mhurhangee/ep-ind-claims huggingface dataset:
An immersion lithography apparatus comprising a stage arranged to retain a workpiece (W; a projection unit including an optical element, said optical element being opposite said workpiece during an immersion lithography process, and a supply nozzle arranged around the projection unit to supply a liquid to fill a gap between the lower surface of said optical element and either one of a surface of the workpiece and a surface other than the surface of said workpiece, wherein said apparatus further comprises: an ultrasonic pressure wave generator (32,34,36,40) arranged to generate ultrasonic pressure waves in the liquid, such that the ultrasonic pressure waves are propagated in the liquid during a cleanup process to clean the optical element; and a control unit arranged to control the stage such that the optical element faces a surface other than the surface of the workpiece when the ultrasonic pressure waves are propagated in the liquid during the cleanup process. an ultrasonic pressure wave generator (32,34,36,40) arranged to generate ultrasonic pressure waves in the liquid, such that the ultrasonic pressure waves are propagated in the liquid during a cleanup process to clean the optical element; and a control unit arranged to control the stage such that the optical element faces a surface other than the surface of the workpiece when the ultrasonic pressure waves are propagated in the liquid during the cleanup process.
A method for wireless communication at a user equipment, UE, comprising: receiving a configuration of a first one or more channel state information, CSI, reference signal, CSI-RS, resources for channel measurement and a configuration of a second one or more CSI-RS resources for interference measurement; characterised by: receiving an indicator indicating a categorization of each port used to transmit on the second one or more CSI-RS resources for interference measurement as corresponding to one of a first type of layer or a second type of layer wherein the first type of layer or the second type of layer is a non-linear precoding layer; and transmitting a CSI report based at least in part on the configuration of the first one or more CSI-RS resources, the configuration of the second one or more CSI-RS resources, and the categorization. receiving a configuration of a first one or more channel state information, CSI, reference signal, CSI-RS, resources for channel measurement and a configuration of a second one or more CSI-RS resources for interference measurement; characterised by: receiving an indicator indicating a categorization of each port used to transmit on the second one or more CSI-RS resources for interference measurement as corresponding to one of a first type of layer or a second type of layer wherein the first type of layer or the second type of layer is a non-linear precoding layer; and transmitting a CSI report based at least in part on the configuration of the first one or more CSI-RS resources, the configuration of the second one or more CSI-RS resources, and the categorization. receiving an indicator indicating a categorization of each port used to transmit on the second one or more CSI-RS resources for interference measurement as corresponding to one of a first type of layer or a second type of layer wherein the first type of layer or the second type of layer is a non-linear precoding layer; and transmitting a CSI report based at least in part on the configuration of the first one or more CSI-RS resources, the configuration of the second one or more CSI-RS resources, and the categorization.
Apparatus for controlling a movable load suspended on a cord, characterized in that the movable load has a controllable actuator, which is an assembly robot, and a control unit is provided, which is configured to use control commands for controlling the actuator in order to predict a load countermovement to be expected, so as to compensate for and/or prevent the load countermovement by controlling at least one compensating device controlled by the control unit.
An electrophotographic imaging member comprising a substrate, an imaging layer thereon, and a crack-deterring backing layer located on a side of the substrate opposite the imaging layer; wherein the crack-deterring backing layer comprises a backing material is a silicone formed from dimethyl methylphenylmethoxy siloxane and methyltrimethoxy silane.
A method for manufacturing by integral molding a vehicle seat core member including securing attachments used for securing the vehicle seat core member to a vehicle and embedded in a molded article of expanded beads made of thermoplastic resin, the securing attachments being disposed near both ends in a front portion of the vehicle seat core member and connected by a connecting member embedded in a front portion of the molded article of expanded beads, the connecting member extending in a longitudinal direction of the seat core member, each of the securing attachments including a base embedded in the molded article of expanded beads, an upright frame joined to the base to extend out of the molded article of expanded beads, and a securing portion extending from the upright frame to project away from a surface of the molded article of expanded beads, the method is characterized by comprising creating, during or after molding the molded article of expanded beads, a space (8, 9, 15) at an outside position from a part of the molded article of expanded beads where the upright frame of the securing attachment is embedded in a longitudinal direction of the seat core member, or a notch (8, 9) at an outside position from the part of the molded article of expanded beads in a longitudinal direction of the seat core member where the upright frame of the securing attachment is embedded toward an outer side in a longitudinal direction of the seat core member.
The method of providing a cementitious mixture with a final setting time of at most 30 minutes comprising: mixing sufficient water to form the mixture as a slurry, a cementitious reactive powder comprising hydraulic cement, and a set accelerating amount of alkanolamine, providing an initial slurry temperature of 32°C (90°F) to 71°C (160°F), characterized in that the cementitious reactive powder comprises a polyphosphate, wherein the polyphosphate is provided in an amount of 0.15 to 1.5 wt. % phosphate based on the weight of the cementitious reactive powder, the alkanolamine is provided in an amount of 0.025 to 1 wt. % based on the weight of the cementitious reactive powder, the polyphosphate being selected from at least one member of the group consisting of sodium trimetaphosphate (STMP), potassium tripolyphosphate (KTTP), sodium tripolyphosphate (STTP), tetrasodium pyrophosphate (TSPP) and tetrapotassium pyrophosphate (TKPP), wherein the mixture temperature can be achieved within 5 minutes after formation of the slurry by heating one or more of the components of the mixture. mixing sufficient water to form the mixture as a slurry, a cementitious reactive powder comprising hydraulic cement, and a set accelerating amount of alkanolamine, providing an initial slurry temperature of 32°C (90°F) to 71°C (160°F), characterized in that the cementitious reactive powder comprises a polyphosphate, wherein the polyphosphate is provided in an amount of 0.15 to 1.5 wt. % phosphate based on the weight of the cementitious reactive powder, the alkanolamine is provided in an amount of 0.025 to 1 wt. % based on the weight of the cementitious reactive powder, the polyphosphate being selected from at least one member of the group consisting of sodium trimetaphosphate (STMP), potassium tripolyphosphate (KTTP), sodium tripolyphosphate (STTP), tetrasodium pyrophosphate (TSPP) and tetrapotassium pyrophosphate (TKPP), wherein the mixture temperature can be achieved within 5 minutes after formation of the slurry by heating one or more of the components of the mixture.
Optical fiber laser comprising: - an optical fiber having: • two ends (106, 108) of which a first end which is intended for receiving light therethrough, and • a doped section intended for absorbing at least part of the light received by the first end and for emitting light, - a heat-conducting material which coats at least the doped section of the optical fiber, and - a mechanical support to which the optical fiber is fixed at two fastening points (116, 118) located on either side of the doped section, wherein the mechanical support comprises a gutter filled with the heat-conducting material and wherein the optical fiber, and in particular its doped section, extends, characterized in that the heat-conducting material is polymerized, and has a hardness less than 20 Shore A, and, before polymerization, a viscosity less than 4 Pa.s, preferably less than 3 Pa.s. - an optical fiber having: • two ends (106, 108) of which a first end which is intended for receiving light therethrough, and • a doped section intended for absorbing at least part of the light received by the first end and for emitting light, • two ends (106, 108) of which a first end which is intended for receiving light therethrough, and • a doped section intended for absorbing at least part of the light received by the first end and for emitting light, - a heat-conducting material which coats at least the doped section of the optical fiber, and - a mechanical support to which the optical fiber is fixed at two fastening points (116, 118) located on either side of the doped section, wherein the mechanical support comprises a gutter filled with the heat-conducting material and wherein the optical fiber, and in particular its doped section, extends,
A semiconductor structure comprising a substrate, a die and a first adhesive layer, wherein a surface of the substrate is provided with an insulation layer; the die is arranged on a surface of the insulation layer via the first adhesive layer; characterised in that the insulation layer is provided with at least one hole slot, the hole slot being defined as a recess, trench or void in the insulation layer, with a geometry corresponding to an edge of the first adhesive layer; a position of the at least one hole slot corresponds to at least a part of an edge of the first adhesive layer; a second adhesive layer is arranged in the at least one hole slot; at least a part of a surface of the second adhesive layer is connected with the first adhesive layer; and an elasticity modulus of the second adhesive layer is smaller than an elasticity modulus of the first adhesive layer. characterised in that the insulation layer is provided with at least one hole slot, the hole slot being defined as a recess, trench or void in the insulation layer, with a geometry corresponding to an edge of the first adhesive layer; a position of the at least one hole slot corresponds to at least a part of an edge of the first adhesive layer; a second adhesive layer is arranged in the at least one hole slot; at least a part of a surface of the second adhesive layer is connected with the first adhesive layer; and an elasticity modulus of the second adhesive layer is smaller than an elasticity modulus of the first adhesive layer.
A distortion correction control apparatus for compensating for burst distortion of a transmission amplifier caused by a burst of an input signal of a transmission target, comprising: generation means for generating a distortion correction coefficient having reverse characteristics to the burst distortion; means for multiplying the distortion correction coefficient output from the generation means by the input signal or adding the distortion correction coefficient output from the generation means to the input signal, upon reception of burst information notifying of switching between presence and absence of the input signal; and update means for updating, based on the input signal and a branch signal fed back as an output signal of the transmission amplifier, parameters of functions used for adaptively generating the distortion correction coefficient, and for inputting the updated parameters to the generation means; wherein the functions for adaptively generating the distortion correction coefficient are both a sine function and an exponential function multiplied together. generation means for generating a distortion correction coefficient having reverse characteristics to the burst distortion; means for multiplying the distortion correction coefficient output from the generation means by the input signal or adding the distortion correction coefficient output from the generation means to the input signal, upon reception of burst information notifying of switching between presence and absence of the input signal; and update means for updating, based on the input signal and a branch signal fed back as an output signal of the transmission amplifier, parameters of functions used for adaptively generating the distortion correction coefficient, and for inputting the updated parameters to the generation means; wherein the functions for adaptively generating the distortion correction coefficient are both a sine function and an exponential function multiplied together.
Apparatus for holding an organ ex vivo for at least one of perfusion, storage, diagnosis and transport of the organ, comprising: a portable housing; a pump; and an organ supporting surface configured to support an organ within said housing, wherein the pump contacts at least one first tube directed to a first area of the organ and the pump contacts at least one second tube directed to a second area of the organ, and the at least one first tube and the at least one second tube are configured to deliver perfusate to the organ, wherein the at least one first tube is configured to be directed to a hepatic artery side of a liver and the at least one second tube is configured to be directed to a portal vein side of the liver, characterized in that the tubing on the hepatic side splits into two directions and the apparatus comprises a hepatic infusion valve connected to the tubing on the hepatic side and configured to control the flow to the hepatic side of the liver, and a hepatic wash valve connected to the tubing on the hepatic side and configured to control the flow into the organ bath, the tubing on the portal side splits into two directions, and the apparatus comprises a portal infusion valve connected to the tubing on the portal side and configured to control the flow to the portal side of the liver and a portal wash valve connected to the tubing on the portal side and configured to control the flow into the organ bath, the apparatus comprises an alternating mode of operation, in which the portal infusion valve and the portal wash valve are set to infuse and the hepatic infusion valve and the hepatic wash valve switch between an infuse setting and a wash setting, the dominant pressure thus alternating between the hepatic side providing the dominant pressure when the hepatic valves are set to infuse, and the portal side providing the dominant pressure when the hepatic valves are set to wash. a portable housing; a pump; and an organ supporting surface configured to support an organ within said housing, wherein the pump contacts at least one first tube directed to a first area of the organ and the pump contacts at least one second tube directed to a second area of the organ, and the at least one first tube and the at least one second tube are configured to deliver perfusate to the organ,
Temperature control device for controlling the temperature of an external process, comprising: a line system which comprises: - a filling valve for connecting a filling container; and - an expansion tank; a gas connection arranged on the expansion tank for optionally pressurising the expansion tank with gas under excess pressure during normal operation; and a filling system for sucking a liquid temperature control medium into the line system via the filling valve, comprising a vacuum mechanism which is fluidly connected to the gas connection for generating a negative pressure in the line system during a filling operation. a line system which comprises: - a filling valve for connecting a filling container; and - an expansion tank; - a filling valve for connecting a filling container; and - an expansion tank; a gas connection arranged on the expansion tank for optionally pressurising the expansion tank with gas under excess pressure during normal operation; and a filling system for sucking a liquid temperature control medium into the line system via the filling valve, comprising a vacuum mechanism which is fluidly connected to the gas connection for generating a negative pressure in the line system during a filling operation.
A method of decoding encoded data comprising compressed image data at a computing device, comprising the steps of: receiving at said computing device data encoded with a set of prefix codes; at the computing device writing native machine code for execution by the computing device, the native machine code providing an implementation of a binary prefix code tree corresponding to the prefix code set, and decoding the encoded data by traversing the prefix code tree, the traversing the prefix code tree comprising executing the native machine code at the computing device in response to the encoded data; characterized in that: the implementation includes shift opcodes, branch opcodes, each corresponding to a node of the binary prefix code tree which is not a leaf node, and return opcodes, each corresponding to a leaf node of the binary prefix code tree, and excluding loop opcodes. receiving at said computing device data encoded with a set of prefix codes; at the computing device writing native machine code for execution by the computing device, the native machine code providing an implementation of a binary prefix code tree corresponding to the prefix code set, and decoding the encoded data by traversing the prefix code tree, the traversing the prefix code tree comprising executing the native machine code at the computing device in response to the encoded data;
A method for use in a wireless transmit/receive unit, WTRU, the method comprising: communicating with a cellular network; communicating with an Institute of Electrical and Electronics Engineers, IEEE, 802 wireless local area network, WLAN; receiving an indication via the IEEE 802 WLAN that the cellular network has priority over the IEEE 802 WLAN with regard to an emergency call; determining that the cellular network is not available to process the emergency call; and initiating the emergency call using the IEEE 802 WLAN, wherein the WTRU provides an indicator (256, 718) to the IEEE 802 WLAN, identifying the call as an emergency call, such that the IEEE 802 WLAN prioritizes the emergency call. communicating with a cellular network; communicating with an Institute of Electrical and Electronics Engineers, IEEE, 802 wireless local area network, WLAN; receiving an indication via the IEEE 802 WLAN that the cellular network has priority over the IEEE 802 WLAN with regard to an emergency call; determining that the cellular network is not available to process the emergency call; and initiating the emergency call using the IEEE 802 WLAN, wherein the WTRU provides an indicator (256, 718) to the IEEE 802 WLAN, identifying the call as an emergency call, such that the IEEE 802 WLAN prioritizes the emergency call.
An exhaust gas purifying catalyst which is disposed in an exhaust passage of an internal combustion engine and eliminates NOx contained in exhaust gas, the exhaust gas purifying catalyst comprising: a substrate; and a catalyst coat layer formed on a surface of the substrate, wherein the catalyst coat layer is formed in a laminate structure having two layers, with a first layer formed across the entire substrate and being nearer to the surface of the substrate and a second layer formed across the entire substrate and being further from this surface, the second layer includes a carrier and a noble metal supported on the carrier, and the first layer is a noble metal-free layer formed across the entire substrate that does not contain a noble metal but does contain an OSC material having oxygen storage capacity, the OSC material is a cerium oxide or a ceria-zirconia complex oxide, the second layer contains Rh and Pt, and the mass ratio of Rh and Pt (Rh/Pt) contained in the second layer is between 3/1 and 3/2. a first layer formed across the entire substrate and being nearer to the surface of the substrate and a second layer formed across the entire substrate and being further from this surface,
An agricultural machine comprising: a center section; a wheel supporting the center section; a wing section (24, 26) coupled to the center section; and a hinge positioned between the center section and the wing section (24, 26) to permit the wing section (24, 26) to pivot about the center section, the hinge comprising a first part including a first protrusion defining a first aperture extending therethrough, the first part coupled to or integrated in the center section, a second part including a second protrusion, the second protrusion defining a second aperture extending therethrough, the second part coupled to or integrated in the wing section (24, 26), a pin having a first end and a second end, the pin positioned to extend through the first and second apertures to couple the first part and the second part such that the wing section (24, 26) is pivotably coupled to the center section, characterized in that a first fastener is positioned adjacent the first end of the pin, the first fastener operable to couple the first part to the center section and to abut the first end of the pin to thereby retain the pin in the first and second apertures, and a second fastener is positioned adjacent the second end of the pin, the second fastener operable to couple the first part to the center section and to abut the second end of the pin to thereby retain the pin in the first and second apertures.