MPC-432 January 1, December 31, 2013

Similar documents
Wildlife Crossings: A Solution for Moose Vehicle Collisions in Alaska

Emerging Technology to Exclude Wildlife from Roads: Electrified Pavement and Deer Guards in Utah, USA

DESIGN RECOMMENDATIONS FROM FIVE YEARS OF WILDLIFE CROSSING RESEARCH ACROSS UTAH

Evaluation of Wildlife Mitigation Measures,

APPENDIX 1. Cost Estimates for Mitigation Measures

Kari Gunson & Andrew Healy 1 MONITORING EFFECTIVENESS OF ROAD WILDLIFE MITIGATION FOR LARGE ANIMALS IN ONTARIO, CANADA

Wildlife Vehicle Collision Study

Jeff Gagnon Norris Dodd Sue Boe. Scott Sprague Ray Schweinsburg Arizona Game and Fish Department

ALTERNATIVE WORKSHOP JULY

Subject: Scoping Comments Ochoco Summit OHV Trail Project

Access Management Regulations and Standards

Project No.: Contract No. Key Words: wildlife crossings, highway underpasses, large mammals, white-tailed deer, black bear, deervehicle

Enhancing Connectivity

Advances in Wildlife Crossing Technologies

Fish Passage Design Aids Wildlife Crossing in Washington State State of the Practice

MONITORING WILDLIFE-VEHICLE COLLISIONS: ANALYSIS AND COST- BENEFIT OF ESCAPE RAMPS FOR DEER AND ELK ON U.S. HIGHWAY 550

INDEX. Geometric Design Guide for Canadian Roads INDEX

North Coast Corridor:

Demonstration of Possibilities to Introduce Semi-actuated Traffic Control System at Dhanmondi Satmasjid Road by Using CORSIM Simulation Software

Crash Analysis of I-64 Closure in St. Louis County

Road design and Safety philosophy, 1 st Draft

Wildlife Use of Highway Underpass Structures in Washington State

EXECUTIVE SUMMARY. Banff Wildlife Crossings Project:

Iroquoia Heights Conservation Area White-tailed Deer Management Strategy

Gwinnett County Department of Transportation SR 324 / Gravel Springs Road at I-85 / SR 403 Interchange Project Number F , PI No.

Sponsored by the Office of Traffic and Safety of the Iowa Department of Transportation NOVEMBER 2001 CTRE

Annual Report Ecology and management of feral hogs on Fort Benning, Georgia.

GATES, CATTLE GUARDS AND PASSAGEWAYS. This factsheet looks at various options for allowing passage through fences for livestock, wildlife and people.

Wildlife Hazard Mitigation Policy, Plan and Procedure. May

Evaluation of Alternatives and Options For the City of Windsor Sam Schwartz Engineering PLLC January 2005

Access Location, Spacing, Turn Lanes, and Medians

on highways managed by Hungarian State Motorway Management Company SUMMARY OF THE DETAILED REPORT

Guidelines from the Manual on Uniform Traffic Control Devices for Streets and Highways Pertaining to Violation

Mule Deer and Wildlife Crossings in Utah, USA

BOZEMAN PASS WILDLIFE PRE-AND POST-FENCE MONITORING PROJECT. April C. Craighead 1. Frank L. Craighead 2. Lauren Oechsli 3

Access Management Regulations and Standards

Improving Big Game Migration Corridors in Southwest Wyoming

Comparison of the Green Arrow and the Circular Green for Turn Prohibition to Reduce Wrong-Way Movements at Interchange Terminals

Ch Driving on Expressways. Characteristics of Expressway Driving. Expressway. Types of Expressways. Why do they have fewer collisions?

Grade Separated Intersection

Idaho Driver Education and Training

City of Prince Albert Statement of POLICY and PROCEDURE. Department: Public Works Policy No. 66. Section: Transportation Issued: July 14, 2014

Toronto Complete Streets Guidelines

Bicycle - Motor Vehicle Collisions on Controlled Access Highways in Arizona

PLACEMENT OF SIGNS RECOMMENDED PRACTICES SUB-SECTION

Monitoring Asian Elephants and Mitigating Human-Elephant Conflict in the Core Landscape of the Southern/Eastern Cardamom Mountains, Cambodia

General Design Factors

Route 29 Solutions Projects

SAFETY EVALUATION OF AN UNCONTROLLED

Every time a driver is distracted,

22 Questions from WildEarth Guardians - September 19, 2016

USING THE CAMERA ESTIMATE METHOD FOR POPULATION ESTIMATES OF WILD RED DEER (Cervus elaphus) IN SOUTH EAST QUEENSLAND

MEMORANDUM INTRODUCTION AREA DESCRIPTION. DATE: December 8, 2017

USER GUIDE FOR R1-6 GATEWAY TREATMENT

Mitigating Vehicle Collisions with Large Wildlife

M. Nils Peterson, Roel R. Lopez, Nova J. Silvy, Catherine B. Owen, Philip A. Frank, and Anthony Jf: Braden

Airports and Wildlife. What you Need to Know. A Guide for the Public

Roundabouts in Edmonton - A Comparison to the State-of-the-Art

Crash Patterns in Western Australia. Kidd B., Main Roads Western Australia Willett P., Traffic Research Services

European Student Competition VOICE Vulnerable Road Users Organizations in Cooperation Across Europe

USER GUIDE FOR R1-6 GATEWAY TREATMENT

The Effect of Pavement Marking on Speed. Reduction in Exclusive Motorcycle Lane. in Malaysia

I-70 ECO-LOGICAL MONITORING 2009 PROGRESS REPORT July 2010

Competition. Competition. Competition. Competition. Competition. Competition. Competition. Long history in ecology

Chapter 4 Traffic Analysis

Maine Highway Safety Facts 2016

ROADWAY LIGHTING Literature Summary

Chapter 33. Grade Separated Intersection Overview Classification of Intersection Grade Separated Intersection

Off-road Trails. Guidance

Speed Limits in the Hoddle Grid

Freeway System Considerations

Dr. Naveed Anwar Executive Director, AIT Consulting Affiliated Faculty, Structural Engineering Director, ACECOMS

FM #: ETDM #: 11241

VDOT Crash Analysis Procedures for Roadway Safety Assessments

CHAPTER 20 WILDLIFE CROSSINGS

ScienceDirect. Microscopic Simulation on the Design and Operational Performance of Diverging Diamond Interchange

Wildlife Highway Mortality on Vancouver Island

Highway 49, Highway 351 and Highway 91 Improvements Feasibility Study Craighead County

DRIVING ON EXPRESSWAYS/ INTERSTATE CHAPTER 11

Living with White-Tailed Deer. A Homeowner s Guide

Kansas Department of Transportation Strategic Highway Safety Plan. Intersections

APPENDIX G: INTERSECTION NEEDS AT OKEECHOBEE BOULEVARD

Comparison of Turning Movement Count Data Collection Methods for a Signal Optimization Study. White Paper

WILDLIFE CROSSING DESIGNS AND USE BY FLORIDA PANTHERS AND OTHER WILDLIFE IN SOUTHWEST FLORIDA

Terwillegar Drive Expressway Draft Concept Plan

Eastern PA Trail Summit October 1, 2018

1 VicRoads Access Management Policies May 2006 Ver VicRoads Access Management Policies May 2006 Version 1.02

EFFCTIVENESS OF RETURN RAMPS FOR REDUCING BIG GAME HIGHWAY MORTALITY IN UTAH FINAL REPORT

Full Spectrum Deer Management Services

Welcome to the Sellwood Bridge Project Open House!

STUDY ADVISORY COMMITTEE. October 8, 2015

Marcel P. Huijser 1, John W. Duffield 2, Anthony P. Clevenger 1, Robert J. Ament 1, and Pat T. McGowen 1

Review: Version 23 of Chronic Wasting Disease Program Standards Better than Version 22, but still Burdensome to Industry

Broad Street Bicycle Boulevard Design Guidelines

Effects of US 1 Project on Florida Key Deer Mortality

Turbo Roundabout Design? Redesign of Park City s 14 Year Old Deer Valley Roundabout Bill Baranowski, P.E. RoundaboutsUSA

WELCOME PTH 59N - PTH 101 INTERCHANGE FUNCTIONAL DESIGN STUDY PUBLIC INFORMATION SESSION MONDAY, JUNE 13, :00 P.M. - 8:00 P.M.

Speed Limit Policy Isle of Wight Council

POLICY STATEMENT: VISION ZERO

PERFORMANCE ACTIVITY 613 IMPACT ATTENUATOR WORK DESCRIPTION 3

Transcription:

MPC-43 January 1, 013- December 31, 013 Project Title: Finding Innovative Solutions to Prevent Wildlife Access to Highways at Wildlife Guards University: Utah State University Principal Investigators: Patricia Cramer, Research Assistant Professor, patricia.cramer@usu.edu, 435-797-189 Research Needs: Wildlife entering roadways can become involved in collisions with vehicles, creating a safety hazard for the motoring public and threatening the survival of wildlife populations. This proposal involves creating innovative strategies to keep wildlife off the road while helping them move above and below roads using culverts and bridges. Wildlife-vehicle collisions (WVC) occur over 1.5 million times each year in the United States causing at least $1.1 billion in vehicle damage and killing an average of 00 humans each year (Huijser et al. 009). The most cost-effective method to prevent WVC is the placement of wildlife crossing structures with wildlife exclusion fencing (8 feet high) (Hedlund et al. 004). This fencing keeps wildlife off the road and guides them to culverts and bridges designed to facilitate wildlife passage under (or above) the road. These types of fences are also used to keep deer and other wildlife out of restricted areas such as airports and military bases. If local driveways, roads, and entrance and exit ramps that bisect wildlife exclusion fencing are not designed with an effective deterrent to keep deer, elk, moose (ungulates) and other wildlife from entering the road right of way, the wildlife crossings and fencing become ineffective. These vehicle ingress and egress points that cross the wildlife exclusion fencing have to allow vehicles but deter animals, especially those with hooves. Traditional single cattle guards along these entrance points are not wide enough to deter deer and other large animals; they just jump over cattle guards. The standard cattle guard design for deterring wildlife in these areas is to place double cattle guards or similar wide guards embedded in the road. These other guards include wildlife guards which are as wide as double cattle guards and are created in a metal grid pattern. They also include Electromats, a plastic strip embedded with copper wiring that hold an electrical charge, and placed in the road bed (see Seamans and Helo 008a, 008b, Holland-Allen 011 for efficacy results). Double cattle guards, wildlife guards, and Electromats costs increase from approximately $30,000 when placed in narrow roads, to $60,000 for wider roads and highway ramps. Utah Department of Transportation (UDOT) estimates four double cattle guards placed on entrance and exit ramps along an interstates interchange cost $40,000 (R. Taylor, UDOT, personal communication). UDOT is looking for innovative solutions that would allow the placement of a single cattle guard with another device that repelled wildlife as well as a double cattle guard but would cost less. This research will explore different types of technologies that could be added to single cattle guards, wildlife guards, and Electromats that could further repel animals by possibly acting on their hearing, visual, smell, and other senses. These devices could use electric

current, sound, scent, or visual movement that would act to repel approaching animals from trying to jump the single cattle guard. It is important to UDOT, other departments of transportation, airports, and military bases to explore the technology options that could be added to single cattle guards to create a situation that would repel approximately 90% of the ungulates that attempt to enter the roadways at those points, while keeping the cost under that of double cattle guards. Research Objectives: This study will monitor wildlife approaches to double cattle guards, wildlife guards, and an Electromat along Utah roads to determine repel rates for these deterrent devices. The study will investigate technological approaches to add to single cattle guards on similar roads that would be less costly than double cattle guards and yet would repel ungulates at rates comparable to the double cattle guards, wildlife guards, and Electromats. These technologies would work with electric currents, or scents, or visual deterrents to repel animals that approach, while still allowing vehicles to pass. The technological approaches would be applied through a process that examined the animals behavioral reactions to the devices to find which ones worked best. The hypothesis to be tested is that these new technologies applied with single cattle guards can costeffectively deter mule deer, elk, and moose at rates comparable (within 5%) to double cattle guards. The study would use cameras traps at these guards to evaluate what each animal approach results in, either animals being deterred, or animals crossing over the guard to enter the road right of way. Research Methods: Camera traps (remote trail cameras) will be placed at existing double cattle guards, wildlife guard(s), and an Electromat (from here forward referred to as guards), at various roads and highway ramps in Utah (see Figure 1 for photo from current study). These roads include US 91 near Logan, UTwhere a camera currently monitors a wildlife guard; US 6 near Soldier Summit, UT where two existing double cattle guards will be monitored, I-80 near Park City, UT where new wildlife guards at entrance-exit ramps may be monitored, I-70 at the junction with I-15 in UT where entrance-exit ramps may be monitored; I-15 near Cedar City, UT where wildlife single cattle guards and double cattle guards will be monitored; and US 40 near Heber, UT where an Electromat will be monitored. Each site will have one to two cameras placed at the guard to monitor ungulate and other wildlife approaches. Bi-monthly cameras will be checked, data will be uploaded from the cameras and batteries changed. Photographs will be analyzed and total number of animals of each species that approach each guard, total number of animals repelled by the guard, and total animals that breach the guard will be tabulated for each guard and each species. This will establish the base rates of repellence for typical guards, and help the researchers understand the components of the guards that are allowing breaches, such as the side strips of cement that mule deer and moose have already been photographed using to access the highway. Cameras will also be placed on single cattle guards in similar wildlife areas to understand what the typical rates of breaches are for these guards. This project will employ a graduate student who will help design and deploy the different technological approaches to deterring ungulates from single cattle guards as they approach them to enter the road right of way. These technologies will be less costly than a second cattle guard at the site, and placed in a manner to deter theft. These technologies could include the release of a

scent, loud sounds, electrical currents, movement of a device, or bright lights to scare the animals off. The devices will be placed at different single cattle guards across the state and tested for efficacy. Camera traps will be placed at these experimental guards to examine ungulate reactions. The rates of deterrence at the new devices will be compared to typical guards to evaluate if the new device with a single cattle guard is a cost-effective option for deterring animals from fenced areas. All cameras and devices would allow vehicles to pass unimpeded. Figure 1. Mule deer evaluates wildlife guard along US 91 near Logan, Utah. Expected Outcomes: The research is expected to produce several different methods to repel ungulates and other wildlife from entering a road or other fenced areas at vehicle access points. The final results will include designs for traditional single cattle guards with new devices added to those guards that keep the cost of the combination below that of double cattle guards and deter ungulates at a similar rate. If these new methods prove to be less effective at deterring animals from entering the road right of way than double cattle guards a guide of the full range of options will still be presented. This guide will provide the full range of guard and device options, their rates of deterrence, and costs for practitioners to evaluate which approach would work best for individual situations. Practitioners would be able to apply the new methods to areas with mule deer, elk, and moose where the animals are to be kept out of a road or other areas. There will be tangible products that would include instruction manuals and devices that could be purchased or created with ease. Relevance to Strategic Goals: The proposed project and its outcomes are related to Safety Goals; wildlife-vehicle collisions cause loss of life not only to animals but to the motoring public, and this project is designed to help prevent those collisions. The creation of a cost-effective method to deter ungulates from roads would support an Economic Competiveness Goal. If the devices and guards could be designed to deter 90% of the animals that approach them, and these animals could in turn be

convinced to use nearby wildlife crossings, the goal of Environmental Sustainability could be partially met. Educational Benefits: A mater s student in the Utah State University department of Wildland Resources will be supported with funds from this research. It is expected the student will receive their master s of science in wildlife ecology from this work. Results could be shared in Department of Wildland Resources seminars, wildlife management classes, and Utah State University Civil Engineering courses. Dr. Cramer, P.I. for this research has already presented similar work at undergraduate civil engineering courses and could present the results there. The P.I. also presents finding of wildlife and road research each year at the UDOT Engineers Conference. The results of this study would be presented at this conference as well, in the form of a talk and a student poster. The master s student would also submit the study s results to the International Conference on Ecology and Transportation for a poster or talk. Work Plan: Major Tasks/Steps & Completion Dates 1. Recruit Graduate Student 6/13. Field work - establish monitoring cameras on existing guards on US 6, I-15, I-170, I-80, US 91 10/13 3. Research & select potential deterrent devices 6/14 4. Purchase, create, mount deterrent devices on single cattle guards 3/14 5. Monitor guards with new devices, also continue to monitor other guards 6/15 6. Analyze pictures to evaluate how well devices work-stage 1 10/14 7. Adaptively Manage study to make changes to devices Stage 1/14 8. Analyze pictures to evaluate changes Stage 3 6/15 9. Statistical analyses 5/15 10. Final Analyses 6/15 11. Remove cameras, end field work 6/15 1. Draft Report 7/15 13. Final Report 8/15 14. Technology Transfer plan research seminar via the Transportation Learning Network, UDOT Engineers Conference 11/14, 11/15 4 6 8 10 1 Months from Start Date 1 1 1 4 6 8 0 4

Project Cost: Total Project Costs: $ 10,936 MPC Funds Requested: $ 50,000 Matching Funds: $ 5,936 Source of Matching Funds: UDOT, Region 4 TRB Keywords: Wildlife, wildlife crossing structure, wildlife fencing, cattle guard, wildlife guard, Electric mat, Electromat, fencing References: Hedlund, J. H., P. C. Curtis, G. Curtis, and A. F. Williams. 004. Methods to reduce traffic crashes involving deer: what works and what does not. Traffic Injury Prevention, 5: 1-131. Holland-Allen, T. D. 011. The use of wildlife underpasses and the barrier effect of wildlife guards for deer and black bear. Master s Thesis, Montana State University, Bozeman, Montana. 8 pages. Huijser, M. P., J. W. Duffield, A. P. Clevenger, R. J. Ament, and P. T. McGowen. 009. Cost benefit analyses of mitigation measures aimed at reducing collisions with large ungulates in the United States and Canada; a decision support tool. Ecology and Society 14(): 15. URL: http://www.ecologyandsociety.org/vol14/iss/art15/ Seamans, T. W. and D. A. Helon. 008a. Comparison of electrified mats and cattle guards to control White-tailed deer (Odocoileus virgninianus) access through fences. USDA National Wildlife Research Center Staff Publications. Paper 798. URL: http: //digitalcommons. Unl.edu./icwdm_usdanwrc/798 Seamans, T. W. and D. A Helon. 008b. Evaluation of an electrified mat as a white-tailed deer (Odocoileus virginianus) barrier. International Journal of Pest Management, 54:89-94. URL: http://dx.doi.org/10.1080/0967087070154964