
Applied Plant Physiology
Code: 100992Credits: 6
| Degree programme | Type | Course |
|---|---|---|
| Microbiology | OP | 4 |
Contact lecturer
- Name :
- Soledad Martos Arias
- Email :
- soledad.martos@uab.cat
Teaching staff
- Eliana Carolina Bianucci Ovando
- Albert Gargallo Garriga
Group languages
You can consult this information at the end of the document.
Prerequisites
It is recommended to review the basic concepts of Plant Biology
Objectives
The general objective of this subject is to introduce the students into the functional mechanisms and techniques that will improve the yield of the crop plants and their agricultural and industrial applications.
The specific training objectives are:
- Identify the processes that determine the yield of plants of agricultural and industrial interest and their regulation by internal and environmental factors.
- Acquire an advanced vision of reproduction techniques for plants with a practical purpose.
- Introduce the students to the basic techniques of agricultural biotechnology.
- Introduce the students to the basics of phytochemistry and its application in medicine and industry.
Learning outcomes
- CM19 (Propose methods and procedures within the field of biochemistry, physiology and biotechnology to provide innovative responses to the needs and demands of society, and valuing their social, economic and environmental impact.) Propose methods and procedures within the field of biochemistry, physiology and biotechnology to provide innovative responses to the needs and demands of society, and valuing their social, economic and environmental impact.
- CM20 (Integrate knowledge of biology and biochemistry to develop an academic and professional work, and its presentation in writing or orally and publicly, working individually and in teams.) Integrate knowledge of biology and biochemistry to develop an academic and professional work, and its presentation in writing or orally and publicly, working individually and in teams.
- KM30 (Describe in a complete and integrated way the functions and mechanisms of regulation of functional systems in living organisms.) Describe in a complete and integrated way the functions and mechanisms of regulation of functional systems in living organisms.
- SM30 (Apply biotechnological techniques that allow the creation of advanced products with biomedical applications or improve processes.) Apply biotechnological techniques that allow the creation of advanced products with biomedical applications or improve processes.
Contents
Lectures
- Applied Plant Physiology: field of study; Scientific and social interest
- Plant productivity and yield: Assessment parameters; Conditioning factors
- Sustainable plant production and integrative plant production
- Genetic potential and its regulation by internal and external factors
- Internal factors
- Reproduction and regulation of development
- Genetics of reproduction: Sexual reproduction and seed technology
- Asexual reproduction
- In vitro reproduction
- Post-harvest physiology
- Secondary metabolism of plants
- Regulation of growth, use of phytoregulators
- External factors:
- Biotic
- Negative plant-microorganism interaction: pathogenesis of bacterial, viral and fungal diseases
- Positive plant-microorganism interaction: plant growth promoting bacteria
- Molecular bases of plant defense
- Environmental
- Essential nutrients and soil fertility.
- Water needs of plants and increased efficiency in water sources.
- Temperature needs of the plants. Greenhouses and hydroponics.
Seminars
Different projects that will be developed by groups
Laboratory practices
- In vitro culture techniques
- Assessment of ascorbic acid in fruits
- Nutricional deficiencies
- Germination assay
- Effect of the osmotic potential on the seed germination
Field trip
Visit an agrotechnological research center
Learning activities and methodology
| Title | Hours | ECTS | Learning outcomes |
|---|---|---|---|
| Personal study | 70 | 2.8 | KM30, SM30 |
| Tutorials | 5 | 0.2 | CM19, CM20, KM30, SM30 |
| Preparation of homework and/or seminars | 11 | 0.44 | CM19, CM20 |
| Seminars | 6 | 0.24 | CM19, CM20 |
| Lectures | 28 | 1.12 | KM30, SM30 |
| Preparation of lab practice report | 5 | 0.2 | CM19, CM20 |
| Lab practice | 16 | 0.64 | CM19, CM20 |
| Field trip | 4 | 0.16 | SM30 |
Lectures
During the lectures, the professor explains the functional mechanisms and techniques that allow to improve the yield of crop plants and their agricultural and industrial applications, establishing the functional and mechanistic relationships clarifying the basic concepts necessary for their understanding. The methodology is mainly lecture-based, accompanied by visual diagrams. During the lectures, exercises will also be proposed and questions will be thrown to the students which will be solved by the teachers in order to know the degree of follow-up and facilitate the understanding of the concepts. Bibliographical references and other sources of information are given to foster self-study.
Seminars
The main purpose of the seminars in this course is to promote students' understanding of the general and transversal competencies associated with the subject. The teaching methodology is based on project-based learning, in which students, divided into groups of 3–5 members, will discuss and analyze real cases or issues related to the content covered in the theoretical classes. In some cases, this will involve the oral presentation of their work.
Laboratory practices
Some of the topics covered in the theory class are visualized through laboratory testing. The student became familiar with protocols and techniques of Applied Plant Physiology and have to analyze the results from theirown experiments. The student will be able to access the protocols and guides of practices through the Virtual Campus.
Field trips
A visit to an plant agrobiotechnology research center.
Tutorial
In tutorials, the professor tries to help the students to solve their doubts about the concepts of the subject and guide them in their studies.
Assessment
Continuous assessment activities
| Title | Weight | Hours | ECTS | Learning outcomes |
|---|---|---|---|---|
| Exam of second part | 35% | 2 | 0.08 | KM30, SM30 |
| Evaluation of lab practice | 15% | 1 | 0.04 | CM19, CM20 |
| Evaluation of seminar | 15% | 0 | 0 | CM19, CM20 |
| Exam of part 1 | 35% | 2 | 0.08 | KM30, SM30 |
The content covered in the theoretical classes will be assessed through written examinations. Two midterm examinations will be held, corresponding to the two equal parts into which the syllabus has been divided. To pass each midterm examination, students must obtain a minimum grade of 5. If a midterm is passed, the corresponding syllabus content will be exempt from further examination. Each midterm examination accounts for 50% of the theory grade. The theory grade represents 70% of the final course grade.
To improve a grade or to recover grades below 5, students may take a resit examination at the end of the course for each of these exams as part of a final examination. A minimum grade of 5 is required to pass the final examination.
Students who sit the resit examination to improve their grade waive their previously obtained mark, and only the resit examination grade will be considered. Students who take the final examination will not be eligible for distinction (“Matrícula de Honor”).
To be eligible for resit examinations, students must have previously completed assessment activities whose combined weight corresponds to at least two-thirds of the total course grade. Therefore, students will receive a grade of “Not Assessable” (NA) when the assessment activities completed represent less than 67% of the final course grade.
Laboratory practicals will be assessed through an individual theoretical examination taken upon completion of the practical sessions, accounting for 80% of the practicals grade. The laboratory report will be completed in groups and will account for the remaining 20% of the practicals grade. The report must be submitted via the Virtual Campus one week after the completion of the practical sessions.
The practicals grade accounts for 15% of the final course grade. Attendance at laboratory practicals is compulsory. In the event of a justified absence, students may make up the session by attending another group's practical session or, if this is not possible, by completing an alternative assignment. There is no resit examination for practicals.
Participation in seminars accounts for 15% of the final course grade. Attendance at seminars is compulsory. There is no resit option for seminars. In the case of an unjustified absence, the seminar grade will be reduced according to the following criteria:
- 1 absence: 20% reduction of the seminar grade.
- 2 absences: 40% reduction of the seminar grade.
- 3 absences: 80% reduction of the seminar grade.
To pass the course, students must obtain a minimum grade of 5 in the theory component and achieve an average grade of at least 5 across the different components of the course (theory, practicals, seminars, and the flipped-classroom video assessment).
Students who are unable to attend an individual assessment activity for justified reasons (such as illness, the death of a first-degree relative, or an accident) and who provide the corresponding official documentation to the Degree Coordinator will be entitled to take the assessment on an alternative date.
Use of Artificial Intelligence
For this course, the use of Artificial Intelligence (AI) technologies is permitted exclusively as a support tool for bibliographic or information searches, language correction of texts, translations, improvement of writing style, or organization of content. The use of these tools to generate, either wholly or partially, answers to examinations, reports, assignments, or other assessable activities requiring personal analysis, interpretation of results, or scientific reflection is not permitted.
Students must clearly identify any use of AI tools, specify the tools used, and briefly describe how they contributed to the development of the activity.
Single Assessment
Students opting for the single assessment system must attend the laboratory practical sessions (PLAB) in person alongside students following the continuous assessment pathway. Passing the practical component is a compulsory requirement and represents 15% of the final course grade.
Seminars (SEM) will not be compulsory to attend. Students choosing the single assessment option must complete 3 of the 6 seminars included in the course through the continuous assessment format. The teaching staff will determine which seminars must be completed under the single assessment scheme. Seminar assignments must be submitted on the same date as the synthesis examination.
The single assessment consists of a single synthesis examination (including essay questions, concept-integration questions, and the resolution of real-life case studies) covering the entire theoretical syllabus.
The grade obtained in the synthesis examination will account for 70% of the final course grade, the practicals grade for 15%, and the seminar grade for the remaining 15%.
The single assessment examination will take place on the same date as the final continuous assessment examination, and the same resit system will apply.
To pass the course, students must obtain a minimum grade of 5 out of 10 in each component: the synthesis examination, laboratory practicals (PLAB), and seminars (SEM).
Assessment Misconduct
Any irregularity committed during an assessment activity (academic fraud, plagiarism, or improper use of AI, unless such use is expressly authorized in the course guide) that may lead to a significant alteration of the assessment outcome will result in a grade of 0 for that activity. If the course guide establishes that obtaining a minimum grade in that assessment activity is an essential requirement for passing the course, or if multiple irregularities are committed in assessment activities within the same course, the final grade for the course will be 0. In addition, disciplinary proceedings may be initiated against any student involved in such misconduct.
Bibliography
- Agrios, George N. (2024). Agrios' plant pathology. (6th ed.) Academic PressAgri
Disponible en línia
- Agrios, George N. (2005). Plant pathology. (5th ed.) Elsevier / Academic PressAgri
Disponible en paper a la biblioteca
- Chrispeels, Maarten J. & Sadava, David E. (2003). Plants, genes, and crop biotechnology.
(2nd ed.) Jones and Bartlett Publishers
Disponible en paper a la biblioteca
- Davies, Fred T. & Hartmann, Hudson T. (2014). Hartmann & Kester's Plant propagation: principles and practices. (8th ed.) Pearson
Disponible en línia
- Davies, Fred T. & Wilson, Sandra B. & Geneve, Robert L. (2018). Hartmann & Kester's Plant propagation, principles and practices. (9th ed.) Pearson Education
Disponible en paper a la biblioteca
- Forbes, J. C. & Watson, R. D. (1992). Plants in agriculture. Cambridge University Press
Disponible en paper a la biblioteca
- Lamo de Espinosa, Jaime & Jiménez Díaz, R. M. (1998). Agricultura sostenible.Life; Agrofuturo; Mundi-Prensa
Disponible en paper a la biblioteca
- Niatu. (2018). Advances in Plant Pathology. InTech Publisher
Disponible en línia
- Stewart, C. Neal Jr. (2016). Plant biotechnology and genetics: principles, techniques, and applications. (2nd ed.) John Wiley & Sons
Disponible en paper a la biblioteca
- Stewart, C. Neal Jr. (2008). Plant biotechnology and genetics principles, techniques, and applications. (1st ed.) Wiley
Disponible en línia
- Wink, Michael. (2010). Functions and biotechnology of plant secondary metabolites. (2nd ed.) Wiley-Blackwell
Disponible en línia
- Wink, Michael. (2010). Functions and biotechnology of plant secondary metabolites. (2nd ed.) Wiley-Blackwell
Disponible en paper a la biblioteca
Software
None
Course groups and languages
The information provided is provisional until November 30. After this date, you will be able to consult the language of each group through this link. To access the information, you will need to enter the course CODE