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SiteIntelOps Field Resource | Horizontal Directional Drilling

HDD Field Production Tracking Guide

From pothole verification to pullback, learn how to build a production record that explains more than footage alone.

Samuel EdelenFounder & Chief Architect, SiteIntelOpsLinkedIn

This is a practical SiteIntelOps industry resource for horizontal directional drilling operations — written for foremen, supervisors, project managers, operations managers, and executives who need production records that hold up after the crew leaves the site.

A directional drilling crew can install 500 feet and have an excellent day. Another crew can install the same 500 feet and lose money doing it.

Footage alone cannot tell you the difference.

HDD production is created through a sequence of field activities involving people, equipment, verified utilities, drilling conditions, tooling, time, and operational decisions. A useful production record should answer more than "How many feet did we install?" It should help answer:

What work was required to produce those feet?What resources were used?What changed from the plan?What slowed the operation down?What work became billable?What stays attached to the bore?

This guide lays out a practical framework for tracking that information.

01

The HDD Production Chain

  1. 01Job / Bore Plan
  2. 02Utility Locates
  3. 03Pothole Verification
  4. 04Bore Setup
  5. 05Pilot Bore
  6. 06Reaming
  7. 07Pullback
  8. 08Installed Product
  9. 09Documentation
  10. 10Billable Production
  11. 11Job Cost / Performance

The final footage number sits at the end of an operational chain. When only final footage is captured, management loses much of the information explaining how that production occurred.

02

Step 1 — Define the Bore

Before production is tracked, establish the bore record.

Suggested fields

  • Job
  • Bore ID
  • Date
  • Location
  • Customer
  • Foreman
  • Operator
  • Locator
  • Drill
  • Planned footage
  • Product
  • Product diameter
  • Planned entry
  • Planned exit
  • Planned depth/path
  • Expected production
  • Work type

Individual bore identification is what allows production and field information to remain connected to the correct installation. Without a bore ID, a day's footage belongs to "the job" — and the job may have a dozen bores in different ground, at different depths, under different crossings.

03

Step 2 — Connect Potholes and Utility Verification

Potholing is usually thought of as a safety activity. It is also part of the production record: the verified utility determines how the bore is planned, steered, and paced.

Example data — illustrative only
Pothole IDUtilityMaterialDia.TopBottomRelationSurfaceVerifiedNotes
PH-01GasPE4"3.2 ft3.5 ftCrossingAsphaltYesMarked 2 ft east of paint
PH-02WaterDI8"4.6 ft5.3 ftCrossingGrassYes
PH-03FiberHDPE1.25"2.1 ft2.2 ftParallelConcreteYesTwo ducts

Verified utility information may affect:

Bore depthBore pathClearanceSteeringProductionRiskScheduleDocumentation

Field principle

A utility crossing should not become disconnected from the pothole that verified it or the bore that crossed it.

04

Step 3 — Track the Pilot Bore

Suggested fields

  • Start time
  • End time
  • Starting footage
  • Ending footage
  • Pilot footage completed
  • Depth
  • Pitch
  • Significant steering changes
  • Utility crossings
  • Locating conditions
  • Ground conditions
  • Tooling
  • Downtime
  • Delay reason
  • Field notes

Pilot production should preserve enough context to understand why progress changed during the bore. That does not mean every measurement needs to be typed in by hand — where compatible electronic locating data already exists, the goal is to keep it associated with the bore rather than re-enter it.

05

Step 4 — Track Reaming

Pilot footage and completed installation do not capture the resources consumed during reaming.

Suggested fields

  • Reamer/tool
  • Reamer size
  • Pass number
  • Start time
  • End time
  • Footage
  • Ground conditions
  • Fluid considerations
  • Equipment issues
  • Additional passes
  • Delay reason
  • Notes

A second or third pass can materially change labor, equipment time, fluid, duration, and job cost — while the final installed footage stays exactly the same. If passes are not recorded, that cost is invisible.

06

Step 5 — Track Pullback

Suggested fields

  • Product installed
  • Product diameter
  • Pullback footage
  • Start time
  • End time
  • Crew
  • Equipment
  • Conditions
  • Interruptions
  • Issues
  • Completed status
  • Notes

Pullback is where the prepared bore becomes installed infrastructure. It should remain connected to the pilot and reaming activity that preceded it, so the installed product carries its full history.

07

The Daily HDD Production Record

Example data — illustrative only
BorePlanned FtPilot FtReam StatusPullback FtInstalled FtCrew HrsDowntimeDelayBillable Ft
B-101420420Complete (1 pass)420420480.0 h420
B-102600600Pass 2 of 200561.5 hEquipment failure0
B-103350210Not started00422.0 hAdditional potholing0

All figures are fictional and illustrative. They are not SiteIntelOps customer data.

Installed footage alone would show 420 feet for the day. The record shows much more: B-102 has a full pilot and is into a second reaming pass — real work that is not yet billable — and lost time to a breakdown. B-103 is behind plan because of unplanned potholing, not crew performance. An operations manager can see what is coming tomorrow, where the risk sits, and why the day looked thin.

08

Track Delay Reasons Consistently

"Delayed" is not enough information. Use a fixed set of categories:

Utility conflictAdditional potholingLocate issueLocating interferenceEquipment failureTooling changeGround conditionFluid issueTraffic controlInspectionMaterialCustomer delayWeatherBore-path changeCrew/resource issueOther

Consistent categories let operations teams see whether lost production repeatedly comes from field conditions, equipment, planning, resources, utility verification, customer constraints, or execution. Free-text notes are valuable — but they cannot be trended.

09

Crew and Equipment Context

Crew

  • Foreman
  • Operator
  • Locator
  • Labor
  • Vac Operator
  • Total Crew Hours

Equipment

  • Drill
  • Locator
  • Vac
  • Mixing System
  • Support Truck
  • Tooling
  • Reamer

Production without resource context creates misleading comparisons. A crew of five with one drill and a crew of seven with an extra vac truck are not doing the same work, even on bores of the same length.

10

Planned vs. Actual HDD Production

Example data — illustrative only

Planned

Bore length
600 ft
Expected duration
1 shift
Expected crew
6
Expected reaming
1 pass

Actual

Installed
600 ft
Duration
1.5 shifts
Crew
7
Reaming
2 passes
Additional potholing
Yes
Equipment downtime
1.5 hours

If management sees only "600 feet installed," the bore appears to have matched the plan. Operationally, it did not. Planned-versus-actual tracking should include the resources and conditions required to achieve the production — the broader discipline covered in construction production tracking.

11

Connecting HDD Production to Billing

Contract structures vary. Potential billable items may include:

Installed footageBore footageProduct sizePotholesMobilizationLaborEquipmentRestorationAdditional workContract-specific units
  1. Field Work
  2. Verified Production
  3. Contract Item
  4. Billable Quantity
  5. Review

Not all completed work is automatically billable. The point is to keep verified field quantities connected to the contract items they may support, so review happens against a record instead of a reconstruction.

12

Connecting HDD Production to Job Cost

Production answers

What did we accomplish?

Cost answers

What resources did it require?

Performance requires

Both.

Example data — illustrative only

Bore A

  • 500 installed ft
  • Normal crew
  • Expected equipment
  • No major downtime

Bore B

  • 500 installed ft
  • Additional labor
  • Additional vac support
  • Multiple reaming passes
  • 2 hours downtime

Same footage.
Different operational result.

Supervisors need this to coach crews fairly. Operations managers need it to bid the next job realistically. Executives need it because margin is decided in the gap between those two bores — the relationship explored in why field production doesn't always translate into profitability.

13

Bore Data and Digital Locating Records

Modern HDD locating workflows may produce electronic bore information. Depending on equipment and workflow, that may include depth, pitch, distance, rod-by-rod information, bore path information, and location information. DigiTrak locating systems are commonly associated with HDD workflows.

The operational concept is connecting available bore information with:

JobBoreCrewPotholesUtility crossingsProductionDocumentationReview

DCI and DigiTrak are trademarks of their respective owner. Referencing them describes common field workflows only and does not indicate any partnership, integration, certification, or endorsement involving SiteIntelOps.

14

What an HDD Supervisor Needs to See

Today's active bores
Crews assigned
Drills assigned
Vacs assigned
Potholes verified
Utilities crossed
Planned footage
Actual footage
Current bore phase
Downtime
Production exceptions
Jobs needing attention

A supervisor running four drills does not need four more daily reports. They need exception visibility across crews: which bore is behind, which is waiting on a vac, which crossing is coming up today.

15

What Operations Leadership Needs to See

Production by crew
Production by job
Production by drill
Planned vs actual
Equipment utilization
Delay trends
Completed quantities
Potential billable quantities
Jobs requiring intervention
Production vs cost context

Field-level detail explains a single bore. Portfolio-level visibility explains the business — which crews, drills, and job types are consistently producing, and where intervention pays off. That is the layer described in executive intelligence.

16

A Practical HDD Production Tracking Checklist

Before Drilling

  • Bore identified
  • Plan attached
  • Crew assigned
  • Equipment assigned
  • Required potholes identified
  • Critical utilities verified
  • Planned footage recorded

During Pilot

  • Progress recorded
  • Depth/pitch information preserved where available
  • Crossings connected
  • Material delays recorded
  • Field changes documented

Reaming

  • Tooling recorded
  • Passes recorded
  • Time recorded
  • Significant conditions documented

Pullback

  • Product identified
  • Installed footage verified
  • Pullback completed
  • Significant issues documented

End of Day

  • Production verified
  • Crew hours connected
  • Equipment connected
  • Downtime categorized
  • Additional work recorded
  • Billable quantities reviewed
  • Bore documentation attached

17

The HDD Production Data Model

BORE
Job
Potholes
Utility Crossings
Crew
Equipment
Pilot Data
Reaming
Pullback
Production
Delays
Documentation
Billing
Job Cost

The bore is the operational object that connects everything else. Job, crew, and cost are organized around it; potholes, passes, and delays happen to it. Anchor records to the bore and the rest of the picture assembles itself.

18

From HDD Field Data to Operational Intelligence

  1. DataWhat happened?
  2. ContextWhy did it happen?
  3. ComparisonHow did actual performance compare with the plan?
  4. TrendIs this happening repeatedly?
  5. ActionDoes management need to intervene?

That progression is what turns field reporting into operational intelligence. Each step depends on the one before it — which is why the quality of the bore record matters so much.

19

How SiteIntelOps Approaches HDD Production

SiteIntelOps is being developed around connecting field production with broader construction operations. For HDD, the SiteIntelOps approach is designed to treat bore activity, potholes, utility crossings, production, crews, equipment, documentation, billing quantities, job-cost context, and management visibility as related information rather than isolated records. For a shorter overview, see HDD production tracking; for the wider underground context, see utility construction management.