mhurhangee/ep-ind-claims huggingface dataset:
Kiln having at least one kiln wall (5, 23), lined with one or more refractory lining members (10, 11, 12, 12"), the refractory lining member (10, 11, 12, 12"), for being secured to a kiln wall (5, 23), having a metal base body and a single-layered or multi-layered structure with at least one layer of refractory concrete and at least one anchor (3, 3'), the anchor being cast in the refractory concrete and connected to the base body, and the lining member being in the form of a prefabricated component, characterized in that a thermally conductive paste for compensating for unevenness and/or thermal expansion and/or other deformation is provided between the kiln wall (5, 23) and the at least one refractory lining member (10, 11, 12, 12").
A method for entropy coding run/data value pair data corresponding to a stream of integer-valued data, wherein each run has a value between 1 and a predetermined maximum length and is encoded in one of three ways, said method comprising: classifying each of said runs based on its length as either 1, short or long; if the run is 1, selecting a first code with a length of 1 bit; if the run is classified as short, selecting a first code with a first predetermined length, each first code of first predetermined length having a preamble to distinguish the other run classifications, and having a value based on the run's length; if the run is classified as long, selecting a first code with a second predetermined length, each first code of second predetermined length having a preamble to distinguish the other run classifications, and having a value based on the run's length; and outputting the selected first code to a channel. classifying each of said runs based on its length as either 1, short or long; if the run is 1, selecting a first code with a length of 1 bit; if the run is classified as short, selecting a first code with a first predetermined length, each first code of first predetermined length having a preamble to distinguish the other run classifications, and having a value based on the run's length; if the run is classified as long, selecting a first code with a second predetermined length, each first code of second predetermined length having a preamble to distinguish the other run classifications, and having a value based on the run's length; and outputting the selected first code to a channel.
Separating device for pressed strands of vegetal particles that are advanced intermittently in the strand direction, wherein the separating device has a separating means that is movable along the strand, characterized in that the separating device has a controllable propulsion drive for the separating means that is displaceable along the moved strand, and a detection device for sensing the front strand end during the advancing thereof in the strand direction, and also a positioning device which interacts with the propulsion drive in order to position the separating means with respect to the strand end.
A flame retardant comprising a halogenated aryl ether oligomer having the following formula: wherein each R 1 is independently selected from hydrogen, hydroxy, halogen and alkyl, wherein each R 2 is independently selected from hydrogen, hydroxy, halogen and alkyl, provided at least one R 2 is halogen, n is 5, m is 4, and x is from 2 to 10, preferably from 2 to 8, and wherein the halogen content of the halogenated aryl ether oligomer is in the range of 65 to 83 wt% of the oligomer, preferably in the range of 65 to 80 wt% of the oligomer.
A network node for controlling coordinated transmissions, in a communication system comprising at least one mobile device and a plurality of transmission points (5-1, 5-2, 5-3) which operate at least one cell, the network node comprising: means for sending, to the at least one mobile device, a signalling message for configuring a Channel State Information, CSI, process and that identifies a plurality of CSI signal quality, CSI-RS, resource configurations for the CSI process and a plurality of CSI interference measurement, CSI-IM, resource configurations for the CSI process, wherein each CSI-RS resource is associated with a respective CSI-IM resource; and means for receiving, from the at least one mobile device, measurement results for the CSI process for a selected one of the plurality of resource configurations and data identifying the one of the plurality of resource configurations the results relate to. means for sending, to the at least one mobile device, a signalling message for configuring a Channel State Information, CSI, process and that identifies a plurality of CSI signal quality, CSI-RS, resource configurations for the CSI process and a plurality of CSI interference measurement, CSI-IM, resource configurations for the CSI process, wherein each CSI-RS resource is associated with a respective CSI-IM resource; and means for receiving, from the at least one mobile device, measurement results for the CSI process for a selected one of the plurality of resource configurations and data identifying the one of the plurality of resource configurations the results relate to.
A variable beam control antenna for a mobile communication system, the variable beam control antenna comprising: a radome formed on a front surface; a number of radiation units vertically arranged in at least one column; a frame unit supporting the radome and the radiation units; and a direction variable module (40, 50, 60) configured to rotate each of the radiation units upwards/downwards and leftwards/rightwards with respect to one reference point so as to vary a radiation direction of the radiation units, wherein each of the radiation units comprises: a radiation element; a reflection plate configured to support the corresponding radiation element at a rear surface of the radiation element; a spherical structure connected to the reflection plate via a first connection rod; and a support platform configured to support the spherical structure using a ball-and-socket joint, characterized in that the direction variable module (40, 50, 60) has a separate appendage connected directly/indirectly to rotate the first connection rod upwards/downwards and leftwards/rightwards. a radome formed on a front surface; a number of radiation units vertically arranged in at least one column; a frame unit supporting the radome and the radiation units; and a direction variable module (40, 50, 60) configured to rotate each of the radiation units upwards/downwards and leftwards/rightwards with respect to one reference point so as to vary a radiation direction of the radiation units, wherein each of the radiation units comprises: a radiation element; a reflection plate configured to support the corresponding radiation element at a rear surface of the radiation element; a spherical structure connected to the reflection plate via a first connection rod; and a support platform configured to support the spherical structure using a ball-and-socket joint, characterized in that the direction variable module (40, 50, 60) has a separate appendage connected directly/indirectly to rotate the first connection rod upwards/downwards and leftwards/rightwards. a radiation element; a reflection plate configured to support the corresponding radiation element at a rear surface of the radiation element; a spherical structure connected to the reflection plate via a first connection rod; and a support platform configured to support the spherical structure using a ball-and-socket joint, characterized in that the direction variable module (40, 50, 60) has a separate appendage connected directly/indirectly to rotate the first connection rod upwards/downwards and leftwards/rightwards.
A three-dimensional printing method, comprising: applying a build material; selectively applying a first liquid functional material including ferromagnetic nanoparticles on at least a portion of the build material, wherein the ferromagnetic nanoparticles are selected from the group consisting of an iron oxide, a ferrite, a combination of the iron oxide and a ferromagnetic metal oxide, and combinations thereof; and exposing the build material to electromagnetic radiation having a frequency ranging from about 5 kHz to about 300 GHz, thereby sintering the portion of the build material in contact with the first liquid functional material. applying a build material; selectively applying a first liquid functional material including ferromagnetic nanoparticles on at least a portion of the build material, wherein the ferromagnetic nanoparticles are selected from the group consisting of an iron oxide, a ferrite, a combination of the iron oxide and a ferromagnetic metal oxide, and combinations thereof; and exposing the build material to electromagnetic radiation having a frequency ranging from about 5 kHz to about 300 GHz, thereby sintering the portion of the build material in contact with the first liquid functional material.
A gear assembly (100, 500, 1400) comprising: (i) a housing (300, 610, 810, 1630), (ii) a first gear shaft (135, 520, 625, 825, 1435, 1645), in the housing (300, 610, 810, 1630), (iii) a first spiral gear (130, 310, 510, 620, 820, 1430, 1640) coupled to the first gear shaft (135, 520, 625, 825, 1435, 1645), in the housing (300, 610, 810, 1630), (iv) a second gear shaft (145, 540, 635, 835, 1445, 1655), in the housing (300, 610, 810, 1630), (v) a second spiral gear (140, 320, 530, 630, 1440, 1650) coupled to the second gear shaft (145, 540, 635, 835, 1445, 1655), in the housing (300, 610, 810, 1630), the gear assembly being further characterised by (vi) a fluid connection (430,1450) between a first chamber and a second chamber, wherein the first spiral gear (130, 310, 510, 620, 820, 1430, 1640) and the second spiral gear (140, 320, 530, 630, 1440, 1650) couple to define the first chamber and the second chamber within the housing (300, 610, 810, 1630). (i) a housing (300, 610, 810, 1630), (ii) a first gear shaft (135, 520, 625, 825, 1435, 1645), in the housing (300, 610, 810, 1630), (iii) a first spiral gear (130, 310, 510, 620, 820, 1430, 1640) coupled to the first gear shaft (135, 520, 625, 825, 1435, 1645), in the housing (300, 610, 810, 1630), (iv) a second gear shaft (145, 540, 635, 835, 1445, 1655), in the housing (300, 610, 810, 1630), (v) a second spiral gear (140, 320, 530, 630, 1440, 1650) coupled to the second gear shaft (145, 540, 635, 835, 1445, 1655), in the housing (300, 610, 810, 1630), (vi) a fluid connection (430,1450) between a first chamber and a second chamber, wherein the first spiral gear (130, 310, 510, 620, 820, 1430, 1640) and the second spiral gear (140, 320, 530, 630, 1440, 1650) couple to define the first chamber and the second chamber within the housing (300, 610, 810, 1630).
A light-emitting body that emits fluorescence in response to incidence of electrons, said light-emitting body comprising: a substrate; a nitride semiconductor layer having a quantum well structure formed on one of faces of said substrate; and a cap layer formed on said nitride semiconductor layer, said cap layer having an electron incidence face, characterized by: a metal backing layer, having thickness of at least 800 nm, formed on the cap layer; the light emitting body being further characterized in that a thickness of said cap layer is not more than 10nm; in that said nitride semiconductor layer is comprised of InGaN or GaN, and in that said cap layer is comprised of AlGaN. a substrate; a nitride semiconductor layer having a quantum well structure formed on one of faces of said substrate; and a cap layer formed on said nitride semiconductor layer, said cap layer having an electron incidence face, characterized by: a metal backing layer, having thickness of at least 800 nm, formed on the cap layer; the light emitting body being further characterized in that a thickness of said cap layer is not more than 10nm; in that said nitride semiconductor layer is comprised of InGaN or GaN, and in that said cap layer is comprised of AlGaN. a metal backing layer, having thickness of at least 800 nm, formed on the cap layer; the light emitting body being further characterized in that a thickness of said cap layer is not more than 10nm; in that said nitride semiconductor layer is comprised of InGaN or GaN, and in that said cap layer is comprised of AlGaN.
A method of processing data, comprising: establishing a data connection between a local service and a Web client, wherein the local service and the Web client are installed in a same electronic device, and the local service is an application which runs independently from the Web client; receiving data that the Web client transmits to the local service through the data connection; and storing, by the local service, the data in a designated local storage space of the same electronic device; wherein after establishing the data connection between the local service and the Web client, the method further comprises: generating a target identifier, wherein the target identifier is used to uniquely identify the data connection; storing the data in a designated local storage space comprises: storing the data in a designated local storage space corresponding to the target identifier. establishing a data connection between a local service and a Web client, wherein the local service and the Web client are installed in a same electronic device, and the local service is an application which runs independently from the Web client; receiving data that the Web client transmits to the local service through the data connection; and storing, by the local service, the data in a designated local storage space of the same electronic device; wherein after establishing the data connection between the local service and the Web client, the method further comprises: generating a target identifier, wherein the target identifier is used to uniquely identify the data connection; storing the data in a designated local storage space comprises: storing the data in a designated local storage space corresponding to the target identifier. generating a target identifier, wherein the target identifier is used to uniquely identify the data connection; storing the data in a designated local storage space comprises: storing the data in a designated local storage space corresponding to the target identifier.
A photovoltaic panel with a heating layer comprising a front glass part and a frame with at least one photovoltaic cell situated inside said frame, whereas the inner surface of said front part is covered with an electric current conducting layer made of fluorine-doped tin oxide SnO2:F characterised in that between a surface of the conducting layer with electrodes deposited thereon and the inner surface of the photovoltaic cell, a layer of transparent polymer film is placed and inseparably and permanently bound with both the conductive layer and the photovoltaic cell, such that the conductive layer becomes a heating layer when the electrodes are connected to a voltage source.
A method to measure performance of Application Programming Interfaces, APIs, the method comprising: (a) creating a list of APIs to measure; (b) selecting a single target Application Programming Interface, API, from the list; (c) intercepting calls to the target API and collecting timing and memory allocation data; (d) tracking by a memory allocation profiler, memory allocations for all functions called by the target API, including generating a list of functions called by the target API, the list comprising non-interfering functions, the non-interfering functions being functions that never appear on the call stack at the same time; (e) recording, by the memory allocation profiler and a timing profiler, the timing and memory allocation data for the target API, the recorded data placed into storage, comprising concurrently measuring timing and memory allocation for a plurality of non-interfering functions; (f) merging measured results into a results table having bucketized data indicating log base 2 of the collected timing and memory allocation data; and (g) repeating steps (b) through (f) for each API on the list. (a) creating a list of APIs to measure; (b) selecting a single target Application Programming Interface, API, from the list; (c) intercepting calls to the target API and collecting timing and memory allocation data; (d) tracking by a memory allocation profiler, memory allocations for all functions called by the target API, including generating a list of functions called by the target API, the list comprising non-interfering functions, the non-interfering functions being functions that never appear on the call stack at the same time; (e) recording, by the memory allocation profiler and a timing profiler, the timing and memory allocation data for the target API, the recorded data placed into storage, comprising concurrently measuring timing and memory allocation for a plurality of non-interfering functions; (f) merging measured results into a results table having bucketized data indicating log base 2 of the collected timing and memory allocation data; and (g) repeating steps (b) through (f) for each API on the list.
A transmitting apparatus comprising: a communication interface configured to transmit a check packet data to a receiving apparatus, a receiving unit configured to receive an acknowledgement message from said receiving apparatus, said acknowledgement message including acknowledgement information based on shared data shared with said receiving apparatus; a computing unit configured to compute expected acknowledgement information based on said shared data; a comparing unit configured to compare said acknowledgement information and said expected acknowledgement information and produce a comparison result; a timer configured to measure the time elapsed after transmitting the check packet; wherein the transmitting apparatus is configured to determine that authentication has failed when the comparison result indicated that the acknowledgement information and expected acknowledgement information do not match or when a predetermined time elapsed from transmitting the check packet expires before the acknowledgement message is received; characterised in that the check packet data is transmitted to the receiving apparatus using Transmission Control Protocol TCP, and the communication interface is configured to transmit audio or video data to the receiving apparatus if the authentication is successful. a communication interface configured to transmit a check packet data to a receiving apparatus, a receiving unit configured to receive an acknowledgement message from said receiving apparatus, said acknowledgement message including acknowledgement information based on shared data shared with said receiving apparatus; a computing unit configured to compute expected acknowledgement information based on said shared data; a comparing unit configured to compare said acknowledgement information and said expected acknowledgement information and produce a comparison result; a timer configured to measure the time elapsed after transmitting the check packet; wherein the transmitting apparatus is configured to determine that authentication has failed when the comparison result indicated that the acknowledgement information and expected acknowledgement information do not match or when a predetermined time elapsed from transmitting the check packet expires before the acknowledgement message is received; characterised in that the check packet data is transmitted to the receiving apparatus using Transmission Control Protocol TCP, and the communication interface is configured to transmit audio or video data to the receiving apparatus if the authentication is successful.
A user interface system, comprising: - a layer defining a surface that interfaces with a user in a tactile manner, the surface comprises a particular region; - a substrate supporting the layer and at least partially defining a cavity; - a volume of fluid contained within the cavity; - a fluid displacement device coupled to the cavity and adapted to modify the volume of fluid to expand the cavity and deform the particular region from a retracted setting planar with the surface to an expanded volume setting in which the particular region is extended above the plane of the surface; - wherein the substrate includes a support member arranged underneath the layer, the support member provides support to the layer to prevent deformation of the particular region of the surface below the plane of the surface when the cavity is not expanded; - a touch sensor coupled to the substrate and adapted to sense a user touch on the particular region of the surface; characterized by - a display arranged under the substrate and outputting a graphic aligned with the particular region of the surface; and - wherein the support member includes holes or channels positioned above the cavity. - a layer defining a surface that interfaces with a user in a tactile manner, the surface comprises a particular region; - a substrate supporting the layer and at least partially defining a cavity; - a volume of fluid contained within the cavity; - a fluid displacement device coupled to the cavity and adapted to modify the volume of fluid to expand the cavity and deform the particular region from a retracted setting planar with the surface to an expanded volume setting in which the particular region is extended above the plane of the surface; - wherein the substrate includes a support member arranged underneath the layer, the support member provides support to the layer to prevent deformation of the particular region of the surface below the plane of the surface when the cavity is not expanded; - a touch sensor coupled to the substrate and adapted to sense a user touch on the particular region of the surface; characterized by - a display arranged under the substrate and outputting a graphic aligned with the particular region of the surface; and - wherein the support member includes holes or channels positioned above the cavity.
Tent frame, in particular for a sunshade or play tent, having at least two tent frame modules each having two longitudinal struts (2a, 2b) which run vertically in the intended state of assembly; the tent frame modules being fastened to one another by a coupling device such that they can be folded against one another, wherein three transversely extending transverse struts (3a, 3b, 3c) are present in the tent frame modules in addition to the longitudinal struts (2a, 2b); wherein the transverse struts (3a, 3b, 3c) are each attached at their one end to any one of the two longitudinal struts (2a, 2b) and at their other end to the other of the two longitudinal struts (2a, 2b) and extend horizontally in the intended assembled state. two longitudinal struts (2a, 2b) which run vertically in the intended state of assembly; the tent frame modules being fastened to one another by a coupling device such that they can be folded against one another, wherein three transversely extending transverse struts (3a, 3b, 3c) are present in the tent frame modules in addition to the longitudinal struts (2a, 2b); wherein the transverse struts (3a, 3b, 3c) are each attached at their one end to any one of the two longitudinal struts (2a, 2b) and at their other end to the other of the two longitudinal struts (2a, 2b) and extend horizontally in the intended assembled state.