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Cadence

10 posts
  1. Week 1

  2. Week 2

  3. Week 3

  4. Week 4

Company — IES Page

C1SafetyCarousel

Do workers have to wear something?

Every safety director evaluating pedestrian detection asks us the same four questions. In the same order. 1. Do our people have to wear something? 2. Will it cry wolf until operators ignore it? 3. Will it slow our trucks down? 4. What does rolling it out across the whole fleet actually look like? Fair questions. They're the difference between a system that protects people and a system that gets unplugged by March. The four questions — and what to listen for in the answers — in the slides.

Slides

  1. The 4 questions every safety director asks about pedestrian detection
  2. Q1 — "Do our people have to wear something?" Tags and wearables only work if they're worn, charged, and not left in a locker. Ask what happens on the day someone forgets.
  3. Q2 — "Will it false-alarm?" A warning operators don't trust is worse than no warning — it trains people to ignore the real one. Ask how the system tells a person from a pallet.
  4. Q3 — "Will it slow our trucks down?" Detection that punishes normal work gets defeated. Ask where alerts trigger — and where they deliberately don't.
  5. Q4 — "What does fleet rollout look like?" One truck is a demo. Thirty trucks across three shifts is a change-management project. Ask about install time per truck and operator onboarding.
  6. The question behind the questions: "Will this still be working — and still be respected — a year from now?"
  7. That's the standard we build to. Guardian pedestrian detection and collision avoidance for powered industrial trucks.
  8. Ask us the four questions. We'll answer them the same way. — Industrial Engineering Solutions

Build as a clean PDF carousel, one question per slide, large type, no stock photos. This is the save-worthy reference post of the set — pin it to the page's Featured section after posting.

C2SafetyText

The near-miss didn't make it into the log.

The near-miss didn't make it into the log. Not because anyone hid it. Because nothing happened. The picker stepped back, the operator braked, both of them laughed it off, and the shift moved on. That's how it works on almost every floor. The incident report captures injuries. It almost never captures the ten close calls that came before the injury — same corner, same blind rack end, same time of day when the light comes through the dock door wrong. OSHA estimates forklifts are involved in roughly 85 fatal accidents and 34,900 serious injuries a year in the U.S. Read the investigation summaries and a pattern shows up again and again: the location had a history. People knew. It just never got written down, so it never got fixed. If your safety program only sees what gets reported, it's managing a fraction of your actual risk. Start with the corners. Ask operators where they've had to brake hard in the last month. You'll get a map your incident log has never shown you. That's the map worth engineering against.

Text only, no image — text posts earn the comment thread; expect operators to name their own blind corners, reply to every one within the hour. Stat source for the notes: OSHA estimates as widely published (see Sources at the end of this file).

C3SafetyPoll

After a forklift near-miss at your facility, what actually happens?

Honest answers only — this is research, not a quiz. After a forklift near-miss at your facility, what actually happens? 🗳️ It gets logged and reviewed 🗳️ It gets mentioned at the next safety meeting 🗳️ The two people involved sort it out and move on 🗳️ Nothing — nobody hears about it We'll share what the pattern looks like when the poll closes. Our suspicion: the near-miss data that would prevent the next injury is the data most facilities never collect.

Poll runs 1 week. The follow-up results post (sharing the split + one paragraph of interpretation) is a free second post — schedule it when the poll closes. Polls buy reach, not depth; this one exists to harvest buyer language for future posts.

C4VLMCarousel

Your pickers are walking. Your parts aren't moving.

In a conventional parts room or small-parts warehouse, the picker does the travelling — up and down aisles, bin to bin, list in hand. The part sits still. The person burns the shift walking to it. A vertical lift module flips that: the tray comes to the operator, at a workstation, at working height. The storage goes up — into the vertical space you're already paying for — instead of out. What changes, slide by slide.

Slides

  1. Goods-to-person: why the tray should travel, not the picker
  2. The walk: in shelf picking, travel between picks is the largest slice of a picker's shift — and it produces nothing
  3. The footprint: a VLM stores vertically in a compact footprint, recovering floor space that shelving spreads across
  4. The reach: trays present at an ergonomic workstation height — no ladders, no overhead reaching, no bending to floor-level bins
  5. The count: every tray delivery is a controlled transaction — picking accuracy and inventory visibility improve because access is managed, not open
  6. The fit: small parts, tools, MRO, spare parts, high-value components — dense, varied, and picked often
  7. If your team walks miles to pick parts that weigh ounces, the layout is the problem. — Industrial Engineering Solutions

Carousel; slide 3 pairs best with a simple diagram (shelving footprint vs. VLM footprint, same inventory). Keep slide 2 qualitative — no walking-distance statistics we can't source.

C5VLMQuestion

What's living on your floor that shouldn't be?

Question for the warehouse and plant managers here: What's living on your floor that shouldn't be? Every building has it. The parts cage that grew one rack at a time. The tooling stored three aisles from where it's used. The spare-parts shelving that eats the square footage you need for production, staging, or the line you're trying to add. Floor space is the most expensive thing in most facilities — and the strangest thing about it is how much of it gets spent storing small parts at ankle height, spread across racking a person has to walk through. Before you price more building, look up. The space between your shelving tops and your ceiling is already yours. What would you do with the floor space back? Genuinely asking — the answers are always different from what we expect.

Pair with one real photo style: a wide shot of tall racking with empty air above it. The closing question is the comment engine — Steve and the page admin should seed the thread by replying to the first comments fast.

Personal — Steve Gretton

S1SafetyText

Stand at the end of any rack aisle and just watch for five minutes.

Stand at the end of any rack aisle in any warehouse and just watch for five minutes. You'll see it. A picker crosses the aisle without looking — head down, pick list in hand, thinking about the next line on the order. Thirty seconds later a forklift comes through the same crossing with a load at travel height. They miss each other by timing, not by design. I do some version of this on every floor I walk, because it's the fastest honest audit there is. Not the paperwork. Not the training records. Just: how many times in five minutes do people and trucks rely on luck to share the same space? Painted walkways don't fix it. Everyone means well; the paint fades, the shortcut is shorter, and the walkway ends up as overflow staging by February. What fixes it is engineering the encounter itself — the truck knows a person is there before either of them rounds the corner. Until then, most facilities are running on timing. And timing eventually runs out. Watch your own crossings for five minutes this week. Tell me I'm wrong about what you'll see.

Steve's lead post — this is the one the whole set is built around. No hashtags, no link. Personal photo optional (Steve on a warehouse floor, hi-vis, not posed at a desk); the post works text-only. Reply to every comment personally.

S2SafetyQuestion

If your pedestrian alarm goes off 40 times a shift, you don't have an alarm.

If your pedestrian warning system goes off 40 times a shift, you don't have a warning system. You have background noise with a battery. Operators aren't careless. They're rational. A signal that fires for racking, shrink wrap, and the occasional actual human teaches one lesson, fast: ignore the signal. The real engineering problem in pedestrian detection was never "can we sense something." It's "can we sense a person, specifically — and stay quiet about everything else." False alarms aren't a nuisance metric. They're the whole ballgame. How many alerts a shift does your current setup throw? I'd bet the operators know the number better than the spec sheet does.

Short take, posted as-is. This is the false-alarm buyer question in Steve's voice — designed to pull comments from operators and EHS managers who live with noisy systems.

S3SafetyText

I've read a lot of OSHA citations. The forklift ones rhyme.

I've read a lot of OSHA citations over the years. The forklift ones rhyme. 29 CFR 1910.178 is the powered industrial truck standard, and when an inspector walks a facility after an incident, the findings tend to circle the same drain: an operator who was never properly evaluated. A truck with a defect that stayed in service. A pedestrian pattern nobody controlled. A near-miss history that everyone on the floor knew about and nobody above the floor did. Here's what strikes me every time: citations are written after. After the incident, after the injury, after the investigation reconstructs what the floor already knew. And in one recent year, OSHA cited 2,858 violations of the powered industrial truck rules and assessed nearly $1.8 million in penalties. The penalties are the small number. The small number is never the one that matters. The gap I keep seeing isn't knowledge. Every safety director I talk to knows 1910.178 cold. The gap is between what the standard asks for on paper and what actually happens at the aisle crossing at 2 a.m. on third shift. That gap is where people get hurt. It's also the only place worth spending money.

Text only. Citation figures are real and sourced (BLR/OSHA data — see Sources). Do not add a sales line; the authority is the close. Expect safety directors to respond — this is the comment-depth post.

S4VLMText

The most expensive room in your building might be the parts cage.

The most expensive room in your building might be the parts cage. Not because of what's in it — though there's usually a small fortune in spares, tooling, and MRO sitting in there. Because of the floor it's standing on. I walk facilities where production is squeezed, staging overflows into aisles, and there's a serious conversation happening about leasing more space. Then we walk past a parts room the size of a basketball court, storing small components on shelving that tops out at head height, with ten feet of empty air above it. That air is already paid for. It's inside the building. It's heated, lit, and insured. Nobody's using it. That's the entire argument for vertical storage, stated plainly: store up, pick at a workstation, and hand the floor back to the work that makes money. A vertical lift module is just the machine that makes the air usable — trays of parts delivered to the operator instead of aisles of shelving the operator has to wander. Before your next space conversation, do one thing: stand in your parts storage and look up. Then tell me how many feet of building you're not using.

First person, no hashtags. Optional photo: looking up inside a warehouse at racking tops and clear height — a phone photo is better than stock here; authenticity is the personal account's edge.

S5VLMCarousel

Before you buy more racking, answer three questions.

Every facility hits the same moment: parts storage is full, and the default answer is more racking, more floor, or more building. Before that purchase order, three questions. They take an afternoon to answer and they change what the right answer is.

Slides

  1. Before you buy more racking: 3 questions
  2. Q1 — How high is your storage, and how high is your ceiling? The gap between them is storage you've already bought.
  3. Q2 — What do your pickers actually do all day? Time a pick honestly: how much is picking, and how much is walking and searching?
  4. Q3 — What would the floor be worth doing something else? Production, staging, a new line — storage should have to outbid them for the space.
  5. If storage loses on all three, the answer usually isn't more racking. It's going vertical — trays delivered to the picker, footprint of a fraction of the shelving.
  6. We run this math with facilities before anyone talks about equipment. The questions are the valuable part. — Steve Gretton, Industrial Engineering Solutions

Personal-account carousel (documents perform on profiles too, and this one is built to be saved by plant managers mid-decision). Slide 2's "time a pick honestly" is the shareable line — expect it quoted in comments.