Low energy consumption, high efficiency treadmill
View Patent ↗This invention belongs to technical field of the treadmill, especially, it is a kind of kind of low-energy consumption high-efficient treadmill. It solved some technical issues such that the machine adopting existing technology has large noise, and the operation can consume a lot of energy and so on. The low-energy consumption high-efficient treadmill includes the treadmill rack, and the treadmill rack is set with annular running belt, one end of the treadmill rack is equipped with the rotation roller, and the other end is set with the outer rotor brushless DC motor, the rotation roller mentioned above are arranged with the outer rotor brushless DC motor in parallel, the annular running belt mentioned above is winded between rotation roller and outer rotor brushless DC motor, and outer rotor brushless DC motor can drive annular running belt mentioned above during operating. Comparing with existing technology, advantages of this invention lie in: 1. The design is more reasonable, the machine is equipped with outer rotor brushless DC motor, which can produce inertia force during rotating, such inertia force can ensure operation stability of the treadmill, secondly, it can also improve the operation efficiency, in addition, the brushless slice can also reduce operation noise of the treadmill, with strong availability. 2. The costs are low.
1. A treadmill comprising:
a rack;
an annular running belt;
a rotation roller; and
a brushless DC motor having an outer rotor and an inner stator, the outer rotor wrapping around the inner stator,
wherein the annular running belt is mounted on the rack,
the rotation roller is disposed at a first end of the rack,
the brushless DC motor is disposed at a second end of the rack in parallel with the rotation roller,
the annular running belt is wound on a periphery of the rotation roller,
the outer rotor of the brushless DC motor is configured to drive the annular running belt,
the inner stator of the brushless DC motor connects to the rack,
a perimeter of the outer rotor of the brushless DC motor is wrapped by a tubular body,
the tubular body is fixedly connected to the perimeter of the outer rotor of the brushless DC motor, and
the annular running belt is wound on a periphery of the tubular body.
2. The treadmill according to claim 1 , wherein a length of the tubular body is not less than a width of the annular running belt.
3. The treadmill according to claim 1 , further comprising:
a running-belt plate,
wherein the running-belt plate is fixed on the rack,
the running-belt plate is disposed between the rotation roller and the outer rotor of the brushless DC motor, and
the annular running belt is located on a periphery of the running belt plate.
4. A treadmill comprising:
a rack;
an annular running belt;
a rotation roller;
a brushless DC motor having an outer rotor and an inner stator, the outer rotor wrapping around the inner stator;
a chassis; and
a suspension structure for absorbing shock,
wherein the annular running belt is mounted on the rack,
the rotation roller is disposed at a first end of the rack,
the brushless DC motor is disposed at a second end of the rack in parallel with the rotation roller,
the annular running belt is wound on a periphery of the rotation roller and a periphery of the outer rotor of the brushless DC motor,
the outer rotor of the brushless DC motor is configured to drive the annular running belt,
the inner stator of the brushless DC motor connects to the rack,
a front end of the rack is suspended on the chassis through the suspension structure, and
when a force pushes the rack downwards so that the front end of the rack moves downwards, the suspension structure is configured to move the front end of the rack upwards to restore the front end of the rack to an original position.
5. The treadmill according to claim 4 , wherein the suspension structure includes a cantilever,
a first end of the cantilever is hinged on the rack,
a second end of the cantilever is connected to the chassis through an elastic component, and
a middle of the cantilever is hinged on the chassis.
6. The treadmill according to claim 5 , wherein the treadmill includes two sets of suspension structures, and
the two sets of the suspension structures are symmetrically disposed on both sides of the rack.
7. The treadmill according to claim 6 , wherein the elastic component includes a conducting rod,
a first end of the conducting rod is hinged on the cantilever,
a second end of the conducting rod passes through the chassis, and
an elastic block against the chassis is fixed at the second end of the conducting rod.
8. The treadmill according to claim 7 , wherein the cantilever is L-shaped having a first part and a second part,
a corner part of the cantilever is hinged on the chassis,
a length of the first part of the cantilever connected to the rack is larger than a length of the second part of the cantilever connected to the elastic component.
9. The treadmill according to claim 5 , wherein the rack includes a framework,
a cantilever support is fixed below a front portion of the framework,
the cantilever is hinged on a front end of the cantilever support,
a damping cylinder is disposed between the chassis and a middle of the rack,
a first end of the damping cylinder is connected to the chassis, and
a second end of the damping cylinder is connected to the rack.
10. The treadmill according to claim 9 , further comprising:
an elastic buffer structure,
wherein the elastic buffer structure is disposed between the running belt plate and the framework,
the elastic buffer structure includes elastic buffer parts,
the elastic buffer parts are symmetrically disposed on both sides of the framework, and
the elastic buffer parts are disposed between the framework and the running belt plate.
11. The treadmill according to claim 10 , wherein each of the elastic buffer parts includes a first pressing plate, a second pressuring plate, and buffer springs sandwiched between the first pressing plate and the second pressuring plate,
the first pressuring plate is connected to a side edge of the running belt plate,
the second pressing plate is fixed on a side edge of the framework, and
when a force pushes the running plate downwards, the buffer springs are configured to provide an upward counter force.