Search

Emerging industries and technologies are made up of objective, practical requirements and ideas that encompass broad hopes for what future newness might enable. The bioeconomy is one such emerging industry. Its recent evolution has involved a complicated and dynamic mix of promises, reality checks and subsequent ambivalences. This article frames and investigates the emerging algae-based bioplastics industry as one niche within this broader system envisaged for social, technological, economic, political and ecological change. As such, our paper presents two categories of knowledge that in practice interrelate: 1) specific and practical recommendations that can assist a future algal-based bioplastics industry to develop in Australia in ways that are conscious of socio-ecological and socio-cultural dimensions, and 2) critical extensions that go beyond the attributes of newness, impact, suddenness and universality often emphasised in both popular and scientific research into emerging green technologies. In particular, our analysis highlights the importance of specific temporal, tonal and spatial factors when framing the contextual factors associated emerging industries, technologies and the different pathways for change they might help support. • Pathways and enabling factors for a algal-based bioplastics industry in regional Australia are presented. • The 'social idea' of the bioeconomy is analysed with reference to algal-based bioplastics. • The algal-based bioplastics industry is contextualised in relation to transition pathways literatureon the bioeconomy. • Themes and recommendations are synthesised from literature review and semi-structured interviews. [ABSTRACT FROM AUTHOR]

This study presents an estimation of electrical and electronic equipment (EEE) products put-on-market (PoM), electronic-waste (e-waste) generation and the stock of EEE products in Australia from the year 2000–2047, considering seven categories that encompass 51 different types of product. Holt's double-exponential smoothing and dynamic lifespans (using the Weibull distribution function) are applied to compute past and future PoM and in e-waste generation, respectively. With the estimation, it is found that EEE PoM was increased from 470 kilo tons (kt) to 2135 kt in a timeframe of 2000–2015. On the other hand, e-waste generation was 115 kt in the year 2000, which then increased to 485 kt in the year 2010. For the projected period (2018–2047), the annual average growth of e-waste generation will be around 3%. E-waste generation will increase, particularly for large household appliances (LHA), small household appliances (SHA) and consumer equipment (CE), in terms of weight. This study evaluates the potentially recoverable material and revenue potential of regulated products (e.g., computer, televisions and other IT peripherals currently considered under the national television and computer recycling scheme (NTCRS) and mobile phones) and e-waste generated outside of the current product coverage. The gap between revenue generation from regulated and non-regulated products is quantitatively assessed for the first time and reported in this paper. Sensitivity and uncertainty analysis performed by Monte Carlo simulation showed the robustness and accuracy of this study. This quantification will provide invaluable insights to policymakers, including products in future legislative reform as well as the development of the recycling industry in Australia. Furthermore, this study presents a transparent process of calculation for time-series data that can be used for e-waste generation estimation for other countries, as well. • E-products put-on-market, e-waste generation, and stock in Australia were estimated. • The potentially recoverable material and revenue potential were evaluated. • The revenue generation gap between NTCRS and unregulated e-products was assessed. [ABSTRACT FROM AUTHOR]