mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a radome (110, 310, 460); a first foam layer (130, 320', 462) including a first side (134, 322') and a second side opposite the first side (134, 322'), wherein the first foam layer (130, 320', 462) is adhered to the radome (110, 310, 460) via the second side; and an electronically steerable antenna panel (140, 360, 474) coupled to the first foam layer (130, 320', 462) via the first side (134, 322'), the electronically steerable antenna panel (140, 360, 474) configured to participate in a communication of signals which are to propagate through the radome (110, 310, 460) and through the first foam layer (130, 320', 462); characterized by a base structure (150, 392) to support the antenna panel (140, 360, 474), wherein the antenna panel (140, 360, 474) is disposed between the base structure (150, 392) and the radome (110, 310, 460); a radio-frequency feed structure (362, 476); and a plurality of posts around a periphery of the antenna panel (140, 360, 474) and coupled to the radome (110, 310, 460), the plurality of posts to operate as standoffs that extend from the radome (110, 310, 460) and abut a surface of the base structure (150, 392) to maintain a parallel spacing of the antenna panel (140, 360, 474) above the RF feed structure (362, 476). a radome (110, 310, 460); a first foam layer (130, 320', 462) including a first side (134, 322') and a second side opposite the first side (134, 322'), wherein the first foam layer (130, 320', 462) is adhered to the radome (110, 310, 460) via the second side; and an electronically steerable antenna panel (140, 360, 474) coupled to the first foam layer (130, 320', 462) via the first side (134, 322'), the electronically steerable antenna panel (140, 360, 474) configured to participate in a communication of signals which are to propagate through the radome (110, 310, 460) and through the first foam layer (130, 320', 462); characterized by a base structure (150, 392) to support the antenna panel (140, 360, 474), wherein the antenna panel (140, 360, 474) is disposed between the base structure (150, 392) and the radome (110, 310, 460); a radio-frequency feed structure (362, 476); and a plurality of posts around a periphery of the antenna panel (140, 360, 474) and coupled to the radome (110, 310, 460), the plurality of posts to operate as standoffs that extend from the radome (110, 310, 460) and abut a surface of the base structure (150, 392) to maintain a parallel spacing of the antenna panel (140, 360, 474) above the RF feed structure (362, 476).
Combination device, which comprises a hob with at least one cooking module, at least one extractor device with at least one fan with at least one intake opening and at least one air inlet opening for the extractor device, wherein the air inlet opening is arranged in a cutout of the hob, wherein the cutout is arranged in the centre of the width of the hob and extends in the depth direction of the hob, and the at least one fan is located below the at least one cooking module of the hob, wherein the combination device has at least one grease filter and at least one odour filter, which are arranged between the air inlet opening and the at least one fan, characterised in that a filter support is introduced into the cutout, in which filter support the at least one grease filter is held in the vertical or is arranged inclined with respect to the vertical, the at least one odour filter is located in the flow direction downstream of the at least one grease filter and adjacent to the grease filter and parallel to the grease filter and the surface centres of the grease filter, of the odour filter and the intake opening are located on a horizontal plane.
A filtration device for the dead-end filtration of infusion liquids comprising i. a header section having an inlet for a liquid; ii. a disk having a plurality of bores, each bore holding a first end of a semipermeable hollow fiber membrane protruding from the disk, the semipermeable hollow fiber membrane being sealed at its second end such that any liquid entering a first end of the hollow fiber membrane can only leave the fiber through the membrane wall, being filtered in the process and iii. a tubular section having an outlet for a liquid; the header section covering a first face of the disk; and the tubular section covering a second face of the disk opposite to the first face, and enclosing the plurality of semipermeable hollow fiber membranes; a lip of the header section and a lip of the tubular section contacting the disk; wherein the header section, the disk, and the tubular section each comprise a thermoplastic polymer and wherein the materials of the header section and the tubular section are substantially transparent to IR light; and the disk comprises from 0.1 to 10 wt.-%, relative to the total weight of the thermoplastic polymer, of an IR-absorptive pigment selected from the group consisting of carbon black, IR-absorptive inorganic pigments selected from copper phosphates and indium tin oxide, and IR-absorptive organic pigments selected from phthalocyanines, naphthalolcyanines, metal complexes of azo dyes, anthraquinones, squaric acid derivatives, immonium dyes, perylenes, quaterylenes and polymethins; and both the header section and the tubular section are welded to the disk by irradiation with laser light having a wavelength in the range of from 800 nm to 1090 nm. i. a header section having an inlet for a liquid; ii. a disk having a plurality of bores, each bore holding a first end of a semipermeable hollow fiber membrane protruding from the disk, the semipermeable hollow fiber membrane being sealed at its second end such that any liquid entering a first end of the hollow fiber membrane can only leave the fiber through the membrane wall, being filtered in the process and iii. a tubular section having an outlet for a liquid;
A stacked light-receiving sensor comprising: a first substrate (100; 200; 300); a second substrate (120; 320) bonded to the first substrate (100; 200; 300); and connection wiring attached to the second substrate for connecting the light-receiving sensor with a circuit board, the first substrate (100; 200; 300) including a pixel array in which a plurality of unit pixels are arranged in a two-dimensional matrix, the second substrate (120; 320) including a converter (17A; 17B) configured to convert an analog pixel signal output from the pixel array to digital image data and a digital signal processor configured to perform a process based on a neural network calculation model for data based on the image data, wherein at least a part of the converter (17A; 17B) is disposed on a first side of the second substrate in plan view, the digital signal processor is disposed on a second side opposite to the first side on the second substrate in plan view (120; 320), wherein the first side is upstream of the second side along the flow of a signal read out from the pixel array, wherein the digital signal processor is not superimposed on the pixel array in the stacking direction of the first substrate and the second substrate, and the connection wiring is attached to the second side of the second substrate a first substrate (100; 200; 300); a second substrate (120; 320) bonded to the first substrate (100; 200; 300); and connection wiring attached to the second substrate for connecting the light-receiving sensor with a circuit board, the first substrate (100; 200; 300) including a pixel array in which a plurality of unit pixels are arranged in a two-dimensional matrix, the second substrate (120; 320) including a converter (17A; 17B) configured to convert an analog pixel signal output from the pixel array to digital image data and a digital signal processor configured to perform a process based on a neural network calculation model for data based on the image data, wherein a converter (17A; 17B) configured to convert an analog pixel signal output from the pixel array to digital image data and a digital signal processor configured to perform a process based on a neural network calculation model for data based on the image data, wherein at least a part of the converter (17A; 17B) is disposed on a first side of the second substrate in plan view, the digital signal processor is disposed on a second side opposite to the first side on the second substrate in plan view (120; 320), wherein the first side is upstream of the second side along the flow of a signal read out from the pixel array, wherein the digital signal processor is not superimposed on the pixel array in the stacking direction of the first substrate and the second substrate, and the connection wiring is attached to the second side of the second substrate
Oil separator for cleaning venting gas which contains oil mist, having an inlet for the venting gas, an outlet for the cleaned gas and an oil outlet, the oil separator being provided with at least one oil separation element which can be driven in a rotationally movable manner and can be set in rotation by way of a fluid pressure which acts on a drive element (10, 18), characterized in that the oil separation element is configured such that it can be driven by means of the supplied venting gas in a first operating range, in particular a low rotational speed range of the internal combustion engine, and is configured such that it can be driven by means of the fluid pressure of a fluid circuit of an internal combustion engine in a second operating range, in particular a high rotational speed range of the internal combustion engine.
A machining apparatus, comprising: a curved outer conduit having a cavity and a fluid inlet in fluid communication with the cavity; a curved rotary electrode comprising a flexible shaft positioned in the cavity and having a first end and a second end, and a machining head having a fluid outlet in fluid communication with the cavity and electrically isolated from the outer conduit and electrically connected with the first end of the flexible shaft to be powered via the flexible shaft; and a driving motor mechanically coupled to the second end of the flexible shaft for driving the flexible shaft to rotate. a curved outer conduit having a cavity and a fluid inlet in fluid communication with the cavity; a curved rotary electrode comprising a flexible shaft positioned in the cavity and having a first end and a second end, and a machining head having a fluid outlet in fluid communication with the cavity and electrically isolated from the outer conduit and electrically connected with the first end of the flexible shaft to be powered via the flexible shaft; and a driving motor mechanically coupled to the second end of the flexible shaft for driving the flexible shaft to rotate.
A heat exchanger, comprising: a plurality of plate-like fins arranged in parallel at intervals; a plurality of flat tubes inserted into the plurality of plate-like fins, the plurality of flat tubes being arranged in an up-and-down direction at intervals; and at least one water-guiding member arranged between adjacent ones of the plurality of flat tubes projecting from both outermost ones of the plurality of plate-like fins and being in contact with a projecting flat surface of an upper one of the adjacent ones of the plurality of flat tubes and a projecting flat surface of an lower one of the adjacent ones of the plurality of flat tubes. a plurality of plate-like fins arranged in parallel at intervals; a plurality of flat tubes inserted into the plurality of plate-like fins, the plurality of flat tubes being arranged in an up-and-down direction at intervals; and at least one water-guiding member arranged between adjacent ones of the plurality of flat tubes projecting from both outermost ones of the plurality of plate-like fins and being in contact with a projecting flat surface of an upper one of the adjacent ones of the plurality of flat tubes and a projecting flat surface of an lower one of the adjacent ones of the plurality of flat tubes.
An alternating-current, AC, to direct-current, DC, power converter to which an electronic device may be connected when it is desired to power the electronic device with the power converter, the power converter comprising: a power converter circuit that produces a DC voltage from an AC voltage; an output line to which the electronic device may be connected; a switching circuit coupled between an energy storage element circuit and the output line that periodically disconnects the power converter circuit from the output line; and circuitry that determines whether the electronic device is attached to the output line by monitoring voltage levels on the output line when disconnecting the power converter circuit from the output line with the switching circuit. a power converter circuit that produces a DC voltage from an AC voltage; an output line to which the electronic device may be connected; a switching circuit coupled between an energy storage element circuit and the output line that periodically disconnects the power converter circuit from the output line; and circuitry that determines whether the electronic device is attached to the output line by monitoring voltage levels on the output line when disconnecting the power converter circuit from the output line with the switching circuit.
A combination comprising a Bcl-2 inhibitor and an anti-CD20 mAb for use for the prevention and/or treatment of cancer, wherein the cancer is diffuse large B-cell lymphoma (DLBCL), wherein the Bcl-2 inhibitor is the following compound or a pharmaceutically acceptable salt or solvate thereof, and wherein the anti-CD20 mAb is rituximab. wherein the Bcl-2 inhibitor is the following compound or a pharmaceutically acceptable salt or solvate thereof, and wherein the anti-CD20 mAb is rituximab.
A method for automatically managing an event in a cloud system, comprising: - determining a candidate action to be applied to the cloud system for managing the event; - applying the candidate action to a model of the cloud system; and - upon determining, when the model of the cloud system meets at least one performance indicator, that the candidate action is a proved action, applying the proved action to the cloud system, wherein the event is predicted. - determining a candidate action to be applied to the cloud system for managing the event; - applying the candidate action to a model of the cloud system; and - upon determining, when the model of the cloud system meets at least one performance indicator, that the candidate action is a proved action, applying the proved action to the cloud system,
An article comprising a pulp base material comprising fibers, wherein pores are formed between the fibers; and a volatile composition comprising at least one top note component and at least one base note component; wherein the volatile composition at least partially fills the pores of the pulp base material; whereby a release rate of the at least one top note component is modulated by the pulp base material and a release rate of the at least one base note component is enhanced by the pulp base material; and wherein the pulp base material comprises at least two zones with different porosities including at least one lower porosity zone (1208; 1208A, 1208B) and at least one higher porosity zone (1206; 1206A, 1206B) wherein the zones comprise at least one exterior facing surface having complex geometry comprising peaks and flatter regions, and wherein there are more peaks in the higher porosity zone (1206; 1206A,1206B) and a smoother texture in the lower porosity zone (1208; 1208A, 1208B) whereby the different surface areas of the peaks and the flatter regions provide release rate control. a pulp base material comprising fibers, wherein pores are formed between the fibers; and a volatile composition comprising at least one top note component and at least one base note component; wherein the volatile composition at least partially fills the pores of the pulp base material; whereby a release rate of the at least one top note component is modulated by the pulp base material and a release rate of the at least one base note component is enhanced by the pulp base material; and wherein the pulp base material comprises at least two zones with different porosities including at least one lower porosity zone (1208; 1208A, 1208B) and at least one higher porosity zone (1206; 1206A, 1206B) wherein the zones comprise at least one exterior facing surface having complex geometry comprising peaks and flatter regions, and wherein there are more peaks in the higher porosity zone (1206; 1206A,1206B) and a smoother texture in the lower porosity zone (1208; 1208A, 1208B) whereby the different surface areas of the peaks and the flatter regions provide release rate control.
A surgical access assembly comprising: a cannula including an elongated shaft having a proximal end portion including an anchor inflation port and a distal end portion including an expandable anchor, the elongated shaft including an inner tube and an outer tube disposed over the inner tube, the inner tube including at least one groove defined in an outer surface thereof that forms an inflation channel with an inner surface of the outer tube, the at least one groove extending longitudinally along a length of the inner tube and having a substantially rectangular shape, the at least one groove including first and second walls (117a, 117b) disposed in substantially parallel relationship relative to each other and a third wall interconnecting first ends of the first and second walls within a notched section of the at least one groove, the first wall extending outwardly beyond the second wall and radially beyond the notched section of the at least one groove with second ends of the first and second walls adjoining the outer surface of the inner tube, the inflation channel in communication with the anchor inflation port and the expandable anchor.
A tire comprising: a skeleton portion including a rim member, a plurality of body springs latched on the rim member, and a plurality of interlink springs interlaced with the body springs; and a plurality of tread members disposed at least on an outer periphery of the skeleton portion; wherein each of the plurality of tread members is mounted on a groove formed with the body springs and the interlink springs, in such a manner that at least part of each of the plurality of tread members is embedded in the groove; wherein each of the tread members is configured to include a metallic nonwoven fabric; wherein each of the tread members is configured to be in a shape of a rod having a through hole in its central portion in cross section in an extending direction. a skeleton portion including a rim member, a plurality of body springs latched on the rim member, and a plurality of interlink springs interlaced with the body springs; and a plurality of tread members disposed at least on an outer periphery of the skeleton portion; wherein each of the plurality of tread members is mounted on a groove formed with the body springs and the interlink springs, in such a manner that at least part of each of the plurality of tread members is embedded in the groove; wherein each of the tread members is configured to include a metallic nonwoven fabric; wherein each of the tread members is configured to be in a shape of a rod having a through hole in its central portion in cross section in an extending direction.
A method of estimating compaction in a formation comprising: a. obtaining a first initial value of gravity from a first location in the formation, and which represents the force of gravity at the first location at an initial time; b. obtaining a second initial value of gravity at a second location that is spaced vertically away from the first location, and which represents the force of gravity at the second location at about the initial time; c. comparing the first and second initial values of gravity to obtain an initial difference in gravity values; d. obtaining a first later in time value of gravity from the first location, and which represents the force of gravity at the first location at a point in time later than the initial time; e. obtaining a second later in time value of gravity from the second location, and which represents the force of gravity at the second location at a point in time later than the initial time; f. obtaining a later point in time difference in gravity value by comparing the first and second later in time values of gravity; and g. estimating formation compaction by comparing the initial difference in gravity values and the later point in time difference in gravity values. a. obtaining a first initial value of gravity from a first location in the formation, and which represents the force of gravity at the first location at an initial time; b. obtaining a second initial value of gravity at a second location that is spaced vertically away from the first location, and which represents the force of gravity at the second location at about the initial time; c. comparing the first and second initial values of gravity to obtain an initial difference in gravity values; d. obtaining a first later in time value of gravity from the first location, and which represents the force of gravity at the first location at a point in time later than the initial time; e. obtaining a second later in time value of gravity from the second location, and which represents the force of gravity at the second location at a point in time later than the initial time; f. obtaining a later point in time difference in gravity value by comparing the first and second later in time values of gravity; and g. estimating formation compaction by comparing the initial difference in gravity values and the later point in time difference in gravity values.
Method of operating an exhaust purification system of an internal combustion engine in which a hydrocarbon feed valve for feeding hydrocarbons is arranged inside of an engine exhaust passage, an exhaust purification catalyst for reacting NO x and reformed hydrocarbons is arranged inside of the engine exhaust passage downstream of the hydrocarbon feed valve, a precious metal catalyst (51, 52) is carried on an exhaust gas flow surface of the exhaust purification catalyst and a basic exhaust gas flow surface part is formed around the precious metal catalyst (51,52), the exhaust purification catalyst has a property of reducing the NO x which is contained in exhaust gas if a concentration of hydrocarbons flowing into the exhaust purification catalyst is made to vibrate within a predetermined range of amplitude and within a predetermined range of period and has a property of being increased in storage amount of NO x which is contained in exhaust gas if the vibration period of the hydrocarbon concentration is made longer than the predetermined range, and, at the time of engine operation, at least one of an injection time and injection pressure of hydrocarbons from the hydrocarbon feed valve is controlled so that the amplitude of the change of concentration of hydrocarbons flowing into the exhaust purification catalyst becomes within said predetermined range of amplitude, an injection period of hydrocarbons from the hydrocarbon feed valve is controlled so that the concentration of hydrocarbons flowing into the exhaust purification catalyst vibrates by within said predetermined range of period, characterized in that, the exhaust purification catalyst reacts NO x contained in exhaust gas and the reformed hydrocarbons, wherein, if the temperature of the exhaust purification catalyst becomes a high temperature of 400°C or more, when only the injection time of hydrocarbons is controlled, the injection time of hydrocarbons under the same engine operating state is made longer the higher a temperature of the exhaust purification catalyst, and when the injection pressure of hydrocarbons is controlled, the injection pressure of hydrocarbons under the same engine operating state is made higher the higher the temperature of the exhaust purification catalyst, wherein in the exhaust purification catalyst, NO x contained in exhaust gas and reformed hydrocarbons react whereby a reducing intermediate containing nitrogen and hydrocarbons is produced and wherein a vibration period of the hydrocarbon concentration is a vibration period necessary for continued production of the reducing intermediate.