Detailed Photos
Product Description
Name |
Technical indicators |
Small mode scanning thickness range (mm) |
5~90 |
Small mode scanning thickness accuracy (mm) |
5~50 |
±1 |
50~60 |
±2 |
60~75 |
±3 |
75~90 |
±4 |
Large mode scanning thickness range (mm) |
5~160 |
Large mode scanning thickness accuracy (mm) |
5~50 |
±1 |
50~60 |
±2 |
60~85 |
±3 |
85~160 |
±4 |
Performance characteristics
True scanning, non-fitting, image display on site after scanning.
The composite sensor scans the steel bars from multiple dimensions, greatly improving the resolution and stability of the steel bars, and has obtained a national patent.
The measurement results of grid-shaped steel bar components are better than those of traditional steel bar meters.
Solve the problem of traditional steel bar meters measuring dense bars at the bottom of beams.
In fast scanning mode, it can automatically identify the interference between steel bars and automatically correct the thickness of the protective layer.
In JGJ scanning mode, there are a variety of industry regulations and national regulations to choose from.
With self-calibration function, no manual reset is required.
With laser positioning function, friendly human-machine interface, touch screen and button dual control
Based on the standard
"Concrete Structure Design Code" (2015 Edition)-GB 50010-2010"
Concrete Structure Engineering Construction Quality Acceptance Code"-GB 50204-2015
"Building Structure Testing Technical Standard"-GB/T50344-2019
"Technical Code for Steel Bar Testing in Concrete"-GJ/T152-2019
"Technical Code for Electromagnetic Induction Method for Testing Steel Bar Protective Layer Thickness and Steel Bar Diameter"-DB11/T365-2016
"Concrete Structure On-site Testing Technical Standard"-GBT/50784-2013
"Standard for Calibration of Steel Bar Protective Layer Thickness Measuring Instrument and Floor Slab Thickness Measuring Instrument"-JF1224-2009
Application areas
Detection of the location, distribution and direction of steel bars, thickness of protective layer and diameter of steel bars in concrete structures such as bridges, tunnels and walls.
Detection of the direction and distribution of ferromagnetic and conductive bodies (such as wires and pipelines) in non-ferromagnetic media.
Detection of the distribution and direction of cables, water and heating pipes in floors or walls.
Company Profile
Resound Photoelectric Technology Research Institute (LSRPTR)
Resound Photoelectric Technology Research Institute (LSRPTR), also known as Resound Research Institute, is affiliated with China Haiheng International Trade Group Co., Ltd. (CHHGC). As an investment attraction enterprise in Zhongyuan Science and Technology City and a construction unit of the Zhongyuan Aurora Laboratory, the institute is committed to the industrialization of scientific and technological achievements, guided by market demand.
Technical Cooperation
Resound Research Institute has established technical cooperation with numerous well-known domestic and foreign universities, research institutes, and enterprise platforms, including:
Tsinghua University
Lanzhou University
Zhengzhou University
Altai State Technical University of Russia
Northwestern Polytechnical University
Chinese Academy of Engineering
Henan Academy of Sciences
China Electronics Technology Group
CGN Group
Xiamen University
Henan University
National University
University of Electronic Science and Technology of China
Chinese Academy of Sciences
China Academy of Engineering Physics
China Shipbuilding Group
China Electronics Group
Henan Inspection Group
Research and Development Fields
* Applications of Micro-Electromechanical and Lithography Technology
* Optoelectronics and Spectroscopy Technology
* High-Power Laser and Device Preparation Technology
* Nuclear Instrument and Emergency Equipment System Applications
Introducing Advanced Technologies and Products
Resound Research Institute continuously introduces advanced new technologies and products in industrial application scenarios such as market supervision, public safety, environmental monitoring, and science, education, research, and production. This has led to the formation of a domestically produced high-end scientific equipment industry base that integrates design, research and
development, production, sales, and services. This base drives the iteration of downstream industry technology, enhances the transformation and industrialization level of scientific and technological achievements, and provides technological sources for innovative development.