Aspects of the invention include methods for visualizing lymphatic tissue in an ocular region, e.g., the cornea, of a living subject, such as a mouse or human. In certain embodiments, the methods include contacting the region with a fluorescently-labeled lymphatic tissue-specific dye, e.g., FITC or rhodamine labeled dextran, and detecting the labeled dye to visualize lymphatic tissue in the region, where the visualization may vary, from an image obtained at a single time to a video over a period of time. The invention finds use in a variety of different applications, including research and therapeutic applications.

The invention relates to a device for measuring the temperature in the anus or in the vagina of an animal, wherein a front longitudinal part, an abutment part and a rear longitudinal part lie in succession on the device, wherein the front longitudinal part is equipped with a temperature sensor and, when used as intended, it is intended to be inserted into the anus or the vagina of the animal until the abutment part approximately rests against the outside of the body of the animal. One or more further temperature sensors are attached to the rear longitudinal part and/or to the abutment part, which, when used as intended, are provided for measuring the temperature in the surroundings of the animal.

The invention concerns a detecting apparatus (12) comprising:—at least two sensors (24, 26, 28), with at least one sensor (24) being an ultrasound transducer adapted to produce ultrasound waves, and—a positioning device (16) defining several compartments (22), each compartment (22) being adapted to hold a sensor (24, 26, 28) and each compartment (22) being located at predetermined location, the positioning device (16) comprising a holder adapted to be fixed on the skull of a subject, the positioning device (16) being adapted to be maintained on the head of the subject using the holder.

An ingestible bolus for automatically monitoring location and physiological parameters including core temperature of ruminant animals. The location parameters are determined using magnetic field information and/or GPS data sensed by the sensors in the bolus and communicated along with a unique ID number and time stamp to a centralized location. A data center at the centralized location comprises a computing environment for analyzing the data received from the bolus and transfer the analyzed results including animal temperature, location to a user interface display. The temperature information is analyzed at the data center to determine the health status of the animal.

The present invention provides a device that can move inside a biological conduit such as an intestinal tract for sampling the content therein, and a process thereof. While moving along the intestinal tract, the device can continuously collect the content in the intestinal tract. One or more convoy belts having an adsorbent layer are configured to continuously absorb and preserve the collected intestinal content. The belt loaded with the sample may be used to establish a chemical, biochemical and microbiological spectrum along the length of the intestinal tract.

The invention relates to an animal marking system (1) provided with a drive device (10) and an animal marking fluid sprayer (2), the drive device (10) comprising an electric motor (11) associated with a transmission system (12), the transmission system receiving an initial torque from the electric motor (11), amplifying the received initial torque and transmitting the amplified torque to a drive shaft (3), the drive shaft (3) applying the amplified torque to actuate the animal marking fluid sprayer (2), the animal marking system (1) being able to be applied in extensive rural territory, where there is not a wide availability to use mechanisms that require high drive voltages.

An integrated microtomography and optical imaging system includes a rotating table that supports an imaging object, an optical stage, and separate optical and microtomography imaging systems. The table rotates the imaging object about a vertical axis running therethrough to a plurality of different rotational positions during a combined microtomography and optical imaging process. The optical stage can be a trans-illumination, epi-illumination or bioluminescent stage. The optical imaging system includes a camera positioned vertically above the imaging object. The microtomography system includes an x-ray source positioned horizontally with respect to the imaging object. Optical and x-ray images are both obtained while the imaging object remains in place on the rotating table. The stage and table are included within an imaging chamber, and all components are included within a portable cabinet. Multiple imaging objects can be imaged simultaneously, and side mirrors can provide side views of the object to the overhead camera.

The invention provides a method for automated assessment of pruritus comprising detecting movement of a band located on a limb of a subject animal so as to obtain a signal associated with the detection movement, processing the signal associated with the detected movement through an algorithm configured to establish a scratch movement trigger, and translating the processed signal into scratch counts.

A stretchable sensor patch comprising: an elastic film layer with a stretchability of at least 100% and at least one elastic DEAP strip with a stretchability of at least 50%. The sensor patch may comprise an integrated circuit, a memory, an energy source, an adhesion layer for adhesion of the film layer to a skin, and a protective layer. A sensor system with such a sensor patch is also disclosed.

A system and method for behavioral analysis of a household pet. The system includes a sensor unit having at least one 3D accelerator sensor attached to the pet, a control unit connected with the 3D accelerator sensor and configured to collect acceleration data indicative of selected movements from the sensor. The control unit being configured to perform an initial analysis of the collected sensor data. The system further includes an analysis unit communicating with the control unit, the analysis unit configured to upload the collected sensor data and to receive additional data pertaining at least to the household environment and to the pet's historical condition and to define the pet's condition accordingly by neutralizing the additional data effects, wherein the data collection rate from the sensor is selected in accordance with at least the initial analysis results.