Hsieh M.-Y.,140 Min Shen Road |
Huang C.-H.,Roosevelt Rd. |
Wu W.-M.,Chung Shan Rd.
Key Engineering Materials | Year: 2011
Beginning in the 21st century, e-business enterprises need to take vigorous tactics in facing greater challenges in a booming cyber commerce era. In today's e-business environment, innovative interface technologies change with each passing day, customers' (users') satisfaction are more and more discerning, and market demands can fluctuate unpredictably. While facing constant changes in the lower-profit and high customer-service cyber commerce environment, it is important to know how to break through the current Information Technology (IT) industrial situation, maintain the enterprises' owned advantage and continuously make a profit under a booming transition. In this research, nineteen sub-criteria are categorized into five factors (criteria) by the measurement of factor analysis. Three basic types of innovative business websites (portals, cyber commerce and social community) in an e-business environment are then evaluated by nineteen assessable criteria of five characteristics of innovation interface technology through the use of the Analytical Network Process (ANP) approach. The specific feature of the ANP model is to establish a pairwise comparative matrix and furthermore, to calculate the priority vector weights (eigenvector) of each assessable characteristic, criteria and sub-criteria. The factor analysis can utilize more measure matrix to benefit the deviation of ANP approach due to less data from expert's opinions. Additionally, in the content, the analytical hierarchical relations are definitely expressed in four levels among each characteristic of innovative interface technology (IIT), criterion and sub-criteria. Moreover, based on the empirical analysis, the enterprises are able to choose the best potential business website with highest economic value added (EVA) through this research in order to maximize financial profits and benefits from an innovative perspective. Finally, some suggestions for managers and researchers are inductively formed to further determine the best development of innovative interface technologies in a thriving cyber commerce environment. Source
Demchenko A.P.,Ukrainian Academy of Sciences |
Tang K.-C.,Roosevelt Rd. |
Chou P.-T.,Roosevelt Rd.
Chemical Society Reviews | Year: 2013
Charge and proton transfer reactions in the excited states of organic dyes can be coupled in many different ways. Despite the complementarity of charges, they can occur on different time scales and in different directions of the molecular framework. In certain cases, excited-state equilibrium can be established between the charge-transfer and proton-transfer species. The interplay of these reactions can be modulated and even reversed by variations in dye molecular structures and changes of the surrounding media. With knowledge of the mechanisms of these processes, desired rates and directions can be achieved, and thus the multiple emission spectral features can be harnessed. These features have found versatile applications in a number of cutting-edge technological areas, particularly in fluorescence sensing and imaging. © 2013 The Royal Society of Chemistry. Source
Chou C.-P.,Roosevelt Rd. |
Lee N.,Roosevelt Rd.
Advanced Materials Research | Year: 2013
This study inspects the benefits of using RAP on both financial and environmental aspects from life cycle viewpoints. The Life Cycle Cost Saving (LCCS) and the Life Cycle Carbon Reduction (LCCR) of various RAP mixtures (RAP content 10%, 20%, 30%, and 40%) to the virgin mixture are introduced and applied in this study. Carbon emission data of associated materials are obtained from PaLATE database. According to calculations, the RAP mixture's corresponding cost ratio and service life ratio exceed certain thresholds to have advantages over virgin mixtures. From a financial perspective, the service life ratio of RAP mixtures to virgin mixtures must be larger than the cost ratio of these two materials. For environmental benefit, the service life of RAP mixtures must be over 70% (40% RAP) to 90% (10% RAP) of that of the virgin mixture. © (2013) Trans Tech Publications, Switzerland. Source