Technical articles from Richesin Engineering's field engineers — network infrastructure, fiber optics, cybersecurity, wildfire comms, and more.
SCADA, machine telemetry, safety monitoring, and crew connectivity at remote Alaska and Oregon mine sites demand more than a single Starlink terminal. Here’s how to build a resilient bonded network for the mine site environment.
The Bench Fire burned 64,000 acres and knocked out grid power across Jefferson County. Starlink kept evacuation shelters, tribal emergency response, and ICPs online — here’s what works and what doesn’t.
Rural ISPs are prime ransomware targets — high community dependency, limited defenses. Here’s the 72-hour response playbook: isolation, forensics, backup assessment, FBI reporting, and recovery sequencing.
Brewer and Akawa Butte fires are burning in Jefferson County right now. Tower crews face unique fire-season hazards — red flag holds, smoke PPE, post-fire structural assessments, and evacuation protocols.
Oregon is at Fire Danger Level 4 with a state of emergency declared. The 2026 season is exposing ICP communications failures — generator dependency, smoke-degraded Starlink, cellular congestion, and radio logging gaps.
BEAD-funded fiber deployments need to get PON architecture right the first time. GPON vs. XGS-PON, OLT platform selection, split ratio design, OSS/BSS for small ISPs, and backhaul integration.
Defender for Business, Conditional Access, Safe Attachments, Intune device management, and Copilot AI — most Oregon businesses are paying for Business Premium and using none of it.
Oregon received 69M and Alaska B+ in BEAD broadband funding. Here’s how rural communities, tribes, and ISPs can turn that investment into real fiber infrastructure — and what it takes to execute well.
Alaska salmon season is underway. VMS reporting, eCatch, tender coordination, and crew communication all depend on reliable vessel connectivity — here’s how bonded Starlink Maritime delivers it.
Single-terminal Starlink fails at exactly the wrong moment — smoke, weather, congestion, obstruction. Here's why bonded Starlink with LTE failover is the standard for critical remote operations.
Default credentials, exposed management ports, unpatched firmware, and no on-site staff — here's how to harden remote tower sites and field infrastructure before attackers find them first.
Bonded Starlink backhaul, VoIP, radio-over-IP integration, and power planning for Type 1 and Type 2 wildland fire ICPs — with 2026 fire season already underway in Oregon.
100% tie-off, Job Hazard Analysis, suspension trauma rescue, and what to ask before hiring a tower climbing contractor — from crews who do this work every day.
Transit and peering strategy, core routing architecture, last-mile design, and NOC operations — the engineering decisions that define whether your ISP scales or struggles.
How we turned up a REDCOM softswitch and deployed a full Yealink fleet across a tribal telecom client's 17-site network — in 48 hours.
Read More →Basalt, permafrost, lava fields, and federal permits — OSP fiber construction across our three primary markets demands regional expertise from day one.
How bonded Starlink, LTE, and VSAT keep vessels and remote mining camps connected — with automatic failover, QoS, and centralized monitoring.
How to move your email, files, and users to Microsoft 365 with zero downtime — from DNS cutover to MFA and security hardening.
A single Starlink terminal is good. Two bonded with LTE backup is enterprise-grade. Learn how MPTCP bonding works and who needs it.
Why regular tower inspections are critical for safety and compliance, and what to expect from a professional tower inspection — from visual checks to RF testing.
A practical field guide to fiber optic splicing — fusion vs. mechanical, OTDR testing, splice loss budgets, and best practices from Richesin Engineering's technicians.
Alaska's remote networks face unique cybersecurity challenges. Learn how to protect satellite-connected, remote, and critical infrastructure networks from modern threats.
The challenges and solutions for building fiber infrastructure in Alaska's most remote communities — permafrost, wildlife crossings, and extreme weather included.
Sound network architecture is the foundation of small business cybersecurity. Learn how proper segmentation, firewall design, and monitoring reduce your attack surface.
Everything you need to know about surveillance cameras in Alaska — cold weather ratings, remote connectivity, wildlife detection, and off-grid power options.
Security best practices for field laptops and mobile devices at wildland fire incident command posts — encryption, VPN, physical security, and chain of custody.
Lessons learned from managing large-scale telecom deployments in remote environments — what works, what doesn't, and how to build projects that scale.
A practical IT and communications checklist for setting up wildland fire incident command posts — network infrastructure, satellite connectivity, and radio integration.
Practical strategies for designing and optimizing mixed fiber and microwave backhaul networks for rural broadband, ISPs, and utility communications.
Step-by-step approach to planning and executing wireless backhaul upgrades with zero customer impact — from pre-migration testing to rollback planning.
Network design principles for oil fields, wind farms, solar facilities, and remote energy infrastructure — built to survive the environment and support operations.
Everything Oregon businesses and property owners need to know about professional surveillance camera selection, installation, and Oregon security compliance.
Understanding the unique cybersecurity requirements of field-deployed telecom infrastructure — remote towers, satellite links, and temporary command post networks.
A project spotlight on our LTE radio installation in Kaktovik, Alaska — one of the most remote communities in North America, above the Arctic Circle.
Current best practices for OSP network design — fiber selection, route planning, conduit systems, and documentation standards for carrier and enterprise builds.
A practical framework for deciding between enterprise and industrial/rugged network hardware — when the premium is justified and when standard gear will do.