Integration with site operations
We model your load shape and operational constraints, then build dispatch logic that protects production. The asset earns revenue without compromising what your facility was built to do.
Rodan operates storage and demand response assets across five North American markets, including MISO. For Arkansas organizations, that means a single team for integration, dispatch, and settlement, not three vendors and three handoffs.
We model your load shape and operational constraints, then build dispatch logic that protects production. The asset earns revenue without compromising what your facility was built to do.
Interval data, audited baselines, and MISO program reporting. Settlement validation is included from day one. Errors are caught and corrected as a standard part of operating the asset.
We coordinate peak management, demand response readiness, and operational constraints so your battery supports savings and flexibility.
Demand response, peak forecasting, and facility performance are operated by a single team in a single Real-time Operations Center. No handoffs between integration, dispatch, and reporting.
In one working session, we map how an existing or planned storage asset can be operated for MISO program value, peak demand reduction, and operational performance, with operational guardrails for your Arkansas facility.
using interval data and operational context.
that protect resilience and production guardrails.
across LMR, ancillary services, and economic demand response.
your team can use for internal approval and implementation.
We offer these in 30-minute working sessions to demonstrate how Rodan can operate the asset across MISO conditions.
Storage discharged during MISO peak hours reduces metered demand at the moments that drive your capacity charge.
Forecast peak risk windows in advance. Document the action taken. Reduce the share of your bill that surprises finance at month-end.
Reserve capacity for backup priorities. Use the rest of the asset for economic value during normal operating conditions.
Define no-go boundaries inside the dispatch logic. Participation does not compromise safety, quality, or throughput.
Compare site performance against shared baselines. Identify underperformance early, before it widens.
Continuous performance monitoring across sites means problems are flagged in operations, not discovered in invoices.
Rodan’s MISO product set is a bundle. Demand response is the participation layer. PeakIQ is the forecasting layer. FacilityIQ is the operational performance layer. Each piece can stand alone, but the bundle is how the value compounds.
Continuous operational performance monitoring across sites. See site behavior in context, spot underperformance early, and compare across the portfolio.
Advance notification of MISO peak risk windows. Dispatch the asset at the right hour rather than reacting to alerts after the peak forms.
Enrollment, dispatch, and settlement for MISO Load Modifying Resource and ancillary services. We handle the program-side complexity so your team manages the asset, not the paperwork
Review your load shape and peak drivers using interval data and operational context.
Identify viable operating modes that protect resilience and production guardrails.
Outline value stacking pathways across peak management and demand response readiness.
Deliver a clear next step plan your team can use for internal approval and implementation.
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A behind-the-meter energy storage system in Arkansas should be sized and operated around your load shape and your non-negotiables. The goal is predictable savings and reliability support without introducing new operational failure modes.
Procurement teams often get pulled into “nameplate capacity” discussions that miss the real drivers: how peaks occur, how long they last, and what your facility can tolerate. A practical sizing and operating approach starts with three decisions:
Target peaks: Identify the demand intervals that drive costs, including how often they occur and what triggers them operationally.
Dispatch duration: Decide how long the battery must sustain discharge to materially reduce those peaks (minutes, one hour, multiple hours).
Reserve policy: Set a minimum state of charge reserved for resilience, power quality, or continuity needs.
Operations is where value is won or lost. A battery that is run without clear guardrails can conflict with production, maintenance schedules, and resilience priorities. A strong operating plan includes:
Dispatch rules: When the battery discharges, what triggers it, and what conditions stop it.
Charge strategy: How charging avoids creating new peaks or shifting costs into expensive intervals.
Roles and escalation: Who is notified, who can override, and what happens during alarms.
Organizations that succeed treat the battery like a managed asset with clear governance. Finance gets predictable results, operations gets clear boundaries, and sustainability teams can report outcomes with confidence. If your battery is intended to support multiple goals, write those goals down in priority order so dispatch decisions stay consistent.
A battery energy storage system in Arkansas reduces peak demand charges by discharging during the short periods when your facility hits its highest kW draw. Those peak intervals can drive a disproportionate share of annual costs, especially for large industrial, logistics, cold storage, municipal, and data center loads.
A procurement team usually cares about two outcomes: predictable bills and fewer “why did this month spike?” conversations. Batteries support that by giving you a controllable lever during peak risk hours.
Here is what that looks like in operational terms:
Peak shaving: Discharge to cap facility demand during high-load periods driven by HVAC, process ramps, simultaneous starts, or load stacking across buildings.
Peak smoothing: Reduce short spikes that trigger higher billed demand by controlling fast, momentary ramps.
Operational guardrails: Keep a defined reserve so the battery supports resilience, not just savings.
The planning step matters more than the battery chemistry. A site can have a well-sized asset and still miss savings if the discharge timing does not match how peaks actually occur at that facility. Peaks are often tied to specific patterns: shift changeovers, batch starts, compressed air cycling, chiller staging, or seasonal temperature conditions.
Battery operations work best when the dispatch plan is mapped to your load profile and your non-negotiables: safety, quality, and uptime. Your team should be able to answer, in plain language, “What loads create our peaks?” and “What is our approved playbook when we approach those peaks?” That is the difference between occasional wins and repeatable financial value.
An energy storage system in Arkansas is typically a battery that stores electricity and discharges it later to reduce costs, manage risk, and support reliability. For large facilities in the MISO footprint, storage is most valuable when it is operated with a clear plan tied to your tariff, peak exposure, and operational limits.
For an energy procurement leader, storage is not “just a battery.” It is a controllable asset that can change three parts of your energy math:
Cost control: Discharge during your facility’s highest-demand intervals to reduce peak demand charges and avoid budget surprises.
Risk management: Use the battery to reduce exposure during volatile system conditions and operational upsets.
Operational resilience: Maintain a reserve strategy for critical loads, power quality needs, or continuity requirements, based on your internal risk thresholds.
Most Arkansas organizations get better outcomes when storage operations are designed around the realities your team lives with: production schedules, safety limits, temperature bands, IT uptime, and maintenance windows. The practical work is not buying the asset. The practical work is turning it into repeatable operating behavior: when it charges, when it discharges, how it preserves reserve, and how performance is tracked.
A solid starting point is a simple operating brief your finance and operations leaders can align on: your target peaks to shave, your minimum reserve, your dispatch guardrails, and the performance metrics that matter (kW reduction at peak, avoided charges, uptime, and monthly variance).
PeakIQ is an alerting service that monitors grid conditions and sends peak risk notifications with lead time, so operations teams can take action before high-cost peak intervals hit. For an energy storage system in Arkansas, PeakIQ matters because storage delivers better results when dispatch is planned, not improvised.
PeakIQ is designed to support practical execution:
Alerts are delivered week-ahead, day-ahead, and day-of, with in-day adjustments.
Notifications go out by email, SMS, and automated phone call.
Alerts are human-verified by Rodan’s 24/7 network operations center, and customers can select a 2-hour, 4-hour, or 6-hour response window based on what operations can execute. (Rodan’s PeakIQ product description lays out these alert mechanics.)
For Arkansas energy procurement leaders, the value is not the alert itself. The value is operational coordination. Peak periods are where the bill can swing, where capacity-related exposure shows up, and where internal stakeholders ask why costs moved.
Pairing PeakIQ with storage turns forecasting into action:
Your battery can charge ahead of expected risk windows.
Your discharge plan can target the intervals that matter most for billed demand.
Your operations team gets time to align site actions with the battery strategy.
PeakIQ also supports governance. It gives finance and operations a shared trigger for action, so peak management is not dependent on one person watching the system. Storage, demand response, and peak alerts work best as a single operating rhythm with clear roles, clear timing, and clear performance tracking.
The MISO Planning Resource Auction (PRA) is part of how MISO procures resource adequacy for a planning year. For Arkansas organizations, it matters because it influences capacity economics across the region and can affect the value of demand-side resources and the broader planning environment for flexible assets.
If you are an energy procurement decision-maker, you do not need to memorize auction mechanics to care about the PRA. You need to understand what it signals:
Planning value of flexibility: MISO is placing a price on having enough capacity to meet expected peak conditions with reliability.
Budget exposure: Capacity-related costs and planning requirements can flow into supplier pricing and forward risk premiums, depending on how your procurement is structured.
Opportunity timing: Programs and participation windows tied to capacity constructs often require preparation months ahead, even when the actual offer window is short.
Storage owners tend to care about the PRA in one of two ways. Some view it as an indicator of regional tightness that can raise the value of flexible capability. Others care because it affects how they think about contracting, hedging, and year-ahead planning.
For internal alignment, treat the PRA as a planning clock, not a trading topic. Your team can use it to drive practical actions:
Confirm whether your portfolio has flexible assets that could qualify for programs tied to planning needs.
Assign ownership for data, metering, and readiness tasks early in the cycle.
Build a conservative operating plan that protects core operations, then evaluate optional participation paths that fit your risk limits.
Exact timelines and participation rules vary, so verify current dates, requirements, and eligibility with MISO materials and Rodan before acting.