35results about How to "Realize scanning imaging" patented technology

The invention provides an ultrasonic scanning imaging device for the inner wall of a borehole, which includes an external unit, a guide pipe body and a scanning unit; the external unit includes a numerical control module and a wind speed control device; the numerical control module is connected to the scanning unit, and the wind speed control device is provided with a blower. The cylinder is connected with the wind speed control device and the guide pipe body; a magnetic traction line is set between the numerical control module and the scanning unit; The motor shaft of the motor is connected with a transmission shaft, and the transmission shaft is connected with the ultrasonic range finder; the ultrasonic range finder is provided with an ultrasonic probe. In addition, the present invention also provides a scanning imaging method of the above-mentioned ultrasonic scanning imaging device for the inner wall of the borehole. The device of the present invention can realize the three-dimensional scanning imaging of the inner wall of the borehole, obtain the three-dimensional scanning image of the entire borehole, and realize the detection of the collapsed hole position of the borehole.

The invention provides a file information dynamic acquisition system based on scanning imaging. The file information dynamic acquisition system comprises a workbench, a differential paging mechanism,a first conveying roller set, a second conveying roller set, an imaging device, a plurality of correlation photoelectric sensors and a pair of light sources. A first conveying roller set and a secondconveying roller set are arranged at the tail end of the differential paging mechanism. wherein the first conveying roller set and the second conveying roller set synchronously operate and move in opposite directions, the second conveying roller set is arranged discontinuously, an imaging device is arranged on the side face of the discontinuity of the second conveying roller set, and a lens of theimaging device directly faces the center of the discontinuity of the second conveying roller set. The differential paging mechanism disclosed by the invention can automatically complete file adsorption, differential paging and clamping conveying, can automatically detect whether a file is in place or not and timely send out a working instruction to the imaging device, the imaging device scans thefile through the intermittent position of the second conveying roller set, the light source can achieve the light supplementing effect, and the scanning imaging quality of the imaging device is improved.

The invention provides a mobile magnetic resonance system. The mobile magnetic resonance system comprises a scanning mechanism, a conjoined cabinet, a mobile chassis and a sickbed mechanism. The scanning mechanism and the conjoined cabinet are arranged on the mobile chassis. The conjoined cabinet is connected with the scanning mechanism. The scanning mechanism is provided with a cavity structure, and a first opening penetrating through the cavity structure is arranged on the side wall of the scanning mechanism. The sickbed mechanism can slide relative to the scanning mechanism and the conjoined cabinet. According to the present invention, the movable chassis drives the scanning mechanism and the conjoined cabinet to integrally move on the ground or a working surface, so that the magnetic resonance system integrally moves to a first preset position, such as the bedside of a patient for magnetic resonance examination. The magnetic resonance system can easily and freely move by setting the movable chassis, thereby improving flexibility of the magnetic resonance system in used space, so that the magnetic resonance system can move to a position where a subject to be tested is located.

The invention discloses a grating imaging system, wherein the system includes: a source grating (G0), which is used to convert incoherent light emitted by a light source into coherent light; a first grating (G1) formed by splicing a plurality of first grating units , used to obtain the first imaging after the coherent light passes through the first grating (G1); and a second grating (G2) formed by splicing a plurality of second grating units, used to operate the first imaging to obtain the second imaging; wherein , the imaging irradiation position is set between the first grating (G1) and the second grating (G2), and the source grating (G0), the first grating (G1) and the second grating (G2) form an optical path to form a system. While maintaining good image quality, the overall scanning time is reduced to a level close to that of clinical X-ray chest films, and the radiation dose is well controlled; in general, the large-field raster imaging system has a large imaging field of view. , fast scanning speed, low radiation dose and other advantages and characteristics.

The invention discloses a transparent medium ball fixed microscopic device used for liquid separation and a method thereof. The transparent medium ball fixed microscopic device used for liquid separation comprises an internal sleeve which is connected at the external side of a microscope object lens and can be upwardly and downwardly adjusted along the microscope object lens. The external part of the internal sleeve is also connected with an external sleeve, and forward-and-backward and leftward-and-rightward position adjustment of the external sleeve can be performed along the internal sleeve. A circular sheet is fixed on the bottom part of the external sleeve. A transparent medium ball is embedded in the circular sheet. The internal sleeve, the external sleeve and the circular sheet forms a liquid accommodating space together through enclosing. Preset liquid is injected in the liquid accommodating space. The preset liquid is used for increasing the focal length of the transparent medium ball so as to enhance the magnifying power of the microscope object lens.

The invention discloses a scanning type metal surface imaging and component analyzing device. The scanning type metal surface imaging and component analyzing device comprises an X-ray tube (1), an X fluorescent probe (2), a collimator (3), a position sensitive type photomultiplier (4), a detector packaging sleeve (5), a high-pressure control system (6), an amplifier (7), a signal reading-out system (8), a data processing system (9), a computer control and data display system (10), a stepping motor control system (11), a remote logging-in system (12), a laser distance meter (13), a stepping motor (14), a sample platform (15) and a shielding protection body (16). According to the scanning type metal surface imaging and component analyzing device, X rays are generated by using the X-ray tube and characteristic X rays are generated by a reaction between the X rays and nuclide inner shell layer electrons on a metal surface; and a sensor is used for collecting space and energy information of the characteristic X rays and carrying out component analysis and imaging on the metal surface. The scanning type metal surface imaging and component analyzing device is not influenced by varieties of metal plating layers and can simultaneously realize metal surface imaging and element component analysis.

The invention discloses an eddy current radar defect detection, quantification and imaging method and system. The system uses excitation signals of different modes such as pulse, sine, frequency modulation, and modulation to drive the eddy current sensor, and induce eddy current in the detected object. The output signal of the eddy current sensor is used as the time domain response signal, and the time domain response signal of the defect-free area is used as the reference signal. The cross-correlation algorithm is implemented on the time-domain response signal and the reference signal to obtain the cross-correlation amplitude and phase. Extract the eigenvalues ​​from the cross-correlation amplitude and phase for defect detection; establish the quantitative correspondence between the eigenvalues ​​and the depth through the standard specimen test, and realize the quantification of the defect depth; display the cross-correlation amplitude of each detection point on the scanning path value and phase for B-scan imaging; with the help of a scanning mechanism to detect a certain area, use eigenvalues ​​for C-scan imaging. The method and system have the advantages of high signal-to-noise ratio, accurate depth quantification, good anti-interference performance and the like, and can be applied in the field of non-destructive testing.