mhurhangee/ep-ind-claims huggingface dataset:
A photographing apparatus (1-3, 200-3, 300-3) comprising: an imaging unit to photograph a subject to acquire image data; an object detection unit to detect a predetermined object from the image data; a detection condition setting unit (66, 266, 366) to allow a user to arbitrarily set a detection condition for the object detection unit; and a recording unit to record an image file generated from the image data in an external recording medium or an internal memory; characterized in that the apparatus further comprises: a tag information writing unit (78, 278, 378) to write the detection condition in tag information of the image file when the image file is recorded; wherein the detection condition setting unit (66, 266, 366) is further adapted to reset the detection condition written in the tag information of the image file to a different detection condition, and the object detection unit is adapted to carry out the detection on image data both when the image data is originally captured and written into memory along with the tag information, in a photographing mode, and when the image data is read out from memory in a playback mode. an imaging unit to photograph a subject to acquire image data; an object detection unit to detect a predetermined object from the image data; a detection condition setting unit (66, 266, 366) to allow a user to arbitrarily set a detection condition for the object detection unit; and a recording unit to record an image file generated from the image data in an external recording medium or an internal memory; characterized in that the apparatus further comprises: a tag information writing unit (78, 278, 378) to write the detection condition in tag information of the image file when the image file is recorded; wherein the detection condition setting unit (66, 266, 366) is further adapted to reset the detection condition written in the tag information of the image file to a different detection condition, and the object detection unit is adapted to carry out the detection on image data both when the image data is originally captured and written into memory along with the tag information, in a photographing mode, and when the image data is read out from memory in a playback mode. a tag information writing unit (78, 278, 378) to write the detection condition in tag information of the image file when the image file is recorded; wherein the detection condition setting unit (66, 266, 366) is further adapted to reset the detection condition written in the tag information of the image file to a different detection condition, and the object detection unit is adapted to carry out the detection on image data both when the image data is originally captured and written into memory along with the tag information, in a photographing mode, and when the image data is read out from memory in a playback mode.
Multi piston machine with a rotor, which is located within a casing and which is rotatable about an axis of rotation, wherein the casing has a first and second working port (11; 12), wherein a first number of pistons (1.1 - 1.18) are received in the rotor in a linearly movable manner, wherein the pistons (1.1 - 1.18) are able to contact a cam surface of the casing, which has a second number of lobes, such that the number of strokes of a single piston (1.1 - 1.18) during one revolution of the rotor equals the second number, wherein each piston (1.1 - 1.18) has one associated first control opening (2.1 - 2.18) at a first control surface of the rotor, wherein the first control openings (2.1 - 2.18) are located along a first circle whose center is defined by the axis of rotation, wherein the the casing has a second control surface which abuts against the first control surface, wherein the the second control surface has a third number of second control openings (3.1 - 3.14), which are located along a second circle, whose center is defined by the axis of rotation, wherein each first control opening (2.1 - 2.18) is able to overlap each of the second openings (3.1 - 3.14) in at least one rotational position of the rotor respectively, wherein there is a first, a second, a third and fourth fluid chamber (31; 32; 33; 34), wherein each second control opening (3.1 - 3.14) is permanently connected to a single one of the first to fourth fluid chamber (31; 32; 33; 34), characterized in that the multi piston machine is switchable between at least three non-zero displacement volumes by means of a first and a second control valve (41; 42), wherein the first and the second control valve (41; 42) are connected to the first and the second working (11; 12) port respectively, wherein the first to fourth fluid chambers (31 - 34) are annular with respect to the axis of rotation, being arranged distributed along the axis of rotation, wherein the first control valve is arranged radially inside the first to fourth fluid chambers (31 - 34), wherein the first control valve is fluidically connected to the second and the third fluid chamber (32; 33), wherein second control valve is arranged radially outside the first to fourth fluid chambers (31 - 34), wherein the second control valve is fluidically connected to the first and the fourth fluid chamber (31; 34), wherein the first chamber is located closer to the second control surface than the second to fourth fluid chambers (32 - 34).
A surface structure comprising a filmhole pattern, the filmhole pattern comprising a plurality of filmrows having non-contiguous adjacent transition boundary positions; characterised in that the surface structure comprises an inner stator vane platform or an outer stator vane platform.
Spinning machine, in particular a rotor spinning machine or an air jet spinning machine, with a multiple number of work stations arranged side by side between two front-side ends of the spinning machine on at least one longitudinal side of the spinning machine, each of which features a multiple number of work elements for the production and winding of a yarn, whereas the work elements comprise at least one feed device, one spinning chamber, one draw-off device and one winding device, with drives for driving the work elements, and with a suction device for generating negative pressure at the work stations, whereas each work station features an individual drive, in particular an individual electrical drive, for the draw-off device and whereas the suction device includes at least one negative pressure source and at least two negative pressure channels, whereas each of the negative pressure channels extends in the longitudinal direction of the spinning machine only over one part of the work stations, characterized in that the spinning machine features at least two separate negative pressure sources, whereas each of the negative pressure sources is connected to a separate negative pressure channel, that each of the negative pressure sources features a fan and a drive for the fan and that the drives of the negative pressure sources are controllable by a central control device of the spinning machine.
Method for checking a steer-by-wire steering system, wherein the steering system comprises a steering device connected to vehicle wheels, a steering wheel, a servomotor and a control unit, wherein the servomotor is configured to exert a torque on the steering wheel via a mechanical coupling, and the control unit being configured to bring a steering wheel angle of the steering wheel into conformity with a steering angle of the steering device by means of controlling the servomotor, characterised in that the method comprises the following steps: - in a control step, controlling the servomotor of the steering wheel such that the steering wheel angle is brought into conformity with a target angle, wherein determining a time characteristic of a state variable of the steering wheel and/or of the servomotor; - in an analysing step, determining a frequency spectrum of the time characteristic of the state variable and determining an amplitude of a predetermined spectral component of the frequency spectrum; - in a classification step, performing a classification of a state of the mechanical coupling as a function of the amplitude of the spectral component. - in a control step, controlling the servomotor of the steering wheel such that the steering wheel angle is brought into conformity with a target angle, wherein determining a time characteristic of a state variable of the steering wheel and/or of the servomotor; - in an analysing step, determining a frequency spectrum of the time characteristic of the state variable and determining an amplitude of a predetermined spectral component of the frequency spectrum; - in a classification step, performing a classification of a state of the mechanical coupling as a function of the amplitude of the spectral component.
Food additive containing at least one non-nutrient incorporated in a matrix, the whole being encapsulated by a coating comprising at least one vegetable material whose saponification number is greater than 180 and the non-nutrient comprises capsicum oleoresin, characterized in that the matrix comprises a hydrogenated fat.
A method for preparing a powder mixture comprising combining an acid buffer, a biocide and a dye, wherein the acid buffer is: (i) a citric acid/sodium citrate buffer, (ii) a potassium hydrogen phthalate/hydrochloric acid buffer, (iii) a hydrochloric acid/sodium citrate buffer, or (iv) a citric acid/sodium hydrogen phosphate buffer. (i) a citric acid/sodium citrate buffer, (ii) a potassium hydrogen phthalate/hydrochloric acid buffer, (iii) a hydrochloric acid/sodium citrate buffer, or (iv) a citric acid/sodium hydrogen phosphate buffer.
An electrolytic assembly, comprising: an electrolytic device, comprising an electrode; a heating member; and a mounting device, to which at least one of the electrolytic device or the heating member is connected, and the electrode and the heating member are located on the same side of the mounting device, wherein the heating member comprises a first rod, a second rod and a transition body connected between the first rod and the second rod, wherein a gap is formed between the first rod and the second rod and wherein the electrode is located between the first rod and the second rod; characterised in that the electrolytic assembly further comprises a first insulator located between the first rod and the second rod and mounted to sleeve the electrode, and a first fastener surrounding outer surfaces of the first rod, the second rod and the first insulator; and at least one of a top surface or a bottom surface of the first insulator is formed with a first groove in which a part of the first fastener is located. an electrolytic device, comprising an electrode; a heating member; and a mounting device, to which at least one of the electrolytic device or the heating member is connected, and the electrode and the heating member are located on the same side of the mounting device, wherein the heating member comprises a first rod, a second rod and a transition body connected between the first rod and the second rod, wherein a gap is formed between the first rod and the second rod and wherein the electrode is located between the first rod and the second rod; characterised in that the electrolytic assembly further comprises a first insulator located between the first rod and the second rod and mounted to sleeve the electrode, and a first fastener surrounding outer surfaces of the first rod, the second rod and the first insulator; and at least one of a top surface or a bottom surface of the first insulator is formed with a first groove in which a part of the first fastener is located.
An online dynamic decision-making method of generator start-up, comprising the following steps: selecting a black start unit and units that need to be started from all units; generating a labeled training set that covers different possible states of generator start-up; utilizing deep learning to establish a value network based on the training set; obtaining real-time data of generator start-up including blackout area, the state of power system, the availability of equipment in power system and the characteristics of generators waiting to be restored; searching and evaluating all alternative lines to be restored in next step with Monte Carlo tree search and value network; checking voltage, frequency and power flow variations caused by the restoration of different alternative lines; summarizing results of Monte Carlo tree search to determine the corresponding transmission line to be restored. selecting a black start unit and units that need to be started from all units; generating a labeled training set that covers different possible states of generator start-up; utilizing deep learning to establish a value network based on the training set; obtaining real-time data of generator start-up including blackout area, the state of power system, the availability of equipment in power system and the characteristics of generators waiting to be restored; searching and evaluating all alternative lines to be restored in next step with Monte Carlo tree search and value network; checking voltage, frequency and power flow variations caused by the restoration of different alternative lines; summarizing results of Monte Carlo tree search to determine the corresponding transmission line to be restored.
A method of delivering vehicle data, comprising: receiving, by a data processing system on a vehicle, reference data comprising a reference identifying the vehicle data stored in a repository that is located off of the vehicle and reference authentication data identifying a source of the reference data; determining, by the data processing system, whether the reference data is from an approved source for the reference data using the reference authentication data; retrieving, by the data processing system, the vehicle data from the repository using the reference, in response to the reference data being determined to be from the approved source for the reference data, wherein the vehicle data comprises authentication data identifying a source of the vehicle data and the vehicle data is configured to change the operation of the vehicle; determining, by the data processing system, whether the vehicle data is from an approved source for the vehicle data using the authentication data; and in response to the vehicle data being determined to be from an approved source, using the vehicle data to change the operation of the vehicle. receiving, by a data processing system on a vehicle, reference data comprising a reference identifying the vehicle data stored in a repository that is located off of the vehicle and reference authentication data identifying a source of the reference data; determining, by the data processing system, whether the reference data is from an approved source for the reference data using the reference authentication data; retrieving, by the data processing system, the vehicle data from the repository using the reference, in response to the reference data being determined to be from the approved source for the reference data, wherein the vehicle data comprises authentication data identifying a source of the vehicle data and the vehicle data is configured to change the operation of the vehicle; determining, by the data processing system, whether the vehicle data is from an approved source for the vehicle data using the authentication data; and in response to the vehicle data being determined to be from an approved source, using the vehicle data to change the operation of the vehicle.
Spectacle lens provided with a permanent marking, characterized in that said lens (42, 43, 45) comprises a substrate and an anti-reflective or mirror interferential coating covering said substrate on the side of the front face, said interferential coating forming a one-dimensional or two-dimensional barcode pattern (62, 75), said marking being formed by a plurality of punctual gaps on a part of a thickness of said interferential coating, said front face exhibiting outside of said punctual gaps a coefficient of reflection of light having a predetermined nominal value and in each said punctual gap a coefficient of reflection of light having a predetermined particular value different from said nominal value, in which the interferential coating comprises at least two overlaid surface layers (65, 66, 67), including an interior layer which absorbs a marking wavelength in a more considerable manner than any layer (66, 67) situated between a laser source and the interior layer, each of the layers of material lying between the laser source and the interior layer lets through more than half the energy of this marking wavelength, the marking wavelength being 266 nm, each punctual gap being produced by ablation of at least a part of the thickness of the interior layer, and of any layer situated between the laser source and the interior layer.
Method for identifying a resistance value ( R r) of the rotor of an electric induction motor, characterized in that it includes the following steps: a) Determining a reference voltage u S ref on the basis of a chosen value ( R̂ r) for the resistance of the rotor of the electric motor, b) Applying a control voltage ( u s) to the electric motor, said control voltage being determined on the basis of said reference voltage u S ref, c) Acquiring the values of the currents ( i 1, i 2, i 3) measured in the three phases of the electric motor, so as to deduce a stator current (Is) of the electric motor therefrom, d) Comparing the obtained stator current ( i s) with a predetermined value i S ref, e) Correcting said value ( R̂ r) used for the resistance ( R r) of the rotor and applying steps a) to d) until obtaining a stator current ( i s) equal to said predetermined value. a) Determining a reference voltage u S ref on the basis of a chosen value ( R̂ r) for the resistance of the rotor of the electric motor, b) Applying a control voltage ( u s) to the electric motor, said control voltage being determined on the basis of said reference voltage u S ref, c) Acquiring the values of the currents ( i 1, i 2, i 3) measured in the three phases of the electric motor, so as to deduce a stator current (Is) of the electric motor therefrom, d) Comparing the obtained stator current ( i s) with a predetermined value i S ref, e) Correcting said value ( R̂ r) used for the resistance ( R r) of the rotor and applying steps a) to d) until obtaining a stator current ( i s) equal to said predetermined value.
A method of qualifying a photolithographic reticle, the method comprising: using an optical reticle inspection tool, acquiring a plurality of images at different imaging configurations from each of a plurality of pattern areas of a calibration reticle; recovering a reticle near field for each of the pattern areas of the calibration reticle based on the acquired images from each pattern area of the calibration reticle; using the recovered reticle near field for the calibration reticle, generating a lithography model for simulating a plurality of wafer images based on the reticle near field; wherein the lithography model is generated by comparing a plurality of wafer images resulting from the model with a plurality of reference images of a wafer that was fabricated using the calibration reticle and adjusting a plurality of model parameters of the model until a difference between the acquired and reference images is minimized to a value below a pre-defined threshold; using an optical reticle inspection tool, acquiring a plurality of images at different imaging configurations from each of a plurality of pattern areas of a test reticle; recovering a reticle near field for each of the pattern areas of the test reticle based on the acquired images from each pattern area of the test reticle; applying the generated model to the reticle near field for the test reticle to simulate a plurality of test wafer images; and analyzing the simulated test wafer images to determine whether the test reticle will likely result in an unstable or defective wafer. using an optical reticle inspection tool, acquiring a plurality of images at different imaging configurations from each of a plurality of pattern areas of a calibration reticle; recovering a reticle near field for each of the pattern areas of the calibration reticle based on the acquired images from each pattern area of the calibration reticle; using the recovered reticle near field for the calibration reticle, generating a lithography model for simulating a plurality of wafer images based on the reticle near field; wherein the lithography model is generated by comparing a plurality of wafer images resulting from the model with a plurality of reference images of a wafer that was fabricated using the calibration reticle and adjusting a plurality of model parameters of the model until a difference between the acquired and reference images is minimized to a value below a pre-defined threshold; using an optical reticle inspection tool, acquiring a plurality of images at different imaging configurations from each of a plurality of pattern areas of a test reticle; recovering a reticle near field for each of the pattern areas of the test reticle based on the acquired images from each pattern area of the test reticle; applying the generated model to the reticle near field for the test reticle to simulate a plurality of test wafer images; and analyzing the simulated test wafer images to determine whether the test reticle will likely result in an unstable or defective wafer.
An assembly comprising a tableware tea piece and a vessel, the tableware tea piece comprising a shaped disc comprising a perimeter and two principal surfaces [1,2] either side of said perimeter, a first principal surface and a second principal surface, characterized in that said second principal surface comprises a well spaced inside the perimeter, said well being impervious to aqueous liquids, wherein the perimeter comprises a perimeter recess, wherein two end points of said perimeter recess along the perimeter define an angle S relative to a vertex disposed at a geometric centre point of the tea piece, wherein the angle S is greater than 15°, wherein the second surface comprises a continuous loop drip projection wherein the continuous drip projection is spaced inside the perimeter throughout its length including the perimeter recess, or the continuous drip projection is coterminous with a portion of the edge of the perimeter recess, or the continuous drip projection is indented and the indent is coterminous with the perimeter recess, said drip projection forming a perimeter of the well, wherein the tea piece is capable of being placed to act as a lid on the vessel containing hot water with the first surface uppermost such that the perimeter recess provides a ventilation aperture within a rim of the vessel, said drip projection provides a lateral restraint against the inside of the vessel if the piece is pushed laterally, wherein the tea piece is capable of inversion and placing on a horizontal surface with the second principal surface uppermost and the first principal surface supporting the piece after said inversion such that the inverted tea piece is capable of acting as a receptacle for a used tea bag such that tea which emanates from the used tea bag is contained on the second principal surface within the well and does not spill onto the horizontal surface, and wherein a portion of said perimeter recess is shaped to enable the perimeter recess edge to be contiguous with the outside of the vessel after the inversion of the tea piece in order to reduce the likelihood of drips from a wet, used tea bag falling onto the horizontal surface during transfer from the infused tea in the vessel to the inverted tea piece acting as a receptacle for the wet, used tea bag.