A container system having at least two containers, wherein the container system comprises a light member which is configured to provide information through the emission of light, wherein the container system is configured to provide or trigger the light member to provide the information through the emission of light when a step related to preparing a mixture of contents of the containers is performed. In particular, triggering occurs when the containers are separated from one another and/or when a fluidic connection is created between the containers.

The present disclosure provides systems and methods for delivering a gel to a surface. In one embodiment, the system may have a first vessel with a first low viscosity aqueous solution comprising a binder/crosslinking agent; and a second vessel with a second low viscosity aqueous solution comprising a gelling component. The separate first and second low viscosity aqueous solutions are sprayed onto a surface where the solutions mix forming a gel.

The present disclosure provides systems and methods for disrupting the outer membrane of an oocyst in solution and delivering the solution to an animal. The system includes a vessel containing unbroken oocysts in solution, an oocyst processing chamber, and a delivery outlet. The unbroken oocysts are moved from the vessel through the processing chamber and a portion of the oocyst membranes are disrupted releasing sporocysts, the resulting solution is moved from the processing chamber into the delivery outlet where the solution is delivered to an animal. Methods of vaccination, including vaccination against an Eimeria infection, are also provided.

A driving structure and an injection machine are disclosed. The driving structure includes: a driving device, a first swinging assembly and a second swinging assembly, the first swinging assembly and the second swinging assembly both comprise a swinging block and a moving block, the swinging block is in contact with the moving block, the swinging block of the first swinging assembly and the swinging block of the second swinging assembly are both connected with an output end of the driving device, the swinging block in the same swinging assembly is configured to drive the moving block to move, and a working stroke of the moving block in the first swinging assembly and a working stroke of the moving block in the second swinging assembly are carried out at intervals.

A needle-free injector includes a housing, a cartridge positioned within the housing, and a plunger slidably coupled to and disposed within the chamber, a motor operatively coupled to the plunger, the motor operable to actuate the plunger in the chamber, and a controller operatively coupled to the motor. Methods of delivering an injectate using the needle-free injectors are provided. Methods of facilitating needle-free injection of a fluid using the needle-free injectors are also provided.

The application discloses a spray applicator system attachable to a poultry feeder for accurately and precisely dosing liquid formulations, including vaccines and probiotic formulations, to caged avian animals. The application discloses spray applicators, having improved acceptance by the avian animals, relative to more disruptive prior spray applicators. The disclosed automated caged spray applicator system is designed to attach to and function with automated poultry feeding systems, routinely used in poultry house settings.

A bottle holder for a syringe includes a stop surface, a piercing hollow spike protruding beyond the stop surface, a guideway, and a first and a second clamping element. Each clamping element includes a through-hole and is moveable back and forth between an insertion position and a clamping position. When the clamping elements are in the insertion position, a neck of the bottle can be moved through the through-holes until the front end of the bottle abuts against the stop surface such that the piercing hollow spike pierces a film at the front end of the bottle. At least one of the clamping elements in its clamping position presses against the neck of the bottle in order to clamp the bottle in the holder.

A poultry treatment apparatus disclosed herein may include a tank forming a reservoir at ambient pressure and containing liquid. A pump may be in fluid communication with the tank, and the pump may be in fluid communication with a liquid intake of a first nozzle, and in fluid communication with a liquid intake of a second nozzle to supply liquid under pressure from the tank to the liquid intake of the first nozzle and to the liquid intake of the second nozzle. A compressor may be in fluid communication with an air intake of the first nozzle and with an air intake of the second nozzle to supply compressed air to the air intake of the first nozzle and to the air intake of the second nozzle. In various aspects, the combination of compressed air and liquid under pressure deliver spray from the first nozzle and deliver spray from the second nozzle at about the same flow rate of liquid with droplets of similar size.

A syringe holder assembly that safely and conveniently supports a syringe when it is not being used so as to keep the syringe clean and ready to use with little wasted motion. The syringe holder is configured for holding a syringe having a barrel and a handle and includes a syringe holder and a harness. The syringe holder includes a base configured to be mounted to a ferromagnetic structure; an arm pivotably connected to the base; and a holster connected to the arm. The harness is configured to be secured to the syringe and includes a main strap configured to encircle the barrel of the syringe to retain the harness on the syringe; and a magnet configured to magnetically attach the harness to the holster.

Pellet delivery systems capable of reliably and precisely delivering pellets over a large area are disclosed. In some examples, the system can deliver one or more pellets in one delivery cycle using a slide chamber. In other examples, the system can deliver one or more pellets per delivery cycle using a rotating disk comprising one or more holes. In any of these examples, the system can eject the pellets using a projector and/or gravity. The pellet delivery system can, in various examples, be utilized in conjunction with a carrier such as an airborne, terrestrial or aquatic vehicle, or in other examples with a human or animal carrier. Examples of the disclosure are also directed to precise pellet delivery based on the location of the pellet deliver system, pellet delivery tracking, adjusting pellet delivery, and determining paths for efficient pellet delivery.