mhurhangee/patent-ind-claim-en huggingface dataset:
A catalyzed soot filter (CSF), wherein the CSF comprises a porous wall flow substrate, a lean NOx trap (LNT) catalyst, and a catalyst for selective catalytic reduction (SCR), the wall flow substrate comprising an inlet end, an outlet end, a substrate axial length extending between the inlet end and the outlet end, and a plurality of channels defined by internal walls of the wall flow substrate, wherein the plurality of channels comprise inlet channels having an open inlet end and a closed outlet end, and outlet channels having a closed inlet end and an open outlet end, wherein the LNT catalyst is provided on a portion of the surface of the inlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the channel walls coated with the LNT catalyst, wherein the portion of the inlet channel walls coated with the LNT catalyst extends from the inlet end to x % of the substrate axial length with 0 < x < 100, wherein the LNT catalyst comprises one or more platinum group metals, wherein the LNT catalyst comprises one or more alkaline earth metals, wherein the SCR catalyst is provided on a portion of the surface of the outlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the channel walls coated with the SCR catalyst, wherein the portion of the outlet channel walls coated with the SCR catalyst extends from the outlet end to 100-x % of the substrate axial length. the wall flow substrate comprising an inlet end, an outlet end, a substrate axial length extending between the inlet end and the outlet end, and a plurality of channels defined by internal walls of the wall flow substrate, wherein the plurality of channels comprise inlet channels having an open inlet end and a closed outlet end, and outlet channels having a closed inlet end and an open outlet end, wherein the LNT catalyst is provided on a portion of the surface of the inlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the channel walls coated with the LNT catalyst, wherein the portion of the inlet channel walls coated with the LNT catalyst extends from the inlet end to x % of the substrate axial length with 0 < x < 100, wherein the LNT catalyst comprises one or more platinum group metals, wherein the LNT catalyst comprises one or more alkaline earth metals, wherein the SCR catalyst is provided on a portion of the surface of the outlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the channel walls coated with the SCR catalyst, wherein the portion of the outlet channel walls coated with the SCR catalyst extends from the outlet end to 100-x % of the substrate axial length.
A hydraulic device comprising: two or more rings rotatably mounted within the hydraulic device and arranged adjacent one another configured for relative rotation with respect to one another; a rotor disposed for rotation about an axis within the two or more rings, the rotor having a plurality of circumferentially spaced slots configured to house a plurality of vanes therein, the plurality of vanes configured to be movable between a retracted position and an extended position where the plurality of vanes work a hydraulic fluid introduced between the rotor and the two or more rings; an adjuster configured to translate linearly to rotatably position the two or more rings relative to one another to increase or decrease a displacement of the hydraulic fluid adjacent the rotor and the two or more rings, characterized in that the adjuster comprises a sleeve configured to receive the two or more rings therein, the sleeve having an inner surface with one or more grooves therein; and a first bearing coupled to one of the two or more rings at an outer surface thereof and received in one of the one or more grooves. two or more rings rotatably mounted within the hydraulic device and arranged adjacent one another configured for relative rotation with respect to one another; a rotor disposed for rotation about an axis within the two or more rings, the rotor having a plurality of circumferentially spaced slots configured to house a plurality of vanes therein, the plurality of vanes configured to be movable between a retracted position and an extended position where the plurality of vanes work a hydraulic fluid introduced between the rotor and the two or more rings; an adjuster configured to translate linearly to rotatably position the two or more rings relative to one another to increase or decrease a displacement of the hydraulic fluid adjacent the rotor and the two or more rings, characterized in that the adjuster comprises a sleeve configured to receive the two or more rings therein, the sleeve having an inner surface with one or more grooves therein; and a first bearing coupled to one of the two or more rings at an outer surface thereof and received in one of the one or more grooves.
A method comprising calibrating a first sensor in a changing operating environment in a calibration process that comprises: receiving sensor data from the first sensor; receiving sensor values from a known calibrating sensor; maintaining a sensor specific model for the first sensor; detecting calibration needs by estimating a drift and an error, taking into account a difference of sensor values of the first sensor to the known calibrating sensor; and estimating a correction factor or a correction model to the sensor data using said difference and using the estimated correction factor or correction model for calibrating the sensor; wherein the correction factor or the correction model is derived from the sensor specific model; characterized in that the calibrating sensor is a virtual sensor based on a model of the sensor data provided by one or more calibrated sensors; different sensors are hierarchically ranked; and a hierarchical model is used to perform the calibrating of the first sensor with the calibrating sensor that is ranked higher in the hierarchical model. receiving sensor data from the first sensor; receiving sensor values from a known calibrating sensor; maintaining a sensor specific model for the first sensor; detecting calibration needs by estimating a drift and an error, taking into account a difference of sensor values of the first sensor to the known calibrating sensor; and estimating a correction factor or a correction model to the sensor data using said difference and using the estimated correction factor or correction model for calibrating the sensor; wherein the correction factor or the correction model is derived from the sensor specific model; characterized in that the calibrating sensor is a virtual sensor based on a model of the sensor data provided by one or more calibrated sensors; different sensors are hierarchically ranked; and a hierarchical model is used to perform the calibrating of the first sensor with the calibrating sensor that is ranked higher in the hierarchical model.
A method for forming a contoured composite charge, the method comprising: positioning a composite charge onto lower plates of a plurality of placement end effectors ; rotating upper plates of the plurality of placement end effectors along a first axis to cover the composite charge; contouring the composite charge to a tool using the plurality of placement end effectors to form the contoured composite charge; and compacting the contoured composite charge using a roller , wherein rotating the upper plates of the plurality of placement end effectors along the first axis to cover the composite charge allows the composite charge to slip between all but one of the upper plates and respective lower plates of the plurality of placement end effectors during contouring. positioning a composite charge onto lower plates of a plurality of placement end effectors ; rotating upper plates of the plurality of placement end effectors along a first axis to cover the composite charge; contouring the composite charge to a tool using the plurality of placement end effectors to form the contoured composite charge; and compacting the contoured composite charge using a roller ,
A housing , wherein the housing comprises a housing substrate and at least one double-sided composite texture film located on one side of an inner surface of the housing substrate ; the double-sided composite texture film comprises a first substrate , a first texture layer located on a first surface of the first substrate , and a second texture layer located on a second surface of the first substrate ; the first surface of the first substrate is closer to the housing substrate , and the second surface is further away from the housing substrate ; the first texture layer has a first texture pattern that comprises a plurality of grooves and a plurality of bosses; and the second texture layer has a second texture pattern that comprises a plurality of grooves and a plurality of bosses, wherein the inner surface of the housing substrate has a fourth texture pattern, and the fourth texture pattern comprises a plurality of grooves and a plurality of bosses; and the housing further comprises a first bonding layer located on the inner surface of the housing substrate , and a refractive index of the first bonding layer is different from a refractive index of the housing substrate . the double-sided composite texture film comprises a first substrate , a first texture layer located on a first surface of the first substrate , and a second texture layer located on a second surface of the first substrate ; the first surface of the first substrate is closer to the housing substrate , and the second surface is further away from the housing substrate ; the first texture layer has a first texture pattern that comprises a plurality of grooves and a plurality of bosses; and the second texture layer has a second texture pattern that comprises a plurality of grooves and a plurality of bosses, wherein the inner surface of the housing substrate has a fourth texture pattern, and the fourth texture pattern comprises a plurality of grooves and a plurality of bosses; and the housing further comprises a first bonding layer located on the inner surface of the housing substrate , and a refractive index of the first bonding layer is different from a refractive index of the housing substrate .
A door handle in which an electrostatic sensor is provided in a door handle case , wherein the door handle case is formed with a first door handle case and a second door handle case ; wherein a longitudinal direction of the door handle is an X1-X2 direction; the X1-X2 direction, a Y1-Y2 direction and a Z1-Z2 direction are perpendicular to each other; and an inner surface of the door handle case is the Z2-side surface of the second door handle case ; wherein the inner surface of the door handle case is formed with a middle portion that forms a concave curved surface that is concave toward a Z1 side, wherein the electrostatic sensor includes a detection electrode that is formed of a flat conductor plate, or that is formed on a surface of a flat substrate or within a flat substrate, wherein the substrate surface is approximately perpendicular to the Z1-Z2 direction, wherein the detection electrode includes a middle portion in a longitudinal direction of the detection electrode ; and peripheral portions (122; 123) proximal to both end portions (120a; 120b) of the detection electrode in the longitudinal direction, and wherein, for a width of the detection electrode in a direction perpendicular to the longitudinal direction, each peripheral portion (122; 123) is wider than the middle portion , and the width of the detection electrode gradually increases toward each end portion (120a; 120b) in the longitudinal direction. wherein the door handle case is formed with a first door handle case and a second door handle case ; wherein a longitudinal direction of the door handle is an X1-X2 direction; the X1-X2 direction, a Y1-Y2 direction and a Z1-Z2 direction are perpendicular to each other; and an inner surface of the door handle case is the Z2-side surface of the second door handle case ; wherein the inner surface of the door handle case is formed with a middle portion that forms a concave curved surface that is concave toward a Z1 side, wherein the electrostatic sensor includes a detection electrode that is formed of a flat conductor plate, or that is formed on a surface of a flat substrate or within a flat substrate, wherein the substrate surface is approximately perpendicular to the Z1-Z2 direction, wherein the detection electrode includes a middle portion in a longitudinal direction of the detection electrode ; and peripheral portions (122; 123) proximal to both end portions (120a; 120b) of the detection electrode in the longitudinal direction, and wherein, for a width of the detection electrode in a direction perpendicular to the longitudinal direction, each peripheral portion (122; 123) is wider than the middle portion , and the width of the detection electrode gradually increases toward each end portion (120a; 120b) in the longitudinal direction.
A composition containing a nucleic acid complex for use in therapy for regulating the expression or editing of a target transcription product in the central nervous system, the nucleic acid complex comprising a first nucleic acid strand and a second nucleic acid strand, wherein the first nucleic acid strand comprises a base sequence capable of hybridizing with at least part of a target transcription product and has an antisense effect on the target transcription product; wherein half or less or none of the full length of the first nucleic acid strand is natural ribonucleosides, wherein the second nucleic acid strand comprises a base sequence complementary to the first nucleic acid strand and is bound to a phosphatidylethanolamine or an analog thereof; wherein the phosphatidylethanolamine or an analog thereof is represented by the general formula I: wherein R 1 and R 2 independently represent a substituted or unsubstituted C 5 -C 32 alkyl group, or a substituted or unsubstituted C 5 -C 32 alkenyl group, such as R 1 and R 2 independently represent a C 15 -C 19 alkyl group, or a C 17 alkenyl group; and wherein the first nucleic acid strand is annealed to the second nucleic acid strand. the nucleic acid complex comprising a first nucleic acid strand and a second nucleic acid strand, wherein the first nucleic acid strand comprises a base sequence capable of hybridizing with at least part of a target transcription product and has an antisense effect on the target transcription product; wherein half or less or none of the full length of the first nucleic acid strand is natural ribonucleosides, wherein the second nucleic acid strand comprises a base sequence complementary to the first nucleic acid strand and is bound to a phosphatidylethanolamine or an analog thereof; wherein the phosphatidylethanolamine or an analog thereof is represented by the general formula I: wherein R 1 and R 2 independently represent a substituted or unsubstituted C 5 -C 32 alkyl group, or a substituted or unsubstituted C 5 -C 32 alkenyl group, such as R 1 and R 2 independently represent a C 15 -C 19 alkyl group, or a C 17 alkenyl group; and wherein the first nucleic acid strand is annealed to the second nucleic acid strand.
A soundproof structure , comprising: an opening member and at least one soundproof cell comprising a frame having a hole portion and a film fixed to the frame so as to cover the hole portion , wherein the soundproof cell is disposed in said opening member having an opening in a state in which a film surface of the film is inclined with respect to an opening cross section of the opening member and a region serving as a ventilation hole, through which gas passes, is provided in the opening member , wherein the soundproof cell is disposed within an opening end correction distance from an opening end of the opening member and the soundproof cell has a size smaller than a wavelength of a first natural vibration frequency of the film , wherein the first natural vibration frequency is included within a range of 10 Hz to 100000 Hz, the first natural vibration frequency being the frequency of the lowest order natural vibration mode inducible in the structure of the soundproof cell , characterized in that the soundproof structure further comprises a mechanism for adjusting an inclination angle of the film surface of the soundproof cell with respect to the opening cross section . an opening member and at least one soundproof cell comprising a frame having a hole portion and a film fixed to the frame so as to cover the hole portion , wherein the soundproof cell is disposed in said opening member having an opening in a state in which a film surface of the film is inclined with respect to an opening cross section of the opening member and a region serving as a ventilation hole, through which gas passes, is provided in the opening member ,
Vacuum generator according to the ejector principle, which has a multi-step ejector having several nozzles disposed in series, through which an airflow which can be supplied via a compressed air connection is guided at high speed to an air outlet , such that in a communicating chamber surrounding the nozzles an underpressure can be generated, characterised in that in the air outlet is provided a shut-off valve by means of which the air outlet can be closed in an air-tight manner, wherein the chamber in which the underpressure can be generated, has a ventilation opening which is closed by means of a ventilation valve by means of which in cooperation with the shut-off valve a ventilation channel can be opened for ventilating the chamber in which the under pressure can be generated, wherein the shut-off valve and the ventilation valve are in connection via a compressed air channel through which can be guided a compressed air pulse for triggering the shut-off valve.
A self-propelled robotic lawnmower comprising a lawnmower chassis (3.1, 3.2) and wheels (5.1 - 5.4) arranged at the lawnmower chassis (3.1, 3.2), wherein the wheels (5.1 - 5.4) are arranged to support the lawnmower chassis (3.1, 3.2) during operation of the lawnmower , and wherein the wheels (5.1 - 5.4) comprise at least a first wheel (5.1) and a second wheel (5.2), wherein the first and second wheels (5.1, 5.2) are arranged at opposite lateral sides (6.1, 6.2) of the lawnmower chassis (3.1, 3.2), and wherein the lawnmower comprises a first driving unit (7.1) and a second driving unit (7.2), wherein the first driving unit (7.1) is arranged to rotate the first wheel (5.1) and the second driving unit (7.2) is arranged to rotate the second wheel (5.2) to propel the lawnmower during operation thereof, characterized in that at least the first and second wheels (5.1, 5.2) are arranged at the lawnmower chassis (3.1, 3.2) with a negative camber angle (a), and wherein the first driving unit (7.1) is arranged at the lawnmower chassis (3.1, 3.2) in line with a rotational axis (ar) of the first wheel (5.1), and the second driving unit (7.2) is arranged at the lawnmower chassis (3.1, 3.2) in line with a rotational axis (ar) of the second wheel (5.2).
An anaerobically curable composition comprising: (a) an anaerobically curable component the anaerobically curable component comprising: (i) a solid resin component, wherein the resin component is anaerobically curable and (ii) a solid anaerobically curable monomer; and (b) a curing component for curing the anaerobically curable component; wherein the resin component and the anaerobically curable monomer are each with a melting point in the range from 30°C to 100°C, wherein said melting point is measured by Differential Scanning Calorimetry, and wherein the composition is solid and has a melting point in the range from 30°C to 100°C, wherein said melting point is measured by Differential Scanning Calorimetry. (a) an anaerobically curable component the anaerobically curable component comprising: (i) a solid resin component, wherein the resin component is anaerobically curable and (ii) a solid anaerobically curable monomer; and (i) a solid resin component, wherein the resin component is anaerobically curable and (ii) a solid anaerobically curable monomer; and (b) a curing component for curing the anaerobically curable component; wherein the resin component and the anaerobically curable monomer are each with a melting point in the range from 30°C to 100°C, wherein said melting point is measured by Differential Scanning Calorimetry, and wherein the composition is solid and has a melting point in the range from 30°C to 100°C, wherein said melting point is measured by Differential Scanning Calorimetry.
Absorbent article comprising a topsheet forming a wearer-facing surface of the absorbent article, a backsheet forming a garment-facing surface of the absorbent article and an absorbent core interposed between the topsheet and the backsheet, wherein the absorbent article comprises a nonwoven material, the nonwoven material comprises at least 20%, by weight of the nonwoven material, of core/sheath bicomponent fibers, wherein the core component of the core/sheath bicomponent fiber is formed of polyethylene terephthalate (PET) and the sheath component is formed of a thermoplastic polymer other than PET, wherein the sheath component has an opacity of at least 10%, as measured according to the test method set out herein, and wherein the PET comprises less than 150 ppm of antimony, as measured according to the test method set out herein in the Summary of the Invention, the core component having an a* value unequal zero, and having a b* value unequal zero, as measured according to the test method set out herein.
Sealant consisting of 10 - 60 wt.% of a silyl modified polymer, 10 - 50 wt.% of filler, 0 - 30 wt.% of a plasticizer, 0 - 15 wt.% additives, wherein the additives are selected from catalysts, rheology control agents, pigments, pigment pastes, HALS, UV stabilizers, adhesion promotors, drying agents, and combinations thereof, characterized in wherein the polymer comprises a functionalized polyether backbone with methoxysilane terminal groups, and 0.05 - 5 wt.% of an anti-oxidant, to a total of 100 wt.%, wherein the anti-oxidant comprises a moiety according to fig. 4, the anti-oxidant further comprising a core structure according to figure 1, figure 2, or figure 3 wherein R1, R3, and R5 are independently selected from H, methyl and ethyl, and wherein R2, R4, R6, are independently selected from H, C 1 -C 10 linear or branched alkyl, the alkyl optionally containing a heteroatom selected from O, N, S, and fig. 4, with the proviso that at least one of R2, R4, and R6 is a structure according to fig. 4, wherein X1 is a bridging group attached to the core structure of fig. 1, fig. 2 or fig. 3, respectively, and wherein X1 is selected from methylene, sulfur, and amine, and X3 and X5 are independently selected from branched and linear C 1 -C 7 -alkyls, wherein all wt.% are relative to a total weight of the sealant. wherein R1, R3, and R5 are independently selected from H, methyl and ethyl, and wherein R2, R4, R6, are independently selected from H, C 1 -C 10 linear or branched alkyl, the alkyl optionally containing a heteroatom selected from O, N, S, and fig. 4, with the proviso that at least one of R2, R4, and R6 is a structure according to fig. 4, wherein X1 is a bridging group attached to the core structure of fig. 1, fig. 2 or fig. 3, respectively, and wherein X1 is selected from methylene, sulfur, and amine, and X3 and X5 are independently selected from branched and linear C 1 -C 7 -alkyls, wherein all wt.% are relative to a total weight of the sealant.