Kuwait’s Ministry of Electricity, Water and Renewable Energy reported a summer maximum load of 17,540 MW on 15 September 2026, against 17,610 MW in 2025 and 17,640 MW in 2024. This analysis uses a September release with observations referring to the respective summer seasons. A maximum power reading does not describe annual electricity consumption, energy production or how many hours equipment operated. Separating power at one moment from energy accumulated over time is essential before attaching an economic interpretation to the result.

Haber Paper calculates a 70 MW reduction between 2025 and 2026, or 0.40% of the previous peak. The 100 MW reduction over 2024–2026 represents 0.57%. These are modest percentages, but they indicate the direction of capacity pressure during the busiest period. Converting either difference into annual MWh savings would require the load curve. A reduction lasting briefly has a different energy consequence from one sustained for hours; the release does not establish that duration.

The ministry also reports 1,059 MW of additional loads connected between summer 2024 and summer 2025, followed by 1,019 MW by summer 2026. Their combined 2,078 MW describes connected loads, rather than realised simultaneous demand. Adding the latest 1,019 MW mechanically to the previous peak produces 18,629 MW. The actual 2026 maximum is 1,089 MW below that arithmetic total. Calling this difference an efficiency saving would be incorrect: the operating schedules, connection dates and coincidence of the new facilities are unknown.

The technical mechanism is coincidence rather than simply the sum of individual customers’ nominal loads. Cooling, industry and services can create an expensive system peak when their demands overlap. The release identifies suspending some factory activity during peak hours, reducing government working hours by one hour and the Wafer conservation campaign. These interventions can reduce consumption or move it to another hour. Shifting load can lower a peak without lowering daily energy use; enduring efficiency can also reduce the energy needed for the same service. Three annual peaks cannot isolate those effects.

An economic assessment should consider more than achieving the smallest possible maximum. Postponing production can create overtime, restart or scheduling costs for customers. The programme’s net value depends on avoided network and generation-capacity costs alongside the costs borne by users. The ministry’s announcement does not supply the prices, operating expenses or counterfactual demand model needed for that comparison. It consequently supports neither a monetary savings estimate nor a payback calculation, and does not establish precisely how much each intervention caused the decline.

The next assessment needs consistently defined hourly demand, weather conditions, effective connection dates and outage records. Temperature and humidity effects should be separated before assigning a share to changed behaviour. Planners can follow the peak series for capacity adequacy while keeping annual energy series separate for fuel and operating budgets. Kuwait demonstrates that connected load can grow while the simultaneous system maximum falls. It does not prove that those connections are unused or that further network investment has become unnecessary.