Abstract: An apparatus includes a housing, a piston, an input cavity, a first actuating shaft, a first output cavity, and a second output cavity. The housing comprises an input port, a first output port, a second output port, a first end, a second end, a first wide wall having a first internal surface, and a chamber at least partially defined by the first end and the first internal surface. The piston is able to actuate along the first internal surface of the first side wall. The input cavity is in fluid communication with the input port. The first output cavity is in fluid communication with the first output port. The second output cavity is in fluid communication with the second output port. The first actuating shaft is fixed to the piston and helps fluidly isolate the first output port from the second output port.

Abstract: An apparatus includes a housing, a piston, an input cavity, a first actuating shaft, a first output cavity, and a second output cavity. The housing comprises an input port, a first output port, a second output port, a first end, a second end, a first wide wall having a first internal surface, and a chamber at least partially defined by the first end and the first internal surface. The piston is able to actuate along the first internal surface of the first side wall. The input cavity is in fluid communication with the input port. The first output cavity is in fluid communication with the first output port. The second output cavity is in fluid communication with the second output port. The first actuating shaft is fixed to the piston and helps fluidly isolate the first output port from the second output port.

Abstract: A plurality of portable lifts are dynamically configured to form a lift system for raising and lowering of vehicle. Each portable lift is added to the lift system and communicates wirelessly with a centralized control module. Some systems guide the user through a sequenced association of lifts in particular relative positions around the vehicle, while others use automatic position-detection techniques to determine those relative positions without explicit user input. Some systems allow definition of subsystems that can be operated together. Flexible controls may selectively allow operation of individual lifts, pairs or subsystems of lifts, or the full system at once. Controls on each lift may communicate commands for other lifts by way of the centralized control module.

Abstract: An apparatus includes a housing, a piston, an input cavity, a first actuating shaft, a first output cavity, and a second output cavity. The housing comprises an input port, a first output port, a second output port, a first end, a second end, a first wide wall having a first internal surface, and a chamber at least partially defined by the first end and the first internal surface. The piston is able to actuate along the first internal surface of the first side wall. The input cavity is in fluid communication with the input port. The first output cavity is in fluid communication with the first output port. The second output cavity is in fluid communication with the second output port. The first actuating shaft is fixed to the piston and helps fluidly isolate the first output port from the second output port.

Abstract: A plurality of portable lifts are dynamically configured to form a lift system for raising and lowering of vehicle. Each portable lift is added to the lift system and communicates wirelessly with a centralized control module. Some systems guide the user through a sequenced association of lifts in particular relative positions around the vehicle, while others use automatic position-detection techniques to determine those relative positions without explicit user input. Some systems allow definition of subsystems that can be operated together. Flexible controls may selectively allow operation of individual lifts, pairs or subsystems of lifts, or the full system at once. Controls on each lift may communicate commands for other lifts by way of the centralized control module.

Abstract: An apparatus comprises a frame, a vehicle engagement assembly, a lift actuation assembly, a locking assembly, and an indicator system. The vehicle engagement assembly is designed to vertically lift a vehicle. The frame comprises at least one slot to provide a predetermined path for the vehicle engagement assembly. The lift assembly provides the force required to lift the vehicle while the locking assembly stabilizes the vehicles without further force required by the lift assembly. The indicator system determines whether the locking assembly or the lift assembly is predominantly keeping the vehicle lifted.

Abstract: An apparatus includes a housing, a piston, an input cavity, a first actuating shaft, a first output cavity, and a second output cavity. The housing comprise an input port, a first output port, a second output port, a first end, a second end, a first wide wall having a first internal surface, and a chamber at least partially defined by the first end and the first internal surface. The piston is able to actuate along the first internal surface of the first side wall. The input cavity is in fluid communication with the input port. The first output cavity is in fluid communication with the first output port. The second output cavity is in fluid communication with the second output port. The first actuating shaft is fixed to the piston and helps fluidly isolate the first output port from the second output port.

Abstract: An apparatus for lifting vehicles includes a runway, a base, an actuation assembly, a first armature assembly, a second armature assembly, and a third armature assembly. The runway is designed to vertically lift a vehicle from a lowered position to a raised position. The runway is connected to the third armature assembly. In turn, the third armature assembly is connected to the actuation assembly, which is pivotally fixed to the base. The first and second armature assemblies also connect the base with the third armature assembly. The actuation assembly is configured to lift the third armature assembly, which is guided by both the first armature assembly and second armature assembly. In response to the actuation assembly, the third armature assembly then forces the runway from the lowered position to the raised position, thereby lifting the vehicle.

Abstract: An apparatus includes a housing, a piston, an input cavity, a first actuating shaft, a first output cavity, and a second output cavity. The housing comprise an input port, a first output port, a second output port, a first end, a second end, a first wide wall having a first internal surface, and a chamber at least partially defined by the first end and the first internal surface. The piston is able to actuate along the first internal surface of the first side wall. The input cavity is in fluid communication with the input port. The first output cavity is in fluid communication with the first output port. The second output cavity is in fluid communication with the second output port. The first actuating shaft is fixed to the piston and helps fluidly isolate the first output port from the second output port.

Abstract: An apparatus for lifting vehicles includes a runway, a base, an actuation assembly, a first armature assembly, a second armature assembly, and a third armature assembly. The runway is designed to vertically lift a vehicle from a lowered position to a raised position. The runway is connected to the third armature assembly. In turn, the third armature assembly is connected to the actuation assembly, which is pivotally fixed to the base. The first and second armature assemblies also connect the base with the third armature assembly. The actuation assembly is configured to lift the third armature assembly, which is guided by both the first armature assembly and second armature assembly. In response to the actuation assembly, the third armature assembly then forces the runway from the lowered position to the raised position, thereby lifting the vehicle.

Abstract: An apparatus comprises a frame, a vehicle engagement assembly, a lift actuation assembly, a locking assembly, and an indicator system. The vehicle engagement assembly is designed to vertically lift a vehicle. The frame comprises at least one slot to provide a predetermined path for the vehicle engagement assembly. The lift assembly provides the force required to lift the vehicle while the locking assembly stabilizes the vehicles without further force required by the lift assembly. The indicator system determines whether the locking assembly or the lift assembly is predominantly keeping the vehicle lifted.