Disclosed is novel means that enables collection of embryos from the uterus of a living livestock animal, especially cattle, easily in a short time with the same accuracy as that achieved by a skilled technician. A livestock embryo collection apparatus of the present invention comprises: two syringes; a liquid transfer line for connecting a perfusate supply section-a syringe I-a balloon catheter-a syringe II-an embryo collection section; a liquid transfer direction control section for controlling the direction of transfer of a perfusate in the liquid transfer line; and a syringe pump control section for controlling pump operation of the two syringes. By this apparatus, injection and removal of the perfusate can be quickly carried out by simultaneous operation of the two syringes by the syringe pump control section and the liquid transfer direction control section that work in a coordinated manner, so that the working time for collection of embryos can be largely reduced, and so that embryos in the uterus of a living animal can be collected easily, quickly, and with the same accuracy as that achieved by a skilled technician.

The present teachings generally include parabiotic dialysis systems and techniques. For example, the present disclosure includes parabiotic liver dialysis, e.g., for use in settings with limited resources. To this end, a parabiotic liver dialysis system may include a device having a semipermeable membrane with an average pore size that allows for the passage of albumin therethrough. In such a system, a first extracorporeal circuit may connect the device to the vascular system of a first animal (e.g., a liver patient), and a second extracorporeal circuit may connect the device to the vascular system of a second animal (e.g., a human with normal liver function), where the exchange of albumin therebetween is facilitated through the device. The present disclosure also includes various safety measures for parabiotic dialysis systems and techniques, such as biometric verification systems and techniques.

The present disclosure provides techniques for a ventilator system with a removable airway. A ventilator system may include a removable airway and a base unit. The removable airway may include an air inlet port, a patient inhalation port, an air exhaust port, a patient exhalation port, a first portion of a pressure sensor, and a first portion of a flow sensor. The base unit may include two pinch valves, a second portion of the pressure sensor, and a second portion of the flow sensor. In some cases, the airway does not comprise any openings other than the air inlet port, the air exhaust port, the patient inhalation port, and the patient exhalation port. In some cases, air inside the removable airway does not contact any part of the base unit without first exiting the air exhaust port.

An injection device includes a container receiving receptacle configured for receiving a container for containing a medicinal product to be administered; a dispensing mechanism for causing the product in the container to be injected; and a RFID system associated with the container receiving receptacle capable of communicating bidirectionally with a RFID tag attached to the container and enabling the administration of the product only under given conditions. The RFID tag can be therefore read and written by the RFID system. The RFID system further includes an antenna arranged at least partially covering the RFID tag. The dispensing mechanism is triggered by a contact sensor when the device is pressed onto the animal's skin. The needle-free injection device is capable of communicating with external devices (PC, laptops, tablets, smartphones and the like).

Method and device to inject fluid into animals through a sterile needle, requiring control of fluid volume, flow rate of injection, accuracy of injection site, depth of penetration, disposal administration of consumable materials and quality control of the fluid and fluid administration using a portable applicator controlled by an external software controlled pump and controller system used in administering fluid medications, organic castration compounds and other fluids to be administered to live animals.

The disclosed embodiments include a protective housing for a fragile article for containing fluid medicament. The protective housing includes a shroud top including an upper collar for absorbing one or more forces, a shroud base configured to receive the shroud top and including a lower collar for absorbing one or more forces, a spike configured to pierce the fragile article and coupled to the shroud top or the shroud base, and a connector located at the shroud top or the shroud base, the connector configured to provide the fluid medicament from the fragile article to an injector

A device for increasing the well-being of living beings, including a brain stimulator for generating a stimulation signal in the infrasonic range, the brain stimulator being used to stimulate the brain of the living being. A massager is provided for generating a massage signal, by means of which body parts of the living being can be massaged.

The present disclosure provides techniques for a ventilator system with a removable airway. A ventilator system may include a removable airway and a base unit. The removable airway may include an air inlet port, a patient inhalation port, an air exhaust port, a patient exhalation port, a first portion of a pressure sensor, and a first portion of a flow sensor. The base unit may include two pinch valves, a second portion of the pressure sensor, and a second portion of the flow sensor. In some cases, the airway does not comprise any openings other than the air inlet port, the air exhaust port, the patent inhalation port, and the patient exhalation port. In some cases, air inside the removable airway does not contact any part of the base unit without first exiting the air exhaust port.

A semi-automated veterinary medicine delivery device may sense whether and how much air may have been incorporated into a dose delivered to an animal. The device may also sense an incomplete injection in some cases, and may cause a second dose to be administered to make up for the incomplete dose. The device may compare a position sensor on a syringe in combination with a current sensor on a motor attached to the syringe to detect any abnormalities. In the case of an improper dose, the device may alert the user and administer a second dose.

Provided are an anesthesia respiration apparatus, an anesthesia respiration gas path system, and an anesthetic gas path system, to exhibit a novel anesthesia respiration structure. In this structure, some channels are provided in an anesthesia main machine, and no long external pipeline or only a small number of long pipelines are required to meet demands of gas path connection, thereby reducing various potential safety hazards and inconvenience caused by excessive exposed long pipelines.