mhurhangee/ep-ind-claims huggingface dataset:
A tape-shaped prepreg comprising unidirectionally oriented reinforcing fibers and a thermoplastic resin composition, having a warpage rate of 5% or less as determined by the procedure specified in (i) to (iii) below, and (a) having an arithmetic average roughness (Ra) of 0.1 to 10 μm in a direction perpendicular to the orientation direction of the reinforcing fibers, as measured according to JIS B 0601: 2013, and / or (b) giving a waviness curve having a maximum cross-sectional height (Wt) of 80 μm or less in a direction perpendicular to the orientation direction of the reinforcing fibers, as measured according to JIS B 0601: 2013: (i) place a test piece of the above tape-shaped prepreg having a length of 100 mm in the fiber orientation direction on a plane in such manner that the end portions curl upward, (ii) measure the vertical distance from the highest position at the right end of the curled tape to the plane, which is denoted by a, and the vertical distance from the highest position at the left end to the plane, which is denoted by b, and calculate the arithmetic average of a and b, which is defined as the warpage distance, and (iii) calculate the warpage rate by the following equation: warpage rate % = warpage distance mm / 100 mm × 100. (a) having an arithmetic average roughness (Ra) of 0.1 to 10 μm in a direction perpendicular to the orientation direction of the reinforcing fibers, as measured according to JIS B 0601: 2013, and / or (b) giving a waviness curve having a maximum cross-sectional height (Wt) of 80 μm or less in a direction perpendicular to the orientation direction of the reinforcing fibers, as measured according to JIS B 0601: 2013: (i) place a test piece of the above tape-shaped prepreg having a length of 100 mm in the fiber orientation direction on a plane in such manner that the end portions curl upward, (ii) measure the vertical distance from the highest position at the right end of the curled tape to the plane, which is denoted by a, and the vertical distance from the highest position at the left end to the plane, which is denoted by b, and calculate the arithmetic average of a and b, which is defined as the warpage distance, and (iii) calculate the warpage rate by the following equation: warpage rate % = warpage distance mm / 100 mm × 100. (i) place a test piece of the above tape-shaped prepreg having a length of 100 mm in the fiber orientation direction on a plane in such manner that the end portions curl upward, (ii) measure the vertical distance from the highest position at the right end of the curled tape to the plane, which is denoted by a, and the vertical distance from the highest position at the left end to the plane, which is denoted by b, and calculate the arithmetic average of a and b, which is defined as the warpage distance, and (iii) calculate the warpage rate by the following equation: warpage rate % = warpage distance mm / 100 mm × 100.
A method for upgrading a computer telecommunication integration equipment, comprising: a master computer telecommunication integration equipment and a slave CTI equipment registering respectively to an automatic call distributor; when the master CTI equipment is upgraded, one or more agents which are in an idle state logging out from the master CTI equipment, and logging in the slave CTI equipment which has been upgraded; and one or more agent which are in a non-idle state keeping connected with the master CTI equipment, logging out from the master CTI equipment after changing to the idle state, and logging in the slave CTI equipment which has been upgraded. a master computer telecommunication integration equipment and a slave CTI equipment registering respectively to an automatic call distributor; when the master CTI equipment is upgraded, one or more agents which are in an idle state logging out from the master CTI equipment, and logging in the slave CTI equipment which has been upgraded; and one or more agent which are in a non-idle state keeping connected with the master CTI equipment, logging out from the master CTI equipment after changing to the idle state, and logging in the slave CTI equipment which has been upgraded.
An integrated security event management system (ISEMS), based on service-oriented architecture, comprising one or more computers connected to one or more service-providing devices that transmit state information notifications, the one or more computers comprising one or more modules adapted to perform: a) tasks to dynamically discover the service-providing devices and their services within a transit security domain in about real-time, wherein the service-oriented architecture allows for a uniform means of discovery; b) tasks to acquire asynchronous state information notifications in about real-time from the discovered services, wherein the service-oriented architecture allows for a uniform means of sending and receiving the notifications; c) tasks to determine one or more Boolean outcomes from the asynchronous state information in about real-time via a configurable rules engine, wherein the configurable rules engine is based on at least one of a Boolean, mathematical, statistical or combinational logic; and d) tasks to evaluate the one or more Boolean outcomes in about real-time via a configurable policy engine to determine state changes of one or more security policies, wherein a security policy state change indicates a security event, and wherein the policy engine associates rules with the one or more security policy states and defines actions to be followed when a security policy state change occurs. a) tasks to dynamically discover the service-providing devices and their services within a transit security domain in about real-time, wherein the service-oriented architecture allows for a uniform means of discovery; b) tasks to acquire asynchronous state information notifications in about real-time from the discovered services, wherein the service-oriented architecture allows for a uniform means of sending and receiving the notifications; c) tasks to determine one or more Boolean outcomes from the asynchronous state information in about real-time via a configurable rules engine, wherein the configurable rules engine is based on at least one of a Boolean, mathematical, statistical or combinational logic; and d) tasks to evaluate the one or more Boolean outcomes in about real-time via a configurable policy engine to determine state changes of one or more security policies, wherein a security policy state change indicates a security event, and wherein the policy engine associates rules with the one or more security policy states and defines actions to be followed when a security policy state change occurs.
An electronic analyte sensor for sensing an analyte in sweat comprising at least one porous electrode providing an electrical response to the presence of an analyte, the at least one porous electrode comprising at least two porous substrates (310, 312, 550, 552, 554, 556) each having an electrically conductive surface, said porous substrates having a generally planar surface, wherein the analyte flow path is perpendicular to said planar surface and through at least one of said porous substrates (310, 312, 550, 552, 554, 556), characterized in that the sensor includes a porous spacer layer (315, 560) defining a gap between said porous substrates (310, 312, 550, 552, 554, 556), and in that at least one of said conductive surfaces provides the electrical response to the presence of said analyte in the analyte flow.
A method of monitoring a process, including a back-step method, of producing hot rolled pipes of steel, in which the type and shape of structures produced by a rolling process on an outer surface of a pipe are analysed for an evaluation of the process condition, characterised in that directly following the rolling process in the outlet region of a rolling stand the outer surface of at least one defined section of the pipe is metrologically mapped line by line and in synchronism in the form of profile lines by means of an optical light section method, the profile lines are then compiled to form an at least two-dimensional topography and the topography is analysed to make an evaluation of the process condition.
A method for detecting a stray electric arc in a photovoltaic installation including at least one photovoltaic module and an electromechanical unit liable to generate a non-stray electric arc of a duration less than or equal to a given arc-quenching duration, upon opening of contacts of said unit, characterized in that it comprises the following steps: - Detecting the appearance of an electric arc in the photovoltaic installation; - Triggering a timer starting from an instant of appearance of the electric arc; - After expiry of the arc-quenching duration starting from the instant of appearance of the arc, measuring at least one of the electrical values from the group including a voltage (V m) of said at least one photovoltaic module and a current produced by the installation; - A comparison test (E4; E5) in order to determine whether the measured electrical value is equal to an open circuit voltage (Voc) of the photovoltaic module or to a zero current; - If the test is negative, identifying a stray electric arc. - Detecting the appearance of an electric arc in the photovoltaic installation; - Triggering a timer starting from an instant of appearance of the electric arc; - After expiry of the arc-quenching duration starting from the instant of appearance of the arc, measuring at least one of the electrical values from the group including a voltage (V m) of said at least one photovoltaic module and a current produced by the installation; - A comparison test (E4; E5) in order to determine whether the measured electrical value is equal to an open circuit voltage (Voc) of the photovoltaic module or to a zero current; - If the test is negative, identifying a stray electric arc.
A sensing device for determining a freshness status of a food item, the food item being placed within a receptacle of a storage container, wherein the sensing device comprises - a gas sensor configured to capture sensor data regarding gas comprised within the receptacle; - a user interface configured to allow a user to indicate a type of the food item placed within the receptacle; and - a control unit configured to enable determination of the freshness status of the food item based on the sensor data provided by the gas sensor and based on the indication of the type of the food item provided by the user interface; - wherein the user interface is provided directly at the sensing device and the sensing device is designed as an independent device, which is configured to be operated in a stand-alone manner; characterized in that - the sensing device comprises a first module comprising the gas sensor and a second module comprising the control unit and the user interface; - the user interface comprises a rotatable wheel configured to be turned by the user to a plurality of different type segments for selecting one of a corresponding plurality of different food item types; - the control unit is configured to determine the indication of the type of the food item based on the type segment that the rotatable wheel has been turned to; and - the first module and the second module are coupled with one another via a flexible strap, which is configured to be placed over a rim of the receptacle such that the first module is placed inside the receptacle and the second module is placed outside the receptacle. - a gas sensor configured to capture sensor data regarding gas comprised within the receptacle; - a user interface configured to allow a user to indicate a type of the food item placed within the receptacle; and - a control unit configured to enable determination of the freshness status of the food item based on the sensor data provided by the gas sensor and based on the indication of the type of the food item provided by the user interface; - wherein the user interface is provided directly at the sensing device and the sensing device is designed as an independent device, which is configured to be operated in a stand-alone manner; - the sensing device comprises a first module comprising the gas sensor and a second module comprising the control unit and the user interface; - the user interface comprises a rotatable wheel configured to be turned by the user to a plurality of different type segments for selecting one of a corresponding plurality of different food item types; - the control unit is configured to determine the indication of the type of the food item based on the type segment that the rotatable wheel has been turned to; and - the first module and the second module are coupled with one another via a flexible strap, which is configured to be placed over a rim of the receptacle such that the first module is placed inside the receptacle and the second module is placed outside the receptacle.
Method of MR imaging of an object placed in the examination volume of a MR device, the method comprising the steps of: - subjecting the object to an imaging sequence of RF pulses and switched magnetic field gradients (GS, GP, GM), which imaging sequence is a steady state sequence comprising a plurality of repeatedly applied acquisition blocks, wherein each acquisition block comprises two units (22, 23) in immediate succession, namely: i) a first unit starting with an excitation RF pulse radiated toward the object, with the duration of the first unit being an integer multiple of a given time interval T, and ii) a second unit starting with a refocusing RF pulse radiated toward the object and comprising a readout magnetic field gradient and a phase encoding magnetic field gradient, with the duration of the second unit being an integer multiple of the time interval T, - acquiring one or more phase-encoded spin echo signals (31, 32) in a sequence of the acquisition blocks being repeatedly applied, such that at least one spin echo signal is acquired in any of the first or second unit at an integer number of the time interval T after the refocusing pulse and an integer number of the time interval T before either the end of said first or second unit or next spin echo signal acquired in said first or second unit, respectively, and - reconstructing one or more MR images from the acquired spin echo signals (31,32). - subjecting the object to an imaging sequence of RF pulses and switched magnetic field gradients (GS, GP, GM), which imaging sequence is a steady state sequence comprising a plurality of repeatedly applied acquisition blocks, wherein each acquisition block comprises two units (22, 23) in immediate succession, namely: i) a first unit starting with an excitation RF pulse radiated toward the object, with the duration of the first unit being an integer multiple of a given time interval T, and ii) a second unit starting with a refocusing RF pulse radiated toward the object and comprising a readout magnetic field gradient and a phase encoding magnetic field gradient, with the duration of the second unit being an integer multiple of the time interval T, i) a first unit starting with an excitation RF pulse radiated toward the object, with the duration of the first unit being an integer multiple of a given time interval T, and ii) a second unit starting with a refocusing RF pulse radiated toward the object and comprising a readout magnetic field gradient and a phase encoding magnetic field gradient, with the duration of the second unit being an integer multiple of the time interval T, - acquiring one or more phase-encoded spin echo signals (31, 32) in a sequence of the acquisition blocks being repeatedly applied, such that at least one spin echo signal is acquired in any of the first or second unit at an integer number of the time interval T after the refocusing pulse and an integer number of the time interval T before either the end of said first or second unit or next spin echo signal acquired in said first or second unit, respectively, and - reconstructing one or more MR images from the acquired spin echo signals (31,32).
A tray unit assembly, comprising: a housing; a separating/stacking unit including a separating roller unit and a stacking roller unit provided in the housing; a tray unit provided to be inserted into the housing, the tray unit assembly being characterized in that the tray unit includes a first tray body fixed to the housing when the tray unit is inserted into the housing, and a second tray body connected to the first tray body to be slidable in a vertical direction and having a media stacking space formed therein, and the tray unit assembly further comprises: an elevating member disposed to be movable up and down and configured to be in contact with a bottom surface of the second tray body to move the second tray body toward the stacking roller unit or the separating roller unit. a housing; a separating/stacking unit including a separating roller unit and a stacking roller unit provided in the housing; a tray unit provided to be inserted into the housing, the tray unit assembly being characterized in that the tray unit includes a first tray body fixed to the housing when the tray unit is inserted into the housing, and a second tray body connected to the first tray body to be slidable in a vertical direction and having a media stacking space formed therein, and the tray unit assembly further comprises: an elevating member disposed to be movable up and down and configured to be in contact with a bottom surface of the second tray body to move the second tray body toward the stacking roller unit or the separating roller unit.
A sensor device for wrapping around a needle, the sensor device comprising: a flexible planar strip including a plurality of layers, the flexible planar strip having a distal end portion and a proximal end portion and being configured to at least partially encapsulate the needle, the flexible planar strip including: a first dielectric layer; a conductive shield layer disposed on the first dielectric layer; a second dielectric layer formed on the conductive shield layer; a patterned conductive layer disposed on the second dielectric layer, the patterned conductive layer including a sensor electrode disposed at the distal end portion, a hub electrode disposed at the proximal end portion and a trace connecting the sensor electrode and the hub electrode; a third dielectric layer formed on the patterned conductive layer; and an ultrasound sensor comprising a piezoelectric polymer film; wherein the second dielectric layer is recessed at the proximal end portion to expose a proximal end portion of the conductive shield layer; wherein the third dielectric layer is recessed at the distal end portion and at the proximal end portion to expose the sensor electrode and to expose the hub electrode, respectively; wherein the ultrasound sensor is disposed on the sensor electrode such that a first surface of the piezoelectric polymer film ultrasound sensor is in electrical contact with the sensor electrode and such that a second surface of the piezoelectric polymer film ultrasound sensor is exposed for making electrical contact with the needle when the sensor device is wrapped around the needle. a first dielectric layer; a conductive shield layer disposed on the first dielectric layer; a second dielectric layer formed on the conductive shield layer; a patterned conductive layer disposed on the second dielectric layer, the patterned conductive layer including a sensor electrode disposed at the distal end portion, a hub electrode disposed at the proximal end portion and a trace connecting the sensor electrode and the hub electrode; a third dielectric layer formed on the patterned conductive layer; and an ultrasound sensor comprising a piezoelectric polymer film;
Method for operating a radio communication system for an industrial automation system, in which - the radio communication system comprises at least one base station and multiple subscriber stations, - the base station cyclically polls, at predefined transmission times (t P.N), for respective datagrams that are to be transmitted by the subscriber stations, - for selected subscriber stations or for each subscriber station individually, the base station polls for the respective datagrams to be transmitted at individual transmission times for every subscriber station in accordance with a station sequence predefined by the base station, - within a polling cycle, the base station predefines for the subscriber stations the transmission times (t P.N) for transmitting the datagrams to be transmitted, the transmission times (t P.N) being ascertained from a respective preceding transmission time (t P.N-1) plus a polling cycle period (t C) and minus a waiting period (t W.M), during which at least one datagram to be transmitted prior to the preceding transmission time was already present and ready for transmission in the respective subscriber station, - the subscriber stations transmit information about the respective waiting period to the base station in order to ascertain the transmission times. - the radio communication system comprises at least one base station and multiple subscriber stations, - the base station cyclically polls, at predefined transmission times (t P.N), for respective datagrams that are to be transmitted by the subscriber stations, - for selected subscriber stations or for each subscriber station individually, the base station polls for the respective datagrams to be transmitted at individual transmission times for every subscriber station in accordance with a station sequence predefined by the base station, - within a polling cycle, the base station predefines for the subscriber stations the transmission times (t P.N) for transmitting the datagrams to be transmitted, the transmission times (t P.N) being ascertained from a respective preceding transmission time (t P.N-1) plus a polling cycle period (t C) and minus a waiting period (t W.M), during which at least one datagram to be transmitted prior to the preceding transmission time was already present and ready for transmission in the respective subscriber station, - the subscriber stations transmit information about the respective waiting period to the base station in order to ascertain the transmission times.