jeroen de maeyer | capture this - inspiring ugent research

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Academische case UGent - "Capture this: inspiring UGent research on energy storage" (Jeroen De Maeyer)

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Capture this: inspiring UGent research

on energy storage

Energieopslag en smart grids - een visie op het "net van morgen“

Smart Grids Flanders & Greenbridge, 04 Sept 2014

Jeroen De Maeyer,

Business Development Manager SET

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2UGent Confidential and proprietary – Jeroen De Maeyer

STORENN

Internal UGent project

Originating from the Industrial Research cluster SET

But broader scope

Broad UGent-wide explorative study to determine

– UGent expertise applicable in the field of energy storage

– UGent expertise coupled to the re-use of CO2

CAPTURE this: inspiring UGent research on energy storage

Topic of my talk: STORENN

3UGent Confidential and proprietary – Jeroen De Maeyer

GOAL: defining a roadmap

to translate this technology into real products and services

by means of concrete projects and collaborations

Topic of my talk: STORENN

4UGent Confidential and proprietary – Jeroen De Maeyer

Introduction

Background on SET

Examples

Flywheels

(Structural) batteries

microbial bioelectrochemical systems

Thermal storage

Overview

SET = UGent – IOF valorisation consortium

Active in Sustainable Energy Technology research

Clean Energy Generation

– Wind energy

– Blue energy

Energy Efficiency

– of components and small systems

– in industry

– in buildings

Active in Sustainable Energy Technology research

For a sustainable environment

For a sustainable economy: production industry

5

SET = UGent – IOF valorisation consortium

Consortium of research groups of Ghent University

Active in Sustainable Energy Technology research

6

Traditional (vertical) structure focussed on disciplines

Faculties

Research

groups Thematic research

Departments

SET = UGent – IOF valorisation consortium

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SET = UGent – IOF valorisation consortium

SET elements

People: +/-100FTE

Range of expertise Building physics

Electromechanic

drive train comp.

Control theory

Composite materials

Heat transfer,

thermodynamics and

thermal efficiency

CFD, fluid mechanics

Combustion engines

Grids & power quality

8

SET5Y: outline

9

5Y

YOUNG

YOU

YIN

&YANG

YANGTZE

YEAST

STORENN

10UGent Confidential and proprietary – Jeroen De Maeyer

Introduction

Background on SET

Examples

Flywheels

(Structural) batteries

microbial bioelectrochemical systems

Thermal storage

Overview

11UGent Confidential and proprietary – Jeroen De Maeyer

Storage and … storage?

12UGent Confidential and proprietary – Jeroen De Maeyer

Storage and … storage?

Thermal

storage

Flywheels

MES

Struct.

Batteries

?

13UGent Confidential and proprietary – Jeroen De Maeyer

Characteristics

Short-term storage (sec-minutes)

Large number of full cycles (>100.000)

Higher capacity than supercaps

Grid power management

Economically viable business model?

E.g. beacon Power (US)

16.000 rpm

160kW over 30min

and Stornetic (GE)

45.000 rpm

Modules of 22kW

Up to 28 modules (5.2MWh/day)

Flywheel storage

Courtesy Beacon Power

Courtesy Stornetic

“Next-generation flywheel”

High speed (>100,000rpm)

High power (>100kW)

Lower losses

UGent technology:

Machine design e.g. SRM & PE

Composites

Bearings

Next generation flywheel

Courtesy Inverto

Structural batteries combine

battery function

mechanical structural function

Impact

Weight reduction with 15%

Battery capacity x2

Cfr. EU project STORAGE (a.o. Volvo)

Structural batteries

Courtesy Volvo

Opportunities:

Optimise the mechanical structure

Optimise the battery materials (cathode/electrode/electrolyte)

UGent expertise: composite materials Prof Joris Degrieck, Wim Van Paepegem

FEM tools: structural design (fatigue and impact)

Material characterisation

Structural batteries

Opportunities:

Optimise the mechanical structure

Optimise the battery materials (cathode/electrode/electrolyte)

UGent expertise batteries: Prof Christophe Detavernier, (SBO-SOS-Lion project, coord. IMEC)

Atomic Layer Deposition (ALD)

– Very thin uniform layers with perfect step coverage

– Deposit anode/electrolyte/cathode stack on 3D subst.

Battery characterisation

– Argon-filled gloveboxes

– Thin-film Li-ion batteries & powder batteries.

– Potentiostat/galvanostat (cyclic voltammetry,

galvanostatic charge-discharge).

Unique setup for in-situ XRD during battery testing

(Structural) batteries

Anode electrolyte

cathode stack on 3D

structures

Anode electrolyte

cathode stack on 3D

structures

(microbial) electrochemical cells for P2P

(microbial) electrochemical processes?

Microbial Electrolysis (MES)

(microbial) electrochemical cells for P2P

UGent: expertise

Prof Korneel Rabaeys

Prof Lieven Van De Velde

Excess electrical energy products

E.g. CH4 production

E.g. on-site NaOH production for cleaning

Capronic acid production from waste streams

Characteristics and challenges

Don’t store the electrical energy, but store the end-product

One-way storage: no back-conversion to electricity

Membrame technology?

Tunability? to allow for max. integration in the grid

Thermal storage based on metal foam

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Thermal storage based on metal foam

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22UGent Confidential and proprietary – Jeroen De Maeyer

CAPTURE this: inspiring UGent research on energy storage

Flywheels

(Structural) batteries

microbial bioelectrochemical systems

Thermal storage

Topic of my talk: STORENN

Contact

THANK YOU!

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