mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a memory, comprising: providing a substrate, wherein a plurality of bit lines arranged at intervals are formed in the substrate, each bit line comprises a plurality of straight line segments (11, 12) connected end to end in sequence, and adjacent straight line segments (11, 12) have an included angle therebetween; forming a plurality of active pillars arranged at intervals and a plurality of insulating layers arranged at intervals on the substrate, wherein each straight line segment (11, 12) of each bit line is electrically connected with at least two active pillars, and each insulating layer extends in a first direction and covers an outer peripheral surface of the active pillar; characterized in that the method further comprises: filling a first support layer between adjacent insulating layers; removing part away from the substrate, of the insulating layer to form a filling space, wherein the filling space exposes part of the outer peripheral surface of the active pillar; and forming a dielectric layer and a conductive layer between parts exposed in the filling space and close to the substrate, of the active pillars to form a word line. providing a substrate, wherein a plurality of bit lines arranged at intervals are formed in the substrate, each bit line comprises a plurality of straight line segments (11, 12) connected end to end in sequence, and adjacent straight line segments (11, 12) have an included angle therebetween; forming a plurality of active pillars arranged at intervals and a plurality of insulating layers arranged at intervals on the substrate, wherein each straight line segment (11, 12) of each bit line is electrically connected with at least two active pillars, and each insulating layer extends in a first direction and covers an outer peripheral surface of the active pillar; characterized in that the method further comprises: filling a first support layer between adjacent insulating layers; removing part away from the substrate, of the insulating layer to form a filling space, wherein the filling space exposes part of the outer peripheral surface of the active pillar; and forming a dielectric layer and a conductive layer between parts exposed in the filling space and close to the substrate, of the active pillars to form a word line. filling a first support layer between adjacent insulating layers; removing part away from the substrate, of the insulating layer to form a filling space, wherein the filling space exposes part of the outer peripheral surface of the active pillar; and forming a dielectric layer and a conductive layer between parts exposed in the filling space and close to the substrate, of the active pillars to form a word line.
A cosmetic preparation comprising a water-dispersible mixture of polyurethanes having an essentially linear backbone composed of alternating hydrophilic and hydrophobic segments, wherein a. both terminal segments are hydrophobic, b. a hydrophilic segment is joined to each segment T, c. at least one hydrophobic segment is joined directly on at least one side to each segment S, and d. wherein at least one hydrophilic segment is present, wherein at least one hydrophobic segment D separates two P segments if more than one segment P is present, and the polyurethanes comprise at least three hydrophilic segments, and the ratio of the molecular weights of each hydrophilic segment S to the molecular weight of each hydrophilic segment P is from 1:1.4 to 1:140, the at least two hydrophobic segments D are aliphatic diisocyanate residues and the at least one hydrophilic segment P is a polyether residue having a number-average molecular weight of at least 1500 g/mol, wherein the polyurethanes are a mixture comprising polyurethanes of which segments T are both branched and those which segments T are both linear and those which comprise one linear segment T and one branched segment T. a. both terminal segments are hydrophobic, b. a hydrophilic segment is joined to each segment T, c. at least one hydrophobic segment is joined directly on at least one side to each segment S, and d. wherein at least one hydrophilic segment is present, wherein at least one hydrophobic segment D separates two P segments if more than one segment P is present,
A device for collecting and applying a fluid product comprising: - a base part mounted on a fluid product reservoir, the base part comprising a dip tube and a cup in which is formed an injection orifice connected to the dip tube, the cup being provided with a piston, and - a removable member removably mounted along a sliding axis on the base part, the removable member comprising a gripping appendage, a nozzle capable of sliding along a sliding axis in a sealed manner against the piston on a sealed axial stroke and an applicator capable of retaining a dose of fluid product coming from the injection orifice by suction generated by the sealed sliding of the nozzle against the piston, the applicator comprising a collection and application space formed in the nozzle, the fluid product being injected in this collection and application space through the dip tube and the injection orifice, characterized in that the cup is provided with an emptying valve (221, 222, 5; 5'; 5") which selectively communicates the interior of the cup with the fluid product reservoir, so as to discharge the fluid product contained in the cup towards the reservoir, when replacing the removable member on the base part. - a base part mounted on a fluid product reservoir, the base part comprising a dip tube and a cup in which is formed an injection orifice connected to the dip tube, the cup being provided with a piston, and - a removable member removably mounted along a sliding axis on the base part, the removable member comprising a gripping appendage, a nozzle capable of sliding along a sliding axis in a sealed manner against the piston on a sealed axial stroke and an applicator capable of retaining a dose of fluid product coming from the injection orifice by suction generated by the sealed sliding of the nozzle against the piston, the applicator comprising a collection and application space formed in the nozzle, the fluid product being injected in this collection and application space through the dip tube and the injection orifice, characterized in that the cup is provided with an emptying valve (221, 222, 5; 5'; 5") which selectively communicates the interior of the cup with the fluid product reservoir, so as to discharge the fluid product contained in the cup towards the reservoir, when replacing the removable member on the base part.
A method for estimating the angular position θ c of a target detected by a radar on board a moving carrier, said radar emitting, by means of a steerable antenna, a signal in the form of pulses towards said target and receiving echoes originating from the reflection of said signal on said target, said method comprising the following steps: o a step (615, 616) of estimating the angular position θ(i) of said antenna for each pulse or group of pulses with a time index i taken in a set comprising a plurality of emitted pulses; o a step of estimating the Doppler frequency f D (i) of the one or more echo(es) originating from the reflection of said pulse or said group of pulses on said target for each pulse or group of pulses with a time index i taken in said set comprising a plurality of emitted pulses; o a step of matching the angular position θ(i) and the Doppler frequency f D (i) for each pulse or group of pulses with a time index i taken in said set comprising a plurality of emitted pulses; o a step of estimating the angular position θ c of said target at least by resolving the equation: λf D i 2 = V a sin θ i θ c − θ i + V r, c, where λ is the wavelength of the radar, V a is the norm of the speed of said carrier and V r,c is the radial speed of said target. o a step (615, 616) of estimating the angular position θ(i) of said antenna for each pulse or group of pulses with a time index i taken in a set comprising a plurality of emitted pulses; o a step of estimating the Doppler frequency f D (i) of the one or more echo(es) originating from the reflection of said pulse or said group of pulses on said target for each pulse or group of pulses with a time index i taken in said set comprising a plurality of emitted pulses; o a step of matching the angular position θ(i) and the Doppler frequency f D (i) for each pulse or group of pulses with a time index i taken in said set comprising a plurality of emitted pulses; o a step of estimating the angular position θ c of said target at least by resolving the equation: λf D i 2 = V a sin θ i θ c − θ i + V r, c, where λ is the wavelength of the radar, V a is the norm of the speed of said carrier and V r,c is the radial speed of said target.
A combination of a DNA molecule encoding an antigen and an antagonistic TIM-3 antibody for use in a method of treating and/or preventing a disease associated with cytomegalovirus, herpes, human immunodeficiency virus, human papilloma virus, hepatitis C, hepatitis B, influenza, respiratory syncytial virus, malaria or C. difficile, by increasing a CD8+ T cell immune response in a subject, the method comprising the steps of: administering to the subject a prime vaccination and a boost vaccination comprising a DNA molecule encoding an antigen selected from the group consisting of: a CMV antigen, a herpes antigen, an HIV antigen, an HPV antigen, an HCV antigen, an HBV antigen, an influenza antigen, an RSV antigen, a Plasmodium falciparum antigen and a C. difficile antigen, and subsequent to the boost vaccination, administering to the subject the TIM-3 antibody. administering to the subject a prime vaccination and a boost vaccination comprising a DNA molecule encoding an antigen selected from the group consisting of: a CMV antigen, a herpes antigen, an HIV antigen, an HPV antigen, an HCV antigen, an HBV antigen, an influenza antigen, an RSV antigen, a Plasmodium falciparum antigen and a C. difficile antigen, and subsequent to the boost vaccination, administering to the subject the TIM-3 antibody.
A leak-proof foam spraying can, characterized in that the leak-proof foam spraying can includes a liquid tank, a spray head, a liquid tank lid and a duckbill valve, wherein the top of the liquid tank is provided with a liquid injection port, the liquid tank lid is engaged on the liquid injection port, the liquid tank lid is provided with a mounting hole which penetrates through the liquid tank lid along the vertical direction from the top to the bottom, and the duckbill valve is mounted in the mounting hole and the opening of the duckbill valve faces downward, wherein the spray head is inserted in the liquid tank lid, the liquid tank lid is engaged on the liquid injection port, a polygon hole is provided in the interior of the spray head, a metal tube is provided in the spray head, a polygon positioning element is provided on the metal tube, the metal tube is inserted in the polygon hole, the polygon positioning element is engaged in the polygon hole, the spray head sprays foam through a nozzle, and the metal tube connects the spray head and the nozzle, and wherein a metal filter disc is provided in the interior of the metal tube, and the metal filter disc comprises a first metal filter disc and a second metal filter disc, the first metal filter disc and the second metal filter disc are sequentially arranged in the metal tube, and a sponge filter disc is provided between the first metal filter disc and the second metal filter disc.
Apparatus for identifying anomalies on medical instruments, having a data processing installation (14, 104, 154, 212, 304) and an instrument detection unit (12, 102, 152, 302, 351, 371), wherein the data processing installation (14, 104, 154, 212, 304) has a display unit (38, 120, 170, 218), a database (28, 184, 236), a first interface (24, 180, 226) and an evaluation unit (26, 182, 232) and the instrument detection unit (12, 102, 152, 302, 351, 371) has a support (16, 108, 158, 312) and at least one camera (18, 110, 160, 252, 308, 310), wherein the at least one camera (18, 110, 160, 252, 308, 310) is arranged and oriented such that it can capture image data from medical instruments (58, 64, 328, 400) arranged on the support (16, 108, 158, 312) from at least one perspective, and the data processing installation (14, 104, 154, 212, 304) is adapted such that it uses the first interface (24, 180, 226) to receive image data from the at least one camera (18, 110, 160, 252, 308) and can store the received image data in the database (28, 184, 236) and can use the evaluation unit (26, 182, 232) to examine said image data for regions which have anomalies, characterized in that the data processing installation (14, 104, 154, 212, 304) is also adapted such that it can classify the regions and can use the classification to determine whether the regions are respectively a regular part of the instrument (58, 64, 328, 400) or an anomaly, and adapted to perform the following steps: aa) finding regions of conspicuous color, bb) classifying the regions of conspicuous color, cc) determining, based on the classification, whether the region of conspicuous color is a regular part of the instrument (58, 64, 328, 400) or an anomaly, and dd) determining the type of anomaly of the region of conspicuous color. aa) finding regions of conspicuous color, bb) classifying the regions of conspicuous color, cc) determining, based on the classification, whether the region of conspicuous color is a regular part of the instrument (58, 64, 328, 400) or an anomaly, and dd) determining the type of anomaly of the region of conspicuous color.
A dryer management system to manage drying a material deposited on a web, comprising: a web transport (22, 25, 42, 48, 66, 81, 88, 100) adapted to convey the web; a dryer unit (32, 46, 64, 80, 84) associated with and disposed downstream of an imager unit (44, 50, 70, 82) having at least one heater unit (206a, 206b,...206n) adapted to generate a flow of heated air to heat the web; a temperature sensing device (208a, 208b,...208n) disposed proximate the web to develop an indication of a temperature of the web as the web is convey past the heater unit (206a, 206b,...206n); and characterized by comprising a closed-loop dryer controller configured to monitor the indication of the temperature developed by the temperature sensing device (208a, 208b,...208n) and sufficiency of drying of material deposited on the web and configured to adjust operation of the heater unit (206a, 206b,...206n) to heat the web sufficiently to dry the material deposited on the web and maintain the indication of the temperature developed by the temperature sensing device (208a, 208b,...208n) below a maximum temperature. a web transport (22, 25, 42, 48, 66, 81, 88, 100) adapted to convey the web; a dryer unit (32, 46, 64, 80, 84) associated with and disposed downstream of an imager unit (44, 50, 70, 82) having at least one heater unit (206a, 206b,...206n) adapted to generate a flow of heated air to heat the web; a temperature sensing device (208a, 208b,...208n) disposed proximate the web to develop an indication of a temperature of the web as the web is convey past the heater unit (206a, 206b,...206n); and characterized by comprising a closed-loop dryer controller configured to monitor the indication of the temperature developed by the temperature sensing device (208a, 208b,...208n) and sufficiency of drying of material deposited on the web and configured to adjust operation of the heater unit (206a, 206b,...206n) to heat the web sufficiently to dry the material deposited on the web and maintain the indication of the temperature developed by the temperature sensing device (208a, 208b,...208n) below a maximum temperature.
A method for dispensing a fluid sample on a substrate, the method comprising: obtaining an image of a sample applicator in proximity to the substrate, wherein the image comprises a first image of the sample applicator and a second image of the sample applicator; determining a height (h) of the sample applicator relative to a surface plane of the substrate based on a distance between common portions of the first and second images (302, 304); and dispensing the fluid sample onto the substrate using the sample applicator, wherein the dispensing comprises: translating the sample applicator, translating the substrate, or translating both the sample applicator and the substrate to effect a relative translation between the sample applicator and the substrate; and maintaining the sample applicator within 2 microns of a target height relative to the surface plane of the substrate during the translating. obtaining an image of a sample applicator in proximity to the substrate, wherein the image comprises a first image of the sample applicator and a second image of the sample applicator; determining a height (h) of the sample applicator relative to a surface plane of the substrate based on a distance between common portions of the first and second images (302, 304); and dispensing the fluid sample onto the substrate using the sample applicator, wherein the dispensing comprises: translating the sample applicator, translating the substrate, or translating both the sample applicator and the substrate to effect a relative translation between the sample applicator and the substrate; and maintaining the sample applicator within 2 microns of a target height relative to the surface plane of the substrate during the translating. translating the sample applicator, translating the substrate, or translating both the sample applicator and the substrate to effect a relative translation between the sample applicator and the substrate; and maintaining the sample applicator within 2 microns of a target height relative to the surface plane of the substrate during the translating.
Method for providing coded side information ζ COD ( k - 2) required for coding a Higher Order Ambisonics, HOA, representation of a sound field, with input time frames of HOA coefficient sequences, wherein dominant directional signals as well as a residual ambient HOA component are determined, wherein, for a coded frame of HOA coefficients, side information data (ζ( k - 2)) describing prediction for dominant directional signals is determined, including a bit array ( ActivePred) indicating whether or not for a direction a prediction is performed; said method comprising: - providing in the coded side information ζ COD ( k - 2) a bit value (PSPredictionActive) indicating whether or not said prediction is to be performed, wherein the bit value (PSPredictionActive) is provided to indicate that no prediction is to be performed if the bit array (ActivePred) consists of zeros only; - if no prediction is to be performed, omitting said side information data (ζ( k - 2)) describing said prediction from the coded side information ζ COD ( k - 2), including omitting said bit array ( ActivePred) from the coded side information ζ COD ( k - 2); - if said prediction is to be performed, providing said side information data (ζ( k - 2)) describing said prediction in the coded side information ζ COD ( k - 2). - providing in the coded side information ζ COD ( k - 2) a bit value (PSPredictionActive) indicating whether or not said prediction is to be performed, wherein the bit value (PSPredictionActive) is provided to indicate that no prediction is to be performed if the bit array (ActivePred) consists of zeros only; - if no prediction is to be performed, omitting said side information data (ζ( k - 2)) describing said prediction from the coded side information ζ COD ( k - 2), including omitting said bit array ( ActivePred) from the coded side information ζ COD ( k - 2); - if said prediction is to be performed, providing said side information data (ζ( k - 2)) describing said prediction in the coded side information ζ COD ( k - 2).
A valve assembly, in particular a regulating valve for regulating a coolant circuit of an internal combustion engine, having a valve member for guiding a fluid with an opening, and a sealing element for sealing off a transit between the valve member and a fluid channel, wherein the valve assembly has a cage for preventing sagging the sealing element into the opening of the valve member, wherein the cage is arranged in the valve member and has a free region on the opening on which an outline of the valve member is continued, characterized in that at least one dosing tab is configured by means of the cage.
A method for operating a mobile station in a wireless network, the method comprises: transmitting, to a base station, a beam information regarding a number of receiving, RX beam instances at the mobile station; determining a timing based on the number of RX beam instances, the timing for receiving a paging information from the base station; and receiving, from the base station, the paging information based on the determined timing, wherein the paging information comprises information to identify the mobile station. transmitting, to a base station, a beam information regarding a number of receiving, RX beam instances at the mobile station; determining a timing based on the number of RX beam instances, the timing for receiving a paging information from the base station; and receiving, from the base station, the paging information based on the determined timing, wherein the paging information comprises information to identify the mobile station.
An ultrasound transducer for use in intra-vascular ultrasound (IVUS) imaging systems, the transducer comprising: a single crystal composite layer, wherein the SCC layer includes pillars (320; 620; 820) made of a single crystal piezo-electric material, the pillars being embedded in a polymer matrix (330; 630; 830), and wherein the SCC layer has a concave upper surface and an opposing convex lower surface; a front electrode on a side of the SCC layer; and a back electrode on the opposite side of the SCC layer, characterised in that the front electrode floats with no direct contact to an outside voltage source or ground, and the back electrode is split into two equal halves (751-1, 751-2) electrically decoupled from one another. a single crystal composite layer, wherein the SCC layer includes pillars (320; 620; 820) made of a single crystal piezo-electric material, the pillars being embedded in a polymer matrix (330; 630; 830), and wherein the SCC layer has a concave upper surface and an opposing convex lower surface; a front electrode on a side of the SCC layer; and a back electrode on the opposite side of the SCC layer, characterised in that the front electrode floats with no direct contact to an outside voltage source or ground, and the back electrode is split into two equal halves (751-1, 751-2) electrically decoupled from one another.