Duration
Part A : 15h Th, 10h Pr, 8h Labo.
Part B : 10h Th, 10h Pr, 4h Labo.
Number of credits
Bachelor of Science (BSc) in Engineering | 5 crédits |
Lecturer
Part A : Benoît Heinrichs
Part B : Benoît Heinrichs
Coordinator
Language(s) of instruction
French language
Organisation and examination
Teaching in the second semester
Schedule
Units courses prerequisite and corequisite
Prerequisite or corequisite units are presented within each program
Learning unit contents
This second course aims at pursuing presenting general chemistry in relation with the different fields of engineering.
It is centered on two main themes: the structure of matter and its chemical transformation. It covers the following topics:
- Ionic and solubility equilibria
- Redox equilibria - Electrochemistry
- Chemical kinetics
- Chemical bonding and materials
- Organic chemistry and polymers
Part A
This A part of the second course aims at pursuing presenting general chemistry in relation with the different fields of engineering.
It covers the following topics:
- Ionic and solubility equilibria
- Redox equilibria - Electrochemistry
Part B
This B part of the second course aims to continue the presentation of the basics of chemistry and to establish the link with the fields of engineering.
It includes the following chapters:
- Rate of chemical reactions
- Chemical bonds and materials
- Organic chemistry and polymers
Learning outcomes of the learning unit
At the end of the course, students will be able to:
- understand general chemistry theoretical concepts;
- use those concepts to solve problems;
- apply those concepts to explain experimental observations and results;
- conduct experiments in team correctly and analyze results.
This course contributes to the learning outcomes I.1, I.2, II.1, III.2, IV.2, VI.2, VII.2 of the BSc in engineering.
Part A
At the end of the course, students will be able to:
- understand general chemistry theoretical concepts;
- use those concepts to solve problems;
- apply those concepts to explain experimental observations and results;
- conduct experiments in team correctly and analyze results.
Part B
At the end of the course, students will be able to:
- understand general chemistry theoretical concepts;
- use those concepts to solve problems;
- apply those concepts to explain experimental observations and results;
- conduct experiments in team correctly and analyze results.
Prerequisite knowledge and skills
Basic notions of mathematics, physics and chemistry from secondary school.
Course CHIM9272-2 - Chemistry 1
Part A
Basic notions of mathematics, physics and chemistry from secondary school.
Course CHIM9272-2 - Chemistry 1
Part B
Basic notions of mathematics, physics and chemistry from secondary school.
Course CHIM9272-2 - Chemistry 1
Planned learning activities and teaching methods
The course is composed of theory sessions, interactive exercises sessions and laboratories sessions, each intimately combined with videos. Those sessions are complementary.
Theory sessions and videos introduce new concepts which are illustrated with numerous examples of chemistry practical applications.
The objective of the exercise sessions is to help students acquire mastery of the subject matter through problem solving. For each chapter, two levels of difficulty are covered over two weeks: week 1, warm-up; week 2, challenge. Different types of activities are proposed during and in parallel with these sessions: the viewing, prior to each session, of explanatory videos for solving the exercises with a summary of the associated theory, the solving of problems during the session by the students themselves with the help of the supervisors, the individual answers during the session to all the theory and exercise questions on the chapter in progress.
Laboratories sessions aim at helping students to understand theoretical notions through experimental manipulations that illustrate, at the scale of a laboratory for students, industrial applications.
Prior to the tests, questions ans answers sessions are organized. They bring an additional opportunity for students to asks all useful questions related to theory and exercises.
In addition, online tests on the various chapters are offered on eCampus to verify knowledge acquisition.
At the end of the semester, a recapitulative lesson of theory allows to review all the subjects.
Part A
The course is composed of theory sessions, interactive exercises sessions and laboratories sessions, each intimately combined with videos. Those sessions are complementary.
Theory sessions and videos introduce new concepts which are illustrated with numerous examples of chemistry practical applications.
The objective of the exercise sessions is to help students acquire mastery of the subject matter through problem solving. For each chapter, two levels of difficulty are covered over two weeks: week 1, warm-up; week 2, challenge. Different types of activities are proposed during and in parallel with these sessions: the viewing, prior to each session, of explanatory videos for solving the exercises with a summary of the associated theory, the solving of problems during the session by the students themselves with the help of the supervisors, the individual answers during the session to all the theory and exercise questions on the chapter in progress.
Laboratories sessions aim at helping students to understand theoretical notions through experimental manipulations that illustrate, at the scale of a laboratory for students, industrial applications.
Prior to the test, a questions ans answers session is organized. It brings an additional opportunity for students to asks all useful questions related to theory and exercises.
In addition, online tests on the various chapters are offered on eCampus to verify knowledge acquisition.
At the end of the semester, a recapitulative lesson of theory allows to review all the subjects.
Part B
The course is composed of theory sessions, interactive exercises sessions and laboratories sessions, each intimately combined with videos. Those sessions are complementary.
Theory sessions and videos introduce new concepts which are illustrated with numerous examples of chemistry practical applications.
The objective of the exercise sessions is to help students acquire mastery of the subject matter through problem solving. For each chapter, two levels of difficulty are covered over two weeks: week 1, warm-up; week 2, challenge. Different types of activities are proposed during and in parallel with these sessions: the viewing, prior to each session, of explanatory videos for solving the exercises with a summary of the associated theory, the solving of problems during the session by the students themselves with the help of the supervisors, the individual answers during the session to all the theory and exercise questions on the chapter in progress.
Laboratories sessions aim at helping students to understand theoretical notions through experimental manipulations that illustrate, at the scale of a laboratory for students, industrial applications.
Prior to the test, a questions ans answers session is organized. It brings an additional opportunity for students to asks all useful questions related to theory and exercises.
In addition, online tests on the various chapters are offered on eCampus to verify knowledge acquisition.
At the end of the semester, a recapitulative lesson of theory allows to review all the subjects.
Mode of delivery (face to face, distance learning, hybrid learning)
Blended learning
Additional information:
Hybrid, see section "Planned learning activities and teaching methods"
Part A
Blended learning
Additional information:
Hybrid, see section "Planned learning activities and teaching methods"
Part B
Blended learning
Additional information:
Hybrid, see section "Planned learning activities and teaching methods"
Recommended or required readings
Notes and slides related to lectures, as well as exercises book are distributed by the AEES students organization. They are also available on eCampus.
Exercise resolutions, the lab booklet, as well as theory, exercise and lab videos are available on eCampus
Part A
Notes and slides related to lectures, as well as exercises book are distributed by the AEES students organization. They are also available on eCampus.
Exercise resolutions, the lab booklet, as well as theory, exercise and lab videos are available on eCampus
Part B
Notes and slides related to lectures, as well as exercises book are distributed by the AEES students organization. They are also available on eCampus.
Exercise resolutions, the lab booklet, as well as theory, exercise and lab videos are available on eCampus
Assessment methods and criteria
Exam(s) in session
Any session
- In-person
written exam ( multiple-choice questionnaire, open-ended questions )
Written work / report
Out-of-session test(s)
Additional information:
At the end of March and the end of April/beginning of May, multiple-questions type tests are organized, either on eCampus, or face-to-face, and projects can be completed. Reports will also be due at the end of the lab sessions. Projects will consist of solving more complex problems. The laboratories will consist of short manipulations to acquire the experimental information necessary to prepare the reports. The March test will cover Chapters 5 and 6 (Ionic and solubility equilibria; Redox equilibria - Electrochemistry) and the April/May test will cover Chapters 7 and 8 (Rates of chemical reactions; Chemical bonds and materials). The projects are optional. The tests and laboratories will account for 20% of the final grade. These are mandatory for access to the final exam.
A written final exam is organized in May/June and accounts for 80% of the overall grade for students taking the long version (parts A and B: chapters 5, 6, 7, 8 and 9) of the Chemistry 2 course and therefore having two evaluation sessions, and for 90% of the overall grade for students taking the short version (part A: chapters 5 and 6) of the Chemistry 2 course and having only one evaluation session.
In case of failure, a single written exam for 100% of the overall grade is given in August/September.
During the exams, the emphasis is on problem solving and conceptual understanding.
Part A
Exam(s) in session
Any session
- In-person
written exam ( multiple-choice questionnaire, open-ended questions )
Written work / report
Out-of-session test(s)
Additional information:
At the end of March, a multiple-questions type test is organized, either on eCampus, or face-to-face, and a project can be completed. A report will also be due at the end of the lab session. The project will consist of solving more complex problems. The laboratory will consist of short manipulations to acquire the experimental information necessary to prepare the report. The test will cover the subjects in Chapters 5 and 6 (Ionic and solubility equilibria; Redox equilibria - Electrochemistry). The project is optional. The test and the laboratory will account for 10% of the final grade. These are compulsory for the final exam.
A written final exam is organized in May/June and accounts for 80% of the overall grade for students following the long version (parts A and B: chapters 5, 6, 7, 8 and 9) of the Chemistry 2 course and therefore having 2 evaluations (interrogation/lab), and for 90% of the overall grade for students following the short version (part A: chapters 5 and 6) of the Chemistry 2 course and having only one evaluation.
In case of failure, a single written exam for 100% of the overall grade is organized in August/September.
During the exams, the emphasis is on problem solving and conceptual understanding.
Part B
Exam(s) in session
Any session
- In-person
written exam ( multiple-choice questionnaire, open-ended questions )
Written work / report
Out-of-session test(s)
Additional information:
At the end of April/beginning of May, a multiple-questions type test is organized, either on eCampus, or face-to-face, and a project can be completed. A report will also be due at the end of the lab session. The project will consist of solving more complex problems. The laboratory will consist of short manipulations to acquire the experimental information necessary to prepare the report. The test will cover the subjects in Chapters 7 and 8 (Chemical reaction rates; Chemical bonds and materials). The project is optional. The test and the laboratory will account for 10% of the final grade. These are compulsory for the final exam.
A written final exam is organized in May/June and accounts for 80% of the overall grade for students following the long version (parts A and B: chapters 5, 6, 7, 8 and 9) of the Chemistry 2 course and therefore having 2 evaluations (interrogation/lab), and for 90% of the overall grade for students following the short version (part A: chapters 5 and 6) of the Chemistry 2 course and having only one evaluation.
In case of failure, a single written exam for 100% of the overall grade is organized in August/September.
During the exams, the emphasis is on problem solving and conceptual understanding.
Work placement(s)
Organizational remarks
Second quadrimestre.
Theory lessons as well as exercises sessions are organized in an amphitheatre with the whole group of students.
During exercises sessions, students let rows free between them to allow instructors go around, help students individually to solve problems, and answer questions (cf.section "Planned learning activities and teaching methods").
Laboratories sessions are organized with small groups of 20 to 25 students.
Part A
Second quadrimestre.
Theory lessons as well as exercises sessions are organized in an amphitheatre with the whole group of students.
During exercises sessions, students let rows free between them to allow instructors go around, help students individually to solve problems, and answer questions (cf.section "Planned learning activities and teaching methods").
Laboratories sessions are organized with small groups of 20 to 25 students.
Part B
Second quadrimestre.
Theory lessons as well as exercises sessions are organized in an amphitheatre with the whole group of students.
During exercises sessions, students let rows free between them to allow instructors go around, help students individually to solve problems, and answer questions (cf.section "Planned learning activities and teaching methods").
Laboratories sessions are organized with small groups of 20 to 25 students.
Contacts
Prof. Benoît HEINRICHS
Nanomaterials, Catalysis & Electrochemistry - NCE
Department of Chemical Engineering
University of Liège
Building B6a (office 0/10b) - Quartier Agora
Allée du six Août 13
4000 Liège - Belgium
Phone: +32 4 366 35 05
e-mail: via course website on eCampus in myULiege
Secretary: Phone: 04 366 4426/3541
Part A
Prof. Benoît HEINRICHS
Nanomaterials, Catalysis & Electrochemistry - NCE
Department of Chemical Engineering
University of Liège
Building B6a (office 0/10b) - Quartier Agora
Allée du six Août 13
4000 Liège - Belgium
Phone: +32 4 366 35 05
e-mail: via course website on eCampus in myULiege
Secretary: Phone: 04 366 4426/3541
Part B
Prof. Benoît HEINRICHS
Nanomaterials, Catalysis & Electrochemistry - NCE
Department of Chemical Engineering
University of Liège
Building B6a (office 0/10b) - Quartier Agora
Allée du six Août 13
4000 Liège - Belgium
Phone: +32 4 366 35 05
e-mail: via course website on eCampus in myULiege
Secretary: Phone: 04 366 4426/3541
Association of one or more MOOCs
Items online
Course materials on eCampus
All course materials are available on eCampus :
Theory: syllabi, slides and podcasts;
Exercises: manual, resolutions in pdf and podcasts;
Laboratories: notes.
Part A
Course materials on eCampus
All course materials are available on eCampus :
Theory: syllabi, slides and podcasts;
Exercises: manual, resolutions in pdf and podcasts;
Laboratories: notes.
Part B
Course materials on eCampus
All course materials are available on eCampus :
Theory: syllabi, slides and podcasts;
Exercises: manual, resolutions in pdf and podcasts;
Laboratories: notes.