4990results about "Photography" patented technology

The invention discloses a target object targeting agent monitoring method and device based on AI visual identification, belongs to the technical field of termite monitoring, and aims to solve the problems of high manual dependence degree, high misjudgment rate, low data transmission efficiency and the like in traditional target object monitoring. A slow-release targeting agent and a solar hybrid power supply system are arranged in the device, and low-power-consumption endurance is supported. According to the core scheme, vibration and infrared sensor signals are fused, and image acquisition is triggered through feature analysis; recognizing a target object through background difference, a multi-scale image and feature matching, and dynamically optimizing a detection threshold value; after video acquisition, activity intensity is calculated in combination with target tracking and gridding analysis, and transmission is optimized based on intensity and quota; light supplement is automatically adjusted according to ambient light, and image quality is ensured through pixel compensation and brightness adjustment. According to the scheme, a closed-loop system with multi-mode accurate triggering and intelligent identification is constructed, and the intelligence and efficiency of termite monitoring are improved.

The invention is suitable for the technical field of illumination, and provides a near-illumination lamp illumination method, device and system and a near-illumination lamp, and the method comprises the steps: obtaining an original light field image, which is collected by imaging equipment and comprises an array composed of a plurality of independently addressable and brightness-controllable light-emitting units, projected on a target plane by the near-illumination lamp; generating a brightness nonuniformity map representing brightness distribution according to the original light field image; calculating a brightness correction matrix for compensating brightness nonuniformity through a reverse solution algorithm on the basis of the brightness nonuniformity map and in combination with a model for describing a light transmission response relationship between the array and a target plane; and loading the brightness correction matrix into a controller of the near-lighting lamp, and performing differentiated brightness modulation on each light emitting unit in the array by the controller according to the brightness correction matrix. The problem that an existing near-illumination lamp cannot achieve high-precision and high-stability uniform light field output is solved.

A lens unit includes a first barrel member holding a first lens, and a second barrel member holding a lens group. The first barrel member includes a first cylindrical portion including a holding portion holding the first lens from an outer peripheral side and an annular protrusion protruding from the first cylindrical portion to an inner peripheral side. The annular protrusion includes a first lens support portion supporting the first lens from an image side. The second barrel member includes a second cylindrical portion surrounding the lens group from the outer peripheral side and a flange portion protruding from the second cylindrical portion to the outer peripheral side. The second barrel member is positioned in a radial direction by the second cylindrical portion inserted into the inner peripheral side of the annular projection and is positioned in an optical axis direction by the flange portion abutting the annular projection.

The invention discloses a circuit board dispensing quality detection device, and relates to the technical field of circuit board processing detection, the circuit board dispensing quality detection device comprises a base, a conveying positioning mechanism, an upper shooting detection unit and a lower shooting detection unit, the conveying positioning mechanism is installed on the base and is used for conveying and positioning a carrier carrying a circuit board; the upper shooting detection unit and the lower shooting detection unit are respectively located above and below the conveying positioning mechanism, are used for acquiring dispensing images on the front and back surfaces of the circuit board and respectively comprise a shooting module, the shooting module comprises two symmetrically arranged three-dimensional line scanning cameras, and shooting light paths of the two symmetrically arranged three-dimensional line scanning cameras are inclined and are crossed and opposite; the shooting light path of the central camera is vertical; the plurality of circumferential cameras are circumferentially distributed around the central camera, a shooting light path is inclined, and the inclination angle is adjustable; and the light source assembly is used for supplementing light when the three-dimensional line scanning camera, the central camera and / or the circumferential cameras collect images. The scheme is used for automatically detecting the glue coverage quality of the circuit board after glue dispensing.

The invention relates to the field of industrial visual inspection, and discloses a material surface defect detection system based on industrial visual inspection, which comprises a laser light source module, a light beam distribution assembly, a dark field illumination structure, a near field irradiation structure, an industrial visual inspection module, a signal processing module and a data processing module. The laser light source module is used for generating a modulated laser beam, and the laser beam distribution assembly guides the laser beam to the surface of a material; and the dark field illumination structure is matched with the near field irradiation structure to form an irradiation path with an inclined direction and a sub-wavelength scale. The industrial visual inspection module comprises an industrial camera, an image acquisition device and an image processing module and is used for acquiring and processing images of the defect area. The signal processing module is used for performing frequency domain analysis on the scattered signals; and the data processing module is used for analyzing spatial positions and forms of defects based on image and signal data. The system is suitable for fine detection and structure identification of tiny defects on the surface of a material.

A line-of-sight detection device according to the present invention includes: a lens; an image sensor disposed on an edge of the lens; and a plurality of light sources disposed along the edge of the lens, wherein in a 360° range around an optical axis of the lens, a number of light sources per degree is the maximum in a range on opposite side of the image sensor with respect to the optical axis of the lens.

A vehicle system includes a display unit and a computer communicatively coupled to the camera. The display unit includes a display panel, a circuit board fixed relative to the display panel, a plurality of visible-light light emitting diodes (LEDs) mounted to the circuit board, and a plurality of infrared LEDs mounted to the circuit board and interspersed with the visible-light LEDs. The circuit board is arranged to direct emissions from the visible-light LEDs and infrared LEDs to the display panel. The computer is programmed to actuate a component based on an infrared image from a camera depicting an occupant illuminated by the infrared LEDs, and adjust a brightness of the infrared LEDs based on an ambient brightness.

The utility model provides a photography lamp assembly and a photography lighting system. The photography lamp assembly comprises a lampshade body and a shading unit. The inner wall of the lampshade body is a reflecting surface, the reflecting surface is in a gradually-expanding parabola shape, and light emitted by the light source is reflected by the reflecting surface to form parallel light perpendicular to the plane where the light outlet is located; a reflecting area is further formed in the lampshade body, the shading units are arranged in the reflecting area, and the peripheral edges of the shading units are tangent to set intersecting lines of the reflecting area so that the shading units can absorb light rays which are emitted by the light source and not reflected by the reflecting face. Therefore, the number of non-parallel light contained in the light emitted from the lampshade body is effectively reduced, the uniformity of the whole illumination surface is improved, the imaging effect of shooting is effectively improved, and the shooting requirement of a user is efficiently met.

The multi-view imaging detection light source comprises a shell, a plurality of first reflectors, a plurality of second reflectors and a first light source assembly, the shell is provided with a light path channel, an input end and an output end, and the input end and the output end are communicated with the two ends of the light path channel; the first reflectors are arranged at intervals along the inner peripheral wall of the light path channel, the first reflectors are arranged close to the input end, and the mirror surfaces of the first reflectors are obliquely arranged in the extending direction of the light path channel towards the inner peripheral wall deviating from the light path channel; the second reflectors are arranged at intervals along the inner peripheral wall of the light path channel, the second reflectors are arranged close to the output end, and the mirror surfaces of the second reflectors are obliquely arranged close to the inner peripheral wall of the light path channel in the extending direction of the light path channel; a detected object used for detection is located at the output end, and an image of the detected object can be reflected into the input end through the second reflectors and the first reflectors in sequence; in this way, the detection camera located at the input end can shoot images of the detected object at multiple visual angles in one-time image taking, and the image taking efficiency is improved.

A method to fine-tune extrinsic parameters of a fisheye lens applied to surround view splicing is provided. Fisheye images are obtained from multiple fisheye lenses. Both sides of the fisheye images contain calibration boards. Initial extrinsic parameters are obtained based on the fisheye images. Multiple corner points of the calibration boards in the fisheye images are detected. The corner points are arranged so that the corner points are connected into a quadrilateral in sequence. The initial extrinsic parameters are multiplied by a fine-tuning value to obtain intermediate extrinsic parameters. The corner points are projected to a top-view projection by using the intermediate extrinsic parameters. The intermediate extrinsic parameters are adjusted according to the shape, size, and overlapping effect of the area surrounded by the corner points in the top-view projection.

To provide electrical equipment that can be suppressed from rising suddenly in manufacturing cost although a substrate is installed in a main body case in an inclined attitude.SOLUTION: A substrate fitting rib 33 capable of abutting on the front of an IR substrate 30 in a backward leaning posture is protruded backward on the back of a front case 11, a cover 23 for lighting installed adjacently above the IR substrate 30 is provided with press claws 26, 26 tips of which abut on the back of the IR substrate 30, so that the IR substrate 30 in the backward leaning posture is held from before and behind with the substrate fitting rib 33 and press claws 26, 26. Therefore, although the IR substrate 30 is installed in the backward leaning posture, the IR substrate 30 which is not screwed can be restricted from moving forward and backward, thereby suppressing a sudden rise in manufacturing cost.SELECTED DRAWING: Figure 8

The utility model discloses a combined light source for detection, which comprises a first light-emitting component, a second light-emitting component and a third light-emitting component which are sequentially arranged along the lighting direction, the second light-emitting component is annular, the first light-emitting component is connected with the end face of one end of the second light-emitting component, and the first light-emitting component comprises a plurality of first light-emitting bodies. The first light-emitting bodies are arranged on the outer side of the second light-emitting assembly at intervals in the circumferential direction of the second light-emitting assembly, the third light-emitting assembly is connected with the end face, back to the first light-emitting assembly, of the second light-emitting assembly, and the light emitting end of the third light-emitting assembly is located on the inner side of the second light-emitting assembly. Through the arrangement, under the illumination of the detection combined light source, the definition of the surface of a detected product can be effectively improved, the surface information of the product can be effectively and clearly reflected, the imaging reliability of the detected product can be effectively improved, the surface imaging error of the detected product is further remarkably reduced, and the product quality is improved. Therefore, the accuracy of software image analysis after image capturing is improved.

High-speed and high-accuracy focus adjustment is achieved. A microscope system (1) includes: an irradiation unit (18) that emits line illumination parallel to a first direction; a stage (26) that supports a specimen and is movable in a second direction perpendicular to the first direction; a phase difference acquisition unit (60I) that acquires phase difference information regarding an image of light emitted from the specimen by being irradiated with the line illumination; an objective lens (22) that focuses the line illumination on the specimen; a derivation unit (60E) that derives relative position information between the objective lens and the specimen based on the phase difference information; and a movement control unit (60F) that causes at least one of the objective lens and the stage to move in a third direction vertical to each of the first direction and the second direction based on the relative position information.

To provide an information processor, a method for processing information, and a program which can move images along at least one of a first axis and a second axis of an image sensor even in a case where at least one of first and second driving axes of a driving mechanism are inclined with respect to the first axis and the second axis of the image sensor, respectively.SOLUTION: The processor of the information processor acquires inclination information on at least one of the inclination of a first driving axis of a driving mechanism with respect to a first axis of an image sensor and the inclination of a second driving axis of the driving mechanism with respect to a second axis of the image sensor, and calculates a movement amount of moving a movable lens along at least one of the first axis and the second axis on the basis of the inclination information.SELECTED DRAWING: Figure 16

A radiation image scanner includes: a stage body including a supporting surface; a positioning mechanism with a positioning surface having contact with an edge portion of an imaging plate to position the edge portion from an outer side of the edge portion in an extension direction of the supporting surface and press the edge portion against the supporting surface; an excitation light source; and a photodetector. The positioning mechanism is constituted so that a state can be changed between a first state where a distal end edge is disposed to be away from the supporting surface by a first distance and a second state where the distal end edge is disposed to be away from the supporting surface by a second distance smaller than the first distance.

To provide an image inspection device and an image inspection method capable of obtaining an actual imaging angle with respect to a workpiece.SOLUTION: An image inspection device 1 comprises: a mirror rotating body 12; an imaging section 13; a positioning reference alignment section that is provided to the mirror rotating body 12 so as to rotate integrally with the mirror rotating body 12 to be imaged together with a workpiece; a drive section 14 that drives the mirror rotating body 12 rotationally; an imaging-processing section 151 that causes the drive section 14 to drive the mirror rotating body 12 rotationally, and causes the imaging section 13 to capture an image of the workpiece when the mirror rotating body 12 is positioned at a preset setting angle; and an imaging angle acquisition section 152 that acquires an imaging angle of a captured image corresponding to the setting angle on the basis of the alignment section appearing in the captured image.SELECTED DRAWING: Figure 1

The present disclosure relates to a dual lens manual synchronous focusing structure, which can drive the movable frame to move through the manual driving assembly during focusing, while the first rack on the movable frame drives the first outer gear ring to rotate, the second rack drives the second outer gear ring to rotate, the first outer gear ring turns the first lens barrel to rotate, and the first lens barrel is screwing connected with the first base, thus, the first lens barrel is close to or far away from the first photosensitive chip, the second outer gear ring turns the second lens barrel to rotate, and the second lens barrel is screwing connected with the second base, thus the second lens barrel is close to or far from the second photosensitive chip, so that the focusing of the first lens assembly and the second lens assembly can be synchronized.

An image processing apparatus includes an acquisition unit configured to acquire an image captured by an imaging unit, and image capturing information at the time of image capturing of the image, and a calculation unit configured to calculate an object side pixel dimension of a target subject in the image based on the image capturing information and a pixel dimension of the imaging unit, wherein the acquisition unit acquires in-focus information indicating an in-focus state of a subject in an image, as the image capturing information, and wherein the calculation unit calculates the object side pixel dimension based on the in-focus information.

The invention relates to the technical field of optical precision measurement, in particular to an ultra-high time resolution camera time characteristic detection device and method, and the device comprises a laser source which is used for generating pulse laser; the polarization modulation element is arranged on an emergent light path of the laser source and is used for modulating the pulse laser into circularly polarized light; the spectroscope is arranged on an emergent light path of the polarization modulation element and is used for decomposing the circularly polarized light into a first linearly polarized light beam and a second linearly polarized light beam; the first optical path unit is used for guiding the first linearly polarized light beam to the cylindrical optical element along a fixed optical path; the second optical path unit is used for adjusting the optical path of the second linearly polarized light beam and guiding the second linearly polarized light beam to the cylindrical optical element; and the cylindrical optical element is used for receiving the first linearly polarized light beam and the second linearly polarized light beam and respectively projecting the first linearly polarized light beam and the second linearly polarized light beam to an imaging surface of a camera to be detected to form two spatially separated light spots. The objective of the invention is to improve camera time characteristic calibration precision and efficiency.

The utility model provides a mobile house hoisting device which comprises a parent anchor and a child anchor, steel shells are arranged at the bottoms of the parent anchor and the child anchor, a main lifting lug is arranged at the top of the parent anchor, auxiliary lifting lugs are arranged on the side faces of the parent anchor and the child anchor, an external member is arranged at the top of the child anchor, fixing holes are formed in the side face of the external member, and sliding holes are formed in the side faces of the steel shells; the assembling base is provided with an extending body which is fixedly connected with a power device through a fixing frame, the power device is in driving connection with a flywheel, the assembling base is provided with a sliding groove, a bolt is movably installed in the sliding groove, and the flywheel is in driving connection with the bolt through a pull rod. Manual operation of workers is not needed in anchor point connection and disassembly, the sub-anchors are automatically clamped with or fixed to the anchor points of the container house, hoisting operation of the container house is completed, the workers do not need to climb on the roof of the container to conduct anchor point connection operation, potential safety hazards during hoisting operation are eliminated, and working efficiency is improved.

The utility model provides an external light supplement lamp and a shooting system, the external light supplement lamp comprises a fixed main body and a movable main body, the fixed main body comprises a magnetic attraction piece, and the external light supplement lamp is magnetically attracted and fixed with the rear end face of a mobile phone through the magnetic attraction piece, so that the external light supplement lamp can be conveniently and rapidly assembled on the mobile phone; and therefore, the user can use the device more conveniently. The movable main body is connected with the fixed main body, the movable main body can rotate to be in an unfolded state with the fixed main body, the movable main body comprises a first light-emitting assembly, and when the movable main body is in the unfolded state, light emitted by the first light-emitting assembly faces the front of the external light supplementing lamp and is consistent with the direction of a screen on the front end face of the mobile phone. When a user carries out selfie or a video call through the mobile phone, the light generated by the first light-emitting component can provide illumination for a shooting environment, so that the shooting quality is improved, and the use experience of the user is improved.

An imaging support device is an imaging support device that supports imaging performed by an imaging device mounted in a moving object. The imaging device includes an image sensor. The imaging support device includes a processor. The processor derives a shake amount that is allowable for a subject image formed on the image sensor in a state in which the moving object is moving, based on a dimension of a specific part included in a subject and pixel resolution, and derives an exposure time for the image sensor based on a moving speed of the moving object and the shake amount.

The utility model relates to a parking instrument, which comprises a casing, a battery, a mainboard, an acquisition module and a radar module, the battery and the mainboard are respectively mounted in the casing, and the mainboard is connected with the battery through a circuit; the acquisition module and the radar module are respectively mounted on the shell and are respectively connected with the mainboard through lines, the radar module is used for acquiring whether a vehicle is parked at a parking space, and the acquisition module is used for acquiring information of the vehicle parked at the parking space. The beneficial effects of the utility model are that the structure is simple, the design is reasonable, real-time monitoring of roadside parking spaces in a community can be realized, orderly parking can be realized, the collected parking fees can be automatically calculated, the efficiency is high, and time and labor are saved.

An image capturing device includes a base, a light sensing element, an image capturing lens, and multiple light sources. The light sensing element is disposed on the base. The image capturing lens is disposed above the light sensing element. The light sources are disposed on the base and arranged beside the image capturing lens. Each of the light sources emits a light beam. A chief ray direction of the light beam has a horizontal component and a vertical component. The horizontal component and the vertical component are both greater than zero.

A vehicular camera includes a first shield made of metal and disposed to surround a circuit board. The first shield includes a first bottom surface portion, a second bottom surface portion disposed to be separated from the first bottom surface portion, and a connection portion connecting an entire periphery of the first bottom surface portion and an entire periphery of the second bottom surface portion. At least a first side surface portion, a second side surface portion, a third side surface portion, and a fourth side surface portion of the first shield are formed by a contiguously curved surface, and at least the first side surface portion, the second side surface portion, the third side surface portion, the fourth side surface portion, the first bottom surface portion, the connection portion, and the second bottom surface portion are formed by a contiguously curved surface.

The present embodiment relates to a light-emitting module comprising: a substrate; a light source which is arranged on the substrate and emits laser light; a holder arranged on the substrate; a diffuser lens arranged in the holder and over the light source; and a diffuser ring for supporting the diffuser lens, wherein the diffuser lens comprises a plurality of microlenses, and the holder comprises an opening formed above the diffuser lens and a stopping protrusion for inhibiting the diffuser lens from being separated through the opening.

A technique for using an onboard camera capable of day and night operation on an unmanned aerial vehicle (UAV) includes: traveling along a route of the UAV at night; and acquiring an aerial image with an onboard camera. The onboard camera includes: a sensor device for receiving photons and converting the photons into photoelectrons; a processor for processing the photoelectrons into an image file; a lens positioned adjacent to the sensor device for focusing the photons on the sensor device; and a filter positioned adjacent an outer surface of the lens. The filter can permit photons in the infrared light spectrum to pass to the lens, and attenuate at least a portion of the photons in the visible light spectrum prior to reaching the lens.

An autofocus control method and an imaging device are provided. [Solution] The method includes collecting an image of a subject, and if the image includes a face area, determining a first target focus adjustment evaluation area, and if the image includes a face area, determining a target provisional area in the first target focus adjustment evaluation area and a second target focus adjustment evaluation area excluding the target provisional area, wherein the target provisional area includes at least one of an eye area, an eyeglass area, and a teeth area, adjusting a focus lens position and collecting an image after the adjustment, obtaining a contrast value at each focus lens position in the second target focus adjustment evaluation area, calculating a corresponding focus adjustment evaluation value for the first target focus adjustment evaluation area based on at least the contrast value of the second target focus adjustment evaluation area, determining a target focus position based on the focus adjustment evaluation value, and adjusting the position of the focus lens to the target focus position.

Folded cameras and dual folded-upright cameras that reduce a mobile electronic device and specifically a smartphone bump footprint and height. In some examples, the bump footprint is reduced by reducing the height of a back focal plane section of the folded camera. In some examples, the bump footprint is reduced by reducing the height of a back focal plane section and a lens subsection of the folded camera.