of the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit, and - the patient air inlet of the patient air circuit and the cooling air inlet of the cooling air circuit are situated in at least one inlet compartment open towards the outside, said inlet compartment being configured to accommodate the filtration cartridge having the first and second filters (31, 32).
A method of correlating information relating to messages in a Session Initiation Protocol, SIP, session, the method comprising: receiving, by a second user, from a first user (301, 501) a first SIP message for initiating a first new SIP session as a first call leg from the first user to the second user, the first SIP message including a first IMS Charging Identifier, ICID identifying the first call leg; characterised by: retargeting (303, 503) the first SIP message to a third user by generating a new call leg comprising sending a second SIP message for initiating a second new SIP session, the second SIP message including a second ICID identifying the second call leg; inserting a reference to the first ICID into the second SIP message; and correlating information relating to the first SIP session with information relating to the second SIP session based on the first ICID and the reference to the first ICID in the second SIP message. receiving, by a second user, from a first user (301, 501) a first SIP message for initiating a first new SIP session as a first call leg from the first user to the second user, the first SIP message including a first IMS Charging Identifier, ICID identifying the first call leg; characterised by: retargeting (303, 503) the first SIP message to a third user by generating a new call leg comprising sending a second SIP message for initiating a second new SIP session, the second SIP message including a second ICID identifying the second call leg; inserting a reference to the first ICID into the second SIP message; and correlating information relating to the first SIP session with information relating to the second SIP session based on the first ICID and the reference to the first ICID in the second SIP message. retargeting (303, 503) the first SIP message to a third user by generating a new call leg comprising sending a second SIP message for initiating a second new SIP session, the second SIP message including a second ICID identifying the second call leg; inserting a reference to the first ICID into the second SIP message; and correlating information relating to the first SIP session with information relating to the second SIP session based on the first ICID and the reference to the first ICID in the second SIP message.
Drive belt with an endless carrier and a number of consecutive transverse members mounted slidable on the endless carrier, each provided with a front main body surface and with a rear main body surface, where between the transverse member extends in thickness direction, and with pulley contact faces mutually diverging in radial outward direction and destined for contact with sheaves (4, 5) of pulleys (1, 2) of a transmission wherein the drive belt can be applied, where between the transverse member extends in width direction, of which transverse members at least two types having a mutually different dimension in the thickness direction are included in the drive belt, characterized in that a dimension in the width direction of the type of transverse members having the largest dimension in the thickness direction is smaller than the corresponding dimension in the width direction of the type of transverse members (32") having the smallest dimension in the thickness direction.
A method for group-calling in a Click To Dial CTD service, comprising: receiving (F1, 401), by a CTD Application Server CTD AS, a call request sent by a CTD WEB Server CTD WS, wherein the call request comprises the number of a first party and a list of second parties input or selected by a user from a CTD WEB interface; calling (F3, 403), by the CTD AS, the first party by sending a request INVITE to the first party; and after the first party picks up the call, group-calling (F6, 408-410) all second parties in the list of second parties by sending a request INVITE to each second party in the list of second parties simultaneously; when a second party in the list of second parties picks up the call, connecting (F12, 428), by the CTD AS, the first party and the second party who picks up the call, and sending (F12, 432) a request CANCEL to any second party other than the second party who picks up the call, wherein the CTD AS reports (F4, 405, 407; F7, 412, 420, 422, 425) states of the first party and the second parties to the CTD WS in real time, such that the CTD WS displays states of the first party and the second parties before the user in real time. receiving (F1, 401), by a CTD Application Server CTD AS, a call request sent by a CTD WEB Server CTD WS, wherein the call request comprises the number of a first party and a list of second parties input or selected by a user from a CTD WEB interface; calling (F3, 403), by the CTD AS, the first party by sending a request INVITE to the first party; and after the first party picks up the call, group-calling (F6, 408-410) all second parties in the list of second parties by sending a request INVITE to each second party in the list of second parties simultaneously; when a second party in the list of second parties picks up the call, connecting (F12, 428), by the CTD AS, the first party and the second party who picks up the call, and sending (F12, 432) a request CANCEL to any second party other than the second party who picks up the call, wherein the CTD AS reports (F4, 405, 407; F7, 412, 420, 422, 425) states of the first party and the second parties to the CTD WS in real time, such that the CTD WS displays states of the first party and the second parties before the user in real time.
A breathing mask (200, 200', 200"), comprising: a frame (210, 210"); a forehead support member, which is pivotally connected to the frame (210, 210") to allow the forehead support member to swing toward the forehead of a patient or away from the forehead of the patient; and an adjusting member (220, 220', 220"), which is rotatably connected to the frame (210, 210"); wherein the frame comprises a gas transfer interface configured for supply of breathable gas, wherein the forehead support member is connected to the gas transfer interface, wherein the forehead support member is driven to swing by means of the rotation of the adjusting member (220, 220', 220"), and wherein the forehead support member has a first connecting part and the frame (210, 210") has a second connecting part, a gas flow passage configured to allow breathable gas to flow through the gas transfer interface is arranged in the first connecting part, the first connecting part and the second connecting part are fitted with each other to form a ball and socket connection structure, and the forehead support member and the frame (210, 210") are respectively provided with a limit part (233, 217) fitted with each other to limit the swing direction of the forehead support member. a frame (210, 210"); a forehead support member, which is pivotally connected to the frame (210, 210") to allow the forehead support member to swing toward the forehead of a patient or away from the forehead of the patient; and an adjusting member (220, 220', 220"), which is rotatably connected to the frame (210, 210"); wherein the frame comprises a gas transfer interface configured for supply of breathable gas, wherein the forehead support member is connected to the gas transfer interface, wherein the forehead support member is driven to swing by means of the rotation of the adjusting member (220, 220', 220"), and wherein the forehead support member has a first connecting part and the frame (210, 210") has a second connecting part, a gas flow passage configured to allow breathable gas to flow through the gas transfer interface is arranged in the first connecting part, the first connecting part and the second connecting part are fitted with each other to form a ball and socket connection structure, and the forehead support member and the frame (210, 210") are respectively provided with a limit part (233, 217) fitted with each other to limit the swing direction of the forehead support member.