Yes, with a clear scope boundary. We design and validate the wireless RF layer — AP placement, coverage targets, antenna selection, enclosure type, and SCADA-coexistence channel planning for upstream telemetry and production monitoring networks in the Kern River field, Elk Hills, and Belridge. Our designs account for Class I Division 2 hazardous location requirements when specifying enclosure placement, which means we work within that constraint and flag it explicitly in the BOM. We are RF engineers, not electrical contractors — the physical hazardous location installation is coordinated with the operator’s approved contractor. What we deliver is a design that accounts for the environment rather than ignoring it.

Yes. Almond, pistachio, and citrus packing operations in Shafter and Delano run production 16 hours a day in conditions that kill standard commercial hardware fast: airborne dust from husking and sorting lines, intermittent water spray from wash and hydrocooling stations, and refrigerated storage bays with metal-panel insulated walls that behave completely differently from ambient-temperature construction. We specify IP-rated hardware and enclosures rated for the actual operating environment. We also run spectrum analysis specifically looking for conveyor motor harmonics, variable-frequency drive noise, and refrigeration compressor interference that blankets 2.4 GHz before a standard integrator has even looked at the floor plan. The BOM we produce is spec’d for the environment you actually operate, not the one that’s easiest to quote.

High-bay distribution is one of our primary engagement types. Selective-pallet racking at 36 to 45 feet with dense pallet load creates vertical RF shadowing — ceiling-mounted omnidirectional APs often miss picker aisles entirely below the third beam level. We model and validate directional antenna coverage at aisle level, not just ceiling-clearance level. On the Tejon Ranch corridor and along Highway 99, distribution facilities add a second problem: summer ambient temperatures above 110°F in uncontrolled receiving and staging areas mean hardware thermal ratings are a design constraint, not a footnote. The BOM includes hardware rated to the operating temperature and mounting configurations that keep equipment within spec. A scanner misread or roaming gap costs real money per shift — the design accounts for it before installation begins.

Bakersfield peaks at 110 to 115°F in late July and August. That is not a rounding error — it is above the rated operating temperature for most commercial indoor APs and many outdoor models when factoring in enclosure thermal rise. Our outdoor designs specify hardware with operating temperature ratings that account for ambient plus solar heat gain in the enclosure. For exposed mounting locations, we specify vented NEMA enclosures, sun shields, or industrial-rated APs with extended temperature ratings depending on what the environment requires. We also take the outdoor path loss into account with Ekahau — ground-level terrain, reflective surfaces from asphalt and concrete lots, and antenna heights calibrated to the actual coverage target, not a generic outdoor template.

Yes. Healthcare is one of our primary verticals. We design with HIPAA-aware documentation, model for medical device coexistence in the 2.4 GHz band, and account for telemetry band restrictions that standard survey firms often miss. That means building the SSID and VLAN architecture around nurse call, Epic Rover, RTLS badge tracking, and any FDA-class wireless device running in the facility — not just coverage rectangles on a floor plan. We’ve executed multi-campus overnight healthcare cutovers with zero morning clinical downtime, which is the engineering discipline that hospital-grade wireless requires. That same experience applies directly to Kern Medical and the Adventist and Mercy campuses in Bakersfield.

It scales with square footage, environment type, floor or zone count, and survey type. A predictive-only engagement for a single-floor commercial office is a different scope from an onsite AP-on-a-stick validation at a 500,000 sq ft distribution center with post-install heatmaps, or a multi-plant industrial engagement requiring outdoor thermal analysis and spectrum capture. Share the floor plans and the use case — we return a fixed-fee SOW, not an hourly estimate. No fabricated travel surcharges for Kern County — we’ve structured the engagement model to serve the Central Valley market consistently.

For any industrial environment — oil and gas, ag processing, high-bay distribution, healthcare campus, or outdoor coverage in an extreme-heat environment — onsite AP-on-a-stick is required. Predictive models cannot account for actual steel-panel attenuation, real pallet-load RF shadowing at 40 feet, interference from production equipment, or outdoor path loss at ground level without measured values from the actual site. For standard Bakersfield commercial office or new construction with documented materials, predictive-only can be sufficient. Most serious Kern County engagements combine both: predictive first to establish the design direction, onsite validation to correct the model before the PO goes out.

The Ekahau project file (.esx), annotated predictive and measured heatmaps per floor or zone (signal strength, SNR, data rate, channel utilization, interference overlay), AP BOM with antenna and mount specs, outdoor enclosure and thermal requirements where applicable, cabling and power requirements, channel and power plan, spectrum analysis findings with photos, and a remediation list if any gap exists. For industrial and ag environments, the package includes environment-specific hardware specifications and IP/NEMA enclosure callouts. For distribution center engagements, the package includes aisle-level coverage documentation along scanner and forklift paths. Your operations director, compliance officer, auditor, or the next engineer can pick this up and know exactly what was deployed and why.