The present disclosure relates to a density meter for slurry which is transported through a pipe, the density meter may include a frame; a pipe part; flexible pipe couplings arranged between the frame and either end of the pipe part for coupling the pipe part to the frame and to a feed pipe and a discharge pipe; a first accelerometer arranged on the pipe part for measuring the accelerations of the pipe part; an actuator arranged between the pipe part and the frame for imparting force on the pipe; a controller for controlling the actuator; and a computing means having a mathematical model to ultimately calculate the density of the slurry in the pipe part.

The present disclosure relates to a density meter for slurry which is transported through a pipe, the density meter may include a frame; a pipe part; flexible pipe couplings arranged between the frame and either end of the pipe part for coupling the pipe part to the frame and to a feed pipe and a discharge pipe; a first accelerometer arranged on the pipe part for measuring the accelerations of the pipe part; an actuator arranged between the pipe part and the frame for imparting force on the pipe; a controller for controlling the actuator; and a computing means having a mathematical model to ultimately calculate the density of the slurry in the pipe part.

Apparatus and methods for the continuous measurement of specific gravity or density of solids in a fluid medium are disclosed. A system for continuous measurement of density of a flowing medium comprises a cartridge connected in series to an inflow pipe and an outflow pipe, a displacement sensing device adapted to monitor displacement changes of the cartridge when a medium flows through the cartridge, a base configured to provide a support for the displacement sensing device, a pressure sensor, a temperature sensor, and a processor configured to calculate density of the flowing media based on measured displacement change, temperature and pressure.

A tank body device for measuring slurry density of thermal power generation slurry is provided. Particularly, the tank body includes a clamping assembly, a clinging assembly, and a plurality of push assembly. The clamping assembly, with a base case and closing members, securely holds the tank body. The clinging assembly, featuring telescopic members, articulation pieces, and clamping rings, provides additional support and ensures stability. Each push assembly includes a moving part, push member, and first spring, all integrated into the system. This arrangement enables automatic realignment of the tank body when it tilts, reducing the workload for plant staff and ensuring precise measurement of weight and pressure values.

A tank body device for measuring slurry density of thermal power generation slurry is provided. Particularly, the tank body includes a clamping assembly, a clinging assembly, and a plurality of push assembly. The clamping assembly, with a base case and closing members, securely holds the tank body. The clinging assembly, featuring telescopic members, articulation pieces, and clamping rings, provides additional support and ensures stability. Each push assembly includes a moving part, push member, and first spring, all integrated into the system. This arrangement enables automatic realignment of the tank body when it tilts, reducing the workload for plant staff and ensuring precise measurement of weight and pressure values.

A density meter for slurry which is transported through a pipe, the density meter including: a pipe part; flexible pipe couplings arranged on either end of the pipe part; a force sensor for measuring a force in the direction of the at least one degree of freedom between the pipe part and a fixed point; an accelerometer arranged on the pipe part for measuring the accelerations of the pipe part in the direction of the at least one degree of freedom; and computing means for computing the density of the slurry in the pipe part on the basis of the volume of the pipe part, the force measured by the force sensor and the acceleration measured by the accelerometer.

A density meter for slurry which is transported through a pipe, the density meter including: a pipe part; flexible pipe couplings arranged on either end of the pipe part; a force sensor for measuring a force in the direction of the at least one degree of freedom between the pipe part and a fixed point; an accelerometer arranged on the pipe part for measuring the accelerations of the pipe part in the direction of the at least one degree of freedom; and computing means for computing the density of the slurry in the pipe part on the basis of the volume of the pipe part, the force measured by the force sensor and the acceleration measured by the accelerometer.

Apparatus and methods for the continuous measurement of specific gravity or density of solids in a fluid medium are disclosed. A system for continuous measurement of density of a flowing medium comprises a cartridge connected in series to an inflow pipe and an outflow pipe, a displacement sensing device adapted to monitor displacement changes of the cartridge when a medium flows through the cartridge, a base configured to provide a support for the displacement sensing device, a pressure sensor, a temperature sensor, and a processor configured to calculate density of the flowing media based on measured displacement change, temperature and pressure.