I help manufacturers, OEMs, and technical teams stabilize and modernize complex machinery where mechanics, motion control, hydraulics, controls, and software all have to work together under real production demands.
Machines are often sold on brochure performance but designed around incomplete assumptions. They may run, but they rarely achieve their promised throughput in the real world.
Maintenance culture, system integrity, utility capacity, cabinet design, mechanical sizing, control-loop architecture, and operator workflow — before blaming code.
Architecture-level solutions that make machines stable, serviceable, and capable of real production performance instead of theoretical performance.
Structured for OEMs, factories, integrators, and technical teams dealing with underperforming, unstable, or difficult-to-scale machinery.
Root-cause analysis for machines that run poorly, miss production numbers, or cannot be tuned into reliable operation.
Evaluation of motion strategy, PLC software architecture, HMI structure, electrical design, and system integration decisions.
Review of utilities, process piping, network architecture, material handling, and production visibility systems.
Ongoing senior technical oversight for machine builders and manufacturers that need architecture-level depth without a full-time hire.
Representative examples of complex systems spanning multi-axis motion, large-scale stage automation, and plant-wide modernization.
Redesigned an eight-axis coordinated motion system by separating torque, speed, and cam-based motion roles to create stable CNC-like cutting behavior.
Read project summaryModernized a legacy hydraulic overhead rigging system into a high-power servo-based platform used by major productions and large-scale events.
Read project summaryLed the modernization of ten presses plus workflow, process piping, networking, and production management software to reduce downtime and improve visibility.
Read project summaryThe machine, code, UI, and plant interaction have to be defined before panel drawings can be right.
Understand actual mechanics, load cases, utilities, motion roles, and material behavior.
Build machine states, motion strategies, safety structure, software modules, and diagnostics logic.
Create UI and diagnostics around real operator and maintenance tasks instead of raw engineering variables.
Only after the system architecture is defined do the schematics, wiring strategy, and enclosure layout become efficient and correct.
The patterns I see most often across machinery, factories, and motion systems.
Machines often fail commercially not because they do not run, but because they do not perform as promised in real production.
Undersized servos, poor gearbox choices, and insufficient utilities are often blamed on code even when the real limitation is physical.
Most operator interfaces are engineer-built instead of workflow-built, which increases downtime, confusion, and training burden.
Maintenance culture, sensor bypasses, and undocumented repairs often reveal more than the code does during the first inspection.
What our clients have to say.
Landon's broad knowledge of manufacturing, electronics and technology blended perfectly with our company's needs.
I am genuinely sincere when I say that Landon single-handedly transformed our manufacturing division into a state-of-the-art production facility built for growth.
For projects involving complex motion systems, plant integration, or machinery that nobody seems able to stabilize, start a conversation.