Understand. Master.
Reverse. Innovate.
Silicon Oracle is the unified AI environment for computer engineers — from RISC-V pipeline simulation and OS kernels, to binary disassembly, PCB X-ray reconstruction, and the entire history of silicon, indexed and queryable.
Two halves of one brain.
The academic suite teaches you the fundamentals. The reverse arsenal lets you tear apart anything ever shipped.
The Digital Logic Super-Tutor.
Import any syllabus — Digital Logic, Computer Architecture, OS, VLSI, Networks, Embedded. Get spaced-repetition flashcards, escalating quizzes, animated FSMs, and cycle-accurate RISC-V / MIPS / x86 pipeline visualizers.
- →5-stage RISC-V & BOOM out-of-order visualizer
- →Verilog/VHDL editor + waveform sim
- →OS kernel simulator (Sv39 page tables)
- →Quantum circuit sandbox
X-Ray vision for any device.
Drop in a binary, an APK, a packet capture, or a phone-camera photo of a PCB. Oracle identifies the architecture, decompiles to pseudo-C, infers protocols, and reconstructs schematics into KiCad / Altium.
- →Ghidra-class disassembler + LLM augmentation
- →PCB neural scanner (camera + X-ray)
- →JTAG/SWD debugger guidance
- →Isolated malware sandbox + behavior graph
Every chip, datasheet, and patent — indexed.
From the Intel 4004 to modern chiplets and the Apple M4 memory hierarchy. The Oracle cross-references datasheets, leaked schematics, public analyses, and patent filings — then runs locally via Llama 3 so your queries never leave the lab.
▸ Sv39 splits a 39-bit VA into VPN[2:0] + 12-bit offset. 3-level radix walk starting from SATP.PPN.
▸ Page sizes: 4 KiB, 2 MiB, 1 GiB. PTE bits V/R/W/X/U/G/A/D. TLB flush via sfence.vma.
↳ Render annotated diagram? [Y/n]
Twelve engineering degrees, fully exposed.
Every required course for the 4–5 year bachelor's in computer, electrical, mechanical, civil, chemical, biomedical, aerospace, industrial, materials, environmental, and software engineering — plus computer science. Broken down into semesters, modules, and lesson topics.
Fall Semester
19 cr · 6 coursesMATH 151Calculus I4 cr ▾
Limits, derivatives, integrals of single-variable functions.
- ›Signal slope/area analysis
- ›Optimizing circuit power
- ›Charge from current i(t)
- ›Modeling capacitor transients
Calculus is the language every later engineering course speaks. Without derivatives and integrals you cannot reason about signals, circuit transients, control loops, or machine-learning gradients.
PHYS 161Physics I: Mechanics4 cr ▾
Newtonian mechanics, energy, momentum.
- ›Robot arm dynamics
- ›MEMS accelerometer design
- ›Drone flight modeling
- ›Hard-drive head actuators
Engineers build physical systems. Mechanics gives you the intuition for forces, motion, and energy that underlies sensors, actuators, robotics, and any embedded device that moves.
CHEM 101General Chemistry3 cr ▾
Atomic structure, bonding, stoichiometry.
- ›Doping silicon wafers
- ›Battery chemistry for embedded devices
- ›PCB etching processes
- ›Photoresist for lithography
Semiconductors are chemistry made electric. Understanding bonding and electron behavior is the prerequisite for grasping how transistors, batteries, and chip fabrication actually work.
CS 110Intro to Programming (Python/C)3 cr ▾
Variables, control flow, functions, basic data structures.
- ›Automating lab measurements
- ›Scripting test benches
- ›Microcontroller firmware basics
- ›Data cleanup for experiments
Code is the universal tool of the modern engineer. Every later course — from algorithms to embedded to ML — assumes you can express ideas fluently in a programming language.
ENGR 101Intro to Engineering Design2 cr ▾
Design process, teamwork, ethics, hands-on project.
- ›Prototyping a hardware product
- ›Running a team sprint
- ›Writing requirements docs
- ›Design reviews
Engineering is not just math — it is structured problem-solving inside teams under constraints. This course teaches you to think like an engineer before you have the tools of one.
ENGL 110Technical Writing & Communication3 cr ▾
Reports, documentation, presentations.
- ›Datasheets
- ›RFCs and design docs
- ›Patent filings
- ›Engineering proposals
An idea you cannot explain does not ship. Clear writing and presentation determine whether your design gets funded, adopted, or even understood by the next engineer who touches it.
Spring Semester
18 cr · 5 coursesMATH 152Calculus II4 cr ▾
Integration techniques, sequences, series.
- ›Fourier series for signals
- ›Numerical approximation in DSP
- ›Energy integrals in circuits
- ›Convergence in iterative solvers
Series and integration techniques are the backbone of Fourier analysis, numerical methods, and any approximation engineers use when closed-form answers don't exist.
PHYS 162Physics II: E&M4 cr ▾
Electricity, magnetism, circuits, Maxwell's equations.
- ›Antenna design
- ›Inductor/transformer modeling
- ›EMI/EMC analysis
- ›PCB signal integrity
Every wire on every PCB obeys Maxwell. E&M is the physical truth behind circuits — without it you cannot reason about high-speed signals, RF, or why your design fails at 5 GHz.
CS 120Data Structures & Algorithms I4 cr ▾
Arrays, lists, stacks, trees, complexity.
- ›Compiler symbol tables
- ›OS process queues
- ›Routing tables
- ›Database indexes
Choosing the right data structure is the difference between an app that scales and one that crashes. This is the first course where you learn to write code that is fast on purpose.
ECE 100Intro to Electrical & Computer Engineering3 cr ▾
Survey: signals, circuits, digital systems.
- ›Arduino-level prototypes
- ›Reading schematics
- ›Basic sensor wiring
- ›Logic gate composition
A map of the whole field before you specialize. It connects the math you've learned to physical hardware and shows where every later ECE course fits.
ECON 201Engineering Economics3 cr ▾
Time value of money, project evaluation.
- ›Chip cost-per-wafer analysis
- ›Make-vs-buy decisions
- ›Startup runway modeling
- ›Capex planning
Engineers don't just build — they justify. NPV, payback, and trade-off analysis are how technical decisions are translated into dollars for the people who fund them.
Everything else, briefly.
The full toolchain runs locally. Hardware integrations connect over USB-C.
AR Board Inspector
Point your phone at a PCB — get live pinouts, signal annotations, and component datasheets overlaid in real time.
Innovation Forge
Feed a reversed design back into the Oracle. Generate novel ideas: optimize an N64 GPU for modern fabrication, fork a RISC-V core.
Lecture Transformer
Drop in a 90-minute recording. Get summaries, timestamps, animated explainers, and an auto-generated quiz set.
Protocol Sniffer
Import packet captures. Oracle infers field structures, endianness, and probable framing for unknown protocols.
Teardown Vault
Searchable database of 800k+ devices — phones, routers, consoles, satellites — with 3D models and annotated layers.
Ethics Guardian
Built-in IP / legal boundary warnings. Educational use enforced. Sandboxed malware execution with full audit trail.
The lab is open.
Free for students. Local-first. Available on web, desktop (Electron / Tauri), and mobile.