mhurhangee/ep-ind-claims huggingface dataset:
A multi-segment component for an aerosol generating article, the multi-segment component comprising: a combustible heat source (4, 200); an aerosol-forming substrate downstream of the combustible heat source; and a wrapper circumscribing the combustible heat source along at least part of its length; wherein the multi-segment component further comprises an intumescent layer between the combustible heat source and the wrapper and circumscribing the combustible heat source, the intumescent layer being formed from an intumescent inorganic glue. a combustible heat source (4, 200); an aerosol-forming substrate downstream of the combustible heat source; and a wrapper circumscribing the combustible heat source along at least part of its length; wherein the multi-segment component further comprises an intumescent layer between the combustible heat source and the wrapper and circumscribing the combustible heat source, the intumescent layer being formed from an intumescent inorganic glue.
Vacuum system, having a device for transmitting movement, transmitting torque, transmitting force and/or enabling movement, having at least one notch (10; 10'), which has a notch base (11; 11'), and at least one engagement part (20; 20'), which has an end region (21; 21'), wherein the notch base (11; 11') and the end region (21; 21') are configured for movable operative connection with one another, and having a chamber and means for generating a vacuum in the chamber, characterised in that the chamber is delimited by a chamber wall, and a motor-driven active means is provided in order to move the device and/or a functional part associated with the device contactlessly from outside through the chamber wall by means of a remotely acting force.
An endoscope system comprising: a movable zoom lens that is moveable in an optical axis direction; a lens drive unit for moving the zoom lens from a first lens position of the zoom lens where an observation target illuminated with short-wave light is focused to a second lens position of the zoom lens where the observation target illuminated with long-wave light having a longer wavelength than the short-wave light is focused; wherein the zoom lens is configured to magnify the observation target with a first magnification in a case where the zoom lens is at the first lens position and with a second magnification in a case where the zoom lens is at the second lens position, a zoom control processing unit that has a magnification conversion unit including a magnification conversion table for storing the first magnification and the second magnification in association with each other, the magnification conversion unit converting the first magnification of the zoom lens focused on the observation target illuminated with the short-wave light into the second magnification for providing a focus on the observation target illuminated with the long-wave light, with reference to the magnification conversion table, and wherein the lens drive unit is adapted to move the zoom lens to the second lens position by setting the zoom lens to have the second magnification, wherein the short-wave light is violet light or blue light, wherein the long-wave light includes red light. a movable zoom lens that is moveable in an optical axis direction; a lens drive unit for moving the zoom lens from a first lens position of the zoom lens where an observation target illuminated with short-wave light is focused to a second lens position of the zoom lens where the observation target illuminated with long-wave light having a longer wavelength than the short-wave light is focused; wherein the zoom lens is configured to magnify the observation target with a first magnification in a case where the zoom lens is at the first lens position and with a second magnification in a case where the zoom lens is at the second lens position, a zoom control processing unit that has a magnification conversion unit including a magnification conversion table for storing the first magnification and the second magnification in association with each other, the magnification conversion unit converting the first magnification of the zoom lens focused on the observation target illuminated with the short-wave light into the second magnification for providing a focus on the observation target illuminated with the long-wave light, with reference to the magnification conversion table, and wherein the lens drive unit is adapted to move the zoom lens to the second lens position by setting the zoom lens to have the second magnification, wherein the short-wave light is violet light or blue light, wherein the long-wave light includes red light.
A process for converting dichloroisopropyl ether into a halogenated derivative that comprises contacting the dichloroisopropyl ether with a source of hydrogen and a heterogeneous hydrogenation catalyst selected from a group consisting of a ruthenium on carbon catalyst, a copper/chromium/manganese/barium catalyst, a copper/calcium supported on silica catalyst and a copper/zinc catalyst under process conditions selected from a combination of a temperature within a range of from 50 degrees centigrade (°C) to 350 °C, a pressure within a range of from 0.1 megapascals (atmospheric pressure) to 6.9 MPa (1000 pounds per square inch), a liquid feed volume flow to catalyst mass ratio between 0.5 and 10 L/Kg ∗ h and a volume hydrogen / volume liquid ratio between 100 and 5000 ml gas/ ml liquid, the halogenated derivative being at least one of 1-chloro-2-propanol and 1,2-dichloropropane, and glycerin monochlorohydrin.
A delivery roll for thermal interface components, the roll comprising a carrier tape, an adhesive layer, and a plurality of thermal interface components, wherein the adhesive layer is arranged on a surface of the carrier tape; each thermal interface component comprises a top liner, a bottom liner and a thermal interface pad arranged therebetween; the carrier tape supports the plurality of thermal interface components by the adhesive layer adhering to the bottom liner of each thermal interface component; and the plurality of thermal interface components is arranged in a spaced apart manner along the carrier tape.
A two-liquid discharge container, comprising; a container body made of non-metal material formed by biaxial stretching blow moulding and having an opening, a partition wall member vertically dividing an interior of the container body into plural of storages (14, 15), and a valve having a discharge passage communicating storages with outside, wherein the container body is pressure resistant and has a constriction portion between the storages, wherein the constriction portion is radially contracted, wherein the inner diameter of the constriction portion is substantially the same as or smaller than the inner diameter of the opening of the container body, wherein an inner surface of the constriction portion is a smooth tube face wherein the storages (14, 15) are partitioned by inserting and fitting the partition wall member in the constriction portion, wherein contents are charged in each storage (14, 15), wherein at least one of the content contains a liquefied gas, wherein a gas lies between a liquid charged in the lower storage directly below the partition wall member and the partition wall member, wherein the partition wall member has a partition wall portion having a column-shape which fits with the inner surface of the constriction portion, and wherein a circular groove is formed on an outer surface of the partition wall portion and an O-ring is fixed to the circular groove.
A method of invoking voice-to-text sessions on a computing device having a display comprising: presenting an instance of a data input field on the display; detecting a preconfigured gesture corresponding to the data input field; and generating an input event based on the preconfigured gesture corresponding to the data input field, the input event configured to invoke a voice-to-text session for the data input field, characterized in that the preconfigured gesture comprises a first part of a swipe which requires a continuous and fluid physical interaction between a gesture initiating region near a first end of the data input field and a gesture terminating region near a second end of the data input field and causes an on-screen affordance related to the voice-to-text session for the data input field to appear offset from the gesture terminating region, and a second part of the swipe which is fluidly continued from the first part of the swipe to the on-screen affordance and initiates the voice-to-text session for the data input field. presenting an instance of a data input field on the display; detecting a preconfigured gesture corresponding to the data input field; and generating an input event based on the preconfigured gesture corresponding to the data input field, the input event configured to invoke a voice-to-text session for the data input field, characterized in that the preconfigured gesture comprises a first part of a swipe which requires a continuous and fluid physical interaction between a gesture initiating region near a first end of the data input field and a gesture terminating region near a second end of the data input field and causes an on-screen affordance related to the voice-to-text session for the data input field to appear offset from the gesture terminating region, and a second part of the swipe which is fluidly continued from the first part of the swipe to the on-screen affordance and initiates the voice-to-text session for the data input field.
A memory element comprising: a substrate; a conductive plug over the substrate; a dielectric layer over the conductive plug, said dielectric layer having an opening (313, 315) formed therein from an upper surface of said dielectric layer to said conductive plug; a first electrode formed over said conductive plug and in said opening in said dielectric layer; a resistance variable insulating layer formed over said first electrode and in said opening in said dielectric layer; and a second electrode formed over said resistance variable insulating layer, characterized in that said first electrode has a cone-like structure, a first end of the cone-like structure adjacent the conductive plug being larger than a second end of the cone-like structure. a substrate; a conductive plug over the substrate; a dielectric layer over the conductive plug, said dielectric layer having an opening (313, 315) formed therein from an upper surface of said dielectric layer to said conductive plug; a first electrode formed over said conductive plug and in said opening in said dielectric layer; a resistance variable insulating layer formed over said first electrode and in said opening in said dielectric layer; and a second electrode formed over said resistance variable insulating layer, characterized in that said first electrode has a cone-like structure, a first end of the cone-like structure adjacent the conductive plug being larger than a second end of the cone-like structure.
A communication processor, CP, applied to a long term evolution, LTE, modem, comprising: a wireless protocol stack entity; and a voice over long term evolution, VoLTE, function control module, a voice coding/decoding module, an Internet Protocol Multimedia Subsystem, IMS, protocol stack entity, and a Transmission Control Protocol/Internet Protocol, TCP/IP, protocol stack entity, wherein, the VoLTE function control module is arranged to interact control messages with the voice coding/decoding module, the IMS protocol stack entity, and the wireless protocol stack entity respectively; the TCP/IP protocol stack entity is arranged to interact TCP/IP data with the wireless protocol stack entity and the IMS protocol stack entity respectively; and the voice coding/decoding module is arranged to interact audio data and a control message with an external voice device, and interact audio data with the IMS protocol stack entity; characterized in that, the VoLTE function control module is arranged to send a control message for indicating to display a specific content through an interface of the LTE modem and receive a control message for indicating to perform a specific VoLTE operation; the interface of the LTE modem is a Attention, AT, command interface.
Cable holding device made of metal with two side spars (18, 18') enclosing a cable receptacle and a base unit connecting the side spars (2, 2'), said cable holding device comprising at its ends a connection section (16, 22) for connecting the cable holding device (1, 15, 31) to a further cable holding device with one or more mechanical connection elements (19, 20, 21) as well as with at least one electrical connection part (17; 26), wherein the cable holding device is provided in the region of its connection sections (16, 22) with one or more plug connection parts (17, 26) for producing one or more electrical plug connectors when this cable holding device is connected to a further cable holding device in order to produce a cable holding system, wherein the connection section (16, 22) of a cable holding device, overlapping at the connection section (16, 22) with the complementary mechanical connection elements (23, 24, 25) of the further cable holding device, can be connected without the use of tools and screws in order to form a cable holding system, and the electrical plug connector parts serve in each case to produce an electrical plug connector between two adjacent cable holding devices (15, 15') which are to be provided with electrical contact, wherein, by way of the at least one electrical plug connector, an electrical connection is produced with permanently defined contact surface and defined contact pressure when two cable carrying devices (15, 15') are connected, wherein the electrical plug connector parts (17, 26) of two cable holding devices (15, 15') which are to be connected are in each case configured to be complementary to one another, and specifically in such a way that the electrical connection is established immediately upon the two cable holding devices (15, 15') being brought together, characterized in that, in order to apply the contact pressure of two assembled plug connector parts, a clamp-type spring element is provided, held in a connection section of a cable holding device.
A target route generation system for a work vehicle comprising: a storage part configured to store basic data necessary for generating a plurality of target routes for autonomous travel; a priority item selection part configured to prompt selection of a priority item with regard to generation of the plurality of target routes; a target route generation part configured to generate a plurality of target routes based on the basic data and the priority item selected by the priority item selection part; and a route selection part, characterized in that when the target route generation part generates the plurality of target routes, the route selection part is configured to prompt selection of either one of the plurality of target routes, and the target route generation system for a work vehicle further comprising an arbitrary data input part to which arbitrary setting data for target route generation is input, wherein the target route generation part is configured to generate the plurality of target routes including a first target route based on the basic data and the priority item without considering the arbitrary data and a second target route based on the basic data and the arbitrary setting data without considering the priority item, wherein the priority item includes at least one of maximization of a working size, minimization of a non-working travel distance, optimization of a circling travel route area along an outer periphery of the work area, and avoidance of generation of an overlapped route area. a storage part configured to store basic data necessary for generating a plurality of target routes for autonomous travel; a priority item selection part configured to prompt selection of a priority item with regard to generation of the plurality of target routes; a target route generation part configured to generate a plurality of target routes based on the basic data and the priority item selected by the priority item selection part; and a route selection part, characterized in that when the target route generation part generates the plurality of target routes, the route selection part is configured to prompt selection of either one of the plurality of target routes, and the target route generation system for a work vehicle further comprising an arbitrary data input part to which arbitrary setting data for target route generation is input, wherein the target route generation part is configured to generate the plurality of target routes including a first target route based on the basic data and the priority item without considering the arbitrary data and a second target route based on the basic data and the arbitrary setting data without considering the priority item, wherein the priority item includes at least one of maximization of a working size, minimization of a non-working travel distance, optimization of a circling travel route area along an outer periphery of the work area, and avoidance of generation of an overlapped route area.
An optical phase modulator arrangement for generating an optical differential quaternary phase shift key modulated optical signal by selectively modulating the phase of an optical carrier with phase shifts of 0, π/2, π and 3π/2 in response to first and second binary drive voltages comprising: a driver configured to produce the first and second binary drive voltages, an optical splitter for splitting the optical carrier into first and second optical components, a first Mach-Zehnder modulator for modulating the phase of the first optical component by ±π in response to the first binary drive voltage to generate a first modulated optical component, a second Mach-Zehnder modulator for modulating the phase of the second optical component by ±π in response to the second binary drive voltage to generate a second modulated optical component, an optical phase shifter coupled to the first optical phase modulator for shifting the phase of the first optical component by π/2, and an optical recombiner for combining the first and second modulated optical components. a driver configured to produce the first and second binary drive voltages, an optical splitter for splitting the optical carrier into first and second optical components, a first Mach-Zehnder modulator for modulating the phase of the first optical component by ±π in response to the first binary drive voltage to generate a first modulated optical component, a second Mach-Zehnder modulator for modulating the phase of the second optical component by ±π in response to the second binary drive voltage to generate a second modulated optical component, an optical phase shifter coupled to the first optical phase modulator for shifting the phase of the first optical component by π/2, and an optical recombiner for combining the first and second modulated optical components.
A signal generating circuit in optical communication in accordance with a coherent transmission scheme, the signal generating circuit comprising an electro-optical conversion circuit that is adapted to perform conversion into an optical signal, the signal generating circuit being characterized by comprising: a specific frequency band signal generating circuit (101, 201) that is adapted to generate a specific frequency band signal having, at a plurality of specific frequencies, signal components of a smaller frequency spread than the spectrum of a signal sequence to be transmitted using a known signal of two or more symbols; and at least one signal synthesizing circuit (102, 202-1 to 202-L) that is adapted to receive the specific frequency band signal generated by the specific frequency band signal generating circuit, and time-division multiplex the specific frequency band signal with the signal sequence to be transmitted, to generate a transmission signal sequence, wherein the electro-optical conversion circuit is adapted to convert the transmission signal sequence generated by the at least one signal synthesizing circuit into the optical signal. a specific frequency band signal generating circuit (101, 201) that is adapted to generate a specific frequency band signal having, at a plurality of specific frequencies, signal components of a smaller frequency spread than the spectrum of a signal sequence to be transmitted using a known signal of two or more symbols; and at least one signal synthesizing circuit (102, 202-1 to 202-L) that is adapted to receive the specific frequency band signal generated by the specific frequency band signal generating circuit, and time-division multiplex the specific frequency band signal with the signal sequence to be transmitted, to generate a transmission signal sequence, wherein the electro-optical conversion circuit is adapted to convert the transmission signal sequence generated by the at least one signal synthesizing circuit into the optical signal.
An apparatus for use in a gear cutting machine for the gear-coupled manufacture or machining of workpieces having at least one machine table of the apparatus at which a workpiece spindle is arranged for holding a clamping apparatus for a workpiece, and having at least one tool spindle of the apparatus for holding a machining tool, wherein the tool spindle is equipped with an integrated balancing system for balancing the tool, characterized in that a further independent balancing system for the workpiece spindle is provided in addition to the balancing system in the tool spindle on the use of a multiple-thread tool, with the further balancing system at the machine table being integrated in the workpiece spindle or the table plate or the workpiece clamping apparatus.
A rotary tool (1; 201; 301; 401) for cutting large inside diameters at the outer circumference of which at least one cutting edge (4; 204) is arranged, comprising a support structure (10; 210; 310; 410) which includes a supporting area (14; 214) which indirectly or directly supports the cutting edge (4; 204), and comprising a chucking portion (24; 224; 324; 424) for coupling to a tool holder, wherein the support structure (10; 210; 310; 410) is designed in light-weight construction and the area (14; 114; 214) of the support structure (10; 210; 310; 410) indirectly or directly supporting the cutting edge (4; 204) is limited with respect to thermal expansion by a corset structure (12; 212; 312; 412), wherein the corset structure (12; 212; 312; 412) is arranged radially inside the support structure (10; 210; 310; 410) and is connected to the support structure (10; 210; 310; 410), characterized in that the corset structure (12; 212; 312; 412) predetermines a thermal expansion of the area (14; 214) of the support structure (10; 210; 310; 410) supporting the cutting edge (4; 204).