RAYLENCE // PEDIATRIC_RADIOLOGY
RESEARCH_PROTOTYPE
Radiology Workflow System

PediatricWorkflow Copilot

AI-Assisted Pediatric Radiology

Solving administrative burnout and cognitive diagnostic error.Enabling faster results for families.

We don't replace, we empower

System Diagnostics

The Radiology Bottleneck.

Capacity Saturation

CRITICAL: QUEUE_OVERFLOW

The Macro Problem: Hospitals are limited by the number of scans a human radiologist can safely review in a shift. This "human cap" creates backlogs, delays treatment, and limits the total number of patients a hospital can serve.

THEORY: By drastically reducing read-time per image, Raylence aims to unlock latent hospital capacity and increase case volume.

Manual Latency

WARNING: PROCESS_DRAG

The Micro Problem: Radiologists waste minutes on manual tasks—measuring lesions, calculating volumes, and cross-referencing priors. These "mechanical" tasks reduce the time available for actual diagnosis.

  • Manual lesion measurement
  • Volume calculation
  • Report transcription

THEORY: Automating quantification allows the physician to focus purely on visual search and judgment.

Cognitive Load

ERROR: ATTENTION_DECAY

The Human Limit: After hours of reading complex scans, the human eye fatigues. Subtleties like millimeter-sized nodules or incidental findings are missed not due to lack of skill, but due to biological exhaustion.

THEORY: A non-fatigable 'Second Reader' that maintains 100% vigilance for subtle feature detection.

Purpose Built

Why specifically pediatric?

Children are not miniature adults. Their anatomy is in constant flux, creating a data variance that breaks standard AI models.

Anatomical Variance (0-17Y)

A 2-year-old's chest cavity is fundamentally different from a 12-year-old's. Rapid developmental changes mean "normal" is a moving target. Raylence is calibrated to detect pathology across this shifting baseline.

Radiation Sensitivity (ALARA)

Pediatric tissue is highly radiosensitive. Retakes are not an option. Our "First-Pass Quality" algorithms ensure images are diagnostic immediately, adhering strictly to the ALARA (As Low As Reasonably Achievable) principle.

The Data Scarcity Gap

99% of medical AI is trained on adult datasets. This bias leaves pediatric care behind. We are building the foundational model specifically for the developing body.

Current Failure Mode

Adult models interpret growth plates as fractures. They flag the thymus as a mass. They miss the subtle signs that only appear in developing bodies.

Our Solution

Raylence is designed exclusively for ages 0-17 to recognize ossification centers, normal thymus variants, and the developmental nuances that define pediatric radiology.

Primary Modality: Chest X-Ray

The Dual-Engine Architecture.

Standard AI looks at the whole image at once, missing tiny details. Raylence runs two neural networks in parallel.

1. Global Transformer

Context Awareness

Analyzes the entire X-ray to understand general anatomy (heart size, lung inflation) and patient positioning. It establishes the "baseline" of the image.

2. Vision Transformer

Fine-Grained Attention

Treats image patches as sequences, applying self-attention to capture long-range dependencies. It detects subtle anomalies like micro-fractures or early consolidation that traditional convolutions might overlook.

System Architecture

The Data Pipeline

Phase::Ingest

The Trigger

Radiologist opens study in existing PACS. No workflow interruption. Raylence activates silently in the background via standard integration protocols.

DICOM_HANDLER
chest_pa_lateral.dcmDICOM
clinical_context.jsonJSON
PROTOCOL: HL7/DICOMPACS_INTEGRATED
inference_pipeline.logPROCESSING
01> INITIALIZING_PIPELINE...
02> LOADING_MODEL_CONFIG...
03> PREPROCESSING_IMAGE_DATA...
04> NORMALIZING_PIXEL_VALUES...
05> DETECTING_ANATOMICAL_LANDMARKS...
06> ANALYZING_LUNG_FIELDS...
07> CHECKING_OSSIFICATION_CENTERS...
08> EVALUATING_THYMUS_REGION...
09> QUALITY_GATE_CHECK: PASSED
10> RUNNING_PRIMARY_INFERENCE...
11> SCANNING_FOR_PATHOLOGY...
12> GENERATING_STRUCTURED_FINDINGS...
13> CROSS_REFERENCING_LANDMARKS...
14> INITIATING_SECONDARY_SCAN...
15> SAFETY_NET_MODULE: ENGAGED
16> FLAGGING_INCIDENTAL_FINDINGS...
17> COMPILING_REPORT_DRAFT...
18> READY_FOR_VALIDATION...
01> INITIALIZING_PIPELINE...
02> LOADING_MODEL_CONFIG...
03> PREPROCESSING_IMAGE_DATA...
04> NORMALIZING_PIXEL_VALUES...
05> DETECTING_ANATOMICAL_LANDMARKS...
06> ANALYZING_LUNG_FIELDS...
07> CHECKING_OSSIFICATION_CENTERS...
08> EVALUATING_THYMUS_REGION...
09> QUALITY_GATE_CHECK: PASSED
10> RUNNING_PRIMARY_INFERENCE...
11> SCANNING_FOR_PATHOLOGY...
12> GENERATING_STRUCTURED_FINDINGS...
13> CROSS_REFERENCING_LANDMARKS...
14> INITIATING_SECONDARY_SCAN...
15> SAFETY_NET_MODULE: ENGAGED
16> FLAGGING_INCIDENTAL_FINDINGS...
17> COMPILING_REPORT_DRAFT...
18> READY_FOR_VALIDATION...
Phase::Processing

The Engine

Data routed to Raylence servers for instant processing. Pediatric-specific foundation models analyze anatomical landmarks, detect pathologies, and draft reports in parallel.

Phase::Delivery

The Result

Structured report and safety findings delivered within seconds. Ready for radiologist validation and sign-off.

Raylence Workflow Interface
CONCEPT_VIEW
Raylence Interface
INTERFACE_CONCEPT
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