mhurhangee/patent-ind-claim-en huggingface dataset:
An electrochromic device comprising: (a) an electrochromic layer comprising an electrochromic material; (b) a counter electrode layer comprising a counter electrode material; and (c) a superstoichiometric oxygen portion between the electrochromic layer and the counter electrode layer, the superstoichiometric oxygen portion comprising: (i) a superstoichiometric oxygenated form of the electrochromic material and/or (ii) a superstoichiometric oxygenated form of the counter electrode material, wherein at least one of the superstoichiometric oxygenated forms of the electrochromic layer and the counter electrode layer comprises lithium, and wherein at least part of the superstoichiometric oxygen portion has been converted by heat to an electronically-insulating ionically conducting material. (a) an electrochromic layer comprising an electrochromic material; (b) a counter electrode layer comprising a counter electrode material; and (c) a superstoichiometric oxygen portion between the electrochromic layer and the counter electrode layer, the superstoichiometric oxygen portion comprising: (i) a superstoichiometric oxygenated form of the electrochromic material and/or (ii) a superstoichiometric oxygenated form of the counter electrode material, wherein at least one of the superstoichiometric oxygenated forms of the electrochromic layer and the counter electrode layer comprises lithium, and wherein at least part of the superstoichiometric oxygen portion has been converted by heat to an electronically-insulating ionically conducting material. (i) a superstoichiometric oxygenated form of the electrochromic material and/or (ii) a superstoichiometric oxygenated form of the counter electrode material,
A photonic integrated device comprising: - a waveguide embedded in a photonic substrate, the waveguide having a waveguide radiation exit surface (S) and the waveguide being optically connected to a two dimensional grating , - the two dimensional grating embedded in an optically guiding region of a planar slab of the photonic substrate and having a plurality of curved elongate scattering elements , said planar slab being a continuation of the waveguide embedding photon substrate, said two dimensional grating being adapted for diffracting radiation received from the waveguide out of the surface of said photonic integrated device in which said two dimensional grating is embedded, characterized in that the curved elongate scattering elements are oriented with respect to the waveguide such that normal lines (B) to at least the curved elongate scattering element closest to the waveguide radiation exit surface (S) at points within a predetermined light cone around a longitudinal axis of the waveguide , corresponding to a divergence angle of light emanating from the waveguide radiation exit surface (S), do not intersect with said waveguide radiation exit surface (S) of said waveguide. - a waveguide embedded in a photonic substrate, the waveguide having a waveguide radiation exit surface (S) and the waveguide being optically connected to a two dimensional grating , - the two dimensional grating embedded in an optically guiding region of a planar slab of the photonic substrate and having a plurality of curved elongate scattering elements , said planar slab being a continuation of the waveguide embedding photon substrate, said two dimensional grating being adapted for diffracting radiation received from the waveguide out of the surface of said photonic integrated device in which said two dimensional grating is embedded, characterized in that the curved elongate scattering elements are oriented with respect to the waveguide such that normal lines (B) to at least the curved elongate scattering element closest to the waveguide radiation exit surface (S) at points within a predetermined light cone around a longitudinal axis of the waveguide , corresponding to a divergence angle of light emanating from the waveguide radiation exit surface (S), do not intersect with said waveguide radiation exit surface (S) of said waveguide.
An optical fiber enclosure comprising: a generally rectangular housing including mounting tabs , the mounting tabs to secure the optical fiber enclosure to a rack; a plurality of trays slidable relative to the housing , the plurality of trays extendable from a front side of the housing ; and a plurality of cable management clips along a front edge of at least one tray of the plurality of trays , the cable management clips arranged to retain optical fiber cables entering the enclosure; characterized in that at least one of the cable management clips includes a base having a socket at a first end and a post at a second end and an arm having a pin , the pin received in the socket to allow the arm to rotate relative to the base between an open position and a closed position. a generally rectangular housing including mounting tabs , the mounting tabs to secure the optical fiber enclosure to a rack; a plurality of trays slidable relative to the housing , the plurality of trays extendable from a front side of the housing ; and a plurality of cable management clips along a front edge of at least one tray of the plurality of trays , the cable management clips arranged to retain optical fiber cables entering the enclosure; characterized in that at least one of the cable management clips includes a base having a socket at a first end and a post at a second end and an arm having a pin , the pin received in the socket to allow the arm to rotate relative to the base between an open position and a closed position.
A mobile handheld device comprising: a processor and a Wi-Fi module for communicating with a sink device to stream audio/video data from a real-time digital video screen capture thereto; wherein the sink device is a receiving device having a display for rendering content to a user, the processor configured to: identify manufacturer and model of the sink device , retrieve input lag data for the sink device from a database indexed by manufacturer and model of the sink device , and optimize encoding of the audio/video data by adjusting transmission parameters based on the input lag data, wherein the input lag of the sink device is defined as the difference between the time that a signal is input into the sink device. and the time that it is shown by the display of the sink device . a processor and a Wi-Fi module for communicating with a sink device to stream audio/video data from a real-time digital video screen capture thereto; wherein the sink device is a receiving device having a display for rendering content to a user, the processor configured to: identify manufacturer and model of the sink device , retrieve input lag data for the sink device from a database indexed by manufacturer and model of the sink device , and optimize encoding of the audio/video data by adjusting transmission parameters based on the input lag data, identify manufacturer and model of the sink device , retrieve input lag data for the sink device from a database indexed by manufacturer and model of the sink device , and optimize encoding of the audio/video data by adjusting transmission parameters based on the input lag data, wherein the input lag of the sink device is defined as the difference between the time that a signal is input into the sink device. and the time that it is shown by the display of the sink device .
A control device for lighting elements to be mounted on a roller covering installation , said roller covering installation being of the type comprising: - a support structure for constraining said covering installation to an outer fixed structure, - a tubular shaft supported by said structure , - means for causing the rotation of said tubular shaft , - a covering to be rolled on said tubular shaft and to be unrolled from it, - a plurality of lighting elements applied to at least one component of said roller covering , wherein the control device comprises a casing , there being arranged inside said casing : - at least one power supply for said lighting elements , - at least one control unit for said lighting elements , said unit being capable of being connected wirelessly and/or wired to said lighting elements of said roller covering installation , - a receiver connected to and/or incorporated in said control unit for receiving control signals from the outside for controlling said lighting elements accordingly, characterized in that said casing can be inserted in said tubular shaft , between the latter and said support structure , and is provided with means for idly supporting said tubular shaft at one end. - a support structure for constraining said covering installation to an outer fixed structure, - a tubular shaft supported by said structure , - means for causing the rotation of said tubular shaft , - a covering to be rolled on said tubular shaft and to be unrolled from it, - a plurality of lighting elements applied to at least one component of said roller covering , - at least one power supply for said lighting elements , - at least one control unit for said lighting elements , said unit being capable of being connected wirelessly and/or wired to said lighting elements of said roller covering installation , - a receiver connected to and/or incorporated in said control unit for receiving control signals from the outside for controlling said lighting elements accordingly,
A calibration method of operating an output circuit block for analog neural network non-volatile memory array cells, comprising: performing leakage or offset calibration ; measuring leakage of the analog neural network non-volatile memory array cells using analog-to-digital conversion or measuring offset from the analog neural network non-volatile memory array cells using analog-to-digital conversion, and storing the measured digital outputs in a register ; and converting a neuron output by counting up digital output bits from the neuron and then subtracting the stored measured digital outputs . performing leakage or offset calibration ; measuring leakage of the analog neural network non-volatile memory array cells using analog-to-digital conversion or measuring offset from the analog neural network non-volatile memory array cells using analog-to-digital conversion, and storing the measured digital outputs in a register ; and converting a neuron output by counting up digital output bits from the neuron and then subtracting the stored measured digital outputs .
Subassembly for an electrical plug type connector (10', 10'A, 10'B) which can be connected to a mating connector in an insertion direction (S), comprising a housing and a universal insert having a first contact securing member which, in the secured state (G), prevents relative movement between the universal insert and contact elements inserted into the universal insert , wherein the housing has a receiving chamber open at one end for the universal insert and a second contact securing member which is formed on the housing in one piece and which blocks opening of the first contact securing member when the universal insert is correctly inserted into the receiving chamber characterized in that a spacing collar is in a state associated with the open end of the receiving chamber , wherein the spacing collar causes the universal insert to be spaced apart from the housing at the open end and the universal insert is centrally fitted to the open end in the housing , wherein the spacing collar is located within the housing in the assembled state.
A solar panel comprising a membrane as a base layer wherein the base layer is to be integrated to an industrial roof and from the bottom to the uppermost layer respectively: a lowermost protection layer on this membrane ; electrical isolation back sheet on this lowermost protection layer ; a lower protection layer on this electrical isolation back sheet ; a solar cell layer having solar cells that provide electricity production, on this lower protection layer ; an upper protection layer on this solar cell layer ; and a front face protection layer on this upper protection layer and also comprising a junction unit , that provides the solar cell layer to produce electrical output characterized in that the upper, lower and lowermost protection layers (12, 14 and 16) have surface area sizes equal to each other in a way to provide sealing of the front face protection , the solar cell , the electrical isolation back sheet and the membrane layers to each other and whereby said surface area sizes are greater than the surface area of the front face protection layer in such a manner that the upper, lower and lowermost protection layers overhang from said front face protection layer by a predetermined amount.
Cooled housing (G) for the stator (S) of a direct drive, in which cooling channels (K) run on an outer lateral surface (M) of the housing (G) and are sealed by an annular cover (A) arranged on the lateral surface (M), wherein the cover (A) has openings (O) as inlet and outlet for a cooling medium, characterized in that the cover (A) is arranged so that partial regions (R) of the lateral surface (M) of the housing (G) are not covered by the cover (A), and that the cover (A) is shorter in the axial direction (X) than the lateral surface (M) of the housing (G), and that the partial regions (R) are two annular regions which surround the lateral surface (M) on an end side and which are machined as regards the average roughness value (Ra) and demand on dimensional accuracy with a higher precision than a middle region of the lateral surface (M) fitted with the cooling channels (K) between the partial regions (R), and that the partial regions (R) form as a result of their accessibility when fitting the direct drive, a position reference for fitting the stator (S) and thus also a mechanical reference for installing the direct drive.
A method for determining a core network type during a handover process, comprising: during a handover, of a terminal device, from a source cell to a target cell, sending , by an access network device, a request message for requesting a core network type of the target cell, to a core network device, wherein the core network device is not changed during the handover, of the terminal device, from the source cell to the target cell; and receiving , by the access network device, the core network type of the target cell from the core network device as a feedback for the request message; and performing, by the access network device, a cell handover according to the core network type of the target cell, wherein the core network type is a 5th generation, 5G, core network, the core network device comprises an access and mobility management function, AMF, and does not comprise a mobility management entity, MME; wherein the core network device determines the core network type of the target cell according to at least one of the following: information of a preferred core network type for the target cell reported by the terminal device, subscription information of the terminal device, evolved packet system, EPS, bearer information for the terminal device, protocol data unit, PDU, session information for the terminal device, a quality of service, QoS, flow; or information of the terminal device. during a handover, of a terminal device, from a source cell to a target cell, sending , by an access network device, a request message for requesting a core network type of the target cell, to a core network device, wherein the core network device is not changed during the handover, of the terminal device, from the source cell to the target cell; and receiving , by the access network device, the core network type of the target cell from the core network device as a feedback for the request message; and performing, by the access network device, a cell handover according to the core network type of the target cell, wherein the core network type is a 5th generation, 5G, core network, the core network device comprises an access and mobility management function, AMF, and does not comprise a mobility management entity, MME; wherein the core network device determines the core network type of the target cell according to at least one of the following: information of a preferred core network type for the target cell reported by the terminal device, subscription information of the terminal device, evolved packet system, EPS, bearer information for the terminal device, protocol data unit, PDU, session information for the terminal device, a quality of service, QoS, flow; or information of the terminal device.
Wrapping foil, characterized in that said wrapping foil is assembled from: - a preferably transparent or translucent paper sheet with a paper weight from 15 to 30 grams per square meter that is provided with resin, wherein the dry weight of the applied resin is at least as much as the paper weight; - a printed paper sheet with a paper weight from 50 to 90 grams per square meter, and better still 60 to 80 grams per square meter, which is resin-free or is provided with an amount of resin for which the dry weight is less than half the paper weight; - a carrier sheet with a paper weight less than or equal to the paper weight of the aforementioned printed paper sheet, wherein this carrier sheet is resin-free or is provided with an amount of resin for which the dry weight is less than half the paper weight of the carrier sheet in question. - a preferably transparent or translucent paper sheet with a paper weight from 15 to 30 grams per square meter that is provided with resin, wherein the dry weight of the applied resin is at least as much as the paper weight; - a printed paper sheet with a paper weight from 50 to 90 grams per square meter, and better still 60 to 80 grams per square meter, which is resin-free or is provided with an amount of resin for which the dry weight is less than half the paper weight; - a carrier sheet with a paper weight less than or equal to the paper weight of the aforementioned printed paper sheet, wherein this carrier sheet is resin-free or is provided with an amount of resin for which the dry weight is less than half the paper weight of the carrier sheet in question.
A mobile device for managing audio during a conference, the mobile device comprising: a first decoder configured to decode a first audio stream from a first device associated with a first participant of the conference; a second decoder configured to decode a second audio stream from a second device associated with a second participant of the conference; a spatial steering processor configured to: steer first decoded audio to be projected from a speaker at a first angle, the first decoded audio corresponding to the decoded version of the first audio stream; and steer second decoded audio to be projected from the speaker at a second angle, the second decoded audio corresponding to the decoded version of the second audio stream, and the first decoded audio synchronized with the second decoded audio; receive a signal indicating detection of head movement associated with a user of the mobile device; and shift the first angle and the second angle by a shift amount in response to receiving the signal; and the speaker configured to: project the first decoded audio at the shifted first angle; and project the second decoded audio at the shifted second angle. a first decoder configured to decode a first audio stream from a first device associated with a first participant of the conference; a second decoder configured to decode a second audio stream from a second device associated with a second participant of the conference; a spatial steering processor configured to: steer first decoded audio to be projected from a speaker at a first angle, the first decoded audio corresponding to the decoded version of the first audio stream; and steer second decoded audio to be projected from the speaker at a second angle, the second decoded audio corresponding to the decoded version of the second audio stream, and the first decoded audio synchronized with the second decoded audio; receive a signal indicating detection of head movement associated with a user of the mobile device; and shift the first angle and the second angle by a shift amount in response to receiving the signal; and steer first decoded audio to be projected from a speaker at a first angle, the first decoded audio corresponding to the decoded version of the first audio stream; and steer second decoded audio to be projected from the speaker at a second angle, the second decoded audio corresponding to the decoded version of the second audio stream, and the first decoded audio synchronized with the second decoded audio; receive a signal indicating detection of head movement associated with a user of the mobile device; and shift the first angle and the second angle by a shift amount in response to receiving the signal; and the speaker configured to: project the first decoded audio at the shifted first angle; and project the second decoded audio at the shifted second angle. project the first decoded audio at the shifted first angle; and project the second decoded audio at the shifted second angle.
A lithium-ion battery protector, comprising a broken-circuit protection switch arranged in a charging loop of a lithium-ion battery pack , wherein the broken-circuit protection switch is adapted to carry out the switching-on or switching-off of the charging loop of the lithium-ion battery pack via the shape change of a shape memory alloy therein at different temperatures; further comprising a monitoring and electro-thermal control circuit and a heater which is arranged on one side of the broken-circuit protection switch , wherein the monitoring and electro-thermal control circuit is electrically connected with the heater to monitor the lithium-ion battery pack and control the heater for heating the broken-circuit protection switch according to the monitoring condition; characterised in that the monitoring and electro-thermal control circuit is adapted to, when monitoring a parameter for breakage protection of the lithium-ion battery pack , initiate the heater to heat the broken-circuit protection switch by using a battery core with the highest voltage in the lithium-ion battery pack , so that the broken-circuit protection switch comes to the memory temperature.
A colorimetric sensor array comprising a support and a plurality of colorimetric sensors deposited onto the support, wherein each colorimetric sensor comprises at least an indicator characterized in that it comprises a cationic surfactant, and in that each colorimetric sensor comprises a different concentration of the surfactant.