Environmental and Occupational Optometry. Lesson 2 (Course 2013-2014)

Tema 2. Actividad voluntaria nº 2.

Environmental and Occupational Optometry. Lesson 3 (Course 2013-2014)

Tema 3. Actividad evaluable nº 2.

Environmental and Occupational Optometry. Lesson 4 (Course 2013-2014)

Tema 4. Actividad voluntaria nº 2.

Environmental and Occupational Optometry. Lesson 5 (Course 2013-2014)

Tema 5. Actividad voluntaria nº 3.

Environmental and Occupational Optometry. Lesson 6 (Course 2013-2014)

Tema 6: Diseño del entorno visual. Actividad propuesta no. 3.

Environmental and Occupational Optometry. Lesson 7 (Course 2013-2014)

Tema 7: Riesgos para lesiones oculares y visuales. Actividad propuesta nº 4.

Environmental and Occupational Optometry. Lesson 8 (Course 2013-2014)

Tema 8: Pantallas de visualización de datos. Actividad voluntaria nº 5.

Environmental and Occupational Optometry. Lesson 9 (Course 2013-2014)

Tema 9: Visión y conducción. Actividad obligatoria nº 5.

Environmental and Occupational Optometry. Lesson 10 (Course 2013-2014)

Tema 10: visión y deporte. Actividad voluntaria 6.

Simultaneous environmental and economic process synthesis of Isobutane Alkylation

This multidisciplinary study concerns the optimal design of processes with a view to both maximizing profit and minimizing environmental impacts. This can be achieved by a combination of traditional chemical process design methods, measurements of environmental impacts and advanced mathematical optimization techniques. More to the point, this paper presents a hybrid simulation-multiobjective optimization approach that at once optimizes the production cost and minimizes the associated environmental impacts of isobutane alkylation. This approach has also made it possible to obtain the flowsheet configurations and process variables that are needed to manufacture isooctane in a way that satisfies the above-stated double aim. The problem is formulated as a Generalized Disjunctive Programming problem and solved using state-of-the-art logic-based algorithms. It is shown, starting from existing alternatives for the process, that it is possible to systematically generate a superstructure that includes alternatives not previously considered. The optimal solution, in the form a Pareto curve, includes different structural alternatives from which the most suitable design can be selected. To evaluate the environmental impact, Life Cycle Assessment based on two different indicators is employed: Ecoindicator 99 and Global Warming Potential.