EasyUni logo

EasyUni Sdn Bhd

Level 17, The Bousteador No.10, Jalan PJU 7/6, Mutiara Damansara 47800 Petaling Jaya, Selangor, Malaysia
4.4

(43) Google reviews

+60142521561

EasyUni Sdn Bhd

Level 17, The Bousteador No.10, Jalan PJU 7/6, Mutiara Damansara 47800 Petaling Jaya, Selangor, Malaysia
4.4

(43) Google reviews

Speak to Study Advisor

Biomedical Sciences MSc

Course overview

Statistics
Qualification Master's Degree
Study mode Full-time
Duration 12 months
Intakes
Tuition (Local students) S$ 15,466
Tuition (Foreign students) S$ 29,345

Subjects

  • Biomedical Engineering

  • Other Sciences

Advertisement

Admissions

Intakes

Fees

Tuition

S$ 15,466
Local students
S$ 29,345
Foreign students

Estimated cost as reported by the Institution.

Application

Data not available
Local students
Data not available
Foreign students

Student Visa

Data not available
Foreign students

Every effort has been made to ensure that information contained in this website is correct. Changes to any aspects of the programmes may be made from time to time due to unforeseeable circumstances beyond our control and the Institution and EasyUni reserve the right to make amendments to any information contained in this website without prior notice. The Institution and EasyUni accept no liability for any loss or damage arising from any use or misuse of or reliance on any information contained in this website.

Curriculum

The course is based around a core of 6 compulsory modules and a
research project that provide detailed study and practical
experience in drug design and in the development of professional
skills; topics include: drug discovery; computer-aided drug design; biology of disease; effective strategies for drug delivery; research methods and exploiting research; the supervised research project will last for 5 months and be at the level expected for the 1st year of PhD studies; examples of potential topics include computer based drug design; chemical synthesis of compound libraries for screening, assay development and molecularly imprinted polymers as receptor mimics.