Soil and Groundwater Assessments Performed During Site Investigations
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Evaluating Vapor Intrusion Pathways
Evaluating Vapor Intrusion Pathways Guidance for ATSDR’s Division of Community Health Investigations October 31, 2016 Contents Acronym List ........................................................................................................................................................................... 1 Introduction ........................................................................................................................................................................... 2 What are the potential health risks from the vapor intrusion pathway? ............................................................................... 2 When should a vapor intrusion pathway be evaluated? ........................................................................................................ 3 Why is it so difficult to assess the public health hazard posed by the vapor intrusion pathway? .......................................... 3 What is the best approach for a public health evaluation of the vapor intrusion pathway? ................................................. 5 Public health evaluation.......................................................................................................................................................... 5 Vapor intrusion evaluation process outline ............................................................................................................................ 8 References… …...................................................................................................................................................................... -
Geotechnical Report Sr 160 (Blue Diamond Road) U.P
GEOTECHNICAL REPORT SR 160 (BLUE DIAMOND ROAD) U.P. RAILROAD GRADE SEPARATION CLARK COUNTY EA 72495 FEBRUARY 2004 MATERIALS DIVISION STATE OF NEVADA DEPARTMENT OF TRANSPORTATION MATERIALS DIVISION GEOTECHNICAL SECTION GEOTECHNICAL REPORT SR 160 (BLUE DIAMOND ROAD) U. P. RAILROAD GRADE SEPARATION EA 72495 February 2004 CLARK COUNTY, NEVADA Prepared by: ______________________________ Dana Boomhower, P.E. Senior Materials Engineer - Geotechnical Reviewed by: ______________________________ Jeff Palmer, Ph.D., P.E. Principal Geotechnical Engineer Approved by: ______________________________ Dean Weitzel, P.E. Chief Materials Engineer TABLE OF CONTENTS INTRODUCTION....................................................................................................................... 1 PROJECT DESCRIPTION ....................................................................................................... 2 GEOLOGIC CONDITIONS and SEISMICITY ..................................................................... 3 FIELD INVESTIGATION......................................................................................................... 4 LABORATORY ANALYSIS..................................................................................................... 4 DISCUSSION .............................................................................................................................. 5 RECOMMENDATIONS............................................................................................................ 6 REFERENCES......................................................................................................................... -
Guidelines for Geotechnical Reports
Guidelines for Geotechnical Reports 2018 Development and Permit Information: (619) 446-5000 Appointments: (619) 446-5300 www.sandiego.gov/development-services This information, document, or portions thereof, will be made available in alternative formats upon request. 1. INTRODUCTION ............................................................................................................................................... 4 1.1 PURPOSE .................................................................................................................................................... 4 1.2 THE PERMIT PROCESS ................................................................................................................................ 4 1.2.1 Submittal ............................................................................................................................................. 5 1.2.2 Geotechnical Review ........................................................................................................................... 5 1.3 DEFINITIONS .............................................................................................................................................. 5 1.4 APPLICABLE CODES, ORDINANCES, AND GUIDELINES ............................................................................... 6 1.5 CITY RECORDS RESEARCH AND PUBLICATIONS ........................................................................................ 7 1.6 CONSUMER INFORMATION REGARDING GEOTECHNICAL REPORTS ........................................................... -
Groundwater Overdraft, Electricity, and Wrong Incentives : Evidence from Mexico
Groundwater Overdraft, Electricity, and Wrong Incentives : Evidence from Mexico Vincente Ruiz WP 2016.05 Suggested citation: V. Ruiz (2016). Groundwater Overdraft, Electricity, and Wrong Incentives : Evidence from Mexico. FAERE Working Paper, 2016.05. ISSN number: 2274-5556 www.faere.fr Groundwater Overdraft, Electricity, and Wrong Incentives: Evidence from Mexico by Vicente Ruiz⇤ Last version: January 2016 Abstract Groundwater overdraft is threatening the sustainability of an increasing number of aquifers in Mexico. The excessive amount of groundwater ex- tracted by irrigation farming has significantly contributed to this problem. The objective of this paper is to analyse the effect of changes in ground- water price over the allocation of different production inputs. I model the technology of producers facing groundwater overdraft through a Translog cost function and using a combination of multiple micro-data sources. My results show that groundwater demand is inelastic, -0.54. Moreover, these results also show that both labour and fertiliser can act as substitutes for groundwater, further reacting to changes in groundwater price. JEL codes:Q12,Q25 Key words: Groundwater, Electricity, Subsidies, Mexico, Translog Cost ⇤Université Paris 1 - Panthéon Sorbonne, Paris School of Economics (PSE). Centre d’Économie de la Sorbonne, 106-112 Boulevard de l’Hopital, 75647, Paris Cedex 13, France. Email: [email protected] Introduction The high rate of groundwater extraction in Mexico is threatening the sustainability of an increasing number of aquifers in the country. Today in Mexico 1 out of 6aquifersisconsideredtobeoverexploited(CONAGUA, 2010). Groundwater overdraft is not only an important cause of major environmental problems, but it also has a direct impact on economic activities and the wellbeing of a high share of the population. -
Reference: Groundwater Quality and Groundwater Pollution
PUBLICATION 8084 FWQP REFERENCE SHEET 11.2 Reference: Groundwater Quality and Groundwater Pollution THOMAS HARTER is UC Cooperative Extension Hydrogeology Specialist, University of California, Davis, and Kearney Agricultural Center. roundwater quality comprises the physical, chemical, and biological qualities of UNIVERSITY OF G ground water. Temperature, turbidity, color, taste, and odor make up the list of physi- CALIFORNIA cal water quality parameters. Since most ground water is colorless, odorless, and Division of Agriculture without specific taste, we are typically most concerned with its chemical and biologi- and Natural Resources cal qualities. Although spring water or groundwater products are often sold as “pure,” http://anrcatalog.ucdavis.edu their water quality is different from that of pure water. In partnership with Naturally, ground water contains mineral ions. These ions slowly dissolve from soil particles, sediments, and rocks as the water travels along mineral surfaces in the pores or fractures of the unsaturated zone and the aquifer. They are referred to as dis- solved solids. Some dissolved solids may have originated in the precipitation water or river water that recharges the aquifer. A list of the dissolved solids in any water is long, but it can be divided into three groups: major constituents, minor constituents, and trace elements (Table 1). The http://www.nrcs.usda.gov total mass of dissolved constituents is referred to as the total dissolved solids (TDS) concentration. In water, all of the dissolved solids are either positively charged ions Farm Water (cations) or negatively charged ions (anions). The total negative charge of the anions always equals the total positive charge of the cations. -
Geotechnical Manual 2013 (PDF)
2013 Geotechnical Engineering Manual Geotechnical Engineering Section Minnesota Department of Transportation 12/11/13 MnDOT Geotechnical Manual ii 2013 GEOTECHNICAL ENGINEERING MANUAL ..................................................................................................... I GEOTECHNICAL ENGINEERING SECTION ............................................................................................................... I MINNESOTA DEPARTMENT OF TRANSPORTATION ............................................................................................... I 1 PURPOSE & OVERVIEW OF MANUAL ........................................................................................................ 8 1.1 PURPOSE ............................................................................................................................................................ 8 1.2 GEOTECHNICAL ENGINEERING ................................................................................................................................. 8 1.3 OVERVIEW OF THE GEOTECHNICAL SECTION .............................................................................................................. 8 1.4 MANUAL DESCRIPTION AND DEVELOPMENT .............................................................................................................. 9 2 GEOTECHNICAL PLANNING ....................................................................................................................... 11 2.1 PURPOSE, SCOPE, RESPONSIBILITY ........................................................................................................................ -
Characterization of Site Hydrogeology April 2015
Technical Guidance Manual for Hydrogeologic Investigations and Ground Water Monitoring Chapter 3 2015 Characterization of Site Hydrogeology April John R. Kasich , Governor Mary Taylor, Lt. Governor Craig W. Butler , Director TECHNICAL GUIDANCE MANAUAL FOR HYDROGEOLOGIC INVESTIGATIONS AND GROUND WATER MONITORING CHAPTER 3 Characterization of Site Hydrogeology April 2015 Revision 2 Ohio Environmental Protection Agency Division of Drinking and Ground Waters P.O. Box 1049 50 West Town Street, Suite 700 Columbus, Ohio 43216-1049 Phone: (614) 644-2752 epa.ohio.gov/ddagw/ TGM Chapter 3: Site Hydrogeology 3-ii Revision 2, April 2015 TABLE OF CONTENTS TABLE OF CONTENTS ................................................................................................................. iii PREFACE ....................................................................................................................................... v CHANGES FROM THE FEBRUARY 2006 TGM ............................................................................ vi 1.0 PRELIMINARY EVALUATIONS ................................................................................................ 2 2.0 FIELD METHODS TO COLLECT HYDROGEOLOGIC SAMPLES AND DATA ......................... 5 2.1 DIRECT TECHNIQUES ....................................................................................................... 5 2.1.1 Boring/Coring ................................................................................................................ 5 2.1.2 Test Pits and Trenches ................................................................................................ -
Statement of Work for Soil Boring and Well Installation at the Rockaway Borough Well Field Site Morris County, New Jersey
SDMS Document 68234 EPA CONTRACT NUMBER: 68-01-7250 EPA WORK ASSIGNMENT NUMBER: 251-2L81 EBASCO SERVICES INCORPORATED STATEMENT OF WORK FOR SOIL BORING AND WELL INSTALLATION AT THE ROCKAWAY BOROUGH WELL FIELD SITE MORRIS COUNTY, NEW JERSEY OCTOBER, 1989 Prepared by: Approved by: CMvOAji' Lu.^:, Edward W. Blanar Dev R. Sachdev, Ph.D. P.E. Site Manager Regional Manager Region II w S o o NJ O o VD -CO-^ , TABLE OF CONTENTS Page GENERAL DESCRIPTION 1 A. PROJECT DESCRIPTION 1 B. SITE GEOLOGY 1 C. HYDROGEOLOGY 4 D. SCOPE OF WORK 5 E. HEALTH AND SAFETY 11 II, SPECIAL CONDITIONS 12- A. SOLICITATION REQUIREMENTS 12 B. WORK PROVIDED BY SUBCONTRACTOR 14 C. WORK PROVIDED BY EBASCO 16 D. HEALTH AND SAFETY 17 E. PROJECT SCHEDULE 17 F. MEASUREMENT AND PAYMENT 18 G. SUBMITTALS AND DELIVERABLES 21 H. PRICE SUMMARY FORM 22 III. TECHNICAL SPECIFICATION 25 A. CODES AND STANDARDS 25 B. MONITORING WELLS, AND SOIL BORING 25 C. DECONTAMINATION 30 D. RECORDS 31 FIGURES 1 Site Location Map 2 2 Rockaway Borough Site Map 3 3 Proposed Well Locations 6 4 Proposed Soil Boring Locations 10 5 Typical Groundwater Monitoring Well 28 TABLES Summary of Monitoring Well Depths and Screen Lengths ATTACHMENTS 1. Site-Specific Health and Safety Plan (HASP) 2. Site-Specific Health and Safety Plan for REM III Pre-Bid Site Visits 3. Medical Surveillance Program 4. Quality Assurance Nonconformance Report s? 5. Direction to Site 4 6. Standard Specifications for Sealing o Abandoned Wells o NJ O o I. GENERAL DESCRIPTION A. PROJECT DESCRIPTION The Borough of Rockaway (Rockaway Borough) is located in central Morris County, New Jersey (Figure 1). -
Boring Methods of Exploration [ Section 2.1 : Different Types of of Boring Methods ]
Module 1 : Site Exploration and Geotechnical Investigation Lecture 2 : Boring Methods of Exploration [ Section 2.1 : Different Types of of Boring Methods ] Objectives In this section you will learn the following Displacement borings Wash boring Auger boring Rotary drilling Percussion drilling Continuous sampling Module 1 : Site Exploration and Geotechnical Investigation Lecture 2 : Boring Methods of Exploration [ Section 2.1 : Different Types of of Boring Methods ] Boring methods of exploration The boring methods are used for exploration at greater depths where direct methods fail. These provide both disturbed as well as undisturbed samples depending upon the method of boring. In selecting the boring method for a particular job, consideration should be made for the following: The materials to be encountered and the relative efficiency of the various boring methods in such materials. The available facility and accuracy with which changes in the soil and ground water conditions can be determined. Possible disturbance of the material to be sampled. The different types of boring methods are : 1. Displacement boring. 2. Wash boring. 3. Auger boring. 4. Rotary drilling. 5. Percussion drilling. 6. Continuous sampling. Module 1 : Site Exploration and Geotechnical Investigation Lecture 2 : Boring Methods of Exploration [ Section 2.1 : Different Types of of Boring Methods ] 1. Displacement borings It is combined method of sampling & boring operation. Closed bottom sampler, slit cup, or piston type is forced in to the ground up to the desired depth. Then the sampler is detached from soil below it, by rotating the piston, & finally the piston is released or withdrawn. The sampler is then again forced further down & sample is taken. -
Freshwater Resources
3 Freshwater Resources Coordinating Lead Authors: Blanca E. Jiménez Cisneros (Mexico), Taikan Oki (Japan) Lead Authors: Nigel W. Arnell (UK), Gerardo Benito (Spain), J. Graham Cogley (Canada), Petra Döll (Germany), Tong Jiang (China), Shadrack S. Mwakalila (Tanzania) Contributing Authors: Thomas Fischer (Germany), Dieter Gerten (Germany), Regine Hock (Canada), Shinjiro Kanae (Japan), Xixi Lu (Singapore), Luis José Mata (Venezuela), Claudia Pahl-Wostl (Germany), Kenneth M. Strzepek (USA), Buda Su (China), B. van den Hurk (Netherlands) Review Editor: Zbigniew Kundzewicz (Poland) Volunteer Chapter Scientist: Asako Nishijima (Japan) This chapter should be cited as: Jiménez Cisneros , B.E., T. Oki, N.W. Arnell, G. Benito, J.G. Cogley, P. Döll, T. Jiang, and S.S. Mwakalila, 2014: Freshwater resources. In: Climate Change 2014: Impacts, Adaptation, and Vulnerability. Part A: Global and Sectoral Aspects. Contribution of Working Group II to the Fifth Assessment Report of the Intergovernmental Panel on Climate Change [Field, C.B., V.R. Barros, D.J. Dokken, K.J. Mach, M.D. Mastrandrea, T.E. Bilir, M. Chatterjee, K.L. Ebi, Y.O. Estrada, R.C. Genova, B. Girma, E.S. Kissel, A.N. Levy, S. MacCracken, P.R. Mastrandrea, and L.L. White (eds.)]. Cambridge University Press, Cambridge, United Kingdom and New York, NY, USA, pp. 229-269. 229 Table of Contents Executive Summary ............................................................................................................................................................ 232 3.1. Introduction ........................................................................................................................................................... -
Assessing Groundwater Irrigation Sustainability in the Euro-Mediterranean Region with an Integrated Agro-Hydrologic Model
19th EMS Annual Meeting: European Conference for Applied Meteorology and Climatology 2019 Adv. Sci. Res., 17, 227–253, 2020 https://doi.org/10.5194/asr-17-227-2020 © Author(s) 2020. This work is distributed under the Creative Commons Attribution 4.0 License. Assessing groundwater irrigation sustainability in the Euro-Mediterranean region with an integrated agro-hydrologic model Emiliano Gelati1,a, Zuzanna Zajac1, Andrej Ceglar1, Simona Bassu1, Bernard Bisselink1, Marko Adamovic1, Jeroen Bernhard2, Anna Malagó1, Marco Pastori1, Fayçal Bouraoui1, and Ad de Roo1,2 1European Commission, Joint Research Centre (JRC), Ispra, Italy 2Department of Physical Geography, Utrecht University, Utrecht, the Netherlands anow at: Department of Geosciences, University of Oslo, Oslo, Norway Correspondence: Emiliano Gelati ([email protected]) Received: 16 February 2020 – Revised: 27 July 2020 – Accepted: 21 September 2020 – Published: 31 October 2020 Abstract. We assess the sustainability of groundwater irrigation in the Euro-Mediterranean region. After analysing the available data on groundwater irrigation, we identify areas where irrigation causes groundwater depletion. To prevent the latter, we experiment with guidelines to restrict groundwater irrigation to sustainable levels, simulating beneficial and detrimental impacts in terms of improved environmental flow conditions and crop yield losses. To carry out these analyses, we apply the integrated model of water resources, irrigation and crop production LISFLOOD-EPIC. Crop growth is simulated accounting for atmospheric conditions and abiotic stress factors, including transpiration deficit. Four irrigation methods are modelled: drip, sprinkler, and intermit- tent and permanent flooding. Hydrologic and agricultural modules are dynamically coupled at the daily time scale through soil moisture, plant water uptake, and irrigation water abstraction and application. -
Groundwater Overdraft Reduction Through Agricultural
Water Resources Development, Vol. 20, No. 2, 149–164, June 2004 Groundwater Overdraft Reduction through Agricultural Energy Policy: Insights from India and Mexico CHRISTOPHER A. SCOTT* & TUSHAAR SHAH** *South Asia Regional Office, International Water Management Institute, Hyderabad, India **Sustainable Groundwater Management, International Water Management Institute, Anand, India ABSTRACT Rapid expansion of groundwater irrigation has transformed the rural economy in regions around the world, leading to significant increases in agricultural productivity and rising incomes. Farmer investment in wells and pumps has driven this expansion on the demand side; however, the supply of cheap agricultural energy—usu- ally electrical power—is a critical though often overlooked driver of the groundwater boom. One serious outcome in numerous regions around the world has been groundwa- Downloaded By: [University of Arizona] At: 21:56 10 September 2007 ter overdraft; where pumping exceeds aquifer recharge, water tables have declined and water quality has deteriorated. India and Mexico are two of the largest users of groundwater in the world and both face critical overdraft challenges. The two countries are compared, given that electrical energy supply and pricing are primary driving forces behind groundwater pumping for irrigation in India and Mexico alike. Both countries have attempted regulatory measures to reduce groundwater overdraft. However, with low energy costs and readily available connections, there are few financial disincentives for farmers to limit pumping. The linkages between energy and irrigation are reviewed, comparing and contrasting India and Mexico. Examples of legal, regulatory and participatory approaches to groundwater management are assessed. Finally, the implica- tions of linking electrical power pricing and supply with ongoing groundwater regu- lation efforts in both countries are explored.