mhurhangee/ep-ind-claims huggingface dataset:
A door or wall element comprising: • a frame comprising four elongated hollow profiles; • two side panels (3a, 3b) provided at opposed sides of the frame and attached to said frame; • at least two of the profiles positioned at opposed sides of the frame, provided with a groove (4a, 4b) situated at the sides of the concerned profiles defining the outer circumferential surface of the frame; • each of the side panels provided at opposed edges with a upstanding rim (7a, 7b) fitting into the concerned groove (4a, 4b) of the frame; characterized in that the door or wall element further comprises a connection piece provided between two adjacent profiles (22a, 22b) of the frame, and in that the profiles (22a, 22b) are mitred and wherein the connection piece comprises a body having a cross section matching the inner space of a first profile and inserted therein, the body having a mitred end surface from which at least one toothed part protrudes in a direction perpendicular to the longitudinal direction of the body, the toothed part fitting in the inner space of an adjacent second profile. • a frame comprising four elongated hollow profiles; • two side panels (3a, 3b) provided at opposed sides of the frame and attached to said frame; • at least two of the profiles positioned at opposed sides of the frame, provided with a groove (4a, 4b) situated at the sides of the concerned profiles defining the outer circumferential surface of the frame; • each of the side panels provided at opposed edges with a upstanding rim (7a, 7b) fitting into the concerned groove (4a, 4b) of the frame;
Optical transmitter (OLT1, OLT2, OLT3) for an optical network, comprising - a first mirror and a second mirror, - a semiconductor optical amplifier, - a first optical filter (OF1, OF11) and a second optical filter (OF2, OF22), wherein said first optical filter (OF1, OF11) and said second optical filter (OF2, OF22) are in series connection to each other, wherein said first mirror is located, such that a first fraction of an optical signal emitted by said semiconductor optical amplifier is reflected back to said semiconductor optical amplifier, wherein a second fraction of an optical signal emitted by said semiconductor optical amplifier is transmitted towards said series connection of said optical filters, characterized in that - said first optical filter (OF1, OF11) is a cyclic Arrayed Waveguide Grating containing a number of amplifier-sided ports (AP1,..., APn) to which respective semiconductor optical amplifiers may be connected, - said second optical filter (OF2, OF22) is a non-cyclic AWG containing a number of incoming ports (P1,..., Pn), - said SOA is connected indirectly via said first filter to one of said incoming ports of said second optical filter (OF2, OF22), and in that said second mirror is optically coupled to said first or said second filter, such that said first and said second mirror (M1, M2) delimit a cavity, which comprises said semiconductor optical amplifier and at least one of said optical filters and which is adapted to generate a coherent optical signal. - a first mirror and a second mirror, - a semiconductor optical amplifier, - a first optical filter (OF1, OF11) and a second optical filter (OF2, OF22), - said first optical filter (OF1, OF11) is a cyclic Arrayed Waveguide Grating containing a number of amplifier-sided ports (AP1,..., APn) to which respective semiconductor optical amplifiers may be connected, - said second optical filter (OF2, OF22) is a non-cyclic AWG containing a number of incoming ports (P1,..., Pn), - said SOA is connected indirectly via said first filter to one of said incoming ports of said second optical filter (OF2, OF22),
Method for producing a battery electrode of a battery cell, having an electrode material having a foil and having an active material coating applied thereto, - wherein the electrode material is conveyed in a conveying direction to a processing site, - wherein, at the processing site, a laser beam is moved across the electrode material by means of a rotatable polygon scanner and is focused onto the electrode material by an F-theta lens, - wherein the active material coating is removed locally at a plurality of ablation sites by means of the focused laser beam so as to reduce the tortuosity of the electrode material. - wherein the electrode material is conveyed in a conveying direction to a processing site, - wherein, at the processing site, a laser beam is moved across the electrode material by means of a rotatable polygon scanner and is focused onto the electrode material by an F-theta lens, - wherein the active material coating is removed locally at a plurality of ablation sites by means of the focused laser beam so as to reduce the tortuosity of the electrode material.
A fuel cell configured to directly utilize hydrocarbon fuel at temperatures of 500°C or less comprising: a layered anode comprising an Ni and Ru doped ceria catalyst, the anode being active for wet and dry reforming of the hydrocarbon fuel below 500°C; a mixed-ion conducting membrane electrolyte structure comprising alternating layers of: an oxygen ion transporting solid oxide fuel cell (SOFC) electrolyte material comprising samaria-doped ceria,; and a proton transporting SOFC electrolyte material comprising barium yttrium zirconate; and a cathode configured to ionize oxygen for transport through the oxygen ion transporting SOFC electrolyte material to the layered anode; wherein the oxygen ion transporting SOFC electrolyte material is configured to transport therethrough the ionized oxygen from the cathode to the layered anode; wherein the proton transporting SOFC electrolyte material is configured to transport therethrough hydrogen ionized from the layered anode to the cathode; and wherein the ratio of the oxygen ion transporting SOFC electrolyte material to the proton transporting SOFC electrolyte material is approximately 1:10. a layered anode comprising an Ni and Ru doped ceria catalyst, the anode being active for wet and dry reforming of the hydrocarbon fuel below 500°C; a mixed-ion conducting membrane electrolyte structure comprising alternating layers of: an oxygen ion transporting solid oxide fuel cell (SOFC) electrolyte material comprising samaria-doped ceria,; and a proton transporting SOFC electrolyte material comprising barium yttrium zirconate; and an oxygen ion transporting solid oxide fuel cell (SOFC) electrolyte material comprising samaria-doped ceria,; and a proton transporting SOFC electrolyte material comprising barium yttrium zirconate; and a cathode configured to ionize oxygen for transport through the oxygen ion transporting SOFC electrolyte material to the layered anode; wherein the oxygen ion transporting SOFC electrolyte material is configured to transport therethrough the ionized oxygen from the cathode to the layered anode; wherein the proton transporting SOFC electrolyte material is configured to transport therethrough hydrogen ionized from the layered anode to the cathode; and wherein the ratio of the oxygen ion transporting SOFC electrolyte material to the proton transporting SOFC electrolyte material is approximately 1:10.
Application head for a curtain applicator for coating a moving web of material with at least one liquid and/or pasty application medium, the application head comprising at least one tear-off edge which extends substantially over the width of the application head and at which the application medium leaves the application head in the form of a freely falling curtain, wherein at least one flushing device is provided, by means of which at least one of the at least one tear-off edge can be acted upon by a flowing gaseous flushing medium, characterised in that the application head comprises a housing block, in particular made of a metallic material, in which the cross-distribution chamber and the nozzle gap are arranged, and the housing block is surrounded at least in sections by an outer casing and a thermally insulating layer which comes into contact with the environment, the outer casing being thermally decoupled from the housing block at least in sections by the thermally insulating layer.
Belt pulley arrangement for a belt drive for driving auxiliary units of a motor vehicle, in particular an air-conditioning compressor, a generator, an oil pump, a lubricant pump and/or a fuel pump, said arrangement having - a belt pulley for introducing a torque that can be provided via a flexible drive means, - an output shaft for driving an auxiliary unit, in particular a cooling water pump, and - an electric machine for torque transmission between the belt pulley and the output shaft, wherein the electric machine has a rotor connected to the belt pulley and a stator connected to the output shaft, characterized in that a switching element is provided for producing coupling of the belt pulley to the output shaft in a manner substantially fixed against relative rotation in the case of a loss of the power flow in the electric machine. - a belt pulley for introducing a torque that can be provided via a flexible drive means, - an output shaft for driving an auxiliary unit, in particular a cooling water pump, and - an electric machine for torque transmission between the belt pulley and the output shaft, wherein the electric machine has a rotor connected to the belt pulley and a stator connected to the output shaft, characterized in that a switching element is provided for producing coupling of the belt pulley to the output shaft in a manner substantially fixed against relative rotation in the case of a loss of the power flow in the electric machine.
A method for message control performed by a central node in a cooperative intelligent transport system, wherein said method comprises: - creating a transmission restriction control message; said transmission restriction control message comprising: restriction instructions, defining how a transmission restriction demand is to be applied by an on-board unit; and validity information indicating area information defining an area where the control message is applicable and/or time information defining a time period for which the control message is applicable, wherein the restriction instructions comprise: transmitter type information specifying one or more transmitter node types to which the restriction instruction applies, and a requested transmission timing of messages to which the transmission restriction demand is to be applied, wherein the requested timing comprises a shortest allowed time between successive transmissions permitted, and - broadcasting said transmission restriction control message. - creating a transmission restriction control message; said transmission restriction control message comprising: restriction instructions, defining how a transmission restriction demand is to be applied by an on-board unit; and validity information indicating area information defining an area where the control message is applicable and/or time information defining a time period for which the control message is applicable, wherein the restriction instructions comprise: transmitter type information specifying one or more transmitter node types to which the restriction instruction applies, and a requested transmission timing of messages to which the transmission restriction demand is to be applied, wherein the requested timing comprises a shortest allowed time between successive transmissions permitted, and restriction instructions, defining how a transmission restriction demand is to be applied by an on-board unit; and validity information indicating area information defining an area where the control message is applicable and/or time information defining a time period for which the control message is applicable, wherein the restriction instructions comprise: transmitter type information specifying one or more transmitter node types to which the restriction instruction applies, and a requested transmission timing of messages to which the transmission restriction demand is to be applied, wherein the requested timing comprises a shortest allowed time between successive transmissions permitted, and transmitter type information specifying one or more transmitter node types to which the restriction instruction applies, and a requested transmission timing of messages to which the transmission restriction demand is to be applied, wherein the requested timing comprises a shortest allowed time between successive transmissions permitted, and - broadcasting said transmission restriction control message.
An endoscopic forceps, comprising: a housing having a shaft that extends therefrom having a longitudinal axis defined therethrough, the shaft including a stationary cam pin at a distal end thereof and an elongated cam slot operably disposed adjacent and in proximal relation relative to the stationary cam pin; and an end effector assembly operatively connected to a distal end of the shaft and including a pair of first and second jaw members (110, 120) pivotably coupled to one another, the second of the jaw members translatable along the longitudinal axis and rotatable about the stationary cam pin, from an open position, wherein the first and second jaw members are disposed in spaced relation relative to one another, to a clamping position, wherein the first and second jaw members cooperate to grasp tissue therebetween; and the at least second jaw member having a drive pin operably coupled thereto and movable within the cam slot on the shaft, the second of the jaw members having a second cam slot operably disposed thereon and operably coupled to the stationary cam pin on the shaft, the stationary cam pin of the shaft positioned within an opening of the first of the jaw members and within the second cam slot of the second jaw member. a housing having a shaft that extends therefrom having a longitudinal axis defined therethrough, the shaft including a stationary cam pin at a distal end thereof and an elongated cam slot operably disposed adjacent and in proximal relation relative to the stationary cam pin; and an end effector assembly operatively connected to a distal end of the shaft and including a pair of first and second jaw members (110, 120) pivotably coupled to one another, the second of the jaw members translatable along the longitudinal axis and rotatable about the stationary cam pin, from an open position, wherein the first and second jaw members are disposed in spaced relation relative to one another, to a clamping position, wherein the first and second jaw members cooperate to grasp tissue therebetween; and the at least second jaw member having a drive pin operably coupled thereto and movable within the cam slot on the shaft, the second of the jaw members having a second cam slot operably disposed thereon and operably coupled to the stationary cam pin on the shaft, the stationary cam pin of the shaft positioned within an opening of the first of the jaw members and within the second cam slot of the second jaw member.
Method for producing a sphingoid base of General Formula I, or a salt thereof, in which R' is H, aryl or an alkyl chain having 1-43 carbon atoms, preferably 5-25 carbon atoms, more preferably 10-20 carbon atoms, which may be a straight chain or branched, and/or which may be saturated or contain one or more double bonds, and/or which may contain one or more functional groups, the functional group being preferably selected from the group consisting of a hydroxyl group, an alkoxy group, a primary, secondary or tertiary amine, a thiol group, a thioether or a phosphorus containing functional group, starting from a compound of General Formula II wherein R' is as defined for General Formula I, this method comprising the steps of: a. protecting the amino (NH 2) group of a compound represented by General Formula II or a salt thereof with an N-protecting group, the N-protecting group being a vinylogous amide-type N-protecting group suitable to yield vinylogous amides, b. protecting the hydroxyl groups at position C-1 and C-3 with an O-protecting group, c. introducing a leaving group R 6 at position C-4 by substitution or replacement of the C-4 hydroxyl group, d. inducing an elimination reaction by base treatment to form a double bond between C-4 and C-5, e. removing the O-protecting group, f. removing the N-protecting group. in which R' is H, aryl or an alkyl chain having 1-43 carbon atoms, preferably 5-25 carbon atoms, more preferably 10-20 carbon atoms, which may be a straight chain or branched, and/or which may be saturated or contain one or more double bonds, and/or which may contain one or more functional groups, the functional group being preferably selected from the group consisting of a hydroxyl group, an alkoxy group, a primary, secondary or tertiary amine, a thiol group, a thioether or a phosphorus containing functional group, starting from a compound of General Formula II wherein R' is as defined for General Formula I, this method comprising the steps of: a. protecting the amino (NH 2) group of a compound represented by General Formula II or a salt thereof with an N-protecting group, the N-protecting group being a vinylogous amide-type N-protecting group suitable to yield vinylogous amides, b. protecting the hydroxyl groups at position C-1 and C-3 with an O-protecting group, c. introducing a leaving group R 6 at position C-4 by substitution or replacement of the C-4 hydroxyl group, d. inducing an elimination reaction by base treatment to form a double bond between C-4 and C-5, e. removing the O-protecting group, f. removing the N-protecting group. a. protecting the amino (NH 2) group of a compound represented by General Formula II or a salt thereof with an N-protecting group, the N-protecting group being a vinylogous amide-type N-protecting group suitable to yield vinylogous amides, b. protecting the hydroxyl groups at position C-1 and C-3 with an O-protecting group, c. introducing a leaving group R 6 at position C-4 by substitution or replacement of the C-4 hydroxyl group, d. inducing an elimination reaction by base treatment to form a double bond between C-4 and C-5, e. removing the O-protecting group, f. removing the N-protecting group.
A robot cleaner including a drive wheel driven to move on a cleaning course set according to a detection result of an internal sensor, a brush assembly disposed at a bottom of the robot cleaner, and a suction unit disposed around a center of the robot cleaner to collect dust or foreign matter from a floor of a room when the brush assembly rotates while touching the floor, characterized in that the suction unit comprises: a dust collection box disposed behind the drive wheel and spaced a predetermined distance therefrom; a filter unit communicatively coupled to a rear side of the dust collection box; a suction duct assembly mounted on a center of the suction unit to face the drive wheel and having one end communicatively coupled to the filter unit to suction air for drawing the dust and foreign matter from the floor into the dust collection box; a dual bumper having a composite structure capable of sensing collision and compression of the dual bumper; and a battery mounted between the suction duct assembly and the dual bumper having the composite structure, the battery being spaced a predetermined distance from a front side of the drive wheel, characterized in that the suction duct assembly comprises: a suction motor disposed between the battery and a main brush motor; and a suction channel having one end coupled to the suction motor with one end of the suction motor inserted into the one end of the suction channel, and the other end bent to be disposed along the dual bumper, the suction channel being disposed outside one end of the dust collection box and the brush assembly. a dust collection box disposed behind the drive wheel and spaced a predetermined distance therefrom; a filter unit communicatively coupled to a rear side of the dust collection box; a suction duct assembly mounted on a center of the suction unit to face the drive wheel and having one end communicatively coupled to the filter unit to suction air for drawing the dust and foreign matter from the floor into the dust collection box; a dual bumper having a composite structure capable of sensing collision and compression of the dual bumper; and a battery mounted between the suction duct assembly and the dual bumper having the composite structure, the battery being spaced a predetermined distance from a front side of the drive wheel, characterized in that the suction duct assembly comprises: a suction motor disposed between the battery and a main brush motor; and a suction channel having one end coupled to the suction motor with one end of the suction motor inserted into the one end of the suction channel, and the other end bent to be disposed along the dual bumper, the suction channel being disposed outside one end of the dust collection box and the brush assembly. a suction motor disposed between the battery and a main brush motor; and a suction channel having one end coupled to the suction motor with one end of the suction motor inserted into the one end of the suction channel, and the other end bent to be disposed along the dual bumper, the suction channel being disposed outside one end of the dust collection box and the brush assembly.
Method for the manufacturing of an elastic yarn having properties of electrical conduction, comprising the steps which consist in: ▪ producing a basic yarn by whipping a synthetic yarn with whipping around a metal core yarn; ▪ producing an intermediate yarn by whipping the said basic yarn around an elastic core yarn; ▪ combining several intermediate yarns by whipping with a synthetic binding system yarn. ▪ producing a basic yarn by whipping a synthetic yarn with whipping around a metal core yarn; ▪ producing an intermediate yarn by whipping the said basic yarn around an elastic core yarn; ▪ combining several intermediate yarns by whipping with a synthetic binding system yarn.
An apparatus for scanning a light beam, the apparatus comprising: a mirror configured to reflect an incident light beam; a motor configured to rotate the mirror to change a direction along which the light beam reflected by the mirror travels; characterized by a detector (DT1, DT2, DT3) configured to detect tilt of a detected region (6, 13, 16) of the mirror with respect to a rotation angle of the mirror; and a processor configured to calculate an amount of tilt of the mirror with relative to a direction along a rotation axis of the motor, based on the rotation angle of the mirror and the tilt of the detected region (6, 13, 16) detected by the detector, wherein the tilt of the mirror is represented by an angle (Θt) between the direction along the rotation axis and a reflection surface of the mirror. a mirror configured to reflect an incident light beam; a motor configured to rotate the mirror to change a direction along which the light beam reflected by the mirror travels; a detector (DT1, DT2, DT3) configured to detect tilt of a detected region (6, 13, 16) of the mirror with respect to a rotation angle of the mirror; and a processor configured to calculate an amount of tilt of the mirror with relative to a direction along a rotation axis of the motor, based on the rotation angle of the mirror and the tilt of the detected region (6, 13, 16) detected by the detector, wherein the tilt of the mirror is represented by an angle (Θt) between the direction along the rotation axis and a reflection surface of the mirror.