Titlebook: Waiting for the Big One; Risk, Science, Exper Charlotte Mazel-Cabasse Book 2019 The Editor(s) (if applicable) and The Author(s) 2019 Scient

hematuria

The Case for Not Letting San Francisco Collapse,s essay “The Case for Letting Malibu Burn” (Davis, ., Vintage Books, New York, 1998), the chapter describes how experts and scientists in the Bay Area have joined forces to—they hope—save San Francisco from a large-scale earthquake. This chapter focuses on the anthropology exploration of the expert’

橢圓

Resilience as a Socio Technical Process,ncisco Bay Area. Focusing on the modus operandi that connects together different key elements and stakeholders involved in earthquake risk mitigation, it proposes a pragmatic exploration on the nature of resilience. We will explore some important factors such as of the role of amateur observations a

SPURN

The Multiple Existences of Earthquake Risk,epts are interwoven with the question of individual and collective responses to threats in a post-Second World War context. The chapter goes on to detail how these definitions have been a constant preoccupation of researchers, who are trying to define both the scope of this particular object of rese

HUMP

Traumatic Legacies: Shaping the Space of Risk,e and the legacy of the 1906 earthquake are used as example of the unfolding of a natural disaster and the subsequent question of definitions and reconstruction. Controversies about scale and the legacies of past disasters, urban practices inherited from the time of the region’s early urban planning

Bucket

Living with Risks,jectivity. Focusing on the operations of translation through which earthquake risk remains visible, I show how stories, emotions and concerns about distant earthquakes (e.g., Christchurch, Haiti, Tōh(huán)oku) or smaller earthquakes in the Bay Area have contributed to a local, progressive instauration of

諷刺

的是兄弟

Offstage

infringe

arthquake expertise as described by self-proclaimed earthqua.This book helps understand how the future Big One (a large-scale and often-predicted earthquake) is understood, defined, and mitigated by experts, scientists, and residents in the San Francisco Bay Area. Following the idea that earthquake

執(zhí)

nding optimal solutions can be solved easily and efficiently by our approach. One important problem in OBDD is the amount of memory required to represent the OBDD. In the worst case, this amount is in .(2.) where . is the number of propositional variables for static CSPs. We prove here that, if the