Global crushing support | uptime desk: +1-800-325-2660 | [email protected] EN | LinkedIn | YouTube
Falcon Insights

How to Draw a Falcon: A Quality Inspector's Checklist for Buying Industrial Equipment

Posted on Thursday 27th of August 2026 by Soren Valgaard

Not that falcon.

If you searched 'how to draw a falcon' because you want a pencil sketch, you're in the wrong place. If you came for falcon pizza or The Falcon and the Winter Soldier episodes, also wrong. This article is about a different kind of drawing: drawing the line between an equipment spec that protects you and one that just looks good in a PDF.

If you're the person who signs off on equipment purchases—procurement, plant maintenance, engineering—this checklist is for you. Drawing a falcon starts with basic shapes. Writing a useful equipment spec starts the same way: get the skeleton right before you add detail. I'm the quality/compliance manager at Falcon. On the outgoing side, I review every deliverable before it reaches customers—roughly 200 items a year. On the incoming side, I use this checklist when we buy equipment for our own plant. In 2024, I rejected 14% of first deliveries from vendors for spec gaps.

There are six steps. They're not glamorous. They work.

Step 1: Define the operating envelope in one sentence

Before you compare quotes, write down what the equipment has to survive. Duty cycle. Ambient temperature. Dust, moisture, voltage swings. What happens when the process runs at 110% for two shifts?

If you can't describe it in one sentence, you're not ready to buy. 'A conveyor that can handle 500 tph of crushed ore, 24/7, with peaks to 650 tph for up to an hour' is a spec. 'Heavy-duty conveyor' is a hope.

Step 2: Check the failure mode, not just the happy path

Vendors love to show nominal performance. Good. But field failures happen at the edges. Ask: What's the first thing that wears out? What's the recommended spare part? Do you have test data after 5,000 cycles, not just a lab rating?

People think expensive vendors deliver better quality. Actually, vendors who deliver quality can charge more. The causation runs the other way. If a supplier can't show failure-mode data, I assume they haven't tested it.

Step 3: Ban unquantified words

'Industrial grade,' 'standard tolerance,' 'high quality'—none of these mean anything until a number is attached. Define the measurement method and the allowable range.

In my first year, I made the classic spec error: I assumed 'standard' meant the same thing to every vendor. It didn't. The vendor's tolerance was triple ours, and the rework cost us a $600 redo and a week of delay.

If you're new at this, have someone read your spec and mark every vague word. Then replace it with a number.

Step 4: Calculate total cost of ownership before comparing unit prices

The cheapest quote gets your attention. It shouldn't get your signature.

It's tempting to think you can just compare unit prices. But identical specs from different vendors can produce wildly different outcomes. Total cost is more than the line item. Unit price plus freight, customs, installation, commissioning, training, spare parts, downtime, repairs, and disposal. The hidden costs are where low bids get dangerous.

In Q4 2024, we reviewed three quotes for the same replacement coil: $520, $680, and $715. The $520 quote needed $140 freight, a $95 setup fee, and a one-week delay. The $715 quote included freight, setup, and a delivery guarantee. Guess which one was cheaper in total?

I don't have hard data on industry-wide bid-to-cost ratios, but based on five years of purchase reviews, my sense is 8-12% of low-bid decisions end up costing more within two years. I wish I'd tracked it more carefully.

Same logic applies at any scale. A friend of mine runs a place called Falcon Pizza, and his cheap oven conveyor belt 'saved' him about $300 upfront—then cost him two shutdowns, an early sprocket replacement, and a lot of late-night calls. The heavier belt was cheaper by year two.

Step 5: Test how the vendor handles problems

It's easy to be a supplier when everything works. The difference shows when a batch fails.

Before you commit, ask: What's the corrective action process? Do they test the fix before shipping it? Who pays for return freight? What's the response time for a line-down emergency?

I once skipped a written confirmation because we'd worked together for years. That was the one time the verbal agreement got forgotten. The delay cost more than the parts did.

Step 6: Put the line in writing

Every checkpoint above should end up in the PO: spec numbers, acceptance test results, replacement terms, payment milestones tied to sign-off.

Rose, our procurement lead, likes to challenge the price. Lewis, our senior engineer, refuses to sign off without the cost-of-ownership math. They balance each other, and the PO is where that balance gets written down.

If a spec isn't on the PO, it's a suggestion. If a remedy isn't on the PO, it's a favor. Favors get forgotten in a busy quarter.

What I'd tell you after 2,000 reviews

This checklist was accurate as of late 2024. The equipment market changes fast, so verify current prices and lead times before you budget.

The mistakes I see repeat: comparing prices before defining specs. Chasing a low quote without adding hidden costs. Trusting a relationship instead of a contract. Treating 'standard' as if it meant the same thing to every supplier.

Back in 2021, when The Falcon and the Winter Soldier episodes were releasing weekly, we had a supplier reject a coil order because one tolerance conflicted with another. The vendor was technically right; our drawing was ambiguous. We changed the drawing process after that.

You don't need to be a quality engineer to use this checklist. You just need to be willing to draw the line before you sign.

Soren Valgaard

Soren Valgaard covers surface and underground drill rigs, rotary drills, core drills, rock drills, DTH hammers, drill bits, and rock-reinforcement equipment. His evaluations reference ISO 18758-1 while comparing hole diameter, drilling depth, penetration rate, feed force, compressor demand, rod handling, fuel use, and rig stability. He helps mine engineers and equipment buyers match drilling systems to geology, bench design, production targets, operator safety, mobility, and maintenance conditions.