PEC12-25 CAPEC-PROCESS Industrial Consortium ... - DTU Orbit
PEC12-25 CAPEC-PROCESS Industrial Consortium ... - DTU Orbit
PEC12-25 CAPEC-PROCESS Industrial Consortium ... - DTU Orbit
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Hande Bozkurt (HBOZ)<br />
<strong>CAPEC</strong>-<strong>PROCESS</strong><br />
Peam Cheali (PCHE) Integrated framework for synthesis and design of multiproduct<br />
biorefinery networks<br />
<strong>CAPEC</strong>-<strong>PROCESS</strong><br />
Computer-aided aided framework for synthesis, design and retrofit<br />
of future wastewater treatment systems<br />
Currently, the WWTP layout designs are mainly based on expert<br />
decisions and experiences. This approach takes the values like<br />
environmental issues, water reuse, by-product<br />
recovery and<br />
public impacts cts into account and identifies the alternatives based<br />
on experience, similar solutions and brainstorming to come up<br />
with the most viable WWTP systems. However, with increased<br />
complexity of the technologies and stricter limit values for<br />
effluents; making the he most feasible decision with this approach<br />
became harder. What is proposed in this paper is therefore, a<br />
new approach based on mathematical programming to manage<br />
the complexity of the problem and generate/identify novel and<br />
optimal WWTP layouts for specific fic wastewater feed domestic<br />
as well as industrial nature. The tool will be developed to<br />
formulate the design problem as an MINLP and by using the<br />
database of wastewater treatment technologies; it will generate<br />
many alternatives and evaluate at their optim optimality. Since the tool<br />
will cover both environmental and sustainability metrics, it will<br />
be a powerful decision making agent for WWTP layout design.<br />
Supervisors: GSI, KVG<br />
Start: 16-12-2011; End: 16-01-2015<br />
Research area: B,C, E<br />
In this PhD project, a framework for synthesis and design of<br />
integrated-intensified chemical and biochemical hemical processes is to<br />
be developed. The framework will l focus on biorefinery network<br />
design and synthesis in addition to a systematic approach which<br />
is used to manage the complexity and solving simultaneously<br />
both the business and the engineering dimension of the problem.<br />
This approach allows generation and ccomparison<br />
of a large<br />
number of alternatives at their optimal point, in order to identify<br />
the optimal raw material, multi-product product portfolio and process<br />
technology selection for the different cases defined by market<br />
scenario, their sustainability metrics and risk of investment<br />
under market uncertainties. More specifically, the framework<br />
will include the following features: library of models and<br />
database for the assessment of process performance, generation<br />
and analysis of processing technology altern alternatives and<br />
intensification options, computer-aided aided sy synthesis and design of<br />
processing paths in networks, MINLP INLP, assessment and<br />
comparison of the candidates at their optimality. Case studies of<br />
biorefinery network are considered focusing on production of<br />
biochemicals, als, biofuels and optimal blend blends of mixtures with<br />
fossil fuels will be used ed to highlight the novel features features.<br />
Supervisors: GSI, RaG,KVG<br />
Start: 01-05-2012; End: 31-05-2015<br />
Research area: B, C, E.<br />
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