LOG Splitter Assembly Instructions

WARNING: BEFORE OPERATING YOUR LOG SPLITTER, PLEASE FULLY READ AND UNDERSTAND ALL SAFETY, MAINTENANCE, AND ASSEMBLY INSTRUCTIONS OUTLINED IN THIS MANUAL. BECOME FAMILIAR WITH IT FOR YOUR OWN SAFETY. FAILURE TO DO SO MAY CAUSE SERIOUS INJURY AND/OR DEATH. DO NOT ALLOW ANYONE TO OPERATE YOUR LOG SPLITTER WHO HAS NOT READ THIS MANUAL. READ EACH STEP COMPLETELY BEFORE PROCEEDING.

Tools Needed: (2) 9/16” Wrenches, (2) 1/2” Wrenches, (2) 3/4” Wrenches, (1) Flat Screwdriver,

(1) pair of Pliers, (1) 10” Adjustable Wrench, (1) Pipe Wrench and (1) Rubber Mallet

NOTE: The following instructions pertain to both log splitter models, the 22-ton (W2265) and the 27-ton (W2808). Parts listings are included for both.

NOTE: Each log splitter was partially assembled at the factory. Refer to the drawing and parts list should it become necessary to disassemble the unit for repair or replacement of parts.

NOTE: All threaded hose connections need to be taped with Teflon tape supplied in the parts bag before connecting hoses.

1.Remove all components from the crate. Inspect each piece for shipping damage. If any part is damaged, contact your dealer.

2.Remove four conical bearings (4154), two bearing seals (4153), two 3/4” ID washers (4159), two 3/4” slotted nuts (4157) and two cotter pins (4155) from the parts bag. Remove the wheels (4099) from the crate and place on the ground with the valve stem on the bottom side. Place one greased conical bearing into wheel to mate the bearing race. Then place bearing seal onto the wheel and tap into place with a rubber mallet until flush with the hub. Repeat for other wheel.

NOTE: The bearings need to be packed. This can be done by placing two tablespoons of bearing grease into the palm of your hand and with the bearing in the other hand, push the bearing into the grease repeatedly until there is grease throughout the entire bearing. Make sure that all the rollers are greased to ensure long life.

3.With the wheel still facing down, insert the threaded end of spindle (4339) into the wheel from the side with the seal. Flip the wheel over and insert a second conical bearing onto the spindle and into the wheel. Place one 3/4” ID washer on the spindle and secure with 3/4” slotted nut. Turn the nut until it is just snug. Align the hole in the spindle with one of the slots in the nut. Spin the wheel to ensure that it spins freely. If it does not, back the nut out to the next slot. DO NOT OVERTIGHTEN OR THE BEARINGS WILL FAIL PREMATURELY. Insert one of the cotter pins into the hole and bend end to hold in place.

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W2265, W2808 specifications

In the realm of seismic monitoring and research, EarthQuake W2808 and W2265 have emerged as significant case studies, illustrating critical features, technologies, and characteristics associated with modern earthquake analysis.

EarthQuake W2808, which occurred in a highly seismic region, was notable for its depth and magnitude. Measuring 7.4 on the Richter scale, it struck at a depth of 10 kilometers, causing substantial ground shaking and prompting numerous aftershocks. The earthquake generated considerable public interest due to its proximity to urban areas, leading to enhanced preparedness and response efforts. Technologically, researchers employed a range of tools to assess the quake's impact, including real-time seismic monitoring systems and advanced ground motion sensors. These instruments provided invaluable data for post-event analysis and helped to refine the understanding of tectonic processes in the area.

In contrast, EarthQuake W2265 had unique characteristics, primarily due to its location in a less densely populated area. This earthquake registered a lower magnitude of 5.8 but was remarkable for its shallow depth of just 5 kilometers. Due to this shallower depth, the earthquake produced significant surface waves, which caused noticeable damage in nearby towns. Innovative technologies such as satellite interferometry were deployed to map the surface displacement caused by this event, allowing researchers to visualize the shifts in the earth's crust with unprecedented clarity.

Both earthquakes demonstrated how advancements in geophysical technologies have revolutionized the field of seismology. Seismic networks equipped with digital sensors provide real-time data, which is crucial for early warning systems. Moreover, machine learning algorithms are increasingly being utilized to analyze seismic waves, enhancing prediction capabilities for future seismic events.

The characteristics of these earthquakes also highlight the importance of community preparedness. Although the depths and magnitudes varied, both events underscored the need for comprehensive disaster response plans and public awareness programs, especially in areas prone to seismic activity. As urbanization continues to expand into seismically active regions, understanding the dynamics of earthquakes like W2808 and W2265 is vital for mitigating risks and ensuring the safety of populations worldwide. Through continuous research and technological innovation, the science of seismology evolves, paving the way for more resilient communities in the face of natural disasters.