mhurhangee/ep-ind-claims huggingface dataset:
A terahertz carrier sending apparatus, comprising a feed transmission line, a mode excitation structure, a mode conversion structure, a terahertz transmission line, and a circuit board, wherein the feed transmission line is configured to: receive an electrical signal sent by a radio frequency sending circuit, and transmit the electrical signal to the mode excitation structure; the mode excitation structure is configured to excite a terahertz signal based on the received electrical signal; the mode conversion structure comprises an inner cavity whose inner wall is metal, and the mode excitation structure and one end of the terahertz transmission line are located in the inner cavity, so that the terahertz signal excited by the mode excitation structure is coupled into the terahertz transmission line; the terahertz transmission line is configured to transmit the terahertz signal; and the circuit board is configured to fasten the feed transmission line and the mode excitation structure, the mode conversion structure further comprises a positioning slot, configured to insert a part of the circuit board and the mode excitation structure into the inner cavity of the mode conversion structure, a plurality of metal through holes are distributed on both sides of the mode excitation structure, and a boundary of the positioning slot is metal and is press-fitted on the metal through holes on the both sides of the mode excitation structure. the feed transmission line is configured to: receive an electrical signal sent by a radio frequency sending circuit, and transmit the electrical signal to the mode excitation structure; the mode excitation structure is configured to excite a terahertz signal based on the received electrical signal; the mode conversion structure comprises an inner cavity whose inner wall is metal, and the mode excitation structure and one end of the terahertz transmission line are located in the inner cavity, so that the terahertz signal excited by the mode excitation structure is coupled into the terahertz transmission line; the terahertz transmission line is configured to transmit the terahertz signal; and the circuit board is configured to fasten the feed transmission line and the mode excitation structure, the mode conversion structure further comprises a positioning slot, configured to insert a part of the circuit board and the mode excitation structure into the inner cavity of the mode conversion structure, a plurality of metal through holes are distributed on both sides of the mode excitation structure, and a boundary of the positioning slot is metal and is press-fitted on the metal through holes on the both sides of the mode excitation structure.
A liquid crystal lens comprising: a first substrate having a first electrode; a second substrate which faces the first electrode of the first substrate and extending in parallel to the first electrode; a second electrode arranged outside the second substrate and having a hole on an opposite side to the first substrate; a liquid crystal layer provided between the first substrate and the second substrate, and constituted by oriented liquid crystal molecules and an insulating layer on the second electrode of the second substrate; characterized by further comprising a third electrode on the insulating layer which substantially covers or fills the hole; a first voltage-applying circuit configured to apply a first voltage (Vo) between the first and second electrodes (21, 22) to control orientation of the liquid crystal molecules; and a second voltage-applying circuit configured to apply a second voltage (Vc) between the first and third electrodes (21, 23), the second voltage being independent of the first voltage, wherein the first voltage has a fixed value, and the second voltage is changed to achieve second stage optical properties, namely a change of a focal distance, or the second voltage has a fixed value, and.the first voltage is changed to achieve the second-stage optical properties, namely a change of a focal distance. a first substrate having a first electrode; a second substrate which faces the first electrode of the first substrate and extending in parallel to the first electrode; a second electrode arranged outside the second substrate and having a hole on an opposite side to the first substrate; a liquid crystal layer provided between the first substrate and the second substrate, and constituted by oriented liquid crystal molecules and an insulating layer on the second electrode of the second substrate; characterized by further comprising a third electrode on the insulating layer which substantially covers or fills the hole; a first voltage-applying circuit configured to apply a first voltage (Vo) between the first and second electrodes (21, 22) to control orientation of the liquid crystal molecules; and a second voltage-applying circuit configured to apply a second voltage (Vc) between the first and third electrodes (21, 23), the second voltage being independent of the first voltage, wherein the first voltage has a fixed value, and the second voltage is changed to achieve second stage optical properties, namely a change of a focal distance, or the second voltage has a fixed value, and.the first voltage is changed to achieve the second-stage optical properties, namely a change of a focal distance.
A base station, BS, for wireless communication, comprising: a memory; and one or more processors operatively coupled to the memory, the memory comprising instructions which, when executed by the one or more processors, cause the one or more processors to: identify, during a connected mode or an idle mode of a user equipment, UE, a set of synchronization signal block communications, wherein the set of synchronization signal block communications includes two or more synchronization signal block communications; transmit signaling identifying spatial resources of the set of synchronization signal block communications, wherein the spatial resources correspond to one or more beams; and transmit, based at least in part on the spatial resources, the set of synchronization signal block communications using spatial multiplexing, wherein the set of synchronization signal block communications are each transmitted concurrently using the spatial resources associated with beam sweeping transmission. a memory; and one or more processors operatively coupled to the memory, the memory comprising instructions which, when executed by the one or more processors, cause the one or more processors to: identify, during a connected mode or an idle mode of a user equipment, UE, a set of synchronization signal block communications, wherein the set of synchronization signal block communications includes two or more synchronization signal block communications; transmit signaling identifying spatial resources of the set of synchronization signal block communications, wherein the spatial resources correspond to one or more beams; and transmit, based at least in part on the spatial resources, the set of synchronization signal block communications using spatial multiplexing, wherein the set of synchronization signal block communications are each transmitted concurrently using the spatial resources associated with beam sweeping transmission. identify, during a connected mode or an idle mode of a user equipment, UE, a set of synchronization signal block communications, wherein the set of synchronization signal block communications includes two or more synchronization signal block communications; transmit signaling identifying spatial resources of the set of synchronization signal block communications, wherein the spatial resources correspond to one or more beams; and transmit, based at least in part on the spatial resources, the set of synchronization signal block communications using spatial multiplexing, wherein the set of synchronization signal block communications are each transmitted concurrently using the spatial resources associated with beam sweeping transmission.
An aircraft ice detection system (100A; 100B; 100C) configured to determine a condition of a cloud, the system comprising: a radar system configured to project quasi-optical radiation to the cloud and receive reflected quasi-optical radiation from the cloud, wherein the quasi-optical radiation is radiation with a wavelength between 0.1 and 3 millimeters; a lidar system configured to project optical radiation to the cloud and receive reflected optical radiation from the cloud; optics (20, 22; 102; 104) configured to direct the quasi-optical radiation and the optical radiation to the cloud and receive the reflected quasi-optical radiation and the reflected optical radiation from the cloud; and a dichroic filter configured to direct the quasi-optical radiation from the radar system to the optics (20, 22; 102, 104), direct the optical radiation from the lidar system to the optics (20, 22; 102, 104), direct the reflected quasi-optical radiation from the optics (20, 22; 102, 104) to the radar system and direct the reflected optical radiation from the optics (20, 22; 102, 104) to the lidar system. a radar system configured to project quasi-optical radiation to the cloud and receive reflected quasi-optical radiation from the cloud, wherein the quasi-optical radiation is radiation with a wavelength between 0.1 and 3 millimeters; a lidar system configured to project optical radiation to the cloud and receive reflected optical radiation from the cloud; optics (20, 22; 102; 104) configured to direct the quasi-optical radiation and the optical radiation to the cloud and receive the reflected quasi-optical radiation and the reflected optical radiation from the cloud; and a dichroic filter configured to direct the quasi-optical radiation from the radar system to the optics (20, 22; 102, 104), direct the optical radiation from the lidar system to the optics (20, 22; 102, 104), direct the reflected quasi-optical radiation from the optics (20, 22; 102, 104) to the radar system and direct the reflected optical radiation from the optics (20, 22; 102, 104) to the lidar system.
Method for operating an electrolytic water treatment device, wherein in normal operation an electric voltage is applied continuously or in a pulsed manner to at least two electrodes (11, 12) such that an electric electrolysis current I ei flows through the water that is present in the water treatment device while the voltage is applied, wherein in cleaning operation at least one of the electrodes (11, 12) is cleaned, wherein, when a necessity for cleaning of the at least one electrode (11, 12) is identified, it is switched from normal operation to cleaning operation, wherein for identifying the necessity for cleaning, the electrolysis current I ei is measured and evaluated, wherein for identifying the necessity for cleaning, a conductivity LF of the water is moreover measured and evaluated, and wherein the necessity for cleaning is identified by Q≥Q 0 *K*I ei /LF, with Q: the amount of water treated since the last cleaning operation; Q 0: basic water amount; K: conversion constant.
A method for commissioning a communication gateway of a transportation system with a portable device, the method comprising the steps of: - Establishing (S 1) a first communication connection from the portable device to the communication gateway of the transportation system; characterised by - Transmitting configuration data from the portable device to the communication gateway of the transportation system using the established first communication connection, wherein the configuration data comprise a gateway identifier identifying this transportation system; - Establishing a second communication connection from the communication gateway to a server unit using the configuration data, - According to the transmitted configuration data, initiating a communication gateway software deployment from a server unit by using the established second communication connection for commissioning the communication gateway in the transportation system. - Establishing (S 1) a first communication connection from the portable device to the communication gateway of the transportation system; characterised by - Transmitting configuration data from the portable device to the communication gateway of the transportation system using the established first communication connection, wherein the configuration data comprise a gateway identifier identifying this transportation system; - Establishing a second communication connection from the communication gateway to a server unit using the configuration data, - According to the transmitted configuration data, initiating a communication gateway software deployment from a server unit by using the established second communication connection for commissioning the communication gateway in the transportation system.
A method of mounting a carrier (12a, 12b, 12c, 12d, 12e) of a disc brake to a mount (24a, 24b, 24c, 24d, 24e), the method comprising: providing a carrier (12a, 12b, 12c, 12d, 12e) to be mounted having a first location formation (32a, 32d, 32e); providing a mount (24a, 24b, 24c, 24d, 24e) having a second location formation (30a, 30b, 30c, 30d, 30e) alignable with the first location formation (32a, 32d, 32e); positioning a locator (38c, 38d) in the first (32a, 32d, 32e) and second (30a, 30b, 30c, 30d, 30e) location formation to support the carrier (12a, 12b, 12c, 12d, 12e) in alignment with respect to the mount (24a, 24b, 24c, 24d, 24e) so as to correctly position the carrier (12a, 12b, 12c, 12d, 12e) with respect to the mount (24a, 24b, 24c, 24d, 24e); and mounting the carrier (12a, 12b, 12c, 12d, 12e) to the mount (24a, 24b, 24c, 24d, 24e); characterised in that, the first (32a, 32d, 32e) and second (30a, 30b, 30c, 30d, 30e) location formations are formed to be a close fit with the locator (38c, 38d). providing a carrier (12a, 12b, 12c, 12d, 12e) to be mounted having a first location formation (32a, 32d, 32e); providing a mount (24a, 24b, 24c, 24d, 24e) having a second location formation (30a, 30b, 30c, 30d, 30e) alignable with the first location formation (32a, 32d, 32e); positioning a locator (38c, 38d) in the first (32a, 32d, 32e) and second (30a, 30b, 30c, 30d, 30e) location formation to support the carrier (12a, 12b, 12c, 12d, 12e) in alignment with respect to the mount (24a, 24b, 24c, 24d, 24e) so as to correctly position the carrier (12a, 12b, 12c, 12d, 12e) with respect to the mount (24a, 24b, 24c, 24d, 24e); and mounting the carrier (12a, 12b, 12c, 12d, 12e) to the mount (24a, 24b, 24c, 24d, 24e); characterised in that, the first (32a, 32d, 32e) and second (30a, 30b, 30c, 30d, 30e) location formations are formed to be a close fit with the locator (38c, 38d).
Suspension assembly, comprising: a support member including a wire attach structure; a moving member coupled to the support member, including: a plate; flexure arms extending from the plate and coupled to the support member; and a wire attach structure; a sliding bearing interface between the support member and the plate of the moving member; and a shape memory alloy wire coupled to and extending between the wire attach structures of the support member and the moving member. a support member including a wire attach structure; a moving member coupled to the support member, including: a plate; flexure arms extending from the plate and coupled to the support member; and a wire attach structure; a plate; flexure arms extending from the plate and coupled to the support member; and a wire attach structure; a sliding bearing interface between the support member and the plate of the moving member; and a shape memory alloy wire coupled to and extending between the wire attach structures of the support member and the moving member.
A method of fabricating a book block for a book-like document in which a plurality of data pages are placed above one another and joined together and in which a support is associated with an outermost data page, said support being provided in the form of at least one plastic film (31, 32) made of a thermoplastic polymer, characterised in that - at least the support is heated up to a temperature above the glass transition temperature of the thermoplastic polymer, - the data pages and the support, which is positioned so as to be applied to an outer side of the data pages, are maintained in a folded disposition along a common folded edge, and - the support and the data pages are maintained in said folded disposition until the support has cooled down to a temperature below the glass transition temperature of the thermoplastic polymer of the support. - at least the support is heated up to a temperature above the glass transition temperature of the thermoplastic polymer, - the data pages and the support, which is positioned so as to be applied to an outer side of the data pages, are maintained in a folded disposition along a common folded edge, and - the support and the data pages are maintained in said folded disposition until the support has cooled down to a temperature below the glass transition temperature of the thermoplastic polymer of the support.
A method for supplying the combustion chamber of a space propulsion engine with cryogenic liquid propellants by injection means (7 to 11) contained in an enclosure and enabling the flow rate of said injected propellants to be varied, characterized in that: - an oxidizer propellant tank and a fuel propellant tank are pressurized at constant pressure; - the fuel propellant and the oxidizer propellant coming respectively from said tanks and are mixed at constant pressure so as to form a mixture of said propellants at constant pressure; - said mixture of propellants at constant pressure is fed into said enclosure via an orifice in the latter; and - said mixture of propellants at constant pressure is injected from said enclosure into said combustion chamber by the injection means (7 to 11). - an oxidizer propellant tank and a fuel propellant tank are pressurized at constant pressure; - the fuel propellant and the oxidizer propellant coming respectively from said tanks and are mixed at constant pressure so as to form a mixture of said propellants at constant pressure; - said mixture of propellants at constant pressure is fed into said enclosure via an orifice in the latter; and - said mixture of propellants at constant pressure is injected from said enclosure into said combustion chamber by the injection means (7 to 11).
A method for controlling an apparatus for treating blood outside the human body, with a view to improve the operation of said apparatus, said apparatus comprising a semi-permeable membrane carrying out an exchange of solutes, said dialysis, and of liquid, said ultrafiltration, with the blood, said method comprising at least one iteration of the following steps: - determination of a value, said instantaneous value, of an ultrafiltration coefficient corresponding to the ratio of an ultrafiltration flow rate to a difference in pressure, said transmembrane pressure, on either side of said semi-permeable membrane, - comparison of said instantaneous value with at least one previously determined characteristic value; and - control of said treatment apparatus so as to reach a maximum value of said ultrafiltration coefficient, said control comprising a variation of the ultrafiltration flow rate up to a value corresponding to said maximum value of said ultrafiltration coefficient. - determination of a value, said instantaneous value, of an ultrafiltration coefficient corresponding to the ratio of an ultrafiltration flow rate to a difference in pressure, said transmembrane pressure, on either side of said semi-permeable membrane, - comparison of said instantaneous value with at least one previously determined characteristic value; and - control of said treatment apparatus so as to reach a maximum value of said ultrafiltration coefficient, said control comprising a variation of the ultrafiltration flow rate up to a value corresponding to said maximum value of said ultrafiltration coefficient.
Captive winch, comprising: - a pulling drum, which can be rotatably operated around a respective longitudinal axis to wind/unwind a cable subjected to traction from a direction substantially parallel to the longitudinal axis of the pulling drum, - a guide track parallel to the longitudinal axis and spaced therefrom, and - a cable-guiding device, arranged side-by-side the pulling drum and comprising a body, slidingly engaged along the guide track which is parallel to the longitudinal axis, and adapted to translate on the guide track upon rotation of the pulling drum in order to guide winding/unwinding of the cable on/from the pulling drum on one side thereof, characterized in that the cable-guiding device comprises a supporting shoulder, which rests on the side of the pulling drum. - a pulling drum, which can be rotatably operated around a respective longitudinal axis to wind/unwind a cable subjected to traction from a direction substantially parallel to the longitudinal axis of the pulling drum, - a guide track parallel to the longitudinal axis and spaced therefrom, and - a cable-guiding device, arranged side-by-side the pulling drum and comprising a body, slidingly engaged along the guide track which is parallel to the longitudinal axis, and adapted to translate on the guide track upon rotation of the pulling drum in order to guide winding/unwinding of the cable on/from the pulling drum on one side thereof,
A rotary cutting apparatus including a pair of cutting tools (2A, 2B) each having a cutting blade along a tip end of its outer peripheral portion having a mountain-shaped cross section, in which the rotary cutting apparatus cuts a cylindrical material into pieces with a predetermined width by sandwiching the cylindrical material between the cutting blades of the pair of cutting tools (2A, 2B) so that the cutting blades are respectively placed on inner and outer peripheries of the cylindrical material, and relatively rotating and moving the pair of cutting tools (2A 2B) along an entire circumference of the cylindrical material, characterized in that the rotary cutting apparatus cuts the cylindrical material by approaching the outer peripheral-side cutting tool and the inner peripheral-side cutting tool and sandwiching inner and outer peripheries of the cylindrical material in a state where a second imaginary line connecting an axial center of the cylindrical material and an axial center of an inner peripheral-side cutting tool as one of the pair of cutting tools (2A, 2B) which is placed on the inner periphery of the cylindrical material is shifted in a circumferential direction of the cylindrical material about the axial center of the cylindrical material with respect to a first imaginary line connecting the axial center of the cylindrical material and an axial center of an outer peripheral-side cutting tool as the other cutting tool that is placed on the outer periphery of the cylindrical material.
A PVC-free surface covering comprising at least one layer of a thermoplastic composition, said composition comprising: - a polymer matrix comprising: (a) at least one ionomer and optionally at least one acid copolymer; and (b) at least one styrenic thermoplastic polymer; and - at least one filler. - a polymer matrix comprising: (a) at least one ionomer and optionally at least one acid copolymer; and (b) at least one styrenic thermoplastic polymer; and (a) at least one ionomer and optionally at least one acid copolymer; and (b) at least one styrenic thermoplastic polymer; and - at least one filler.
A garment for preventing bodily fluid leakage and sagging of an absorbent pad, the garment comprising: an undergarment; and a sling placed adjacent to a crotch portion of the undergarment, the sling designed and configured to provide a longitudinal stretch to move with a body of a wearer and to exert a garment force against the absorbent pad and the body; and wherein the sling is removable. an undergarment; and a sling placed adjacent to a crotch portion of the undergarment, the sling designed and configured to provide a longitudinal stretch to move with a body of a wearer and to exert a garment force against the absorbent pad and the body; and wherein the sling is removable.