CRADA final report: Technical assessment of roll-to-roll operation of lamination process, thermal treatment, and alternative carbon fiber precursors for low-cost, high-efficiency manufacturing of flow battery stacks and other energy devices

Claus Daniel; Thomas Madden; David L Wood III; Thomas R. Muth; Curtis Warrington; Soydan Ozcan; Hunter Manson; Halil L. Tekinalp; Mark A. Smith; Yuan Lu; Jeremy Loretz

doi:10.2172/1237602

CRADA final report: Technical assessment of roll-to-roll operation of lamination process, thermal treatment, and alternative carbon fiber precursors for low-cost, high-efficiency manufacturing of flow battery stacks and other energy devices

Claus Daniel
, Thomas Madden
, David L Wood III
, Thomas R. Muth
, Curtis Warrington
, Soydan Ozcan
, Hunter Manson
, Halil L. Tekinalp
, Mark A. Smith
, Yuan Lu
, Jeremy Loretz

Research output: Other contribution › Technical Report

Abstract

Among the various stationary-storage technologies under development, redox flow batteries (RFBs) offer the greatest potential to deliver inexpensive, scalable, and efficient grid-scale electrical-energy storage. Unlike traditional sealed batteries, in a flow battery power and energy are decoupled. Cell area and cell count in the stack determine the device power, and the chemical storage volume determines the total energy. Grid-scale energy-storage applications require megawatt-scale devices, which require the assembly of hundreds of large-area, bipolar cells per power plant. The cell-stack is the single system component with the largest impact on capital cost (due to the large number of highly engineered components) and operating costs (determined by overall round-trip efficiency).

Original language	English
Place of Publication	United States
DOIs	https://doi.org/10.2172/1237602
State	Published - 2015

Keywords

25 ENERGY STORAGE

Access to Document

10.2172/1237602

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Daniel, C., Madden, T., Wood III, D. L., Muth, T. R., Warrington, C., Ozcan, S., Manson, H., Tekinalp, H. L., Smith, M. A., Lu, Y., & Loretz, J. (2015). CRADA final report: Technical assessment of roll-to-roll operation of lamination process, thermal treatment, and alternative carbon fiber precursors for low-cost, high-efficiency manufacturing of flow battery stacks and other energy devices. https://doi.org/10.2172/1237602

@misc{83163b4b398b4162a83d8b1b075baca5,

title = "CRADA final report: Technical assessment of roll-to-roll operation of lamination process, thermal treatment, and alternative carbon fiber precursors for low-cost, high-efficiency manufacturing of flow battery stacks and other energy devices",

abstract = "Among the various stationary-storage technologies under development, redox flow batteries (RFBs) offer the greatest potential to deliver inexpensive, scalable, and efficient grid-scale electrical-energy storage. Unlike traditional sealed batteries, in a flow battery power and energy are decoupled. Cell area and cell count in the stack determine the device power, and the chemical storage volume determines the total energy. Grid-scale energy-storage applications require megawatt-scale devices, which require the assembly of hundreds of large-area, bipolar cells per power plant. The cell-stack is the single system component with the largest impact on capital cost (due to the large number of highly engineered components) and operating costs (determined by overall round-trip efficiency).",

keywords = "25 ENERGY STORAGE",

author = "Claus Daniel and Thomas Madden and \{Wood III\}, \{David L\} and Muth, \{Thomas R.\} and Curtis Warrington and Soydan Ozcan and Hunter Manson and Tekinalp, \{Halil L.\} and Smith, \{Mark A.\} and Yuan Lu and Jeremy Loretz",

year = "2015",

doi = "10.2172/1237602",

language = "English",

type = "Other",

}

Daniel, C, Madden, T, Wood III, DL, Muth, TR, Warrington, C, Ozcan, S, Manson, H, Tekinalp, HL, Smith, MA, Lu, Y & Loretz, J 2015, CRADA final report: Technical assessment of roll-to-roll operation of lamination process, thermal treatment, and alternative carbon fiber precursors for low-cost, high-efficiency manufacturing of flow battery stacks and other energy devices. United States. https://doi.org/10.2172/1237602

CRADA final report: Technical assessment of roll-to-roll operation of lamination process, thermal treatment, and alternative carbon fiber precursors for low-cost, high-efficiency manufacturing of flow battery stacks and other energy devices. / Daniel, Claus; Madden, Thomas; Wood III, David L et al.
United States. 2015.

Research output: Other contribution › Technical Report

TY - GEN

T1 - CRADA final report: Technical assessment of roll-to-roll operation of lamination process, thermal treatment, and alternative carbon fiber precursors for low-cost, high-efficiency manufacturing of flow battery stacks and other energy devices

AU - Daniel, Claus

AU - Madden, Thomas

AU - Wood III, David L

AU - Muth, Thomas R.

AU - Warrington, Curtis

AU - Ozcan, Soydan

AU - Manson, Hunter

AU - Tekinalp, Halil L.

AU - Smith, Mark A.

AU - Lu, Yuan

AU - Loretz, Jeremy

PY - 2015

Y1 - 2015

N2 - Among the various stationary-storage technologies under development, redox flow batteries (RFBs) offer the greatest potential to deliver inexpensive, scalable, and efficient grid-scale electrical-energy storage. Unlike traditional sealed batteries, in a flow battery power and energy are decoupled. Cell area and cell count in the stack determine the device power, and the chemical storage volume determines the total energy. Grid-scale energy-storage applications require megawatt-scale devices, which require the assembly of hundreds of large-area, bipolar cells per power plant. The cell-stack is the single system component with the largest impact on capital cost (due to the large number of highly engineered components) and operating costs (determined by overall round-trip efficiency).

AB - Among the various stationary-storage technologies under development, redox flow batteries (RFBs) offer the greatest potential to deliver inexpensive, scalable, and efficient grid-scale electrical-energy storage. Unlike traditional sealed batteries, in a flow battery power and energy are decoupled. Cell area and cell count in the stack determine the device power, and the chemical storage volume determines the total energy. Grid-scale energy-storage applications require megawatt-scale devices, which require the assembly of hundreds of large-area, bipolar cells per power plant. The cell-stack is the single system component with the largest impact on capital cost (due to the large number of highly engineered components) and operating costs (determined by overall round-trip efficiency).

KW - 25 ENERGY STORAGE

U2 - 10.2172/1237602

DO - 10.2172/1237602

M3 - Technical Report

CY - United States

ER -