mhurhangee/ep-ind-claims huggingface dataset:
An oxygen concentration detection system, comprising an oxygen sensor including two cell(s) formed of oxygen-ion conductive solid electrolyte, and having a sensor element with a heater for heating the sensor element; a sensor control circuit for controlling the oxygen sensor; an anomaly detection means for detecting an anomaly of the oxygen sensor when at least one of measurement signals at the sensor control circuit, including a first signal corresponding to a magnitude of current flowing through an oxygen pump cell of the oxygen sensor, a second signal corresponding to an electric potential of an oxygen-partial-pressure detection cell of the oxygen sensor, and a third signal corresponding to a resistance of the oxygen-partial-pressure detection cell, has an electric potential falling outside a predetermined range; the oxygen concentration detection system being characterized in that it further comprises a modification or switching means for issuing a first instruction when the anomaly detection means does not detect an anomaly, the first instruction indicating non-detection of an anomaly, and for issuing a second instruction when the anomaly detection means detects a sensor anomaly, the second instruction corresponding to the detected anomaly; and output means for through-outputting a corresponding measurement signal when the modification or switching means outputs the first instruction signal and for outputting at least a selected one of the measurement signals when the modification or switching means outputs the second instruction signals, the selected measurement signal being modified or switched to have a level outside the corresponding range within which the level of the selected measurement signal varies in a normal state, and a judgment means for judging an anomaly of the oxygen concentration system based on a plurality of measurement signals of the oxygen sensor, and a memory means for storing data on kinds and locations of anomalies of the oxygen concentration detection system so that the oxygen concentration detection system makes anomaly judgments based on a plurality of the measurement signals and the data stored in the memory means.
A coating process for a stainless steel surface, comprising the steps of: a) Preparing the surface by at least one treatment with a basic solution comprising an alkaline metal hydroxide and at least one treatment with an acidic solution comprising a strong acid; b) Applying to the prepared surface a first coating comprising a silicate of an alkaline or alkaline-earth metal and a methyloxirane polymer; c) Heating the coated surface to a temperature comprised from 200 °C to 350 °C; d) Cooling the surface to a temperature of less than or equal to 30 °C; e) Applying a second coating comprising an isopropyl alcohol solution of silicon dioxide, trimethoxymethylsilane and an emulsifier; f) Heating the coated surface to a temperature comprised from 200 °C to 350 °C. a) Preparing the surface by at least one treatment with a basic solution comprising an alkaline metal hydroxide and at least one treatment with an acidic solution comprising a strong acid; b) Applying to the prepared surface a first coating comprising a silicate of an alkaline or alkaline-earth metal and a methyloxirane polymer; c) Heating the coated surface to a temperature comprised from 200 °C to 350 °C; d) Cooling the surface to a temperature of less than or equal to 30 °C; e) Applying a second coating comprising an isopropyl alcohol solution of silicon dioxide, trimethoxymethylsilane and an emulsifier; f) Heating the coated surface to a temperature comprised from 200 °C to 350 °C.
A method for increasing the resistance of a brominated carbonaceous sorbent to water leaching of bromine species, which method comprises contacting a carbonaceous substrate with at least one organic compound in liquid or gaseous form that contains at least one olefinic double bond, wherein bromination of the carbonaceous substrate using a bromine-containing compound is conducted prior to, during, and/or after said treatment with the organic compound, wherein said organic compound that contains at least one olefinic double bond is in an amount in the range of 0.5 wt% to 20 wt% relative to the total weight of the brominated carbonaceous sorbent, and wherein the sorbent has a content in the range of 0.1 to 20 wt.% bromine, based on the weight of the brominated carbonaceous sorbent after contact with the bromine-containing compound.
A reactor with a tubular casing (18, 19, 20), in which a filter plate stack is rotatably arranged, characterised in that the cross-sectional area of the reactor container at least in the region of the filter plate stack exceeds the cross-sectional area of the filter plate stack by 40% at the most, and the longitudinal extension (l) of the reactor casing (18, 19, 20) is a multiple of the longitudinal extension (h) of the filter pate stack (l), that further fluid treatment devices (18, 19, 20) are provided within the reactor casing (24, 25) and that the treatment devices (1, 24, 25) are successively run through according to their arrangement in the reactor.
A lubrication method in a hot-rolling mill by means of a lubricant comprising used oil, said used oil stemming at least partly from waste coming from a cold-rolling mill.
A fluid transfer device comprising: a first member (100; 400; 400'), comprising a first body member (3; 401; 401') having a first valve port, a first door (2; 425; 425'; 931) actuatable between a first valve port open position and a first valve port closed position, a first locking handle assembly and a first valve member (8; 450; 450'); a second member (200; 320; 300'), comprising a second body member (150; 301; 301') having a second valve port, a second door (22; 325; 325'; 931) actuatable between a second valve port open position and a second valve port closed position, a second locking handle assembly and a second valve member (110; 350; 350'); characterized in that said first member (100; 400; 400') and said second member (200; 320; 300') being pivotally connected such that said first and second members are engaged upon relative pivoting of said first member and said second member, and wherein actuation of said first and second locking handle assemblies locks said first member and second member together and actuates said first door to said first valve port open position and said second door to said second valve port open position, thereby creating fluid communication between said first and second members; wherein said first door (2; 425; 425'; 931) comprises a face plate member having an opening and a pair of opposite elongated side track members (913; 914) that extend upwardly from said face plate member, each elongated side track member having an intermediate notch and an end ramp; a plug having a cylindrical portion shaped to seal said opening in said face plate and having first and second plug pins (932a-d) on opposites sides of said plug, said first plug pins cooperating with said intermediate notch and said second plug pins cooperating with said end ramp during opening and closing of said door. a first member (100; 400; 400'), comprising a first body member (3; 401; 401') having a first valve port, a first door (2; 425; 425'; 931) actuatable between a first valve port open position and a first valve port closed position, a first locking handle assembly and a first valve member (8; 450; 450'); a second member (200; 320; 300'), comprising a second body member (150; 301; 301') having a second valve port, a second door (22; 325; 325'; 931) actuatable between a second valve port open position and a second valve port closed position, a second locking handle assembly and a second valve member (110; 350; 350'); characterized in that said first member (100; 400; 400') and said second member (200; 320; 300') being pivotally connected such that said first and second members are engaged upon relative pivoting of said first member and said second member, and wherein actuation of said first and second locking handle assemblies locks said first member and second member together and actuates said first door to said first valve port open position and said second door to said second valve port open position, thereby creating fluid communication between said first and second members;
A sealing element comprising: an inner sealing body having a sealing lip defining an innermost diameter of the sealing element that forms a contact point to contact a surface to be sealed; an outer shell defining an outer perimeter of the sealing element and forming a housing for the inner sealing body; and an energizing porous matrix structure that is formed integrally with the sealing lip or the outer shell and extends from the outer shell to the inner sealing body, wherein the energizing porous matrix structure is defined by a plurality of struts (20, 22); and wherein the energizing porous matrix structure is used to tune a sealing force of the sealing element by adjusting a geometry of the energizing porous matrix structure, characterised by $ the plurality of struts (20, 22) being joined together at ends of the struts (20, 22), wherein the ends of the struts (20, 22) are joined together at the connecting points (24, 26), and wherein the plurality of connecting points that are arranged along the outer shell are radially spaced from the connecting points arranged along the inner sealing body. an inner sealing body having a sealing lip defining an innermost diameter of the sealing element that forms a contact point to contact a surface to be sealed; an outer shell defining an outer perimeter of the sealing element and forming a housing for the inner sealing body; and an energizing porous matrix structure that is formed integrally with the sealing lip or the outer shell and extends from the outer shell to the inner sealing body, wherein the energizing porous matrix structure is defined by a plurality of struts (20, 22); and wherein the energizing porous matrix structure is used to tune a sealing force of the sealing element by adjusting a geometry of the energizing porous matrix structure, characterised by $ the plurality of struts (20, 22) being joined together at ends of the struts (20, 22), wherein the ends of the struts (20, 22) are joined together at the connecting points (24, 26), and wherein the plurality of connecting points that are arranged along the outer shell are radially spaced from the connecting points arranged along the inner sealing body.
A left atrial appendage occlusion device, comprising: a conformable, tubular body, having a closed proximal end and a distal end; the body including a compressible side wall extending between the proximal end and the distal end, and defining a central cavity; an expandable support coupled with the body, configured to compress the compressible side wall against a wall of a left atrial appendage; and anchors (3090, 3094) to secure the device to tissue, wherein the anchors are flexible anchors configured to extend through the compressible side wall at an inclined angle characterized in that the tubular body is made of foam, and in that the compressible side wall extends in a distal direction beyond a distal end of the support. a conformable, tubular body, having a closed proximal end and a distal end; the body including a compressible side wall extending between the proximal end and the distal end, and defining a central cavity; an expandable support coupled with the body, configured to compress the compressible side wall against a wall of a left atrial appendage; and anchors (3090, 3094) to secure the device to tissue, wherein the anchors are flexible anchors configured to extend through the compressible side wall at an inclined angle characterized in that the tubular body is made of foam, and in that the compressible side wall extends in a distal direction beyond a distal end of the support.
A decorative can body having excellent specular gloss, having a metal foil or a vapor-deposited metal layer provided on a can barrel surface via an adhesive layer and having a printed film further laminated, wherein a thermosetting resin adhesive that generates no gas in heat curing is used for the adhesive layer; wherein the thermosetting resin adhesive is a thermosetting resin adhesive using an internally blocked isocyanate curing agent; and wherein the adhesive further comprises an inorganic pigment including titanium oxide.
A method for producing an assembled battery, comprising the following steps: (a) producing a plurality of unit cells which include one or more toroidal unit cells each having a through-hole, each toroidal unit cell comprising an inner side wall defining the through-hole, an outer side wall defining an outer circumference of the toroidal unit cell, and a core between the inner side wall and the outer side wall; (b) arranging the plurality of unit cells in a nested manner such that one unit cell is disposed within the through-hole of another unit cell; and (c) electrically connecting the plurality of unit cells with one another in parallel or in series, wherein the step (a) comprises the following step for producing each toroidal unit cell: winding an positive electrode sheet coated with slurry, a separator, and a negative electrode sheet coated with slurry around a hollow cylindrical winding shaft to form the core of the toroidal unit cell, and forming the inner side wall of the toroidal unit cell by the hollow cylindrical winding shaft. (a) producing a plurality of unit cells which include one or more toroidal unit cells each having a through-hole, each toroidal unit cell comprising an inner side wall defining the through-hole, an outer side wall defining an outer circumference of the toroidal unit cell, and a core between the inner side wall and the outer side wall; (b) arranging the plurality of unit cells in a nested manner such that one unit cell is disposed within the through-hole of another unit cell; and (c) electrically connecting the plurality of unit cells with one another in parallel or in series, winding an positive electrode sheet coated with slurry, a separator, and a negative electrode sheet coated with slurry around a hollow cylindrical winding shaft to form the core of the toroidal unit cell, and forming the inner side wall of the toroidal unit cell by the hollow cylindrical winding shaft.
A fluorescent metal oxide nanoparticle comprising: (a) a core comprising metal oxide; (b) a non-cross-linked polycarboxyl polymer coating chemically linked to the core, wherein the polycarboxyl polymer coating comprises a plurality of carboxyl moieties; and (c) from about 15 to about 100 fluorochromes chemically linked to the coating. (a) a core comprising metal oxide; (b) a non-cross-linked polycarboxyl polymer coating chemically linked to the core, wherein the polycarboxyl polymer coating comprises a plurality of carboxyl moieties; and (c) from about 15 to about 100 fluorochromes chemically linked to the coating.
A composition comprising: a polymer that is a reaction product of (i) citric acid with (ii) a polyol and (iii) a monomer comprising an alkyne moiety and/or an azide moiety, and a particulate inorganic material dispersed within a network formed by the polymer. a polymer that is a reaction product of (i) citric acid with (ii) a polyol and (iii) a monomer comprising an alkyne moiety and/or an azide moiety, and a particulate inorganic material dispersed within a network formed by the polymer.
Composition comprising a pharmaceutically acceptable carrier and a strain of live attenuated pertussis toxin -deficient and pertactin-deficient Bordetella bacteria sufficient to colonize the respiratory tract of a subject for use in reducing or preventing the development of airway inflammation in a subject diagnosed with asthma, interstitial lung disease, or allergic rhinitis wherein the strain of live attenuated pertussis toxin -deficient and pertactin-deficient Bordetella bacteria is also deficient in tracheal cytotoxin and dermonecrotic toxin.
A sheet processing system including a first sheet processing apparatus and a second sheet processing apparatus disposed downstream of the first sheet processing apparatus in a sheet conveying direction, wherein the first sheet processing apparatus comprises: first detection means (701, 710) configured to detect a first positional error (Xs; L6s) of a sheet conveyed into the first sheet processing apparatus; and correction means (701, 470; 450) configured to correct a position of the sheet, and wherein the second sheet processing apparatus comprises: second detection means (501, 104) configured to detect a second positional error (Xf; L6f) of the sheet conveyed into the second sheet processing apparatus; and transmission means configured to send the second positional error (Xf; L6f) detected by said second detection means to the first sheet processing apparatus, and wherein the first sheet processing apparatus further comprises: reception means configured to receive the second positional error (Xf; L6f) sent from said transmission means of the second sheet processing apparatus, and wherein said correction means (701, 470; 450) is further configured to correct a position of subsequent sheets based on both the first positional error (Xs; L6s) detected by said first detection means and the second positional error (Xf; L6f) received by said reception means. first detection means (701, 710) configured to detect a first positional error (Xs; L6s) of a sheet conveyed into the first sheet processing apparatus; and correction means (701, 470; 450) configured to correct a position of the sheet, and second detection means (501, 104) configured to detect a second positional error (Xf; L6f) of the sheet conveyed into the second sheet processing apparatus; and transmission means configured to send the second positional error (Xf; L6f) detected by said second detection means to the first sheet processing apparatus, and wherein the first sheet processing apparatus further comprises: reception means configured to receive the second positional error (Xf; L6f) sent from said transmission means of the second sheet processing apparatus, and wherein said correction means (701, 470; 450) is further configured to correct a position of subsequent sheets based on both the first positional error (Xs; L6s) detected by said first detection means and the second positional error (Xf; L6f) received by said reception means. reception means configured to receive the second positional error (Xf; L6f) sent from said transmission means of the second sheet processing apparatus, and wherein said correction means (701, 470; 450) is further configured to correct a position of subsequent sheets based on both the first positional error (Xs; L6s) detected by said first detection means and the second positional error (Xf; L6f) received by said reception means.
A method for manufacturing a biplate assembly including a biplate, a first electrode, and a second electrode, wherein said method comprises the steps: - selecting the size of the biplate, - arranging the first electrode, which is formed by a compressed first powder, to a first side of the biplate, said first powder containing a first type of active material, wherein said first type of active material is a positive active material of nickel hydroxide, and - arranging the second electrode, which is formed by a compressed second powder, to a carrier (10; 65) arranged within said biplate assembly, said second powder containing a second type of active material, opposite to said first active material, wherein said second type of material is a negative active material of metal hydride, wherein conductive fibres are provided to the PAM and the NAM to obtain a blend of active materials and conductive fibres both for PAM and NAM, and said first electrode and/or said second electrode is/are separately formed before being arranged to said biplate assembly. - selecting the size of the biplate, - arranging the first electrode, which is formed by a compressed first powder, to a first side of the biplate, said first powder containing a first type of active material, wherein said first type of active material is a positive active material of nickel hydroxide, and - arranging the second electrode, which is formed by a compressed second powder, to a carrier (10; 65) arranged within said biplate assembly, said second powder containing a second type of active material, opposite to said first active material, wherein said second type of material is a negative active material of metal hydride,
A method of obtaining isoprene and/or cyclopentadiene from a C 5 stream, the method comprising: contacting, in a dimerization unit, a feed stream comprising primarily C 5 hydrocarbons with a dienophile under reaction conditions sufficient to dimerize cyclopentadiene and isoprene present in the feed stream to produce a first intermediate stream comprising dicyclopentadiene, cyclopentadiene isoprene, and unreacted C 5 hydrocarbons; and processing the first intermediate stream to produce a first product stream comprising primarily isoprene and a second product stream comprising primarily cyclopentadiene. contacting, in a dimerization unit, a feed stream comprising primarily C 5 hydrocarbons with a dienophile under reaction conditions sufficient to dimerize cyclopentadiene and isoprene present in the feed stream to produce a first intermediate stream comprising dicyclopentadiene, cyclopentadiene isoprene, and unreacted C 5 hydrocarbons; and processing the first intermediate stream to produce a first product stream comprising primarily isoprene and a second product stream comprising primarily cyclopentadiene.