mhurhangee/ep-ind-claims huggingface dataset:
A child safety seat, characterized in that it comprises a headrest frame assembly and a seat frame assembly, and the said seat frame assembly is matedly connected with the headrest frame assembly; The said headrest frame assembly includes a headrest frame, the inner wall of the said headrest frame is provided with headrest polyurethane soft foam, the said headrest polyurethane soft foam extends toward the outer wall of both sides of the headrest frame to form an everted rim, and the outer wall of the said headrest frame is provided with a headrest shell; The said seat frame assembly includes a seat frame, the inner wall of the said seat frame is provided with seat polyurethane soft foam, the said seat polyurethane soft foam extends toward the outer wall of both sides of the seat frame to form an everted rim, and the outer wall of the said seat frame is provided with a seat shell; Both the headrest polyurethane soft foam and the seat polyurethane soft foam are covered with a surface layer.
A pneumatic tire comprising: a puncture-preventive sealant layer provided on an inner peripheral surface of a tread portion; and a sound damper provided on an inner peripheral surface of the sealant layer, the sound damper including a sponge material having closed cell foam, characterised in that the sound damper has an air permeability of not higher than 20 mL/cm 2 /s, and the sound damper has a hardness of not higher than 300 N/314 cm 2, wherein the air permeability is measured by adhering a sample of the sponge material having a width of 60 mm, a depth of 60 mm, and a thickness of 30 mm to a flat plate having a thickness of 10 mm and having a hole with a diameter of 1 mm, corresponding to an opening area of 0.00785 cm 2, then adhering the sample to the flat plate such that the center of a surface, of the sample, having the width × the depth is located at the hole, increasing a pressure on the sponge material sample side to set, as 200 kPa, the pressure difference P2 - P1 between the pressure and a pressure on the flat plate side, then measuring a flow rate, in mL per second, of air leaking from the hole, and then converting the flow rate to a flow rate per opening area of 1.0 cm 2, and the obtained flow rate represents the air permeability, in mL/cm 2 /s, and wherein the hardness of the sponge material is measured in accordance with Method D for a hardness test specified in Section 6 of JIS-K6400-2. a puncture-preventive sealant layer provided on an inner peripheral surface of a tread portion; and a sound damper provided on an inner peripheral surface of the sealant layer, the sound damper including a sponge material having closed cell foam, characterised in that the sound damper has an air permeability of not higher than 20 mL/cm 2 /s, and the sound damper has a hardness of not higher than 300 N/314 cm 2, wherein the air permeability is measured by adhering a sample of the sponge material having a width of 60 mm, a depth of 60 mm, and a thickness of 30 mm to a flat plate having a thickness of 10 mm and having a hole with a diameter of 1 mm, corresponding to an opening area of 0.00785 cm 2, then adhering the sample to the flat plate such that the center of a surface, of the sample, having the width × the depth is located at the hole, increasing a pressure on the sponge material sample side to set, as 200 kPa, the pressure difference P2 - P1 between the pressure and a pressure on the flat plate side, then measuring a flow rate, in mL per second, of air leaking from the hole, and then converting the flow rate to a flow rate per opening area of 1.0 cm 2, and the obtained flow rate represents the air permeability, in mL/cm 2 /s, and wherein the hardness of the sponge material is measured in accordance with Method D for a hardness test specified in Section 6 of JIS-K6400-2.
Assembly, comprising a primary conductor which is arranged in a stationary manner and a device, such as a vehicle or a mobile part, which is movable relative thereto, for inductively transferring electrical energy from the primary conductor to the movable device, wherein the movable device has, in particular on the underside thereof, a secondary winding which can be inductively coupled to the primary conductor, wherein a capacitor assembly is connected in parallel with the series circuit formed of the secondary winding and a first capacitor, said capacitor assembly comprising a second capacitor with which a third capacitor can be connected in parallel by means of a controllable switch, wherein the secondary winding and the first, second and third capacitor (C1, C2, C3) form a resonant circuit, wherein the voltage dropping across the capacitor assembly is supplied to a rectifier, the output-side DC voltage of which is supplied to a voltage detection means, wherein a controller of the assembly is configured to actuate the switch as a function of the DC voltage supplied to the voltage detection means, wherein a control signal of the controller for actuating the switch is pulse-width-modulated, characterized in that the assembly has a voltage detection means for detecting the voltage dropping across the second capacitor, wherein the assembly is configured to determine, from a voltage characteristic of the voltage dropping across the second capacitor, a frequency of an AC current fed into the primary conductor, and in that in a first switch position of the switch the resonant frequency of the resonant circuit corresponds to the frequency of the AC current fed into the primary conductor, and in another switch position of the switch the resonant frequency of the resonant circuit does not correspond to the frequency of the AC current fed into the primary conductor.
A method of calculating a stable spindle rotation number capable of suppressing regenerative chatter vibration in cutting using a machine tool, comprising: a vibration frequency calculating process of calculating a vibration frequency of a tool by obtaining data on vibration caused by the tool in cutting and analyzing the obtained vibration data; a regenerative chatter detecting process of comparing the vibration frequency of the tool calculated in the vibration frequency calculating process with a spindle rotation frequency band obtained by addition of a predetermined margin to a frequency corresponding to the product of multiplication of the then spindle rotation number and the number of teeth of the tool, and, when the vibration frequency is out of the spindle rotation frequency band, determining that regenerative chatter vibration occurs in the tool; a rotation number changing process of gradually decreasing or increasing the spindle rotation number in a case where occurrence of regenerative chatter vibration is detected in the regenerative chatter detecting process; and a stable rotation number calculating process of monitoring variation of the vibration frequency of the tool by calculating a difference in the vibration frequency of the tool successively calculated in the vibration frequency calculating process while the spindle rotation number is gradually decreased or increased in the rotation number changing process, and determining a spindle rotation number when the value of the difference in the vibration frequency exceeds a predetermined reference value to be a stable spindle rotation number. a vibration frequency calculating process of calculating a vibration frequency of a tool by obtaining data on vibration caused by the tool in cutting and analyzing the obtained vibration data; a regenerative chatter detecting process of comparing the vibration frequency of the tool calculated in the vibration frequency calculating process with a spindle rotation frequency band obtained by addition of a predetermined margin to a frequency corresponding to the product of multiplication of the then spindle rotation number and the number of teeth of the tool, and, when the vibration frequency is out of the spindle rotation frequency band, determining that regenerative chatter vibration occurs in the tool; a rotation number changing process of gradually decreasing or increasing the spindle rotation number in a case where occurrence of regenerative chatter vibration is detected in the regenerative chatter detecting process; and a stable rotation number calculating process of monitoring variation of the vibration frequency of the tool by calculating a difference in the vibration frequency of the tool successively calculated in the vibration frequency calculating process while the spindle rotation number is gradually decreased or increased in the rotation number changing process, and determining a spindle rotation number when the value of the difference in the vibration frequency exceeds a predetermined reference value to be a stable spindle rotation number.
A battery pack, comprising: at least one battery module and electric parts electrically connected to the at least one battery module; a tray configured to support the at least one battery module and the electric parts at an upper surface thereof; and a pack cover having a rim that faces a rim of the tray, the pack cover being coupled to the tray to cover the battery module and the electric parts, wherein the pack cover includes a cover body with a depth sufficient to cover the at least one battery module and electric parts, wherein the rim of the pack cover forms an outer periphery of the cover body, characterized in that the cover body is a deep drawn cover body, and the tray includes a tray stopper provided at the rim of the tray and bent upwards to support the rim of the pack cover from an outer side toward an inner side. at least one battery module and electric parts electrically connected to the at least one battery module; a tray configured to support the at least one battery module and the electric parts at an upper surface thereof; and a pack cover having a rim that faces a rim of the tray, the pack cover being coupled to the tray to cover the battery module and the electric parts, wherein the pack cover includes a cover body with a depth sufficient to cover the at least one battery module and electric parts, wherein the rim of the pack cover forms an outer periphery of the cover body, characterized in that the cover body is a deep drawn cover body, and the tray includes a tray stopper provided at the rim of the tray and bent upwards to support the rim of the pack cover from an outer side toward an inner side.
Window, door or the like with a frame, a casement being pivotable relative to the frame, and a structural unit, consisting of elongated bars for the frame and of elongated bars for the casement, and with receiving parts for the structural unit that extend in longitudinal direction of the frame bars or the casement bars, consisting of a first reinforcing profile and a driving rod, that is guided on the first reinforcing profile in a limited longitudinal-slidable manner, of an espagnolette fitting, characterized in that the receiving part for the structural unit is formed by a channel in the frame bars or the casement bars that is open only on the ends of the separate, non-mounted bars (8-11, 4-7).
A leakage search device comprising a test gas line connected with a test chamber and/or an object under test and a backup vacuum pump, and a high-vacuum pump (10, 11), at whose inlet a test gas detector is arranged and whose outlet is connected with the backup pump, the high-vacuum pump (10, 11) comprising at least one rotor element (12, 13) so that a main flow path is defined from the inlet along the at least one rotor element (12, 13) to the outlet, and wherein the high-vacuum pump (10, 11) comprises a first stage, a second stage joining the same in the main flow direction, and at least one further stage (17, 72, 74) joining the latter in the main flow direction, characterized in that for a rough examination of the object under test, the test gas line is connected, via a connection line, with one of the further stages (17, 72, 74) in an intermediate region of that further stage (17, 72, 74) and the outlet of the high-vacuum pump (10, 11) remains connected with the backup pump so that the counter-flow path of the test gas extending from the intermediate region to the inlet is shorter than the main flow path, and a gas expansion device is arranged in the connection line to expand the test gas to a pressure matched to the internal suction capacity of the high-vacuum pump (10, 11) in the intermediate region, and the leakage search can be started at maximum pre-vacuum stability of the high-vacuum pump (10, 11).
Vehicle interior fire partition, the fire partition comprising: - a plate having a first face and a second face opposite each other; and - intumescent material only partially covering the first face of the plate, characterised in that the intumescent material is disposed on the first face in strips. - a plate having a first face and a second face opposite each other; and - intumescent material only partially covering the first face of the plate, characterised in that the intumescent material is disposed on the first face in strips.
A method for processing multicast requests on a computer network, comprising: receiving registration of a plurality of non-multicast nodes that do not process multicast messages; receiving a request for a service from a requestor via multicast; identifying among the plurality of non-multicast nodes one or more providers of the requested service; and sending the request to the one or more providers without sending the request to other non-multicast nodes on the computer network. receiving registration of a plurality of non-multicast nodes that do not process multicast messages; receiving a request for a service from a requestor via multicast; identifying among the plurality of non-multicast nodes one or more providers of the requested service; and sending the request to the one or more providers without sending the request to other non-multicast nodes on the computer network.
A system including a rotary blood pump having a design rotational speed with minimal detachment and swirling of the blood flow; and a control, characterized in that the control is adapted to control the rotational speed of the blood pump such that an operation of the blood pump is effected at alternating rotational speeds, wherein a low rotational speed and the design rotational speed are alternately reached.
A device for controlling the temperature of vehicle bodies (9, 109) having: a) a housing (2, 102); b) a temperature control tunnel (7, 107) for receiving the vehicle bodies (9, 109), which is accommodated in the housing (2, 102); c) at least one pressure chamber (5, 6, 105) which is accommodated in the housing (2, 102) and separated from the temperature control tunnel (7, 107) by a wall (3, 4; 103); d) a plurality of nozzles (10, 11; 110) in the wall (3, 4; 103); e) an air temperature control device, which introduces temperature controlled air into the pressure chamber (5, 6, 105) in such a way that it can flow into the temperature control tunnel (7, 107) through the nozzles (10, 11; 110) and act on the vehicle body (9, 109) located there; wherein f) at least one nozzle device (12, 13; 112) is provided, which has a nozzle body (14; 114) whereof the side facing the vehicle body (9, 109) is provided with a plurality of nozzle orifices (15; 115) and at least roughly follows the geometry of the lower region of the vehicle body (9; 109) at a spacing which is smaller than the spacing of the other nozzles (10, 11; 110) arranged in the same wall (3, 4; 103) to the vehicle body (9; 109); characterized in that g) the nozzle device (12; 112) is detachably mounted on at least one orifice (19, 20; 120) in the wall (3; 103) between the pressure chamber (5; 105) and the temperature control tunnel (7; 107); h) the at least one orifice (19, 20; 120) on which the nozzle device (12; 112) is mounted is constructed in the same manner as the orifices in which the other nozzles (10; 110) are mounted in the same wall (3; 103). a) a housing (2, 102); b) a temperature control tunnel (7, 107) for receiving the vehicle bodies (9, 109), which is accommodated in the housing (2, 102); c) at least one pressure chamber (5, 6, 105) which is accommodated in the housing (2, 102) and separated from the temperature control tunnel (7, 107) by a wall (3, 4; 103); d) a plurality of nozzles (10, 11; 110) in the wall (3, 4; 103); e) an air temperature control device, which introduces temperature controlled air into the pressure chamber (5, 6, 105) in such a way that it can flow into the temperature control tunnel (7, 107) through the nozzles (10, 11; 110) and act on the vehicle body (9, 109) located there; wherein f) at least one nozzle device (12, 13; 112) is provided, which has a nozzle body (14; 114) whereof the side facing the vehicle body (9, 109) is provided with a plurality of nozzle orifices (15; 115) and at least roughly follows the geometry of the lower region of the vehicle body (9; 109) at a spacing which is smaller than the spacing of the other nozzles (10, 11; 110) arranged in the same wall (3, 4; 103) to the vehicle body (9; 109); characterized in that g) the nozzle device (12; 112) is detachably mounted on at least one orifice (19, 20; 120) in the wall (3; 103) between the pressure chamber (5; 105) and the temperature control tunnel (7; 107); h) the at least one orifice (19, 20; 120) on which the nozzle device (12; 112) is mounted is constructed in the same manner as the orifices in which the other nozzles (10; 110) are mounted in the same wall (3; 103).
A full line type liquid ejection head comprising: a plurality of liquid chambers each with an activation element for generating a droplet ejected through an ejection opening, and an ejection opening plane with at least two ejection opening groups (81, 82) with a plurality of ejection openings ejecting droplets onto a print medium, whereby said groups (81, 82) are arranged in the ejection opening plane across the print medium conveying direction and wherein the ejection opening groups (81, 82) are arranged in parallel in the ejection opening plane, wherein the plurality of ejection openings of at least a first ejection opening group (81, 91, 101) are arranged in a zigzag shape, and the plurality of ejection openings of the further ejection opening groups (82, 92, 102) are arranged in such a staggered manner in a substantial equal interval (d) in a direction perpendicular to the conveying direction of the print medium in relation to said at least first ejection opening group (81, 91, 101) that the time differences when droplets ejected from adjacent openings land on the print medium for all droplets forming a printed line across the print medium conveying direction are substantially equal (Fig. 13). a plurality of liquid chambers each with an activation element for generating a droplet ejected through an ejection opening, and an ejection opening plane with at least two ejection opening groups (81, 82) with a plurality of ejection openings ejecting droplets onto a print medium, whereby said groups (81, 82) are arranged in the ejection opening plane across the print medium conveying direction and wherein the ejection opening groups (81, 82) are arranged in parallel in the ejection opening plane, wherein the plurality of ejection openings of at least a first ejection opening group (81, 91, 101) are arranged in a zigzag shape, and the plurality of ejection openings of the further ejection opening groups (82, 92, 102) are arranged in such a staggered manner in a substantial equal interval (d) in a direction perpendicular to the conveying direction of the print medium in relation to said at least first ejection opening group (81, 91, 101) that the time differences when droplets ejected from adjacent openings land on the print medium for all droplets forming a printed line across the print medium conveying direction are substantially equal (Fig. 13).
A computer system for communicating metadata that identifies a current speaker during a multi-party communication session, the computer system comprising: a processor configured to execute computer-executable instructions; and memory storing computer-executable instructions configured to: generate an audio fingerprint of the current speaker based on audio data that represents speech of the current speaker; perform automated speaker recognition by comparing the audio fingerprint of the current speaker against stored audio fingerprints contained in a speaker fingerprint repository; communicate data indicating that the current speaker is unrecognized to multiple client devices of multiple observers when the current speaker is unrecognized; receive tagging information that identifies the current speaker from the multiple client devices of the multiple observers; store the audio fingerprint of the current speaker and metadata that identifies the current speaker in the speaker fingerprint repository; and communicate the metadata that identifies the current speaker to at least one of the multiple client devices of the multiple observers. a processor configured to execute computer-executable instructions; and memory storing computer-executable instructions configured to: generate an audio fingerprint of the current speaker based on audio data that represents speech of the current speaker; perform automated speaker recognition by comparing the audio fingerprint of the current speaker against stored audio fingerprints contained in a speaker fingerprint repository; communicate data indicating that the current speaker is unrecognized to multiple client devices of multiple observers when the current speaker is unrecognized; receive tagging information that identifies the current speaker from the multiple client devices of the multiple observers; store the audio fingerprint of the current speaker and metadata that identifies the current speaker in the speaker fingerprint repository; and communicate the metadata that identifies the current speaker to at least one of the multiple client devices of the multiple observers. generate an audio fingerprint of the current speaker based on audio data that represents speech of the current speaker; perform automated speaker recognition by comparing the audio fingerprint of the current speaker against stored audio fingerprints contained in a speaker fingerprint repository; communicate data indicating that the current speaker is unrecognized to multiple client devices of multiple observers when the current speaker is unrecognized; receive tagging information that identifies the current speaker from the multiple client devices of the multiple observers; store the audio fingerprint of the current speaker and metadata that identifies the current speaker in the speaker fingerprint repository; and communicate the metadata that identifies the current speaker to at least one of the multiple client devices of the multiple observers.
A fuel tank comprising: a lower panel made of steel and an upper panel made of steel; at least one pillar made of steel which is disposed in an interior space formed by the lower panel and the upper panel facing each other and of which a first end portion is fixed to the lower panel and a second end portion is fixed to the upper panel in a state where the second end portion is disposed in a hole formed in the upper panel; and a first nut which is made of steel and is fixed to an inner surface of the lower panel and to which the first end portion of the pillar is fitted. a lower panel made of steel and an upper panel made of steel; at least one pillar made of steel which is disposed in an interior space formed by the lower panel and the upper panel facing each other and of which a first end portion is fixed to the lower panel and a second end portion is fixed to the upper panel in a state where the second end portion is disposed in a hole formed in the upper panel; and a first nut which is made of steel and is fixed to an inner surface of the lower panel and to which the first end portion of the pillar is fitted.