Starting with the big picture

• Tell me how your fleet is laid out today, including counts of tractors, combines, sprayers, and planters, and the typical spread of model years.
• How many machines do you plan to include in a pilot during planting or harvest? Options: 1–3, 4–6, 7–10, 11–25, 26–50, More than 50
• In your last season, which event, fuel overrun, theft, or prolonged downtime, made visibility a priority for you? Options: Fuel overrun, An equipment theft, Unexpected breakdowns, Integration failures with existing systems, Other
• Describe who currently carries responsibility for tracking hours, fuel burn, and repair records in your operation.
• Estimate the monthly fuel spend for the group of machines you would test in a pilot.
• Select the primary goals you hope a telematics pilot will achieve for your team. Options: Reduce fuel spend by 10% or more, Cut idle hours by 20% or more, Improve machine uptime by 10% or more, Prevent or recover theft, Automate maintenance scheduling, Feed data into farm management system, Reduce unplanned breakdowns

Where costs and surprises come from

• If another season begins and you still cannot explain a 20 percent fuel overrun, what would that mean for crew priorities, equipment budgets, and your willingness to run the same operation?
• Who in your operation notices fuel or idle-time spikes first, and how do they act when those spikes occur? Options: Field supervisor, Shop/maintenance lead, Operations manager, Owner, No one consistently notices
• List the top three recurring causes of unplanned machine downtime you saw last year.
• Describe the operational impact and downstream costs when a machine is offline unexpectedly during peak season.
• Are there specific fields, access roads, or remote sites where GPS or cellular coverage has repeatedly failed you? Options: Yes, multiple areas, Yes, a single known area, No, coverage is generally sufficient, Unsure, we have intermittent reports
• Provide an estimate of average weekly hours lost to idle or inefficient routing across the machines you would pilot.

Where assumptions could be hiding risk

• Who on your team assumes OEM telematics or manual logs are giving you a full picture, and where does that assumption break down?
• Which equipment brands and model years in your fleet are highest concern for compatibility with retrofit hardware?
• Tell me about any previous attempts to add third-party telematics, and the technical or people reasons they did not scale.
• How often do you accept delayed or incomplete telemetry because of cellular gaps before you consider data unusable for decisions? Options: Never, near real time is required, Within 1 hour, Within 4 hours, Within 24 hours, Longer than 24 hours is acceptable
• What single technical or site constraint would stop a pilot from starting on a set of ten machines?

Pilot goals that make finance sign off

• If the pilot demonstrates a 10 percent reduction in fuel burn on the test block, what internal obstacle could still prevent a production purchase?
• Select the measurable signals you require from a pilot to call it successful, choose all that apply. Options: GPS accuracy within 10 meters in fields, Engine hours uploaded within 1 hour, Implement-level diagnostics captured, Cellular uptime > 95% during operations, Integration feed into farm management system established, Documented fuel savings >= 10% per machine, Operator acceptance score >= 4/5
• How soon do you need to see usable telemetry before you pause the pilot? Options: Within 48 hours, Within 1 week, Within 2 weeks, After 1 month
• Name the person or role who must sign pilot acceptance and the purchase order if the pilot delivers on agreed metrics.
• Which budget line will cover pilot subscriptions and installs during trial? Options: Operations budget, Maintenance budget, IT budget, Project/pilot budget, Dealer-funded pilot, Other

Obstacles that derail rollouts

• What procurement, site access, or staffing issue has previously derailed rollouts and how deeply did it delay go-live?
• List the integrations or data endpoints the pilot must feed into, for example asset management, ERP, or farm planning tools. Options: Farm management system, Asset/maintenance system, Dealer management system, ERP/finance, Custom API endpoint, No integration required for pilot
• Identify who on your side owns each integration or API and their typical availability during a pilot window.
• Are on-site install windows restricted by safety rules, union schedules, or crop operations that would limit tech team access? Options: Yes, limited windows only, Yes, but flexible with notice, No, installs can be scheduled any time, Unsure
• Provide an estimate of hours per week your internal team can commit to installs, testing, and integration during the pilot. Options: 0–5 hours, 6–10 hours, 11–20 hours, 21–40 hours, More than 40 hours
• Please enumerate any required approvals from insurers, lenders, or regulators that must be in place before devices are fitted to farm equipment.

Where risk lives in your field trial

• Imagine GPS drifts or diagnostic gaps occur during the pilot; who bears the immediate cost and what program-level change would you demand?
• Point to up to five machines or field types that best expose GPS and connectivity edge cases.
• Specify the maximum acceptable delay between an engine fault and the platform surfacing that diagnostic to your maintenance team. Options: Under 5 minutes, Under 1 hour, Under 4 hours, Under 24 hours, No strict requirement
• Indicate which areas on your map require GPS accuracy under 10 meters and why.
• Share an example of a diagnostic code or machine behavior you consider critical to capture during the pilot.
• Point out the single acceptance failure that would stop rollout plans.

The competition and the do-it-yourself option

• Suppose staying with your current setup or building internally seems easiest, what would an external vendor have to prove to change your mind this season?
• Please indicate which of the following alternatives you are evaluating Options: Existing OEM telematics, Dealer-provided bundle, Generic trucking fleet tracker, Internal build using telematics gateway, No change / manual logs, Other
• Name the incumbent system or in-house approach that is closest to meeting your needs today.
• Identify the top conditions that would leave you staying with the current approach instead of switching.
• Have any internal proposals been made to build comparable telemetry, and if so, estimate the internal development time and roles required. Options: Yes, active project, Yes, discussed but not started, No internal proposal, Unsure
• Assuming the pilot shows expected savings, what is the fastest timeline procurement and finance could approve production rollout? Options: Within 2 weeks, Within 1 month, 2–3 months, Next budget cycle, Longer than 6 months

Who needs to be bought in and why

• Highlight the roles most likely to resist GPS monitoring and explain their main objection.
• For each of these groups, executives, field managers, technicians, name one person who should be involved and their decision authority.
• Share how operator acceptance will be measured during the pilot, for example a short survey, usage metrics, or supervisor feedback. Options: Short operator survey, Usage metrics (uptime, logins), Supervisor feedback, Checklist at install, No plan yet
• Set a target for hours of operator training per machine to reach steady-state use. Options: Under 1 hour, 1–2 hours, 2–4 hours, 4–8 hours, 8+ hours
• Whoever's approval would collapse the timeline, name the role and the minimum evidence they need to sign.

Practical next steps and timeline

• Imagine greenlighting a 10-machine pilot today, what single scheduling or resource constraint would prevent installs within four weeks?
• Choose your preferred pilot start window. Options: Within 2 weeks, Within 1 month, Start of planting season, Start of harvest season, Custom date
• Give the concrete acceptance criteria that would allow your team to sign a production contract immediately after pilot success.
• Indicate the single decision that, if resolved positively after pilot success, would allow the purchase order to be issued within seven days.
• Outline the installation owner roles the seller should coordinate with on site and preferred contact methods.
• Confirm whether you require the seller to provision cellular subscriptions, or if you will supply connectivity for the pilot. Options: Seller provisions cellular, Buyer provides cellular, Mix of both, Unsure
• When the pilot ends with agreed savings, what procurement steps remain and how long do they typically take?
• Could you commit to weekly check-ins during the pilot and who would join those meetings from your side? Options: Yes, Maybe, No

• Solution Experience — Fleet Visibility, Diagnostics, and ROI

• Confirm the current state and its cost
• You confirm the demonstrated GPS accuracy and data latency meet your rural connectivity requirements for the pilot sample.
• Provide a list of ten pilot machines with make, model year, VIN or serial, and typical operating locations.
• You confirm the diagnostic fields captured across representative brands and model years are sufficient for maintenance and service workflows.
• Prove GPS accuracy and connectivity using your machine scenarios
• Deliver a pilot validation plan that includes GPS accuracy thresholds, required diagnostic fields by machine type, data latency targets, and the ROI calculation template within three business days.
• Run a 48-hour sample trace from the proposed pilot devices and deliver the trace showing location, engine hours, and diagnostic codes before pilot start.
• You confirm the ROI example shows acceptable payback for the pilot sample or identify the assumptions you want changed.
• Prove diagnostic capture across brands and model years
• Demonstrate the pilot ROI calculation with your metrics
• You agree on explicit pilot acceptance criteria and the remaining evidence required before mutual commit.
• Confirm the pilot acceptance authority and the specific success thresholds that person will sign off on.
• Show integration flow into your farm management system and define acceptance criteria
• Confirm this maps to your needs

• Solution Experience — Fleet Visibility, Diagnostics, and ROI
• Solution Experience Deck
• Solution Brief

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• Install telematics hardware retrofit
• Activate cellular connectivity and SIM
• Provision asset records and device mapping
• Configure GPS location and geofences
• Configure store-and-forward data buffering
• Enable engine hours and fuel telemetry
• Install implement performance sensors
• Configure diagnostic data streaming and normalization
• Set maintenance alerts and thresholds
• Configure theft alerts and recovery workflows
• Deploy fleet utilization analytics dashboards
• Integrate telemetry feed to farm management software
• Manage firmware updates and OTA support
• Provide remote device diagnostics and troubleshooting
• Train operators and fleet managers on platform

Install telematics hardware retrofit

• List the machine types (tractor, combine, planter, sprayer) and model years you plan to include in the retrofit pilot.
• Provide the preferred physical mounting location for devices on each machine type (cab roof, near A-pillar, under dash, rear implement mount). Options: Cab roof, Near A-pillar, Under dash, Rear implement mount, Other
• Specify whether the target machines have an accessible SAE J1939 diagnostic port, ISO 11783 (ISOBUS) connector, or neither for data and power tap. Options: SAE J1939 (diagnostic/CAN) available, ISOBUS (ISO 11783) connector available, Neither available / require power splice
• Identify any model-year or chassis variants that historically require adapter harnesses or special brackets for retrofit.
• Confirm who on your team will own coordinating physical access and machine availability for installation windows.

Activate cellular connectivity and SIM

• Indicate which cellular radio classes your operations require (e.g., 4G LTE, LTE Cat-M1, NB‑IoT, fallback 3G). Options: 4G LTE, LTE Cat-M1, NB‑IoT, 3G fallback, Unsure — need recommendation
• Provide the expected geographic coverage areas (county names or field IDs) so we can validate carrier signal maps against your locations.
• State whether you require a dedicated APN or private APN for device traffic and whether your IT team will supply APN credentials. Options: Standard public APN, Dedicated private APN (we supply credentials), Need the seller to provision APN
• Specify the acceptable minimum data delivery success rate over 24 hours during the pilot that will validate cellular reliability (percent). Options: 90%, 95%, 98%, Custom
• List any special SIM requirements such as multi-IMSI, eSIM, roaming across providers, or fixed-IMEI bundling. Options: Physical SIM, eSIM, Multi-IMSI / roaming, Fixed IMEI required, No special requirement

Provision asset records and device mapping

• Specify the unique identifier you want mapped to each device (VIN, fleet asset tag, serial number, or internal asset ID). Options: VIN, Fleet asset tag, Manufacturer serial number, Internal asset ID, Other
• Provide the format and location of your existing asset master (spreadsheet, dealer DMS export, CSV), and whether you need us to import it. Options: Spreadsheet (CSV/Excel), Dealer management export, No existing master — create new, Other
• For each pilot machine, list the operator or crew owner who should be assigned in the asset record.
• Identify any assets that will be shared between multiple operations (e.g., contractor machines) that require different ownership rules. Options: No shared assets, Some shared assets — list them, Multiple shared arrangements — need custom mapping
• Describe the expected cadence for keeping the asset registry current (real time, daily sync, weekly reconciliation). Options: Real time, Daily, Weekly, Other

Configure GPS location and geofences

• Provide the horizontal accuracy threshold in meters that will be used to accept GPS performance for field operations (e.g., planting pass alignment). Options: <1 m, <3 m, <5 m, Custom
• List the field boundaries or field IDs you want preloaded as geofences for the pilot.
• Indicate whether you need geofences for yard/barn/wash rack areas and the required alert behavior when machines enter/exit. Options: Yes — yard/barn/wash, No geofence for yard areas, Custom geofence requirements
• Specify the reporting interval for GPS location when machines are moving versus idling in the field. Options: Every 10 seconds moving / 60 seconds idle, Every 30 seconds moving / 300 seconds idle, Custom
• Identify any known GNSS-challenging locations (tree lines, gullies, valley fields) so we can plan multi-constellation or assisted GNSS settings.

Configure store-and-forward data buffering

• Describe the maximum offline period (hours/days) machines commonly operate without cellular connectivity in your fields. Options: <4 hours, 4-24 hours, 1-3 days, More than 3 days
• Specify the maximum buffer size per device you will accept (number of GPS points or MB) before overwriting older records on the device. Options: 500 points, 2,000 points, 10,000 points, Custom
• Indicate whether buffered telemetry must be uploaded in chronological order on reconnection or if summarized deltas are acceptable. Options: Chronological raw upload required, Summarized/aggregated upload acceptable, Hybrid — critical raw, others summarized
• Identify the priority data types that must be retained during extended outages (GPS trace, diagnostic codes, fuel usage, implement metrics). Options: GPS trace, Diagnostic codes, Fuel usage, Implement metrics, All
• State whether you require an alert when device buffer utilization exceeds a threshold prior to data loss. Options: Yes — alert at threshold, No alert needed

Enable engine hours and fuel telemetry

• Identify which fuel metrics are required for ROI calculations (instantaneous fuel rate L/h or gal/h, cumulative fuel used, fuel level sensor). Options: Instantaneous fuel rate, Cumulative fuel used, Fuel level sensor, All listed, Other
• Provide the expected engine hour recording method you prefer (engine hours from CAN bus, PTO runtime, or ignition-on time). Options: Engine hours via CAN J1939, PTO runtime, Ignition-on run time, Other
• List any machines that lack fuel flow sensors and require estimation via engine load or hours.
• Specify the sampling frequency needed for fuel telemetry during high-consumption operations (e.g., planting, harvesting). Options: 1s-10s, 10s-60s, 1 min or slower, Custom
• Describe how you will validate fuel-savings in the pilot (baseline fuel per field, same route comparison, post-season reconciliation). Options: Baseline per field, Same route comparison, Post-season reconciliation, Other

Install implement performance sensors

• For each implement type (planter, sprayer, spreader), list the performance signals required (row-pass population, application rate, section on/off, fan speed).
• Specify whether sensors will be wired to the device, use ISOBUS data, or require separate third-party sensor integration. Options: Wired to device, ISOBUS, Third-party sensor — separate integration
• Identify the number of implement sensors per machine to be included in the pilot and whether they are single-point or per-row sensors. Options: 1-4 sensors, 5-12 sensors, Per-row sensors (>12)
• Indicate any calibration or baseline passes required to normalize implement sensor readings before production use. Options: Yes — calibration passes required, No calibration required, Need seller recommendation
• Describe the tolerance or acceptance limits for implement metrics (e.g., seed population ±X seeds/acre, application rate ±Y%).

Configure diagnostic data streaming and normalization

• List the SAE J1939 SPNs, engine PIDs, or manufacturer diagnostic codes that must be captured and normalized for your maintenance workflows.
• Identify whether you require real-time streaming of active fault codes and freeze frames or batched transmission is acceptable. Options: Real-time streaming required, Batched transmission acceptable, Hybrid — critical real-time only
• Specify the minimum set of diagnostic signals (e.g., engine hours, coolant temp, oil pressure, fault codes) needed to trigger service actions.
• Provide any mapping rules you need for normalizing manufacturer-specific codes into your service categories.
• Which exact diagnostic fields must be present for the pilot to be accepted as meeting data richness requirements? Options: Engine hours + fault codes + coolant temp, Engine hours + fault codes + fuel rate, Custom list (describe)

Set maintenance alerts and thresholds

• Specify the maintenance events you want alerts for (engine hours interval, PTO hours, diagnostic fault severity, scheduled service window). Options: Engine hours interval, PTO hours, Diagnostic fault severity, Scheduled service, All listed
• Indicate the threshold values for each alert type (e.g., service at 250 engine hours, high coolant at 110°C, fault severity level 2+).
• Describe the notification channels preferred for maintenance alerts (in‑dashboard, email, SMS, webhook to your work order system). Options: In-dashboard, Email, SMS, Webhook to work order system, Other
• Identify who on your team is authorized to receive and close maintenance alerts during the pilot.
• State whether automatic creation of a service ticket in your dealer management or asset system is required when alerts cross thresholds. Options: Automatic ticket creation required, Manual ticket creation preferred, No ticket integration

Configure theft alerts and recovery workflows

• Describe the geofence escape conditions or unauthorized movement patterns that should trigger a theft alert (movement outside field during off-hours, ignition-on in yard at night).
• Indicate whether you require immobilization support or only location tracking and recovery assistance. Options: Location tracking only, Remote immobilization support, Both tracking and immobilization
• List the contact escalation sequence for a theft alert (operations manager, security contractor, local law enforcement) and the preferred notification channels.
• Specify whether alerts must include live breadcrumb tracking frequency for recovery events and at what interval. Options: Every 5 seconds, Every 30 seconds, Every 60 seconds, Custom
• Identify any farm-specific security measures that must be documented in the recovery workflow (site access codes, gate schedules, LOTO procedures).

Deploy fleet utilization analytics dashboards

• List the top KPIs you want on the pilot dashboard (utilization hours per machine, idle time percent, fuel per hour, field pass coverage). Options: Utilization hours, Idle time percent, Fuel per hour, Field pass coverage, Custom
• Specify the time ranges and comparison baselines you want (daily, weekly, seasonal, versus prior year or versus planned schedule). Options: Daily, Weekly, Seasonal, Prior year, Custom
• Provide the user roles who need access to each dashboard and any role-based data restrictions (operators see only assigned machines).
• Indicate whether you need exported reports (PDF/CSV) scheduled automatically and the recipients. Options: Yes — scheduled exports, No exports needed
• Describe the minimum dashboard data latency you will accept during the pilot (near real-time, 15 minutes, hourly). Options: Near real-time (<60s), 15 minutes, Hourly, Daily

Integrate telemetry feed to farm management software

• Provide the API endpoint type your farm management software accepts (REST JSON, SFTP CSV drop, MQTT, custom webhook). Options: REST JSON, SFTP CSV, MQTT, Webhook, Other
• List the data objects you require in the integration (asset location, engine hours, fault codes, implement events, fuel usage).
• Identify authentication method for the endpoint (API key, OAuth2, basic auth, IP allowlist) and whether credentials will be provided. Options: API key, OAuth2, Basic auth, IP allowlist, Other
• Specify the expected delivery cadence and format for integration (real-time push, hourly batch, nightly batch). Options: Real-time push, Hourly batch, Nightly batch, Custom
• Describe any field mappings or ID reconciliation rules required between telemetry assets and your farm management asset IDs.

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• Subscription Agreement / Order Form
• Master Services Agreement (MSA)
• Statement of Work (SOW)
• Pilot Acceptance & Conversion Addendum
• Equipment Sale and Warranty Schedule
• Service Level Agreement (SLA) and Support Terms
• Data Processing Agreement (DPA)
• Change Order Agreement
• Payment Schedule and Refund Policy

• Go-live Health Check (weeks 1-4)
• First Measurement Review (weeks 4-10)
• Acceptance Gate, Trial Outcome Decision (around day 90)
• Quarterly Realization Review (ongoing)

• Schedule a short operator refresher session if utilization or data quality has degraded.
• Document integration mapping issues and reopen endpoint configuration tickets with expected resolution dates.
• Restate acceptance criteria and numeric targets
• A documented pass or fail is recorded for each acceptance criterion from Field Trial Evaluation.
• If any criteria fail, a remediation plan with named ownerless task descriptions and firm dates is agreed.
• The incumbent wind-down approach is confirmed, including data archival or migration and removal of dual-entry practices.
• Publish the acceptance decision report listing pass/fail per criterion and the agreed remediation timeline.
• Archive trial telemetry and export final data sets for buyer records and future roll-out planning.
• Execute the incumbent wind-down checklist, including setting legacy system to read-only, migrating or archiving data, and communicating the change to operators.
• Quarterly metrics trends
• Confirm whether fuel burn per engine hour and average machine utilization rate remain within acceptable ranges versus the post-trial baseline.
• Close or advance the top persistent blockers with clear next steps and completion windows.
• Agree any operational tuning or training updates needed for the next quarter.
• Create a quarterly action list for tuning alerts and device settings with target completion dates.
• Open escalation for any remaining cellular coverage zones that cause repeated data delivery gaps.
• Re-confirm success criteria and owners
• All pilot devices report regular heartbeats and sample telemetry to the platform.
• Top 3 deployment blockers identified with assigned remediation tasks and completion dates.
• Operator access and basic training confirmed so users can generate realistic usage signals.
• Publish a deployment health checklist with device status, firmware versions, and cellular provisioning gaps.
• Open remediation tickets for each blocker with target completion dates within two weeks.
• Circulate quick-reference operator guides and confirm distribution to field crews.
• Present first measurement data
• Determine whether idle hours per machine per day and fuel burn per engine hour are trending toward Field Trial Evaluation targets.
• Identify the primary root causes for any metric gaps and commit to corrective actions with dates.
• Confirm integration delivery into the farm management software is working end to end or list required fixes.
• Adjust alert thresholds and data sampling settings to improve diagnostic capture and reduce false notifications.
• Schedule device replacements or re-installs for units with poor GPS or cellular performance and set target completion dates.
• Present final outcome data per criterion
• Deployment and device validation
• Persistent issues and blocker burn-down
• Diagnostic data and capture rate review
• Connectivity and data delivery analysis
• Early data health signals
• Document pass or fail per criterion
• Operational tuning and training needs
• Integration health and data accuracy
• Incumbent wind-down and data handling
• Integration endpoint verification
• User and operator adoption check
• Root-cause diagnosis and corrective plan
• Open issues and immediate remediation
• Remediation timeline and final decision