mhurhangee/ep-ind-claims huggingface dataset:
Water supply system for a passenger transport vehicle, comprising - a first pipe, - a third pipe (83, 84, 85) - a water reservoir, and - a Venturi pipe having a first Venturi nozzle terminal, a second Venturi nozzle terminal and a branch arranged between the first and second Venturi nozzle terminal, wherein the second Venturi nozzle terminal is connected via the first pipe to the water reservoir, wherein the first Venturi nozzle terminal is connectable to a second pipe to fill the water reservoir, wherein the branch is connectable to the third pipe to supply taps, wherein water flows through the Venturi pipe from the first Venturi nozzle terminal to the second Venturi nozzle terminal when the water reservoir is filled, and water flows through the Venturi pipe from the second Venturi nozzle terminal to the branch during the supply procedure; characterised in that the branch of the Venturi pipe is connected to the third pipe for water supply, wherein at least one tap is arranged downstream in the third pipe during supply; wherein the branch of the Venturi pipe is connected downstream via the third pipe (83, 84, 85) to the water reservoir during supply so as to form a circulating water circuit; wherein at least one tap is arranged between the branch and the water reservoir. - a first pipe, - a third pipe (83, 84, 85) - a water reservoir, and - a Venturi pipe having a first Venturi nozzle terminal, a second Venturi nozzle terminal and a branch arranged between the first and second Venturi nozzle terminal,
A method for producing an optical component resin, comprising a step of polymerizing a polymerizable composition containing a polyisocyanate component and a polythiol component containing 40 mol% or more of a polythiol compound having two or more sulfide bonds in a molecular structure thereof, wherein a hydrolyzable chlorine compound contained in the polyisocyanate component has a content in a range of 10 ppm by mass or more and 100 ppm by mass or less in the polyisocyanate component, a hydrolyzable chlorine compound is a compound that reacts with methanol to generate hydrogen chloride, and the content of the hydrolyzable chlorine compound contained in the polyisocyanate component is measured according to Plastic Polyurethane Raw Material Aromatic Isocyanate Test Method Part 3: Method for Determining Hydrolyzable Chlorine specified in JIS K1603-3: 2007. a step of polymerizing a polymerizable composition containing a polyisocyanate component and a polythiol component containing 40 mol% or more of a polythiol compound having two or more sulfide bonds in a molecular structure thereof, wherein a hydrolyzable chlorine compound contained in the polyisocyanate component has a content in a range of 10 ppm by mass or more and 100 ppm by mass or less in the polyisocyanate component, a hydrolyzable chlorine compound is a compound that reacts with methanol to generate hydrogen chloride, and the content of the hydrolyzable chlorine compound contained in the polyisocyanate component is measured according to Plastic Polyurethane Raw Material Aromatic Isocyanate Test Method Part 3: Method for Determining Hydrolyzable Chlorine specified in JIS K1603-3: 2007.
A distributed system comprising: a preparation component (214; 320) configured for: creating a backup file on a disk; a preformatting component (216; 330) configured for: using the backup file to occupy a predetermined location that defines a backup zone on the disk, wherein the backup file is stored in the backup zone; copying primal data from a primal zone to the backup zone; and copying file table data from at least a file table zone to the backup zone; a formatting component (218; 340) configured for: formatting the disk having the primal data and the file table data in the backup zone; an unformatting component (220; 350) configured for: copying the primal data from the backup zone to the primal zone; copying the file table data from the backup zone to at least the file table zone;and unformatting the disk to a preformat configuration by copying the primal data to the primal zone on the disk and by copying the file table data to its original location on the disk. a preparation component (214; 320) configured for: creating a backup file on a disk; creating a backup file on a disk; a preformatting component (216; 330) configured for: using the backup file to occupy a predetermined location that defines a backup zone on the disk, wherein the backup file is stored in the backup zone; copying primal data from a primal zone to the backup zone; and copying file table data from at least a file table zone to the backup zone; using the backup file to occupy a predetermined location that defines a backup zone on the disk, wherein the backup file is stored in the backup zone; copying primal data from a primal zone to the backup zone; and copying file table data from at least a file table zone to the backup zone; a formatting component (218; 340) configured for: formatting the disk having the primal data and the file table data in the backup zone; formatting the disk having the primal data and the file table data in the backup zone; an unformatting component (220; 350) configured for: copying the primal data from the backup zone to the primal zone; copying the file table data from the backup zone to at least the file table zone;and unformatting the disk to a preformat configuration by copying the primal data to the primal zone on the disk and by copying the file table data to its original location on the disk. copying the primal data from the backup zone to the primal zone; copying the file table data from the backup zone to at least the file table zone;and unformatting the disk to a preformat configuration by copying the primal data to the primal zone on the disk and by copying the file table data to its original location on the disk.
An artificial joint cup, comprising a matrix and a nano-scale multilayer film coated on the matrix, characterised in that: the nano-scale multilayer film comprises: a pure Ti bottom layer bonded with the matrix, a Ti-TiC transition layer on the pure Ti bottom layer, and a composite layer on the Ti-TiC transition layer and a pure carbon film layer on the composite layer; the composite layer is a nano-scale multilayer structure consisting of a single layer of graphite-like film and a single layer of diamond-like film deposited alternately; and in the direction from the bottom layer to the composite layer, the mass percentage of Ti in the Ti-TiC transition layer gradually decreases, and the mass percentage of C therein gradually increases; wherein said matrix is a high molecular weight polyethylene joint cup. a pure Ti bottom layer bonded with the matrix, a Ti-TiC transition layer on the pure Ti bottom layer, and a composite layer on the Ti-TiC transition layer and a pure carbon film layer on the composite layer; the composite layer is a nano-scale multilayer structure consisting of a single layer of graphite-like film and a single layer of diamond-like film deposited alternately; and in the direction from the bottom layer to the composite layer, the mass percentage of Ti in the Ti-TiC transition layer gradually decreases, and the mass percentage of C therein gradually increases; wherein said matrix is a high molecular weight polyethylene joint cup.
A method of transmitting channel state information, CSI,-reference signals, RSs, at a base station using N antenna ports in a wireless communication system, the method comprising: generating, by the base station, a reference signal sequence; mapping, by the base station, the reference signal sequence to M resource element, RE, sets among five predefined RE sets for 8-port CSI-RS transmission, wherein M is a natural number equal to or greater than 2 and less than 5; and transmitting, by the base station, the mapped reference signal sequence, wherein N is a natural number equal to M * 8. generating, by the base station, a reference signal sequence; mapping, by the base station, the reference signal sequence to M resource element, RE, sets among five predefined RE sets for 8-port CSI-RS transmission, wherein M is a natural number equal to or greater than 2 and less than 5; and transmitting, by the base station, the mapped reference signal sequence, wherein N is a natural number equal to M * 8.
Drill bit for percussion drilling, said drill bit comprising: a drill bit body intended to extend along an axis A and comprising a front surface, said front surface comprises a first circular area surface arranged transverse and coaxially to axis A, a second area surface surrounding said first area, said second area surface is extending in an angle α in relation to a plane transverse to axis A, and a third area surface surrounding said second area surface, said third area surface is extending in an angle β in relation to a plane transverse to axis A such that the front surface will have a substantially convex shape; and a number (n) of buttons arranged in said second surface and third area surface, said buttons have a button body extending along an axis B and a length L along axis B, said button body has a circular cross-sectional shape transverse to axis B, a rear end surface and a forward end surface, wherein the angle α is within the range of 5 to 15°, the angle β is within the range of 30 to 45° and the buttons are arranged in circular recesses extending substantially transverse from the second area surface and third area surface into the drill bit body, said recesses have a radius corresponding to the button body radius (Rb) and a depth corresponding to the length L of the button body such that the button bodies are fitted within the drill bit body with the forward end surface exposed in the second area surface and third area surface. a drill bit body intended to extend along an axis A and comprising a front surface, said front surface comprises a first circular area surface arranged transverse and coaxially to axis A, a second area surface surrounding said first area, said second area surface is extending in an angle α in relation to a plane transverse to axis A, and a third area surface surrounding said second area surface, said third area surface is extending in an angle β in relation to a plane transverse to axis A such that the front surface will have a substantially convex shape; and a number (n) of buttons arranged in said second surface and third area surface, said buttons have a button body extending along an axis B and a length L along axis B, said button body has a circular cross-sectional shape transverse to axis B, a rear end surface and a forward end surface,
An external part of a timepiece or jewelry made from a moulded material having a density comprised between 2 and 7 g/cm 3, the moulded material comprising by weight: - 60 to 90% of a ceramic having a density higher than or equal to 5 g/cm 3, - 10 to 32% of a plastic material including a thermoplastic resin or a mixture of thermoplastic resins and a coupling agent, - 0 to 8% of a reinforcement, - 0 to 3% of a pigment. - 60 to 90% of a ceramic having a density higher than or equal to 5 g/cm 3, - 10 to 32% of a plastic material including a thermoplastic resin or a mixture of thermoplastic resins and a coupling agent, - 0 to 8% of a reinforcement, - 0 to 3% of a pigment.
A compressing element (1; 101), the compressing element (1; 101) having: a upper surface (3; 103) provided with an inlet (15; 115) and an outlet (17; 117), a.lower surface (19; 119); an at least partially hollow interior (23; 123) provided between the upper surface (3; 103) and the lower surface (19; 119), the hollow interior (23; 123) being connected to the inlet (15; 1 15) and the outlet (17; 117); the hollow interior (23; 123) being provided with: one or more fluid flow constraining surfaces (3, 38; 103, 138) provided by one or more walls of the hollow interior (23; 123); and one or more fluid flow control elements (25, 31, 33; 25, 131, 133) provided in the hollow interior (23; 123), the one or more fluid flow control elements (25, 31, 33; 25, 131, 133) being additional to the one or more fluid flow constraining surfaces (3, 38; 103, 138) provided by the one or more walls of the hollow interior (23; 123); characterised in that the one or more fluid flow control elements (25, 31, 33; 25, 131, 133) are or include an element (33; 133) which is provided between the inlet (15; 115) and the outlet (17; 117), the element (33; 133) extending from the inner surface (38; 138) of the lower surface (19; 119) to the inner surface of the upper surface (3; 103). a upper surface (3; 103) provided with an inlet (15; 115) and an outlet (17; 117), a.lower surface (19; 119); an at least partially hollow interior (23; 123) provided between the upper surface (3; 103) and the lower surface (19; 119), the hollow interior (23; 123) being connected to the inlet (15; 1 15) and the outlet (17; 117); the hollow interior (23; 123) being provided with: one or more fluid flow constraining surfaces (3, 38; 103, 138) provided by one or more walls of the hollow interior (23; 123); and one or more fluid flow control elements (25, 31, 33; 25, 131, 133) provided in the hollow interior (23; 123), the one or more fluid flow control elements (25, 31, 33; 25, 131, 133) being additional to the one or more fluid flow constraining surfaces (3, 38; 103, 138) provided by the one or more fluid flow constraining surfaces (3, 38; 103, 138) provided by one or more walls of the hollow interior (23; 123); and one or more fluid flow control elements (25, 31, 33; 25, 131, 133) provided in the hollow interior (23; 123), the one or more fluid flow control elements (25, 31, 33; 25, 131, 133) being additional to the one or more fluid flow constraining surfaces (3, 38; 103, 138) provided by the one or more walls of the hollow interior (23; 123);
An electrically heatable laminated automotive glazing unit comprising an exterior glass sheet that is curved and tempered and a thin glass interior sheet that is also tempered, the thickness of the thin glass interior sheet being not larger than 1 mm, these sheets being joined by means of a thermoplastic interlayer sheet, the glazing unit is configured to receive mechanical moving and/or fastening means and a portion of the exterior sheet is not covered by the thin interior sheet, and the glazing unit is fastened in the zone not covered by the thin sheet, the glazing unit comprising at least one electrically heatable zone comprising: i) a substantially transparent, electrically conductive coating layer, ii) spaced busbars adapted to supply electrical voltage across the substantially transparent, electrically conductive coating layer, characterized in that the spaced busbars are placed in the portion of the exterior sheet which is not covered by the thin interior sheet. the glazing unit comprising at least one electrically heatable zone comprising: i) a substantially transparent, electrically conductive coating layer, ii) spaced busbars adapted to supply electrical voltage across the substantially transparent, electrically conductive coating layer, i) a substantially transparent, electrically conductive coating layer, ii) spaced busbars adapted to supply electrical voltage across the substantially transparent, electrically conductive coating layer, characterized in that the spaced busbars are placed in the portion of the exterior sheet which is not covered by the thin interior sheet.
A method, comprising: receiving an input data stream by means of a receiver circuit transmitted in a communications system, the input data stream comprising frames of input data; filtering the input data to adjust the input data for one or more of phase and amplitude distortions by means of a filter module; generating frame timing synchronization control signals (rrc_frm_sync) by means of a frame synchronization processor circuit for writing the frames of the input data for storage; storing the input data based on the generated frame timing synchronization control signals (rrc_frm_sync) by means of an equalizer buffer; generating timing error control signals (508, eq_err_sync) by means of a carrier synchronization module circuit corresponding to a processing delay for the input data; synchronizing a reading out of the stored input data by means of the equalizer buffer circuit based on a timing difference between the timing error control signals (eq_err_sync) and the frame timing synchronization control signals (rrc_frm_sync) to adjust for a delay, wherein the timing error control signals (eq_err_sync) comprise one or more of error adjusted frame timing synchronization control signals (rrc_frm_sync) and error adjusted valid control signals to synchronize error samples corresponding to input data samples for frame timing synchronization to adjust for the arbitrary delay in processing the input data, and generating equalizer error signals (eq_error_tap) corresponding to a tap gradient adjustment to adjust a tap gradient to correspond to the read out data. receiving an input data stream by means of a receiver circuit transmitted in a communications system, the input data stream comprising frames of input data; filtering the input data to adjust the input data for one or more of phase and amplitude distortions by means of a filter module; generating frame timing synchronization control signals (rrc_frm_sync) by means of a frame synchronization processor circuit for writing the frames of the input data for storage; storing the input data based on the generated frame timing synchronization control signals (rrc_frm_sync) by means of an equalizer buffer; generating timing error control signals (508, eq_err_sync) by means of a carrier synchronization module circuit corresponding to a processing delay for the input data; synchronizing a reading out of the stored input data by means of the equalizer buffer circuit based on a timing difference between the timing error control signals (eq_err_sync) and the frame timing synchronization control signals (rrc_frm_sync) to adjust for a delay, wherein the timing error control signals (eq_err_sync) comprise one or more of error adjusted frame timing synchronization control signals (rrc_frm_sync) and error adjusted valid control signals to synchronize error samples corresponding to input data samples for frame timing synchronization to adjust for the arbitrary delay in processing the input data, and generating equalizer error signals (eq_error_tap) corresponding to a tap gradient adjustment to adjust a tap gradient to correspond to the read out data.
A learning apparatus characterized by comprising: a learning data acquisition unit configured to acquire, as learning data, a set of normal values of: an accumulated operating time indicating the accumulated time for which a wet etching apparatus (3; 3B) has operated from when a chemical solution has been replaced to when an etching process has been applied to one wafer, an accumulated number of processed wafers indicating the accumulated number of wafers that have been processed from when the chemical solution has been replaced to when the etching process has been applied to the one wafer, and a removal amount indicating the amount that has been removed by etching from the one wafer to which the etching process has been applied; and a model construction unit configured to construct a predictive model that predicts a value of the removal amount depending on values of the accumulated operating time and the accumulated number of processed wafers, based on the normal values of the accumulated operating time, the accumulated number of processed wafers, and the removal amount contained in the learning data. a learning data acquisition unit configured to acquire, as learning data, a set of normal values of: an accumulated operating time indicating the accumulated time for which a wet etching apparatus (3; 3B) has operated from when a chemical solution has been replaced to when an etching process has been applied to one wafer, an accumulated number of processed wafers indicating the accumulated number of wafers that have been processed from when the chemical solution has been replaced to when the etching process has been applied to the one wafer, and a removal amount indicating the amount that has been removed by etching from the one wafer to which the etching process has been applied; and an accumulated operating time indicating the accumulated time for which a wet etching apparatus (3; 3B) has operated from when a chemical solution has been replaced to when an etching process has been applied to one wafer, an accumulated number of processed wafers indicating the accumulated number of wafers that have been processed from when the chemical solution has been replaced to when the etching process has been applied to the one wafer, and a removal amount indicating the amount that has been removed by etching from the one wafer to which the etching process has been applied; and a model construction unit configured to construct a predictive model that predicts a value of the removal amount depending on values of the accumulated operating time and the accumulated number of processed wafers, based on the normal values of the accumulated operating time, the accumulated number of processed wafers, and the removal amount contained in the learning data.
A protective film-forming composite sheet comprising a pressure sensitive adhesive sheet in which a pressure sensitive adhesive layer is provided on a base material, a protective film-forming film comprising a binder resin (a), a heat-curable resin (b), a heat-curable agent (c), and a filler (g), which is bonded to the pressure sensitive adhesive layer, and a release film bonded to a surface of the protective film-forming film opposite to a surface bonded to the pressure sensitive adhesive layer, wherein the pressure sensitive adhesive layer comprises an acrylic polymer as a pressure sensitive adhesive and a cross-linking agent in an amount of 3 to 15 parts by mass, based on 100 parts by mass of the acrylic polymer, wherein a binder resin (a) comprises an acrylic polymer in which glass transition temperature (Tg) is -30 to 50 °C, the heat-curable resin (b) comprises an epoxy resin, the total amount of the heat-curable resin (b) and the heat-curing agent (c) is 70 to 130 parts by mass, based on 100 parts by mass of the binder resin (a), and a content of the filler (g) is 55 to 70% by mass, based on the whole protective film-forming film, and wherein when α (mN/25 mm) represents the maximum peel force between the protective film-forming film and the release film; β (mN/25 mm) represents the minimum peel force between the pressure sensitive adhesive sheet and the protective film-forming film; and γ (mN/25 mm) represents the maximum peel force between the pressure sensitive adhesive sheet and the protective film-forming film, as measured using a test piece having a width of 25 mm at a peel angle of 180 degrees, a measurement temperature of 23°C, and a peel rate of 300 mm/min, the following relationships to hold for α, β, and γ: β ≥ 70 α / β ≤ 0.50 γ ≤ 2000