mhurhangee/ep-ind-claims huggingface dataset:
An antenna module comprising a single band antenna and a substrate, which comprises a grounding surface and at least one conductive pathway, said single band antenna comprising: a radiating part; a feeding part connected to the radiating part, wherein a first separating slot void of conducting material is formed between the radiating part and the feeding part for separating the radiating part and the feeding part; and a grounding part connected to the feeding part, wherein a second separating slot void of conductive material is formed between the feeding part and the grounding part for separating the feeding part and the grounding part, characterized in that each of the first separating slot and second separating slot has at least one bend to thereby form at least a respective substantially L-shaped slot portion, wherein said single band antenna further comprises an electrical structure connecting part disposed between the grounding part and the feeding part for electrically connecting said grounding part and said feeding part; and an auxiliary part connected to the electrical structure connecting part for electrically connecting with said grounding surface of said substrate; wherein the grounding part has a connecting structure configured to extend through said substrate underneath said single band antenna for electrically connecting said grounding part with said substrate, said auxiliary part and said electrical structure connecting part are disposed perpendicular to each other to make the single band antenna to stand erect on the substrate, and a gap is provided between the radiating part and the substrate. a radiating part; a feeding part connected to the radiating part, wherein a first separating slot void of conducting material is formed between the radiating part and the feeding part for separating the radiating part and the feeding part; and a grounding part connected to the feeding part, wherein a second separating slot void of conductive material is formed between the feeding part and the grounding part for separating the feeding part and the grounding part, characterized in that each of the first separating slot and second separating slot has at least one bend to thereby form at least a respective substantially L-shaped slot portion, wherein said single band antenna further comprises an electrical structure connecting part disposed between the grounding part and the feeding part for electrically connecting said grounding part and said feeding part; and an auxiliary part connected to the electrical structure connecting part for electrically connecting with said grounding surface of said substrate; wherein the grounding part has a connecting structure configured to extend through said substrate underneath said single band antenna for electrically connecting said grounding part with said substrate, said auxiliary part and said electrical structure connecting part are disposed perpendicular to each other to make the single band antenna to stand erect on the substrate, and a gap is provided between the radiating part and the substrate.
A photonic integrated circuit, PIC, configured for a three-dimensional, 3D. laser Doppler vibrometer, LDV, the PIC comprising: - a splitter to split a laser beam into a measurement signal and a reference signal; - a phase-amplitude modulator array coupled to a transmitting array to generate, from the measurement signal, n output signals to be directed to a single target location and to output the n output signals from substantially a single location, each output signal having a different direction and a different carrier frequency, n being a natural number greater than or equal to three; - a receiving array comprising m receiving antennas (123 1, 123 2, 123 3), each receiving antenna being configured to receive a reflection signal from a different receiving direction, each reflection signal being indicative of one or more of the output signals having been reflected at the single target location, m being a natural number greater than or equal to three; - for each receiving antenna, a mixer connected thereto to mix the reference signal with the received reflected signal; and - for each mixer, at least one photo-diode connected thereto to generate a photo-current signal from the mixed signal. - a splitter to split a laser beam into a measurement signal and a reference signal; - a phase-amplitude modulator array coupled to a transmitting array to generate, from the measurement signal, n output signals to be directed to a single target location and to output the n output signals from substantially a single location, each output signal having a different direction and a different carrier frequency, n being a natural number greater than or equal to three; - a receiving array comprising m receiving antennas (123 1, 123 2, 123 3), each receiving antenna being configured to receive a reflection signal from a different receiving direction, each reflection signal being indicative of one or more of the output signals having been reflected at the single target location, m being a natural number greater than or equal to three; - for each receiving antenna, a mixer connected thereto to mix the reference signal with the received reflected signal; and - for each mixer, at least one photo-diode connected thereto to generate a photo-current signal from the mixed signal.
A transistor, comprising: a gate on a substrate; a channel layer having a three-dimensional channel region covering at least a portion of the gate; a source electrode contacting a first region of the channel layer; and a drain electrode contacting a second region of the channel layer, wherein the channel layer covers both side surfaces and a top surface of the gate, and wherein the channel layer includes graphene; wherein the source electrode and the drain electrode are respectively at sides of the gate, the source electrode includes a first source electrode portion spaced apart from the 3D channel region, and the drain electrode includes a first drain electrode portion spaced apart from the 3D channel region, wherein the source electrode further includes a second source electrode portion between the first source electrode portion and the 3D channel region; and the drain electrode further includes a second drain electrode portion between the first drain electrode portion and the 3D channel region; characterised in that each of the first source electrode portion and the first drain electrode portion has a height greater than a height of the 3D channel region; wherein each of the second source electrode portion and the second drain electrode portion has a height equal to, or less than, a height of the 3D channel region, so that the effective channel length of the transistor is determined by the height of each of the second source electrode portion and the second drain electrode portion. a gate on a substrate; a channel layer having a three-dimensional channel region covering at least a portion of the gate; a source electrode contacting a first region of the channel layer; and a drain electrode contacting a second region of the channel layer, wherein the channel layer covers both side surfaces and a top surface of the gate, and wherein the channel layer includes graphene; wherein the source electrode and the drain electrode are respectively at sides of the gate, the source electrode includes a first source electrode portion spaced apart from the 3D channel region, and the drain electrode includes a first drain electrode portion spaced apart from the 3D channel region, wherein the source electrode further includes a second source electrode portion between the first source electrode portion and the 3D channel region; and the drain electrode further includes a second drain electrode portion between the first drain electrode portion and the 3D channel region; characterised in that each of the first source electrode portion and the first drain electrode portion has a height greater than a height of the 3D channel region; wherein each of the second source electrode portion and the second drain electrode portion has a height equal to, or less than, a height of the 3D channel region, so that the effective channel length of the transistor is determined by the height of each of the second source electrode portion and the second drain electrode portion.
System for fitting a spoiler to the body of a vehicle, wherein the spoiler has fastening means to the body, the fastening means have a mating part, which is mechanically connected to the spoiler, and an intermediate guide, wherein the mating part and the intermediate guide have holding means to each other, and wherein the mating part and the intermediate guide have means for clipping onto at least one opening in the body of the vehicle, characterized in that the holding means on the mating part have at least one swivel ring which is introduced into at least one slideway in the intermediate guide and is displaced therein.
A method of graphics processing in a graphics processing unit, the method comprising: receiving a first texture having texels of a first data type; receiving a second texture having texels of a second data type, wherein one of the data types is an integer data type and the other data type is a floating point data type; determining, using at least one processor operatively coupled with a memory, an interpolation parameter for a texel of the first data type in the first texture to map said texel to a pixel of an image, the image representing a three-dimensional object, the interpolation parameter comprising a weight to be applied to said texel of the first data type; and reusing the interpolation parameter determined for the texel of the first data type to map a texel of the second data type in the second texture to said pixel of the image by applying said weight to the texel of the second data type in the second texture. receiving a first texture having texels of a first data type; receiving a second texture having texels of a second data type, wherein one of the data types is an integer data type and the other data type is a floating point data type; determining, using at least one processor operatively coupled with a memory, an interpolation parameter for a texel of the first data type in the first texture to map said texel to a pixel of an image, the image representing a three-dimensional object, the interpolation parameter comprising a weight to be applied to said texel of the first data type; and reusing the interpolation parameter determined for the texel of the first data type to map a texel of the second data type in the second texture to said pixel of the image by applying said weight to the texel of the second data type in the second texture.
A method for generating an optical frequency comb (5c, 5d) with a defined number of frequency comb lines (4 1, 4 3, 4 4) with adjustable spacing to one another, comprising the following method steps: generating an input frequency comb with a light source, in particular with a mode-locked laser, wherein the input frequency comb has a plurality of input frequency comb lines (4 1, 4 2) with a spacing of Δf L, filtering individual frequency comb lines (4 1) with identical frequency spacing (Δf i) out of the input frequency comb, wherein Δf i = n k + 1 * Δf L with n k = 1, 2, 3,..., with n k = 1, 2, 3,..., modulation of the filtered frequency comb lines (4 1) for generating sideband lines, wherein the sideband lines (4 3) are adjusted through the modulation so that frequency comb lines and sideband lines (4 1, 4 3) have an identical frequency spacing (Δf 1) to one another. generating an input frequency comb with a light source, in particular with a mode-locked laser, wherein the input frequency comb has a plurality of input frequency comb lines (4 1, 4 2) with a spacing of Δf L, filtering individual frequency comb lines (4 1) with identical frequency spacing (Δf i) out of the input frequency comb, wherein Δf i = n k + 1 * Δf L with n k = 1, 2, 3,..., with n k = 1, 2, 3,..., modulation of the filtered frequency comb lines (4 1) for generating sideband lines, wherein the sideband lines (4 3) are adjusted through the modulation so that frequency comb lines and sideband lines (4 1, 4 3) have an identical frequency spacing (Δf 1) to one another.
An objective testing module configured for installation within an objective turret of an optical microscope, the objective testing module comprising: a module base configured for coupling with an objective socket of a movable objective turret of an optical microscope, and a mechanical testing assembly coupled with the module base, the mechanical testing assembly including a probe that is movable relative to the module base, wherein the mechanical testing assembly includes one or more transducers coupled with the probe (412, 414), and the one or more transducers (412, 414) move the probe relative to the module base, measure force applied to the sample by the probe, and measure displacement of the probe within the sample, and the mechanical testing assembly is configured to mechanically test the sample at a scale of 1 mm or less and quantitatively determine one or more properties of the sample. a module base configured for coupling with an objective socket of a movable objective turret of an optical microscope, and a mechanical testing assembly coupled with the module base, the mechanical testing assembly including a probe that is movable relative to the module base, wherein the mechanical testing assembly includes one or more transducers coupled with the probe (412, 414), and the one or more transducers (412, 414) move the probe relative to the module base, measure force applied to the sample by the probe, and measure displacement of the probe within the sample, and the mechanical testing assembly is configured to mechanically test the sample at a scale of 1 mm or less and quantitatively determine one or more properties of the sample.
Composition for the treatment of skin lesions and/or nail lesions, comprising - an effective amount of trichloroacetic acid, - at least one thickener (for increasing the viscosity of the solvent), and - at least one physiologically acceptable liquid carrier, wherein the composition comprises at least 20% w/w trichloroacetic acid, and 0.5-3% w/w carbomer. - an effective amount of trichloroacetic acid, - at least one thickener (for increasing the viscosity of the solvent), and - at least one physiologically acceptable liquid carrier,
A method of diagnosing diabetic nephropathy in a subject, comprising: determining a level of a biomarker in a urine sample from a subject suspected of having diabetic nephropathy, wherein the biomarker is a fragment of alpha-1 antitrypsin consisting of KGKWERPFEVKDTEEEDF (SEQ ID NO:3), and assessing whether the subject has diabetic nephropathy based on the level of the biomarker; wherein an increase in the level of the biomarker, as compared to that in a diabetic nephropathy-free subject, indicates that the subject has diabetic nephropathy. determining a level of a biomarker in a urine sample from a subject suspected of having diabetic nephropathy, wherein the biomarker is a fragment of alpha-1 antitrypsin consisting of KGKWERPFEVKDTEEEDF (SEQ ID NO:3), and assessing whether the subject has diabetic nephropathy based on the level of the biomarker; KGKWERPFEVKDTEEEDF (SEQ ID NO:3), wherein an increase in the level of the biomarker, as compared to that in a diabetic nephropathy-free subject, indicates that the subject has diabetic nephropathy.
A method of performing measurement logging in a wireless communication system, the method performed by a user equipment, UE, and comprising: receiving measurement configuration information from a network by a dedicated RRC message when the UE is in a radio resource control, RRC, connected mode, wherein the measurement configuration information includes at least one type of triggering condition for the measurement logging (UE MDT Class); storing the received measurement configuration in the UE; after the UE is changed to a RRC idle mode from the RRC connected mode and while the UE is in RRC idle mode:, receiving control information from the network, by a broadcast message, wherein the control information includes at least one type of the triggering condition for the measurement logging (Cell MDT Class); for each type of the triggering condition for the measurement logging stored in the UE which is matched with a type of triggering condition for the measurement logging included in the control information, performing the measurement logging based on the matched type and not performing measurement logging based on a stored but non-matched type. receiving measurement configuration information from a network by a dedicated RRC message when the UE is in a radio resource control, RRC, connected mode, wherein the measurement configuration information includes at least one type of triggering condition for the measurement logging (UE MDT Class); storing the received measurement configuration in the UE; after the UE is changed to a RRC idle mode from the RRC connected mode and while the UE is in RRC idle mode:, receiving control information from the network, by a broadcast message, wherein the control information includes at least one type of the triggering condition for the measurement logging (Cell MDT Class); for each type of the triggering condition for the measurement logging stored in the UE which is matched with a type of triggering condition for the measurement logging included in the control information, performing the measurement logging based on the matched type and not performing measurement logging based on a stored but non-matched type.
A method, to allocate subscriber traffic, comprising: configuring a first instantiation of a first network function to provide a first type of security; configuring a second instantiation of the first network function to provide a second type of security that is different than the first type of security; and allocating at least some of the subscriber traffic to the first instantiation, based on security needs of a subscriber and the first type of security and the second type of security. configuring a first instantiation of a first network function to provide a first type of security; configuring a second instantiation of the first network function to provide a second type of security that is different than the first type of security; and allocating at least some of the subscriber traffic to the first instantiation, based on security needs of a subscriber and the first type of security and the second type of security.
Device for drying disc-shaped substrates comprising an elongated body, which tapers upwards to form a wedge having an angle α between two upper surfaces and the upper edge wherein the upper edge is suitable for a disc-shaped substrate to be supported on, characterized in that an upper surface comprises a groove having an increasing groove depth with increasing distance from the upper edge. an elongated body, which tapers upwards to form a wedge having an angle α between two upper surfaces and the upper edge wherein the upper edge is suitable for a disc-shaped substrate to be supported on, characterized in that an upper surface comprises a groove having an increasing groove depth with increasing distance from the upper edge.
An emulsion composition comprising a UV scattering agent and at least one of an active oxygen remover or an anti-oxidizing agent, wherein the at least one of an active oxygen remover or an anti-oxidizing agent is contained in O/W emulsion particles dispersed in an aqueous phase of the emulsion composition, the UV scattering agent is added to an oil phase of the emulsion composition which is different from the O/W emulsion particles wherein the active oxygen remover is a carotenoid and the anti-oxidizing agent is at least one selected from the group consisting of a vitamin C, derivatives of vitamin C, and salts of vitamin C, selected from the group consisting of ascorbic acid, L-ascorbic acid, L-ascorbyl palmitate, L-ascorbyl dipalmitate, L-ascorbyl isopalmitate, L-ascorbyl diisopalmitate, L-ascorbyl tetraisopalmitate, L-ascorbyl stearate, L-ascorbyl distearate, L-ascorbyl isostearate, L-ascorbyl diisostearate, L-ascorbyl myristate, L-ascorbyl dimyristate, L-ascorbyl isomyristate, L-ascorbyl diisomyristate, L-ascorbyl oleate, L-ascorbyl dioleate, L-ascorbyl 2-ethyl hexanoate, sodium L-ascorbyl 2-phosphate, potassium L-ascorbyl phosphate, magnesium L-ascorbyl phosphate, calcium L-ascorbyl phosphate, aluminum L-ascorbyl phosphate, sodium L-ascorbyl sulfate, potassium L-ascorbyl sulfate, magnesium L-ascorbyl sulfate, calcium L-ascorbyl sulfate, aluminum L-ascorbyl sulfate, sodium L-ascorbate, potassium L-ascorbate, magnesium L-ascorbate, calcium L-ascorbate, and aluminum L-ascorbatea vitamin E, derivatives of vitamin E, and salts of vitamin E, selected from the list consisting of: tocopherol, dl-α (β, γ)-tocopherol, dl-α-tocopherol acetate, dl-α-tocopherol nicotinate, dl-α-tocopherol linolate, and dl-α-tocopherol succinate, and ubiquinones.
A pneumatic tire, comprising a tread formed from the rubber composition, the rubber composition comprising: a rubber component comprising a copolymer; and at least one of carbon black or silica, the copolymer containing a structural unit derived from a conjugated diene monomer and a structural unit derived from a compound represented by the following formula: wherein R 11 represents a C1-C30 hydrocarbon group. a rubber component comprising a copolymer; and at least one of carbon black or silica, the copolymer containing a structural unit derived from a conjugated diene monomer and a structural unit derived from a compound represented by the following formula: wherein R 11 represents a C1-C30 hydrocarbon group.
A polyurethane flood coat composition ABCD comprising a polyisocyanate prepolymer as part A; and in part B, a polyol in an amount from 93 to 98 wt.% based on the total wt.% of part B; a rheology agent C; and a catalyst D, characterized in that when a ratio of part A is mixed with a ratio of part B the mixture provides a thixotropic index from 1 to 5; a gel time from 5 to 15 minutes; and a Shore hardness of 15A to 90A when cured; wherein the thixotropic index refers to the viscosity measured at 2.5 RPM divided by the viscosity measured at 20 RPM of a mix ratio of part A and part B, where the appropriate weight amounts of part A and part B are mixed by hand for 1-2 minutes at 25 °C, and the viscosity of the mixture is determined using a Brookfield viscometer with a #7 spindle at 2.5 RPM, and then at 20 RPM.