I was reading about Little's Law which is in general(infinite capacity system) form L = R*W ( R: throughput rate ,W : expected waiting time of a customer). I know it is applicable on M/M/S type queues;however I am wondering if this law is also applicable to all Continous Time Markov Chain models? Thanks in advance
2026-03-30 01:13:22.1774833202
Is Little's Law applicable to all Continous Time Markov Chain Models?
86 Views Asked by Bumbble Comm https://math.techqa.club/user/bumbble-comm/detail At
1
There are 1 best solutions below
Related Questions in MARKOV-CHAINS
- Calculating probabilities using Markov chains.
- Probability being in the same state
- Random walk on $\mathbb{Z}^2$
- Polya's Urn and Conditional Independence
- Markov Chain never reaches a state
- Finding a mixture of 1st and 0'th order Markov models that is closest to an empirical distribution
- Find probability function of random walk, stochastic processes
- Generating cycles on a strongly connected graph
- Will be this random walk a Markov chain?
- An irreducible Markov chain cannot have an absorbing state
Related Questions in QUEUEING-THEORY
- How to determine queue distribution?
- Reasonable/unreasonable exponentially distributed interarrival (service) times
- Fixed-sized length/ M/ 1 queuing model
- Time to be serviced in a queue
- Effect on wait time of combining queues
- Discrete time queue markov chain
- M/M/1/K Queue vs M/D/1/K Queue
- How can I find the probability of $n$ customers waiting in a queue?
- Understanding M/M/1 queue simulation
- M/M/1 with balking
Trending Questions
- Induction on the number of equations
- How to convince a math teacher of this simple and obvious fact?
- Find $E[XY|Y+Z=1 ]$
- Refuting the Anti-Cantor Cranks
- What are imaginary numbers?
- Determine the adjoint of $\tilde Q(x)$ for $\tilde Q(x)u:=(Qu)(x)$ where $Q:U→L^2(Ω,ℝ^d$ is a Hilbert-Schmidt operator and $U$ is a Hilbert space
- Why does this innovative method of subtraction from a third grader always work?
- How do we know that the number $1$ is not equal to the number $-1$?
- What are the Implications of having VΩ as a model for a theory?
- Defining a Galois Field based on primitive element versus polynomial?
- Can't find the relationship between two columns of numbers. Please Help
- Is computer science a branch of mathematics?
- Is there a bijection of $\mathbb{R}^n$ with itself such that the forward map is connected but the inverse is not?
- Identification of a quadrilateral as a trapezoid, rectangle, or square
- Generator of inertia group in function field extension
Popular # Hahtags
second-order-logic
numerical-methods
puzzle
logic
probability
number-theory
winding-number
real-analysis
integration
calculus
complex-analysis
sequences-and-series
proof-writing
set-theory
functions
homotopy-theory
elementary-number-theory
ordinary-differential-equations
circles
derivatives
game-theory
definite-integrals
elementary-set-theory
limits
multivariable-calculus
geometry
algebraic-number-theory
proof-verification
partial-derivative
algebra-precalculus
Popular Questions
- What is the integral of 1/x?
- How many squares actually ARE in this picture? Is this a trick question with no right answer?
- Is a matrix multiplied with its transpose something special?
- What is the difference between independent and mutually exclusive events?
- Visually stunning math concepts which are easy to explain
- taylor series of $\ln(1+x)$?
- How to tell if a set of vectors spans a space?
- Calculus question taking derivative to find horizontal tangent line
- How to determine if a function is one-to-one?
- Determine if vectors are linearly independent
- What does it mean to have a determinant equal to zero?
- Is this Batman equation for real?
- How to find perpendicular vector to another vector?
- How to find mean and median from histogram
- How many sides does a circle have?
Little's Law, as defined by wikipedia, only assumes the random process/the system is stationary($P(x_{1, t_1}, x_{2, t_2}...) = P(x_{1, t_1+\tau}, x_{2, t_2 + \tau}...)$, $\forall\tau$). So any such process(eg, it doesn't need to be a queue, can be a small part of it as well) obeys this law.
These Markov processes are analysed here thoroughly, but as a concise answer, you can apply it to all ctmcs whose transition probabilities are time homogenous.
Another intuitive way I personally studied in class said that you can apply it as long as the rate of incoming 'stuff'(or customers) is equal to the rate of outgoing 'stuff', i.e., as long as the system is stable(so the values just need to converge)