Amazon Redshift re-invented research paper and photos of Rahul Pathak, vice president of analytics at AWS, and Ippokratis Pandis, AWS senior principal engineer
The "Amazon Redshift re-invented" research paper will be presented at a leading database conference next month. Two of the paper's authors, Rahul Pathak (top right), vice president of analytics at AWS, and Ippokratis Pandis (bottom right), an AWS senior principal engineer, discuss the origins of Redshift, how the system has evolved in the past decade, and where they see the service evolving in the years ahead.

Amazon Redshift: Ten years of continuous reinvention

Two authors of Amazon Redshift research paper that will be presented at leading international forum for database researchers reflect on how far the first petabyte scale cloud data warehouse has advanced since it was announced ten years ago.

Nearly ten years ago, in November 2012 at the first-ever Amazon Web Services (AWS) re:Invent, Andy Jassy, then AWS senior vice president, announced the preview of Amazon Redshift, the first fully managed, petabyte-scale cloud data warehouse. The service represented a significant leap forward from traditional on-premises data warehousing solutions, which were expensive, inflexible, and required significant human and capital resources to operate.

In a blog post on November 28, 2012, Werner Vogels, Amazon chief technical officer, highlighted the news: “Today, we are excited to announce the limited preview of Amazon Redshift, a fast and powerful, fully managed, petabyte-scale data warehouse service in the cloud.”

Further in the post, Vogels added, “The result of our focus on performance has been dramatic. Amazon.com’s data warehouse team has been piloting Amazon Redshift and comparing it to their on-premise data warehouse for a range of representative queries against a two billion row data set. They saw speedups ranging from 10x – 150x!”

That’s why, on the day of the announcement, Rahul Pathak, then a senior product manager, and the entire Amazon Redshift team were confident the product would be popular.

“But we didn’t really understand how popular,” he recalls.

“At preview we asked customers to sign up and give us some indication of their data volume and workloads,” Pathak, now vice president of Relational Engines at AWS, said. “Within about three days we realized that we had ten times more demand for Redshift than we had planned for the entire first year of the service. So we scrambled right after re:Invent to accelerate our hardware orders to ensure we had enough capacity on the ground for when the product became generally available in early 2013. If we hadn’t done that preview, we would have been caught short.”

The Redshift team has been sprinting to keep apace of customer demand ever since. Today, the service is used by tens of thousands of customers to process exabytes of data daily. In June a subset of the team will present the paper “Amazon Redshift re-invented ” at a leading international forum for database researchers, practitioners, and developers, the ACM SIGMOD/PODS Conference in Philadelphia.

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The paper highlights four key areas where Amazon Redshift has evolved in the past decade, provides an overview of the system architecture, describes its high-performance transactional storage and compute layers, details how smart autonomics are provided, and discusses how AWS and Redshift make it easy for customers to use the best set of services to meet their needs.

Amazon Science recently connected with two of the paper’s authors, Pathak, and Ippokratis Pandis, an AWS senior principal engineer, to discuss the origins of Redshift, how the system has evolved over the past decade, and where they see the service evolving in the years ahead.

  1. Q. 

    Can you provide some background on the origin story for Redshift? What were customers seeking, and how did the initial version address those needs?

    A. 

    Rahul: We had been meeting with customers who in the years leading up to the launch of Amazon Redshift had moved just about every workload they had to the cloud except for their data warehouse. In many cases, it was the last thing they were running on premises, and they were still dealing with all of the challenges of on-premises data warehouses. They were expensive, had punitive licensing, were hard to scale, and customers couldn’t analyze all of their data. Customers told us they wanted to run data warehousing at scale in the cloud, that they didn’t want to compromise on performance or functionality, and that it had to be cost-effective enough for them to analyze all of their data.

    So, this is what we started to build, operating under the code name Cookie Monster. This was at a time when customers’ data volumes were exploding, and not just from relational databases, but from a wide variety of sources. One of our early private beta customers tried it and the results came back so fast they thought the system was broken. It was about 10 to 20 times faster than what they had been using before. Another early customer was pretty unhappy with gaps in our early functionality. When I heard about their challenges, I got in touch, understood their feedback, and incorporated it into the service before we made it generally available in February 2013. This customer soon turned into one of our biggest advocates.

    When we launched the service and announced our pricing at $1000 a terabyte per year, people just couldn’t believe we could offer a product with that much capability at such a low price point. The fact that you could provision a data warehouse in minutes instead of months also caught everyone’s attention. It was a real game-changer for this industry segment.

    Ippokratis: I was at IBM Research at the time working on database technologies there, and we recognized that providing data warehousing as a cloud service was a game changer. It was disruptive. We were working with customers’ on-premises systems where it would take us several days or weeks to resolve an issue, whereas with a cloud data warehouse like Redshift, it would take minutes. It was also apparent that the rate of innovation would accelerate in the cloud.

    In the on-premises world, it was taking months if not years to get new functionality into a software release, whereas in the cloud new capabilities could be introduced in weeks, without customers having to change a single line of code in their consuming applications. The Redshift announcement was an inflection point; I got really interested in the cloud, and cloud data warehouses, and eventually joined Amazon [Ippokratis joined the Redshift team as a principal engineer in Oct. 2015].

  2. Q. 

    How has Amazon Redshift evolved over the past decade since the launch nearly 10 years ago?

    A. 

    Ippokratis: As we highlight in the paper, the service has evolved at a rapid pace in response to customers’ needs. We focused on four main areas: 1) customers’ demand for high-performance execution of increasingly complex analytical queries; 2) our customers’ need to process more data and significantly increase the number of users who need to derive insights from that data; 3) customers’ need for us to make the system easier to use; and 4) our customers’ desire to integrate Redshift with other AWS services, and the AWS ecosystem. That’s a lot, so we’ll provide some examples across each dimension.

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    Offering the leading price performance has been our primary focus since Rahul first began working on what would become Redshift. From the beginning, the team has focused on making core query execution latency as low as possible so customers can run more workloads, issue more jobs into the system, and run their daily analysis. To do this, Redshift generates C++ code that is highly optimized and then sends it to the distributor in the parallel database and executes this highly optimized code. This makes Redshift unique in the way it executes queries, and it has always been the core of the service.

    We have never stopped innovating here to deliver our customers the best possible performance. Another thing that’s been interesting to me is that in the traditional business intelligence (BI) world, you optimize your system for very long-running jobs. But as we observe the behavior of our customers in aggregate, what’s surprising is that 90 percent of our queries among the billions we run daily in our service execute in less than one second. That’s not what people had traditionally expected from a data warehouse, and that has changed the areas of the code that we optimize.

    Rahul: As Ippokratis mentioned, the second area we focused on in the paper was customers’ need to process more data and to use that data to drive value throughout the organization. Analytics has always been super important, but eight or ten years ago it wasn’t necessarily mission critical for customers in the same way transactional databases were. That has definitely shifted. Today, core business processes rely on Redshift being highly available and performant. The biggest architectural change in the past decade in support of this goal was the introduction of Redshift Managed Storage, which allowed us to separate compute and storage, and focus a lot of innovation in each area.

    Diagram of the Redshift Managed Storage
    The Redshift managed storage layer (RMS) is designed for a durability of 99.999999999% and 99.99% availability over a given year, across multiple availability zones. RMS manages both user data as well as transaction metadata.

    Another big trend has been the desire of customers to query across and integrate disparate datasets. Redshift was the first data warehouse in the cloud to query Amazon S3 data, that was with Redshift Spectrum in 2017. Then we demonstrated the ability to run a query that scanned an exabyte of data in S3 as well as data in the cluster. That was a game changer.

    Customers like NASDAQ have used this extensively to query data that’s on local disk for the highest performance, but also take advantage of Redshift’s ability to integrate with the data lake and query their entire history of data with high performance. In addition to querying the data lake, integrated querying of transactional data stores like Aurora and RDS has been another big innovation, so customers can really have a high-performance analytics system that’s capable of transparently querying all of the data that matters to them without having to manage these complex integration processes that other systems require.

    Illustration of how a query flows through Redshift.
    This diagram from the research paper illustrates how a query flows through Redshift. The sequence is described in detail on pages 2 and 3 of the paper.

    Ippokratis: The third area we focused on in the paper was ease of use. One change that stands out for me is that on-premises data warehousing required IT departments to have a DBA (data base administrator) who would be responsible for maintaining the environment. Over the past decade, the expectation from customers has evolved. Now, if you are offering data warehousing as a service, the systems must be capable of auto tuning, auto healing, and auto optimizing. This has become a big area of focus for us where we incorporate machine learning and automation into the system to make it easier to use, and to reduce the amount of involvement required of administrators.

    Rahul: In terms of ease of use, three innovations come to mind. One is concurrency scaling. Similar to workload management, customers would previously have to manually tweak concurrency or reset clusters of the manually split workloads. Now, the system automatically provisions new resources and scales up and down without customers having to take any action. This is a great example of how Redshift has gotten much more dynamic and elastic.

    The second ease of use innovation is automated table optimization. This is another place where the system is able to observe workloads and data layouts and automatically suggest how data should be sorted and distributed across nodes in the cluster. This is great because it’s a continuously learning system so workloads are never static in time.

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    Customers are always adding more datasets, and adding more users, so what was optimal yesterday might not be optimal tomorrow. Redshift observes this and modifies what's happening under the covers to balance that. This was the focus of a really interesting graph optimization paper that we wrote a few years ago about how to analyze for optimal distribution keys for how data is laid out within a multi-node parallel-processing system. We've coupled this with automated optimization and then table encoding. In an analytics system, how you compress data has a big impact because the less data you scan, the faster your queries go. Customers had to reason about this in the past. Now Redshift can automatically determine how to encode data correctly to deliver the best possible performance for the data and the workload.

    The third innovation I want to highlight here is Amazon Redshift Serverless, which we launched in public preview at re:Invent last fall. Redshift Serverless removes all of the management of instances and clusters, so customers can focus on getting to insights from data faster and not spend time managing infrastructure. With Redshift Serverless, customers can simply provision an endpoint and begin to interact with their data, and Redshift Serverless will auto scale and automatically manage the system to essentially remove all of that complexity from customers.

    Customers can just focus on their data, set limits to manage their budgets, and we deliver optimal performance between those limits. This is another massive step forward in terms of ease of use because it eliminates any operations for customers. The early response to the preview has been tremendous. Thousands of customers have been excited to put Amazon Redshift Serverless through its paces over the past few months, and we’re excited about making it generally available in the near future.

    Amazon Redshift architecture diagram
    The Amazon Redshift architecture as presented in the research paper.

    Ippokratis: A fourth area of focus in the paper is on integration with other AWS services, and the AWS ecosystem. Integration is another area where customer behavior has evolved from traditional BI use cases. Today, cloud data warehouses are a central hub with tight integration with a broader set of AWS services. We provided the ability for customers to join data from the warehouse with the data lake. Then customers said they needed access to high-velocity business data in operational databases like Aurora and RDS, so we provided access to these operational data stores. Then we added support for streams, as well as integration with SageMaker and Lambda so customers can run machine learning training and inference without moving their data, and do generic compute. As a result, we’ve converted the traditional BI system into a well-integrated set of AWS services.

    Rahul: One big area of integration has been with our machine-learning ecosystem. With Redshift ML we have enabled anyone who knows SQL to take advantage of all of our machine-learning innovation. We built the ability to create a model from the SQL prompt, which gets the data into Amazon S3 and calls Amazon SageMaker, to use automated machine learning to build the most appropriate model to provide predictions on the data.

    This model is compiled efficiently and brought back into the data warehouse for customers to run very high-performance parallel inferences with no additional compute or no extra cost. The beauty of this integration is that every innovation we make within SageMaker means that Redshift ML gets better as well. This is just another means by which customers benefit from us connecting our services together.

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    Another big area for integration has been data sharing. Once we separated storage and compute layers with RA3 instances, we could enable data sharing, giving customers the ability to share data with clusters in the same account, and other accounts, or across regions. This allows us to separate consumers from producers of data, which enables things like modern data mesh architectures. Customers can share data without data copying, so they are transactionally consistent across accounts.

    For example, users within a data-science organization can securely work from the shared data, as can users within the reporting or marketing organization. We’ve also integrated data sharing with AWS Data Exchange, so now customers can search for — and subscribe to — third-party datasets that are live, up to date, and can be queried immediately in Redshift. This has been another game changer from the perspective of setting data free, enabling data monetization for third-party providers, and secure and live data access and licensing for subscribers for high-performance analytics within and across organizations. The fact that Redshift is part of an incredibly rich data ecosystem is a huge win for customers, and in keeping with customers’ desire to make data more pervasively available across the company.

  3. Q. 

    You indicate in the paper that Redshift innovation is continuing at an accelerated pace.  How do you see the cloud data warehouse segment evolving – and more specifically Redshift – over the next several years?

    A. 

    Rahul: A few things will continue to be true as we head into the future. Customers will be generating ever more amounts of data, and they’re going to want to analyze that data more cost effectively. Data volumes are growing exponentially, but obviously customers don't want their costs growing exponentially. This requires that we continue to innovate, and find new levels of performance to ensure that the cost of processing a unit of data continues to go down.

    We’ll continue innovating in software, in hardware, in silicon, and in using machine learning to make sure we deliver on that promise for customers. We’ve delivered on that promise for the past 10 years, and we’ll focus on making sure we deliver on that promise into the future.

    I’m very proud of what the team has accomplished, but equally as excited about all the things we’re going to do to improve Redshift in the future.
    Ippokratis Pandis

    Also, customers are always going to want better availability, they’re always going to want their data to be secure, and they’re always going to want more integrations with more data sources, and we intend to continue to deliver on all of those. What will stay the same is our ability to offer the-best in-segment price performance and capabilities, and the best-in-segment integration and security because they will always deliver value for customers.

    Ippokratis: It has been an incredible journey; we have been rebuilding the plane as we’ve been flying it with customers onboard, and this would not have happened without the support of AWS leadership, but most importantly the tremendous engineers, managers, and product people who have worked on the team.

    As we did in the paper, I want to recognize the contributions of Nate Binkert and Britt Johnson, who have passed, but whose words of wisdom continue to guide us. We’ve taken data warehousing, what we learned from books in school (Ippokratis earned his PhD in electrical and computer engineering from Carnegie Mellon University) and brought it to the cloud. In the process, we’ve been able to innovate, and write new pages in the book. I’m very proud of what the team has accomplished, but equally as excited about all the things we’re going to do to improve Redshift in the future.

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Our GNC engineers own their algorithms all the way into flight, and partner with our embedded software engineers to integrate and test them. - Write concepts of operations for each phase of a satellite's life, from launch and orbit raising to service and deorbit, including failures and recovery. Balance what the payload needs against momentum, power, thermal and ground-contact limits. - Develop momentum management strategies with reaction wheels and magnetic torquers. Help select, size and place the GNC sensors and actuators for future satellites, and design the algorithms that use them. These include star trackers, magnetometers, sun sensors, IMUs and GNSS receivers. - Develop onboard autonomy, including Fault Detection, Isolation and Recovery (FDIR), so that the fleet operates safely at scale with minimal ground intervention. - Build and validate satellite and constellation models and simulations at several levels of fidelity, including 6-DOF simulation and Monte Carlo analysis. Verify closed-loop performance in hardware-in-the-loop (HITL) tests. - Support component environmental tests, functional and performance checkout, and subsystem and satellite integration in our labs. - Analyze telemetry from the whole fleet. Build the metrics, dashboards and tools that track pointing performance and payload operations time as the constellation grows, and use them to improve the fleet. - Operate the GNC system on orbit and take part in the team's on-call rotation. Review fleet data, support maneuvers, and resolve anomalies when on-orbit behavior differs from the ground model. - Review designs and code with the team, and document your algorithms, analyses and results clearly. A day in the life This role covers a wide range of problems across the spacecraft and the network. You will derive and prototype estimation and control algorithms, and then turn them into production flight code. You will prove them in 6-DOF and Monte Carlo simulation and in hardware-in-the-loop tests in the lab. You will support satellite integration. When a satellite does not behave as the ground model predicted, you will dig into fleet telemetry, find the cause and drive the fix. You will own each problem end to end, with the focus to go deep on it. GNC is at the center of safe flight, so you will work across the whole program. The payload, power, thermal and operations teams all depend on GNC, and you will balance their needs against the pointing and momentum budgets. You will partner closely with avionics, flight software and embedded software engineers to make your algorithms run reliably on the spacecraft. You will help the mechanical teams shape the next generation of satellite hardware, from reaction wheels to star trackers. As satellites move from design through manufacturing into orbit, you will work with systems engineering and Assembly, Integration and Test. The problems are hard: tight pointing requirements, a large constellation to keep flying safely, and the chance to invent capabilities that do not exist yet. Constant work with other teams makes this a place where you keep learning and growing. About the team You will join the Satellite Attitude Determination and Control team. We own GNC for our satellites end to end: algorithm design, flight software, lab integration, and flight operations of our own satellites on orbit. Our engineers bring deep experience from many satellite programs and other flight vehicles, with real strength in both our mission and the core GNC disciplines. We design, prototype, test, iterate and learn together. Because GNC is central to safe flight, we drive the concepts of operations and many of the system-level analyses on the program. We also have a lot of freedom. We trust our engineers to choose their own tools and approaches for the problems they face, and to own the results. If you want the autonomy to solve hard problems your way, with a team of strong engineers, you will feel at home here.
US, WA, Seattle
Do you want to make AI provably correct for chip design and verification? We're hiring an Applied Scientist to combine large language models with formal methods such as Lean 4 and turn AI from a helpful assistant into a trusted engineering tool for silicon. Our team builds the formal verification methods behind custom silicon at Amazon scale. As AI agents take on more of chip design and verification, we need people who can make sure their output is checkable, sound and grounded in mathematics. You will research and build systems where LLMs work alongside interactive theorem provers, SMT solvers and model checkers. Engineers write the specifications. AI refines them against RTL, generates proof steps and closes proofs at machine speed. Every result is checked by a formal kernel, not trusted on faith. Work at the frontier of AI reasoning, theorem proving and hardware verification Ship solutions that directly affect real chips running in AWS data centers Publish and help shape how the industry formalizes AI use in hardware engineering Key job responsibilities Design and build LLM-driven systems for formal verification and design tasks, including proof generation, invariant and lemma discovery, spec-to-RTL refinement, and counterexample analysis Develop frameworks in Lean 4 (and related tools such as SMT solvers, model checkers and commercial FV engines) that formally check AI-generated artifacts, so they are correct by construction rather than just plausible Formalize hardware semantics, ISAs and microarchitectural properties in Lean 4 to create machine-checkable foundations for AI agents to reason over Track and evaluate state-of-the-art AI work (LLM agents, autoformalization, neural theorem proving, reinforcement learning from proof feedback) and turn promising research into production tools Build benchmarks and evaluation methods that measure AI soundness, proof success rate and engineering impact on real designs Partner with FV and design engineers to find the highest-leverage problems and deploy solutions into active chip programs Publish research, file patents and represent Amazon in the formal methods and AI communities Mentor engineers and scientists on applying formal AI methods
US, CA, Pasadena
We are seeking Applied Scientists to join Amazon. In this role, you will develop and deploy the science of safe autonomy on highly dynamic robots, advancing the frontier through both foundational research and realization on hardware. You will contribute to achieving safe autonomy across three key areas: control barrier function (CBF) theory for robust and performant safety on hardware; safe reinforcement learning for agile whole-body control; and layered safety filters that interface with learning, perception, and semantic reasoning systems. You will validate your work experimentally on state-of-the-art robotic platforms — removing bottlenecks to deployment and enabling robots to safely operate around humans. You will work with the inventor of CBFs, as well as top scientists and engineers at Amazon developing the next generation of safe autonomy. Key job responsibilities -Advance the science of safe autonomy from formal foundations to the integration with learning and perception to validation on hardware — with particular emphasis on methods that bridge these domains. -Test and validate hardware, with a focus on next generation robotic systems. Including locomotion, manipulation and loco-manipulation. -Leverage the deployments on hardware to validate the underlying science, identifying gaps between theory and practice that drive the next cycle of research. hardware to validate the underlying science, identifying gaps between theory and practice that drive the next cycle of research. -Publish research at top-tier robotics, control, and ML venues, and contribute to Amazon’s scientific reputation in advanced robotics. -Collaborate with SAF Lab and Amazon production teams to move research into robots deployed at Amazon scale. A day in the life Amazon offers a full range of benefits that support you and eligible family members, including domestic partners and their children. Benefits can vary by location, the number of regularly scheduled hours you work, length of employment, and job status such as seasonal or temporary employment. The benefits that generally apply to regular, full-time employees include: -Medical, Dental, and Vision Coverage -Maternity and Parental Leave Options -Paid Time Off (PTO) -401(k) Plan If you are not sure that every qualification on the list above describes you exactly, we’d still love to hear from you! At Amazon, we value people with unique backgrounds, experiences, and skillsets. If you’re passionate about this role and want to make an impact on a global scale, please apply! About the team The Safe Autonomy Frontiers (SAF) Lab is the first industry research lab dedicated to safe autonomy, founded by the inventor of control barrier functions. We are developing a universal safety layer for the next generation of robotic systems: mobile robots, manipulators, quadrupeds, and humanoids. Here you will advance performant safety for highly dynamic robots — CBF theory integrated with perception and learning, evaluated on next-generation platforms — and your work will underpin robots operating alongside people at Amazon’s unprecedented scale.
US, MA, North Reading
Robotics Applied Scientist II Intern/Co-op (2027) Are you passionate about robotics and research? Do you want to solve real customer problems through innovative technology? Do you enjoy working on scalable research and projects in a collaborative team environment? Do you want to see your science solutions directly impact millions of customers worldwide? We’re looking for current PhD students with a passion for robotic research and applications to join us in 2027 as Robotics Applied Scientist II Interns/Co-ops to shape the future of robotics and transform automation at Amazon’s scale. By applying to this role, you will be considered for Robotics Applied Scientist II Intern/Co-op (2027) opportunities across various Robotics teams at Amazon with different robotics research focus. Internship positions are available for multiple locations, durations (3 to 6+ months), and year-round start dates (winter, spring, summer, fall). Join us at the forefront of Applied Science, where your contributions will shape the future of Robotics! Key job responsibilities As a Robotics Applied Scientist II Intern/Co-op, you will work alongside global experts to advance the state of the art in robotics and artificial intelligence, tackling innovative problems that bridge the gap between research and real-world robotics implementation to innovate and build solutions on behalf of our customers. We are particularly interested in students with specialization and expertise in one or more of the following research areas: - Robotics - Artificial Intelligence - Robotics Manipulation (e.g., robot arm, grasping, dexterous manipulation, end of arm tools/end effector) - Autonomous Mobile Robots - Mobile Manipulation - Multi-Robot Coordination - Autonomous Navigation - Locomotion - Motion/Path Planning - Controls - Perception - Sensing - Robot Learning - Machine Learning - Computer Vision - Large Language Models (LLM), Vision-Language-Action Models (VLA), Vision-Language-Models (VLM) - World Models - Human-Robot Interaction - Robotics Simulation - Optimization - And related! Key responsibilities may include: - Develop novel, scalable algorithms and/or modeling techniques that advance the state-of-the-art in science areas such as robotics, artificial intelligence, or related - Tackle challenging, innovative research problems within robotics, artificial intelligence, or related that bridge the gap between theoretical advancement and practical robotics implementation - Collaborate with cross-functional teams to solve complex problems, and to communicate research findings clearly, leveraging your expertise in robotics, artificial intelligence, or related - Demonstrate the ability to work independently, thrive in a fast-paced, ever-changing environment - Leverage AI-powered tools where applicable to accelerate research, experimentation, and prototyping. - Critically review and validate outputs from AI tools and automated systems. About the team Explore Robotics Teams at Amazon At Amazon, robotics is where innovative research meets real-world deployment. There are many different specialized robotics teams, including the few highlighted below. Learn more about Robotics at Amazon here: https://www.amazon.science/research-areas/robotics Fulfillment Technologies and Robotics We build dynamic partnerships between people and intelligent machines. This intricate collaboration helps Amazon fulfill orders with unmatched accuracy. Working in symphony with our robotic technology, you’ll have the opportunity to extend your technical capabilities by working alongside some of the industry’s most advanced technologies. This includes our fleet of autonomous mobile robots, sophisticated control software, and technologies like language perception, machine learning, object recognition, and semantic understanding of commands. These technologies help us deliver an ever-improving customer and employee experience, as well as improve the safety of our facilities. Amazon Robotics Amazon Robotics is at the epicenter of robotics innovation. We design, test, and build mobile robots and mechatronic systems. Our offices, labs, test floors, and factories are close together, which means we can design the hardware, write the code, test, build, and watch it all come to life. Our areas of focus include advancements in autonomous mobility, AI, robotic management software, and much more. Fauna Fauna is focused on building capable, safe, and genuinely delightful robots for everyday life. Fauna’s goal is simple: make robots people actually want to live and interact with everyday. Fauna develops tightly integrated hardware and software systems that make it faster, safer, and more intuitive to create real-world robotic products. Fauna’s work spans the full stack: mechanical design, control systems, dynamic modeling, and intelligent software. The focus is not just functionality, but overall experience. Amazon Fulfillment Technologies Amazon Fulfillment Technologies develops tech solutions that create network optimizations for all Amazon sites worldwide. We own network infrastructure and devices in all buildings and labor planning and scheduling technology for fulfillment centers in North America and Europe.
US, WA, Seattle
MULTIPLE POSITIONS AVAILABLE Employer: AMAZON.COM SERVICES LLC Offered Position: Applied Scientist III Job Location: Seattle, Washington Job Number: AMZ10037670 Position Responsibilities: Participate in the design, development, evaluation, deployment and updating of data-driven models and analytical solutions for machine learning (ML) and/or natural language (NL) applications. Develop and/or apply statistical modeling techniques (e.g. Bayesian models and deep neural networks), optimization methods, and other ML techniques to different applications in business and engineering. Routinely build and deploy ML models on available data, and run and analyze experiments in a production environment. Identify new opportunities for research in order to meet business goals. Research and implement novel ML and statistical approaches to add value to the business. Mentor junior engineers and scientists. Position Requirements: Master’s degree or foreign equivalent degree in Computer Science, Machine Learning, Engineering, or a related field and two years of research or work experience in the job offered, or as a Research Scientist, Research Assistant, Software Engineer, or a related occupation. Employer will accept a Bachelor’s degree or foreign equivalent degree in Computer Science, Machine Learning, Engineering, or a related field and five years of progressive post-baccalaureate research or work experience in the job offered or a related occupation as equivalent to the Master’s degree and two years of research or work experience. Must have one year of research or work experience in the following skill(s): (1) programming in Java, C++, Python, or equivalent programming language; and (2) conducting the analysis and development of various supervised and unsupervised machine learning models for moderately complex projects in business, science, or engineering. Amazon.com is an Equal Opportunity-Affirmative Action Employer – Minority / Female / Disability / Veteran / Gender Identity / Sexual Orientation. 40 hours / week, 8:00am-5:00pm, Salary Range $167,100/year to $226,100/year. Amazon is a total compensation company. Dependent on the position offered, equity, sign-on payments, and other forms of compensation may be provided as part of a total compensation package, in addition to a full range of medical, financial, and/or other benefits. For more information, visit: https://www.aboutamazon.com/workplace/employee-benefits. #0000