After Wasting $8,400 on Bad PPE, Here's the Safety Gear Checklist I Use Now

Six years ago, I took over safety equipment ordering for our 40-person fabrication shop. Since then, I've personally made—and documented—17 significant mistakes totaling roughly $8,400 in wasted budget. Most of them were avoidable. All of them taught me something.

This article is the checklist I wish I'd had on day one. If you order work boots, safety glasses, fire extinguishers, or any PPE for a crew, steal it. Adapt it. Use it. It's not theory—it's the exact process I now maintain for our team to keep my mistakes from being repeated.

Step 1: Identify the hazard before you pick the boot

My first mistake was picking a brand before a hazard. In 2019, I ordered 12 pairs of a well-known boot because it was on sale. I never checked whether the rating matched what our guys actually do. Our crew welds and handles heavy plate steel. The soles delaminated in under two months. $1,260 gone.

Protective footwear in the US falls under ASTM F2413-18. If a boot doesn't carry this label, it's not a safety boot—it's a work-style shoe. The label should include specific ratings:

• I/75 — impact and compression resistance (75 ft-lbs impact / 2,500 lbs compression)
• C/75 — compression only
• EH — electrical hazard protection
• Mt — metatarsal protection
• SR — slip-resistant outsole

Let me address the "on cloud work boots" thing, because it comes up a lot. People see how comfortable those running shoes are and want that same feeling on the job site. I get it. Standing on concrete for ten hours is brutal. But On Cloud—like most running shoe brands—doesn't make a boot with an ASTM F2413-18 rating. A running shoe, no matter how well-cushioned, is not a substitute when there's an impact hazard. If you want that cushioning feel with a genuine safety rating, look at lightweight composite-toe options from brands that actually make work boots. Red Wing Shoes comes up a lot with our crew, and the brand is a reasonable starting point—but the label inside the boot is the only thing that matters.

Checkpoint: What hazard needs protection? Falling objects, electrical exposure, penetration from below, hot surfaces? Write it down. The hazard determines the standard. The standard determines the boot.

Step 2: Weight and fit are safety features, not comfort perks

It took me three years and roughly 30 orders to understand a simple fact: the safest gear is the gear people actually wear. Heavy boots get kicked off at break time. Tight boots get worn loose. The "best" boot is the one that stays on.

That's why the red wing work lightweight safety shoes category exists. Modern lightweight boots still meet ASTM F2413-18—they use composite toes and engineered materials to cut weight while keeping the rating. One of our welders switched from a traditional steel-toe boot to a lightweight composite-toe model and reported noticeably less leg fatigue on 12-hour shifts. That matters.

But lightweight doesn't automatically mean less protection. You still need to verify the specific ratings. And don't mistake "lightweight" for "soft." The sole still needs slip resistance. The toe still needs crush resistance. Every rating has to be present.

A note on women's boots: don't convert men's sizes

If you have women on the crew, do not order "a size smaller of the men's boot." I made that mistake in 2022. $640 of boots that fit nobody correctly. Women's Red Wing safety shoes are built on a women's last—different heel-to-toe profile, different width proportions, and less heel slip. Several women on our crew wear them, and the difference is obvious in how they walk at the end of a shift.

Checkpoint: Does the boot carry the right rating? Is it light enough to wear all day? Is it sized to the individual foot, not the generic size chart? If you're not sure, you're not ready to order.

Step 3: Safety glasses side shields aren't a suggestion

I learned this from an OSHA citation. In September 2023, an inspector walked through our fabrication area and flagged two guys wearing basic safety glasses without side shields. The violation referenced 29 CFR 1910.133. The fine wasn't huge, but the re-inspection process and the manager time I spent responding to it cost us far more than the ticket.

The US eye protection standard is ANSI Z87.1. There's "Z87" and there's "Z87+"—the plus means the lens passed high-impact testing. For grinding, chipping, or any task with flying particles, you want Z87+.

On the side shields specifically: yes, you can buy clip-on shields that technically satisfy the requirement. But in practice, they get knocked off, lost, and installed wrong. Buy safety glasses with molded side shields instead. One solid piece of plastic. No assembly. No argument. That's the whole point.

Checkpoint: Does the task produce airborne particles? If yes, the answer is Z87+ with molded side shields. Full stop.

Step 4: Fire safety—how does a smoke detector work?

I know smoke detectors feel out of place in a PPE article. But if you're the person ordering safety equipment, you're also the person who gets asked about fire safety during an inspection. I didn't understand the difference between the two detector types until after we failed an internal fire audit. Here's what I learned.

It's tempting to think a smoke detector is a smoke detector—just a plastic disc that beeps. But the sensing technology matters a lot.

Ionization detectors. These use a small radioactive source (americium-241) to ionize the air between two electrodes. Smoke particles disrupt the current flow, which triggers the alarm. They respond fastest to fast-flaming fires with small smoke particles.

Photoelectric detectors. These use a light source aimed away from a light sensor inside a sensing chamber. When smoke enters the chamber, it scatters the light onto the sensor, and the alarm sounds. They respond faster to smoldering fires—like a hot work ember slowly catching cardboard, or an electrical outlet heating up behind a wall.

The NFPA 72 recommendation is simple: use both types, or a dual-sensor alarm that combines them. In a workshop setting, I'd argue photoelectric is the one to prioritize. Most shop fires start as slow smolder, not as instant flames.

One more thing: detectors don't last forever. Most photoelectric sensors are rated for a 10-year lifespan. Write the installation date on the detector with a permanent marker. Replace it before it expires, not after.

Checkpoint: Are your detectors dual-sensor or properly mixed? Do you know when each one was installed? When did you last actually test them?

Step 5: The step almost everyone skips—documentation

Here's the mistake that finally got me to build this checklist. In Q1 2024, we had our third rejected order in 18 months. Same root cause every time: someone picked a product without checking it against what the end user actually needed. The third one was $630 of eye protection that was the wrong type for the tasks we do. That's when I created our five-question pre-order review, and we haven't had a rejected order since.

1. Task. What specific task is this item for?
2. Standard. Which standard applies to that task? (ASTM F2413 for boots, ANSI Z87.1 for eye protection, NFPA 72 for fire detection.)
3. User. What user-specific factors matter? (Foot width, women's sizing, prescription glasses, all-day wear patterns.)
4. Training. Does the user need training to inspect or use it correctly?
5. Verification. Who checks the item when it arrives, and who verifies fit and function before it enters service?

The documentation step isn't glamorous. But it's the difference between managing your PPE budget and watching it leak away one bad order at a time.

Checkpoint: Run those five questions on your most recent order. If you can't answer all of them, you know what to fix next.

Mistakes I made so you don't have to

A few hard-learned lessons that don't fit into the main steps:

Don't bulk-order before fit-testing. Buying 20 pairs of boots to get a quantity discount sounds smart. It's not. Buy one pair, have the end user wear it for two weeks, then place the bulk order. The return policy math will not be on your side otherwise.

Check warranty and repair programs. Red Wing Shoes offers recrafting on many of its work boots. I didn't know this for three years. That's embarrassing. If the brand you order from has a resole or repair program, it completely changes the long-term cost calculation.

Compare cost per month of use, not sticker price. That $120 boot that lasts 6 months costs $20 per month. A $220 boot that lasts 18 months costs $12.22 per month. Simple math. Completely different conclusion.

The lowest quote isn't the lowest cost. I want to say around 60 percent of our early expense issues traced back to choosing the cheapest quote first. I might be misremembering the exact ratio—but it was high enough that we stopped doing it.

From the outside, it looks like buying safety equipment is about finding the right supplier. The reality is supplier selection is maybe 20 percent of the job. The other 80 percent is knowing the hazard, knowing the standard, and knowing who's actually wearing the gear.

The same logic applies to hard hats, gloves, and hearing protection. Each one has a standard, a user-specific fit consideration, and a training requirement. Run them through the checklist too.

Look, I'm not saying this checklist is gospel. Every shop is different, and there are legitimate reasons to deviate. At least, that's been my experience with a mid-size fabrication crew. But if you're starting out—or recovering from your own expensive mistakes—this framework is what stopped my bleeding.

Steal it. Use it. And don't repeat my $8,400 mistake.