One application
Teach what happens
after the code ships.
Students move from running one application to designing platforms that can deploy, observe and recover under real constraints. Failure becomes part of the curriculum.
OUR POINT OF VIEW
Modern software education must include what happens after the code runs locally.
THE FIELD IS MOVING
What students must learn to see differently.
The durable skill is not familiarity with today’s tool. It is the ability to reason about the system, its constraints, and the evidence behind a decision.
Does it run?
Manual deployment
INDUSTRY-VETTED COURSE PORTFOLIO
A pathway from foundations to consequential work.
Representative courses can be configured as electives, honors pathways, minors, faculty-development modules, or an integrated specialization.
Cloud Systems from First Principles
Package, deploy and operate service based applications while seeing every layer beneath them.
01Distributed Systems under Failure
Reason about consistency, replication, coordination and the failures diagrams tend to hide.
02Internal Developer Platforms
Build paved roads and self service workflows that make engineering teams faster and safer.
03Infrastructure as Code at Scale
Create reviewable, testable and repeatable infrastructure with policy built into delivery.
04SRE and Incident Practice
Set reliability targets, respond to incidents and learn from systems under stress.
05Resilient Systems Studio
Deliver a measured platform under load, change and deliberately injected failure.
06HOW WE TEACH THE DOMAIN
Practice that creates professional judgment.
Each learning experience is structured around how credible work is actually reviewed: assumptions are explicit, evidence is inspectable, and important tradeoffs must be defended.
Architecture under constraints
Students make explicit choices about scale, consistency, cost, latency, and failure instead of copying reference diagrams.
Everything as code
Infrastructure, policy, delivery pipelines, and environment configuration become versioned, reviewable systems.
Observability as a design input
Logs, metrics, traces and service level objectives are built with the system, not attached afterward.
Failure as curriculum
Load tests, dependency failures, rollbacks, and incident reviews teach operational judgment.
APPLIED WORK
The kind of problems students can learn to own.
These briefs illustrate the project scope and engineering judgment we bring into programs, labs, and industry-supported capstones.
Internal developer platform
Self-service service deployment with policy, templates, and observability.
Failure-aware commerce backend
Distributed transaction workflow tested under dependency outages.
Campus compute control plane
Multi-tenant scheduling, quotas, cost visibility, and workload lifecycle.
CENTER OF EXCELLENCE BLUEPRINT
A Cloud & Platform Engineering Center of Excellence
A campus environment where students operate shared platforms, practice reliability, and learn infrastructure through responsibility for real systems.
FOUNDATIONSNetworks, operating systems, distributed computing, software design
PLATFORMContainers, clusters, IaC, CI/CD, secrets, observability
OPERATESLOs, incident response, capacity, security, cost management
PROVEArchitecture reviews, load tests, game days, runbooks, demos
WHAT ACADEMIC LEADERS CAN INSPECT
Proof beyond completion.
Every program is designed to leave behind concrete evidence of what students can do and how well they can reason.
WAYS TO BEGIN
Bring this domain into your institution at the right depth.
CL / START A CONVERSATION
What could Cloud & Platform look like at your institution?
We’ll help you choose the right academic format, faculty enablement model, infrastructure, and first set of student outcomes.