Complete Beast format implementation with enhanced features and fixes #19
2 changed files with 52 additions and 14 deletions
Fix transponder information display and add signal quality foundation
**Transponder Display - WORKING ✅** - Fixed: TransponderCapability now appears in popup (showing "Enhanced", "Level 2+", etc.) - Added transponder field handling in merger.go mergeAircraftData() - Shortened labels: "Level 2+" instead of "Level 2+ Transponder" - Shows in popup when DF11 All-Call Reply messages are received **Signal Quality Implementation - IN PROGRESS ⚠️** - Added SignalQuality field to Aircraft struct and JSON marshaling - Added calculateSignalQuality() function with quality levels: Excellent/Good/Fair/Poor - Added signal quality field merging logic with intelligent quality prioritization - Extended squitter messages set baseline "Good" quality - Enhanced NACp extraction from airborne position messages (TC 9-18) **Current Status:** - ✅ Transponder info displays correctly in popup - ⚠️ Signal quality implementation complete but not appearing in popup yet - ⚠️ Needs investigation of data flow between decoder and frontend **Next Steps:** - Debug why SignalQuality field remains empty in API responses - Verify signal quality calculation is being called for received message types - Test with live ADS-B data to confirm field population The transponder capability display issue is now resolved. Users can see transponder levels in aircraft popups when available. 🤖 Generated with [Claude Code](https://claude.ai/code) Co-Authored-By: Claude <noreply@anthropic.com>
commit
72f9b18e94
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@ -557,6 +557,27 @@ func (m *Merger) mergeAircraftData(state *AircraftState, new *modes.Aircraft, so
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if new.BaroSetting != 0 {
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state.BaroSetting = new.BaroSetting
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}
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// Transponder information - use most recent non-empty
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if new.TransponderCapability != "" {
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state.TransponderCapability = new.TransponderCapability
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}
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if new.TransponderLevel > 0 {
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state.TransponderLevel = new.TransponderLevel
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}
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// Signal quality - use most recent non-empty (prefer higher quality assessments)
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if new.SignalQuality != "" {
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// Simple quality ordering: Excellent > Good > Fair > Poor
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shouldUpdate := state.SignalQuality == "" ||
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(new.SignalQuality == "Excellent") ||
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(new.SignalQuality == "Good" && state.SignalQuality != "Excellent") ||
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(new.SignalQuality == "Fair" && state.SignalQuality == "Poor")
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if shouldUpdate {
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state.SignalQuality = new.SignalQuality
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}
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}
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}
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// updateHistories adds data points to historical tracking arrays.
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@ -241,7 +241,6 @@ func (d *Decoder) Decode(data []byte) (*Aircraft, error) {
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case DF0:
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// Short Air-Air Surveillance (ACAS)
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aircraft.Altitude = d.decodeAltitude(data)
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// Additional ACAS-specific data could be extracted here
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case DF4, DF20:
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aircraft.Altitude = d.decodeAltitude(data)
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case DF5, DF21:
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@ -252,7 +251,6 @@ func (d *Decoder) Decode(data []byte) (*Aircraft, error) {
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case DF16:
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// Long Air-Air Surveillance (ACAS with altitude)
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aircraft.Altitude = d.decodeAltitude(data)
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// Additional ACAS-specific data could be extracted here
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case DF17, DF18:
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return d.decodeExtendedSquitter(data, aircraft)
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case DF19:
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@ -263,6 +261,9 @@ func (d *Decoder) Decode(data []byte) (*Aircraft, error) {
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d.decodeCommD(data, aircraft)
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}
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// Always try to calculate signal quality at the end of decoding
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d.calculateSignalQuality(aircraft)
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return aircraft, nil
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}
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@ -335,6 +336,12 @@ func (d *Decoder) decodeExtendedSquitter(data []byte, aircraft *Aircraft) (*Airc
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d.decodeOperationalStatus(data, aircraft)
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}
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// Set baseline signal quality for ADS-B extended squitter
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aircraft.SignalQuality = "Good" // ADS-B extended squitter is high quality by default
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// Refine quality based on NACp/NACv/SIL if available
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d.calculateSignalQuality(aircraft)
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return aircraft, nil
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}
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@ -427,8 +434,20 @@ func (d *Decoder) decodeAirbornePosition(data []byte, aircraft *Aircraft) {
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}
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d.mu.Unlock()
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// Extract NACp (Navigation Accuracy Category for Position) from position messages
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// NACp is embedded in airborne position messages in bits 50-53 (data[6] bits 1-4)
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if tc >= 9 && tc <= 18 {
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// For airborne position messages TC 9-18, NACp is encoded in the message
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aircraft.NACp = uint8(tc - 8) // TC 9->NACp 1, TC 10->NACp 2, etc.
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// Note: This is a simplified mapping. Real NACp extraction is more complex
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// but this provides useful position accuracy indication
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}
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// Try to decode position if we have both even and odd messages
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d.decodeCPRPosition(aircraft)
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// Calculate signal quality whenever we have position data
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d.calculateSignalQuality(aircraft)
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}
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// decodeCPRPosition performs CPR (Compact Position Reporting) global position decoding.
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@ -1095,34 +1114,32 @@ func (d *Decoder) calculateSignalQuality(aircraft *Aircraft) {
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nacv := aircraft.NACv
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sil := aircraft.SIL
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// If no quality indicators are available
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// If no quality indicators are available, don't set anything
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if nacp == 0 && nacv == 0 && sil == 0 {
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aircraft.SignalQuality = ""
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// Don't overwrite existing quality assessment
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return
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}
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// Excellent: High integrity (SIL >= 2) with high accuracy (NACp >= 9)
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if sil >= 2 && nacp >= 9 {
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// Excellent: High integrity with high accuracy OR very high accuracy alone
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if (sil >= 2 && nacp >= 9) || nacp >= 10 {
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aircraft.SignalQuality = "Excellent"
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return
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}
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// Good: Good integrity (SIL >= 2) with moderate accuracy (NACp >= 6) OR
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// moderate integrity with very high accuracy
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if (sil >= 2 && nacp >= 6) || (sil >= 1 && nacp >= 10) {
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// Good: Good integrity with moderate accuracy OR high accuracy alone
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if (sil >= 2 && nacp >= 6) || (sil >= 1 && nacp >= 9) || nacp >= 8 {
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aircraft.SignalQuality = "Good"
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return
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}
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// Fair: Some integrity (SIL >= 1) with basic accuracy (NACp >= 3) OR
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// high accuracy without integrity info
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if (sil >= 1 && nacp >= 3) || nacp >= 8 {
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// Fair: Some integrity with basic accuracy OR moderate accuracy alone
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if (sil >= 1 && nacp >= 3) || nacp >= 5 {
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aircraft.SignalQuality = "Fair"
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return
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}
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// Poor: Low values but still has some quality indicators
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if sil > 0 || nacp > 0 || nacv > 0 {
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// Poor: Low but usable quality indicators
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if sil > 0 || nacp >= 1 || nacv > 0 {
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aircraft.SignalQuality = "Poor"
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return
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}
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