Described is a bucket for an earth-working or materials-handling machine, having a top portion comprising a web section, a first and a second bucket side wall and a bucket floor extending from a front cutting edge of the bucket up to the top portion. The front cutting edge, the first and second side walls and the top portion form an opening of the bucket, seen from a front view of the bucket. The bucket has a first inner reinforcement beam element provided on an inside of the bucket adjacent the opening, connecting the first side wall to the web section and extending in a width direction (w) of the bucket from the first side wall towards the second side wall, wherein the first inner reinforcement beam element and the web section, as seen in a sectional plane taken perpendicularly to the width direction (w), form a first perimeter profile enclosing an area. The bucket further has a second inner reinforcement beam element provided on an inside of the bucket adjacent the opening, connecting the second side wall to the web section and extending in the width direction (w) of the bucket from the second side wall towards the first side wall, wherein the second inner reinforcement beam element and the web section, as seen in a sectional plane taken perpendicularly to the width direction (w), form a second perimeter profile enclosing an area. The first and the second inner reinforcement beam elements extend in the width direction (w) such that they abut each other at a region between the first and the second side walls, and the first and the second inner reinforcement beam elements further being formed such that a height of the first and second perimeter profile, respectively, decreases towards the region.

A work machine includes: a chassis; a backhoe assembly carried by the chassis, the backhoe assembly including: a boom pivotably linked to the chassis at a boom pivot point; a boom angle sensor associated with the boom pivot point; a stick extendably linked to the boom; a stick extension sensor associated with the stick; a bucket pivotably linked to the stick at a bucket pivot point; and a bucket angle sensor associated with the bucket pivot point. A controller coupled to the boom angle sensor, the stick extension sensor, and the bucket angle sensor is configured to: determine a boom angle of the boom; determine a stick extension of the stick; determine a bucket angle of the bucket; and output a bucket location signal corresponding to a current bucket position and a current bucket orientation, relative to the chassis, based on the determined boom angle, stick extension, and bucket angle.

An adaptor includes a body defining a longitudinal axis, and a transverse axis that is normal to the longitudinal axis. The body also has a leading portion defining a lock receiving recess extending transversely at least partially through the leading portion. The leading portion defines at least one linear portion in the lock receiving recess that is configured to engage the power locking device.

The invention disclosed in this application is a cover for an excavator's bucket link and tipping link area designed to prevent the soil being excavated entering these areas and causing damage to the bushing and pins. The invention (10) consists of one or more flexible rectangular panels (13, 14) affixed to the excavator articulating arm by means of an attachment strap (11) such that the rectangular panel(s) cover the bucket link and tipping link area and extends down into the bucket of the excavator.

Bucket for an earth-working or materials-handling machine, which comprises a floor and a side wall, and at least one wear component that is removably attached to the floor and the side wall by means of at least one mechanical fastener. The floor and the side wall are disconnectably connected to each other via the at least one wear component so as to form a replaceable bucket corner edge along at least a part of the floor and the side wall.

A bucket for a loader includes a main body and a pair of swing plates pivotably coupled to the main body for defining an exterior collection space for gathering material from the ground surface when operating the bucket in a back-dragging mode. Each swing plate is pivotable relative to the main body between a first position and a second position. When in the first position, the swing plate lower edge is raised above an outer surface of the bottom wall. When in the second position, the swing plate protrudes past the outer surface of the bottom wall, with inwardly directed faces of the swing plates cooperating with an outer surface of a bottom wall of the main body to partially enclose an exterior collection space when back-dragging.

A collector assembly for collecting debris from opposite sides of a member such as an elevated beam. The collector assembly includes a platform extending laterally between a first side edge and a second side edge. A first trough is provided for disposition along one side of the beam for receiving debris. A second trough is provided for disposition along the opposite side of the beam and is adjacent to and parallel with the first trough.

Earth movement machine components including a pivot system with adjustable height to actuate a door latch for an excavator bucket.

The hydraulic apparatus is set so that the ratio of the pressure-receiving area of the respective bottom oil chambers of the boom cylinder, the arm cylinder and the bucket cylinder to the pressure-receiving area of the respective rod oil chambers matches the ratio of the extruded volume drawn into or discharged from the bottom oil chambers per single rotation by the respective extrusion members of the first hydraulic pump motor, the second hydraulic pump motor and the third hydraulic pump motor to the volume discharged from or drawn into the rod oil chambers.

The system extracts water from lunar regolith and includes a regolith intake having a digging bucket that collects lunar regolith soil and a gravel separator that separates and discharges gravel and passes a mixture of ice-regolith powder having ice grains that are about 10-100 microns along the conveyor. A pneumatic separator receives the ice-regolith powder and pneumatically splits the ice-regolith powder into streams of different sized lithic fragments and ice particles per the ratio of inertial force and aerodynamic drag force of the lithic fragments and ice particles. Each split stream may include a magnetic separator that separates further the magnetic and paramagnetic lithic fragments from ice particles to discharge up to 80 percent of lithic fragments to slag.