mhurhangee/ep-ind-claims huggingface dataset:
A machine tool comprising: a machine frame; at least one first working spindle which is pivotable about a first spindle axis; at least one second working spindle which is pivotable about a second spindle axis; a workpiece clamping device which is configured to receive at least a first workpiece and a second workpiece, wherein the first working spindle and the second working spindle are arranged vertically above one another, wherein a workpiece table and a workpiece table are arranged on the machine frame, wherein a first workpiece table and one of the workpiece tables are arranged at a distance from one another with respect to the horizontal X-axis, and wherein a second workpiece table and the other of the workpiece tables are arranged at a distance from one another with respect to the horizontal X-axis, wherein the first working spindle is associated with the first workpiece table, and wherein the second working spindle is associated with the second workpiece table, and wherein a working spindle is associated with one of the workpiece tables, and wherein a working spindle is associated with the other workpiece table. a machine frame; at least one first working spindle which is pivotable about a first spindle axis; at least one second working spindle which is pivotable about a second spindle axis; a workpiece clamping device which is configured to receive at least a first workpiece and a second workpiece, wherein the first working spindle and the second working spindle are arranged vertically above one another, wherein a workpiece table and a workpiece table are arranged on the machine frame, wherein a first workpiece table and one of the workpiece tables are arranged at a distance from one another with respect to the horizontal X-axis, and wherein a second workpiece table and the other of the workpiece tables are arranged at a distance from one another with respect to the horizontal X-axis, wherein the first working spindle is associated with the first workpiece table, and wherein the second working spindle is associated with the second workpiece table, and wherein a working spindle is associated with one of the workpiece tables, and wherein a working spindle is associated with the other workpiece table.
An encoder comprising: a scale with a pattern formed thereon, the pattern being arranged in a measurement direction; a detection head configured to be moved relative to the scale in the measurement direction and output an electric signal indicating a result of detection of the pattern; and an operation unit configured to calculate a relative displacement of the detection head relative to the scale from the electric signal, wherein the detection head comprises: a light source configured to irradiate the scale with light; a light-receiving unit including a light-receiving element array arranged in the measurement direction and configured to output a result of detection of the irradiation light applied to the light-receiving element array as the electric signal; and an optical system configured as an erect-image optical system comprising at least three lens arrays (13, 14, 15) arranged in series in the measurement direction, the erect-image optical system being configured to form light from the scale into interference fringes in a non-inverted image on a light-receiving surface of the light-receiving unit, wherein a pitch between neighboring lenses of the lens array is not equal to an integral multiple of a pitch of the pattern. a scale with a pattern formed thereon, the pattern being arranged in a measurement direction; a detection head configured to be moved relative to the scale in the measurement direction and output an electric signal indicating a result of detection of the pattern; and an operation unit configured to calculate a relative displacement of the detection head relative to the scale from the electric signal, wherein the detection head comprises: a light source configured to irradiate the scale with light; a light-receiving unit including a light-receiving element array arranged in the measurement direction and configured to output a result of detection of the irradiation light applied to the light-receiving element array as the electric signal; and an optical system configured as an erect-image optical system comprising at least three lens arrays (13, 14, 15) arranged in series in the measurement direction, the erect-image optical system being configured to form light from the scale into interference fringes in a non-inverted image on a light-receiving surface of the light-receiving unit, wherein a light source configured to irradiate the scale with light; a light-receiving unit including a light-receiving element array arranged in the measurement direction and configured to output a result of detection of the irradiation light applied to the light-receiving element array as the electric signal; and an optical system configured as an erect-image optical system comprising at least three lens arrays (13, 14, 15) arranged in series in the measurement direction, the erect-image optical system being configured to form light from the scale into interference fringes in a non-inverted image on a light-receiving surface of the light-receiving unit, wherein a pitch between neighboring lenses of the lens array is not equal to an integral multiple of a pitch of the pattern.
A method for adding zinc to a molten steel, comprising supplying zinc aluminate that is a composite oxide of ZnO and Al 2 O 3 and/or zinc silicate that is a composite oxide of ZnO and SiO 2 to the molten steel.
Turbomachine fuel circuit that comprises: - a low pressure pump feeding the fuel circuit with fuel under pressure, - a high pressure pump supplied with fuel by the low pressure pump, - a low pressure conduit connecting the low pressure pump to the high pressure pump, - at least one high pressure conduit supplied with fuel by said high pressure pump, in which at least one component of the turbomachine is arranged, said high pressure conduit comprising a segment feeding said turbomachine component, - means of testing operation of said at least one component of the turbomachine, characterised in that it comprises a check valve capable of at least partly closing off a segment (30, 32) of said at least one conduit associated with the component, when the fuel pressure in the low pressure conduit is less than a predetermined threshold value, and in that said testing means are capable of detecting that the check valve is at least partly closing off said segment (30, 32). - a low pressure pump feeding the fuel circuit with fuel under pressure, - a high pressure pump supplied with fuel by the low pressure pump, - a low pressure conduit connecting the low pressure pump to the high pressure pump, - at least one high pressure conduit supplied with fuel by said high pressure pump, in which at least one component of the turbomachine is arranged, said high pressure conduit comprising a segment feeding said turbomachine component, - means of testing operation of said at least one component of the turbomachine,
Container treatment machine including a plurality of container treatment stations, comprising at least one dampening unit for applying an application liquid, in particular a viscous or highly viscous application liquid, to a treatment surface by spraying, characterised in that the dampening unit is equipped with at least one brush that can be rotatably driven about a dampening unit axis, as well as with means (6.1, 9.1, 29) for supplying the application liquid to the brush, and wherein the brush is located in a brush chamber, and that the brush chamber comprises, in a wall enclosing the brush, at least one ejection window for the removal of the application liquid centrifuged or sprayed away from the brush, and wherein the container treatment stations in each case comprise a dampening unit on a circulating transport element of the container treatment machine, and wherein the brush roller or brush is mounted such as to be rotatable about a vertical axis.
A packet synchronization method of an intelligent substation process layer network, the method comprising: recording transmission delay on a network transmission device in a sampled value, SV, packet sent by a merging unit; and implementing, by a SV data receiving device, packet synchronization according to the transmission delay on the network transmission device recorded in the SV packet, wherein the recording transmission delay on a network transmission device in a SV packet sent by a merging unit is characterized by reserving a time domain field in the SV packet according to configuration, wherein the configuration is based on a combination of at least two of a source media access control, MAC, address, a target MAC address, a packet type, a source internet protocol, IP, address, a target IP address, a source port number and a target port number, when the merging unit sends the SV packet; the time domain field being used to make statistics, by the network transmission device, on the transmission delay and accumulate transmission delay of all levels of network transmission devices to be stored in the time domain field; recording the transmission delay of the SV packet on the network transmission device into the time domain field of the SV packet by adopting a manner of adding timestamps for the SV packet on input and output ports of the all levels of network transmission devices; and accumulating the transmission delay of the all levels of network transmission devices in the time domain field when the SV packet is forwarded by the all levels of network transmission devices. recording transmission delay on a network transmission device in a sampled value, SV, packet sent by a merging unit; and implementing, by a SV data receiving device, packet synchronization according to the transmission delay on the network transmission device recorded in the SV packet, wherein the recording transmission delay on a network transmission device in a SV packet sent by a merging unit is characterized by reserving a time domain field in the SV packet according to configuration, wherein the configuration is based on a combination of at least two of a source media access control, MAC, address, a target MAC address, a packet type, a source internet protocol, IP, address, a target IP address, a source port number and a target port number, when the merging unit sends the SV packet; the time domain field being used to make statistics, by the network transmission device, on the transmission delay and accumulate transmission delay of all levels of network transmission devices to be stored in the time domain field; recording the transmission delay of the SV packet on the network transmission device into the time domain field of the SV packet by adopting a manner of adding timestamps for the SV packet on input and output ports of the all levels of network transmission devices; and accumulating the transmission delay of the all levels of network transmission devices in the time domain field when the SV packet is forwarded by the all levels of network transmission devices.
A regenerator for a glassmaking furnace comprising a stack of a plurality of rows of refractory elements, between a first face and a second face, the refractory elements of each row defining a plurality of channels, regenerator in which a region of the stack extending from the first face over a height of less than 50% of the total height of the stack, referred to as a "first region", includes at least one transverse slab (12 1,12 2; 12' 1,12' 3), referred to as a "narrow-channel slab", in which at least 75% of the channels present an opening, in any cross-section plane, that is of a width less than a maximum width of 0.16 m, these channels being called "narrow channels", the accumulated height (H T) of all of said narrow-channel slabs in the first region being greater than 0.5 m, the width of an opening being its greater dimension measured perpendicularly to the direction of the length.
A device for controlling the flow of fluid through a conduit from an upstream side of the device to a downstream side of the device, the device comprising: a valve housing having defined therein a valve inlet, a valve outlet and a valve aperture, wherein the valve inlet, the valve outlet and the valve aperture are coaxial with each other; a valve member movably mounted relative to the valve aperture and arranged to be displaced reciprocally in an axial direction coaxial with the valve aperture to selectively open and close the valve aperture; a magnet mounted relative to the valve member, wherein the magnet is arranged to be displaced by the displacement of the valve member in a direction parallel to the direction of displacement of the valve member; and a magnetic field sensor mounted on the valve housing; characterised in that: the magnet is a discrete component not attached to the valve member; and the device further comprises a biasing member arranged to bias the magnet towards the valve member. a valve housing having defined therein a valve inlet, a valve outlet and a valve aperture, wherein the valve inlet, the valve outlet and the valve aperture are coaxial with each other; a valve member movably mounted relative to the valve aperture and arranged to be displaced reciprocally in an axial direction coaxial with the valve aperture to selectively open and close the valve aperture; a magnet mounted relative to the valve member, wherein the magnet is arranged to be displaced by the displacement of the valve member in a direction parallel to the direction of displacement of the valve member; and a magnetic field sensor mounted on the valve housing; the magnet is a discrete component not attached to the valve member; and the device further comprises a biasing member arranged to bias the magnet towards the valve member.
A compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein: Y 1, Y 2, Y 3, Y 4, Z 1, Z 2, Z 3, Z 4, W 1 and W 2 are each independently selected from hydrogen and deuterium; provided that either: a. Y 1, Y 2, Y 3, Y 4, Z 1, Z 2, Z 3, and Z 4, are each deuterium; or b. W 1 and W 2 are each deuterium. Y 1, Y 2, Y 3, Y 4, Z 1, Z 2, Z 3, Z 4, W 1 and W 2 are each independently selected from hydrogen and deuterium; provided that either: a. Y 1, Y 2, Y 3, Y 4, Z 1, Z 2, Z 3, and Z 4, are each deuterium; or b. W 1 and W 2 are each deuterium. a. Y 1, Y 2, Y 3, Y 4, Z 1, Z 2, Z 3, and Z 4, are each deuterium; or b. W 1 and W 2 are each deuterium.
A data sharing method, wherein the method comprises: receiving, by a first network element, a user data policy from a terminal device; obtaining, by the first network element, user information of the terminal device according to the user data policy, and sending, by the first network element, the user information of the terminal device to a second network element according to the user data policy, wherein the user data policy comprises one or more of a collection policy, an access policy, or a storage policy that is corresponding to data description information, characterized in that when the user data policy comprises the storage policy, and the storage policy comprises an address of the second network element, the sending, by the first network element, the user information of the terminal device to a second network element according to the user data policy comprises: sending, by the first network element, the user information of the terminal device to the second network element based on the address of the second network element. receiving, by a first network element, a user data policy from a terminal device; obtaining, by the first network element, user information of the terminal device according to the user data policy, and sending, by the first network element, the user information of the terminal device to a second network element according to the user data policy, wherein the user data policy comprises one or more of a collection policy, an access policy, or a storage policy that is corresponding to data description information, characterized in that when the user data policy comprises the storage policy, and the storage policy comprises an address of the second network element, the sending, by the first network element, the user information of the terminal device to a second network element according to the user data policy comprises: sending, by the first network element, the user information of the terminal device to the second network element based on the address of the second network element.
Protective device for protecting a rechargeable battery in a power tool, the power tool comprising a motor, a gear unit and at least one rechargeable battery as main components, characterized in that the protective device is configured as a protective frame, it being possible for the power tool to be introduced into the protective device in such a way that the protective device surrounds the power tool, it being possible for a connection to be established between the power tool and the protective device by way of a number of contact points, damping elements being provided at these contact points between the power tool and the protective device.
A wrought aluminum alloy comprising: 5.5 to 6.0 wt% of Zn; 2.0 to 2.5 wt% of Mg; 0.2 to 0.6 wt% of Cu; 0.1 to 0.2 wt% of Cr; at most 0.2 wt% (and more than 0 wt%) of Fe; at most 0.2 wt% (and more than 0 wt%) of Mn; at most 0.2 wt% (and more than 0 wt%) of Si; at most 0.1 wt% (and more than 0 wt%) of Ti; and at most 0.05 wt% (and more than 0 wt%) of Sr, with the remainder being Al. 5.5 to 6.0 wt% of Zn; 2.0 to 2.5 wt% of Mg; 0.2 to 0.6 wt% of Cu; 0.1 to 0.2 wt% of Cr; at most 0.2 wt% (and more than 0 wt%) of Fe; at most 0.2 wt% (and more than 0 wt%) of Mn; at most 0.2 wt% (and more than 0 wt%) of Si; at most 0.1 wt% (and more than 0 wt%) of Ti; and at most 0.05 wt% (and more than 0 wt%) of Sr, with the remainder being Al.
A method for synthesizing a molecular sieve, comprising: a) providing a reaction mixture sufficient to synthesize the molecular sieve; b) maintaining the reaction mixture under crystallization conditions; c) monitoring at least one viscometric parameter of the reaction mixture, wherein the monitoring step comprises: a) periodically removing a sample of the reaction mixture; b) cooling each sample to a pre-defined temperature; and c) measuring the at least one viscosity parameter of each sample; or a) periodically removing a sample of the reaction mixture; b) subjecting each sample to a plurality of shear rates; c) recording a shear stress corresponding to each of the plurality of shear rates to provide a plurality of shear stress values; and d) determining a viscosity shear rate index for each sample; and d) determining an endpoint based on the monitoring of the at least one viscometric parameter; wherein the endpoint is the stage of the reaction or process when the target product has been formed and has attained at least one desired product characteristic or attribute. a) providing a reaction mixture sufficient to synthesize the molecular sieve; b) maintaining the reaction mixture under crystallization conditions; c) monitoring at least one viscometric parameter of the reaction mixture, wherein the monitoring step comprises: a) periodically removing a sample of the reaction mixture; b) cooling each sample to a pre-defined temperature; and c) measuring the at least one viscosity parameter of each sample; or a) periodically removing a sample of the reaction mixture; b) subjecting each sample to a plurality of shear rates; c) recording a shear stress corresponding to each of the plurality of shear rates to provide a plurality of shear stress values; and d) determining a viscosity shear rate index for each sample; and a) periodically removing a sample of the reaction mixture; b) cooling each sample to a pre-defined temperature; and c) measuring the at least one viscosity parameter of each sample; a) periodically removing a sample of the reaction mixture; b) subjecting each sample to a plurality of shear rates; c) recording a shear stress corresponding to each of the plurality of shear rates to provide a plurality of shear stress values; and d) determining a viscosity shear rate index for each sample; and d) determining an endpoint based on the monitoring of the at least one viscometric parameter; wherein the endpoint is the stage of the reaction or process when the target product has been formed and has attained at least one desired product characteristic or attribute.
A method for generating color correction metadata reflecting color correction operations to be performed on image data representing a sequence of images, said method comprising the steps of: - generating a first segment of metadata that describes how many of said color correction operations should be performed on said image data; generating a second segment of metadata that specifies said color correction operations to be performed on said image data; - generating a third segment of metadata that specifies temporal information indicating when and how long to perform each of said color correction operations on said image data; and - generating a fourth segment of metadata for indicating a region of an image of said sequence of images in which to perform a specific color correction operation among said color correction operations. - generating a first segment of metadata that describes how many of said color correction operations should be performed on said image data; generating a second segment of metadata that specifies said color correction operations to be performed on said image data; - generating a third segment of metadata that specifies temporal information indicating when and how long to perform each of said color correction operations on said image data; and - generating a fourth segment of metadata for indicating a region of an image of said sequence of images in which to perform a specific color correction operation among said color correction operations.
Method for operating a drive device of a vehicle, said drive device comprising at least one internal combustion engine and at least one electric machine for generating a common torque, wherein the electric machine is selectively decouplable and couplable, said method having the following steps: - determining a first energy (E 1) that is expected to be required to drag the electric machine by means of the internal combustion engine, - determining a second energy (E 2) that is expected to be required for decoupling and subsequently coupling the electric machine, - comparing the first energy (E 1) to the second energy (E 2), wherein the electric machine is only then decoupled if the second energy (E 2) is less than the first energy (E 1). - determining a first energy (E 1) that is expected to be required to drag the electric machine by means of the internal combustion engine, - determining a second energy (E 2) that is expected to be required for decoupling and subsequently coupling the electric machine, - comparing the first energy (E 1) to the second energy (E 2), wherein the electric machine is only then decoupled if the second energy (E 2) is less than the first energy (E 1).
A method for manufacturing a foamed polymer, the method comprising, providing a precursor dispersion comprising a latex or plastisol of a gellable polymer, particles of a water-swellable polymer comprising less than 30% by weight of water soluble material, and water; gelling the gellable polymer to form a gelled polymer; and drying the gelled polymer, which results in contraction of the particles of the water-swellable polymer leaving voids in the solid polymer, so as to produce a foamed polymer. providing a precursor dispersion comprising a latex or plastisol of a gellable polymer, particles of a water-swellable polymer comprising less than 30% by weight of water soluble material, and water; gelling the gellable polymer to form a gelled polymer; and drying the gelled polymer, which results in contraction of the particles of the water-swellable polymer leaving voids in the solid polymer, so as to produce a foamed polymer.