Soil sampling methods for monitoring vineyard soil quality

Similar documents
Fact Sheet VITICULTURE

ARIMNet2 Young Researchers Seminar

ANNUAL DECAY RATES. EMAN Ecosystem Monitoring Partnership AIM

Archival copy. For current information, see the OSU Extension Catalog:

Using Less Water and Liking It

Problem How does solute concentration affect the movement of water across a biological membrane?

Freezing Fruits and Vegetables

DOMESTIC MARKET MATURITY TESTING

Thin-Layer Chromatography Experiment Student Instructions

Freezing Fruits and Vegetables

Research Report: Use of Geotextiles to Reduce Freeze Injury in Ontario Vineyards

Hybrid Seeds Production

Conditions and application for Food Stall Holders operating in Waverley

Chardonnay rootstock trial, Horst Caspari

NEW ZEALAND AVOCADO FRUIT QUALITY: THE IMPACT OF STORAGE TEMPERATURE AND MATURITY

Micro Casa Semiautomatica

MODEL: POD BREWER AURORA SAF 68 HOMEMAKER ESPRESSO MAKER WITH COFFEE POD

COMPARISON OF CORE AND PEEL SAMPLING METHODS FOR DRY MATTER MEASUREMENT IN HASS AVOCADO FRUIT

Increasing the efficiency of forecasting winegrape yield by using information on spatial variability to select sample sites

The Implications of Climate Change for the Ontario Wine Industry

CHAPTER 2: THE PROCESS OF COFFEE PRODUCTION From coffee seed to cup

The Ultimate Edible Making Machine

VACUUM PACKAGING EVERYTHING YOU NEED TO KNOW ABOUT T : / F :

FOOD SAFETY HACCP CHARTS

CODE OF PRACTICE FOR THE PREVENTION AND REDUCTION OF PATULIN CONTAMINATION IN APPLE JUICE AND APPLE JUICE INGREDIENTS IN OTHER BEVERAGES

Produce Specification

Guidelines in using ASL Soil Processing Facilities

INSTALLATION AND OPERATING INSTRUCTIONS

65 T. Totally biological yield builders. Winter crop inoculants guide YEARS R F A I O P

Measure the specific heat of lead. Identify an unknown metal from its specific heat (optional),

FOOD SAFETY RISK ASSESSMENT FOR CCS CANTEENS AND KITCHENS. General purpose Catering kitchen, Hot & Cold Drinks. Created on 22/11/2010

GINGERBREAD FAIRYTALE CASTLE RECIPE

Growing Cabernet Sauvignon at Wynns Coonawarra Estate

Inspector s Guidebook for Certification PUBLISHED BY THE SPECIALTY COFFEE ASSOCIATION OF AMERICA (SCAA) June 2015 Pages: Cover + 8

Page 25. Recipe 1.3a. 1.3a Spicy Gingersnaps. Continued

Thermal Properties and Temperature

Delicious recipes for your Fourth of July celebrations featuring one of America s favorite fruits - cherries.

1. Continuing the development and validation of mobile sensors. 3. Identifying and establishing variable rate management field trials

Ecclesfield School Y8 Food Technology Recipe booklet

Vineyard Site Evaluation For: Beringer

STANDARD DDP-04 concerning the marketing and commercial quality control of HAZELNUT KERNELS

Summary of Phylloxera Movement Conditions

Plant root activity is limited to the soil bulbs Does not require technical expertise to. wetted by the water bottle emitter implement

Challenges facing coffee production

Application Guide Others Using Masinag Organic Fertilizer

The Ultimate Edible Making Machine

GEORGIA DEPARTMENT OF CORRECTIONS Standard Operating Procedures

Vibration Damage to Kiwifruits during Road Transportation

Colorado State University Viticulture and Enology. Grapevine Cold Hardiness

Effects of Plastic Covers on Canopy Microenvironment and Fruit Quality. Matthew Fidelibus Viticulture & Enology UC Davis

CODEX STANDARD FOR QUICK FROZEN STRAWBERRIES 1 CODEX STAN

Lecture 4. Factors affecting ripening can be physiological, physical, or biotic. Fruit maturity. Temperature.

Natural cork - an extraordinary product

Comparison of Two Commercial Modified Atmosphere Box-liners for Sweet Cherries.

Summary of Phylloxera Movement Conditions

HOW TO USE AND TAKE CARE OF THE HAGLÖF INCREMENT BORER

VINPRO PRODUCTION PLAN SURVEY 2015 (PART 2) Financial. Financial. indicatiors. indicators. of top performing wine grape producers

Development of smoke taint risk management tools for vignerons and land managers

Wine Preparation. Nate Starbard Gusmer Enterprises Davison Winery Supplies August, 2017

LAB: One Tube Reaction Part 1

GRAPEVINE VIGOUR IS CORRELATED WITH N-MINERALIZATION POTENTIAL OF SOIL FROM SELECTED COOL CLIMATE VINEYARDS IN VICTORIA, AUSTRALIA

27004 Preliminary Results of an ERT in a Vineyard in Estremoz, Portugal

Control wine quality after bottling. Monitor wine storage and shipment conditions

25. Copyright 2010 The Mobile Home Gourmet, MobileHomeGourmet.com, all rights reserved.

Mastering Measurements

Bunker Silo and Drive- Over Silage Pile Management

Solubility Lab Packet

1 a) State three leadership styles used by a food and beverage supervisor. (3 marks)

November 2016 PEST Report - THE NETHERLANDS CLOSING NOTE

RESOLUTION OIV-VITI OIV GUIDE FOR IMPLEMENTATION OF THE HACCP SYSTEM (HAZARD ANALYSIS AND CRITICAL CONTROL POINTS) TO VITICULTURE

CODEX STANDARD FOR LIMES (CODEX STAN , AMD )

BOSQUE ECOSYSTEM MONITORING PROGRAM Pitfall Monitoring Directions

FOR PERSONAL USE. Capacity BROWARD COUNTY ELEMENTARY SCIENCE BENCHMARK PLAN ACTIVITY ASSESSMENT OPPORTUNITIES. Grade 3 Quarter 1 Activity 2

is pleased to introduce the 2017 Scholarship Recipients

5KCM0512A W A_ENv10.indd 1 10/13/15 12:41 PM

The Floating Leaf Disk Assay for Investigating Photosynthesis

1. Describe the effect of stirring and kneading dough on the formation of gluten.

ALTERNATIVE CONTROL METHODS FOR GRAPE LEAFHOPPER: PART 2 FINAL REPORT 1/22/01

A Foodservice Guide To Seafood Quality. Basic tips on handling fresh and frozen Alaska Seafood Alaska Seafood Marketing Institute

Lab 2-1: Measurement in Chemistry

Separating the Components of a Mixture

Panel 1 Off-Flavor Identification

VEGGIE BYTES. Painting Pumpkins! Inside this Issue

Ohio Grape-Wine Electronic Newsletter

Spring Vine Health Field Days.

Climate effects on grape production and quality at Kumeu, New Zealand

Iowa Watershed Academy October 25, Marshall McDaniel Teresa Middleton Stefan Gailans

HACCP Step 1 Activity Description. Activity Description Site: Reservoir. USACE Activity: Buoy Work

Application & Method. doughlab. Torque. 10 min. Time. Dough Rheometer with Variable Temperature & Mixing Energy. Standard Method: AACCI

a WOW Lab Prep Instructions

into Organic production of Open-pollinated seeds and Seed Extraction

KS3 Food Preparation and Nutrition. Recipe Book. Year 7

BVM PROSPECTUS. DAMIAN ADAMS Ph E MIKE CROAD Ph E

Inspector s Guidebook for Certification PUBLISHED BY THE SPECIALTY COFFEE ASSOCIATION OF AMERICA (SCAA) February 2014 Pages: Cover + 7

DEVELOPMENT OF A RAPID METHOD FOR THE ASSESSMENT OF PHENOLIC MATURITY IN BURGUNDY PINOT NOIR

Science of Sun Dried Raisins

Healthcare: Checklist of root causes for food waste and solutions

Tea Research Foundation Central Africa

HARVEST & POST-HARVEST PRACTICES. Harvest Fermentation Drying Micro-fermentation HARVESTING FERMENTATION

Academic Year 2014/2015 Assessment Report. Bachelor of Science in Viticulture, Department of Viticulture and Enology

Transcription:

Soil sampling methods for monitoring vineyard soil quality In order to assess and monitor whether viticulture practices are having an impact on soil quality, it is necessary to measure soil properties over time. The sampling strategy for soil quality monitoring should be standardised and consistent to be able to have confidence in the comparisons. i.e. same time, same place, same method! 1. When to sample: Approximately 4 weeks after harvest. This takes advantage of the impact of grower management during the season and a flush in root growth to target maximum soil biological activity. 2. Where to sample Choose a single panel (or a paired site) that is representative of the vineyard. Mark it with tape and geo-reference it using GPS for repeat sampling. For benchmarking your property against industry standards, it is suggested to look at one site of good quality vines. For identifying a soil constraint it is suggested to use paired sites within the same site and clone/variety. One site should represent good quality and one site represent the poorer quality. Sampling should be performed with a 5 7 cm diameter auger from undervine, in the midrow, and if possible in an adjacent non-viticultural site (preferably with native vegetation) within 50 m of the adjacent vineyard. Any surface growth or debris should be scraped off the surface of the soil before sampling. 3. Detail of sampling areas 3.1 Undervine: near a dripper, approx. 20 cm from grapevine trunks and 20 cm out from the drip line or centre line. (If the site has been recently delved and the under vine row raised, start sampling deeper in the undervine row. i.e. make an allowance for the impact of delving). 3.2 Midrow: in the centre of the midrow, avoid machinery tracks and make an allowance for the depth to ensure you are sampling a similar soil layer to the undervine samples. i.e. if the site has been delved it is likely the top 10 cm will have been moved, so sample closer to the vine row. 3.3 Native Site Note: At each site and depending on the depth, either 3 or 5 cores are pooled into a plastic bag and mixed thoroughly. Then 500 g sub-samples are placed into awell-labelled plastic bags and sent to a commercial laboratory for testing.

4. Depth of sampling 4.1 Two depths: surface soil 0-15 cm and sub-surface soil 35-45 cm (it is important to sample comparable layers between the midrow and undervine row). 5. Amount of soil required by commercial laboratories 5.1 Chemical samples (500 g). Biological samples (500 g). Biological samples are normally only taken for the surface layer. Physical samples require additional sampling of intact peds from each depth (See Section 6). 6. Diagram of sampling within a panel or at native sites 6.1 Sampling positions (5 cores at 0-15cm; 3 cores at 35-45cm) for both undervine and midrow samples. Pool the surface samples together and the subsurface samples together. 0-15 cm 0-15 cm and 35-45 cm

This figure shows repeat sampling in the midrow, aligning with the undervine holes. Again, pool 5 core samples from 0-15 cm for surface samples and three samples from the subsurface (35-45 cm). These figures show repeat sampling from a native site. Again, pool 5 core samples from 0-15 cm for surface samples and three samples from the subsurface (35-45 cm).

7. Physical Testing The soils for physical analyses are taken by a different method to preserve the soil structure. The surface of the soil is removed with a shovel and a small trench dug at the designated location. The first vertical face is to be 0-15 cm, a small step and then a vertical face at 35-45 cm. Make slices with the shovel around the target area at one side of the trench and gently lift out the target area. Several small clods ( peds ) should be gently broken off, avoiding any surface area affected by shearing. The peds are to be placed into rigid containers or open plastic bags and carefully handled to preserve the soil structure. In cases where the soil is dry and hard to dig, a mechanical auger can be used to remove the soil first in order to collect undisturbed peds at depth.

An example of undisturbed peds required for physical assessments. 8. Soil storage in field: Soils for the physical measurements should be stacked in a single layer if in plastic bags. Do not stack on top of one another to prevent peds being broken up or squashed. Otherwise, store representative peds selected in the field in rigid plastic containers for transport back to base. Soils for biological and chemical measurements are to be immediately stored in a cool place (e.g. esky with ice blocks) to keep as cool as possible. 9. Soil storage once returned from field (before shipment): Soils for biological and chemical measurements should be stored at 4ºC immediately upon return to base a cold store or a fridge is fine. They should then be sub-sampled if necessary and the required quantity sent to laboratories for analysis this factsheet assumes 500 g, but these amounts should be checked with the commercial laboratories. Samples should be sent to the laboratory within 1-5 days after collection. The peds should be allowed to air dry for several days prior to doing assessments of the physical properties slaking, dispersion and strength. For methods of assessment, see accompanying fact sheet Soil indicators for measuring vineyard soil quality and the references below. References Edwards et al. 2014. GWRDC Final Report DPI 1101 Setting benchmarks and recommendations for management of soil health in Australian viticulture. Oliver DP, Bramley RGV, Riches D, Porter IJ, Edwards J (2013) Review: soil physical and chemical properties as indicators of soil quality in Australian viticulture. Australian Journal of Grape and Wine Research 19:129-139. Riches D, Porter IJ, Oliver DP, Bramley RGV, Rawnsley B, Edwards J, White RE (2013) Review: soil biological properties as indicators of soil quality in Australian viticulture. Australian Journal of Grape and Wine Research 19: 311-323.