Subject

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Structural Characterization of Materials (UPV/EHU)

General details of the subject

Mode
Face-to-face degree course
Language
English

Description and contextualization of the subject

In this subject, different Materials Characterization Techniques and aspects of the experimental test for destructive and non-destructive, normative, analytical and instrumental characterization of engineering materials are covered. The possibilities of different characterization techniques are assessed scientifically and technologically, to partially or completely identify a material, especially polymeric and / or composites, its precursor products or degradation products.



The specific learning objectives of the course are the following ones:

• To know the different physical and chemical characterization techniques (wet route) and the standardized techniques that are specific to the definition of raw materials, precursors, semi-finished products and finished products.

• To know the spectroscopic and chromatographic techniques for the characterization of these materials, their additives and the bonding and finishing products.

• To know the thermal techniques for the characterization of precursors, semi-finished products, finished products and the assessment of the characteristics of the reactions that lead to their formation or degradation.

• To know the rheological techniques for the characterization of precursors, semi-finished products and finished materials, as well as for auxiliaries and modifiers that are used for aesthetic or protective purposes.

• To know the visual, microscopic, optical and electronic techniques for the characterization of precursors, semi-finished products and constituent finishes of plastic materials and composites, their additives and bonding and finishing products, as well as for the characterization and diagnosis of failure.

• To know the mechanical techniques for the characterization of plastic materials and composites, their unions and assemblies.

• Understand some of the classic END-NDT techniques for materials inspection.

• Understand some techniques for characterizing tests for Weather Resistance and Reaction to Fire, proper for the characterization and qualification of plastic materials and composites.

• To know the ways of collecting scientific-technical information, analyze it and select it critically.

• To know ways of transmitting scientific and technical information orally and writing, in a coherent way. Being able to make an assessment of the risks that certain characterization techniques can entail, both from the point of view of Safety and Hygiene and the Environmental Impact.



Teaching staff

NameInstitutionCategoryDoctorTeaching profileAreaE-mail
AGIRRE ARISKETA, IONUniversity of the Basque CountryProfesorado Titular De UniversidadDoctorBilingualChemical Engineeringion.agirre@ehu.eus
AGUIRREZABAL TELLERIA, IKERUniversity of the Basque CountryProfesorado AgregadoDoctorBilingualChemical Engineeringiker.aguirrezabal@ehu.eus
ECEIZA MENDIGUREN, MARIA ARANZAZUUniversity of the Basque CountryProfesorado Catedratico De UniversidadDoctorBilingualChemical Engineeringarantxa.eceiza@ehu.eus
FERNANDEZ SALVADOR, RAQUELUniversity of the Basque CountryProfesorado AgregadoDoctorBilingualChemical Engineeringraquel.fernandez@ehu.eus
GANDARIAS GOIKOETXEA, IÑAKIUniversity of the Basque CountryProfesorado AgregadoDoctorBilingualChemical Engineeringinaki.gandarias@ehu.eus
GUTIERREZ CACERES, JUNCALUniversity of the Basque CountryProfesorado AgregadoDoctorBilingualChemical Engineeringjuncal.gutierrez@ehu.eus
KORTABERRIA ALTZERREKA, GALDERUniversity of the Basque CountryProfesorado Catedratico De UniversidadDoctorBilingualChemical Engineeringgalder.cortaberria@ehu.eus
LUCIO CASTILLERO, BEATRIZUniversity of the Basque CountryInvestigador Doctor Ley CienciaDoctorNot bilingual** n o c o n s t a e l a r e a * ó " á r e a p r o v i s i o n a l"beatriz.lucio@ehu.eus
OREGUI BENGOECHEA, MIKELUniversity of the Basque CountryProfesorado AgregadoDoctorBilingualChemical Engineeringmikel.oregui@ehu.eus
SARALEGI OTAMENDI, AINARAUniversity of the Basque CountryProfesorado AgregadoDoctorBilingualChemical Engineeringainara.saralegi@ehu.eus
TERCJAK SLIWINSKA, AGNIESZKAUniversity of the Basque CountryPersonal Doctor InvestigadorDoctorNot bilingualChemical Engineeringagnieszka.tercjaks@ehu.eus

Competencies

NameWeight
Determine all kinds of material properties at any stage of its production, transformation and application process, using conventional and other novel techniques, and properly interpret the information obtained, as well as know the possibilities for improvement (additives, surface treatments, etc.) of the materials in order to optimize their use.100.0 %

Study types

TypeFace-to-face hoursNon face-to-face hoursTotal hours
Lecture-based2537.562.5
Applied classroom-based groups101525
Applied laboratory-based groups57.512.5

Training activities

NameHoursPercentage of classroom teaching
Acquiring basic fieldwork skills10.00 %
Acquiring basic instrumental skills5.0100 %
Discussion5.0100 %
Drawing up reports and presentations10.050 %
Expositive classes20.0100 %
Groupwork50.00 %

Assessment systems

NameMinimum weightingMaximum weighting
Oral examination20.0 % 20.0 %
Practical tasks10.0 % 10.0 %
Written examination60.0 % 60.0 %

Learning outcomes of the subject

- The student will know the different physical and chemical characterization techniques (wet route) and the standardized techniques that are specific to the definition of raw materials, precursors, semi-finished products and finished products.

- The student will know the spectroscopic and chromatographic techniques for the characterization of these materials, their additives and the bonding and finishing products.

- The student will know the thermal techniques for the characterization of precursors, semi-finished products, finished products and the assessment of the characteristics of the reactions that lead to their formation or degradation.

- The student will know the rheological techniques for the characterization of precursors, semi-finished products and finished materials, as well as for auxiliaries and modifiers that are used for aesthetic or protective purposes.

- The student will know the visual, microscopic, optical and electronic techniques for the characterization of precursors, semi-finished products and constituent finishes of plastic materials and composites, their additives and bonding and finishing products, as well as for the characterization and diagnosis of failure.

- The student will know the mechanical techniques for the characterization of plastic materials and composites, their unions and assemblies.

- The student will understand some of the classic END-NDT techniques for materials inspection.

- The student will understand some techniques for characterizing tests for Weather Resistance and Reaction to Fire, proper for the characterization and qualification of plastic materials and composites.

- The student will know the ways of collecting scientific-technical information, analyze it and select it critically.

- The student will know the different ways of transmitting scientific and technical information orally and writing, in a coherent way. Being able to make an assessment of the risks that certain characterization techniques can entail, both from the point of view of Safety and Hygiene and the Environmental Impact.

Ordinary call: orientations and renunciation

Before the start of each academic year, the time-schedule with the official exam dates for the Ordinary and Extraordinary calls will be updated on the website.

In accordance with the EHEA regulations, the attendance to all activities must be equal or greater than 80%.

The written exam of the ordinary call (60% + 10%) will take place at the end of the teaching of the subject on the official dates published by the Master's Management.

At the time of completing the written test, the teaching staff will have all the information (laboratory reports, practical work, etc.) developed during the course, which correspond to the continuous assessment (30%).

The final grade will be calculated as the sum of the grades of the final exam and those of the tasks carried out by the students during the course (continuous evaluation).

* For any reason, if continuous assessment tests are not possible to perform, the corresponding percentage would be added to the written tests.

** Students who are in third or higher summons will be evaluated by a board appointed for this purpose.

Resignation (for ordinary and/or extraordinary calls):

• The resignation to the call will suppose the “Not Presented” qualification.

• To request the resignation, the student must send an email 15 calendar days before the official date of the evaluation. This email will be addressed to the administrative secretary of the master with CC to the Master Coordinator.

Extraordinary call: orientations and renunciation

The written exam of the extraordinary call (60% + 10%) will be held on the official dates published by the Master's Management.

The continuous assessment grade (if it is higher than 5.0) will be kept for the extraordinary call. In this case, the final grade will be obtained as a sum of the final exam grades (70%) and the tasks carried out by the students during the course (continuous evaluation 30%).

Students who do not have passed or do not wish to keep the continuous assessment grade, will take a single written exam (100% of the final grade), upon written request addressed to the professor.

* Students who are in third or higher summons will be evaluated by a board appointed for this purpose.

Resignation (for ordinary and/or extraordinary calls):

• The resignation to the call will suppose the “Not Presented” qualification.

• To request the resignation, the student must send an email 15 calendar days before the official date of the evaluation. This email will be addressed to the administrative secretary of the master with CC to the Master Coordinator.

Temary

1. Introduction to Instrumental Analysis. Physicochemical characterization (wet) and normative of the components of the plastics.



2. Spectroscopic techniques: ultraviolet-visible; fluorescence and phosphorescence; infrared, FTIR, NIR, and Raman; nuclear magnetic resonance; electronic spin paramagnetic resonance. Foundations, sample preparation, analysis development, interpretation of the results.



3. Chromatographic techniques (gases, liquids, CPG). Foundations, sample preparation, analysis development, interpretation of results.



4. Thermal Techniques (calorimetry, thermogravimetry, thermomechanical analysis). Instrumental characterization tests, regulations. Sample preparation, analysis development, interpretation of results.



5. Combined use of instrumental techniques. Simultaneous analysis of results obtained by different techniques. Interpretation of results.



6. Dynamic techniques. Dynamic-mechanical analysis. Dielectric spectroscopy. Basics, sample preparation, analysis development, interpretation of results.



7. Microscopic techniques (OM, SEM, TEM, AFM and STM). Basics. Sample preparation, microtomy and ultramicrotomy, sputter. Film preparation techniques. Analysis development. Interpretation of results.



8. Rheological techniques for materials characterization. Basics. Sample preparation, analysis development, interpretation of results.



9. Inspection by N.D.T for the characterization of materials. Basics, preparation of samples, analysis development, interpretation of results.



10. Weather Resistance and Fire Reaction Tests

Bibliography

Compulsory materials

Lab coat, Personal Protective Equipment (PPE`s) and the required equipment indicated by the teaching staff and by the UPV-EHU Prevention and Safety Service.

Basic bibliography

1. Fractography. Observing, measuring and interpreting fracture surface topography. Derek Hull. University Press, Cambridge (1999).

2. Handbook of Microscopy for Nanotechnology. Ed. by Nan Yao and Zhong Lin Wang. Kluwer Academic Pu. New York (2005).

3. Characterization of nanophase materials. Ed. by Zhong Lin Wang. Wiley-VCH. Weinheim (2000).

4. Polymer Microscopy. Ed. by L.C. Sawyer and D.T. Grubb. Chapman & Hall. London (1996).

5. Scanning Probe Microscopy: characterization, nanofabrication, and device application of functional materials. Ed. by P.M. Vilarinho, Y. Rosenwaks and A. Kingon. Kluwer. Dordrecht (2002).

6. Procedures in Scanning Probe Microscopies. Ed. by Colton, Engel, Frommer, Gaub, Gewirth, Guckenberger, Heckl, Parkinson, Rabe. Wiley. West Sussex (1999).

7. Thin film analysis by X-ray scattering. Ed. by M. Birkholz. Wiley-VCH. Weinheim (2006).

8. Encyclopedia of Spectroscopy. Ed. by H.H. Perkampus. Wiley-VCH- Weinheim (1995).

9. Structure determination of organic compounds. Ed. By Pretsch Ernö, Bühlmann Philippe, Badertscher Martin. Springer. Berlin (2009).

10. Faraldos,M.; Goberna, C.; “Técnicas de Análisis y caracterización de Materiales”. Ed. C.S.I.C 2ª Ed. (2011)

11. Calvó-Monreal, X.; “Polímeros e Instrumentos: de la Química a la biología”. Ed. C.S.I.C (2012)

12. Mijangos, C.; Moya, J.S.; “Nuevos Materiales en la Sociedad del siglo XXI”. Ed. C.S.I.C (2007)

13. González-Viñas, W.; “Ciencia de los Materiales”. Ed. Ariel (2003)

14. Higson,P.J.; “Analytical Chemistry” Oxford University Press, Oxford (2004)

15. Carlson, L.A.; “Experimental Characterization of Advanced Composite Materials” American technical Publishers Ltd. (1996)

16. Sepe, M.; “Dynamic Mechanical Analysis for Plastics Engineering” American Technical Publishers Ltd. (1998)

17. Cheremisinoff, N.P.; “Poloymer Characterization” American Technical Publishers Ltd. (1996)

18. AT & T; “Quelity Manager’s Handbook (1998)

19. UNE-EN-ISO Standards for material testing

20. ASTM “Annual Book of ASTM Standards” (en constante renovación.

21. Brandon, D.; Kaplan, W.D.; “Microstructural characterization of Materials”. J. Wiley & Sons (1999)



In-depth bibliography

The specialized journals will be consulted continuously to search those articles adapted to each particular interest. Specialized electronic databases will also be used.

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Suggestions and requests