History of SCOT lead image.jpg
In a little over a decade, Amazon’s Supply Chain Optimization Technologies team (SCOT) has built one of the largest and most sophisticated automated decision-making systems in the world.

Solving some of the largest, most complex operations problems

How Amazon’s Supply Chain Optimization Technologies team has evolved over time to meet a challenge of staggering complexity.

Amazon’s ability to grow to an unprecedented scale, while simultaneously meeting the growing expectations of its customers, particularly around delivery speeds, is a success story on many levels.

One of the keys to that success is a team that is fundamental to Amazon’s increasingly rapid transformation. A largely unsung team that in little more than a decade has built one of the largest and most sophisticated automated decision-making systems in the world. A team that has harnessed simulation, mathematical optimization, and machine learning to create the capability to deliver products at speeds once thought impossible at the mass market scale — in some cases within 2 hours — across a fulfillment network of dizzying complexity.

This is Amazon’s Supply Chain Optimization Technologies team (SCOT). If the Amazon Store were a human body, think of SCOT as its nervous system: essential to life, quietly acting in the background to automatically optimize critical functions and flows.

“At SCOT, using science and technology to optimize the supply chain is not just an enabler, it's our core focus,” says Ashish Agiwal, vice president, Fulfillment Optimization.

Today, SCOT’s systems have end-to-end responsibility for orchestrating Amazon Store’s supply chain.

SCOT is responsible for computing the delivery promises Amazon Store customers see when ordering, forecasting demand for its hundreds of millions of products, deciding which products to stock and in what quantities, allocating stock to warehouses and fulfillment centers (FCs) in anticipation of regional customer needs, offering markdown pricing when necessary, working out how to consolidate customer orders for maximum efficiency, coordinating inbound and inventory management from millions of sellers worldwide, and so much more.

But it was not always thus. Far from it, says Deepak Bhatia, vice president of SCOT, whose team’s methodologies and mechanisms will be a topic of conversation at INFORMS, the world’s largest operations research and analytics conference, taking place next week in Indianapolis, Indiana.

“A very different world”

In 2011 when Bhatia joined Amazon, the team that would evolve into SCOT was much smaller, he recalls, and its main concern was trying to automate Amazon’s product buying and inventory management.

“It was a very different world. The notion of an end-to-end supply chain tech function wasn’t there. But there were powerful intellects and a lot of energy in that team.”

It was a huge deal. Will it improve things, and if so by how much? Will it completely break? In the beginning, we took baby steps. We made changes one product category at a time.
Deepak Bhatia

In 2011, Amazon’s total revenue reached nearly $48 billion, and it was already clear to the senior leadership that the company’s scale would require the automation of buying and the management of inventory; monitoring spreadsheets was not a long-term solution. Indeed, even then the sheer range of products offered by Amazon meant the “illusion of control” was already kicking in among the groups managing inventory, says Bhatia. In fact, Bhatia notes, the sheer complexity and scale meant the challenge was beyond the scope of any team, let alone an individual.

In response, Bhatia and his colleagues set out to develop complex algorithms that could make buying and inventory placement decisions for a given category of products. And while that was all well and good in theory, trying it for real was a watershed moment.

“It was a huge deal. Will it improve things, and if so by how much? Will it completely break? In the beginning, we took baby steps. We made changes one product category at a time.”

Media category products were the early adopters. In randomized, controlled trials that ran over several months, some of these products were managed in the traditional way, and some by the new algorithms. Crucially, human judgement could still override the system’s decisions if deemed necessary.

The trial went well — the algorithms’ decisions were overridden only a small percentage of the time — and the approach was expanded across additional categories, including consumables such as groceries.

Going all in

“Then one day, in a high-level meeting someone said: ‘What if we go all in and make these categories 100% automated?’, Bhatia recalls. “Someone responded ‘All hell will break loose’.” And that, Bhatia notes, is where Amazon’s comfort with risk-taking came into play. “They decided to go all in.” That was around 2014. And the systems worked as designed, improving customer experience outcomes like in-stock rates while reducing costs.

One day, in a high-level meeting someone said: ‘What if we go all in and make these categories 100% automated?’ Someone responded ‘All hell will break loose’.
Deepak Bhatia

“After this success, automating one product category at a time started to feel too risk-averse,” says Bhatia.

Over the next few years, the technology was rapidly rolled out across the retail business, all the while being iterated and improved upon, with increasing success in terms of efficiency and customer satisfaction. At the same time, the rapidly growing SCOT team was developing technologies that would enable them to join the dots from one end of the Amazon supply chain to the other.

For example, SCOT grew its own demand forecasting team, with a sharp focus on scientific and technological innovation. The forecasting aspect of SCOT’s work started out as a patchwork of models, which evolved eventually to deep learning approaches to decide what features of the retail data were most important.

Related content
The story of a decade-plus long journey toward a unified forecasting model.

Today, building on a 2018 in-house research breakthrough, the forecasting team is using a single model that learns business-critical demand patterns without even being told what to look for. Called the Multi-Horizon Quantile Recurrent Forecaster, the model can accurately forecast shifting seasonal demand, future planned-event demand spikes and even “cold-start forecasting” for products with limited sales history.

Forecast accuracy is particularly important at Amazon’s scale.

“SCOT is directing hundreds of billions of dollars of product flows. That means just a few percentage points of change in our topline predictions equates to several fulfillment centers worth of products,” says Salal Humair, a SCOT vice president and Amazon distinguished scientist.

As SCOT’s demand forecasting has improved, so too has its ability to ensure that products were best positioned to fulfill those anticipated customer orders.

The challenge of One-Day Delivery

While Amazon’s largely manual inventory management system became increasingly automated in the early part of the previous decade, those changes proved insufficient for the logistical challenges that lay ahead: Amazon’s ever more ambitious customer-delivery promises, particularly its One-Day Delivery promise in the US in 2019, and Prime Now, Amazon's 2-hour grocery businesses.

“Before we announced the One-Day Delivery promise, a detailed SCOT simulation called Mechanical Sensei was the key to figuring out how much additional inventory we would need, where it would be placed, and how that would affect shipping costs,” says Humair.

So, at a time when Amazon was continuing to expand globally, the company’s bold delivery promises meant there was a pressing need to locate products closer to Amazon customers. This meant a significant increase in local distribution facilities, and yet another challenge: which items should be locally placed?

“Most of our systems were designed to operate under the simplifying assumption that demand for each item sold on the website is independent, but we know that’s not the case in reality,” says Jeffrey Maurer, vice president, Inventory Planning and Control. “When one product goes out of stock, or isn’t available for fast delivery, demand shifts to other products. We can’t make every product locally available in every location, so how do we account for these constraints while trying to maximize customer satisfaction?”

That nut has yet to be comprehensively cracked, but the simple fact of adding local warehousing resulted in a supply chain network of such layered complexity, that the SCOT team realized its automated network would need yet another radical redesign.

From left to right, Ashish Agiwal, vice president, Fulfillment Optimization; Deepak Bhatia, vice president of SCOT; Salal Humair, a SCOT vice president and Amazon distinguished scientist; Jeffrey Maurer, vice president, Inventory Planning and Control; and Piyush Saraogi, vice president, Fulfillment By Amazon.
From left to right, Ashish Agiwal, vice president, Fulfillment Optimization; Deepak Bhatia, vice president of SCOT; Salal Humair, a SCOT vice president and Amazon distinguished scientist; Jeffrey Maurer, vice president, Inventory Planning and Control; and Piyush Saraogi, vice president, Fulfillment By Amazon.

It took them several years to solve for the new set of challenges.

“We had to iterate, fail, iterate, fail, iterate, fail many times,” Humair recalls.

Then, in 2020, the team unveiled its latest breakthrough: the “multi-echelon system”. This is a multi-product, multi-layered, multi-fulfillment center model for optimizing inventory levels for varying delivery speeds in a space where future demand, product lead times and capacity constraints are all uncertain, and where real-time customer promises and fulfillment make the demand patterns seen by FCs very hard to characterize.

“We have a strong sense of pride for the work the SCOT team is doing,” says Bhatia. “These sorts of solutions are just unheard of in academia and industry.”

The SCOT team was able to demonstrate significant improvements to inventory buying and placement through the multi-echelon system, but rolling it out across the business was a challenge.

“Not only did the teams, systems and coordination mechanisms all need to be rebuilt, but we also had to keep the business running,” says Humair. “We had to change the engine while still flying the plane!”

Related content
The SCOT science team used lessons from the past — and improved existing tools — to contend with “a peak that lasted two years”.

And then there was COVID. “The impact of COVID on our supply chain brought capacity management to the forefront,” says Maurer. “It was no longer enough to be approximately right at network level in terms of capacity management; we needed to get it exactly right at every facility and connection in our network.”

Ultimately, the successful combination of powerful forecasting, multi-echelon inventory management‚ and several other algorithms and systems — running the gamut from fulfillment to customer promise, inventory health, and inventory placement — along with unparalleled distribution capacity enabled Amazon to deal with the effects of COVID as well as the enormous surges in demand created by shopping events such as Cyber Monday and Amazon’s own Prime Day. The latter, this year, resulted in the record-breaking purchase of more than 300 million items across more than 20 countries.

Future challenges

So what are the current and future challenges in SCOT’s sights?

“The range of problems requiring disruptive technology solutions is not exhausted,” Humair notes.

For example, about 60% of the Amazon Store’s sales is through Fulfillment by Amazon (FBA), a service for small-and-medium sized businesses to provide unique selection for Amazon customers at low costs and fast speeds.

Optimizing supply chain efficiency would be hard enough at Amazon’s scale, even if Amazon was in full control of every aspect of its fulfillment network. “However we work with millions of FBA sellers with different cost structures and inventory management practices who independently decide what to sell, how much to inbound, and how to price their products,” notes Piyush Saraogi, vice president, FBA.

Related content
INFORMS talk explores techniques Amazon’s Supply Chain Optimization Technologies organization is testing to fulfill customer orders more efficiently.

These businesses share Amazon’s storage capacity and transportation network, but make their own decisions on pricing and inventory management. COVID played a role here as well: capacity constraints meant the FBA team had to adopt limits on restocking.

“Balancing the supply and demand of capacity in a network with 60% FBA inventory is an incredibly complex business problem,” Saraogi says. “To balance capacity in the marketplace setting, we have to invent new approaches that offer predictability to our sellers and are consistent with our general laissez-faire approach to FBA, while giving Amazon the flexibility to balance the network and ensure our store has all the in-stock selection customers are looking for.

Sellers may have developed a blockbuster new product, received fresh capital, or shifted distribution toward FBA. The science for leveraging this key seller input in a scalable manner into our inventory and capacity management systems is an unchartered territory that our scientists, engineers, and product managers are working on.”

“This is a big challenge for SCOT,” Bhatia agrees. “How can we support all our independent third-party sellers in ways that result in a triple win, for them, for Amazon, and for our customers?”

The SCOT team also wrestles with something that is increasingly prevalent in the modern world of complex optimization modelling and machine learning: how to explain automated decisions to the people who need to understand why things are happening as they are.

“We have hundreds of people fielding questions from selling partners and other stakeholders,” says Humair. “Why have my in-stock rates changed? Why do I have more inventory? Each such question requires manual deep dives, hundreds of person hours to answer.” The team is currently developing new methods to make its systems more explainable.

These systems optimize millions of customer promises every second and billions of customer order fulfillment plans daily. This is done by evaluating hundreds of millions of potential transport routes across the network and tracking over a billion real-time inventory updates every day
Ashish Agiwal

Indeed, the very fact that such technology is extremely complex and requires a sophisticated technical background to fully understand makes the idea of going all-in on data science a daunting proposition,” says Humair.

“Data is always ambiguous, so you need a lot of conviction and judgment to stay the course. But it has yielded spectacular benefits for Amazon, for our selling partners, and, most importantly, for our customers.”

Another big challenge is managing transportation through Amazon’s growing delivery fleet of trucks, planes, sort centers, and delivery stations. SCOT’s Fulfillment Optimization team, led by Agiwal, runs the systems that makes outbound fulfillment decisions.

“These systems optimize millions of customer promises every second and billions of customer order fulfillment plans daily. This is done by evaluating hundreds of millions of potential transport routes across the network and tracking over a billion real-time inventory updates every day,” he says.

Amazon’s operation of its own transportation network has created what Agiwal calls “a very exciting problem space” that his team is now addressing. “Designing the network topology, optimizing connections in a multi-tier multi-modal network, and coordinating all operational resources at Amazon scale is unprecedented,” he notes.

“Our new priority is ensuring that our own delivery trucks or cargo planes are as full as possible while also meeting our customer-delivery windows,” says Bhatia.

That problem space also illustrates why Amazon SCOT is so unique.

“We are solving some of the largest, most complex problems in operations using solutions entirely built in-house,” says Agiwal. “We have some of the best scientists, engineers and product managers in the world, working together and controlling their own destiny. We have the luxury of large and diverse data sets and the ability to innovate and experiment at a massive scale with immediate, measurable impact on customer experience and costs. It is truly gratifying.”

That complexity also explains why SCOT is so appealing to data scientists, economists, and machine learning scientists of all stripes.

“Our problem dimensionality is high and closed-form solutions are rarely applicable,” notes Maurer. “Our teams continually invent and implement new algorithms and evolve the fundamental structure of our systems as the physical network changes. SCOT is a great place for people who are drawn to exceptionally complex problem spaces and motivated by having high production impact.”

Related content

  • Amazon Research Awards team
    March 25, 2026
    Submissions open March 25 and close on May 6, 2026
  • Staff writer
    December 29, 2025
    From foundation model safety frameworks and formal verification at cloud scale to advanced robotics and multimodal AI reasoning, these are the most viewed publications from Amazon scientists and collaborators in 2025.
  • Staff writer
    December 29, 2025
    From quantum computing breakthroughs and foundation models for robotics to the evolution of Amazon Aurora and advances in agentic AI, these are the posts that captured readers' attention in 2025.
IN, KA, Bengaluru
RBS (Retail Business Services) Tech team works towards enhancing the customer experience (CX) and their trust in product data by providing technologies to find and fix Amazon CX defects at scale. Our platforms help in improving the CX in all phases of customer journey, including selection, discoverability & fulfilment, buying experience and post-buying experience (product quality and customer returns). The team also develops GenAI platforms for automation of Amazon Stores Operations. As a Sciences team in RBS Tech, we focus on foundational ML research and develop scalable state-of-the-art ML solutions to solve the problems covering customer experience (CX) and Selling partner experience (SPX). We work to solve problems related to multi-modal understanding (text and images), task automation through multi-modal LLM Agents, supervised and unsupervised techniques, multi-task learning, multi-label classification, aspect and topic extraction for Customer Anecdote Mining, image and text similarity and retrieval using NLP and Computer Vision for product groupings and identifying duplicate listings in product search results. Key job responsibilities As an Applied Scientist, you will be responsible to design and deploy scalable GenAI, NLP and Computer Vision solutions that will impact the content visible to millions of customer and solve key customer experience issues. You will develop novel LLM, deep learning and statistical techniques for task automation, text processing, image processing, pattern recognition, and anomaly detection problems. You will define the research and experiments strategy with an iterative execution approach to develop AI/ML models and progressively improve the results over time. You will partner with business and engineering teams to identify and solve large and significantly complex problems that require scientific innovation. You will independently file for patents and/or publish research work where opportunities arise. The RBS org deals with problems that are directly related to the selling partners and end customers and the ML team drives resolution to organization level problems. Therefore, the Applied Scientist role will impact the large product strategy, identifies new business opportunities and provides strategic direction which is very exciting.
IN, KA, Bengaluru
Selection Monitoring team is responsible for making the biggest catalog on the planet even bigger. In order to drive expansion of the Amazon catalog, we develop advanced ML/AI technologies to process billions of products and algorithmically find products not already sold on Amazon. We work with structured, semi-structured and Visually Rich Documents using deep learning, NLP and image processing. The role demands a high-performing and flexible candidate who can take responsibility for success of the system and drive solutions from research, prototype, design, coding and deployment. We are looking for Applied Scientists to tackle challenging problems in the areas of Information Extraction, Efficient crawling at internet scale, developing ML models for website comprehension and agents to take multi-step decisions. You should have depth and breadth of knowledge in text mining, information extraction from Visually Rich Documents, semi structured data (HTML) and advanced machine learning. You should also have programming and design skills to manipulate Semi-Structured and unstructured data and systems that work at internet scale. You will encounter many challenges, including: - Scale (build models to handle billions of pages), - Accuracy (requirements for precision and recall) - Speed (generate predictions for millions of new or changed pages with low latency) - Diversity (models need to work across different languages, market places and data sources) You will help us to - Build a scalable system which can algorithmically extract information from world wide web. - Intelligently cluster web pages, segment and classify regions, extract relevant information and structure the data available on semi-structured web. - Build systems that will use existing Knowledge Base to perform open information extraction at scale from visually rich documents. Key job responsibilities - Use AI, NLP and advances in LLMs/SLMs and agentic systems to create scalable solutions for business problems. - Efficiently Crawl web, Automate extraction of relevant information from large amounts of Visually Rich Documents and optimize key processes. - Design, develop, evaluate and deploy, innovative and highly scalable ML models, esp. leveraging latest advances in RL-based fine tuning methods like DPO, GRPO etc. - Work closely with software engineering teams to drive real-time model implementations. - Establish scalable, efficient, automated processes for large scale model development, model validation and model maintenance. - Lead projects and mentor other scientists, engineers in the use of ML techniques. - Publish innovation in research forums.
US, CA, Santa Clara
We are seeking an Applied Scientist II to join Amazon Customer Service's Science team, where you will build AI-based automated customer service solutions using state-of-the-art techniques in retrieval-augmented generation (RAG), agentic AI, and post-training of large language models. You will work at the intersection of research and production, developing intelligent systems that directly impact millions of customers while collaborating with scientists, engineers, and product managers in a fast-paced, innovative environment. Key job responsibilities - Design, develop, and deploy information retrieval systems and RAG pipelines using embedding models, reranking algorithms, and generative models to improve customer service automation - Conduct post-training of large language models using techniques such as Supervised Fine-Tuning (SFT), Direct Preference Optimization (DPO), and Group Relative Policy Optimization (GRPO) to optimize model performance for customer service tasks - Build and curate high-quality datasets for model training and evaluation, ensuring data quality and relevance for customer service applications - Design and implement comprehensive evaluation frameworks, including data curation, metrics development, and methods such as LLM-as-a-judge to assess model performance - Develop AI agents for automated customer service, understanding their advantages and common pitfalls, and implementing solutions that balance automation with customer satisfaction - Independently perform research and development with minimal guidance, staying current with the latest advances in machine learning and AI - Collaborate with cross-functional teams including engineering, product management, and operations to translate research into production systems - Publish findings and contribute to the broader scientific community through papers, patents, and open-source contributions - Monitor and improve deployed models based on real-world performance metrics and customer feedback A day in the life As an Applied Scientist II, you will start your day reviewing metrics from deployed models and identifying opportunities for improvement. You might spend your morning experimenting with new post-training techniques to improve model accuracy, then collaborate with engineers to integrate your latest model into production systems. You will participate in design reviews, share your findings with the team, and mentor junior scientists. You will balance research exploration with practical implementation, always keeping the customer experience at the forefront of your work. You will have the autonomy to drive your own research agenda while contributing to team goals and deliverables. About the team The Amazon Customer Service Science team is dedicated to revolutionizing customer support through advanced AI and machine learning. We are a diverse group of scientists and engineers working on some of the most challenging problems in natural language understanding and AI automation. Our team values innovation, collaboration, and a customer-obsessed mindset. We encourage experimentation, celebrate learning from failures, and are committed to maintaining Amazon's high bar for scientific rigor and operational excellence. You will have access to world-class computing resources, massive datasets, and the opportunity to work alongside some of the brightest minds in AI and machine learning.
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, Sunnyvale
Amazon's AGI Information is seeking an exceptional Applied Scientist to drive science advancements in the Amazon Knowledge Graph team (AKG). AKG is re-inventing knowledge graphs for the LLM era, optimizing for LLM grounding. At the same time, AKG is innovating to utilize LLMs in the knowledge graph construction pipelines to overcome obstacles that traditional technologies could not overcome. As a member of the AKG IR team, you will have the opportunity to work on interesting problems with immediate customer impact. The team is addressing challenges in web-scale knowledge mining, fact verification, multilingual information retrieval, and agent memory operating over Graphs. You will also have the opportunity to work with scientists working on the other challenges, and with the engineering teams that deliver the science advancements to our customers. A successful candidate has a strong machine learning and agent background, is a master of state-of-the-art techniques, has a strong publication record, has a desire to push the envelope in one or more of the above areas, and has a track record of delivering to customers. The ideal candidate enjoys operating in dynamic environments, is self-motivated to take on new challenges, and enjoys working with customers, stakeholders, and engineering teams to deliver big customer impact, shipping solutions via rapid experimentation and then iterating on user feedback and interactions. Key job responsibilities As an Applied Scientist, you will leverage your technical expertise and experience to demonstrate leadership in tackling large complex problems. You will collaborate with applied scientists and engineers to develop novel algorithms and modeling techniques to build the knowledge graph that delivers fresh factual knowledge to our customers, and that automates the knowledge graph construction pipelines to scale to many billions of facts. Your first responsibility will be to solve entity resolution to enable conflating facts from multiple sources into a single graph entity for each real world entity. You will develop generic solutions that work fo all classes of data in AKG (e.g., people, places, movies, etc.), that cope with sparse, noisy data, that scale to hundreds of millions of entities, and that can handle streaming data. You will define a roadmap to make progress incrementally and you will insist on scientific rigor, leading by example.
US, CA, Sunnyvale
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 innovative 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. 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 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 a Senior 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 a Senior 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.
JP, 13, Tokyo
Amazon.com strives to be Earth's most customer-centric company where people can find and discover anything they want to buy. We hire the world's brightest minds and offer them a fast-paced, technologically sophisticated, and collaborative work environment. We are seeking a talented, customer-focused Economist to join our JCI Measurement and Optimization Science Team (JCI MOST). In this role, you will design experiments and build econometric models to measure intervention impacts and deliver data-driven insights that inform leadership decisions. Amazon Economists leverage our world-class data systems to build sophisticated econometric models, drawing from diverse methodological approaches including econometric theory, empirical IO, empirical health, labor, and public economics—all highly valued skillsets at Amazon. You will work in a fast-moving environment solving critical business problems as part of cross-functional teams embedded within business units or our central science and economics organization. This role requires exceptional Causal Inference expertise, strong cross-functional collaboration skills, business acumen, and an entrepreneurial spirit to drive measurable improvements in our pricing quality and business outcomes.
CN, 31, Shanghai
As a Sr. Applied Scientist, you will be responsible for bringing new product designs through to manufacturing. You will work closely with multi-disciplinary groups including Product Design, Industrial Design, Hardware Engineering, and Operations, to drive key aspects of engineering of consumer electronics products. In this role, you will use expertise in physical sciences, theoretical, numerical or empirical techniques to create scalable models representing response of physical systems or devices, including: * Applying domain scientific expertise towards developing innovative analysis and tests to study viability of new materials, designs or processes * Working closely with engineering teams to drive validation, optimization and implementation of hardware design or software algorithmic solutions to improve product and customer risks * Establishing scalable, efficient, automated processes to handle large scale design and data analysis * Conducting research into use conditions, materials and analysis techniques * Tracking general business activity including device health in field and providing clear, compelling reports to management on a regular basis * Developing, implementing guidelines to continually optimize design processes * Using simulation tools like LS-DYNA, and Abaqus for analysis and optimization of product design * Using of programming languages like Python and Matlab for analytical/statistical analyses and automation * Demonstrating strong understanding across multiple physical science domains, e.g. structural, thermal, fluid dynamics, and materials * Developing, analyzing and testing structural solutions from concept design, feature development, product architecture, through system validation * Supporting product development and optimization through application of analysis and testing of complex electronic assemblies using advanced simulation and experimentation tools and techniques
US, WA, Redmond
Amazon Leo is an initiative to launch a constellation of Low Earth Orbit satellites that will provide low-latency, high-speed broadband connectivity to unserved and underserved communities around the world. As a Communications Engineer in Modeling and Simulation, this role is primarily responsible for the developing and analyzing high level system resource allocation techniques for links to ensure optimal system and network performance from the capacity, coverage, power consumption, and availability point of view. Be part of the team defining the overall communication system and architecture of Amazon Leo’s broadband wireless network. This is a unique opportunity to innovate and define novel wireless technology with few legacy constraints. The team develops and designs the communication system of Leo and analyzes its overall system level performance, such as overall throughput, latency, system availability, packet loss, etc., as well as compatibility for both connectivity and interference mitigation with other space and terrestrial systems. This role in particular will be responsible for 1) evaluating complex multi-disciplinary trades involving RF bandwidth and network resource allocation to customers, 2) understanding and designing around hardware/software capabilities and constraints to support a dynamic network topology, 3) developing heuristic or solver-based algorithms to continuously improve and efficiently use available resources, 4) demonstrating their viability through detailed modeling and simulation, 5) working with operational teams to ensure they are implemented. This role will be part of a team developing the necessary simulation tools, with particular emphasis on coverage, capacity, latency and availability, considering the yearly growth of the satellite constellation and terrestrial network. Export Control Requirement: Due to applicable export control laws and regulations, candidates must be a U.S. citizen or national, U.S. permanent resident (i.e., current Green Card holder), or lawfully admitted into the U.S. as a refugee or granted asylum. Key job responsibilities • Work within a project team and take the responsibility for the Leo's overall communication system design and architecture • Extend existing code/tools and create simulation models representative of the target system, primarily in MATLAB • Design interconnection strategies between fronthaul and backhaul nodes. Analyze link availability, investigate link outages, and optimize algorithms to study and maximize network performance • Use RF and optical link budgets with orbital constellation dynamics to model time-varying system capacity • Conduct trade-off analysis to benefit customer experience and optimization of resources (costs, power, spectrum), including optimization of satellite constellation design and link selection • Work closely with implementation teams to simulate expected system level performance and provide quick feedback on potential improvements • Analyze and minimize potential self-interference or interference with other communication systems • Provide visualizations, document results, and communicate them across multi-disciplinary project teams to make key architectural decisions
US, WA, Seattle
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 electromechanical 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 manipulation, locomotion, and human-robot interaction. Amazon is seeking a talented and motivated Principal Applied Scientist to develop tactile sensors and guide the sensing strategy for our gripper design. The ideal candidate will have extensive experience in sensor development, analysis, testing and integration. This candidate must have the ability to work well both independently and in a multidisciplinary team setting. Key job responsibilities - Author functional requirements, design verification plans and test procedures - Develop design concepts which meet the requirements - Work with engineering team members to implement the concepts in a product design - Support product releases to manufacturing and customer deployments - Work efficiently to support aggressive schedules