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Specialist solar panels for schools in Driffield

25.9 percent of what a Driffield school roof makes arrives in July and August, which is when the buildings are shut. A survey here starts with the covering and the structure, then the incoming supply, then what the timetable actually draws.

382,800 kWh a year, modelled for a 440 kWp array on roughly 1,307 sqm of clear roof. That is the size applied for at the nearest school scheme on record. Source: EU PVGIS v5.2, SARAH3, 10 degree pitch, 14 percent system loss.

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playing field 4 1 2 3 no array pending structural assessment 0 40 m N
  1. 1 teaching block
  2. 2 hall and kitchen
  3. 3 sports hall
  4. 4 1960s block, no array
  5. first phase
  6. later phase
Drawing Illustrative estate, not a Driffield school
Blocks 4, 3 with array
Array about 345 kWp
Yield about 300,000 kWh/yr
Frontage about 90 m / Rev A / YO25

Illustrative layout for an estate of this size. The array is drawn at about 345 kWp, roughly 53 percent of the 650 kWp these three roofs would hold, because a school sizes to the load it can use in term time rather than to the roof it has: generation it cannot use is exported at a much lower rate than it pays to import. The hatched block carries no array because its structure has not been assessed, which on a school of that era is the usual starting point rather than an exception. Your own figures, and which of your blocks can take an array, come from the roof survey.

Driffield / East Riding of Yorkshire
A school on the edge of a West Yorkshire town, solar arrays on its roofs and walled fields rising to moorland beyond
School buildings of the kind we survey across Yorkshire and The Humber. Not a named school and not our work.

Solar PV for academy trusts across East Riding of Yorkshire

A one kilowatt-peak array on a shallow pitched roof in Driffield models at 870 kWh a year, from modelled irradiation of 1,106 kWh per square metre in the plane of the array (EU PVGIS v5.2, SARAH3, 10 degree pitch, 14 percent system loss). Driffield sits 2 percent under our mean. Worth knowing, but not decisive: how well the array matches the timetable moves the answer further than the latitude does.

Scaled up, a 440 kWp array, sized to what the nearest school scheme on record applied for, 45 miles away at Ripon, models at about 382,800 kWh a year before shading, and needs roughly 1,307 square metres of clear roof. We take the size from the nearest real application rather than a round number, so the example is anchored to something a planning officer has already seen.

Spread across the year that is about 99,100 kWh landing in July and August and roughly 16,800 kWh across December and January. Northern Powergrid sets what may go back onto the network here, so the July figure is the one worth putting in front of a governing body first.

FIG. 1 Driffield against the rest of East Riding of Yorkshire
  • Driffield870
  • Hessle868
  • Hull867
  • Beverley864
  • Bridlington859
  • Goole858

Driffield ranks 1 of 6 towns we cover in East Riding of Yorkshire on modelled yield, against a national mean of 886 kWh per kWp. The county runs from 858 to 870, a spread of 12 kWh per kWp. Within East Riding of Yorkshire that difference is small enough to ignore: where the building sits is not what decides this scheme, your consumption pattern is.

Bars are zero based, so length is proportional to the figure. Where a county is flat, that is the finding: latitude is not the lever, the timetable is. Source: EU PVGIS v5.2, modelled per town

The planning position for Driffield schools

Search the Renewable Energy Planning Database for the YO25 postcode district and nothing comes back under education. That is worth stating plainly and then setting aside: the register is built around generating stations, a school array is a fraction of the size it captures reliably, and plenty of school roofs never appear in any national record at all.

The closest recorded one is about 45 miles away at Ripon: Ripon Grammar School, Clotherholme Road, a 440 kWp roof mounted array applied for by Solar Options for Schools Limited, which holds consent and is awaiting construction. We were not involved in it. We cite it because it is a public record of what has cleared planning in this part of North Yorkshire. Source: Renewable Energy Planning Database, Q1 2026.

Why demand in Driffield falls as the roof peaks

The generating year and the school year are out of step in Driffield. July and August carry 25.9 percent of the modelled output (EU PVGIS v5.2), and the site is closed for most of those nine weeks. May is the strongest single month here at 14.4 percent of the annual total, which is still term time, and that works slightly in your favour against towns whose curve peaks in July.

At the other end of the year the mismatch flips. Only 4.4 percent of output falls in December and January, the two months when a Driffield school is fully occupied and its heating and lighting are at their heaviest. The roof makes 7.4 times as much in May as it does in December, and August alone outproduces December by about 6.1 to one. 75 percent of the year arrives between April and September, and the point of that figure is not that the summer half goes unused, because April, May and June are full teaching months that draw hard. It is that the concentration peaks in the few weeks at the end of it when the building is shut.

Put the two calendars together and roughly 49 percent of a school's generation nationally lands on a session day, against about 71 percent for a business open every weekday. That gap is the whole difference between appraising a school roof and appraising any other commercial one, and it barely moves from town to town.

Then there is the afternoon. From roughly three o'clock the building empties while the roof is still working, so a system sized on annual consumption will over-generate in exactly the hours nobody is there. We size on half hourly data for that reason.

None of that makes a Driffield scheme a bad one. It changes what the scheme should be: sized against the base load that runs whether or not the school is open, which on most sites is servers, comms, catering refrigeration, ventilation and hot water, with lettings, holiday clubs and summer works added on top. Where that base load is thin, the choices are storage, an export arrangement through Northern Powergrid, or a smaller array that consumes nearly everything it makes.

We set out the whole argument about term dates and the generation curve on the home page, and what it does to a payback figure under costs.

FIG. 2 A Driffield roof against the English school year
0 35 70 105 140 Jan Feb Mar Apr May Jun Jul Aug Sep Oct Nov Dec kWh August: nobody in the building
  • generated while the school is open
  • generated at a weekend or in the holidays
The same figures as a table
Monthly output for a 1 kWp array in Driffield, split by whether the day is a school session day. Across the year 49 percent of generation lands while the school is open.
Month Session days Output, kWh per kWp School open School closed
Jan 20 21 14 7
Feb 15 36 19 17
Mar 21 72 49 23
Apr 12 103 41 62
May 17 125 69 56
Jun 21 118 83 35
Jul 11 122 43 79
Aug 0 104 0 104
Sep 20 79 53 26
Oct 17 48 26 22
Nov 21 26 18 8
Dec 15 17 8 9
Year 190 871 423 448
Per kWp installed, month by month, separating generation while the school is open from generation at a weekend or in the holidays. 75 percent of the Driffield year sits between April and September, most of which is term time; it is the tail of that period, the last week of July and all of August, that the school is not there for. The daily split is a flat apportionment of each month, not a metered one. Session days follow a typical English school year of 190 days. Your own trust or authority may differ by a few days either way. Source: EU PVGIS v5.2, session days from a typical school calendar

Grid connection through Northern Powergrid

Connections around Driffield are handled by Northern Powergrid, which sets the export limit for the site. Above 3.68 kW per phase the connection runs under G99, so the export limit is agreed in advance rather than assumed. Where the local network is constrained, an export-limited connection usually still makes the scheme work, because a school uses most of what the roof makes during the working day.

Across East Riding of Yorkshire the planning database records 86 solar schemes totalling 1439 MW, of which 2 are operational (REPD Q1 2026).

The school estate in East Riding of Yorkshire

East Riding of Yorkshire has 150 open state-funded schools and colleges on the DfE register teaching 44,348 pupils between them. Source: DfE Get Information About Schools.

The split is 128 primary, 18 secondary, 3 special and 1 further education, at an average of 296 pupils a site. 7.1 primaries per secondary is a mix weighted towards small sites. The roof area, and therefore most of the generation, sits with the 18 secondaries and the 1 further education site.

Across an estate of that size the roofs will not be in the same condition, and that is the point of surveying them together: the block with the best orientation is often not the block whose covering has twenty years left in it.

Aerial view of a school site with teaching blocks of several different ages, a sports hall and a playing field, solar arrays on two of the flat roofs
A school site with blocks of several ages, which is the usual starting point for a trust estate survey.
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Send us the school postcode

Roof condition decides the order of works on most school estates, so that is where we start. Send us the postcode and a rough roof area, with twelve months of half hourly readings if you have them, and we come back with usable area, modelled output against your own load, and the funding routes.

Lenzie Consulting Ltd arranges the survey and passes your details to an MCS-certified installation partner so they can quote. We do not carry out the installation ourselves.

We pass your details to our MCS-certified installation partner so they can quote. Read the privacy notice.

What Driffield trusts ask before a survey

Is there enough sun around Driffield for this to be worth doing?
The model gives 870 kWh a year for every kWp installed at this latitude, so a 440 kWp array comes out at roughly 382,800 kWh a year before shading. It needs about 1,307 square metres of clear roof once walkways and rooflight setbacks are allowed for. Source: EU PVGIS v5.2, SARAH3, 10 degree pitch, 14 percent system loss.
Does a Driffield school waste its generation in August?
25.9 percent of the modelled annual output for Driffield falls in July and August, when the buildings are closed for most of six weeks (EU PVGIS v5.2). It does not go to waste, but it only has three places to go: the base load that runs regardless, such as servers, catering refrigeration and ventilation; storage; or export under an agreement with Northern Powergrid. We model all three against your half hourly data before an array is sized.
Will the network around Driffield accept the export?
Northern Powergrid is the distribution network operator for East Riding of Yorkshire. Anything above 3.68 kW per phase connects under G99, and the application fixes the export limit. On a school site the incoming supply is often the binding constraint rather than the roof, so we ask that question before anyone sizes an array.
Is planning permission needed for panels on a school in Driffield?
Usually permitted development covers a roof array on a school, with prior approval from East Riding of Yorkshire needed above a capacity threshold. A ground mounted array in the grounds is a different question and much more likely to need a full application. We check both before design sign-off.
How many schools are there around Driffield?
East Riding of Yorkshire has 150 open state-funded schools and colleges on the DfE register, with 44,348 pupils on roll. Source: DfE Get Information About Schools. We survey across the whole of that area, and where a trust holds several sites we look at them in one pass.

Nearby

All East Riding of Yorkshire locations