Over the last few years the technologies employed in the production of dry pasta and semolina have changed dramatically. This highly practical book examines these changes and gives commercially relevant information to the reader in the areas of durum wheat, semolina production, pasta mixing and extrusion, shape design and quality assurance. Written principally for food technologists working with pasta as an end product or as an ingredient, this book is also an essential reference source for academic, research and teaching institutions.

Wheat provides over 20% of the calories for the world population of 5. 3 billion persons. It is widely grown in five of the six continents. It is a highly versatile food product in that it can be stored safely for long periods of time and transported in bulk over long distances. In relative terms, it is reasonably priced; over the past quarter century, the inflation-adjusted price of wheat has been declining. Modern milling and baking technology required for the transformation of wheat grain into consumable baked products is available or accessible in all countries of the world. For these reasons, and because Canada is one of world's leading wheat producing countries, it seemed appropriate to include a major symposium on wheat in the scientific and technical program of the 8th World Congress of Food Science and Technology held in Toronto, Canada during September 29-0ctober 4, 1992. In selecting the topics for the symposium on wheat, we attempted to cover a full range of subjects including economics and marketing, nutrition, grading, processing, constituent chemistry and functionality, biote- nology, and safety of genetically modified wheat varieties. The major focus was on common hard (bread) wheats; separate papers were devoted to the unique characteristics and technological properties of common soft (biscuit) and durum (pasta) wheats. Each paper was presented by an acknowledged international expert. This book provides a more permanent record of the papers presented at the symposium.

The most extensive and comprehensive reference on durum wheat chemistry and technology ever available, this ambitious update to the first edition covers more diverse and interesting topics in a new expanded format. Forty-six contributors, each highly experienced and recognized as world authorities on durum wheat, provide the latest developments in scientific research and technology. All aspects of durum wheat are covered, from agronomy and the chemical composition of the grain, to the latest industrial approaches to processing durum wheat, as well as food safety and quality assurance issues. Expanded to include new topics like functional pasta, grain safety, and biotechnology, along with practical and applied information including a table of uses for specific carbohydrates, descriptions of improved laboratory techniques, and international comparisons of HACCP experiences, Durum Wheat: Chemistry and Technology, Second Edition is a must-have reference for professionals, students, and researchers inside and outside the field who want to learn about durum wheat technology and chemistry. New and Revised Topics Include: Agronomy of durum wheat production Pasta made from non-traditional raw materials: technological and nutritional aspects Grain safety assurance, including impacts on durum wheat trading Origin and distribution of durum wheat genetic diversity in the world Genetics and breeding of durum wheat Insect and mite pests and diseases of durum wheat Kernel components of technological value Vitamins, minerals, and nutritional value of durum wheat Durum wheat milling Manufacture of pasta products Other traditional durum derived products Methods used to assess and predict quality of durum wheat, semolina, and pasta Grading factors impacting on durum wheat and processing quality Grain safety assurance including impacts on durum wheat trading Marketing perspectives in the durum wheat trade Special Features: Detailed figures outlining the processes used to manufacture durum products International comparisons of HACCP experiences Table of uses for specific carbohydrates Descriptions of improved laboratory techniques Extensive bibliography An Essential Reference For: Scientists and researchers in agriculture and plant biology Professionals in the food industry who are processing durum wheat (millers, pasta makers, grain handling companies, and grain buyers) Government regulators Food scientists and technologists developing products using durum wheat Plant breeders University lecturers in agricultural science and plant biology Professionals who market wheat Nutritionists and medical practitioners interested in the impacts of food ingredients on human healthStudents Scientific libraries and their patrons

In Asian Noodles: Science, Technology and Processing, international experts review the current knowledge and offer comprehensive cutting-edge coverage on Asian noodles unmatchable in any publication. The authors cover an array of topics including breeding for noodle wheat, noodle flour milling, noodle flour quality control and analysis, noodle processing, sensory and instrumental measurements of noodle quality, the effects of wheat factors on noodle quality, packaging and storage, nutritional fortification of noodle products, noodle flavor seasoning, and noodle plant setup and management.

Genetics and Breeding of Durum Wheat in Europe and the United States. Protein and Enzyme Composition. Carbohydrates. Durum Lipids. Vitamins and Minerals. Milling. Manufacture of Pasta Products. Evaluation of Durum Wheat. Some Specific Aspects of Durum Wheat and Pasta Cooking Quality.

Cereal chemists are interested in rheology because the dough undergoes some type of deformation in every phase of the conversion of flour into baked products. During mixing, dough is subjected to extreme deformations, many that exceed the rupture limit; during fermentation, the deformations are much smaller and therefore exhibit a different set of rheological properties; during sheeting and molding, deformations are at an intermediate level; and, finally, during proofing and baking, the dough is subjected to a range of deformations at varying temperatures. Accordingly, the application of rheological concepts to explain the behavior of dough seems a natural requirement of research on the interrelationships among flour constituents, added ingredients, process parameters, and the required characteristics of the final baked product. At any moment in the baking process, the rheological behavior, that is, the nature of the deformation, exhibited by a specific dough derives from the applied stress and how long the stress is maintained. The resulting deformation may be simple, such as pure viscous flow or elastic deformation, and therefore easy to define precisely. Moreover, under some conditions of stress and time (i. e. , shear rate), doughs behave as ideal materials and their behavior follows theory derived from fundamental concepts. Under usual conditions encountered in baking, however, the rheological behavior is far from ideal; shear rates vary widely and sample size and dimensions are ill-defined.