TY - JOUR
T1 - Management strategies for industrial laboratories with knowledge memory
AU - Mitra, Debasis
AU - Wang, Qiong
N1 - Funding Information:
For an early-stage work of the kind reported here, it is easy to see multiple paths for enhancements. We mention relaxation of (a) the investment amount I to include some share of the profit, (b) the linear dependence of the capacities of the R & D stages on investments, and (c) only two stages in the network and only two levels of assessed values of projects. Stochastic modeling would certainly raise relevance. Acknowledgement The authors are grateful to Shreya Gau-tam (Columbia University) for her assistance in programming some of the numerical results. The work reported in the paper is supported by the NSF under Grant No. SMA 1360189 (Debasis Mitra) and SMA 1360188 (Qiong Wang).
Publisher Copyright:
© 2018 Association for Computing Machinery. All rights reserved.
Copyright:
Copyright 2019 Elsevier B.V., All rights reserved.
PY - 2018/3/20
Y1 - 2018/3/20
N2 - We present a simplified abstraction of an industrial laboratory consisting of a two-stage network, Research (R) and Development (D). Ideas and prototypes are incubated in the R stage, the projects departing this stage are assessed, and, if favorable, the project proceeds to the D stage. Revenue is generated from the sale of products/solutions that are outputs of the D stage, and the sale and licensing of patents that are generated at both stages. In our discrete time model, in each time period the managers of the industrial laboratory are given a constant amount of money to invest in the two stages. The investments determine the capacities of the stages based on linear unit costs. A novel feature of the model is “knowledge stocks” for the stages, which represent the accumulated know-how from practicing research and development activities; higher knowledge stock implies lower cost. The memory in knowledge stocks makes current investment decisions have long term impact on costs and profits. Three strategies for profit maximization are investigated. In myopic profit maximization we show the existence of multiple equilibria and the phenomenon of state entrapment in suboptimal regimes, which are absent in the other strategies. Numerical results illustrate the main features of the model.
AB - We present a simplified abstraction of an industrial laboratory consisting of a two-stage network, Research (R) and Development (D). Ideas and prototypes are incubated in the R stage, the projects departing this stage are assessed, and, if favorable, the project proceeds to the D stage. Revenue is generated from the sale of products/solutions that are outputs of the D stage, and the sale and licensing of patents that are generated at both stages. In our discrete time model, in each time period the managers of the industrial laboratory are given a constant amount of money to invest in the two stages. The investments determine the capacities of the stages based on linear unit costs. A novel feature of the model is “knowledge stocks” for the stages, which represent the accumulated know-how from practicing research and development activities; higher knowledge stock implies lower cost. The memory in knowledge stocks makes current investment decisions have long term impact on costs and profits. Three strategies for profit maximization are investigated. In myopic profit maximization we show the existence of multiple equilibria and the phenomenon of state entrapment in suboptimal regimes, which are absent in the other strategies. Numerical results illustrate the main features of the model.
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U2 - 10.1145/3199524.3199561
DO - 10.1145/3199524.3199561
M3 - Conference article
AN - SCOPUS:85046631411
SN - 0163-5999
VL - 45
SP - 210
EP - 216
JO - Performance Evaluation Review
JF - Performance Evaluation Review
IS - 3
T2 - 35th IFIP International Symposium on Computer Performance, Modeling, Measurements and Evaluation, IFIP WG 7.3 Performance 2017
Y2 - 13 November 2017 through 17 November 2017
ER -