mhurhangee/ep-ind-claims huggingface dataset:
A martensitic stainless steel, characterized in that its composition is, in weight percentages: - trace amounts ≤ C ≤ 0.030%, preferably ≤ 0.010%; - trace amounts ≤ Si ≤ 0.25%, preferably ≤ 0.10%; - trace amounts ≤ Mn ≤ 0.25%, preferably ≤ 0.10%; - trace amounts ≤ S ≤ 0.020%, preferably ≤ 0.005%; - trace amounts ≤ P ≤ 0.040%, preferably ≤ 0.020%; - 8% ≤ Ni ≤ 14%, preferably 11.3% ≤ Ni ≤ 12.5%; - 8% ≤ Cr ≤ 14%, preferably 8.5% ≤ Cr ≤ 10%; - 1.5% ≤ Mo + W/2 ≤ 3.0%, preferably 1.5 ≤ Mo + W/2 ≤ 2.5%; - 1.05% ≤ Al ≤ 2.0% - 0.5% ≤ Ti ≤ 2.0%, preferably 1.10% ≤ Ti ≤ 1.55%; - 2% ≤ Co ≤ 9%, preferably 2.5% ≤ Co ≤ 6.5%; better between 2.50 and 3.50%; - trace amounts ≤ N ≤ 0.030%, preferably ≤ 0.0060%; - trace amounts ≤ O ≤ 0.020%, preferably ≤ 0.0050%; the remainder being iron and impurities resulting from the steelmaking; and in that its martensitic transformation beginning temperature Ms calculated by the formula Ms ° C = 1302 − 28 ⁢ Si − 50 ⁢ Mn − 63 ⁢ Ni − 42 ⁢ Cr − 30 ⁢ Mo + 20 ⁢ Al − 12 ⁢ Co − 25 ⁢ Cu + 10 Ti − 4 C + N wherein the contents of the different elements are expressed in weight percentages, is greater than or equal to 50°C, preferably greater than or equal to 75°C; in that Creq/Nieq ≤ 1.05 with Cr eq. = Cr + 2 Si + Mo + 1.5 Ti + 5.5 Al + 0.6 W Ni eq. = 2 Ni + 0.5 Mn + 30 C + 25 N + Co + 0.3 Cu; and in that the proportion of delta ferrite in its microstructure is less than or equal to 1%. - trace amounts ≤ C ≤ 0.030%, preferably ≤ 0.010%; - trace amounts ≤ Si ≤ 0.25%, preferably ≤ 0.10%; - trace amounts ≤ Mn ≤ 0.25%, preferably ≤ 0.10%; - trace amounts ≤ S ≤ 0.020%, preferably ≤ 0.005%; - trace amounts ≤ P ≤ 0.040%, preferably ≤ 0.020%; - 8% ≤ Ni ≤ 14%, preferably 11.3% ≤ Ni ≤ 12.5%; - 8% ≤ Cr ≤ 14%, preferably 8.5% ≤ Cr ≤ 10%; - 1.5% ≤ Mo + W/2 ≤ 3.0%, preferably 1.5 ≤ Mo + W/2 ≤ 2.5%; - 1.05% ≤ Al ≤ 2.0% - 0.5% ≤ Ti ≤ 2.0%, preferably 1.10% ≤ Ti ≤ 1.55%; - 2% ≤ Co ≤ 9%, preferably 2.5% ≤ Co ≤ 6.5%; better between 2.50 and 3.50%; - trace amounts ≤ N ≤ 0.030%, preferably ≤ 0.0060%; - trace amounts ≤ O ≤ 0.020%, preferably ≤ 0.0050%;
A compound having the Formula I: wherein G 1 is selected from the group consisting of dibenzofuran, dibenzothiophene and dibenzoselenophene; wherein L 1, L 2 and L 3 are each independently selected from the group consisting of direct bond, phenyl, biphenyl, terphenyl, pyridine, pyrimidine, and combinations thereof; wherein G 4 is selected from the group consisting of phenyl, and biphenyl; wherein G 2 and G 3 are each independently selected from the group consisting of phenyl, biphenyl, terphenyl, fluorene, naphthalene, phenanthrene, pyridine, pyrimidine, pyrazine, quinoline, isoquinoline, phenanthroline, aza-fluorene, and combinations thereof; wherein G 2, G 3 and G 4 are each optionally further substituted with one or more unfused substituents selected from the group consisting of deuterium, alkyl, alkoxyl, cycloalkyl, cycloalkoxyl, halogen, nitro, nitrile, silyl, phenyl, biphenyl, terphenyl, pyridine, and combinations thereof; wherein m is an integer from 1 to 7, wherein n is 0; wherein, when m is larger than 1, each G 4 can be same or different. wherein G 1 is selected from the group consisting of dibenzofuran, dibenzothiophene and dibenzoselenophene; wherein L 1, L 2 and L 3 are each independently selected from the group consisting of direct bond, phenyl, biphenyl, terphenyl, pyridine, pyrimidine, and combinations thereof; wherein G 4 is selected from the group consisting of phenyl, and biphenyl; wherein G 2 and G 3 are each independently selected from the group consisting of phenyl, biphenyl, terphenyl, fluorene, naphthalene, phenanthrene, pyridine, pyrimidine, pyrazine, quinoline, isoquinoline, phenanthroline, aza-fluorene, and combinations thereof; wherein G 2, G 3 and G 4 are each optionally further substituted with one or more unfused substituents selected from the group consisting of deuterium, alkyl, alkoxyl, cycloalkyl, cycloalkoxyl, halogen, nitro, nitrile, silyl, phenyl, biphenyl, terphenyl, pyridine, and combinations thereof; wherein m is an integer from 1 to 7, wherein n is 0; wherein, when m is larger than 1, each G 4 can be same or different.
A cabin pressure control system comprising: a first outflow valve having a first motor controlled by a first outflow valve controller, said first outflow valve having a first backup motor controlled by a first backup controller; a second outflow valve having a second motor controlled by a second outflow valve controller, said second outflow valve having a second backup motor controlled by a second backup controller; characterised by the fact that: upon failure of said first outflow valve controller, said second outflow valve controller controls said first outflow valve via said first backup controller and said first backup motor; and wherein upon failure of said second outflow valve controller, said first outflow valve controller controls said second outflow valve via said second backup controller and said second backup motor. a first outflow valve having a first motor controlled by a first outflow valve controller, said first outflow valve having a first backup motor controlled by a first backup controller; a second outflow valve having a second motor controlled by a second outflow valve controller, said second outflow valve having a second backup motor controlled by a second backup controller; characterised by the fact that: upon failure of said first outflow valve controller, said second outflow valve controller controls said first outflow valve via said first backup controller and said first backup motor; and wherein upon failure of said second outflow valve controller, said first outflow valve controller controls said second outflow valve via said second backup controller and said second backup motor. upon failure of said first outflow valve controller, said second outflow valve controller controls said first outflow valve via said first backup controller and said first backup motor; and wherein upon failure of said second outflow valve controller, said first outflow valve controller controls said second outflow valve via said second backup controller and said second backup motor.
A fluid analysis system for determining at least one characteristic of a drilling fluid, the fluid analysis system comprising: a pump; first and second reversible fluid ports each configured, when in a first state, to intake drilling fluid into the fluid analysis system and, when in a second state, to expel drilling fluid from the fluid analysis system; a valve fluidly coupling the first and second reversible fluid ports to the pump, the valve being configured to control the respective states of the reversible fluid ports (120; 122); and at least one measurement module (132, 142, 144, 146) fluidly coupled to the pump to receive drilling fluid therefrom, the at least one measurement module (132, 142, 144, 146) being configured to determine at least one characteristic of the received drilling fluid. a pump; first and second reversible fluid ports each configured, when in a first state, to intake drilling fluid into the fluid analysis system and, when in a second state, to expel drilling fluid from the fluid analysis system; a valve fluidly coupling the first and second reversible fluid ports to the pump, the valve being configured to control the respective states of the reversible fluid ports (120; 122); and at least one measurement module (132, 142, 144, 146) fluidly coupled to the pump to receive drilling fluid therefrom, the at least one measurement module (132, 142, 144, 146) being configured to determine at least one characteristic of the received drilling fluid.
A display device comprising: a display, operable to generate a real image; and an optical system, comprising a plurality of optical channels, each of the optical channels comprising one or more lenslets, arranged to generate one or more portions of a virtual image from one or more respective partial real images on the display associated with that channel, by each lenslet projecting light from the display to an eye position; wherein the portions of the virtual image combine to form a virtual image viewable from the eye position so that different optical channels image a same portion of the display to different portions of the virtual image; comprising a light switching system allowing a flow of light through selected ones of the channels from the display to the pupil range and preventing a flow of light through other selected ones of the channels from the display to the pupil range; and wherein the light switching system is arranged to successively open the optical channels to allow light to flow successively through the optical channels and, while each of the optical channels is open, the display is arranged to display the one or more respective partial real images associated with that channel. a display, operable to generate a real image; and an optical system, comprising a plurality of optical channels, each of the optical channels comprising one or more lenslets, arranged to generate one or more portions of a virtual image from one or more respective partial real images on the display associated with that channel, by each lenslet projecting light from the display to an eye position; wherein the portions of the virtual image combine to form a virtual image viewable from the eye position so that different optical channels image a same portion of the display to different portions of the virtual image; comprising a light switching system allowing a flow of light through selected ones of the channels from the display to the pupil range and preventing a flow of light through other selected ones of the channels from the display to the pupil range; and wherein the light switching system is arranged to successively open the optical channels to allow light to flow successively through the optical channels and, while each of the optical channels is open, the display is arranged to display the one or more respective partial real images associated with that channel.
A coating composition comprising: (a) an amine-functional component comprising: (i) an aspartic ester-based amine-functional resin; and (ii) a blocked primary amine; and (b) an isocyanate-functional component comprising: (i) a polyisocyanate having a functionality greater than 2.0 and an isocyanate equivalent weight of greater than 300; and (ii) an isocyanatosilane or a methacryloxy silane. (a) an amine-functional component comprising: (i) an aspartic ester-based amine-functional resin; and (ii) a blocked primary amine; and (i) an aspartic ester-based amine-functional resin; and (ii) a blocked primary amine; and (b) an isocyanate-functional component comprising: (i) a polyisocyanate having a functionality greater than 2.0 and an isocyanate equivalent weight of greater than 300; and (ii) an isocyanatosilane or a methacryloxy silane. (i) a polyisocyanate having a functionality greater than 2.0 and an isocyanate equivalent weight of greater than 300; and (ii) an isocyanatosilane or a methacryloxy silane.
A zinc finger protein comprising (i) five zinc finger domains designated and ordered F1 to F5, F1 to F5 comprising the recognition helix regions F1: QSGNLAR (SEQ ID NO:4); F2: LKQNLCM (SEQ ID NO:5): F3: WADNLQN (SEQ ID NO:6); F4: TSGNLTR (SEQ ID NO:7); and F5: RQSHLCL (SEQ ID NO:8), or (ii) six zinc finger domains designated and ordered F1 to F6, F1-F6 comprising the recognition helix regions F1: TPQLLDR (SEQ ID NO:9); F2: LKWNLRT (SEQ ID NO:10); F3: DQSNLRA (SEQ ID NO:11); F4: RNFSLTM (SEQ ID NO:12); F5: LRHDLDR (SEQ ID NO:13); and F6: HRSNLNK (SEQ ID NO:14). (i) five zinc finger domains designated and ordered F1 to F5, F1 to F5 comprising the recognition helix regions F1: QSGNLAR (SEQ ID NO:4); F2: LKQNLCM (SEQ ID NO:5): F3: WADNLQN (SEQ ID NO:6); F4: TSGNLTR (SEQ ID NO:7); and F5: RQSHLCL (SEQ ID NO:8), or F1: QSGNLAR (SEQ ID NO:4); F2: LKQNLCM (SEQ ID NO:5): F3: WADNLQN (SEQ ID NO:6); F4: TSGNLTR (SEQ ID NO:7); and F5: RQSHLCL (SEQ ID NO:8), or (ii) six zinc finger domains designated and ordered F1 to F6, F1-F6 comprising the recognition helix regions F1: TPQLLDR (SEQ ID NO:9); F2: LKWNLRT (SEQ ID NO:10); F3: DQSNLRA (SEQ ID NO:11); F4: RNFSLTM (SEQ ID NO:12); F5: LRHDLDR (SEQ ID NO:13); and F6: HRSNLNK (SEQ ID NO:14). F1: TPQLLDR (SEQ ID NO:9); F2: LKWNLRT (SEQ ID NO:10); F3: DQSNLRA (SEQ ID NO:11); F4: RNFSLTM (SEQ ID NO:12); F5: LRHDLDR (SEQ ID NO:13); and F6: HRSNLNK (SEQ ID NO:14).
An antenna comprising: a variable dielectric constant, VDC, layer; a plurality of radiating patches provided over the VDC layer; a plurality of signal lines, each terminating in alignment below one of the radiating patches; a plurality of control lines, each corresponding to one of the signal lines; a ground plane; wherein the VDC layer comprises a polymer dispersed liquid crystal, PDLC, layer, a top dielectric film and a bottom dielectric film, wherein the PDLC layer is in a polymerized and sheared state. a variable dielectric constant, VDC, layer; a plurality of radiating patches provided over the VDC layer; a plurality of signal lines, each terminating in alignment below one of the radiating patches; a plurality of control lines, each corresponding to one of the signal lines; a ground plane; wherein the VDC layer comprises a polymer dispersed liquid crystal, PDLC, layer, a top dielectric film and a bottom dielectric film, wherein the PDLC layer is in a polymerized and sheared state.
A method to post-process a non-key frame of a video sequence through a neighboring key frame of the video sequence, comprising: downsampling a reconstructed key frame to form a downsampled reconstructed key frame; upsampling the downsampled reconstructed key frame to form an upsampled reconstructed key frame; forming a difference between the reconstructed key frame and the upsampled reconstructed key frame; adding the difference to a reconstructed non-key frame to compensate the reconstructed non-key frame to form an edge enhanced non-key frame; and updating the edge enhanced non-key frame to form an updated non-key frame based on a difference between a downsampled edge enhanced non-key frame and a downsampled non-key frame, wherein the downsampled edge enhanced non-key frame is formed by downsampling the edge enhanced non-key frame and the reconstructed non-key frame is formed by upsampling the downsampled non-key frame. downsampling a reconstructed key frame to form a downsampled reconstructed key frame; upsampling the downsampled reconstructed key frame to form an upsampled reconstructed key frame; forming a difference between the reconstructed key frame and the upsampled reconstructed key frame; adding the difference to a reconstructed non-key frame to compensate the reconstructed non-key frame to form an edge enhanced non-key frame; and updating the edge enhanced non-key frame to form an updated non-key frame based on a difference between a downsampled edge enhanced non-key frame and a downsampled non-key frame, wherein the downsampled edge enhanced non-key frame is formed by downsampling the edge enhanced non-key frame and the reconstructed non-key frame is formed by upsampling the downsampled non-key frame.
A method of maintaining efficient operation of an industrial water system, the method comprising: providing a chemical test strip having a reactive zone; providing an imaging device and image analyzing software; exposing the reactive zone to at least a portion of industrial water thereby creating a post-exposure reactive zone; imaging the post-exposure reactive zone using the imaging device thereby creating a digital image of the post-exposure reactive zone; optionally cropping the digital image of the post-exposure reactive zone to isolate a portion of the digital image for analysis; analyzing at least one colorimetric parameter of at least the portion of the digital image of the post-exposure reactive zone using the image analyzing software to determine the concentration of at least one chemical species in the industrial water; outputting the determined concentration of the at least one chemical species; characterized in that the method further comprises automatically recommending a plan of action to maintain efficient operation of the industrial water system based on the analysis of the digital image of the post-exposure reactive zone; and taking action based on the recommended plan of action, wherein the recommended plan of action involves making operational modifications to the industrial water system, wherein the operational modifications include changing a set point related to a controlled, process-related physical parameter; changing operation of process-related equipment; re-sourcing makeup water; and combination thereof. providing a chemical test strip having a reactive zone; providing an imaging device and image analyzing software; exposing the reactive zone to at least a portion of industrial water thereby creating a post-exposure reactive zone; imaging the post-exposure reactive zone using the imaging device thereby creating a digital image of the post-exposure reactive zone; optionally cropping the digital image of the post-exposure reactive zone to isolate a portion of the digital image for analysis; analyzing at least one colorimetric parameter of at least the portion of the digital image of the post-exposure reactive zone using the image analyzing software to determine the concentration of at least one chemical species in the industrial water; outputting the determined concentration of the at least one chemical species; characterized in that the method further comprises automatically recommending a plan of action to maintain efficient operation of the industrial water system based on the analysis of the digital image of the post-exposure reactive zone; and taking action based on the recommended plan of action, wherein the recommended plan of action involves making operational modifications to the industrial water system, wherein the operational modifications include changing a set point related to a controlled, process-related physical parameter; changing operation of process-related equipment; re-sourcing makeup water; and combination thereof.
A vehicle in which at least two shift ranges can be selected for a single running direction, comprising: an internal combustion engine; a rotating electric machine coupled to a driving wheel of said vehicle (100, 100A), the rotating electric machine producing driving force for causing said vehicle (100, 100A) to run, and being capable of generating electric power by rotary force of said driving wheel; a warming-up device configured to raise a temperature of a catalyst for cleaning up an exhaust gas from said internal combustion engine; and a control device for controlling said warming-up device, characterized in that while said vehicle (100, 100A) is running, if a predetermined condition that said internal combustion engine is stopped and, of said two shift ranges, a shift range where larger decelerating force is produced by regenerative braking of said rotating electric machine has been selected is met, said control device causing said warming-up device to start raising the temperature of said catalyst using generated electric power by said rotating electric machine when the temperature of said catalyst falls below a predetermined first threshold value, and to stop raising the temperature of said catalyst in response to arrival of the temperature of said catalyst at a second threshold value which is higher than said first threshold value. an internal combustion engine; a rotating electric machine coupled to a driving wheel of said vehicle (100, 100A), the rotating electric machine producing driving force for causing said vehicle (100, 100A) to run, and being capable of generating electric power by rotary force of said driving wheel; a warming-up device configured to raise a temperature of a catalyst for cleaning up an exhaust gas from said internal combustion engine; and a control device for controlling said warming-up device, characterized in that while said vehicle (100, 100A) is running, if a predetermined condition that said internal combustion engine is stopped and, of said two shift ranges, a shift range where larger decelerating force is produced by regenerative braking of said rotating electric machine has been selected is met, said control device causing said warming-up device to start raising the temperature of said catalyst using generated electric power by said rotating electric machine when the temperature of said catalyst falls below a predetermined first threshold value, and to stop raising the temperature of said catalyst in response to arrival of the temperature of said catalyst at a second threshold value which is higher than said first threshold value.
A cooling device for a cooling operation of a flat metallic product, said cooling device being located in an essentially vertical, ascending or descending, path comprising: - a tank filled with a coolant bath defining a coolant surface, - said tank comprising at least two openings, one on the upper surface and one on the bottom surface, through which said flat metallic product can go, describing a path, - said opening on the bottom surface being equipped with a sealing mean, - two series (18 and 18'), of projecting devices comprising at least an aperture being immersed in said coolant bath, facing each other on each side of said path - said projecting devices being at least partly immersed in said coolant bath, - any two vertically successive projecting devices of a series being separated by a gap, - each series (18 and 18') of projecting devices having an uppermost projecting device (20 and 20') being defined as the closest projecting device to the coolant surface, - at least the uppermost projecting device (20 and 20') on both sides being downwardly inclined of an angle of 20° to 40°compared to the horizontal. - a tank filled with a coolant bath defining a coolant surface, - said tank comprising at least two openings, one on the upper surface and one on the bottom surface, through which said flat metallic product can go, describing a path, - said opening on the bottom surface being equipped with a sealing mean, - two series (18 and 18'), of projecting devices comprising at least an aperture being immersed in said coolant bath, facing each other on each side of said path - said projecting devices being at least partly immersed in said coolant bath, - any two vertically successive projecting devices of a series being separated by a gap, - each series (18 and 18') of projecting devices having an uppermost projecting device (20 and 20') being defined as the closest projecting device to the coolant surface, - at least the uppermost projecting device (20 and 20') on both sides being downwardly inclined of an angle of 20° to 40°compared to the horizontal.
A method for the mechanical processing of aluminum scrap, in which in a first step a two-stage crushing of the aluminum scrap will be carried out, wherein in the first crushing stage particles having a cubic, sphere-like design will be formed by means of a shredder/a rotor mill and in the second crushing stage which serves as secondary crushing stage particles having a disk-like design will be formed by means of a second-stage shredder/a cutting mill, in which in a second step the crushed aluminum scrap will be supplied to a screening plant and divided into a fraction of undersize grain materials, on the one hand, and a fraction of oversize grain materials, on the other hand, in which in a third step the fraction of oversize grain materials is homogenized, in which in a fourth step the homogenized fraction of oversize grain materials is subjected as material to be sorted to a density determination in an x-ray device by means of x-ray transmission, in which in a fifth step material particles of the material to be sorted which have a density above a pre-determinable limiting value are pneumatically sorted out.