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Cerence is seeking a Senior Principal AI Scientist in Generative AI to lead development of large-scale transformer models for mobility-conscious AI experiences. You will own architecture and training strategies, addressing training stability and scaling challenges across data and compute, while shaping the direction of next-generation models at Cerence AI.
The role emphasizes deep learning foundations, transformer innovations, and advanced loss/feedback mechanisms to align models with real-world
Cerence AI is the global leader in AI for transportation, specialized in building AI and voice‑powered companions for cars, two‑wheelers, and more that enable people to focus on what matters most. With over 500 million cars shipped with Cerence AI’s technology, we partner with leading automakers (such as Volkswagen, Mercedes, Audi, Toyota and many more), mobility providers, and technology companies to power intuitive, integrated experiences that create safer, more connected, and more enjoyable journeys for drivers and passengers alike.
Our team is dedicated to pushing the boundaries of AI innovation, working around the globe with headquarters in Burlington, Massachusetts, USA and 16 other offices across Europe, Asia, and North America. We bring together diverse backgrounds, and varied skill sets with the shared goal of advancing the next generation of transportation user experiences. Our culture is customer‑centric, collaborative, fast‑paced, and fun, with continuous opportunities for learning and development to support your career growth.
Interested in having a significant impact in a dynamic industry with a high‑performing global team? We’re looking for an exceptional SeniorPrincipalAI Scientist in Generative AI who is ready to drive the future of mobility with us!
Design and train large ‑ scaletransformer and hybrid foundation models
Own model architecture choices across text, multimodal, and emerging paradigms
Diagnose and resolve training instabilities at scale
Navigate scaling tradeoffs across data, compute, and architecture
Define the technical direction fornext‑generationmodels
Apply strong fundamentals in deep learning and representation learning
Design andmodifytransformer architectures, including:
Attention variants
RoPE , ALiBi
Grouped Query Attention (GQA)
Mixture ‑ of ‑Experts(MoE)
Build models from first principles , not just adaptpre‑existingcodebases
Own optimizer and scheduler choices, including:
AdamW
Lion
Adafactor
Learning‑rateand warmup schedulers
Understand and debug:
Optimizer instability
Gradient pathologies
Divergence at large scale
Apply andvalidate scaling laws
Navigate Chinchilla ‑ stylecompute vs data tradeoffs
Make informed decisions about model size, dataset size, and training duration
Design and experiment with loss functions including:
Next ‑ tokenprediction
Contrastive objectives
RLHF , DPO , GRPO
Understand how loss design impacts convergence, generalization, and alignment