GE SS1800, SS1000, SS500 manual Force the Shaft Into the Impeller Bore

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7.Examine the rubber O-ring on the mechanical seal holder and, if the O-ring is damaged, replace it with a new one. A new O-ring is included with the facto- ry-supplied Mechanical Seal Replacement Kit (Section 10.3). Be sure to lubri- cate with grease before installing.

8.Place the mechanical seal holder containing the new stationary seat onto the pump shaft and slide it down the shaft until fully engaged with the motor adapter. Care must be taken not to damage seal seat when sliding over the pump shaft.

9.Lubricate the round surface of the pump shaft with grease. After lubrication, replace the rotary portion of the mechanical seal by placing onto the pump shaft and carefully rotating and pushing it down the pump shaft until it is fully seated against the stationary portion of the mechanical seal.

WARNING: USE CARE WHEN SLIDING THE ROTARY PORTION OF THE MECHANICAL SEAL OVER THE RETAINING RING GROOVE IN THE PUMP SHAFT. THE RUBBER ON THE MECHANICAL SEAL CAN BE DAMAGED IF NOT LUBRICATED WITH GREASE.

10.Place the stainless steel retaining ring back onto the shaft to hold the rotary portion of the mechanical seal in place with the square edges of the retaining ring away from the seal spring. A retaining ring is included in the factory sup- plied mechanical seal replacement kit. Use of retaining rings that are not stainless steel or equivalent may cause the seal to fail in operation.

11.Be sure the retaining ring is properly seated in the groove on the pump shaft.

12.Firmly grasp the liquid end and insert the splined pump shaft into the liquid end by carefully rotating the liquid end clockwise and then counterclockwise while applying light pressure toward the motor adapter. Be sure the splined shaft and splined bore of each impeller meshes properly until the inlet casting mates with the mechanical seal holder. It may be necessary to lift the assem- bly up slightly when rotating it, then place it onto the splined shaft.

WARNING: CARE MUST BE TAKEN NOT TO BEND THE PUMP SHAFT OR TO

FORCE THE SHAFT INTO THE IMPELLER BORE.

13.Install the four (4) 5/16-inch bolts and lock washers and tighten.

4.4High-Pressure Mechanical Seal Replacement: SS500, SS1000 and SS1800 Series Pumps

High pressure mechanical seals have the same basic design as standard mechanical seals. Replace them using the same procedure as denoted in Section 4.3 (Mechanical Seal Replacement SS500, SS1000 and SS1800 Series Pumps), Figure 4.6 (Removal of Mechanical Seal Holder from Motor Adapter), and Figure 4.7 (Removal of Mechanical Seal from Pump Shaft and Cavity of Mechanical Seal Holder).

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Contents Osmonics TONKAFLO Pumps SS Series Page Introduction Tonkaflo Specifications Cutaway Drawings List of Figures Page Introduction Capacities 2900 rpm 3500 rpm Maximum Tonkaflo Specifications500 Hertz D e l S S 5 0 5 D e l S S 1 8 4 8 X B 5Pump Installation Inlet and Discharge Piping and Connections Inlet PipingInlet Piping Page Installation Discharge Screen Primed Before START-UPMotor Wiring Single-Phase Motors StepsChanging Motor Rotation Rolling the Leads to Balance Current Draw General Troubleshooting for ALL Pumps LOW Flow Motor Runs HOT or StopsSteps Page Page Force the Shaft Into the Impeller Bore Tonkaflo Pump Field Maintenance Motor Installation XB and XC Motor Adapter Pumps Steps Page Liquid END Tonkaflo Service Policy Tonkaflo Pump Return Goods Authorization RGA Procedure Dimensional Drawings 500X Motor Adapter PumpXB Motor Adapter Pump 1000X Motor Adapter Pump 1800XB Motor Adapter Pump 1800XC Motor Adapter Pump Cutaway Drawings XB and XC Motor Adapter Pump Standard Model Parts List DescriptionPart Number Series Ordering Parts Warranty Tonkaflo Pump Warranty Page USA France Thailand
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SS500, SS1800, SS1000 specifications

The GE SS1000, SS1800, and SS500 are advanced gas turbine models developed by General Electric, renowned for their efficiency, reliability, and adaptability in various applications. These turbines are integral to numerous power generation systems across the globe, catering to both industrial and utility sectors.

The GE SS1000 is one of the earlier models in this series, notable for its compact design and robust performance. Engineered for effective operation in both simple cycle and combined cycle power plants, the SS1000 offers a remarkable power output that can be tailored to meet the specific needs of the user. It features advanced materials and a sophisticated cooling system, which enhance its efficiency and longevity. Additionally, the SS1000's design focuses on ease of maintenance, allowing for quick inspections and component replacements, which minimizes downtime and operational costs.

Moving up the scale, the GE SS1800 provides enhanced performance capabilities, making it suitable for larger power demands. One of its significant characteristics is its high thermal efficiency, which is achieved through improved combustion technology and aerodynamic design. The SS1800 also integrates advanced digital controls that optimize its operation, resulting in superior load flexibility. This adaptability is crucial for power plants that need to respond swiftly to fluctuations in demand. Furthermore, the turbine features a modular design, allowing for easier upgrades and maintenance.

The GE SS500 represents a further evolution in gas turbine technology, characterized by its high output and fuel efficiency. This model utilizes advanced ceramic matrix composites, which enable higher operating temperatures without compromising performance. The SS500 is engineered for both gas and dual-fuel configurations, providing operational flexibility that is essential in today's energy landscape. Its advanced diagnostics and predictive maintenance capabilities help operators monitor performance and identify potential issues before they escalate, ensuring continuous and reliable power generation.

In summary, the GE SS1000, SS1800, and SS500 turbines are milestones in gas turbine technology. Each model offers unique features that cater to various power generation needs, with a strong emphasis on efficiency, adaptability, and reliability. As the energy sector continues to evolve, these turbines represent a pivotal innovation that ensures a sustainable and efficient energy future.