mhurhangee/ep-ind-claims huggingface dataset:
A patch antenna module, comprising: a printed circuit board; a dielectric disposed on an upper surface of the printed circuit board; an upper patch formed on an upper surface of the dielectric and configured to receive a signal for position information in a first frequency; a lower patch formed on a lower surface of the dielectric to be interposed between the printed circuit board and the dielectric; a feed pin comprising a head mounted on the upper patch, and a main body configured to penetrate the dielectric, the upper patch, and the lower patch; and a spacer interposed between the lower patch and the printed circuit board, wherein the length of the feed pin is a length of the main body, and wherein the feed pin is configured as an antenna to transmit and receive a signal for vehicle communication in a second frequency so that the length of the feed pin is configured to adjust a resonance for the second frequency of the communication band for vehicle communication. a printed circuit board; a dielectric disposed on an upper surface of the printed circuit board; an upper patch formed on an upper surface of the dielectric and configured to receive a signal for position information in a first frequency; a lower patch formed on a lower surface of the dielectric to be interposed between the printed circuit board and the dielectric; a feed pin comprising a head mounted on the upper patch, and a main body configured to penetrate the dielectric, the upper patch, and the lower patch; and a spacer interposed between the lower patch and the printed circuit board, wherein the length of the feed pin is a length of the main body, and wherein the feed pin is configured as an antenna to transmit and receive a signal for vehicle communication in a second frequency so that the length of the feed pin is configured to adjust a resonance for the second frequency of the communication band for vehicle communication.
An extendable wireless soil measurement apparatus, comprising: a top head (201, 501), disposable above a soil surface for transmitting data to a data station through a wireless means; and a plurality of sensors (202, 502), disposable under soil for sensing soil conditions, generating soil data representing the sensed soil conditions, and transmitting generated soil conditions to the top head (201, 501), the plurality of sensors (202, 502) able to be assembled into a pole; wherein each of the plurality of sensors (202, 502) further comprising: a sensor unit (304, 404) for sensing a soil condition and generating soil data representing the sensed soil condition; a circuit module (303, 403) connected to the sensor unit (304, 404) for transmitting generated soil data to the top head (201, 501); a sensor housing (301, 401) for housing the sensor unit (304, 404) and the circuit module (303, 403); and an engaging element (302, 402) for engaging two sensors (202, 502) in a head-to-tail manner for form a pole. a top head (201, 501), disposable above a soil surface for transmitting data to a data station through a wireless means; and a plurality of sensors (202, 502), disposable under soil for sensing soil conditions, generating soil data representing the sensed soil conditions, and transmitting generated soil conditions to the top head (201, 501), the plurality of sensors (202, 502) able to be assembled into a pole; wherein each of the plurality of sensors (202, 502) further comprising: a sensor unit (304, 404) for sensing a soil condition and generating soil data representing the sensed soil condition; a circuit module (303, 403) connected to the sensor unit (304, 404) for transmitting generated soil data to the top head (201, 501); a sensor housing (301, 401) for housing the sensor unit (304, 404) and the circuit module (303, 403); and an engaging element (302, 402) for engaging two sensors (202, 502) in a head-to-tail manner for form a pole. a sensor unit (304, 404) for sensing a soil condition and generating soil data representing the sensed soil condition; a circuit module (303, 403) connected to the sensor unit (304, 404) for transmitting generated soil data to the top head (201, 501); a sensor housing (301, 401) for housing the sensor unit (304, 404) and the circuit module (303, 403); and an engaging element (302, 402) for engaging two sensors (202, 502) in a head-to-tail manner for form a pole.
A Computer Telecommunication Integration, CTI, device, characterized in that the CTI device is located within one call center, and the call center is based on a Next Generation Network, NGN, the CTI device comprises a CTI management module, one or more CTI units and an agent caching pool shared by said CTI units, wherein said CTI management module is configured to: implement configuration and register of said CTI units, wherein said CTI management module is configured to configure a new CTI unit and complete the register of the configured new CTI unit to implement capacity expansion of the CTI device, without stopping operations of existing CTI units and agents; and said CTI management module is further configured to: monitor states of said CTI units; receive a routing request of a call control module, and select one CTI unit which works normally, and send said routing request to said CTI unit; and return a selection result returned by said CTI unit to said call control module; said CTI unit is configured to: register and report states to said CTI management module, and manage one or more agents which are subordinate to this CTI unit, and cache identifiers of said agents, states of said agents, and information of the CTI unit to which said agents are subordinate into said agent caching pool, and update the states of said agents; and according to the routing request of said CTI management module, inquire, from all the idle agents of all the CTI units that are cached in said agent caching pool, whether an idle agent which is able to provide services exists, and if existing, return a selection result including the identifier of a selected agent and an identifier of the CTI unit to which the selected agent is subordinate to said CTI management module, and modify an agent state of the selected agent in the agent caching pool to a routing selected state; and said agent caching pool is configured to: cache the identifiers of said agents, the states of said agents, and the information of the CTI units to which said agents are subordinate.
A method for identifying a counterfeit bill in a mobile device, the method comprising the steps of: receiving, by the mobile device, an InfraRed, IR, image of a bill; extracting feature values that represent edges from the IR image; generating a binary image having displayed pixels and non-displayed pixels based on the feature values; generating a corrected image by adjusting the binary image to match a predetermined area of the binary image to a predetermined area of a real bill database, wherein the bill database is an image of the bill; counting a number of displayed pixels in the corrected image; and determining whether the bill is counterfeit based on the number of displayed pixels in the corrected image. receiving, by the mobile device, an InfraRed, IR, image of a bill; extracting feature values that represent edges from the IR image; generating a binary image having displayed pixels and non-displayed pixels based on the feature values; generating a corrected image by adjusting the binary image to match a predetermined area of the binary image to a predetermined area of a real bill database, wherein the bill database is an image of the bill; counting a number of displayed pixels in the corrected image; and determining whether the bill is counterfeit based on the number of displayed pixels in the corrected image.
An electronic device comprising: a system level error correction circuit; a memory device including: one or more memory arrays configured to store data associated with a first page, wherein the data associated with the first page is organized in a first set of error correction code words; and one or more input/output pads for each ECC word of the first set of ECC words associated with the first page, wherein the one or more input/output pads are configured to communicate the data associated with the first page to the system level error correction circuit, wherein the memory device further includes one or more error correction circuits for each ECC word of the first set of ECC words. a system level error correction circuit; a memory device including: one or more memory arrays configured to store data associated with a first page, wherein the data associated with the first page is organized in a first set of error correction code words; and one or more input/output pads for each ECC word of the first set of ECC words associated with the first page, wherein the one or more input/output pads are configured to communicate the data associated with the first page to the system level error correction circuit, wherein the memory device further includes one or more error correction circuits for each ECC word of the first set of ECC words. one or more memory arrays configured to store data associated with a first page, wherein the data associated with the first page is organized in a first set of error correction code words; and one or more input/output pads for each ECC word of the first set of ECC words associated with the first page, wherein the one or more input/output pads are configured to communicate the data associated with the first page to the system level error correction circuit, wherein the memory device further includes one or more error correction circuits for each ECC word of the first set of ECC words.
A heat exchanger which exchanges heat between a first fluid and a second fluid, comprising a heat exchanger main body which is housed inside a case where the first fluid flows and which houses the second fluid therein, wherein the heat exchanger main body is composed of a stack of a plurality of heat exchanger pieces, each of the heat exchanger pieces is composed of a pair of a lower plate member and an upper plate member, the lower plate member forms a lower part of the heat exchanger piece, wherein a plurality of first ridges bulging upward and a plurality of second ridges bulging downward are formed in a bottom part of the lower plate member, the upper plate member forms an upper part of the heat exchanger piece, wherein a plurality of third ridges bulging downward and a plurality of fourth ridges bulging upward are formed in a ceiling part of the upper plate member, the first ridges, the second ridges, the third ridges, and the fourth ridges extend parallel to an axial direction of a central axis of the case, the first ridges and the third ridges, in the lower plate members and the upper plate members adjacent to each other in the stacking direction, form a plurality of first passages that are disposed such that the first fluid flows across the inside of the heat exchanger main body, the second ridges and the fourth ridges, in the lower plate members and the upper plate members adjacent to each other in the stacking direction, form a plurality of second passages that are disposed such that the second fluid flows therethrough, in a side view from one direction, the plurality of first passages form a shape which is left-right symmetric about the central axis of the case and of which the upstream side protrudes farther in the upstream direction toward the center, and the plurality of first passages extend substantially parallel to the central axis of the case, and are formed to be longer as they are disposed closer to the center of the heat exchanger main body, and ends of the first ridges, the second ridges, the third ridges, and the fourth ridges on the upstream side are all tapered such that the passage width both of the first passages and the second passages on the upstream side increase toward the upstream side.
A hair colouring composition comprising: i) at least one source of peroxymonocarbonate ions, ii) at least one source of alkalizing agent, wherein the source of alkalizing agent is ammonium chloride, ammonium sulphate, ammonium nitrate, ammonium phosphate, ammonium acetate, ammonium carbonate, ammonium hydrogen carbonate, ammonium carbamate, ammonium hydroxide, ammonia or mixtures thereof; iii) at least one source of radical scavenger, wherein said radical scavenger is glycine or arginine and potassium, sodium and ammonium salts thereof; wherein said source of peroxymonocarbonate ions comprises at least one source of hydrogen peroxide and at least one source of carbonate, carbamate, and or hydrocarbonate ions and mixtures thereof; wherein said composition comprises: i) from 1% to 7% by weight of hydrogen peroxide; ii) from 0.5 to 5% by weight of said source of alkalizing agent; iii) from 1% to 8% by weight of said at least one source of carbonate, carbamate, and or hydrocarbonate ions; iv) from 1% to 7% by weight of said radical scavenger; and, and wherein said composition has a pH of up to and including 9.5. i) at least one source of peroxymonocarbonate ions, ii) at least one source of alkalizing agent, wherein the source of alkalizing agent is ammonium chloride, ammonium sulphate, ammonium nitrate, ammonium phosphate, ammonium acetate, ammonium carbonate, ammonium hydrogen carbonate, ammonium carbamate, ammonium hydroxide, ammonia or mixtures thereof; iii) at least one source of radical scavenger, wherein said radical scavenger is glycine or arginine and potassium, sodium and ammonium salts thereof; i) from 1% to 7% by weight of hydrogen peroxide; ii) from 0.5 to 5% by weight of said source of alkalizing agent; iii) from 1% to 8% by weight of said at least one source of carbonate, carbamate, and or hydrocarbonate ions; iv) from 1% to 7% by weight of said radical scavenger; and,
A stroller, comprising a first wheel assembly, a second wheel assembly, and a handle bar assembly; each one of these assemblies being configured for connection to respective ones of individual first, second and third rotatable elements (231, 251, 21) of a folding mechanism; the rotatable elements being rotatably supported by a common axle; and wherein a leverage element is rotatably supported by a leverage axle which is supported by the third rotatable element and arranged in a parallel relationship with the common axle; the leverage element further comprising an axle slot for accommodating movement the common axle; characterized in that the leverage element further comprises two pins (382, 383) where the first pin is rotatably supported by the first rotatable element in a receptacle arranged at a first distance (d 1) from the common axle, and the second pin being rotatably supported by the second rotatable element in a second receptacle at a second distance (d 2) from the common axle.
A network element comprising: - a transceiver for receiving data from a data transfer network and for transmitting data to the data transfer network, - a processing system for controlling the network element and for running one or more communication protocols, and characterised in that it further comprises - an electrical device (100, 200) that comprises a magnetic sensor circuitry for detecting magnetic field and for generating a detection signal in response to the detected magnetic field, and a control circuitry configured to receive the detection signal from the magnetic sensor circuitry and to control operation of the network element in accordance with the detection signal, wherein the magnetic sensor circuitry is configured to detect a direction related to a deviation of the magnetic field from the magnetic field of the earth, and the control circuitry is configured to control the operation of the network element in accordance with the detected direction related to the deviation of the magnetic field from the magnetic field of the earth so that there are at least two different detectable directions related to the deviation of the magnetic field from the magnetic field of the earth to control the network element in at least two different operational modes. - a transceiver for receiving data from a data transfer network and for transmitting data to the data transfer network, - a processing system for controlling the network element and for running one or more communication protocols, and characterised in that it further comprises - an electrical device (100, 200) that comprises a magnetic sensor circuitry for detecting magnetic field and for generating a detection signal in response to the detected magnetic field, and a control circuitry configured to receive the detection signal from the magnetic sensor circuitry and to control operation of the network element in accordance with the detection signal,
A process of making a metal chalcogenide alloy film on a substrate comprising: contacting the substrate with a silyl-chalcogen selected from the group consisting of silyltelluriums and silylseleniums; contacting the substrate with a germanium compound having a general formula selected from the group consisting of Ge 2, Ge(NR 2) 2 and combinations thereof; wherein each R is independently selected from the group consisiting of an alkyl group having 1 to 10 carbons in linear, branched or cyclic form, or an aromatic group; and a functionalized alkyl group with the general structure of: R 5 NR 6 R 7; R 5 OR 6; or R 5 SR 6; wherein R 5 is an alkylene group having 2 to 6 carbons in linear, branched or cyclic form, or an aromatic group; and R 6-7 are each independently selected from the group consisting of hydrogen, alkyl groups having 1 to 6 carbons in linear, branched or cyclic form, and aromatic groups; and contacting the substrate with a metal compound having a general formula of: MX n; wherein: M is selected from the group consisting of Sb, In, Sn, Ga, Bi, Ag, Cu, Zr, Hf, Hg, Cd, Zn and noble metals; X is a nucleophilic group selected from the group consisting of OR(alkoxy), F(fluorine), Cl (chlorine), Br (bromine), NR 2 (amino), CN (cyano), OCN (cyanate), SCN (thiocyanate), diketonate, carboxylic groups and mixtures thereof; and n=1 to 5; wherein when n >1, each X is individually selected from selected from the group consisting of OR(alkoxy), F(fluorine), Cl (chlorine), Br (bromine), NR 2 (amino), CN (cyano), OCN (cyanate), SCN (thiocyanate), diketonate, and carboxylic groups. contacting the substrate with a silyl-chalcogen selected from the group consisting of silyltelluriums and silylseleniums; contacting the substrate with a germanium compound having a general formula selected from the group consisting of Ge 2, Ge(NR 2) 2 and combinations thereof; wherein each R is independently selected from the group consisiting of an alkyl group having 1 to 10 carbons in linear, branched or cyclic form, or an aromatic group; and a functionalized alkyl group with the general structure of: R 5 NR 6 R 7; R 5 OR 6; or R 5 SR 6; wherein R 5 is an alkylene group having 2 to 6 carbons in linear, branched or cyclic form, or an aromatic group; and R 6-7 are each independently selected from the group consisting of hydrogen, alkyl groups having 1 to 6 carbons in linear, branched or cyclic form, and aromatic groups; wherein: M is selected from the group consisting of Sb, In, Sn, Ga, Bi, Ag, Cu, Zr, Hf, Hg, Cd, Zn and noble metals; X is a nucleophilic group selected from the group consisting of OR(alkoxy), F(fluorine), Cl (chlorine), Br (bromine), NR 2 (amino), CN (cyano), OCN (cyanate), SCN (thiocyanate), diketonate, carboxylic groups and mixtures thereof; and n=1 to 5; wherein when n >1, each X is individually selected from selected from the group consisting of OR(alkoxy), F(fluorine), Cl (chlorine), Br (bromine), NR 2 (amino), CN (cyano), OCN (cyanate), SCN (thiocyanate), diketonate, and carboxylic groups.
A method for forming a conformal fluid circulating passage in a part-producing mold, comprising: creating a series of open channels in a molding surface of a mold of interest, the depth of said channels substantially conforming to the contour of said molding surface; placing a bridging weld within each channel, said bridging weld comprising a series of connected weld beads, said bridging weld spanning and sealing each channel and located in each channel at some distance from a bottom of each channel so as to form an enclosed passage at the bottom thereof; filling a remaining volume of each channel above said bridging weld by a plurality of weld beads to close each channel, said plurality of weld beads located at an open end of each channel; and shaping a filled portion of each channel which comprises the plurality of weld beads to conform to said molding surface surrounding that channel. creating a series of open channels in a molding surface of a mold of interest, the depth of said channels substantially conforming to the contour of said molding surface; placing a bridging weld within each channel, said bridging weld comprising a series of connected weld beads, said bridging weld spanning and sealing each channel and located in each channel at some distance from a bottom of each channel so as to form an enclosed passage at the bottom thereof; filling a remaining volume of each channel above said bridging weld by a plurality of weld beads to close each channel, said plurality of weld beads located at an open end of each channel; and shaping a filled portion of each channel which comprises the plurality of weld beads to conform to said molding surface surrounding that channel.
A double-acting hydraulic cylinder for steering or self-centring axles which comprises a cylindrical jacket provided with a first axial portion in which at least a piston slides axially, the piston being fixed to a command rod able to project axially out of the cylindrical jacket, and a second axial portion, in which a centring pad of the piston slides axially, in which the first axial portion and the second axial portion are axially separated by an abutting element able to define an abutting surface for the centring pad, wherein the abutting element comprises a cylindrical body which exhibits an external diameter which is smaller than an internal diameter of the cylindrical jacket and an internal diameter that is smaller than an external diameter of at least an abutting surface of the centring pad and which is inserted internally of the cylindrical jacket, so that a free end thereof defines an abutment for the abutting surface of the centring pad characterised in that an annular chamber is defined between the cylindrical body and the cylindrical jacket, which annular chamber communicates with the internal volume of the cylindrical body via at least a radial through-opening realized in the cylindrical body.