Apogee-A High-performance orientation and heave data solution
Apogee-A belongs to Apogee series line of high performance, MEMS based Inertial Systems which deliver exceptional orientation data in a compact package.
It includes an Inertial Measurement Unit (IMU) and runs exclusive Extended Kalman Filter (EKF) algorithms.
Discover all Apogee-A features and applications.
Apogee-A specifications
Motion & navigation performance
0.01 ° Heading
0.02 °
Navigation features
Single and dual GNSS antenna Real time heave accuracy
5 cm or 5 % Real time heave wave period
0 to 20 s Real time heave mode
Automatic adjustment Delayed heave accuracy
2 cm or 2 % Delayed heave wave period
0 to 40 s
Motion profiles
Car, automotive, train/railway, truck, two wheelers, heavy machinery, pedestrian, backpack, off road Air
Plane, helicopters, aircraft, UAV Marine
Surface vessels, underwater vehicles, marine survey, marine & harsh marine
Accelerometer performance
± 10 g Bias in-run instability
<7 μg Random walk
0.015 m/s/√h Bandwidth
100 Hz
Gyroscope performance
± 200 °/s Bias in-run instability
<0.05 °/hr Random walk
<0.012 °/√hr Bandwidth
100 Hz
Environmental specifications & operating range
IP-68 Operating temperature
-40 °C to 71 °C Vibrations
3 g RMS – 20 Hz to 2 kHz Shocks
500 g for 0.3 ms MTBF (computed)
50 000 hours Compliant with
MIL-STD-810, EN60945
Interfaces
GNSS heading, external magnetometer Output protocols
NMEA, Binary sbgECom, TSS, Simrad, Dolog Input protocols
NMEA, Trimble, Novatel, Septentrio, Hemisphere, DVL (PD0, PD6, Teledyne, Nortel) Datalogger
8 GB or 48 h @ 200 Hz Output rate
Up to 200Hz Ethernet
Full duplex (10/100 base-T), PTP master clock, NTP, web interface, FTP, REST API Serial ports
RS-232/422 up to 921kbps : 3 outputs / 5 inputs CAN
1x CAN 2.0 A/B, up to 1 Mbps Sync OUT
PPS, trigger up to 200 Hz – 2 outputs Sync IN
PPS, event marker up to 1 kHz – 5 inputs
Mechanical & electrical specifications
9 to 36 VDC Power consumption
3 W Weight (g)
<690 g Dimensions (LxWxH)
130 mm x 100 mm x 58 mm
Apogee-A applications
Apogee-A is a high-performance AHRS solution tailored for applications demanding precise orientation and heave data.
Advanced filtering and calibration techniques ensure Apogee-A resilience against vibrations, providing dependable data in dynamic environments.
Built with advanced MEMS technology, Apogee-A delivers reliable, real-time attitude and heading data in challenging conditions, making it ideal for industries where accuracy and robustness are essential.
Discover all Apogee-A applications.
Compare Apogee-A with other products
Discover how Apogee-A stands out against our cutting-edge inertial sensors, expertly designed for navigation, motion tracking, and precise heave sensing.
Apogee-A |
Ellipse Micro AHRS |
Ellipse-A |
Ekinox-A |
|
---|---|---|---|---|
Roll/Pitch | Roll/Pitch 0.01 ° | Roll/Pitch 0.1 ° | Roll/Pitch 0.1 ° | Roll/Pitch 0.02 ° |
Heading | Heading 0.02 ° | Heading 0.8 ° Magnetic | Heading 0.8° Magnetic | Heading 0.03 ° |
OUT protocols | OUT protocols NMEA, Binary sbgECom, TSS, Simrad, Dolog | OUT protocols NMEA, Binary sbgECom, TSS, KVH, Dolog | OUT protocols NMEA, Binary sbgECom, TSS, KVH, Dolog | OUT protocols NMEA, Binary sbgECom, TSS, Simrad, Dolog |
IN protocols | IN protocols NMEA, Trimble, Novatel, Septentrio, Hemisphere, DVL (PD0, PD6, Teledyne, Nortel) | IN protocols – | IN protocols – | IN protocols NMEA, Binary sbgECom, Trimble, Novatel, Septentrio, Hemisphere |
Weight (g) | Weight (g) < 690 g | Weight (g) 10 g | Weight (g) 45 g | Weight (g) 400 g |
Dimensions (LxWxH) | Dimensions (LxWxH) 130 mm x 100 mm x 58 mm | Dimensions (LxWxH) 26.8 mm x 18.8 mm x 9.5 mm | Dimensions (LxWxH) 46 mm x 45 mm x 24 mm | Dimensions (LxWxH) 100 mm x 86 mm x 58 mm |
Apogee-A compatibility
sbgCenter
sbgCenter
Apogee-A documentation & resources
Apogee-A comes with comprehensive documentation, designed to support users at every step.
From installation guides to advanced configuration and troubleshooting, our clear and detailed online documentation ensure smooth integration and operation.
Discover the advanced capabilities of Apogee-A and learn more by downloading the product leaflet below.
Apogee-A documentationThis page contains everything you need in your Apogee-A hardware integration.
Apogee-A important noticesThis page contains everything you need about Apogee-A Safety instructions, RoHS statement, REACH statement, WEEE statement & Warranty, liability and return procedure.
Apogee-A firmware update procedureStay up-to-date with the latest enhancements and features of Apogee-A by following our comprehensive firmware update procedure. Click the link below to access detailed instructions and ensure your system operates at peak performance.
Apogee-A production process
Discover the know-how and expertise behind each SBG Systems products. This following video offers an inside look at how we meticulously design, manufacture, and test our high-performance inertial navigation systems.
From advanced engineering to rigorous quality control, our production process ensures that each product meets the highest standards of reliability and accuracy.
Watch now to learn more!
Ask for a quotation: Apogee-A
Apogee-A FAQ section
Welcome to our FAQ section, where we address your most pressing questions about our cutting-edge technology and its applications.
Here, you’ll find comprehensive answers regarding product features, installation processes, troubleshooting tips, and best practices to maximize your experience with Apogee-A.
Whether you’re a new user seeking guidance or an experienced professional looking for advanced insights, our FAQs are designed to provide the information you need.
Find Your Answers Here !
What is an Offshore Support Vessel?
An Offshore Support Vessel, or OSV, support offshore oil and gas exploration, production and various maritime operations.
OSVs transport supplies, equipment, and personnel to and from offshore platforms, conduct maintenance, and assist with underwater operations. They are essential for maintaining the efficiency and safety of offshore projects.
What are wave measurement sensors?
Wave measurement sensors are essential tools for understanding ocean dynamics and improving safety and efficiency in marine operations. By providing accurate and timely data on wave conditions, they help inform decisions across various sectors, from shipping and navigation to environmental conservation.
Wave buoys are floating devices equipped with sensors to measure wave parameters such as height, period, and direction.
They typically use accelerometers or gyroscopes to detect wave motion and can transmit real-time data to shore-based facilities for analysis.
What is AHC in offshore cranes?
Active Heave Compensation (AHC) in cranes is a technology used to counteract a vessel’s vertical motion caused by waves. It ensures that loads lifted or lowered by the crane remain stable and unaffected by the sea’s movement.
AHC systems are particularly critical in offshore operations, where cranes are often used to lift and lower heavy equipment, cargo, or subsea devices from vessels or platforms in dynamic sea conditions. These systems use sensors (such as accelerometers, gyroscopes, or motion reference units) to measure the vessel’s heave (vertical movement) caused by wave action.
Based on this real-time data, the crane’s AHC system automatically adjusts the winch or hoisting mechanism to counteract the heave, ensuring that the load stays at a constant position relative to the seabed or a fixed reference point. Offshore cranes typically use hydraulic or electric systems to make these precise adjustments. The crane’s winch or hoist is rapidly adjusted to lift or lower the load in sync with the vessel’s motion, effectively “canceling out” the vertical motion caused by the waves.
By stabilizing the load during lifting or lowering operations, AHC minimizes the risk of accidents, load swinging, or equipment damage. It allows for safer, more precise operations, especially during the placement of subsea structures or when handling delicate equipment.
What is hydrographic surveying?
Hydrographic surveying is the process of measuring and mapping physical features of bodies of water, including oceans, rivers, lakes, and coastal areas. It involves collecting data related to the depth, shape, and contours of the seafloor (seafloor mapping), as well as the location of submerged objects, navigational hazards, and other underwater features (e.g. water trenches).
Hydrographic surveying is crucial for various applications, including navigation safety, coastal management and coastal survey, construction, and environmental monitoring.
Hydrographic surveying involves several key components, starting with bathymetry, which measures water depth and seafloor topography using sonar systems like single-beam or multi-beam echo sounders that send sound pulses to the seafloor and measure the echo’s return time.
Accurate positioning is critical, achieved using Global Navigation Satellite Systems (GNSS) and Inertial Navigation Systems (INS) to link depth measurements to precise geographic coordinates.
Additionally, water column data, such as temperature, salinity, and currents, are measured, and geophysical data is collected to detect underwater objects, obstacles, or hazards using tools like side-scan sonar and magnetometers.