A belt drive that has a transmission element that transmits a drive force to a drive element, which then sets a belt roller into rotational motion. The transmission element is a shaft and the drive element is an angular gear which has an input that is connected to the transmission element and an output that transmits the rotational motion from the gear to the belt roller. The belt drive is particularly suited for use in a belt system that is used in multi-tier poultry facilities. This belt system according to the invention includes a common drive motor that provides the drive force and a plurality of belt drives, one belt drive for each tier. One or more drive shafts transmit the drive force from the drive motor to each of the belt drives.

A belt drive that has a transmission element that transmits a drive force to a drive element, which then sets a belt roller into rotational motion. The transmission element is a shaft and the drive element is an angular gear which has an input that is connected to the transmission element and an output that transmits the rotational motion from the gear to the belt roller. The belt drive is particularly suited for use in a belt system that is used in multi-tier poultry facilities. This belt system according to the invention includes a common drive motor that provides the drive force and a plurality of belt drives, one belt drive for each tier. One or more drive shafts transmit the drive force from the drive motor to each of the belt drives.

An at least semi-autonomous litter conditioning vehicle has a chassis. A drive system is coupled to the chassis and can move the vehicle along a floor of an animal enclosure. A collection system is coupled to a front portion of the chassis and includes a flailer that can reduce a particle size of the litter as the collection system collects litter from the floor. A conditioning system is coupled along a length of the chassis and includes a drum that can receive the collected litter and can be rotated to tumble the litter. A heating element of the conditioning system can transfer thermal energy to the litter as it is tumbled in the drum. A dispersement system is coupled to a back portion of the chassis. The dispersement system can receive conditioned litter from the conditioning system and can disperse the conditioned litter on the floor behind the vehicle.

An at least semi-autonomous litter conditioning vehicle has a chassis. A drive system is coupled to the chassis and can move the vehicle along a floor of an animal enclosure. A collection system is coupled to a front portion of the chassis and includes a flailer that can reduce a particle size of the litter as the collection system collects litter from the floor. A conditioning system is coupled along a length of the chassis and includes a drum that can receive the collected litter and can be rotated to tumble the litter. A heating element of the conditioning system can transfer thermal energy to the litter as it is tumbled in the drum. A dispersement system is coupled to a back portion of the chassis. The dispersement system can receive conditioned litter from the conditioning system and can disperse the conditioned litter on the floor behind the vehicle.

An infrastructure arrangement and method for a farm animal shed includes a stationary position determination network having multiple optics-free position determination network points and at least one autonomous shed vehicle. The autonomous shed vehicle has a drive and a charging interface for the drive, an optics-free position determination apparatus, a coupling apparatus for detachably securing various functional units, and a control unit. The infrastructure arrangement and method also includes at least one charging station for charging the drive of the autonomous shed vehicle, at least one fitting station for fitting the autonomous shed vehicle with various functional units and/or work materials, and at least one data transmission unit, wherein the control unit of the autonomous shed vehicle is designed to take information of the position determination apparatus and of the data transmission unit as a basis for generating a schedule for the autonomous shed vehicle.

A method of rearing chickens comprises providing a chicken shed (10) having a floor area (12) over which the chickens can move freely. The shed (10) is provided with a plurality of lights (18) arranged to illuminate respective different regions of the floor area (12) so that, collectively, the lights (18) are able to illuminate substantially all of the floor area (12). The shed (10) is provided a plurality of cameras (20) arranged to view respective different regions of the floor area (12) so that, collectively, the cameras (20) are able to view substantially all of the floor area (12). Chickens are provided in the livestock shed (10) on the floor area (12). A controller (22) is provided and is operatively connected to the lights (18) and to the cameras (20). The controller (22) receives and analyses signals, such as images, from the cameras (20). The controller (22) controls the lights (18) to adjust illumination provided to the floor area (12) by the controlled lights (18) in a manner dependent on the signals from the cameras (20). The controller (22) is able to control each light (18) independently of the other lights (18). In some situations, the control of the lights (18) causes a predetermined desired response in the chickens. In some cases, the predetermined desired response overcomes or circumvents an undesirable situation recognised by the controller from analysis of the signals from the cameras (20).

A method of rearing chickens comprises providing a chicken shed (10) having a floor area (12) over which the chickens can move freely. The shed (10) is provided with a plurality of lights (18) arranged to illuminate respective different regions of the floor area (12) so that, collectively, the lights (18) are able to illuminate substantially all of the floor area (12). The shed (10) is provided a plurality of cameras (20) arranged to view respective different regions of the floor area (12) so that, collectively, the cameras (20) are able to view substantially all of the floor area (12). Chickens are provided in the livestock shed (10) on the floor area (12). A controller (22) is provided and is operatively connected to the lights (18) and to the cameras (20). The controller (22) receives and analyses signals, such as images, from the cameras (20). The controller (22) controls the lights (18) to adjust illumination provided to the floor area (12) by the controlled lights (18) in a manner dependent on the signals from the cameras (20). The controller (22) is able to control each light (18) independently of the other lights (18). In some situations, the control of the lights (18) causes a predetermined desired response in the chickens. In some cases, the predetermined desired response overcomes or circumvents an undesirable situation recognised by the controller from analysis of the signals from the cameras (20).

An animal-pen vehicle, a method for moving an animal-pen vehicle on a floor surface with bedding, and the use of an animal-pen vehicle in a poultry pen for poultry animals and/or in a pig pen is disclosed for the purposes of influencing positions at which poultry animals and/or pigs are residing. The animal-pen vehicle includes a substantially emissions-free drive, at least one movement unit which is coupled to the drive, wherein the movement unit is adapted to permit a movement of the animal-pen vehicle on the bedding, a position-determining device for determining a position of the animal-pen vehicle relative to animal-pen fixtures, and a control device for controlling the drive and for providing a predetermined travel profile, wherein the predetermined travel profile comprises at least one movement pattern and at least one preferential area that is to be travelled to within the poultry pen and/or pig pen.

An infrastructure arrangement and method for a farm animal shed includes a stationary position determination network having multiple optics-free position determination network points and at least one autonomous shed vehicle. The autonomous shed vehicle has a drive and a charging interface for the drive, an optics-free position determination apparatus, a coupling apparatus for detachably securing various functional units, and a control unit. The infrastructure arrangement and method also includes at least one charging station for charging the drive of the autonomous shed vehicle, at least one fitting station for fitting the autonomous shed vehicle with various functional units and/or work materials, and at least one data transmission unit, wherein the control unit of the autonomous shed vehicle is designed to take information of the position determination apparatus and of the data transmission unit as a basis for generating a schedule for the autonomous shed vehicle.

Tools and techniques for biochar production and biochar products are provided in accordance with various embodiments. For example, some embodiments include a method of biochar production that may include introducing a compound that includes at least carbon, oxygen, and hydrogen into a reaction chamber. The compound may be heated to a temperature of at least 1,000 degrees Celsius in the reaction chamber such that the compound reacts through a pyrolysis reaction to produce biochar. The produced biochar may be collected and/or further processed in some cases. In some embodiments, the compound includes at least biomass or a waste product. In some embodiments, the temperature of the reaction chamber is at least 1,100 degrees Celsius. In some embodiments, the compound has a residence time in the reaction chamber between 10 seconds and 1,000 seconds to produce the biochar. Some embodiments include biochar that may include graphite or graphene.