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W A T E A E N E R G Y T I F F <br /> RIVERSIDE PUBLIC UTILITIES <br /> Board Memorandum <br /> PUBLIC U T I L I T I E 5 <br /> BOARD OF PUBLIC UTILITIES DATE: November 16, 2012 <br /> ITEM NO: G <br /> SUBJECT: THE ENERGY INNOVATIONS GRANT PROGRAM CONTRACT BETWEEN <br /> RIVERSIDE PUBLIC UTILITIES AND THE UNIVERSITY OF CALIFORNIA, <br /> RIVERSIDE <br /> ISSUE: <br /> That the Board of Public Utilities consider approving a non-funded extension to the Energy Innovations <br /> Grant (EIG) Program contract between Riverside Public Utilities (RPU) and the University of California, <br /> Riverside (UCR) for their project on "Miniaturized, Efficient and Low-Cost Energy Storage Devices". <br /> RECOMMENDATION: <br /> That the Board of Public Utilities recommend that the City Council approve a non-funded extension to the <br /> Energy Innovations Grant Program contract between Riverside Public Utilities and the University of <br /> California, Riverside. <br /> BACKGROUND: <br /> The EIG Program is an RPU Public Benefits Program which was developed for the funding of research, <br /> development, and demonstration programs for the public interest to advance science or technology in <br /> electric related projects in the institutions of higher education within the City of Riverside. Participation in <br /> the EIG Program is restricted to public or private post-secondary institutions whose primary activities fall <br /> within the City limits. The grant funds must comply with the relevant portions of California Public Utilities <br /> Code (PUC) Section 385 related to the use of Public Benefits Funds. <br /> The UCR was awarded grant funding on August 9, 2011, for its proposal submitted to fabricate <br /> Miniaturized, Efficient and Low-Cost Energy Storage Devices, such as super-capacitors and batteries, <br /> utilizing a novel 3-dimensional (3-D) carbon based film that had been developed in their laboratory. Their <br /> research is expected to show that such 3-D engineered carbon networks can provide fast charging and <br /> discharging rates that can sustain millions of cycles. In addition, the total surface area of these <br /> electrodes can be tuned with a pore, sized to fit the size of ions of the electrolyte with angstrom <br /> accuracy. This will provide flexible, printable and wearable super-capacitors that are likely to be <br /> integrated into smart clothing, sensors, wearable electronics and drug delivery systems. Additionally, the <br /> devices can provide sufficient volumetric energy density for nomad electronics, wireless sensor <br /> networks, biomedical implants, active radicfrequency identification (RFID) tags and embedded <br /> microsensors. <br /> The UCR has been diligently working on the grant project, making significant progress over the past year <br /> as represented in the attached Annual Report (Attachment 1). The Agreement expired on August 15, <br /> 2012, and with remaining funds of $1,867.65 to spend; UCR requested a non-funded extension through <br /> September 36, 2012, to allow the research team to make refinements to the project and complete <br /> documentation and reporting of their results. <br /> The UCR research team has completed their expenditures and this First Amendment will finalize the <br /> financial reporting requirements. It has taken several months to work with the Regents at the University <br /> of California to complete the necessary paperwork to bring this item to the Board for approval. <br />