mhurhangee/ep-ind-claims huggingface dataset:
A blood sugar meter system with a wireless communication module arranged to apply a time synchronization scheme, the blood sugar meter system comprising: a global system for mobile communication / code division multiple access (CDMA) network transmitting network identity and time zone (NITZ) information; a blood sugar meter arranged to meter user's blood sugar data, wherein the blood sugar meter is arranged to synchronize an internal time of the metered data to a network time of a residence area of the user according to the NITZ information transmitted from the GSM/CDMA network; and a server connected to the GSM/CDMA network arranged to receive the metered blood sugar data from the blood sugar meter; and wherein the blood sugar meter comprises: a blood sugar metering unit arranged to meter the user's blood sugar data; and a micro control unit arranged to convert the blood sugar data metered from the blood sugar metering unit into digital data; and the blood sugar meter further comprises: a display unit arranged to display the metered blood sugar data converted by the MCU; and a wireless communication module arranged to synchronize an internal time of the blood sugar data metered by the blood sugar metering unit to a network time according to the NITZ information transmitted from the GSM/CDMA network and to transmit the blood sugar data to a server connected to the GSM/CDMA network; characterised in that the server is arranged to determine the effectiveness of the metered blood sugar data by comparing a time for the blood sugar meter to meter the blood sugar data with a time for transmitting the metered blood sugar data. a global system for mobile communication / code division multiple access (CDMA) network transmitting network identity and time zone (NITZ) information; a blood sugar meter arranged to meter user's blood sugar data, wherein the blood sugar meter is arranged to synchronize an internal time of the metered data to a network time of a residence area of the user according to the NITZ information transmitted from the GSM/CDMA network; and a server connected to the GSM/CDMA network arranged to receive the metered blood sugar data from the blood sugar meter; a blood sugar metering unit arranged to meter the user's blood sugar data; and a micro control unit arranged to convert the blood sugar data metered from the blood sugar metering unit into digital data; a display unit arranged to display the metered blood sugar data converted by the MCU; and a wireless communication module arranged to synchronize an internal time of the blood sugar data metered by the blood sugar metering unit to a network time according to the NITZ information transmitted from the GSM/CDMA network and to transmit the blood sugar data to a server connected to the GSM/CDMA network;
A method of operating a mobile terminal in a wireless communications system, comprising the steps of - estimating channel characteristics from transmissions of a first base station comprising a plurality of data units, using reference symbols carried by some of the plurality of data units arranged in,a first density and distribution, for use in channel assessment by the mobile station, - monitoring the transmissions for impairment in accuracy of channel estimation, - wherein on identifying an impairment, the mobile terminal first determines whether a conflict between signals received from the first base station and signals received from a second base station having the same base station identification code as the first base station is present or not, and - if such a conflict is detected, transmits a report to the first base station to initiate a network channel reallocation process to remove the conflict, - if such a conflict is not detected, reports the impairment to the first base station to initiate a change to a second density and distribution of the reference symbols. - estimating channel characteristics from transmissions of a first base station comprising a plurality of data units, using reference symbols carried by some of the plurality of data units arranged in,a first density and distribution, for use in channel assessment by the mobile station, - monitoring the transmissions for impairment in accuracy of channel estimation, - wherein on identifying an impairment, the mobile terminal first determines whether a conflict between signals received from the first base station and signals received from a second base station having the same base station identification code as the first base station is present or not, and - if such a conflict is detected, transmits a report to the first base station to initiate a network channel reallocation process to remove the conflict, - if such a conflict is not detected, reports the impairment to the first base station to initiate a change to a second density and distribution of the reference symbols. - if such a conflict is detected, transmits a report to the first base station to initiate a network channel reallocation process to remove the conflict, - if such a conflict is not detected, reports the impairment to the first base station to initiate a change to a second density and distribution of the reference symbols.
Sanitary fitting for the filling and emptying of water, comprising: - a drain body which presents two opposing upper and lower openings and which comprises at least one water intake, - a diffuser mounted on the drain body by insertion in the upper opening of the drain body and comprising an open central area and a peripheral area equipped with at least one water outlet to fill the sanitary appliance, - a water inlet passage connecting the water intake of the drain body to the water outlet of the diffuser, - a water outlet passage which is able to drain the water from the sanitary appliance and which connects the central area of the diffuser to the lower opening of the drain body, characterised in that it comprises - a hole connecting the two passages (38, 40) and - a moving part which, depending on its position, is able to block the hole connecting the two passages (38, 40) or open it. - a drain body which presents two opposing upper and lower openings and which comprises at least one water intake, - a diffuser mounted on the drain body by insertion in the upper opening of the drain body and comprising an open central area and a peripheral area equipped with at least one water outlet to fill the sanitary appliance, - a water inlet passage connecting the water intake of the drain body to the water outlet of the diffuser, - a water outlet passage which is able to drain the water from the sanitary appliance and which connects the central area of the diffuser to the lower opening of the drain body, - a hole connecting the two passages (38, 40) and - a moving part which, depending on its position, is able to block the hole connecting the two passages (38, 40) or open it.
A method for producing a processed plastics material from used plastics material originating from domestic waste, packaging waste and/or industrial plastics waste and comprises at least 95 wt.% polypropylene, characterised in that the method comprises the following steps: (a) determining the type and content of the polymer constituents of the used plastics material and determining chemical changes to said constituents by spectroscopic analysis, (b) determining the melt flow rate according to ISO 1133 (230°C; 2.16 kg load), the tensile load according to ISO 527, the flexural modulus according to ISO 178 and/or the impact resistance according to ISO 180/1a of the used plastics material, and (c) processing the used plastics material to change the melt flow rate, the tensile strength, the flexural modulus and/or the impact resistance, wherein (i) the melt flow rate is changed by adding from 0.2 to 0.5 wt.% of an organic peroxide; (ii) the tensile strength and/or the flexural modulus are changed by adding from 2 to 10 wt.% of an inorganic granular material; and (iii) the impact resistance is changed by adding from 5 to 15 wt.% of an elastomer; and wherein, within the scope of the preparation process, 0.1 to 2 wt.% of a stabiliser are added, the stabiliser being a sterically hindered phenol or amine. (a) determining the type and content of the polymer constituents of the used plastics material and determining chemical changes to said constituents by spectroscopic analysis, (b) determining the melt flow rate according to ISO 1133 (230°C; 2.16 kg load), the tensile load according to ISO 527, the flexural modulus according to ISO 178 and/or the impact resistance according to ISO 180/1a of the used plastics material, and (c) processing the used plastics material to change the melt flow rate, the tensile strength, the flexural modulus and/or the impact resistance, wherein (i) the melt flow rate is changed by adding from 0.2 to 0.5 wt.% of an organic peroxide; (ii) the tensile strength and/or the flexural modulus are changed by adding from 2 to 10 wt.% of an inorganic granular material; and (iii) the impact resistance is changed by adding from 5 to 15 wt.% of an elastomer; and wherein, within the scope of the preparation process, 0.1 to 2 wt.% of a stabiliser are added, the stabiliser being a sterically hindered phenol or amine. (i) the melt flow rate is changed by adding from 0.2 to 0.5 wt.% of an organic peroxide; (ii) the tensile strength and/or the flexural modulus are changed by adding from 2 to 10 wt.% of an inorganic granular material; and (iii) the impact resistance is changed by adding from 5 to 15 wt.% of an elastomer; and
A method for achieving a trim amount of a feature on a substrate in a chemical oxide removal process comprising: setting a process recipe for said chemical oxide removal process, wherein said setting said process recipe comprises setting an amount of a first process gas, and setting an amount of a second process gas; adjusting said process recipe for said chemical oxide removal process by setting an amount of an inert gas based on a relationship between a trim amount and an amount of inert gas added to the first and second process gases in order to achieve said trim amount, wherein said relationship comprises, for a plurality of process regimes, a plurality of polynomial curve-fits of either said trim amount data as a function of said amount of inert gas or said amount of inert gas as a function of said trim amount data and wherein the process recipe is optimized by adjusting the order of the polynomial curve-fits; chemically treating said feature on said substrate by exposing said substrate using said process recipe; and substantially removing said trim amount from said feature. setting a process recipe for said chemical oxide removal process, wherein said setting said process recipe comprises setting an amount of a first process gas, and setting an amount of a second process gas; adjusting said process recipe for said chemical oxide removal process by setting an amount of an inert gas based on a relationship between a trim amount and an amount of inert gas added to the first and second process gases in order to achieve said trim amount, wherein said relationship comprises, for a plurality of process regimes, a plurality of polynomial curve-fits of either said trim amount data as a function of said amount of inert gas or said amount of inert gas as a function of said trim amount data and wherein the process recipe is optimized by adjusting the order of the polynomial curve-fits; chemically treating said feature on said substrate by exposing said substrate using said process recipe; and substantially removing said trim amount from said feature.
An internal combustion engine control apparatus comprising: heat release amount information acquisition means (40, 104) for acquiring heat release amount information (PV k) about an internal combustion engine; relationship information acquisition means (40, 106) for acquiring relationship information (Equation 3), which is derived from a first relationship information (Equation 1) and a second relationship information (Equation 2), and which is information about in-cylinder pressure (Pe) at at least one crank angle (θ) other than a combustion start time (θ0) and a combustion end time (θf), and the first relationship information (Equation 1) indicates in-cylinder combustion ratio information about the internal combustion engine in accordance with the heat release amount information (P θ0 V θ0 K) at the combustion start time (θ0), the heat release amount information (P θf V θf K) at the combustion end time (θf), and the heat release amount information (P θ V θ K) at said at least one crank angle (θ), and the second relationship information (Equation 2) indicates the in-cylinder combustion ratio information in accordance with a Wiebe function including the combustion start time (θ0), the combustion end time (θf), and a combustion speed (a) as a parameter; and pressure estimation means (40, 106) for estimating the in-cylinder pressure (P θ) in accordance with the relationship information (Equation 3). heat release amount information acquisition means (40, 104) for acquiring heat release amount information (PV k) about an internal combustion engine; relationship information acquisition means (40, 106) for acquiring relationship information (Equation 3), which is derived from a first relationship information (Equation 1) and a second relationship information (Equation 2), and which is information about in-cylinder pressure (Pe) at at least one crank angle (θ) other than a combustion start time (θ0) and a combustion end time (θf), and the first relationship information (Equation 1) indicates in-cylinder combustion ratio information about the internal combustion engine in accordance with the heat release amount information (P θ0 V θ0 K) at the combustion start time (θ0), the heat release amount information (P θf V θf K) at the combustion end time (θf), and the heat release amount information (P θ V θ K) at said at least one crank angle (θ), and the second relationship information (Equation 2) indicates the in-cylinder combustion ratio information in accordance with a Wiebe function including the combustion start time (θ0), the combustion end time (θf), and a combustion speed (a) as a parameter; and pressure estimation means (40, 106) for estimating the in-cylinder pressure (P θ) in accordance with the relationship information (Equation 3).
Compressor for a supercharging device of an internal combustion engine, having - a compressor wheel which is arranged rotationally conjointly on a rotor shaft; and - an air supply channel for conducting an air mass flow to the compressor wheel, - an iris diaphragm mechanism which is arranged upstream of the compressor wheel and which has multiple lamellae and which is configured for closing or opening a diaphragm aperture, so that variable setting of a flow cross section for the air mass flow for incident flow on the compressor wheel is possible; - a housing which at least partially delimits the air supply channel and in which the iris diaphragm mechanism is arranged and mounted; and - an actuator which, via an opening in the housing, is coupled mechanically to the iris diaphragm mechanism for the purpose of actuating the latter, characterized in that the actuator is arranged on the housing in such a way that the opening is closed off in a sealed manner by means of the actuator, wherein provision is made of a sealing material which surrounds the opening and which is arranged between the actuator and the housing, wherein the housing or the actuator has a groove which surrounds the opening and in which the sealing material is arranged. - a compressor wheel which is arranged rotationally conjointly on a rotor shaft; and - an air supply channel for conducting an air mass flow to the compressor wheel, - an iris diaphragm mechanism which is arranged upstream of the compressor wheel and which has multiple lamellae and which is configured for closing or opening a diaphragm aperture, so that variable setting of a flow cross section for the air mass flow for incident flow on the compressor wheel is possible; - a housing which at least partially delimits the air supply channel and in which the iris diaphragm mechanism is arranged and mounted; and - an actuator which, via an opening in the housing, is coupled mechanically to the iris diaphragm mechanism for the purpose of actuating the latter,
A method of detecting aneuploidy or sex in a fetus, the method comprising: (a) mapping segments of DNA extracted from the blood of an individual carrying the fetus to at least a chromosome of interest in a genome; (b) partitioning the mapped segments over a range of partition levels on the basis of a chosen source of experimental variability, and partitioning substrings of the genome over the range of partition levels and on the basis of the chosen source of experimental variability, wherein the chosen source of experimental variability biases the methods used for mapping the segments; (c) calculating an expected number of segments mapped to the chromosome of interest, wherein calculating the expected number of segments uses the following in each of the partition levels: (i) the number of the partitioned segments mapped to the genome, (ii) the number of the partitioned substrings in the chromosome of interest, and (iii) the number of the partitioned substrings in the genome, and wherein the expected number of segments is based on an assumption about chromosome type and copy number; and (d) detecting aneuploidy or sex in the fetus by comparing an actual number of segments mapped to the chromosome of interest against the expected number of segments mapped to the chromosome of interest. (a) mapping segments of DNA extracted from the blood of an individual carrying the fetus to at least a chromosome of interest in a genome; (b) partitioning the mapped segments over a range of partition levels on the basis of a chosen source of experimental variability, and partitioning substrings of the genome over the range of partition levels and on the basis of the chosen source of experimental variability, wherein the chosen source of experimental variability biases the methods used for mapping the segments; (c) calculating an expected number of segments mapped to the chromosome of interest, wherein calculating the expected number of segments uses the following in each of the partition levels: (i) the number of the partitioned segments mapped to the genome, (ii) the number of the partitioned substrings in the chromosome of interest, and (iii) the number of the partitioned substrings in the genome, and wherein the expected number of segments is based on an assumption about chromosome type and copy number; and (d) detecting aneuploidy or sex in the fetus by comparing an actual number of segments mapped to the chromosome of interest against the expected number of segments mapped to the chromosome of interest.
A touch sensing panel, comprising: a sensing pattern layer at least comprising a plurality of first sensing pads arranged along an axis; and a plurality of bridging wires electrically connecting the first sensing pads, wherein each bridging wire has a top surface (Ti) with low reflectivity, and wherein each bridging wire is of a single-layer structure; characterised in that the material of the plurality of bridging wires is nickel or a nickel alloy, a metal nitride or oxide, wherein the metal is one of nickel, tungsten or one of their alloys. a sensing pattern layer at least comprising a plurality of first sensing pads arranged along an axis; and a plurality of bridging wires electrically connecting the first sensing pads, wherein each bridging wire has a top surface (Ti) with low reflectivity, and wherein each bridging wire is of a single-layer structure; characterised in that the material of the plurality of bridging wires is nickel or a nickel alloy, a metal nitride or oxide, wherein the metal is one of nickel, tungsten or one of their alloys.
A method for providing information in an information processing system, the method comprising: acquiring (S201, S202, S203), via a network, biogas information at multiple timings and time information corresponding to each of the multiple timings, wherein the biogas information represents a concentration of a biogas acquired by a sensor and discharged from a skin surface of the user; determining a stress time period; and outputting time period information indicating the determined stress time period to an information terminal of the user, to display the stress time period indicated by the time period information on a display of the information terminal; characterized in that the biogas information represents a concentration of benzothiazole of a user acquired by the sensor that detects benzothiazole discharged from a skin surface of the user, by obtaining (S105, S106) reference information representing an upper limit of a normal range of the concentration of benzothiazole, using a memory storing the reference information representing the upper limit of the normal range, and in that the determining of the stress time period determines the stress time period during which the concentration of the benzothiazole of the user is more than the upper limit of the normal range, based on the acquired biogas information. acquiring (S201, S202, S203), via a network, biogas information at multiple timings and time information corresponding to each of the multiple timings, wherein the biogas information represents a concentration of a biogas acquired by a sensor and discharged from a skin surface of the user; determining a stress time period; and outputting time period information indicating the determined stress time period to an information terminal of the user, to display the stress time period indicated by the time period information on a display of the information terminal; characterized in that the biogas information represents a concentration of benzothiazole of a user acquired by the sensor that detects benzothiazole discharged from a skin surface of the user, by obtaining (S105, S106) reference information representing an upper limit of a normal range of the concentration of benzothiazole, using a memory storing the reference information representing the upper limit of the normal range, and in that the determining of the stress time period determines the stress time period during which the concentration of the benzothiazole of the user is more than the upper limit of the normal range, based on the acquired biogas information.