Department of Food Science, University of Guelph, 50 Stone Road East, Guelph, Ontario N1G 2 W1, Canada.
Meat Sci. 2014 Jan;96(1):335-45. doi: 10.1016/j.meatsci.2013.07.002. Epub 2013 Jul 17.
The global meat industry has seen significant changes in the methods used to harvest and process fresh meat over the past century. Increased use of automation has led to significant increases in line speed for beef, pork, sheep, poultry and fish operations. For example, currently the fastest line observed has been broilers at 13,500/h. Such developments have required in-depth understanding of the pre and post rigor processes to prevent defects. Procedures such as maturation chilling and electrical stimulation are now common in red meat and poultry processing; allowing shorter time to deboning, while harvesting high quality meat. Robots designed to cut meat are also appearing on the market, and replacing traditional manual operations. This is a challenge, because high speed equipment is not necessarily sensitive to variations in size/quality issues, and requires development of unique sensors and control systems. Also, progress in breeding and genetics is contributing to greater product uniformity and quality; helping in operating automated equipment.
在过去的一个世纪里,全球肉类行业在鲜肉的收获和加工方法上发生了重大变化。自动化的广泛应用使牛肉、猪肉、羊肉、家禽和鱼类加工的生产线速度大幅提高。例如,目前观察到的最快生产线是肉鸡,速度达到每小时 13500 只。这些发展要求深入了解僵直前和僵直后过程,以防止缺陷的产生。例如,成熟冷却和电刺激等程序现在在红肉和家禽加工中很常见;允许在收获高质量肉的同时,缩短去骨时间。专门用于切割肉类的机器人也开始出现在市场上,并取代传统的手动操作。这是一个挑战,因为高速设备不一定能对尺寸/质量问题的变化做出敏感反应,需要开发独特的传感器和控制系统。此外,育种和遗传学的进步也有助于提高产品的均一性和质量,从而帮助操作自动化设备。