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Glass WebXR Integration

DOMA-Glass Visualization Integration

This module provides comprehensive integration between the DOMA RF Motion Model

and Google Glass visualization system for real-time tracking and prediction

of RF signal sources with tactical overlay capabilities.

Features:

– Real-time RF signal trajectory visualization on Glass

– Motion prediction overlays with confidence indicators

– Tactical threat assessment based on motion patterns

– Integration with casualty detection for enhanced situational awareness

– Military-grade positioning and tracking visualization

# Casualty tracking data structures

@dataclass

class CasualtyReport:

    “””Real-time casualty tracking for Glass visualization”””

    id: str

    timestamp: float

    latitude: float

    longitude: float

    altitude: float  # meters above sea level

    casualty_type: str  # “blood_detected”, “vitals_critical”, “movement_ceased”, “rf_biomarker_anomaly”

    severity: int  # 1-5, with 5 being most critical

    confidence: float  # 0.0-1.0 confidence in detection

    source: str  # Detection source (smartphone_rf, standoff_detection, etc.)

    vitals: Optional[Dict[str, Any]] = None  # Heart rate, respiration if available

    metadata: Dict[str, Any] = None

DOMA-Glass Visualization Integration

# Import DOMA and Signal Intelligence

try:

    from SignalIntelligence.core import (

        SignalIntelligenceSystem,

        DOMASignalTracker,

        RFTrajectoryPoint

    )

    SIGNAL_INTELLIGENCE_AVAILABLE = True

except ImportError as e:

    logger.error(f”Signal Intelligence not available: {e}”)

    SIGNAL_INTELLIGENCE_AVAILABLE = False

# Import Glass Visualization

try:

    from GlassVisualization.core import (

        GlassVisualizationSystem,

        CasualtyReport,

        GeospatialCasualtyCluster

    )

    GLASS_VISUALIZATION_AVAILABLE = True

except ImportError as e:

    logger.error(f”Glass Visualization not available: {e}”)

    GLASS_VISUALIZATION_AVAILABLE = False

@dataclass

class RFTargetTrack:

    “””RF signal target track with motion predictions for Glass display”””

    track_id: str

    signal_id: str

    timestamp: float

    current_position: Tuple[float, float, float]  # lat, lon, alt

    predicted_positions: List[Tuple[float, float, float]]  # Future positions

    velocity: Tuple[float, float, float]  # m/s in x, y, z

    acceleration: Tuple[float, float, float]  # m/s² in x, y, z

    frequency: float  # Hz

    signal_strength: float  # dBm

    motion_type: str  # “linear”, “circular”, “zigzag”, “stationary”, “erratic”

    threat_level: int  # 1-5 (1=minimal, 5=critical)

    confidence: float  # 0.0-1.0

    source_type: str  # “drone”, “aircraft”, “ground_vehicle”, “personnel”, “unknown”

    track_quality: float  # Track quality metric 0.0-1.0

    metadata: Dict[str, Any] = None

Google Glass Real-Time Casualty Visualization

RF biomarker detection with geolocated casualty tracking

for tactical situational awareness and K9 unit replacement.

def _handle_standoff_detection(self, data):

        “””Handle standoff detection”””

        if data.get(“violence_detected”):

            casualty_data = {

                “gps_location”: data.get(“target_location”, {“lat”: 38.8719, “lon”: -77.0563}),

                “blood_detected”: False,

                “confidence”: data.get(“confidence”, 0.8)

            }

            casualty = self.casualty_tracker.process_rf_biomarker_detection(casualty_data)

            casualty[“casualty_type”] = “violence_detected”

            casualty[“source”] = “standoff_detection”

            casualty[“severity”] = data.get(“threat_level”, 3)

            self._display_glass_casualty_alert(casualty)

    def _display_glass_casualty_alert(self, casualty):

        “””Display Glass casualty alert”””

        print(f”\\n🥽 GOOGLE GLASS ALERT 🥽”)

        print(f”═══════════════════════════”)

        print(f”📍 Casualty ID: {casualty[‘id’]}”)

        print(f”🩸 Type: {casualty[‘casualty_type’].replace(‘_’, ‘ ‘).title()}”)

        print(f”📊 Severity: {casualty[‘severity’]}/5″)

        print(f”🎯 Confidence: {casualty[‘confidence’]:.1%}”)

        print(f”📡 Source: {casualty[‘source’].replace(‘_’, ‘ ‘).title()}”)

        print(f”🌍 Location: {casualty[‘latitude’]:.6f}, {casualty[‘longitude’]:.6f}”)

        print(f”⏰ Time: {time.strftime(‘%H:%M:%S’, time.localtime(casualty[‘timestamp’]))}”)

        # Glass UI simulation

        severity_colors = {5: “🔴 CRITICAL”, 4: “🟠 SEVERE”, 3: “🟡 MODERATE”, 2: “🟢 MINOR”, 1: “⚪ MINIMAL”}

        print(f”🎨 Glass Display: {severity_colors.get(casualty[‘severity’], ‘⚫ UNKNOWN’)}”)

        if casualty[‘severity’] >= 4:

            print(f”🚨 IMMEDIATE MEDICAL RESPONSE REQUIRED”)

        elif casualty[‘severity’] >= 3:

            print(f”⚠️ Medical evaluation recommended”)

************************************

Linux Terminal-based Visualization for Testing the Glass Visualization System

Advanced Glass display interface for real-time RF tracking, casualty visualization,

and tactical overlay capabilities. Provides comprehensive situational awareness

through augmented reality displays.

Features:

– Real-time RF signal tracking overlays

– Casualty detection and medical triage visualization

– Motion prediction paths and threat assessment

– Tactical information display with military-grade precision

– Audio and haptic feedback for critical alerts

class GlassDisplayElement:

    “””Single display element for Glass overlay”””

    element_id: str

    element_type: str  # “track”, “casualty”, “prediction”, “alert”, “info”

    position: Tuple[float, float]  # Screen coordinates (0.0-1.0)

    content: Dict[str, Any]

    priority: int  # 1-10, 10 = highest

    color: Tuple[int, int, int]  # RGB color

    size: str  # “small”, “medium”, “large”

    visibility: float  # 0.0-1.0 opacity

    duration: Optional[float] = None  # Auto-hide after seconds

    timestamp: float = None

    def __post_init__(self):

        if self.timestamp is None:

            self.timestamp = time.time()

    def to_display_json(self) -> Dict[str, Any]:

        “””Convert to Glass-compatible display format”””

        return {

            “id”: self.element_id,

            “type”: self.element_type,

            “x”: self.position[0],

            “y”: self.position[1],

            “content”: self.content,

            “priority”: self.priority,

            “color”: {“r”: self.color[0], “g”: self.color[1], “b”: self.color[2]},

            “size”: self.size,

            “opacity”: self.visibility,

            “duration”: self.duration,

            “timestamp”: self.timestamp

        }

Big Data Must be Culled

Puff Piece: Susan Etlinger is a globally recognized expert in digital strategy, with a focus on artificial intelligence, responsible AI, data and the future of work. In addition to her role at Microsoft, Susan is a senior fellow at the Centre for International Governance Innovation, an independent, non-partisan think tank based in Canada, and a member of the United States Department of State Speaker Program.

Susan’s TED talk, “What Do We Do With All This Big Data?” has been translated into 25 languages and has been viewed more than 1.5 million times. Her research is used in university curricula around the world, and she has been quoted in numerous media outlets including The Wall Street Journal, The Atlantic, The New York Times and BBC. Susan holds a Bachelor of Arts in Rhetoric from the University of California at Berkeley.

Esoteric Influencer Marketing

Puff Piece: Shirli Zelcer is the Chief Data and Technology Officer at dentsu. With over 20 years of experience in analytics and insights, business advisory and organizational design, artificial intelligence and data science, and cloud and marketing technologies, Shirli is at the forefront of innovation ranging from ethical AI and advancements in cloud engineering to future-proofing data literate organizations around zero-party data. (I write this as an act Journalist freedom to document overreach by Rogue Data Scientist gone Rampant )

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