OPTIMAL TRAINING POLICY FOR PROMOTION - STOCHASTIC MODELS OF MANPOWER SYSTEMS
In this paper, the optimal planning of manpower training programmes in a manpower system with two grades is discussed. The planning of manpower training within a given organization involves a trade-off between training costs and expected return. These planning problems are examined through models th...
Main Authors: | , , |
---|---|
Format: | Article |
Language: | English |
Published: |
Stellenbosch University
2012-01-01
|
Series: | South African Journal of Industrial Engineering |
Online Access: | http://sajie.journals.ac.za/pub/article/view/315 |
id |
doaj-08eab170a9fd44248209dc9eb8776abb |
---|---|
record_format |
Article |
spelling |
doaj-08eab170a9fd44248209dc9eb8776abb2020-11-25T01:45:48ZengStellenbosch UniversitySouth African Journal of Industrial Engineering1012-277X2224-78902012-01-01131OPTIMAL TRAINING POLICY FOR PROMOTION - STOCHASTIC MODELS OF MANPOWER SYSTEMSV.S.S. YadavalliR. NatarajanS. UdayabhaskaranIn this paper, the optimal planning of manpower training programmes in a manpower system with two grades is discussed. The planning of manpower training within a given organization involves a trade-off between training costs and expected return. These planning problems are examined through models that reflect the random nature of manpower movement in two grades. To be specific, the system consists of two grades, grade 1 and grade 2. Any number of persons in grade 2 can be sent for training and after the completion of training, they will stay in grade 2 and will be given promotion as and when vacancies arise in grade 1. Vacancies arise in grade 1 only by wastage. A person in grade 1 can leave the system with probability p. Vacancies are filled with persons in grade 2 who have completed the training. It is assumed that there is a perfect passing rate and that the sizes of both grades are fixed. Assuming that the planning horizon is finite and is T, the underlying stochastic process is identified as a finite state Markov chain and using dynamic programming, a policy is evolved to determine how many persons should be sent for training at any time k so as to minimize the total expected cost for the entire planning period T.http://sajie.journals.ac.za/pub/article/view/315 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
V.S.S. Yadavalli R. Natarajan S. Udayabhaskaran |
spellingShingle |
V.S.S. Yadavalli R. Natarajan S. Udayabhaskaran OPTIMAL TRAINING POLICY FOR PROMOTION - STOCHASTIC MODELS OF MANPOWER SYSTEMS South African Journal of Industrial Engineering |
author_facet |
V.S.S. Yadavalli R. Natarajan S. Udayabhaskaran |
author_sort |
V.S.S. Yadavalli |
title |
OPTIMAL TRAINING POLICY FOR PROMOTION - STOCHASTIC MODELS OF MANPOWER SYSTEMS |
title_short |
OPTIMAL TRAINING POLICY FOR PROMOTION - STOCHASTIC MODELS OF MANPOWER SYSTEMS |
title_full |
OPTIMAL TRAINING POLICY FOR PROMOTION - STOCHASTIC MODELS OF MANPOWER SYSTEMS |
title_fullStr |
OPTIMAL TRAINING POLICY FOR PROMOTION - STOCHASTIC MODELS OF MANPOWER SYSTEMS |
title_full_unstemmed |
OPTIMAL TRAINING POLICY FOR PROMOTION - STOCHASTIC MODELS OF MANPOWER SYSTEMS |
title_sort |
optimal training policy for promotion - stochastic models of manpower systems |
publisher |
Stellenbosch University |
series |
South African Journal of Industrial Engineering |
issn |
1012-277X 2224-7890 |
publishDate |
2012-01-01 |
description |
In this paper, the optimal planning of manpower training programmes in a manpower system with two grades is discussed. The planning of manpower training within a given organization involves a trade-off between training costs and expected return. These planning problems are examined through models that reflect the random nature of manpower movement in two grades. To be specific, the system consists of two grades, grade 1 and grade 2. Any number of persons in grade 2 can be sent for training and after the completion of training, they will stay in grade 2 and will be given promotion as and when vacancies arise in grade 1. Vacancies arise in grade 1 only by wastage. A person in grade 1 can leave the system with probability p. Vacancies are filled with persons in grade 2 who have completed the training. It is assumed that there is a perfect passing rate and that the sizes of both grades are fixed. Assuming that the planning horizon is finite and is T, the underlying stochastic process is identified as a finite state Markov chain and using dynamic programming, a policy is evolved to determine how many persons should be sent for training at any time k so as to minimize the total expected cost for the entire planning period T. |
url |
http://sajie.journals.ac.za/pub/article/view/315 |
work_keys_str_mv |
AT vssyadavalli optimaltrainingpolicyforpromotionstochasticmodelsofmanpowersystems AT rnatarajan optimaltrainingpolicyforpromotionstochasticmodelsofmanpowersystems AT sudayabhaskaran optimaltrainingpolicyforpromotionstochasticmodelsofmanpowersystems |
_version_ |
1725022687710937088 |