Delftse Foundations of Computation is a textbook for a one quarter introductory course in theoretical computer science. It includes topics from propositional and predicate logic, proof techniques, set theory and the theory of computation, along with practical applications to computer science. It has no prerequisites other than a general familiarity with computer programming.

Are you a design practitioner eager to become more strategic? Are you a business professional who wants to become more innovative? In this course, made by the world’s first strategic design school, you’ll follow the lead of big successful companies who already create new business opportunities and spark innovation by practicing design.

This course will introduce you to a hands-on design approach for finding new business opportunities. You will experience first-hand how design can be of value for your organisation. You’ll be challenged to create your own concepts that generate new business opportunities.

This course is produced by the same team that created the Strategic Product Design master programme at TU Delft, one of the oldest and most established programmes of strategic design in the world. Moreover, industry experts will help bridging design practice and business theory in a way that is unique in the present educational landscape.

DESIGN ROADMAPPING is for anyone interested in design, strategy and innovation, and its wonderful combinations. For those who dare to create a future vision, frame the time pacing and map the pathways towards it.

This guidebook teaches you how to create a roadmap. It outlines the origins, design theories and science results. Strategic designers, innovation managers and professors share their roadmapping experiences, views and achievements, including venture CPOs, Head of Design, product and program managers of international companies such as Canon, Peerby, Ferrari, Philips, Victoria State Library and many more.

By design roadmapping you devise creative responses to future strategic challenges. Guided by future foresight techniques, you uncover new trends, scout for new technologies and map the values and ideas on the roadmap. Through strong visualization, a design roadmap supports an organizational mindset on value innovations.

In this course you will learn about the different experiences patients go through in a medical context. The patient journey explores the interaction between the patient and the healthcare providers in all stages of the disease; coping with treatment and dealing with expectations, and interaction with and between different stakeholders.

This course will give designers and specialists in healthcare the knowledge, insights and tools to be able to analyze and improve patient experience. You will learn how to map complex healthcare scenarios, pinpoint opportunities and create hands-on solutions aimed at improving the patient experience.

This course is an introduction to patient journey mapping; developed at the Delft University of Technology and applied in improvement of care pathway. Step-by-step, the course visualizes the different stakeholders, phases and actions involved in patient treatment. You will be challenged to pursue new insights and given unique opportunities to learn, observe and question patients and medical professionals, with the opportunity to attend a live broadcasted, interactive surgery.

Learn about types and sources of industrial emissions and tools to mitigate them. Learn what the options are for climate-neutral electricity and review the strategies for dealing with the variability of renewable energy.

This course is designed for the next generation of policy-makers, sustainability consultants or professionals and students from various fields who want an overview of climate change mitigation strategies in industry and electricity generation and apply them to their own projects.

This course covers a wide variety of topics in the industry and electricity generation domains, from the current situation to the challenging mission of becoming climate-neutral. Specifically:

Industry – You will learn about types and sources of industrial emissions. You will also learn about the existing technological options, methodologies and tools to mitigate emissions (mainly GHG) inside and outside the boundaries of the industrial plant.
Electricity generation – you will learn what the options are for climate-neutral electricity and review the strategies for dealing with the variability of renewable energy, as well as how energy system modeling is used to devise plans and policies for the energy transition.
The course includes videos, examples, interviews with experts, exercises and quizzes so that you can master and practice what you have learnt and explore mitigation strategies through real life examples. Enriched by relevant readings and discussion forums, this course will let you dive deeper into specific areas of interest you might have and further facilitate your learning experience.

Course material and exercises will be complemented by relevant content about policy, through which you will also discover current measures taken by governments world-wide.

Familiarize yourself with decarbonization measures in the building and transport sectors. Learn about trends in energy usage, carbon intensity, and potential of available alternatives to limit greenhouse gas (GHG) emissions.

This course is designed for the next generation of policy makers, sustainability consultants or professionals and students from other fields who want to introduce themselves to climate change mitigation strategies in the building and transport sectors and apply them to their projects.

This course covers a wide variety of topics in the building and transportation domains, with the focus on the importance of designing climate friendly systems. Specifically:

Buildings – you will learn about trends in energy use and CO2 emissions that result from heating and cooling buildings, cooking and the use of electricity for appliances and lighting. You will be able to compare various alternatives to limit GHG emissions from buildings and quantify their impact.
Transportation – you will gain knowledge of decarbonization efforts carried out in various sub-sectors of transportation (including freight, aviation and passenger transport). You will learn about trends, fuel alternatives such as electrification and hydrogen applications, examine energy intensity and calculate GHG produced by transport. Additionally, you will have the chance to evaluate different transportation modes and their impact on climate.
In addition to the lectures, the course also includes interviews with experts and various exercises that will demonstrate how to practice what you have learnt and explore GHG emissions through real life examples. Enriched by relevant readings and discussion forums, this course will let you dive deeper into specific areas of interest you might have and further facilitate your learning experience.

Course material and exercises will be complemented by relevant content about policy, through which you will also discover current measures taken by governments world-wide.

What You'll Learn:
Understand the big picture of how buildings contribute to global GHG emissions and differences between climate zones.
Analyze the contribution of heating, cooling, cooking, and use of electrical appliances to greenhouse gas emissions and examine options to mitigate CO2 emissions from these activities.
Perform basic calculations on GHG emissions relating to different activities in buildings.
Consider how policies affect GHG emission in buildings.
Discuss the transport sector and its contribution to GHG emissions.
Calculate GHG emissions relating to different modes of transport and fuels.
Discover the efficiency and potential of alternate fuels and a variety of measures needed to decarbonize transport.

Mitigation of climate change is one of the most important challenges of our times. To prevent irreversible damage to human societies and the environment, it was agreed that world countries should limit the global average temperature rise. To avoid the dangerous impacts of climate change, it is needed to limit global temperature rise to well below 2 °C or even to 1.5 °C above pre-industrial levels.

This requires cutting global greenhouse gas emissions to near-zero levels in the coming decades. Especially for the energy system, a drastic transformation is needed.

We know that such a transformation is possible, but it will require virtually every organization, whether it is a steel company, a hospital or a municipality, to tackle climate change challenges. The question that often arises is – where to start?

This course is designed for the professionals that might be the leaders of this transformation in their organization - policymakers, sustainability consultants or professionals from other fields -who want to familiarize themselves with climate change mitigation strategies so theycan apply it to their projects.

In the first part of the course, you will obtain basic knowledge including greenhouse gas (GHG) emissions, the various types of GHG (CO2 and non-CO2), their emissions and about the Paris Agreement. You will also learn about current energy systems, electricity generation and the energy demand of various sectors.

Next, we will focus on courses of action and methods that will assist in selecting the best options in any type of project or organization. We will present methodologies for measurement of emissions reduction and calculation of costs. Here we will introduce you to the concepts of “marginal abatement cost curves” which will help you analyze alternatives by comparing emission reduction potential with the costs involved. Finally, various options such as renewable energy, energy efficiency and electrification will be discussed as the emission reduction strategies.

We invite you to join this journey and to bring your own experiences and challenges to your organization.

Explore the role of national governments, municipalities, companies and the international community in climate change mitigation. Learn to set reduction targets yourself and translate them into action plans.

“Every action matters
Every bit of warming matters
Every year matters
Every choice matters.”

This was the brief summary of a 2018 report of the Intergovernmental Panel on Climate Change (IPCC), the scientific advisory board of the United Nations.

But who should take action?

In earlier courses, we already set out what is needed to limit the impact of climate change. In this course, we will explore the role of national governments, the international community, companies, and sub-national governments, like cities, municipalities, provinces, and regions.

We start from the idea that climate governance is polycentric. None of these parties can mitigate the dangers of climate change all by themselves. Each of these types of organization has its particular strength. If you work – or plan to work – in or with any such organization, then through this course you will learn how to be successful and effective in playing your part in mitigating climate change.

Important elements that will be discussed for the various players in the field are:

What roles can the different organizations play?
How can emission reduction targets be set so that they are both ambitious and feasible?
How can meaningful emission reduction plans be developed that actually result in emission reduction on the ground?
Examples will be presented by professionals who have been successful in their own organization. They are willing to share the failures and critical success factors in their strategies.

What You'll Learn
Understand how international climate agreements work.
Assess the sphere of influence of your own organization.
Learn how to develop national climate policies and evaluate the relevance of existing policies for your organization.
Be able to set ambitious and feasible GHG emission reduction targets for companies and discover how to translate these into a climate action plan.
Design approaches to tackle greenhouse gas emissions in supply chains.
Be able to set ambitious and feasible GHG emission reduction targets for cities and municipalities and learn how to translate these into climate action plans.
Decide in which areas the greatest acceleration of climate action is needed.

Dredging equipment, mechanical dredgers, hydraulic dredgers, boundary conditions, design criteria, instrumentation and automation.

The course treats: the discrete Fourier Transform (DFT), the Fast Fourier Transform (FFT), their application in OFDM and DSL; elements of estimation theory and their application in communications; linear prediction, parametric methods, the Yule-Walker equations, the Levinson algorithm, the Schur algorithm; detection and estimation filters; non-parametric estimation; selective filtering, application to beamforming.

Het vak Digitale Systemen laat de eerstejaarsstudent kennis maken met de verscheidenheid aan specificatietechnieken en synthese bij het ontwerp van digitale systemen. Onderwerpen die worden behandeld zijn o.a.: getalstelsels, Booleaanse algebra, 2-level en multi-level netwerken, minimalisatietechnieken/tools, timing, hazards; sequentiële systemen, Moore/Mealy machines, FSM; specificatie, modellering, simulatie en synthese m.b.v. VHDL; datapad besturingsmodel, synthesemethodieken en tools, realisatie m.b.v. FPGAs.

The course focuses on three main dredging processes: the cutting of sand, clay and rock, the sedimentation process in hopper dredges and the breaching process

The purpose of this course is to convey knowledge of the various physical processes associated with slurry handling and transport during dredging. This knowledge is needed for the design of dredging equipment and for planning efficient equipment operations. The various processes are discussed and theories and simulation models that describe the processes are presented and compared during the course. The course can be broken down into four elements: 1. Pumps and engines a. Pump characteristics and cavitation b. Influence of particles on pump characteristics. 2. Hydraulic transport in pipelines a. Two-phase (solid-liquid) flow through pipelines b. Newtonian slurries c. Non Newtonian slurries d. Inclined and long pipelines. 3. Pump and pipeline systems a. Operation point and areas b. Production factors. 4. Case studies

The course provides the technological background of treatment processes applied for production of drinking water. Treatment processes are demonstrated with laboratory experiments.

This course deals with the design of drinking water treatment plants. We discuss theory and design exercises.

This book is a follow-up on Adjustment theory. It extends the theory to the case of time-varying parameters with an emphasis on their recursive determination. Least-squares estimation will be the leading principle used. A least-squares solution is said to be recursive when the method of computation enables sequential, rather than batch, processing of the measurement data. The recursive equations enable the updating of parameter estimates for new observations without the need to store all past observations. Methods of recursive least-squares estimation are therefore particularly useful for applications in which the time-varying parameters need to be instantly determined. Important examples of such applications can be found in the fields of real-time kinematic positioning, navigation and guidance, or multivariate time series analysis. The goal of this book is therefore to convey the necessary knowledge to be able to process sequentially collected measurements for the purpose of estimating time-varying parameters.

When determining time-varying parameters from sequentially collected measurement data, one can discriminate between three types of estimation problems: filtering, prediction and smoothing. Filtering aims at the determination of current parameter values, while smoothing and prediction aim at the determination of respectively past and future parameter values. The emphasis in this book will be on recursive least-squares filtering. The theory is worked out for the important case of linear(ized) models. The measurement-update and time-update equations of recursive least-squares are discussed in detail. Models with sequentially collected data, but time-invariant parameters are treated first.

In this case only the measurement-update equations apply. State-space models for dynamic systems are discussed so as to include time-varying parameters. This includes their linearization and the construction of the state transition matrix. Elements from the theory of random functions are used to describe the propagation laws for linear dynamic systems. The theory is illustrated by means of many worked out examples. They are drawn from applications such as kinematic positioning, satellite orbit determination and inertial navigation.

Deze cursus biedt inzicht in besluitvorming en bedrijfsvoering op inleidend niveau; en biedt inzicht in de basisbegrippen van de micro- en markteconomie; Na het volgen van deze module kunt u: 1)basisbegrippen en theorieĚÇn van de micro- en markteconomie toelichten; 2)belangrijke concepten en theorieĚÇn toepassen op eenvoudige situaties; 3)elementen uit de discipline herkennen in concrete voorbeelden van besluitvorming en management

MAIN AIMS OF THE MODULE: To achieve an understanding and practical experience of key principles, methods and theories in the area of educational software.
LEARNING OUTCOMES FOR THE MODULE: The module provides opportunities for students to develop and demonstrate knowledge and understanding, qualities, skills and other attributes in the following areas:
1) Obtain understand of major learning principles, theories, and approaches
2. Identify key factors of successful educational software design and deployment.
3) Apply theories, principles, and approached into an appropriate design of educational software system.
4) Establish an appreciation of state-of-art developments in the area of educational software design.
MAIN TOPICS OF STUDY: The main topics of study considered in light of the above learning outcomes are: ‰ Educational Principles Design of educational software such as electronic instruction manuals, serious gaming, VR training, drills, and tutor agents and tutorials ‰Educational software for specific learners such as children, elderly, mentally or physically challenged individuals ‰CEvaluation of education software.

As an engineer in a leadership position, you will be faced with new responsibilities and tasks. These may include developing a business (unit) strategy and a business plan and being involved in strategic planning. Your success in dealing with these new responsibilities will largely depend on your ability to have a helicopter view of a situation and to make sound decisions. In order to make decsions to move your organization forward, leaders will need to ensure that business goals are achievable and well-balanced while also taking into account the uncertainty of future developments. In a complex business environment, a sound strategy is the result of applying a strategic mindset and systematic approach to decision making.

This course will help you in building and applying an analytical toolkit, including:

scenario analysis
stakeholder analysis
goal analysis
multi-criteria decision analysis
The focus of the course will be on utilizing your analytical skills in a business context, allowing you to unravel complex decision situations to formulate a sound business strategy.

In this course you will start by identifying the different steps a HVAC (Heating, Ventilation and Air Conditioning) engineers need to follow to come to a proper design while collaborating with the architect.

You will then learn how to distribute heat and cold using air and water systems, what temperature levels to use in both and how that relates to the type of energy supply and to the thermal quality of the building construction. You will further deepen your knowledge on air handling units and how to humidify and dehumidify air when needed and what that does mean for the energy consumption. As ventilation systems are often responsible for local thermal discomfort, you will also discover how different distribution systems lead to different comfort experiences and different indoor air qualities and you will know which simple control techniques can be applied.

Finally you will study a modern complex system consisting of an aquifer thermal storage, heat pump, boiler, solar collector, PV-cells, air handling unit, water and air distribution systems. This will allow you to develop skills to catch the complexity of such HVAC systems and to understand the basic rules of how to control them to get the best out of them and how to use data from the Building Energy Management System to help you in this task.