Agriculture, Ecosystems & Environment · 2026
Drainage, cattle excreta and trampling effects on nitrous oxide emissions from a peat grassland
Blondeau, E., Westerik, D., Gremmen, T., Harpenslager, S. F., Heinen, M., van Dijk, G., van Groenigen, J. W., Velthof, G.
Export
Drainage, cattle excreta and trampling effects on nitrous ox…
Abstract
No abstract in the library.
Findings
What changed what, as the paper reports it. Grouped by the measured property. The largest groups are open; open the others as you need them.
cumulative N2O emissions
↑ 4= 15
- no effect
water infiltration system (WIS) vs. conventional ditch drainage (CDD)p = 0.52 · autumn2022/2023,125days · farm near Zegveld · Across grazing factors; two-level drainage main effect p=.52; no significant matched drainage pairs. Without urine WIS3.9 vsCDD9.0; with urine14.3 both. Controls lower numerically under WIS, unconfirmed statistically. Drainage one field per level.
Numbers
- treatment 9.1 vs. control 11.7 kg N ha-1 (-22.22 %)
Source · p. 6 “this difference was not significant ( *F* 0.9, *p* 0.52)”
Source · p. 6 “No significant pair-wise differences existed between WIS and CDD objects”
- increase
synthetic cattle urine application vs. without urine applicationsignificant · autumn2022/2023,125days · farm near Zegveld · Two-level urine main effect across drainage/dung/trampling; drainage interaction p<.001, stronger effect under WIS. Not each individual urine combination.
Source · p. 6 “Urine ( *F* 2 109.6, *p \<* 0.001), dung ( *F* 6.0, *p* 0.02) and trampling ( *F* 7.1, *p* 0.01) applications significantly increased cumulative N 2O emissions in both autumn campaigns”
- increase
synthetic cattle urine application vs. without urine applicationp = 0.003 · summer2022,125days · farm near Zegveld · Two-level urine main effect across dung/trampling and both drainage fields; no significant individual treatment pairs.
Source · p. 6 “In the summer campaign, the application of urine had a significant positive effect on cumulative N2 O ( *F* 9.9, *p* 0.003)”
- increase
fresh cattle dung vs. without dung applicationp = 0.02 · autumn2022/2023,125days · farm near Zegveld · Two-level dung main effect across urine/trampling/drainage; no interaction with drainage.
Source · p. 6 “dung ( *F* 6.0, *p* 0.02) and trampling ( *F* 7.1, *p* 0.01) applications significantly increased cumulative N 2O emissions in both autumn campaigns”
- increase
simulated trampling vs. without tramplingp = 0.01 · autumn2022/2023,125days · farm near Zegveld · Two-level trampling main effect across urine/dung/drainage.
Source · p. 6 “trampling ( *F* 7.1, *p* 0.01) applications significantly increased cumulative N 2O emissions in both autumn campaigns”
N2O emission factor
= 22
- no effect
water infiltration system (WIS) vs. conventional ditch drainage (CDD)p = 0.33 · autumn2022/2023,125days · farm near Zegveld · Two-level drainage main effect across N-applied grazing treatments. EF numerically higher WIS but not significant (p=.33); Table3 matched pairs share letters.
Numbers
- treatment 1.2 vs. control -0.09 % (-1,433 %) · D
- treatment 1.64 vs. control 0.25 % (+556 %) · DT
- treatment 3.14 vs. control 0.6 % (+423.3 %) · U
- treatment 3.78 vs. control 1.63 % (+131.9 %) · UT
- treatment 1.51 vs. control 0.95 % (+58.95 %) · UD
- treatment 2.47 vs. control 1.11 % (+122.5 %) · UDT
Source · p. 9 “The treatment main effect was significant ( *F* 4.5, *p* 0.002), but not the drainage effect ( *F* 3.1, *p* 0.33)”
Source · p. 12 “While not significant, emission factors were consistently higher on the WIS field than the CDD field”
- no effect
simulated trampling vs. without tramplingnot significant · autumn2022/2023,125days · farm near Zegveld · Matched U/UT,D/DT,UD/UDT within each drainage system. Higher means with trampling, but pairwise differences not significant; not the omnibus treatment test.
Numbers
- treatment 0.25 vs. control -0.09 % (-377.8 %) · CDD DT vsD
- treatment 1.63 vs. control 0.6 % (+171.7 %) · CDD UT vsU
- treatment 1.11 vs. control 0.95 % (+16.84 %) · CDD UDT vsUD
- treatment 1.64 vs. control 1.2 % (+36.67 %) · WIS DT vsD
- treatment 3.78 vs. control 3.14 % (+20.38 %) · WIS UT vsU
- treatment 2.47 vs. control 1.51 % (+63.58 %) · WIS UDT vsUD
Source · p. 12 “the EF of subplots treated with trampling was always higher than the corresponding subplots”
Source · p. 12 “While these pair-wise differences were not significant, the patterns do correspond with previous observations”
Moisture (% of fresh weight)
↑ 11
- increase
water infiltration system (WIS) vs. conventional ditch drainage (CDD)significant · 0–20 cm · October2022 and September2023, before grazing additions · farm near Zegveld · 0–15cm2022;0–10/10–20cm2023, initial field characteristics after WIS installation;Welch t-tests .05.
Numbers
- treatment 48 vs. control 39 % fresh weight (+23.08 %) · 0–15 cm · 2022
- treatment 48.2 vs. control 40.3 % fresh weight (+19.6 %) · 0–10 cm · 2023
- treatment 49.4 vs. control 46 % fresh weight (+7.391 %) · 10–20 cm · 2023
Source · p. 5 “the soil in the WIS field showed higher moisture content than the CDD field”
Source · p. 5 “the moisture and SOM contents at 0–10 and 10–20 cm were higher in the WIS field before treatment application in 2023”
SOM
↑ 11
- increase
water infiltration system (WIS) vs. conventional ditch drainage (CDD)significant · 0–20 cm · 27September2023, before grazing additions · farm near Zegveld · 0–10 and10–20cm, WIS installation already in2022;Table2 t-tests .05.
Numbers
- treatment 54.9 vs. control 49.7 % dry weight (+10.46 %) · 0–10 cm
- treatment 46.3 vs. control 45.3 % dry weight (+2.208 %) · 10–20 cm
Source · p. 5 “the moisture and SOM contents at 0–10 and 10–20 cm were higher in the WIS field before treatment application in 2023”
NH4-N
↓ 11
- decrease
water infiltration system (WIS) vs. conventional ditch drainage (CDD)significant · 0–10 cm · 27September2023, before grazing additions · farm near Zegveld · Initial field characteristics after WIS installation; water extracts;Table2 t-test .05.
Numbers
- treatment 0.44 vs. control 1.57 mg l-1 (-71.97 %) · 0–10 cm
Source · p. 5 “Ammonium content was significantly higher at 0–10 cm in the CDD field than the WIS field”
Set-up
Treatments
- drainage typeDrainage system
- water infiltration system (WIS)Subsurface drainageconventional ditch drainage (CDD)Open ditch drainage
- urine application
- synthetic cattle urine applicationUrine applicationwithout urine applicationNo organic fertilizer
- dung applicationCattle manure
- fresh cattle dungCattle manurewithout dung applicationNo organic fertilizer
- trampling
- simulated tramplingTramplingwithout tramplingNo soil compaction treatment
Measured
- cumulative N2O emissionsN2O/Nitrous oxide
- Unit
- kg N ha-1
- Method
- Static chambers; linear interpolation over125days
- N2O emission factorNitrous oxide emission factor
- Unit
- %
- Method
- Treatment minus matched control cumulative N2O-N divided by applied N
- Moisture (% of fresh weight)Water content
- Unit
- % fresh weight
- SOMSoil organic matter
- Unit
- % dry weight
- NH4-NNH4+/Ammonia
- Unit
- mg l-1
Sites
farm near Zegveld
- Location
- Zegveld, the Netherlands52.13° N, 4.83° E
- Land use
- dairy farming peat grasslandPastures and managed grassland
- Management on the whole site
- rye grass (Lolium perenne), mowing and cattle grazingImproved grassland management
| Depth | Texture | Clay | pH | Organic C | Bulk density |
|---|---|---|---|---|---|
| 0–15 cm | – | – | 4.5 | – | 0.46 g/cm3 |
| 0–15 cm | – | – | 4.7 | – | 0.44 g/cm3 |
| 0–10 cm | – | – | 5.13 | – | 0.42 g/cm3 |
| 0–10 cm | – | – | 5.24 | – | 0.43 g/cm3 |
| 10–20 cm | – | – | 5.08 | – | 0.47 g/cm3 |
| 10–20 cm | – | – | 5.32 | – | 0.49 g/cm3 |
Similar papers
Effects of long-term tillage and drainage treatments on greenhouse gas fluxes from a corn field during the fallow period
Datta, Smith & Lal · 2013 · Agriculture, Ecosystems & Environment
4 shared concepts
33 findings1 site
Effects of soil and water conservation technologies on the establishment, growth and survival of three tree species
Ovalle et al. · 2020 · Chilean journal of agricultural research
3 shared concepts
4 findings1 site
Impact of no‐till, crop rotation, cover crop, and drainage on soil physical and hydraulic properties
Saha et al. · 2024 · Soil Science Society of America Journal
3 shared concepts
17 findings1 site
Soil nitrous oxide emissions from sugarcane field affected by nitrogen fertilizer rate and inhibitors of urea hydrolysis and nitrification process
welutung, pengthamkeerati & Kachenchart · 2023
3 shared concepts
10 findings1 site
Phosphorus, nitrogen and sediment losses from irrigated cropland and pasture grazed by cattle and sheep
Mcdowell & Houlbrooke · 2008 · Proceedings of the New Zealand Grassland Association
3 shared concepts
13 findings1 site
