Crop Plans / Cereals & field crops / Wheat

Crop programme

Wheat. Per acre, stage by stage.

VAN’s published wheat programme runs across 5 stages, from land preparation to grain formation. It uses 7 nutrient bands and mixes VAN products with commodity urea. Everything below is transcribed from the published plan.

5 stagesPer acreReissued Aug 2026Oct–Nov sowingZn-K programmeDownload the PDF ↓
Step one · optional

When did you sow?

Answer this and the page orders itself around your field. Skip it and nothing is lost, every rate, quantity and method below is exactly where it was.

or
The whole programme at a glance

7 bands, 5 stages.

The programme matrix. Every band across every stage, per acre, with commodity inputs greyed and every product shown as its real pack.

BandLand PreparationGerminationEarly GrowthGrand GrowthGrain Formation & Maturity
Phosphorus
Green Phosphate
Green Phosphate
P₂O₅ 32% · N 6% · 1 bag · 50 kg
Drill at sowing; broadcast if no drill
or Fusion Phosphate. Your choice
V. Ammonium Phosphate (V-Phosphate)
V. Ammonium Phosphate (V-Phosphate)
NPK 10-44-0 · 1 bag · 10 kg
Fertigation
Nitrogen
Vital Urea
Vital Urea
N 32% · S 13% · ½ bag · 25 kg
Drill at sowing; broadcast if no drill
Urea
N 46% · 1 bag · 50 kg
Side Dressing/Fertigation
Urea
N 46% · ½ bag · 50 kg
Fertigation
Urea
N 46% · ½ bag · 50 kg
Fertigation
Potash
Fusion Potash
Fusion Potash
K₂O 50% · N 2% · S 1.5% · B 1% · Mg 1% · ½ bag · 25 kg
Drill at sowing; broadcast if no drill
Vital Potash
Vital Potash
NPK 11.0.44 · ½ bag · 20 kg
Fertigation
Secondary Nutrient
Green Sulfur
Green Sulfur
Sulfur 70% · 1 bag · 1 kg
Fertigation
Green Sulfur
Green Sulfur
Sulfur 70% · 1 bag · 1 kg
Fertigation
V-Mag Essential
V-Mag Essential
Mg 8.5% · B 1% · ½ bag · 5 kg
Fertigation
V-Mag Essential
V-Mag Essential
Mg 8.5% · B 1% · ½ bag · 5 kg
Fertigation
Soil Amendment
Humi Grow
Humi Grow
Humic Acid 40% · K₂O 7% · 1 bag · 8 kg
Drill at sowing; broadcast if no drill
Humi Grow Plus
Humi Grow Plus
Humic Acid 10% · Potash 3.5% · 1 Pack · 4 L
Fertigation
Micronutrients
V-Transform
V-Transform
Zinc 21% · 1 bag · 3 kg
Side Dressing/Fertigation
VL-Boron
VL-Boron
Boron 5% · 1 pack · 1 L
Fertigation
Foliar
VL-Potash Liquid
VL-Potash Liquid
Potash 30% · 1 pack · 1 L
Spray
VL-Micromix
VL-Micromix
Zn 5% · Fe 2% · Mn 2% · Cu 1% (w/v) · 1 pack · 1 L
Spray
VL-Potash Liquid
VL-Potash Liquid
Potash 30% · 1 pack · 1 L
Spray
Tornado
Tornado
Bio-stimulant · 2 pack · 0.5 L
Spray

Rates are per acre. “1 bag” means 1 bag of the size printed under the rate. Greyed names are commodity inputs VAN does not manufacture.

The 5 stages, their growing-degree-days and their days after sowing are in the stage table below. The same published table the block at the top of this page reads to work out where your crop is.

Your shopping list

What to buy for your acres.

Per-acre list builder

Tick the stages. Set your acres. Send the list.

Counts are the published per-acre rates added up across the stages you tick, multiplied by your acres. VAN confirms the final price, availability and delivery on WhatsApp.

Acres1–50
Your list · 1 acre
14 VAN products
  • Green Phosphate
    Green Phosphate
    50 kg bag · Land Preparation
    1
    bag · 50 kg
    Your choice:

    Same bag size, different bag. Fusion Phosphate is TSP at 46% P₂O₅. About 44% more phosphate per bag than Green Phosphate’s 6-32-0, and no nitrogen with it. Green Phosphate is the humic-coated acidic grade, built for alkaline ground. The plan’s number of bags does not change if you switch; what you put on the field does. At 50 kg a bag: Green Phosphate 16.0 kg P₂O₅ + 3.0 kg N, Fusion Phosphate 23.0 kg P₂O₅ and no nitrogen.

  • V. Ammonium Phosphate
    V. Ammonium Phosphate (V-Phosphate)
    10 kg bag · Early Growth
    1
    bag · 10 kg
  • Vital Urea
    Vital Urea
    25 kg bag · Land Preparation
    ½
    bag · 12.5 kg
  • Fusion Potash
    Fusion Potash
    25 kg bag · Land Preparation
    ½
    bag · 12.5 kg
  • Vital Potash
    Vital Potash
    20 kg bag · Grand Growth
    ½
    bag · 10 kg
  • Green Sulfur
    Green Sulfur
    1 kg bag · Germination, Early Growth
    2
    bags · 2 kg
  • V-Mag Essential
    V-Mag Essential
    5 kg bag · Early Growth, Grand Growth
    1
    bag · 5 kg
  • Humi Grow
    Humi Grow
    8 kg bag · Land Preparation
    1
    bag · 8 kg
  • Humi Grow Plus
    Humi Grow Plus
    4 L pack · Germination
    1
    pack · 4 L
  • V-Transform
    V-Transform
    3 kg bag · Germination
    1
    bag · 3 kg
  • VL-Boron
    VL-Boron
    1 L pack · Early Growth
    1
    pack · 1 L
  • VL-Potash Liquid
    VL-Potash Liquid
    1 L pack · Early Growth, Grand Growth
    2
    packs · 2 L
  • VL-Micromix
    VL-Micromix
    1 L pack · Early Growth
    1
    pack · 1 L
  • Tornado
    Tornado
    0.5 L pack · Grand Growth
    2
    packs · 1 L
  • Urea not a VAN product
    commodity input · 50 kg bag · Germination, Early Growth, Grand Growth
    2
    bags · 100 kg

The message carries the list above. Add your district and VAN replies with price and the nearest dealer.

Adjust it for your soil

The dynamic nutrition creator.

Set your acres and every quantity scales with it, then enter your soil report, or pick your district and it fills from the Punjab survey's own median, and the quantities move with what your ground actually shows. Sourced straight from VAN's own wheat calculator, not estimated.

Which list to use: the acres figure is shared with the shopping list above. The shopping list is the published plan; this list is VAN’s calculator, and it is the one to use if you have a soil report. Where the 2 differ, the totals below show a range.

Dynamic nutrition creator · beta

Set your acres. Watch the plan scale.

Every quantity below comes straight out of VAN's own wheat calculator, scaled by your acres, not estimated. Add your soil test below, or just pick your district, to adjust it further.

Acres
Nutrient delivered · 1 acre
Nitrogen (N)54.4–55.4 kg
Phosphorus (P₂O₅)16.0–20.4 kg
Potash (K₂O)12.0 kg
Sulfur (S)3.2 kg
Magnesium (Mg)0.6 kg
Zinc (Zn)0.7 kg
Boron (B)0.2 kg

A figure written as a range has 2 VAN documents behind it: VAN's wheat calculator sheet and VAN's published wheat plan, which do not carry an identical product list on this crop. Which of the 2 is higher depends on the nutrient. Both ends are arithmetic on VAN's own printed analyses. Nothing here is estimated.

Not in this calculator
Yield-target scaling is not in this calculator. The quantities are for the standard crop in VAN's plan.
Have a soil test? Adjust the plan for it

Type the number from your soil report, or pick its band, for any of these. The plan above adds product where your land is short. For phosphorus, potash and zinc it takes a quarter off where your reading is healthy, never on nitrogen. Leave a row blank if you have no reading for it. This adjustment is a pilot.

No soil test yet? Start from your district
Phosphorus (P₂O₅)
Potash (K₂O)
Zinc
Boron
Iron
Copper
Manganese
Organic matter
pH
EC (salinity)Read as saturation extract, ECe. A 1:2 soil-to-water reading is a different scale and is not comparable to these bands.

VAN confirms the final price, availability and your nearest dealer on WhatsApp.

Removal and replacement

What goes on, and what comes off.

Every season takes nutrients out of the field in the harvest. The programme puts some back. This is both sides of that, per acre, for wheat, and the gap is the reason this site argues about soil the way it does.

NutrientThe programme puts on60 maunds takes offBalance
Nitrogen (N)54.4–55.4 kg45.6 kg+8.8–+9.8 kg
Phosphate (P₂O₅)16.0–20.4 kg19.2 kg-3.2–+1.2 kg
Potash (K₂O)12.0 kg11.5 kg+0.4 kg
Sulfur (S)3.2 kg4.1 kg-0.9 kg

Why some figures are a range. Where a figure is shown as a range, it is because VAN holds 2 documents for this crop: the crop calculator sheet and the published crop plan. They do not carry an identical product list, so they do not deliver an identical kilogram of nutrient. Both ends are VAN’s own arithmetic on VAN’s own figures and neither is estimated.

Per acre, per season. A minus means the crop takes more of that nutrient off the field than the programme puts back. The difference comes out of what the soil already holds, and does so every season. It is not a fault in the plan: no crop nutrition programme is written to replace everything a harvest removes, and this is why a soil test matters more than any published rate.

Not counted on the left: Tornado. The plan gives this no nutrient analysis (“Bio-stimulant”), so it is left out of the total rather than given a figure it does not have. The real total is therefore higher than shown.

Liquid packs are counted at 1 litre to 1 kilogram. The plans give the pack in litres and the analysis as a percentage without saying whether it is by weight or by volume, so a density has to be assumed and 1.0 is it. Every liquid here is a micronutrient or a foliar at a litre or two an acre, so it moves the totals by a fraction of a kilogram.

Removed is not the same as taken up

The table above is what physically leaves the field. The crop takes up more than that and leaves the rest standing in the residue. At 60 maunds, wheat takes up about 77 kg N, 26 kg P₂O₅, 79 kg K₂O, against what the table shows leaving. Whether that difference goes back into your soil or onto a trolley is decided at harvest, not at sowing.

Where these 2 sides come from, because they do not come from the same place. What goes on is VAN's own published wheat plan. Its rows, its rates, its printed analyses. Multiplied out. Nothing is modelled. What comes off is not VAN's: no Pakistani nutrient-removal table exists on the public record, so these are the IPNI nutrient uptake and removal tables, metric edition 01/15 (North America), for “Wheat (winter) grain / Wheat straw”, per tonne of grain. IPNI's own note applies and is worth repeating: “Reported nutrient removal coefficients may vary regionally depending on growing conditions. Use locally available data whenever possible.” A Pakistani measurement would replace these outright, and should.

Water

How much water the wheat season needs.

A nutrition plan only works if the crop gets its water. This panel shows what the season needs, what rain normally gives, and what must come from irrigation.

No sowing date given, so this counts from the middle of VAN’s published window (October). Answer the question at the top of the page and it uses your date instead.

Pick your district and the figures appear. They come from the nearest weather station with published normals, and the page tells you which one and how far away it is.

3 things this number is not
  1. It is not measured with the full equation. FAO’s standard method needs humidity, wind and solar radiation. The Pakistan Meteorological Department normals this site carries have temperature and rain and not those, so the reference figure uses Hargreaves, the method FAO itself gives for exactly this case. It is an estimate.
  2. It is probably on the low side for Punjab. FAO’s crop coefficients are published for a sub-humid climate. Its own caption says relative humidity around 45% and light wind. Punjab in the dry season is drier and windier than that, and FAO’s own correction for arid climates raises the coefficient. Applying that correction needs humidity and wind data this site does not have, so the figure above is closer to a floor than a ceiling.
  3. It is what the crop uses, not what you have to pump. Nothing here allows for what a watercourse loses on the way, for water running past the roots, or for the extra needed to leach a salty soil. And the rain shown is all the rain. How much of a July downpour a field actually keeps depends on your soil and your slope, and there is no honest way to work that out from here.

Method: FAO Irrigation and Drainage Paper 56. Crop evapotranspiration, Table 11 (lengths of crop development stages) and Table 12 (single crop coefficients). Temperature and rainfall: WMO Climatological Standard Normals 1991–2020 (1991–2020), Pakistan Meteorological Department. Normals, not this season. What a month is usually like, averaged over 30 years.

What actually reaches your crop

You pay for the whole bag. About a quarter of the nitrogen in it feeds the crop.

Across Pakistan's cropland, roughly 1 kg of applied nitrogen in 4 is taken up by the crop. In the United States it is about 72 in 100. The rest of ours leaves as ammonia gas, drains past the roots as nitrate, or goes to gas in waterlogged ground. The farmer pays for that nitrogen at the depot and the crop never gets it.

Source · Lassaletta, Billen, Grizzetti, Anglade & Garnier (2014), Environmental Research Letters 9:105011. Corroborated by Shahzad et al. (2019), Nature Sustainability.

Why it goes

Some of it is your soil, and that part is not your fault.

Above pH 8, and about 69 in every 100 of Punjab's samples are above pH 8, urea left on the surface turns to ammonia and leaves before a root can reach it. Calcareous ground binds phosphate with free calcium and takes most of it back. The same alkalinity locks up zinc.

The soil, measured 770,160 times →
Some of it is how the bag was used, and that part you can change.

Where it was placed, when it was split, whether the water followed it, and what it was mixed with. None of that is printed on a bag, and it is where a large share of the loss happens.

We are not going to tell you how the quarter splits between those two. Nobody has measured that for Pakistan, VAN included, and a number invented for the sake of a tidy page is worse than no number.

What you can do, in the order it costs you

  1. 1Change the form.A coated urea releases over days instead of all at once on a hot surface. This is the rung that costs money, and it is deliberately first only because it is the largest.
  2. 2If you cannot change the product, change the method.Placed in the band, drilled at sowing, or side-dressed and watered in, the same bag puts more of its nitrogen into the crop than it does broadcast on a dry alkaline surface. The bag and the price are the same. Only the placement changes. VAN publishes no figure for how much more, because it has not measured one in a trial it can name.The same holds for phosphate, DAP included: the closer it goes to the root, the less of it the soil locks up before the root arrives.The 5 methods, and what each one does →
  3. 3If you irrigate through the line, level the field first.On unlevelled ground the water, and everything dissolved in it, reaches the low end of the field first and the high end last or not at all. Fertigation spreads the nutrient more evenly once the ground is level, and the levelling is doing part of that work, not the fertigation alone. No figure is put on it here, because VAN has not measured one in a trial it can name.
  4. 4Change the moment. Split it, and follow the water.Nitrogen given in one early dose sits on the field waiting to be lost. Split against the crop's own demand and follow the irrigation with it.
  5. 5Build the tank mix properly.A correct mix for foliar and fertigation drives uptake in its own right. 4 rules carry most of it.Fill the tank half full first, and keep the agitator running. Products go in one at a time, each one dispersed before the next arrives. Adding to an empty tank, or all at once, is how a mix curdles.Add in order of how hard each one is to disperse: wettable powders, then water-dispersible granules, then suspensions and flowables, then anything already in solution, then emulsifiable concentrates, and adjuvants and surfactants last of all.Jar-test anything you have not mixed before. The same products in the same order, at the same ratio, in a clear jar. Leave it 15 minutes. Curdling, flakes, a layer on top or sludge at the bottom means it will do the same in a 200-litre tank, and you will find out with a blocked boom.Spray it the day you mix it, and not into the middle of the day. A mix left standing separates, and a leaf takes far less in heat with the stomata shut. Early morning or late afternoon.This is general spray practice, not a VAN compatibility chart. Which VAN products must not share a tank, at what concentration, and what your own water does to them are answered product by product by the agronomy team, and in full for partners.
Nutrition decides about 1/4 of the yield

The farm discipline simulator.

Everything above is the nutrition lever. Set a yield target and score how the season is actually being run, sowing time, irrigation timing, seed quality and more, to see what is really holding yield back.

Open the simulator →
The 5 stages

Walk the season, one stage at a time.

Each stage shows its growing-degree-days, days after sowing and calendar dates for 3 sowing dates, and the products the published plan puts on at that stage, per acre.

▸ Tap a stage
Stage 1 of 5

Land Preparation

GDD n/aDAS Before sowing
Sown Oct 20Sown Nov 1Sown Nov 20
Before Oct 20Before Nov 1Before Nov 20

Soil preparation, incorporation of P, K, organic matter, basal N (Vital Urea). This is not a crop growth stage but a management stage.

Rates are per acre. “1 bag” means 1 bag of the size printed under the rate. Greyed names are commodity inputs VAN does not manufacture. Growing degree days are counted on a base of 10 °C: only the heat above 10 °C is added up, which is why a whole Punjab wheat season comes to about 1,400 and not the roughly 3,000 a base of 0 °C would give. The days and calendar dates are worked from the degree days, on Lahore’s 1991 to 2020 temperature normals, so they describe a normal season, not this year’s weather. The days-after-sowing column is for a November 1 sowing. A late sowing moves through the stages faster in days, which is why each sowing date has its own column.

The 5 stages, in one table

GDD, days after sowing, and the calendar for 3 sowing dates.

The same 5 stages the walk above steps through. Laid out so a season can be read in one glance. This is the table the block at the top of the page reads.

StageGDD (base 10 °C)DASSown Oct 20 · normalSown Nov 1 · late-normalSown Nov 20 · lateKey events
1 · Land Preparationn/aBefore sowingBefore Oct 20Before Nov 1Before Nov 20Soil preparation, incorporation of P, K, organic matter, basal N (Vital Urea). This is not a crop growth stage but a management stage.
2 · Germination0–1500–13Oct 20–Oct 30Nov 1–Nov 13Nov 20–Dec 8Seed imbibition, radicle emergence, coleoptile emergence. Apply first N top-dress (commodity urea) at 8-10 DAS if soil moisture is adequate; otherwise wait for first irrigation.
3 · Early Growth150–45013–55Oct 30–Nov 27Nov 13–Dec 25Dec 8–Feb 13Emergence of first true leaf; beginning of tiller formation. Critical period for zinc deficiency symptoms (especially in alkaline soils).
4 · Grand Growth450–90055–132Nov 27–Feb 22Dec 25–Mar 12Feb 13–Mar 29Maximum tiller formation and leaf expansion. The period of highest nutrient demand and the window for mid-season N applications. Foliar K and micronutrient sprays are applied here.
5 · Grain Formation & Maturity900–1400+132–167Feb 22–Apr 6Mar 12–Apr 16Mar 29–Apr 28Boot stage, anthesis, grain fill, dough stage and maturity. Minimal N applications after boot; no new nutrient applications after grain fill begins.

Growing degree days are counted on a base of 10 °C: only the heat above 10 °C is added up, which is why a whole Punjab wheat season comes to about 1,400 and not the roughly 3,000 a base of 0 °C would give. The days and calendar dates are worked from the degree days, on Lahore’s 1991 to 2020 temperature normals, so they describe a normal season, not this year’s weather. The days-after-sowing column is for a November 1 sowing. A late sowing moves through the stages faster in days, which is why each sowing date has its own column.

Punjab baseline

Nutrient deficiency symptoms.

These descriptions are based on standard phenotypes observed in Punjab's alkaline soils. Symptoms progress rapidly under stress (drought, high pH, cold). Identification allows corrective foliar or fertigation intervention.

How you apply it

5 ways the bag reaches the crop, and they are not interchangeable.

Broadcasting, placement, side dressing, fertigation and spray are 5 different methods. The plan names which one for every row.

▸ Tap a method to read it

Broadcasting

Spread evenly over the soil surface, before or at sowing, and worked in by tillage or by the first irrigation. For a basal granule it is the last choice: drill it if you can (D-207).

1 product rule overrides the table. Vital Urea is a coated slow-release urea and is applied by drilling at sowing (beside and below the seed, never touching it), by side dressing, or by broadcasting, never by fertigation. The fertigation rows in the nitrogen band are commodity urea, which is a different material.

Read this before you buy

What this plan does not tell you.

These are per-acre programmes, not a prescription for your field. A nutrition plan is built on a typical crop and a typical soil. It is not a substitute for a soil test.

VAN publishes no yield claim for this programme. We publish what to apply, at which stage, by which method.

This programme is indicative. It is built on best practice and on the nutrient requirement of the crop, not on your field. VAN prepares farm-specific plans against a grower's own soil analysis, yield target and the other variables that decide a rate.

The products and rates on this page come from VAN’s published wheat plan and from VAN’s own wheat calculator. Where the 2 differ, the page shows a range. Methods and pack sizes are read directly out of the published plan PDF.

A plan for your own field

Ask for one on WhatsApp, or write to kisan@van.com.pk.

Send your soil analysis, your yield target and your district. VAN’s agronomy team builds the plan against your field, not a typical one.

Ask on WhatsAppkisan@van.com.pk