Well Completion
Capital-intensive extraction and processing programs where safety, regulation, and supply chain complexity define execution.
This interactive experience is the shipped product itself — the same application code customers run in production, mounted read-only in your browser over a real sample journey. Not a video, not a mockup: because the demo and the product are one codebase, it can never drift from the real thing.
Inside this journey
-
Qualification
Confirm budget range, decision authority, timeline, and whether an engineering design review is warranted before full discovery.
Qualification Questions
Program scale and operational fit
- Roughly how many wells or laterals do you expect to include in this program this year?
Offset data and engineering review
- Do you have offset well production results and stage-level diagnostics (pressure logs, execution logs, microseismic) available for review?
- If your data is partial or limited, please briefly note which key diagnostics are available or missing.
- Would you like an engineering design review before scheduling full discovery to determine whether stage design or execution is likely the root cause?
Mobilization and equipment constraints
- Are there firm mobilization windows, equipment availability constraints, or pad/surface access dates that would drive scheduling?
- If there are specific constraints or critical dates for mobilization, please summarize them here.
Budget, authority & timeline
- Is there an allocated budget or target cost per well (or per-stage) for this program?
- Who is the primary decision maker for selecting a completion services provider, and who else typically influences that decision?
- What is your target timing for first mobilization or pilot job?
-
Outcome Discovery
Align on production targets, recent well results, constraints, and the measurable success signals the buyer requires.
Discovery Questions
A quick orientation — the wells you care about
- Tell me about the pad or well cluster you'd like us to analyze
- In your recent wells, how many laterals returned initial production 15–25% below the type curve?
- Who on your team owns completion design and will make the final call?
- When did the most recent well report initial production, and how frequently do you update type curves?
- Which of these metrics matters most for your program—IP30, 90-day cumulative, EUR, or net cash flow?
Why you believe this is fixable
- Why do you believe stage design or execution, rather than reservoir quality, is the main cause of the shortfall?
- Provide a specific stage-level example where the result surprised you, and include what the expected versus actual was
- How many stages per well typically show pressure or proppant anomalies during pumping or flowback?
- Describe the pattern you see in underperforming stages — cluster spacing, perforation hit, proppant volume, or pump schedule
- Who first raised concern about the incumbent design, and what evidence convinced them?
Data we must see to justify a design change
- If we could review your offset microseismic, stage pressure traces, and frac gradient logs, which single finding would justify redesigning stage geometry?
- List the datasets you can share, for example raw microseismic event lists, stage pressure CSVs, and perforation maps
- Estimate the completeness and sampling rate of your stage pressure telemetry across the wells you plan to pilot
- Identify the internal owner who can approve transfer of raw sensor and microseismic files to external engineers
- Name the file formats and secure transfer methods you currently support for large geophysical files
Operational limits that change the economics
- Point to the operational constraint that, if unchanged, would make any redesign economically unworkable
- How often does equipment or crew availability force you to accept longer stage cycle times than your design target?
- When a pump or spread delay occurs, what is the typical days lost and the estimated dollar impact per well?
- Describe any permit, pad, or environmental limits that constrain stage spacing, proppant mass, or pump schedules
- What maximum per-stage cost keeps the project within your economics hurdle?
Unacceptable risks and safety triggers
- Press this: which technical or safety risk would make you stop the pilot immediately?
- On a scale from 1 to 5, how concerned are you about proppant flowback or equipment failure on this program?
- Has your team recorded plug failures, well-control events, or surface equipment damage in recent jobs that we should know about?
- Name the internal approvers who must sign any change that increases operational risk
- If a safety incident occurred during our operations, what is the required escalation window and required immediate action?
The other paths you're weighing
- What would have to be demonstrably true about your incumbent or an internal solution for you to keep them instead of switching?
- List the alternative providers or internal programs you've evaluated in the last 12 months
- Share how the incumbent's recent offset performance compares on per-stage cycle time, per-stage cost, and IP uplift
- Has anyone proposed solving this problem entirely in-house, and if so, who and what was their plan?
- Identify the contractual or organizational barriers that would keep you with the current provider even if uplift is possible
Readiness — systems, approvals, and timing
- Assume data, permissions, and a four-week mobilization window are constraints, which single missing item would stop a pilot from starting?
- Provide the names or categories of systems we must integrate with, for example your telemetry store, SCADA, or field data warehouse
- Point to the team that owns API access or data-sharing approvals and the best contact to move permissions
- Estimate the time you typically need for legal and data-sharing approval for external engineering access
- Are there regulatory, permit, or land-access windows that could block mobilization within a 4-week target?
Acceptance criteria and next steps
- Declare the single measurable pilot result that would allow procurement to sign a follow-on contract the same week
- Share the stakeholders and their approval thresholds required to move from pilot to multi-well program
- Sketch the funding path and timeline if the pilot meets its target, including who signs budget reallocation
- Are there commercial terms or contract clauses procurement will not accept under any circumstances?
- Within what earliest start date could you mobilize a one-well pilot if datasets and approvals are ready?
How we'll measure success together
- Choose the single metric that will determine pilot success from your perspective
- Report the three KPIs you want reported per-stage and their acceptable thresholds
- Within what cadence do you need KPI reporting during the pilot—real-time, hourly, or daily summaries?
- Specify the contact roles that should receive real-time alerts and who owns field escalation
- Explain the remediation steps and who must authorize a stop if a stage misses the agreed threshold during pilot
-
Completion Design Review
Walk through stage-level diagnostics, microseismic insights, and alternative stage designs with projected uplift using the buyer's offset data.
Solution Experience
- Completion Design Review Session
- Confirm the current state and its cost to your program
- You confirm the identified underperforming stages and accept the quantified cost of the current state as the decision baseline.
- Run the uplift model against the buyer's full offset dataset and deliver a per-stage uplift and economic impact report before the follow-up decision meeting.
- Provide raw offset microseismic files, stage-level pressure logs, and initial production by stage for the selected pad.
- Review stage-level diagnostics from offset wells
- You validate at least one alternative stage design as deployable for a pilot based on projected uplift and cycle-time impact.
- Show alternative stage designs and modeled uplift
- You agree the evidence package required after the pilot to make a go/no-go procurement decision.
- Confirm pilot well(s) and sign off on acceptance metrics for IP uplift and per-stage cycle time.
- Validate deployable design and cycle-time assumptions
- Confirm next-step pilot metrics and timeline
- Customer confirmation checkpoint
- Completion Design Review Session
- Completion Design Review Deck
- Completion Design Review Brief
- meeting
- slides
- document
-
Program Scope
Define wells, stage counts, plug and proppant choices, per-stage pricing, responsibilities, and acceptance criteria.
Scope Configuration
- Supply and Install Dissolvable Frac Plugs
- Supply and Install Composite Bridge Plugs
- Execute Plug-and-Perf Perforating Runs
- Perform Multistage Hydraulic Fracturing Pumping
- Stage-by-Stage Proppant Slurry Placement
- Blend and Deliver Frac Fluid Recipes Onsite
- Cementing and Squeeze Operations for Zonal Isolation
- Sand Control Installation (Screens and Gravelpack)
- Install Artificial Lift Equipment and Commissioning
- Production Flowback and Well Testing Services
- Mill or Drill-Out Composite Plugs and Cleanup
- Proppant Flowback Mitigation Hardware Installation
- Pressure Integrity Testing and Annulus Verification
- Emergency Well Control and Kill Operations
Scope Questions
Supply and Install Dissolvable Frac Plugs
- How many wells or API numbers require dissolvable plug deployments in this program?
- Which lateral measured depth (MD) intervals are you planning to isolate with dissolvable plugs (MD or TVD-ft)?
- Do you have an expected in-situ dissolution window based on lateral temperature or lab data (for example: <30 days, 30-90 days, >90 days)?
- Specify the maximum acceptable post-job plug failure rate (percent) that would trigger a change to alternate plug technology for this program.
- What evidence will validate a dissolvable plug deployment as accepted (for example: CT/liner integrity log, absence of required mill run within X days, or production tracer result)?
Supply and Install Composite Bridge Plugs
- How many composite bridge plugs do you plan to install per well and at which MD/TVD depths?
- Specify the downhole temperature and pressure ranges in the intervals where composite plugs will be run.
- Which run method do you prefer for composite plug installation (e.g., drill-string set, wireline set, coiled tubing set)?
- Indicate any required compatibility constraints for composite plug materials with your well fluids (e.g., high CO2, high H2S, sour service).
- Who on your team will authorize a composite- plug drill-out scope if the composite plug cannot be reliably dissolved?
Execute Plug-and-Perf Perforating Runs
- How many perforating runs per well and how many stages per run do you plan (list by well/API or pad)?
- Which perforation geometry do you prefer for underperforming stages (cluster spacing in ft, shots-per-cluster, phasing)?
- Do you have offset well perforating logs or casing collar locator (CCL) data we should match for charge alignment and phasing?
- Specify the max acceptable perforating run time or hole-cleaning constraint per run that would affect tool choice.
- Identify the responsible party for supplying guns, detonators, and explosive handling documentation at the site.
Perform Multistage Hydraulic Fracturing Pumping
- Provide the planned number of stages per lateral and the target treated interval lengths (ft) by well or pad.
- State your preferred treating fluid system for the program (for example: slickwater, linear gel, crosslinked gel, or hybrid).
- Indicate the target average cycle-time per stage (minutes from lead-in to plug cut) you expect to achieve for budget modeling.
- Provide the maximum allowable treating pressure for any stage based on design or completion limits (psi).
- Identify required surface monitoring integrations during pumping (for example: SCADA telemetry, downhole pressure gauges, microseismic trigger access).
Stage-by-Stage Proppant Slurry Placement
- Specify per-stage proppant mass targets in pounds or lb/ft for each stage type (list by shallow/median/deep if applicable).
- Which proppant types and mesh sizes are acceptable for this program (for example: 40/70 sand, 100 mesh resin-coated, ceramic coarse)?
- Indicate your tolerance for proppant fines percentage or silt content delivered by the supplier (percent).
- List any offset well proppant placement profiles (proppant per stage vs. stage number) you want us to replicate or improve upon.
- Provide expected proppant sourcing preferences or constraints (single supplier, multiple suppliers, proximity limit in miles).
Blend and Deliver Frac Fluid Recipes Onsite
- Describe the frac fluid recipe parameters you require us to deliver onsite (polymer type and ppm, friction reducer, breaker type, target viscosity at shear).
- Indicate required batching capacity per hour for fluid blending to meet pad pumping schedules (bbl/hr).
- Specify the water source and any water quality constraints (TDS, iron, hardness) that affect fluid chemistry onsite.
- Identify any lab or QC testing you require onsite (for example: viscosity curve, pH, polymer concentration) and sampling frequency.
- Indicate lead times for key fluid chemical deliveries and any storage capacity limits at the pad (days of inventory).
Cementing and Squeeze Operations for Zonal Isolation
- Provide casing shoe and annular geometries for each interval requiring cementing or squeeze operations (casing size, annular clearance in inches).
- Specify cement class, density (ppg), and required compressive strength schedule you expect for zonal isolation jobs.
- Identify any contamination or formation chemistry concerns that would affect spacer or cement formulation (shale-reactive zones, CO2).
- Indicate required verification tests after cement placement (for example: cement bond log, pressure-hold test duration in minutes).
- What evidence will validate a cementing or squeeze operation as accepted (for example: successful pressure-hold for X minutes at Y psi or a cement bond log showing Z% coverage)?
Sand Control Installation (Screens and Gravelpack)
- Which sand control strategy do you prefer for each well (standalone screens, gravel pack, frac-pack), and at which intervals?
- Specify screen slot size, outside diameter requirements, and preferred screen material for your completion design.
- Provide the expected sand production risk assessment or offset well evidence that drives the need for sand control.
- Indicate handling and disposal requirements for return gravel and sand during installation and cleanup.
- Identify the schedule constraints that affect gravel-pack pump-in windows and mobilization of gravel-pack equipment.
Install Artificial Lift Equipment and Commissioning
- Which artificial lift method do you plan for initial commissioning (electric submersible pump, gas lift, rod lift, plunger lift)?
- Provide target production rates and drawdown parameters that the artificial lift installation must support (bbl/day and allowable bottomhole pressure).
- Identify the installation depth, pump intake setting depth, or mandrel setting depths (MD/TVD) for lift equipment.
- Indicate required commissioning tests and acceptance documentation for the lift system (for example: motor amperage curve, wellhead VFD alarms, baseline performance test).
- Who on your operations team will approve the lift commissioning checklist and take ownership of day-1 operations?
Production Flowback and Well Testing Services
- Provide the planned flowback schedule per well (choke schedule, days on flowback, target IP24 or IP30 sampling windows).
- Specify required fluid and gas sampling analysis (for example: BTEX, chlorides, GOR, water cut) and required labs.
- List the surface testing and separation equipment you expect to be onsite for flowback and who supplies it.
- Indicate telemetry or reporting cadence for flowback and testing data (real-time, hourly, daily).
- What acceptance criteria constitute formal production handover after flowback (for example: sustained choke-open production above X bbl/d for Y days or IP30 >= target)?
Mill or Drill-Out Composite Plugs and Cleanup
- How many composite plugs per well do you expect will require milling or drill-out during cleanup?
- Estimate hours required per plug for milling or drill-out based on offset experience or vendor guidance.
- Identify cuttings handling and disposal requirements for mill/drill-out operations at the pad.
- Specify any restrictions on downhole milling equipment due to narrow ID, tight dogleg, or ESP presence.
- Provide the logging or verification runs you require after plug drill-out to confirm cleanup (for example: caliper, gamma, CT).
Proppant Flowback Mitigation Hardware Installation
- Which flowback mitigation devices do you want considered (for example: downhole retention valves, inflow control devices, surface sand separators)?
- Specify the depth and interval where mitigation hardware must be installed and any tubing or completion constraints.
- Indicate any offset well evidence showing proppant flowback history that motivates hardware selection.
- Identify spare parts or redundancy requirements for mitigation hardware for the program (number of spare valves per rig).
- Provide preferred commissioning checks for installed flowback mitigation hardware (for example: low-rate leak checks, valve function test).
-
Mutual Commit
Finalize commercial terms, mobilization commitments, equipment availability windows, and agreed acceptance milestones.
Agreement Modules
- Master Services Agreement (MSA)
- Statement of Work (SOW)
- Order Form & Commercial Terms
- Mobilization & Equipment Availability Schedule
- Acceptance Milestones & Test Protocols
- Change Order Agreement
- Insurance & Liability Certificate
- Health, Safety & Environmental (HSE) Addendum
- Equipment Warranty & Performance Commitment
-
Deployment
Lock readiness facts, schedule mobilization, and verify operational safety before execution.
-
Pre-Deployment Readiness
Lock owners, pad schedules, equipment condition, crew availability, permits, and site access required for mobilization.
Pre-Deployment Questions
Environment and site access
- Primary pad/site identifier for this mobilization (enter the exact name we should use in the deployment plan)
- Is the site access route cleared for heavy equipment (frac spread, sand trucks, cranes) by the planned mobilization date? (we need confirmed heavy-haul access to schedule deliveries)
- Which third-party access approvals or controls apply at this site? (select all that apply so we know who to coordinate with)
People and ownership
- Named owner for pad mobilization (person responsible for day‑zero readiness and final go/no‑go on site access)
- Are the required operational crews confirmed for the mobilization window? (select the status that best fits)
- If any crews are pending confirmation, who owns that confirmation and what is the expected confirmation date? (name + target date so we can lock the schedule)
Equipment and condition
- Is the primary frac spread equipment (pumps, blender, sand handling, BOP/valves) staged or committed for the mobilization date?
- Have pre‑mobilization inspections and pressure tests for critical equipment been completed? If yes, provide the completion date and named inspector in the response (this verifies certificates will be available at mobilization).
- Is spare/backup coverage in place for critical items (redundant pumps, spare blend modules, spare valves) to meet acceptance milestones?
Permits, timing and constraints
- Are all regulatory and operator permits required for mobilization and high‑pressure pumping issued and valid for the mobilization window?
- Are there site blackout windows, surface‑use restrictions, or HSE constraints (days/hours) we must plan around? If yes, briefly list the constraint and the reason (so we can sequence work and deliveries).
- Target mobilization start date (the earliest date the seller should plan to begin on‑site setup). If flexible, state the earliest available start date.
-
Configuration & Logistics
Capture exact per-stage configuration values — plug types, proppant volumes, fluid recipes, cycle-time targets, and logistics details.
Configuration Details
Configuration & Logistics — Deployment configuration (stage-level values consumed verbatim by the Stage Execution module)
- Select the standard per-stage plug type to use for this deployment (Default: Composite bridge plug). This value populates the per-stage configuration field.
- If plug, proppant mass, or fluid recipe vary by stage, paste a per-stage CSV with columns: stage_number,plug_type,proppant_lb,fluid_recipe (one line per stage). Example: 1,Composite,1500,LowVis-1. If no per-stage variation, enter NA.
- Enter the baseline target proppant mass per stage in pounds (lb). Default: 1500 — numeric only (e.g., 1500). This populates the job template where per-stage mapping is not provided.
Fluids & Hardware — exact recipe labels and on-site equipment
- Enter the fluid recipe identifier/name exactly as used in your operating procedures (Default: Operator-Standard). Format: short text label (e.g., 'LowVis-1'). This label is used by the Treatment Planner to select chemistry and mixing instructions.
- Select the treating fluid class to apply (used by the Treatment Planner to enforce mixing and handling SOPs). Choose one.
- Select all mobilization/equipment elements that will be present on-site for this program (used by Logistics & Dispatch).
Timing, Logistics & Acceptance — cycle targets, delivery windows, owners, and acceptance rules
- Enter target stage cycle time and escalation threshold in minutes as 'target,escalation'. Default: '45,75'. Target = expected average minutes from plug set to stage complete; escalation = max minutes to trigger ops escalation. Example: 40,70
- Enter required proppant delivery lead time in calendar days prior to first stage start. Default: 3 — numeric only (e.g., 3). This value is used to schedule logistics and confirm vendor bookings.
- Enter the named crew or equipment owner for billing and dispatch (team name or legal entity). Do NOT paste credentials.
- Select the primary per-stage acceptance criterion that marks a stage 'Accepted' by the buyer (this drives automated status transitions). Choose one.
- Enter the endpoint where per-stage configuration files should be delivered for automated ingestion (format: https://... or a file-store path such as s3://...). If handoff will be manual, enter NA. This endpoint is used by the Configuration Delivery job.
-
Pre-Job Safety Checklist
Verify well-control plans, safety procedures, permits, emergency response roles, and named sign-offs before any high-pressure pumping begins.
Checklist items
- Receive signed Well-Control Plan
- Obtain signed Permit to Conduct High-Pressure Pumping (Permit to Work)
- Verify BOP, annular preventer, and pressure-control equipment inspection and pressure-test records
- Confirm choke manifold, kill-line, and flowback containment are installed and pressure-tested
- Confirm LOTO (lockout/tagout) applied to non-essential energy sources and critical isolation points
- Verify high-pressure pumping equipment, hoses, and fittings have current inspection/certification and spares on-site
- Confirm crew competencies and required certifications for well-control and pumping operations
- Conduct and record pre-job safety briefing (JSA/TA) with all on-site personnel
- Distribute and acknowledge the emergency response plan with named roles and contact list
- Test and confirm communications and escalation paths are functional
- Obtain final go/no-go sign-offs from designated on-site approvers
-
Field Execution
Execute mobilization and staged fracturing with Gantt sequencing, per-stage cycle-time tracking, and escalation paths for operational issues.
-
-
Operational Success
Track production response, stage efficiency, cost per stage, and maintain a shared channel for issues and enhancement requests.
Success Reviews
- Go-live Health Check
- First Measurement Review
- Acceptance Gate Review (Day 90)
- Quarterly Operational Review
- Monthly Operational Check-in
Issues & Enhancements
- Publish the prioritized enhancement backlog with clear acceptance criteria and expected metric impact.
- Remediation items for unmet criteria captured with verification steps and firm deadlines.
- Publish the acceptance decision document including signatory and per-criterion pass/fail status.
- Execute the incumbent decommission checklist and archive or migrate legacy data as recorded.
- Open remediation tickets for any failed criteria with verification tests and target completion dates.
- Trend review of production response
- Prioritized list of persistent issues and enhancement requests with acceptance criteria and expected impact.
- Safety and reliability items closed or on a tracked remediation path.
- At least one experiment or pilot scheduled to address a top operational issue.
- Reconfirm success criteria and owners
- Schedule the pilot test for any approved stage-design modification and define success metrics.
- Open corrective-action items for safety or reliability events with target close dates and verification steps.
- Validate and restore any broken telemetry or data feeds required for reporting.
- Execution status snapshot
- Agree immediate fixes required to restore average stage cycle time toward target.
- Contain and document any well-control incidents with corrective steps and timelines.
- Confirm data readiness for the next first-measurement or quarterly review.
- Open high-priority remediation tasks for any execution issues identified this month.
- Document incident reports for any well-control or safety events and list required follow-up actions.
- All operational owners confirmed and aligned on the deployment checklist.
- High-priority blockers captured with remediation tasks and timelines.
- Data feeds and dashboards required for the first measurement are validated and scheduled.
- Publish the go-live validation checklist and current equipment/permit status for async review.
- Document each open blocker with evidence, severity, and a target resolution date.
- Enable or confirm telemetry and production data feeds required for the first measurement window.
- Present first measurement data versus Program Scope targets
- Determine whether current trends meet the Program Scope trajectory or require corrective work.
- Document a prioritized list of corrective actions with target completion dates.
- Confirm the date and data requirements for the Acceptance Gate review.
- Publish the measurement report with raw data sources and calculation method for each metric.
- Create a corrective-action tracker with milestones and verification criteria.
- Schedule any additional instrumentation or microseismic analyses required before the acceptance review.
- Restate acceptance criteria and data sources
- A documented acceptance decision is recorded with a named signatory where required.
- Incumbent wind-down status confirmed and next steps recorded.
- Efficiency and cost review
- Diagnose root causes for deviations
- Incident triage
- Present outcome data against each criterion
- Deployment and mobilization validation
- Early operational signals
- Document pass/fail per criterion and capture signatory
- Agree corrective actions and timelines
- Operational issues and enhancement backlog
- Open issue triage and quick wins
- Incumbent wind-down confirmation
- Open issues and blockers
- Data integrity and next snapshot
- Confirm readiness for Acceptance Gate
- Safety, well control, and equipment reliability review
- Agree immediate remediation actions
- Agree experiments and next quarter objectives
- Agree remediation plan for any failed criteria