mhurhangee/ep-ind-claims huggingface dataset:
An attitude estimator for providing attitude estimates for real-time motion compensation of images on a moving platform, wherein, an IMU provides uncompensated attitude samples S(hT) of the moving platform at a high rate clock with a sampling period T and an integer clock index h, said samples S(hT) received with a latency of L high rate clock samples, an image sensor captures images I(kMT) at a low rate clock with a sampling period MT where M is greater than one and an integer clock index k, each image capture including an integration period having a center of integration, COI, synchronized to the low rate clock followed by a readout period, and a motion compensator that initiates real-time motion compensation on the captured image I(kMT) at the end of the readout period at a just-in-time constraint J after the COI, J being the measure in high rate clock samples of the one half integration period plus the read out period of the image sensor, the attitude estimator comprising: a non-causal sampling clock corresponding to the low rate clock kMT delayed by N high rate clock samples where N is less than or equal to J; and a non-causal filter for filtering the uncompensated attitude samples S(hT) including at least one sample received after the COI to provide a non-causal attitude estimate A(kMT|(kM+N)T) for the previous COI that is delayed by N-L high rate samples and synchronized to the non-causal sampling clock, said motion compensator using the non-causal attitude estimate A(kMT|(kM+N)T) to initiate motion compensation on the captured image I(kMT). a non-causal sampling clock corresponding to the low rate clock kMT delayed by N high rate clock samples where N is less than or equal to J; and a non-causal filter for filtering the uncompensated attitude samples S(hT) including at least one sample received after the COI to provide a non-causal attitude estimate A(kMT|(kM+N)T) for the previous COI that is delayed by N-L high rate samples and synchronized to the non-causal sampling clock, said motion compensator using the non-causal attitude estimate A(kMT|(kM+N)T) to initiate motion compensation on the captured image I(kMT).
A control method for controlling a spring loaded brake actuator comprising a first chamber to receive a parking brake pressure acting against a main spring exerting a parking brake force, and a second chamber to receive a service brake pressure for applying a service brake force, the spring loaded brake actuator being configured to apply a total braking force to a brake caliper which is the sum of the service brake force and the parking brake force, characterised in the method comprising a circumstantial selection of one control law among a set of control laws comprising at least first and second compound control laws: - where the first compound control law, known as anti-compound mode, is such that at least the service brake pressure is electronically controlled such that the resulting total braking force does not exceed a first upper limit corresponding to the force of the main spring when the parking brake pressure is substantially null, - where the second compound control law, known as controlled-compound mode, is such that at least the service brake pressure is electronically controlled such that the resulting total braking force does not exceed a second upper limit higher than the first upper limit. - where the first compound control law, known as anti-compound mode, is such that at least the service brake pressure is electronically controlled such that the resulting total braking force does not exceed a first upper limit corresponding to the force of the main spring when the parking brake pressure is substantially null, - where the second compound control law, known as controlled-compound mode, is such that at least the service brake pressure is electronically controlled such that the resulting total braking force does not exceed a second upper limit higher than the first upper limit.
A tire comprising a carcass ply as a skeleton, wherein the carcass ply is reinforced by a steel cord including no wrapping filament, the steel cord is composed of a plurality of steel filaments having 3 or more core filaments, at least a part of a surface of each of the plurality of steel filaments is coated with a resin material containing at least an ionomer, and when a resin component contained in the resin material is composed of a single resin, a melting point of the resin material is 150°C or less, and when the resin component is composed of a composition containing two or more resins, a softening point of the resin material is 150°C or less, wherein the softening point refers to a value measured using a softening point test method described in JIS K 7206; and wherein the steel cord includes a core portion composed of the core filaments and at least one sheath layer arranged on an outer periphery of the core portion; and wherein the resin material further contains a maleic acid-modified resin and a mass ratio of the maleic acid-modified resin to the ionomer is from 4:6 to 6:4.
A ruthenium complex of formula wherein N 1 -N 1 -N 1 represents an N,N,N-tridentate aza-aromatic ligand; N 2 -N 2 represents an N,N-bidentate aza-aromatic ligand; X is selected from OH 2, Cl, Br, I, and SR 1 R 2; R 1 and R 2 are independently selected from optionally substituted C 1 -C 12 alkyl; Y- is a monovalent anion; and n is 1 or 2; for use in treating cancer, where the cancer is a cancer comprising cancer stem cells. N 1 -N 1 -N 1 represents an N,N,N-tridentate aza-aromatic ligand; N 2 -N 2 represents an N,N-bidentate aza-aromatic ligand; X is selected from OH 2, Cl, Br, I, and SR 1 R 2; R 1 and R 2 are independently selected from optionally substituted C 1 -C 12 alkyl; Y- is a monovalent anion; and n is 1 or 2; for use in treating cancer, where the cancer is a cancer comprising cancer stem cells.
An apparatus, comprising: a processor circuit; a channel matrix estimator for execution on the processor circuit to determine a channel estimation matrix H for a tone of a multiplicity of tones in a wireless multiple input multiple output (MIMO) communications signal; and a flow selection component for execution on the processor circuit to: form a Hermite H H conjugate of the channel estimation matrix; multiply the channel estimation matrix by the Hermite conjugate of the channel estimation matrix to form a product matrix H H H; calculate a figure of merit for power loss for the received tone based upon the channel estimation matrix, wherein the figure of merit is calculated from a ratio of a value determined from entries in the main diagonal of the product matrix H H H to a value determined from entries outside of the main diagonal of the product matrix H H H; and based upon the calculated figure of merit, perform either a max-log calculation or a maximum likelihood calculation to determine a received signal metric, but not both calculations. a processor circuit; a channel matrix estimator for execution on the processor circuit to determine a channel estimation matrix H for a tone of a multiplicity of tones in a wireless multiple input multiple output (MIMO) communications signal; and a flow selection component for execution on the processor circuit to: form a Hermite H H conjugate of the channel estimation matrix; multiply the channel estimation matrix by the Hermite conjugate of the channel estimation matrix to form a product matrix H H H; calculate a figure of merit for power loss for the received tone based upon the channel estimation matrix, wherein the figure of merit is calculated from a ratio of a value determined from entries in the main diagonal of the product matrix H H H to a value determined from entries outside of the main diagonal of the product matrix H H H; and based upon the calculated figure of merit, perform either a max-log calculation or a maximum likelihood calculation to determine a received signal metric, but not both calculations. form a Hermite H H conjugate of the channel estimation matrix; multiply the channel estimation matrix by the Hermite conjugate of the channel estimation matrix to form a product matrix H H H; calculate a figure of merit for power loss for the received tone based upon the channel estimation matrix, wherein the figure of merit is calculated from a ratio of a value determined from entries in the main diagonal of the product matrix H H H to a value determined from entries outside of the main diagonal of the product matrix H H H; and based upon the calculated figure of merit, perform either a max-log calculation or a maximum likelihood calculation to determine a received signal metric, but not both calculations.
A plastic article molded or extruded from a thermoplastic elastomer compound comprising: (a) high density polyethylene, and (b) ethylene/alpha-olefin interpolymer, wherein the interpolymer is an olefin block copolymer, wherein the olefin block copolymer and the high density polyethylene are present at a weight ratio of 40:60, wherein the plastic article passes Olive Oil Extraction Test EU82/711/EEC or Iso-octane Extraction Test EN1186-14. (a) high density polyethylene, and (b) ethylene/alpha-olefin interpolymer, wherein the interpolymer is an olefin block copolymer,
A printing method comprising: printing an adhesive primer with an inkjet recording apparatus to form a primer layer on a substrate; and printing a UV ink with the inkjet recording apparatus to form a UV ink coating on the adhesive primer layer, the UV ink exhibiting a surface hardness higher than a pencil hardness H upon being cured, wherein the method comprises the steps of: printing a primer containing a UV curable adhesive paste on the substrate by the inkjet recording apparatus, whereby the adhesive primer layer is formed; radiating UV light to the primer layer, whereby the primer layer is cured while remaining adhesive; printing the UV ink onto the top surface of the primer layer by the inkjet recording apparatus to form the UV ink coating; and radiating UV light onto the UV ink coating, whereby the UV ink coating is cured. printing an adhesive primer with an inkjet recording apparatus to form a primer layer on a substrate; and printing a UV ink with the inkjet recording apparatus to form a UV ink coating on the adhesive primer layer, the UV ink exhibiting a surface hardness higher than a pencil hardness H upon being cured, wherein the method comprises the steps of: printing a primer containing a UV curable adhesive paste on the substrate by the inkjet recording apparatus, whereby the adhesive primer layer is formed; radiating UV light to the primer layer, whereby the primer layer is cured while remaining adhesive; printing the UV ink onto the top surface of the primer layer by the inkjet recording apparatus to form the UV ink coating; and radiating UV light onto the UV ink coating, whereby the UV ink coating is cured.
A method for predicting the survival time of a patient with decompensated alcoholic cirrhosis comprising i) determining the expression level of OAS2 or MX2 gene in a sample of peripheral blood mononuclear cells obtained from the patient, ii) comparing the level determined at step i) with a predetermined reference value and iii) and concluding that the patient will have a short survival time when the level determined at step i) is higher than its predetermined reference value or concluding that the patient will have a long survival time when the level determined at step i) is lower than the predetermined reference value.
A system comprising a wafer scale physics package, a wafer scale atomic clock and a device, wherein said device is external to said wafer scale physics package, said wafer scale atomic clock including: a first substrate including: an electronics layer; and a light source layer joined to the electronics layer, wherein electronics in the electronics layer are configured to control the emission of light from a plurality of light sources in the light source layer; a cell layer joined to the first substrate, the cell layer comprising a plurality of hermetically isolated cells; and a second substrate joined to the cell layer, wherein the first substrate or the second substrate comprise photodetectors configured to detect light from the plurality of hermetically isolated cells and output separate measurements for the plurality of hermetically isolated cells; and wherein said device is configured to average resonant frequency measurements associated with the different cells together to determine an average resonant frequency for the wafer scale atomic clock. a first substrate including: an electronics layer; and a light source layer joined to the electronics layer, wherein electronics in the electronics layer are configured to control the emission of light from a plurality of light sources in the light source layer; an electronics layer; and a light source layer joined to the electronics layer, wherein electronics in the electronics layer are configured to control the emission of light from a plurality of light sources in the light source layer; a cell layer joined to the first substrate, the cell layer comprising a plurality of hermetically isolated cells; and a second substrate joined to the cell layer, wherein the first substrate or the second substrate comprise photodetectors configured to detect light from the plurality of hermetically isolated cells and output separate measurements for the plurality of hermetically isolated cells; and wherein said device is configured to average resonant frequency measurements associated with the different cells together to determine an average resonant frequency for the wafer scale atomic clock.
Method of obtaining a sorbent material for immunological pre-treatment of a biological liquid, wherein the sorbent material is characterized by microcapsules, wherein the method comprises the steps of: (i) solubilizing antibodies in a physiological buffer containing 0.3 to 2.5 percent by weight alginic acid and dropping said solution in an aqueous buffer containing ions of a two-valent salt to precipitate alginate cores having diameters from 0.5 to 5.0 millimetres and volumes in the range from 0.1 to 50 microlitres; (ii) alternately immersion of said alginate cores in liquid buffer solutions alternately containing a polycationic macropolymer or a polyanionic macropolymer to obtain a layer-by-layer electrostatic deposition and macroion-rich liquid-liquid phases having embedded alginate cores; (iii) hardening of said macroion-rich liquid-liquid phases by complex co-acervation at ambient temperatures for a period of time to obtain microcapsules consisting of precipitated alginate cores each embedded in a multilayered macroion membrane; (iv) lyophilization of said microcapsules to obtain multilayer macroion membranes that are permeable to proteins of a molecular weight no greater than about 100 000 daltons; (v) conditioning of said semipermeable microcapsules and, if necessary, classification, to obtain microcapsules that can be added to biological fluids for immunological treatment and removal of peptidic components smaller than 100 000 daltons. (i) solubilizing antibodies in a physiological buffer containing 0.3 to 2.5 percent by weight alginic acid and dropping said solution in an aqueous buffer containing ions of a two-valent salt to precipitate alginate cores having diameters from 0.5 to 5.0 millimetres and volumes in the range from 0.1 to 50 microlitres; (ii) alternately immersion of said alginate cores in liquid buffer solutions alternately containing a polycationic macropolymer or a polyanionic macropolymer to obtain a layer-by-layer electrostatic deposition and macroion-rich liquid-liquid phases having embedded alginate cores; (iii) hardening of said macroion-rich liquid-liquid phases by complex co-acervation at ambient temperatures for a period of time to obtain microcapsules consisting of precipitated alginate cores each embedded in a multilayered macroion membrane; (iv) lyophilization of said microcapsules to obtain multilayer macroion membranes that are permeable to proteins of a molecular weight no greater than about 100 000 daltons; (v) conditioning of said semipermeable microcapsules and, if necessary, classification, to obtain microcapsules that can be added to biological fluids for immunological treatment and removal of peptidic components smaller than 100 000 daltons.
A valve device for a high-pressure gas storing gas tank, comprising: a body that is configured to be provided in the gas tank, and in which a gas flow channel configured to communicate between an inside and an outside of the gas tank is provided; and a check valve provided in an injection passage in the gas flow channel, the injection passage being configured to inject gas into the gas tank, wherein the check valve includes a valve seat fixed in the injection passage, a case in a bottomed cylindrical shape fixed in the injection passage while a space is provided between an inner peripheral surface of the injection passage and the case to enable gas to flow through the space, and a valve element accommodated in the case to be brought into contact with and to be away from the valve seat, the case includes a cylindrical portion into which the valve element is fitted to be axially movable, and is configured such that a bottom of the cylindrical portion, provided at an axial end of the cylindrical portion, opposite to the valve seat, defines a range where the valve element is axially movable, and the valve element includes a head portion that can block a valve hole of the valve seat, and a sliding portion that is formed so as to have a zone of contact with the cylindrical portion, characterized in the zone of contact being uniform throughout the range where the sliding portion is axially movable. a body that is configured to be provided in the gas tank, and in which a gas flow channel configured to communicate between an inside and an outside of the gas tank is provided; and a check valve provided in an injection passage in the gas flow channel, the injection passage being configured to inject gas into the gas tank, wherein the check valve includes a valve seat fixed in the injection passage, a case in a bottomed cylindrical shape fixed in the injection passage while a space is provided between an inner peripheral surface of the injection passage and the case to enable gas to flow through the space, and a valve element accommodated in the case to be brought into contact with and to be away from the valve seat, the case includes a cylindrical portion into which the valve element is fitted to be axially movable, and is configured such that a bottom of the cylindrical portion, provided at an axial end of the cylindrical portion, opposite to the valve seat, defines a range where the valve element is axially movable, and the valve element includes a head portion that can block a valve hole of the valve seat, and a sliding portion that is formed so as to have a zone of contact with the cylindrical portion, characterized in the zone of contact being uniform throughout the range where the sliding portion is axially movable.
A short activating RNA which up-regulates albumin production for use in treating or preventing a hyperproliferative disorder and/or a disorder characterised by hypoalbuminemia, wherein said short activating RNA upregulates albumin production by activating a target gene, wherein the target gene is HNF4a, wherein said short activating RNA has at least 95% sequence identity to a sequence located on the coding strand of the target gene between 500 nucleotides upstream and 500 nucleotides downstream of the transcription start site of the target gene, and said short activating RNA is 13-30 nucleotides in length.
A location device, allowing an underwater diver to locate himself, including: - a floating system including: - a location unit including: o a position sensor configured to receive a signal containing geodetic coordinates (xn, yn) of a position (Pn) of said diver, o a display system configured to display location information readable by the diver, from the geodetic coordinates (xn, yn) of said position (Pn) determined by the position sensor, - a casing which is waterproof and resistant to water pressure at least at a depth of 40 metres, receiving said location unit, the waterproof casing being at least partially transparent to the right of the display system, - a traction cable fixed by one of the ends thereof to the floating system, with a length at least equal to 40 metres, said device being configured to allow the determination of the geodetic coordinates (xn, yn) corresponding to the position (Pn) of the diver, when the floating system is in the position (Pn) without requiring the re-ascension of the diver to the surface of the water, said floating system being configured to rise to the surface of the water prior to the reception of the signal containing the geodetic coordinates (xn, yn) by the position sensor and to be brought back close to the underwater diver, via the traction cable, at the end of the reception of the signal containing the geodetic coordinates (xn, yn) by the position sensor. - a floating system including: - a location unit including: o a position sensor configured to receive a signal containing geodetic coordinates (xn, yn) of a position (Pn) of said diver, o a display system configured to display location information readable by the diver, from the geodetic coordinates (xn, yn) of said position (Pn) determined by the position sensor, - a casing which is waterproof and resistant to water pressure at least at a depth of 40 metres, receiving said location unit, the waterproof casing being at least partially transparent to the right of the display system, - a location unit including: o a position sensor configured to receive a signal containing geodetic coordinates (xn, yn) of a position (Pn) of said diver, o a display system configured to display location information readable by the diver, from the geodetic coordinates (xn, yn) of said position (Pn) determined by the position sensor, o a position sensor configured to receive a signal containing geodetic coordinates (xn, yn) of a position (Pn) of said diver, o a display system configured to display location information readable by the diver, from the geodetic coordinates (xn, yn) of said position (Pn) determined by the position sensor, - a casing which is waterproof and resistant to water pressure at least at a depth of 40 metres, receiving said location unit, the waterproof casing being at least partially transparent to the right of the display system, - a traction cable fixed by one of the ends thereof to the floating system, with a length at least equal to 40 metres,
Motor vehicle light device, comprising: - a light guide layer equipped with optical decoupling zones, and - a light generator able to send light toward the light guide layer, so that the light spreads along the guide layer, the light guide layer being locally covered with a light-absorbing material, the device being characterized in that the optical decoupling zones are able to pass light in a direction identical to the direction of the light coming from the light generator. - a light guide layer equipped with optical decoupling zones, and - a light generator able to send light toward the light guide layer, so that the light spreads along the guide layer,