mhurhangee/ep-ind-claims huggingface dataset:
A system for containing a viscous material applied to a moving surface, the system comprising: the moving surface, the moving surface being part of a roll or of a roll processed engineering material; a housing; a viscous material delivery device; and a plurality of gas delivery devices (119, 124, 145); characterized in that the system furthermore comprises a plurality of seals (117, 122, 132, 137) movable between a first position and a second position, wherein a contacting edge of each seal of the plurality of seals (117, 122, 132, 137) contacts the surface in the first position and is separated from the surface by a gap in the second position, and wherein the surface carries the viscous material toward at least one seal of the plurality of seals (117, 122, 132, 137); and wherein each of the plurality of gas delivery devices (119, 124, 145) is configured to supply a gas toward the contacting edge of at least one seal of the plurality of seals (117, 122, 132, 137) to move the at least one seal from the first position to the second position wherein the contacting edge of the at least one seal is separated from the surface by the gap, wherein, when each of the plurality of seals (117, 122, 132, 137) is in the second position, the gas supplied by the plurality of gas delivery devices (119, 124, 145) is configured to maintain the viscous material within the housing by acting as a contactless seal between the housing and the surface. the moving surface, the moving surface being part of a roll or of a roll processed engineering material; a housing; a viscous material delivery device; and a plurality of gas delivery devices (119, 124, 145); characterized in that the system furthermore comprises a plurality of seals (117, 122, 132, 137) movable between a first position and a second position, wherein a contacting edge of each seal of the plurality of seals (117, 122, 132, 137) contacts the surface in the first position and is separated from the surface by a gap in the second position, and wherein the surface carries the viscous material toward at least one seal of the plurality of seals (117, 122, 132, 137); and wherein each of the plurality of gas delivery devices (119, 124, 145) is configured to supply a gas toward the contacting edge of at least one seal of the plurality of seals (117, 122, 132, 137) to move the at least one seal from the first position to the second position wherein the contacting edge of the at least one seal is separated from the surface by the gap, wherein, when each of the plurality of seals (117, 122, 132, 137) is in the second position, the gas supplied by the plurality of gas delivery devices (119, 124, 145) is configured to maintain the viscous material within the housing by acting as a contactless seal between the housing and the surface.
A diesel engine system, comprising: a diesel engine; a NOx control device downstream of the engine; an exhaust line between the engine and the NOx control device; a bypass line connected to the exhaust line at a first end downstream of the engine and upstream of the NOx control device, wherein no NOx control device is provided in the bypass line; a bypass valve connecting the exhaust line and the bypass line, the bypass valve permitting flow through the exhaust line to the NOx control device when in an open position and preventing flow through the exhaust line to the NOx control device and permitting flow through the exhaust line to the bypass line when in a closed position; characterized in that a controller is arranged to close the bypass valve when the engine is operated under low NOx idle operating conditions. a diesel engine; a NOx control device downstream of the engine; an exhaust line between the engine and the NOx control device; a bypass line connected to the exhaust line at a first end downstream of the engine and upstream of the NOx control device, wherein no NOx control device is provided in the bypass line; a bypass valve connecting the exhaust line and the bypass line, the bypass valve permitting flow through the exhaust line to the NOx control device when in an open position and preventing flow through the exhaust line to the NOx control device and permitting flow through the exhaust line to the bypass line when in a closed position; characterized in that a controller is arranged to close the bypass valve when the engine is operated under low NOx idle operating conditions.
An implantable medical device, comprising: an electronic circuit; a housing enclosing the electronic circuit and comprising a first housing portion, a second housing portion and a joint coupling the first housing portion to the second housing portion; and a polymer enclosure member surrounding the joint. an electronic circuit; a housing enclosing the electronic circuit and comprising a first housing portion, a second housing portion and a joint coupling the first housing portion to the second housing portion; and a polymer enclosure member surrounding the joint.
A ground terminal to be mounted to a printed board having a positioning hole formed near a side edge portion of the printed board, the printed board being transported along a guide rail with the side edge portion of the printed board fitted into a guide groove formed in an inner side face of the guide rail, the ground terminal comprising: a ground terminal body (7") formed as a whole into a rectangular shape, the ground terminal body having a pick-up portion (7h, 7h', 15h-19h) picked up by a mounter and having a first end edge portion formed with a semicircular notch (7b, 7b', 15b-19b); and a connection portion formed in at least either one of a second end edge portion and first and second side edge portions of the ground terminal body (7"), the first and second side edge portions of the ground terminal body (7") extend in a direction away from the second end edge portion beyond a center of a virtual circle that defines a semicircular region of the semicircular notch (7b, 7b', 15b-19b) formed in the ground terminal body (7") and are adapted to the positioning hole, charaterized in that the first and second side edge portion extend without extending beyond the virtual circle as viewed in a longitudinal direction of the ground terminal body (7"). a ground terminal body (7") formed as a whole into a rectangular shape, the ground terminal body having a pick-up portion (7h, 7h', 15h-19h) picked up by a mounter and having a first end edge portion formed with a semicircular notch (7b, 7b', 15b-19b); and a connection portion formed in at least either one of a second end edge portion and first and second side edge portions of the ground terminal body (7"), the first and second side edge portions of the ground terminal body (7") extend in a direction away from the second end edge portion beyond a center of a virtual circle that defines a semicircular region of the semicircular notch (7b, 7b', 15b-19b) formed in the ground terminal body (7") and are adapted to the positioning hole,
A wireless communication method, comprising the following steps: receiving, by an access network device, a first downlink data flow that comprises first downlink data and that is sent by a core network device, wherein the first downlink data flow further comprises a first flow identifier; and sending, by the access network device, a second downlink data flow that comprises the first downlink data to a terminal, wherein the second downlink data flow further comprises a second flow identifier, wherein a length of the second flow identifier is less than a length of the first flow identifier, and the first flow identifier corresponds to the second flow identifier, wherein the method further comprises: sending, by the access network device, a mapping relationship between the second flow identifier and the first flow identifier to the terminal. receiving, by an access network device, a first downlink data flow that comprises first downlink data and that is sent by a core network device, wherein the first downlink data flow further comprises a first flow identifier; and sending, by the access network device, a second downlink data flow that comprises the first downlink data to a terminal, wherein the second downlink data flow further comprises a second flow identifier, wherein a length of the second flow identifier is less than a length of the first flow identifier, and the first flow identifier corresponds to the second flow identifier, wherein the method further comprises: sending, by the access network device, a mapping relationship between the second flow identifier and the first flow identifier to the terminal.
A wireless transmit/receive unit, WTRU, (22, 101, 102, 103) comprising: a receiver configured to receive synchronization information indicating at least one time slot of a repeating series of transmission time intervals, TTIs, that contains data intended for the WTRU; a plurality of signal processing components; and a processor configured to control the plurality of signal processing components, to receive data during the at least one time slot of the repeating series of TTIs that contains data intended for the WTRU, and to operate in a quiescent mode wherein the receiving signal processing component is powered down during time slots that do not contain data intended for the WTRU. a receiver configured to receive synchronization information indicating at least one time slot of a repeating series of transmission time intervals, TTIs, that contains data intended for the WTRU; a plurality of signal processing components; and a processor configured to control the plurality of signal processing components, to receive data during the at least one time slot of the repeating series of TTIs that contains data intended for the WTRU, and to operate in a quiescent mode wherein the receiving signal processing component is powered down during time slots that do not contain data intended for the WTRU.
A shutter for insulating electrical contacts comprising: a first panel including a first opening and a second panel adjacent to the first panel, including a second opening, the first opening being offset from the second opening when the shutter is in a closed position, the second panel including a first guide configured to react to a pressure of a phase barrier of an insertable withdrawable unit thereon to move the second panel in a first sliding direction relative to the first panel such that the first and second openings align so as to allow an electrical contact to extend therethrough; characterized in that the shutter also comprises a spring housing having a spring disposed therein between at least two support legs (102, 103) of the spring housing slidably disposed in the first panel so that the spring is biased against the first panel and extending through a spring clearance hole of the second panel so that the second panel can move in the first sliding direction. a first panel including a first opening and a second panel adjacent to the first panel, including a second opening, the first opening being offset from the second opening when the shutter is in a closed position, the second panel including a first guide configured to react to a pressure of a phase barrier of an insertable withdrawable unit thereon to move the second panel in a first sliding direction relative to the first panel such that the first and second openings align so as to allow an electrical contact to extend therethrough; characterized in that the shutter also comprises a spring housing having a spring disposed therein between at least two support legs (102, 103) of the spring housing slidably disposed in the first panel so that the spring is biased against the first panel and extending through a spring clearance hole of the second panel so that the second panel can move in the first sliding direction.
Test device for a discrete semiconductor component, having a thermal attachment, which thermal attachment comprises a heating element, wherein the heating element is a ceramic heating element, specifically a ceramic film heating element or a fully ceramic heating element, with which, through the use of the electrically semiconducting properties of ceramics, the heating is realized directly via the electrical current flow, wherein the heating element has a heatable contact surface, characterized in that the heatable contact surface is positionable against the semiconductor component during the testing, wherein the heating element is designed for heating and for cooling the heatable contact surface, for which purpose a receiving space is provided in the interior of the heating element for receiving a liquid cooling medium which evaporates there, which receiving space being adjacent to the contact surface and serving as a cooling chamber for cooling the contact surface.
Gear pump for conveying a fluid having an externally toothed gearwheel which is mounted rotatably on a bearing journal and an internally toothed annular gear, which are in meshing engagement in order to generate a conveying action, and which are arranged together with an electrically commutatable stator in a housing, the stator extending concentrically around the annular gear and interacting with a magnet ring in order to generate an electromotive force, the magnet ring performing a rotational movement with the annular gear in order to generate the conveying action, the annular gear being mounted by way of a plain bearing, the mounting of the annular gear being provided by way of a section of annular configuration which is configured at least on a first surface which lies opposite the annular gear as a plain bearing, characterized in that the section of annular configuration is pressed or adhesively bonded into the housing.
A method for message delivery in a messaging network comprising a plurality of message managing systems (111, 112, 113, 411, 412, 413), the method comprising: receiving, from a requester (101, 102, 103, 421,422, 423) connected to one of said message managing systems (111, 112, 113, 411, 412, 413), a request for a reply and creating a reply message in response to the request, the reply message including a unique identifier; and sending the reply message to each of a plurality of instances of a replicated queue, each instance of a replicated queue being defined on one of said message managing systems (111, 112, 113, 411, 412, 413) whereby the instances of the replicated queue on all the message managing systems (111, 112, 113, 411, 412, 413) receive the reply message, wherein the reply message is identified using the unique identifier when the requester (101, 102, 103, 421, 422, 423) connects to any one of the message managing systems (111, 112, 113, 411, 412, 413) to retrieve the reply message from any one of the instances of the replicated queue using the unique identifier. receiving, from a requester (101, 102, 103, 421,422, 423) connected to one of said message managing systems (111, 112, 113, 411, 412, 413), a request for a reply and creating a reply message in response to the request, the reply message including a unique identifier; and sending the reply message to each of a plurality of instances of a replicated queue, each instance of a replicated queue being defined on one of said message managing systems (111, 112, 113, 411, 412, 413) whereby the instances of the replicated queue on all the message managing systems (111, 112, 113, 411, 412, 413) receive the reply message, wherein the reply message is identified using the unique identifier when the requester (101, 102, 103, 421, 422, 423) connects to any one of the message managing systems (111, 112, 113, 411, 412, 413) to retrieve the reply message from any one of the instances of the replicated queue using the unique identifier.
Method of operating a surroundings sensing system of a vehicle having at least two transmission/reception units (2, 32, 33, 34), wherein the transmission/reception units (2, 32, 33, 34) transmit wave pulses (12, 13) and receive echo signals of the transmitted wave pulses (12, 13) that are reflected by reflection sources situated in a sensing area of the transmission/reception units (2, 32, 33, 34), wherein received wave pulses (12, 13) are ascertained from the received echo signals, and for one received wave pulse (12, 13) a transmitted wave pulse (12, 13) is ascertained that is consistent with the received wave pulse (12, 13), wherein for the purpose of coding distinguishable wave pulses the wave pulses (12, 13) of transmission/reception units (2, 32, 33, 34) differing in pairs have pulse lengths (T1, T2) differing in pairs, characterized in that the received echo signals are demodulated non-coherently and a pulse length (T1, T2) is determined for a received wave pulse (12, 13) by ascertaining a pulse crest (14, 15) of the received wave pulse (12, 13) and a) generating a signal section of the received wave pulse (12, 13), which begins at a time at which the signal amplitude of the received wave pulse (12, 13) is consistent with 30% to 70%, in particular 50%, of the height of the pulse crest (14, 15) and which ends at a second time (18, 19), at which the signal amplitude of the received wave pulse (12, 13) is consistent with 30% to 70%, in particular 50%, of the height of the pulse crest (14, 15), wherein the pulse length (T1, T2) is provided by the magnitude of the signal section, or b) determining the pulse area content (F 1, F 2), wherein the pulse length (T1, T2) is provided by a quotient of the pulse area content (F 1, F 2) and the pulse crest (14, 15), or c) determining the pulse energy, wherein the pulse length (T1, T2) is provided by a quotient of the pulse energy and the square of the pulse crest (14, 15). a) generating a signal section of the received wave pulse (12, 13), which begins at a time at which the signal amplitude of the received wave pulse (12, 13) is consistent with 30% to 70%, in particular 50%, of the height of the pulse crest (14, 15) and which ends at a second time (18, 19), at which the signal amplitude of the received wave pulse (12, 13) is consistent with 30% to 70%, in particular 50%, of the height of the pulse crest (14, 15), wherein the pulse length (T1, T2) is provided by the magnitude of the signal section, or b) determining the pulse area content (F 1, F 2), wherein the pulse length (T1, T2) is provided by a quotient of the pulse area content (F 1, F 2) and the pulse crest (14, 15), or c) determining the pulse energy, wherein the pulse length (T1, T2) is provided by a quotient of the pulse energy and the square of the pulse crest (14, 15).
Method for manufacturing a shock resistant bearing including an elastic structure and a central portion carried by said elastic structure, said central portion having a blind hole (16; 16A; 16B) intended to receive a pivot of a rotating wheel set of the timepiece, the elastic structure and the central portion being formed by one single-piece part, said method being characterized by the following steps: A) Making a single crystal quartz wafer whose two main faces, respectively the first and second faces, are substantially oriented perpendicularly to the optical axis of the crystalline structure of the single crystal quartz; B) Forming a first mask on the first face of the single crystal quartz wafer, said first mask being structured by photolithography so as to define on the first face the contours of said elastic structure and of said blind hole; C) Machining said elastic structure and said blind hole in said single crystal quartz wafer by placing said wafer in a chemical etching bath adapted for an anisotropic etch of single crystal quartz which greatly facilitates an etch along said optical axis, said first mask being selected to resist the etch of said chemical etching bath. A) Making a single crystal quartz wafer whose two main faces, respectively the first and second faces, are substantially oriented perpendicularly to the optical axis of the crystalline structure of the single crystal quartz; B) Forming a first mask on the first face of the single crystal quartz wafer, said first mask being structured by photolithography so as to define on the first face the contours of said elastic structure and of said blind hole; C) Machining said elastic structure and said blind hole in said single crystal quartz wafer by placing said wafer in a chemical etching bath adapted for an anisotropic etch of single crystal quartz which greatly facilitates an etch along said optical axis, said first mask being selected to resist the etch of said chemical etching bath.
A blower for providing a supply of air at positive pressure having a stationary portion, a rotating portion, an air inlet, an air outlet, at least one blade extending in a plane and splitting the air outlet into at least two, preferably parallel, channels (212, 214) characterized in that the channels (212, 214) achieved by the split of the outlet by means of the blade include a turn of the flow path about an angle, the angle lying in the plane of the blade.
A head for an oral care implement comprising: at least a first row of tufts (50, 51) comprising a plurality of filaments having free ends and fixed ends being opposite the free ends and being fixed on a mounting surface of the head, the filaments of the at least first row of tufts (50, 51) extending from the mounting surface of the head in different length extensions (42, 44) thereby defining with the filaments' free ends an upper top cleaning surface in the form of a continuous wave-shape, each filament having a longitudinal axis and a cross-sectional area extending in a plane that is perpendicular to the longitudinal axis, wherein each tuft (50, 51) of the at least first row comprises either filaments with a smaller cross-sectional area or filaments with a larger cross-sectional area, and the tufts (50, 51) are arranged in an alternating manner so that a tuft comprising filaments with the smaller cross-sectional area alternate with a tuft comprising filaments with the larger cross-sectional area, wherein each tuft (50, 51) of the at least first row has a longitudinal axis and a cross-sectional area extending in a plane that is perpendicular to the longitudinal axis, and the cross-sectional area of each tuft (50, 51) has substantially the same size, and the tuft comprising the filaments with the smaller cross-sectional area comprises a higher amount of filaments than the tuft comprising the filaments with the larger cross-sectional area. at least a first row of tufts (50, 51) comprising a plurality of filaments having free ends and fixed ends being opposite the free ends and being fixed on a mounting surface of the head, the filaments of the at least first row of tufts (50, 51) extending from the mounting surface of the head in different length extensions (42, 44) thereby defining with the filaments' free ends an upper top cleaning surface in the form of a continuous wave-shape, each filament having a longitudinal axis and a cross-sectional area extending in a plane that is perpendicular to the longitudinal axis, wherein each tuft (50, 51) of the at least first row comprises either filaments with a smaller cross-sectional area or filaments with a larger cross-sectional area, and the tufts (50, 51) are arranged in an alternating manner so that a tuft comprising filaments with the smaller cross-sectional area alternate with a tuft comprising filaments with the larger cross-sectional area, wherein each tuft (50, 51) of the at least first row has a longitudinal axis and a cross-sectional area extending in a plane that is perpendicular to the longitudinal axis, and the cross-sectional area of each tuft (50, 51) has substantially the same size, and the tuft comprising the filaments with the smaller cross-sectional area comprises a higher amount of filaments than the tuft comprising the filaments with the larger cross-sectional area.