mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: a computer; a memory in the computer; a database stored in the memory, the database including: a plurality of checks organized into a plurality of categories, wherein the plurality of checks determine if an electronic file meets a standard for the expected file format; and for each of the plurality of categories, a weight assigned to the category, including default weights assigned to the plurality of categories; a receiver to receive the electronic file in the file format; an analyser to analyse a first corpus of files with known non-conformities to produce a first result and to analyse a second corpus of safe files to produce a second result and to analyse the electronic file using the plurality of checks in the database; a statistical analyser to statistically review the first result and the second result and to adjust the default weights assigned to the plurality of categories so that a first calculated risk assessment for the first corpus of files is higher than a second calculated risk assessment for the second corpus of files; and a threat calculator to calculate a risk assessment for the electronic file using a result from the analyser and the weights assigned to the plurality of categories; wherein when the risk assessment indicates that the electronic file is likely a threat, the electronic file can be detonated in an electronic sandbox. a computer; a memory in the computer; a database stored in the memory, the database including: a plurality of checks organized into a plurality of categories, wherein the plurality of checks determine if an electronic file meets a standard for the expected file format; and for each of the plurality of categories, a weight assigned to the category, including default weights assigned to the plurality of categories; a plurality of checks organized into a plurality of categories, wherein the plurality of checks determine if an electronic file meets a standard for the expected file format; and for each of the plurality of categories, a weight assigned to the category, including default weights assigned to the plurality of categories; a receiver to receive the electronic file in the file format; an analyser to analyse a first corpus of files with known non-conformities to produce a first result and to analyse a second corpus of safe files to produce a second result and to analyse the electronic file using the plurality of checks in the database; a statistical analyser to statistically review the first result and the second result and to adjust the default weights assigned to the plurality of categories so that a first calculated risk assessment for the first corpus of files is higher than a second calculated risk assessment for the second corpus of files; and a threat calculator to calculate a risk assessment for the electronic file using a result from the analyser and the weights assigned to the plurality of categories; wherein when the risk assessment indicates that the electronic file is likely a threat, the electronic file can be detonated in an electronic sandbox.
A sulfur-containing battery comprising a cathode, an anode, an electrolyte medium and a separator structure, characterized in that said separator structure comprises chemically modified reduced graphene oxide having the structure: RGO[-X] q, wherein: RGO is reduced graphene oxide; each X is independently selected from the group consisting of halogen, substituted or unsubstituted alkyl, substituted or unsubstituted alkenyl, substituted or unsubstituted alkoxy, substituted or unsubstituted aryl, substituted or unsubstituted alkylaryl, substituted or unsubstituted arylalkyl, substituted or unsubstituted cycloalkyl, and substituted or unsubstituted heterocyclyl; preferably substituted aryl; and q is an integer greater than zero. RGO is reduced graphene oxide; each X is independently selected from the group consisting of halogen, substituted or unsubstituted alkyl, substituted or unsubstituted alkenyl, substituted or unsubstituted alkoxy, substituted or unsubstituted aryl, substituted or unsubstituted alkylaryl, substituted or unsubstituted arylalkyl, substituted or unsubstituted cycloalkyl, and substituted or unsubstituted heterocyclyl; preferably substituted aryl; and q is an integer greater than zero.
An implant with a coating containing at least one pharmaceutically active substance, characterised in that the coating is covered by a protective layer which consists of, or contains one or more materials of the group comprising vinyl acetate-crotonic acid copolymer, vinyl acetate-vinyl propionate-crotonic acid terpolymer, methyl vinyl ether-maleic acid anhydride copolymer, vinylpyrrolidone-dimethylamino ethyl acrylate copolymer, polyvinylpyrrolidone, polyvinyl acetate, polycrotonic acid, polyvinyl propionate, polymethyl vinyl ether, polymaleic acid anhydride, and poly(dimethylaminoethyl acrylate).
A polypeptide comprising (i) a transmembrane domain from CTLA4 or PD-1, (ii) a CD3ζ intracellular signaling domain, and (iii) an extracellular domain that binds to an antigen on a tumor cell, wherein said polypeptide is a chimeric antigen receptor and a T lymphocyte expressing said polypeptide is activated or stimulated to proliferate when said polypeptide binds to said antigen, and wherein if the transmembrane domain is from CTLA4, the extracellular domain of said polypeptide is not from CTLA4; and if the transmembrane domain is from PD-1, the extracellular domain of said polypeptide is not from PD-1.
A control method for outputting an audio file through a wireless audio output device, comprising: determining whether a user is approaching the wireless audio output device, when a proximity sensor of the wireless audio output device detects the user within a proximity of the wireless audio output device; when it is detected by the proximity sensor that the user is approaching, searching for a portable device by sending a request signal to search for the portable device, and when a response signal corresponding to the sent request signal is received from the portable device, comparing identification information included in the response signal with identification information of the portable device, which is stored in the wireless audio output device; when the identification information matches, connecting to the portable device, receiving the audio file being reproduced by the portable device, and outputting the audio file to be played through one or more speakers connected to the wireless audio output device. determining whether a user is approaching the wireless audio output device, when a proximity sensor of the wireless audio output device detects the user within a proximity of the wireless audio output device; when it is detected by the proximity sensor that the user is approaching, searching for a portable device by sending a request signal to search for the portable device, and when a response signal corresponding to the sent request signal is received from the portable device, comparing identification information included in the response signal with identification information of the portable device, which is stored in the wireless audio output device; when the identification information matches, connecting to the portable device, receiving the audio file being reproduced by the portable device, and outputting the audio file to be played through one or more speakers connected to the wireless audio output device.
An injectable pharmaceutical formulation comprising polidocanol in an amount equal to or less than 10% W/V, for use in a method of reducing subcutaneous adipose tissue in a subject in need thereof, wherein the method comprises administering an effective amount of the pharmaceutical formulation to the subject within a plurality of treatment sessions, wherein each treatment session is spaced by at least 14 days. for use in a method of reducing subcutaneous adipose tissue in a subject in need thereof, wherein the method comprises administering an effective amount of the pharmaceutical formulation to the subject within a plurality of treatment sessions, wherein each treatment session is spaced by at least 14 days.
A process for biomass torrefaction, comprising: adding biomass to a fluidized bed reactor; adding a combination of air and gas drawn from the fluid bed exhaust as a primary heating and fluidizing gas to said reactor; controlling the oxygen content of the fluidizing gas; initiating heating of said biomass by increasing the temperature of said reactor; heating said biomass; maintaining said biomass within said reactor for a predetermined time; removing water from said biomass; vaporizing volatile organic compounds associated with said biomass; torrefying said biomass; combusting said volatile organic compounds to help maintain the temperature of said fluidized bed reactor; wherein the gases leaving the fludized bed reactor have an oxygen content of less than 8 volume percent, whereas the oxygen content of the fluidized gas is maintained at 10 to 14 volume percent to maximize the rate of biomass processing; and forming the torrefied biomass into pellets at a temperature of 90° C to 200° C. adding biomass to a fluidized bed reactor; adding a combination of air and gas drawn from the fluid bed exhaust as a primary heating and fluidizing gas to said reactor; controlling the oxygen content of the fluidizing gas; initiating heating of said biomass by increasing the temperature of said reactor; heating said biomass; maintaining said biomass within said reactor for a predetermined time; removing water from said biomass; vaporizing volatile organic compounds associated with said biomass; torrefying said biomass; combusting said volatile organic compounds to help maintain the temperature of said fluidized bed reactor; wherein the gases leaving the fludized bed reactor have an oxygen content of less than 8 volume percent, whereas the oxygen content of the fluidized gas is maintained at 10 to 14 volume percent to maximize the rate of biomass processing; and forming the torrefied biomass into pellets at a temperature of 90° C to 200° C.
A method for determining a material type of an object of interest by directing, using a radio frequency source, RF energy into a region of interest, the region of interest comprising the object of interest, a known reference and a boundary between the object of interest and the known reference; and detecting, using an acoustic receiver, at least one thermoacoustic multi-polar signal generated in response to the RF energy, the method comprising: correlating, by one or more processors, the at least one thermoacoustic multi-polar signal to a transmitted power correction factor to generate a corrected thermoacoustic multi-polar signal, wherein the transmitted power correction factor is a scaling factor correcting for transmitted power differences between a synthetic object and the object of interest; and determining, by the one or more processors, the material type of the object of interest as a function of the corrected thermoacoustic multi-polar signal and a transmitted power of the RF energy. correlating, by one or more processors, the at least one thermoacoustic multi-polar signal to a transmitted power correction factor to generate a corrected thermoacoustic multi-polar signal, wherein the transmitted power correction factor is a scaling factor correcting for transmitted power differences between a synthetic object and the object of interest; and determining, by the one or more processors, the material type of the object of interest as a function of the corrected thermoacoustic multi-polar signal and a transmitted power of the RF energy.
Plug-in connection which has a plug-in connector and a mating plug-in connector, wherein the plug-in connector has first latching means and the mating plug-in connector has corresponding further latching means which form a latching geometry, by means of which first and second latching means a first latching operation between the plug-in connector and the mating plug-in connector takes place with the plug-in connection assembled, and wherein a locking element is provided, which is longitudinally displaceable between a preliminary latching position and a final latching position in the plug-in direction, wherein the locking element is designed in such a way that it can be displaced from its preliminary latching position to the final latching position only when the mating plug-in connector is fully in the plug-in connector, wherein the plug-in connector has a latching means which acts on the latching geometry of the plug-in connector via the locking element and are designed as latching lugs, wherein the locking element has at least one laterally longitudinally running wing, that the latching geometry is formed by two parallel running webs which are connected to one another in their front region by means of a transverse web, wherein the latching lug of the plug-in connector acts on the at least one web by means of the locking element and secures it, and that the at least one laterally longitudinally running wing is arranged between the latching lug and the latching geometry when the locking element is in its final latching position, characterized in that the locking element has a front region with a first step and has a tab, wherein the front region and the tab are arranged in an angled manner in relation to one another.
A condensing steam turbine with a condensate reservoir for storing condensed working fluid of the condensing steam turbine; and a filling level detection device for detecting the filling level in the condensate reservoir; wherein the filling level detection device comprises a first pressure detection device for detecting a first pressure of the condensed working fluid at a first height in the condensate reservoir; a second pressure detection device for detecting a second pressure above a second height in the condensate reservoir; and an evaluation device for forming the pressure differential (ΔP) between first and second pressure and for outputting an output signal corresponding to this pressure differential, wherein the first and/or second pressure detection device comprises a pressure measurement transducer which is suited for converting a pressure applied to a detection surface into an analogue or digital current or voltage signal, wherein the pressure measurement transducer, together with its detection surface is replaceably connected to the first and/or second pressure detection device (2, 3) via a flange connection, wherein the flange connection with the detection surface is simply connectable at a pressure measuring point to the condensate reservoir or the calming vessel, wherein the calming vessel communicates with the condensate reservoir and the pressure in this calming vessel is detectable through the first and/or second pressure detection device (2, 3).
A power plant, comprising: a gas turbine having an inlet section, a compressor downstream from the inlet section, a combustion section downstream from the compressor, a turbine downstream from the combustion section and a generator for supplying power to a power grid; and a power augmentation system, the power augmentation system comprising: a compressed air supply; a compressed air storage tank in fluid communication with the compressed air supply; and an expansion turbine disposed downstream from the compressed air storage tank, wherein an exhaust outlet of the expansion turbine is in fluid communication with at least one of the inlet section or the compressor of the gas turbine, wherein the compressed air supply includes an auxiliary compressor, characterised in that: the compressed air supply further includes the compressor of the gas turbine; and both the auxiliary compressor and the compressor of the gas turbine are in fluid communication with the tank. a gas turbine having an inlet section, a compressor downstream from the inlet section, a combustion section downstream from the compressor, a turbine downstream from the combustion section and a generator for supplying power to a power grid; and a power augmentation system, the power augmentation system comprising: a compressed air supply; a compressed air storage tank in fluid communication with the compressed air supply; and an expansion turbine disposed downstream from the compressed air storage tank, wherein an exhaust outlet of the expansion turbine is in fluid communication with at least one of the inlet section or the compressor of the gas turbine, a compressed air supply; a compressed air storage tank in fluid communication with the compressed air supply; and an expansion turbine disposed downstream from the compressed air storage tank, wherein an exhaust outlet of the expansion turbine is in fluid communication with at least one of the inlet section or the compressor of the gas turbine, wherein the compressed air supply includes an auxiliary compressor, characterised in that: the compressed air supply further includes the compressor of the gas turbine; and both the auxiliary compressor and the compressor of the gas turbine are in fluid communication with the tank.
A flight control apparatus for a fixed-wing aircraft, comprising: a first port wing and a first starboard wing; a first port swash plate coupled between a first port rotor and a first port motor, the first port motor coupled to the first port wing; and a first starboard swash plate coupled between a first starboard rotor and a first starboard motor, the first starboard motor coupled to the first starboard wing; wherein the first port rotor comprises first port rotor blades, and the first starboard rotor comprises first starboard rotor blades; wherein the first port swash plate provides collective control of the first port rotor blades, and the first starboard swash plate provides collective control of the first starboard rotor blades; and characterized in that: the first port motor and the first starboard motor are each electric; and the first port swash plate and the first starboard swash plate provide single-axis cyclic pitch control of the first port rotor blades and the first starboard rotor blades. a first port wing and a first starboard wing; a first port swash plate coupled between a first port rotor and a first port motor, the first port motor coupled to the first port wing; and a first starboard swash plate coupled between a first starboard rotor and a first starboard motor, the first starboard motor coupled to the first starboard wing; wherein the first port rotor comprises first port rotor blades, and the first starboard rotor comprises first starboard rotor blades; wherein the first port swash plate provides collective control of the first port rotor blades, and the first starboard swash plate provides collective control of the first starboard rotor blades; and characterized in that: the first port motor and the first starboard motor are each electric; and the first port swash plate and the first starboard swash plate provide single-axis cyclic pitch control of the first port rotor blades and the first starboard rotor blades. the first port motor and the first starboard motor are each electric; and the first port swash plate and the first starboard swash plate provide single-axis cyclic pitch control of the first port rotor blades and the first starboard rotor blades.
A shade control system comprising: a plurality of drive units each having a motor adapted for moving an associated shade member; a plurality of drive unit controllers each capable of generating command signals for directing at least one of the drive units to move its associated shade member; a communication bus capable of transmitting the command signals, characterised by each of the drive units and drive unit controllers being connected to the communication bus in a common arrangement such that each one of the drive units and drive unit controllers can communicate with every other drive unit and drive unit controller connected to the communication bus. a plurality of drive units each having a motor adapted for moving an associated shade member; a plurality of drive unit controllers each capable of generating command signals for directing at least one of the drive units to move its associated shade member; a communication bus capable of transmitting the command signals, characterised by each of the drive units and drive unit controllers being connected to the communication bus in a common arrangement such that each one of the drive units and drive unit controllers can communicate with every other drive unit and drive unit controller connected to the communication bus.
An air conditioner comprising: a main body comprising an outlet panel disposed on a front side of the main body; a pair of main outlets provided in the main body, wherein the outlet panel is disposed between the pair of main outlets of the main body; a plurality of fine outlets provided in the outlet panel, the fine outlets having smaller sizes than the main outlets, configured to discharge air at a very low speed compared to a speed of air discharged at the main outlets; a pair of blowing fans (12L, 12R) disposed in the main body and respectively corresponding to the pair of main outlets; wherein the main body further comprises a first flow path configured to guide air discharged from the blowing fan (12L, 12R) to the main outlets, and a second flow path configured to guide the air discharged from the blowing fan (12L, 12R) to the fine outlets, and a pair of discharge guides (15L, 15R) for opening and closing the pair of main outlets and configured to guide air discharged from the blowing fans (12L, 12R) to one of the main outlets and the fine outlets, wherein the discharge guides (15L, 15R) are configured to move to selectively open one of the first flow path and the second flow path while closing the other one. a main body comprising an outlet panel disposed on a front side of the main body; a pair of main outlets provided in the main body, wherein the outlet panel is disposed between the pair of main outlets of the main body; a plurality of fine outlets provided in the outlet panel, the fine outlets having smaller sizes than the main outlets, configured to discharge air at a very low speed compared to a speed of air discharged at the main outlets; a pair of blowing fans (12L, 12R) disposed in the main body and respectively corresponding to the pair of main outlets; wherein the main body further comprises a first flow path configured to guide air discharged from the blowing fan (12L, 12R) to the main outlets, and a second flow path configured to guide the air discharged from the blowing fan (12L, 12R) to the fine outlets, and a pair of discharge guides (15L, 15R) for opening and closing the pair of main outlets and configured to guide air discharged from the blowing fans (12L, 12R) to one of the main outlets and the fine outlets, wherein the discharge guides (15L, 15R) are configured to move to selectively open one of the first flow path and the second flow path while closing the other one.