mhurhangee/ep-ind-claims huggingface dataset:
A hydrophilized inorganic powder, comprising an inorganic powder as a base material, a hydrophobic coat that covers the surface of the inorganic powder, and a hydrophilic coat that covers the hydrophobic coat, wherein the hydrophilic coat has a composition being a nonionic surfactant(s) having a hydrophilic moiety and a carbon chain moiety, the carbon chain moiety of the nonionic surfactant(s) has a branched structure sufficient for imparting self-dispersibility to the inorganic powder having hydrophobicity, the nonionic surfactant(s) is/are one or more selected from the following materials: polyoxyethylene isostearyl ether; polyoxyethylene isododecyl ether, polyoxyethylene isostearate; polyoxyethylene glyceryl isostearate; polyoxyethylene glyceryl triisostearate; polyoxyethylene octyldodecyl ether; polyoxyethylene hexyldecyl ether; and polyglyceryl monoisostearate, and the composition of the hydrophobic coat is one or more selected from octyltriethoxysilane, disodium stearoyl glutamate, hydrogen dimethicone, dimethylpolysiloxane, and methyl hydrogen polysiloxane. the hydrophilic coat has a composition being a nonionic surfactant(s) having a hydrophilic moiety and a carbon chain moiety, the carbon chain moiety of the nonionic surfactant(s) has a branched structure sufficient for imparting self-dispersibility to the inorganic powder having hydrophobicity, the nonionic surfactant(s) is/are one or more selected from the following materials: polyoxyethylene isostearyl ether; polyoxyethylene isododecyl ether, polyoxyethylene isostearate; polyoxyethylene glyceryl isostearate; polyoxyethylene glyceryl triisostearate; polyoxyethylene octyldodecyl ether; polyoxyethylene hexyldecyl ether; and polyglyceryl monoisostearate, and the composition of the hydrophobic coat is one or more selected from octyltriethoxysilane, disodium stearoyl glutamate, hydrogen dimethicone, dimethylpolysiloxane, and methyl hydrogen polysiloxane. polyoxyethylene isostearyl ether; polyoxyethylene isododecyl ether, polyoxyethylene isostearate; polyoxyethylene glyceryl isostearate; polyoxyethylene glyceryl triisostearate; polyoxyethylene octyldodecyl ether; polyoxyethylene hexyldecyl ether; and polyglyceryl monoisostearate, and the composition of the hydrophobic coat is one or more selected from octyltriethoxysilane, disodium stearoyl glutamate, hydrogen dimethicone, dimethylpolysiloxane, and methyl hydrogen polysiloxane.
Method for producing an injector, in particular a fuel injector for a direct injection system of an internal combustion engine, characterized in that at least two instances of mechanical play (110/120, 210/212, 220/222), in particular instances of pairing play (110/120, 210/212, 220/222) which are relevant to injection quantities, leakage quantities (L 112, L 212, L 222) and/or pressure differences (Δp = p R -p 12 ≈/= Δp = p R -p 22) of the injector are paired with one another in that an instance of setpoint pairing play (Δd setp) of an assembly (110, 120; 210, 212; 220, 222) of the injector is calculated from an instance of measured actual pairing play (Δd act) of another assembly (110, 120; 210, 212; 220, 222) of the injector and is paired therewith as a function thereof, wherein, if appropriate, an instance of nominal pairing play (Δd nom) of the paired assembly (110, 120; 210, 212; 220, 222) is taken into account.
A power generation system for a turbine power generation system comprising: a rotary power generator for generating a variable-frequency alternating current; a generator side converter for converting the variable-frequency alternating current into a DC current; a DC link coupled to the generator side converter for receiving the DC current from the generator side converter; a line side converter coupled to the DC link for converting the DC current into an alternating current with controlled amplitude or frequency; a generator side controller for receiving a DC link voltage command signal and a DC link voltage feedback signal and generating control signals for the generator side converter; characterised by: a line side controller for receiving a generator torque command signal and a generator torque feedback signal and generating control signals for the line side converter; and a dynamic braking circuit coupled to the DC link. a rotary power generator for generating a variable-frequency alternating current; a generator side converter for converting the variable-frequency alternating current into a DC current; a DC link coupled to the generator side converter for receiving the DC current from the generator side converter; a line side converter coupled to the DC link for converting the DC current into an alternating current with controlled amplitude or frequency; a generator side controller for receiving a DC link voltage command signal and a DC link voltage feedback signal and generating control signals for the generator side converter; characterised by: a line side controller for receiving a generator torque command signal and a generator torque feedback signal and generating control signals for the line side converter; and a dynamic braking circuit coupled to the DC link. a line side controller for receiving a generator torque command signal and a generator torque feedback signal and generating control signals for the line side converter; and a dynamic braking circuit coupled to the DC link.
Auxiliary device for a baby carrier comprising a carry handle, in the form of a retrofitted attachment to the baby carrier, characterised by foldable rollers and at least one adjustable handle that can be attached to the baby carrier, it being possible to separately attach each roller to the baby carrier, and each roller comprising a roller mount, the roller mount being designed such that it can be detachably fastened to or in a carry-handle joint of the carry handle of the baby carrier at a receiving point for adapters that is already provided on the baby carrier.
An air outlet flow guiding structure for a purifier, comprising an outer housing, the outer housing covering a periphery of a centrifugal blade to form a flow guiding channel; a flow guiding part is provided in the flow guiding channel, the flow guiding part being located on one side, close to an air outlet of the flow guiding channel, of the centrifugal fan blade, and the flow guiding part is provided in a longitudinal direction of the flow guiding channel; the air outlet flow guiding structure further comprises an inner housing for supporting an electric motor, the inner housing being located at a side, close to the air outlet of the flow guiding channel, of the centrifugal blade, the flow guiding channel being formed between the inner housing and an outer housing, and the flow guiding part being located between the inner housing and the outer housing; an outer diameter of the inner housing gradually decreases in a direction away from the centrifugal blade, characterized in that, a slope of an outer wall of the inner housing gradually decreases in said direction away from the centrifugal blade; the flow guiding part comprises an arc-shaped plate, configured so that spirally rising air delivered by the centrifugal blade is blocked by a concave surface of the arc-shaped plate, and flows in the longitudinal direction of the flow guiding channel; the outer housing is a cylindrical housing, a radius of the cylindrical housing is R, and an arc radius of the arc-shaped plate is between values of R 3 and 2R. the air outlet flow guiding structure further comprises an inner housing for supporting an electric motor, the inner housing being located at a side, close to the air outlet of the flow guiding channel, of the centrifugal blade, the flow guiding channel being formed between the inner housing and an outer housing, and the flow guiding part being located between the inner housing and the outer housing; an outer diameter of the inner housing gradually decreases in a direction away from the centrifugal blade, characterized in that, a slope of an outer wall of the inner housing gradually decreases in said direction away from the centrifugal blade; the flow guiding part comprises an arc-shaped plate, configured so that spirally rising air delivered by the centrifugal blade is blocked by a concave surface of the arc-shaped plate, and flows in the longitudinal direction of the flow guiding channel; the outer housing is a cylindrical housing, a radius of the cylindrical housing is R, and an arc radius of the arc-shaped plate is between values of R 3 and 2R.
A medical device identifier, comprising: a coil; a computer subsystem comprising a processor and memory, the memory holding instructions executable by the processor and also holding a plurality of digitized waveforms; a digital-to-analog converter coupled to the processor; drive circuitry coupled to the coil and the digital-to-analog converter; and receiver circuitry coupled to the coil and the computer subsystem; wherein the instructions, when executed by the processor, cause the medical device identifier to: sequentially excite the coil, via the digital-to-analog converter and the drive circuitry, to generate electromagnetic waveforms corresponding to one or more of the digitized waveforms; receive and digitize, via the coil and the receiver circuitry, a returned electromagnetic waveform transmitted from a medical device in response to the electromagnetic waveforms generated by the medical device identifier; and identify the medical device based on the digitized returned electromagnetic waveform. a coil; a computer subsystem comprising a processor and memory, the memory holding instructions executable by the processor and also holding a plurality of digitized waveforms; a digital-to-analog converter coupled to the processor; drive circuitry coupled to the coil and the digital-to-analog converter; and receiver circuitry coupled to the coil and the computer subsystem; wherein the instructions, when executed by the processor, cause the medical device identifier to: sequentially excite the coil, via the digital-to-analog converter and the drive circuitry, to generate electromagnetic waveforms corresponding to one or more of the digitized waveforms; receive and digitize, via the coil and the receiver circuitry, a returned electromagnetic waveform transmitted from a medical device in response to the electromagnetic waveforms generated by the medical device identifier; and identify the medical device based on the digitized returned electromagnetic waveform. sequentially excite the coil, via the digital-to-analog converter and the drive circuitry, to generate electromagnetic waveforms corresponding to one or more of the digitized waveforms; receive and digitize, via the coil and the receiver circuitry, a returned electromagnetic waveform transmitted from a medical device in response to the electromagnetic waveforms generated by the medical device identifier; and identify the medical device based on the digitized returned electromagnetic waveform.
A transport device with multiple carriages (40, 41, 42) comprising a support structure (31, 45, 46, 47, 48) and comprising a support frame, in which a) at least two of the carriages (40, 41, 42) are formed as a support carriage (41, 42), which support the support frame by means of the support structure (31, 45, 46, 47, 48), and which are connected to each other at least via the support structure (31, 45, 46, 47, 48); b) at least one of the carriages (40, 41, 42) is formed as a tractor, by means of which the transport device can be driven, characterized in that c) the at least one tractor and the support structure (31, 45, 46, 47, 48) are connected to each other by means of a pendulum device, wherein d) the support structure (31, 45, 46, 47, 48) comprises a spreader beam, and the pendulum device is arranged between the spreader beam and the at least one tractor in such a way that energy, which is supplied to the tractor during a push, can be converted into a lifting of the spreader beam. a) at least two of the carriages (40, 41, 42) are formed as a support carriage (41, 42), which support the support frame by means of the support structure (31, 45, 46, 47, 48), and which are connected to each other at least via the support structure (31, 45, 46, 47, 48); b) at least one of the carriages (40, 41, 42) is formed as a tractor, by means of which the transport device can be driven, c) the at least one tractor and the support structure (31, 45, 46, 47, 48) are connected to each other by means of a pendulum device, wherein d) the support structure (31, 45, 46, 47, 48) comprises a spreader beam, and the pendulum device is arranged between the spreader beam and the at least one tractor in such a way that energy, which is supplied to the tractor during a push, can be converted into a lifting of the spreader beam.
A time synchronization method for a passive optical network, comprising: implementing time synchronization between an Optical Line Terminal,OLT, and a superior device of the OLT by using an IEEE1588 protocol; characterized by implementing time synchronization from the OLT to an Optical Network Unit,ONU, by using a management path, comprising: by the OLT, calculating a transmission delay between the OLT and the ONU, and transferring time information from the OLT to the ONU by using the management path, wherein the time information includes the transmission delay between the ONU and the OLT and sending time identifier information of the time information, wherein the sending time identifier information comprises a secondsfield and a nanosecondsfield; and by the ONU, calculating a time offset between the ONU and the OLT according to the time information and implementing the time synchronization with the OLT; wherein the management path is an ONU Management and Control Interface, OMCI, message path; and the sending time identifier information of the time information comprises the sending time of a frame triggering the time synchronization and the frame number of the frame. implementing time synchronization between an Optical Line Terminal,OLT, and a superior device of the OLT by using an IEEE1588 protocol; characterized by implementing time synchronization from the OLT to an Optical Network Unit,ONU, by using a management path, comprising: by the OLT, calculating a transmission delay between the OLT and the ONU, and transferring time information from the OLT to the ONU by using the management path, wherein the time information includes the transmission delay between the ONU and the OLT and sending time identifier information of the time information, wherein the sending time identifier information comprises a secondsfield and a nanosecondsfield; and by the ONU, calculating a time offset between the ONU and the OLT according to the time information and implementing the time synchronization with the OLT; by the OLT, calculating a transmission delay between the OLT and the ONU, and transferring time information from the OLT to the ONU by using the management path, wherein the time information includes the transmission delay between the ONU and the OLT and sending time identifier information of the time information, wherein the sending time identifier information comprises a secondsfield and a nanosecondsfield; and by the ONU, calculating a time offset between the ONU and the OLT according to the time information and implementing the time synchronization with the OLT; wherein the management path is an ONU Management and Control Interface, OMCI, message path; and the sending time identifier information of the time information comprises the sending time of a frame triggering the time synchronization and the frame number of the frame.
A method for adjusting image data defining an image, the method comprising: (i) generating a saliency map once for a scene of the image data, the scene comprising a plurality of frames of the image data; wherein generating the saliency map comprises obtaining metadata specifying one or more special areas within the image and setting the special areas to have increased saliency in the saliency map; (ii) establishing a global transformation based on the scene of the image data wherein establishing the global transformation comprises ignoring parts of the scene of the image data corresponding to image areas indicated by the saliency map as having low saliency or weighing parts of the scene of the image data corresponding to image areas indicated by the saliency map as having low saliency less heavily than other parts of the scene of the image data corresponding to image areas indicated by the saliency map as having higher saliency; wherein steps (i) and (ii) are repeated once for each scene of the image data, each scene comprising a plurality of frames of the image data; and (iii) applying the global transformation to the image data. (i) generating a saliency map once for a scene of the image data, the scene comprising a plurality of frames of the image data; wherein generating the saliency map comprises obtaining metadata specifying one or more special areas within the image and setting the special areas to have increased saliency in the saliency map; (ii) establishing a global transformation based on the scene of the image data wherein establishing the global transformation comprises ignoring parts of the scene of the image data corresponding to image areas indicated by the saliency map as having low saliency or weighing parts of the scene of the image data corresponding to image areas indicated by the saliency map as having low saliency less heavily than other parts of the scene of the image data corresponding to image areas indicated by the saliency map as having higher saliency; wherein steps (i) and (ii) are repeated once for each scene of the image data, each scene comprising a plurality of frames of the image data; and (iii) applying the global transformation to the image data.
A method of transmission scheduling implemented by a scheduling node, the method comprising: transmitting, to a radio node configured for sub-subframe operation, a semi-persistent scheduling, SPS, configuration message configuring the radio node for sub-subframe-based SPS; wherein the SPS configuration message comprises an identifier of the radio node and indicates a pattern of sub-subframes in which a resource allocation for the radio node repeats, and wherein the method further comprises determining a Hybrid Automatic Repeat Request, HARQ, process identifier corresponding to a data transmission on a particular sub-subframe, wherein determining the HARQ process identifier is based on a position of the particular sub-subframe within a comprising subframe according to: HARQ Process ID = floor CURRENT _ TTI / semiPersistSchedIntervalUL * SSFs modulo numberOfConfUISPS-Processes; wherein CURRENT_TTI = [(SFN * 10 * SSFs) + (sub_num * SSFs) + ssf_pos]; wherein semiPersistSchedlntervalUL is a subframe-based SPS period; wherein SSFs is a number sub-subframes within the subframe; wherein numberOfConfUISPS-Processes is a total number of HARQ process identifiers configured; wherein SFN is a system frame number; wherein sub_num is an index of the subframe within a larger frame structure; wherein ssf_pos is an index of the particular sub-subframe within the subframe. transmitting, to a radio node configured for sub-subframe operation, a semi-persistent scheduling, SPS, configuration message configuring the radio node for sub-subframe-based SPS; wherein the SPS configuration message comprises an identifier of the radio node and indicates a pattern of sub-subframes in which a resource allocation for the radio node repeats, and wherein the method further comprises determining a Hybrid Automatic Repeat Request, HARQ, process identifier corresponding to a data transmission on a particular sub-subframe, wherein determining the HARQ process identifier is based on a position of the particular sub-subframe within a comprising subframe according to: HARQ Process ID = floor CURRENT _ TTI / semiPersistSchedIntervalUL * SSFs modulo numberOfConfUISPS-Processes; wherein CURRENT_TTI = [(SFN * 10 * SSFs) + (sub_num * SSFs) + ssf_pos]; wherein semiPersistSchedlntervalUL is a subframe-based SPS period; wherein SSFs is a number sub-subframes within the subframe; wherein numberOfConfUISPS-Processes is a total number of HARQ process identifiers configured; wherein SFN is a system frame number; wherein sub_num is an index of the subframe within a larger frame structure; wherein ssf_pos is an index of the particular sub-subframe within the subframe.
A treated vapor permeable microporous membrane comprising: a microporous membrane comprising a first side and a second side opposite the first side, the membrane comprising a thermoplastic organic polymer comprising a polyolefin, the membrane defining a network of interconnecting pores communicating substantially throughout the membrane; finely divided, substantially water-insoluble particulate filler having less than 50 mg/L solubility in pure water at 25°C distributed throughout the membrane and constituting 10 to 90 weight percent of the membrane, based on the total weight of the membrane and the particulate filler, wherein the particulate filler comprises siliceous particles comprising particulate silica; a first hydrophobic/oleophobic material applied over at least a portion of the first side, the first side over which the first hydrophobic/oleophobic material is applied demonstrating a water contact angle of at least 90° using Kruss Drop Shape Analysis and/or an oil rating of at least 6 based on AATCC test method 118-2007; and a hydrophilic coating over at least a portion of the second side, the second side over which the hydrophilic coating has been applied demonstrating a water contact angle of less than 90° using Kruss Drop Shape Analysis; wherein the polyolefin constitutes at least 2 weight percent of the membrane, based on the total weight of the membrane and the particulate filler, wherein the membrane has a mean pore size determined by mercury porosimetry of up to 0.2 μm, and wherein the first hydrophobic/oleophobic material comprises at least one fluoro-alkyl group. a microporous membrane comprising a first side and a second side opposite the first side, the membrane comprising a thermoplastic organic polymer comprising a polyolefin, the membrane defining a network of interconnecting pores communicating substantially throughout the membrane; finely divided, substantially water-insoluble particulate filler having less than 50 mg/L solubility in pure water at 25°C distributed throughout the membrane and constituting 10 to 90 weight percent of the membrane, based on the total weight of the membrane and the particulate filler, wherein the particulate filler comprises siliceous particles comprising particulate silica; a first hydrophobic/oleophobic material applied over at least a portion of the first side, the first side over which the first hydrophobic/oleophobic material is applied demonstrating a water contact angle of at least 90° using Kruss Drop Shape Analysis and/or an oil rating of at least 6 based on AATCC test method 118-2007; and a hydrophilic coating over at least a portion of the second side, the second side over which the hydrophilic coating has been applied demonstrating a water contact angle of less than 90° using Kruss Drop Shape Analysis; wherein the polyolefin constitutes at least 2 weight percent of the membrane, based on the total weight of the membrane and the particulate filler, wherein the membrane has a mean pore size determined by mercury porosimetry of up to 0.2 μm, and wherein the first hydrophobic/oleophobic material comprises at least one fluoro-alkyl group.