mhurhangee/patent-ind-claim-en huggingface dataset:
Oxidation tank for treating effluent water from a seawater flue gas scrubber for removing sulphur dioxide from exhaust gas, particularly from a flue gas scrubber of a power plant, wherein the effluent water is mixed with additional seawater for the purpose of forming sulphate and neutralization, and wherein oxidation air is added to the mixture via ventilation elements located at the bottom in a ventilation section of the oxidation tank which is open to the top, wherein the additional seawater is directed as a primary flow via an inlet and the effluent water is directed as a secondary flow via an additional inlet into the oxidation tank, characterized in that the oxidation tank comprises a distribution chamber having an inlet cross-section and a larger output cross-section defined by the width of the oxidation tank, wherein the distribution chamber receives the primary flow in an inlet flow direction and redirects the primary flow in the longitudinal direction of the oxidation tank, and wherein a row of primary flow disturbance members is located in the output cross-section of the distribution chamber , wherein the row of primary flow disturbance members is substantially parallel to the input flow direction of the primary flow and is spaced over the width (B) of the oxidation tank and wherein the primary flow exits from the distribution chamber therebetween, and in that the distribution chamber comprises an initial cross-sectional area perpendicular to the inlet flow direction of the primary flow at the side of the inlet , wherein the cross-sectional area of the distribution chamber perpendicular to the inlet flow direction of the primary flow decreases over the width of the oxidation tank and becomes minimal at a side of the distribution chamber opposite the inlet .
A method for producing flavokermesic acid (FK) glycoside and/or kermesic acid (KA) glycoside, wherein the method comprises following steps: (A): contacting in vitro or in vivo in a recombinant host cell comprising a glycosyltransferase gene encoding a glycosyltransferase: (a1): flavokermesic acid (FK) with a glycosyltransferase capable of glycosylating the flavokermesic acid under suitable conditions wherein there is produced the flavokermesic acid glycoside; and/or (a2): kermesic acid (KA) with a glycosyltransferase capable of glycosylating the kermesic acid under suitable conditions wherein there is produced the kermesic acid glycoside; and wherein the glycosyltransferase in step (A) is at least one polypeptide selected from the group consisting of: (I) a polypeptide comprising an amino acid sequence which has at least 70% identity with amino acids 1 to 492 of SEQ ID NO:4; and (II) a polypeptide comprising an amino acid sequence which has at least 70% identity with amino acids 1 to 471 of SEQ ID NO:5. (A): contacting in vitro or in vivo in a recombinant host cell comprising a glycosyltransferase gene encoding a glycosyltransferase: (a1): flavokermesic acid (FK) with a glycosyltransferase capable of glycosylating the flavokermesic acid under suitable conditions wherein there is produced the flavokermesic acid glycoside; and/or (a2): kermesic acid (KA) with a glycosyltransferase capable of glycosylating the kermesic acid under suitable conditions wherein there is produced the kermesic acid glycoside; and wherein the glycosyltransferase in step (A) is at least one polypeptide selected from the group consisting of: (I) a polypeptide comprising an amino acid sequence which has at least 70% identity with amino acids 1 to 492 of SEQ ID NO:4; and (II) a polypeptide comprising an amino acid sequence which has at least 70% identity with amino acids 1 to 471 of SEQ ID NO:5. (a1): flavokermesic acid (FK) with a glycosyltransferase capable of glycosylating the flavokermesic acid under suitable conditions wherein there is produced the flavokermesic acid glycoside; and/or (a2): kermesic acid (KA) with a glycosyltransferase capable of glycosylating the kermesic acid under suitable conditions wherein there is produced the kermesic acid glycoside; and wherein the glycosyltransferase in step (A) is at least one polypeptide selected from the group consisting of: (I) a polypeptide comprising an amino acid sequence which has at least 70% identity with amino acids 1 to 492 of SEQ ID NO:4; and (II) a polypeptide comprising an amino acid sequence which has at least 70% identity with amino acids 1 to 471 of SEQ ID NO:5. (I) a polypeptide comprising an amino acid sequence which has at least 70% identity with amino acids 1 to 492 of SEQ ID NO:4; and (II) a polypeptide comprising an amino acid sequence which has at least 70% identity with amino acids 1 to 471 of SEQ ID NO:5.
Method for detecting the clearance of a brake of a motor vehicle, in particular of a utility vehicle, comprising the steps: - reading out measurement signals of a wear sensor which is arranged on the brake , - determining from the measurement signals an output signal value which is representative of the unactivated state of the brake, - determining from the measurement signals an event signal value which is representative of the braking state of the brake and - determining the clearance from the difference between the event signal value and the output signal value, wherein - the measurement signals of the wear sensor are examined for the presence of a characteristic signal oscillation which arises owing to the brake lining being brought into contact with its opposing part which is to be braked. - reading out measurement signals of a wear sensor which is arranged on the brake , - determining from the measurement signals an output signal value which is representative of the unactivated state of the brake, - determining from the measurement signals an event signal value which is representative of the braking state of the brake and - determining the clearance from the difference between the event signal value and the output signal value, wherein - the measurement signals of the wear sensor are examined for the presence of a characteristic signal oscillation which arises owing to the brake lining being brought into contact with its opposing part which is to be braked.
A chip system comprising - a non-volatile memory (MNV), - a processor (PROC) configured to execute: o an operating system (OS) configured to receive data according to a first communication protocol, o a program installation software (SFT) configured to communicate with the non-volatile memory (MNV) according to a second communication protocol in order to be able to record data of a program (PRG) in this non-volatile memory, wherein the operating system is also configured to: - determine whether data received according to said first communication protocol are program data intended for the installation software - make available to the installation software (SFT) the program data which are received and intended for the latter, - inform the installation software that program data which are intended therefor have been received, wherein the installation software (SFT) is configured to record the program data made available thereto in said non-volatile memory (MNV) according to the second communication protocol and wherein the data are encapsulated in a frame (TRM) having a format defined according to the first communication protocol, the frame (TRM) comprising a header (HDR) followed by said encapsulated data (DAT) and ends with a postamble (TRL), the header (HDR) being configured to indicate whether the data (DAT) is intended for the installation software (SFT). - a non-volatile memory (MNV), - a processor (PROC) configured to execute: o an operating system (OS) configured to receive data according to a first communication protocol, o a program installation software (SFT) configured to communicate with the non-volatile memory (MNV) according to a second communication protocol in order to be able to record data of a program (PRG) in this non-volatile memory, wherein the operating system is also configured to: o an operating system (OS) configured to receive data according to a first communication protocol, o a program installation software (SFT) configured to communicate with the non-volatile memory (MNV) according to a second communication protocol in order to be able to record data of a program (PRG) in this non-volatile memory, wherein the operating system is also configured to: - determine whether data received according to said first communication protocol are program data intended for the installation software - make available to the installation software (SFT) the program data which are received and intended for the latter, - inform the installation software that program data which are intended therefor have been received,
Method for improving the control behaviour of an electronic motor vehicle brake system, comprising at least the function of a slip control system, in which wheel dynamics information which is evaluated on a wheel-specific basis as a criterion for the initiation of a control intervention is used and compared with controlled thresholds for a pressure reduction phase, a pressure holding phase and a pressure increasing phase for generating corresponding braking torques by means of a vehicle brake system, wherein - the expected change in acceleration (j exp ) at a vehicle wheel is calculated from a change in pressure at this vehicle wheel which is brought about by a control intervention - the actual change in acceleration (j act ) at the vehicle wheel, which is brought about by the change in pressure, is determined from measured wheel speeds as wheel dynamics information, - when an actual change in acceleration (j act ) differs from the expected change in acceleration (j exp ) by a defined amount, the control behaviour of the slip control system is adapted in such a way that the difference is minimized, characterized in that - the pressure change signals which are used for the determination of the expected change in acceleration (j exp ) and the wheel speed signals which are used for the determination of the actual change in acceleration (j act ) are synchronized with one another. - the expected change in acceleration (j exp ) at a vehicle wheel is calculated from a change in pressure at this vehicle wheel which is brought about by a control intervention - the actual change in acceleration (j act ) at the vehicle wheel, which is brought about by the change in pressure, is determined from measured wheel speeds as wheel dynamics information, - when an actual change in acceleration (j act ) differs from the expected change in acceleration (j exp ) by a defined amount, the control behaviour of the slip control system is adapted in such a way that the difference is minimized, - the pressure change signals which are used for the determination of the expected change in acceleration (j exp ) and the wheel speed signals which are used for the determination of the actual change in acceleration (j act ) are synchronized with one another.
A seal assembly for a bearing compartment of a gas turbine engine , the seal assembly comprising: a seal carrier ; a seal element , wherein at least a portion of the seal element is within the seal carrier ; a seal plate in contact with the seal element , wherein the seal plate is configured to rotate relative to the seal element ; and characterized in that the seal assembly further comprises: a trough extending around the seal plate , wherein the trough comprises an annular channel positioned to capture oil slung from the seal plate ; and a screen disposed in the annular channel of the trough , wherein the screen comprises perforations and is configured to separate the oil captured by the trough from windage produced by the seal plate . a seal carrier ; a seal element , wherein at least a portion of the seal element is within the seal carrier ; a seal plate in contact with the seal element , wherein the seal plate is configured to rotate relative to the seal element ; and characterized in that the seal assembly further comprises: a trough extending around the seal plate , wherein the trough comprises an annular channel positioned to capture oil slung from the seal plate ; and a screen disposed in the annular channel of the trough , wherein the screen comprises perforations and is configured to separate the oil captured by the trough from windage produced by the seal plate .
A method of performing processing in an image capturing device, comprising: receiving an image at the image capturing device , wherein each pixel of the image includes a value of an infrared component and a value of a visible component; obtaining, by a first processor , a contamination matrix that defines relationships between ideal non-contaminated values and the value of the infrared component and the value of the visible component of each pixel; generating, by the first processor , decontaminated values of the infrared component and decontaminated values of the visible component for each pixel by performing a decontamination process based on the contamination matrix; performing, by a first processor , an adjustment process on the decontaminated values of the visible component, wherein the adjustment process includes adding a portion of non-decontaminated values to values of the visible component of a corresponding portion from the image when the one or more decontaminated values of the visible component are less than a threshold; performing, by the first processor , an interpolation on the decontaminated values of the visible component to generate interpolated values of the visible component; and providing, by the first processor , the decontaminated values of the infrared component and the decontaminated interpolated values of the visible component to an image signal processor (ISP) for further processing. receiving an image at the image capturing device , wherein each pixel of the image includes a value of an infrared component and a value of a visible component; obtaining, by a first processor , a contamination matrix that defines relationships between ideal non-contaminated values and the value of the infrared component and the value of the visible component of each pixel; generating, by the first processor , decontaminated values of the infrared component and decontaminated values of the visible component for each pixel by performing a decontamination process based on the contamination matrix; performing, by a first processor , an adjustment process on the decontaminated values of the visible component, wherein the adjustment process includes adding a portion of non-decontaminated values to values of the visible component of a corresponding portion from the image when the one or more decontaminated values of the visible component are less than a threshold; performing, by the first processor , an interpolation on the decontaminated values of the visible component to generate interpolated values of the visible component; and providing, by the first processor , the decontaminated values of the infrared component and the decontaminated interpolated values of the visible component to an image signal processor (ISP) for further processing.
An acetabular defect reconstructive prosthesis, comprising: an iliac support, the iliac support comprising a support seat and a connecting wing plate provided on the support seat , and the support seat being configured to contact and matched with an ilium ; and an acetabular cup rotatably connected with the support seat , wherein a first screw hole is formed in the connecting wing plate and a first screw seat is arranged in the first screw hole ; characterised in that the first screw seat is provided with a spherical inner surface. an iliac support, the iliac support comprising a support seat and a connecting wing plate provided on the support seat , and the support seat being configured to contact and matched with an ilium ; and an acetabular cup rotatably connected with the support seat , wherein a first screw hole is formed in the connecting wing plate and a first screw seat is arranged in the first screw hole ; characterised in that the first screw seat is provided with a spherical inner surface.
A method of machining a cellular core having individual cells arranged laterally in a plurality of columns and longitudinally in a plurality of rows, which core is mounted atop a table in a multi-axis Computerized Numerical Controlled (CNC) machine with said columns extending longitudinally along a machining axis (X) thereof between longitudinally opposite top and bottom ends of said core , and characterized by ; scanning said core atop said table to recognize said individual cells arranged laterally in columns and longitudinally in rows and additionally recognize any non-linearity in a column of said scanned cells when mounted atop said table by recognizing non-linearity in geometric cell distributions defining said scanned column from said core top end to said core bottom end; generating a machining path (E) from said recognized cells and matching said non-linearity in said column of scanned cells from said core top end to said core bottom end; and machining said core along said generated non-linear machining path (E) from said core top end to said core bottom end to machine corresponding cells sequentially in turn along said scanned column in said core . scanning said core atop said table to recognize said individual cells arranged laterally in columns and longitudinally in rows and additionally recognize any non-linearity in a column of said scanned cells when mounted atop said table by recognizing non-linearity in geometric cell distributions defining said scanned column from said core top end to said core bottom end; generating a machining path (E) from said recognized cells and matching said non-linearity in said column of scanned cells from said core top end to said core bottom end; and machining said core along said generated non-linear machining path (E) from said core top end to said core bottom end to machine corresponding cells sequentially in turn along said scanned column in said core .
Absorbent structure for reducing the propagation of sound waves transmitted by noisy devices of the rotor or motor type, comprising a rigid partition , at least one porous wall and separation means for arranging the porous wall at a predetermined distance from the rigid partition , delimiting cavities having a height h1 between the porous wall and the rigid partition , the height h1 being determined in order to obtain maximum absorption of the sound waves transmitted at a given basic frequency F1, the structure comprising complementary absorption means in order to obtain maximum absorption of the sound waves transmitted at least at one additional basic frequency Fi, i being a whole number greater than or equal to 2, the porous wall comprising at least a first layer and at least a second layer of fibre felt, characterised in that the first layer is formed as a grid with fine mesh and in that the first layer is positioned on the second layer of fibre felt in order to constitute an assembly of two layers, the second layer of fibre felt being positioned on the separation means .
A vapor impermeable solenoid for a fuel tank isolation valve assembly, the impermeable solenoid comprising: an outer housing fabricated from a vapor impermeable material configured to prevent fuel vapor molecules from passing therethrough; a bobbin supporting windings configured to generate a magnetic flux when energized; a flux collector configured to direct the magnetic flux; an armature tube disposed in the outer housing inboard of the flux collector ; a pole piece disposed within the armature tube ; and a magnetic armature disposed within the armature tube and coupled to a seal configured to selectively seal a passage that allows fuel vapor to pass to a purge canister , the magnetic armature configured to move from a first position to a second position when an electric current is applied to the windings; characterized in that the armature tube is formed of ferritic stainless steel. an outer housing fabricated from a vapor impermeable material configured to prevent fuel vapor molecules from passing therethrough; a bobbin supporting windings configured to generate a magnetic flux when energized; a flux collector configured to direct the magnetic flux; an armature tube disposed in the outer housing inboard of the flux collector ; a pole piece disposed within the armature tube ; and a magnetic armature disposed within the armature tube and coupled to a seal configured to selectively seal a passage that allows fuel vapor to pass to a purge canister , the magnetic armature configured to move from a first position to a second position when an electric current is applied to the windings; characterized in that the armature tube is formed of ferritic stainless steel.
Lever connection of a guide vane adjustment means of a turbomachine, for establishing a connection between a guide vane and an actuator, the guide vane having a vane shaft which extends in the radial direction along the vertical axis (H) thereof and which can be brought into connection with an adjusting ring of the actuator by means of a lever , the vane shaft having a contact region which has a reduced cross section compared to a radially outershaft region ; characterized in that the lever has a connection portion having an elongate hole and a thread-in opening , the elongate hole having key flats for rotationally fixed operative connection with correspondingly designed contact surfaces of the contact region , the thread-in opening transitioning on the circumference thereof into the elongate hole , and the thread-in opening having an enlarged cross section compared to the elongate hole and being designed such that the lever , by means of the connection portion thereof, can be slid radially onto the vane shaft via the thread-in opening .
A cap device configured to form a space (CK) surrounding an opening of a nozzle of a liquid ejecting head when the cap device is in contact with the liquid ejecting head including the nozzle for ejecting a liquid, the cap device comprising: a moisturizing chamber including an introduction portion for introducing a moisturizing fluid into the moisturizing chamber, the moisturizing fluid being for moisturizing the space (CK); and a partition wall having gas permeability, the partition wall being made of a liquid-repellent elastomer resin and being configured to completely partition the space and the moisturizing chamber, wherein part of the partition wall is formed of a flexible portion , the flexible portion being able to deflect and displace due to pressure fluctuations in the space (CK). a moisturizing chamber including an introduction portion for introducing a moisturizing fluid into the moisturizing chamber, the moisturizing fluid being for moisturizing the space (CK); and a partition wall having gas permeability, the partition wall being made of a liquid-repellent elastomer resin and being configured to completely partition the space and the moisturizing chamber, wherein part of the partition wall is formed of a flexible portion , the flexible portion being able to deflect and displace due to pressure fluctuations in the space (CK).