SFV wireless surveys built for SFV buildings.
The San Fernando Valley is one of the worst RF environments in Southern California — and most “LA wireless” providers don’t know why. Mid-century office towers on Ventura Blvd have plaster walls with metal lath that attenuates 5 GHz the same way concrete does. Burbank Media District soundstages are steel-shell buildings with LED lighting grids that generate broadband noise across 2.4 GHz. Post-production bungalows on Cahuenga and Lankershim need sub-20ms latency for uncompressed video-over-Wi-Fi workflows that choke on co-channel interference. CSUN’s 356-acre campus has a mix of 1960s concrete and modern curtain-wall glass that demands completely different attenuation models floor by floor. Our HQ is in Valencia — 15 minutes up the 5 from the Burbank Airport interchange. We scope, dispatch, and deliver faster than any LA Basin provider. Every engagement is Ekahau Pro from start to finish, Sidekick 2 on every onsite walk, and documented to a standard your CIO, auditor, and the next engineer can actually use.
What we deliver
Four survey types, one methodology. You tell us the stage; we scope the engagement and return a fixed-fee SOW.
The SFV RF problem most surveys miss
The San Fernando Valley has at least four distinct construction typologies that each break standard Ekahau attenuation presets — and a generic survey template from a downtown LA provider won’t account for any of them.
Mid-century Ventura Boulevard office towers
Buildings constructed between 1945 and 1975 along the Ventura corridor in Sherman Oaks, Encino, and Tarzana almost universally have plaster walls over metal lath. That metal lath behaves like a Faraday cage layer — 5 GHz attenuation per wall can run 15–20 dB instead of the 3–5 dB a standard drywall preset assumes. Predictive designs that import a floor plan and apply default wall types will under-place APs by 30–40% in these buildings. We calibrate attenuation values with the actual AP model on site before locking the design.
Entertainment industry soundstages — Burbank, Studio City, Universal
Steel-shell soundstages are near-perfect RF enclosures. Signal does not escape or enter cleanly — every AP inside the stage is working in a bounded, high-reflection environment. The lighting grid is the bigger problem: professional tungsten and LED fixtures, DMX controllers, and wireless dimmer packs saturate 2.4 GHz with broadband noise during production. Live broadcast workflows add wireless cameras, IFB (interruptible foldback) systems, and wireless timecode gear, all fighting for spectrum. We’ve designed for this environment. Sidekick 2 spectrum analysis runs before any AP placement is proposed — we map the interference floor first, then design around it. 6 GHz (Wi-Fi 6E) is often the correct call for production-density environments because it is completely clear of the legacy interference sources.
Sun Valley and Pacoima industrial / manufacturing
High-bay industrial buildings in Sun Valley and Pacoima — tilt-up concrete, metal racking, forklifts, and often a mix of barcode scanners, RFID readers, and voice-picking headsets all on Wi-Fi simultaneously. Steel racking acts as a reflector and creates multipath that wrecks scanner roaming. High ceilings push AP mounting height and antenna tilt decisions. We use directional antennas modeled in Ekahau against the actual racking layout, with iPerf throughput tests at the end positions of every aisle.
CSUN and Pierce College campuses
Cal State Northridge’s 356-acre campus has 1960s-era reinforced concrete classroom buildings alongside modern curtain-wall structures — attenuation varies by 12–18 dB per wall depending on which building you’re in. High-density lecture halls with 200+ concurrent devices need capacity modeling, not just coverage modeling. We design per building, per floor, per room type, and validate with measured client counts during peak session times.
Entertainment and post-production RF — the SFV specialty
The Burbank Media District and Studio City post-production corridor have Wi-Fi requirements that are genuinely different from any other industry vertical. Generic wireless providers quote a coverage survey; that is not what these environments need.
Uncompressed and lightly compressed video over Wi-Fi
Post-production workflows moving ProRes RAW or DNx over NFS/SMB mounts via Wi-Fi need sustained throughput of 600 Mbps–2+ Gbps per editing station, with jitter under 5ms. One co-channel interference event — a neighbor’s AP on the same channel, a video sender running across the hall — drops a session. We design for throughput, not just coverage. That means 6 GHz band allocation where available, 80 or 160 MHz channel widths with non-overlapping channel plans, and post-install iPerf validation at every workstation before sign-off.
Live production density — crew Wi-Fi on set
A union production crew of 150 people, every one with a phone, tablet, and laptop, all associating on a single soundstage SSID during a production day. Add to that the script supervisor’s NAS mount, the director’s video village monitor stream, and the unit publicist’s live social uploads — and you have a high-density design problem. We model per-SSID client capacity, use BSS Coloring and TWT where the AP platform supports it, and separate crew BYOD from production workflow traffic with VLAN segmentation from day one.
Burbank Airport (BUR) — airside and terminal operations
Hollywood Burbank Airport operations require FIPS-compliant network segmentation, DFS channel coordination with terminal radar systems, and roaming validated across gate areas where device density spikes to boarding-peak levels. We’ve designed for aviation operations environments. Compliance documentation is part of the standard deliverable package.
Why Ekahau-based surveys
Ekahau Pro is the enterprise standard for Wi-Fi design — it’s what Cisco, HPE Aruba, Juniper Mist, and every serious CWNP-level engineer specifies with. We use it because nothing else accounts for the SFV’s specific construction variables.
Predictive design before anyone quotes hardware
Floor plans import, walls get attenuation values calibrated to the actual material — metal lath vs. CMU vs. glass curtain wall vs. steel shell. The model places APs against a target: -65 dBm primary, -70 dBm secondary, 25 dB SNR, capacity for confirmed concurrent device count. You get a BOM before procurement, not after.
AP-on-a-stick validation — because predictive models lie about old SFV buildings
The Valley has decades of non-standard construction. Predictive models don’t know your building has metal lath, or that the demising walls in a Northridge strip mall are poured concrete, or that the drop ceiling in a Van Nuys call center has a steel grid two inches above it. We bring the actual AP model you’re deploying, mount it on a tripod at the proposed height, and measure. Attenuation values get corrected, AP counts adjust, and the design matches the building — not a spreadsheet guess.
Sidekick 2 spectrum analysis — find what nobody knew was there
Ekahau Sidekick 2 combines a dual 2.4/5/6 GHz capture radio with an integrated spectrum analyzer. In SFV environments we routinely find: LED dimmer packs generating broadband 2.4 GHz noise in studio spaces, wireless video senders saturating 5 GHz UNII-1, adjacent tenant APs running overlapping channels in Ventura Blvd multi-tenant buildings, and radar triggering DFS channel evacuations near BUR. A survey without spectrum analysis misses all of it.
Post-install heatmaps — proof, not promises
After install, we re-walk the site and produce the validation heatmap. Every floor. Measured RSSI, SNR, data rate, channel utilization, roaming behavior on a real device. If it doesn’t hit spec, it goes on the remediation list before we sign off. That document is what your CIO, your auditor, or the next engineer hired to fix the network wants — and what most SFV installers don’t deliver.
Industries we serve in the San Fernando Valley
SFV-scale deployments we’re built for. Anonymized examples — vertical and scale only, per our VAR-partner privacy commitments.
Same-day dispatch from Valencia — 15 minutes from the north SFV
Our HQ is at 23890 Copper Hill Drive, #148, Valencia, CA 91354 — on the north end of the I-5, 15 minutes from Mission Hills and Sylmar, 20 minutes from Burbank depending on traffic. We regularly dispatch same-day for SFV clients. Service area covers every neighborhood in the Valley: Burbank, Glendale, Studio City, Sherman Oaks, Encino, Tarzana, Woodland Hills, Calabasas, North Hollywood, Van Nuys, Northridge, Panorama City, Granada Hills, Chatsworth, Canoga Park, Reseda, Mission Hills, Sylmar, Sun Valley, and Pacoima. Multi-site national rollouts ship out of the same delivery model. Call us: 844-946-8746.
Credentials, in one line each
Multi-CCIE engineering bench delivering across the San Fernando Valley. Most of our engineers carry multiple expert-level certifications — CCIE, CCNP, Palo Alto PCNSE, Meraki CMNO/CMNA, Aruba ACMP, and adjacent security and cloud credentials. Ekahau ECSE certified. Vendor-agnostic across Cisco, Meraki, HPE Aruba, Juniper Mist, Ruckus, Extreme, Palo Alto, Fortinet, Check Point, and Ubiquiti. We do independent validation work for manufacturers and ISPs — hired specifically because we have no platform to make look good. Leadership with 25 years in enterprise networking. WiFi Hotshots was founded in 2019 as a DBA of LA Wireless LLC. Minority-owned. Public-sector registered: California DGS Small Business, City of Los Angeles SBE / LBE / EBE, California SPIN-listed supplier, and Department of Industrial Relations (DIR) registered. White-label delivery for VAR partners.
San Fernando Valley wireless survey FAQ
The questions IT directors, facilities managers, and VAR delivery teams ask us before signing the SOW.
Selected engagements — anonymized
Enterprise networks we’ve delivered at scale. Client names omitted per our VAR and partner agreements.
Scope a San Fernando Valley wireless survey.
Send floor plans and scope. We return a fixed-fee SOW, typically within the week. Same-day dispatch available. 844-946-8746 · sales@wifihotshots.com

