mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit for electrochemically measuring target analytes in a subject comprising: a. a recording module array coupled to a plurality of microelectrodes disposable on, in or adjacent to the subject for recording analog signals relating to chemically bonded analytes of the subject; b. an op-amp-less delta-sigma-ADC-based potentiostat circuit for providing a digitized representation of the recorded analog signals, the potentiostat circuit comprising: i. an op-amp less integrator circuit coupled to the recording module array, the integrator circuit comprising a grounded capacitor for integration of the recorded analog signal; ii. a comparator coupled to an output of the integrator circuit to reduce signal distortion thereof; iii. a digital-to-analog converter providing a negative feedback loop from an output of the comparator to the output of the integrator circuit; and iv. a pulse shaping block providing an output signal of the potentiostat; and c. an impedance spectroscopy circuit coupled to the output signal of the potentiostat comprising a 1 bit XOR gate and a counter for receiving a waveform and the output signal, the counter comprising a 1 bit multiplication of the output signal, the 1 bit XOR gate acting on the output signal of the potentiostat prior to the counter. a. a recording module array coupled to a plurality of microelectrodes disposable on, in or adjacent to the subject for recording analog signals relating to chemically bonded analytes of the subject; b. an op-amp-less delta-sigma-ADC-based potentiostat circuit for providing a digitized representation of the recorded analog signals, the potentiostat circuit comprising: i. an op-amp less integrator circuit coupled to the recording module array, the integrator circuit comprising a grounded capacitor for integration of the recorded analog signal; ii. a comparator coupled to an output of the integrator circuit to reduce signal distortion thereof; iii. a digital-to-analog converter providing a negative feedback loop from an output of the comparator to the output of the integrator circuit; and iv. a pulse shaping block providing an output signal of the potentiostat; and i. an op-amp less integrator circuit coupled to the recording module array, the integrator circuit comprising a grounded capacitor for integration of the recorded analog signal; ii. a comparator coupled to an output of the integrator circuit to reduce signal distortion thereof; iii. a digital-to-analog converter providing a negative feedback loop from an output of the comparator to the output of the integrator circuit; and iv. a pulse shaping block providing an output signal of the potentiostat; and c. an impedance spectroscopy circuit coupled to the output signal of the potentiostat comprising a 1 bit XOR gate and a counter for receiving a waveform and the output signal, the counter comprising a 1 bit multiplication of the output signal, the 1 bit XOR gate acting on the output signal of the potentiostat prior to the counter.
An aerosol delivery device (10; 210; 310; 410) comprising: an airflow inlet (19; 242; 330; 414); a mouthpiece region having an outlet (20; 230; 331; 415), wherein the mouthpiece region is removably attached to the aerosol delivery device; an airflow passage extending between the airflow inlet and the outlet; a slot to receive a cartridge, wherein the cartridge includes a substance placed over a vapor element, wherein the vapor element comprising an electrically-resistive heating support configured to, when activated, vaporize the substance to produce a condensation aerosol; a battery to provide power; a microcontroller chip (428; 438) coupled to the battery to receive power and configured to regulate the vapor element, wherein, in response to each inhalation, the microcontroller chip is configured to activate the vapor element to release a respective dose of the condensation aerosol of the substance; characterised by: a USB connector or the like configured to draw power from an external device or an A/C power adapter to charge the battery; and an electrical contact configured to provide electrical communication between the microcontroller chip and the cartridge. an airflow inlet (19; 242; 330; 414); a mouthpiece region having an outlet (20; 230; 331; 415), wherein the mouthpiece region is removably attached to the aerosol delivery device; an airflow passage extending between the airflow inlet and the outlet; a slot to receive a cartridge, wherein the cartridge includes a substance placed over a vapor element, wherein the vapor element comprising an electrically-resistive heating support configured to, when activated, vaporize the substance to produce a condensation aerosol; a battery to provide power; a microcontroller chip (428; 438) coupled to the battery to receive power and configured to regulate the vapor element, wherein, in response to each inhalation, the microcontroller chip is configured to activate the vapor element to release a respective dose of the condensation aerosol of the substance; characterised by: a USB connector or the like configured to draw power from an external device or an A/C power adapter to charge the battery; and an electrical contact configured to provide electrical communication between the microcontroller chip and the cartridge. a USB connector or the like configured to draw power from an external device or an A/C power adapter to charge the battery; and an electrical contact configured to provide electrical communication between the microcontroller chip and the cartridge.
A motorcycle brake system, comprising: a brake operating unit which makes a master cylinder generate a hydraulic pressure, a braking unit which applies a braking force corresponding to a supplied hydraulic pressure to a wheel, an on-off valve which blocks a brake passage connecting the brake operating unit and the braking unit, thereby isolating a portion on the brake operating unit side of the brake passage and a portion on the braking unit side of the brake passage from each other, a hydraulic sensor which is provided on the brake operating unit side of the brake passage and detects a hydraulic pressure, a modulator which supplies a predetermined amount of hydraulic pressure to the braking unit based on a result of detection by the hydraulic sensor, and a hydraulic loss simulator which supplies a reaction force to the brake operating unit when the brake passage is blocked, the motorcycle brake system allocating a braking force to front and rear wheels by controlling the modulator based on a result of detection by the hydraulic sensor, characterised in that the brake operating unit has a switch for detecting starting of operation thereof, and the on-off valve blocks the brake passage based on a result of detection by the switch and unblocks the brake passage when a predetermined amount of time elapses without any input made to the hydraulic sensor in a standby state with the brake passage blocked. a brake operating unit which makes a master cylinder generate a hydraulic pressure, a braking unit which applies a braking force corresponding to a supplied hydraulic pressure to a wheel, an on-off valve which blocks a brake passage connecting the brake operating unit and the braking unit, thereby isolating a portion on the brake operating unit side of the brake passage and a portion on the braking unit side of the brake passage from each other, a hydraulic sensor which is provided on the brake operating unit side of the brake passage and detects a hydraulic pressure, a modulator which supplies a predetermined amount of hydraulic pressure to the braking unit based on a result of detection by the hydraulic sensor, and a hydraulic loss simulator which supplies a reaction force to the brake operating unit when the brake passage is blocked, the motorcycle brake system allocating a braking force to front and rear wheels by controlling the modulator based on a result of detection by the hydraulic sensor, characterised in that the brake operating unit has a switch for detecting starting of operation thereof, and the on-off valve blocks the brake passage based on a result of detection by the switch and unblocks the brake passage when a predetermined amount of time elapses without any input made to the hydraulic sensor in a standby state with the brake passage blocked.
A back-light unit, comprising: a printed circuit board; a plurality of light emitting diode light sources formed on the PCB; a resin layer stacked on the PCB to embed the LED light sources therein, and diffusing and guiding light forwards; and a diffusion plate having an optical pattern formed thereon to shield light emitted from the LED light sources, wherein the optical pattern comprises a first pattern that is a diffusion pattern formed using light shielding ink containing at least one substance selected from the group consisting of TiO 2, CaCO 3, BaSO 4, Al 2 O 3, and silicon, or a mixture consisting of two or more substances selected from the group; and a second pattern formed on an lower portion of the first pattern, and the second pattern is a shielding pattern, characterized by the fact that the first pattern is formed as one layer and the second pattern is formed as another layer, wherein the second pattern is formed of light shielding ink containing Al or a mixture of Al and TiO 2, and wherein the optical pattern is formed on a lower surface of the diffusion plate in a light emitting direction by overlapping printing the diffusion pattern and the shielding pattern. wherein the optical pattern comprises a first pattern that is a diffusion pattern formed using light shielding ink containing at least one substance selected from the group consisting of TiO 2, CaCO 3, BaSO 4, Al 2 O 3, and silicon, or a mixture consisting of two or more substances selected from the group; and a second pattern formed on an lower portion of the first pattern, and the second pattern is a shielding pattern, characterized by the fact that the first pattern is formed as one layer and the second pattern is formed as another layer, wherein the second pattern is formed of light shielding ink containing Al or a mixture of Al and TiO 2, and wherein the optical pattern is formed on a lower surface of the diffusion plate in a light emitting direction by overlapping printing the diffusion pattern and the shielding pattern.
A photoelectric conversion element comprising: a photoanode; a counter electrode; a solid compound layer disposed between the photoanode and the counter electrode; a charge storage electrode disposed at an interspace from the counter electrode; and an electrolyte medium being contained in the solid compound layer and filling the interspace, characterized in that the solid compound layer includes a polymer gel layer containing a polymer having an oxidation-reduction site, the oxidation-reduction site includes a stable radical, and the electrolyte medium is an electrolyte solution, and an oxidation-reduction substance contained in the electrolyte solution is 10 mM at the most. a photoanode; a counter electrode; a solid compound layer disposed between the photoanode and the counter electrode; a charge storage electrode disposed at an interspace from the counter electrode; and an electrolyte medium being contained in the solid compound layer and filling the interspace, characterized in that the solid compound layer includes a polymer gel layer containing a polymer having an oxidation-reduction site, the oxidation-reduction site includes a stable radical, and the electrolyte medium is an electrolyte solution, and an oxidation-reduction substance contained in the electrolyte solution is 10 mM at the most.
A method for wireless communications, the method performed by a user equipment, UE, the method comprising: receiving a Typeo-physical downlink control channel, PDCCH, common search space control resource set, CORESET, configuration and a physical resource block, PRB, grid offset in a physical broadcast channel, PBCH, the Typeo-PDCCH common search space CORESET configuration comprising an indication indicative of one or more offset values corresponding to one or more offsets relating to frequency locations of Typeo-PDCCH common search space CORESET resource blocks, PRBs, relative to frequency locations of PRBs of a SSB; aligning a PRB grid of SSB with a PRB grid of Typeo-PDCCH common search space CORESET by applying the PRB grid offset; mapping the indication to the one or more offset values using a mapping stored by the UE; determining the frequency locations of the Typeo-PDCCH common search space CORESET PRBs based on the one or more offset values and the frequency locations of the PRBs of the SSB; and receiving Typeo-PDCCH in the Typeo-PDCCH common search space CORESET; wherein each of the one or more offset values is based on at least an offset step size; and wherein the offset step size depends on at least the subcarrier spacing of the Typeo-PDCCH common search space CORESET. receiving a Typeo-physical downlink control channel, PDCCH, common search space control resource set, CORESET, configuration and a physical resource block, PRB, grid offset in a physical broadcast channel, PBCH, the Typeo-PDCCH common search space CORESET configuration comprising an indication indicative of one or more offset values corresponding to one or more offsets relating to frequency locations of Typeo-PDCCH common search space CORESET resource blocks, PRBs, relative to frequency locations of PRBs of a SSB; aligning a PRB grid of SSB with a PRB grid of Typeo-PDCCH common search space CORESET by applying the PRB grid offset; mapping the indication to the one or more offset values using a mapping stored by the UE; determining the frequency locations of the Typeo-PDCCH common search space CORESET PRBs based on the one or more offset values and the frequency locations of the PRBs of the SSB; and receiving Typeo-PDCCH in the Typeo-PDCCH common search space CORESET; wherein each of the one or more offset values is based on at least an offset step size; and wherein the offset step size depends on at least the subcarrier spacing of the Typeo-PDCCH common search space CORESET.
A process for the preparation of ethylene homopolymers or copolymers in a facility, the facility comprising a high-pressure tubular reactor used in a continuous flow mode with a reaction fluid comprising or consisting of ethylene being introduced into the reactor at a reactor inlet and polymer leaving the reactor at a reactor outlet and the facility further comprising a preheater having an inlet and an outlet, wherein the process comprises the following steps: a) compressing the reaction fluid to an elevated pressure; b) heating at least a portion of the reaction fluid in the preheater; c) introducing the reaction fluid heated in step b) into the reactor at the reactor inlet; and d) polymerizing the reaction fluid at the elevated pressure in the presence of free-radical polymerization initiators in the reactor, wherein the average velocity of the reaction fluid at the outlet of the preheater is lower than the average velocity of the reaction fluid in the tubular reactor at the reactor inlet and the ratio of the average velocity of the reaction fluid in the tubular reactor at the reactor inlet to the average velocity of the reaction fluid in the preheater at the outlet of the preheater is in the range from 1.5 to 5. a) compressing the reaction fluid to an elevated pressure; b) heating at least a portion of the reaction fluid in the preheater; c) introducing the reaction fluid heated in step b) into the reactor at the reactor inlet; and d) polymerizing the reaction fluid at the elevated pressure in the presence of free-radical polymerization initiators in the reactor,
A compound immunologic adjuvant, characterized by comprising alhydrogel and sodium chloride; the final mass fraction of the sodium chloride in the compound immunologic adjuvant is 3.6% - 4.5%.
An arrangement for mounting a boil-off pipe of a liquefied gas fuel system to a vehicle, said vehicle having a tiltable cab, said fuel system having a chassis-mounted liquefied gas fuel tank for providing fuel to the engine of the vehicle, wherein evaporated gas is arranged to be evacuated from said tank via said boil-off pipe at a certain tank pressure, said boil-off pipe being arranged in connection to a rear side of the cab via a connection arrangement (30; 130) of said arrangement, characterized in that said boil-off pipe is attached to the rear side of the cab, wherein said connection arrangement (30; 130) comprises a flexible tube (34; 134) arranged to be connected at one end to the tank and at the other end to the boil-off pipe, wherein said connection arrangement (30; 130) comprises a link arm configuration (32; 132) comprising at least one link arm (32a; 132-1, 132-2, 132-3) arranged to be pivotably connected at one end (32a-1; 132-1a) to the rear side of the cab, wherein said link arm configuration (32; 132) is arranged to support said flexible tube (34; 134) so as to accommodate a tilting movement of said cab.
An ejector unit of a furniture part mounted so it is movable on a furniture body, having an electrically drivable ejector device having an ejector element and a power supply unit which powers the ejector device, wherein the ejector unit has a housing for the mutual accommodation of the ejector device and the power supply unit characterized in that the housing has a plug device for attaching at least one further ejector device and/or at least one controlled terminal.
Method for searching for leaks in a water pipeline network, comprising: • acquiring georeferencing data of a water pipeline network and data indicative of georeferenced secondary cosmic radiation measurements carried out in a region of the earth's surface where said water pipeline network extends (block 21); • carrying out a processing of the acquired data and generating, based on the processing carried out, a georeferenced digital map imaging the water pipeline network and soil moisture content in the region where said water pipeline network extends (block 22); and • detecting and locating one or more leaks in the water pipeline network based on the georeferenced digital map generated (block 23); characterized in that carrying out a processing of the acquired data includes estimating the soil moisture content in the region where the water pipeline network extends, based on the data indicative of the georeferenced secondary cosmic radiation measurements carried out in said region, by using correction factors for the measurements which take into account: • radial and anisotropy sensitivity effects of the georeferenced secondary cosmic radiation measurements carried out; • values of air humidity, atmospheric pressure and intensity of the incident secondary cosmic radiation detected/measured simultaneously to execution of said measurements in the region where the water pipeline network extends or in positions of the earth's surface where said measurements are carried out; • effects related to presence of vegetation and/or artificial or natural humidity. • acquiring georeferencing data of a water pipeline network and data indicative of georeferenced secondary cosmic radiation measurements carried out in a region of the earth's surface where said water pipeline network extends (block 21); • carrying out a processing of the acquired data and generating, based on the processing carried out, a georeferenced digital map imaging the water pipeline network and soil moisture content in the region where said water pipeline network extends (block 22); and • detecting and locating one or more leaks in the water pipeline network based on the georeferenced digital map generated (block 23); characterized in that carrying out a processing of the acquired data includes estimating the soil moisture content in the region where the water pipeline network extends, based on the data indicative of the georeferenced secondary cosmic radiation measurements carried out in said region, by using correction factors for the measurements which take into account: • radial and anisotropy sensitivity effects of the georeferenced secondary cosmic radiation measurements carried out; • values of air humidity, atmospheric pressure and intensity of the incident secondary cosmic radiation detected/measured simultaneously to execution of said measurements in the region where the water pipeline network extends or in positions of the earth's surface where said measurements are carried out; • effects related to presence of vegetation and/or artificial or natural humidity.
An automated moving head luminaire comprising: an LED array mounted in a remotely controllable moving head to change the direction of an emanated light beam, the LED array generating light and heat; one or more heat conductive elements adapted to conduct the heat from the LED array into a first heat exchanger; characterized in that it further comprises a second remotely sited heat exchanger where the heat is dissipated; and a pump adapted to pump fluid between the first heat exchanger and the second heat exchanger. an LED array mounted in a remotely controllable moving head to change the direction of an emanated light beam, the LED array generating light and heat; one or more heat conductive elements adapted to conduct the heat from the LED array into a first heat exchanger; characterized in that it further comprises a second remotely sited heat exchanger where the heat is dissipated; and a pump adapted to pump fluid between the first heat exchanger and the second heat exchanger.
An electrode plate stacking apparatus for a prismatic secondary battery, wherein a positive electrode plate and a negative electrode plate are supplied alternately on a stack base and a separator is provided between the positive electrode plate and the negative electrode plate, characterized in that the apparatus comprises: a vacuum belt conveyor (10, 10a, 11, 11a) for moving electrode plates (1, 2) along a transfer line; a stack base; a first swing unit (20, 20a) capable of performing a swing motion about an axis (25, 25a) parallel to a horizontal plane, configured to unload an electrode plate (1, 2) from the vacuum belt conveyor (10, 10a, 11, 11a) and load it onto the stack base, wherein the vacuum belt conveyor (10, 10a, 11, 11a) is configured to be inclined with respect to the horizontal plane to allow the first swing unit (20, 20a) to load or unload the electrode plate (1, 2) at both ends of the swing motion. a vacuum belt conveyor (10, 10a, 11, 11a) for moving electrode plates (1, 2) along a transfer line; a stack base; a first swing unit (20, 20a) capable of performing a swing motion about an axis (25, 25a) parallel to a horizontal plane, configured to unload an electrode plate (1, 2) from the vacuum belt conveyor (10, 10a, 11, 11a) and load it onto the stack base, wherein the vacuum belt conveyor (10, 10a, 11, 11a) is configured to be inclined with respect to the horizontal plane to allow the first swing unit (20, 20a) to load or unload the electrode plate (1, 2) at both ends of the swing motion.