Launch your career in robotic systems with engineers who've delivered resilient solutions for real-world mission-critical environments
Launch your career in robotic systems with engineers who've delivered resilient solutions for real-world mission-critical environments
BECOME RELEVANT IN THE
PHYSICAL INTELLIGENCE ERA
BECOME RELEVANT IN THE PHYSICAL INTELLIGENCE ERA
HYPER
HORIZON
HYPER
HORIZON
Learn to integrate sensors, drivers, middleware and compute into a unified system using ROS2 as the framework.
Real-Time Systems
Learn to integrate sensors, drivers, middleware and compute into a unified system using ROS2 as the framework.
Real-Time Systems
Understand methods that make systems predictable, consistent and observable in dynamic scenarios
Fault Tolerance
Understand methods that make systems predictable, consistent and observable in dynamic scenarios
Fault Tolerance
Perfect CI/CD, simulation testing and containerisation to guarantee stable deployments.
Professional Deployment
Perfect CI/CD, simulation testing and containerisation to guarantee stable deployments.
Professional Deployment
Master the art of diagnosing failures by understanding how OS, kernel and networking actually work.
Low-Level Mastery
Master the art of diagnosing failures by understanding how OS, kernel and networking actually work.
Low-Level Mastery
But 90% of engineers can’t break in because they lack the systems fundamentals.
But 90% of engineers can’t break in because they lack the systems fundamentals.
Software is eating the physical world. From autonomous weapons to humanoids every mission-critical system depends on reliable real-time code. Engineering teams need people who can design clean abstractions, ensure determinism, and debug failures from first principles.
Software is eating the physical world. From autonomous weapons to humanoids every mission-critical system depends on reliable real-time code. Engineering teams need people who can design clean abstractions, ensure determinism, and debug failures from first principles.
BUILD THE FUTURE : THE PART THAT ACTUALLY MATTERS
BUILD THE FUTURE : THE PART THAT ACTUALLY MATTERS
Starts in Feb'26
Limited seats only
Limited seats only
3 Days per Week
Community/Forum
Schedule
to get all questions answered
Fully-Remote
Easy Access
Elite Developer Community
Access to expertise | Real def-tech builders
Elite Developer Community
Access to expertise Real def-tech builders
Industry Signal
Build your own portfolio
Hiring Signal
Build your own portfolio
Real industry experience
Working alongside our team
Real industry experience
Working alongside our team
50+ Challenges
Solved by you
50+ Industry Challenges
Solved by you
4-month program
Live Classes + Pre-recorded Lectures
14-weeks program
Live Classes +
Pre-recorded Lectures
A 4-month, hands-on engineering program that gives you everything you need to succeed in building mission-critical systems. Learn to debug complex software from first principles, build a high-signal portfolio, and equip yourself to make OSS contributions that top companies actually care about.
A 4-month, hands-on engineering program that gives you everything you need to succeed in building mission-critical systems. Learn to debug complex software from first principles, build a high-signal portfolio, and equip yourself to make OSS contributions that top companies actually care about.
WHAT'S HYPERHORIZON LABS?
WHAT'S HYPERHORIZON LABS?
Produce measurable engineering evidence that become powerful signals on platforms like LinkedIn that hiring managers instantly trust. From before and after benchmarks to end-to-end pipeline measurements
(PERFORMANCE BENCHMARKS & TRACES)
(SYSTEMS-LEVEL DEBUGGING ABILITY)
You will develop the rare ability to debug mission-critical systems from first principles, the way systems programmers trace failures from the kernel to the network.
Build a fully integrated systems project that mirrors architectural principles used in large-scale, mission-critical software. With ROS2 as the middleware, your subsystem unifies sensors, drivers, middleware, and compute into a reliable, simulation-verified system.
(PRODUCTION-READY SYSTEMS PROJECT)
Publish a portfolio of repositories that reflect real systems work featuring clean architecture, deterministic behavior, reproducible pipelines, integration tests, performance benchmarks, tracing artifacts, observability, simulation demos, and real design documentation.
(PUBLIC GITHUB PORTFOLIO)
BY GRADUATION, YOU'LL HAVE
Produce measurable engineering evidence that become powerful signals on platforms like LinkedIn that hiring managers instantly trust. From before and after benchmarks to end-to-end pipeline measurements
(PERFORMANCE BENCHMARKS & TRACES)
Produce measurable engineering evidence that become powerful signals on platforms like LinkedIn that hiring managers instantly trust. From before and after benchmarks to end-to-end pipeline measurements
(PERFORMANCE BENCHMARKS & TRACES)
(SYSTEMS-LEVEL DEBUGGING ABILITY)
You will develop the rare ability to debug mission-critical systems from first principles, the way systems programmers trace failures from the kernel to the network.
(SYSTEMS-LEVEL DEBUGGING ABILITY)
You will develop the rare ability to debug mission-critical systems from first principles, the way systems programmers trace failures from the kernel to the network.
(PRODUCTION-READY SYSTEMS PROJECT)
Build a fully integrated systems project that mirrors architectural principles used in large-scale, mission-critical software. With ROS2 as the middleware, your subsystem unifies sensors, drivers, middleware, and compute into a reliable, simulation-verified system.
(PRODUCTION-READY SYSTEMS PROJECT)
Build a fully integrated systems project that mirrors architectural principles used in large-scale, mission-critical software. With ROS2 as the middleware, your subsystem unifies sensors, drivers, middleware, and compute into a reliable, simulation-verified system.
(PUBLIC GITHUB PORTFOLIO)
Publish a portfolio of repositories that reflect real systems work featuring clean architecture, deterministic behavior, reproducible pipelines, integration tests, performance benchmarks, tracing artifacts, observability, simulation demos, and real design documentation.
(PUBLIC GITHUB PORTFOLIO)
Publish a portfolio of repositories that reflect real systems work featuring clean architecture, deterministic behavior, reproducible pipelines, integration tests, performance benchmarks, tracing artifacts, observability, simulation demos, and real design documentation.
BY GRADUATION, YOU'LL HAVE
MODULE 5
MODULE 4
MODULE 3
MODULE 2
MODULE 1
Integrated Systems Architecture
Performance Benchmarking
Reproducible Engineering Pipeline
Professional Portfolio Assembly
Integrated Systems Architecture
Performance Benchmarking
Reproducible Engineering Pipeline
Professional Portfolio Assembly
Capstone Integration & Professional Portfolio
CI/CD & Reproducible Pipelines
Simulation-Driven Validation
Observability Engineering
Resilient Deployment
CI/CD & Reproducible Pipelines
Simulation-Driven Validation
Observability Engineering
Resilient Deployment
Professional Deployment & Production Systems
Professional Deployment & Production Systems
Middleware Fluency
Execution & Scheduling Design
Zero-Copy & High-Throughput Data Flows
System-Level Reliability
Middleware Fluency
Execution & Scheduling Design
Zero-Copy & High-Throughput Data Flows
System-Level Reliability
Real-Time Systems & ROS 2 Integration
User–Kernel Boundary Reasoning
High-Performance Networking
Custom Middleware Construction
Thread-Safe State Sharing
User–Kernel Boundary Reasoning
High-Performance Networking
Custom Middleware Construction
Thread-Safe State Sharing
Systems Programming & Communication
Memory & Data Mastery
Deterministic Execution
Safe Resource Management
Concurrency Foundations
Memory & Data Mastery
Deterministic Execution
Safe Resource Management
Concurrency Foundations
Low-Level Mastery
ROADMAP TO A PRO ROBOTICS SYSTEMS ENGINEER
ROADMAP TO A PRO ROBOTICS SYSTEMS ENGINEER
WHAT YOU'LL LEARN ?
WHAT YOU'LL LEARN ?
Our mentors aren't just talking - they're doing. They've built subsea autonomy for national security missions and will show you exactly how they did it.
LEARN FROM PEOPLE WHO'VE DONE IT
LEARN FROM PEOPLE WHO'VE DONE IT
READY TO START YOUR CAREER IN ROBOTICS SYSTEMS?
READY TO START YOUR CAREER IN ROBOTICS SYSTEMS?
STILL WONDERING IF THIS IS FOR YOU?
STILL WONDERING IF THIS IS FOR YOU?
Everything you need to know about the course and payments.
What distinguishes this cohort from tool-focused programs?
This cohort focuses on system-level engineering, not just tools or workflows. You learn how real systems behave across latency, failures, middleware, and OS constraints. The emphasis is on building software that survives real-world conditions.
What will I learn in the cohort?
You’ll learn system-level foundations: memory behavior, scheduling, latency, IPC, middleware, and deployment. The program shows how these scale from firmware → Linux → middleware → production systems.
Who is the ideal candidate for this cohort?
Engineers with a software background who feel a gap in low-level or system-level understanding. Ideal for those moving toward real-time, mission-critical robotics or autonomy roles. Designed to be completed alongside a full-time job.
What type of projects will I work on during the cohort?
Industry-grade, deployable projects focused on reliability, performance, and system design. Projects involve middleware, concurrency, observability, and fail-safe behavior. These are substantial portfolio pieces, not toy demos.
Will I receive a certification upon completing the course?
Yes. You’ll receive a completion credential. More importantly, you leave with verifiable, mentor-reviewed system-level work.
How does this cohort prepare me for the current job market?
It closes core system-level gaps hiring managers repeatedly point out. You’ll demonstrate the ability to diagnose failures, explain trade-offs, and take ownership.
How long is this cohort for?
The cohort runs for 13 weeks. Structured to allow steady progress alongside your job.
What distinguishes this cohort from tool-focused programs?
This cohort focuses on system-level engineering, not just tools or workflows. You learn how real systems behave across latency, failures, middleware, and OS constraints. The emphasis is on building software that survives real-world conditions.
What will I learn in the cohort?
You’ll learn system-level foundations: memory behavior, scheduling, latency, IPC, middleware, and deployment. The program shows how these scale from firmware → Linux → middleware → production systems.
Who is the ideal candidate for this cohort?
Engineers with a software background who feel a gap in low-level or system-level understanding. Ideal for those moving toward real-time, mission-critical robotics or autonomy roles. Designed to be completed alongside a full-time job.
What type of projects will I work on during the cohort?
Industry-grade, deployable projects focused on reliability, performance, and system design. Projects involve middleware, concurrency, observability, and fail-safe behavior. These are substantial portfolio pieces, not toy demos.
Will I receive a certification upon completing the course?
Yes. You’ll receive a completion credential. More importantly, you leave with verifiable, mentor-reviewed system-level work.
How does this cohort prepare me for the current job market?
It closes core system-level gaps hiring managers repeatedly point out. You’ll demonstrate the ability to diagnose failures, explain trade-offs, and take ownership.
How long is this cohort for?
The cohort runs for 13 weeks. Structured to allow steady progress alongside your job.
