Faculty Spotlight: Dr. Anna Jones on Teaching Chemistry at Wiley
Chemistry can seem intimidating when it is presented as a collection of formulas, symbols, and unfamiliar laboratory procedures. In the right classroom, however, it becomes a way to understand the world: why materials change, how medicines work, what makes a reaction possible, and how careful observation leads to reliable knowledge. At Wiley College, Dr. Anna Jones brings that perspective to undergraduate science education.
Her teaching reflects the value of connecting scientific discipline with personal confidence. Students are expected to learn foundational concepts, but they are also encouraged to ask questions, explain their reasoning, and treat mistakes as part of the learning process. That balance helps chemistry feel less like a barrier and more like an opportunity.
As a faculty member at a historically Black college and university in Marshall, Texas, Dr. Jones contributes to a campus culture where academic growth is closely connected to mentorship and community. Her work represents the daily impact of dedicated professors who help students see themselves as capable scientists, health professionals, educators, and problem-solvers.
A Classroom Built Around Curiosity
Dr. Jones approaches chemistry as an active discipline rather than a subject students simply memorize. A lecture may introduce a principle, but the deeper learning comes when students apply it to a problem, observe a reaction, interpret data, or defend a conclusion. This structure gives learners several ways to engage with the material.
The approach is especially important in introductory chemistry courses, where students may arrive with different levels of preparation. Some may feel comfortable with equations, while others need more practice with unit conversions, scientific notation, or molecular concepts. Clear explanations and steady encouragement allow the class to move forward together without overlooking individual needs.
A curious classroom also makes room for questions that do not have an immediate answer. When students are invited to explain what they think will happen before an experiment begins, they become more attentive to evidence. That habit of prediction, observation, and revision is central to scientific thinking.
Making Chemistry Tangible
One of the most effective ways to teach chemistry is to connect abstract ideas to familiar experiences. Acids and bases can be discussed through household substances, thermodynamics can be linked to energy use, and reaction rates can be explored through temperature, concentration, or surface area. These examples help students recognize that chemistry is present beyond the laboratory.
Dr. Jones uses this kind of connection to give technical concepts practical meaning. Instead of treating an equation as an isolated exercise, students can consider what the numbers describe in a real process. The goal is not to simplify the science, but to provide a bridge into it.
Laboratory work adds another dimension. Students must follow procedures carefully, handle materials responsibly, record observations, and assess whether their results make sense. These activities build technical skill while reinforcing habits that matter in research, healthcare, environmental science, and industry.
Mentorship Beyond The Lab
A professor’s influence often extends beyond scheduled class time. Students may need help selecting courses, preparing for advanced science classes, considering graduate study, or identifying careers that match their interests. Faculty mentorship can make those decisions feel more manageable and more connected to a student’s long-term goals.
Dr. Jones’s role as a chemistry educator includes helping students recognize the abilities they are developing. A student who learns to analyze a complicated data set is also strengthening persistence and decision-making. A student who presents laboratory findings is practicing communication. Those skills remain valuable regardless of the professional path a graduate chooses.
For students who are the first in their families to pursue a science degree, personal guidance can be particularly meaningful. Encouragement from a faculty member can reinforce the idea that belonging in science is demonstrated through preparation, effort, and continued learning—not through having every answer immediately.
| Area of Learning | What Students Practice | Why It Matters |
|---|---|---|
| Chemical principles | Explaining matter, energy, reactions, and structure | Builds a foundation for advanced coursework |
| Quantitative reasoning | Using units, formulas, graphs, and calculations | Supports accurate scientific analysis |
| Laboratory technique | Following procedures and handling evidence | Develops safety and research habits |
| Scientific communication | Writing reports and presenting findings | Prepares students to share ideas clearly |
| Academic planning | Connecting courses with career interests | Helps students make purposeful decisions |
Learning Through Evidence
Chemistry rewards precision, but precision is more than obtaining a correct numerical answer. Students must understand where information came from, whether a method was appropriate, and how uncertainty affects a result. Dr. Jones emphasizes these habits so that learners see science as a process of building justified explanations.
When an experiment produces an unexpected outcome, the response should be investigation rather than immediate discouragement. Students can review their measurements, examine the procedure, consider possible sources of error, and determine what additional information they need. This approach turns a disappointing result into a useful lesson about evidence.
Such training prepares students for the realities of scientific work. Research rarely proceeds in a perfectly straight line, and professional laboratories depend on careful documentation and thoughtful revision. By developing these habits in undergraduate courses, Wiley College students gain preparation that reaches beyond a single assignment or examination.
A Departmental Culture Of Belonging
Strong science education depends on a sense of belonging. Students are more likely to participate, seek assistance, and persist through difficult coursework when they know their questions will be treated seriously. In this environment, academic standards remain high while support is made visible and accessible.
That culture reflects the broader mission of Wiley College, where education is connected to leadership, service, and the development of the whole student. Visitors exploring the Wiley College community can learn more about the institution’s academic programs, campus resources, student experience, and historic identity.
For Dr. Jones, teaching chemistry is therefore part of a larger educational responsibility. The classroom can help students develop confidence, but it can also encourage them to consider how scientific knowledge affects communities. Questions about public health, clean water, food systems, energy, and environmental responsibility give chemistry a meaningful social context.
Habits That Support Scientific Growth
Students who want to succeed in chemistry benefit from consistent habits rather than last-minute preparation. Regular practice makes it easier to recognize patterns in problems and identify which concepts need further attention. It also gives students time to ask focused questions before confusion builds.
A productive approach may include the following:
- Review class notes soon after each lecture and rewrite difficult ideas in plain language.
- Practice calculations without relying immediately on worked examples.
- Use office hours or tutoring sessions to discuss specific questions and errors.
- Prepare for laboratory work by reading procedures, identifying safety concerns, and understanding the purpose of each step.
- Connect chemistry concepts to possible careers, community issues, or everyday observations.
These habits support the kind of independence Dr. Jones seeks to cultivate. The objective is not for students to depend permanently on a professor’s explanations, but to become better at finding, testing, and communicating answers for themselves.
Chemistry students should also learn to value collaboration. Working with classmates can reveal different ways to approach a problem, while explaining a concept to someone else often exposes gaps in one’s own understanding. Collaboration, when paired with individual responsibility, reflects how scientific teams operate in professional settings.
Dr. Anna Jones’s teaching offers a clear example of how faculty mentorship can shape the undergraduate experience. Through thoughtful instruction, practical laboratory learning, and attention to student confidence, she helps make chemistry a field students can enter with purpose. Her classroom invites learners to see science as rigorous, relevant, and open to their contributions.
Explore Wiley College’s academic opportunities, campus resources, and student services to discover how a supportive college environment can help turn interest in science into meaningful preparation for the future.