AIxTHY for Thyroid Cytology: Thyroid Cancer
AIxTHY improves thyroid cancer diagnosis by accurately identifying abnormal cells, distinguishing benign from malignant nodules, and speeding up analysis to help pathologists make faster, more informed decisions.
Thyroid Cancer Facts
Fine-Needle Aspiration Cytology (FNAC) is the gold standard tool to aid in distinguishing between malignant and benign thyroid nodules. Unfortunately, thyroid biopsies do not always offer a definitive cytological diagnosis.
5TH(1)
Most common cancer in women
2.2K(2)
Estimated U.S. deaths
per year
53K(2)
Estimated new U.S. cases
25%(3)
High-grade 10-year recurrence rate
$6.1B(4)
Estimated U.S. expenditure for thyroid cancer care
Over-diagnosis may result in unnecessary procedures
Invasive surgeries may trigger patient anxiety
Unwarranted procedures and complications increase healthcare costs
Key Features of AIxTHY
Revolutionizing Thyroid Cancer Diagnosis with AI
AIxTHY is an AI-powered tool that analyzes thyroid cytology samples to improve diagnostic accuracy and efficiency. By automating analysis, it supports pathologists in making faster, more reliable cancer diagnoses, leading to better patient outcomes.
Functionality
It uses algorithms to identify suspicious cells, classify nodules, and detect malignancy, integrating molecular and histopathological data.
Integration with Clinical Practice
AIxTHY aids pathologists by reducing errors, accurately classifying nodules, and guiding treatment decisions, especially in distinguishing benign vs. malignant cases.
Benefits
AIxTHY automates cell classification and generates detailed reports, speeding decision-making, reducing unnecessary surgeries, and ensuring earlier, more accurate cancer detection for better outcomes.
Cellular Pattern Recognition
  • AIxTHY categorizes groups by cell types and provides the total number of groups identified per category
  • Categories include follicular cells, oncocytic cells, histiocytes, lymphocytes, and colloid
  • Diagnosis is pathologist-dependent
AI Enhances Diagnostic Confidence
  • AI analyzes all digital images for morphologic features to include: pale nuclei, marginal micronucleoli, nuclear grooving, pseudoinclusions, microfollicles, plasmacytoid/spindled cells, and salt and pepper chromatin.
  • A section entitled Traits Statistics  provides a per-slide bar graph of morphologic features
Automated Reporting
  • AIxTHY software allows hierarchical reporting of positive, negative or nondiagnostic cases.
  • Reports are based on The Bethesda System (TBS) for Reporting Thyroid Cytopathology, with subclassification of positive cases into TBSIII, TBS IV, TBSV and TBSIV.
  • Integration with LIS for seamless resulting
Digital Screening Simplifies Review
  • All AI-analyzed digital images are displayed in thumbnail galleries by category. 
  • Microscopic view augments the gallery so that relationships to background are easily assessed.
  • Revert to full WSI review at any time with one click.
Practice Efficiencies
  • AIxTHY permits easy sharing of cases for consultation, quality assurance, tumor planning conferences, education and research.
Be First in AI Thyroid Research
  • Explore future uses of AI in thyroid research by designing studies to define morphologic metrics and future clinical applications
Why choose AIxTHY
As part of a diagnostic strategy, AIxTHY from AIxMed helps to detect suspicious and atypical cells using samples collected using fine needle aspiration techniques.
Book demo
In development and soon available for Research Use Only (RUO) in the United States
Quantitative scoring based on the Bethesda System for Reporting Thyroid Cytopathology (TBSRTC)
Ideal for use with current
FNAC methods
Where AIxTHY Aids the Thyroid Cancer Patient Journey

Sample Collection

Cytology samples are collected and prepared.

AI Analysis

AIxTHY analyzes the samples to identify abnormal cells.

Scoring

The tool uses the Bethesda System (TBSRTC) for quantitative scoring of malignancy risk.

Reporting

AIxTHY generates a report to assist pathologists in making diagnostic decisions.

Step Up to a New Bladder Cancer Workflow

Data Collection and Preprocessing

Gathering patient data, imaging, and health records

AI Model Training

Training models on labeled datasets to recognize patterns and predict outcomes

Diagnosis and Prediction

High-resolution images of the stained slides are captured

Surgical Assistance

Repeat voided urines with AI Enhancing robotic surgery with image-guided precision and outcome predictions

Post-Operative Analysis

Monitoring recovery and assessing long-term health impacts

Other Applications
For Urine Cytology:
Bladder Cancer
Find out more
AIxURO: Detects suspicious and atypical cells from a non-invasive urine sample.
Find out more
For Cervical Cytology:
Cervical Cancer
Coming soon
AIxPAP: Cervical cancer is preventable but remains a major health challenge.
Coming soon
For Pulmonary Cytology:
Lung Cancer
Coming soon
AIxPUL: Empowering precision in lung cancer detection.
Coming soon
1. American Cancer Society (ACS) Cancer, Facts & Figures 2024, Slide Set: Cancer Facts & Figures 2024, accessed 2024.
2. SEER Cancer Stat Facts: Bladder Cancer. National Cancer Institute. Bethesda, MD, accessed 2024.
3. Wan H, Zhan X, Li X, et al. Assessing the prognostic impact of prostatic urethra involvement and developing a nomogram for T1 stage bladder cancer. BMC Urol. 2023;23(1):182. Published 2023 Nov 10. doi: 10.1186/s12894-023-01342-2
4. Cancer Trends Progress Report, National Cancer Institute, Bethesda, MD, accessed 2024.