mhurhangee/ep-ind-claims huggingface dataset:
A dry etching method for etching a metal or metal oxide film containing metal includes at least one material selected from the group consisting of Zn, Co, Fe and Mn formed on a substrate by use of etching gas containing β-diketone, wherein: the etching gas containing β-diketone contains at least one additive among H 2 O or H 2 O 2; and the additive is contained at a volume concentration of 1% or greater and 20% or less, wherein the etching gas is reacted with the film containing the metal or the metal oxide in a temperature range of 100°C or higher and 350°C or lower, the metal material in the film is oxidized by H 2 O or H 2 O 2, two molecules of β-diketone are coordinated to the oxidized metal atom and H 2 O molecule are coordinated at vacant coordination positions of the metal atom, and the metal material forms a penta- or hexa-coordinated complex structure with two molecules of β-diketone and H 2 O. the etching gas containing β-diketone contains at least one additive among H 2 O or H 2 O 2; and the additive is contained at a volume concentration of 1% or greater and 20% or less, wherein the etching gas is reacted with the film containing the metal or the metal oxide in a temperature range of 100°C or higher and 350°C or lower, the metal material in the film is oxidized by H 2 O or H 2 O 2, two molecules of β-diketone are coordinated to the oxidized metal atom and H 2 O molecule are coordinated at vacant coordination positions of the metal atom, and the metal material forms a penta- or hexa-coordinated complex structure with two molecules of β-diketone and H 2 O.
A communications system, comprising a mobile radio network comprising a plurality of base stations arranged to communicate data to and from mobile communications devices via a wireless access interface, and a plurality of associated communications devices forming a group, each of the associated communications devices being capable of transmitting and receiving data from one or more of the base stations, wherein each of the associated communications devices of the group includes a common identifier, with respect to which communications sessions can be established to communicate data via the mobile radio network, to or from any of the associated communications devices of the group, wherein a first of the plurality of associated communications devices is arranged to be a master communications device and in operation to establish a communication session by transmitting signalling information including the identifier to the mobile network via the one or more base stations, and each of the associated communications devices in the group is arranged to enter a listening mode in which signalling information communicated from the mobile radio network can be received in response to the signalling information transmitted by the master communications device, with the effect that each of the associated communications devices can transmit data to the mobile radio network and receive data from the mobile radio network using the communications session established by the master communications device using the common identifier for all of the associated communications devices of the group, and the signalling information received from the mobile radio network in response to the first communications device includes information required for mobility management and connection, the master communications device communicating non-access stratum signalling when the associated communications devices are in an idle mode.
An industrial process control system comprising: an alarm server comprising a processor and an Object Linking and Embedding for Process Control Alarms and Events, OPC AE, server, wherein the alarm server is configured to: receive alarm or alert device information representative of a field device (38, 40, 42, 44), wherein the alarm or alert device information comprises information extracted from a Foundation fieldbus device definition, DD, file of the field device (38, 40, 42, 44), translate the device information into a first format interpretable by the OPC AE server, and provide the device information in the first format to the OPC AE server which is configured to receive the device information in the first format, interpret the device information in the first format, and provide the device information to a networked client over an OPC AE protocol, wherein the OPC AE server is configured to receive one or more user operation commands from the networked client utilizing the OPC AE protocol, and to provide said commands to the alarm server, wherein the alarm server is configured to receive the one or more user operation commands from the OPC AE server and execute the one or more operation commands. an alarm server comprising a processor and an Object Linking and Embedding for Process Control Alarms and Events, OPC AE, server, wherein the alarm server is configured to: receive alarm or alert device information representative of a field device (38, 40, 42, 44), wherein the alarm or alert device information comprises information extracted from a Foundation fieldbus device definition, DD, file of the field device (38, 40, 42, 44), translate the device information into a first format interpretable by the OPC AE server, and provide the device information in the first format to the OPC AE server which is configured to receive the device information in the first format, interpret the device information in the first format, and provide the device information to a networked client over an OPC AE protocol, wherein receive alarm or alert device information representative of a field device (38, 40, 42, 44), wherein the alarm or alert device information comprises information extracted from a Foundation fieldbus device definition, DD, file of the field device (38, 40, 42, 44), translate the device information into a first format interpretable by the OPC AE server, and provide the device information in the first format to the OPC AE server which is configured to receive the device information in the first format, interpret the device information in the first format, and provide the device information to a networked client over an OPC AE protocol, wherein the OPC AE server is configured to receive one or more user operation commands from the networked client utilizing the OPC AE protocol, and to provide said commands to the alarm server, wherein the alarm server is configured to receive the one or more user operation commands from the OPC AE server and execute the one or more operation commands.
A sensor element comprising: - a photosensitive member for converting a light signal into an electric signal; - an amplifier member for amplifying the electric signal supplied by the photosensitive member; - an output terminal coupled to an output of the amplifier member for passing the amplified signal supplied by the amplifier member to the exterior; - a first supply connection terminal for receiving a first supply voltage; - a second supply connection terminal for receiving a second supply voltage; - a control connection terminal for receiving a combined select/reset signal; - means coupled to the control connection terminal, which means are designed for: bringing the sensor element into an integration state in response to the reception of a combined select/reset signal having a first signal value; resetting the photosensitive member in response to the reception of a combined select/reset signal having a second signal value; and bringing the sensor element into a selected state in response to the reception of a combined select/reset signal having a third signal value; a first controllable switch connected between a reset terminal of the photosensitive member and the first supply connection terminal; and a second controllable switch (S2; S3) coupled to the amplifier member, a control input of said first controllable switch and a control input of said second controllable switch (S2; S3) being connected to said control connection terminal. - a photosensitive member for converting a light signal into an electric signal; - an amplifier member for amplifying the electric signal supplied by the photosensitive member; - an output terminal coupled to an output of the amplifier member for passing the amplified signal supplied by the amplifier member to the exterior; - a first supply connection terminal for receiving a first supply voltage; - a second supply connection terminal for receiving a second supply voltage; - a control connection terminal for receiving a combined select/reset signal; - means coupled to the control connection terminal, which means are designed for: bringing the sensor element into an integration state in response to the reception of a combined select/reset signal having a first signal value; resetting the photosensitive member in response to the reception of a combined select/reset signal having a second signal value; and bringing the sensor element into a selected state in response to the reception of a combined select/reset signal having a third signal value; a first controllable switch connected between a reset terminal of the photosensitive member and the first supply connection terminal; and
A flow control valve comprising: a valve body including a valve chamber and a valve orifice; and a valve element including a curved surface portion adapted to change a flow rate of a refrigerant through the valve orifice in accordance with a lift amount of the valve element and a to-be-seated surface portion to be seated on a valve seat of the valve orifice, the to-be-seated surface portion being continuous with the curved surface portion, the curved surface portion having a curvature or a control angle that is increased continuously or in stages toward a tip end of the curved surface portion, characterized in that an orifice diameter of the valve orifice is sequentially increased in three or more stages in a direction away from the valve chamber, wherein the valve orifice includes, sequentially arranged from a side of the valve chamber, a first cylindrical valve orifice portion with an orifice diameter D1, a second cylindrical valve orifice portion with an orifice diameter D2, and a third cylindrical valve orifice portion with an orifice diameter D3, and D1 < D2 < D3, wherein a truncated conical tapered surface portion (16,18) is formed between the first cylindrical valve orifice portion and the second cylindrical valve orifice portion, and between the second cylindrical valve orifice portion and the third cylindrical valve orifice portion. a valve body including a valve chamber and a valve orifice; and a valve element including a curved surface portion adapted to change a flow rate of a refrigerant through the valve orifice in accordance with a lift amount of the valve element and a to-be-seated surface portion to be seated on a valve seat of the valve orifice, the to-be-seated surface portion being continuous with the curved surface portion, the curved surface portion having a curvature or a control angle that is increased continuously or in stages toward a tip end of the curved surface portion, characterized in that an orifice diameter of the valve orifice is sequentially increased in three or more stages in a direction away from the valve chamber, wherein the valve orifice includes, sequentially arranged from a side of the valve chamber, a first cylindrical valve orifice portion with an orifice diameter D1, a second cylindrical valve orifice portion with an orifice diameter D2, and a third cylindrical valve orifice portion with an orifice diameter D3, and D1 < D2 < D3, wherein a truncated conical tapered surface portion (16,18) is formed between the first cylindrical valve orifice portion and the second cylindrical valve orifice portion, and between the second cylindrical valve orifice portion and the third cylindrical valve orifice portion.
A light-receiving module for an encoder, the light-receiving module comprising: a support body; a light-receiving element having a surface and disposed on the support body; and a fiber optic plate having an input surface constituted by surfaces of one end of a plurality of optical fibers and an output surface constituted by surfaces of the other end of the plurality of optical fibers and disposed on the light-receiving element such that the output surface faces the surface of the light-receiving element, wherein the fiber optic plate is fixed to the light-receiving element by a resin member and the resin member is coupled to the surface of the light-receiving element and a side surface of the fiber optic plate. a support body; a light-receiving element having a surface and disposed on the support body; and a fiber optic plate having an input surface constituted by surfaces of one end of a plurality of optical fibers and an output surface constituted by surfaces of the other end of the plurality of optical fibers and disposed on the light-receiving element such that the output surface faces the surface of the light-receiving element, wherein the fiber optic plate is fixed to the light-receiving element by a resin member and the resin member is coupled to the surface of the light-receiving element and a side surface of the fiber optic plate.
An adhesive composition comprising an acrylic resin obtained by copolymerizing a copolymerization formulation (a), the copolymerization formulation (a) comprising: 1 to 20 wt.% of at least one selected from the group consisting of a (meth)acrylate having a C1 to C3 alkyl group, t-butyl (meth)acrylate, a cyclic structure-containing monomer, and a C3 to C10 vinyl ester monomer; 55 to 97 wt.% of a (meth)acrylate having a C4 to C24 alkyl group, other than t-butyl (meth)acrylate; 1 to 20 wt.% of a terminal carboxyl-containing monomer represented by the following general formula: CH 2 =CR 1 -CO-O-(R 2 -COO-) n H... wherein R 1 is hydrogen, R 2 is ethylene, and n is not less than 1; and 0.1 to 5 wt.% of (meth)acrylic acid. 1 to 20 wt.% of at least one selected from the group consisting of a (meth)acrylate having a C1 to C3 alkyl group, t-butyl (meth)acrylate, a cyclic structure-containing monomer, and a C3 to C10 vinyl ester monomer; 55 to 97 wt.% of a (meth)acrylate having a C4 to C24 alkyl group, other than t-butyl (meth)acrylate; 1 to 20 wt.% of a terminal carboxyl-containing monomer represented by the following general formula: CH 2 =CR 1 -CO-O-(R 2 -COO-) n H... wherein R 1 is hydrogen, R 2 is ethylene, and n is not less than 1; and 0.1 to 5 wt.% of (meth)acrylic acid.
A human cytomegalovirus, HCMV, vector comprising: a first nucleic acid sequence that encodes at least one heterologous antigen; and a second nucleic acid sequence comprising a first microRNA recognition element MRE, operably linked to a HCMV gene that is essential for HCMV growth, wherein the MRE silences expression in the presence of a microRNA that is expressed by a cell of endothelial lineage, wherein the microRNA that is expressed by a cell of endothelial lineage is miR-126-3p of SEQ ID NO: 1 and is inserted within the 3' UTR of the HCMV gene that is essential for HCMV growth; wherein the vector does not express an active UL128 protein; does not express an active UL130 protein; does not express an active UL146 protein; does not express an active UL147 protein; expresses an active UL40 protein; and expresses either an active US28 or US27 protein. a first nucleic acid sequence that encodes at least one heterologous antigen; and a second nucleic acid sequence comprising a first microRNA recognition element MRE, operably linked to a HCMV gene that is essential for HCMV growth, wherein the MRE silences expression in the presence of a microRNA that is expressed by a cell of endothelial lineage, wherein the microRNA that is expressed by a cell of endothelial lineage is miR-126-3p of SEQ ID NO: 1 and is inserted within the 3' UTR of the HCMV gene that is essential for HCMV growth; wherein the vector does not express an active UL128 protein; does not express an active UL130 protein; does not express an active UL146 protein; does not express an active UL147 protein; expresses an active UL40 protein; and expresses either an active US28 or US27 protein.
A light guide device comprising a base substrate having a first refractive index, upon a first surface of which are mounted a plurality of light sources and a first guide layer having a second refractive index that is less than or equal to the first refractive index and which comprises a light output surface, the first guide layer being arranged so as to encapsulate the plurality of light sources upon the first surface, wherein the plurality of light sources provide an output and there is no air gap between the output of the plurality of light sources and the first guide layer, wherein the base substrate and the guide layer form a composite structure for guiding light produced by the plurality of light sources over the first surface and said plurality of light sources are positioned directly behind the light output surface and direct light parallel to the plane of the base substrate, wherein the plurality of light sources form a two dimensional array of side emitting LEDs (26, 30, 40, 50, 51, 60, 61) across the base substrate in a direct-lit arrangement, and wherein the two dimensional array comprises a series of rows and columns of side emitting LEDS (26, 30, 40, 50, 51, 60, 61).
A nozzle assembly for a dual gas turbine engine propulsion system comprising: a housing mountable to an airframe structure proximate to a first bypass passage of a first gas turbine engine and a second bypass passage of a second gas turbine engine, wherein each of the first gas turbine engine and the second gas turbine engine are mounted to an aft end of the airframe structure; wherein the housing is mountable across the first and second bypass passages corresponding to the first and second gas turbine engines (16, 18) mounted side by side within the airframe structure; first and second upper doors (50a, 50b) mounted within the housing; and first and second lower doors (52a, 52b) mounted within the housing; wherein each of the first and second upper doors (50a, 50b) and the first and second lower doors (52a, 52b) are pivotally mounted to the housing for movement between a stowed position and a deployed position in which airflow through the first and second bypass passages is redirected relative to respective centreline axes of the first and second gas turbine engines (16, 18); and further comprising an actuator system including a single actuator configured to drive both the first and second upper doors (50a, 50b) and the first and second lower doors (52a, 52b) between the stowed and deployed positions through a single linkage. a housing mountable to an airframe structure proximate to a first bypass passage of a first gas turbine engine and a second bypass passage of a second gas turbine engine, wherein each of the first gas turbine engine and the second gas turbine engine are mounted to an aft end of the airframe structure; wherein the housing is mountable across the first and second bypass passages corresponding to the first and second gas turbine engines (16, 18) mounted side by side within the airframe structure; first and second upper doors (50a, 50b) mounted within the housing; and first and second lower doors (52a, 52b) mounted within the housing; wherein each of the first and second upper doors (50a, 50b) and the first and second lower doors (52a, 52b) are pivotally mounted to the housing for movement between a stowed position and a deployed position in which airflow through the first and second bypass passages is redirected relative to respective centreline axes of the first and second gas turbine engines (16, 18); and further comprising an actuator system including a single actuator configured to drive both the first and second upper doors (50a, 50b) and the first and second lower doors (52a, 52b) between the stowed and deployed positions through a single linkage.
A percutaneous blood pump for percutaneous insertion into a patient's circulatory system, the blood pump comprising a pump housing with an impeller housed in the pump housing, the impeller being rotatable so as to cause blood to be drawn into and through the pump housing, and a motor housing housing an electric motor for causing a rotational movement, the motor housing being distinct from the pump housing and spaced apart from the pump housing in a proximal direction, the blood pump further comprising at least one flexible sheath (15, 25) extending between the motor housing and the pump housing and at least one flexible cable (26, 27) extending through the flexible sheath (15, 25) so as to transfer a rotational movement from the electric motor to the impeller.
Smoke extraction duct, in particular of fire resistance class L90, having an inner wall and an outer wall which is spaced apart therefrom with the formation of a gap, wherein the inner wall and the outer wall are each formed from calcium silicate, characterized by a supporting framework which is arranged in the gap and which is formed from hollow profiles made of steel, and by strips of calcium silicate which are arranged in the gap and by means of which the inner wall and the outer wall are mechanically connected.
Passenger compartment device for a motor vehicle which offers at least one driver's position and one passenger's position located behind the driver's position, where the passenger compartment device comprises a support structure for a windscreen and a roof sheltering the driver's position and the passenger's position, where the support structure is intended to be fixed to said motor vehicle, the passenger compartment device being characterised in that it comprises: - a pendular support fixed to the support structure by means of at least one pivot link (141, 142), and - a removable back-rest for the driver which has a first means of attachment which allows said removable back-rest to be attached to the pendular support. - a pendular support fixed to the support structure by means of at least one pivot link (141, 142), and - a removable back-rest for the driver which has a first means of attachment which allows said removable back-rest to be attached to the pendular support.