Master's Degree Programme in Exact Sciences: Chemistry of Drug Development
Turku, 芬兰
理学硕士
期间
2 年
语言
英语
步伐
全职
报名截止日期
最早开始日期
Aug 2026
学费
EUR 12,000 / per year *
学习形式
在校园
* free for citizens of EU/EEA countries or Switzerland, for citizens of non-EU/EEA countries €12,000/academic year
Discover all degree programmes of the University of Turku
How to find, identify, design, and target new drugs?
The studies provide you with strong knowledge on one or more of the following topics that cover the chemistry of drug development from slightly different perspectives: bioanalytical chemistry, bioorganic chemistry, and radiopharmaceutical chemistry. In addition, you will master the state-of-the-art methods needed for the full identification of drug molecules and for their quantitation from different types of tissues and metabolite mixtures. Our approach gives you strong hands-on knowledge of medicinal chemistry since practical laboratory work forms the soul of our programme.
Chat with current students to learn more about student life in Turku
Academic Excellence & Experience
Our approach to the Chemistry of Drug Development track is a unique combination of research areas that are closely related but require different types of expertise. All options are represented by well-established, top-of-the-line research groups: Bioorganic group, Radiopharmaceutical Chemistry group, Bioanalytical Chemistry together with Detection Technology group and Natural Chemistry research group.
The main target in studies of bioorganic chemistry is to master the key concepts of organic reactions, stereochemistry, and physical organic chemistry. This way you can design and execute organic syntheses and understand chemical biology. The Bioorganic group specialises in the synthesis of biopolymers (oligonucleotides, oligosaccharides, and peptides), their interaction mechanisms at the molecular level, and the application of this knowledge into solving medicinal problems.
In Radiopharmaceutical Chemistry, you can specialise in radiosynthesis chemistry and applications of short-lived, isotopically labeled positron-emitting radiotracers. These tracers are used in positron emission tomography (PET) that enables imaging of biochemical processes in vivo in both healthy and pathological state. The synthesis of radiotracers involves both small molecules with low molecular weight as well as macromolecules, typically peptides, proteins, and their fragments. The teaching of radiopharmaceutical chemistry takes place in close collaboration with the Turku PET Centre, a National Institute jointly owned by the University of Turku, the Åbo Akademi University, and the Hospital District of Southwestern Finland.
Students of Bioanalytical Chemistry will learn the most prominent bioanalytical detection and separation techniques and become capable of applying the techniques to medicinal chemistry and drug discovery. You will know how to design bioanalytical assays and separation methods for the identification, quantification, and property mapping of potential drugs and target molecules – also in practice. Courses are provided by the Natural Chemistry and the Detection Technology Research Groups. The content of the courses is considered to meet the needs of neighbouring industries for bioanalytical chemistry.
The facilities of Chemistry of Drug Development are state-of-the-art. We have direct access to the Turku PET Centre's preclinical and clinical groups. The PET Centre has four cyclotrons for radionuclide production and 25 hot cells for radiotracer synthesis. At the Department of Chemistry, we have recently updated NMR facilities with modern 500 and 600 MHz magnets with cryo-probes that facilitate operation at low drug concentrations. We have direct access to UPLC-MS/MS instruments with both triple quadrupole and high-resolution mass spectrometry detectors. An efficient ECD spectrometer complements the equipment needed for the accurate identification of the produced and purified drug candidates. To know how to master this equipment and techniques is a true advantage to the chemist who graduates from our programme.
Specialisation Tracks
The Master’s Degree Programme of Exact Sciences has six tracks. You can find more detailed information on tracks from the specific site of each track by clicking on the links below.
Other tracks in the Master’s Degree Programme of Exact Sciences:
程序结构
药物开发化学专业课程是一个为期两年的课程,共 120 个 ECTS 学分。课程包括:
- 核心课程,20 ECTS,以及实验室项目,20 ECTS;
- 生物分析化学、生物有机化学或放射性药物化学主题专业,20 ECTS;
- 硕士论文和相关课程,40 ECTS;
- 其他研究包括不同主题领域和特殊主题的必修语言研究和选择性研究,20 ECTS。
您将制定个人学习计划,帮助您选择最适合您个人兴趣和背景的课程。
硕士论文和主题
硕士实验室项目将构成您的硕士论文的基础。该实验室项目是系内进行的真正研究项目的一部分,并在导师的指导下进行。硕士论文将根据实验室项目的结果和对相关背景文献的回顾撰写。
可以在另一所大学或行业中进行实验室项目。
论文主题的例子:
- 用于筛选高亲和力核碱基替代物的荧光寡核苷酸探针
- 使用聚集核苷作为可溶性载体进行短寡-2′-脱氧核糖核苷酸的溶液相合成
- 11C 和 18F 标记放射性药物的合成
- 300个红酒品种中花青素-单宁加合物的定量和筛选新方法
- 通过化学修饰增强植物代谢物的驱虫活性
能力描述
完成学习后,根据您的专业,您将:
- 知道如何设计和执行多步合成路线来生产有机化合物;
- 了解在放射性药物化学实验室工作的特殊要求;
- 了解生物成像的基础知识;
- 了解如何设计和执行生物成像化合物的合成路线;
- 知道如何分离和纯化有机化合物;
- 知道如何表征有机化合物的结构;
- 了解反应性和生物活性与结构和反应条件的关系;
- 了解生物聚合物及其结构单元的化学性质、功能和生物学意义;
- 了解植物生物活性化合物的类别、它们的生物合成途径、化学性质以及它们最重要的结构/活性关系;
- 能够使用和开发液相色谱和质谱方法;
- 了解如何测量纯化合物和化合物混合物的不同类型的生物活性,并开发新型活性方法;
- 开发蛋白质和细胞靶标的诊断和药物发现方法;
- 了解广泛应用的方法的基础知识,例如高通量筛选中的发光技术。
工作选择
药物研发化学方向与图尔库地区的制药行业和国际合作网络紧密联系。这些网络将为您提供在公司设施内或与合作伙伴开展实验室项目的机会。此外,他们还可能提供实习和就业机会。
您将拥有为您提供多种职业选择的技能。您将能够加入芬兰或国外的行业,或进入公共部门,例如,担任各种权威职务。
药物开发化学研究为生命科学领域的职业发展提供了极好的机会。例如,您可以:
- 继续攻读研究生,追求科学家的职业生涯,
- 在该行业担任研究员或质量经理,
- 在核心设施管理部门工作,负责质谱仪等工作,
- 在国内或国际科学管理领域工作,
- 在医院研究实验室工作,
- 是产品经理或项目协调员。
研究职业
在该课程中完成的理学硕士学位还将使您有资格在图尔库、芬兰其他地方或世界各地的大学攻读博士学位。
该项目毕业生有资格申请University of Turku研究生院(UTUGS )的职位。研究生院的博士课程涵盖大学所有学科和博士生。
研究生院与博士课程一起,提供系统和高质量的博士培训。 UTUGS的目标是培养高素质的专家,具备在研究和其他专业领域从事职业生涯所需的技能。
University of Turku为毕业生提供多个博士课程:
- 药物研究
- 技术
- 分子医学
- 临床研究
- 精确科学


