HOW ABARs WORK
HOW ABARs WORK
HOW ABARs WORK
ABARs in action
Powered by automation, proprietary algorithms, and machine learning
Powered by automation, proprietary algorithms, and machine learning
Powered by automation, proprietary algorithms, and machine learning




Precise braking action data that keeps traffic moving
The ABARnet™ Runway Uptime Platform turns approved aircraft sensor data into real-time braking intelligence, validated by physics, the FAA, and Transport Canada.
This gives airports and airlines trustworthy feedback on actual tire-to-runway friction — whenever it changes and in any weather conditions.






PROCESS
Braking action reports, grounded in science
01: Capture data
01: Capture data
From touchdown to taxi, approved onboard sensors begin transmitting braking and performance data — directly and automatically — to ABARnet™ for immediate analysis.
From touchdown to taxi, approved onboard sensors begin transmitting braking and performance data — directly and automatically — to ABARnet™ for immediate analysis.




02: Calculate friction
02: Calculate friction
AST's performance models determine the wheel braking coefficient (actual friction) using validated deceleration physics, aircraft characteristics, and environment factors — all aligned to FAA-preferred and ASTM International-compliant standards.
AST's performance models determine the wheel braking coefficient (actual friction) using validated deceleration physics, aircraft characteristics, and environment factors — all aligned to FAA-preferred and ASTM International-compliant standards.




03: Distribute reports
03: Distribute reports
ABARnet delivers a real-time, science-based ABAR via the cloud to pilots, towers, ops centers, and airline systems — using standard, familiar terminology.
ABARnet delivers a real-time, science-based ABAR via the cloud to pilots, towers, ops centers, and airline systems — using standard, familiar terminology.








The physics of runway uptime
Our ABARs analyze real landing performance, not estimates, using approved onboard sensor data and a validated braking-physics model.
This reveals how the runway is actually performing with every touchdown.
Our ABARs analyze real landing performance, not estimates, using approved onboard sensor data and a validated braking-physics model.
This reveals how the runway is actually performing with every touchdown.
What we measure
Aerodynamic drag
Aerodynamic drag
Thrust reverser effect
Thrust reverser effect
Wheel braking force (tire-to-runway friction)
Wheel braking force (tire-to-runway friction)
Spoilers + lift dumpers (weight transfer to wheels)
Spoilers + lift dumpers (weight transfer to wheels)
Rolling resistance
Rolling resistance
Runway slope + environmental effects
Runway slope + environmental effects
All calculated dynamically during rollout.
All calculated dynamically during rollout.
Data sources
Brake and thrust system telemetry
Brake and thrust system telemetry
Flight control surfaces
Flight control surfaces
Mechanical performance data
Mechanical performance data
Speed, deceleration, and aircraft configuration
Speed, deceleration, and aircraft configuration
Weather and runway surface inputs
Weather and runway surface inputs
Objective data, not perception or guesswork.
Objective data, not perception or guesswork.
The final touch
ABARnet™ isolates the wheel brake coefficient — the true braking force at the tire-surface interface — and converts it into standard runway-condition terminology operators already use. All output can easily conform to existing reporting formats, such as RCAMs, FICONs, NOTAMs, etc.
The network also tracks component wear (tires, brakes, reversers), so stopping performance stays predictable over time.
When surface conditions shift, ABARs show when, where, and how much — so airports can act before runway uptime is compromised.
ABARnet™ isolates the wheel brake coefficient — the true braking force at the tire-surface interface — and converts it into standard runway-condition terminology operators already use. All output can easily conform to existing reporting formats, such as RCAMs, FICONs, NOTAMs, etc.
The network also tracks component wear (tires, brakes, reversers), so stopping performance stays predictable over time.
When surface conditions shift, ABARs show when, where, and how much — so airports can act before runway uptime is compromised.











*
AST's reporting network is self-learning, getting smarter with every new report.
23M+*
recorded landings, self-learning
7K+
more landings recorded each day
FAA
preferred tech
ANY
modern aircraft type supported






Real-time data, however you need it




Browser UI or API
Use AST through our browser-based interface for visual data insights, or integrate AST data into your existing systems via our free APIs — no extra dashboards needed.




Any format
Receive reports in any format — FICONs, RCAMs, NOTAMs, and more — to align with your existing standard operating procedures.




Upcoming features
New services are on the way, including Electronic Flight Bag (EFB) integration, friction forecasting, aircraft component wear monitoring, and contaminant level forecasting.
“At AST, we're focusing on both scientific rigor and ease of access. We have worked hard to ensure our ABARs are instantly available in whatever terminology our customers want and need.”
Joe Vickers
CEO, Aviation Safety Technologies

“At AST, we're focusing on both scientific rigor and ease of access. We have worked hard to ensure our ABARs are instantly available in whatever terminology our customers want and need.”
Joe Vickers
CEO, Aviation Safety Technologies

“At AST, we're focusing on both scientific rigor and ease of access. We have worked hard to ensure our ABARs are instantly available in whatever terminology our customers want and need.”
Joe Vickers
CEO, Aviation Safety Technologies

“At AST, we're focusing on both scientific rigor and ease of access. We have worked hard to ensure our ABARs are instantly available in whatever terminology our customers want and need.”
Joe Vickers
CEO, Aviation Safety Technologies


ABARnet™
Improve runway maintenance and uptime
ABARs: Use approved data directly from aircraft
Friction forecasts: A crystal ball into the future
Hard-brake landings: Identify runway hotspots
Available for any aircraft type - Boeing, Airbus. etc.
Achieves a level of accuracy that others do not
let's CONNECT
Get on board with precise reports

ABARnet™
Improve runway maintenance and uptime
ABARs: Use approved data directly from aircraft
Friction forecasts: A crystal ball into the future
Hard-brake landings: Identify runway hotspots
Available for any aircraft type - Boeing, Airbus. etc.
Achieves a level of accuracy that others do not
let's CONNECT
Get on board with precise reports

ABARnet™
Improve runway maintenance and uptime
ABARs: Use approved data directly from aircraft
Friction forecasts: A crystal ball into the future
Hard-brake landings: Identify runway hotspots
Available for any aircraft type - Boeing, Airbus. etc.
Achieves a level of accuracy that others do not
let's CONNECT
Get on board with precise reports

ABARnet™
Improve runway maintenance and uptime
ABARs: Use approved data directly from aircraft
Friction forecasts: A crystal ball into the future
Hard-brake landings: Identify runway hotspots
Available for any aircraft type - Boeing, Airbus. etc.
Achieves a level of accuracy that others do not
let's CONNECT
