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CHEMICAL REACTION#1

A process where reactants transform into products, involving breaking and forming of chemical bonds.

REACTOR DESIGN#2

The process of creating equipment for chemical reactions, focusing on efficiency, safety, and scalability.

SIMULATION SOFTWARE#3

Computer programs used to model and analyze chemical processes, helping in reactor design and optimization.

STOICHIOMETRY#4

The calculation of reactants and products in chemical reactions, essential for designing efficient reactors.

SAFETY CONSIDERATIONS#5

Factors to ensure safe operation of reactors, including hazard identification and risk management.

BATCH REACTOR#6

A reactor where reactants are added, reacted, and removed in discrete batches.

CONTINUOUS REACTOR#7

A reactor that continuously feeds reactants and removes products, ideal for large-scale operations.

REACTION MECHANISM#8

The step-by-step sequence of elementary reactions by which overall chemical change occurs.

REACTION RATE#9

The speed at which reactants convert to products, influenced by temperature, concentration, and catalysts.

PERFORMANCE INDICATORS#10

Metrics used to evaluate the efficiency and effectiveness of reactor performance.

HAZARD ANALYSIS#11

A systematic approach to identifying potential hazards in chemical processes and designing controls.

OPTIMIZATION#12

The process of making a system as effective or functional as possible, especially in reactor design.

PARAMETER MODIFICATION#13

Adjusting input values in simulations to study their effects on reactor performance.

SAFETY CHECKLIST#14

A list of safety measures and precautions to follow during reactor design and operation.

DATA ANALYSIS#15

The process of inspecting, cleansing, and modeling data to discover useful information for decision-making.

SIMULATION RESULTS#16

Outputs generated from running simulations, used to assess and refine reactor designs.

DESIGN PROPOSAL#17

A formal document outlining the intended design and operational details of a reactor.

COLLABORATIVE DESIGN#18

A teamwork approach to create reactor designs, incorporating diverse perspectives and expertise.

REAL-WORLD APPLICATIONS#19

Practical uses of theoretical concepts in actual industrial scenarios, enhancing learning relevance.

INTEGRATING FINDINGS#20

Combining results from various analyses to form a cohesive reactor design proposal.

PEER REVIEW#21

A process where peers evaluate each other's work, providing feedback to improve quality.

VISUAL DATA REPRESENTATION#22

Techniques to graphically display data, aiding in the interpretation of simulation outcomes.

REFLECTIVE SUMMARY#23

A personal assessment of learning experiences and understanding, promoting deeper comprehension.

CASE STUDIES#24

In-depth analyses of specific instances in chemical engineering to illustrate practical applications.

ENGINEERING PRINCIPLES#25

Fundamental concepts and practices that guide the design and analysis of engineering systems.