2020 Amazon Research Awards recipients announced

ARA funds nearly twice as many awards as in previous year; 100 award recipients represent 59 universities in 13 countries.

In March 2021, Amazon notified applicants that they were recipients of the 2020 Amazon Research Awards, a program that provides unrestricted funds and AWS Promotional Credits to academic researchers investigating research topics across a number of disciplines.

Today, we’re publicly announcing the 100 award recipients who represent 59 universities in 13 countries. This round, ARA received a record number of submissions and funded nearly twice as many awards as the previous year. Each award is intended to support the work of one to two graduate students or postdoctoral students for one year, under the supervision of a faculty member.

ARA is funding awards under five call for proposals: AI for Information Security, Alexa Fairness in AI, AWS AI, AWS Automated Reasoning, and Robotics. Proposals were reviewed for the quality of their scientific content, their creativity, and their potential to impact both the research community, and society more generally. Theoretical advances, creative new ideas, and practical applications were all considered.

Recipients have access to more than 200 Amazon public datasets, and can utilize AWS AI/ML services and tools through their AWS Promotional Credits. Recipients also are assigned an Amazon research contact who offers consultation and advice along with opportunities to participate in Amazon events and training sessions.

Additionally, Amazon encourages the publication of research results, presentations of research at Amazon offices worldwide, and the release of related code under open-source licenses.

“The 2020 Amazon Research Awards recipients represent a distinguished array of academic researchers who are pursuing research across areas such as ML algorithms and theory, fairness in AI, computer vision, natural language processing, edge computing, and medical research,” said Bratin Saha, vice president of AWS Machine Learning Services. “We are excited by the depth and breadth of their proposals, as well as the opportunity to advance the science through strengthened connections among academic researchers, their institutions, and our research teams.”

“As we enter into this golden age of robotics, we do so with our university partners. Not only are they shaping what is possible in robotics, they are inspiring many next- generation roboticists with their incredible creations and front-line teachings,” said Tye Brady, chief technologist for Amazon Robotics. “Our grant recipients are not only pursuing cutting-edge research that will benefit society, but perhaps more importantly are helping students from across the globe pursue a career in science and engineering.”

ARA funds proposals up to four times a year in a variety of research areas. Applicants are encouraged to visit the ARA call for proposals page for more information or send an email to be notified of future open calls.

Below is the list of 2020 award recipients, presented in alphabetical order.

Recipient

University

Research title

Vikram Adve

University of Illinois Urbana-Champaign

Extending the LLVM compiler infrastructure for tensor architectures

Pulkit Agrawal

Massachusetts Institute of Technology

A framework for multi-step planning for manipulating rigid objects

Ron Alterovitz

University of North Carolina at Chapel Hill

Cloud-based motion planning: an enabling technology for next-generation autonomous robots

Jimmy Ba

University of Toronto

Model-based reinforcement learning with causal world models

Saurabh Bagchi

Purdue University—West Lafayette

Content and contention-aware approximate streaming video analytics for edge devices

David Baker Effendi

Stellenbosch University

Dataflow analysis using code property graphs, graph databases and synchronized pushdown systems

Sivaraman Balakrishnan

Carnegie Mellon University

Foundations of robust machine learning: from principled approaches to practice

Elias Bareinboim

Columbia University

Off-policy evaluation through causal modeling

Clark Barrett

Stanford University

Model-based testing of SMT solvers

Lars Birkedal

Aarhus University

Modular reasoning about distributed systems: higher-order distributed separation logic

David Blei

Columbia University

New directions in observational causal inference

Eric Bodden

Paderborn University

HybridCG — dynamically-enriched call-Graph generation of Java enterprise applications

Legand Burge

Howard University

Voice-FAQ: artificial intelligence for triaging cognitive decline through modeling vocal prosody and facial expressions

James Caverlee

Texas A&M University, College Station

Fairness in recommendation without demographics

Changyou Chen

University at Buffalo

Scaling up human-action analysis systems

Danqi Chen

Princeton University

Building broad-coverage, structured dense knowledge bases for natural language processing tasks

Helen Chen

University of Waterloo

Optimizing pretrained clinical embeddings for automatic COVID-related ICD coding

Yiran Chen

Duke University

Privacy-preserving representation learning on graphs — a mutual information perspective

Margarita Chli

ETH Zurich

Vision-based emergency landing in urban environments using reinforcement learning and deep learning

Kyunghyun Cho

New York University

Independently controllable attributes for controllable neural text generation

Carlo Ciliberto

University College London

Optimal transport for meta-learning

Loris D’Antoni

University of Wisconsin–Madison

Correct-by-construction IAM policies

David Danks

Carnegie Mellon University

An integrated framework for understanding human-AI hybrid decision-making

Suhas Diggavi

University of California, Los Angeles

Compressed private and secure distributed edge learning

Greg Durrett

University of Texas At Austin

Making conditional text generation fair and factual

Sergio Escalera

Universitat de Barcelona and Computer Vision Center

Portable virtual try-on for smart devices

Jan Faigl

Czech Technical University in Prague

Communication maps building in subterranean environments

Pietro Ferrara

Ca’ Foscari University of Venice

IAM access control policies verification and inference

Katerina Fragkiadaki

Carnegie Mellon University

Generalizing manipulation across objects, configurations and views using a visually-grounded library of behaviors

Guillermo Gallego

Technical University of Berlin

Online in-hand object tracking and grasp failure detection with an event-based camera

Grace Gao

Stanford University

Trustworthy autonomous vehicle localization using a joint model-driven and data-driven approach

Stephanie Gil

Harvard University

Enabling the next generation of coordinated robots: scalable real-time decision making

Luca Giuggioli

University of Bristol

Multi-robot online exploration in extreme unbounded environments through adaptive socio-spatial ordering

Jorge Goncalves

University of Melbourne

Integrated qualification test framework to measure crowd worker quality and assign or recommend heterogeneous tasks

Ananth Grama

Purdue University—West Lafayette

Scaling causal inference to explainable clinical recommendations

Grace Gu

University of California, Berkeley

Surrogate machine learning model and quasi-static simulation of pneumatically actuated robotic devices

Ronghui Gu

Columbia University

Microverification of the Linux KVM hypervisor: proving VM confidentiality and integrity

Aarti Gupta

Princeton University

Learning abstract specifications from distributed program implementations

Saurabh Gupta

University of Illinois Urbana-Champaign

Self-supervised discovery of object states and transitions from unlabeled videos

Daniel Harabor

Monash University

Anytime constraint-based multi-agent pathfinding

Hynek Hermansky

Johns Hopkins University

Multistream lifelong federated learning for machine recognition of speech

Bin Hu

University of Illinois Urbana-Champaign

Provably robust adversarial reinforcement learning for sequential decision making in safety-critical environments

Lifu Huang

Virginia Tech

Event-centric temporal and causal knowledge acquisition and generalization for natural language understanding

Dinesh Jayaraman

University of Pennsylvania

Learning modular dynamics models for plug-and-play visual control

Sven Koenig

University of Southern California

Improving planning and plan execution for warehouse automation

Laura Kovacs

TU Wien

FOREST: first-order reasoning for ensuring system security

Arun Kumar

University of California, San Diego

Improving automated feature type inference for AutoML on tabular data

Himabindu Lakkaraju

Harvard University

Towards reliable and robust model explanations

Kevin Leyton-Brown

University of British Columbia

Automated machine learning for tabular datasets using hyperband embedded reinforcement learning

Bo Li

University of Illinois Urbana-Champaign

Machine learning evaluation as a service for robustness, fairness, and privacy utilities

Ke Li

University of Exeter

Many hands make work light: multi-task deep semantic learning for testing web application firewalls

Zhiqiang Lin

Ohio State University

Type-aware recovery of symbol names in binary code: a machine learning based approach

Jeffrey Liu

Massachusetts Institute of Technology

Integrating the low altitude disaster imagery (LADI) dataset into the MIT Beaver Works curriculum

Michael Mahoney

University of California, Berkeley

Systematic methods for efficient inference and training of neural networks

Radu Marculescu

University of Texas

New directions for 3D object detection: distributed inference on edge devices using knowledge distillation

Ruben Martins

Carnegie Mellon University

Improving performance and trust of MaxSAT solvers

Jiri Matas

Czech Technical University in Prague

Training neural networks on non-differentiable losses

Michael Milford

Queensland University of Technology

Complementarity-aware multi-process fusion for long term localization

Heather Miller

Carnegie Mellon University

Directed automated explicit-state model checking for distributed applications

Ndapa Nakashole

University of California, San Diego

Learning representations for voice-based conversational agents for older adults

Shrikanth Narayanan

University of Southern California

Toward inclusive human-AI conversational experiences for children

Lerrel Pinto

New York University

Learning to manipulate deformable objects through robust simulations

Ravi Ramamoorthi

University of California, San Diego

Sparse multi-view object acquisition using learned volumetric representations

Philip Resnik

University of Maryland, College Park

Advanced topic modeling to support the understanding of COVID-19 and its effects

Daniela Rus

Massachusetts Institute of Technology

Learning to plan through imagined self-play for multi-agent system

Supreeth Shashikumar

University of California, San Diego

Privacy preserving continual learning with applications to critical care

Robert Shepherd

Cornell University

Enduring and adaptive robots via electrochemical blood

Cong Shi

University of Michigan, Ann Arbor

Machine learning for personalized assortment optimization

Florian Shkurti

University of Toronto

Generating physically realizable adversarial driving scenarios via differentiable physics and rendering simulators

Abhinav Shrivastava

University of Maryland, College Park

The pursuit of knowledge: discovering and localizing new concepts using dual memory

Roland Siegwart

ETH Zurich

Safe self-calibration of hybrid aerial vehicles

Sameer Singh

University of California, Irvine

Detecting and fixing vulnerabilities in NLP models via semantic perturbations and tracing data influence

Noah Smith

University of Washington - Seattle

Language model customization

Mahdi Soltanolkotabi

University of Southern California

Artificial intelligence for fast and portable medical imaging (with limited training data)

Seung Woo Son

University of Massachusetts Lowell

Reliable and accurate anomaly detection in edge nodes using sparsity profile

Dawn Song

University of California, Berkeley

Knowledge-enhanced cyber threat hunting

Dezhen Song

Texas A&M University, College Station

Optoacoustic material and structure pretouch sensing at robot fingertip

Shuran Song

Columbia University

Dexterity through diversity:learning a generalizable grasping policy for diverse end-effectors

Yizhou Sun

University of California, Los Angeles

Accelerating graph neural network training

Russ Tedrake

Massachusetts Institute of Technology

Intuitive physics for manipulation

James Tompkin

Brown University

Real-time multi-camera fusion for unoccluded VR robot teleoperation

Emina Torlak

University of Washington - Seattle

Automated verification of JIT compilers for BPF

Marynel Vazquez

Yale University

Evaluating social robot navigation via online human-driven simulations

Nisheeth Vishnoi

Yale University

Fair and error-resilient algorithms for AI and ML

Gang Wang

University of Illinois at Urbana–Champaign

Combating concept drift in security applications via proactive data synthesis

Hao Wang

Rutgers University-New Brunswick

Structured domain adaptation with applications to personalization and forecasting

James Wang

Pennsylvania State University

Affective and social interaction between human and intelligent machine

Gloria Washington

Howard University

Towards identification of uncomfortable speech in conversations

Chuan Wu

The University of Hong Kong

Compilation optimization in distributed DNN training: joining OP and tensor fusion/partition

Eugene Wu

Columbia University

Human-in-the-loop data debugging for ML-oriented analytics

Jiajun Wu

Stanford University

Implicit dynamic scene representation learning for robotics

Ming-Ru Wu

Dana-Farber Cancer Institute

From bench to clinic – machine-learning based cancer immunotherapy design

Diyi Yang

Georgia Institute of Technology

Abstractive conversation summarization at scale

Sixian You

Massachusetts Institute of Technology

AI-driven label-free histology for cancer diagnosis

Jingjin Yu

Rutgers University-New Brunswick

Pushing the limits of efficient and optimal multi-agent path finding through exploring space utilization optimization and adaptive planning horizon heuristics

Rui Zhang

Pennsylvania State University

Building robust conversational question answering systems over databases of tabular data

Yu Zhang

University of South Florida

Design of an automated advanced air mobility flight planning system (AAFPS)

Yuke Zhu

University of Texas at Austin

Learning implicit shape affordance for grasping and manipulation

Marinka Zitnik

Harvard University

Actionable graph learning for finding cures for emerging diseases

James Zou

Stanford University

How to make AI forget you? Efficiently removing individuals’ data from machine learning models

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Join Amazon's Frontier AI & Robotics team and take ownership of the electronics that make our robots move. As a Member of Technical Staff - Electronics Engineer, Actuators & Drives, you will conceptualize, design, and test the motor drive electronics that power our in-house robotic actuators—from the gate drivers and power stages that command motor current to the sensing circuits and communication interfaces that give our robots proprioceptive awareness. Your printed circuit board (PCB) designs will live inside each of our next-generation robotic systems, directly enabling the embodied intelligence that is central to FAR's mission. Key job responsibilities • Conceptualize, design, and validate motor drive electronics for in-house robotic actuators, including inverter power stages, gate driver circuits, current and position sensing, and power management subsystems from concept through prototype and production • Lead PCB-level design of compact, high-power-density motor drive boards, including schematic capture, component selection, and collaboration with PCB layout engineers to achieve signal integrity, thermal, and EMC requirements in constrained actuator form factors • Characterize and optimize inverter switching performance, efficiency, and thermal behavior across the full operating envelope of FAR's actuator variants, using bench measurements and simulation to guide design decisions • Define and implement current sensing architectures (shunt-based, Hall-effect, or integrated IC-based) and position/velocity sensing interfaces (encoder, resolver, Hall sensor) to support high-bandwidth FOC firmware on microcontrollers and DSPs • Partner with firmware engineers to define hardware-software interfaces for motor drive control loops, fault detection logic, and communication protocols (CAN, EtherCAT, SPI), ensuring electronics designs support the real-time control requirements of robotic actuation • Collaborate with motor design and mechanical engineers to specify the electrical characteristics of custom BLDC and PMSM motors, align inverter design to motor parameters, and validate the integrated actuator electro-mechanical system • Lead hardware bring-up, functional testing, and failure analysis for new actuator electronics prototypes, developing test plans and characterization setups that systematically validate design performance and identify failure modes • Define electronics design standards, review processes, and design-for-manufacturability (DFM) guidelines for FAR's actuator drive portfolio, and mentor junior engineers in motor drive electronics design best practices A day in the life Your day centers on the full electronics development cycle for our custom actuator drive systems. You might start by reviewing simulation results for a new inverter topology, then transition to the lab to characterize switching losses and thermal performance on a prototype motor drive board. Later in the day, you could be collaborating with motor design engineers on back-EMF waveform analysis, refining gate drive timing to optimize inverter efficiency, or working with firmware engineers to define current sensing interfaces and hardware abstraction layers. Across the week, you'll be involved in schematic capture and PCB layout reviews with your design team, participating in design review gates, and iterating on hardware based on test findings. You'll navigate the challenge of fitting high-performance drive electronics into compact, thermally constrained actuator packages—designing for the power density, reliability, and robustness our robots demand. Your work will span from concept and architecture through silicon bring-up, and you'll play a key role in defining the electronics roadmap for FAR's actuator portfolio. About the team Frontier AI & Robotics (FAR) is the team at Amazon building the next generation of embodied intelligence. FAR drives the development and implementation of advanced AI models within Amazon’s operations that enable robots to see, reason, and act on the world around them, supporting a number of different warehouse automation tasks.
US, CA, San Francisco
About the Role: We are looking for a Member of Technical Staff - Mechanical Engineer with a passion for building complex robotic systems from the ground up. This role is ideal for someone with a deep understanding of structural and electromechanical design, who thrives in hands-on environments and has experience taking high-performance robots from concept to production. You will work on the mechanical and system architecture of advanced robotics platforms, including high degree-of-freedom systems, where considerations such as actuator selection, thermal constraints, cabling, sensing integration, and manufacturability are critical. This is a cross-disciplinary role requiring close collaboration with electrical, software, and AI research teams. Beyond day-to-day hardware development, this role also provides exciting avenues to contribute to innovative research projects. Whether you’re interested in mechatronics, sensor integration, or novel actuation methods, you’ll find opportunities to explore your research interests while building real-world systems that advance in the field of high degree-of-freedom robotics. What You Bring: * A systems-thinking mindset with a strong grasp of cross-domain engineering tradeoffs. * A bias toward action: comfortable building, testing, and iterating rapidly. * A collaborative and communicative working style — especially in multi-disciplinary research environments. * A passion for robotics and advancing the state of the art in intelligent, capable machines. Key job responsibilities * Lead mechanical design of robotic subsystems and full platforms, including structures, joints, enclosures, and mechanisms for a research environment. * Own kinematic, dynamic, and structural analyses to guide the design and optimization of full systems and subsystems of high-DoF robots * Specify and integrate actuators and motors for high-torque density applications in high-degree-of-freedom systems. * Contribute to thermal management strategies for motors, sensors, and embedded compute hardware. * Integrate sensors such as lidar, stereo cameras, IMUs, tactile sensors, and compute modules into compact, functional assemblies. * Design and route cabling and wire harnesses, ensuring reliability, serviceability, and thermal/electrical integrity. * Prototype and test mechanical systems; support hands-on builds, debug sessions, and field testing. * Conduct root cause analysis on system-level failures or performance issues and implement design improvements. * Apply Design for Manufacturing (DFM) and Design for Assembly (DFA) principles to transition prototypes into scalable builds (10s–100s of units). * Collaborate with cross-functional teams in electrical engineering, controls, perception, and research to meet research and product goals. About the team Frontier AI & Robotics (FAR) is the team at Amazon building the next generation of embodied intelligence. FAR drives the development and implementation of advanced AI models within Amazon’s operations that enable robots to see, reason, and act on the world around them, supporting a number of different warehouse automation tasks.
US, MA, N.reading
Amazon is seeking exceptional talent to help develop the next generation of advanced robotics systems that will transform automation at Amazon's scale. We're building revolutionary robotic systems that combine cutting-edge AI, sophisticated control systems, and advanced mechanical design to create adaptable automation solutions capable of working safely alongside humans in dynamic environments. This is a unique opportunity to shape the future of robotics and automation at an unprecedented scale, working with world-class teams pushing the boundaries of what's possible in robotic dexterous manipulation, locomotion, and human-robot interaction. This role presents an opportunity to shape the future of robotics through innovative applications of deep learning and large language models. At Amazon we leverage advanced robotics, machine learning, and artificial intelligence to solve complex operational challenges at an unprecedented scale. Our fleet of robots operates across hundreds of facilities worldwide, working in sophisticated coordination to fulfill our mission of customer excellence. The ideal candidate will contribute to research that bridges the gap between theoretical advancement and practical implementation in robotics. You will be part of a team that's revolutionizing how robots learn, adapt, and interact with their environment. Join us in building the next generation of intelligent robotics systems that will transform the future of automation and human-robot collaboration. Key job responsibilities - Design and implement whole body control methods for balance, locomotion, and dexterous manipulation - Utilize state-of-the-art in methods in learned and model-based control - Create robust and safe behaviors for different terrains and tasks - Implement real-time controllers with stability guarantees - Collaborate effectively with multi-disciplinary teams to co-design hardware and algorithms for loco-manipulation - Mentor junior engineer and scientists
US, CA, San Francisco
Amazon is seeking exceptional talent to help develop the next generation of advanced robotics systems that will transform automation at Amazon's scale. We're building revolutionary robotic systems that combine cutting-edge AI, sophisticated control systems, and advanced mechanical design to create adaptable automation solutions capable of working safely alongside humans in dynamic environments. This is a unique opportunity to shape the future of robotics and automation at unprecedented scale, working with world-class teams pushing the boundaries of what's possible in robotic manipulation, locomotion, and human-robot interaction. This role presents an opportunity to shape the future of robotics through innovative applications of deep learning and large language models. The ideal candidate will contribute to research that bridges the gap between theoretical advancement and practical implementation in robotics. You will be part of a team that's revolutionizing how robots learn, adapt, and interact with their environment. Join us in building the next generation of intelligent robotics systems that will transform the future of automation and human-robot collaboration. As an Applied Scientist, you will develop and improve machine learning systems that help robots perceive, reason, and act in real-world environments. You will leverage state-of-the-art models (open source and internal research), evaluate them on representative tasks, and adapt/optimize them to meet robustness, safety, and performance needs. You will invent new algorithms where gaps exist. You’ll collaborate closely with research, controls, hardware, and product-facing teams, and your outputs will be used by downstream teams to further customize and deploy on specific robot embodiments. Key job responsibilities As an Applied Scientist in the Foundations Model team, you will: - Leverage state-of-the-art models for targeted tasks, environments, and robot embodiments through fine-tuning and optimization. - Execute rapid, rigorous experimentation with reproducible results and solid engineering practices, closing the gap between sim and real environments. - Build and run capability evaluations/benchmarks to clearly profile performance, generalization, and failure modes. - Contribute to the data and training workflow: collection/curation, dataset quality/provenance, and repeatable training recipes. - Write clean, maintainable, well commented and documented code, contribute to training infrastructure, create tools for model evaluation and testing, and implement necessary APIs - Stay current with latest developments in foundation models and robotics, assist in literature reviews and research documentation, prepare technical reports and presentations, and contribute to research discussions and brainstorming sessions. - Work closely with senior scientists, engineers, and leaders across multiple teams, participate in knowledge sharing, support integration efforts with robotics hardware teams, and help document best practices and methodologies. About the team We leverage advanced robotics, machine learning, and artificial intelligence to solve complex operational challenges at unprecedented scale. Our fleet of robots operates across hundreds of facilities worldwide, working in sophisticated coordination to fulfill our mission of customer excellence. We are pioneering the development of robotics foundation models that: - Enable unprecedented generalization across diverse tasks - Integrate multi-modal learning capabilities (visual, tactile, linguistic) - Accelerate skill acquisition through demonstration learning - Enhance robotic perception and environmental understanding - Streamline development processes through reusable capabilities
US, CA, San Francisco
Amazon is seeking an exceptional Sr. Applied Scientist to lead the development of perception systems that harness the power of radar and thermal imaging — enabling robots to perceive and operate reliably in conditions where conventional vision alone falls short. In this role, you will develop ML-driven perception pipelines for non-traditional sensing modalities, pushing the boundaries of what robots can see, understand, and act upon in challenging real-world environments. At Amazon, we leverage advanced robotics, machine learning, and artificial intelligence to solve some of the most complex operational challenges at a scale unlike anywhere else in the world. Our fleet of robots spans hundreds of facilities globally, working in sophisticated coordination to deliver on our promise of customer excellence. As a Sr. Applied Scientist in Multi-Modal Perception, you will apply deep computer vision expertise alongside classical signal processing techniques for radar and thermal imaging — modalities that provide robustness in adverse conditions and sensing capability beyond the visible spectrum. You will develop ML-based methods to extract semantic and geometric information from radar point clouds, radar tensors, and thermal imagery, and fuse these with camera and depth data to build perception systems that are reliable, comprehensive, and ready for deployment at scale. Your work will unlock new capabilities for our robots — enabling reliable detection, classification, and scene understanding in low-visibility conditions, cluttered environments, and scenarios where traditional RGB-based perception is insufficient. You will lead research that translates cutting-edge advances in deep learning and computer vision to these underexplored but high-impact sensing modalities. Join us in building the next generation of multi-modal perception systems that will define the future of autonomous robotics at scale. Key job responsibilities - Lead the research, design, and development of ML-based perception pipelines for radar and thermal/infrared imaging modalities - Develop deep learning models for object detection, classification, segmentation, and tracking using radar data (point clouds, range-Doppler maps, radar tensors) and thermal imagery - Design and implement multi-modal fusion architectures that combine radar, thermal, camera, and depth data for robust, all-condition perception - Develop novel representations and feature extraction methods tailored to the unique characteristics of radar and thermal sensors (sparsity, noise profiles, spectral properties) - Build end-to-end perception systems — from raw sensor data processing and calibration to model training, evaluation, and real-time deployment - Collaborate closely with Hardware, Navigation, Planning, and Controls teams to define sensor configurations and deliver integrated autonomy solutions - Establish benchmarks, datasets, and evaluation frameworks for radar and thermal perception - Mentor scientists and engineers; foster a culture of scientific rigor, innovation, and high-impact delivery - Publish research findings in top-tier venues (CVPR, ICCV, ECCV, ICRA, NeurIPS, etc.) and contribute to patents A day in the life - Train ML models for deployment in simulation and real-world robots, identify and document their limitations post-deployment - Drive technical discussions within your team and with key stakeholders to develop innovative solutions to address identified limitations - Actively contribute to brainstorming sessions on adjacent topics, bringing fresh perspectives that help peers grow and succeed — and in doing so, build lasting trust across the team - Mentor team members while maintaining significant hands-on contribution to technical solutions About the team Our team is a diverse group of scientists and engineers passionate about building intelligent machines. We value curiosity, rigor, and a bias for action. We believe in learning from failure and iterating quickly toward solutions that matter.