mhurhangee/ep-ind-claims huggingface dataset:
A drum type washing machine comprising: a tub mounted in a cabinet and supported by a damper and a spring in the cabinet; a coupling boss at a rear surface of the tub; a transit bolt configured to be coupled to the coupling boss via an insert hole formed at a rear surface of the cabinet so as to fix the tub to the cabinet when transporting the drum type washing machine; and characterized in that, a hole cap configured to be inserted in the insert hole from an inside of the cabinet and to be elastically deformable, the hole cap comprising a plurality of slits for the transit bolt to pass through them and an elastic deformation portion formed for the plurality of the slits to pass a center thereof, such that when the inserted transit bolt is released, the elastic deformation portion restitutes to its original position to block the insert hole. a tub mounted in a cabinet and supported by a damper and a spring in the cabinet; a coupling boss at a rear surface of the tub; a transit bolt configured to be coupled to the coupling boss via an insert hole formed at a rear surface of the cabinet so as to fix the tub to the cabinet when transporting the drum type washing machine; and characterized in that, a hole cap configured to be inserted in the insert hole from an inside of the cabinet and to be elastically deformable, the hole cap comprising a plurality of slits for the transit bolt to pass through them and an elastic deformation portion formed for the plurality of the slits to pass a center thereof, such that when the inserted transit bolt is released, the elastic deformation portion restitutes to its original position to block the insert hole.
An isolated antibody that specifically binds human Notch2 and Notch3, comprising: (a) a heavy chain CDR1 comprising SSSGMS (SEQ ID NO:5), a heavy chain CDR2 comprising VIASSGSNTYYADSVKG (SEQ ID NO:6), and a heavy chain CDR3 comprising SIFYTT (SEQ ID NO:51) or SEQ ID NO: 30; and (b) a light chain CDR1 comprising RASQSVRSNYLA (SEQ ID NO:8), a light chain CDR2 comprising GASSRAT (SEQ ID NO:9), and a light chain CDR3 comprising QQYSNFPI (SEQ ID NO: 10). (a) a heavy chain CDR1 comprising SSSGMS (SEQ ID NO:5), a heavy chain CDR2 comprising VIASSGSNTYYADSVKG (SEQ ID NO:6), and a heavy chain CDR3 comprising SIFYTT (SEQ ID NO:51) or SEQ ID NO: 30; and (b) a light chain CDR1 comprising RASQSVRSNYLA (SEQ ID NO:8), a light chain CDR2 comprising GASSRAT (SEQ ID NO:9), and a light chain CDR3 comprising QQYSNFPI (SEQ ID NO: 10).
A multi-type wind turbine, comprising: a tower; a main nacelle fixed to the tower; a plurality of arms fixed to the main nacelle in a radial direction with respect to the main nacelle; a sub-nacelle provided at the arms, respectively, to form a unit generator; and a blade combined with the sub-nacelle, respectively, to form the unit generator together with the sub-nacelle, wherein the arm is provided such that a stationary point fixed to the main nacelle and a stationary point combined with the unit generator are located at both sides thereof, respectively, on the basis of the height directional central line of the tower. a tower; a main nacelle fixed to the tower; a plurality of arms fixed to the main nacelle in a radial direction with respect to the main nacelle; a sub-nacelle provided at the arms, respectively, to form a unit generator; and a blade combined with the sub-nacelle, respectively, to form the unit generator together with the sub-nacelle,
A polyol composition comprising in weight percent based upon the weight of the composition: A. 10 to 60% of a saturated polyester polyol of ethylene/butane/adipate of a nominal molecular weight and with a functionality of 2 or more; B. 40 to 90% of a polyester polyol of ethylene/trimethylol propane/neopentyl adipate of nominal molecular weight and with a functionality of 2.5 or more; C. 0 to 20% 1,4-butane diol chain extender glycol; D. 0 to 0.4% polymethyl alkyl siloxane defoamer dissolved in an isoparaffin; E. 0 to 5% desiccant paste comprising 50 weight percent (wt%) of a zeolite powder suspension in castor oil; F. 0 to 0.8% polybutadiene oligomer; G. 0 to 10% antistatic agent; H. 0 to 0.5% surface modified fumed silica; I. 5 to 15% tris (2-chloro-1-methylethyl) phosphate flame retardant; J. 5 to 15% ammonium polyphosphate flame retardant; and K. 0.002 to 0.1% organometallic catalyst other than mercury- or lead-based organometallic catalyst. A. 10 to 60% of a saturated polyester polyol of ethylene/butane/adipate of a nominal molecular weight and with a functionality of 2 or more; B. 40 to 90% of a polyester polyol of ethylene/trimethylol propane/neopentyl adipate of nominal molecular weight and with a functionality of 2.5 or more; C. 0 to 20% 1,4-butane diol chain extender glycol; D. 0 to 0.4% polymethyl alkyl siloxane defoamer dissolved in an isoparaffin; E. 0 to 5% desiccant paste comprising 50 weight percent (wt%) of a zeolite powder suspension in castor oil; F. 0 to 0.8% polybutadiene oligomer; G. 0 to 10% antistatic agent; H. 0 to 0.5% surface modified fumed silica; I. 5 to 15% tris (2-chloro-1-methylethyl) phosphate flame retardant; J. 5 to 15% ammonium polyphosphate flame retardant; and K. 0.002 to 0.1% organometallic catalyst other than mercury- or lead-based organometallic catalyst.
An aqueous pour point depressant dispersion composition comprising: i ethylene vinyl acetate copolymer in an amount of from 12 to 50 weight percent; ii a dispersing agent in an amount of from 1 to 10 weight percent; iii water; and iv an aqueous freezing point depressant, wherein the average particle size of the dispersed EVA is equal to or less than 1 micrometer, the water: aqueous freezing point depressant mixture in the final composition is present in an amount of from 40 to 75 weight percent, the water: aqueous freezing point depressant ratio is from 40:60 to 70:30; and wherein weight percents are based on the total weight of the aqueous pour point depressant dispersion composition. i ethylene vinyl acetate copolymer in an amount of from 12 to 50 weight percent; ii a dispersing agent in an amount of from 1 to 10 weight percent; iii water; and iv an aqueous freezing point depressant,
An aircraft component, comprising: an aircraft component body; and a plasma heater disposed at least partially on or at least partially within the component and configured to selectively heat the component, wherein the plasma heater includes a vacuum tube having a first end and a second end and configured to retain an inert gas, characterised in that the vacuum tube includes a first end electrode and a second end electrode configured to be connected to an electrical source to provide an electrical potential to the inert gas within the vacuum tube. an aircraft component body; and a plasma heater disposed at least partially on or at least partially within the component and configured to selectively heat the component, wherein the plasma heater includes a vacuum tube having a first end and a second end and configured to retain an inert gas, characterised in that the vacuum tube includes a first end electrode and a second end electrode configured to be connected to an electrical source to provide an electrical potential to the inert gas within the vacuum tube.
A front fork comprising: a fork main body having an annular outer tube and an annular inner tube that is inserted into the outer tube such that the inner tube can move freely in the axial direction; a damper cartridge having: a cylinder which is provided in the fork main body and in which a fluid chamber filled with hydraulic fluid is formed; a piston rod that freely moves in the axial direction through the inside of the cylinder; a piston that is mounted on the piston rod and partitions the inside of the cylinder into an extension-side chamber and a contraction-side chamber; and a rod guide which is mounted on an end of the cylinder and guides the piston rod, and to which a fluid filling port that allows the outside of the cylinder to communicate with the fluid chamber is provided; and a closing member that is provided on the rod guide and closes the fluid filling port, characterized by a main spring that is interposed between the fork main body and the rod guide within the fork main body, wherein the main spring is configured to press the closing member. a fork main body having an annular outer tube and an annular inner tube that is inserted into the outer tube such that the inner tube can move freely in the axial direction; a damper cartridge having: a cylinder which is provided in the fork main body and in which a fluid chamber filled with hydraulic fluid is formed; a piston rod that freely moves in the axial direction through the inside of the cylinder; a piston that is mounted on the piston rod and partitions the inside of the cylinder into an extension-side chamber and a contraction-side chamber; and a rod guide which is mounted on an end of the cylinder and guides the piston rod, and to which a fluid filling port that allows the outside of the cylinder to communicate with the fluid chamber is provided; and a closing member that is provided on the rod guide and closes the fluid filling port, characterized by a main spring that is interposed between the fork main body and the rod guide within the fork main body, wherein the main spring is configured to press the closing member.
An ice piece release system (20/40/50), comprising: a chilled compartment set at a temperature below 0°C; a warm section at a temperature above 0°C; a tray in thermal communication with the chilled compartment, the tray having a plurality of ice piece-forming receptacles and a cavity in thermal communication with the receptacles, characterized by a primary reservoir assembly in thermal communication with the warm section, the reservoir assembly having a pair of chambers (27, 28) in fluid communication with the cavity of the tray and a driving body for moving the chambers (27, 28); and a heat-exchanging fluid having a freezing point below that of water, the fluid residing in the chambers (27, 28) and the cavity of the tray, wherein the driving body and the primary reservoir assembly are further adapted to move one chamber of the pair of chambers (27, 28) to a position above the cavity, and the other chamber of the pair of chambers (27, 28) to a position below the cavity, such that the heat-exchanging fluid within the chamber positioned above the cavity flows into the cavity and the heat-exchanging fluid within the cavity flows into the chamber positioned below the cavity when displaced by the heat-exchanging fluid from the chamber positioned above the cavity, wherein the heat-exchanging fluid flows into the cavity through a first port and a first valve and out of the cavity through a second port and a second valve, and wherein a divider is situated between the first port and the second port. a chilled compartment set at a temperature below 0°C; a warm section at a temperature above 0°C; a tray in thermal communication with the chilled compartment, the tray having a plurality of ice piece-forming receptacles and a cavity in thermal communication with the receptacles, characterized by a primary reservoir assembly in thermal communication with the warm section, the reservoir assembly having a pair of chambers (27, 28) in fluid communication with the cavity of the tray and a driving body for moving the chambers (27, 28); and a heat-exchanging fluid having a freezing point below that of water, the fluid residing in the chambers (27, 28) and the cavity of the tray, wherein the driving body and the primary reservoir assembly are further adapted to move one chamber of the pair of chambers (27, 28) to a position above the cavity, and the other chamber of the pair of chambers (27, 28) to a position below the cavity, such that the heat-exchanging fluid within the chamber positioned above the cavity flows into the cavity and the heat-exchanging fluid within the cavity flows into the chamber positioned below the cavity when displaced by the heat-exchanging fluid from the chamber positioned above the cavity, wherein the heat-exchanging fluid flows into the cavity through a first port and a first valve and out of the cavity through a second port and a second valve, and wherein a divider is situated between the first port and the second port.
Method for reactive power compensation of an electrical supply network by means of at least one capacitor, wherein the capacitor or capacitors are used for EMC suppression and/or filtering in an electrical device while the latter is in operation, characterised in that the capacitor or capacitors of the device are connected to the supply network, in standby operation of the device or while the device is disconnected from the supply network by means of a switching element, via a further switching element and are used for reactive power compensation.
A vibration damping element for a vibration damping system for a turbine nozzle or blade (112, 114), comprising: an elongated body; characterised in that the vibration damping element further comprises: a wire mesh member surrounding the elongated body and having a first outer dimension in an inoperative state and a second, larger outer dimension in an operative state, wherein in the operative state, the wire mesh member frictionally engages with an inner surface of a body opening in the turbine nozzle or blade (112, 114) to damp vibration, and in the inoperative state, the wire mesh member slides freely in the body opening in the turbine nozzle or blade (112, 114); and a retention member on the elongated body to fix a first section of the wire mesh member relative to a length of the elongated body in the operative state in the body opening of the turbine nozzle or blade (112, 114). a wire mesh member surrounding the elongated body and having a first outer dimension in an inoperative state and a second, larger outer dimension in an operative state, wherein in the operative state, the wire mesh member frictionally engages with an inner surface of a body opening in the turbine nozzle or blade (112, 114) to damp vibration, and in the inoperative state, the wire mesh member slides freely in the body opening in the turbine nozzle or blade (112, 114); and a retention member on the elongated body to fix a first section of the wire mesh member relative to a length of the elongated body in the operative state in the body opening of the turbine nozzle or blade (112, 114).
A headphone comprising: a headphone housing; a resilient cushion attached to the housing defining a chamber with the housing for enclosing the user's ear; and an assembly disposed in the housing proximate to a distal end and having a plurality of interlocking blades, each of the plurality of blades moveable between at least one open position and a closed position, wherein in the closed position, the blades fully contact each other to define a distal surface of the housing, and in the open position, the assembly defines an aperture in the housing, wherein the aperture allows sound communication from outside the housing into the chamber. a headphone housing; a resilient cushion attached to the housing defining a chamber with the housing for enclosing the user's ear; and an assembly disposed in the housing proximate to a distal end and having a plurality of interlocking blades, each of the plurality of blades moveable between at least one open position and a closed position, wherein in the closed position, the blades fully contact each other to define a distal surface of the housing, and in the open position, the assembly defines an aperture in the housing, wherein the aperture allows sound communication from outside the housing into the chamber.
A deposition apparatus comprising: a coating chamber; a coating zone within the coating chamber for coating work pieces; a heating source for heating the coating zone; and a thermal hood within the coating chamber adjacent to the coating zone for controlling a temperature of the coating zone; characterised in that; the thermal hood is semi-cylindrical about a central longitudinal axis, wrapping approximately 180° about the perimeter of the coating zone. a coating chamber; a coating zone within the coating chamber for coating work pieces; a heating source for heating the coating zone; and a thermal hood within the coating chamber adjacent to the coating zone for controlling a temperature of the coating zone; characterised in that; the thermal hood is semi-cylindrical about a central longitudinal axis, wrapping approximately 180° about the perimeter of the coating zone.
A powder jet pump 20, comprising: a main body 22 having a particle inlet 24 at a first end 27 and an outlet connector 44 at a second end 29, the particle inlet being in fluid communication with an inlet chamber 28; a nozzle 42 defining a passage in fluid communication with the chamber and outlet connector, characterized in that the nozzle includes a nozzle throat 40; at least one suction inlet 26 in fluid communication with the chamber; an annular plenum 32 positioned around the main body having a gas inlet 34; and at least two jet passages 52 each having an inlet opening 56 into the annular plenum 32 and an outlet opening 36 within the nozzle throat 40. a main body 22 having a particle inlet 24 at a first end 27 and an outlet connector 44 at a second end 29, the particle inlet being in fluid communication with an inlet chamber 28; a nozzle 42 defining a passage in fluid communication with the chamber and outlet connector, characterized in that the nozzle includes a nozzle throat 40; at least one suction inlet 26 in fluid communication with the chamber; an annular plenum 32 positioned around the main body having a gas inlet 34; and at least two jet passages 52 each having an inlet opening 56 into the annular plenum 32 and an outlet opening 36 within the nozzle throat 40.
A method for transmitting, by a user equipment, UE, (10, 20), an aperiodic channel state information, CSI, report in a carrier aggregation and Coordinated Multi-Point transmission/reception, CoMP, environment, the method comprising: receiving downlink control information for a serving cell c, the downlink control information including a CSI request field; and transmitting the aperiodic CSI report through a physical uplink shared channel, PUSCH, on the serving cell c based on a value included in the CSI request field, wherein the UE is configured with multiple serving cells including the serving cell c, and each of the serving cells is formed based on a component carrier, wherein the UE is configured in a mode in which more than one CSI process can be configured for more than one serving cell, wherein the value included in the CSI request field informs the UE that the aperiodic CSI report is triggered for a set of more than one CSI process configured by a higher layer among CSI processes for more than one serving cell among the serving cells, and wherein each CSI process for the serving cells is related to a pair of two resources for CSI measurement, where one of the two resources is a CSI reference signal resource for CSI reference signal measurement and the other one of the two resources is an interference measurement resource for interference measurement. receiving downlink control information for a serving cell c, the downlink control information including a CSI request field; and transmitting the aperiodic CSI report through a physical uplink shared channel, PUSCH, on the serving cell c based on a value included in the CSI request field, wherein the UE is configured with multiple serving cells including the serving cell c, and each of the serving cells is formed based on a component carrier, wherein the UE is configured in a mode in which more than one CSI process can be configured for more than one serving cell, wherein the value included in the CSI request field informs the UE that the aperiodic CSI report is triggered for a set of more than one CSI process configured by a higher layer among CSI processes for more than one serving cell among the serving cells, and wherein each CSI process for the serving cells is related to a pair of two resources for CSI measurement, where one of the two resources is a CSI reference signal resource for CSI reference signal measurement and the other one of the two resources is an interference measurement resource for interference measurement.
A method for demodulating a signal, the method performed by a relay node and comprising: receiving (S200, S400), from an evolved NodeB, eNB, control information through a control channel and data corresponding to the control information through a data channel, wherein a transmission rank value of the data is equal or more than 2; and demodulating (S300, S500) the control information and the data, wherein when the control information and the data are demodulated by using user-equipment, UE,-specific reference signals transmitted by the eNB, the control information is demodulated based on UE-specific reference signals transmitted on fixed antenna port n, and the data is demodulated based on UE-specific reference signals transmitted on antenna ports n,...,(n + k -1), wherein the n is a natural number and the k is the transmission rank value of the data. receiving (S200, S400), from an evolved NodeB, eNB, control information through a control channel and data corresponding to the control information through a data channel, wherein a transmission rank value of the data is equal or more than 2; and demodulating (S300, S500) the control information and the data, wherein when the control information and the data are demodulated by using user-equipment, UE,-specific reference signals transmitted by the eNB, the control information is demodulated based on UE-specific reference signals transmitted on fixed antenna port n, and the data is demodulated based on UE-specific reference signals transmitted on antenna ports n,...,(n + k -1), wherein the n is a natural number and the k is the transmission rank value of the data.
Method for displaying an image (27, 28, 29) on a display unit in a vehicle, having the following steps: - providing a vehicle image of at least one region of the vehicle, - acquiring sensor data, which contain information about an environment of the vehicle, and - displaying an image (27, 28, 29), which is formed from the vehicle image and the sensor data, the image (27, 28, 29) containing a blank region (14', 16', 18', 19', 22' to 25') assigned to the environment, for which no sensor data are provided, characterized in that in the image (27, 28, 29), the vehicle image protrudes into the blank region (14', 16', 18', 19', 22' to 25'). - providing a vehicle image of at least one region of the vehicle, - acquiring sensor data, which contain information about an environment of the vehicle, and - displaying an image (27, 28, 29), which is formed from the vehicle image and the sensor data, the image (27, 28, 29) containing a blank region (14', 16', 18', 19', 22' to 25') assigned to the environment, for which no sensor data are provided,