Five scheduled irrigations gave the maximum number of leaves in wheat (230/running m) relative to the shorter irrigation schedules.

crown compound · growth · Triticum aestivum (wheat)Positive and negative results

4 papers in the same direction as this claim · 3 in the opposite direction

1. negative
   FCR infection reduced seedling height in both wheat cultivars.

   Integrated transcriptome and metabolite profiling highlights the role of benzoxazinoids in wheat resistance against Fusarium crown rot · 2021

   Opposite direction

2. negative
   Inoculation with Fusarium crown rot significantly reduced total root length and network area of wheat.

   Impact of Fusarium Crown Rot on Root System Area and Links to Genetic Variation within Commercial Wheat Varieties · 2023

   Opposite direction

3. negative
   Combined FCR and drought stress had more detrimental effects on wheat growth than either single stress.

   Combined Fusarium Crown Rot and Drought Stress Leads to Overlapping and Unique Proteomic Responses in Wheat · 2025 · compared with each single stress alone

   Opposite direction

4. positive
   The I7 irrigation schedule gave the maximum leaf area, 49.31 dm2 m−1 row length.

   Effect of irrigation scheduling on the growth and yield of wheat genotypes · 2015

   Same direction

5. positive
   One irrigation at CRI gave the highest plant height of 82.33 cm.

   Effect of seed rate and irrigation level on the performance of wheat cv. Gourab · 1970

   Same direction

6. positive
   CRI+tillering+flowering+dough irrigation increased wheat dry weight relative to other irrigation regimes.

   Effect of Irrigation and Nitrogen Levels on Grassy Weed Competition in Wheat and Comparative Eco-Physiology of Phalaris minor Retz. and Avena sterilis ssp. ludoviciana Dur. in Wheat · 2007 · compared with other irrigation regimes

   Same direction

7. positive
   Irrigation at both CRI and pre-flowering stages gave the maximum CGR (6.7 gm -2 day -1).

   Growth and yield response of wheat to irrigation at different growing stages · 2015 · compared with No irrigation

   Same direction

stage · growth · Triticum aestivum (wheat)Positive and negative results

23 papers in the same direction as this claim · 13 in the opposite direction

1. negative
   Successive drought stresses at both stages raised canopy temperature more than a single stress.

   Drought stress effects on water relations of wheat · 2000 · compared with plants stressed only once

   Opposite direction

2. negative
   Later imazamethabenz application increased wild oat fresh weight.

   Defining Optimum Herbicide Rates and Timing for Wild Oat (Avena fatua) Control in Spring Wheat (Triticum aestivum)¹ · 2000

   Opposite direction

3. no effect
   Glyphosate at any studied rate at early flowering did not reduce wheat height.

   Wheat Response to Simulated Glyphosate Drift · 2007

   Opposite direction

4. negative
   Withholding irrigation before anthesis had detrimental effects on most growth characters of wheat.

   Agronomic Performance of Wheat (Triticum aestivum L.) as Influenced by Moisture Stress at Various Growth Stages and Seeding Rate · 1987

   Opposite direction

5. no effect
   Irrigation four weeks after flowering ended had no effect on further wheat grain growth.

   Growth Rate of Grains and Grain Yield of Wheat in Relation to Drought · 1985

   Opposite direction

6. negative
   flag leaf area declined under non irrigation at flowering by 19.3%.

   Effects of late Season Drought Stress on Grain Yield, Protein, Proline and ABA of Bread Wheat Varieties · 2013

   Opposite direction

7. negative
   Successive stress at growth stages severely reduced vegetative growth.

   Growth and Yield Performance of Wheat (Triticum aestivum L.) to under Water Stress Conditions · 2020

   Opposite direction

8. negative
   Wheat germination fell 10% with vinasse during imbibition and germination.

   Herbicidal and Seed Dormancy Induction Activity of Fermentation Residual Vinasse · 2018

   Opposite direction

28 papers more in this group

irrigation · growth · Triticum aestivum (wheat)Positive and negative results

176 papers in the same direction as this claim · 61 in the opposite direction · 4 reporting no difference from an alternative

1. no effect
   Soil water level had no effect on main stem development rate.

   Estimation of Spring Wheat Leaf Growth Rates and Anthesis from Air Temperature¹ · 1984

   Opposite direction

2. negative
   Increasing irrigation water salinity lowered shoot dry matter, particularly without zinc sulfate.

   Salinity and Zinc Application Effects on Phytoavailability of Cadmium and Zinc · 2004

   Opposite direction

3. no effect
   Aboveground biomass was similar under subsurface drip and flood irrigation.

   Water-Saving Potential of Subsurface Drip Irrigation For Winter Wheat · 2019 · compared with flood irrigation

   Opposite direction

4. negative
   Deficit irrigation in salt-affected soil inhibited wheat growth and development.

   Collaborative Impact of Compost and Beneficial Rhizobacteria on Soil Properties, Physiological Attributes, and Productivity of Wheat Subjected to Deficit Irrigation in Salt Affected Soil · 2022

   Opposite direction

5. negative
   Two irrigations inhibited root growth into deeper soil layers.

   Irrigation and Nitrogen Regimes Promote the Use of Soil Water and Nitrate Nitrogen from Deep Soil Layers by Regulating Root Growth in Wheat · 2018

   Opposite direction

6. no effect
   Soil water treatment had no effect on kernel growth rate.

   Water and Nitrogen Effects on Winter Wheat in the Southeastern Coastal Plain: I. Grain Yield and Kernel Traits · 1995

   Opposite direction

7. negative
   Restricted water supply reduced shoot and root biomass in wheat.

   Early Season Drought Largely Reduces Grain Yield in Wheat Cultivars with Smaller Root Systems · 2019

   Opposite direction

8. no effect
   Crop and water treatment had no significant effect on wheat growth parameters.

   Intercropping of Faba Bean with Wheat Under Low Water Availability Promotes Faba Bean Nodulation and Root Growth in Deeper Soil Layers · 2015

   Opposite direction

233 papers more in this group