Chairlifts also go by other names such as elevated passenger ropeways. They are placed under the category of aerial lifts. They are made up of steel cable loop, which is strung on two end terminals. The steel cable loop is moved by one of the terminals and it circulates continuously between them. There are multiple chairs installed along the steel cable loop. This is what Baltimore Chair Lift are all about.
Majority of ski areas use chairlifts as an onhill transport. Chairlifts are also common in amusement parks and tourist attraction sites. Their popularity is also growing in multiple places around the world as a form of urban transport. There is a likelihood of this form of transport being used on a larger scale in the future so that it can make a considerable percentage in the transport network.
The carriers usually vary in size, which also varies their carrying capacity. A carrier that is big enough and has a high level of operating efficiency can move a maximum of 4000 adult individuals per hour. The fastest lifts usually operate at the speeds of 12 meters per second or 43.2 km/h. There are models that are designed with double chairs and others have four chairs. These ones can move 1200 and 2400 people per hour respectively.
The rope used in these systems is designed to stretch and contract depending on the amount of tension applied to it. Also, the rope flexes and bends while passing around bullwheels and over sheaves. To protect the rope from corrosion and to allow flexing operation to occur smoothly, lubricants must be applied on it regularly. Regular lubrication also prolongs the life of the rope.
Most lift systems have two terminals. Between the two terminals are several intermediate supporting towers. Sheaves and bullsheels are used to support the ropes above the ground. The sheaves are located into intermediate towers while the bullwheel is placed inside the driver terminal. The number of towers is calculated based on several factors. They include rope length, terrain, worst case environmental sitiations, and the strength of the ropes.
The system comes with one drive terminal used to generate the required force to drive ropes. Drive terminal also holds the braking system for that system. The system in most cases has multiple braking mechanisms. The two primary braking systems are the service and emergency brakes. The location of the service brake is before the gearbox above the top of the drive shaft.
The emergency brake is meant to be used in emergency situations. Its effect is generated by acting directly on the bullwheel. Another useful braking mechanism is the anti-rollback device, which also acts directly on the bullwheel. This device is meant to prevent the rope from moving in the reverse direction. Runaway reverse operation can be very disastrous if it happens.
Sagging of the rope is caused by wind load and passenger weight. Other sources of sagging include rope length and temperature variation. The rope needs to be tightened regularly to counteract the effect. To achieve this, one uses pneumatic rams, hydraulic rams, or counterweights. Majority of chairlifts have their tension quantified in terms of tons.
Majority of ski areas use chairlifts as an onhill transport. Chairlifts are also common in amusement parks and tourist attraction sites. Their popularity is also growing in multiple places around the world as a form of urban transport. There is a likelihood of this form of transport being used on a larger scale in the future so that it can make a considerable percentage in the transport network.
The carriers usually vary in size, which also varies their carrying capacity. A carrier that is big enough and has a high level of operating efficiency can move a maximum of 4000 adult individuals per hour. The fastest lifts usually operate at the speeds of 12 meters per second or 43.2 km/h. There are models that are designed with double chairs and others have four chairs. These ones can move 1200 and 2400 people per hour respectively.
The rope used in these systems is designed to stretch and contract depending on the amount of tension applied to it. Also, the rope flexes and bends while passing around bullwheels and over sheaves. To protect the rope from corrosion and to allow flexing operation to occur smoothly, lubricants must be applied on it regularly. Regular lubrication also prolongs the life of the rope.
Most lift systems have two terminals. Between the two terminals are several intermediate supporting towers. Sheaves and bullsheels are used to support the ropes above the ground. The sheaves are located into intermediate towers while the bullwheel is placed inside the driver terminal. The number of towers is calculated based on several factors. They include rope length, terrain, worst case environmental sitiations, and the strength of the ropes.
The system comes with one drive terminal used to generate the required force to drive ropes. Drive terminal also holds the braking system for that system. The system in most cases has multiple braking mechanisms. The two primary braking systems are the service and emergency brakes. The location of the service brake is before the gearbox above the top of the drive shaft.
The emergency brake is meant to be used in emergency situations. Its effect is generated by acting directly on the bullwheel. Another useful braking mechanism is the anti-rollback device, which also acts directly on the bullwheel. This device is meant to prevent the rope from moving in the reverse direction. Runaway reverse operation can be very disastrous if it happens.
Sagging of the rope is caused by wind load and passenger weight. Other sources of sagging include rope length and temperature variation. The rope needs to be tightened regularly to counteract the effect. To achieve this, one uses pneumatic rams, hydraulic rams, or counterweights. Majority of chairlifts have their tension quantified in terms of tons.
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