mhurhangee/ep-ind-claims huggingface dataset:
An exposure apparatus that exposes a pattern on a sample, the exposure apparatus comprising: a plurality of blanking electrodes that are provided corresponding to a plurality of charged particle beams and each switch whether the corresponding particle beam irradiates or not the sample according to an input voltage; an irradiation control section that outputs switching signals for switching blanking voltages supplied respectively to the blanking electrodes; and a measuring section that, for each blanking electrode, measures a delay amount that is from when the switching signal changes to when the blanking voltage changes, charcterized in that the measuring section includes: a reference voltage generating section that generates a reference voltage and sequentially changes the reference voltage; and a delay amount detecting section that, for each blanking electrode, detects the delay amount that is from when the switching signal changes to when the blanking voltage reaches the reference voltage, in response to the reference voltage being changed. a plurality of blanking electrodes that are provided corresponding to a plurality of charged particle beams and each switch whether the corresponding particle beam irradiates or not the sample according to an input voltage; an irradiation control section that outputs switching signals for switching blanking voltages supplied respectively to the blanking electrodes; and a measuring section that, for each blanking electrode, measures a delay amount that is from when the switching signal changes to when the blanking voltage changes, charcterized in that the measuring section includes: a reference voltage generating section that generates a reference voltage and sequentially changes the reference voltage; and a delay amount detecting section that, for each blanking electrode, detects the delay amount that is from when the switching signal changes to when the blanking voltage reaches the reference voltage, in response to the reference voltage being changed. a reference voltage generating section that generates a reference voltage and sequentially changes the reference voltage; and a delay amount detecting section that, for each blanking electrode, detects the delay amount that is from when the switching signal changes to when the blanking voltage reaches the reference voltage, in response to the reference voltage being changed.
A method of decoding implemented by a video decoder, comprising: receiving, by the video decoder, a bitstream containing an external decoder refresh, EDR, picture and a list of pictures for the EDR picture, wherein the list of pictures lists in increasing decoding order pictures referred to by entries in a first reference picture list, pictures referred to by entries in a second reference picture list, and external pictures, wherein the external pictures are pictures that were decoded prior to decoding the EDR picture and wherein a difference between picture order count values for any two consecutive pictures in the list of pictures is greater than one half of a negative of maximum picture order count least significant bits and less than one half of the maximum picture order count least significant bits; obtaining, by the video decoder, one of the external pictures referred to in the list of pictures; and decoding, by the video decoder, the EDR picture using the external reference picture that was obtained. receiving, by the video decoder, a bitstream containing an external decoder refresh, EDR, picture and a list of pictures for the EDR picture, wherein the list of pictures lists in increasing decoding order pictures referred to by entries in a first reference picture list, pictures referred to by entries in a second reference picture list, and external pictures, wherein the external pictures are pictures that were decoded prior to decoding the EDR picture and wherein a difference between picture order count values for any two consecutive pictures in the list of pictures is greater than one half of a negative of maximum picture order count least significant bits and less than one half of the maximum picture order count least significant bits; obtaining, by the video decoder, one of the external pictures referred to in the list of pictures; and decoding, by the video decoder, the EDR picture using the external reference picture that was obtained.
Device for the removal of ridges on the dividing seams (48, 50) of die-cast ceramic articles, wherein at least one fork is mounted on a belt holder, a tensioned plaster band is provided on said fork which is transversely orientated with respect to the ridge of the die-cast ceramic article which is to be removed, and wherein an article retaining device is provided adjacent to the belt holder, said article retaining device having at least one article retaining body, characterised in that, the belt holder has a drive device, by means of which the belt holder can be moved back and forth in an oscillating manner along a guiding device in the longitudinal direction of the plaster band, and the article retaining device is attached to an arm of a robot, wherein the guiding device is formed as a linear guiding device, and wherein the drive device has a drive motor having an eccentric body that interacts with the belt holder.
An identification device for receiving a first signal and transmitting a second signal, the device including: a receiving means for receiving the first signal and employing the first signal to generate a voltage; wherein the receiving means generates a first current from the voltage; an integrated circuit; wherein the integrated circuit includes a state selection means arranged to select whether the device is in a first state or a second state such that when the identification device is in the second state it does not interfere with the operation of other identification devices in the first state; a connection between the receiving means and the integrated circuit; and a transmission means for generating the second signal; wherein relative to the second state, a relatively larger amount of the first current flows through the receiving means when the device is in the first state; and wherein relative to the first state, a relatively smaller amount of the first current flows through the receiving means when the device is in the second state; characterised by: a circuit arranged to increase the voltage generated by the receiving means. a receiving means for receiving the first signal and employing the first signal to generate a voltage; wherein the receiving means generates a first current from the voltage; an integrated circuit; wherein the integrated circuit includes a state selection means arranged to select whether the device is in a first state or a second state such that when the identification device is in the second state it does not interfere with the operation of other identification devices in the first state; a connection between the receiving means and the integrated circuit; and a transmission means for generating the second signal; wherein relative to the second state, a relatively larger amount of the first current flows through the receiving means when the device is in the first state; and wherein relative to the first state, a relatively smaller amount of the first current flows through the receiving means when the device is in the second state; characterised by: a circuit arranged to increase the voltage generated by the receiving means.
An aviation laminate, comprising: a plurality of wooden elements; an adhesive disposed between the plurality of wooden elements, wherein the adhesive includes a thermal filler, wherein the thermal filler is intumescent powder; wherein the plurality of wooden elements are a plurality of wooden particles bonded by the adhesive; wherein the thermal filler is a thermally resistive filler; and wherein the adhesive in the wooden elements, which is used to bond the plurality of wooden particles, also includes the thermally resistive filler. a plurality of wooden elements; an adhesive disposed between the plurality of wooden elements, wherein the adhesive includes a thermal filler, wherein the thermal filler is intumescent powder; wherein the plurality of wooden elements are a plurality of wooden particles bonded by the adhesive; wherein the thermal filler is a thermally resistive filler; and wherein the adhesive in the wooden elements, which is used to bond the plurality of wooden particles, also includes the thermally resistive filler.
A luggage tag comprising: a rear frame; a front frame pivotably connected to the rear frame and rotatable about a pivot axis between first and second positions relative to the rear frame; a securement element defining a side opening; wherein when the front frame is oriented in the first position defining a closed configuration, a dimension of the side opening is reduced to limit removal of the luggage tag from a securement member; and wherein when the front frame is oriented in the second position defining an open configuration, the dimension of the side opening is increased to allow removal of the luggage tag from the securement member. a rear frame; a front frame pivotably connected to the rear frame and rotatable about a pivot axis between first and second positions relative to the rear frame; a securement element defining a side opening; wherein when the front frame is oriented in the first position defining a closed configuration, a dimension of the side opening is reduced to limit removal of the luggage tag from a securement member; and wherein when the front frame is oriented in the second position defining an open configuration, the dimension of the side opening is increased to allow removal of the luggage tag from the securement member.
A DC cable sealing end configured to connect to a DC cable terminating end, the DC cable terminating end being sealed with a cable insulator, the DC cable sealing end comprising: a stress cone that is integrally molded to include an insulator portion and a second portion, wherein the insulator portion includes a high voltage side tapered portion, the high voltage side tapered portion being disposed between a high voltage side tip and a large diameter portion; an insulating porcelain bushing including folds which are disposed on a surface of the insulating porcelain bushing; a lower metal fitting that seals a lower side opening of the insulating porcelain bushing; and an upper metal fitting that seals an upper side opening of the insulating porcelain bushing, wherein, in a state in which the DC cable sealing end connects to the DC cable terminating end, the stress cone is disposed on the cable insulator such that the high voltage side tip of the stress cone is positioned at a side of the upper metal fitting; the DC cable terminating end covered with the stress cone is covered with the insulating porcelain bushing, the lower metal fitting, and the upper metal fitting; and an insulating medium is enclosed inside the porcelain bushing, characterized in that the second portion of the stress cone is a semiconductor portion and wherein the stress cone has volume resistivity such that a ratio between volume resistivity of the insulator portion and volume resistivity of the cable insulator is greater than or equal to 0.01 and less than or equal to 0.5, and wherein thickness of the high voltage side tip is less than or equal to 6 mm. a stress cone that is integrally molded to include an insulator portion and a second portion, wherein the insulator portion includes a high voltage side tapered portion, the high voltage side tapered portion being disposed between a high voltage side tip and a large diameter portion; an insulating porcelain bushing including folds which are disposed on a surface of the insulating porcelain bushing; a lower metal fitting that seals a lower side opening of the insulating porcelain bushing; and an upper metal fitting that seals an upper side opening of the insulating porcelain bushing, wherein, in a state in which the DC cable sealing end connects to the DC cable terminating end, the stress cone is disposed on the cable insulator such that the high voltage side tip of the stress cone is positioned at a side of the upper metal fitting; the DC cable terminating end covered with the stress cone is covered with the insulating porcelain bushing, the lower metal fitting, and the upper metal fitting; and an insulating medium is enclosed inside the porcelain bushing, characterized in that the second portion of the stress cone is a semiconductor portion and wherein the stress cone has volume resistivity such that a ratio between volume resistivity of the insulator portion and volume resistivity of the cable insulator is greater than or equal to 0.01 and less than or equal to 0.5, and wherein thickness of the high voltage side tip is less than or equal to 6 mm.
A method for generating an interactive space viewable through at least a first and a second device, the method comprising: detecting from the first device a location of the second device or detecting from the second device a location of the first device, wherein the first device and the second device are handheld devices; exchanging (1704, 1714) synchronization information data between the first and second devices (908a, 908b) to identify a reference point in a three-dimensional space relative to a physical location of the first and second devices in the 3D space, wherein the first and second devices establish the physical location in the 3D space of the other device when setting the reference point; generating views (1706, 1716) of an interactive scene in corresponding displays of the first and second devices (908a, 908b), wherein the corresponding device acts as a camera into the interactive scene, the interactive scene is tied to the reference point and includes virtual objects (914a-914c), each view showing all or part of the interactive scene and showing the interactive scene as observed from a current location of the corresponding device with a viewing angle of the corresponding camera, wherein device movement in the 3D space causes the corresponding view to change according to the current location and the viewing angle. detecting from the first device a location of the second device or detecting from the second device a location of the first device, wherein the first device and the second device are handheld devices; exchanging (1704, 1714) synchronization information data between the first and second devices (908a, 908b) to identify a reference point in a three-dimensional space relative to a physical location of the first and second devices in the 3D space, wherein the first and second devices establish the physical location in the 3D space of the other device when setting the reference point; generating views (1706, 1716) of an interactive scene in corresponding displays of the first and second devices (908a, 908b), wherein the corresponding device acts as a camera into the interactive scene, the interactive scene is tied to the reference point and includes virtual objects (914a-914c), each view showing all or part of the interactive scene and showing the interactive scene as observed from a current location of the corresponding device with a viewing angle of the corresponding camera, wherein device movement in the 3D space causes the corresponding view to change according to the current location and the viewing angle.
Sensor device for determining a first position φ 1 of a rotor of an electric machine, the electric machine comprising the rotor and a stator with stator coils, wherein the rotor is a permanent magnet or a passive rotor, wherein the permanent magnet of the rotor or a permanent magnet rotating with the rotor has a predetermined number n rot1 of pole pairs, wherein the sensor device comprises a predetermined number r of magnetic sensors (S1, S2, S3) which detect the magnetic field generated by the rotor or the permanent magnet rotating with the rotor, and an electronic circuit, the electronic circuit being configured to determine the first position φ 1 of the rotor solely by the four following steps A-D: A) detect and digitalize the sensor signals a 1 to a r and to form a signal vector a = (a 1,..., a r), B) form a measurement vector q according to a predetermined linear function g to q = g ( a), wherein the measurement vector q comprises a number n of components, with 2 ≤ n ≤ r, C) calculate a vector p → = M rot 1 ⋅ q ⇀, wherein p is a 2-component vector with the components p 1 and p 2 and M rot1 is a 2 x n matrix, wherein the matrix M rot1 depends on the number n rot1, and D) determine the first position φ 1 to φ 1 = atan2(p 2, p 1). A) detect and digitalize the sensor signals a 1 to a r and to form a signal vector a = (a 1,..., a r), B) form a measurement vector q according to a predetermined linear function g to q = g ( a), wherein the measurement vector q comprises a number n of components, with 2 ≤ n ≤ r, C) calculate a vector p → = M rot 1 ⋅ q ⇀, wherein p is a 2-component vector with the components p 1 and p 2 and M rot1 is a 2 x n matrix, wherein the matrix M rot1 depends on the number n rot1, and D) determine the first position φ 1 to φ 1 = atan2(p 2, p 1).
An electrical connector comprising: a front housing holding a plurality of contacts, the front housing holding a cutting blade proximate to a rear of the front housing; and a rear housing having a wire organizer at a front of the rear housing, the wire organizer having a plurality of wire channels that extend along wire chanel axes and are configured to receive corresponding wires therein; wherein the cutting blade is configured to trim the wires extending from the wire organizer during mating of the rear housing with the front housing and the wires are terminated to the contacts when the front housing and the rear housing are mated; wherein the rear housing has an outer support wall spaced apart from, and arranged outward of, the wire channels, the outer support wall having a front edge across which the channel axes extend such that the front edge defines a support surface for the wires when the wires are laced into the wire organizer, wherein the cutting blade is configured such that the cutting blade is positioned between the outer support wall and the wire organizer when the front housing and the rear housing are mated. a front housing holding a plurality of contacts, the front housing holding a cutting blade proximate to a rear of the front housing; and a rear housing having a wire organizer at a front of the rear housing, the wire organizer having a plurality of wire channels that extend along wire chanel axes and are configured to receive corresponding wires therein; wherein the cutting blade is configured to trim the wires extending from the wire organizer during mating of the rear housing with the front housing and the wires are terminated to the contacts when the front housing and the rear housing are mated; wherein the rear housing has an outer support wall spaced apart from, and arranged outward of, the wire channels, the outer support wall having a front edge across which the channel axes extend such that the front edge defines a support surface for the wires when the wires are laced into the wire organizer, wherein the cutting blade is configured such that the cutting blade is positioned between the outer support wall and the wire organizer when the front housing and the rear housing are mated.
An apparatus having a length, a width and a depth, the apparatus comprising: a display comprising at least a front face and a side face, the front face of the display extending across the length and the width of the apparatus and the side face of the display extending across the length and the depth of the apparatus; and at least one processor and a memory storing computer program code configured, working with the at least one processor, to: define an active display area, prior to any deformation input being provided to the apparatus by a user, that encompasses at least the front face and the side face of the display; and characterized in that the computer program code is further configured, working with the at least one processor, to cause, in response to a deformation input being provided to the apparatus by the user, the display to change the active display area by defining a position of a boundary (41; 41a - 41h) of the active display area on the side face of the display based on the deformation input. a display comprising at least a front face and a side face, the front face of the display extending across the length and the width of the apparatus and the side face of the display extending across the length and the depth of the apparatus; and at least one processor and a memory storing computer program code configured, working with the at least one processor, to: define an active display area, prior to any deformation input being provided to the apparatus by a user, that encompasses at least the front face and the side face of the display; and characterized in that the computer program code is further configured, working with the at least one processor, to cause, in response to a deformation input being provided to the apparatus by the user, the display to change the active display area by defining a position of a boundary (41; 41a - 41h) of the active display area on the side face of the display based on the deformation input. define an active display area, prior to any deformation input being provided to the apparatus by a user, that encompasses at least the front face and the side face of the display; and characterized in that the computer program code is further configured, working with the at least one processor, to cause, in response to a deformation input being provided to the apparatus by the user, the display to change the active display area by defining a position of a boundary (41; 41a - 41h) of the active display area on the side face of the display based on the deformation input.
A digital microfluidic processing device, comprising: at least one fluid vial having a plurality of magnetic elements arranged therein, the fluid vial being configured to receive at least one fluid; a magnet component configured to generate a magnetic force within the fluid vial sufficient to magnetically influence the plurality of magnetic elements; and a controller coupled to the magnet component, the controller being configured to control the magnetic field applied by the magnet component to the magnetic elements to control movement thereof; characterized in that the magnetic elements are elongated magnetic elements, and that the magnetic force comprises a three-dimensional rotating magnetic force. at least one fluid vial having a plurality of magnetic elements arranged therein, the fluid vial being configured to receive at least one fluid; a magnet component configured to generate a magnetic force within the fluid vial sufficient to magnetically influence the plurality of magnetic elements; and a controller coupled to the magnet component, the controller being configured to control the magnetic field applied by the magnet component to the magnetic elements to control movement thereof; characterized in that the magnetic elements are elongated magnetic elements, and that the magnetic force comprises a three-dimensional rotating magnetic force.