Task 49
Member Login
IEA-SHC Solar Heating & Cooling Programme International Energy Agency
Task 49
SHC Task 49

Solar Heat Integration in Industrial Processes

Project (Task) Publications

Search:
| Advanced Search | Clear
Order by:

The following are publications developed under Task 49:

General Task Publications

Process Intensification - Engineering for Efficiency, Sustainability and Flexibility. 2nd Edition
2013 - Posted: 2013-07-01
By: Davd Reay, Colin Ramshaw, Adam Harvey - Newcastle University, Process Intensification Group
Publisher: Butterworth-Heinemann, Oxford.
ISBN: ISBN-10: 0080983049 ISBN-13: 978-0080983042

Subtasks

Subtask A: Process heat collector development and process heat collector testing

IEA SHC Task 49/IV - Deliverable A1.3 - Process Heat Collectors - State of the Art and Available Medium Temperature Collectors
IEA SHC Task 49/IV - Deliverable A1.3 - Process Heat Collectors - State of the Art and Available Medium Temperature Collectors
May 2016 - PDF 1.39MB - Posted: 2016-05-19
By: Pedro Horta
In the present SHIP applications are suited by well-established technologies covering the range of process temperatures found in different industrial sectors: low (T < 100ºC), medium (100ºC < T < 250ºC) or high temperature (250ºC < T < 400ºC). Considering that solar collectors suiting industrial processes might also suit non-industrial applications (e.g. hot water production on the Residential sector or high pressure steam for power generation purposes) it is important to establish the scope of a Solar Process Heat Collector.
IEA SHC Task 49/IV - Deliverable A2.1 - Comparison of process heat collectors with respect to technical and economic conditions
IEA SHC Task 49/IV - Deliverable A2.1 - Comparison of process heat collectors with respect to technical and economic conditions
April 2016 - PDF 1.48MB - Posted: 2016-09-06
By: Federico Giovannetti, Pedro Horta
In the present SHIP applications are suited by well-established technologies covering the range of process temperatures found in different industrial sectors: low (T < 100ºC), medium (100ºC < T < 250ºC) or high temperature (250ºC < T < 400ºC). Considering that solar collectors suiting industrial processes might also suit non-industrial applications (e.g. hot water production on the Residential sector or high pressure steam for power generation purposes) it is important to establish the scope of a Solar Process Heat Collector in various terms.
IEA SHC Task 49/IV - Deliverable A3.1 - Guideline on testing procedures for collectors used in solar process heat
IEA SHC Task 49/IV - Deliverable A3.1 - Guideline on testing procedures for collectors used in solar process heat
November 2015 - PDF 1.52MB - Posted: 2016-05-24
By: Sven Fahr, Dr. Korbinian Kramer
Publisher: IEA SHC Task 49
To enable solar thermal technologies to successfully enter the important market of process heat applications, it is crucial for the manufacturers to be able to provide reliable figures to succeed in tenders, to be able to predict energy yields with sufficient accuracy and to be able to prove liability in operation. All of this requires commonly agreed key figures and testing procedures to provide these.
IEA SHC Task 49/IV - Deliverable A1.2 - Overheating prevention and stagnation handling in solar process heat applications
IEA SHC Task 49/IV - Deliverable A1.2 - Overheating prevention and stagnation handling in solar process heat applications
January 2015 - PDF 1.69MB - Posted: 2015-05-22
By: Elimar Frank, Franz Mauthner, Stephan Fischer
Solar process heat plants need to be able to operate reliably in all operation modes. Other than for conventional closed hot water or steam supply systems, solar thermal applications require specific technical solutions to cope with the phenomenon of stagnation.

Subtask B: Process integration and Process Intensification combined with solar process heat

IEA SHC Task 49/IV - Deliverable B6 - Integrating Solar Heat into Industrial Processes (SHIP)
Booklet on results of Task49/IV Subtask B
May 2016 - PDF 0.86MB - Posted: 2016-09-06
By: Bettina Muster-Slawitsch
When integrating solar heat into industrial or commercial processes, the aim is to identify the most technically and economically suitable integration point and the most suitable integration concept. Due to the complexity of heat supply and distribution in industry, where a large number of processes might require thermal energy, this task is usually not trivial. Within Task 49/IV Subtask B several documents have been developed to assist with the necessary steps when planning the integration of a solar process heat plant.
IEA SHC Task 49/IV - Deliverable B5 - Potential Enhancement of Solar Process Heat by Emerging Technologies
IEA SHC Task 49/IV - Deliverable B5 - Potential Enhancement of Solar Process Heat by Emerging Technologies
March 2016 - PDF 0.89MB - Posted: 2016-05-23
By: Bettina Muster-Slawitsch, Tobias Prosinecki, Qasid Ahmad, Christian Sattler, Judith Buchmaier, Susanne Lux, Wim van Helden, Anh Phan, Christoph Brunner
Within IEA Task 49, Subtask B is focusing on the integration possibilities of solar heat in industrial processes. In this context, also the questions are tackled: - Which new technologies can stimulate the use of renewable (solar) heat? - Which technologies must be developed for reacting best on the hybrid energy supply in future?
IEA SHC Task 49/IV - Deliverable B4 - Catalogue of recommended components for advanced integration
IEA SHC Task 49/IV - Deliverable B4 - Catalogue of recommended components for advanced integration
February 2016 - PDF 0.22MB - Posted: 2016-05-19
By: Bettina Muster, Bastian Schmitt, Ilyes Ben Hassine
In this catalogue, software and hardware components are described that can help realising the integration of solar process heat in an advanced way.
IEA SHC Task 49/IV - Deliverable B3 - Updated Efficiency Finder
IEA SHC Task 49/IV - Deliverable B3 - Updated Efficiency Finder
December 2015 - PDF 1.24MB - Posted: 2016-05-23
By: Bastian Schmitt, Bettina Muster
The Efficiency Finder, also known as Zero Emission WikiWeb or Matrix of Indicators is a reference book that contains important information on unit operations, energy supply technologies, process technologies, best practice examples, and guidelines for implementation of efficiency measures and renewable energy technologies. The website (http://wiki.zero-emissions.at/) can be used as an inter-active compendium by process engineers, energy managers, RES experts, etc. to support their work e.g. by providing measures for energy efficiency and finding suitable solar applications in production processes.
IEA SHC Task 49/IV - Deliverable B1 - Methodologies and Software Tools for Integrating Solar Heat into Industrial Processes
IEA SHC Task 49/IV - Deliverable B1 - Methodologies and Software Tools for Integrating Solar Heat into Industrial Processes
February 2015 - PDF 1.66MB - Posted: 2016-09-06
By: Bettina Muster, Pierre Krummenacher
This document is primarily intended for the process integration community, and aims to present specific issues of, and solutions/approaches for, the integration of solar heat into industrial processes.
IEA SHC Task 49/IV - Deliverable B2 - Integration Guideline
IEA SHC Task 49/IV - Deliverable B2 - Integration Guideline
February 2015 - PDF 3.12MB - Posted: 2016-09-06
By: Bettina Muster-Slawitsch
Guideline for solar planners, energy consultants and process engineers giving a general procedure to integrate solar heat into industrial processes by identifying and ranking suitable integration points and solar thermal system concepts.

Subtask C: Design Guidelines, Case Studies and Dissemination

IEA SHC Task 49/IV - Deliverable C4 - Best practise series of case study reports from demonstration projects
IEA SHC Task 49/IV - Deliverable C4 - Best practise series of case study reports from demonstration projects
August 2016 - PDF 1.89MB - Posted: 2016-09-06
By: Bastian Schmitt, Stefan Hess
Throughout the world, many new technologies and projects are currently being undertaken to assist in the reduction of fossil fuel consumption. While the focus has been in the electrical and transport sector, significant progress has been made in the realm of renewable heat and more specifically, solar heat for industrial processes.
IEA SHC Task 49/IV - Deliverable C3 - Performance assessment methodology and simulation case studies
IEA SHC Task 49/IV - Deliverable C3 - Performance assessment methodology and simulation case studies
March 2016 - PDF 0.65MB - Posted: 2016-05-23
By: Werner Platzer
Performance of a solar system or any other energy conversion system in general is often being considered in a too simplified way. Simple performance indicators or metrics like efficiency are often taken without any description of the operating and application conditions, of the system boundaries considered for its calculation. The performance of a system however can be described in a broader sense as a concept including energetical, economical and environmental aspects of a system operation for a defined time period. The system boundaries considered should be clearly defined, and the operating conditions according to the application should be specified.
IEA SHC Task 49/IV - Deliverable C5 - Potential studies on solar process heat worldwide
IEA SHC Task 49/IV - Deliverable C5 - Potential studies on solar process heat worldwide
October 2015 - PDF 0.61MB - Posted: 2016-05-19
By: Werner Platzer, Bastian Schmitt, Christoph Lauterbach, Stefan Hess, Pierre Delmas
Potential studies for the use of solar heat for industrial processes (SHIP) were carried out in the past for different countries or regions.
IEA SHC Task 49/IV - Deliverable C2 - Overview and description of simulation tools for solar industrial process heat systems
IEA SHC Task 49/IV - Deliverable C2 - Overview and description of simulation tools for solar industrial process heat systems
August 2015 - PDF 1.26MB - Posted: 2016-09-06
By: Werner Platzer
In this deliverable the authors give an overview and description of simulation tools for solar industrial process heat systems: TRNSYS, Colsim, Insel, TSOL, Polysun, Greenius, Excel-Sopro

Other

Articles

Task 49: Solar Heat in Industrial Processes
Task 49: Solar Heat in Industrial Processes
Interview with Christoph Brunner
May 2016 - PDF 0.14MB - Posted: 2016-05-25
By: Pam Murphy
Solar Update (SU): Why was this project needed? Christoph Brunner (CB): SHC Task 49/SolarPACES Annes IV: Solar Heat Integration in Industrial Processes was initiated to foster market penetration of this rather young technology that has large worldwide potential.
Task 49: Guidelines Developed for Process Heat Integration
Task 49: Guidelines Developed for Process Heat Integration
May 2015 - PDF 0.42MB - Posted: 2016-03-20
Editor: Pamela Murphy
Solar planners, energy consultants and process engineers now have access to a general procedure to identify and rank suitable integration points and solar thermal system concepts when integrating solar heat into industrial processes. The guidelines were developed within SHC Task 49: Solar Heat Integration in Industrial Processes.
Integration of Solar Heating into Heat Recovery Loops using Constant and Variable Temperature storage
2013 - Posted: 2013-10-24
By: M Walmsley, T Walmsley, M Atkins
Publisher: Chemical Engineering Transactions, pp1183, vol 35, 2013
ISBN: 978-88-95608-26-6
Impact of pressure losses in small-sized parabolic-trough collectors for direct steam generation
2013 - Posted: 2013-10-24
By: David H. Lobón, Loreto Valenzuela
Publisher: Energy, Vol. 61 (2013), pp. 502-512
The role of heat pipes in intensified unit operations
2013 - Posted: 2013-07-01
By: David Reay, Adam Harvey
Publisher: Applied Thermal Engineering, Vol. 57, Issues 1-2, pp. 147-153, 2013
Opportunities for low-grade heat recovery in the UK food processing industry
2013 - Posted: 2013-07-01
By: Richard Law, Adam Harvey, David Reay
Publisher: Applied Thermal Engineering, Vol. 53, Issue 2, pp. 188-96, 2013
Investigation of low Global Warming Potential working fluids for a closed two-phase thermosyphon
2013 - Posted: 2013-07-01
By: Robert MacGregor, Peter Kew, David Reay
Publisher: Applied Thermal Engineering, Vol. 51, Issues 1-2, pp. 917-925, 2013
Use of parabolic trough solar collectors for solar refrigeration and air-conditioning applications
2013 - Posted: 2013-07-01
By: Cabrera, F. J., Fernández-García, A., Silva, R. M. P., y Pérez-García, M.
Publisher: Renewable and Sustainable Energy Reviews, 20, 103-118, (2013).
Modeling and co-simulation of a parabolic trough solar plant for industrial process heat
2013 - Posted: 2013-07-01
By: Silva, R., Pérez, M., y Fernández-Garcia, A.
Publisher: Applied Energy 106, 287-300, (2013).
Heat transfer mechanisms in a compound parabolic concentrator: Comparison of computational fluid dynamics simulations to particle image velocimetry and local temperature measurements
2013 - Posted: 2013-10-22
By: C. Reichl, F. Hengstberger, C. Zauner - AIT
Publisher: Solar Energy
Vol 97, 2013, 436-446
Heat-powered cycles: are the process industries 'missing the boat'?
January 2013 - Posted: 2013-07-01
By: David Reay
Publisher: Int. J. Low-Carbon Tech. (2013) 8 (suppl 1): i2-i8
Solar Thermal Marking New Frontiers
January 2013 - Posted: 2013-07-01
By: Thermax Solar
Publisher: EQ International March 2013 Issue, Page 61
Solar Steam Cooking Made Possible in the Treacherous regions on Ladakh
January 2013 - Posted: 2013-07-01
By: Thermax Solar
Publisher: EQ International April 2013 Issue, Page 57
A new solar combined heat and power system for sustainable automobile manufacturing
January 2013 - Posted: 2013-10-31
By: Oliver Iglauera, Christian Zahler
Publisher: Elsevier, Energy Procedia
Development of an integrated solar-fossil powered steam generation system for industrial applications
January 2013 - Posted: 2013-10-31
By: Bernd Hafner, Olaf Stoppok, Christian Zahler, Michael Berger, Klaus Hennecke, Dirk Krüger
Publisher: Elsevier, Energy Procedia
Solar process heat for sustainable automobile manufacturing
January 2012 - Posted: 2013-10-31
By: Oliver Iglauera, Christian Zahler
Publisher: Elsevier, Energy Procedia, Vol 30, Pages 775-782

Highlights

Task 49 Highlights 2015
Task 49 Highlights 2015
April 2016 - PDF 0.23MB - Posted: 2016-04-05
Solar Heat for Industrial Processes (SHIP) is currently at the early stages of development, but is considered to have huge potential for solar thermal applications. Currently, 120 operating solar thermal systems for process heat are reported worldwide, with a total capacity of about 88 MWth (125,000 m2). The first applications have been experimental and relatively small in scale. In recent years, significantly larger solar thermal fields have been applied and are currently in the project pipeline. There is great potential for this market and technological developments as 28% of the overall energy demand in the EU27 countries originates in the industrial sector and the majority of this is heat of below 250°C.
Task 49 Highlights 2014
Task 49 Highlights 2014
February 2015 - PDF 0.69MB - Posted: 2015-02-17
Solar Heat for Industrial Processes (SHIP) is currently at the early stages of development, but is considered to have huge potential for solar thermal applications. Currently, 120 operating solar thermal systems for process heat are reported worldwide, with a total capacity of about 88 MWth (125,000 m2). The first applications have been experimental and relatively small scale. In recent years, significantly bigger solar thermal fields have been applied and are currently in the project pipeline. There is great potential for this market and technological developments, as 28% of the overall energy demand in the EU27 countries originates in the industrial sector, and the majority of this is heat of below 250°C. In several specific industry sectors, such as food, wine and beverages, transport equipment, machinery, textiles, pulp and paper, the share of heat demand at low and medium temperatures (below 250°C) is around 60%. Tapping into this potential would provide a significant solar contribution to industrial energy requirements.
Task 49 Highlights 2013
Task 49 Highlights 2013
January 2014 - PDF 0.13MB - Posted: 2014-09-15
By: Task 49
Solar Heat for Industrial Processes (SHIP) is currently at the early stages of development, but is considered to have huge potential for solar thermal applications. Currently, 120 operating solar thermal systems for process heat are reported worldwide, with a total capacity of about 88 MWth (125,000 m2). The first applications have been experimental and relatively small scale. In recent years, significantly bigger solar thermal fields have been applied and are currently in the project pipeline. There is great potential for this market and technological developments, as 28% of the overall energy demand in the EU27 countries originates in the industrial sector, and the majority of this is heat of below 250°C.
Task 49 Highlights 2012
Task 49 Highlights 2012
January 2014 - PDF 0.15MB - Posted: 2014-09-15
By: Task 49
The identification of the requirements of the so called “process heat collectors” that run at higher temperatures will lead to new collector and collector loop developments. To achieve this not only do solar collectors need to be improved, but also production processes need a thorough investigation in order to lower the process temperatures and increase the heat transfer. In several specific industry sectors, such as food, wine and beverages, transport equipment, machinery, textiles, pulp and paper, the share of heat demand at low and medium temperatures (below 250°C) is around 60%. Tapping into this potential would provide a significant solar contribution to industrial energy requirements.

Presentations

Solar Heat for Industrial Production Processes
Solar Heat for Industrial Production Processes
Latest Research and Large Scale Installations - SHC 2014
October 2014 - PDF 4.59MB - Posted: 2015-01-02
By: Christoph Brunner
Presentation at SHC 2014
CHARACTERIZATION MEASUREMENTS ON A PARABOLIC TROUGH COLLECTOR FOR PROCESS HEAT APPLICATIONS
2013 - Posted: 2013-10-25
By: Larcher, M.; Rommel, M.; Frank, E.; Bohren, A.
Publisher: Proceedings ISES Solar World Congress 2013; EnergyProcedia
Evaluation of Measurements on Parabolic Trough Collector Fields for Process Heat Integration in Swiss Dairies
2013 - Posted: 2013-10-25
By: Frank, E.; Marty, H.; Hangartner, L.; Minder, S.
Publisher: Proceedings ISES Solar World Congress 2013; EnergyProcedia
SolNet - PhD-scholarships and courses on Solar Heating
2013 - Posted: 2013-10-25
By: Jordan, U., Vajen, K., Bales, C., Cortés Fortezac, P.J., Drück, H., Frank, E., Furbo, S., Heinzen, R., Lukea, A., Martinez Moll, V., Pietschnig, R., Streicher, W., Wagner, W., Witzig, A.
Publisher: Proceedings ISES Solar World Congress 2013; EnergyProcedia
Parabolrinnenkollektoren für Prozesswärme in Schweizer Molkereien
2013 - Posted: 2013-10-25
By: Frank, E., Feuerstein, M., Minder, S.
Publisher: Tagungsband 23. Symposium Thermische Solarenergie, Bad Staffelstein, 2013
Solar thermal plant integration into an industrial process
2013 - Posted: 2013-10-22
By: A. Frein, M. Calderoni, M. Motta - Polimi
Publisher: SHC Freiburg 2013
CPC-Vakuumröhren-Kollektoranlagen für Prozesswärme bis 160 °C
January 2013 - Posted: 2013-10-22
By: Rolf Meißner
Publisher: Sanitär- und Heizungtstechnik, SHT 08/2013
CPC evacuated tube collector systems for process heat up to 160 °C
January 2013 - Posted: 2013-10-22
Publisher: ASES conference Baltimore 04/2013 paper
Collector Simulation Model with Dynamic Incidence Angle Modifier for Anisotropic Diffuse Irradiance
January 2013 - Posted: 2013-10-22
By: Stefan Hess, Victor Hanby
Publisher: Energy Procedia, SHC 2013, International Conference on Solar Heating and Cooling for Buildings and Industry.
Optical characterization parameters for line-focusing solar concentrators: measurement procedures and extended simulation results
January 2013 - Posted: 2013-10-22
By: Pedro Horta, Tiago Osório
Publisher: Proceedings of the SOLARPACES 2013, September 2013, Las Vegas, USA
Development and test results of a calorimetric technique for solar thermal testing loops, enabling mass flow and Cp measurements independent from fluid properties of the HTF used
January 2013 - Posted: 2013-10-22
By: João Marchã, Tiago Osório, Manuel Collares Pereira, Pedro Horta
Publisher: Proceedings of the SOLARPACES 2013, September 2013, Las Vegas, USA
Design and simulation of a solar field coupled to a cork boiling plant
January 2013 - Posted: 2013-10-24
By: Mario Biencinto, Lourdes González, Loreto Valenzuela, Aránzazu Fernández
Publisher: SHC 2013, International Conference on Solar Heating and Cooling for Buildings and Industry, September 23-25, Freiburg, Germany
Modelling energy systems for the food industry
January 2013 - Posted: 2013-07-01
By: Michaela Titz
Publisher: European Roundtable for Cleaner Productions and Consumption, Istanbul, June 2013
Monitoring und Analyse solarer Prozesswärmeanlagen
January 2013 - Posted: 2013-10-24
By: Anette Anthrakidis, Christian Faber, Marco Lanz, Mario Adam, Sebastian Schramm, Hans-Peter Wirth
Publisher: OTTI 2013 - 23. Symposium Thermische Solarenergie
Storage in solar process heat applications
January 2013 - Posted: 2013-10-24
By: Mario Adam, Sebastian Schramm
Publisher: International Conference on Solar Heating and Cooling for Buildings and Industry
Experimental Investigations on the Optical and Thermal Characterization of a Parabolic Trough Collector.
2012 - Posted: 2013-10-25
By: Rommel, M., Larcher, M., Frank, E., Bohren, A., Keller, M., Riedesser, F.:
Publisher: Proceedings EuroSun Conference, Rijeka, 2012.
Solar Thermal Plants for Industrial Process Heat in Tunisia: Economic Feasibility Analysis and Ideas for a New Policy
2012 - Posted: 2013-07-01
By: Marco Calderoni, Marcello Aprile, Salvatore Moretta, Aristotelis Aidonis, Mario Motta
Publisher: Energy Procedia, Volume 30, 2012, Pages 1390–1400
Sensitivity analysis of saturated steam production in parabolic trough collectors
2012 - Posted: 2013-07-01
By: Loreto Valenzuela, David Hernández-Lobón, Eduardo Zarza - CIEMAT
Publisher: Energy Procedia 30, 765-774, (2012).
Comparison of different collector technologies for temperatures above 150 °C
January 2012 - Posted: 2013-07-01
By: Stephan Fischer, Patrick Frey
Publisher: Proceedings of the 'Internationale Konferenz für thermische Solarnutzung Gleisdorf 2012'
CPC-Vakuumröhren-Kollektoranlagen für Prozesswärme bis 160 °C
January 2012 - Posted: 2013-10-22
By: Rolf Meißner
Publisher: Erneuerbare Energien Austria; EEA 4/2012
Hydraulische Einbindung von Speichern in solare Prozesswärmesysteme
January 2012 - Posted: 2013-10-24
By: Mario Adam, Sebastian Schramm
Publisher: OTTI 2012 - 22. Symposium Thermische Solarenergie
Solare-Prozesswärme-Standards
January 2011 - Posted: 2013-10-24
By: Mario Adam, Martina Dreher, Sebastian Schramm, Anette Anthrakidis, Christian Faber, Marco Lanz
Publisher: World Sustainable Energy Days 2011
Barriers to Solar Process Heat Applications
January 2011 - Posted: 2013-10-24
By: Christian Faber, Anette Anthrakidis, Marco Lanz, Mario Adam, Sebastian Schramm
Publisher: ISES Solar World Congress 2011
Konzeptionierung, Aufbau und wissenschaftliche Begleitung einer Pilotanlage
January 2010 - Posted: 2013-10-24
By: Anette Anthrakidis, Christian Faber, Marco Lanz, Mario Adam, Sebastian Schramm
Publisher: OTTI 2010 - 20. Symposium Thermische Solarenergie

Supporting Documents

SHC Task 49 Annex
SHC Task 49 Annex
October 2011 - PDF 0.26MB - Posted: 2015-07-06
By: Christoph Brunner
The content of this new proposed project was defined based on knowledge from SHC 33/SolarPACES Task IV and opposition papers, such the strategic research agenda of the European Solar Thermal Technology Platform and the experience of several national projects in the field of solar process heat.

Website

A Web-Based Expert System for Energy Efficiency in the Food Industry
Task 49
January 2013 - Posted: 2013-07-01
By: Hans Schnitzer
Publisher: European Roundtable for Cleaner Productions and Consumption, Istanbul, June 2013
SHIP Database on Existing Applications of Solar Heat Integration in Industrial Processes
Task 49 - Posted: 2018-06-15

The Solar Heat for Industrial Processes – SHIP Database has been created within the framework of IEA SHC Task 49. This online database contains a worldwide overview on existing solar thermal plants which provide thermal energy for production processes for different industry sectors. Each plant description contains a number of informations about e.g. the size of the collector field, collector technology or integration point in the production process.