mhurhangee/patent-ind-claim-en huggingface dataset:
A method of boot time determination of calibration parameters for an external memory component coupled to a circuit , the circuit comprising a primary SoC and a secondary SoC , wherein the external memory component is off-chip to the primary and secondary SoCs and is coupled to the secondary SoC and wherein the calibration parameters comprise timing parameters for communicating between a CPU of the secondary SoC and the external memory component across frequency and voltage, the method comprising: controlling boot of the secondary SoC by the primary SoC; receiving previous calibration parameters and a corresponding checksum and/or authentication tag for the external memory component at the secondary SoC from the primary SoC, wherein the secondary SoC is configured to calibrate the external memory component; determining validity of the previous calibration parameters by the secondary SoC by calculating a checksum and/or authentication tag for the previous calibration parameters and determining if the calculated checksum and/or authentication tag matches the received checksum and/or authentication tag; if the previous calibration parameters are determined to be valid, operating the external memory component by the secondary SoC based on the previous calibration parameters; and if the previous calibration parameters are determined to be invalid, determining new calibration parameters for the external memory component by the secondary SoC and operating the external memory component using the new calibration parameters. controlling boot of the secondary SoC by the primary SoC; receiving previous calibration parameters and a corresponding checksum and/or authentication tag for the external memory component at the secondary SoC from the primary SoC, wherein the secondary SoC is configured to calibrate the external memory component; determining validity of the previous calibration parameters by the secondary SoC by calculating a checksum and/or authentication tag for the previous calibration parameters and determining if the calculated checksum and/or authentication tag matches the received checksum and/or authentication tag; if the previous calibration parameters are determined to be valid, operating the external memory component by the secondary SoC based on the previous calibration parameters; and if the previous calibration parameters are determined to be invalid, determining new calibration parameters for the external memory component by the secondary SoC and operating the external memory component using the new calibration parameters.
A microfluidic system comprising: an electrowetting on dielectric (EWOD) device comprising a hydrophobic coating , and an array of elements that are actuatable for manipulation of a liquid droplet within a filler fluid within the EWOD device; a pattern generator that is configured to generate an actuation pattern for actuating a portion of the elements in the array of elements; and a signal generator configured to generate voltage signals for actuating elements in the array of elements in accordance with the actuation pattern; characterised in that the pattern generator is configured to generate an actuation pattern for a region of the array of elements corresponding to the liquid droplet, the actuation pattern including a first voltage signal for application to elements in a first part of the region, the first part being at or adjacent to a contact line of the liquid droplet , the contact line constituting a boundary between the liquid droplet, the filler fluid and the hydrophobic coating, and a second voltage signal for application to elements in a second part of the region that is covered by the liquid droplet and not at or adjacent to the contact line, and that the first and second voltage signals are different; and in that the pattern generator is configured to generate an actuation pattern in which a proportion of the elements in the second part of the region that are unactuated is 50% or greater. an electrowetting on dielectric (EWOD) device comprising a hydrophobic coating , and an array of elements that are actuatable for manipulation of a liquid droplet within a filler fluid within the EWOD device; a pattern generator that is configured to generate an actuation pattern for actuating a portion of the elements in the array of elements; and a signal generator configured to generate voltage signals for actuating elements in the array of elements in accordance with the actuation pattern; characterised in that the pattern generator is configured to generate an actuation pattern for a region of the array of elements corresponding to the liquid droplet, the actuation pattern including a first voltage signal for application to elements in a first part of the region, the first part being at or adjacent to a contact line of the liquid droplet , the contact line constituting a boundary between the liquid droplet, the filler fluid and the hydrophobic coating, and a second voltage signal for application to elements in a second part of the region that is covered by the liquid droplet and not at or adjacent to the contact line, and that the first and second voltage signals are different; and in that the pattern generator is configured to generate an actuation pattern in which a proportion of the elements in the second part of the region that are unactuated is 50% or greater.
Equipment for aiding traceability of agri-food products, comprising: a container (2; 52) for harvesting agri-food products that is open upwards; a frame (3; 53), provided with connecting members (4; 54) to the container (2; 52); an image detector device (14, 15; 64), fitted to the frame (3; 53) and oriented so that, when the container (2; 52) is connected to the frame (3; 53), an opening of the container is within an observation region (R1; R1') framed by the image detector device (14, 15; 64); a motion sensor (7; 57) fitted to the frame (3; 53) and configured to detect movements within a surveillance region (R2; R2') including at least a portion of the observation region (R1; R1') framed by the image detector device (14, 15; 64); a satellite positioning device ; a storage device ; a processing unit ; wherein the image detector device (14, 15; 64) is coupled to the motion sensor (7; 57) and is configured to acquire at least a reference image (IMGR, IMGRF) in response to a movement detected by the motion sensor (7; 57) ; and wherein the processing unit is configured to associate the reference image (IMGR, IMGRF) with coordinates detected by the satellite positioning device and a timestamp and to store the reference image (IMGR, IMGRF), the coordinates detected by the satellite positioning device , and the timestamp in the storage device . a container (2; 52) for harvesting agri-food products that is open upwards; a frame (3; 53), provided with connecting members (4; 54) to the container (2; 52); an image detector device (14, 15; 64), fitted to the frame (3; 53) and oriented so that, when the container (2; 52) is connected to the frame (3; 53), an opening of the container is within an observation region (R1; R1') framed by the image detector device (14, 15; 64); a motion sensor (7; 57) fitted to the frame (3; 53) and configured to detect movements within a surveillance region (R2; R2') including at least a portion of the observation region (R1; R1') framed by the image detector device (14, 15; 64); a satellite positioning device ; a storage device ; a processing unit ; wherein the image detector device (14, 15; 64) is coupled to the motion sensor (7; 57) and is configured to acquire at least a reference image (IMGR, IMGRF) in response to a movement detected by the motion sensor (7; 57) ; and wherein the processing unit is configured to associate the reference image (IMGR, IMGRF) with coordinates detected by the satellite positioning device and a timestamp and to store the reference image (IMGR, IMGRF), the coordinates detected by the satellite positioning device , and the timestamp in the storage device .
A hysteroscopy system , the system comprising: a scope having an outer surface and an internal channel defined by an inner surface; a sheath removably coupled to the scope and having a tip at which a distal flange extends internally towards the outer surface of the scope, the sheath further having an inner surface ; an outflow channel formed between the inner surface of the sheath and the outer surface of the scope ; the distal flange forming a distal end of the outflow channel between the scope and the sheath ; an operative channel formed within the internal channel of the scope; and a visualization channel formed adjacent to the operative channel, wherein the distal flange has an oval shape, wherein the oval shape has two opposite sides that extend a greater distance internally towards the center of the scope than two other opposite sides. a scope having an outer surface and an internal channel defined by an inner surface; a sheath removably coupled to the scope and having a tip at which a distal flange extends internally towards the outer surface of the scope, the sheath further having an inner surface ; an outflow channel formed between the inner surface of the sheath and the outer surface of the scope ; the distal flange forming a distal end of the outflow channel between the scope and the sheath ; an operative channel formed within the internal channel of the scope; and a visualization channel formed adjacent to the operative channel, wherein the distal flange has an oval shape, wherein the oval shape has two opposite sides that extend a greater distance internally towards the center of the scope than two other opposite sides.
A control panel for a house automation system, the control panel comprising: - a configurable user interface , - a memory for storing information descriptive of a current configuration of the user interface , and - a wireless transceiver unit ; wherein said control panel is configured to use said wireless transceiver unit to transmit said information descriptive of said current configuration as a response to a query from an external device , characterized in that the control panel further comprises - a plurality of visual indicators for providing visual feedback of detected manipulation of parts of the control panel , and - a control unit configured to control said visual indicators , wherein said control unit is configured to display a password for accessing said house automation system as a combination of visually detectable states of said visual indicators . - a configurable user interface , - a memory for storing information descriptive of a current configuration of the user interface , and - a wireless transceiver unit ; - a plurality of visual indicators for providing visual feedback of detected manipulation of parts of the control panel , and - a control unit configured to control said visual indicators ,
Plate heat exchanger transferring heat between first and second fluids , comprising a sealed housing and a body positioned inside the housing , said body including a stack of at least a first assembly of first and second plates pressed against each other, between which the first fluid flows, and at least a second assembly of third and fourth plates pressed against each other, between which the second fluid flows, the first and second assemblies being arranged so that they transfer heat between the first and second fluids , wherein the first fluid , when using the exchanger, is hydrogen and the housing comprises at least one sensor configured to detect the presence of hydrogen in the housing .
A multiway switch , comprising: twelve throw (T) ports and four pole (P) ports; the twelve T ports comprising four first T ports and each first T port being coupled with all of the four P ports; the multiway switch being configured to be coupled, through said T ports, with a radio frequency circuit , and, through said P ports, with an antenna system of an electronic device operable in a dual-frequency dual-transmit mode, to enable a preset function of the electronic device, the antenna system comprising four antennas corresponding to the four P ports, each of the four P ports being coupled with a corresponding antenna, and the preset function being a function of transmitting a sounding reference signal, SRS, through the four antennas in turn; characterized in that the twelve T ports further comprise eight second T ports, each of the eight second T ports is coupled with only one of the four P ports, and among the eight second T ports, second T ports operable at the same frequency band are coupled with different P ports of the four P ports; the four first T ports only support a transmission function; and the eight second T ports only support a reception function. twelve throw (T) ports and four pole (P) ports; the twelve T ports comprising four first T ports and each first T port being coupled with all of the four P ports; the multiway switch being configured to be coupled, through said T ports, with a radio frequency circuit , and, through said P ports, with an antenna system of an electronic device operable in a dual-frequency dual-transmit mode, to enable a preset function of the electronic device, the antenna system comprising four antennas corresponding to the four P ports, each of the four P ports being coupled with a corresponding antenna, and the preset function being a function of transmitting a sounding reference signal, SRS, through the four antennas in turn; characterized in that the twelve T ports further comprise eight second T ports, each of the eight second T ports is coupled with only one of the four P ports, and among the eight second T ports, second T ports operable at the same frequency band are coupled with different P ports of the four P ports; the four first T ports only support a transmission function; and the eight second T ports only support a reception function.
A computer readable storage medium comprising instructions which, when executed by a computer, cause the computer to carry out the following steps: receiving a physical downlink control channel, PDCCH, transmission configured with downlink control information, DCI, in a single-DCI, multi-transmission/reception point, TRP, operation, wherein the DCI schedules reception of a physical downlink shared channel, PDSCH, transmission, wherein the PDCCH is received on a first serving cell and wherein the DCI includes scheduling of a reception of the PDSCH transmission on a second serving cell; determining whether or not a TCI field is configured in the DCI; when the TCI field is not configured in the DCI, determining a default beam based on a control resource set, CORESET, with the lowest ID in the PDCCH to decode the PDSCH; when the TCI field is configured in the DCI, determining whether the TCI field indicates a TCI codepoint which includes two TCI states; and when the TCI field indicates the codepoint includes two TCI states, selecting a default beam having two TCI states to decode the single-DCI, multi-TRP scheduling. receiving a physical downlink control channel, PDCCH, transmission configured with downlink control information, DCI, in a single-DCI, multi-transmission/reception point, TRP, operation, wherein the DCI schedules reception of a physical downlink shared channel, PDSCH, transmission, wherein the PDCCH is received on a first serving cell and wherein the DCI includes scheduling of a reception of the PDSCH transmission on a second serving cell; determining whether or not a TCI field is configured in the DCI; when the TCI field is not configured in the DCI, determining a default beam based on a control resource set, CORESET, with the lowest ID in the PDCCH to decode the PDSCH; when the TCI field is configured in the DCI, determining whether the TCI field indicates a TCI codepoint which includes two TCI states; and when the TCI field indicates the codepoint includes two TCI states, selecting a default beam having two TCI states to decode the single-DCI, multi-TRP scheduling.
A braking and taxiing system comprising: an electric motor , wherein said electric motor comprises a first output shaft and a second output shaft , a clutch for selectively engaging the electric motor to at least one of a driver transmission and a brake transmission , wherein, in response to engagement with the driver transmission , the electric motor drives, exclusively, an aircraft wheel via the first output shaft , wherein, in response to engagement with the brake transmission , the electric motor drives, exclusively, a brake clamping system via the second output shaft to apply force to an aircraft brake disk stack; and characterized by the driver transmission being located on the opposite side of the electric motor as the brake transmission , wherein the electric motor , the driver transmission , and the brake transmission are in concentric alignment. an electric motor , wherein said electric motor comprises a first output shaft and a second output shaft , a clutch for selectively engaging the electric motor to at least one of a driver transmission and a brake transmission , wherein, in response to engagement with the driver transmission , the electric motor drives, exclusively, an aircraft wheel via the first output shaft , wherein, in response to engagement with the brake transmission , the electric motor drives, exclusively, a brake clamping system via the second output shaft to apply force to an aircraft brake disk stack; and characterized by the driver transmission being located on the opposite side of the electric motor as the brake transmission , wherein the electric motor , the driver transmission , and the brake transmission are in concentric alignment.
Apparatus configured for calculating a correlation function between a Direct Sequence Spread Spectrum DSSS signal and a spreading code, the apparatus comprising: memory arranged to store a plurality of code replica samples, the code replica samples comprising samples of a complex conjugate of a time-to-frequency domain transformed replica of the spreading code obtained at a first sampling rate; a time-to-frequency domain transformation unit (321; 421) configured to receive a block of samples of the DSSS signal at a second sampling rate higher than the first sampling rate, and transform the samples from the time domain to the frequency domain to obtain a plurality of frequency-domain signal samples, wherein the second sampling rate is equal to the first sampling rate multiplied by an integer N; a multiplication unit (322; 422) configured to obtain a correlation operator by reproducing the stored replica samples N times, and multiply the frequency-domain signal samples by the reproduced stored replica samples to obtain a plurality of multiplied samples; and an integrating unit (324; 424) configured to receive the multiplied samples and perform integration over a plurality of blocks of samples of the DSSS signal to calculate the correlation function. memory arranged to store a plurality of code replica samples, the code replica samples comprising samples of a complex conjugate of a time-to-frequency domain transformed replica of the spreading code obtained at a first sampling rate; a time-to-frequency domain transformation unit (321; 421) configured to receive a block of samples of the DSSS signal at a second sampling rate higher than the first sampling rate, and transform the samples from the time domain to the frequency domain to obtain a plurality of frequency-domain signal samples, wherein the second sampling rate is equal to the first sampling rate multiplied by an integer N; a multiplication unit (322; 422) configured to obtain a correlation operator by reproducing the stored replica samples N times, and multiply the frequency-domain signal samples by the reproduced stored replica samples to obtain a plurality of multiplied samples; and an integrating unit (324; 424) configured to receive the multiplied samples and perform integration over a plurality of blocks of samples of the DSSS signal to calculate the correlation function.
Method for controlling the temperature of a kitchen oven for achieving a predetermined temperature (T Z ) by heating during a required heating time on the basis of a control program, wherein the control program is formed from a basic control program, which is generally predetermined for an oven type, by computationally taking into account a static correction variable (Δt), which reflects individual oven parameters, that is to say the structural specific type of the individual oven, and a dynamic correction variable (Δt') which takes into account variable operating parameters of the oven which are independent of the structural design of the oven, characterized in that the value of a parameter which results from the control program taking into account the static and the dynamic correction variable (Δt, Δt'), in particular the heating time to a predetermined temperature or the heating curve increase, is stored and is subjected to threshold value discrimination in relation to the corresponding value of previous program sequences, and a fault signal is output if a predetermined difference threshold value is exceeded.
A method for preparing a medical product, preferably a continuous method, the method comprising - providing an aqueous dispersion of nanofibrillar cellulose, - providing a nonwoven fabric, - immersing the nonwoven fabric in the aqueous dispersion of nanofibrillar cellulose to form a coating on the nonwoven fabric, - passing the immersed nonwoven fabric through a prefined gap to define the thickness of the coating on the immersed nonwoven fabric without pressing, and - dewatering the immersed nonwoven fabric, - optionally repeating the immersing and passing through the gap at least once, to obtain the medical product. - providing an aqueous dispersion of nanofibrillar cellulose, - providing a nonwoven fabric, - immersing the nonwoven fabric in the aqueous dispersion of nanofibrillar cellulose to form a coating on the nonwoven fabric, - passing the immersed nonwoven fabric through a prefined gap to define the thickness of the coating on the immersed nonwoven fabric without pressing, and - dewatering the immersed nonwoven fabric, - optionally repeating the immersing and passing through the gap at least once, to obtain the medical product.
Method for producing a metal strip (M) coated with a coating (B), wherein the coating (B) contains chromium metal and chromium oxide and is applied to the metal strip (M) electrolytically from an electrolyte solution (E) containing a trivalent chromium compound by bringing the metal strip (M) into contact with the electrolyte solution (E) connected as the cathode during a period of electrolysis, characterised in that the metal strip (M) is guided at a predetermined strip speed (v) in a travel direction of the strip successively at least through a first electrolysis tank or a front group of electrolysis tanks and through a last electrolysis tank seen in the travel direction of the strip or a rear group of electrolysis tanks , wherein the temperature of the electrolyte solution averaged over the volume of the electrolysis tank in the first electrolysis tank or the front group of electrolysis tanks is greater than the average temperature of the electrolyte solution in the last electrolysis tank or the rear group of electrolysis tanks and in the last electrolysis tank or in the rear group of electrolysis tanks , the electrolyte solution (E) has an average temperature of less than 40°C, and the period of electrolysis (t E ), in which the metal strip (M) is in electrolytically effective contact with the electrolyte solution (E), in the last electrolysis tank or in the rear group of electrolysis tanks is less than 2.0 seconds.