Laserfiche WebLink
Upon completing the evaluations, the ICF team will compile and consolidate all the associated costs for each facility <br />that has been assessed. A simplified illustration of our methodology to electrical infrastructure assessment is shown <br />in Exhibit 9. <br />Exhibit 9. ICF's Process for Load Capacity Analysis <br />Utility data on electrical <br />Remaining capacity at <br />service <br />r V <br />each facility/site <br />Facility/Site-Level Meter/billing data <br />BOLL <br />City data on main panel <br />Estimate peak power <br />Projected EV charging load at <br />capacity ratings <br />demand and max <br />each facility/site <br />current <br />ru7Grid <br />constraints <br />Grid -Level Utility data on grid capacity <br />Q <br />Estimate headroom and '7Pk(x1n Grid upgrades to <br />overload accommodate EV charging <br />Charging Infrastructure Rollout Schedule & Cost: To advise the City on expectations for charging infrastructure <br />development, the ICF team will develop a rollout timeline and cost estimates for the proposed charging infrastructure. <br />Depending on circumstances, the lead time for charging infrastructure development can be significantly longer than <br />the lead time for vehicle procurement. Due to this, a well -laid -out electrification timeline that includes both vehicle <br />procurement and infrastructure development is critical to minimizing time for implementation. In developing these <br />schedules, the ICF team will ensure there will be sufficient charging capacity available to support expected EV <br />deployment, and the City can spread the cost over time to facilitate funding the infrastructure build out. In developing <br />the schedule, the ICF team will consider the upfront utility upgrade and site preparation investments needed during <br />the initial phase, known as futureproofing, to ensure sufficient charging capacity will be available within each facility <br />to expand charging equipment in future years without the need for additional construction. For example, if a facility <br />needs a total of 10 chargers by 2030, it is more cost-effective to build such capacity during the initial phase, while the <br />charging equipment can be installed over multiple phases. <br />The ICF team will also produce cost estimates for charging infrastructure development. Cost components to be <br />factored into the analysis can be split into capital, and operating costs. Key capital costs include the following: <br />• EVSE hardware (materials cost) and EVSE installation <br />• Software (e.g., charging management /smart charging software) <br />• Make-ready costs (e.g., site preparation —electrical work and wiring, special work such as boring and trenching, <br />special site and structural considerations) <br />• Distribution grid equipment and infrastructure upgrades <br />Operating costs are also critical to determining the business case of deploying EV charging infrastructure, including <br />charger networking costs, charger data contract costs, and maintenance costs. The ICF team will estimate capital <br />costs across each infrastructure development scenario as well as the ranges of possible operating costs associated <br />with each scenario. The ICF team will also develop cost estimates by location for each phase of infrastructure <br />implementation across the entire charging infrastructure development timeline. <br />Task 3.3: Fleet Transition Refresh <br />Given the dynamic nature of the EV market, the ICF team has included in its offering one round of updates to the <br />fleet transition plan over the course of the two-year on -call technical support service. This revision will encompass <br />recalibrating vehicle replacement recommendations to align with the most recent vehicle models and their associated <br />Use or disclosure of data contained on this sheet is subject to the restriction on the title page of this proposal <br />14 <br />