Total Site Heat Integration planning and design for industrial, urban and renewable systems

Liew, Peng Yen; Theo, Wai Lip; Alwi, Sharifah Rafidah Wan; Lim, Jeng Shiun; Manan, Zainuddin Abdul; Klemeš, Jiří Jaromír; Varbanov, Petar Sabev

doi:10.1016/j.rser.2016.05.086

Cited by 89 publications

(38 citation statements)

References 167 publications

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“…Among the literature, three dominant categories of optimization tools are present, segregated by their discussion on the type of resource flows optimized—water (see, e.g., Lee, Chen, Lin, & Foo, ; Leong, Lee, & Chew, ; Ramos, Boix, Aussel, Montastruc, & Domenech, ), energy (see, e.g., Chae, Kim, Yoon, & Park, ; Hipólito‐Valencia et al., ; Liew et al., ), and material (see, e.g., Cimren, Fiksel, Posner, & Sikdar, ; Noureldin & El‐Halwagi, ).…”

Section: Thematic Analysismentioning

confidence: 99%

Tools for promoting industrial symbiosis: A systematic review

Yeo

Masi

Low

et al. 2019

J of Industrial Ecology

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Industrial symbiosis (IS) employs a cross‐organizational perspective to seek synergistic pairings of one company's waste output to another company's input, enabled by interfirm cooperation through resource and information sharing. Orchestrating IS relationships among companies, however, remains a complex process. In the literature, a wide range of qualitative and quantitative tools have emerged, tackling issues ranging from identifying IS creation opportunities to performance evaluation. Thus far, the available literature has focused on separate aspects and perspective of IS creation. Each individual work contributes, in part, to the overall process of IS creation. The disparate perspectives provided by the literature reflect the fragmented nature of available tools supporting IS, which operate in isolation of each other. An encompassing view of tools supporting the process of IS creation is missing to date. Therefore, to fill this gap, this study aims to develop a more comprehensive description of the landscape of IS tools by analyzing the associated approaches, roles, and contribution of existing tools. Through this understanding, the insights gained can be used to aid future development and advancement of tools for IS practitioners.

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Section: Thematic Analysismentioning

confidence: 99%

Tools for promoting industrial symbiosis: A systematic review

Yeo

Masi

Low

et al. 2019

J of Industrial Ecology

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“…Pinch-based methods provide a simple visualization of the potential for heat recovery within the process as well as between the process and a cogeneration system or an excess heat recovery technology or between different process plants within a total site. 40,41 For a review of the latest developments in applying pinchbased methods for integration of waste heat valorization technologies, see Section 2.6.2.2 of Klemeš et al 27 .…”

Section: Pinch-based Methods For Targeting Of Industrial Excess Heatmentioning

confidence: 99%

Characterization and visualization of industrial excess heat for different levels of on‐site process heat recovery

2019

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Summary Increased utilization of industrial excess heat (or waste heat) can reduce primary energy use and thereby contribute to reaching energy and climate targets. To estimate the potential availability of industrial excess heat, it is necessary to capture the significant heterogeneity of the industrial sector. This requires the development of methodologies based on case study assessments of individual plants, adopting a systematic approach and consistent assumptions. Since the recovery of excess heat for power generation or off‐site delivery competes with internal recovery for on‐site fuel savings, a well‐founded approach should enable a comparison of the excess heat availability at different levels of internal process heat recovery. To determine the best solution for excess heat utilization for a given process, there is a need for easy screening of various options, while considering that some techniques require heat at a constant temperature while others can exploit a nonisothermal heat supply. This paper presents a new tool, the excess heat temperature (XHT) signature, for exploring the potential heat availability and trade‐offs for excess heat utilization by weighting the heat according to predefined temperature levels and ranges. A set of reference conditions are defined, and an energy targeting approach is proposed that can be used for characterizing the Theoretical XHT signature, which represents the unavoidable excess heat that can be recovered after maximized internal process heat recovery and ideal integration of a power generation steam cycle. The Theoretical XHT signature is contrasted with the Process Cooling XHT signature, which represents the excess heat that can be recovered given the current design and operation of the process and its utility system. The XHT signature curves provide a consistent representation of the excess heat, enabling comparison between sites and aggregation of results from different case studies.

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“…DG could be a potential means for penetration of renewable energy resources into electric power system for reducing gaseous pollutant emissions and impact on climate changes [62].…”

Section: Environmental Benefitsmentioning

confidence: 99%

“…Case studies focusing on industrial loads are somehow still lacking. For the case of industrial loads, seasonal impacts are minimal [62] but one-year thermal and electricity load profile consideration is recommended to capture the industrial operational variability for batch productions (i.e. dairy and pharmaceutical industries) [259] and impacts of scheduled maintenance work.…”

Section: Load Demand Profile Analysismentioning

confidence: 99%