A food tenderizer sleeve and method of use is provided. The food tenderizer sleeve includes two end collars and segmented and split cutting blade sleeves, which are easy to remove, replace, and clean. In some embodiments, the segments of the cutting blade sleeves form generally a half-circle cross-sectional shape and mount a plurality of cutting blades and spacers between the cutting blades. In some embodiments, the segments include one end with male connection tabs and a second end with female tab receivers for connection to another segment or to an end collar. Each cutting blade sleeve segment is further configured for matching up with another sleeve segment to form a tube or sleeve shape configured to fit around a rotational drive shaft.

An injection machine includes a needle assembly including a plurality of injector needles arranged into a pattern to cover a horizontal injection area, the injector needles include side exit ports located proximally with respect to a tip of the needle. The injection machine also includes a conveyor positioned below the needle assembly. Particularly, the conveyor includes perforations on a top surface of the conveyor, wherein the perforations allow the plurality of injector needles to be lowered to place the side exit ports of the injector needles at or just above the top surface of the conveyor.

The present invention relates to a method of co-culturing Inonotus obliquus, Ganoderma lucidum, and Phellinus linteus. The co-cultured mycelia prepared through the method of the present invention have high beta-glucan content and thus can exhibit superior health functionality, and can be used as an additive or a cooking seasoning in various foods. In addition, the use of the co-cultured mycelia in curing raw meat enables easy preparation of a meat-based food product that has a good taste and flavor.

The present invention relates to a method of co-culturing Inonotus obliquus, Ganoderma lucidum, and Phellinus linteus. The co-cultured mycelia prepared through the method of the present invention have high beta-glucan content and thus can exhibit superior health functionality, and can be used as an additive or a cooking seasoning in various foods. In addition, the use of the co-cultured mycelia in curing raw meat enables easy preparation of a meat-based food product that has a good taste and flavor.

The present disclosure provides a spice injection-type meat tenderizer including a spice storage chamber, a tenderizer injection assembly, a sleeve assembly, and a piston assembly. The tenderizer injection assembly comprises a connecting ring, a movable disc, and a baffle disc. A reset spring is disposed inside the sleeve assembly and around an outside of the spice storage chamber. Under actions of an external force and the reset spring, the sleeve assembly, the movable disc, and the spice storage chamber reciprocate between the connecting ring and the baffle disc. The piston assembly includes a piston, a baffle rod, and a stroke pipe. The stroke pipe is disposed in the spice storage chamber, and a liquid flowing outlet is opened at a top of the stroke pipe. The piston is slidably connected to an inner wall of the stroke pipe. The baffle rod runs through the movable disc and is inserted into the piston. When no external force is applied, a bottom of the piston is positioned on the movable disc, and a buffer distance is remained between a top of the baffle rod and a top of the piston. The meat tenderizer according to the present disclosure is capable of injecting flavor and tenderizing meat simultaneously. The tenderizer has merits such as convenience of use, ease of operations, safety and good controllability, ease of dismantling and cleaning, and the like.

A handheld injector is provided for injecting liquid, such as flavoring or basting material, into meat or poultry. The injector includes a pistol-shaped housing which encloses a battery-powered motor for constant-rate delivery of liquid from a peristaltic pump. The injector also includes a fluid conduit within the housing through which liquid is pumped from a reservoir of liquid to a needle for injection into the meat.

The present disclosure discloses a method for improving tenderness of raw meat and meat products by mechanical vibration. In the method, the raw meat is vibrated to loosen meat tissue and improve meat tenderness, or is vibrated during curing to reduce curing time while improving the tenderness. The method mechanically vibrates the raw meat to loosen the structure of the raw meat, and ultimately improves the meat tenderness; or vibrates during curing to improve the tenderness while reducing the curing time, effectively ensuring the sensory meat quality. The method of the present disclosure not only effectively solves the problem of the tenderness of meat and meat products, but also improves sensory quality and safety thereof, enables wider popularization and utilization of meat and meat products, and directly increases economic benefits of enterprises and opens up a new way for future development thereof.

The present disclosure discloses a method for improving tenderness of raw meat and meat products by mechanical vibration. In the method, the raw meat is vibrated to loosen meat tissue and improve meat tenderness, or is vibrated during curing to reduce curing time while improving the tenderness. The method mechanically vibrates the raw meat to loosen the structure of the raw meat, and ultimately improves the meat tenderness; or vibrates during curing to improve the tenderness while reducing the curing time, effectively ensuring the sensory meat quality. The method of the present disclosure not only effectively solves the problem of the tenderness of meat and meat products, but also improves sensory quality and safety thereof, enables wider popularization and utilization of meat and meat products, and directly increases economic benefits of enterprises and opens up a new way for future development thereof.

The present invention is a processing device, such as a macerator for use in processing various types of food products, that includes an automatic adjustment mechanism for adjusting the position of a roller disposed within the macerator. The mechanism includes a controller operably connected to a motor that can move the roller within the macerator to vary the position of the roller with respect to another roller located in the macerator. Inputs to the controller are used to control the operation of the motor to move the roll into a desired configuration associated in a storage medium in the controller with a particular food product to be processed. The input to the controller can also be used to simultaneously adjust the position of other components of other processing devices in a food processing system, such as an injector to remove the need for individually adjust each device in the system. Also, the controller can utilize other devices on the macerator to dynamically adjust the position of the rollers in response to the individual food products being treated in the macerator.

Disclosed herein are systems for tenderizing meat samples using High-Intensity Focused Ultrasound (HIFU) comprising one or more transducer arrays. Further disclosed are methods and uses of the systems to tenderize meat samples.