A volume controllable toilet flush system, comprising: a cistern configured to hold and retain a fluid; a vertically moveable siphon assembly comprising a siphon portion, a pipe and at least one resilient element attached to the pipe; a toilet bowl shaped to retain and hold waste; an actuator operatively connected to the pipe by a stud attached to the pipe and configured to provide vertical movement to the siphon assembly, wherein movement of the siphon assembly by the actuator stores or releases energy in the at least one resilient element and, wherein downward vertical movement of the siphon assembly puts the toilet bowl in fluid communication with the cistern by creating a siphoning action between the siphon portion and the fluid in the cistern and wherein subsequent upward vertical movement of the siphon assembly terminates the siphoning action to stop fluid flow from the cistern to the toilet bowl.

A water turbine and electric motor hybrid power suction type water-saving toilet, with toilet main body comprising a hollow frame, a hollow frame water inlet, a basin bottom water injection hole and an S-shaped bend, wherein the hollow frame is located on upper part of the toilet with water injection holes distributed along the periphery towards inner side of the toilet; the hollow frame water inlet is formed in rear part of the toilet; the basin bottom water injection hole is formed in lower part of the toilet and communicates with the hollow frame water inlet through a pipe cavity attached to outer wall of the toilet; and a basin bottom water injection valve is arranged at the opening of the basin bottom water injection hole leading to the S-shaped bend and controls connection/disconnection of basin bottom water injection hole and S-shaped bend inlet section with water pumping process synchronously.

A water turbine and electric motor hybrid power suction type water-saving toilet, with toilet main body comprising a hollow frame, a hollow frame water inlet, a basin bottom water injection hole and an S-shaped bend, wherein the hollow frame is located on upper part of the toilet with water injection holes distributed along the periphery towards inner side of the toilet; the hollow frame water inlet is formed in rear part of the toilet; the basin bottom water injection hole is formed in lower part of the toilet and communicates with the hollow frame water inlet through a pipe cavity attached to outer wall of the toilet; and a basin bottom water injection valve is arranged at the opening of the basin bottom water injection hole leading to the S-shaped bend and controls connection/disconnection of basin bottom water injection hole and S-shaped bend inlet section with water pumping process synchronously.

A volume controllable toilet flush system, comprising: a cistern configured to hold and retain a fluid; a vertically moveable siphon assembly comprising a siphon portion, a pipe and at least one resilient element attached to the pipe; a toilet bowl shaped to retain and hold waste; an actuator operatively connected to the pipe by a stud attached to the pipe and configured to provide vertical movement to the siphon assembly, wherein movement of the siphon assembly by the actuator stores or releases energy in the at least one resilient element and, wherein downward vertical movement of the siphon assembly puts the toilet bowl in fluid communication with the cistern by creating a siphoning action between the siphon portion and the fluid in the cistern and wherein subsequent upward vertical movement of the siphon assembly terminates the siphoning action to stop fluid flow from the cistern to the toilet bowl.

A volume controllable toilet flush system, comprising: a cistern configured to hold and retain a fluid; a vertically moveable siphon assembly comprising a siphon portion, a pipe and at least one resilient element attached to the pipe; a toilet bowl shaped to retain and hold waste; an actuator operatively connected to the pipe by a stud attached to the pipe and configured to provide vertical movement to the siphon assembly, wherein movement of the siphon assembly by the actuator stores or releases energy in the at least one resilient element and, wherein downward vertical movement of the siphon assembly puts the toilet bowl in fluid communication with the cistern by creating a siphoning action between the siphon portion and the fluid in the cistern and wherein subsequent upward vertical movement of the siphon assembly terminates the siphoning action to stop fluid flow from the cistern to the toilet bowl.

A waste collection and disposal unit including a tank, a float-switch sensing system, and a grinder pump. The tank contains a contoured and sloping floor, a front section, a back section, two side sections and a one-piece lid, which is securable onto the other sections of the tank. The floor slopes downwardly from below the float-switch sensing system to below the grinder pump at an angle of at least about 5 degrees and is contoured in a downward curved arc between the front and back sections of the tank.

A waste collection and disposal unit including a tank, a float-switch sensing system, and a grinder pump. The tank contains a contoured and sloping floor, a front section, a back section, two side sections and a one-piece lid, which is securable onto the other sections of the tank. The floor slopes downwardly from below the float-switch sensing system to below the grinder pump at an angle of at least about 5 degrees and is contoured in a downward curved arc between the front and back sections of the tank.

A hybrid distribution valve, a toilet flushing system and a toilet are provided. The hybrid distribution valve includes a water path distribution module and a water pressure water inlet module; the water path distribution module is provided with a first water inlet channel, a distribution chamber and a plurality of first water outlet channels; the water pressure water inlet module is provided with a second water inlet channel and a first water path; and the first water inlet channel and the first water path are respectively in communication with the distribution chamber. The water path distribution module is provided with a first switching mechanism, which controls whether a first water outlet channel is in communication with a third chamber body. A second switching mechanism is provided in the water pressure water inlet module, and controls whether the second water inlet channel is in communication with the first water path.