mhurhangee/ep-ind-claims huggingface dataset:
An actuating device, particularly for ink-jet printheads, comprising: two or more solenoids, each comprising a coil and a ferromagnetic core which is inserted concentrically within the coil; a containment body, for containing the solenoids; an insulator element for each solenoid; each insulator element is made of a magnetic material and extends at least partially in proximity of a corresponding solenoid; characterized in that: the insulator elements are arranged outside of the containment body; each insulator element comprises two longitudinal portions parallel and opposed one to another; each solenoid is placed within the space between the longitudinal portions of the respective insulator element. two or more solenoids, each comprising a coil and a ferromagnetic core which is inserted concentrically within the coil; a containment body, for containing the solenoids; an insulator element for each solenoid; each insulator element is made of a magnetic material and extends at least partially in proximity of a corresponding solenoid; characterized in that: the insulator elements are arranged outside of the containment body; each insulator element comprises two longitudinal portions parallel and opposed one to another; each solenoid is placed within the space between the longitudinal portions of the respective insulator element. the insulator elements are arranged outside of the containment body; each insulator element comprises two longitudinal portions parallel and opposed one to another; each solenoid is placed within the space between the longitudinal portions of the respective insulator element.
A base station comprising: circuitry, which, in operation, configures a predefined first number of demodulation reference signals, DMRSs, the first number being a predefined value common to every subframe, or a second number of DMRSs for a terminal, which transmits an uplink signal formed by time-multiplexing a data symbol with a DMRS in one subframe, the second number being larger than the first number; a receiver, which, in operation, receives the uplink signal including the DMRSs and transmitted from the terminal; wherein the circuitry, in operation, performs channel estimation using the DMRS included in the received uplink signal, and configures the second number of DMRSs in a second subframe, in which the terminal transmits no sounding reference signal, SRS, the second number of DMRSs being obtained by adding additional DMRSs to the predefined first number of DMRSs, wherein when the second number of DMRSs is configured for the terminal, the circuitry, in operation, performs, in a first subframe, in which the SRS is transmitted, channel estimation using the first number of DMRSs and the SRS, and the circuitry, in operation, performs, in the second subframe, in which no SRS is transmitted, channel estimation using the first number of DMRSs and the additional DMRS, and wherein in the second subframe the additional DMRS is mapped to a position of the second subframe where the SRS is mapped in the first subframe. circuitry, which, in operation, configures a predefined first number of demodulation reference signals, DMRSs, the first number being a predefined value common to every subframe, or a second number of DMRSs for a terminal, which transmits an uplink signal formed by time-multiplexing a data symbol with a DMRS in one subframe, the second number being larger than the first number; a receiver, which, in operation, receives the uplink signal including the DMRSs and transmitted from the terminal; wherein the circuitry, in operation, performs channel estimation using the DMRS included in the received uplink signal, and configures the second number of DMRSs in a second subframe, in which the terminal transmits no sounding reference signal, SRS, the second number of DMRSs being obtained by adding additional DMRSs to the predefined first number of DMRSs, wherein when the second number of DMRSs is configured for the terminal, the circuitry, in operation, performs, in a first subframe, in which the SRS is transmitted, channel estimation using the first number of DMRSs and the SRS, and the circuitry, in operation, performs, in the second subframe, in which no SRS is transmitted, channel estimation using the first number of DMRSs and the additional DMRS, and wherein in the second subframe the additional DMRS is mapped to a position of the second subframe where the SRS is mapped in the first subframe.
A method of doping graphene using substrate surface modification comprising: forming a precursor polymer layer for doping on a substrate; and disposing graphene on the substrate provided with the precursor polymer layer, wherein the precursor polymer layer comprises a precursor having at least one of a plasma-treated cyclohexane, methyl cyclohexane and ethyl cyclohexane. forming a precursor polymer layer for doping on a substrate; and disposing graphene on the substrate provided with the precursor polymer layer, wherein the precursor polymer layer comprises a precursor having at least one of a plasma-treated cyclohexane, methyl cyclohexane and ethyl cyclohexane.
A wet method of processing naturally occurring clay ore to separate attapulgite clay from other materials comprising the steps of: crushing the clay ore, adding a dispersant to water, preparing a slurry of the clay ore with the aqueous dispersant to disperse the attapulgite clay in the water, separating the dispersed attapulgite clay from un-dispersed materials, and drying the dispersed attapulgite clay, characterised in that the dispersant is sodium polyacrylate, the sodium polyacrylate having a molecular weight between 4,000 and 5,000, and the dispersed attapulgite clay is dried to a free-moisture content of approximately 2-3%. crushing the clay ore, adding a dispersant to water, preparing a slurry of the clay ore with the aqueous dispersant to disperse the attapulgite clay in the water, separating the dispersed attapulgite clay from un-dispersed materials, and drying the dispersed attapulgite clay, characterised in that the dispersant is sodium polyacrylate, the sodium polyacrylate having a molecular weight between 4,000 and 5,000, and the dispersed attapulgite clay is dried to a free-moisture content of approximately 2-3%.
An electrolyte for a lithium secondary battery, the electrolyte comprising: a lithium salt; an organic solvent; and an oligomer represented by Formula 1: wherein, in Formula 1, R is an aliphatic hydrocarbon group or an aromatic hydrocarbon group, R 1 to R 3 are each independently a fluorine-substituted or unsubstituted alkylene group having 1 to 5 carbon atoms, R 4 is an alkylene group having 1 to 4 carbon atoms, R' is hydrogen or an alkyl group having 1 to 3 carbon atoms, a is 1 to 3, n is the number of repeating units, and n is an integer of 1 to 75. a lithium salt; an organic solvent; and an oligomer represented by Formula 1: R is an aliphatic hydrocarbon group or an aromatic hydrocarbon group, R 1 to R 3 are each independently a fluorine-substituted or unsubstituted alkylene group having 1 to 5 carbon atoms, R 4 is an alkylene group having 1 to 4 carbon atoms, R' is hydrogen or an alkyl group having 1 to 3 carbon atoms, a is 1 to 3, n is the number of repeating units, and n is an integer of 1 to 75.
A method for determining the transmittance of a flat-glass substrate with a measuring device, with which light of at least one light source is guided from one side of the flat-glass substrate through the flat-glass substrate to the opposite side of the flat-glass substrate, where it is captured by at least one receiving unit and the transmittance of the flat-glass substrate is determined by means of a comparison between the intensity of the light emitted by the light source and the light incident upon the receiving unit, characterized in that the light source is a surface-like diffuse light source, and the receiving unit comprises at least one spatially resolving receiver (31; 31n), between which the flat-glass substrate is positioned, and the transmittance is determined in a spatially resolved manner in a partial surface of the flat-glass substrate, which is covered by the measuring image (33; 33'), by an evaluation of brightness values in the measuring image (33; 33') of the spatially resolving receiver (31; 31n).
A multilayer inner tube (1, 7, 13, 24) for a vehicle wheel, comprising an inner layer (2, 8, 14, 27), which is in contact with a gaseous filling of the inner tube (1, 7, 13, 24), and an outer layer (3, 9, 16, 25), which is different from the inner layer (2, 8, 14, 27) and is in contact with an external environment of the inner tube (1, 7, 13, 24), the inner layer (2, 8, 14, 27) and the outer layer (3, 9, 16, 25) consisting of thermoplastic polyurethane, characterised by an intermediate layer (5, 20) of an ethylene-vinyl alcohol copolymer between the inner layer (2, 14) and the outer layer (3, 16).
Device for a sanding system, having a sand container, which can be filled with sand and has a discharge opening for dispensing the sand, fill level monitoring means (11, 14) for monitoring the fill state of the sand container and fixing means, which are configured to fix the device to a rail vehicle below the floor level thereof, characterised in that the sand container is composed of a plastic and the fixing means are embodied on a metallic supporting frame which is connected to the sand container.
A below knee amputee prosthetic liner, comprising a moulded polymer like liner body for receiving an amputation limb of a person, the liner body having a closed distal end and an open proximal end, wherein the liner comprises a first thickening in a first region, and a second thickening in a second region, wherein the first region is adapted to cover a head of the fibula of the amputation limb and the first thickening is provided on the lateral side of the liner body, such that the first thickening is adapted to cover the head of the fibula once the amputation limb is received in the liner body, wherein the second region is adapted to cover the shinbone of the amputation limb, such that the second thickening is adapted to cover the shinbone once the amputation limb is received in the liner body and wherein the liner body and the thickenings (10, 12) are made from different materials, characterized in that the liner is symmetric with respect to a sagittal plane and a further first thickening is provided in the first region on the medial side of the liner body. a moulded polymer like liner body for receiving an amputation limb of a person, the liner body having a closed distal end and an open proximal end,
A system for in situ hybridization comprising a control probe specific to a control region of chromosome 3, wherein the control probe is labeled with at least one first label, wherein the control probe is a first plurality of single-stranded oligonucleotide probes, each oligonucleotide probe comprising: a sequence selected from the group consisting of SEQ ID NOs: 1-18; or a sequence selected from the group consisting of a truncated version of SEQ ID NOs: 1-18, the truncated version being at least 40 contiguous basepairs (bp) of said SEQ ID NOs:1-18; or a sequence selected from the group consisting of a sequence that has at least 70% sequence identity to one of SEQ ID NOs: 1-18. a sequence selected from the group consisting of SEQ ID NOs: 1-18; or a sequence selected from the group consisting of a truncated version of SEQ ID NOs: 1-18, the truncated version being at least 40 contiguous basepairs (bp) of said SEQ ID NOs:1-18; or a sequence selected from the group consisting of a sequence that has at least 70% sequence identity to one of SEQ ID NOs: 1-18.
A method of treating a tobacco material to enhance storage stability, comprising: receiving a tobacco material having at least about 40% water based on the total weight; subjecting the tobacco material to a process pressure of at least about 5.17 · 10 8 Pa [75,000 psi] for a holding time in the range of about 180 seconds to about 300 seconds to form a high pressure processed tobacco material; wherein the high pressure processed tobacco material has a storage stability of at least about 25 days at a temperature of about 37°C, and wherein the storage stability is defined as an aerobic plate count below about 3,000,000 CFU/g. receiving a tobacco material having at least about 40% water based on the total weight; subjecting the tobacco material to a process pressure of at least about 5.17 · 10 8 Pa [75,000 psi] for a holding time in the range of about 180 seconds to about 300 seconds to form a high pressure processed tobacco material; wherein the high pressure processed tobacco material has a storage stability of at least about 25 days at a temperature of about 37°C, and wherein the storage stability is defined as an aerobic plate count below about 3,000,000 CFU/g.
A positive electrode active material for a secondary battery, the positive electrode active material comprising: a core including a lithium composite metal oxide; and a film-shaped coating layer disposed to surround the core, wherein the coating layer comprises at least one lithium ion conductive compound having a band gap of 5.5 eV to 10 eV, a thickness (d) of the coating layer satisfies X<d≤100X where X is a maximum distance at which electrons are capable of passing through the coating layer by a dielectric breakdown electric field when charging to an open circuit voltage of the lithium composite metal oxide versus lithium, wherein X is determined by Equation 1, wherein d is less than 500 nm, and the lithium ion conductive compound comprises at least one selected from the group consisting of LiBH 4, LiBH 4 -LiI, and Li 2 NH: X = V / F b wherein, in Equation 1, V is the open circuit voltage of the lithium composite metal oxide versus lithium, and F b is a dielectric breakdown electric field value calculated by Equation 2, and F b = 24.442 exp 0.315 E g ω max wherein, in Equation 2, E g is a band gap, and ω max is a maximum phonon frequency. a core including a lithium composite metal oxide; and a film-shaped coating layer disposed to surround the core, wherein the coating layer comprises at least one lithium ion conductive compound having a band gap of 5.5 eV to 10 eV, a thickness (d) of the coating layer satisfies X<d≤100X where X is a maximum distance at which electrons are capable of passing through the coating layer by a dielectric breakdown electric field when charging to an open circuit voltage of the lithium composite metal oxide versus lithium, wherein X is determined by Equation 1, wherein d is less than 500 nm, and the lithium ion conductive compound comprises at least one selected from the group consisting of LiBH 4, LiBH 4 -LiI, and Li 2 NH: X = V / F b wherein, in Equation 1, V is the open circuit voltage of the lithium composite metal oxide versus lithium, and F b is a dielectric breakdown electric field value calculated by Equation 2, and F b = 24.442 exp 0.315 E g ω max wherein, in Equation 2, E g is a band gap, and ω max is a maximum phonon frequency.
A method implemented via a processor system included in a vehicle, the method comprising: receiving sensor data from a plurality of sensors included in the vehicle, the sensor data comprising images; applying a neural network to the sensor data; applying a trigger classifier of a plurality of trigger classifiers to an intermediate result of the neural network to determine a classifier score for the sensor data indicating a likelihood that the sensor data depicts one or more features of interest of a use case corresponding to the trigger classifier, the one or more features of interest comprising one or more objects, wherein the trigger classifier was trained via a remote system, which is remote from the vehicle, based on input of a training data set comprising initial images to the neural network, wherein the initial images depict the one or more features of interest, wherein the trigger classifier is configured to identify images which depict the one or more features of interest, and wherein the vehicle is configured to apply the plurality of trigger classifiers to the intermediate result; and responsive to determining that the classifier score exceeds a threshold, transmitting at least a portion of the sensor data to the remote system via a computer network; receiving, from the remote system, an updated neural network trained by the remote system based at least on the transmitted portion of the sensor data; and controlling the vehicle using the updated neural network. receiving sensor data from a plurality of sensors included in the vehicle, the sensor data comprising images; applying a neural network to the sensor data; applying a trigger classifier of a plurality of trigger classifiers to an intermediate result of the neural network to determine a classifier score for the sensor data indicating a likelihood that the sensor data depicts one or more features of interest of a use case corresponding to the trigger classifier, the one or more features of interest comprising one or more objects, wherein the trigger classifier was trained via a remote system, which is remote from the vehicle, based on input of a training data set comprising initial images to the neural network, wherein the initial images depict the one or more features of interest, wherein the trigger classifier is configured to identify images which depict the one or more features of interest, and wherein the vehicle is configured to apply the plurality of trigger classifiers to the intermediate result; and responsive to determining that the classifier score exceeds a threshold, transmitting at least a portion of the sensor data to the remote system via a computer network; receiving, from the remote system, an updated neural network trained by the remote system based at least on the transmitted portion of the sensor data; and controlling the vehicle using the updated neural network.
Grey gold alloy comprising by weight: at least 75% Au; and between 13% and 17% of Cr; characterized in that it further comprises between 5% and 10% of Pd; and between 1 % and 5% of Fe; so that the alloy is characterized by a yellowness index of less than 10.
Propylene copolymer (R-PP) having (a) a comonomer content in the range of 2.0 to 11.0 mol.-%; (b) a melt flow rate MFR2 (230 °C) measured according to ISO 1133 in the range of 25.0 to 100 g/10min; and (c) a relative content of isolated to block ethylene sequences (I) in the range of 45.0 to 70.0 %, wherein the I content is defined by equation I E = fPEP fEEE + f PEE + fPEP × 100 wherein I is the relative content of isolated to block ethylene sequences [in %]; fPEP is the mol fraction of propylene/ethylene/propylene sequences in the sample; fPEE is the mol fraction of propylene/ethylene/ethylene sequences and of ethylene/ethylene/propylene sequences in the sample; fEEE is the mol fraction of ethylene/ethylene/ethylene sequences in the sample wherein all sequence concentrations being based on a statistical triad analysis of 13 C-NMR data. (a) a comonomer content in the range of 2.0 to 11.0 mol.-%; (b) a melt flow rate MFR2 (230 °C) measured according to ISO 1133 in the range of 25.0 to 100 g/10min; and (c) a relative content of isolated to block ethylene sequences (I) in the range of 45.0 to 70.0 %, wherein the I content is defined by equation I E = fPEP fEEE + f PEE + fPEP × 100 wherein I is the relative content of isolated to block ethylene sequences [in %]; fPEP is the mol fraction of propylene/ethylene/propylene sequences in the sample; fPEE is the mol fraction of propylene/ethylene/ethylene sequences and of ethylene/ethylene/propylene sequences in the sample; fEEE is the mol fraction of ethylene/ethylene/ethylene sequences in the sample wherein all sequence concentrations being based on a statistical triad analysis of 13 C-NMR data. I is the relative content of isolated to block ethylene sequences [in %]; fPEP is the mol fraction of propylene/ethylene/propylene sequences in the sample; fPEE is the mol fraction of propylene/ethylene/ethylene sequences and of ethylene/ethylene/propylene sequences in the sample; fEEE is the mol fraction of ethylene/ethylene/ethylene sequences in the sample wherein all sequence concentrations being based on a statistical triad analysis of 13 C-NMR data.
A graphics processing pipeline arranged to render in a rendering space, wherein the rendering space is sub-divided into a plurality of tiles, each tile is sub-divided into a plurality of microtiles, each microtile comprising an identical arrangement of pixels and each pixel comprising an arrangement of one or more subsample positions, the graphics processing pipeline comprising edge test and/or depth calculation hardware and wherein the edge test and/or depth calculation hardware comprises one or more hardware arrangements (400, 420) each arranged to perform an edge test or a depth calculation using a sum-of-products, each hardware arrangement comprising: a microtile component hardware element comprising hardware logic arranged to calculate a first output using the sum-of-products and coordinates of a microtile within a tile in the rendering space; a plurality of pixel component hardware elements (404, 424), each comprising hardware logic arranged to calculate one of a plurality of second outputs using the sum-of-products and coordinates for different pixels defined relative to an origin of the microtile; one or more subsample component hardware elements, each comprising hardware logic arranged to calculate a third output using the sum-of-products and coordinates for a subsample position defined relative to an origin of a pixel; a plurality of adders arranged to generate a plurality of output results for the sum-of-products in parallel by combining, for each output result, a different combination of the first output, one of the plurality of second outputs and a third output, and when the edge test is performed a single bit or more than a single bit of the result is output and when the depth calculation is performed the full result is output. a microtile component hardware element comprising hardware logic arranged to calculate a first output using the sum-of-products and coordinates of a microtile within a tile in the rendering space; a plurality of pixel component hardware elements (404, 424), each comprising hardware logic arranged to calculate one of a plurality of second outputs using the sum-of-products and coordinates for different pixels defined relative to an origin of the microtile; one or more subsample component hardware elements, each comprising hardware logic arranged to calculate a third output using the sum-of-products and coordinates for a subsample position defined relative to an origin of a pixel; a plurality of adders arranged to generate a plurality of output results for the sum-of-products in parallel by combining, for each output result, a different combination of the first output, one of the plurality of second outputs and a third output, and when the edge test is performed a single bit or more than a single bit of the result is output and when the depth calculation is performed the full result is output.
A high power higher than 1 W and high frequency higher than 10 MHz DC-DC converter block for the envelope tracking technique for radiofrequency and/or microwave amplification applications, comprising a step-down power circuit whose output constitutes the output of the DC-DC converter block configured to be connected to a power supply voltage input of a radiofrequency power amplifier, the step-down power circuit comprising at least one HEMT, high electron mobility transistors, depletion-mode transistor (T3; T6), the DC-DC converter block further comprising a gate driving circuit of the at least one HEMT depletion-mode transistor (T3, T6) of the step-down power circuit, the driving circuit comprising HEMT depletion-mode transistors (T1, T2; T4, T5) configured to drive the gate of the at least one HEMT depletion-mode transistor (T3; T6) of the step-down power circuit, and characterized in that the step-down power circuit is powered by two positive and non-zero power supply voltages referenced to ground, namely a first power supply voltage and a second power supply voltage, the first power supply voltage being greater than the second power supply voltage.