Abstract: A module builder includes a wrap floor system including a wrap floor belt wrapped around a front belt sheave and a first drive system coupled to the wrap floor system. The first drive system includes a main drive belt coupled to a rear belt sheave and the front belt sheave, wherein in an engagement mode of operation the main drive belt is tensioned to rotate the rear belt sheave, and in a disengagement mode of operation the main drive belt loses tension to cease rotation of the rear belt sheave. The builder includes a second drive system coupled to a baler belt to drive the baler belt into a module forming chamber. The first drive system further includes one or more of a rear lower gate roller, friction wheel, wrap box roller, electric clutch, or motor to engage and drive the main drive belt.

Abstract: One or more techniques and/or systems are disclosed for accumulating harvested crop that includes an accumulator for a harvester vehicle having a plurality of meter rollers aligned along a first axis and a plurality of beater rollers aligned along a second axis. The first axis is different than the second axis, and one roller of the plurality of beater rollers is aligned along the first axis. The one roller of the plurality of beater rollers aligned along the first axis is coupled with the plurality of beater rollers and not coupled to the plurality of meter rollers.

Abstract: A module builder includes a wrap floor system including a wrap floor belt wrapped around a front belt sheave and a first drive system coupled to the wrap floor system. The first drive system includes a main drive belt coupled to a rear belt sheave and the front belt sheave, wherein in an engagement mode of operation the main drive belt is tensioned to rotate the rear belt sheave, and in a disengagement mode of operation the main drive belt loses tension to cease rotation of the rear belt sheave. The builder includes a second drive system coupled to a baler belt to drive the baler belt into a module forming chamber. The first drive system further includes one or more of a rear lower gate roller, friction wheel, wrap box roller, electric clutch, or motor to engage and drive the main drive belt.

Abstract: A module builder includes a wrap floor system including a wrap floor belt wrapped around a front belt sheave and a first drive system coupled to the wrap floor system. The first drive system includes a main drive belt coupled to a rear belt sheave and the front belt sheave, wherein in an engagement mode of operation the main drive belt is tensioned to rotate the rear belt sheave, and in a disengagement mode of operation the main drive belt loses tension to cease rotation of the rear belt sheave. The builder includes a second drive system coupled to a baler belt to drive the baler belt into a module forming chamber. The first drive system further includes one or more of a rear lower gate roller, friction wheel, wrap box roller, electric clutch, or motor to engage and drive the main drive belt.

Abstract: A method and apparatus for harvesting cotton including a cotton accumulator configured to accumulate cotton removed from cotton plants. A feeder system of a cotton harvester is configured to move independently of the cotton accumulator and along a longitudinal direction. A round module builder system is configured to move along the longitudinal direction toward the feeder system, wherein the round module builder includes a contact member adapted to contact the feeder system to establish a working gap between the feeder system and the round module builder. A wrap floor is moved toward and into contact with the feeder system, which is spring biased to maintain a substantially consistent gap between the between the feeder system and round module builder. Cotton is directed toward the round module builder and a directing mechanism directs a wrap for wrapping the directed cotton into a round module.

Abstract: A method and apparatus for harvesting cotton including a cotton accumulator configured to accumulate cotton removed from cotton plants. A feeder system of a cotton harvester is configured to move independently of the cotton accumulator and along a longitudinal direction. A round module builder system is configured to move along the longitudinal direction toward the feeder system, wherein the round module builder includes a contact member adapted to contact the feeder system to establish a working gap between the feeder system and the round module builder. A wrap floor is moved toward and into contact with the feeder system, which is spring biased to maintain a substantially consistent gap between the between the feeder system and round module builder. Cotton is directed toward the round module builder and a directing mechanism directs a wrap for wrapping the directed cotton into a round module.

Abstract: A module builder includes a wrap floor system including a wrap floor belt wrapped around a front belt sheave and a first drive system coupled to the wrap floor system. The first drive system includes a main drive belt coupled to a rear belt sheave and the front belt sheave, wherein in an engagement mode of operation the main drive belt is tensioned to rotate the rear belt sheave, and in a disengagement mode of operation the main drive belt loses tension to cease rotation of the rear belt sheave. The builder includes a second drive system coupled to a baler belt to drive the baler belt into a module forming chamber. The first drive system further includes one or more of a rear lower gate roller, friction wheel, wrap box roller, electric clutch, or motor to engage and drive the main drive belt.

Abstract: A method and apparatus for harvesting cotton including a cotton accumulator configured to accumulate cotton removed from cotton plants. A feeder system of a cotton harvester is configured to move independently of the cotton accumulator and along a longitudinal direction. A round module builder system is configured to move along the longitudinal direction toward the feeder system, wherein the round module builder includes a contact member adapted to contact the feeder system to establish a working gap between the feeder system and the round module builder. A wrap floor is moved toward and into contact with the feeder system, which is spring biased to maintain a substantially consistent gap between the between the feeder system and round module builder. Cotton is directed toward the round module builder and a directing mechanism directs a wrap for wrapping the directed cotton into a round module.

Abstract: A wrap device for communicating a wrap to a bale chamber of a round module builder. The round module builder comprises a bale sheave for driving a bale belt to wrap a round module with the wrap. The wrap device comprises a wrap floor. A wrap floor linkage couples the wrap floor to the round module builder. A first sheave and a second sheave are coupled to the wrap floor. A wrap floor belt is supported by the first and second sheaves. An actuator is coupled to at least one of the wrap floor linkage and the wrap floor to move the wrap floor from a disengaged position to an engaged position. In the disengaged position, the wrap is not communicated to the bale chamber. In the engaged position, the wrap floor belt engages the bale belt and communicates the wrap to the bale chamber.

Abstract: A method and apparatus for harvesting cotton including a cotton accumulator configured to accumulate cotton removed from cotton plants. A feeder system of a cotton harvester is configured to move independently of the cotton accumulator and along a longitudinal direction. A round module builder system is configured to move along the longitudinal direction toward the feeder system, wherein the round module builder includes a contact member adapted to contact the feeder system to establish a working gap between the feeder system and the round module builder. A wrap floor is moved toward and into contact with the feeder system, which is spring biased to maintain a substantially consistent gap between the between the feeder system and round module builder. Cotton is directed toward the round module builder and a directing mechanism directs a wrap for wrapping the directed cotton into a round module.

Abstract: A wrap feed arrangement is disclosed for an agricultural harvester having a module-forming chamber. The arrangement includes a conveyor arrangement, which delivers crop to the module-forming chamber, and a module-forming arrangement which, at least in part, builds the module. The conveyor arrangement has a first roll and a first endless member disposed about the first roll for rotation. The module-forming arrangement has a second roll and a second endless member disposed about the second roll for rotation. At least one of the first and second rolls is movable from a first position in which the first and second endless members are disengaged to a second position in which the first and second endless members are engaged.

Abstract: A wrap feed arrangement is disclosed for an agricultural harvester having a module-forming chamber. The arrangement includes a conveyor arrangement, which delivers crop to the module-forming chamber, and a module-forming arrangement which, at least in part, builds the module. The conveyor arrangement has a first roll and a first endless member disposed about the first roll for rotation. The module-forming arrangement has a second roll and a second endless member disposed about the second roll for rotation. At least one of the first and second rolls is movable from a first position in which the first and second endless members are disengaged to a second position in which the first and second endless members are engaged.

Abstract: A chassis augmentation assembly for, and an agricultural vehicle with, a chassis having a main frame supporting front and rear axles has longitudinally spaced chassis mounts attached to the vehicle and a beam assembly having at least one structural beam segment vertically spaced from the main frame. The beam assembly has longitudinally spaced ends coupled to the vehicle chassis via the chassis mounts. The beam assembly is configured to transfer longitudinal forces between the chassis mounts through the one or more structural beam segments.

Abstract: A cotton handling system is provided for a cotton harvesting machine with an onboard accumulator and a baling chamber. The cotton handling system includes meter, beater and feeder arrangements positioned downstream from one another for processing and conveying cotton from the accumulator to the baling chamber. A sequencing arrangement includes at least one mechanical sequencing device operatively coupled to the feeder arrangement and at least one of the meter and beater arrangements such that at least the feeder arrangement has a start-up activation time that is different from the meter and/or beater arrangements.

Abstract: A chassis augmentation assembly for, and an agricultural vehicle with, a chassis having a main frame supporting front and rear axles has longitudinally spaced chassis mounts attached to the vehicle and a beam assembly having at least one structural beam segment vertically spaced from the main frame. The beam assembly has longitudinally spaced ends coupled to the vehicle chassis via the chassis mounts. The beam assembly is configured to transfer longitudinal forces between the chassis mounts through the one or more structural beam segments.

Abstract: A cotton handling system is provided for a cotton harvesting machine with an onboard accumulator and a baling chamber. The cotton handling system includes meter, beater and feeder arrangements positioned downstream from one another for processing and conveying cotton from the accumulator to the baling chamber. A sequencing arrangement includes at least one mechanical sequencing device operatively coupled to the feeder arrangement and at least one of the meter and beater arrangements such that at least the feeder arrangement has a start-up activation time that is different from the meter and/or beater arrangements.

Abstract: An adjustable material-conveying duct and a flow area adjustment device are described. The duct may include two wall sections, the second wall section having two mounting connections, oriented at an angle with respect to one another. When the second wall section is mounted to the first wall section via a first mounting connection, the wall sections form a first angle in a flow channel of the duct. When the second wall section is mounted to the first wall section via a second mounting connection, the wall sections form a second, different angle in the flow channel. A flow sensor, controller and automatic adjustment device may also be utilized to control the orientation of the wall sections.

Abstract: An adjustable material-conveying duct and a flow area adjustment device are described. The duct may include two wall sections, the second wall section having two mounting connections, oriented at an angle with respect to one another. When the second wall section is mounted to the first wall section via a first mounting connection, the wall sections form a first angle in a flow channel of the duct. When the second wall section is mounted to the first wall section via a second mounting connection, the wall sections form a second, different angle in the flow channel. A flow sensor, controller and automatic adjustment device may also be utilized to control the orientation of the wall sections.

Abstract: A wrap device for communicating a wrap to a bale chamber of a round module builder. The round module builder comprises a bale sheave for driving a bale belt to wrap a round module with the wrap. The wrap device comprises a wrap floor. A wrap floor linkage couples the wrap floor to the round module builder. A first sheave and a second sheave are coupled to the wrap floor. A wrap floor belt is supported by the first and second sheaves. An actuator is coupled to at least one of the wrap floor linkage and the wrap floor to move the wrap floor from a disengaged position to an engaged position. In the disengaged position, the wrap is not communicated to the bale chamber. In the engaged position, the wrap floor belt engages the bale belt and communicates the wrap to the bale chamber.

Abstract: A round module builder for forming a round module. The round module builder comprising a first module-forming portion configured to receive a crop. A second module-forming portion is pivotally coupleable to the first module-forming portion. The first module-forming portion and the second module-forming portion are configured to rotate the crop into the round module. A wrapping device is coupleable to at least one of the first module-forming portion and the second module-forming portion. The wrapping device is configured to position a wrap onto the round module. A wrap indication device is coupleable to at least one of the first module-forming portion and the second module-forming portion. The wrap indication device is configured to measure an indication of the wrap on the round module.