Frequently Asked Questions

Understanding Autonomous vs. Automated Systems

What is the difference between automated and autonomous systems?

Automated systems perform actions based on user-defined rules and thresholds, executing prescribed actions when certain parameters are met. In contrast, autonomous systems are context-aware, leveraging intelligence to independently identify changes, take action, and learn from outcomes without requiring explicit instructions for every scenario. Autonomous systems can adapt and improve over time, while automated systems are static and limited to predefined triggers.

Why is intelligence the key differentiator between automated and autonomous systems?

Intelligence enables autonomous systems to understand context, learn from outcomes, and make decisions without explicit user-defined rules. Automated systems rely on static instructions, while autonomous systems use built-in learning models and feedback loops to continuously improve and adapt to changing environments.

How do autonomous systems handle decision-making differently from automated systems?

Autonomous systems evaluate multiple inputs, monitor and measure information, and feed results back into the system to improve future decisions. Automated systems simply execute predefined actions when specific conditions are met, without the ability to learn or adapt.

Can an automated system become autonomous over time?

While automated systems can be enhanced with more complex rules, true autonomy requires built-in intelligence and learning capabilities. Automated systems do not inherently evolve into autonomous systems; autonomy is achieved by designing systems with the ability to learn, adapt, and make independent decisions.

What is the autonomy scale described in the context of technology?

The autonomy scale illustrates levels of system intelligence, ranging from manual control (e.g., driving a stick shift) to fully autonomous operation (e.g., a car that drives itself and adapts to user habits). Higher levels of autonomy involve greater independence, context awareness, and learning capabilities.

Why are autonomous systems more challenging to develop than automated systems?

Autonomous systems require advanced intelligence, the ability to process multiple inputs, and continuous learning from outcomes. This complexity makes them more difficult to design and implement compared to automated systems, which follow static rules.

How do autonomous systems support innovation and release velocity for engineering teams?

Autonomous systems enable faster and safer code releases by managing complex, dynamic environments without manual intervention. This supports continuous innovation and reduces the risk of errors in rapidly changing production environments.

Why is automation alone insufficient for managing large-scale microservices environments?

Automation alone cannot effectively manage the complexity and scale of modern microservices environments, which may involve thousands of interconnected services. Autonomous systems are needed to observe, manage, and take action across these environments without overwhelming engineering teams.

How does scale impact the need for autonomous systems in organizations?

As organizations grow and digital transformation accelerates, the scale of operations increases, making manual or automated management approaches unsustainable. Autonomous systems help organizations efficiently manage scale without requiring a proportional increase in staff or manual effort.

Why is user control important in autonomous systems?

User control ensures that autonomous systems operate within defined boundaries and comfort levels, allowing users to choose how much autonomy they want. This flexibility is essential for safety, trust, and effective adoption of autonomous solutions.

Product Information & Features

What is Sedai's autonomous cloud management platform?

Sedai's autonomous cloud management platform optimizes cloud resources for cost, performance, and availability using machine learning. It eliminates manual intervention, reduces cloud costs by up to 50%, improves performance by reducing latency by up to 75%, and enhances reliability by proactively resolving issues. The platform covers compute, storage, and data across AWS, Azure, GCP, and Kubernetes environments. Learn more.

What are the key features of Sedai's platform?

Key features include autonomous optimization, proactive issue resolution, full-stack cloud coverage, smart SLOs, release intelligence, plug-and-play implementation, multiple modes of operation (Datapilot, Copilot, Autopilot), enhanced productivity, and safety-by-design. These features help reduce costs, improve performance, and ensure safe, reliable operations. See full feature list.

How does Sedai's platform improve cloud cost efficiency?

Sedai reduces cloud costs by up to 50% through autonomous optimization, rightsizing workloads, and eliminating waste. Customers like Palo Alto Networks saved $3.5 million, and KnowBe4 achieved 50% cost savings in production. Read the KnowBe4 case study.

What is Sedai for S3 and what does it do?

Sedai for S3 optimizes Amazon S3 costs by managing Intelligent-Tiering and Archive Access Tier selection. It delivers up to 30% cost efficiency gain and 3X productivity gain by reducing manual effort in S3 management. Learn more.

What is Release Intelligence in Sedai?

Release Intelligence tracks changes in cost, latency, and errors for each deployment, improving release quality and minimizing risks during deployments. This feature helps teams ensure smoother releases and reduce errors. More info.

What modes of operation does Sedai offer?

Sedai offers three modes of operation: Datapilot (observability), Copilot (one-click optimizations), and Autopilot (fully autonomous execution). This flexibility allows teams to choose the level of autonomy that fits their needs.

How does Sedai ensure safe and auditable changes?

Sedai integrates with Infrastructure as Code (IaC), IT Service Management (ITSM), and compliance workflows to ensure all changes are safe, validated, and auditable. The platform also supports automatic rollbacks and incremental changes for risk-free automation.

How does Sedai proactively resolve issues before they impact users?

Sedai detects and resolves performance and availability issues before they affect users, reducing failed customer interactions by up to 50% and ensuring seamless operations. This proactive approach enhances reliability and user experience.

How does Sedai continuously improve its optimization models?

Sedai continuously learns from interactions and outcomes, evolving its optimization and decision models over time to deliver better results and adapt to changing environments.

Use Cases & Benefits

Who can benefit from using Sedai?

Sedai is designed for platform engineering, IT/cloud operations, technology leadership, site reliability engineering (SRE), and FinOps professionals. It is ideal for organizations with significant cloud operations across industries such as cybersecurity, IT, financial services, healthcare, travel, e-commerce, and SaaS. See case studies.

What business impact can customers expect from Sedai?

Customers can expect up to 50% cloud cost savings, 75% latency reduction, 6X productivity gains, and up to 50% fewer failed customer interactions. Notable results include Palo Alto Networks saving $3.5 million and KnowBe4 achieving 50% cost savings. Read the Palo Alto Networks case study.

What pain points does Sedai address for SREs and engineering teams?

Sedai addresses pain points such as repetitive manual tasks (toil), ticket queues, balancing risk and speed, autoscaler limitations, visibility-action gaps, and managing multi-tenant fairness. It automates routine work, reduces alert fatigue, and enables teams to focus on innovation.

How does Sedai help with multi-cloud and hybrid environments?

Sedai provides full-stack optimization across AWS, Azure, GCP, and Kubernetes, simplifying management of diverse cloud environments and ensuring consistent cost, performance, and reliability outcomes.

What industries have seen success with Sedai?

Industries represented in Sedai's case studies include cybersecurity (Palo Alto Networks), IT (HP), financial services (Experian, CapitalOne Bank), security awareness training (KnowBe4), travel (Expedia), healthcare (GSK), car rental (Avis), retail/e-commerce (Belcorp), SaaS (Freshworks), and digital commerce (Campspot). See all case studies.

Can you share specific customer success stories with Sedai?

Yes. KnowBe4 achieved 50% cost savings and saved $1.2 million on AWS. Palo Alto Networks saved $3.5 million and reduced Kubernetes costs by 46%. Belcorp reduced AWS Lambda latency by 77%. Read KnowBe4's story and Palo Alto Networks' story.

What feedback have customers given about Sedai's ease of use?

Customers highlight Sedai's quick plug-and-play setup (5–15 minutes), agentless integration, personalized onboarding, dedicated Customer Success Manager for enterprises, and extensive support resources. The 30-day free trial is also appreciated for risk-free evaluation. Learn more.

How long does it take to implement Sedai?

Sedai's setup process takes just 5 minutes for general use cases and up to 15 minutes for specific scenarios like AWS Lambda. More complex environments may vary. One-on-one onboarding is available for tailored assistance. Book a demo.

Technical Requirements & Integrations

What integrations does Sedai support?

Sedai integrates with monitoring/APM tools (Cloudwatch, Prometheus, Datadog, Azure Monitor), Kubernetes autoscalers (HPA/VPA, Karpenter), IaC/CI/CD (GitLab, GitHub, Bitbucket, Terraform), ITSM (ServiceNow, Jira), notification tools (Slack, Microsoft Teams), and various runbook automation platforms. See full list.

Where can I find Sedai's technical documentation?

Detailed technical documentation is available at docs.sedai.io/get-started. Additional resources, including case studies and datasheets, are available on the resources page.

What security and compliance certifications does Sedai have?

Sedai is SOC 2 certified, demonstrating adherence to stringent security requirements and industry standards for data protection and compliance. Learn more.

Competition & Differentiation

How does Sedai differ from other cloud optimization tools?

Sedai offers 100% autonomous optimization, proactive issue resolution, application-aware intelligence, full-stack cloud coverage, release intelligence, and rapid plug-and-play implementation. Unlike competitors that rely on static rules or manual adjustments, Sedai continuously learns and adapts, delivering measurable ROI and productivity gains. See comparison details.

What unique features set Sedai apart from competitors?

Unique features include 100% autonomous optimization, proactive issue resolution, application-aware intelligence, release intelligence, and a quick setup process (5–15 minutes). These capabilities enable Sedai to deliver up to 50% cost savings, 75% latency reduction, and 6X productivity gains, setting it apart from traditional tools. Learn more.

Why should a customer choose Sedai over other solutions?

Customers should choose Sedai for its autonomous optimization, proactive issue resolution, application-aware intelligence, full-stack coverage, safety-by-design, quick implementation, and proven results (e.g., $3.5M saved by Palo Alto Networks, 50% cost savings by KnowBe4). See why customers choose Sedai.

What advantages does Sedai provide for different user segments?

Platform engineers benefit from reduced toil and IaC consistency; IT/cloud ops teams see lower ticket volumes and safer automation; technology leaders gain measurable ROI and lower cloud spend; FinOps teams align engineering and cost goals; SREs experience fewer alerts and less manual work. See user segment benefits.

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How Autonomous Systems Differ from Automated Systems, and Why SREs Should Care

SM

Suresh Mathew

Founder & CEO

March 9, 2022

How Autonomous Systems Differ from Automated Systems, and Why SREs Should Care

Featured

While the shift from monolith to microservices changed the game in regard to deployments and team velocity, it simultaneously introduced the monotony of daily repetitive work and manual tasks. SREs and DevOps now need to entirely rethink how teams manage their applications on a day-to-day basis.

To streamline this work, teams typically look to automated systems and smart alerts to help them stay on top of critical activity in their cloud environments. While a highly automated approach can certainly help with application management, these types of systems are not independently intelligent.

“Automated” and “autonomous” sound interchangeable and it seems like only a few extra letters are the difference, but there’s one important differentiator that bridges the gap between them: intelligence. An automated system can eventually graduate into an autonomous system. However, autonomous systems are not built on advanced automated systems. Confused yet? Let us define the basics.

Understanding the difference

  • Automated systems are essentially automated actions that are based on thresholds and built into a system. A user owns the rules around a certain situation and if something falls outside specific parameters, the system follows the prescribed action as defined by the user. The user takes on the burden of continuous learning. These actions might be as simple as an alert to the user, or a preset action that the user selected (for example, IFTTT).
  • Autonomous systems are rooted in awareness about situations and intelligence to take action to achieve and learn from an outcome. They are smart enough to identify change without user-defined parameters, and inherently know how to react to mitigate the change. Autonomous systems are capable of independently identifying and acting and are only driven by a user’s problem statement (for example, “Help me reduce my latency”).

In other words, autonomous systems represent a dynamic, progressive scale of intelligent capabilities, whereas automated systems are static — a predefined trigger yields certain results. Automated systems are not context-aware and are specifically told what to look for. In contrast, autonomous systems have a built in learning model and feedback loop and are told what to look at. Make sense?

So why are these terms so easily intermixed, and why is there so much confusion between the two? Two important reasons:

  1. When teams automate systems and begin seeing significant value, they tend to call it an “autonomous system” — but that’s wrong. Even the most valuable, super-fast automated system is not autonomous because it fundamentally represents a different approach. Automated systems are inherently built on user’s knowledge – which represents highly aware, informed, and intelligent decision making. That’s great, but it’s still simply synthesized down to “do X when you see Y.
  2. Autonomy has its own scale, and its lower levels appear to share similar characteristics as automated systems. 

The Autonomy Scale 

Autonomous systems are responsible for handling decision-making, and leverage multiple inputs to monitor, evaluate, and measure information before feeding it back into the system. That’s one of the primary reasons they’re much more challenging to develop than automated systems — intelligence is critical to their success.

Autonomous systems can be judged by their level of intelligence and the complexity of their targeted action when scenarios arise. Let us look at an intelligence scale in regards to vehicles to illustrate the concept:

  1. Earth-bound: You drive a stick shift vehicle (and there’s nothing wrong with that).
  2. Smart (but assisted): While on the highway, you turn on cruise control to maintain your speed. Further along, your car detects that you’re within 15 feet of the vehicle in front of you and automatically adjusts your setting to reduce your speed to 58 mph to maintain the distance between vehicles. Once the other vehicle is out of the way, your car returns your speed to 65 mph.
  3. Intelligent: After your car reduced your speed while on cruise control, it analyzes the speed limit and determines how much faster your car can safely speed up to in order to make up for lost time while at the reduced speed.
  4. Space-Smart: You sit in the backseat of the car and safely arrive at your destination without touching the steering wheel, gas pedal, or brakes.
  5. Beyond: Your car learns that on Mondays you tend to be tired in the morning, and adjusts your typical route that day to pass by your favorite coffee shop to pick up a cup.

To be clear, we haven’t yet achieved the highest levels of autonomy yet. But the point is that the ultimate goal is to create a system that can think independently like a human to take the best and safest action possible. Most importantly, these types of systems need to be designed to allow a user to choose how they want to use it based on their comfort level — after all, the user should always be in control. 

3 Reasons to Build an Autonomous System

How do you decide if an automated or autonomous system is right? As mentioned earlier, automated systems are capable of helping manage your applications. But being capable and being helpful are two very different things. Your team should consider the following when assessing what type of system your organization needs:

  1. Increased innovation & release velocity: Developers used to release code monthly or biweekly but the new norm is to release new code in increments of sub-seconds, around the clock — which supports innovation and improves speed to market. That means your environments are constantly in a fluid state, and the chances of breaking something increase. Automation alone isn’t capable of effectively managing this ever-changing production environment. 
  2. Proliferation of microservices: In past decades, it was common to have from a handful to hundreds of services powering operations. In today’s cloud though, that’s grown to hundreds of thousands of services working together to create a technology infrastructure. But observing, managing and taking action on all of these services is difficult. Dashboards that once gave visibility into hundreds of services now share “insights” on thousands of processes. Expecting an SRE to effectively manage this volume of services is an untenable solution. 
  3. Scale impacts everyone these days: Five years ago scale was a challenge that only large companies like Google, PayPal, and Facebook faced. However, digital transformation has rewritten the narrative so that scale now impacts any organization in any industry, regardless of your customer count. Scale brings a litany of new problems, but most importantly it highlights the critical challenge that multiplying isn’t realistic. If your plan to scale involves a 1:1 ratio of assigned work to employees, you’re on a runaway train.

At the end of the day, “autonomous” versus “automated” isn’t simply a debate between which approach works best for your team and organization, nor is it about strategy in how to beat your competition. It's about having a system that can still operate efficiently without burdening teams-similar to the safety, agility, reliability and efficiency Tesla offers its drivers.  In today’s world of microservices, automated solutions for application management are increasingly a more challenging approach and will continue to be tested given the growing complexity of microservices. However, adding intelligence to these systems and evolving them into a truly autonomous system can help drive innovative transformation for the future.