Capture real well-state data through DOT. Initialize physics-based simulations from actual conditions via RuntimePhysics™. Define the variables you want to test. Run hundreds or thousands of parallel simulations grounded in first-principles physics. Runtime Forecast™ analyzes the results to determine the best operational path forward.
OPERATIONAL GOVERNANCE // PLANNING ASSURANCE
How RADAR7 acted as a digital gatekeeper, forcing engineering teams to standardize inputs against physics based constraints.
OPERATIONAL STANDARDIZATION // DECISION VELOCITY
How RADAR7 eliminated decision friction and ensured fleet wide consistency across geographically dispersed assets.
OPERATIONAL STANDARDIZATION // DECISION VELOCITY
How RADAR7 eliminated decision friction and ensured fleet wide consistency across geographically dispersed assets.
Standard drilling operations rely on fragmented data sources — static spreadsheets, disconnected PDFs, and email chains. This fragmentation creates a governance vacuum where critical well parameters are manually transcribed, formulas are silently altered, and unverified inputs reach the rig floor.
NPT RISK — PIPE TALLY
Using the wrong pipe tally led to cutting the string when functioning the blind shear rams. Result: a fishing job and pulling the BOP for inspection. 10+ days NPT. Worst case: damage to sub-surface equipment with potential blowout.
NPT RISK — KILL SHEET
Utilizing a vertical kill sheet for a deviated well profile. Consequence: breakdown of formation due to overpressure when following the step-down schedule. A manual kill sheet for a complex well requires 1,000+ keystrokes — each one a potential error.
NPT RISK — FORMULA CORRUPTION
When shifting the break during POOH it is very easy to corrupt a spreadsheet's formulas. Uncontrolled spreadsheets can have formulas altered with consequences for safety and efficiency that remain invisible until execution.
NPT RISK — TRIBAL KNOWLEDGE
Operations rely on "tribal knowledge" — the unwritten rules of individual Superintendents. When a high-performing crew rotates out, the incoming team spends 12+ hours re-interpreting the plan, leading to decision friction and operational drift.
The most direct path to understanding DOT's value: bring a defined set of your well data, intake it through DOT, initialize the Endeavor simulator from that state, and test operational scenarios from real conditions. Minimal initial effort. Maximum clarity.
“Simulation without data integrity is not analysis; it is hallucination.”
Endeavor deployed RADAR7 as the mandatory entry point for all operational planning. By enforcing physics-based constraints at the point of entry, the system automatically rejects physically impossible parameters — ensuring the digital twin is built on verified engineering reality, not administrative guesswork.
Every field is validated against physics constraints before it enters the system. Invalid tubular geometries, impossible pump rates, and inconsistent wellbore profiles are rejected at point of entry.
Data entered in one module propagates automatically across all others. Pipe Tally feeds the Trip Sheet, BHA feeds the Kill Sheet, Trend Sheet feeds the Kill Chart. Enter once, verified everywhere.
Every data entry is time-stamped and logged. Cloud-based revision control ensures your entire fleet is aligned on procedures — no more “which spreadsheet is correct?” forensics.
This moved the organization from subjective "peer review" to objective "physics review." The friction is the value — precision during planning eliminates ambiguity during execution.
DOT sits at the critical junction between your operational data environment and Endeavor's physics engine. The same well configuration, pipe tally, BHA, and kill sheet data that manages your real operation also initializes your RuntimePhysics™ simulator — so crews rehearse against the actual well, not generic templates.
STAGE 01
Pipe tallies, BHA specs, mud properties, well geometry, survey data, formation pressures
STAGE 02 - RADAR7
Structured capture, physics-based audit, integrated calculations, fleet-wide governance
STAGE 03 - DWOS
Verified well state initializes the digital twin. Simulation begins from real conditions.
STAGE 04
Continuous execution: what-if scenarios, crew rehearsal, operational decision support
Every module feeds every other module. Pipe Tally data propagates to the Trip Sheet and Kill Sheet automatically. BHA configuration updates the Kill Chart. Trend Sheet values feed into the Kill Sheet calculations. Enter data once — it's verified and available everywhere.
SURVEY
Survey and trajectory data management for directional well profiles. Critical for accurate step-down graph calculations on deviated wells.
WELL INFO
Pipe tallies, BHA specs, mud properties, well geometry, survey data, formation pressures
WELL SECTIONS
Structured capture, physics-based audit, integrated calculations, fleet-wide governance
KICK TOLERANCE
Verified well state initializes the digital twin. Simulation begins from real conditions.
ROTATING HOURS
Automatic rotating hours capture for every joint, BHA component, and swivel pack. Filterable by rig, well, and section. Full joint history with reset capability. Prevents fatigue-related tubular failures.
PIPE TALLY
Handles up to 10 different strings. Import/export from Excel spreadsheets. Wild single tracking, shift-the-break operations, X-over management. All pipe specs pulled from the Tubulars Library automatically.
BHA
Component-level BHA configuration with visual representation, drag-and-drop reordering, shearable/unshearable color coding, grouping, and BHA history. Copy BHAs across wells and sections.
TRIP SHEET
Trip sheets are auto-generated from BHA, Pipe Tally, and Trend Sheet data. Built-in slug calculator, discrepancy alarm, open/closed end displacement tracking, RIH/POOH sequencing logic, and snapshot storage.
OVERPULL SHEET
Calculates Max Overpull and Max Weight Indicator readings from Pipe Tally, BHA, and Trend Sheet data. Adjustable safety factor and steel density. Prevents tensile strength exceedances during stuck pipe events.
KILL SHEET
Handles deviated well profiles, tapered strings, up to 5 liners, and MPD mud rollover schedules. Most data auto-populated from Pipe Tally, BHA, and Trend Sheet. Only a few manual inputs required.
KILL CHART
Step-down graph automatically accounts for tapered strings and deviated well profiles. Based on Pipe Tally, BHA, and wellbore layout. Includes MPD Mud Rollover Schedule with toggleable graph overlays.
TREND SHEET
The backbone of the project. Feeds MD, TVD, and Mud Weight into the Kill Sheet. Time-stamped entries ensure continuity between shifts. The more granular the entries, the more precise the step-down graph.
BOP
Visual BOP stack builder with component tracking, kill/choke line visualization, test date history, tide compensation, and bit depth override. Saved once, viewable across all well sections.
TUBULARS
Central library for all pipe types — drill pipe, HWDP, drill collars, landing strings, casing, liners, and swivel packs. Ensures consistent, accurate data across the fleet. Imperial units with automatic metric conversion.
FLEET
Manage wells, rigs, and well sections across your entire fleet within a single environment. Role-based access control, standardized data governance, and shared libraries ensure consistency regardless of location.
Strict structure creates operational freedom. Because routine decisions are automated and standardized, crews have more mental bandwidth to focus on critical anomalies. The culture is encoded in the software — not in the Superintendent's head.
99%
Reduction in manual data entries
30 - 40%
Less time on "data forensics"
15 - 20%
Reduction in shift-change NPT
40%
Faster relief crew ramp-up
TRAINING DEPARTMENTS
Capture real well conditions in a format the RuntimePhysics™ simulator can accept directly. Train crews against actual wells from your campaign — not generic scenarios. Every well you drill becomes a training asset.
DRILLING ENGINEERS
Validate kill sheets, kick tolerance, and operational parameters against physics before execution. Eliminate the 1,000+ keystrokes of manual calculation where each keystroke is a potential error. If 3 people make a kill sheet, 3 different sheets are produced. DOT produces one.
OPERATIONS TEAMS
Fleet-wide standardization, crew handover continuity, and operational governance encoded in the workflow. Relief crews step into an identical process regardless of rig or location. Performance no longer dips at every crew change.
A well kill is navigating a narrow path while a beast gains on you from behind. North of the path: formation breakdown. South of the path: more influx. Standard kill sheets are a compass. RADAR7 is the GPS.
A straight line from A to B. A standard kill sheet — the compass — can handle this. But how many of your wells are truly vertical with uniform strings?
Validate kill sheets, kick The safe path bends north of the straight line. Following the compass (standard kill sheet) puts you south — letting more influx enter. Additional beasts on the path.
The safe path moves below the straight line. Following the compass puts you north — close to the ravine of formation breakdown. A few waypoints help, but accuracy is limited.
Combined: one pulls north, one pulls south. You need hundreds of waypoints, thousands of calculations — and you're on the clock. RADAR7 computes the precise path automatically.
WITHOUT: Relief crew arrives → 12 hours re-interpreting the plan → Decision friction → Shift-change NPT → Operational drift
WITH RADAR7: Incoming crew steps into an identical, verified workflow. Handovers are data transfers, not philosophical debates. 40% faster ramp-up.
WITHOUT: Wrong pipe tally used → BSR shear cuts the string → Fishing job + BOP pull → 10+ days NPT, millions in costs
WITH RADAR7: Pipe tally is section-specific, always current, pulled from validated library. The wrong tally cannot reach the rig floor.
WITHOUT: Kill sheet doesn't account for tapered strings → Additional influx during circulation → Kick tolerance exceeded → Potential blowout
WITH RADAR7: Kill sheet automatically accounts for tapered strings, deviated profiles, and up to 5 liners. Step-down graph is physics-accurate.
RADAR7 is a cloud solution that ensures your entire fleet is aligned on procedures with strict revision control. It does not require constant internet connectivity — the application works offline once initiated and syncs when connection is restored, requiring very little bandwidth.
Administrators assign users to rigs with appropriate permissions. Certain roles can save Pipe Tally changes; others have read-only access. Access control enforced at every level.
Continue working without internet. DOT syncs with the cloud automatically once connectivity is restored. No rig integration required.
Every well, every section, every entry is version-controlled. No more "which spreadsheet is the current one?" across your multi-rig campaign.
These reports document specific operational inflection points where RADAR7's deterministic audit layer provided the decision clarity required to preserve capital, ensure safety, and validate human judgment under pressure.
OPERATIONAL GOVERNANCE // PLANNING ASSURANCE
How RADAR7 acted as a digital gatekeeper, forcing engineering teams to standardize inputs against physics based constraints.
OPERATIONAL STANDARDIZATION // DECISION VELOCITY
How RADAR7 eliminated decision friction and ensured fleet wide consistency across geographically dispersed assets.
These reports document specific operational inflection points where RADAR7's deterministic audit layer provided the decision clarity required to preserve capital, ensure safety, and validate human judgment under pressure.
- Jacob K., Operations Manager
- Steve D., Drilling Manager
Training, operations, or simulation architecture—start with a focused discussion on requirements and deployment context.