This PProfessional master’s degree will lead you to specialize in Chemical Engineering oriented to sustainability and innovation in this sector"

The increased awareness of environmental protection has led chemical industry professionals to focus their efforts on "Green Chemistry", seeking efficiency in production, the use of renewable raw materials, pollution prevention, and the design of much safer products. In addition to this reality, the incorporation of new emerging technologies, favor process management with their tools, automation, the integration of robotization, or the exploration of nanotechnology.

In this sense, the Engineering professional is facing a promising landscape, which requires specialists who are up to date with the advances in this field. For this reason, TECH has designed this program of 1,500 teaching hours, developed by a multidisciplinary educational team.

In this way, the graduates enter a program that will lead them to obtain a very useful learning experience for their performance in large companies in the sector. All this, thanks to a deep knowledge of biomass utilization technology, L+O+I in Chemical Engineering, industrial safety, or the organization and management of companies in this field, among other aspects.

To this end, this educational institution provides high-quality teaching tools such as multimedia pills, detailed videos, case study simulations, and specialized readings. In addition, thanks to the Relearning method, which is based on the content reiteration, the graduate will be able to advance in a natural way through the syllabus and consolidate their learning in a simple way.

Undoubtedly, a unique opportunity to achieve an important progression in this sector, thanks to a university program that is distinguished by its flexible educational methodology. The student only needs an electronic device with an Internet connection to view the content at any time of the day.

The Relearning method will allow you to obtain advanced learning in a natural way and without great effort. Enroll now”

This Professional master’s degree in Chemical Engineering contains the most complete and up-to-date program on the market. The most important features include: 

• The development of practical cases presented by experts in Chemistry Engineering
• The graphic, schematic, and practical contents with which they are created, provide scientific and practical information on the disciplines that are essential for professional practice
• Practical exercises where self-assessment can be used to improve learning
• Its special emphasis on innovative methodologies
• Theoretical lessons, questions to the expert, debate forums on controversial topics, and individual reflection assignments
• Content that is accessible from any fixed or portable device with an Internet connection

You will be familiar with the main software for simulation and optimization of chemical processes"

The program includes in its teaching staff professionals from the sector who bring to this program the experience of their work, as well as recognized specialists from leading societies and prestigious universities.

The multimedia content, developed with the latest educational technology, will provide the professional with situated and contextual learning, i.e., a simulated environment that will provide immersive education programmed to learn in real situations.

This program is designed around Problem-Based Learning, whereby the professional must try to solve the different professional practice situations that arise during the academic year For this purpose, the students will be assisted by an innovative interactive video system created by renowned and experienced experts.

Access high-quality multimedia teaching resources for this program, whenever and wherever you want"

You are in front of a program that dynamically addresses the impact of the 4.0 chemical industry, Blockchain, and Artificial Intelligence"

The syllabus of this Professional master’s degree is structured into 10 modules that will allow the engineering professional to obtain complete learning about Chemical Engineering. To this end, it will delve into the advanced design of Transfer Operations and chemical reactors and their simulation and optimization, industrial safety, emerging technologies, sustainability, and the design of projects in this sector with all the guarantees of success. For this purpose, it has a syllabus created by leading experts and a large amount of didactic material, housed in an extensive Virtual Library.

A syllabus with a theoretical-practical perspective that will lead you to specialize in innovation and emerging technologies in the Chemical Industry"

Module 1. Advanced Transfer Operations Design

1.1. Vapor-Liquid Equilibrium in Multicomponent Systems

1.1.1. Ideal Solutions
1.1.2. Vapor-liquid Diagrams
1.1.3. Deviations from Ideality: Activity Coefficients
1.1.4. Azeotropes

1.2. Rectification of Multicomponent Mixtures

1.2.1. Differential or Flash Distillation
1.2.2. Rectification Columns
1.2.3. Energy Balances in Condensers and Boilers
1.2.4. Calculation of the Number of Plates
1.2.5. Plate Efficiency and Overall Efficiency
1.2.6. Discontinuous Rectification

1.3. Supercritical Fluids

1.3.1. Use of Supercritical Fluids as Solvents
1.3.2. Elements of Supercritical Fluid Systems
1.3.3. Applications of Supercritical Fluids

1.4. Extraction

1.4.1. Liquid-Liquid Extraction
1.4.2. Extraction in Plate Columns
1.4.3. Leaching
1.4.4. Drying
1.4.5. Crystallization

1.5. Solid Phase Extraction

1.5.1. The PSE Process
1.5.2. Addition of Modifiers
1.5.3. Applications in the Extraction of High Value-Added Compounds

1.6. Adsorption

1.6.1. Adsorbate-Adsorbent Interaction
1.6.2. Adsorption Separation Mechanisms
1.6.3. Adsorption Equilibrium
1.6.4. Contact Methods
1.6.5. Commercial Adsorbents and Applications

1.7. Membrane Separation Processes

1.7.1. Membrane Types
1.7.2. Membrane Regeneration
1.7.3. Ion Exchange

1.8. Heat Transfer in Complex Systems

1.8.1. Molecular Energy Transport in Multicomponent Mixtures
1.8.2. Equation of Conservation of Energy Thermal
1.8.3. Turbulent Energy Transport
1.8.4. Temperature-Enthalpy Diagrams

1.9. Heat Exchangers

1.9.1. Classification of Heat Exchangers According to Flow Direction
1.9.2. Classification of Heat Exchangers According to Structure
1.9.3. Exchanger Applications in Industry

1.10. Heat Exchanger Networks

1.10.1. Sequential Synthesis of an Exchanger Network
1.10.2. Simultaneous Synthesis of an Exchanger Network
1.10.3. Application of the Pinch Method to Heat Exchanger Networks

Module 2. Advanced Chemical Reactor Design

2.1. Reactor Design

2.1.1. Kinetics of Chemical Reactions
2.1.2. Reactor Design
2.1.3. Simple Reaction Design
2.1.4. Multiple Reaction Design

2.2. Fixed Bed Catalytic Reactors

2.2.1. Mathematical Models for Fixed-Bed Reactors
2.2.2. Fixed Bed Catalytic Reactor
2.2.3. Adiabatic Reactor with and without Recirculation
2.2.4. Non Adiabatic Reactors

2.3. Fluidized-Bed Catalytic Reactors

2.3.1. Gas-Solid Systems
2.3.2. Fluidization Regions
2.3.3. Fluidized Bed Bubble Models
2.3.4. Reactor Models for Fine and Large Particles

2.4. Fluid-Fluid Reactors and Multiphase Reactors

2.4.1. Design of Infill Columns
2.4.2. Design of Gushing Columns
2.4.3. Multiphase Reactor Applications

2.5. Electrochemical Reactors

2.5.1. Over-potential and Electrochemical Reaction Rate
2.5.2. Influence on the Geometry of Electrodes
2.5.3. Modular Reactors
2.5.4. Model of Electrochemical Reactor Piston Flow
2.5.5. Model of Electrochemical Reactor Perfect Mixing

2.6. Membrane Reactors

2.6.1. Membrane Reactors

2.6.1.1. According to Membrane Position and Reactor Configuration

2.6.2. Membrane Reactors Applications
2.6.3. Design of Membrane Reactors for the Production of Hydrogen
2.6.4. Membrane Bioreactors

2.7. Photo-reactors

2.7.1. The Photo-reactors
2.7.2. Photo-reactor Applications
2.7.3. Photo-reactor Design for Pollutant Removal

2.8. Gasification and Combustion Reactors

2.8.1. Design of Fixed Bed Gasifiers
2.8.2. Design of Fluidized Bed Gasifiers
2.8.3. Drag-Flow Gasifiers

2.9. Bioreactors

2.9.1. Bioreactors by Mode of Operation
2.9.2. Design of a Batch Bioreactor
2.9.3. Design of a Continuous Bioreactor
2.9.4. Design of a Semi-continuous Bioreactor

2.10. Polymerization Reactors

2.10.1. Polymerization Process
2.10.2. Anionic Polymerization Reactors
2.10.3. Staged Polymerization Reactors
2.10.4. Free Radical Polymerization Reactors

Module 3. Processes and Chemical Products Design

3.1. Chemical Products Design

3.1.1. Chemical Products Design
3.1.2. Stages in Product Design
3.1.3. Chemical Products Categories

3.2. Strategies in Chemical Products Design

3.2.1. Detection of Market Needs
3.2.2. Conversion of Requirements into Product Specifications
3.2.3. Sources of Idea Production
3.2.4. Strategies for the Idea Screening
3.2.5. Variables Influencing Idea Selection

3.3. Strategies in Chemical Products Manufacturing

3.3.1. Prototypes in Chemical Products Manufacturing
3.3.2. Chemical Products Manufacture
3.3.3. Specific Design of Basic Chemicals
3.3.4. Scaling

3.4. Process Design

3.4.1. Flowsheeting for Process Design
3.4.2. Process Understanding Diagrams
3.4.3. Heuristic Rules in the Design of Chemical Processes
3.4.4. Flexibility of Chemical Processes
3.4.5. Problem Solving Associated with Process Design

3.5. Integrated Environmental Remediation in Chemical Processes

3.5.1. Integration of the Environmental Variable in Process Engineering
3.5.2. Recirculation Flows in the Process Plant
3.5.3. Treatment of Effluents Produced in the Process
3.5.4. Minimization of Discharges from Process Plant Activities

3.6. Process Intensification

3.6.1. Intensification Applied to Chemical Processes
3.6.2. Intensification Methodologies
3.6.3. Intensification in Reaction and Separation Systems
3.6.4. Process Intensification Applications: Highly Efficient Equipment

3.7. Stock Management

3.7.1. Inventory Management
3.7.2. Selection Criteria
3.7.3. Inventory Sheets
3.7.4. Procurement

3.8. Processes and Chemical Products Economic Analysis

3.8.1. Fixed and Working Capital
3.8.2. Capital and Manufacturing Cost Estimation
3.8.3. Equipment Cost Estimate
3.8.4. Estimation of Labor and Raw Material Costs

3.9. Profitability Estimation

3.9.1. Global Investment Estimation Methods
3.9.2. Detailed Investment Estimation Methods
3.9.3. Chemical Investment Selection Criteria
3.9.4. The Time Factor in Cost Estimation

3.10. Application in the Chemistry Industry

3.10.1. Glass Industry
3.10.2. Cement Industry
3.10.3. Ceramic Industry

Module 4. Chemical Process Simulation and Optimization

4.1. Optimization of Chemical Processes

4.1.1. Heuristic Rules in Optimization of Processes
4.1.2. Determination of Degrees of Freedom
4.1.3. Selection of Design Variables

4.2. Energy Optimization

4.2.1. Pinch Method Advantages
4.2.2. Thermodynamic Effects Influencing Optimization
4.2.3. Cascade Diagrams
4.2.4. Enthalpy-Temperature Diagrams
4.2.5. Corollaries of the Pinch Method

4.3. Optimization Under Uncertainty

4.3.1. Lineal Programming (LP)
4.3.2. Graphical Methods and Simplex Algorithm in LP
4.3.3. Non-Lineal Programming
4.3.4. Numerical Methods for the Optimization of Nonlinear Problems

4.4. Simulation of Chemical Processes

4.4.1. Simulated Process Design
4.4.2. Property Estimation
4.4.3. Thermodynamic Packages

4.5. Software for Chemical Process Simulation and Optimization

4.5.1. Aspen plus and Aspen hysys
4.5.2. Unisim
4.5.3. Matlab
4.5.4. COMSOL

4.6. Simulation of Separation Operations

4.6.1. Marginal Steam Flow Rate Method for Rectification Columns
4.6.2. Rectifying Columns with Thermal Coupling
4.6.3. Empirical Method for the Design of Multicomponent Columns
4.6.4. Calculation of the Number Minimally of Plates

4.7. Heat Exchanger Simulation

4.7.1. Simulation of a Shell and Tube Heat Exchanger
4.7.2. Heads on Heat Exchangers
4.7.3. Configurations and Variables to be Defined in Heat Exchanger Design

4.8. Reactor Simulation

4.8.1. Ideal Reactor Simulation
4.8.2. Multiple Reactor Systems Simulation
4.8.3. Reacting or Equilibrium Reactor Simulation

4.9. Multi-Product Plants Design

4.9.1. Multi-Product Plant
4.9.2. Multi-Product Plants Advantages
4.9.3. Multi-Product Plants Design

4.10. Multi-Product Plants Optimization

4.10.1. Factors Affecting Optimization Efficiency
4.10.2. Factorial Design Applied to Multiproduct Plants
4.10.3. Optimization of Equipment Size
4.10.4. Remodeling of Existing Plants

Module 5. Sustainability and Quality Management in the Chemical Industry

5.1. Environmental Management Systems

5.1.1. Environmental Management
5.1.2. Environmental Impact Assessment
5.1.3. ISO 14001 Standard and Continuous Improvement
5.1.4. Environmental Auditing

5.2. Carbon and Environmental Footprint

5.2.1. Corporate Sustainability
5.2.2. Corporate Carbon and Environmental Footprint
5.2.3. Carbon Footprint Calculation of an Organization
5.2.4. Application of the Corporate Environmental Footprint

5.3. Sustainable Water Management in Industry

5.3.1. Planning the Sustainable Use of Water Resources through Hydrological Modeling
5.3.2. Responsible Use of Water in Industrial Chemical Processes
5.3.3. Use of Nature-Based Solutions in Industry

5.4. Life Cycle Analysis

5.4.1. Sustainable Industrial Production
5.4.2. Product Life Cycle Components
5.4.3. Phases of the Life Cycle Analysis Methodology
5.4.4. ISO 14040 Standard for Product Life Cycle Assessment

5.5. Quality Management Systems

5.5.1. Quality Principles and Evolution
5.5.2. Quality Control and Assurance
5.5.3. ISO 9001

5.6. Process Quality Assurance

5.6.1. Quality Management Systems and Its Processes
5.6.2. Steps in the Quality Assurance Process
5.6.3. Standardized Processes

5.7. Quality Assurance of the Final Product

5.7.1. Standardization
5.7.2. Equipment Calibration and Maintenance
5.7.3. Product Approvals and Certifications

5.8. Implantation of Integrated Management System

5.8.1. Integrated Management System
5.8.2. Implantation of Integrated Management System
5.8.3. GAP Analysis

5.9. Change Management in the Chemical Industry

5.9.1. Change Management in the Industry
5.9.2. Industry of Chemical Processes
5.9.3. Change Planning

5.10. Sustainability and Minimization: Integrated Waste Management

5.10.1. Minimization of Industrial Waste
5.10.2. Stages in the Minimization of Industrial Waste
5.10.3. Recycling and Treatment of Industrial Waste

Module 6. Technological Advances in Chemical Engineering

6.1. Green Technologies and Processes in the Chemical Industry

6.1.1. Green Chemistry
6.1.2. Industrial Liquid Effluent Treatment Technologies
6.1.3. Industrial Gaseous Effluent Treatment Technologies
6.1.4. Contaminated Soil Rehabilitation

6.2. Catalytic Technology for Environmental Processes

6.2.1. Emerging Technologies in Automotive Catalysts
6.2.2. Water Remediation Using Photo-catalysts
6.2.3. Technologies of Production and Purification of Hydrogen

6.3. Particle Technology

6.3.1. Particle Characterization
6.3.2. Solids Disintegration
6.3.3. Solids Storage
6.3.4. Solids Transportation
6.3.5. Solids Drying Technology

6.4. Innovative Chemical Synthesis Technologies

6.4.1. Microwave-Assisted Synthesis
6.4.2. Photo-response-Assisted Synthesis
6.4.3. Synthesis by Electrochemical Technology
6.4.4. Bio-catalytic Technology for Ester Synthesis

6.5. Advances in Biotechnology

6.5.1. Microbial Biotechnology
6.5.2. Obtaining Bio-products
6.5.3. Biosensors
6.5.4. Biomaterials
6.5.5. Biotechnology and Food Safety

6.6. Advances in Nanotechnology

6.6.1. Types and Nanoparticles Properties
6.6.2. Inorganic Nanomaterials
6.6.3. Carbon-Based Nanomaterials
6.6.4. Nanocompounds
6.6.5. Applications of Nanotechnology in the Chemical Industry

6.7. Digitization Technologies in the Chemical Industry

6.7.1. Chemical Industry 4.0
6.7.2. Impact of Chemical Industry 4.0 on Processes and Systems
6.7.3. Agile and Scrum Methodologies in the Chemical Industry

6.8. Process Robotization

6.8.1. Automation in the Chemical Industry
6.8.2. Collaborative Robots and Technical Specifications
6.8.3. Industrial Applications
6.8.4. Use of Industrial Robots
6.8.5. Integration of Industrial Robots

6.9. Blockchain in Chemical Engineering

6.9.1. Blockchain for Sustainable Management of Chemical Processes
6.9.2. Blockchain in Supply Chain Transparency
6.9.3. Improving Security with Blockchain
6.9.4. Chemical Traceability with Blockchain

6.10. Artificial Intelligence in Chemical Engineering

6.10.1. Application of Artificial Intelligence in the Industry 4.0
6.10.2. Modeling of Chemical Processes with Artificial Intelligence
6.10.3. Artificial Chemical Technology

Module 7. Biomass Utilization Technologies

7.1. 2030 Agenda for Sustainable Development

7.1.1. International Energy Agency's Sustainable Development Scenario
7.1.2. Sustainable Development Goals of the 2030 Agenda
7.1.3. Contribution of the Biomass Sector to the Achievement of the SDGs

7.2. Biomass Uses for Energy Purposes

7.2.1. Biomass Manipulation
7.2.2. Biomass Storage
7.2.3. Use of Biomass for Energy Purposes

7.3. Mechanical Conversion of Biomass

7.3.1. Pelletized
7.3.2. Extrusion
7.3.3. Extraction and Pressing
7.3.4. Composites

7.4. Biological Conversion of Biomass

7.4.1. Biomass Composting
7.4.2. Anaerobic Digestion of Biomass
7.4.3. Biomass Hydrolysis

7.5. Chemical Conversion of Biomass

7.5.1. Transesterification
7.5.2. Solvolysis
7.5.3. Application of Chemical Conversion of Biomass: the Paper Industry

7.6. Thermo-chemicals Conversion of Biomass

7.6.1. Combustion
7.6.2. Pyrolysis
7.6.3. Gasification

7.7. The Bio-refinery Conceptual Design

7.7.1. The Bio-refinery
7.7.2. Conceptual Design of a Bio-refinery
7.7.3. Current Bio-refinery Challenges

7.8. Biofuels

7.8.1. Biofuel Generations
7.8.2. Liquid Biofuels
7.8.3. Bio-carburants

7.9. Valorization Routes: Obtainment of Platform Molecules

7.9.1. Routes for Biomass Valorization
7.9.2. Furfural as a Platform Molecule
7.9.3. Lignin Derivatives as Precursors of Resins
7.9.4. Biopolymers

7.10. Integral Valorization of Residual Biomass

7.10.1. Valorization of Animal Residual Biomass
7.10.2. Fractionation of Algal Biomass
7.10.3. Valorization of By-Products from the Food Industry

Module 8. L+O+I Chemical Engineering

8.1. L+O+I Chemical Engineering

8.1.1. Scientific Methodology Applied to Investigation
8.1.2. Factorial Design of Experiments
8.1.3. Empirical Modeling
8.1.4. Scientific Writing Strategies

8.2. Technological Innovation Strategies in the Chemical Industry: Innovation and Creativity

8.2.1. Innovation in the Chemical Industry
8.2.2. Creative Process
8.2.3. Creativity Facilitating Techniques

8.3. Innovation in Chemical Engineering

8.3.1. Taxonomy of Innovation
8.3.2. Types of Innovation
8.3.3. Dissemination of Innovation
8.3.4. ISO 56000 Standard / ISO 166000 Terminology

8.4. Marketing of Innovation

8.4.1. Differentiation and Positioning Strategies in Chemical Engineering
8.4.2. Communication Management in Innovative Chemical Engineering
8.4.3. Ethics in Chemical Engineering Innovation Marketing

8.5. Databases and Bibliographic Management Software

8.5.1. Scopus
8.5.2. Web of Science
8.5.3. Scholar Google
8.5.4. Bibliographic Management with Mendeley
8.5.5. Bibliographic Management with EndNote
8.5.6. Bibliographic Management with Zotero
8.5.7. Patent Search in Databases

8.6. International Research Funding Programs

8.6.1. Application for L+O+I projects
8.6.2. Marie-Curie Research Fellowship Program
8.6.3. International Research Funding Collaborations

8.7. Management of the Protection and Exploitation of L+O+I Results

8.7.1. Intellectual Property
8.7.2. Patents
8.7.3. Industrial Property

8.8. Tools for the Communication of L+O+I Results

8.8.1. Scientific Events
8.8.2. Scientific Articles and Reviews
8.8.3. Scientific Dissemination

8.9. Research Career in Chemical Engineering

8.9.1. The Researcher in Chemical Engineering Professional Background and Education
8.9.2. Chemical Engineering Advances
8.9.3. Responsibility and Ethic in a Research Career in Chemical Engineering

8.10. Transfer of Results and Technology between Research Centers and Companies

8.10.1. Interaction of Participants and Dynamics of Technology Transfer
8.10.2. Technology Monitoring
8.10.3. University-Business Projects
8.10.4. Spin-off Companies

Module 9. Industrial Safety in the Chemical Sector

9.1. Safety in the Chemical Industry

9.1.1. Safety in the Chemical Industry
9.1.2. Accidents in the Chemical Industry
9.1.3. International Safety Regulations in the Chemical Industry
9.1.4. Safety Culture in the Industry

9.2. Risk Prevention in Process Plants

9.2.1. Inherent Safety Design to Minimize Risk
9.2.2. Use of Safety Barriers and Control Systems
9.2.3. Maintenance of Safety Systems in the Life Cycle of the Chemical Plant

9.3. Structured Hazard Identification Methods

9.3.1. HAZOP Hazard and Operability Analysis
9.3.2. LOPA Risk and Operability Analysis with Layers of Protection
9.3.3. Comparison and Combination of Structured Methods

9.4. Quantitative Methods of Hazard Analysis

9.4.1. Diagrams of Events
9.4.2. Diagrams of Failures
9.4.3. Consequence Analysis and Risk Estimation

9.5. Workers Safety in the Chemical Industry

9.5.1. Safety in the Workplace
9.5.2. Protective Measures in the Handling of Chemical Products
9.5.3. Worker Safety Training and Coaching

9.6. Use of Chemical Products

9.6.1. Incompatibilities in Chemical Products Storage
9.6.2. Handling of Chemical Substances
9.6.3. Safety in the Use of Hazardous Chemicals

9.7. Emergency Strategies

9.7.1. Integral Emergency Planning in the Chemical Industry
9.7.2. Development of Emergency Scenarios
9.7.3. Development of Emergency Plan Simulations
9.7.4. Crisis Management and Continuity

9.8. Environmental Risks in Chemical Industry

9.8.1. Air Pollution Sources and Air Pollutant Dispersion Mechanisms
9.8.2. Sources of Soil Contamination and Their Impact on Biodiversity
9.8.3. Sources of Water Resources Contamination and Their Impact on Water Availability

9.9. Environmental Protection Measures

9.9.1. Air Pollution Control
9.9.2. Soil Contamination Control
9.9.3. Water Resources Contamination Control

9.10. Investigating Accidents

9.10.1. Accident Investigation Methodologies
9.10.2. Stages in Accidents Investigation
9.10.3. Human and Organizational Error Analysis
9.10.4. Communication and Continuous Improvement

Module 10. Organization and Management of Companies in the Chemical Sector

10.1. RRHH Management in the Chemical Sector

10.1.1. Human Resources

10.1.1.1. Formation and Motivation of the Human Team in the Chemical Sector

10.1.2. Job Analysis: Group Organization
10.1.3. Payroll and Incentives

10.2. Organization of Work in the Chemical Sector

10.2.1. Work Planning: Taylor's Organizational Theory
10.2.2. Personal Recruitment in the Chemical Sector
10.2.3. Organization of the Work Team
10.2.4. Teamwork Techniques

10.3. Organization of the Company

10.3.1. Elements in the Organization of the Company
10.3.2. Organizational Structure in the Chemical Industry
10.3.3. Division of Labor

10.4. Chemical Production Management and Organization

10.4.1. Strategic Decisions in Chemical Production
10.4.2. Production Planning
10.4.3. Theory of the Limitations
10.4.4. Short-Term Programming

10.5. Financial Business Management

10.5.1. Financial Planning
10.5.2. Company Valuation Methods
10.5.3. The Investment: Static and Dynamic Inversion Methods

10.6. Development of Manager Skills

10.6.1. Creative Problem Solving
10.6.2. Corporate Conflict Management
10.6.3. Empowerment and Delegation: Pyramidal Structure
10.6.4. Formation of Efficient Teams

10.7. Business Plan

10.7.1. Legal-Fiscal Plan
10.7.2. Operational Plan
10.7.3. Marketing Plan
10.7.4. Economic-Financial Plan

10.8. Business and Corporate Social Responsibility

10.8.1. Governance in RSE and RSC
10.8.2. Criteria for the Analysis of RSC in the Chemical Industry
10.8.3. RSE and CSR Implications

10.9. International Agreements in the Chemical Sector

10.9.1. Rotterdam Convention on the Export and Import of Hazardous Chemicals
10.9.2. Chemical Weapons Convention
10.9.3. Stockholm Convention on Persistent Organic Pollutants
10.9.4. Strategic International Chemicals Management Agreement

10.10. Ethical Controversies in the Chemical Industry

10.10.1. Environmental Challenges
10.10.2. Distribution and Use of Natural Resources
10.10.3. Implications of Negative Ethics

Thanks to this 100% online program you will be up-to-date with the most recent advances in Biotechnology or Nanotechnology"