SlideShare ist ein Scribd-Unternehmen logo
1 von 28
Understanding Nutrient & Sediment Loss at Breneman Farms - 4 Understanding Surface Water Runoff at Breneman Farms   Kevan Klingberg, Dennis Frame and Fred Madison UW Extension/Discovery Farms Anita Thompson, Amanda Crowe and Tim Radatz UW Madison Biological Systems Engineering
Breneman Farms On-farm research was conducted on the Breneman farm to investigate environmental challenges and opportunities for grass-based dairies on the Wisconsin landscape, 2002-2007. Surface water quality monitoring was conducted to measure sediment and nutrient loads in runoff water from paddocks that were used for regular rotational grazing, then again used to seasonally out-winter the dairy herd.
    Breneman Farms Grazing-based dairy. 42 paddocks. 80 crossbred dairy cows + young stock.  (1.6 acres / AU) Coarse textured soil Out-winter cows and older heifers Columbia County, WI
Breneman Farms Total watershed = 142.7 acres Area east of road as well as western wooded area were determined to contribute negligible runoff towards watershed outlet. Monitored acreage adjusted to 28.5 acres. Monitored area:  small watershed where cattle are grazed through the season as well as out-wintered.  (middle area)
Data The data presented in this presentation were provided by the UW – Madison Biological Systems Engineering Department, as part of a cooperative project with the UW-Discovery Farms Program.
Data Breneman Farms, Rio, WI:  Monitored surface water runoff from October 2005 – September 2007. Field year = 12-months (Oct 1 – Sept 30) Always represents the year in which it ends Field year coincides with the crop year.
2006 Field Year The first year October 2005 – September 2006 = overall average year.  Precipitation (ice, sleet and snow) was 33.0 inches, compared to the 30-year average of 34.5 inches for Portage, Wisconsin.
2006 Field Year 3 of 4 seasons were drier than normal. Winter was most severe, with precipitation down by one half. Still, the big picture showed this to be an average year for total precipitation.
2006 Field Year Winter began with a snowfall accumulation of 8 inches through mid-December, followed by a warming trend with highs of 35-40°F and lows of 28-32°F.  With only shallow frost in the soil at this time, the snowpack melted and infiltrated with no runoff. Because of the dry winter months, no surface water runoff was measured from November through February for field year 2006.
2006 Field Year March began with a 5 to 7 inch snowpack and surface water first began flowing through the monitoring equipment on March 4 as temperatures warmed. Snowmelt generated subsequent surface water runoff events on March 7 and 9. The runoff events of March 9 and 12 were a result of melting snow and rain on frozen ground.
2006 Field Year Through the remainder of field year 2006 there were two more surface water runoff events occurring on July 20 and August 24 as a result of short, intense rainfalls of greater than 1.5 inches each.
2006 Field Year Runoff Events 2006 had very little runoff.  Less than 1% (0.01 inches) of total precipitation (33 inches) left the site as surface water runoff. 79 % of runoff was during frozen ground conditions. Very little runoff resulted from 3.5 inches of intense summer storms.
2007 Field Year  Second year monitoring on the Breneman farm was another average year for precipitation. Precipitation (ice, sleet and snow) was 32.4 inches, compared to the 30-year average of 34.5 inches for Portage, Wisconsin. Although the annual precipitation was average, 9 months were below average and 3 months were above average precipitation.  Winter 2007 was dry again, concluding with slightly more than one half the normal precipitation. August 2007 precipitation was 4.6 inches above normal.
2007 Field Year  Winter began moderately cool and dry with no surface water runoff measured from November through mid-February for field year 2007. On February 21st, surface water began flowing through the monitoring equipment as warming temperatures melted most of the five to seven inch snowpack, generating a two-day runoff event. This event produced twice as much runoff as the entire 2006 winter season (0.01 inches compared to 0.02 inches), but it is not large when compared with winter runoff events measured at other Discovery Farms Program study sites.
2007 Field Year  Late February temperatures stayed at or below freezing and 10 to 15 inches of snowpack accumulated by the first week in March. A fast warm up began with temperatures climbing from 26°F to near 50°F over six days. This created a significant runoff event, March 10 through March 13, which completely melted the snowpack. This rapid snowmelt, in combination with the frozen soil, produced a very large runoff event (2.85 inches of runoff).
2007 Field Year Snowmelt runoff, March 12, 2007
2007 Field Year  Temperatures remained in the range of 40 to 60°F through early April.  An early April snowfall of five inches melted immediately because of the warm temperatures, yet no surface water runoff was generated as snowmelt water infiltrated into non-frozen soil.
2007 Field Year  Three more surface water runoff events occurred through the remainder of field year 2007:  June 10, June 21, and July 3. All of these short, intense rainfall events delivered extremely low runoff volume, even though the storms each delivered approximately one inch of rain in 20 minutes.
2007 Field Year Runoff Events For the 2007 season, 9 percent of the total precipitation left the site as surface runoff (2.9 inches of 32.4 inches).  91 percent infiltration. The majority of 2007 runoff at the Breneman farm was the result of rapid snowmelt on frozen soil, March 10-13, which contributed 99 percent of the total annual runoff.
2006-2007 Water Budget 12 total runoff events. 5 snowmelt 1 rain on snow 6 non-frozen 99.68 percent of total surface water runoff volume for the 2 year monitoring period was during frozen / snow-covered ground conditions.
Conclusions On the sandy soils of this farm, intense rainfall events did produce runoff on non-frozen ground, but the runoff amount was negligible. Almost all of the total runoff in 2006/2007 from the Breneman farm came as a result of melting snow. 99.68 percent of total surface water runoff volume for the 2 year monitoring period was during frozen / snow covered ground conditions.
Conclusions Conservation planning is challenging in this region of the state because the majority of runoff occurs when the ground is frozen and vegetative materials are dead or dormant. Upland conservation systems should be paired with vegetative buffers to keep runoff water near the point of origin in the field and away from surface water.
Conclusions The potential for runoff from sandy soil fields during the non-frozen period is very limited. An intense two-inch rainfall event in July 2006 did not generate significant surface water runoff. There is always the possibility that rain on already saturated non-frozen soil will produce runoff that can affect surface waters.  In these gently sloping – sandy soil conditions: Soil and water conservation professionals (and agencies) should prioritize their time and resources towards assisting agricultural producers to implement practices that reduce runoff risks during snowmelt or rain on frozen soil .
Information Available This presentation is the fourth in a series of seven developed to provide the data and information collected at Breneman Farms. All of the presentations, factsheets and briefs are available on the UW - Discovery Farms website. http://www.uwdiscoveryfarms.org
Information Available ,[object Object]
  There are eight briefs available for Breneman Farms (2 page summaries of the factsheets).

Weitere ähnliche Inhalte

Was ist angesagt?

Abrupt variations in_south_american_mons
Abrupt variations in_south_american_monsAbrupt variations in_south_american_mons
Abrupt variations in_south_american_monsGeorgeaMelo1
 
The climate system from a polar perspective
The climate system from a polar perspective The climate system from a polar perspective
The climate system from a polar perspective Bayer
 
Tp climate change-101-2
Tp climate change-101-2Tp climate change-101-2
Tp climate change-101-2TMN-COT
 
Effects of Climatic Changes on Surface and Groundwater Resources in the North...
Effects of Climatic Changes on Surface and Groundwater Resources in the North...Effects of Climatic Changes on Surface and Groundwater Resources in the North...
Effects of Climatic Changes on Surface and Groundwater Resources in the North...Agriculture Journal IJOEAR
 
A high resolution-history_of_the_south_a
A high resolution-history_of_the_south_aA high resolution-history_of_the_south_a
A high resolution-history_of_the_south_aGeorgeaMelo1
 
IPCC Summary (sep 23)
IPCC Summary  (sep 23)IPCC Summary  (sep 23)
IPCC Summary (sep 23)Cassia Moraes
 
Regional climate and ice sheet response: Antarctica
Regional climate and ice sheet response: AntarcticaRegional climate and ice sheet response: Antarctica
Regional climate and ice sheet response: Antarcticaipcc-media
 
Global Warming 101, Grades 3-6 (2013 Version)
Global Warming 101, Grades 3-6 (2013 Version)Global Warming 101, Grades 3-6 (2013 Version)
Global Warming 101, Grades 3-6 (2013 Version)JohnSmithMN
 
Global warming.ppt Imaginative presentation.
Global warming.ppt  Imaginative presentation.Global warming.ppt  Imaginative presentation.
Global warming.ppt Imaginative presentation.Diyorbek Toshniyozov
 

Was ist angesagt? (20)

Abrupt variations in_south_american_mons
Abrupt variations in_south_american_monsAbrupt variations in_south_american_mons
Abrupt variations in_south_american_mons
 
NMT SRS abstract
NMT SRS abstractNMT SRS abstract
NMT SRS abstract
 
Final Report
Final ReportFinal Report
Final Report
 
The climate system from a polar perspective
The climate system from a polar perspective The climate system from a polar perspective
The climate system from a polar perspective
 
Historical Texas Drought Update
Historical Texas Drought UpdateHistorical Texas Drought Update
Historical Texas Drought Update
 
SeniorResearch
SeniorResearchSeniorResearch
SeniorResearch
 
Tp climate change-101-2
Tp climate change-101-2Tp climate change-101-2
Tp climate change-101-2
 
Effects of Climatic Changes on Surface and Groundwater Resources in the North...
Effects of Climatic Changes on Surface and Groundwater Resources in the North...Effects of Climatic Changes on Surface and Groundwater Resources in the North...
Effects of Climatic Changes on Surface and Groundwater Resources in the North...
 
FinalDraft
FinalDraftFinalDraft
FinalDraft
 
A high resolution-history_of_the_south_a
A high resolution-history_of_the_south_aA high resolution-history_of_the_south_a
A high resolution-history_of_the_south_a
 
Frisp2020 Kofan Lu
Frisp2020 Kofan LuFrisp2020 Kofan Lu
Frisp2020 Kofan Lu
 
Global Warming
Global WarmingGlobal Warming
Global Warming
 
IPCC Summary (sep 23)
IPCC Summary  (sep 23)IPCC Summary  (sep 23)
IPCC Summary (sep 23)
 
Climate change
Climate changeClimate change
Climate change
 
Regional climate and ice sheet response: Antarctica
Regional climate and ice sheet response: AntarcticaRegional climate and ice sheet response: Antarctica
Regional climate and ice sheet response: Antarctica
 
Mercator Ocean newsletter 28
Mercator Ocean newsletter 28Mercator Ocean newsletter 28
Mercator Ocean newsletter 28
 
Global Warming 101, Grades 3-6 (2013 Version)
Global Warming 101, Grades 3-6 (2013 Version)Global Warming 101, Grades 3-6 (2013 Version)
Global Warming 101, Grades 3-6 (2013 Version)
 
Clear Concept Of Oceanic Temperature
Clear Concept Of Oceanic Temperature Clear Concept Of Oceanic Temperature
Clear Concept Of Oceanic Temperature
 
Global warming.ppt Imaginative presentation.
Global warming.ppt  Imaginative presentation.Global warming.ppt  Imaginative presentation.
Global warming.ppt Imaginative presentation.
 
Battisti food&climate1
Battisti food&climate1Battisti food&climate1
Battisti food&climate1
 

Ähnlich wie Bren 4 Understanding Surface Water Runoff

Bren 5 sediment and nutrient loss from an outwinter paddock area
Bren 5 sediment and nutrient loss from an outwinter paddock areaBren 5 sediment and nutrient loss from an outwinter paddock area
Bren 5 sediment and nutrient loss from an outwinter paddock areaUW Discovery Farms
 
Bren 5 Sediment And Nutrient Loss From An Outwinter Paddock Area
Bren 5 Sediment And Nutrient Loss From An Outwinter Paddock AreaBren 5 Sediment And Nutrient Loss From An Outwinter Paddock Area
Bren 5 Sediment And Nutrient Loss From An Outwinter Paddock AreaUW Discovery Farms
 
Sed 5 sediment and nutrient losses
Sed 5 sediment and nutrient lossesSed 5 sediment and nutrient losses
Sed 5 sediment and nutrient lossesUW Discovery Farms
 
Sed 5 Sediment And Nutrient Losses
Sed 5 Sediment And Nutrient LossesSed 5 Sediment And Nutrient Losses
Sed 5 Sediment And Nutrient LossesUW Discovery Farms
 
wetland id hard copy
wetland id hard copywetland id hard copy
wetland id hard copyJesse Jones
 
EOPS_2019_03_26.pdf
EOPS_2019_03_26.pdfEOPS_2019_03_26.pdf
EOPS_2019_03_26.pdfEOPS EOPS
 
EOPS_2021_03_11.pdf
EOPS_2021_03_11.pdfEOPS_2021_03_11.pdf
EOPS_2021_03_11.pdfEOPS EOPS
 
EOPS_2018_11_06.pdf
EOPS_2018_11_06.pdfEOPS_2018_11_06.pdf
EOPS_2018_11_06.pdfEOPS EOPS
 
Wyoming project(1)(1)
Wyoming project(1)(1)Wyoming project(1)(1)
Wyoming project(1)(1)Anfal Mehmet
 
EOPS_2021_02_03.pdf
EOPS_2021_02_03.pdfEOPS_2021_02_03.pdf
EOPS_2021_02_03.pdfEOPS EOPS
 
Eops 2017 7_24
Eops 2017 7_24Eops 2017 7_24
Eops 2017 7_24EOPS EOPS
 
Research paper final draft
Research paper final draftResearch paper final draft
Research paper final draftAndrewJBaker
 
EOPS_2019_02_21.pdf
EOPS_2019_02_21.pdfEOPS_2019_02_21.pdf
EOPS_2019_02_21.pdfEOPS EOPS
 
Draught management & water harvesting
Draught management & water harvestingDraught management & water harvesting
Draught management & water harvestingbrijesh raychanda
 
EOPS_06_17_2021.pdf
EOPS_06_17_2021.pdfEOPS_06_17_2021.pdf
EOPS_06_17_2021.pdfEOPS EOPS
 
Biodiversity Offsetting - Groundwater Update
Biodiversity Offsetting - Groundwater UpdateBiodiversity Offsetting - Groundwater Update
Biodiversity Offsetting - Groundwater UpdateMichael Reles
 

Ähnlich wie Bren 4 Understanding Surface Water Runoff (20)

Sed 4 the water budget
Sed 4 the water budgetSed 4 the water budget
Sed 4 the water budget
 
Sed 4 The Water Budget
Sed 4 The Water BudgetSed 4 The Water Budget
Sed 4 The Water Budget
 
Bren 5 sediment and nutrient loss from an outwinter paddock area
Bren 5 sediment and nutrient loss from an outwinter paddock areaBren 5 sediment and nutrient loss from an outwinter paddock area
Bren 5 sediment and nutrient loss from an outwinter paddock area
 
Bren 5 Sediment And Nutrient Loss From An Outwinter Paddock Area
Bren 5 Sediment And Nutrient Loss From An Outwinter Paddock AreaBren 5 Sediment And Nutrient Loss From An Outwinter Paddock Area
Bren 5 Sediment And Nutrient Loss From An Outwinter Paddock Area
 
Sed 5 sediment and nutrient losses
Sed 5 sediment and nutrient lossesSed 5 sediment and nutrient losses
Sed 5 sediment and nutrient losses
 
Sed 5 Sediment And Nutrient Losses
Sed 5 Sediment And Nutrient LossesSed 5 Sediment And Nutrient Losses
Sed 5 Sediment And Nutrient Losses
 
wetland id hard copy
wetland id hard copywetland id hard copy
wetland id hard copy
 
EOPS_2019_03_26.pdf
EOPS_2019_03_26.pdfEOPS_2019_03_26.pdf
EOPS_2019_03_26.pdf
 
EOPS_2021_03_11.pdf
EOPS_2021_03_11.pdfEOPS_2021_03_11.pdf
EOPS_2021_03_11.pdf
 
EOPS_2018_11_06.pdf
EOPS_2018_11_06.pdfEOPS_2018_11_06.pdf
EOPS_2018_11_06.pdf
 
Wyoming project(1)(1)
Wyoming project(1)(1)Wyoming project(1)(1)
Wyoming project(1)(1)
 
EOPS_2021_02_03.pdf
EOPS_2021_02_03.pdfEOPS_2021_02_03.pdf
EOPS_2021_02_03.pdf
 
Eops 2017 7_24
Eops 2017 7_24Eops 2017 7_24
Eops 2017 7_24
 
Research paper final draft
Research paper final draftResearch paper final draft
Research paper final draft
 
EOPS_2019_02_21.pdf
EOPS_2019_02_21.pdfEOPS_2019_02_21.pdf
EOPS_2019_02_21.pdf
 
Draught management & water harvesting
Draught management & water harvestingDraught management & water harvesting
Draught management & water harvesting
 
Eops 2015 3_24
Eops 2015 3_24Eops 2015 3_24
Eops 2015 3_24
 
EOPS_06_17_2021.pdf
EOPS_06_17_2021.pdfEOPS_06_17_2021.pdf
EOPS_06_17_2021.pdf
 
Biodiversity Offsetting - Groundwater Update
Biodiversity Offsetting - Groundwater UpdateBiodiversity Offsetting - Groundwater Update
Biodiversity Offsetting - Groundwater Update
 
Freshwater resources FROM NGOGO
Freshwater resources FROM NGOGOFreshwater resources FROM NGOGO
Freshwater resources FROM NGOGO
 

Mehr von UW Discovery Farms (20)

Headland stacking
Headland stackingHeadland stacking
Headland stacking
 
Non Frozen
Non FrozenNon Frozen
Non Frozen
 
Mapping Carbonate Bedrock
Mapping Carbonate BedrockMapping Carbonate Bedrock
Mapping Carbonate Bedrock
 
Introduction
IntroductionIntroduction
Introduction
 
Jersey valley watershed
Jersey valley watershedJersey valley watershed
Jersey valley watershed
 
Soaring eagle dairy
Soaring eagle dairySoaring eagle dairy
Soaring eagle dairy
 
Saxon homestead
Saxon homesteadSaxon homestead
Saxon homestead
 
Riechers farm
Riechers farmRiechers farm
Riechers farm
 
Koepke farms inc
Koepke farms incKoepke farms inc
Koepke farms inc
 
Heisner family dairy
Heisner family dairyHeisner family dairy
Heisner family dairy
 
Bragger farm
Bragger farmBragger farm
Bragger farm
 
Bragger farm
Bragger farmBragger farm
Bragger farm
 
Pagel’s ponderosa dairy ppt
Pagel’s ponderosa dairy pptPagel’s ponderosa dairy ppt
Pagel’s ponderosa dairy ppt
 
Sed 6 impact of program
Sed 6 impact of programSed 6 impact of program
Sed 6 impact of program
 
Sed 3 equipment procedures and sampling
Sed 3 equipment procedures and samplingSed 3 equipment procedures and sampling
Sed 3 equipment procedures and sampling
 
Sed 2 farm site and study design
Sed 2 farm site and study designSed 2 farm site and study design
Sed 2 farm site and study design
 
Sed 1 history manitowoc discovery farms
Sed 1 history manitowoc discovery farmsSed 1 history manitowoc discovery farms
Sed 1 history manitowoc discovery farms
 
4 impact on groundwater
4 impact on groundwater4 impact on groundwater
4 impact on groundwater
 
3 soluble salt study
3 soluble salt study3 soluble salt study
3 soluble salt study
 
2 surface water study
2  surface water study2  surface water study
2 surface water study
 

Kürzlich hochgeladen

Human Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR SystemsHuman Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR SystemsMark Billinghurst
 
How to write a Business Continuity Plan
How to write a Business Continuity PlanHow to write a Business Continuity Plan
How to write a Business Continuity PlanDatabarracks
 
Unraveling Multimodality with Large Language Models.pdf
Unraveling Multimodality with Large Language Models.pdfUnraveling Multimodality with Large Language Models.pdf
Unraveling Multimodality with Large Language Models.pdfAlex Barbosa Coqueiro
 
TeamStation AI System Report LATAM IT Salaries 2024
TeamStation AI System Report LATAM IT Salaries 2024TeamStation AI System Report LATAM IT Salaries 2024
TeamStation AI System Report LATAM IT Salaries 2024Lonnie McRorey
 
Powerpoint exploring the locations used in television show Time Clash
Powerpoint exploring the locations used in television show Time ClashPowerpoint exploring the locations used in television show Time Clash
Powerpoint exploring the locations used in television show Time Clashcharlottematthew16
 
Merck Moving Beyond Passwords: FIDO Paris Seminar.pptx
Merck Moving Beyond Passwords: FIDO Paris Seminar.pptxMerck Moving Beyond Passwords: FIDO Paris Seminar.pptx
Merck Moving Beyond Passwords: FIDO Paris Seminar.pptxLoriGlavin3
 
Unleash Your Potential - Namagunga Girls Coding Club
Unleash Your Potential - Namagunga Girls Coding ClubUnleash Your Potential - Namagunga Girls Coding Club
Unleash Your Potential - Namagunga Girls Coding ClubKalema Edgar
 
Nell’iperspazio con Rocket: il Framework Web di Rust!
Nell’iperspazio con Rocket: il Framework Web di Rust!Nell’iperspazio con Rocket: il Framework Web di Rust!
Nell’iperspazio con Rocket: il Framework Web di Rust!Commit University
 
"ML in Production",Oleksandr Bagan
"ML in Production",Oleksandr Bagan"ML in Production",Oleksandr Bagan
"ML in Production",Oleksandr BaganFwdays
 
"Subclassing and Composition – A Pythonic Tour of Trade-Offs", Hynek Schlawack
"Subclassing and Composition – A Pythonic Tour of Trade-Offs", Hynek Schlawack"Subclassing and Composition – A Pythonic Tour of Trade-Offs", Hynek Schlawack
"Subclassing and Composition – A Pythonic Tour of Trade-Offs", Hynek SchlawackFwdays
 
DevoxxFR 2024 Reproducible Builds with Apache Maven
DevoxxFR 2024 Reproducible Builds with Apache MavenDevoxxFR 2024 Reproducible Builds with Apache Maven
DevoxxFR 2024 Reproducible Builds with Apache MavenHervé Boutemy
 
Take control of your SAP testing with UiPath Test Suite
Take control of your SAP testing with UiPath Test SuiteTake control of your SAP testing with UiPath Test Suite
Take control of your SAP testing with UiPath Test SuiteDianaGray10
 
DSPy a system for AI to Write Prompts and Do Fine Tuning
DSPy a system for AI to Write Prompts and Do Fine TuningDSPy a system for AI to Write Prompts and Do Fine Tuning
DSPy a system for AI to Write Prompts and Do Fine TuningLars Bell
 
TrustArc Webinar - How to Build Consumer Trust Through Data Privacy
TrustArc Webinar - How to Build Consumer Trust Through Data PrivacyTrustArc Webinar - How to Build Consumer Trust Through Data Privacy
TrustArc Webinar - How to Build Consumer Trust Through Data PrivacyTrustArc
 
Streamlining Python Development: A Guide to a Modern Project Setup
Streamlining Python Development: A Guide to a Modern Project SetupStreamlining Python Development: A Guide to a Modern Project Setup
Streamlining Python Development: A Guide to a Modern Project SetupFlorian Wilhelm
 
Scanning the Internet for External Cloud Exposures via SSL Certs
Scanning the Internet for External Cloud Exposures via SSL CertsScanning the Internet for External Cloud Exposures via SSL Certs
Scanning the Internet for External Cloud Exposures via SSL CertsRizwan Syed
 
SIP trunking in Janus @ Kamailio World 2024
SIP trunking in Janus @ Kamailio World 2024SIP trunking in Janus @ Kamailio World 2024
SIP trunking in Janus @ Kamailio World 2024Lorenzo Miniero
 
Connect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck PresentationConnect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck PresentationSlibray Presentation
 
DevEX - reference for building teams, processes, and platforms
DevEX - reference for building teams, processes, and platformsDevEX - reference for building teams, processes, and platforms
DevEX - reference for building teams, processes, and platformsSergiu Bodiu
 

Kürzlich hochgeladen (20)

Human Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR SystemsHuman Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR Systems
 
How to write a Business Continuity Plan
How to write a Business Continuity PlanHow to write a Business Continuity Plan
How to write a Business Continuity Plan
 
Unraveling Multimodality with Large Language Models.pdf
Unraveling Multimodality with Large Language Models.pdfUnraveling Multimodality with Large Language Models.pdf
Unraveling Multimodality with Large Language Models.pdf
 
TeamStation AI System Report LATAM IT Salaries 2024
TeamStation AI System Report LATAM IT Salaries 2024TeamStation AI System Report LATAM IT Salaries 2024
TeamStation AI System Report LATAM IT Salaries 2024
 
Powerpoint exploring the locations used in television show Time Clash
Powerpoint exploring the locations used in television show Time ClashPowerpoint exploring the locations used in television show Time Clash
Powerpoint exploring the locations used in television show Time Clash
 
Merck Moving Beyond Passwords: FIDO Paris Seminar.pptx
Merck Moving Beyond Passwords: FIDO Paris Seminar.pptxMerck Moving Beyond Passwords: FIDO Paris Seminar.pptx
Merck Moving Beyond Passwords: FIDO Paris Seminar.pptx
 
Unleash Your Potential - Namagunga Girls Coding Club
Unleash Your Potential - Namagunga Girls Coding ClubUnleash Your Potential - Namagunga Girls Coding Club
Unleash Your Potential - Namagunga Girls Coding Club
 
Nell’iperspazio con Rocket: il Framework Web di Rust!
Nell’iperspazio con Rocket: il Framework Web di Rust!Nell’iperspazio con Rocket: il Framework Web di Rust!
Nell’iperspazio con Rocket: il Framework Web di Rust!
 
"ML in Production",Oleksandr Bagan
"ML in Production",Oleksandr Bagan"ML in Production",Oleksandr Bagan
"ML in Production",Oleksandr Bagan
 
"Subclassing and Composition – A Pythonic Tour of Trade-Offs", Hynek Schlawack
"Subclassing and Composition – A Pythonic Tour of Trade-Offs", Hynek Schlawack"Subclassing and Composition – A Pythonic Tour of Trade-Offs", Hynek Schlawack
"Subclassing and Composition – A Pythonic Tour of Trade-Offs", Hynek Schlawack
 
DevoxxFR 2024 Reproducible Builds with Apache Maven
DevoxxFR 2024 Reproducible Builds with Apache MavenDevoxxFR 2024 Reproducible Builds with Apache Maven
DevoxxFR 2024 Reproducible Builds with Apache Maven
 
Take control of your SAP testing with UiPath Test Suite
Take control of your SAP testing with UiPath Test SuiteTake control of your SAP testing with UiPath Test Suite
Take control of your SAP testing with UiPath Test Suite
 
DSPy a system for AI to Write Prompts and Do Fine Tuning
DSPy a system for AI to Write Prompts and Do Fine TuningDSPy a system for AI to Write Prompts and Do Fine Tuning
DSPy a system for AI to Write Prompts and Do Fine Tuning
 
E-Vehicle_Hacking_by_Parul Sharma_null_owasp.pptx
E-Vehicle_Hacking_by_Parul Sharma_null_owasp.pptxE-Vehicle_Hacking_by_Parul Sharma_null_owasp.pptx
E-Vehicle_Hacking_by_Parul Sharma_null_owasp.pptx
 
TrustArc Webinar - How to Build Consumer Trust Through Data Privacy
TrustArc Webinar - How to Build Consumer Trust Through Data PrivacyTrustArc Webinar - How to Build Consumer Trust Through Data Privacy
TrustArc Webinar - How to Build Consumer Trust Through Data Privacy
 
Streamlining Python Development: A Guide to a Modern Project Setup
Streamlining Python Development: A Guide to a Modern Project SetupStreamlining Python Development: A Guide to a Modern Project Setup
Streamlining Python Development: A Guide to a Modern Project Setup
 
Scanning the Internet for External Cloud Exposures via SSL Certs
Scanning the Internet for External Cloud Exposures via SSL CertsScanning the Internet for External Cloud Exposures via SSL Certs
Scanning the Internet for External Cloud Exposures via SSL Certs
 
SIP trunking in Janus @ Kamailio World 2024
SIP trunking in Janus @ Kamailio World 2024SIP trunking in Janus @ Kamailio World 2024
SIP trunking in Janus @ Kamailio World 2024
 
Connect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck PresentationConnect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck Presentation
 
DevEX - reference for building teams, processes, and platforms
DevEX - reference for building teams, processes, and platformsDevEX - reference for building teams, processes, and platforms
DevEX - reference for building teams, processes, and platforms
 

Bren 4 Understanding Surface Water Runoff

  • 1. Understanding Nutrient & Sediment Loss at Breneman Farms - 4 Understanding Surface Water Runoff at Breneman Farms Kevan Klingberg, Dennis Frame and Fred Madison UW Extension/Discovery Farms Anita Thompson, Amanda Crowe and Tim Radatz UW Madison Biological Systems Engineering
  • 2. Breneman Farms On-farm research was conducted on the Breneman farm to investigate environmental challenges and opportunities for grass-based dairies on the Wisconsin landscape, 2002-2007. Surface water quality monitoring was conducted to measure sediment and nutrient loads in runoff water from paddocks that were used for regular rotational grazing, then again used to seasonally out-winter the dairy herd.
  • 3. Breneman Farms Grazing-based dairy. 42 paddocks. 80 crossbred dairy cows + young stock. (1.6 acres / AU) Coarse textured soil Out-winter cows and older heifers Columbia County, WI
  • 4. Breneman Farms Total watershed = 142.7 acres Area east of road as well as western wooded area were determined to contribute negligible runoff towards watershed outlet. Monitored acreage adjusted to 28.5 acres. Monitored area: small watershed where cattle are grazed through the season as well as out-wintered. (middle area)
  • 5. Data The data presented in this presentation were provided by the UW – Madison Biological Systems Engineering Department, as part of a cooperative project with the UW-Discovery Farms Program.
  • 6. Data Breneman Farms, Rio, WI: Monitored surface water runoff from October 2005 – September 2007. Field year = 12-months (Oct 1 – Sept 30) Always represents the year in which it ends Field year coincides with the crop year.
  • 7. 2006 Field Year The first year October 2005 – September 2006 = overall average year. Precipitation (ice, sleet and snow) was 33.0 inches, compared to the 30-year average of 34.5 inches for Portage, Wisconsin.
  • 8.
  • 9. 2006 Field Year 3 of 4 seasons were drier than normal. Winter was most severe, with precipitation down by one half. Still, the big picture showed this to be an average year for total precipitation.
  • 10. 2006 Field Year Winter began with a snowfall accumulation of 8 inches through mid-December, followed by a warming trend with highs of 35-40°F and lows of 28-32°F. With only shallow frost in the soil at this time, the snowpack melted and infiltrated with no runoff. Because of the dry winter months, no surface water runoff was measured from November through February for field year 2006.
  • 11. 2006 Field Year March began with a 5 to 7 inch snowpack and surface water first began flowing through the monitoring equipment on March 4 as temperatures warmed. Snowmelt generated subsequent surface water runoff events on March 7 and 9. The runoff events of March 9 and 12 were a result of melting snow and rain on frozen ground.
  • 12. 2006 Field Year Through the remainder of field year 2006 there were two more surface water runoff events occurring on July 20 and August 24 as a result of short, intense rainfalls of greater than 1.5 inches each.
  • 13. 2006 Field Year Runoff Events 2006 had very little runoff. Less than 1% (0.01 inches) of total precipitation (33 inches) left the site as surface water runoff. 79 % of runoff was during frozen ground conditions. Very little runoff resulted from 3.5 inches of intense summer storms.
  • 14. 2007 Field Year Second year monitoring on the Breneman farm was another average year for precipitation. Precipitation (ice, sleet and snow) was 32.4 inches, compared to the 30-year average of 34.5 inches for Portage, Wisconsin. Although the annual precipitation was average, 9 months were below average and 3 months were above average precipitation. Winter 2007 was dry again, concluding with slightly more than one half the normal precipitation. August 2007 precipitation was 4.6 inches above normal.
  • 15.
  • 16. 2007 Field Year Winter began moderately cool and dry with no surface water runoff measured from November through mid-February for field year 2007. On February 21st, surface water began flowing through the monitoring equipment as warming temperatures melted most of the five to seven inch snowpack, generating a two-day runoff event. This event produced twice as much runoff as the entire 2006 winter season (0.01 inches compared to 0.02 inches), but it is not large when compared with winter runoff events measured at other Discovery Farms Program study sites.
  • 17. 2007 Field Year Late February temperatures stayed at or below freezing and 10 to 15 inches of snowpack accumulated by the first week in March. A fast warm up began with temperatures climbing from 26°F to near 50°F over six days. This created a significant runoff event, March 10 through March 13, which completely melted the snowpack. This rapid snowmelt, in combination with the frozen soil, produced a very large runoff event (2.85 inches of runoff).
  • 18. 2007 Field Year Snowmelt runoff, March 12, 2007
  • 19. 2007 Field Year Temperatures remained in the range of 40 to 60°F through early April. An early April snowfall of five inches melted immediately because of the warm temperatures, yet no surface water runoff was generated as snowmelt water infiltrated into non-frozen soil.
  • 20. 2007 Field Year Three more surface water runoff events occurred through the remainder of field year 2007: June 10, June 21, and July 3. All of these short, intense rainfall events delivered extremely low runoff volume, even though the storms each delivered approximately one inch of rain in 20 minutes.
  • 21. 2007 Field Year Runoff Events For the 2007 season, 9 percent of the total precipitation left the site as surface runoff (2.9 inches of 32.4 inches). 91 percent infiltration. The majority of 2007 runoff at the Breneman farm was the result of rapid snowmelt on frozen soil, March 10-13, which contributed 99 percent of the total annual runoff.
  • 22. 2006-2007 Water Budget 12 total runoff events. 5 snowmelt 1 rain on snow 6 non-frozen 99.68 percent of total surface water runoff volume for the 2 year monitoring period was during frozen / snow-covered ground conditions.
  • 23. Conclusions On the sandy soils of this farm, intense rainfall events did produce runoff on non-frozen ground, but the runoff amount was negligible. Almost all of the total runoff in 2006/2007 from the Breneman farm came as a result of melting snow. 99.68 percent of total surface water runoff volume for the 2 year monitoring period was during frozen / snow covered ground conditions.
  • 24. Conclusions Conservation planning is challenging in this region of the state because the majority of runoff occurs when the ground is frozen and vegetative materials are dead or dormant. Upland conservation systems should be paired with vegetative buffers to keep runoff water near the point of origin in the field and away from surface water.
  • 25. Conclusions The potential for runoff from sandy soil fields during the non-frozen period is very limited. An intense two-inch rainfall event in July 2006 did not generate significant surface water runoff. There is always the possibility that rain on already saturated non-frozen soil will produce runoff that can affect surface waters. In these gently sloping – sandy soil conditions: Soil and water conservation professionals (and agencies) should prioritize their time and resources towards assisting agricultural producers to implement practices that reduce runoff risks during snowmelt or rain on frozen soil .
  • 26. Information Available This presentation is the fourth in a series of seven developed to provide the data and information collected at Breneman Farms. All of the presentations, factsheets and briefs are available on the UW - Discovery Farms website. http://www.uwdiscoveryfarms.org
  • 27.
  • 28. There are eight briefs available for Breneman Farms (2 page summaries of the factsheets).
  • 29.