mhurhangee/ep-ind-claims huggingface dataset:
Photoacoustic detector having the following characteristics: a first and a second light source (1a, b) for providing light of the same intensity while retaining the same spectral distribution; a first beam path allocated to the first light source (1a, b) and at least one second beam path allocated to the second light source (1a, b), wherein a different absorption of the light can occur in the first and second beam paths in at least one selected wavelength range; means for alternately guiding light from the first and from the second beam path into a photoacoustic measuring cell; wherein the intensity of the light sources is constant such that the change thereof cannot generate a photoacoustic signal that distorts the measurement, characterized in that an absorption cell is positioned in the first or in the second beam path, which absorption cell absorbs in selected wavelength ranges a first and a second light source (1a, b) for providing light of the same intensity while retaining the same spectral distribution; a first beam path allocated to the first light source (1a, b) and at least one second beam path allocated to the second light source (1a, b), wherein a different absorption of the light can occur in the first and second beam paths in at least one selected wavelength range; means for alternately guiding light from the first and from the second beam path into a photoacoustic measuring cell; wherein the intensity of the light sources is constant such that the change thereof cannot generate a photoacoustic signal that distorts the measurement, characterized in that an absorption cell is positioned in the first or in the second beam path, which absorption cell absorbs in selected wavelength ranges
Chidamide combined with R-CHOP for use in the treatment of B-cell lymphoma, wherein, R-CHOP refers to a combination drug regimen of rituximab combined with cyclophosphamide, adriamycin or epirubicin (ADR/EPI), vincristine and prednisone (Pred), and chidamide combined with R-CHOP are administered as follows and repeated for 6 courses once every 21 days: Drug name Dosage Method of administration Time of administration R 375 mg/m 2 Intravenous bolus Day 1 CTX 750 mg/m 2 Intravenous bolus Day 2 EPI 70 mg/m 2 Intravenous bolus Day 2 VCR 1.4 mg/m 2 Intravenous bolus Day 2 Pred 60 mg/m 2 Oral Days 2 to 6 Chidamide 20 mg/d Oral Days 1, 4, 8, 11 Repeat time Day 21
A battery electrode composition comprising core-coating composites, each of the composites comprising: an active material capable of storing and releasing metal ions during battery operation, whereby the storing and releasing of the metal ions causes a change in volume of the active material that is greater than 7%; a core disposed in combination with the active material; wherein said core is formed from a porous material comprising a porous and electrically-conducting carbon material; said porous material having a porosity of 50% to 95% void space by volume; said porous material deforming in response to the storing and releasing of the metal ions to accommodate the changes in volume; said porous material absorbing said changes in volume via a plurality of open or closed pores; and characterized in that said composites each comprise a carbon conformal partially crystalline protective coating with a thickness of at least 1 nm and configured as a barrier that blocks contact between the active material and external oxidizing media so as to prevent the oxidation of said active material; the carbon conformal partially crystalline protective coating being formed from a material that is permeable to the metal ions stored and released by the active material; the carbon of the carbon conformal partially crystalline protective coating comprises chemical vapor deposition carbon. an active material capable of storing and releasing metal ions during battery operation, whereby the storing and releasing of the metal ions causes a change in volume of the active material that is greater than 7%; a core disposed in combination with the active material; wherein said core is formed from a porous material comprising a porous and electrically-conducting carbon material; said porous material having a porosity of 50% to 95% void space by volume; said porous material deforming in response to the storing and releasing of the metal ions to accommodate the changes in volume; said porous material absorbing said changes in volume via a plurality of open or closed pores; and characterized in that said composites each comprise a carbon conformal partially crystalline protective coating with a thickness of at least 1 nm and configured as a barrier that blocks contact between the active material and external oxidizing media so as to prevent the oxidation of said active material; the carbon conformal partially crystalline protective coating being formed from a material that is permeable to the metal ions stored and released by the active material; the carbon of the carbon conformal partially crystalline protective coating comprises chemical vapor deposition carbon.
A networked radar system for measuring velocity of atmospheric events comprising: a networked radar system having a plurality of radar nodes, each radar node sensing velocity data within a volume region during a scan interval; and a velocity processor (104a, 104b) connected to the networked radar system, the velocity processor receiving velocity data from each of the radar nodes for each scan interval and that processes the velocity data to compute a velocity metric with the received velocity data to measure event velocity within the volume region for each scan interval, where the processing is performed by using an iterative method or iterative methods; a control system connected to the radar nodes, the control system generating a plurality of scan parameters to control operation of the radar nodes, wherein the control system generates adjusted scan parameters for a group of participating nodes for a subsequent scan interval in dependence upon the velocity metric. a networked radar system having a plurality of radar nodes, each radar node sensing velocity data within a volume region during a scan interval; and a velocity processor (104a, 104b) connected to the networked radar system, the velocity processor receiving velocity data from each of the radar nodes for each scan interval and that processes the velocity data to compute a velocity metric with the received velocity data to measure event velocity within the volume region for each scan interval, where the processing is performed by using an iterative method or iterative methods; a control system connected to the radar nodes, the control system generating a plurality of scan parameters to control operation of the radar nodes, wherein the control system generates adjusted scan parameters for a group of participating nodes for a subsequent scan interval in dependence upon the velocity metric.
A method to generate an image of reflectivity of the Earth's subsurface, the method comprising: migrating recorded seismic data, using a migration velocity model, to generate a migration image comprising migration distortions; generating synthetic seismic data, using the migration velocity model, for a grid of scattered points; migrating the synthetic seismic data by a migration method, using the migration velocity model, to generate point spread functions (PSFs) representing impulse responses for the grid of scattered points; selecting an optimal reflectivity model of the Earth's subsurface using an image-domain least-squares migration, based on the point spread functions (PSFs); and generating an image of the optimal reflectivity model reducing the migration distortions to visualize the geological structures at various depths within the subsurface of the Earth; characterized in that said selecting said optimal reflection model uses a regularization of the difference between the migration image and a reflectivity model and a total variation regularization of the reflectivity model, wherein the difference regularization decreases differences between the reflectivity model and the migration image and the total variation regularization decreases discontinuities of geological structures in the reflectivity model. migrating recorded seismic data, using a migration velocity model, to generate a migration image comprising migration distortions; generating synthetic seismic data, using the migration velocity model, for a grid of scattered points; migrating the synthetic seismic data by a migration method, using the migration velocity model, to generate point spread functions (PSFs) representing impulse responses for the grid of scattered points; selecting an optimal reflectivity model of the Earth's subsurface using an image-domain least-squares migration, based on the point spread functions (PSFs); and generating an image of the optimal reflectivity model reducing the migration distortions to visualize the geological structures at various depths within the subsurface of the Earth; said selecting said optimal reflection model uses a regularization of the difference between the migration image and a reflectivity model and a total variation regularization of the reflectivity model, wherein the difference regularization decreases differences between the reflectivity model and the migration image and the total variation regularization decreases discontinuities of geological structures in the reflectivity model.
A method for producing a polyacetal resin composition, comprising adding, to 100 parts by weight of a polyacetal resin, 0.05 to 0.15 part by weight of an amine-substituted triazine compound and 0.10 to 0.20 part by weight of an aliphatic compound; and heating and thus melting the resultant substance at a temperature in the range of 210 to 230°C while deairing the resultant substance at a reduced pressure of 20.7 to 26.7 kPa, wherein the amine-substituted triazine compound is melamine, and wherein the aliphatic compound is ethylene bis(stearamide).
Laundry washing machine comprising: an outer casing, a washing tub, which is arranged inside the casing, a rotatable drum, which is arranged in axially rotating manner inside the washing tub and is designed to receive laundry to be washed, a detergent dispensing assembly, which is designed for supplying laundry detergent into the washing tub, a water softening system, which is designed to receive fresh water from a water mains and reduce the hardness degree of the fresh water in order to supply softened water to the detergent dispensing assembly and/or to the washing tub, during one or more softened water laundry washing phases; a control panel configured to allow user to input information associated with a laundry washing course to be performed, wherein said laundry washing course comprises one or more softened water laundry washing phase/s; and said laundry washing machine being characterized by comprising a controller configured to: provide to the user, by said control panel, detergent information based on softened water laundry washing phase/s of said laundry washing course to be performed; said detergent information being indicative of a detergent saving amount (QSi) to be used to perform said selected laundry washing course an outer casing, a washing tub, which is arranged inside the casing, a rotatable drum, which is arranged in axially rotating manner inside the washing tub and is designed to receive laundry to be washed, a detergent dispensing assembly, which is designed for supplying laundry detergent into the washing tub, a water softening system, which is designed to receive fresh water from a water mains and reduce the hardness degree of the fresh water in order to supply softened water to the detergent dispensing assembly and/or to the washing tub, during one or more softened water laundry washing phases; a control panel configured to allow user to input information associated with a laundry washing course to be performed, wherein said laundry washing course comprises one or more softened water laundry washing phase/s; and said laundry washing machine being characterized by comprising a controller configured to: provide to the user, by said control panel, detergent information based on softened water laundry washing phase/s of said laundry washing course to be performed; said detergent information being indicative of a detergent saving amount (QSi) to be used to perform said selected laundry washing course
A hard disk drive, HDD, system (8, 110) that communicates with a provider network device (5, 44) over a network (2, 13), comprising: nonvolatile HDD memory adapted to store data in a nonvolatile manner in user accessible and hidden sections, wherein the hidden sections are not accessible by the user; and a hard disk drive control, HDD, module comprising means adapted to communicate with said HDD nonvolatile memory, selectively request and receive video content from the provider network device and store said requested video content in said hidden section of said nonvolatile HDD memory, wherein said requested video content includes usage data that is also written to said hidden section of said nonvolatile HDD memory and wherein said HDD control module is further adapted to make said requested content unavailable when said usage data indicates that allowable use of the video content stored in said hidden section is over. nonvolatile HDD memory adapted to store data in a nonvolatile manner in user accessible and hidden sections, wherein the hidden sections are not accessible by the user; and a hard disk drive control, HDD, module comprising means adapted to communicate with said HDD nonvolatile memory, selectively request and receive video content from the provider network device and store said requested video content in said hidden section of said nonvolatile HDD memory, wherein said requested video content includes usage data that is also written to said hidden section of said nonvolatile HDD memory and wherein said HDD control module is further adapted to make said requested content unavailable when said usage data indicates that allowable use of the video content stored in said hidden section is over.
A method for manufacturing a graphene electromagnetic wave blocking plate, the method comprising: forming a first graphene layer and a second graphene layer respectively on and beneath a catalyst metal layer; attaching a support substrate to the second graphene layer; patterning the first graphene layer and the catalyst metal layer, wherein a metal pattern is formed by patterning the catalyst metal layer and a graphene pattern is formed by patterning the first graphene layer, wherein the metal pattern and the graphene pattern are formed on the second graphene layer; and removing the support substrate. forming a first graphene layer and a second graphene layer respectively on and beneath a catalyst metal layer; attaching a support substrate to the second graphene layer; patterning the first graphene layer and the catalyst metal layer, wherein a metal pattern is formed by patterning the catalyst metal layer and a graphene pattern is formed by patterning the first graphene layer, wherein the metal pattern and the graphene pattern are formed on the second graphene layer; and removing the support substrate.
A drivetrain, wherein the drivetrain has a first electric machine, which can be operated in a motor or generative operating state, and a planetary gearbox with a device for changing the rotational speed, wherein the planetary gearbox has a drive side and an output side and the first electric machine engages in the device for changing the rotational speed in a controlling manner in the motor or generative operating state, so that a gear ratio is formed in the planetary gearbox, wherein the drivetrain only has one planetary gearbox with a device for changing the rotational speed, which device is designed as only one internal gear and only one planetary gear and only one sun gear, characterised in that the drivetrain has a first brake on the output side or a second brake on the drive side.
A cell comprising an increased expression of lysine-specific demethylase 4D (KDM4D), wherein the cell comprises an expression vector, wherein the expression vector comprises: (a) a nucleic acid sequence encoding KDM4D; (b) a tissue-specific promoter that effects overexpression of KDM4D, wherein the promoter is operably linked to the nucleic acid sequence; and (c) a regulatory element that inducibly represses the overexpression of KDM4D, wherein the cell is a quiescent cell isolated from a terminally differentiated tissue. (a) a nucleic acid sequence encoding KDM4D; (b) a tissue-specific promoter that effects overexpression of KDM4D, wherein the promoter is operably linked to the nucleic acid sequence; and (c) a regulatory element that inducibly represses the overexpression of KDM4D,
A fuel nozzle assembly for a gas turbine engine, comprising: a premixing chamber formed between an outer annular shroud and an inner annular hub; a plurality of swirler vanes disposed about the premixing chamber between the outer annular shroud and the inner annular hub; one or more liquid fuel injectors positioned about the plurality of swirler vanes; a flow of liquid fuel in communication with the one or more liquid fuel injectors; wherein the one or more liquid fuel injectors comprise double sided atomizers, which include a liquid fuel conduit in fluid communication with a liquid fuel passage, characterized in that said liquid fuel conduit exits into a cavity disposed within the swirler vane, and which comprises a first orifice on a first side of the swirler vane and a second orifice on a second side of the swirler vane. a premixing chamber formed between an outer annular shroud and an inner annular hub; a plurality of swirler vanes disposed about the premixing chamber between the outer annular shroud and the inner annular hub; one or more liquid fuel injectors positioned about the plurality of swirler vanes; a flow of liquid fuel in communication with the one or more liquid fuel injectors; wherein the one or more liquid fuel injectors comprise double sided atomizers, which include a liquid fuel conduit in fluid communication with a liquid fuel passage, characterized in that said liquid fuel conduit exits into a cavity disposed within the swirler vane, and which comprises a first orifice on a first side of the swirler vane and a second orifice on a second side of the swirler vane.
A valve housing for use in an apparatus for measuring inspiratory and expiratory lung pressure, the valve housing comprising a first body portion which defines a mouthpiece; a second body portion coupled to the first body portion and which defines a port; a pair of spaced apart valve support bodies defined by one of the first and second body portions, wherein each valve support body defines an air flow conduit that includes a support frame disposed within the conduit, the support frame having a first side and a second side; and a pair of valves, wherein the valves are selectively secured to the respective first sides of the support frame or are secured to the respective second sides of the support frame, wherein when the valves are secured to the first sides of the support frame, they open to permit air to exit the valve housing via the air flow conduits, but close to prevent air being drawn into the valve housing from the external environment; and when the valves are secured to the second sides of the support frame, they open to permit air to enter into the valve housing via the air flow conduits from an external environment, but close to prevent air within the housing from exiting the housing, characterised in that the valve housing further comprises a filter medium disposed between the first and second body portions.
A compound of formula la-1 wherein A is CH or N; X 10 is S or SO 2; R 20 is C 1 -C 4 alkyl; R 21 is C 1 -C 4 haloalkyl; R 31 is C 1 -C 4 alkyl;and Qa is selected from the group consisting of the heterocycles wherein each group Qa is mono- di- or trisubstituted with Rx, wherein each Rx is independently selected from the group consisting of hydrogen, halogen, cyano, C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 -C 4 haloalkoxy, C 1 -C 4 alkoxy, C 1 -C 4 alkylsulfanyl, C 1 -C 4 alkylsulfinyl, C 1 -C 4 alkylsulfonyl, -C C 1 -C 4 alkyl, C 1 -C 4 haloalkylsulfanyl, C 1 -C 4 haloalkylsulfinyl, C 1 -C 4 haloalkylsulfonyl and -C C 1 -C 4 haloalkyl. A is CH or N; X 10 is S or SO 2; R 20 is C 1 -C 4 alkyl; R 21 is C 1 -C 4 haloalkyl; R 31 is C 1 -C 4 alkyl;and Qa is selected from the group consisting of the heterocycles wherein each group Qa is mono- di- or trisubstituted with Rx, wherein each Rx is independently selected from the group consisting of hydrogen, halogen, cyano, C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 -C 4 haloalkoxy, C 1 -C 4 alkoxy, C 1 -C 4 alkylsulfanyl, C 1 -C 4 alkylsulfinyl, C 1 -C 4 alkylsulfonyl, -C C 1 -C 4 alkyl, C 1 -C 4 haloalkylsulfanyl, C 1 -C 4 haloalkylsulfinyl, C 1 -C 4 haloalkylsulfonyl and -C C 1 -C 4 haloalkyl.
Process for converting Lupanine into sparteine comprising the step of treating said Lupanine with a reduction agent.wherein said reduction agent comprises NaBH 4 in combination with Iodine, and wherein said Lupanine is treated with said reduction agent having a ratio of 1 molar equivalent iodine to 1-6 molar equivalent(s) NaBH 4, in an organic solvent or a mixture thereof.
Device for producing focused explosions and generating high speed fragments and a blastwave, the device comprising: a rigid outer shell; an explosive filling within said rigid outer shell, the explosive filling comprising a plurality of inwardly extending hollows, said inwardly extending hollows being symmetrical along an axis extending into said explosive filling, and cone-shaped, the inwardly-extending hollows having bases at the surface of the explosive filling, each base having a respective radius, a gap defined between the explosive filling and the rigid outer shell; the gap size defining at least partly how an explosion at a given hollow impacts the rigid shell, thereby controlling fragmentation of said rigid shell, and a hollow container for holding said explosive filling within said gap characterised in that said explosive filling is covered with an outer coating, said coating extending into said inwardly extending hollows; and said hollow container comprising openings, and cone shaped intrusions extending inwardly from said openings into said explosive filling to form a shaped charge. a rigid outer shell; an explosive filling within said rigid outer shell, the explosive filling comprising a plurality of inwardly extending hollows, said inwardly extending hollows being symmetrical along an axis extending into said explosive filling, and cone-shaped, the inwardly-extending hollows having bases at the surface of the explosive filling, each base having a respective radius, a gap defined between the explosive filling and the rigid outer shell; the gap size defining at least partly how an explosion at a given hollow impacts the rigid shell, thereby controlling fragmentation of said rigid shell, and a hollow container for holding said explosive filling within said gap characterised in that said explosive filling is covered with an outer coating, said coating extending into said inwardly extending hollows; and said hollow container comprising openings, and cone shaped intrusions extending inwardly from said openings into said explosive filling to form a shaped charge.