mhurhangee/ep-ind-claims huggingface dataset:
A communication method for a home automation actuator comprising an electric motor driving a moving element in a building and two electric terminals (a1, a2) making it possible to power the actuator by a power supply and communication entity and allowing communication between the actuator and the power supply and communication entity, the method comprising the following steps: - analysis of a power supply signal (U, i) supplied by the power supply and communication entity; - generation of a first time-sequence of a response signal (I, u), representative of a predetermined calibration binary element (bCal), called first calibration sequence (SeqCal); - sending of a series of time-sequences of the response signal (I, u), representative of a series of binary elements, each binary element of this series, equal to the calibration binary element (bCal), being represented by a time-sequence which is an image of the first calibration sequence (SeqCal). - analysis of a power supply signal (U, i) supplied by the power supply and communication entity; - generation of a first time-sequence of a response signal (I, u), representative of a predetermined calibration binary element (bCal), called first calibration sequence (SeqCal); - sending of a series of time-sequences of the response signal (I, u), representative of a series of binary elements, each binary element of this series, equal to the calibration binary element (bCal), being represented by a time-sequence which is an image of the first calibration sequence (SeqCal).
A hydroxypropyl methyl cellulose acetate succinate (HPMCAS), having a viscosity of up to 2.33 mPa•s, measured as a 2.0 wt% solution of the HPMCAS in 0.43 wt% aqueous NaOH at 20 °C, having a viscosity of up to 19 mPa•s, measured as a 10 wt% solution of the HPMCAS in acetone at 20 °C, and having a weight average molecular weight M w of at least 90,000 Dalton.
A biological component detection device for detecting a component of a biological object using light in the near-infrared region, comprising one or more light-receiving elements or an light-receiving element array composed of a III-V group semiconductor, that receive light in the near-infrared region, wherein the one or more light-receiving elements or the light-receiving element array include an absorption layer formed on an InP substrate and having a multiple quantum well structure, wherein the absorption layer has a bandgap wavelength of 1.8 μm or more and 3 μm or less, a diffusion concentration distribution control layer made of III-V group semiconductor is disposed in contact with the absorption layer on a surface side of the absorption layer, the surface side being opposite to the InP substrate, wherein the diffusion concentration distribution control layer has a bandgap smaller than that of InP, a pn-junction, in the one or more light-receiving elements or the light-receiving element array, formed by selectively diffusing an impurity element through the diffusion concentration distribution control layer so as to reach the absorption layer, a spectral separation unit configured to spectrally separate light, wherein the one or more light-receiving elements or the light-receiving element array are located in accordance with the spectrally separated wavelength; and a control unit configured to perform an operation on the basis of the results of light reception performed by the one or more light-receiving elements or the light-receiving element array to calculate the concentration of the component of the biological object, wherein the spectral separation unit is disposed on the irradiation side of the light of the detection portion or behind the detection portion when viewed from the irradiation side, characterized in that the concentration of the impurity element selectively diffused in the diffusion concentration distribution control layer is decreased to be 5 × 10 16 /cm 3 or less toward the absorption layer, the detection is performed by receiving, with the one or more light-receiving elements or the light-receiving element array, light having at least one wavelength of 3 μm or less, the light constituting light transmitted through or reflected from the biological object, the biological object is irradiated with light in the wavelength region, and light reflected from the biological object or light transmitted through the biological object is received to detect at least one component selected from glucose, grape sugar, hemoglobin, cholesterol, albumin, active oxygen, and collagen contained in the biological object.
An atomizer, comprising: a housing; a receiving chamber defined in the housing, the receiving chamber being configured for storing tobacco liquid, the receiving chamber having a liquid inlet; an atomizing unit arranged in the housing, the atomizing unit being configured for generating aerosol from the tobacco liquid; and a deformable valve hermetically engaged in the liquid inlet, the valve being capable of deforming upon an external force exerted by an injector, so that tobacco liquid can be injected into the receiving chamber via the liquid inlet, and capable of restoring to its original shape to seal the liquid inlet when the injector is moved out, characterized in that the atomizer further comprises a mouthpiece detachably connected with an end of the housing adjacent to the liquid inlet, wherein the mouthpiece comprises a sealing part configured for sealing the liquid inlet. a housing; a receiving chamber defined in the housing, the receiving chamber being configured for storing tobacco liquid, the receiving chamber having a liquid inlet; an atomizing unit arranged in the housing, the atomizing unit being configured for generating aerosol from the tobacco liquid; and a deformable valve hermetically engaged in the liquid inlet, the valve being capable of deforming upon an external force exerted by an injector, so that tobacco liquid can be injected into the receiving chamber via the liquid inlet, and capable of restoring to its original shape to seal the liquid inlet when the injector is moved out, characterized in that the atomizer further comprises a mouthpiece detachably connected with an end of the housing adjacent to the liquid inlet, wherein the mouthpiece comprises a sealing part configured for sealing the liquid inlet.
A method comprising: determining, by a wireless device, that a reference signal associated with a first control resource set, coreset, pool index overlaps in time with a downlink signal associated with a second coreset pool index; and based on the first coreset pool index and the second coreset pool index being the same, receiving the reference signal with a transmission configuration indicator, TCI, state of the downlink signal. determining, by a wireless device, that a reference signal associated with a first control resource set, coreset, pool index overlaps in time with a downlink signal associated with a second coreset pool index; and based on the first coreset pool index and the second coreset pool index being the same, receiving the reference signal with a transmission configuration indicator, TCI, state of the downlink signal.
Clothing for an infant having functions of preventing the neck from bending back and protecting the back of the head, the clothing comprising: - a frame structure body comprising: a head base plate for supporting the head of the infant in response to the head of the infant bending back excessively; a vertical core base plate connected to the head base plate; and a horizontal core base plate integrally formed with a lower end of the horizontal core base plate in a perpendicular direction; the clothing being characterized in that said vertical core base plate is hinged to the head base plate by means of a bar-shaped hinge member; and the frame structure body further comprises a stopper member which is installed on the vertical core base plate such that the backward inclination of the head base plate beyond a predetermined angle is prevented, and the clothing further comprises: - a silicon cover configured to have the frame structure body accommodated therein, and form a side exterior of the clothing for the infant; and - a cushion fabric installed in a front and a back of the frame structure body installed within the silicon cover to form a cushion layer so as to prevent the frame structure body from being in contact with the infant. - a frame structure body comprising: a head base plate for supporting the head of the infant in response to the head of the infant bending back excessively; a vertical core base plate connected to the head base plate; and a horizontal core base plate integrally formed with a lower end of the horizontal core base plate in a perpendicular direction; - a silicon cover configured to have the frame structure body accommodated therein, and form a side exterior of the clothing for the infant; and - a cushion fabric installed in a front and a back of the frame structure body installed within the silicon cover to form a cushion layer so as to prevent the frame structure body from being in contact with the infant.
A conductive wire properties detector for detecting the properties of a conductive wire comprising means for measuring wire diameter (8, 9), magnetic permeability (11, 12) and resistivity (1,2,3,4,6,7), and means for transmitting these parameters to a microprocessor, the microprocessor arranged to compare the measured wire diameter, magnetic permeability and wire resisistivity with a database and in this way achieving wire identification, wherein the means comprise one sensor for reading the wire diameter, one sensor for determining the electrical resistivity and one sensor for determining the magnetic permeability, respectively.
An inflatable cushion (15, 27) for a vehicle air-bag system, comprising upper and lower layers (2; 3) of fabric woven from first yarns, comprising: a first and a second external connection (17; 21), at which the upper and lower layers (2; 3) are joined to one another by yarns of the upper and/or lower layers (2; 3) of fabric; first and second inflatable chambers (8, 13; 28a-28e) comprising regions (25; 26) over which the upper and lower layers (2; 3) of fabric are not connected to one another to form internal cavities into which compressed gas may be introduced to inflate the cavities; and at least one internal connection (24, 31), at which the upper and lower layers (2; 3) of fabric are joined to one another solely by one or more additional yarns, the one or more additional yarns drawing the upper and lower layers (2; 3) of the fabric together creating an internal connection, the connection not comprising any yarns from which the upper and lower layers (2; 3) are woven, the connection having zero or near-zero depth, the at least one internal connection (24, 31) defining an internal division between the first and second inflatable chambers (8, 13; 28a-28e). a first and a second external connection (17; 21), at which the upper and lower layers (2; 3) are joined to one another by yarns of the upper and/or lower layers (2; 3) of fabric; first and second inflatable chambers (8, 13; 28a-28e) comprising regions (25; 26) over which the upper and lower layers (2; 3) of fabric are not connected to one another to form internal cavities into which compressed gas may be introduced to inflate the cavities; and at least one internal connection (24, 31), at which the upper and lower layers (2; 3) of fabric are joined to one another solely by one or more additional yarns, the one or more additional yarns drawing the upper and lower layers (2; 3) of the fabric together creating an internal connection, the connection not comprising any yarns from which the upper and lower layers (2; 3) are woven, the connection having zero or near-zero depth, the at least one internal connection (24, 31) defining an internal division between the first and second inflatable chambers (8, 13; 28a-28e).
A method for rendering audio for playback through headphones used by a listener, comprising: receiving digital audio content including channel and object-based audio; receiving content dependent metadata generated by an authoring tool, wherein the content dependent metadata controls a plurality of channel and object characteristics and includes positions of audio objects in the object-based audio; characterized in that the method further comprises: receiving sensor data (316; 336) from a camera-based or sensor-based tracking device being a face-tracking or head-tracking device, said sensor data including angular and positional parameters (r, θ, φ) associated with the listener's head; and rendering the digital audio content in response to a combination of the content dependent metadata and the sensor data; wherein the content dependent metadata further comprises a flag indicating to apply head tracking for an object, and wherein rendering the digital audio content includes, for said object for which head tracking is indicated to be applied, modifying a position of said object in response to the received angular and positional parameters (r, θ, φ). receiving digital audio content including channel and object-based audio; receiving content dependent metadata generated by an authoring tool, wherein the content dependent metadata controls a plurality of channel and object characteristics and includes positions of audio objects in the object-based audio; characterized in that the method further comprises: receiving sensor data (316; 336) from a camera-based or sensor-based tracking device being a face-tracking or head-tracking device, said sensor data including angular and positional parameters (r, θ, φ) associated with the listener's head; and rendering the digital audio content in response to a combination of the content dependent metadata and the sensor data; wherein the content dependent metadata further comprises a flag indicating to apply head tracking for an object, and wherein rendering the digital audio content includes, for said object for which head tracking is indicated to be applied, modifying a position of said object in response to the received angular and positional parameters (r, θ, φ). receiving sensor data (316; 336) from a camera-based or sensor-based tracking device being a face-tracking or head-tracking device, said sensor data including angular and positional parameters (r, θ, φ) associated with the listener's head; and rendering the digital audio content in response to a combination of the content dependent metadata and the sensor data; wherein the content dependent metadata further comprises a flag indicating to apply head tracking for an object, and wherein rendering the digital audio content includes, for said object for which head tracking is indicated to be applied, modifying a position of said object in response to the received angular and positional parameters (r, θ, φ).
Use of a resin binder comprising an amorphous polyester having a furan ring, in a toner, wherein the amorphous polyester has a crystallinity index of exceeding 1.4 or less than 0.6, wherein crystallinity index is the ratio of a softening point measured according to the description to the highest temperature of the endothermic peak determined according to the description by differential scanning calorimeter.
An oil camera apparatus for detecting and sampling dissolved hydrocarbons, the apparatus comprising: a housing; a film advance system integrated with the housing and configured to advance and expose a first frame of oleophilic film; and a control system configured to control the film advance system, CHARACTERISED IN THAT the apparatus further comprises: a shutter system disposed within the housing, the shutter system comprising: a shutter opening configured to expose at least a first frame of oleophilic film; and a shutter blade configured to move the shutter opening between (i) an open position to expose both the shutter opening and the first frame, and (ii) a closed position to cover the shutter opening; and a detection sensor, wherein an exposure time of the first frame of oleophilic film is based at least in part on direct or indirect input from the detection sensor, and furthermore, wherein the film advance system is configured to advance the first frame of oleophilic film into the shutter opening, and wherein the control system is configured to control the shutter system. a housing; a film advance system integrated with the housing and configured to advance and expose a first frame of oleophilic film; and a control system configured to control the film advance system, CHARACTERISED IN THAT the apparatus further comprises: a shutter system disposed within the housing, the shutter system comprising: a shutter opening configured to expose at least a first frame of oleophilic film; and a shutter blade configured to move the shutter opening between (i) an open position to expose both the shutter opening and the first frame, and (ii) a closed position to cover the shutter opening; and a detection sensor, wherein an exposure time of the first frame of oleophilic film is based at least in part on direct or indirect input from the detection sensor, and furthermore, wherein the film advance system is configured to advance the first frame of oleophilic film into the shutter opening, and wherein the control system is configured to control the shutter system. a shutter opening configured to expose at least a first frame of oleophilic film; and a shutter blade configured to move the shutter opening between (i) an open position to expose both the shutter opening and the first frame, and (ii) a closed position to cover the shutter opening; and a detection sensor, wherein an exposure time of the first frame of oleophilic film is based at least in part on direct or indirect input from the detection sensor, and furthermore, wherein the film advance system is configured to advance the first frame of oleophilic film into the shutter opening, and wherein the control system is configured to control the shutter system.
A method for immobilizing microorganisms, characterized in that one incorporates, in a medium for fixing the microorganisms, a nutrient reserve physically concentrated in one zone or physically separated in different zones, said reserve being suitable for said microorganisms and being positioned in said medium for fixing the microorganisms with a greater density in the zones that are at a greater distance from the external boundary of said medium, in that a crosslinking of this support medium is carried out, and in that one adds a sterile external layer without microorganisms and impermeable to said microorganisms.
Plug type connection having a connection nozzle and a line, wherein the connection nozzle has a substantially annular alternating outer profile, wherein a sleeve of a thermoplastic elastomer material which is injected with a dual-component injection-moulding method is connected in a positive-locking manner to the line which is produced from a thermoplastic, characterised in that the sleeve has a substantially annular alternating inner profile which corresponds to the substantially annular alternating outer profile of the connection nozzle.
A negative electrode material for a lithium-ion secondary cell, comprising carbon particles having an oxygen content of 0.005% by mass or more and 0.15% by mass or less, wherein the carbon particles have an R value of 0.45 or less and 0.15 or more, the R value of the carbon particles is a ratio of intensity IB to intensity IA (IB/IA) obtained by Raman measurement, where IA is an intensity of a maximum peak at approximately 1580 cm -1 and IB is an intensity of a maximum peak at approximately 1360 cm -1.
A method of physically coupling together a first aircraft and a second aircraft, the first aircraft being an aircraft in flight, the second aircraft being an aircraft in flight, the method comprising: sending, from a transmitter located on the first aircraft, an electromagnetic signal; receiving, by a receiver located on the second aircraft, the signal; determining, by one or more processors, using the signal received by the second aircraft, determining a position of one aircraft relative to the other aircraft; controlling, by one or more processors, using the determined position of one aircraft relative to the other aircraft, at least one of the first and second aircraft such that the first and second aircraft are in a predetermined configuration in which the first and second aircraft are physically coupled the method characterised in that the method further comprises providing that the transmitter and receiver are configurable to operate in a ranging mode whereby the electromagnetic signal is communicated according to a first modulation scheme, the first modulation scheme being suitable for ranging; and further comprising providing that the transmitter and receiver are configurable to operate in a data link mode whereby the electromagnetic signal is communicated according to a second modulation scheme, the second modulation scheme being suitable for data transfer and different to the first modulation scheme. sending, from a transmitter located on the first aircraft, an electromagnetic signal; receiving, by a receiver located on the second aircraft, the signal; determining, by one or more processors, using the signal received by the second aircraft, determining a position of one aircraft relative to the other aircraft; controlling, by one or more processors, using the determined position of one aircraft relative to the other aircraft, at least one of the first and second aircraft such that the first and second aircraft are in a predetermined configuration in which the first and second aircraft are physically coupled the method characterised in that the method further comprises providing that the transmitter and receiver are configurable to operate in a ranging mode whereby the electromagnetic signal is communicated according to a first modulation scheme, the first modulation scheme being suitable for ranging; and further comprising providing that the transmitter and receiver are configurable to operate in a data link mode whereby the electromagnetic signal is communicated according to a second modulation scheme, the second modulation scheme being suitable for data transfer and different to the first modulation scheme.
A vacuum cracking method for power battery, comprising the following steps: feeding waste power batteries from a feed hopper to enter a roller press for rolling treatment to obtain a crushed material; transporting the crushed material to the cracking unit for preheating, then heating and cracking the crushed material under an inert atmosphere or vacuum to obtain cracked gas, solid cracked products and non-crackable products; and transporting the solid cracked products and the non-crackable products to a pyrolysis unit for pyrolysis at an aerobic atmosphere to obtain pyrolysis gas and non-pyrolysis products, wherein the pyrolysis gas is mainly composed of carbon dioxide and water vapor, and the said non-pyrolysis products are mainly cathode material powder, anode material powder, copper powder, iron powder, aluminum powder and oxides of copper, iron and aluminum. feeding waste power batteries from a feed hopper to enter a roller press for rolling treatment to obtain a crushed material; transporting the crushed material to the cracking unit for preheating, then heating and cracking the crushed material under an inert atmosphere or vacuum to obtain cracked gas, solid cracked products and non-crackable products; and transporting the solid cracked products and the non-crackable products to a pyrolysis unit for pyrolysis at an aerobic atmosphere to obtain pyrolysis gas and non-pyrolysis products, wherein the pyrolysis gas is mainly composed of carbon dioxide and water vapor, and the said non-pyrolysis products are mainly cathode material powder, anode material powder, copper powder, iron powder, aluminum powder and oxides of copper, iron and aluminum.