NADRYX / REALITY INTELLIGENCE

CAPTURE REALITY.
RECONSTRUCT THE WORLD.

Every aerial capture is an observation of the physical world.

NADRYX transforms those observations into registered spatial representations — creating maps, geometry and evolving digital records that preserve how physical environments exist and change.

FROM OBSERVATIONTO SPATIAL REALITY.

CONTACT NADRYX
  1. Aerial observation — aerial input of the physical site.
  2. Orthomosaic — the site resolved into a registered plan.
  3. Point cloud — meaningful site positions lifted into depth.
  4. 3D reconstruction — site points connected into surface geometry.
  5. Reality state — the current physical site represented in registered space.
Reality stack of one physical siteThe same site boundary, structural footprint, access edge, ground and developing volume progress through aerial observation, orthomosaic, point cloud, 3D reconstruction and a registered reality state.01 / OBSERVATIONAERIAL / INPUT02 / ORTHOMOSAICREGISTERED / PLAN03 / POINT CLOUDPOSITION / DEPTH04 / 3D RECONSTRUCTIONSURFACE / GEOMETRY05 / REALITY STATECURRENT / REGISTERED01OBSERVATIONAERIAL / INPUT02ORTHOMOSAICREGISTERED / PLAN03POINT CLOUDPOSITION / DEPTH043D RECONSTRUCTIONSURFACE / GEOMETRY05REALITY STATECURRENT / REGISTERED
PHYSICAL WORLD / SOURCE
SPATIAL MODEL / ACTIVE
REGISTERED SPACE  /  ONE SITE  /  CONNECTED
01REALITY CAPTURE
02ORTHOMOSAIC
03POINT CLOUD
043D MESH
05DIGITAL SITE RECORD
NADRYX / REALITY CAPTURE

REALITY STARTS
WITH OBSERVATION.

Aerial imagery becomes more useful when individual observations are captured as part of one coherent spatial record.

NADRYX is designed to organize multiple views of the same physical environment so they can contribute to mapping, reconstruction and future comparison.

NOT JUST IMAGES.A REGISTERED VIEW OF THE SITE.

Aerial observation coverage across one physical siteSeven sequential aerial observations project overlapping fields onto the same construction site. Shared corners and edges align to a common site reference and resolve as one registered capture field.CAPTURE COVERAGE / REGISTEREDOBS / 01OBS / 03OBS / 06ROAD EDGEBUILDING CORNERSLAB CORNERBOUNDARY VERTEXXZYCOMMON SITE REFERENCEREGISTERED CAPTURE FIELDONE SITE / MULTIPLE OBSERVATIONSReality capture sequenceOne physical site is viewed from multiple aerial observations. Shared features overlap, align to a common reference, and form one registered capture field.01 / PHYSICAL SITE02 / OBSERVATIONSMULTIPLE AERIAL VIEWS / ONE SITE03 / OVERLAPSHARED PHYSICAL FEATURES04 / COMMON REFERENCEXZY05 / REGISTERED CAPTURE FIELDONE SITE / MULTIPLE OBSERVATIONS
CAPTURE FIELD / OBSERVATION GEOMETRY
  1. 01
    COVERAGE

    Systematic observations describe the wider site.

  2. 02
    OVERLAP

    Adjacent observations share recognizable physical features.

  3. 03
    REGISTRATION

    Those observations can contribute to one common spatial reference.

NADRYX / ORTHOMOSAIC

MANY OBSERVATIONS.
ONE REGISTERED SITE VIEW.

When aerial observations are aligned in one common spatial reference, they can resolve into a coherent surface view of the site.

NADRYX is designed to transform overlapping capture data into registered orthomosaic outputs that support review, orientation and future comparison.

NOT JUST IMAGERY.A SPATIALLY REGISTERED SITE MAP.

Orthomosaic resolution into one registered site planSeparate top-down observation tiles align through shared features, their seams resolve, and one continuous registered site surface appears with review overlays.SITE BOUNDARY / GHOST REFERENCE01 / RAW TILES02 / ALIGNMENT03 / STITCH04 / REGISTERED SURFACE05 / OUTPUTOVERLAP SEAMS / RESOLVINGXYNSCALE REFERENCEREGISTERED PLANCOMMON SITE REFERENCESTRUCTURE FOOTPRINTSLAB / CORE ZONEACCESS ROUTEOPEN WORK ZONEINPUT / SEPARATE OBSERVATIONSPROCESS / ALIGNMENT + SEAM RESOLUTIONOUTPUT / CONTINUOUS REGISTERED SURFACEFive-stage orthomosaic sequenceSurface tiles align, their overlaps stitch together, and a resolved registered top-down site plan is produced.01 / RAW TILES02 / ALIGNMENT03 / STITCH04 / REGISTERED SURFACE05 / ORTHOMOSAIC OUTPUTXYNREGISTERED PLAN / COMMON SITE REFERENCE
ORTHOMOSAIC RESOLUTION / REGISTERED PLAN
  1. 01
    ALIGNMENT

    Separate observations are placed into one shared reference.

  2. 02
    STITCHING

    Overlapping surface areas resolve into continuity.

  3. 03
    REGISTRATION

    The resulting site view becomes a reliable common map surface.

NADRYX / POINT CLOUD

THE SITE
GAINS DEPTH.

A registered surface describes where physical features exist across the site.

Photogrammetric reconstruction can extend those observations into depth, producing registered spatial points that describe the position and form of the physical environment in three dimensions.

FROM SURFACE POSITIONTO SPATIAL GEOMETRY.

A registered site surface lifting into a three-dimensional point fieldThe same site boundary, structure, work zone and access route begin on an XY plane. A Z axis, raised structural form, spatial points and vertical projection guides reveal depth.SPATIAL DEPTH FIELD / REGISTERED POINT VOLUMEXY SURFACE / XYZ REALITYXYREGISTERED SURFACE / XYDEPTHZ / DEPTHGROUND PLANESTRUCTURAL HEIGHTVERTICAL RELATIONSHIPREGISTERED POSITIONREGISTERED POINT FIELDPOSITION / DEPTH / PHYSICAL FORMRegistered surface to three-dimensional point fieldA four-stage vertical sequence shows a site surface acquiring depth, spatial points and recognizable three-dimensional form.01 / REGISTERED SURFACEXY / GROUND REFERENCE02 / DEPTHZ03 / SPATIAL POINTS04 / 3D POINT FIELDPOSITION / DEPTH / PHYSICAL FORM
REGISTERED SITE MAP  →  ELEVATION / DEPTH  →  SPATIAL POINTS  →  REGISTERED 3D POINT FIELD
  1. 01
    POSITION

    Every point exists in a common spatial reference.

  2. 02
    DEPTH

    Observed surfaces acquire elevation and three-dimensional relationship.

  3. 03
    FORM

    Point density begins to describe the shape of physical objects and terrain.

NADRYX / 3D RECONSTRUCTION

DEPTH
BECOMES FORM.

A point cloud describes where observed surfaces exist in three-dimensional space.

Reconstruction connects those spatial relationships into continuous geometry, creating a navigable representation of structures, terrain and the wider physical environment.

FROM REGISTERED POINTSTO CONNECTED PHYSICAL SURFACES.

One registered site reconstructed from points into physical formA continuous field shows the same site boundary, building, work zone, access corridor and terrain progressing from spatial points through connected topology into a coherent registered three-dimensional model.RECONSTRUCTION FIELD / SURFACE FORMATIONPOINT FIELD / TOPOLOGY / PHYSICAL FORM01 / REGISTERED POINTSSPATIAL SAMPLES02 / NEIGHBORHOOD RELATIONSHIPSLOCAL CONNECTIONS03 / TRIANGULATIONTOPOLOGY / CONNECTED04 / SURFACE MESHSURFACE / RESOLVED05 / RECONSTRUCTED FORMREGISTERED 3D MODELREGISTERED 3D MODELSTRUCTURE / TERRAIN / PHYSICAL FORMPoints reconstructed into a registered 3D modelThe same site progresses vertically through points, connections, mesh, surface and resolved three-dimensional form.01 / POINTS02 / CONNECTIONS03 / MESH04 / SURFACE05 / 3D MODELREGISTERED 3D MODEL
POINT FIELD  →  TOPOLOGY  →  SURFACE  →  PHYSICAL FORM
  1. 01
    REGISTERED POINTSSPATIAL SAMPLES
  2. 02
    NEIGHBORHOOD RELATIONSHIPSLOCAL CONNECTIONS
  3. 03
    TRIANGULATIONTOPOLOGY / CONNECTED
  4. 04
    SURFACE MESHSURFACE / RESOLVED
  5. 05
    RECONSTRUCTED FORMREGISTERED 3D MODEL
NADRYX / SURFACE MODELS

ONE REALITY.
MULTIPLE SURFACE MODELS.

A reconstructed environment can be represented in different ways depending on what needs to be understood.

Surface models separate visible physical form, underlying terrain and elevation structure into spatial outputs that support measurement, review and analysis.

THE SAME PHYSICAL SITE.DIFFERENT WAYS TO READ ITS SURFACE.

One registered physical site decomposed into surface, terrain and contour modelsA reconstructed site with two structures, an access corridor and varied ground is read as a digital surface model, a digital terrain model and terrain-derived contour geometry. A section cut compares the visible surface with the underlying ground.SURFACE MODEL EXTRACTION / TERRAIN INTERPRETATION FIELDONE REGISTERED ENVIRONMENT / THREE ANALYTICAL VIEWSREGISTERED REALITY SOURCEAAVISIBLE SURFACEGROUND / INTERPRETEDELEVATION FIELDDSM / DIGITAL SURFACE MODELVISIBLE SURFACE / TOP ELEVATIONDTM / DIGITAL TERRAIN MODELGROUND SURFACE / TERRAINCONTOURS / ELEVATION STRUCTURETERRAIN / INTERVAL VIEWSECTION / ADSM PROFILEDTM PROFILERegistered model interpreted as DSM, DTM and contoursThe same site flows vertically from a registered three-dimensional model into visible surface, underlying terrain and terrain-derived contour representations.REGISTERED 3D MODELDSM / DIGITAL SURFACE MODELVISIBLE SURFACE / TOP ELEVATIONDTM / DIGITAL TERRAIN MODELGROUND SURFACE / TERRAINCONTOURS / ELEVATION STRUCTURETERRAIN / INTERVAL VIEW
REGISTERED 3D MODEL  →  DSM  →  DTM  →  CONTOURS
  1. 01
    SURFACE

    DSM describes the visible top surface.

  2. 02
    TERRAIN

    DTM represents the interpreted ground beneath structures and objects.

  3. 03
    ELEVATION

    Contours describe terrain form through elevation relationships.

NADRYX / DIGITAL SITE RECORD

REALITY
BECOMES A RECORD.

A physical site does not remain static, and its digital representation should not remain static either.

NADRYX is being designed to connect successive registered captures into an evolving spatial history — preserving what existed, what changed and what exists now.

ONE PHYSICAL SITE.MULTIPLE REGISTERED STATES.ONE CONTINUOUS RECORD.

Persistent spatial archive of one registered physical siteFour registered states retain the same site boundary, coordinate reference, orientation and access path while selected structures, ground conditions and work areas evolve. The current state is strongest.PERSISTENT REALITY / STATE ARCHIVEONE SITE IDENTITY / FOUR REGISTERED STATESSITE / REGISTERED REFERENCEXZYCOMMON SPATIAL REFERENCE / FIXED ORIENTATIONREGISTEREDTHROUGH TIMET / 01STATE / 01T / 02STATE / 02T / 03STATE / 03T / CURRENTSTATE / CURRENTSTATE / CURRENTLATEST REGISTERED REALITYACCESS MODIFIED / SITE STATE UPDATEDORTHOMOSAIC / POINT CLOUD / 3D MODEL / SURFACE MODELSCURRENT REGISTERED REALITYOne site preserved through four registered statesA vertical archive begins with the stable site reference and progresses through baseline, updated, evolved and current registered conditions into a persistent record.SITE / REGISTERED REFERENCET / 01STATE / 01 / BASELINEEARLY STRUCTURE REGISTEREDT / 02STATE / 02 / UPDATEDSTRUCTURE ADDEDT / 03STATE / 03 / EVOLVEDGROUND CONDITION CHANGEDT / CURRENTSTATE / CURRENT / LATEST REGISTERED REALITYACCESS MODIFIED / SITE STATE UPDATEDPERSISTENT RECORDONE CONNECTED SPATIAL HISTORY
NOT ISOLATED OUTPUTS.A CONNECTED HISTORY OF THE PHYSICAL SITE.
  1. 01
    STATE

    Each capture describes the site at a particular moment.

  2. 02
    CONTINUITY

    Successive states remain registered to the same physical reference.

  3. 03
    HISTORY

    Together they create an evolving record of the site.

NADRYX / REALITY INTELLIGENCE

FROM CAPTURETO CONTINUOUS REALITY.

NADRYX is being developed to connect aerial observation, spatial reconstruction and successive site states into one evolving understanding of the physical environment.

From a single capture to a persistent digital record, every spatial output remains connected to the reality that produced it.

OBSERVE.RECONSTRUCT.PRESERVE.UNDERSTAND.

Reality Intelligence system journeyA continuous technical line connects observation, registered mapping, spatial points, 3D form, surface models and a digital site record to persistent reality.OBSERVATION01REGISTERED MAP02SPATIAL POINTS033D FORM04SURFACE MODELS05DIGITAL SITE RECORD06PERSISTENT REALITYONE PHYSICAL SITE / CONNECTED THROUGH TIMEReality Intelligence system journeyA vertical system line connects observation through registered spatial outputs to persistent reality.OBSERVATION01 / OBSERVATIONMAP02 / REGISTERED MAPPOINTS03 / SPATIAL POINTS3D04 / 3D FORMSURFACE05 / SURFACE MODELSRECORD06 / DIGITAL SITE RECORDPERSISTENT REALITYONE PHYSICAL SITE /CONNECTED THROUGH TIME
Observation progresses through registered spatial outputs into a persistent digital record of one physical site.
  1. OBSERVATION
  2. REGISTERED MAP
  3. SPATIAL POINTS
  4. 3D FORM
  5. SURFACE MODELS
  6. DIGITAL SITE RECORD
  7. PERSISTENT REALITY — ONE PHYSICAL SITE / CONNECTED THROUGH TIME

PHYSICAL REALITY SPATIAL UNDERSTANDING PERSISTENT INTELLIGENCE