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Life Sciences

Anzaetek's Life Sciences solutions are developed in collaboration with top physicians and life scientists

QAI Omics
Handling computing workloads equivalent to 200 years of computation
A solution for CRISPR therapy without side effects
HOYA Lab
HOYA Lab, headquartered in Suwon bridges the gap between biotechnology and artificial intelligence (AI) by designing guide RNA (gRNA) that minimizes off‐target effects during CRISPR gene editing, dramatically reducing the time and cost required for new drug development.
HOYA Lab's technology, OFFreeTM, is expected to reduce the risk of serious side effects that may occur during CRISPR therapy.
HOYA Lab traces its roots back to Yonsei University Medical Center and the National Cancer Center.
It is said that even with the most advanced techniques, analyzing a single sequence takes approximately 200 years of computation.
Anzaetek and HOYA Lab's Quantum OFFreeTM are anticipated to lead innovations in the medical field by leveraging quantum technology.
“This technology marks the beginning of an innovation that will treat severe diseases such as Duchenne muscular dystrophy, cystic fibrosis, various cardiovascular diseases, and AIDS without off‐target effects.”
QAI Robotics
Robotic surgery applying quantum machine learning
Monitoring – Surgical education functionality
SEOUL NATIONAL UNIVERSITY BUNDANG HOSPITAL QUANTUM LAB
Analysis of surgical videos for bilateral axilla–breast approach robotic thyroidectomy using quantum AI/ML
Anzaetek & Seoul National University Bundang Hospital (SNUBH) Quantum Laboratory

Problem

  • Endoscopic videos require strict monitoring for real‐time alerts and surgical training.

Challenge

  • At top-tier hospitals, anomalies (outliers) are extremely rare, making it difficult for conventional machine learning techniques to learn from such datasets.

Solution

  • Developing a quantum hybrid quantum machine learning (QML) approach.

  • QML is expected to yield better performance in rare event detection, few-shot learning, and anomaly detection tasks.

QAI Federated Learning
Securely learning from electronic medical records (EMR)
Preventing kidney diseases, patient-specific treatment
Leveraging quantum federated learning and few-shot learning
SEOUL NATIONAL UNIVERSITY BUNDANG HOSPITAL Biomedical Research Institute
Federated Learning (FL)
Federated Learning is a distributed machine learning framework that allows multiple institutions to collaboratively train a model without directly sharing sensitive data. This approach is particularly useful in the healthcare sector, where patient privacy and data security are paramount. For example, when applying FL to predict acute kidney injury (AKI), hospitals and research institutions can combine their unique data insights while complying with data protection regulations. By training on diverse, distributed datasets, FL can build a powerful deep learning (DL) model to identify early risk factors for AKI, ultimately reducing mortality and improving patient outcomes.

Quantum Machine Learning (QML)
Quantum Machine Learning leverages the principles of quantum mechanics to process information more efficiently, offering significant advantages over traditional machine learning (ML) and deep learning (DL). QML algorithms can explore exponentially large solution spaces, providing better results for optimization and pattern recognition tasks compared to conventional methods that require extensive computational time. By integrating QML with federated learning to form Quantum Federated Learning (QFL), it is possible to overcome limitations in distributed learning systems caused by high-dimensional feature spaces or complex model architectures, thereby enhancing performance. QFL is expected to demonstrate excellent suitability, particularly in fields such as AKI prediction, where subtle patterns must be detected across multi-institutional datasets.

Anzaetek's Life Sciences Solutions Developed in Collaboration with Top Physicians and Life Scientists
Redefining the Future of Medicine Through Quantum Innovation

Why Should We Leverage Quantum Technology in the Field of Life Sciences?

The field of life sciences faces unprecedented computational challenges, from CRISPR sequence optimization to modeling complex biological systems.
Quantum computing can accelerate these processes, potentially reducing research timelines from years to mere weeks.
Through quantum-based digital twins and federated learning, research speed is increased, patient care is improved, and far more sophisticated medical modeling is achieved.

Products and Services

  • A quantum solutions platform with Python SDK and REST API interface

  • Life sciences specialized solutions

  • Consulting and PoC (Proof of Concept) development

How We Do It

  • Fault Tolerant Quantum Computing (FTQC)

  • Bridging classical computing and quantum technology

  • Quantum Inspired Algorithms

  • Quantum Machine Learning (QML)

  • Quantum Reinforcement Learning (QRL)

  • Quantum Unconstrained Binary Optimization (QUBO)

  • Mixed Integer Linear Programming (MILP)

Value Proposition

  • Optimization of CRISPR guide RNA (gRNA) sequences

  • Digital twins for emergency response systems

  • Quantum federated learning for medical records

  • Cardiac simulation and modeling

  • Emergency response optimization

  • Patient monitoring systems

  • A quantum life sciences digital platform via Gencovery’s Constellab

  • Quantum computational biomechanics