-
1.
公开(公告)号:US20240068951A1
公开(公告)日:2024-02-29
申请号:US17765215
申请日:2021-08-09
Applicant: SHANDONG UNIVERSITY
Inventor: Zhengfang WANG , Jing WANG , Wenqiang KANG , Hanchi LIU , Yuzhuang WAN , Qingmei SUI
CPC classification number: G01N21/8851 , B25J11/00 , G01N15/08 , G01N29/043 , G01N29/265 , G01N29/4454 , G01S13/89 , G01S17/89 , G01N2291/0232 , G01N2291/0289 , G01N2291/2698
Abstract: A wall-climbing robot system and method for rapid nondestructive inspection of hidden defects in culverts and sluices. The system includes: a robot vehicle body; navigation positioning system and moving system, both mounted on the robot vehicle body; automatic knock inspection system, mounted at the vehicle body front end; mobile ultrasonic rapid inspection system and corrosion inspection system, dual-power system, formed by a non-contact negative pressure adsorption apparatus and rotor booster apparatuses, the non-contact negative pressure adsorption apparatus mounted on the vehicle body bottom, the rotor booster apparatuses mounted on two sides of the vehicle body; and a master controller, communicating with the navigation positioning system, moving system, automatic knock inspection system, mobile ultrasonic rapid inspection system, corrosion inspection system, and dual-power system. The system recognizes positions and categories of internal defects from ultrasonic data and perform concrete permittivity inversion and disease recognition on arbitrary length-continuous survey line ground-penetrating radar data.
-
公开(公告)号:US20230011911A1
公开(公告)日:2023-01-12
申请号:US17779550
申请日:2020-11-06
Applicant: SHANDONG UNIVERSITY
Inventor: Jing WANG , Zhengfang WANG , Peng JIANG , Kefu CHEN , Yanfei YU , Wei GUO , Qingmei SUI
IPC: B29C64/393 , G01S17/89 , B25J11/00 , B25J9/16 , B33Y30/00 , B33Y50/02 , B29C64/236 , B29C73/02 , B29C73/24
Abstract: A surface disease repair system and method for an infrastructure based on climbing robots are provided. The system includes a detection and marking climbing robot and a repair climbing robot. In the process of moving on a surface of an infrastructure to be detected, the detection and marking climbing robot collects a front surface image in real time through a binocular camera arranged at a front end, detects a disease on the basis of the front surface image, and performs localization and map reconstruction at the same time; when a disease is detected, the position of the disease is recorded, and a marking device is controlled to mark the disease; after detection and marking are completed, the position of the disease and the map are sent to the repair climbing robot; and the repair climbing robot receives the map and the position of the disease, reaches the position of the disease, and repairs the disease according to the mark by using a repair device.
-
3.
公开(公告)号:US20240240974A1
公开(公告)日:2024-07-18
申请号:US18487278
申请日:2023-10-16
Applicant: SHANDONG UNIVERSITY
Inventor: Zhengfang WANG , Jing WANG , Qingmei SUI , Lei JIA
IPC: G01D5/38
CPC classification number: G01D5/38
Abstract: A self-correcting assemblable optical fiber sensing system for a displacement field and a correction method thereof are provided. The system includes multiple assemblable flexible optical fiber sensing devices for measuring displacement field; multiple inclination angle self-sensing connection devices for connecting between assemblable flexible optical fiber sensing devices, and an optical fiber demodulation device for obtaining strain data of the assemblable flexible optical fiber sensing devices and two-axis inclination angle data of the inclination angle self-sensing connection devices, and correcting the displacement field measured by the assemblable flexible optical fiber sensing devices. The assemblable flexible optical fiber sensing devices are connected between the inclination angle self-sensing connection devices, and the optical fiber demodulation device is connected to a free end of the inclination angle self-sensing connection device. In this situation, two-dimensional displacement field monitoring of the large-scale structure can be realized.
-
4.
公开(公告)号:US20210389257A1
公开(公告)日:2021-12-16
申请号:US17289280
申请日:2020-09-30
Applicant: SHANDONG UNIVERSITY
Inventor: Bin LIU , Zhengfang WANG , Peng JIANG , Wenqiang KANG , Hanchi LIU , Jiaqi ZHANG , Qingmei SUI
IPC: G01N21/954 , G01N22/02 , G01N23/203 , G01N23/20008 , F16L55/40 , G01N21/88 , G06N20/00
Abstract: A multi-arm robot used for tunnel lining inspection and defect diagnosis in an operation period, including a moving platform, where an environment detection device and a defect infection device are disposed on the moving platform, the defect infection device is disposed on the moving platform by using a multi-degree-of-freedom mechanical arm, and an attitude detection module is disposed on each multi-degree-of-freedom mechanical arm; a controller receives environmental data and mechanical arm attitude data sensed by the environment detection device and the attitude detection module, and sends a control instruction to the moving platform and the multi-degree-of-freedom mechanical arm according to the environmental data, to implement movement of the robot; and the controller receives tunnel lining structural data sensed by the defect infection device, and performs defect diagnosis. Overall automatic inspection can be implemented both on the surface and inside of the tunnel lining.
-
公开(公告)号:US20190016065A1
公开(公告)日:2019-01-17
申请号:US16066146
申请日:2017-09-28
Applicant: SHANDONG UNIVERSITY , CHANGCHUN INSTITUTE OF APPLIED CHEMISTRY, CHINESE ACADEMY OF SCIENCES , JILIN CORE LOGISTICS AND COATING EQUIPMENT CO., LTD. , SHANDONG GELNNT ENVIRONMENTAL TECHONOLOGY CO., LTD.
Inventor: Yuxi JIA , Yunli GUO , Lijia AN , Weiguo YAO , Linlin GAO , Qinglin WANG , Mingshun JIANG , Haiqing WANG , Jieying ZHI , Yaru ZHAO , Qingmei SUI
CPC classification number: B29C70/34 , B29C70/443 , B29C70/54 , B29C70/88 , B32B2260/023 , B32B2260/046 , B32B2262/101 , G01D5/35316 , G01D21/02 , G01K11/32 , G01K11/3206 , G01L1/246 , G02B6/02057
Abstract: A composite material packaged fiber grating sensor and a manufacturing method thereof. The sensor includes a fiber grating sensor component, a composite material coverage layer, a resin package layer and a composite material substrate layer. In the sensor, a temperature fiber grating and a strain fiber grating are packaged in a composite material structure, so that the structure is light and simple, its computability with the composite material is good, the measurement accuracy is high, and the survival rate and the service life of the installed sensor can be greatly improved, the sensor component can be externally pasted on to or inter-implanted in a composite material structural part, and can be applied to the distributed online health monitoring on the structural part. The manufacturing method of the composite material packaged fiber grating sensor is simple, efficient and stable, and is suitable for rapid mass production by enterprises.
-
-
-
-