SHAREBOX on-line training Symbiotic exchange of energy: …sharebox-project.eu/.../P6.-Symbiotic-exchange-of-energy.pdf · 2019. 9. 17. · Symbiotic Relationship w.r.t Waste Energy

SHAREBOX on-line training

Symbiotic exchange of energy: Technologies and management

http://sharebox-project.eu Copyright © SHAREBOX Consortium 2

Introduction - SHAREBOX Energy Tool Overview

SHAREBOX Energy Tool

Symbiotic Relationship w.r.t Waste

Energy

Identifying Synergies

Opportunities

Systematic Decision Making;

Maximize Business

Opportunities

Enabling Dynamic Control

and Management

Compared and Assessed Synergy

Opportunity

In-house, Industrial

Cluster and/or Wider Energy

Network

Detailed Modelling and

Simplified Algorithms

Life-cycle Cost Impact of Candidate Options

Optimum Waste to Energy &

Storage Technology Utilization


Waste Heat to Energy and Storage Integration Database & Cost Modelling

Waste heat sourcesData base has Efficiency score, which can be weighted by usersGives an overall rating of technologies

Conversiontechnologies

Co

nve

rsio

n s

co

res

Storagetechnologies

Sto

rag

e s

co

res


End-User Modelling & Optimization

Optimized Waste Heat Symbiosis

Sheet

Waste Heat

Step 1: Matching would be done within 30 KM radius for waste heat “have” and “want”.

Step 2: Matching the available waste heat temperature range to required

Step 3: Matching quantity of waste heat (KWh/ year) available to required.

Step 4: Matching hours of the day availability of waste heat for symbiosis

Step 5: Matching the selling and purchase price for the waste heat

Step 6: Applications segregation

Step 7: Waste and storage technologies matching

Industry Name

Geographical LocationIndustry ClassificationSymbiosis Industry NameQuality available for waste heat symbiosis (°C)

Quantity required for waste heat symbiosis

(KWh/ year)Quantity percentage of waste heat symbiosis (%)

Waste heat trading hours (hrs)

Waste heat price ($/ KWh)Application for waste heat utilization

Optimized waste heat to energy technology

Optimized Storage technology

Annual Savings’ from process optimization

and/or electricity generation ($)

Waste Heat


End-User Modelling & Optimization

Optimized Electricity Symbiosis

Sheet

Industry Name

Geographical Location

Industry Classification

Symbiosis Industry

Name

Time Category

Symbiosis tariff within

Industrial park ($/KWh)

Tariff to feedback to

Electric grid

Selected symbiosis

choice (Industrial park or

grid)

Electricity

Step1: Matching would be done within 30 KM radius for excess electricity “have” and “want”.

Step 2: Matching hours of the day, availability of electricity for symbiosis

Step 3: Matching quantity of electricity (KWh/ year) available to required.

Step 4: Matching the selling and purchase price for the electricity

Electricity


Potential of symbiotic energy exchange –The ICO example

Industrie Center Obernburg industrial park near Frankfurt, Germany, operated my Mainsite

Power station120 MWel, powered by

natural gas90 % efficiency

Electricity

Heat

Industrial processes on the site

Surplus: into national grid

Industrial processes on the site

Sewage sludge drying facility for neighboring municipalities

Heating for neighboring housing

Swimming pool for industrial park workers and their families


Energy Tool- Integration to SHAREBOX

1. Location Indicator

2. Industry Classification

3. Industry Particulars

4. Heat and Electricity “have” and “want” Mapping

5. Desired Waste to Energy Application

6. Application Multi-Criterial Assessment

7. Selection of most important factor for Industrial Symbiosis

8. Available waste to energy and associated storage technologies for desired application

9. Waste to Energy and Storage Technologies weightings for User-specified Analysis

10. Industry specific scores for W-E and storage technology options

11. Waste to Energy symbiosis selection

12. Regulations


External Optimization Tool – Merit


The SHAREBOX Approach

SHAREBOX Energy Tool

Symbiotic Relationship w.r.t Waste Energy

Identifying Synergies Opportunities

Systematic Decision Making; Maximize Business Opportunities

Enabling Dynamic Control and Management

Compared and Assessed Synergy Opportunity

In-house, Industrial Cluster and/or Wider Energy Network

Detailed Modelling and Simplified Algorithms

Life-cycle Cost Impact of Candidate Options

Optimum Waste to Energy & Storage Technology Utilization

External Optimisation

External to SHAREBOX Platform

Internal to SHAREBOX Platform


Réseau: Simulation of Supply and Demand

Réseau: agent-based simulation of manufacturing and transactionsBuyers and Sellers (Agents) managed by a single System object

• System: controls the order of events, and maintains historic data• Factories, market buyers/sellers (Agents):

Key Innovation: combines complex decision rationale with process models The decision rules: Random price, Best price, Risk-based, Contract

G.O. Ajisegiri 2019. Simulation of the Interaction between Supply And Demand in an Eco-Industrial Park. PhD thesis


Technology Options Ranking

Company Resource Name Description SIC Description Supply Type starting at stopping at Intensity nature Resource

Type

Available Quantity

TJ/yr

MWhr/yr

cmp1 Adjacent Energy Sink Sound recording and music

publishing activities

Continuous UL 60C water have 5 1389

cmp2 Alternative energy Alternative Energy to

propane gas - 150 tonnes

Manufacture of hollow glass Continuous h gas Want 7.5 2083

cmp3 CHP - recovering power / heat

from cold stores

Processing and preserving of

potatoes


cmp4 CHP Unit Remediation activities and

other waste management

services

Continuous L lp steam want 12 3333

cmp5 CHP unit Growing of cereals (except

rice), leguminous crops and oil

seeds

Continuous UL 60C water Want 5 1389

cmp6 Energy Recovery System Remediation activities and


services


cmp7 Energy Recovery System Growing of cereals (except


seeds

Continuous h husks have 56.4 15667

cmp8 Energy Supply 1-10MW Remediation activities and


services

Continuous h elec Want 36 10000

cmp9 HEAT Construction of commercial

buildings

06:00 16:00 L IP steam Want 12 3333

cmp10 Heat - 1MW/hr Construction of commercial

buildings

06:00 16:00 L/H lp steam, gas elec Want 15.8 4380

cmp11 Heat - 1MW/hr Recovery of sorted materials 08:00 18:00 L lp Have 15.8 4380

cmp12 Heat 1MW Per Hour Recovery of sorted materials 08:00 18:00 UL 60C water Have 15.8 4380

cmp13 Heat from AD plant Real estate agencies 08:00 18:00 UL 60C water Have 3.6 1000

cmp14 Heating Source that

incinerates recyclables

Heating Source that

incinerates recyclables

Manufacture of electric

lighting equipment

Continuous H solid waste have 3.6 1000

cmp15 Steam Packaging activities Continuous L lp steam Have 20 5556

cmp16 Steam Generation New methods of Steam

Generation

Manufacture of prepared feeds

for farm animals

Continuous L lp steam Want 20 5556

cmp17 Waste heat Growing of cereals (except


seeds

Continuous L lp ateam Want 3.6 1000

MERIT

Demand/ Supply

Matching Score

Collection ofEnergy Have/WantsReal DataFor application X

Manufacturing profilesRéseauAgent based Trading

MinimisedResidual D/S

Approach:

Case-based reasoning for identifying the best synergy solution


Limitations in storing energy (especially electricity) at reasonable costs

Limitations in transporting energy (especially heat) at reasonable costs

Temporary shifts in availability may inhibit matching of supply and demand

Expert knowledge and sophisticated technologies may be required tovalorize remaining energy supplies, e. g. low temperature heat

Investment for secondary use may cost more than just buying primary energy

Regulatory restrictions or restrictions in availability of space

Challenges


Ajisegiri, G.O. 2019. Simulation of the Interaction between Supply And Demand in an Eco-Industrial Park. PhD thesis, University of Leeds

Literature for further studies


Authors of this presentation

www.spire2030.euAnsgar Rudolph

Frans Muller

Hassan Javed

Andrew Heyes


The project: SHAREBOX

▪ Joint project funded by EU (Horizon 2020)

▪ 16 project partners from 8 countries

▪ EC funding (A): 5.416.544,75 €

▪ Private investment (B): 1.500.000 €

▪ Funding period: 2015-2019

www.spire2030.eu

Secure Management Platform for Sharing Process Resources

www.sharebox-project.eu

Documents

SHAREBOX on-line training Symbiotic exchange of energy: …sharebox-project.eu/.../P6.-Symbiotic-exchange-of-energy.pdf · 2019. 9. 17. · Symbiotic Relationship w.r.t Waste Energy