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3. Subject Content
3.1 Overarching Themes
3.1.3 Mathematical modelling
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Mathematical modelling is the process of creating a mathematical representation of a real-world problem or
system
What is the purpose of mathematical modelling?
Represent and analyze systems
The key in mathematical modelling is to identify the relevant variables, relationships, and
constraints
Match the type of mathematical model with its description:
Deterministic Models ↔️ Assume no uncertainty or randomness
Stochastic Models ↔️ Incorporate randomness or probability
Empirical Models ↔️ Based on observed data
Mechanistic Models ↔️ Derived from fundamental principles
What assumption do deterministic models make about uncertainty?
No uncertainty
Mechanistic models are derived from fundamental physical, chemical, or
biological
principles.
True
Empirical models are based on observed data and statistical analysis rather than first principles.
True
Mathematical modelling involves translating
real-world
relationships into mathematical expressions.
True
In science and engineering, mathematical models are used for designing efficient
transportation
systems.
What is a deterministic model?
No randomness is assumed
What is the primary use of deterministic models?
Making precise predictions
When modeling bacterial growth, assuming
constant growth rate
simplifies the model.
True
What is the limitation of analytical solutions for solving mathematical models?
Limited to simple models
Match the validation method with its key aspect:
Comparison to Real-World Data ↔️ Confirms accuracy and identifies discrepancies
Sensitivity Analysis ↔️ Evaluates the impact of input variable changes
Reviewing Model Assumptions ↔️ Ensures assumptions are reasonable
Mathematical modelling is a powerful tool for solving
complex
real-world problems.
True
Match the problem domain with an example of a problem that can be modeled mathematically:
Economics and Finance ↔️ Predicting stock market trends
Science and Engineering ↔️ Modeling the spread of diseases
Social Sciences ↔️ Analyzing voting patterns
Environmental Studies ↔️ Predicting natural disasters
Steps involved in mathematical modelling
1️⃣ Identify key variables and relationships
2️⃣ Translate into mathematical expressions
3️⃣ Solve the mathematical model
4️⃣ Evaluate and refine the model
Empirical models are based on observed data and statistical
analysis
Stochastic models incorporate randomness or probability distributions to account for
uncertainty
Match the model type with its description:
Deterministic ↔️ Output uniquely determined by input variables
Stochastic ↔️ Incorporates randomness
Empirical ↔️ Based on observed data
Mechanistic ↔️ Derived from fundamental principles
What is the key variable in the bacterial population growth model?
N
(
t
)
N(t)
N
(
t
)
What is an example of a real-world problem in economics that can be modeled mathematically?
Predicting stock market trends
Empirical models are based on observed data and statistical
analysis
Mechanistic models are derived from fundamental physical, chemical, or biological
principles
Steps to develop a mathematical model based on assumptions:
1️⃣ Define the problem
2️⃣ State the assumptions
3️⃣ Formulate the mathematical equations
4️⃣ Solve the equations
5️⃣ Validate the model
Validating a model involves comparing its predictions to real-world
data
Validating a model includes comparing its predictions to real-world
data
By creating mathematical models, we can make informed
decisions
Mathematical modelling helps us understand and solve complex real-world problems.
True
The choice of model type depends on the specific problem, the available data, and the level of
understanding
Stochastic models use probability distributions to account for
uncertainty
in the system.
True
What type of mathematical model assumes no uncertainty or randomness?
Deterministic
Which type of mathematical model is derived from fundamental principles?
Mechanistic
Steps to develop a mathematical model based on assumptions:
1️⃣ Define the problem and key variables
2️⃣ State the assumptions to simplify the model
3️⃣ Formulate the mathematical equations
4️⃣ Solve the equations
5️⃣ Validate the model with real-world data
Match the aspect with its corresponding field:
Purpose of mathematical modelling ↔️ Analyze real-world systems
Purpose of pure mathematics ↔️ Develop abstract theories
Outcome of mathematical modelling ↔️ Practical insights
Outcome of pure mathematics ↔️ Theoretical knowledge
Mathematical models can help test hypotheses in a controlled environment.
True
Stochastic models incorporate
randomness
to account for uncertainty.
True
Match the model type with its description:
Deterministic Models ↔️ Output uniquely determined by input variables
Stochastic Models ↔️ Incorporate randomness or probability distributions
Empirical Models ↔️ Based on observed data and statistical analysis
Mechanistic Models ↔️ Derived from fundamental principles
What is the solution to the equation \frac{dN}{dt} = k \cdot N(t)</latex>?
N
(
t
)
=
N(t) =
N
(
t
)
=
N
0
⋅
e
k
t
N_{0} \cdot e^{kt}
N
0
⋅
e
k
t
Numerical methods provide exact solutions for mathematical models.
False
See all 41 cards
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