Plunger Pump KTZ1000

The KTZ1000 pump is a reciprocating, positive-displacement, single-acting, horizontal three-cylinder plunger pump with a maximum input power of 1,000 hp. It is widely used in oil well operations such as acidizing, fracturing, and well...

Maximum input power is 1,000 hp. The source configuration is reciprocating, positive-displacement, single-acting, horizontal three-cylinder plunger pump. It is positioned for oil well operations such as acidizing, fracturing, and well killing. The supporting notes emphasize service access, compact footprint, and installation flexibility.

Reading the model page together with Maximum input power is listed as 1000 hp (750 kW) and Maximum strokes is listed as 300 rpm keeps the description grounded in the supplied data.

The source material focuses on service access, compact footprint, and installation flexibility.

Plunger Pump KTZ1000 keeps service access in view, which is useful when the unit is opened for routine checks. A compact footprint gives Plunger Pump KTZ1000 more room to fit into tighter service layouts. Installation flexibility helps Plunger Pump KTZ1000 fit different skid, truck, or plant layouts without forcing a redesign.

Those source notes keep Plunger Pump KTZ1000 tied to 1. Composed of two main parts: the power end assembly and the fluid end assembly, 2. Features a double-key eccentric wheel structure for the crankshaft, with involute helical gears mounted at, and 3. The pump is lightweight, compact, and capable of high pressure, making it suitable for small fracturing instead of generic wording.

Reading the structure alongside Maximum input power is listed as 1000 hp (750 kW) and Maximum strokes is listed as 300 rpm keeps the page closer to the source file.

• 1. Composed of two main parts: the power end assembly and the fluid end assembly.
• 2. Features a double-key eccentric wheel structure for the crankshaft, with involute helical gears mounted at both ends of the crankshaft to transmit power and counteract axial forces. The large and small gears are housed inside the pump casing, optimizing space utilization and reducing the overall width of the pump, which benefits the pump layout.
• 3. The pump is lightweight, compact, and capable of high pressure, making it suitable for small fracturing units (skid-mounted).
• 4. The fluid end and power end are connected by 8 alloy steel tie rods. When removing the fluid end, the tie rods remain attached to the power end. The connection between the plunger and the crosshead uses threaded connections, making disassembly and maintenance of the fluid end easy.
• 5. The fluid end assembly accommodates four different sizes of plungers (3.75", 4", 4.5" and 5") to achieve various pressures and displacements for customer selection.

Plunger Pump KTZ1000 stays centered on oil well operations such as acidizing, fracturing, and well killing in the extracted application notes.

Keeping the application list narrow helps Plunger Pump KTZ1000 stay aligned with the actual operating envelope.

The speed and operating table can be compared against 90 rpm, 150 rpm, and 200 rpm to keep the duty point visible.

The application discussion is easier to place beside Maximum input power = 1000 hp (750 kW) and Maximum strokes = 300 rpm.

For Plunger Pump KTZ1000, the 1,000 hp rating needs to sit alongside pressure/displacement balance, plunger size, and speed range before the order is fixed.

Plunger Pump KTZ1000 is described as reciprocating, positive-displacement, single-acting, horizontal three-cylinder plunger pump, so layout fit and service access need to be reviewed together.

For Plunger Pump KTZ1000, the recorded applications are oil well operations such as acidizing, fracturing, and well killing; keep the actual medium, pressure, and cycle aligned with the target job.

The model becomes easier to place when the selection notes are read against Maximum input power is listed as 1000 hp (750 kW), Maximum strokes is listed as 300 rpm, and Maximum connecting rod load is listed as 592KN.

For a plunger-pump inquiry, the model name, duty point, and size constraints should come first.