An alliance to support CA local government SEEC ClearPath California 101: Getting Started December 2014
An alliance to support CA local government
SEEC ClearPath California 101:
Getting Started
December 2014
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Contents
1. Introduction……………………………………………………………………………………………………………………….……….4
a. About this guide…………………………………………………………………………………………………………….4
b. Online trainings………………………………………………………………………………………………………………4
c. Selecting a track……………………………………………………………………………………………………………..4
d. Tool modules……………………………….…………………………………………………………………………………5
2. Inventories………………………………………………………………………………………………………………………………….6
a. Scoping…………………………………………………………………………………………………………………………..6
b. Data collection……………………………………………………………………………………………………………….7
c. Factor sets……………………………………………………………………………………………………………………..9
d. Data entry………………………………………………………………………………………………………………………9
3. Forecasts…………………………………………………………………………………………………………………………………..12
a. Data collection……………………………………………………………………………………………………………..12
b. Annual growth rates…………………………………………………………………………………………………….13
c. Factor sets……………………………………………………………………………………………………………………15
d. State polices…………………………………………………………………………………………………………………15
e. Applying growth rate factors to the forecast module.…………………………………………………16
4. Planning……………………………………………………………………………………………………………………………………18
a. Set reduction goals…………………………………………………………………………………………………….…18
b. Create reduction strategies…….……………………………………………………………………………….…..19
c. Create scenario…………………………………………………………………………………………………………….20
Appendix 1: Factor set tables for solid waste and electricity…..……………………………………………………….23
Appendix 2: Transportation emissions factors…………..…………………………………………………………………….25
Appendix 3: Registering for SEEC ClearPath CA………………………………………………………………………….…...27
The Statewide Energy Efficiency Collaborative (SEEC)
is an alliance between the Local Government
Commission, ICLEI Local Governments for
Sustainability, the Institute for Local Government and
California’s four investor-owned utilities. This program
is funded by California utility customers and
administered by Pacific Gas and Electric Company®,
San Diego Gas & Electric Company®, Southern
California Edison® and Southern California Gas
Company under the auspices of the California Public
Utilities Commission.
www.californiaseec.org
© 2015 Statewide Energy Efficiency Collaborative. Trademarks
are property of their respective owners. All rights reserved.
SEEC partners:
・ICLEI, Local Governments for Sustainability
・Institute for Local Government
・Local Government Commission
・Pacific Gas and Electric Company
・San Diego Gas & Electric Company®
・Southern California Edison
・Southern California Gas Company
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Introduction
About this Guide
SEEC ClearPath California is a powerful tool to help you measure and track greenhouse gas (GHG)
emissions in your community. This guide provides an introduction to the basic structure of SEEC
ClearPath CA and to important concepts that will help you use the tool effectively. Once you have read
this introduction, please refer to the detailed user guides for each SEEC ClearPath CA module, which can
be accessed from the SEEC ClearPath CA home screen. If you have not already registered for a username
and password to use SEEC ClearPath CA, detailed instructions on doing so are provided in Appendix 3.
Online Training
An extensive set of online self-paced recorded trainings is available through www.californiaseec.org to
help you use SEEC ClearPath CA, and to get started with your inventory, forecast or climate action plan.
To view these trainings, follow these two simple steps:
• Step 1: Select ‘Resources and Guidance’
• Step 2: Check the ‘On-demand Training’ box under resource type
You may further narrow the results by checking boxes under ‘Browse by Topic’, if you wish. If you are
new to greenhouse gas measurement and management, it is recommended that you view the trainings
relevant to the task you are trying to complete (inventory, climate action plan, etc.) and then come back
to this quick start guide as a reference as you use SEEC ClearPath CA.
Figure 1: Accessing online trainings
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Selecting a Track
Figure 2: Selecting a Track
After logging into SEEC ClearPath CA, you will need to select either the government operations or
community track to begin, as shown in Figure 2. SEEC ClearPath CA allows analysis of GHG emissions
data at two different scales:
• The government track addresses things like buildings owned by your local government, and the
vehicle fleet it operates.
• The community-scale track is much broader and includes homes, businesses, and privately
operated vehicles in the community.
These two tracks are kept separate within the tool, although you can switch back and forth to enter data
in both.
Tool Modules
Within each of the government operations and community tracks, SEEC ClearPath CA is organized into
modules for each of the major tasks the tool can assist with. This organization is shown in Figure 3.
Click here to start
government
operations analysis
Click here to start
community analysis
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Inventory
•Baseline conditions
•Relationships between activities and emissions
Forecast
•Projected levels of future activites
•Expected changes to relationships between activities and emissions
Planning
•Scenarios of combinations of mitigation actions
•Expected performance of mitigation actions in forecasted conditions
Monitoring
•Compare performance of mitigation actions against expectations
•Compare performance of inventories against expectations
Figure 3: Basic structure and workflow of SEEC ClearPath CA.
Inventories
A greenhouse gas (GHG) emissions inventory estimates the quantity of GHG emissions associated with a
community, or with government operations, during a chosen analysis year. Protocols provide the
approach for each kind of inventory, and the calculation methods that are used in SEEC ClearPath CA.
Government operations inventories are governed by the Local Government Operations Protocol, while
community inventories are governed by the Community Protocol. Inventories serve two purposes. One
is to establish the baseline conditions that will be used to project future emissions and set goals. The
other purpose is to perform periodic performance checks to measure progress against the baseline and
goals.
For background information on inventories, see the Quick Start Guide for Conducting a Greenhouse Gas
Emissions Inventory, and for more detail on using the SEEC ClearPath CA inventory module, see the
Inventory Module User Guide (both available through www.californiaseec.org).
Forecasts
Once you have completed a GHG inventory for a baseline year, the forecast module will help you to
project business-as-usual emissions into the future (what emissions would be in the absence of local
action to reduce emissions). See the Forecast Module User Guide for more detail.
Planning
The planning module will help you develop a climate action plan, which lays out a set of discrete,
specific actions that collectively will reduce GHG emissions to meet a target chosen by your local
government. See the Planning Module User Guide for more detail.
Monitoring
The monitoring module allows you to track implementation of climate action plan measures and the
resulting energy savings, emissions reductions and other indicators. Monitoring records connect with
measures in the climate action plan, allowing comparison of actual emissions reductions over time with
those projected. Reports also allow comparison of emissions by sector across multiple inventories. See
the Monitoring Module User Guide for more detail.
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Inventory
The steps to completing an inventory for community or government operations emissions are shown in
figure 4, and are described in more detail below.
Figure 4: Inventory steps
1. Inventory Scoping
The first step in conducting an inventory is to determine the boundaries of what is included—this
process is referred to as scoping. For a government operations inventory, this boundary is determined
by the concept of operational control. Essentially, any buildings, facilities (such as water and wastewater
treatment plants), and vehicles operated by the local government will be included in the inventory:
typical sectors and data sources for them are shown in Table 2. Determining what to include in the
community inventory will require more decisions on your part. The Community Protocol requires at
least inclusion of five basic emissions generating activities, outlined in Table 1. In addition, using the
recommended local government influence reporting framework, you should consider what other
emissions sources and activities in the community your local government may have significant influence
over.
Scoping
• Determine the emissions sources and activites to include
Data collection
• Request needed data from internal records, utilities, and other sources (see tables 1 and 2)
Factor sets
• Enter emissions factors in SEEC ClearPath CA (see Appendix 1)
Data entry• Enter data in SEEC ClearPath CA
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2. Data Collection
Tables 1 and 2 provide an overview of the data you will need to collect for government operations and
for community inventories, respectively. For more information about data collection, see the
Community Inventory Data Collection and Conditioning Instructions and the Local Government
Operations Inventory Instructions. Excel based master data work books for community and government
operations are also available to organize your data before entry into SEEC ClearPath CA if desired.
Table 1: Government Operations Inventory Data (Common sectors)
Sector Data and Where to Find Where to Enter in SEEC ClearPath CA
Local government
operated buildings
Electricity and natural gas use
from local government
records or utility
Buildings & Facilities -> Emissions from Grid
Electricity
and
Emissions from Stationary Fuel Combustion
Streetlights and traffic
signals
Electricity use from local
government records or utility
Streetlights & Traffic Signals ->
Emissions from Grid Electricity
Water and wastewater
treatment and
transport facilities
(if operated by local
government)
Electricity and natural gas use
from local government
records or utility
Emissions from Grid Electricity
and
Emissions from Stationary Fuel Combustion
Vehicle Fleet Local government records Vehicle Fleet -> Fleet Vehicle Emissions
Employee Commute Employee survey Employee Commute -> Employee Commute
Landfills (if operated by
local government)
Local government records Solid Waste Facilities -> Government
Owned/Operated Landfill
Government generated
solid waste
Local government records Solid Waste Facilities ->
Waste Generation
Utility Serving
Community
How to Access Local Government Operations Electricity and/or Natural Gas Data
PG&E Visit the Green Communities Data Portal, request access, and request reports.
http://www.pge.com/en/about/environment/whatyoucando/greencommunities/
index.page
SCE, SDG&E, and
SoCal Gas
Work with your existing account executive.
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Table 2: Community Inventory Data Collection and Entry (Basic Activities)
Five Basic Emissions
Generating Activities
Data and Where to Find Where to Enter in SEEC ClearPath CA
1. Electricity: Use of
electricity by the
community
Request aggregate usage by
residential and commercial
categories from your local
electric utility (see below).
Residential Energy-> Emissions from Grid
Electricity
and
Commercial Energy -> Emissions from
Grid Electricity
2. Natural Gas: Use of
fuel in residential and
commercial stationary
combustion equipment
Request aggregate usage by
residential and commercial
categories from your local
natural gas utility (see below).
Residential energy -> Emissions from
Stationary Fuel Combustion
and
Commercial energy -> Emissions from
Stationary Fuel Combustion
3. Transportation: On-
road passenger and
freight motor vehicle
travel
Request total community
vehicle miles traveled (VMT)
from your Metropolitan
Planning Organization (MPO).
Transportation and Mobile Sources->
*Updated* On Road Transportation
Choose ‘On-Road Factor’ Calculation
Method
4. Water: Use of energy
in potable water and
wastewater treatment
and distribution
Request from water supply
and wastewater treatment
facility operators. If
unavailable use defaults:
Water & Wastewater -> Emissions from
Wastewater Treatment Energy Use
and
Emissions from Supply of Potable Water
5. Waste: Generation of
solid waste by the
community
Request from local
government department
responsible for waste
collection.
Solid Waste -> Waste Generation
Utility Serving
Community
How to Access Community Electricity and/or Natural Gas Data
PG&E Go to:
http://www.pge.com/en/about/environment/whatyoucando/greencomm
unities/index.page
SCE Go to:
https://www.sce.com/wps/portal/home/partners/partnerships/access-
energy-usage-
data/!ut/p/b0/04_Sj9CPykssy0xPLMnMz0vMAfGjzOL9PQydPSyCDTwtwoIt
DRw9nU3MXQ09DQwMTPQLsh0VAS5Q60E!/
SDG&E Go to: sdge.com/energydata. Aggregated customer usage data reports are
publicly available through this site. An online request form is also available
on the site to enable a formal data request if additional data is needed.
SoCal Gas Go to: https://energydatarequest.socalgas.com/. From here you can view
available usage reports or submit a request for a customized report based
on user-defined criteria.
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3. Factor Sets
Factors sets are used in SEEC ClearPath CA to store numbers that are used in multiple emissions
calculations, but that are different for different communities. You will need to enter data in several
factor sets in order to complete your inventory. These factor sets and where to find the data to enter
are summarized in Table 3.
Table 3: Factor sets needed for community and government inventories
Community Inventory Factor Sets
Waste Characterization Percentages of different materials in community generated solid waste.
Use local waste characterization survey or table A1 in Appendix 1.
Grid Electricity Local emissions factors for your utility: lbs CO2/MWh, lbs CH4/GWh, lbs
N2O/GWh. These may be provided by your utility along with usage data; if
not use factors from Table A3 in Appendix 1.
Government Operations Inventory Factor Sets
Transportation Fuel efficiency for government fleet vehicles; calculate from local
government records on fuel use and miles traveled. Factors for g CH4/mi
and g N2O/mi can be found in Table A4 in Appendix 2. You may create
different factor sets for different groups of vehicles or departments if you
wish.
Waste Characterization Percentages of different materials in government generated solid waste.
Use local waste characterization survey or table A2 in Appendix 1.
Grid Electricity Local emissions factors for your utility: lbs CO2/MWh, lbs CH4/GWh, lbs
N2O/GWh. These may be provided by your utility along with usage data; if
not use factors from Table A3 in Appendix 1.
4. Data Entry
Now you are ready to enter the data collected during Step 2 into SEEC ClearPath CA. Open the inventory
module and select the sector and calculator, as indicated in Table 2 or Table 3. A brief description of
entering some common data for community inventories is provided below. For more information about
data entry, see the inventory module user guide, and the online trainings.
Electricity and Natural Gas
Figure 5: Electricity and natural gas calculators
Step 1: Select sector
Step 2: Select
calculator
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Community use of electricity and natural gas is entered by sector: residential, commercial and industrial.
Select each sector as shown in Figure 5.
• Step 1: Select the appropriate sector, Residential, Commercial, or Industrial to enter your
community electricity and/or stationary fuel data.
• Step 2: Select the appropriate calculator i.e. electricity is entered in the calculator ‘Emissions
from Grid Electricity,’ and natural gas or any other stationary fuel (propane, fuel oil etc.) in
‘Emissions from Stationary Fuel Combustion’.
Community Transportation
For community transportation, you have the option of selecting from four different calculators to
estimate community scale transportation emissions. In order for the Transportation Data to accurately
translate to the Forecasting, Planning and Monitoring Modules, transportation data has to be entered
separately for each fuel (i.e. Gasoline, Diesel or other fuels).
• VMT & MPG – this calculator will be utilized if you are able to find specific community VMT data
along with vehicle class fuel efficiency breakdown by fuel types (gasoline and diesel) (a good
method, although the On-Road factor method will allow use of more locally specific emission
factors for most CA communities).
• On-Road Factor: this calculator will be utilized if you are able to locate specific CO2, CH4 and
N20 emission factors either aggregated across each fuel type or for each specific vehicle type
(highly recommended and most common for California).
• Fuel Consumption: this calculator will be utilized if you are able to find fuel consumption data
for your community’s vehicles (not recommended unless it is the only option).
• Direct Entry: this calculator can be utilized if you already calculate emissions from a previous
inventory or you did the calculations outside of SEEC ClearPath. Note – if you only have a CO2e
figure, you can enter that in the CO2 row (not recommended unless it is the only option).
For the sake of providing the most locally specific emission factor, we recommend your community
utilize the on-road emissions factor from the California Air Resources Board’s EMFAC model. Appendix 2
provides detailed instructions for obtaining this factor. Appendix 2 also provides factors you will need
for transportation CH4 and N2O emissions. You may also use on-road emissions factors provided by your
local MPO, if available.
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Once you have total VMT for your jurisdiction and the emissions factors, go to the Transportation &
Mobile Sources sector in SEEC ClearPath CA, and follow the steps as shown in Figure 6.
• Step 1: Select the ‘On Road Transportation’ calculator. Under Calculation Method, select ‘On-
Road Factor,’ and the Select the appropriate Fuel Type
• Step 2: Enter your aggregated community VMT by fuel type in the value box VMT
• Step 3: Enter the factor for CO2 in the value box CO2 On Road Average Emissions Factor
• Step 4: Enter the factor for CH4 in the value box CH4 On Road Average Emissions Factor
• Step 5: Enter the factor for N2O in the value box N2O On Road Average Emissions Factor
Figure 6: Community Transportation Data Entry
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Forecast
Once you have completed your municipal operations and/or community scale baseline inventories in the
Inventory module, the next step is to utilize SEEC ClearPath to create a Business-As-Usual emission
forecast of future emissions, based on specific growth indicators at the municipal or community scale. A
Business-As-Usual emission forecast calculates future emissions if no action is taken to mitigate them.
The Forecast Module in SEEC ClearPath provides users the opportunity to create multiple emission
forecasts that represent different scenarios in their communities. Steps to create a forecast are shown
in Figure 7.
Figure 7: Steps to completing a forecast for community or government operations
Step 1: Data Collection
Data for emissions forecasts most commonly comes from your community’s general plan, or you’re your
metropolitan planning organization (MPO). Data you will want to try to gather for a community forecast
is outlined in Table 4, while that for a government operations forecast is outlined in Table 5. Note that
one of the data points, service population, can be calculated from resident population and employment.
For example, if your community had a 2010 population of 50,000 and the number of jobs was 15,000,
then your 2010 service population would be 65,000. If your General Plan estimates the 2050 population
to be 75,000 and the number of jobs to be 22,000, then your 2050 service population would be 97,000.
Data
collection
• Get information about projected growth in population, employment, and number of households
Annual growth rates
• Convert to annual growth rates using the Compound Annual Growth Calculator, if needed
Factor sets
• Enter annual growth rates into forecast factor sets
State policies
• Create forecast factor sets for renewable portfolio standard and vehicle fuel efficiency
Apply
• Apply factor sets to each fuel type to create forecast
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If your general plan or MPO provides annual growth rates, use these; if only projections for specific
future years are provided, SEEC ClearPath CA will help you convert these to annual growth rates as
described below.
Most communities outline growth forecasts for 2020, 2035 and, most notably, 2050. You will want to
gather data on population, number of households, and employment for each year included in your local
or regional growth forecast, as well as for your inventory baseline year (or a year near it). While having
each of these sets of data will provide the most accurate forecasting, you can use a proxy if one is not
available. For example, growth in number of households tends to provide the most accurate forecast of
residential energy use, but if it is not available, you can use projected population growth instead.
Table 4: Community Forecast Data
Growth
Indicator
Data Applicable Sectors Where to
find?
Number of
households
Projected growth of housing units
in the community (or current and
future # of households)
Residential Energy General Plan
or MPO
Population Projected resident population
growth (or current and future
population)
Residential Energy,
Transportation, Solid Waste,
Water/Wastewater, Process &
Fugitive Emissions
General Plan
or MPO
Employment Projected growth in the number of
jobs in the community
Commercial Energy, Industrial
Energy
General Plan
or MPO
Service
Population
Growth in the sum of both number
of jobs and Population
Transportation, Solid Waste,
Water/Wastewater
General Plan
or MPO
Table 5: Government Operations Forecast Data
Growth
Indicator
Data Applicable Sectors Where to
find?
Municipal
Employment
Projected number of municipal jobs Buildings & Facilities, Street Lights
& Traffic Signals, Vehicle Fleet,
Employee Commute, Scope 3
Generated Waste
General Plan
or MPO
Population Projected resident population
growth (or current and future
population)
Transit Fleet, Electric Power
Production, Solid Waste Facilities,
Water & Wastewater Facilities
General Plan
or MPO
Service
Population
Growth in the sum of both number
of jobs and Population
Transit Fleet, Electric Power
Production, Solid Waste Facilities,
Water & Wastewater Facilities,
Process & Fugitive Emissions
General Plan
or MPO
Calculating Annual Growth Rates
If your general plan or MPO provides only projections for particular future years, you will need to
convert these to annual growth rates to enter into SEEC ClearPath CA.
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Figure 8: Opening the Compound Annual Growth Rate Calculator
You can convert growth projections for a particular year into compound annual growth rates by using
the Compound Annual Growth Rate Calculator provided in the tool. Access this calculator using the
following steps as shown in Figure 8.
• Step 1: Click on the Forecast tab in SEEC ClearPath
• Step 2: Click on the Forecast Helpers button
• Step 3: Select the Compound Growth Rate Calculator
Figure 9: Using the Growth Rate Calculator
Once you have opened the calculator, enter the starting and ending values and years, as shown in Figure
9, to arrive at your compound annual growth rate.
• Step 1: Enter the name of your growth rate based on your data in Name entry box.
• Step 2: Enter the Start Year Value of your data (e.g. population in the start year).
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• Step 3: Enter the Start Year.
• Step 4: Enter the End Year Value of your data (e.g. population in the end year).
• Step 5: Enter the End Year.
The growth rate will be shown in Outputs. You may save this record, and then repeat for additional
growth indicators and year ranges as needed.
Creating Factor Sets
Like the inventory module, the forecast module uses factor sets to store data that may be used more
than once. In this case, you will enter the growth rates in factor sets as shown in Figure 10. Then you will
be able to apply those to particular fuel types (as will be shown in Figure 12.)
• Step 1: Click on Factor Sets tab
• Step 2: Click on Forecast Growth Rates tab
• Step 3: Enter the name of your Growth Rate in the Name box
• Step 4: Enter the compound annual growth for each five year period starting from the beginning
of your forecast to the final year.
If data is available, create a factor set for each growth indicator shown in Table 4 and/or Table 5
(depending on whether you are creating a community forecast, government operations forecast, or
both).
State Policies
Currently, there are two state policies that have an effect on emissions forecasting at the government
operations and community level. The Renewable Portfolio Standard (RPS) affects the carbon intensity of
the grid electricity by mandating that all Investor Owned Utilities and Municipal Utilities reach 33%
renewable energy by 2020. Additionally, the Pavley II Standards outline fuel efficiency improvements for
Figure 10: Entering Forecast Growth Rates
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Figure 11: Creating a new forecast
on-road vehicles until 2025. Table 6 shows growth rate factors for these two policies. You should create
a forecast factor set for each policy.
Table 6: Growth factors for state policies
Renewable Portfolio Standard Pavley II Standard
Utility Annual growth rate* Time period Annual
growth rate 2010-2014 2015-2019
Anaheim Public Utilities -0.031 -0.024 2010 - 2014 -.0164
City and County of San Francisco -0.031 -0.024 2015 - 2019 -.0215
City of Palo Alto Public Utilities -0.031 -0.024 2020 – 2024 -.0263
Glendale Water & Power -0.030 -0.031 2025 – 2029 -.0222
Los Angeles Dept of Water & Power -0.024 -0.028 2030 – 2034 -.0143
Pacific Gas & Electric Company -0.045 -0.059 2035 – 2039 -.007
PacifiCorp -0.031 -0.024 2040 - 2044 -.0027
Pasadena Water & Power -0.030 -0.031 2045 - 2049 -.0011
Riverside Public Utilities -0.030 -0.031
Roseville Electric -0.030 -0.031
Sacramento Municipal Utility Dist. -0.037 -0.046
San Diego Gas & Electric -0.058 -0.053
Sierra Pacific Resources -0.031 -0.024
Southern California Edison -0.028 -0.034
Turlock Irrigation District -0.030 -0.031
CA Total -0.034 -0.034
*For 2020 and after, use an annual growth rate of zero for the Renewable Portfolio Standard.
Applying Growth Rate Factors to the Forecast Module
Now that you have created forecast factor sets for growth indicators and for state policies, you are
ready to apply these to create an emissions forecast as shown in Figure 11.
• Step 1: Click on the Forecasts tab.
• Step 2: Click on ‘New Forecast.’
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• Step 3: Give your forecast a name.
• Step 4: Check the ‘Use Start Values from Inventory’ option and select your baseline inventory to
automatically populate the inventory values into your forecast.
• Step 5: Enter the End Year of the forecast you wish to calculate.
• Step 6: Save your new Forecast.
• Step 7: After you save the forecast, you will need to click ‘Edit Records’ to begin applying
growth rates
Figure 12: Selecting forecast growth rates
The forecast module is organized by sectors matching those in the inventory. Within each sector the
fuels that might be used are listed. Apply growth rates to the fuels in each sector as indicated in Tables 4
and 5. A sample entry for the Residential Energy sector is shown in Figure 12. Note that you only need to
enter growth rates for fuels that are actually included in your inventory. You will see that for electricity
you are able to select a carbon intensity factor in addition to a growth rate. This is where you will select
the renewable portfolio standard factor set. Similarly, for transportation forecast records you will find a
place to select carbon intensity factor, which you will use to select the factor set for the Pavley II
Standard.
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Planning
The SEEC ClearPath CA planning module allows you to analyze specific emissions reduction strategies,
and to combine these into different emission reductions scenarios. Steps for creating a planning
scenario are shown in Figure 13.
Figure 13: Steps to create a planning scenario
Set Reduction Goals
Figure 14: Setting Goals
Set reduction goals
• Enter one or more emissions reduction goals
Create reduction strategies
• Research and set up different emissions reduction actions your local government might take
Create scenario
• Combine strategies in different ways to create different scenarios
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To begin a planning scenario, you will need to set one or more goals for emissions reduction in future
years as shown in figure 14. These goals are expressed in the form of a percent reduction from your
baseline year emissions (either community-wide or government operations), to be achieved by a certain
year.
• Step 1: Click on the Planning tab.
• Step 2: Click the ‘Emissions Reduction Goals’ button.
• Step 3: Give your goal a name.
• Step 4: Enter the % Reduction.
• Step 5: Enter the End year.
• Step 6: Save your goal.
Create Reduction Strategies
The planning module provides calculators and information on many different reduction strategies, which
you can view as shown in Figure 15.
• Step 1: Click on the Planning tab.
• Step 2: Click ‘New Reduction Strategy.’
• Step 3: You can browse through the entire list of strategies, or you can narrow the list using the
Filters at right. If you want to filter, follow steps 3a and 3b.
o Step 3a: Click on ‘Deselect All.’
o Step 3b: Check the box for the category(s) you want to look at. You may also apply steps
3a and 3b to ‘Tags.’
• Step 4: Click the name of the strategy calculator you are interested in.
You can look through these strategies as a starting point to decide which measures to include in your
climate action plan. You may also want to gather ideas for reduction strategies from key stakeholders
within and outside your local government, and from the general public. Once you have selected
Figure 15: Viewing reduction strategies
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strategies that you may want to include in your climate action plan, you will need to gather some data
to calculate the emissions reductions. The data needed will depend on the particular strategy.
As an example, let’s look at creating a reduction strategy for ‘Increased Residential Solar Photovoltaic’,
shown in figure 17.
• Step 1: Enter the scope of the initiative. This is essentially how many units of the strategy will be
implemented. In this case it is the kW of solar capacity that will be installed each year1.
• Step 2: Click the Reference Sheet link to help you determine the energy impacts. (Some
calculators have reference sheets; for others you will need to find information about energy
impacts from an outside source).
• Step 3: Read the annual generation per kW installed capacity for your region from the Reference
Sheet.
• Step 4: Enter the Energy Impacts.
• Step 5: Save your strategy (not shown in figure).
You might want to created different versions of a strategy, for example, one for moderate
implementation and another for more aggressive implementation. You can then test the effect of each
in the scenario planner as described below.
Create Scenario
Once you have created several reduction strategies, you can apply them to create a reduction scenario,
as shown in figure 18.
1 In order to determine the level of implementation that makes sense for your community, think about
things like the number of households in your community, the average size (kW) of existing residential
solar PV systems, and the rate at which systems have been installed in recent years, or in other
communities that have created an incentive or promotional program similar to the one you are
considering.
Figure 17: Reduction Strategy Inputs
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Figure 18: Creating a Planning Scenario
• Step 1: Click on ‘New Planning Scenario.’
• Step 2: Give the scenario a name.
• Step 3: Select the forecast you want to work from.
• Step 4: Click ‘Create Planning Scenario.’
• Step 5: Click on ‘Edit Records’ to begin applying reduction strategies to your scenario.
Adding Reduction Strategies to Scenario
Figure 19: Adding a Reduction Strategy
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• Step 1: Click the dropdown labeled ‘Choose a reduction measure,’ which will bring up a list of
the reduction strategies you have created, and select the strategy you want.
• Step 2: Click the ‘Add’ button.
• Step 3: Enter the implementation start year.
• Step 4: Enter the implementation end year. Most strategies are cumulative, meaning the impact
will increase the longer it is implemented.
• Step 5: Check the box for ‘Active.’
• Step 6: Save the scenario.
You will initially see the business as usual forecast; each time you save with additional or changed
planning measures, the forecast will adjust to reflect these. You can quickly show the impact of different
measures by checking or unchecking the ‘Active’ box, then saving. You can also save different scenarios
with different combinations of measures.
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Appendix 1: Emissions Factors for Solid Waste and Electricity
Table A1: Default Community Waste Characterization
Waste Component Percentage
Newspaper 1.3
Office Paper 4.9
Corrugated Cardboard 5.2
Magazines/Third Class Mail 5.9
Food Scraps 15.5
Grass 1.9
Leaves 1.9
Branches 3.3
Dimensional Lumber 14.5
Note: Only components that contribute to greenhouse gas emissions are included, thus the
components do not total to 100%.
Source: CalRecycle’s 2008 report table 7: Overall Disposed Waste Stream
Table A2: Default Local Government Waste Characterization
Waste Component Percentage
Newspaper 5.5
Office Paper 9.1
Corrugated Cardboard 5.1
Magazines/Third Class Mail 19.5
Food Scraps 9.8
Grass 8.1
Leaves 8.1
Branches 0
Dimensional Lumber 5.0
Note: Only components that contribute to greenhouse gas emissions are included, thus the
components do not total to 100%.
Source: This factor set is to match the Municipal CACP Waste Profile
http://www.calrecycle.ca.gov/WasteChar/BizGrpCp.asp
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Table A3: Electricity Emissions Factors
CO2 Emissions Factors by Utility, Years 2000-2010 (lbs/MWh)
2000a 2001
a 2002
a 2003
a 2004
a 2005
a 2006
a 2007
a 2008
a 2009
a,b 2010
b
Anaheim Public
Utilities 1,399.80 1,416.74 1,543.28
City and County of San
Francisco 76.28
City of Palo Alto Public
Utilities 320.94 39.02 426.82
Glendale Water &
Power 1,065.00
Los Angeles
Department of Water
& Power
1,407.44 1,403.39 1,348.48 1,360.07 1,360.60 1,303.58 1,238.52 1,227.89
Modesto Irrigation
District, Retail Power 1,036.17 942.99
Modesto Irrigation
District, Wholesale
Power
2,048.09 2,026.12
Pacific Gas & Electric
Company 566.20 489.16 455.81 635.67 575.38 444.64
PacifiCorp 1,811.00 1,812.22 1,747.30 1,775.28
Pasadena Water &
Power 1,409.65 1,664.14
Riverside Public
Utilities 1,333.45 1,346.15 1,325.65
Roseville Electric 565.52 793.80
Sacramento Municipal
Utility District 769.00 616.07 555.26 714.31 526.47
San Diego Gas &
Electric 613.75 546.46 780.79 806.27 739.05 720.49
Sierra Pacific Resources 1,442.78
Southern California
Edison 678.88 665.72 641.26 630.89
CO2 Emissions Factors by Utility, Years 2011 and After (lbs/MWh)
2011 2012 2013
Pacific Gas & Electric
Company 393 445 427
CH4 and N2O Emissions Factors, Statewide (lbs/GWh)
2000 2001 2002
2003
2004
2005
2006
2007
CH4 29 33 31 31 29 30 31 29
N2O 9 11 10 11 11 11 9 10
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Appendix 2: Transportation Emissions Factors
Transportation Factor for CO2/mile from EMFAC
EMFAC is an online emissions database maintained by the California Air Resources Board. The database
contains emissions for on-road vehicles by county and year. You will use this data to calculate an on-
road emissions factor for CO2/mile that can be applied to the vehicle miles traveled for your
community.
Part 1: Locating and retrieve EMFAC emissions from
the County to be applied your community
Step 1.1: Visit EMFAC Emissions Database at
www.arb.ca.gov/emfac
Step 1.2: Data Type: mark Emissions
Step 1.3: Region: County (County your jurisdiction is
in)
Step 1.4: Calendar Year: Select Inventory Year
Step 1.5: Season: Select Annual Average
Step 1.6: Model Year: Aggregated
Step 1.7: Speed: Aggregated
Step 1.8: Fuel: Gas or Diesel
You will want to download a separate CSV file for gasoline and for diesel to help separate your future
SEEC ClearPath transportation entries.
A CSV file will download for the selected County. Repeat to download files for both gasoline and diesel.
Part 2: Data Conditioning of EMFAC CSV File for County Emissions
Step 2.1: Open the CSV File
Step 2.2: Highlight Column D (Vehicle Class), Column I (VMT (miles/day) and Column AK (CO2_RUNEX)
Note: Pavley 1 & LFCS pertains to passenger car and light duty trucks for gasoline and diesel and the
planning module will take into consideration those higher fuel efficiencies
Note: Row Header explanations
- CO2_RUNEX: Emissions from vehicle in motion
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- CO2_IDLEX: Emissions from vehicle while idling
- CO2_STREX: Emissions from vehicle ignition
NOTE: At the moment, accounting for idling and start emissions is
not recommended for the CO2 emission factor for VMT data. It is
up to the local government to capture the start and idle emissions
at their own discretion and applicability to their community
inventory.
Step 2.3: Sum column I VMT (miles/day) for all vehicle types by each
individual fuel type: gasoline or diesel
Step 2.4: Sum total column AK - combined CO2_RUNEX, to obtain daily
combined tons CO2.
Step 2.5: Multiply the result by 2000 (lbs in ton) to convert to daily
combined pounds of CO2
Step 2.6: Divide daily combined pounds of CO2 by Total daily County
VMT by to arrive at Pounds Per VMT and then multiply by 453.592 to create CO2 g/mile
You will now have a combined vehicle class Grams of CO2 Per VMT to be applied to your city and/or
county specific VMT breakdown. Repeat to calculate factors for both gasoline and diesel.
Table A4: N2O and CH4 Emission Factors by inventory year (g/mile)
Year N20 CH4 N20 CH4
Gasoline
Passenger Cars Gasoline Light Trucks
2010 0.017 0.020 0.025 0.023
2009 0.020 0.021 0.029 0.025
2008 0.023 0.023 0.034 0.027
2007 0.026 0.025 0.040 0.030
2006 0.030 0.027 0.046 0.034
2005 0.033 0.030 0.053 0.037
2004 0.037 0.033 0.060 0.042
2003 0.041 0.037 0.067 0.047
2002 0.044 0.041 0.074 0.052
2001 0.048 0.045 0.080 0.058
2000 0.051 0.050 0.087 0.064
Diesel Passenger Cars Diesel Light Trucks
All 0.001 0.0005 0.0015 0.001
Gasoline Heavy Trucks Diesel Heavy Trucks
All 0.0134 0.0333 0.0048 0.0051
Step 2.4
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Appendix 3: Registering for SEEC ClearPath CA
1. Go to www.californiaseec.org/software-tools, and click on the Account Setup button.
2. Complete the form, being sure to check the box accepting the User License Agreement, and click
‘Submit Query.’