CHEMICAL ENGINEERING TRANSACTIONS  
 

VOL. 51, 2016 

A publication of 

 
The Italian Association 

of Chemical Engineering 
Online at www.aidic.it/cet 

Guest Editors: Tichun Wang, Hongyang Zhang, Lei Tian 
Copyright © 2016, AIDIC Servizi S.r.l., 

ISBN 978-88-95608-43-3; ISSN 2283-9216 

Construction of a Model Promoting Integration Development 
of Information Industry 

Yongjuan Zheng 
Henna Institute of Technology, Xinxiang, Henan 453002, China  
juanzee@163.com 

Through analysing the above models, the paper draws the following conclusions: the impact of information 
investment on production performance is U curve; the impact of information investment on production 
performance depends on introduction, assimilation and re-innovation level of information technology, and then 
depends on interaction of information technology and production factors and then depends on the scale and 
quality of capital stock, labour input, industrial technology and information technology; the impact of traditional 
industry and strategic emerging industry on production performance has obvious differences, but in our 
country, only chemical raw material, chemical product manufacturing industry, nonferrous metal metallurgy 
and rolling manufacturing industry, transportation equipment manufacturing industry, production of power, 
thermal power and supply industry can improve production performance among information investments. 
Therefore, the theoretical contribution of this chapter is mainly: propose the impact of information investment 
on production performance appears U-curve and interpret productivity paradox exists in industrial information 
investment; verify traditional industry and strategic emerging industry of our country promote the difference 
and direction of information investment and integration of information and industrialization; propose impact 
mechanism of information investment on production performance is the introduction, assimilation and re-
innovation of information technology, the reform of scale and quality of production factors and reform of 
production paradigm. 

1. Introduction 

The development of information technology brings reform of production mode, business management and 
economic mode worldwide. Developing and investing information system, optimizing internal process of 
enterprise, supply chain, inventory management and digital transaction and realize the customization of 
product and service has become the important information means of affecting enterprise performance and 
enhancing industrial competitiveness (Lei, 2000). Especially on the background of rapid development of new 
generation information technology in post-financial crisis period, the deep integration policy of information and 
industrialization has become the key means of our country to enhance competitiveness. The development of 
technological innovation and coordinative development of intelligent production, management and industries 
has become new direction of deep integration of information and industrialization of our country (Elabras and 
Lilian, 2009). 
In order to investigate the direct impact of industrial integration of information and industrialization on 
performance, it can use information investment to substitute the introduction level of information technology in 
the integration of information and industrialization and further substitute integration level of information and 
industrialization. Therefore, the information investment appearing in the paper has the significance of 
representing integration level of information and industrialization. 

2. Modeling construction of information investment performance 

2.1 Model construction 
Integration of information and industrialization is the process of forming time and space after information 
technology assimilation and re-innovation. It has gradualness and stage, reflected in industrial or enterprise 
internal information investment enhancement. The essence is the process of technology importing, 

                               
 
 

 

 
   

                                                  
DOI: 10.3303/CET1651146

 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 

Please cite this article as: Zheng Y.J., 2016, Construction of a model promoting integration development of information industry, Chemical 
Engineering Transactions, 51, 871-876  DOI:10.3303/CET1651146   

871



assimilating and re-innovation. In micro-level, it is reflected in mutual effect on information technology and 
production factors. Moreover(Li and Wan, 2012), it affects production performance, breaks through the 
application and penetration of information technology to some industrial activities such as R&D design, 
manufacturing and operation management and diffuse and penetrate to each production factors within the 
enterprise so as to promote reform of management mode, the optimization of operational procedures, 
enhancement of innovation means and improvement of production efficiency, etc.; In meso-level, it changes 
industrial form, breaks through old industrial boundary, recombines market structure, promotes industrial 
integration and hasten the derivation of new industry. Therefore, information technology introduces, 
assimilates and diffuses the integration of information and industrialization so as to promote formation of new 
productivity, hasten the innovation of production mode, organization mode, management mode, industrial 
form, etc. and from new technological paradigm and production function. In addition, with the reform of 
information technology, the integration of information and industrialization changes more technical boundaries, 
organization character, market structure, etc. These important factors also affect production performance in 
turn (Zhang, 2015). 
Integration of information and industrialization shows the process that enterprise or industry introduces, 
assimilates and re-innovates information technology in the form of information production, management 
equipment, production and management software and diffuses it to production, design, sale and management. 
During the process (Lowe, 1999), information technology exerts decisive effect on production performance 
(Liu, 2014). The paper considers information investment as technological form of integration of information 
and industrialization. It deems information investment as the endogenous variable affecting industrial 
performance and follows endogenous economic growth theory to analyse it empirically by utilizing production 
function model analysis method. Therefore, this part follows basic method of mainstream literature about 
information performance research at present, utilizes production function model for empirical analysis so as to 
investigate the impact of industrial information on investment. On account of our country located in the 
integration process of information and industrialization (Li and Su, 2012), information investment is mainly 
realized through increasing information hardware equipment, software system and corresponding investment 
in human capital. The essence is for information technology introduction, assimilation and re-innovation, so 
this part takes industrial information investment as a kind of technical form and places it into production 
function. That is: 

  
 it

a

it it it it it
Y AK L T IT e

                                                                                                             (1) 

Including, Y is yield, K and L are tangible capital input and labour input, T is R&D stock input, IT is micro-
electronics equipment control original cost in the industry, α is the elastic coefficient of yield on capital input, β 

is the elastic coefficient of yield on labour input, δ is the elastic coefficient of yield on original technical input 
and γ is the elastic coefficient of yield on introducing information technology. 

           
it it it it it it

y a t k l t it
                                                                                (2) 

Including, y=log(Y),k=log(K),l=Log(L),t=Log(T),it=log(IT),a is constant term and 
it

 is error term. 

In view of industrial performance is also affected by other various factors in reality, so it needs to add other 
control variable to the above model. We use average scale of enterprise to measure the industry with different 
market concentrations. Thus, we add control variable---market structure level to the model, which is expressed 
as Struct. The model can be set as: 

it
struc +            

it it it it it it
y a t k l t it

                                                                   (3) 

In order to measure assimilation and diffusion between information technology and various production factors 
within industry in the integration process of information and industrialization, the paper takes the production of 
information and capital stock, and the product of R&D and labour capital stock as the interpreted variable and 
put into the equation: 

it it it it it it it
struc t +it + l it + k it +                  

it it it it it it
y a t k l t it

                    (4) 

Including, ϕ represents the impact of interaction between information technology and traditional technology on 
yield or productivity; η represents the impact of interaction between information technology and labour capital 
on yield or productivity; κ represents the impact of interaction between information technology and capital 
stock on yield or productivity. Roodman has ever pointed out eliminating endogenous error in model 

872



estimation through dynamic panel data metering method. In view of two endogenous variables t and it existed 
in the model (5), and in order to prevent the setting error of basic metering model, the paper introduces lag 
term of variable to expand formula (5) as the following dynamic model: 

-1 -1 -1 -1 it-1 it-1 it-1 it-1 it-1 it-1 it-1
struc t +it + l it + k it +                  

it it it it it it
y a t k l t it

       (5) 

2.2 Setting of major variables 
The paper measures net amount of capital stock according to age-price function, which substitutes computing 
depreciation function, so as to solve the impact caused by thorough of geometrical depreciation. The paper 
applies the estimated result of net amount of capital stock, utilizes all industries plus total proportion of total 
industrial output value and state-owned holding value of gross output to compute total amount of state-owned 
holding capital stock by industry, utilizes the proportion of net amount of fixed capital stock in each industry to 
compute total amount of capital stock in each industry, and converts the ex-factory price indices of industrial 
product into net amount of constant price capital stock. 
The paper redefines the economic significance of capital depreciation and creates quantity of capital input-
price pairing computational system. That is, on the condition of competition equilibrium. The current purchase 
price of capital goods is equal to the sum of expected leasing income discounting in the future: 

 
 

 
0

1
(t) 1

1
  





  
 

 kP d p t
r t s

                                                                              (6) 

Including, P(t) represents asset price of t period, P(t) represents leasing price of asset in t period, while d(τ) 

represents asset relative efficiency, represents discount factor, r(t) is asset capital return of t period. Make the 
first difference, it can get: 

         
 

 
0

1
(t) 1 1 [ 1 ]

1
   





          
 

 kP r t p t p t d d p t
r t s

                     (7) 

If PD(t) represents depreciation, according to the relationship between relative efficiency and death rate, it can 
get: 

 
 

 
0

1
(t)

1
  





 
 

D kP m p t
r t s

                                                                                    (8) 

On such basis, suppose average depreciation rate is Δp(t), the depreciation can be expressed as: 

 
 

 

 
 

 

0

0

1

1
(t)=

1

1





  

  










 




 





k

k

m p t
r t s

p

d p t
r t s

                                                                                    (9) 

While in the geometrical relative efficiency mode, if efficiency lost is δ, it can prove that: 
PD(t)=ΔP(t). It means average depreciation rate, average resetting rate and relative efficiency rate are equal 
at present and geometrical relative efficiency model maintains the consistence between efficiency resetting 
and value depreciation. Therefore, net amount of capital stock can be estimated based on the asset page 
price function got in the geometrical and hyperbola mode and the data of fixed asset formed in recent years. 
PD(t)=ΔP(t) is net amount of capital stock, AP(t) is age-price function of asset and I(t−τ) is fixed asset in recent 
years. 

   
0

(t)


 




 NK AP I t
               

(10) 

Labour input. The paper selects average number of total employees to substitute labour input. Industrial 
technology. The paper adopts R&D stock to substitute the development and application level of industrial 
technology during production process of enterprise, utilizes the proportion of total value of enterprise and 

873



state-owned holding total industrial output value by industry to compute total amount of capital stock in each 
industry and converts the ex-factory price indices of industrial product into net amount of constant price capital 
stock. 
Information investment. According to the investigation way about information capital of enterprise from 
American IDG, enterprise information capital data comes from the estimation of annual value of enterprise 
information equipment and corresponding investment by executive management of enterprise information, 
mainly including computer hardware such as CPU, personal computer and terminal accessory devices, etc. 
and communication equipment such as router, concentrator, WAN and LAN equipment, switchboard, 
telephone, etc. Information investment is the original price of introducing information technology, namely the 
original price of owing and utilizing micro electric technique to control, observe and measure machine and 
equipment. Therefore, information investment level represents the information technology form introduced to 
enterprise. In order to avoid repetitive computation of price, the paper adopts the proportion of original price 
controlled by micro electric control equipment in equipment used in production management to substitute 
information technology level. 
Average scale of enterprise. The paper refers to methods proposed to verify the impact of average scale of 
enterprise within industry on production performance on the condition of information technology. The specific 
computational formula is: average scale of enterprise in industry I = total output value of industry I /the total 
number of enterprise in industry i. (L and C, 2012). 

2.3 Statistical analysis 

The sample quantity of industry is 222, the average value of industrial value by industry is 195.91504 billion 
Yuan, the average value of capital stock is 891.32469 billion Yuan, average number of employees is 463,794, 
average value of information input proportion is 0.13, industrial level, namely average level of R&D input is 
1.16458 trillion Yuan and market structure situation is 764.41 million Yuan. The paper makes simple statistic 
description of the above variables in Table 1. Production output value, capital store, industrial technology level 
in 2003-2007 appears rising, information technology and average industrial scale appears obvious rising trend 
in 2003-2007, but inflection points appears respectively in 2008. In addition, the information input level of 
strategic emerging industry is higher than that of traditional industries, namely strategic emerging industry has 
the attribute of high content of information technology input; in addition, R&D input level of strategic emerging 
industry is higher than traditional industry in 2003-2008, which accords with high technology-based 
characteristics of strategic emerging industry by and large. 

Table 1: Statistical description of the main variables 

 2003 2004 2005 2006 2007 2008 

Y(Yuan) 10697217  7720059  17228830 20062297 22946751   28893872.55 

K(Yuan) 85210262   77668069 81547366 85073756 90751506   114543852.9 

L(People) 423381.2   533368.2 420126.5 496855.1 408976.4 500058.5676 

T(Yuan) 79672.01   113821.8   112125.2 128513.4 147658.6 177120.4572 

IT 0.102801   0.108553 0.12332 0.158579   0.156705 0.135137467 

Struc(Yuan) 34921.85   32046.91 92640.31   116901.9   116295.2   64881.26755 

 
In the long term, the integration of information and industrialization is the crossing process realized by 
industrial technology with constant progress of information technology. For each technological crossing 
process, information investment and production performance have U-curve relation. As is shown in Diagram 1, 
the impact of information investment on production performance in the long run appears P curve, namely in 
the long term, the impact of information investment on production performance appears S curve as a whole, 
but inflection points exist within each integration period of information and industrialization, namely production 
performance decreases firstly then rises. It is worth to note during the alternation process of information 
technology, the production performance is the superposition effect of the impact of the previous information 
technology introduction on production performance and the impact of the latter information technology 
introduction on production performance so that production performance decreases in the long term, appearing 
U curve relation. It is worth to note and illustrate that the integration process of information and 
industrialization is always the upgrading and crossing process of industrialization. Information investment is 
not the sole factor affecting production performance, and proper arrangement and constant increasing of scale 
in information investment, labour force, capital, industrial technology, etc. are the key factors to enhance 
industrial production performance. This also verifies the crossing of information technology finally change 

874



leading community, information technology paradigm, production performance and economic growth mode. 
This also verifies the conclusion we analysed in the previous context, namely only when the production factors 
such as information capital, labour force, capital stock, industrial technology, etc., reach a certain scale and a 
certain configuration structure, then the impact of information investment on production performance is 
positive. That is to say, inflection points exist in the impact of information investment on production 
performance. 

3. Performance analysis of production information 

In the estimated result of GMM model, three cross terms kit, lit and tit are all obviously positive, it indicates 
information and capital stock, labour and industrial technology has positive influence relation and information 
technology enhances industrial production performance through interaction of various production factors. In 
addition, in the estimation of GMM model by levels, the estimation coefficient of itit−1 is negative, but it cannot 
hereby determine information input has inhibiting effect on industrial growth, because the impact of information 
input on production performance, on one hand, comes from the pulling effect of information investment on 
production performance; on the other hand, enhances production performance through introducing and 
assimilating information technology and enhancing original production factor structure and efficiency. 

Table 2: Strategic emerging industry compared with the traditional industry information and industrialization 

fusion 

 
SYS-GMM 
Strategic emerging industries The traditional industry 
(1) (2) (3) (1) (2) (3) 

L.lny   
0.813***  0.873*** 0.832***  0.356*  0.681** 0.542***  
(3.31)  (4.24) (3.84)  (1.76)  (3.68)  (3.12)  

Kit-1 
-0.197  0.148  0.205  0.710***  0.138  0.159**  
(-0.98)  (1.00) (1.30)  (2.63)  (1.23)  (2.57)  

Lit-1 
0.263  0.497**  0.333***  0.449**  0.607**  0.215**  
(1.66)  (2.54) (2.91)  (2.07)  (2.57)  (2.47)  

Itit-1 
0.127  -0.095  0.174  0.250  0.070  0.395***  
(1.08)  (-1.18) (1.01)  (1.39)  (0.61)  (4.15)  

Strucit-1 
1.201** -0.287 -0.559  -1.606** -0.601 -0.424***  
(2.58)  (-1.65) (-1.59)  (-2.36)  (-1.51) (-4.09)  

Kit-1 
0.124  0.144*  0.140*  0.405***  0.346** 0.214***  
(1.04)  (1.84) (1.79)  (3.71)  (3.53)  (3.87)  

Lit-1 
-1.455**   1.646**   
(-2.52)   (2.37)   

Tit-1 
 0.390*    0.673*   
 (1.73)   (1.69)  

Nit-1 
  0.631*    0.409***  
  (1.75)   (4.06) 

4. Conclusion 

Through analysing the above models, the paper draws the following conclusions: the impact of information 
investment on production performance is U curve; the impact of information investment on production 
performance depends on introduction, assimilation and re-innovation level of information technology, and then 
depends on interaction of information technology and production factors and then depends on the scale and 
quality of capital stock, labour input, industrial technology and information technology; the impact of traditional 
industry and strategic emerging industry on production performance has obvious differences, but in our 
country, only chemical raw material, chemical product manufacturing industry, nonferrous metal metallurgy 
and rolling manufacturing industry, transportation equipment manufacturing industry, production of power, 
thermal power and supply industry can improve production performance among information investments. 
Therefore, the theoretical contribution of this chapter is mainly: propose the impact of information investment 
on production performance appears U-curve and interpret productivity paradox exists in industrial information 
investment; verify traditional industry and strategic emerging industry of our country promote the difference 
and direction of information investment and integration of information and industrialization; propose impact 

875



mechanism of information investment on production performance is the introduction, assimilation and re-
innovation of information technology, the reform of scale and quality of production factors and reform of 
production paradigm. 

Reference  

Elabras V., Lilian B., 2009, Eco-industrial park development in Rio de Janeiro, Brazil: a tool for sustainable 
development, Journal of Cleaner Production, 17, 653-661, DOI: 10.1016/j.jclepro.2008.11.009. 

Huang T.W., Liu R.Z., Chen S., 2012, Research on the development strategies of regional industrial cluster 
based on the low-carbon perspective, Advances in Information Sciences and Service Sciences, 4, 165-
173, DOI: 10.4156/AISS.vol4.issue17.18. 

Lei D.T., 2000, Industry evolution and competence development: the imperatives of technological 
convergence, International Journal of Technology Management, 19, 699-738, DOI: 
10.1235/.2000.19.7699738. 

Li L.Z., Wan B.W., 2012, Augmentation of several newly developed algorithms for integrated systems 
optimization and parameter estimation of large-scale industrial processes. Convergence analysis and 
comparative study, IMA Journal of Mathematical Control and Information, 6, p333-345, DOI: 
10.1007/s11125-012-0012 

Liu B., 2014, Development potential of Chinese construction industry in the new century based on regional 
difference and spatial convergence analysis, KSCE Journal of Civil Engineering, 18, 11-18, DOI: 
10.1007/s12205-014-0099-9. 

Lowe P.,1999,Growth and convergence of manufacturing productivity in industrial and newly industrializing 
countries, International Journal of Production Economics, 34, 139-149, DOI: 10.1016/0925-
5273(94)90030-2. 

Ping L., 2009, The impact of information industry development to convergence of regional tourism, 
Proceedings of the 2009 6th International Conference on Service Systems and Service Management, 9, 
153-155, DOI: 10.1109/ICSSSM.2009.5174873. 

Zhang Q., 2015, Research on service-driven feature of industrial designers under the background of industry 
convergence, Lecture Notes in Computer Science (including subseries Lecture Notes in Artificial 
Intelligence and Lecture Notes in Bioinformatics),9180,128-138,DOI: 10.1007/978-3-319-20907-4_12. 

 

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