mhurhangee/ep-ind-claims huggingface dataset:
An optical image measurement device, comprising: a broadband light source that outputs a low-coherence light; an interference-light generator configured to split the light from the broadband light source into a signal light and a reference light, and superimpose the signal light propagated through a measured object and the reference light propagated through a reference object to generate an interference light; a scanner configured to scan a position to radiate the signal light on the measured object; a detector configured to receive the interference light to convert into electric charges, and accumulate the electric charges to generate a detection signal; an image forming part configured to form an image of the measured object based on the detection signal; a determining part configured to determine whether an intensity of the detection signal is equal to or more than a predetermined threshold; characterized in that the device further comprises: a controller configured to control at least one of a scan speed and scan position of the signal light by the scanner, and a time for accumulation of electric charges by the detector so as to increase the intensity of the detection signal of the interference light when it is determined that the intensity is less than the predetermined threshold, wherein the image forming part is configured to form an image of the measured object based on the detection signal with the increased intensity. a broadband light source that outputs a low-coherence light; an interference-light generator configured to split the light from the broadband light source into a signal light and a reference light, and superimpose the signal light propagated through a measured object and the reference light propagated through a reference object to generate an interference light; a scanner configured to scan a position to radiate the signal light on the measured object; a detector configured to receive the interference light to convert into electric charges, and accumulate the electric charges to generate a detection signal; an image forming part configured to form an image of the measured object based on the detection signal; a determining part configured to determine whether an intensity of the detection signal is equal to or more than a predetermined threshold;
A device for controlling the fluid exchange between at least two cushion chambers (100a, 100b, 100c, 100d) of a cushion, said device comprising, for each of the cushion chambers (100a, 100b, 100c, 100d), at least one hose line for connection to the respective cushion chamber (100a, 100b, 100c, 100d), having a passage chamber in which the hose lines are brought together so that the cushion chambers (100a, 100b, 100c, 100d) can be brought into fluid communication with one another via the passage chamber, and having a base for the passage chamber and a pressure body which sits on the passage chamber and is displaceable relative to the base in such a way that the pressure chamber can be variably compressed, characterised in that a bottom element arranged underneath the base and a cover element arranged above the pressure body are coupled to each other and can be rotated together and are coupled to the pressure body and/or to the base in such a way that the extent to which the passage chamber is compressed is changed when the bottom element and the cover element are rotated.
Photovoltaic system with a photovoltaic generator, which comprises a plurality of strands of photovoltaic modules connected in series, the strands having a positive and a negative pole (11 and 13) between which a pre-settable strand voltage is applied via the number of photovoltaic modules connected in series, which in the case of idling of the photovoltaic generator is more than 1000 volts, and with an inverter, whose DC voltage input is connected to the two poles, and whose output side may be connected to a supply network (L1, L2, L3), characterised in that the positive pole and the negative pole can be connected to the DC voltage input of the inverter via a first or a second switching element (17, 19), that a control device is provided by means of which at least one of the two switching elements (17, 19) is opened when the voltage of the positive pole with respect to earth exceeds a first predetermined limit value or when the voltage of the negative pole with respect to earth exceeds a second predetermined limit value in terms of amount, and that the control device closes a third switching element arranged between the positive pole and the negative pole while the first and/or the second switching element opens or when at least one is opened, so that the closed third switching element connects the positive pole and the negative pole.
An apparatus for amperometric testing of a sample, the apparatus comprising: a microfluidic channel; at least one pair of electrodes provided within sides of the microfluidic channel, the microfluidic channel providing a gap between the at least one pair of electrodes, wherein each of the at least one pair of electrodes comprises an anode and a cathode; an electrolyte configured to move through the microfluidic channel such that when the electrolyte is positioned between the anode and the cathode the electrolyte provides a current path between the anode and the cathode, wherein the anode and the cathode comprise different materials configured to provide a voltage by electrochemical reactions between the electrodes; and wherein the anode and the cathode are configured such that movement of the electrolyte through the microfluidic channel contacting different pairs of electrodes enables a time varying voltage to be provided to a sample to enable an analyte to be detected within the sample. a microfluidic channel; at least one pair of electrodes provided within sides of the microfluidic channel, the microfluidic channel providing a gap between the at least one pair of electrodes, wherein each of the at least one pair of electrodes comprises an anode and a cathode; an electrolyte configured to move through the microfluidic channel such that when the electrolyte is positioned between the anode and the cathode the electrolyte provides a current path between the anode and the cathode, wherein the anode and the cathode comprise different materials configured to provide a voltage by electrochemical reactions between the electrodes; and wherein the anode and the cathode are configured such that movement of the electrolyte through the microfluidic channel contacting different pairs of electrodes enables a time varying voltage to be provided to a sample to enable an analyte to be detected within the sample.
Method of monitoring the contamination of a batch comprising at least one wooden container, intended for maturing an alcoholic beverage, characterised in that said method comprises: a phase of preparing a sample intended for assaying contaminants in which: a) a sample of a volume of hot water or water at ambient temperature is recovered after having been brought into contact, with stirring, with the entire internal surface of said at least one container of said batch to be monitored, said volume of water being used only once for each container; b) said sample recovered in the case where the batch comprises a single container where the assembly in equal proportions of all of the samples of water recovered for each container of said batch to be monitored is then sent to a closed vessel for a phase of assaying contaminants, and a phase of assaying contaminants wherein: c) a threshold value of the concentration of contaminants corresponding to a state of risk of contamination of the container is determined first; d) an assay of the contaminants of the sample recovered or of the assembly obtained is carried out; e) a comparative study is carried out between the concentration of contaminants measured relative to the threshold value in order to determine whether the batch is contaminated. a) a sample of a volume of hot water or water at ambient temperature is recovered after having been brought into contact, with stirring, with the entire internal surface of said at least one container of said batch to be monitored, said volume of water being used only once for each container; b) said sample recovered in the case where the batch comprises a single container where the assembly in equal proportions of all of the samples of water recovered for each container of said batch to be monitored is then sent to a closed vessel for a phase of assaying contaminants, and a phase of assaying contaminants wherein: c) a threshold value of the concentration of contaminants corresponding to a state of risk of contamination of the container is determined first; d) an assay of the contaminants of the sample recovered or of the assembly obtained is carried out; e) a comparative study is carried out between the concentration of contaminants measured relative to the threshold value in order to determine whether the batch is contaminated. c) a threshold value of the concentration of contaminants corresponding to a state of risk of contamination of the container is determined first; d) an assay of the contaminants of the sample recovered or of the assembly obtained is carried out; e) a comparative study is carried out between the concentration of contaminants measured relative to the threshold value in order to determine whether the batch is contaminated.
A print controller comprising: a control system that is operable to receive a print job; and a rasterizer that is operable to identify from Page Description Language, PDL, of raw print data multiple types of printable media that will be utilized for printing the print job by rasterizing the raw print data of the print job, and to indicate the multiple types of media to the control system; wherein the control system is further operable to generate a list of printable media that will be utilized for printing the print job based on the multiple types of printable media identified by the rasterizer; wherein the rasterizer is further operable to determine a first priority value for a type of media specified in the PDL, to determine a second priority value for a default type of media assigned to the print controller, and to select a type of media in a deterministic manner according to priority, such that when the rasterizer is unable to identify a type of media from the PDL, the rasterizer is operable to select the default type of media; and wherein the control system is further operable to determine whether the list of printable media matches media available at trays of a printer, to indicate the print job as available for printing responsive to determining that the list matches the media available at trays of the printer, and to indicate the print job as unavailable for printing responsive to determining that the list does not match the media available at trays of the printer. a control system that is operable to receive a print job; and a rasterizer that is operable to identify from Page Description Language, PDL, of raw print data multiple types of printable media that will be utilized for printing the print job by rasterizing the raw print data of the print job, and to indicate the multiple types of media to the control system; wherein the control system is further operable to generate a list of printable media that will be utilized for printing the print job based on the multiple types of printable media identified by the rasterizer; wherein the rasterizer is further operable to determine a first priority value for a type of media specified in the PDL, to determine a second priority value for a default type of media assigned to the print controller, and to select a type of media in a deterministic manner according to priority, such that when the rasterizer is unable to identify a type of media from the PDL, the rasterizer is operable to select the default type of media; and wherein the control system is further operable to determine whether the list of printable media matches media available at trays of a printer, to indicate the print job as available for printing responsive to determining that the list matches the media available at trays of the printer, and to indicate the print job as unavailable for printing responsive to determining that the list does not match the media available at trays of the printer.
An in-wheel motor drive device comprising: a wheel hub coupled to a wheel; a motor unit having a motor rotating shaft adapted to drive the wheel hub, a casing serving as a contour, and a plurality of power line connecting portions provided on the casing; and a plurality of bendable power lines whose one ends connect to the power line connecting portion and whose other ends extend to a vehicle body outside the casing, to supply electric power from the vehicle body to the motor unit, wherein the in-wheel motor drive device is connected to a lower end of a strut extending in a vertical direction, is steerable about a steering axis extending along the strut, wherein the plurality of power line connecting portions is disposed overlapping a spring sheet (79b, 79c) of a shock absorber provided in the strut when viewed in a steering axial direction, and wherein at least two power line connecting portions are disposed overlapping each other when viewed from the steering axial direction. a wheel hub coupled to a wheel; a motor unit having a motor rotating shaft adapted to drive the wheel hub, a casing serving as a contour, and a plurality of power line connecting portions provided on the casing; and a plurality of bendable power lines whose one ends connect to the power line connecting portion and whose other ends extend to a vehicle body outside the casing, to supply electric power from the vehicle body to the motor unit, wherein the in-wheel motor drive device is connected to a lower end of a strut extending in a vertical direction, is steerable about a steering axis extending along the strut, wherein the plurality of power line connecting portions is disposed overlapping a spring sheet (79b, 79c) of a shock absorber provided in the strut when viewed in a steering axial direction, and wherein at least two power line connecting portions are disposed overlapping each other when viewed from the steering axial direction.
A method of transporting a magnetic fluid or at least one magnetic particle (509, 510, 604, 700), the method comprising the steps of: providing a magnetic layer; placing the magnetic fluid or the at least one magnetic particle (509, 510, 604, 700) in the vicinity of the magnetic layer so that they can magnetically interact with magnetic domain walls of said magnetic layer; and applying an external magnetic field; and wherein said magnetic fluid or said at least one magnetic particle (509, 510, 604, 700) are transported using said interaction; characterized in that the magnetic layer is an exchange bias system. providing a magnetic layer; placing the magnetic fluid or the at least one magnetic particle (509, 510, 604, 700) in the vicinity of the magnetic layer so that they can magnetically interact with magnetic domain walls of said magnetic layer; and applying an external magnetic field; and wherein said magnetic fluid or said at least one magnetic particle (509, 510, 604, 700) are transported using said interaction;
A method of operating a wireless terminal comprising: transmitting a quality of service request signal to an access node requesting a change in quality of service support being provided by said access node to an existing traffic flow; receiving a message including configuration information associated with the existing traffic flow, wherein the configuration information comprises transmission scheduling information based on a power budget; and implementing a configuration operation using said received configuration information, wherein said implementing a configuration operation includes setting a transmission control parameter used for controlling transmission to said access node as a function of said received configuration information; wherein said received configuration information includes link sharing information; and wherein setting a transmission control parameter includes setting a parameter affecting transmission resource sharing between traffic flows; setting a transmission scheduling control parameter used to control the transmission of data units corresponding to said existing flow to said access node as a function of said received transmission scheduling information, wherein said transmission scheduling control parameter is a link sharing weight included in said received message. transmitting a quality of service request signal to an access node requesting a change in quality of service support being provided by said access node to an existing traffic flow; receiving a message including configuration information associated with the existing traffic flow, wherein the configuration information comprises transmission scheduling information based on a power budget; and implementing a configuration operation using said received configuration information, wherein said implementing a configuration operation includes setting a transmission control parameter used for controlling transmission to said access node as a function of said received configuration information; wherein said received configuration information includes link sharing information; and wherein setting a transmission control parameter includes setting a parameter affecting transmission resource sharing between traffic flows; setting a transmission scheduling control parameter used to control the transmission of data units corresponding to said existing flow to said access node as a function of said received transmission scheduling information, wherein said transmission scheduling control parameter is a link sharing weight included in said received message.
EXPLOSION-PROOF CASE FOR A VIDEO CAMERA, to be used in environments having a potentially explosive atmosphere, said case being provided to contain thermographic cameras right inside, used as sensors for detecting the temperature of filmed objects, said case mounting a viewing window provided with a disc made of an infrared radiation transparent material having a passband of 2-15 μm, such as Germanium, Sapphire, Synthetic Sapphire, Zinc-Selenium or ZnSe, and that it is provided with a protection for said viewing window, which complies with the IEC EN 60079-0:2010 standard, § 26.4.2 of December 2010, defining how to test the shock/impact resistance of a blunt mass against a viewing window, said case providing that the protection of the viewing window only and exclusively consists of a further window, arranged in front of said viewing window and provided with a transparent disc, said case being characterised in that the "s/d" ratio, between the thickness "s" and the diameter "d" of the transparent disc of the window is comprised between the following values: 1/12 ≤ s/d ≤ 1/8.
Hand-held photometric measuring device for locating objects enclosed in a medium, having at least one photometric sensor (92, 70) integrated in a housing of the measuring device, which obtains a first measurement signal of the object to be investigated by means of the at least one photometric sensor (92, 70), with the result that information relating to an object enclosed in the medium is obtained by evaluating this measurement signal, characterized in that at least one further sensor (64, 66, 68) for generating at least one further, second measurement signal for obtaining information relating to the object enclosed in the medium is provided in the housing of the measuring device, wherein a displacement sensor system of the measuring device makes it possible to capture signal profiles of measurement signals and to reproduce 2-dim representations, in which an item of depth information is also represented in addition to an item of displacement information, on a display of the measuring device.
A lighting apparatus comprising: a main body; a bulb body connected to a first end of the main body; a head body connected to a second end of the main body, and is configured to be connected to an electrical socket for receiving power; a light emitting diode - hereafter abbreviated LED - module configured for emitting light; a communication module configured for providing wireless communication; and a composite printed circuit board comprising a first sub-board and a second sub-board physically coupled to the first sub-board, wherein the communication module is located on the first sub-board and the LED module is located on the second sub-board, characterized in that the second sub-board physically surrounds the first sub-board, and the first sub-board and the second sub-board are physically arranged in a same plane. a main body; a bulb body connected to a first end of the main body; a head body connected to a second end of the main body, and is configured to be connected to an electrical socket for receiving power; a light emitting diode - hereafter abbreviated LED - module configured for emitting light; a communication module configured for providing wireless communication; and a composite printed circuit board comprising a first sub-board and a second sub-board physically coupled to the first sub-board, wherein the communication module is located on the first sub-board and the LED module is located on the second sub-board, characterized in that the second sub-board physically surrounds the first sub-board, and the first sub-board and the second sub-board are physically arranged in a same plane.
A method for managing a solar array comprising solar modules supported by single-axis solar trackers and arranged in parallel rows, the method comprising: - calculating an initial orientation setpoint; - controlling an angular orientation of a first reference solar module (20) according to a first reference orientation setpoint (COR) corresponding to the initial orientation setpoint; - controlling an angular orientation of a second reference solar module (20(j)) according to a second reference orientation setpoint (COR(j)) corresponding to the initial orientation setpoint shifted by a non-zero offset angle (OFF(j)) associated with the second reference solar module (20(j)); - receiving a solar energy production value (P(i)) from each of the first (20) and second (20(j)) reference solar modules; - controlling angular orientations of the solar modules other than the first and second reference solar modules (20, 20(j)) according to a reference orientation setpoint associated with a reference solar module of the first and second reference solar modules (20, 20(j)) having the highest solar energy production value (P(j)). - calculating an initial orientation setpoint; - controlling an angular orientation of a first reference solar module (20) according to a first reference orientation setpoint (COR) corresponding to the initial orientation setpoint; - controlling an angular orientation of a second reference solar module (20(j)) according to a second reference orientation setpoint (COR(j)) corresponding to the initial orientation setpoint shifted by a non-zero offset angle (OFF(j)) associated with the second reference solar module (20(j)); - receiving a solar energy production value (P(i)) from each of the first (20) and second (20(j)) reference solar modules; - controlling angular orientations of the solar modules other than the first and second reference solar modules (20, 20(j)) according to a reference orientation setpoint associated with a reference solar module of the first and second reference solar modules (20, 20(j)) having the highest solar energy production value (P(j)).