Theresa Wahl, chef-owner of L.A. retro-hip hotspot Auntie Em's Kitchen, showcases her simple and beloved recipes for breakfast, brunch, and dessert in a cookbook that celebrates seasonal and local flavors. Drawing inspiration from her past as a punk guitarist, Wahl pairs her recipes with a playlist, sharing her belief that food tastes better when there's music in the kitchen. Rich with photography by David Kiang, "The Auntie Em's Cookbook" takes American comfort food into the modern era with a relaxed style and a commitment to deep flavor.

Theresa Wahl is the chef and owner of Auntie Em's Kitchen, a cafe and catering business in L.A.'s Eagle Rock neighborhood. In the 1990s, she was a singer and guitarist for the Red Aunts, an all-female punk band that toured the United States and Europe for a decade. Her travels inspired a love of hearty American home cooking, and when she retired from performing, she started catering gigs for bands and their crews. This led to the 2002 opening of her cafe, where she quickly developed a following for her comfort food and baked goods with a punk-rock edge. Wahl lives in Los Angeles, California, with two dogs and several chickens.

This book provides a wealth of practical knowledge and industry best practices to address dependability management and engineering issues with helpful guidance and checklists from a system life cycle perspective, hence making this book a valued asset as a comprehensive desk-top reference. The topics presented in this book highlight the essence of life cycle management practices and systematic cost-effective solutions focusing on dependability performance characteristics for project risk avoidance and failure prevention. The dedicated chapters of relevant dependability topics are organized and structured to facilitate easy comprehension that would appeal to educators to use this as an instructional textbook to train new dependability engineers. This book is intended for engineers and practitioners who need to solve problems and find answers to achieve dependability performance of technological and evolving systems.