Vehicle Data & Measurement
Convert supported BLF bus records into ASC or a defined CSV layout for another engineering tool. Check record counts, timestamps, channels, identifiers, and payloads, and document records or metadata that the target format cannot preserve.
Discuss a BLF ProjectProblems I can investigate
Large BLF recordings can make interactive inspection and repeated manual processing impractical. Conversion can create a more workable representation for focused analysis.
Irregular symptoms require evidence across recordings and logs. Converting and decoding relevant BLF data helps align timestamps, signals, and observed behavior for anomaly investigation.
Repeated preparation and interpretation steps consume engineering time. A repeatable conversion workflow can support batch processing and consistent analysis across recordings.
What I can help with
Agree whether the target needs raw frames or decoded signal rows, select supported BLF record types, and map them to ASC or a defined CSV schema. Report unsupported records and metadata instead of implying lossless conversion.
Process recorded CAN and CAN-FD communication while preserving the timing and message information needed for further analysis.
Use a supplied DBC to interpret CAN messages and signals, producing decoded results with notes on the available engineering context.
Structure conversion for repeatable inspection, signal correlation, batch processing, or follow-up work in CANalyzer and CANoe where those environments are part of the workflow.
What to send
The Vector binary log containing timestamped bus communication to convert or inspect.
The CAN database used to interpret messages, signals, scaling, and related metadata.
Observed symptoms, context, reproduction steps, and expected behavior to focus the conversion and analysis.
How the analysis works
Confirm the BLF scope, the engineering question, relevant recordings, and the expected form of the converted data.
Read the recording structure and focus processing on the CAN or CAN-FD communication relevant to the stated problem.
Apply the supplied DBC where applicable and distinguish decoded signals from records that lack corresponding database information.
Compare source and output record counts, time ranges, channel identifiers, frame flags, and selected payloads. Check target-tool import and document timestamp precision changes or omitted records.
Capture engineering findings, interpretation notes, and the processing approach so the work can support subsequent recordings or batch processing.
What you receive
A documented technical analysis with evidence, findings, and interpretation notes from the converted recording.
Decoded CAN frames and signals with relevant timestamp context and notes on the available DBC coverage.
A repeatable utility that transforms BLF data into an agreed usable representation for subsequent engineering analysis.
Technologies & formats
A Vector binary container for timestamped bus communication.
A priority-based broadcast bus used for in-vehicle control communication.
A Vector environment for recording and analyzing vehicle-network communication.
A development, simulation, test, and analysis environment for vehicle networks.
An extension of CAN with larger payloads and a faster data phase.
A text format describing CAN messages, signals, nodes, scaling, and metadata.
A higher-layer vehicle network protocol suite using CAN, common in heavy vehicles.
A segmented transport protocol for messages carried over CAN.
A Python library providing a common API for CAN interfaces and messages.
A human-readable Vector format for timestamped bus events.
ISO 14229 diagnostic services for communicating with vehicle ECUs.
Vector event-driven language for network simulation, testing, and automation.
FAQ
Discuss the evidence
Send a BLF recording, the matching DBC, and a short problem description to discuss the required conversion and analysis scope.