Description:
CCLD SEISMIC ACCELEROMETER WITH TOP CONNECTOR
Seismic Accelerometer designed with high sensitivity and ideal for large structures (at very low frequencies), measuring low-level seismic activity.
https://www.bksv.com/en/transducers/vibration/accelerometers/ccld-iepe/8340
Specification:
Freq. range 0.1 – 1500 Hz
Temperature -51 – 74 ℃
Weight 775 gram
Sensitivity 1 mV/ms^-2
Residual Noise Level in Spec Freq Range (rms) ±25 µg
Maximum Operational Level (peak) 0.5 g
Connector 2-pin MIL-C
Mounting Screw
Clip/Stud/Screw included 1/4”-28 Stud
Output CCLD
Unigain No
Triaxial No
TEDS No
Applications Seismic
Unit mV
Resonance frequency 7 kHz
Maximum Shock Level (± peak) 100 g
Property/Location:
Property/ Location: University of Zilina, Faculty of Civil Engineering, Department of Structural Mechanics and Applied Mathematics, AE220, Slovakia
Description:
The wheeled robot will be used for automated inspection to provide an overall solution for inspecting and monitoring confined spaces, such as box girder bridges and water distribution systems.
Specification:
Technical requirements of the prototype are:
Property/Location:
University of Cassino and Southern Lazio
Description:
The tracked robot will be used for automated inspection to provide an overall solution for inspecting and monitoring outdoor and indoor environment with capability in overpassing obstacles.
Specification:
Technical requirements of the prototype are:
Property/Location:
University of Cassino and Southern Lazio
Description:
The cable-driven robot will be used for automated inspection to provide an overall solution for inspecting and monitoring the lower side of bridges’ desks.
Specification:
Technical requirements of the prototype are:
Property/Location:
University of Cassino and Southern Lazio
Description:
The underwater rover will be used for automated inspection to provide an overall solution for inspecting and monitoring the underwater structures.
Specification:
Technical requirements of the prototype are:
Property/Location:
University of Cassino and Southern Lazio
Description:
The Matrice 300 RTK is DJI’s latest commercial drone platform, inspired by state-of-the-art flight systems. With up to 55 minutes of flight time, advanced AI features, omnidirectional detection and positioning system and much more, the M300 RTK sets completely new standards by combining intelligent features, high performance and unmatched reliability.
Specification:
Dimensions:
Unfolded, propellers excluded, 810×670×430 mm (L×W×H)
Folded, propellers included, 430×420×430 mm (L×W×H)
Property/Location:
Military University of Technology, Warsaw, Laboratory of Avionics
Description:
Charging station for charging 8 batteries simultaneously
Specification:
Property/Location:
Military University of Technology, Warsaw, Laboratory of Avionics
Description:
The high-capacity, hot-swappable TB60 Intelligent Flight Battery lets operators change batteries without powering off, saving time during critical missions.
Specification:
Property/Location:
Military University of Technology, Warsaw, Laboratory of Avionics
Description:
Station and transmitting antenna to enable RTK feature without RTK external service provider.
Specification:
Specification:
GNSS RECEIVER
GNSS Frequency:
Simultaneous reception：
GPS: L1 C/A, L2, L5
BEIDOU: B1, B2, B3
GLONASS: F1, F2
Galileo: E1, E5A, E5B
Positioning accuracy: Single point:
Horizontal：1.5m(RMS)
Vertical：3.0m(RMS)
RTK
Horizontal：1cm+1ppm(RMS)
Vertical：2cm+1ppm(RMS)
1 ppm means 1mm less accuracy for each km of distance from the device.
Positioning frequency: 1 Hz, 2 Hz, 5 Hz, 10 Hz and 20 Hz
Cold start: < 45 sec.
Hot start: < 10 sec.
Recovery time: < 1 sec.
Initialization Accuracy: > 99.9%
Data format: RTCM 2.X/3.X
GENERAL CHARACTERISTICS
Dimensions (D-RTK 2 headband base): 168 x 168 x 1708 mm
Degree of protection: IP65
Property/Location:
Military University of Technology, Warsaw, Laboratory of Avionics
Description:
The Zenmuse L1 integrates a Livox Lidar module, a high-accuracy IMU, and a camera with a 1-inch CMOS on a 3-axis stabilized gimbal. When used with Matrice 300 RTK and DJI Terra, the L1 forms a complete solution that gives you real-time 3D data throughout the day, efficiently capturing the details of complex structures and delivering highly accurate reconstructed models.
Specification:
Dimensions 152×110×169 mm
Weight 930±10g
Normal power: 30W, maximum power: 60W
IP54 water/dust protection
Operating Temperature -20° to 50°C (0° to 50°C when using an RGB camera)
Storage temperature -20° to 60°C
450 m detection range with 80% reflectivity, 0 kilolumens;
450 m detection range with 80% reflectivity, 0 kilolumens;
190 m with 10% reflectivity, 100 kilolumens
Dot Density
Single reflection: 240,000 pt/s;
Multiple reflections: 480,000 pt/s
System Accuracy Horizontal: 10 cm at 50 m;
Vertical: 5 cm at 50 m high
Real-time dot coloring Real-time color; after the reflection coefficient; by height
RGB SENSOR
Sensor size 1 inch
20 MP effective pixels
Photo size 5472×3078 (16:9); 4864×3648 (4:3); 5472×3648 (3:2)
Focal Length 8.8mm / 24mm (Equivalent)
Shutter speed Mechanical: 1/2000 – 8 sec
Electronic: 1/8000 – 8 sec
ISO Video: 100 – 3200 (Auto), 100 – 6400 (Manual)
Photo: 100 – 3200 (Auto), 100 – 12800 (Manual)
Aperture f/2.8 – f/11
FAT file system supported (≤32GB); exFAT (>32GB)
Photo JPEG format
Video format MOV, MP4
Video resolution H.264, 4K: 3840×2160 30p
Property/Location:
Military University of Technology, Warsaw, Laboratory of Avionics
Description:
DJI Terra is a PC application software that mainly relies on 2D orthophotos and 3D model reconstruction, with functions such as 2D multispectral reconstruction, LiDAR point cloud processing, and detailed inspection missions. It is a one-stop solution that delivers unparalleled efficiency to industry users, with comprehensive reconstruction models catering to verticals such as land mapping, power transmission, emergency services, construction, transportation, and agriculture.
Specification:
3D models:
Scale 400 photos/1GB
Efficiency 30000 photos/3days
Accuracy Centimeter – level
2D Maps:
Scale 400 photos/1GB
Efficiency 5000 photos/3days
Accuracy Centimeter – level
LiDARProcess point cloud data captured by the Zenmuse L1, calculate POS data, fuse point cloud and visible light data, export point clouds in standardized formats, and generate fieldwork reports.
Property/Location:
Military University of Technology, Warsaw, Laboratory of Avionics
Description:
SHM-Board v2 is a highly versatile and high-performance device for real-time SHM of private and public buildings and infrastructures, able to promptly intervene in order to avoid or limit structural-related risks and direct or indirect consequences for people or things.
The board is an evolution of a device designed and used by WEST Aquila S.r.l. (Wireless Embedded Systems Technologies L’Aquila) which was born as a start-up company at the University of L’Aquila (Italy) in December 2004.
Specification:
Specification:
SHM-Board v2 is based on an ultra-low-power micro-controller (MCU) of the STM32F4 family, produced by ST Microelectronic, which offers numerous communication and high-performance interfaces: through its 12-bit ADC, it is connected to a low-noise MEMS accelerometer (Kionix KXRB5-2050), mounted directly on the board, that is always active and acts as a sentinel in the event of accelerations detected above a certain threshold.
From the point of view of communications, SHM-Board v2 has an Ethernet interface (from which it can be powered via PoE) and other interfaces to connect more peripherals. The board also provides the capability to communicate wirelessly (RF) with other nodes of the monitoring network through W-MBUS protocol at 169 MHz or 868 MHZ that allows communication over long distances and is much less exposed to obstacle attenuation. A NB-IoT expansion module is under development.
External low-noise MEMS accelerometers can also be used. SHM-Board v2 is equipped with 4-channels 24-bit ADC able of sampling at 100Hz and on-board data processing in order to minimize the total amount of data to be transmitted. T
SHM Board provides the possibility of acquiring signals from two other types of measuring instruments, inclinometers and crackmeters, both of which are widely used in the field of structural health monitoring (especially after seismic events that caused serious damages to the buildings). The temperature sensor, integrated in the instrument, allows to evaluate the thermal effect on the structure and on the sensor thus allowing to distinguish seasonal variations from real inclinations.
Property/Location:
SAPIENZA University of Rome, Laboratory of Material and Structures
