A vehicle is provided that includes a vehicle body defining a cabin interior and comprising a front row of seats and a rear row of seats, a plurality of seats located within the cabin interior, and a monitoring system for detecting and monitoring a pet or passenger within the cabin interior. The vehicle also includes a movable center console positioned between a pair of the forward row of seats and forward of the rear row of seats and comprising a holder for holding a drink container, and a controller processing signals generated by the monitoring system and determining a location of the detected pet or passenger on the rear row of seats based on the processed signals, the controller further controlling the movable console between a forward first position and a rearward second position closer to the rear row of seats.

A system that uses Active Reader Passive Tag Radio Frequency Identification for deterring pets and protecting specific areas of a household.

A system that uses Active Reader Passive Tag Radio Frequency Identification for deterring pets and protecting specific areas of a household.

The present disclosure discloses an intelligent pet calling device, including a collar detachably connected to the body or head of a pet, and a functional box detachably arranged on the collar; a wireless connection module and a voice device are arranged in the functional box; the functional box also includes a shell assembly, a control board, a battery, a button and a charging interface; the shell assembly is a hollow cavity; the control board, the voice device and the battery are respectively fixedly arranged in the shell assembly; the battery supplies electric energy to the control board and the voice device; the button and the charging interface are respectively arranged on the control box and penetrate through the shell assembly; the functional box also includes a heart rate monitoring device; and the functional box further includes a camera.

An animal tracking system comprising a first LoRa receiver configured as a gateway to receive transmissions on a first set of channels or a second set of channels and forward said transmissions to a first remote server, and a transmitting tag configured to be affixed to an animal. The transmitting tag includes a memory configured to store digital information, a passive RFID receiver configured to detect a close proximity to an RFID transmitter and store detection of the close proximity in comprising in the memory, a processor configured to determine an alarm status according to a frequency of detection of the close proximity, an internal energy source, and a LoRa transmitter configured to transmit signals for a distance greater than 100 meters via energy from the internal energy source.

The invention relates to a drive device for a hand-held device (1) for locally puncturing a skin, having a housing (5) which is connectable to a module housing (8) of a skin-puncturing device; and an electrical drive device which is arranged in the housing (5) and has a tapping component which is designed to provide a tap for tapping a rotary drive movement generated by the electric drive device for the skin-puncturing device. The electric drive device has an electric motor designed as an external rotor with a rotating rotor component, in which the tapping component is arranged on the rotor component and eccentrically in relation to a rotor axis. Furthermore, a hand-held device (1) for locally puncturing a skin is provided.

A method for monitoring an animal with an autonomous monitoring device in close proximity to the animal, the monitoring device having a first sensor and a second sensor of higher electric power consumption. The method includes measuring a first parameter with the first sensor, the second sensor being deactivated. An estimated status of the animal is determined based on the first parameter. If the estimated status corresponds to a particular status, the second sensor is activated and measures a second parameter which is used to determine a specified estimated status of the animal.

An abnormality detecting system includes a first identification unit configured to identify a state of an animal that is a monitoring target in each time range, based on time-series data from a motion sensor placed on a predetermined portion of the animal that is a monitoring target; a first calculation unit configured to calculate a transition probability from the state at a predetermined timing of each time range identified by the first identification unit to a next state; and a determining unit configured to determine that an abnormality of the animal that is a monitoring target is detected when a score calculated based on the transition probability to the next state satisfies a predetermined condition.

An animal identification system includes: a tray defining a set of tag receptacles; a set of tags, each tag defining a tag base and a barb and located in a tag receptacle in the tray; a set of backing plates, each backing plate defining a receiver and located in a tag receptacle in the tray with the receiver coaxial with a barb of a corresponding tag occupying the tag receptacle; and an applicator configured to insert into a tag receptacle in the tray, to retrieve a tag and a backing plate from the tag receptacle while maintaining a receiver of the backing plate coaxial with a barb of the tag, and to pierce an appendage of an animal and assemble the backing plate onto the barb of the tag in a continuous actuation motion.

One variation of a system includes a tag including a panel defining an inner face; an outer face opposite the inner face and comprising a digital optical identifier; and a set of perforations interposed between the digital optical identifier and a perimeter of the panel; a tag housing molded around the perimeter of the panel and through the set of perforations in the panel; defining a body supporting the inner face of the panel; defining a rim extending from the body, encasing an edge of the panel; extending through the set of perforations in the panel; and extending over the set of perforations in the panel; and a barb extending from the body opposite the rim; a backing plate configured to receive the barb of the tag housing; and an applicator configured to drive the barb through an ear of an animal and into the backing plate.