Classification of Industrial Heat Consumers for Integration of Solar Heat

Schmitt, Bastian

doi:10.1016/j.egypro.2016.06.225

Cited by 26 publications

(21 citation statements)

References 5 publications

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“…Schmitt performed several comprehensive studies to show the utilized process installations in food and beverage industries. He also developed a classification mechanism for SHIP integration [76]. Modi et al reviewed solar driven heat and power generation systems [54].…”

Section: Methodological Approachmentioning

confidence: 99%

Solar process heat in industrial systems – A global review

Farjana

Huda

Saidur

2018

Renewable and Sustainable Energy Reviews

216

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In developing countries, industries and manufacturing sectors consume a major portion of the total consumption of energy, where most of the energy is used for low, medium or high temperature heat generation to be used for process applications known as process heat. The necessity to commercialize clean, cheap and efficient renewable sources of energy in industrial applications emerges from increasing concerns about greenhouse gas emissions and global warming and decreasing fossil fuel use in commercial sectors. As an abundant source of energy, solar energy technologies have proven potential. Recent research shows currently only a few industries are employing solar energy in industrial processes to generate process heat while replacing fossil fuels. Solar thermal power generation is already very well-known and getting popular in recent years while other potential applications of the concentrated heat from solar radiation are little explored. This review paper presents a detailed overview of the current potential and future aspects of involving solar industrial process heating systems in industrial applications. In order to keep pace with this emerging and fast growing sector for renewable energy applications, it is necessary to get in depth knowledge about the overall potential of industrial processes in individual industrial sector where solar process heat is currently in use and identifying industrial processes are most compatible for solar system integration depending on temperature level and the type of solar collector in use. Furthermore, the promising sectors needs to be identified for the use of solar heat using industrial processes for the integration of solar heat, so that countries with immense solar energy potential can use those technologies in future to reduce fossil fuel consumption and develop sustainable industrial systems. This paper presents a comprehensive review of the potential industrial processes that can adopt solar process heating systems and thus driving towards sustainable production in industries.

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Section: Methodological Approachmentioning

confidence: 99%

Solar process heat in industrial systems – A global review

Farjana

Huda

Saidur

2018

Renewable and Sustainable Energy Reviews

216

View full text Add to dashboard Cite

show abstract

“…Schmitt [77] made a classification of heat loads in the industry at the level of supply and processes. At the supply level, the heat loads are determined in steam and liquid heat transfer media.…”

Section: Methods and Approaches For Solar Thermal Integrationmentioning

confidence: 99%

“…• Data extraction (heat recovery, additional ΔT, data from heat streams); Schmitt [77] found a few conditions that are very important for solar heat integration. They are distinction between supply and process level, heat transfer medium at supply level, category of heat consumer at process level, and the conventional way of heating at process level.…”

Section: Heat Integration With Pinch Technologymentioning

confidence: 99%

A Systematisation of Methods for Heat Integration of Solar Thermal Energy in Production Processes: A Review

Anastasovski¹,

Rašković²,

Guzović³

et al. 2020

J. sustain. dev. energy water environ. syst.

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The widespread use of fossil fuels and their limitation leads to find other sources of energy. Solar thermal energy is a possible solution. There are many projects that use renewable energy. Solar thermal energy can be easily used for heating. However, there are problems in the efficiency of solar collectors, the loss of heat, the consistency of heat supply, temperature and weather conditions, the biggest problem being the heat storage. In this paper is provided an overview of the methodologies for thermal integration of solar heating systems implemented in various projects and research. Solar heating systems have different designs and can generate heat in different temperature ranges. The main emphasis in this comprehensive overview is the systematisation of the various methodologies used in the integration of solar heat in production. In principle, solar heating systems are directly connected to the production systems. Furthermore, a few methodologies like Pinch technology, mathematical modelling and cogeneration are included.

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“…The use of solar energy in the heat supply of buildings in the residential and commercial sectors has a rather long history and is well studied in the literature [9][10][11], while the use of solar energy in industrial production is currently only developing. The primary constraint so far is the impossibility of providing round-the-clock heat supply to the production process using solar energy.…”

Section: Introductionmentioning

confidence: 99%

Energy Saving Potential of Industrial Solar Collectors in Southern Regions of Russia: The Case of Krasnodar Region

et al. 2020

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Industrial low-temperature processes are a promising sector for the introduction of solar collectors, which can partially, and in some cases, completely, replace traditional heat supply technologies. In Krasnodar Region (Russia), it is shown that the energy-saving potential when introducing industrial solar collectors only at food industry enterprises can make up 16%–17% of the total amount of thermal energy produced in the region annually. The global market of industrial solar collectors is currently developing almost without any government incentives, only due to market mechanisms, which indicates the commercial attractiveness of the technology. According to the predicted estimates, levelized cost of energy produced by industrial solar collectors in the southern regions of Russia may amount to 3.8–6.6 rubles per kWh. Even though the forecast estimates are higher than current tariffs, the economic feasibility of using solar collectors in the industry increases significantly if it is not possible to connect to centralized heating networks, as well as in the case of the seasonal load of industrial facilities. As a measure of state incentives for the development of industrial solar collectors in Russia, we offer state co-financing of demonstration projects of Russian manufacturers. This will increase the level of awareness of the population and businesses about the capabilities of this technology. Also, it will increase the technical competencies and innovative potential of companies involved in the production and installation of solar collectors.

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Classification of Industrial Heat Consumers for Integration of Solar Heat

Cited by 26 publications

References 5 publications

Solar process heat in industrial systems – A global review

Solar process heat in industrial systems – A global review

A Systematisation of Methods for Heat Integration of Solar Thermal Energy in Production Processes: A Review

Energy Saving Potential of Industrial Solar Collectors in Southern Regions of Russia: The Case of Krasnodar Region

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