Chemistry

A chemistry major provides a foundational understanding of the composition, structure, properties and transformations of matter. Most programs include coursework and laboratory experiences across the major subfields of chemistry:

• General chemistry — Core principles of atomic structure, bonding, thermodynamics and chemical reactions.
• Organic chemistry — Structure, reactivity and synthesis of carbon-based molecules central to life, pharmaceuticals and materials. Inorganic chemistry — Study of metals, minerals, coordination chemistry and functional materials.
• Analytical chemistry — Techniques for qualitative and quantitative analysis, including spectroscopy, chromatography and electrochemistry.
• Physical chemistry — Thermodynamics, kinetics, quantum chemistry and molecular behavior at the atomic level.
• Biochemistry — Chemical processes underlying biological systems, enzymes, metabolism and molecular biology.
• Laboratory and Instrumental Methods — Hands-on training with modern instrumentation, chemical synthesis, data analysis and research methods.
• Electives and Specialized Tracks — Areas such as environmental chemistry, materials chemistry, polymer science, medicinal chemistry or computational chemistry.

Most chemistry majors also complete undergraduate research, gaining experience with experimental design, data analysis and scientific communication.

Chemistry is rapidly evolving through breakthroughs that span sustainability, materials, medicine and computation. Major advances include:

• Artificial intelligence and machine learning in chemistry — Accelerated materials discovery, reaction prediction and molecular simulation.
  
  
• Green and sustainable chemistry — Low-waste syntheses, renewable feedstocks, biodegradable materials and catalytic processes that minimize environmental impact.
  
  
• Advanced materials and nanotechnology — 2D materials, metamaterials, quantum dots and nanoscale catalysts for electronics, energy and sensing.
  
  
• CRISPR, gene editing and chemical biology — Tools for targeted modification of genomes and biomolecules.
  
  
• Energy storage and conversion technologies — Next-generation batteries, hydrogen systems, solar fuels and electrocatalysis for clean energy transitions.
  
  
• Machine-readable chemistry and automation — Robotic laboratories and autonomous synthesis platforms.
  
  
• Medicinal chemistry and drug discovery — Personalized medicine, immunotherapy, antiviral drugs and computational drug design.
  
  
• Environmental chemistry innovations — PFAS remediation, water purification membranes, atmospheric chemistry modeling and pollutant detection.
  
  

These technologies are transforming chemistry into a data-driven, sustainability-focused and highly interdisciplinary science.

Chemistry offers one of the widest career ranges of any STEM field. Graduates can pursue roles in research, industry, policy, education, healthcare and technology. Common career paths include:

• Research Chemist or Scientist — Working in pharmaceuticals, materials science, energy, consumer products or national laboratories.
  
  
• Analytical or Quality Control Chemist — Ensuring product purity, safety and regulatory compliance.
  
  
• Medicinal or Pharmaceutical Chemist — Designing and synthesizing therapeutic compounds and vaccines.
  
  
• Environmental Chemist — Monitoring pollutants, studying climate and water chemistry and developing remediation solutions.
  
  
• Materials Scientist — Creating polymers, composites, semiconductors and advanced coatings.
  
  
• Chemical Engineer or Process Scientist — Scaling chemical processes and optimizing production.
  
  
• Forensic Chemist — Applying chemical analysis in law enforcement and criminal investigations.
  
  
• Biochemist or Laboratory Scientist — Working in biotechnology, diagnostics and clinical labs.
  
  
• Chemical Educator — Teaching at the secondary or post-secondary level.
  
  
• Science Policy, Regulatory or Patent Specialist — Guiding policy development, intellectual property and compliance.
  
  

Many chemistry graduates also pursue medical school, pharmacy, law (especially patent law) or graduate studies.

Chemistry research touches nearly every major scientific and societal challenge. Current research directions include:

• Sustainable and green chemistry — Designing cleaner reactions, catalysts and circular economy materials.
  
  
• Energy chemistry — Battery research, fuel cells, photocatalysis and hydrogen systems for renewable energy.
  
  
• Computational and theoretical chemistry — Quantum chemistry, molecular modeling, AI-driven discovery and multi-scale simulations.
  
  
• Chemical biology and biochemistry — Understanding molecular mechanisms in cells, designing therapeutics and engineering biomolecules.
  
  
• Organic synthesis and catalysis — Creating complex molecules efficiently using new catalysts, enzymes or photochemical methods.
  
  
• Nanomaterials and advanced materials — Developing materials with tailored optical, electronic or mechanical properties.
  
  
• Environmental and atmospheric chemistry — Studying climate impacts, pollutant degradation and chemical transport.
  
  
• Inorganic and organometallic chemistry — Designing functional metals and complexes for catalysis, quantum systems and sensors.
  
  
• Analytical innovations — Next-generation spectroscopic and imaging techniques with higher resolution and sensitivity.
  
  

These research areas reflect chemistry’s foundational role in addressing energy, health, environment, materials and technological innovation.