Project Advisor: Dr. Thomas Schmid

Slides:



Advertisements
Similar presentations
BACKGROUND: We are finding an increase in instances where the available fault current at underground (UG) 1-phase residential service entrance equipment.
Advertisements

Undergraduate Renewable Energy Courses and Certification Tests John Martini University of Arkansas – Fort Smith ASSET II Annual Meeting Springdale, AR.
- Recent innovative start-up based in Marseille - -Development of Wesby Patented solution - Important experience in the industry -Start : software to communicate.
Identifying opportunities to improve the efficiency of power transmission through existing Overhead Power Lines Konstantinos Kopsidas Supergen - AMPerES.
Engineering Overview Presenter’s Name
Rocky Mountain Power 2011 Clinic Dynamic Line Rating System Zhao Qi University of Utah.
Rocky Mountain Power 2011 Clinic Project Dynamic Line Rating Preliminary Design Review Project Advisor: Dr. Thomas Schmid Clinic Team Members: Skyler Kershner,
1 OVERVIEW Validate the Measurement Measure Conductor Temperature Time Line Budget Conclusion.
EE 311: EE Junior Lab Experiment 5 - Single Phase Transformers J. Carroll 9/25/06.
EXCITATION SYSTEM.
Team 2 Solar Kiosk Project Sponsored by: Team Members: Jakub Mazur - Manager Eric Tarkleson – Presentation/Lab Josh Wong - Webmaster Ben Kershner – Document.
Rocky Mountain Power 2011 Clinic Project Dynamic Line Rating Preliminary Design Review Project Advisor: Dr. Thomas Schmid Clinic Team Members: Skyler Kershner,
Electrical Systems Electrical Engineering in Railways –Rolling Stock –Communications & Control –Signalling –LV Installations in Stations and Buildings.
Lecture 8 Transmission Lines, Transformers, Per Unit Professor Tom Overbye Department of Electrical and Computer Engineering ECE 476 POWER SYSTEM ANALYSIS.
1 PCA2 On-load Protection Condition Analyser. 2 PCA2 online testing concept Concept introduction: PCA2 is a new system test approach intended to save.
Basic Electricity.
Multiple-Output, Variable-Output DC Power Supply - Phase 2 May 04-08
DC-DC Fundamentals 1.2 Linear Regulator. What is a Linear Regulator? The linear regulator is a DC-DC converter to provide a constant voltage output without.
SECTION 4 ELECTRIC MOTORS UNIT 19 MOTOR CONTROLS.
1 Neural plug-in motor coil thermal modeling Mo-Yuen Chow; Tipsuwan Y Industrial Electronics Society, IECON 26th Annual Conference of the IEEE, Volume:
Section 4: Electric Motors
1 Hands-On, Minds-On, Hearts-On Intrusion and Access Control Security Technology Department Chapter 1 Fundamentals in electrical measurements.
Lesson 9: Electrical Components
Patrick Lazar, Tausif Shaikh, Johanna Thomas, Kaleel Mahmood
Incident Energy Study Christian Brothers University MAESC CONFERENCE Jermichael Beaver, Bruce Luong, David Temple, and John Ventura.
All rights reserved. FUTEK 2006 SENSOR SOLUTION TIPS Presented by: Javad Mokhbery (President)
Electrical Installation 2
2015 IEEE Rural Electric Power Conference Asheville, North Carolina.
COMMERCIAL ELECTRICAL (Chapter 11)
A New Algorithm for Improving the Remote Sensing Data Transmission over the LEO Satellite Channels Ali Payandeh and Mohammad Reza Aref Applied Science.
Electrical Distribution Systems
TWENTIES : EU project Massive integration of renewable T&D Smartgrids How cable dynamics may help ? ISCD Shanghai- October 18th, 2011 J ean-Louis.
Prepared By :.  Introduction  Techniques Used  Case Study  Advantages  Application  Conclusion OUTLINE.
ImAP RSD Ongo-02a Image Acquisition and Processing of Remotely Sensed Data.
Functional Requirements Generate an AC current Supply an output of 500 to 1000 Watts Supply power to the Coover Hall grid Turn off in high wind speeds.
Power and Power Measurement ENGR 10 – Intro to Engineering College of Engineering San Jose State University (Ping Hsu and Ken Youssefi) 1 Introduction.
Assumption University Thailand EE4503 Electrical Systems Design Main Circuit 1.
Dynamic Thermal Ratings for Overhead Lines Philip Taylor, Irina Makhkamova, Andrea Michiorri Energy Group, School of Engineering Durham University.
Problem Statement Automotive and heavy equipment applications use sensors on machines to report temperatures, pressures, speeds, etc. to a central embedded.
Group Members Mike Svendsen – Computer Engineer Steve Towey – Computer Engineer Brian Walker – Architect Richard George – Industrial Technology Client.
Energy Curriculum Advanced Transportation Technology and Energy Initiative.
UTILIZING HIGH ALTITUDE BALLOON PLATFORMS FOR SUPER RESOLUTION IMAGING JACK LIGHTHOLDER MENTOR: DR. TOM SHARP SPACE GRANT SYMPOSIUM APRIL 18 TH, 2015.
Hyung-Jo Jung Sejong University, Korea Hyung-Jo Jung Sejong University, Korea Kang-Min Choi Korea Advanced Inst. of Science and Tech. Kang-Min Choi Korea.
Casey Smith Doug Ritchie Fred Lloyd Michael Geary School of Electrical and Computer Engineering December 15, 2011 ECE 4007 Automated Speed Enforcement.
Inphase III, Implementation is the main task to be done, starting from the converters designed and simulated in phase II and, going through tests of these.
ENGR 107: Engineering Fundamentals Lecture 7: The Engineering Design Process: Making Design Decisions Using Tradeoff Analyses C. Schaefer September 29,
MSU SeaMATE ROV Explorer Class
Mid Semester Presentation Draft February 17, 2011.
Photovoltaic Power System Monitor Josh Stone Ryan Mann Art Barnes Austin Fisher.
Development and Test of Simultaneous Power Analysis System for Three-Phase and Four-Wire Power System Hun Oh 1, In Ho Ryu 2 and Jeong-Chay Jeon 3 * 1 Department.
ATM OCN 100 Summer ATM OCN Summer 2000 LECTURE 5 AIR TEMPERATURE: A Fundamental Weather Element u A. BACKGROUND u B. THERMOMETRY u C. CLIMATOLOGY.
Chapter # 8 Mechanical Design of Overhead Lines.
MECHATRONICS Group # Group Members’ Names MENG 483 Project Title of the Project Spring 20XX.
©2012 QuEST Global Services Pte Ltd. The information in this document is the property of QuEST Global Services Pte Ltd. and may not be copied or communicated.
REDA Production Systems
Part Three – Relay Input Sources
HNC/D Engineering Science
Lessons Learned Implementing an IEC based Microgrid Power-Management System October 12, 2015 Presented by: Jared Mraz, P.E.
Rotor Pole Temperature Sensor Network
ABB STOTZ-KONTAKT GmbH ABB i-bus® KNX Weather Unit, Weather Sensor
Automated power Factor Correction and Energy Monitoring System
Portable Working Standard
IPS-SLR™ Static Line Rating Module and ElectraNet Use Case IPS-ENERGY™
Design of Electric Power Systems and Utilities
Engineering Project Cable Management.
Control System Instrumentation
A Tutorial on the Application and Setting of Collector Feeder Overcurrent Relays at Wind Electric Power Plants By: Stephanie Mercer.
Transformer Loading Considerations
Presentation transcript:

Rocky Mountain Power 2011 Clinic Project Dynamic Line Rating Preliminary Design Review Project Advisor: Dr. Thomas Schmid Clinic Team Members: Skyler Kershner, Benjamin Sondelski, Trevor Nichols, Shayan Barzagari, Zhao Qi

Presentation Overview Project Background Goals Proposed Solution Additional Considerations System Implementation Model Expected Results Budget / Timeline

Project Background Overhead Conductor Sag National Electrical Safety Code specifies minimum clearance As conductor heats, sag increases Environmental, power considerations Dynamic line rating system needed [1] Clearance Levels

[2] Line Sag Illustration Project Goals Develop dynamic line rating system Combine best characteristics of commercially available models Simple design Implement system in a model Validate collected data [2] Line Sag Illustration

Proposed Method: Thermal Imaging Directly measures sag and line temperature Non-contact measurement [4] Configuration [5] Camera View

Proposed Method: Thermal Imaging Provides high contrast images, temperature measurement Image processing tracks lowest point in line [6] Thermal Image

Proposed Method: Thermal Imaging Limitation: Cost Model Price $19,500 FLIR T620 [7] $13,500 FLIR SC325 [8] FLIR E60 $7,500 [9]

Conclusion Need for dynamic line rating Goals Thermal imaging as potential solution Limitations of thermal imaging Other methods needed

Overview Sag – Tension rating and calculation Tension as a solution Tension as a problem Design Problems/Solutions** Conclusion

Tension as a Possible Solution All-Inclusive Measurement line temperature, environment temperature, solar absorption Accuracy Simplicity Low-Power Draw

Sag-Tension Rating and Calculations D – Vertical sag S – Horizontal length of the span W – Unit weight of the conductor Tr – Resultant conductor tension Th – Horizontal component of tension Fig. 1 Parabolic Sag Curve [10]

Tension as a Possible Problem Cost Actual implementation Required line outage for installation Ice and wind loading Length of Conductor Stretching and high temperatures

Design Problems/Solutions Ice loading Wind loading For structures below 60 feet: For structures exceed 60 feet: Resultant ice and wind loading

Conclusion Overview of Tension Tension pros Tension cons Solutions to tension cons

Overview Magnetic Field Sensing Implementation difficulties Build a model - advantages Conclusion

Magnetic Field Sensor [11] Three Axis Magnetic Field Sensor MAGNETOMETER RS232 W/CASE High Accuracy, <0.5% Full Scale 10 to 154 Sample/Sec Low Power consumption Input voltage range 6 to 15 (VDC) [11]

Magnetic Field Measurement Difficulties

Build a Model Test wide range of aspects Control experiment variables and environment Develop realistically implementable solutions Retain a low budget

Conclusion Magnetic Sensing Magnetic Difficulties Advantages of Model

Overview Proposed Solution Math defining model requirements Measuring Temperature Conclusion

Proposed Solution Mock thermal imaging system [12] [13] Build a model scaled down to 1:30 ratio Approximately 600 feet scaled to 20 feet Measure sag in a controlled environment Clinic Lab – Merrill Engineering Building 2350 Develop an effective dynamic line rating system

Math defining model Tension in the line – direct effect of line temperature Temperature – direct effect of amount of line current Amperage – controlled system input

MEASURING TEMPRATURE

MEASURING TEMPRATURE

Conclusion Mock thermal imaging Proposed Solution Characteristics of model Mock thermal imaging IR thermometer IR video camera

Physical Model: Introduction benefits of in-house scale model power supply electrical diagram conductor span expected model performance

Benefits of In-House Scale Model communications controlled environment simple comparison to IEEE 738 no exposure to weather verification of thermal time constant test bed for future clinics

Power Supply need 480V, 3 phase 208V 3 phase is available 2kVA each power supply losses

Model Electrical Diagram National Electrical Code: bonding and grounding conductor sizing overcurrent protection ground detector

Conductor Span 1½″ PVC structure (FORMUFIT connectors) transparent covering (acrylic or polycarbonate) dead-end attachments

Expected Model Performance 20′ span 200lbs tension at 25°C Sparrow ACSR

Physical Model: Conclusion benefits of in-house scale model power supply electrical diagram conductor span expected model performance

Budget Qty Description Cost Total Total: $1566 1 Transformer $0 2 Cable Transformer Pad $20 $40 4 Various lugs, clamps, connectors $80 Circuit breaker $300 3 Locking plug $42 $126 Tension meter $1000 Total: $1566

Timeline

CONCLUSION Measure Sag Build a Model Desirable: Measure Conductor Temperature Due to budget, use Temp Sensor and IR Camera Validate Measurement Measuring Tension Magnetic Sensor

Contact Info / References Rocky Mountain Power Clinic Team University of Utah Electrical and Computer Engineering Department rmpclinic-2011-2012@lists.utah.edu References [1] “Clearance Levels”, Oct. 3, 2011. [Online]. Available: http://www.pge.com/mybusiness/customerservice/otherrequests/treetrimming/faq/orchard/index.shtml. [2] “Line Sag Illustration”, Oct. 3, 2011. [Online]. Available: http://redefinescience.blogspot.com/2011/05/power-lines.html. [3] “Tension Illustration”, Oct. 3, 2011. [Online]. Available: http://www.ehow.com/how_8049821_calculate-transmission-line-tension.html. [4] “Configuration”, Oct. 3, 2011. [Online]. Available: http://www.eng-tips.com/viewthread.cfm?qid=139418&page=274. [5] ”Power Line View”, Oct. 3, 2011. [Online]. Available: http://forcechange.com/2190/proposed-legislation-would-speed-up-permitting-process-for-transmission-lines. [6] “Thermal Image”, Oct. 3, 2011. [Online]. Available: http://www.x20.org/thermal/. [7] “FLIR T620”, Oct. 3, 2011. [Online]. Available: http://www.flir.com/thermography/americas/us/content/?id=18118. [8] “FLIR SC325”, Oct. 3, 2011. [Online]. Available: http://www.flir.com/thermography/americas/us/content/?id=31095. [9] “FLIR E60”, Oct. 3, 2011. [Online]. Available: http://www.flir.com/thermography/americas/us/content/?id=36820. [10] “Sag and Tension”, Sep. 20, 2011. [Online]. Available: http://www.iaei.org/magazine/2004/05/the-effects-of-ruling-span-on-sag-and-tension/ [11] “Smart Digital Magnetometer HMR2300”, Sep. 30, 2011. [Online]. Available: http://www51.honeywell.com/aero/common/documents/myaerospacecatalog- documents/Missiles-Munitions/HMR2300.pdf. [12] “IR Thermo Gun”, Sep. 29, 2011. [Online]. Available: http://chaermai.en.ecplaza.net/2.asp. [13] “IR Security Camera”, Sep. 29, 2011. [Online]. Available: http://www.buy.com/retail/product.asp?sku=224174617&listingid=157870950&&