mhurhangee/ep-ind-claims huggingface dataset:
A spray drying apparatus of dehydration filtrate from desulfurization waste water comprising: a gas inlet provided on a side wall in the vicinity of a top portion of a spray drying apparatus main body, for introducing a flue gas for drying a spray liquid; a rectifying plate provided in the spray drying apparatus main body, for decelerating the introduced flue gas so as to alter the flue gas flow to a laminar flow; a spray nozzle for spraying the dehydration filtrate emitted from the desulfurization waste water into the flue gas altered to the laminar flow; a gas outlet provided on a side wall in the vicinity of a bottom portion of the spray drying apparatus main body, for discharging the flue gas contributed to drying of the dehydration filtrate; and a solid discharging means provided on the bottom portion of the spray drying apparatus main body, for discharging a spray-dried solid, characterized in that the solid discharging means is provided with a discharge hopper and the discharge hopper is provided with a thermal insulation means. a gas inlet provided on a side wall in the vicinity of a top portion of a spray drying apparatus main body, for introducing a flue gas for drying a spray liquid; a rectifying plate provided in the spray drying apparatus main body, for decelerating the introduced flue gas so as to alter the flue gas flow to a laminar flow; a spray nozzle for spraying the dehydration filtrate emitted from the desulfurization waste water into the flue gas altered to the laminar flow; a gas outlet provided on a side wall in the vicinity of a bottom portion of the spray drying apparatus main body, for discharging the flue gas contributed to drying of the dehydration filtrate; and a solid discharging means provided on the bottom portion of the spray drying apparatus main body, for discharging a spray-dried solid,
A subwater heat exchanger comprising: a duct configured to receive a first fluid; first coils inside of the duct, the first coils configured to receive a second fluid that is heated or cooled by the first fluid; a first impeller inside of the duct that is configured to initiate flow of the first fluid around the first coils; and characterised in that the subwater heat exchanger further comprises a second impeller inside of the duct and substantially in line with the first impeller along a duct lateral axis of the duct, wherein the duct includes: a first duct portion configured to receive the first fluid; a second duct portion configured to receive the first fluid; and a third duct portion extending from the first duct portion to the second duct portion and having a center width that is one of substantially the same or smaller than a first duct portion width of the first duct portion and a second duct portion width of the second duct portion in a direction that is substantially perpendicular to the duct lateral axis, wherein the first coils are inside of the third duct portion. a duct configured to receive a first fluid; first coils inside of the duct, the first coils configured to receive a second fluid that is heated or cooled by the first fluid; a first impeller inside of the duct that is configured to initiate flow of the first fluid around the first coils; and wherein the duct includes: a first duct portion configured to receive the first fluid; a second duct portion configured to receive the first fluid; and a third duct portion extending from the first duct portion to the second duct portion and having a center width that is one of substantially the same or smaller than a first duct portion width of the first duct portion and a second duct portion width of the second duct portion in a direction that is substantially perpendicular to the duct lateral axis, wherein the first coils are inside of the third duct portion. a first duct portion configured to receive the first fluid; a second duct portion configured to receive the first fluid; and a third duct portion extending from the first duct portion to the second duct portion and having a center width that is one of substantially the same or smaller than a first duct portion width of the first duct portion and a second duct portion width of the second duct portion in a direction that is substantially perpendicular to the duct lateral axis, wherein the first coils are inside of the third duct portion.
A compact electric compressor comprising a motor portion and a centrifugal compressor portion driven by said motor portion through a shaft, wherein said motor portion comprises first and second radial bearingless motors (140, 150) spaced apart along said shaft and configured for rotating said shaft and maintaining it in a defined radial position in a contactless manner during functional operation of said electric compressor and axial electromagnetic means configured for maintaining said shaft in a defined axial position during functional operation of said electric compressor, wherein auxiliary landing bearings are located at each end of the shaft in the vicinity of each of said first and second radial bearingless motors (140, 150), characterised in that said axial electromagnetic means are located between said first and second radial bearingless motors (140, 150) and comprise an axial bearingless motor.
A method for operating a brake system for a work machine, comprising at least one operating brake (106L, 106R, 108L, 108R) acting directly or indirectly on at least one ground engagement element (102L, 102R, 104L, 104R) of the work machine and at least one operating brake actuator which is movable between a fully engaged position and a fully released position and an accelerator actuator for activating propulsion of the work machine, characterized in that in an activated state of the brake system the at least one operating brake (106L, 106R, 108L, 108R) is engaged and released by a hydraulic pressure in a hydraulic circuit which is controllable by a vehicle electronic control unit and in that the at least one operating brake actuator is moved automatically to its fully engaged position when the accelerator actuator is released.
An ultrasound probe (100, 101, 102, 103, 104, 105, 106, 107, 108) comprising: a metal case (3, 10, 20, 30, 40, 50, 60, 70, 80) including a bottom wall portion (3b, 10b, 20b, 30b, 60b) having a vibration surface (3c, 10c, 20c, 30c, 40b, 50b, 60c, 70b, 80b), and a side wall portion (3a, 10a, 20a) connected to the bottom wall portion, the ultrasound probe being characterized in that it further comprises a coil mounted on one surface of the side wall portion; and a magnet mounted in such a way as to sandwich the coil between the magnet and the one surface of the side wall portion, wherein the coil causes an eddy current to occur in the one surface of the side wall portion, and causes the bottom wall portion to vibrate, by using a Lorentz force occurring in the side wall portion because of an interaction between the eddy current and a magnetic field generated by the magnet. a metal case (3, 10, 20, 30, 40, 50, 60, 70, 80) including a bottom wall portion (3b, 10b, 20b, 30b, 60b) having a vibration surface (3c, 10c, 20c, 30c, 40b, 50b, 60c, 70b, 80b), and a side wall portion (3a, 10a, 20a) connected to the bottom wall portion, the ultrasound probe being characterized in that it further comprises a coil mounted on one surface of the side wall portion; and a magnet mounted in such a way as to sandwich the coil between the magnet and the one surface of the side wall portion, wherein the coil causes an eddy current to occur in the one surface of the side wall portion, and causes the bottom wall portion to vibrate, by using a Lorentz force occurring in the side wall portion because of an interaction between the eddy current and a magnetic field generated by the magnet.
A rotation angle detecting device including a resolver that is adapted to output signals of multiple phases based on a rotation angle of a rotary shaft, and a resolver/digital converter that is adapted to acquire the signals of the multiple phases via signal lines (W2a - W2c), each signal line (W2a - W2c) corresponding to a respective phase, and that is adapted to determine the rotation angle of the rotary shaft on the basis of the signals of the multiple phases, wherein the resolver/digital converter includes at least one switching element (SW1, SW2) for changing a potential of at least one of the signal lines (W2a - W2c), by applying a predetermined voltage to the at least one of the signal lines (W2a - W2c), when the switching element (SW1, SW2) is turned on, said rotation angle detecting device further comprising abnormality detecting means adapted to detect, when the switching element (SW1, SW2) applies the predetermined voltage to one signal line of said signal lines, a short circuit between the signal lines (W2a - W2c) on the basis of a variation in the signal of another signal line of said signal lines (W2a - W2c), to which the predetermined voltage is not applied.
A shaving blade unit, comprising: (a) a housing; (b) one or more blades supported by the housing; and (c) a guard member disposed on the housing, the guard member comprising a plurality of first fins (42, 142) extending in a first direction and a plurality of second fins (46, 146) extending in a second direction that is substantially orthogonal to the first direction, (d) wherein each of the fins (42, 46, 142, 146) is made from a material comprising an elastomer, and characterized in that (e) said shaving unit comprises a a top portion comprising a window for accessing one or more blades supported by the shaving blade unit, a front portion; and opposing side portions extending from the top portion and the front portion; and (f) a plurality of elastomeric fins (44, 144) extending outwardly from an intersection region of each of the side portions and the front portion. (a) a housing; (b) one or more blades supported by the housing; and (c) a guard member disposed on the housing, the guard member comprising a plurality of first fins (42, 142) extending in a first direction and a plurality of second fins (46, 146) extending in a second direction that is substantially orthogonal to the first direction, (d) wherein each of the fins (42, 46, 142, 146) is made from a material comprising an elastomer, and characterized in that (e) said shaving unit comprises a a top portion comprising a window for accessing one or more blades supported by the shaving blade unit, a front portion; and opposing side portions extending from the top portion and the front portion; and (f) a plurality of elastomeric fins (44, 144) extending outwardly from an intersection region of each of the side portions and the front portion.
Earth drilling device with a slide for moving a drill string along a feed axis and a frame, wherein the slide can be moved backwards and forwards in the frame, characterised by a tilting means in the frame, wherein said tilting means acts to incline the slide when it is moved backwards along the feed axis.
An audio decoder (100; 200;700) for providing a decoded audio information (112; 212; 712) on the basis of an encoded audio information (110;210;710), wherein the audio decoder is configured to obtain decoded spectral values (132;232;732; Xq[n], Xq[n+1]) on the basis of an encoded information (130; 230) representing the spectral values, wherein the audio decoder is configured to jointly decode (950; 1110a-1110g) two or more most significant bits per spectral value on the basis of respective symbol codes (sym) for a set of spectral values using an arithmetic decoding, wherein a respective symbol code (sym) represents two or more most significant bits per spectral value for one or more spectral values, wherein the audio decoder is configured to decode (972; 1140a-1141j) one or more least significant bits associated with one or more of the spectral values in dependence on how much least significant bit information is available, such that one or more least significant bits associated with one or more of the spectral values are decoded, while no least significant bits are decoded for one or more other spectral values for which one or more most significant bits are decoded and which comprise more bits than the one or more most significant bits; and wherein the audio decoder is configured to provide the decoded audio information using the spectral values. wherein the audio decoder is configured to obtain decoded spectral values (132;232;732; Xq[n], Xq[n+1]) on the basis of an encoded information (130; 230) representing the spectral values, wherein the audio decoder is configured to jointly decode (950; 1110a-1110g) two or more most significant bits per spectral value on the basis of respective symbol codes (sym) for a set of spectral values using an arithmetic decoding, wherein a respective symbol code (sym) represents two or more most significant bits per spectral value for one or more spectral values, wherein the audio decoder is configured to decode (972; 1140a-1141j) one or more least significant bits associated with one or more of the spectral values in dependence on how much least significant bit information is available, such that one or more least significant bits associated with one or more of the spectral values are decoded, while no least significant bits are decoded for one or more other spectral values for which one or more most significant bits are decoded and which comprise more bits than the one or more most significant bits; and wherein the audio decoder is configured to provide the decoded audio information using the spectral values.
An apparatus comprising: a video encoder for encoding an input coding unit by determining a residual for the input coding unit corresponding to a difference between the input coding unit and a reference coding unit, applying a transform to the residual to obtain at least one transform coefficient, and quantizing the at least one transform coefficient by selecting a quantization step size and a rounding offset, wherein the rounding offset is selected responsive to a classification of a region in the input coding unit as smooth or textured and the rounding offset is based on a determination of the variance in the transform-domain of the smooth regions and applied only for smooth classified macroblocks while a default rounding offset typically used by said encoder is applied to textured classified macroblocks. a video encoder for encoding an input coding unit by determining a residual for the input coding unit corresponding to a difference between the input coding unit and a reference coding unit, applying a transform to the residual to obtain at least one transform coefficient, and quantizing the at least one transform coefficient by selecting a quantization step size and a rounding offset, wherein the rounding offset is selected responsive to a classification of a region in the input coding unit as smooth or textured and the rounding offset is based on a determination of the variance in the transform-domain of the smooth regions and applied only for smooth classified macroblocks while a default rounding offset typically used by said encoder is applied to textured classified macroblocks.
A system (10, 11, 13) for implanting a prosthesis, comprising: a) a control lumen having a distal end and a major axis; b) a nose cone fixed at the distal end of the control lumen; and c) at least one supporting wire (22, 23) having a proximal end (24, 25) and a distal end (26, 27), characterized in that i) the proximal end is fixed to the control lumen and is substantially parallel to the major axis of the control lumen, the proximal end being angled at least along a portion of the proximal end, and extending away from the major axis of the control lumen; and ii) the distal end is free and proximate to the nose cone, the distal end being arcuate along at least a portion of the distal end and wherein the distal end includes a terminal end extending toward the control lumen. a) a control lumen having a distal end and a major axis; b) a nose cone fixed at the distal end of the control lumen; and c) at least one supporting wire (22, 23) having a proximal end (24, 25) and a distal end (26, 27), characterized in that i) the proximal end is fixed to the control lumen and is substantially parallel to the major axis of the control lumen, the proximal end being angled at least along a portion of the proximal end, and extending away from the major axis of the control lumen; and ii) the distal end is free and proximate to the nose cone, the distal end being arcuate along at least a portion of the distal end and wherein the distal end includes a terminal end extending toward the control lumen. i) the proximal end is fixed to the control lumen and is substantially parallel to the major axis of the control lumen, the proximal end being angled at least along a portion of the proximal end, and extending away from the major axis of the control lumen; and ii) the distal end is free and proximate to the nose cone, the distal end being arcuate along at least a portion of the distal end and wherein the distal end includes a terminal end extending toward the control lumen.
A track chain member comprising: a shoe member defining a track chain traveling direction and a lateral direction perpendicular to the track chain traveling direction, the shoe member further defining a first lateral end, a second lateral end, and a ground engaging surface spanning from the first lateral end to the second lateral end; wherein the ground engaging surface of the shoe member further defines: a first side void proximate the first lateral end, and a second side void proximate the second lateral end, and the first side void terminates a first predetermined distance from the first lateral end and the second side void terminates a second predetermined distance from the second lateral end; and a main central void that is centered along the lateral direction of shoe member with respect to the first and the second lateral ends (703, 705), wherein the first side void is bounded by the ground engaging surface and is spaced away from the main central void and further wherein the second side void is bounded by the ground engaging surface and is spaced away from the central void. a shoe member defining a track chain traveling direction and a lateral direction perpendicular to the track chain traveling direction, the shoe member further defining a first lateral end, a second lateral end, and a ground engaging surface spanning from the first lateral end to the second lateral end; wherein the ground engaging surface of the shoe member further defines: a first side void proximate the first lateral end, and a second side void proximate the second lateral end, and the first side void terminates a first predetermined distance from the first lateral end and the second side void terminates a second predetermined distance from the second lateral end; and a main central void that is centered along the lateral direction of shoe member with respect to the first and the second lateral ends (703, 705), wherein the first side void is bounded by the ground engaging surface and is spaced away from the main central void and further wherein the second side void is bounded by the ground engaging surface and is spaced away from the central void. a first side void proximate the first lateral end, and a second side void proximate the second lateral end, and the first side void terminates a first predetermined distance from the first lateral end and the second side void terminates a second predetermined distance from the second lateral end; and a main central void that is centered along the lateral direction of shoe member with respect to the first and the second lateral ends (703, 705), wherein the first side void is bounded by the ground engaging surface and is spaced away from the main central void and further wherein the second side void is bounded by the ground engaging surface and is spaced away from the central void.
Pharmaceutical composition for topic administration comprising at least two pharmaceutically active compounds wherein one pharmaceutically active compound is a substance according to the general formula as antifungal agent, wherein said substance according to formula is present in a therapeutically effective concentration: wherein X is O or S; and R1 is a branched or non-branched alkyl, cycloalkyl, branched or non-branched alkenyl, cycloalkenyl, branched or non-branched alkinyl, cycloalkinyl, alkoxyalkyl, alkoxycarbonylalkyl, aryl or a sugar residue; and R2 is H or a branched or non-branched alkyl, cycloalkyl, branched or non-branched alkenyl, cycloalkenyl, branched or non-branched alkinyl, cycloalkinyl, alkoxyalkyl, alkoxycarbonylalkyl or aryl residue; and R3 and R4 together are =0; or R3 is OH and R4 is H; or R3 is H and R4 is OH, with the proviso that when X is O, R2 is H and R3 or R4 is OH, then R1 is not C1-C12 alkyl, for use in the treatment and/or prophylaxis of a fungal infection in an animal, including humans, wherein the second pharmaceutically active compound is glucose. X is O or S; and R1 is a branched or non-branched alkyl, cycloalkyl, branched or non-branched alkenyl, cycloalkenyl, branched or non-branched alkinyl, cycloalkinyl, alkoxyalkyl, alkoxycarbonylalkyl, aryl or a sugar residue; and R2 is H or a branched or non-branched alkyl, cycloalkyl, branched or non-branched alkenyl, cycloalkenyl, branched or non-branched alkinyl, cycloalkinyl, alkoxyalkyl, alkoxycarbonylalkyl or aryl residue; and R3 and R4 together are =0; or R3 is OH and R4 is H; or R3 is H and R4 is OH,
An interlayer for laminated glasses, comprising two outer layers of a material selected from poly(vinyl butyral) and poly(ethylene-vinyl acetate), assembled by means of an adhesive nanocomposite layer comprising: - a first, discontinuous phase consisting of polymeric nanodomains having a glass transition temperature (Tg) of between -50°C and -30°C, preferably between -45°C and -35°C, and - a second, continuous polymeric phase, referred to as the matrix, having a glass transition temperature (Tg) lower than that of said first phase, preferably a Tg of less than -50°C, and more preferably less than -60°C, the first phase being dispersed in the second phase, the glass transition temperature being determined using the midpoint method as described in standard ASTM-D-3418 for differential scanning calorimetry. - a first, discontinuous phase consisting of polymeric nanodomains having a glass transition temperature (Tg) of between -50°C and -30°C, preferably between -45°C and -35°C, and - a second, continuous polymeric phase, referred to as the matrix, having a glass transition temperature (Tg) lower than that of said first phase, preferably a Tg of less than -50°C, and more preferably less than -60°C, the first phase being dispersed in the second phase, the glass transition temperature being determined using the midpoint method as described in standard ASTM-D-3418 for differential scanning calorimetry.