Abstract: A finger guard for blocking a pinch point in a system including a base, at least one roller pin coupled to the base, a roller rotatably supported on the at least one roller pin, and a movable structure supported on the roller and movable over the roller relative to the base. The finger guard includes a side wall extending from a front wall, whereby the side wall and the front wall at least partially define a cavity for receiving the roller. The finger guard further includes a roller pin opening extending through the front wall for receiving the roller pin. A fastener may be coupled to the roller pin to couple the finger guard to the base.

Abstract: A material handling lift including: a mast; a platform coupled to the mast; and a power unit configured to drive the platform along the mast to a raised position and lower the platform to a lowered position. The platform may pivot relative to the mast when it is raised to the raised position to retain a cart on the platform by force of gravity. The mast may be coupled to the platform with a non-zero angle between the front of the mast and a rear of the platform. Optical sensors may dynamically establish raised and lowered safety zones around the platform.

Abstract: An apparatus for emptying the contents of a container. The apparatus may include a base and a lift coupled to the base and movable between a loading position and emptying position. In some embodiments, the apparatus may include a lift actuator including a lift piston configured to move the lift from the loading position to an intermediate position and a rotation piston for moving the lift from the intermediate position to the emptying position. In some embodiments, the apparatus includes a frame, a platform, a mast, and a bale. The bale is slidably disposed on the mast for selectively adjusting the distance between the bale and the platform. In some embodiments, a lift may be provided with an agitator to release interlocked packages and allow them to empty from a container in an emptying position. The agitator may include an airbag and a spring pack on opposite sides of the platform.

Abstract: An apparatus for emptying the contents of a container. The apparatus may include a base, a frame, and a vertical lift. The lift may include a drive portion fixed to the base and a linearly movable member pivotally coupled to the frame. The drive portion may be configured for driving the linearly movable member for movement relative to the base along a substantially linear axis. The lift may also include a pivot arm having a first end coupled to the base and a second end pivotally coupled to the frame. As the drive portion drives the linearly movable member along the substantially linear axis the frame moves upwardly and rotates relative to the base. The apparatus may include a base and a frame including an extension frame slidably movable between a non-extended position and an extended position. The apparatus may also include a conveyor disposed adjacent the extension frame.

Abstract: A finger guard for blocking a pinch point in a system including a base, at least one roller pin coupled to the base, a roller rotatably supported on the at least one roller pin, and a movable structure supported on the roller and movable over the roller relative to the base. The finger guard includes a side wall extending from a front wall, whereby the side wall and the front wall at least partially define a cavity for receiving the roller. The finger guard further includes a roller pin opening extending through the front wall for receiving the roller pin. A fastener may be coupled to the roller pin to couple the finger guard to the base.

Abstract: An apparatus for emptying the contents of a container. The apparatus may include a base and a lift coupled to the base and movable between a loading position and emptying position. In some embodiments, the apparatus may include a lift actuator including a lift piston configured to move the lift from the loading position to an intermediate position and a rotation piston for moving the lift from the intermediate position to the emptying position. In some embodiments, the apparatus includes a frame, a platform, a mast, and a bale. The bale is slidably disposed on the mast for selectively adjusting the distance between the bale and the platform. In some embodiments, a lift may be provided with an agitator to release interlocked packages and allow them to empty from a container in an emptying position. The agitator may include an airbag and a spring pack on opposite sides of the platform.

Abstract: An apparatus for emptying the contents of a container. The apparatus may include a base and a lift coupled to the base and movable between a loading position and emptying position. In some embodiments, the apparatus may include a lift actuator including a lift piston configured to move the lift from the loading position to an intermediate position and a rotation piston for moving the lift from the intermediate position to the emptying position. In some embodiments, the apparatus includes a frame, a platform, a mast, and a bale. The bale is slidably disposed on the mast for selectively adjusting the distance between the bale and the platform. In some embodiments, a lift may be provided with an agitator to release interlocked packages and allow them to empty from a container in an emptying position. The agitator may include an airbag and a spring pack on opposite sides of the platform.

Abstract: Acetylene is treated to remove some residual storage solvent that may be present with the acetylene in a source of acetylene such as a container. Such treatment may be performed prior to supplying the acetylene to a deposition chamber or other reactor where acetylene is a reactant. After treatment, the acetylene gas stream has a relatively constant concentration of storage solvent, regardless of how much acetylene has been released from the acetylene source. The treatment may involve condensing the storage solvent from the gas stream at a certain temperature and separating the storage solvent from the gas stream.

Abstract: Provided herein are improved methods of depositing carbon-based films using acetylene as a precursor. The methods involve using a low-vapor pressure solvent, e.g., dimethylfluoride (DMF) to stabilize the acetylene and delivering the acetylene to a deposition chamber. The methods provide improved wafer-to-wafer thickness uniformity and increase the usable amount of acetylene in an acetylene source to over 95%.

Abstract: Acetylene is treated to remove some residual storage solvent that may be present with the acetylene in a source of acetylene such as a container. Such treatment may be performed prior to supplying the acetylene to a deposition chamber or other reactor where acetylene is a reactant. After treatment, the acetylene gas stream has a relatively constant concentration of storage solvent, regardless of how much acetylene has been released from the acetylene source. The treatment may involve condensing the storage solvent from the gas stream at a certain temperature and separating the storage solvent from the gas stream.

Abstract: Acetylene is treated to remove some residual storage solvent that may be present with the acetylene in a source of acetylene such as a container. Such treatment may be performed prior to supplying the acetylene to a deposition chamber or other reactor where acetylene is a reactant. After treatment, the acetylene gas stream has a relatively constant concentration of storage solvent, regardless of how much acetylene has been released from the acetylene source. The treatment may involve condensing the storage solvent from the gas stream at a certain temperature and separating the storage solvent from the gas stream.

Abstract: Provided herein are improved methods of depositing carbon-based films using acetylene as a precursor. The methods involve using a low-vapor pressure solvent, e.g., dimethylfluoride (DMF) to stabilize the acetylene and delivering the acetylene to a deposition chamber. The methods provide improved wafer-to-wafer thickness uniformity and increase the usable amount of acetylene in an acetylene source to over 95%.

Abstract: Acetylene is treated to remove some residual storage solvent that may be present with the acetylene in a source of acetylene such as a container. Such treatment may be performed prior to supplying the acetylene to a deposition chamber or other reactor where acetylene is a reactant. After treatment, the acetylene gas stream has a relatively constant concentration of storage solvent, regardless of how much acetylene has been released from the acetylene source. The treatment may involve condensing the storage solvent from the gas stream at a certain temperature and separating the storage solvent from the gas stream.