PG&E s Distribution Resource Plan

Similar documents
Integration Capacity Analysis Workshop 11/10/15 California IOU s Approach

PACIFIC GAS AND ELECTRIC COMPANY ELECTRIC DISTRIBUTION RESOURCES PLAN

EE and Reliability: SCE s LCR RFO and Preferred Resources Pilot. ACEEE Energy Efficiency as a Resource National Conference Mohammed Aliuddin

Net Energy Metering and the Future of Distributed Generation

Preparing for Distributed Energy Resources

PG&E and Renewable Energy. Chuck Hornbrook Senior Manager Solar and Customer Generation

Comments of the Edison Electric Institute Net Benefits and Costs of Distributed Solar Energy and Innovative Solar Deployment Models, DOE-EERE

Tehachapi Wind Energy Storage Project (TSP)

New York Battery and Energy Storage Technology Consortium, Inc.

About Southern California Edison

Demand Response Management System ABB Smart Grid solution for demand response programs, distributed energy management and commercial operations

BEFORE THE PUBLIC UTILITIES COMMISSION OF THE STATE OF CALIFORNIA ) ) ) )

Advanced Inverter Overview

2014 EIA Energy Conference. Edward Randolph Director, Energy Division California Public Utilities Commission

Renewable and Alternative Energy Outlook

High Penetration of Distributed Solar PV Generation

ENERGY EFFICIENCY: A GROWING UTILITY-BUSINESS SOLUTION TO RELIABILITY, AFFORDABILITY, & SUSTAINABILITY

Combined Heat and Power (CHP) En Banc Hearing October 7, 2014, University of Pittsburgh

SCE s Transactive Energy Demonstration Project. GWAC Workshop Bob Yinger December 10-11, 2013

Local Solar. bikeriderlondon / Shutterstock.com. Local Solar Power

Grid Edge Control Extracting Value from the Distribution System

Enterprise Approach to OSIsoft PI System

Next Generation Integrated Resource Planning

A Virtual Power Plant to balance wind energy - A Canadian Smart Grid Project. Number of customers

White Paper. Convergence of Information and Operation Technologies (IT & OT) to Build a Successful Smart Grid

Distributed Energy Resource Options and The Importance of The Electric Power Grid

CALIFORNIA PERSPECTIVE ON HIGH PENETRATION PV

APPENDIX A PG&E s Smart Grid Deployment Plan

Distributed PV the road California is already on. Public Interest Environmental Law Conference Bill Powers, P.E., Powers Engineering March 5, 2011

Evolution of the smart grid in China

California Energy Commission 2015 Accomplishments

Appendix F. DRECP Energy Development Assumptions and the BLM LUPA

The California Solar Initiative

PG&E and Renewables. Finding the ROI in Green Programs. Andrew Yip Manager Solar and Customer Generation Integrated Demand-Side Management

Philadelphia Navy Yard Microgrid Modernization. Will Agate LEED AP Senior Vice President Philadelphia Industrial Development Corporation (PIDC)

Energy Storage Systems and Role for the US Grid

UNITED STATES OF AMERICA FEDERAL ENERGY REGULATORY COMMISSION

Solar Asset Management and Performance Monitoring: Panel-to- Grid

Demand Response Management System Smart systems for Consumer engagement By Vikram Gandotra Siemens Smart Grid

RE-POWERING MARKETS Market design and regulation during the transition to low-carbon power systems

Microgrid Building block for Smart Cities

Generator Interconnection and Deliverability Study Methodology Technical Paper

Sustainable and Renewable Energy Development Authority (SREDA) of Bangladesh Role and Responsibility

Utilities the way we see it

ELECTRIC UTILITY INTEGRATED RESOURCE PLAN (IRP)

CPUC California Solar Initiative 2010 Impact Evaluation

Risk Management, Equipment Protection, Monitoring and Incidence Response, Policy/Planning, and Access/Audit

Re: Case 14-M-0101 Proceeding on the Motion of the Commission in Regard to Reforming the Energy Vision Track 1 Policy Issues

Andres Carvallo CMG Founder & CEO Co-Author of The Advanced Smart Grid Former Austin Energy CIO ( )

2016 ERCOT System Planning Long-Term Hourly Peak Demand and Energy Forecast December 31, 2015

The Smart Grid: Utility Master Energy & Sustainability Planning

ENA Submission to the Parliamentary Renewable and Sustainable Energy Group Inquiry into the access and management of renewables and the Grid

An Oracle White Paper May Smart Grid Basics. Turning Information into Power

Managing Portfolios of DSM Resources and Reducing Regulatory Risks: A Case Study of Nevada

Office of Electricity Delivery & Energy Reliability. US DOE Microgrid R&D Program

Naperville Smart Grid Initiative

Public Service Co. of New Mexico (PNM) - PV Plus Storage for Simultaneous Voltage Smoothing and Peak Shifting

Energy Storage - Program 94

PACIFIC GAS AND ELECTRIC COMPANY ELECTRIC PROGRAM INVESTMENT CHARGE TRIENNIAL PLAN ( ) MAY 1, 2014 ATTACHMENT 1

Renewables Policy: A California Perspective

Hawai i s PV Challenge/Opportunity

Solar Resource Measurement Importance. Wil Grady P.E. Southern California Edison Power Supply NREL PV Solar Resource Workshop Denver 2015

Grid of the Future. Integration of Renewables Energy Storage Smart Grid. Presentation by David Hawkins Lead Renewables Power Engineer Grid Operations

Research and Development: Advancing Solar Energy in California

Emilio Camacho, Esq.

The Future of Grid Control: Smart Grid and Beyond John D. McDonald, P.E. Director Technical Strategy & Policy Development

SmartSacramento. Green Summit Jim Parks Program Manager SmartSacramento Team. April 19, 2011

Vectren Integrated Resource Plan (IRP) Stakeholder Meeting 3 of 3. Discussion of Analysis Results September 24, 2014

I. TODAY S UTILITY INFRASTRUCTURE vs. FUTURE USE CASES...1 II. MARKET & PLATFORM REQUIREMENTS...2

Sanjeev Choudhary SunEdison Advanced Solutions

Energy Efficiency and Demand Response Programs in the United States

Smart Grid Business Case Analysis. Rochester Public Utilities

Power Purchase Agreements (PPAs) + Meter Aggregation for Water Districts

Addressing the U.S. Department of Defense Mission Assurance Concerns and Renewable Energy Mandates

Deep Dive on Microgrid Technologies

Smart Grid Different Flavors for Different Tastes

APPLICATION NOTE. Increasing PV Hosting Capacity on LV Secondary Circuits with the Gridco System empower TM Solution

Energy Storage Cost effectiveness Methodology and Results

Transcription:

PG&E s Distribution Resource Plan The Utility Energy Forum Spring 2016 Conference Presentation Developed for Panel Discussion Lake Tahoe, California May 2016 READ AND DELETE For best results with this template, use PowerPoint 2003

About Pacific Gas and Electric Company (PG&E) 70,000 square-mile service area Provides energy services to 15 million Northern Californians 5.1 million electric customer accounts 4.3 million natural gas customer accounts 22,000 employees $15.6 billion in revenues > 50% of PG&E s electric supply comes from non-ghg gas emitting sources

PUC Code Section 769 AB 327 Added PUC Code Section 769 Distributed Energy Resources (DER) means: Distributed Renewable Generation Energy Storage Energy Efficiency Demand Response Electric Vehicles Submit a distribution resources plan proposal to the CPUC by July 1, 2015 o o o o o Evaluate locational benefits and costs of DERs located on distribution system. This evaluation shall be based on reductions or increases in local generation capacity needs, avoided or increased investments in distribution infrastructure, safety benefits, reliability benefits, and any other savings the distributed resources provide to the electrical grid or costs to ratepayers of the electrical corporation. Recommend standard tariffs, contracts, or other mechanisms for deployment of cost-effective DER Propose effective coordination of existing commission-approved programs, incentives, and tariffs to maximize DER locational benefits Identify additional utility spending to integrate cost effective DER into Distribution Planning to yield net benefits to ratepayers Identify barriers to deployment of DER, including, but not limited to, safety standards related to technology or operation of the distribution system in a manner that ensures reliability

Electric Distribution Resource Plan (EDRP) OIR Objectives Modernize distribution system to accommodate expected DER growth through two-way power flow Enable customer choice of new electric DER technologies and services Identify and develop opportunities for DERs to realize grid benefits Identify Optimal Locations for deployment of DERs

Integrating DER (IDER) OIR Objectives DRP establishes optimal locations and locational value for DERs IDER establishes Sourcing Framework for DERs Sourcing to be done through some combination of Pricing, Programs and Procurement Create a Sourcing Framework for Integration of DERs

PG&E s Policy and Vision DRP/IDER will enable significant DER integration and support California s Clean Energy Vision PG&E s role is essential to achieving California s goals for safe, clean, affordable, reliable and resilient energy PG&E s initial EDRP serves as the technical foundation for integrating DER. IDER OIR s envisioned sourcing framework serves as the commercial foundation for integrating DER Achieving the long term EDRP/IDER vision will require coordinated electricity pricing and tariff reform, enhanced customer program delivery mechanisms and complementary DER procurement processes.

3 2 4 1 - Shingle Springs 2 - Mendocino 3 - Point Arena 4 - Molino 5 - Old Kearney 1 5 Integrated Distribution Planning Framework IEPR DRP IDER (Sourcing Process to Satisfy DRP Needs) 1 2 3 4 5 Assumptions, Scenarios & Scope Distribution Planning Assessment Distribution Grid Needs Evaluate Options Distribution Portfolio Develop forecasts, assumptions and planning scenarios. Distribution Grid Studies Thermal Voltage Protection Safety and Reliability Distribution Grid Needs Load Serving Capacity DER Hosting Capacity DER Aggregator Requirements Coordination with Transmission Planning Prioritize Grid Needs Locational Net Benefit Analysis Investment framework/technical Feasibility Sourcing Process to satisfy needs identified in IDPP Implement Wires alternatives for locations deemed infeasible for DERs Overall Substation Location Map Implement Wires Solution The Integrated Distribution Planning Process (IDPP) will be an annual process to identify distribution deficiencies that can be addressed with cost effective Non-Wires (DER) alternatives.

PG&E s Initial DRP serves as Technical Foundation for Integrating DERs into Planning and Operations Distribution feeder capacity to safely and reliably accommodate DER growth Integration Capacity Locational Benefits and Costs Quantification of DER locational value DER benefits and costs that impact rates Scenarios of DER portfolio growth Assess impacts to distribution grid DER Growth Scenarios Demonstrations Demonstration of DER integration into planning, operations and investment

DER Growth Scenarios

DER Growth Scenarios - Goal Better understand the magnitude and location of potential DER adoption to inform distribution system planning

PG&E Interpretation of DRP Guidance on DER Growth Scenarios Scenario 1 - Trajectory PG&E s best current estimate of expected DER adoption Scenario 2 High Growth Reflects ambitious levels of DER deployment that are possible with increased policy interventions and/or technology/market innovations Scenario 3 Very High Growth Likely to materialize only with significant policy interventions such as: zero net energy (ZNE) requirements and deeper GHG reduction targets.

Approach to Developing DER Growth Scenarios System-Level Forecasts Based On: Market analyst reports CPUC potential studies (EE) Existing procurement requirements Internal PG&E analysis Geographic Dispersion/Allocation to Circuit Varied by DER: DG deployment allocated based on key adoption drivers identified through multivariate regression analysis Location-specific DR load reductions developed using established econometric models and experimental design techniques EE location specific scenarios based on potential studies and allocations based on customer composition in local areas Wholesale energy storage deployment allocated based on siting assumptions attributed to three generic project configurations

Key Findings 1. DER growth may result in a significant net reduction in peak load 2. EE & Retail PV account for majority of DER capacity growth 3. DER deployment is likely to be clustered 4. Understanding customer load and adoption patterns is important for estimating potential DER growth 5. Distribution system impacts from DER growth depend on: Local load patterns DER technology generation/operation profiles DER communications, controls, dispatchability and services provided

DER Growth Scenarios Scenario 1 Trajectory: PG&E Expected (IEPR w/adjustment for PV and EV) Scenario 2 High: Significant policy interventions combined w/ tech./market innovations Scenario 3 Very High: Aggressive policy interventions such as: ZEV mandate ZNE 2030 GHG emissions reduction goals DR at 5% Peak Cumulative MWs at PG&E System Peak (HE 17 Aug)

MWs Cap. Estimated at System Peak Finding 2: Estimated impact at peak greatest for energy efficiency and retail solar 8,000 7,000 6,000 5,000 4,000 3,000 2,000 1,000 - (1,000) (2008-2014) 2017 2020 2025 Distributed Wholesale Energy Storage 6 6 40 97 CHP from Feed in Tariffs 9.6 30 50 83 Retail Storage 7.4 34 68 156 Retail Non-PV DG 92 153 220 347 Wholesale DG 302 443 590 631 Retail PV 396 916 1,317 2,052 Energy Efficiency 1,318 1,770 2,134 2,809 Demand Response 627 845 834 841 Electric Vehicles (16) (48) (95) (248)

Key Uncertainties and Limitations Utility currently has limited visibility, operational control and ability to influence geographic location of DER assets Deployment is currently optimized on customer economics, not utility cost drivers Historical DER consumer behavior may not be indicative of future patterns DER adoption is heavily determined by uncertain future policy developments Limited sample size for some technologies constrains PG&E s ability to elicit general trends that can be applied across our service area

Enhancing the Distribution Planning Tools EPIC 2.22 and EPIC 2.23

The Drill Down: Assessment and Tools 18

EPIC Project 2.23 -- Background & Overview Project Objective Enhance existing analytical tools (LoadSEER and CYME) to evaluate DER scenarios for integration into utility investment planning. Concern, Problem, or Gap to be Addressed 1. Need to develop standardized and transparent distribution planning tools that incorporate DERs. 2. Need for significant engineer staff resources to perform Ad Hoc analysis for DER integration planning. Key Deliverables 1. Enhanced catalog of customer load and DER shapes in LoadSEER to improve local area load growth forecasting. 2. Incorporation of multiple DER projection scenarios into LoadSEER to allow potential impacts of DERs to be studied in the planning process. 3. Build capability to incorporate a streamlined Integration Capacity Analysis (ICA) into LoadSEER and CYME. 4. Enhanced CYME circuit modeling to facilitate analysis of DERs and forecasted loads to greater spatial and hourly level. 5. Enhanced data transfer capabilities between LoadSEER and CYME and other data bases used for planning studies such as PI and TeraData (AMI data). 19

EPIC Project 2.23 -- Enhanced Load Shapes Catalogue Transferred historical interval data to vendor with typical monthly/daily load shapes for each feeder Incorporated circuit load shape and customer class load shapes into LoadSEER Deliverable: Develop enhanced Customer and DER Load Shapes Catalog in LoadSEER Planning Tool. Significance: Successfully combined available SCADA load information data with 3 years of historical interval meter data for all 5 million PG&E electric customers. Currently only have 4 customer load shapes for each of the 255 Distribution Planning Areas (DPAs). With 3,200+ feeders, this deliverable will create a catalog of ~320,000+ load shapes that creates a granular load shape, specific to each feeder. In future iterations, ability to create custom load shapes. 20

EPIC Project 2.23-- Incorporation of DER Growth Scenarios Bank forecast that includes the Additional Achievable Energy Efficiency (AAEE) & PV forecast Deliverable: Incorporate DER Scenario Projections into LoadSEER Significance: Provides transparent and consistent insight into which DER penetration scenarios (e.g. high DG penetration or high EE penetration ) can mitigate potential feeder, bank or DPA overload. 21

The Utility Energy Forum Spring Conference 2016 22

+AAEE The Utility Energy Forum 23

+AAEE +DG The Utility Energy Forum 24

25 Learn about California s leading model for energy efficiency and how PG&E works with customers and partners to achieve success in saving energy. www.caenergyefficiencymodel.com Thank you!