Cereal uses range from human food and beverages to animal feeds and industrial products. It is human food and beverages which are the predominant uses covered in this book, since the nutritional quality of cereals for animal feed is described in other publications on animal nutrition, and industrial products are a relatively minor use of cereals. Cereals are the main components of human diets and are crucial to human survival. Three species, wheat, rice and maize, account for the bulk of human food. Barley is the major raw material for beer production and ranks fourth in world production. Other species such as sorghum are regionally important. This book covers all the major cereal species: wheat, rice, maize, barley, sorghum, millet, oats, rye and triticale. Specific chapters have been devoted to a description of the major end-uses of each of the species and to definition of the qualities required for each of their end uses. The functional and nutritional quality of cereals determines their suitability for specific purposes and may limit the quality of the end­ product, influencing greatly the commercial value of grain. An under­ standing of the factors that determine grain quality is thus important in the maintenance of efficient and sustainable agricultural and food production. The biochemical constituents of the grain that determine quality have been described in chapters on proteins, carbohydrates and other components. An understanding of the relationships between grain composition and quality is important in selecting grain for specific uses.

If I had to nominate an area of food production in which science has played a major role in addressing product quality to meet market needs I would not pass by the intimate rela­ tionship of cereaI chemistry with cereaI plant breeding programs. In Australia, cereaI chemistry and product quality labs ha ve long been associated with wheat and barley breeding programs. Grain quality characteristics have been principal factors determining registration of new cultivars. This has not been without pain in Australia. On the one hand some cultivars with promising yield and agronomic characteristics have been rejected on the basis of quality characteristics, and for a period our breeders imposed selection regimes based on yield which resulted in declining quality characteristics. In the end the market provides the critic al signals. For many years Australia held a commanding market position on the basis of a single quality image, initiaHy based on bulked wheat of fair/average quality (FAQ). Later this was improved by segregation into four broad classes* based around Australian Standard White (ASW). This is no longer a viable marketing strategy. We were probably a little slow in rec­ ognising the mosaic of present day wheat markets, but now have up to 18 different grades available. Around the world wheat is a grain with many end uses. Its use in bread is expanding.

If I had to nominate an area of food production in which science has played a major role in addressing product quality to meet market needs I would not pass by the intimate rela­ tionship of cereaI chemistry with cereaI plant breeding programs. In Australia, cereaI chemistry and product quality labs ha ve long been associated with wheat and barley breeding programs. Grain quality characteristics have been principal factors determining registration of new cultivars. This has not been without pain in Australia. On the one hand some cultivars with promising yield and agronomic characteristics have been rejected on the basis of quality characteristics, and for a period our breeders imposed selection regimes based on yield which resulted in declining quality characteristics. In the end the market provides the critic al signals. For many years Australia held a commanding market position on the basis of a single quality image, initiaHy based on bulked wheat of fair/average quality (FAQ). Later this was improved by segregation into four broad classes* based around Australian Standard White (ASW). This is no longer a viable marketing strategy. We were probably a little slow in rec­ ognising the mosaic of present day wheat markets, but now have up to 18 different grades available. Around the world wheat is a grain with many end uses. Its use in bread is expanding.

Cereal uses range from human food and beverages to animal feeds and industrial products. It is human food and beverages which are the predominant uses covered in this book, since the nutritional quality of cereals for animal feed is described in other publications on animal nutrition, and industrial products are a relatively minor use of cereals. Cereals are the main components of human diets and are crucial to human survival. Three species, wheat, rice and maize, account for the bulk of human food. Barley is the major raw material for beer production and ranks fourth in world production. Other species such as sorghum are regionally important. This book covers all the major cereal species: wheat, rice, maize, barley, sorghum, millet, oats, rye and triticale. Specific chapters have been devoted to a description of the major end-uses of each of the species and to definition of the qualities required for each of their end uses. The functional and nutritional quality of cereals determines their suitability for specific purposes and may limit the quality of the end­ product, influencing greatly the commercial value of grain. An under­ standing of the factors that determine grain quality is thus important in the maintenance of efficient and sustainable agricultural and food production. The biochemical constituents of the grain that determine quality have been described in chapters on proteins, carbohydrates and other components. An understanding of the relationships between grain composition and quality is important in selecting grain for specific uses.

Cereal uses range from human food and beverages to animal feeds and industrial products. It is human food and beverages which are the predominant uses covered in this book, since the nutritional quality of cereals for animal feed is described in other publications on animal nutrition, and industrial products are a relatively minor use of cereals. Cereals are the main components of human diets and are crucial to human survival. Three species, wheat, rice and maize, account for the bulk of human food. Barley is the major raw material for beer production and ranks fourth in world production. Other species such as sorghum are regionally important. This book covers all the major cereal species: wheat, rice, maize, barley, sorghum, millet, oats, rye and triticale. Specific chapters have been devoted to a description of the major end-uses of each of the species and to definition of the qualities required for each of their end uses. The functional and nutritional quality of cereals determines their suitability for specific purposes and may limit the quality of the end­ product, influencing greatly the commercial value of grain. An under­ standing of the factors that determine grain quality is thus important in the maintenance of efficient and sustainable agricultural and food production. The biochemical constituents of the grain that determine quality have been described in chapters on proteins, carbohydrates and other components. An understanding of the relationships between grain composition and quality is important in selecting grain for specific uses.

If I had to nominate an area of food production in which science has played a major role in addressing product quality to meet market needs I would not pass by the intimate rela­ tionship of cereaI chemistry with cereaI plant breeding programs. In Australia, cereaI chemistry and product quality labs ha ve long been associated with wheat and barley breeding programs. Grain quality characteristics have been principal factors determining registration of new cultivars. This has not been without pain in Australia. On the one hand some cultivars with promising yield and agronomic characteristics have been rejected on the basis of quality characteristics, and for a period our breeders imposed selection regimes based on yield which resulted in declining quality characteristics. In the end the market provides the critic al signals. For many years Australia held a commanding market position on the basis of a single quality image, initiaHy based on bulked wheat of fair/average quality (FAQ). Later this was improved by segregation into four broad classes* based around Australian Standard White (ASW). This is no longer a viable marketing strategy. We were probably a little slow in rec­ ognising the mosaic of present day wheat markets, but now have up to 18 different grades available. Around the world wheat is a grain with many end uses. Its use in bread is expanding.

If I had to nominate an area of food production in which science has played a major role in addressing product quality to meet market needs I would not pass by the intimate rela­ tionship of cereaI chemistry with cereaI plant breeding programs. In Australia, cereaI chemistry and product quality labs ha ve long been associated with wheat and barley breeding programs. Grain quality characteristics have been principal factors determining registration of new cultivars. This has not been without pain in Australia. On the one hand some cultivars with promising yield and agronomic characteristics have been rejected on the basis of quality characteristics, and for a period our breeders imposed selection regimes based on yield which resulted in declining quality characteristics. In the end the market provides the critic al signals. For many years Australia held a commanding market position on the basis of a single quality image, initiaHy based on bulked wheat of fair/average quality (FAQ). Later this was improved by segregation into four broad classes* based around Australian Standard White (ASW). This is no longer a viable marketing strategy. We were probably a little slow in rec­ ognising the mosaic of present day wheat markets, but now have up to 18 different grades available. Around the world wheat is a grain with many end uses. Its use in bread is expanding.

Cereal uses range from human food and beverages to animal feeds and industrial products. It is human food and beverages which are the predominant uses covered in this book, since the nutritional quality of cereals for animal feed is described in other publications on animal nutrition, and industrial products are a relatively minor use of cereals. Cereals are the main components of human diets and are crucial to human survival. Three species, wheat, rice and maize, account for the bulk of human food. Barley is the major raw material for beer production and ranks fourth in world production. Other species such as sorghum are regionally important. This book covers all the major cereal species: wheat, rice, maize, barley, sorghum, millet, oats, rye and triticale. Specific chapters have been devoted to a description of the major end-uses of each of the species and to definition of the qualities required for each of their end uses. The functional and nutritional quality of cereals determines their suitability for specific purposes and may limit the quality of the end­ product, influencing greatly the commercial value of grain. An under­ standing of the factors that determine grain quality is thus important in the maintenance of efficient and sustainable agricultural and food production. The biochemical constituents of the grain that determine quality have been described in chapters on proteins, carbohydrates and other components. An understanding of the relationships between grain composition and quality is important in selecting grain for specific uses.