AIWARE

AIWARE | Battery and machinery software research

Predict health. Prevent failure.

AIWARE develops new software techniques for battery management systems (BMS) and machinery health management, with research published in Q1 international journals, covering battery RUL, SOH, SOC, RDT, machinery RUL, and early fault detection.

AIWARE

Selected research

Focused on battery health and machinery reliability.

01 / Machinery

Machinery reliability research

Software methods for fault detection and remaining useful life estimation in rotating equipment.

2025

Electric motor machinery

Signal, Image and Video Processing, 2025

Detect faults before a bearing becomes downtime.

Read motor research

2024

02 / Battery

Battery management research

Software techniques for RUL, SOH, SOC, and RDS estimation across lithium-ion systems.

2026

Battery state-of-charge visualization

Preprint: arXiv, 2026

Estimate lithium-ion battery charge accurately throughout discharge.

Read C2L-Net
Lithium-ion battery state-of-health and remaining useful life prediction

Preprint: arXiv, 2026

Joint Remaining Useful Life Prediction and Capacity Estimation of Lithium-Ion Batteries Using Partial-Charging Data

Read partial-charging research

2025

Physics-informed battery modeling visualization

Preprint: arXiv, 2025

Model battery discharge voltage with aging-aware discrete-state learning.

Read SeqBattNet
Battery status monitor showing state of health, remaining useful life, state of charge, and relative discharge stage

About AIWARE

From signals to operational confidence.

AIWARE began in 2022 with a clear purpose: apply advances in artificial intelligence to help industry identify equipment risks earlier.

We build predictive intelligence around the real operating signals of critical assets. Our work spans machinery health and lithium-ion battery systems, helping teams reduce avoidable downtime, protect equipment, and make safer, more efficient decisions.

Machinery intelligenceBattery intelligence

What guides us

01

See clearly

Make complex equipment behavior visible in the signals teams already collect.

02

Build rigorously

Develop models that remain useful amid noisy data and changing operating conditions.

03

Work openly

Partner closely, communicate plainly, and keep every decision tied to outcomes.

AIWARE Team

Core team

Applied research and engineering, turning complex signals into reliable insights.

Collaborators

Research collaborators

Specialist researchers who strengthen the rigor of our work.

Hung-Cuong Trinh, AIWARE research collaborator

Hung-Cuong Trinh

PhD in AI

Hung-Cuong applies AI to bioinformatics and computational biology.

25 publications196 citations

Lam Pham, AIWARE research collaborator

Lam Pham

PhD in AI

Lam applies AI to lung-sound and vibration-signal analysis.

86 publications1,602 citations

Quoc Bao Pham, AIWARE research collaborator

Quoc Bao Pham

PhD in AI

Quoc Bao applies AI to environmental research and water-resource management.

97 publications2,532 citations

Duong Tran Anh, AIWARE research collaborator

Duong Tran Anh

PhD in AI

Duong applies AI to environmental, hydrology, and water-resource research.

133 publications4,455 citations

Ho-Si-Hung Nguyen, AIWARE research collaborator

Ho-Si-Hung Nguyen

PhD in Automation

Ho-Si-Hung applies AI to electrical-signal analysis for machine maintenance.

43 publications180 citations

Hung Viet Pham, AIWARE research collaborator

Hung Viet Pham

PhD in AI

Hung applies AI to industrial systems and engineering applications.

24 publications131 citations