mhurhangee/ep-ind-claims huggingface dataset:
An inkjet printer comprising: a head provided with a nozzle surface having nozzles configured to eject an ink; an ink supply portion configured to supply ink to the head and comprising an ink supply flow path (711, 712); a circulation flow path (712, 722, 801, 171, 172, 173, 174, 175, 176, 177, 151, 152, 153) formed in the head and the ink supply flow path or in the ink supply flow path, and configured to circulate the ink; a cap capable of coming into contact with the nozzle surface; a first pump connected to an exhaust hole formed in the cap; a processor; and a memory storing computer-readable instructions which, when executed by the processor, perform processes including: a soaking processing (S13, S33) that drives the first pump and causes the nozzle surface to be soaked in liquid, in a capping state in which the cap is in contact with the nozzle surface, and a circulation processing (S14, S34) that causes the ink to circulate in the circulation flow path in the capping state in which the nozzle surface is soaked in the liquid, after the soaking processing. a head provided with a nozzle surface having nozzles configured to eject an ink; an ink supply portion configured to supply ink to the head and comprising an ink supply flow path (711, 712); a circulation flow path (712, 722, 801, 171, 172, 173, 174, 175, 176, 177, 151, 152, 153) formed in the head and the ink supply flow path or in the ink supply flow path, and configured to circulate the ink; a cap capable of coming into contact with the nozzle surface; a first pump connected to an exhaust hole formed in the cap; a processor; and a memory storing computer-readable instructions which, when executed by the processor, perform processes including: a soaking processing (S13, S33) that drives the first pump and causes the nozzle surface to be soaked in liquid, in a capping state in which the cap is in contact with the nozzle surface, and a circulation processing (S14, S34) that causes the ink to circulate in the circulation flow path in the capping state in which the nozzle surface is soaked in the liquid, after the soaking processing. a soaking processing (S13, S33) that drives the first pump and causes the nozzle surface to be soaked in liquid, in a capping state in which the cap is in contact with the nozzle surface, and a circulation processing (S14, S34) that causes the ink to circulate in the circulation flow path in the capping state in which the nozzle surface is soaked in the liquid, after the soaking processing.
A method of video encoding a sequence of pictures according to the Versatile Video Coding, VVC, standard, the method being implemented in an encoding device and comprising: obtaining an intra prediction picture comprising at least two sub-units (Nal0, Nal1, Nal2, Nal3, Nal4) wherein the at least two sub-units (Nal0, Nal1, Nal2, Nal3, Nal4) are Network Abstraction Layer, NAL, units; obtaining a first encoded other picture that is an inter-coded random access picture, wherein the intra prediction picture and the first encoded other picture have the same Picture Order Count, POC, value; obtaining encoded other pictures different from the intra prediction picture and the first encoded other picture; and distributing the at least two sub-units (Nal0, Nal1, Nal2, Nal3, Nal4) of the intra prediction picture over the first encoded other picture and the encoded other pictures; and further comprising performing a sub-bit stream extraction process comprising determining whether an access unit comprising at least one of the at least two sub-units (Nal0, Nal1, Nal2, Nal3, Nal4) of the intra prediction picture has an ID, temporallD, larger than a threshold defining a target set of access units, highest temporallD, and, if it is determined that the access unit has an ID larger than the threshold, redistributing the at least one of the at least two sub-units (Nal0, Nal1, Nal2, Nal3, Nal4) over access units with an ID less than or equal to the threshold. obtaining an intra prediction picture comprising at least two sub-units (Nal0, Nal1, Nal2, Nal3, Nal4) wherein the at least two sub-units (Nal0, Nal1, Nal2, Nal3, Nal4) are Network Abstraction Layer, NAL, units; obtaining a first encoded other picture that is an inter-coded random access picture, wherein the intra prediction picture and the first encoded other picture have the same Picture Order Count, POC, value; obtaining encoded other pictures different from the intra prediction picture and the first encoded other picture; and distributing the at least two sub-units (Nal0, Nal1, Nal2, Nal3, Nal4) of the intra prediction picture over the first encoded other picture and the encoded other pictures; and further comprising performing a sub-bit stream extraction process comprising determining whether an access unit comprising at least one of the at least two sub-units (Nal0, Nal1, Nal2, Nal3, Nal4) of the intra prediction picture has an ID, temporallD, larger than a threshold defining a target set of access units, highest temporallD, and, if it is determined that the access unit has an ID larger than the threshold, redistributing the at least one of the at least two sub-units (Nal0, Nal1, Nal2, Nal3, Nal4) over access units with an ID less than or equal to the threshold.
A method for control plane measurements performed by an apparatus for control plane measurements in a wireless device (12, 702, 850), comprising: measuring, across multiple sub-frames received over an unlicensed spectrum, received cell-specific reference signals, CRS, from a cell to obtain CRS measurements; identifying a first subset of the CRS measurements for a first subset of the multiple sub-frames including opportunistic transmissions and identifying a second subset of the CRS measurements for a second subset of the multiple sub-frames including guaranteed transmissions, wherein opportunistic transmissions occur when a carrier or a channel meets certain conditions, said certain conditions comprising the carrier or channel not being used, wherein an opportunistic transmission is subject to a clear channel assessment, CCA, procedure or an extended CCA, E-CCA, procedure before transmission, and wherein guaranteed transmissions are guaranteed to occur at a certain time, wherein the certain time at which the guaranteed transmissions occur is a subframe for downlink clear channel assessment, CCA, exempt transmissions, D-CET; computing a first signal to interference plus noise ratio, SINR, value for the first subset of the CRS measurements indicating whether the first SINR value is available and computing a second SINR value for the second subset of the CRS measurements; and monitoring a radio link condition of the wireless device (12, 702, 850) based at least in part on the first SINR value computed for the first subset of CRS measurements and the second SINR value computed for the second subset of CRS measurements. measuring, across multiple sub-frames received over an unlicensed spectrum, received cell-specific reference signals, CRS, from a cell to obtain CRS measurements; identifying a first subset of the CRS measurements for a first subset of the multiple sub-frames including opportunistic transmissions and identifying a second subset of the CRS measurements for a second subset of the multiple sub-frames including guaranteed transmissions, wherein opportunistic transmissions occur when a carrier or a channel meets certain conditions, said certain conditions comprising the carrier or channel not being used, wherein an opportunistic transmission is subject to a clear channel assessment, CCA, procedure or an extended CCA, E-CCA, procedure before transmission, and wherein guaranteed transmissions are guaranteed to occur at a certain time, wherein the certain time at which the guaranteed transmissions occur is a subframe for downlink clear channel assessment, CCA, exempt transmissions, D-CET; computing a first signal to interference plus noise ratio, SINR, value for the first subset of the CRS measurements indicating whether the first SINR value is available and computing a second SINR value for the second subset of the CRS measurements; and monitoring a radio link condition of the wireless device (12, 702, 850) based at least in part on the first SINR value computed for the first subset of CRS measurements and the second SINR value computed for the second subset of CRS measurements.
Message exchange method implemented by a terminal of a user (TU, 1) which is able to transmit a message (mssg, mssg1, mssg2, mssg4) via a network from among: a first network (N1, 3 1) and a second network (N2, 3 2), the message exchange method comprising, when the terminal of the user (TU, 1) is in a second transmission mode, using the second network, for a terminal of a contact (TC, 2), triggering a switch (SWT_TRG) of the terminal of the user (TU, 1) to a first transmission mode, using the first network, for the terminal of the contact (TC, 2) upon receipt of a notification (tc_cnx 1 _ntf), to the terminal of the user (TU, 1), of connection, to the first network, of the terminal of the contact originating from a messaging server on the first network (SM U, 4), the connection notification being received from the messaging server by the terminal of the user upon receipt, by the messaging server, of a message from the terminal of the contact via the first network.
A catheter comprising: an elongated body having a longitudinal axis and proximal and distal ends; a distal assembly mounted on the distal end of the elongated body, the distal assembly having a shape-memory support member and having a helical form; at least one irrigated ablation ring electrode mounted on the distal assembly; and a control handle mounted at the proximal end of the elongated body, wherein the at least one irrigated ablation ring electrode has at least one aperture configured to pass fluid from inside the ring electrode to outside the ring electrode, and wherein the irrigated ablation ring electrode has a sidewall and a curved transitional region and the at least one aperture is positioned at or near the curved transitional region. an elongated body having a longitudinal axis and proximal and distal ends; a distal assembly mounted on the distal end of the elongated body, the distal assembly having a shape-memory support member and having a helical form; at least one irrigated ablation ring electrode mounted on the distal assembly; and a control handle mounted at the proximal end of the elongated body, wherein the at least one irrigated ablation ring electrode has at least one aperture configured to pass fluid from inside the ring electrode to outside the ring electrode, and wherein the irrigated ablation ring electrode has a sidewall and a curved transitional region and the at least one aperture is positioned at or near the curved transitional region.
A self-supporting nacelle structure for wind turbines designed to house a transmission assembly therein, which transmission assembly comprises a first shaft ( S 1) connected to a wind turbine rotor hub and to a gearbox, and a second shaft ( S 2) connected to the gearbox and to a generator, which structure comprises: - a substantially tubular outer metal shell defining a longitudinal axis and delimiting a space for housing the transmission assembly; - a substantially vertical tubular extension with an upper end edge connected to said outer metal shell and a lower end edge ( B') secured to a tower; - an inner metal frame anchored to said outer metal shell and having a plurality of transverse ribs and a plurality of longitudinal ribs adapted to join said transverse ribs together; wherein each of said transverse ribs extends in a closed path, completely enclosing the transmission assembly, wherein said shell has at least one portion with a closed cross section with at least one transverse rib anchored thereto to generally and locally impart high torsional and flexural stiffness to said structure; and wherein said inner frame has a support structure for supporting the gearbox, said support structure being designed to be structurally seamless with said transverse and longitudinal ribs and the shell. - a substantially tubular outer metal shell defining a longitudinal axis and delimiting a space for housing the transmission assembly; - a substantially vertical tubular extension with an upper end edge connected to said outer metal shell and a lower end edge ( B') secured to a tower; - an inner metal frame anchored to said outer metal shell and having a plurality of transverse ribs and a plurality of longitudinal ribs adapted to join said transverse ribs together; wherein each of said transverse ribs extends in a closed path, completely enclosing the transmission assembly, wherein said shell has at least one portion with a closed cross section with at least one transverse rib anchored thereto to generally and locally impart high torsional and flexural stiffness to said structure; and wherein said inner frame has a support structure for supporting the gearbox, said support structure being designed to be structurally seamless with said transverse and longitudinal ribs and the shell. wherein each of said transverse ribs extends in a closed path, completely enclosing the transmission assembly, wherein said shell has at least one portion with a closed cross section with at least one transverse rib anchored thereto to generally and locally impart high torsional and flexural stiffness to said structure; and wherein said inner frame has a support structure for supporting the gearbox, said support structure being designed to be structurally seamless with said transverse and longitudinal ribs and the shell.
A method for transmitting user input of a portable device, comprising: detecting navigating input in a navigation mode for controlling an external device which is connected by a network, wherein the external device displays displayable content and the navigating input is for navigating the displayable content, wherein the displayable content includes at least one input box; transmitting a control signal corresponding to the detected navigating input to the external device; displaying an indicator on the portable device which indicates capability of mode switching from the navigation mode to a user input mode; initiating the user input mode by displaying the input box which is extracted from the displayable content on the portable device when user input for mode switching is detected; and transmitting user input which is received through the displayed input box. detecting navigating input in a navigation mode for controlling an external device which is connected by a network, wherein the external device displays displayable content and the navigating input is for navigating the displayable content, wherein the displayable content includes at least one input box; transmitting a control signal corresponding to the detected navigating input to the external device; displaying an indicator on the portable device which indicates capability of mode switching from the navigation mode to a user input mode; initiating the user input mode by displaying the input box which is extracted from the displayable content on the portable device when user input for mode switching is detected; and transmitting user input which is received through the displayed input box.
Applicator for positioning a radiation source in a patient, wherein the applicator has a tube and is embodied to direct the radiation source along the tube into a target region in a body of the patient, characterised in that the applicator has an indicator element, which can be detected by means of a medical imaging method, wherein the indicator element is connected to a guide element and can be displaced by means of the guide element along a longitudinal extension of the tube in an interior of the tube, wherein the indicator element is manufactured from silicone and wherein the guide element has an encoding, which can be detected by means of a medical imaging method and is designed to differentiate a first applicator from a second applicator.
A method is provided for starting-up a device with an embedded multimedia card (eMMC), comprising the steps of: Step 1: Providing power to device; Step 2: Putting the eMMC in a Fast-Boot modus; Step 3: Reading a bootloader from said eMMC from a first boot area into a Random-Access Memory of the device; Step 4: Starting the bootloader in a CPU of said device; and, Step 5: Terminating Fast-Boot modus, characterized in that the method further comprises the steps of: Step 6: Resetting the eMMC; Step 7: Putting the eMMC in the Fast-Boot modus; Step 8: Initializing hardware by bootloader, while reading an operating system into the RAM from a second boot area and/or a main data area using Direct Memory Access; and, Step 9: ■ Starting the operating system from the RAM by the bootloader. Step 1: Providing power to device; Step 2: Putting the eMMC in a Fast-Boot modus; Step 3: Reading a bootloader from said eMMC from a first boot area into a Random-Access Memory of the device; Step 4: Starting the bootloader in a CPU of said device; and, Step 5: Terminating Fast-Boot modus, characterized in that the method further comprises the steps of: Step 6: Resetting the eMMC; Step 7: Putting the eMMC in the Fast-Boot modus; Step 8: Initializing hardware by bootloader, while reading an operating system into the RAM from a second boot area and/or a main data area using Direct Memory Access; and, Step 9: ■ Starting the operating system from the RAM by the bootloader.
A low-erosion internal ion source for cyclotrons, comprising: a hollow body whose interior walls (11a, 11b, 11c) define a cylindrical cavity, wherein the body has a gas supply inlet through which a plasma-forming gas is introduced into the cavity; a coaxial conductor disposed in the cavity of the body and arranged parallel to the longitudinal axis of the cavity; an expansion chamber connected to the cavity through a plasma outlet hole made in the body; an ion-extraction aperture in contact with the expansion chamber; wherein: the body has a power supply input through which radio frequency energy is injected into the cavity; the interior walls of the body are conductive; at least one of the ends (15a; 15b) of the coaxial conductor is in contact with at least one circular interior wall (11a, 11b) of the body, forming a coaxial resonant cavity; characterised in that: the coaxial conductor has a conductive protuberance that extends radially into the cavity, said conductive protuberance being opposite the plasma outlet hole. a hollow body whose interior walls (11a, 11b, 11c) define a cylindrical cavity, wherein the body has a gas supply inlet through which a plasma-forming gas is introduced into the cavity; a coaxial conductor disposed in the cavity of the body and arranged parallel to the longitudinal axis of the cavity; an expansion chamber connected to the cavity through a plasma outlet hole made in the body; an ion-extraction aperture in contact with the expansion chamber; the body has a power supply input through which radio frequency energy is injected into the cavity; the interior walls of the body are conductive; at least one of the ends (15a; 15b) of the coaxial conductor is in contact with at least one circular interior wall (11a, 11b) of the body, forming a coaxial resonant cavity; characterised in that: the coaxial conductor has a conductive protuberance that extends radially into the cavity, said conductive protuberance being opposite the plasma outlet hole.
A method for transmitting signals in a wireless network, the method comprising: transmitting, by a transmitter, to a user equipment, UE, a downlink related signaling indicating first uplink frame structure parameters when the UE initially accesses the wireless network; and transmitting (1420, 1510), by the transmitter, to the UE, a higher-layer signaling to indicate additional uplink frame structure parameters and an additional sub-band; and receiving (1430, 1520), by the transmitter, from the UE, a uplink signal in the additional sub-band with the additional uplink frame structure parameters, wherein the additional uplink frame structure parameters include a first sub-carrier spacing, the first uplink frame structure parameters comprise a second sub-carrier spacing, and either of the first sub-carrier spacing and the second sub-carrier spacing is one of 15 kilohertz, kHz, 30 kHz or 60 kHz. transmitting, by a transmitter, to a user equipment, UE, a downlink related signaling indicating first uplink frame structure parameters when the UE initially accesses the wireless network; and transmitting (1420, 1510), by the transmitter, to the UE, a higher-layer signaling to indicate additional uplink frame structure parameters and an additional sub-band; and receiving (1430, 1520), by the transmitter, from the UE, a uplink signal in the additional sub-band with the additional uplink frame structure parameters, wherein the additional uplink frame structure parameters include a first sub-carrier spacing, the first uplink frame structure parameters comprise a second sub-carrier spacing, and either of the first sub-carrier spacing and the second sub-carrier spacing is one of 15 kilohertz, kHz, 30 kHz or 60 kHz.
An image processing apparatus configured to process image data obtained by image capturing, the image processing apparatus comprising: input means configured to acquire image data obtained by image capturing; determination means configured to determine whether or not an achromatic region is detected in the image data (S311, S312) and configured to determine an achromatic region position based on the achromatic region detected in the image data and to store the achromatic region position in a storage unit, if the achromatic region has been detected in the image data, and to acquire a previously detected and stored achromatic region position from the storage unit as the achromatic region position, if no achromatic region has been detected in the image data; and calculation means for calculating a color correction parameter for performing color correction processing on the image data based on color information of the image data in the region indicated by the achromatic region position. input means configured to acquire image data obtained by image capturing; determination means configured to determine whether or not an achromatic region is detected in the image data (S311, S312) and configured to determine an achromatic region position based on the achromatic region detected in the image data and to store the achromatic region position in a storage unit, if the achromatic region has been detected in the image data, and to acquire a previously detected and stored achromatic region position from the storage unit as the achromatic region position, if no achromatic region has been detected in the image data; and calculation means for calculating a color correction parameter for performing color correction processing on the image data based on color information of the image data in the region indicated by the achromatic region position.