Qifeng Zhang – författare

This book seeks to model the possible emission trajectories and identify the feasible mitigation schemes for China to meet its climate commitments to peak emissions before 2030 and net zero emissions before 2060.

In line with these ambitions, China has taken a number of measures to improve carbon efficiency and energy structure in recent years. The book first analyzes changes in the carbon footprint at the city level, identify the different pathways to peak emissions by province and industry, and develop a bottom-up approach to determining when and how China could reach peak emissions. It then illustrates how the Emissions Trading Scheme (ETS) reduces abatement costs, and examines the cost-saving effects under carbon intensity reduction and peak emissions targets. Based on the findings and the status quo in China, the authors propose a multicriteria allocation scheme for carbon emission allowances at the provincial level and quantify the impact of sectoral coverage on the abatement costs of the ETS by developing a cost-based approach to sectoral coverage in China. In addition, the co-benefits between CO2 and PM2.5 reductions as a result of the ETS operation are elaborated.

The book will benefit researchers and policy-makers interested in environmental governance, climate policy, environmental economics, and sustainable development.

This book seeks to model the possible emission trajectories and identify the feasible mitigation schemes for China to meet its climate commitments to peak emissions before 2030 and net zero emissions before 2060.

In line with these ambitions, China has taken a number of measures to improve carbon efficiency and energy structure in recent years. The book first analyzes changes in the carbon footprint at the city level, identify the different pathways to peak emissions by province and industry, and develop a bottom-up approach to determining when and how China could reach peak emissions. It then illustrates how the Emissions Trading Scheme (ETS) reduces abatement costs, and examines the cost-saving effects under carbon intensity reduction and peak emissions targets. Based on the findings and the status quo in China, the authors propose a multicriteria allocation scheme for carbon emission allowances at the provincial level and quantify the impact of sectoral coverage on the abatement costs of the ETS by developing a cost-based approach to sectoral coverage in China. In addition, the co-benefits between CO2 and PM2.5 reductions as a result of the ETS operation are elaborated.

The book will benefit researchers and policy-makers interested in environmental governance, climate policy, environmental economics, and sustainable development.

Nonlinear evolution equations are widely used to describe nonlinear phenomena in natural and social sciences. However, they are usually quite difficult to solve in most instances. This book introduces the finite difference methods for solving nonlinear evolution equations. The main numerical analysis tool is the energy method. This book covers the difference methods for the initial-boundary value problems of twelve nonlinear partial differential equations. They are Fisher equation, Burgers'' equation, regularized long-wave equation, Korteweg-de Vries equation, Camassa-Holm equation, Schrödinger equation, Kuramoto-Tsuzuki equation, Zakharov equation, Ginzburg-Landau equation, Cahn-Hilliard equation, epitaxial growth model and phase field crystal model. This book is a monograph for the graduate students and science researchers majoring in computational mathematics and applied mathematics. It will be also useful to all researchers in related disciplines.

Nonlinear evolution equations are widely used to describe nonlinear phenomena in natural and social sciences. However, they are usually quite difficult to solve in most instances. This book introduces the finite difference methods for solving nonlinear evolution equations. The main numerical analysis tool is the energy method. This book covers the difference methods for the initial-boundary value problems of twelve nonlinear partial differential equations. They are Fisher equation, Burgers'' equation, regularized long-wave equation, Korteweg-de Vries equation, Camassa-Holm equation, Schrödinger equation, Kuramoto-Tsuzuki equation, Zakharov equation, Ginzburg-Landau equation, Cahn-Hilliard equation, epitaxial growth model and phase field crystal model. This book is a monograph for the graduate students and science researchers majoring in computational mathematics and applied mathematics. It will be also useful to all researchers in related disciplines.