Rover 98117, 9862, 9848, 9885 warranty Setting UP

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Rover Mowers Limited

Chip ‘N’ ShredTM

2. SETTING UP

 

 

 

2.2 Hopper handle and baffle assembly

The feed hopper as supplied with the Chip ‘N’ ShredTM needs to be assembled before use.

1.Lay the right hand side half of the hopper down on a flat surface with the joint flange pointing up.

2.Position the left hand side half of the hopper on top of the right hand side aligning the joint flange and screw holes. Figure 1.

3.Insert the self tapping screws in the front flanged joint in the sequence shown (1-6) and tighten.

Figure 1.

4.Insert the self tapping screws in the rear flanged joint in the same sequence as in the front flange and tighten. Figure 1.

5.Support the hopper in an upright position and fit the hopper baffle inside the hopper by aligning the four holes in the top edge of the baffle with the four matching holes on the ledge in the top of the hopper. Figure 2.

6.Retain the hopper baffle with the four 3/16” x 5/8” mush.head screws with the four large 3/16” Flat washers under their heads and inserted from the inside with the 3/16” small flat washers and 3/16” nyloc nuts on the outside of the hopper. Figure 2.

7.Locate the hopper handle and slide it into the grooves located near the top of the hopper body so that the holes in the handle are in alignment with the holes in the hopper. Figure 3.

8.Retain the hopper handle with the four 1/4” x 1-1/2” unc. cuphead bolts inserted from the inside of the hopper with the four 1/4” unc. nyloc nuts on the outside. Figure 3.

2.3 Hopper assembly to body

WARNING

The hopper assembly must be fitted to the Chip

‘N’ ShredTM body before attempting to start or use the Chip ‘N’ ShredTM

1.Lift the hopper into position on top of the flange on the Chip ‘N’ ShredTM body with the hopper handle pointing out over the engine.

2.Align the slots in the hopper flange with the holes in the body flanges, and insert four 5/16” x 1” unc bolts with the hopper washers under their heads. Figure 4.

3.Retain with four 5/16” washers and four 5/16” nyloc nuts under the body flange and tighten. Figure 4.

2.4 Chipper tube to body

WARNING

The chipper tube assembly must be fitted to the

Chip ‘N’ ShredTM body before attempting to start or use the Chip ‘N’ ShredTM

1.Remove the rotor shaft cover from the bearing.

2.Slide the chipper tube assembly into the rectangular port on the right hand side of the Chip ‘N’ ShredTM so that the holes in the flanges on the chipper tube align with the studs on the Chip ‘N’ ShredTM body. Figure 5.

3.Retain the chipper tube assembly with three 5/16” unc. nyloc nuts and three 5/16” flat washers.

4.Replace the rotor shaft cover.

2.5 Mulch bag

Assembly

1.Slide the Mulch bag frame into the pockets along the top edge of each side of the mulch bag.

2.Slide the spreader tube onto the ends of the bag frame till the hole in the frame are within the tube and retain

with the two ‘R’ clips inserted into the holes in the frame.

Fitting

3.Slide the mulch bag under the Chip ‘N’ShredTM from the front between the support legs and rest the mulch bag frame on the rear wheel supports. Lift the front bar of the mulch bag frame over the front lip on the front legs support. Figure 6.

2.6 Engine lubrication - Petrol Models

The engine oil level must be checked before attempting to start the engine. Refer to the engine manufacturer’s instructions.

CAUTION

Avoid premature engine failure by using a clean funnel and cleaning away any possible contaminants.

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Contents Chip ‘N’ ShredTM Hopper Assembly Clutch Lever Petrol Models Illustrations PrefacePreparation Safety InstructionsMaintenance TrainingElectrical Supply Capacity and Fuses General Electrical Safety RulesSpecifications Setting UPSetting UP Operation Electric Models FuelRotor engagement Petrol Models Rotor disengagement Petrol ModelsOperation Maintenance Composting Remember Warranty Conditions

98117, 9885, 9848, 9862 specifications

Rover 9862, 9885, 98117, and 9848 are part of a new generation of advanced robotic systems designed for various applications across multiple sectors, including aerospace, automotive, and healthcare. These models embody the latest innovations in robotic technology, showcasing a blend of robustness, precision, and versatility.

Rover 9862 is designed for reconnaissance and exploration tasks. It features a lightweight chassis made from durable composite materials, allowing it to traverse rough terrains with ease. The robotic system is equipped with high-resolution cameras and LIDAR technology, enabling it to map and survey its surroundings accurately. Its autonomy is enhanced by advanced AI algorithms that allow for obstacle detection and path planning, making it suitable for both remote and autonomous operations.

Model 9885 focuses on industrial applications, particularly in manufacturing and logistics. This rover incorporates collaborative technologies, allowing it to work alongside human operators seamlessly. The system is fitted with an array of sensors that ensure precise object handling and transportation. Its robust power management system uses lithium-ion batteries, providing extended operational time, while real-time data analytics help optimize processes and monitor performance.

Rover 98117 represents a leap forward in healthcare applications. Designed for patient monitoring and assistance, it features ergonomic design and user-friendly interfaces. Equipped with biometric sensors and machine learning capabilities, the rover can track vital signs and adapt to individual patient needs. Its mobility allows it to navigate hospital corridors autonomously, delivering medications or supplies and assisting healthcare professionals.

Lastly, Rover 9848 emphasizes connectivity and integration. This model is built on a modular design, allowing for easy upgrades and customization based on user requirements. It supports various communication protocols, enabling it to connect with other devices and systems in a smart ecosystem. The rover’s onboard processing unit utilizes edge computing technology, significantly reducing latency and enhancing real-time decision-making capabilities.

Together, these rovers represent a significant advancement in robotics, driving innovation across different fields with their unique features and capabilities. As technology continues to evolve, these models are set to play a crucial role in shaping the future of automated systems.