Snow-covered mountain peaks beneath a blue sky, with clouds along the ridge.

Senior Staff Engineer · Marvell Technology

Reed Cameron Osaki

RF, microwave, and high-speed interconnect hardware for AI datacenters. Southern California.

Engineering · Personal projects · WildlifePhotograph: Reed Cameron Osaki

01 / Independent work

Personal projects.

Tools and guides I build outside my professional work.

01 / Engineering tools

EE Labs

Four interactive labs cover circuits, signals, and control through 153 experiments. Plots and calculations stay consistent, and tests block faulty deployments. The code is MIT-licensed.

Signal Lab: high-pass a square A sampled 250 Hz square wave before and after a 700 Hz second-order high-pass filter. The lower plot uses a fixed linear 0 to 4000 Hz axis and a fixed minus 60 to plus 3 decibel range. The response is minus 3.01 decibels at cutoff. Harmonic levels are decibels relative to unit peak amplitude; normalized waveform amplitude uses a fixed minus 2.5 to plus 2.5 scale. Sample rate 8000 Hz; Q equals one over the square root of two. SIGNAL LAB High-pass a square 250 Hz square · 8 ksample/s · Q 0.707 700 Hz cutoff 0 4 8 12 16 20 -2 -1 0 1 2 0 1k 2k 3k 4k 0 -20 -40 -60 250 Hz: input 2.1 dB, filtered -16.2 dB relative to unit peak amplitude.250 750 Hz: input -7.3 dB, filtered -9.7 dB relative to unit peak amplitude.750 1250 Hz: input -11.5 dB, filtered -11.9 dB relative to unit peak amplitude.1.25k 1750 Hz: input -14.1 dB, filtered -14.2 dB relative to unit peak amplitude.1.75k 2250 Hz: input -15.8 dB, filtered -15.8 dB relative to unit peak amplitude.2.25k 2750 Hz: input -17.0 dB, filtered -17.0 dB relative to unit peak amplitude.2.75k 3250 Hz: input -17.7 dB, filtered -17.7 dB relative to unit peak amplitude.3.25k 3750 Hz: input -18.0 dB, filtered -18.0 dB relative to unit peak amplitude.3.75k AMPLITUDE Time / ms MAGNITUDE / dB Magnitude response Frequency / Hz · Fixed linear scale Input Output

Dashed: input harmonicsTeal: filtered harmonicsGold: filter gain

Signal Lab / Calculated preview

02 / Engineering tools

RF Reference

Eight RF bench calculators run on phones and tablets. Calculations use your inputs, and the URL preserves your settings.

RF Lab Reference — calculated impedance sweep A calculated load-impedance sweep on a 50-ohm reference. The reflection vector, VSWR circle, and numerical readouts update together. This is an illustration, not measured data. RF Lab Reference — calculated impedance sweep A calculated load-impedance sweep on a 50-ohm reference. The reflection vector, VSWR circle, and numerical readouts update together. This is an illustration, not measured data. −j0.2 +j0.2 −j0.5 +j0.5 −j1 +j1 −j2 +j2 −j5 +j5 0.2 0.5 1 2 5 SHORT OPEN z = Z / Z₀ · Z₀ = 50 Ω SMITH MATCHING Calculated sweep LOAD IMPEDANCE 75 + j35 Ω REFERENCE 50 Ω VSWR 1.991 RETURN LOSS 9.594 dB 50 Ω normalized

03 / Research & guides

Stack Ledger

This evidence-graded ledger tracks the AI buildout, from energy and chips to models and apps. Sources include IEA, DOE, Epoch AI, BLS, and Census. Data can be exported as CSV or JSON.

Stack Ledger

The AI
buildout.

Layer 01Energy

06 / Photography tools

Field Catalog

Cull and catalog wildlife photos locally on Windows. Compare bursts, use optional local or API-based species identification, and maintain a life list and map. Rejected photos stay on disk until you choose to delete them.

Field Catalog’s photo library with bird photographs and identification controls.

Local photo workflow / Project screenshot

02 / Fieldwork

Wildlife.

Photographs by Reed Cameron Osaki.

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Generated symmetrical datacenter illustration with dark racks, cyan lighting, and a central vanishing point.

Marvell Technology

Senior Staff Engineer

Datacenter interconnect · High-speed · RF · Automation

03 / About

Background.

I develop RF, microwave, and high-speed interconnect hardware for datacenters.

Outside my professional work, I build engineering tools, research sites, guides, and photography software. I also photograph wildlife.

Full profile on LinkedIn
Reed Cameron Osaki wearing a hiking backpack in front of a mountain landscape.

Expertise & credentials

Technical background

RF and microwave
Validation, millimeter-wave probing, and high-frequency measurements.
Signal integrity
S-parameter analysis, calibration, and embedding and de-embedding.
Chip bring-up
Python test automation, data analysis, and root cause analysis.
Silicon photonics
Modulator and photodiode modeling, and channel emulation.

Education

California State University, Long Beach
Master of Science in Electrical Engineering.
UCLA Extension
Analog, mixed-signal, RF, and microwave circuit design.

Certifications & examinations

RF Technology Certification
Besser Associates
S-Parameters for Signal Integrity (SPSI)
Teledyne LeCroy
Advanced Gigabit Channel Design (AGCD)
Teledyne LeCroy
Essential Principles of Signal Integrity (EPSI)
Teledyne LeCroy
Fundamentals of Engineering (FE) Exam, Electrical and Computer
NCEES