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Who This Checklist Is For
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Step 1 — Verify the Pump Schedule Against the Reservoir Model
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Step 2 — Double‑Check Proppant Type, Size, and Concentration
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Step 3 — Confirm Fluid Compatibility with Formation Water
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Step 4 — Price Transparency: List Every Add‑On Before You Quote
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Step 5 — Pre‑Job Briefing with All Parties (the “T‑1” Check)
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Common Mistakes to Watch Out For
I’m not Tyrese Halliburton. I don’t wear Puma shoes, and I can’t cross anyone over on the court. I’m the other Halliburton — the one that shows up at your wellsite with 2,500 HHP of pumping iron. I’ve been handling well completion orders for 12 years, and I’ve personally made (and documented) 23 significant mistakes totaling roughly $44,000 in wasted budget. Today I maintain our team’s pre‑frac checklist so nobody else repeats my screw‑ups.
Before we dive in: yes, Halliburton’s stock (HAL) has a 5‑year beta around 1.2, which means it’s volatile — but this article isn’t about trading. It’s about getting the job done without burning money on re‑runs. This checklist is for completion engineers, field supervisors, and anyone who signs off on a frac design.
Who This Checklist Is For
If you’re about to pump a stage, order proppant, or approve a fluid recipe, this is for you. I’ve seen operators lose entire stages because they skipped one verification step. I once ordered 1,200 tons of 30/50 Ottawa sand — wrong size, wrong place, straight to the landfill. That was $17,000 and a 3‑day delay. This checklist would have caught it.
There are five steps. Grab a coffee and a pen.
Step 1 — Verify the Pump Schedule Against the Reservoir Model
This sounds obvious, but it’s the step most people gloss over. When I compared our Q1 and Q2 results side by side — same formation, different pump schedules — I finally understood why the ramp rate matters so much. We were pumping too fast early, creating near‑wellbore tortuosity.
Here’s the concrete check: cross‑reference the planned stage pump rate (bbl/min) against the minimum horizontal stress gradient from your geomechanics report. If the rate exceeds the fracture propagation speed in the model, you’ll get screenouts. I use a simple spreadsheet that flags any stage where the rate is > 15% above the model’s recommended ceiling.
What to do on site: Before you start pumping, have the frac engineer verbally confirm the rate sequence with the field superintendent. I once had a 9:00 AM meeting where both agreed on 70 bbl/min, but the board operator had a different worksheet. That cost us $7,200 in fluid waste. (Should mention: we caught it after 300 bbl, not the whole job.)
Step 2 — Double‑Check Proppant Type, Size, and Concentration
I went back and forth between 30/50 Ottawa sand and 20/40 resin‑coated sand for a client in the Permian for two weeks. Ottawa offered lower cost; resin‑coated gave better long‑term conductivity. Ultimately I chose Ottawa because the well had a long history of low‑stress fracture — the resin didn’t justify the premium. Good call, right? But I still nearly ordered the wrong mesh.
Here’s the checklist item: Confirm the proppant sieve analysis matches the specification sheet. I’ve seen orders where the ticket said “30/50” but the actual load had 12% fines. Per API RP 56, fines content should be ≤ 1% for 30/50. So I now require a photo of the sieve test results before the truck leaves the yard. That’s saved us 47 potential errors in the past 18 months.
Bonus check: Pump concentration ramp. The design might say “ramp from 0.5 to 2.0 ppg.” The operator might read “2.0 ppg final.” If he loads it all at 2.0 from the start, you’ll screen out. I had this happen in September 2022 — $4,300 in wasted proppant and a 5‑hour cleanup.
Step 3 — Confirm Fluid Compatibility with Formation Water
This gets into formation chemistry territory, which isn’t my expertise. I’m not a reservoir engineer. What I can tell you from a completions perspective is: never trust the default fluid. I once ordered 2,000 bbl of a standard borate‑crosslinked fluid for a well in the Bakken. The lab report (which I didn’t read) showed the formation water had high calcium — borate crosslinks don’t work in high‑calcium environments. The gel never built viscosity. We pumped 1,200 bbl of water down the formation, wasted $5,600, and had to shut down for 24 hours.
Action: Request a fluid stability test for the specific brine and temperature of your target zone. The test should show “stable viscosity for 90 minutes at bottomhole static temperature.” If it doesn’t, don’t pump that fluid. Period.
Step 4 — Price Transparency: List Every Add‑On Before You Quote
This step isn’t technical — it’s financial, and it’s where I’ve learned the most. The company I work for is Halliburton, and we’re not perfect. But I’ve made a personal rule: when I propose a completion program, I show the customer every line item — fracturing fluid additives (biocide, scale inhibitor, friction reducer), mobilization, disposal fees, even the lunch truck. No hidden fees.
Why? Because hidden fees destroy trust. I’ve learned to ask “what’s NOT included” before “what’s the price.” A vendor who lists all fees upfront — even if the total looks higher — usually costs less in the end. I once had a competitor undercut me by 15% on the base quote, then tacked on $8,000 in site readiness fees. The operator came back to me. I added a line item called “Site Readiness” that was zero. That honesty got us the contract.
Your checklist item: Before you send a quote, write down every cost category. Include a “contingency” line at 5% for surprises. The goal is a single, final number with no asterisks. If you can’t explain a cost, don’t add it.
Step 5 — Pre‑Job Briefing with All Parties (the “T‑1” Check)
Had 2 hours to decide before the deadline for rush processing on a pad in the Eagle Ford. Normally I’d schedule a full day briefing, but the client wanted to start next morning. Went with a quick call based on trust alone. In hindsight, I should have pushed back on the timeline. But with the client’s production target looming, I made the call with incomplete information.
The mistake: I forgot to confirm the bottomhole temperature probe calibration with the wireline company. The temperature reading was off by 15°F, which meant the fluid breaker schedule was wrong — the gel broke too early. We got half the proppant placed. Another $6,100 lesson.
Checklist: At T‑1 (24 hours before start), run through this five‑point sync:
- Pump schedule vs. model (from Step 1)
- Proppant on location vs. job design (from Step 2)
- Fluid lab test results (from Step 3)
- Final cost breakdown with no hidden items (from Step 4)
- All downhole tools and sensors confirmed working (this one cost me)
Do this as a live call or video meeting, not email. Email gets buried.
Common Mistakes to Watch Out For
I’ve made each of these at least once. Save yourself the pain.
- Missing the biocide. Bacteria in frac fluid can sour the well. Add it even if the water looks clean.
- Ignoring weather. Rain = road restrictions = proppant deliveries late. Build in a 12‑hour buffer.
- Relying on “truck count” alone. Each truck can carry 22 tons, but some carry 20. Verify the exact weight.
- Not labeling every sample. I sent three core samples to the lab without labels — they tested the wrong rock. $2,800 for nothing.
One more thing: I’ve had clients who insist on using their own fluid provider because it’s cheaper. That’s fine. But don’t let them skip the compatibility test. That’s not a pricing issue; it’s a physics issue.
Oh, and if you’re looking for Tyrese Halliburton’s Puma shoes — wrong article. But if you’re looking for a checklist that stops you from burning cash on preventable mistakes, this is it. Print it, laminate it, stick it on your frac van. And when Robert Lewis (the best field engineer I’ve ever worked with) asks you to double‑check the proppant, do it. He’ll thank you later.