mhurhangee/ep-ind-claims huggingface dataset:
Device for coating, in particular for painting objects, in particular vehicle bodies, comprising: a) at least one multi-axis robot which supports an application device; b) at least one traversable carriage which supports the robot (8; 108); c) a guide structure long which the carriage (8; 108) is traversable; d) at least one media cable carrier (12a, 12b; 112a, 112b; 212a, 212b; 312a, 312b; 412a, 412b; 512a, 512b) which carries a multiplicity of media-conducting lines or a multiplicity of electric and media-coxzducting lines and comprising two strands which extend in a loop from a fixed connection point to a connection point transported by the carriage; wherein e) at least two media cable carriers (12a, 12b; 112a, 112b; 212a, 212b; 312a, 312b; 412a, 412b; 512a, 512b) are provided, the strands of which are arranged above one another, characterised in that f) at least two media cable carriers (212a, 212b, 212a', 212b'; 31.2a, 312b, 312a', 312b'; 412a, 412b, 412a'; 512a, 512a') are associated with different carriages (208, 208'; 308, 308'; 408, 408'; 508, 508'); g) at least one carriage (408'; 508') supports a handling robot. a) at least one multi-axis robot which supports an application device; b) at least one traversable carriage which supports the robot (8; 108); c) a guide structure long which the carriage (8; 108) is traversable; d) at least one media cable carrier (12a, 12b; 112a, 112b; 212a, 212b; 312a, 312b; 412a, 412b; 512a, 512b) which carries a multiplicity of media-conducting lines or a multiplicity of electric and media-coxzducting lines and comprising two strands which extend in a loop from a fixed connection point to a connection point transported by the carriage; e) at least two media cable carriers (12a, 12b; 112a, 112b; 212a, 212b; 312a, 312b; 412a, 412b; 512a, 512b) are provided, the strands of which are arranged above one another, f) at least two media cable carriers (212a, 212b, 212a', 212b'; 31.2a, 312b, 312a', 312b'; 412a, 412b, 412a'; 512a, 512a') are associated with different carriages (208, 208'; 308, 308'; 408, 408'; 508, 508'); g) at least one carriage (408'; 508') supports a handling robot.
A power generation system (10,10a) comprising: a heat source provided at a first location; a heat sink provided at a second location, wherein said second location is elevated relative to said first location; first fluid communication means extending from said heat sink to said heat source; a power transfer system in fluid communication with said heat sink; and second fluid communication means extending from said heat source to said power transfer system, wherein said fluid communication means (16a,16b) are operable to circulate a thermally expandable liquid working fluid in a loop between said first and second locations, said fluid circulated from said first location, where the liquid working fluid is heated and expanded by said heat source, and directed in an upwards direction through said second fluid communication means to said second location, where it passes through said power transfer system and is cooled and contracted by said heat sink, and is further directed in a downwards direction through said first fluid communication means back to said first location, the circulation of said liquid working fluid operable to drive said power transfer system to generate power, characterised in that said power generation system further comprises a pressure regulation means (20,22) wherein said regulation means is operable to regulate a pressure difference experienced by the liquid working fluid at said power transfer system to prevent said liquid working fluid from flashing to a vapour. a heat source provided at a first location; a heat sink provided at a second location, wherein said second location is elevated relative to said first location; first fluid communication means extending from said heat sink to said heat source; a power transfer system in fluid communication with said heat sink; and second fluid communication means extending from said heat source to said power transfer system, wherein said fluid communication means (16a,16b) are operable to circulate a thermally expandable liquid working fluid in a loop between said first and second locations, said fluid circulated from said first location, where the liquid working fluid is heated and expanded by said heat source, and directed in an upwards direction through said second fluid communication means to said second location, where it passes through said power transfer system and is cooled and contracted by said heat sink, and is further directed in a downwards direction through said first fluid communication means back to said first location, the circulation of said liquid working fluid operable to drive said power transfer system to generate power, characterised in that said power generation system further comprises a pressure regulation means (20,22) wherein said regulation means is operable to regulate a pressure difference experienced by the liquid working fluid at said power transfer system to prevent said liquid working fluid from flashing to a vapour.
A method of reading information from a gaming element selected from the group consisting of playing cards (210; 422) and wagering chips while an image face of the gaming element is hidden by a visible-light-opaque back comprising: an infrared-sensitive camera (330, 336; 438; 514; 612) positioned behind the gaming element back receives infrared information passing through the gaming element; a filter on the camera (330, 336; 438; 514; 612) filtering out at least some visible and some infrared radiation, allowing a defined range of wavelength of infrared radiation into the camera (330, 336; 438; 514; 612); the camera (330, 336; 438; 514; 612) capturing radiation within the defined range of radiation and transmitting signals based on the captured radiation; a processor receiving the transmitted signals and executing code to define patterns in the captured radiation; and the defined patterns including image content of suit and/or rank on the image face of the gaming element. an infrared-sensitive camera (330, 336; 438; 514; 612) positioned behind the gaming element back receives infrared information passing through the gaming element; a filter on the camera (330, 336; 438; 514; 612) filtering out at least some visible and some infrared radiation, allowing a defined range of wavelength of infrared radiation into the camera (330, 336; 438; 514; 612); the camera (330, 336; 438; 514; 612) capturing radiation within the defined range of radiation and transmitting signals based on the captured radiation; a processor receiving the transmitted signals and executing code to define patterns in the captured radiation; and the defined patterns including image content of suit and/or rank on the image face of the gaming element.
An open steel cord, comprising a plurality of strands all twisted together with a cord twist pitch, said each strand comprising a plurality of filaments twisted together with a strand twist pitch, the elongation at break of said steel cord is greater than or equal to 5%, said strand comprising a strand twist angle α, said steel cord comprising a cord twist angle β, all the filaments of said steel cord having the same diameter, said strand twist angle α being determined by the formula: α = arctan πd Ls ∗ sin 180 ° n, said cord twist angle β being determined by the formula: β = arctan πd 1 + sin 180 ° n Lc ∗ sin 180 ° m ∗ sin 180 ° n d being the filament diameter, Ls being the strand twist pitch, Lc being the cord twist pitch, n being the number of filaments in the strand, m being the number of strands in the cord, characterized in that said steel cord comprising gaps between filaments and gaps between strands, the sum of said strand twist angle α and said cord twist angle β is between 20 and 29 degree, the structural elongation of said steel cord is greater than or equal to 2.0%, and said steel cord has full rubber penetration.
Apparatus comprising: an isolator assembly (202, 302, 602, 802, 902) configured to provide isolation between two antennas in multiple non-overlapping frequency bands, the isolator assembly comprising an isolator element (222, 322, 622, 822; 832, 922; 932; 942), the isolator element being an AC-grounded resonating conductive isolation element providing isolation in a first frequency band and a second frequency band non-overlapping the first frequency band, the isolator element including a choke element (216, 316, 616, 820, 830) configured to select one of the first frequency band and the second frequency band for isolation operation in the selected frequency band, and wherein the choke element presents a short circuit for the first frequency band and an open circuit for the second frequency band, characterised by the isolator element (222, 322, 622, 822; 832, 922; 932; 942) having an end-to-end length that is substantially equal to 1⁄4 of the wavelength of the resonant frequency of the first frequency band and a distance between an end of the isolator element and the choke element (216, 316, 616, 820, 830) substantially equal to 1⁄4 of the wavelength of the resonant frequency of the second frequency band. an isolator assembly (202, 302, 602, 802, 902) configured to provide isolation between two antennas in multiple non-overlapping frequency bands, the isolator assembly comprising an isolator element (222, 322, 622, 822; 832, 922; 932; 942), the isolator element being an AC-grounded resonating conductive isolation element providing isolation in a first frequency band and a second frequency band non-overlapping the first frequency band, the isolator element including a choke element (216, 316, 616, 820, 830) configured to select one of the first frequency band and the second frequency band for isolation operation in the selected frequency band, and wherein the choke element presents a short circuit for the first frequency band and an open circuit for the second frequency band, characterised by the isolator element (222, 322, 622, 822; 832, 922; 932; 942) having an end-to-end length that is substantially equal to 1⁄4 of the wavelength of the resonant frequency of the first frequency band and a distance between an end of the isolator element and the choke element (216, 316, 616, 820, 830) substantially equal to 1⁄4 of the wavelength of the resonant frequency of the second frequency band.
A process for steam-sterilizing a liquid-filled medical device, comprising providing a liquid-filled medical device featuring at least one open liquid port, closing at least one open liquid port of the liquid-filled medical device with a stopper; closing any remaining open ports (12, 14, 15) of the liquid-filled medical device; and steam-sterilizing the closed liquid-filled medical device, characterized in that the stopper is obtainable by piercing a non-cannulated stopper comprised of an elastomeric material with a cannula having an outer diameter in the range of from 0.4 to 1.0 mm.
A suction head for vacuum cleaner, comprising a box-shaped body including a connection area to connect to a suction duct and a suction opening to vacuum the surfaces to be cleaned, characterized in that it accommodates inside said box-shaped body a glass-wiper assembly, with a nozzle to vacuum liquids, movable between a retracted rest position, in which it is completely inside said box-shaped body, whereby it allows an unobstructed passage of the suction flow through the suction opening, and an extracted working position, in which said glass-wiper assembly engages said suction opening and at least partially projects therefrom, so as to clean up and/or dry the surface.
A method of making an optically-activated system comprising a complex of at least one fluorescent compound that is riboflavin and at least one substrate for the fluorescent compound, said method comprising affixing the at least one fluorescent compound to the at least one substrate for the at least one fluorescent compound by covalent bonding, hydrogen bonding, Van der Waals forces, or a combination thereof, wherein the at least one fluorescent compound in the complex is activated by absorption of light in the UV to visible region of the electromagnetic spectrum and re-emits visible light of longer wavelength, wherein the at least one substrate is selected from methyl cellulose, polymethylmethacrylate (PMMA), and nylon.
A combine harvester comprising a threshing mechanism for threshing picked-up crop material to give grain material and a driver assist system for actuation of the threshing mechanism, wherein the driver assist system includes a memory for the storage of data and a computing device for processing the data stored in the memory, characterised in that stored in the memory is a functional system model for at least a part of the combine harvester, wherein the functional system model represents at least a part of the functional relationships within the combine harvester and the computing device is adapted to effect in particular autonomous determination of at least one machine parameter, namely a threshing mechanism parameter (1a, 1b), based on the system model, and for representing the functional relationships at least one set of characteristics (A-J) is associated with at least one harvesting process parameter and said harvesting process parameter is defined as an output value of the at least one set of characteristics (A-J), and wherein the threshing mechanism together with the driver assist system forms an automated threshing arrangement by a plurality of selectable harvesting process strategies being stored in the memory and by the computing device being adapted for implementation of the respectively selected harvesting process strategy to autonomously ascertain at least one threshing mechanism parameter (1a, 1b) and preset it for the threshing mechanism.
A method for impregnating a composite tape with HTC particles comprising: as a first step permeating a fabric layer of said composite tape with HTC particles, wherein said HTC particles comprise a mixture of smaller and larger particles, said smaller particles being in the 5-100 nm range and comprising at least 5% by volume of the total amount of HTC particles in said composite tape; and as a second step subsequent to the first step impregnating an impregnating resin into said composite tape through said fabric layer; wherein in the second step at least 1% of said HTC particles permeated into said fabric layer in the first step are carried out of said fabric layer and into a mica layer bound to said fabric layer by said impregnating resin; wherein in the second step said impregnating resin tends to carry said smaller particles into said mica layer, while said larger particles tend to stay dispersed in said fabric layer. as a first step permeating a fabric layer of said composite tape with HTC particles, wherein said HTC particles comprise a mixture of smaller and larger particles, said smaller particles being in the 5-100 nm range and comprising at least 5% by volume of the total amount of HTC particles in said composite tape; and as a second step subsequent to the first step impregnating an impregnating resin into said composite tape through said fabric layer;
A method for wireless communications, comprising: determining a limit associated with a quantity of a plurality of downlink control information, DCI, for each of at least one scheduling chain, each of at least one of the plurality of DCI to be transmitted on one of a plurality of data channels, and wherein each of the plurality of DCI in the scheduling chain schedules another one of the plurality of data channels; and transmitting the plurality of DCI on the plurality of data channels in accordance with the determination to a user-equipment, UE, further comprising receiving a hybrid automatic repeat request, HARQ, indication associated with one of the data channels having a DCI of the plurality of DCI, wherein the determining of the limit is based on the HARQ indication. determining a limit associated with a quantity of a plurality of downlink control information, DCI, for each of at least one scheduling chain, each of at least one of the plurality of DCI to be transmitted on one of a plurality of data channels, and wherein each of the plurality of DCI in the scheduling chain schedules another one of the plurality of data channels; and transmitting the plurality of DCI on the plurality of data channels in accordance with the determination to a user-equipment, UE, further comprising receiving a hybrid automatic repeat request, HARQ, indication associated with one of the data channels having a DCI of the plurality of DCI, wherein the determining of the limit is based on the HARQ indication.
An apparatus for administering reduced pressure to a tissue site, the apparatus comprising: a reduced pressure source, the reduced pressure source generating a reduced pressure; and a tube (135, 235, 300, 400, 500, 600, 700, 900, 1035) having a plurality of lumens (270, 272) including at least one collection lumen, the reduced pressure source applying the reduced pressure to the tissue site through the plurality of lumens such that the at least one collection lumen receives fluid from the tissue site, the at least one collection lumen storing the fluid received from the tissue site; characterised by an absorptive material disposed in the at least one collection lumen configured to store fluid; and at least one filter (276, 278) coupled to the tube, wherein the at least one filter is located at one or more locations, and wherein the at least one filter prevents the fluid from passing the one or more locations, wherein the at least one filter is a hydrophobic filter. a reduced pressure source, the reduced pressure source generating a reduced pressure; and a tube (135, 235, 300, 400, 500, 600, 700, 900, 1035) having a plurality of lumens (270, 272) including at least one collection lumen, the reduced pressure source applying the reduced pressure to the tissue site through the plurality of lumens such that the at least one collection lumen receives fluid from the tissue site, the at least one collection lumen storing the fluid received from the tissue site; characterised by an absorptive material disposed in the at least one collection lumen configured to store fluid; and at least one filter (276, 278) coupled to the tube, wherein the at least one filter is located at one or more locations, and wherein the at least one filter prevents the fluid from passing the one or more locations, wherein the at least one filter is a hydrophobic filter.
A method of forming a hydrophobic coating on a substrate, comprising 1) applying an alloy powder to the substrate through a cold spray process, which powder is, at least in part, an amorphous alloy powder; 2) obtaining a coating on the substrate which is, at least in part, amorphous, wherein the parameters of said cold spray process are controlled so that the temperature occurring during said cold spray process does not exceed the crystallization temperature of said alloy; 3) heating the amorphous coating to a temperature between the glass transition and crystallization temperatures of the alloy to form a superplastic forming region in at least a portion of said amorphous coating; and 4) superplastic forming the amorphous coating. 1) applying an alloy powder to the substrate through a cold spray process, which powder is, at least in part, an amorphous alloy powder; 2) obtaining a coating on the substrate which is, at least in part, amorphous, wherein the parameters of said cold spray process are controlled so that the temperature occurring during said cold spray process does not exceed the crystallization temperature of said alloy; 3) heating the amorphous coating to a temperature between the glass transition and crystallization temperatures of the alloy to form a superplastic forming region in at least a portion of said amorphous coating; and 4) superplastic forming the amorphous coating.
A woven textile fabric comprising: - a first electrically conductive layer of interwoven conductive yarns (22,24); - a second electrically conductive layer of interwoven conductive yarns (32,34); - a first intermediate layer of structural yarns comprised between the first and the second electrically conductive layer (20, 30), and - a first plurality of binding yarns interlacing the first and second conductive layers (20,30) and the structural yarns of the intermediate layer, wherein said structural yarns and said binding yarns have piezoelectric properties. - a first electrically conductive layer of interwoven conductive yarns (22,24); - a second electrically conductive layer of interwoven conductive yarns (32,34); - a first intermediate layer of structural yarns comprised between the first and the second electrically conductive layer (20, 30), and - a first plurality of binding yarns interlacing the first and second conductive layers (20,30) and the structural yarns of the intermediate layer, wherein said structural yarns and said binding yarns have piezoelectric properties.
A method for configuring a GPRS Tunneling Protocol, GTP, transmission channel, comprising: acquiring Protocol Data Unit, PDU, session related information through an Xn interface, wherein the Xn interface is used for interaction between a User Plane Centralized Unit, CU-U, responsible for user plane data in a first network element and a Control Plane Centralized Unit, CU-C, responsible for control plane data in the first network element; performing a GTP transmission channel configuration by using the PDU session related information; transmitting first related information of a local GTP transmission channel configuration to a second network element; and receiving second related information of the local GTP transmission channel configuration transmitted by the second network element. acquiring Protocol Data Unit, PDU, session related information through an Xn interface, wherein the Xn interface is used for interaction between a User Plane Centralized Unit, CU-U, responsible for user plane data in a first network element and a Control Plane Centralized Unit, CU-C, responsible for control plane data in the first network element; performing a GTP transmission channel configuration by using the PDU session related information; transmitting first related information of a local GTP transmission channel configuration to a second network element; and receiving second related information of the local GTP transmission channel configuration transmitted by the second network element.
A method of wireless communication of a user equipment, UE, comprising: generating a plurality of demodulation reference signal, DM-RS, sequences, each DM-RS sequence being generated for a corresponding DM-RS symbol of a plurality of DM-RS symbols associated with a sidelink data channel based on a DM-RS symbol number of the corresponding DM-RS symbol; and transmitting the plurality of DM-RS symbols within the sidelink data channel in a subframe using the plurality of DM-RS sequences, wherein the DM-RS symbol number comprises an index of the DM-RS symbol in reference to a frame. generating a plurality of demodulation reference signal, DM-RS, sequences, each DM-RS sequence being generated for a corresponding DM-RS symbol of a plurality of DM-RS symbols associated with a sidelink data channel based on a DM-RS symbol number of the corresponding DM-RS symbol; and transmitting the plurality of DM-RS symbols within the sidelink data channel in a subframe using the plurality of DM-RS sequences, wherein the DM-RS symbol number comprises an index of the DM-RS symbol in reference to a frame.
Modified strain of a species belonging to the kingdom Chromalveolata, in which the activity of CGI-58 protein has been modified in order to permit the accumulation of oil in the strain, advantageously accumulation of triacylglycerol, wherein the strain is a genetically engineered strain in which the expression of the CGI-58 gene is silenced or attenuated.