TWI411457B - Stationary bike with sport mouse - Google Patents

Abstract

A stationary bicycle with sport mouse includes a mouse device, a foot stepping device, and a control module. The mouse device comprises an iron plate and a magnetic force module that is installed in the shell of the mouse capable of attracting the iron plate. The foot stepping device comprises a crank module capable of rotation, a magnetic resistance utensil that can impede the crank module, and a rotational speed sensor capable of measuring the rotational speed of the crank module. The control module is electrically connected with the mouse device and the foot stepping device, and receives the signals from the mouse device and the rotational speed sensor. It controls and drives the magnetic force module and the magnetic resistance utensil according to the signals. The user increases the needed strength to move the mouse by way of the magnetic force module, and controls the mouse device by using the foot stepping device cooperated with the control module. It can compel the user to exercise and achieve the effect to increase the opportunity of exercise.

Description

Bicycle with sports mouse

The invention relates to a sports equipment, in particular to a bicycle with a sports mouse.

Referring to Figure 1, as the level of informationization in modern society is getting higher and higher, modern people sit and face the work of computer 101 for a longer time. When the average person 102 faces the computer 101 for a long time, the foot 103 is usually placed on the ground and is not in motion, and the hand 104 is only slightly moved to the mouse or the keyboard 105 without much effort, so that the exercise is performed for a long time. Often cause obesity, high blood pressure, etc., and other various civilized diseases.

Referring to FIG. 2, some users 201 who are obese to the level of difficulty will travel by a conventional electric wheelchair 202. The electric wheelchair 202 includes a rocker 203, and the user 201 of these electric wheelchairs 202 only needs to move the joystick. 203, the electric wheelchair can carry the user 201 to various places, but this causes the user 201 to have less chance of exercising, making the obese situation more vicious.

Accordingly, it is an object of the present invention to provide a bicycle with a sporting mouse that can increase the chance of exercise.

Thus, the bicycle having the sport mouse of the present invention comprises a mouse device, a pedal device and a control unit.

The mouse device includes an iron plate, a mouse case on the iron plate and movable relative to the iron plate, and is accommodated in the mouse case and can sense the same a mouse sensor for displacement of the mouse housing, and a magnetic unit disposed in the mouse housing and capable of sucking the iron plate. The pedal device includes a housing unit, a crank unit rotatably disposed on the housing unit, a magnetic resistance device that pulls the crank unit, and a rotational speed sensor that can measure the rotational speed of the crank unit. The control unit includes a computer host electrically connected to the mouse device and the foot device, and a display electrically connected to the computer host, the computer host receiving the signal of the mouse sensor and the speed sensor, and Controlling and driving the magnetic unit and the magnetic resistance device according to the signal, and stopping or turning on a mouse pointer displayed by the display according to the rotational speed of the crank unit of the pedal device.

The utility model has the utility model of the bicycle with the sports mouse, wherein the magnetic unit is used for the user to increase the force required for moving the mouse, and the pedal device is used to cooperate with the control unit to control the mouse device, and the control unit is controlled. The mouse indicator displayed by the display can be stopped or turned on according to the rotation speed of the crank unit of the pedal device, thereby forcing the user to exercise and achieving the effect of increasing the exercise opportunity.

The above and other technical contents, features and advantages of the present invention will be apparent from the following detailed description of the preferred embodiments.

Referring to FIG. 3, a preferred embodiment of the bicycle with a sports mouse of the present invention comprises a mouse device 3, a footrest device 4 and a control unit 5.

Referring to FIG. 3 and FIG. 4, the mouse device 3 includes an iron plate 31, a grip 32 extending upward from the iron plate 31, and a magnet 32 on the iron plate 31. a mouse housing 33 for moving the iron plate 31, a mouse sensor 34 accommodated in the mouse housing 33 and capable of sensing the displacement of the mouse housing 33, and a slider The magnetic unit 35 of the iron plate 31 can be sucked into the mouse housing 33. The magnetic unit 35 includes a mouse core 351, a plurality of magnetic blocks 352 distributed around the mouse core 351, and a mouse magnetic coil 353 wound around the mouse core 351 and electrically connected to the control unit 5.

Referring to FIG. 5, the pedal device 4 includes a housing unit 41, a crank unit 42 rotatably disposed on the housing unit 41, a magnetic resistance device 43 that pulls the crank unit 42, and a caliper that can be measured. The speed sensor 44 of the unit 42 rotates, and a generator 45 driven by the crank unit 42. The housing unit 41 includes a hollow pedal housing 411, two transmission frames 412 disposed opposite to the inner surface of the pedal housing 411, and a resistance disposed on the inner surface of the pedal housing 411. Rack 413.

The crank unit 42 includes a crank shaft 421 rotatably disposed through the housing unit 41, and two crank arms 422 extending radially outward from the two ends of the crank shafts 421, respectively. The crank arm 422 is externally disposed on the pedal 423 of the crank arm 422, and a crank gear 424 extending radially outward from the outer peripheral surface of the crank shaft 421 is engaged with a rotating wheel 425 and a crank gear 424. A drive pinion 426, and a set of transmission gears 427 disposed on the drive pinion 426 and engaging the magnetic resistance device 43. The number of teeth of the crank gear 424 is greater than the number of teeth of the transmission pin 426 and the transmission gear 427. The speed wheel 425 can correspond to the speed sensor 44 and has a notch 428. The speed sensor 44 is a light sense. The method of detecting the number of times the gap 428 has passed is used to calculate the rotational speed.

The magnetic resistance device 43 includes a resistance tooth shaft 431 that engages the transmission gear 427, a resistance wheel 432 made of iron and extending radially outward from the outer circumferential surface of the resistance tooth shaft 431, a resistance iron core 433, and a A resistance magnetic coil 434 wound around the resistance core 433. The resistance wheel 432 is located between the two ends of the resistance core 433. The number of teeth of the transmission gear 427 is greater than the number of teeth of the resistance pinion 431. The transmission pinion 426 is rotatably disposed on the transmission frame 412. The crank gear 424 is engaged with the transmission pinion 426 between the transmission frames 412. The resistance pinion 431 is rotatably disposed on the transmission frame 431. The resistance frame 413 is placed on the pedal housing 411.

Referring to FIG. 6, the control unit 5 electrically connects the mouse device 3 and the pedal device 4, and receives signals from the mouse sensor 34 and the rotational speed sensor 44, and controls and drives the magnetic unit according to the signal. 35 (shown in FIG. 4) and the magnetic resistance device 43 (shown in FIG. 5), and according to the rotation speed of the crank unit 42 of the pedal device 4, the mouse indicator displayed by the display 60 is turned on or turned on. . The control unit 5 includes a computer host 51, an input/output interface card 52 electrically connected to the computer host 51, a mouse control circuit 53 electrically connected to the input/output interface card 52, and a resistance control circuit 54 and an analogy. The digital converter 55 is electrically connected to the mouse control circuit 53 and a mouse control circuit 56 of the resistance control circuit 54 and a resistance control circuit 57, and electrically connected to the mouse control circuit 53 and the resistance control circuit 54 respectively. The mouse driving circuit 58 and a resistance driving circuit 59 are electrically connected to the generator 45 and the charging circuit 50 of the computer host 51, and a display 60 and a keyboard 61 electrically connected to the computer host 51.

The computer host 51 can process the signal input to the interface card 52. The input/output interface card 52 can transmit the signal of the analog-to-digital converter 55 to the computer host 51, and can transmit the signal of the computer host 51 to the mouse control circuit 53 and the resistance control circuit 54. The resistance magnetic coil 434 is electrically connected to the resistance driving circuit 59. The resistance control circuit 54 transmits a signal to the resistance driving circuit 59. The resistance driving circuit 59 controls the magnetic strength generated by the resistance magnetic coil 434. The mouse magnetic coil 353 The mouse drive circuit 58 is electrically connected. The mouse control circuit 53 transmits a signal to the mouse drive circuit 58, and the mouse drive circuit 58 controls the magnetic strength of the mouse magnetic coil 353.

Referring to FIG. 6 and FIG. 7, the control unit 5 operates according to steps 900-920:

Step 900: Start.

Step 901: Determine whether the user wants to turn on the automatic resistance control. If yes, proceed to step 902. If not, proceed to step 911.

Step 902: The user inputs a pedal device 4 to allow the stop time.

Step 903: Read the ordinate and the abscissa value of the mouse pointer on the display 60.

Step 904: Read the value measured by the rotational speed sensor 44.

Step 905: Calculate the moving speed of the mouse sensor 34 and the number of revolutions of the crank unit 42 (shown in FIG. 5).

Step 906: Calculate the resistance of the mouse device 3 and the pedal device 4 according to a database, wherein the database includes the speed, the rotational speed and the resistance value of the mapping.

Step 907: Performing the ability to drive the mouse device 3 and the foot device 4 to generate resistance Subprogram of force;

Step 908: It is determined whether the crank unit 42 (shown in FIG. 5) exceeds the allowable stop time of the pedal device 4, and if so, proceeds to step 909, and if not, proceeds to step 903. That is, the control unit 5 can stop or turn on the mouse pointer displayed by the display 60 according to the rotational speed of the crank unit 42 of the pedal device 4.

Step 909: Turning off the mouse sensor 34 prevents the user from operating the mouse pointer on the display 60. In addition, the mouse can freeze the mouse pointer or let the mouse indicator disappear to prevent the user from operating the display. The mouse pointer on 60.

Step 910: End.

Step 911: The user inputs the resistance values of the mouse device 3 and the pedal device 4.

Step 912: The user inputs the pedal device 4 to allow the stop time.

Step 913: Execute a subroutine capable of driving the mouse device 3 and the pedal device 4 to generate resistance.

Step 914: Determine whether the crank unit 42 exceeds the allowable stop time of the pedal device 4. If yes, proceed to step 909. If not, proceed to step 913. That is, the control unit 5 can stop or turn on the mouse pointer displayed by the display 60 according to the rotational speed of the crank unit 42 of the pedal device 4.

In summary, the bicycle with the sport mouse of the present invention has the following effects:

1. The magnetic unit 35 of the mouse device 3 sucks the iron plate 31 to increase the resistance of the user when moving, and achieve the movement effect of the hand.

2. The control unit 5 can stop or turn on the mouse indicator displayed by the display 60 according to the rotation speed of the crank unit 42 of the pedal unit 4, and force the user to step on the pedal device 4, thereby increasing. The effectiveness of sports opportunities.

Referring to FIG. 8, it is worth mentioning that the bicycle with the sport mouse can omit the keyboard 31 (as shown in FIG. 6) and is suitable for being mounted on an electric wheelchair 800 suitable for obese users. The mouse device 3 controls the advancing direction of the electric wheelchair 800 through the control unit 5, so that the user can laboriously move the mouse case 33 of the mouse device 3 to consume heat. The user can also step on the crank unit 42 to achieve the effect of exercise, and also achieve the effect of increasing the chance of exercise.

The above is only the preferred embodiment of the present invention, and the scope of the invention is not limited thereto, that is, the simple equivalent changes and modifications made by the scope of the invention and the description of the invention are All remain within the scope of the invention patent.

3‧‧‧ Mouse device

31‧‧‧iron plate

32‧‧‧ grip

33‧‧‧ Mouse housing

34‧‧‧ Mouse Sensor

35‧‧‧Magnetic unit

351‧‧‧The mouse core

352‧‧‧Magnetic blocks

353‧‧‧Mouse magnetic coil

4‧‧‧foot device

41‧‧‧Sheet unit

411‧‧‧foot shell

412‧‧‧Driver

413‧‧ ‧ resistance frame

42‧‧‧Crank unit

421‧‧‧ crankshaft

422‧‧‧ crank arm

423‧‧‧ pedal

424‧‧‧ crank gear

425‧‧‧Turn Speed Wheel

426‧‧‧Transmission pinion

427‧‧‧Transmission gear

428‧‧‧ gap

43‧‧‧Magnetic resistance

431‧‧‧Resistance pinion

432‧‧‧Resistance wheel

433‧‧‧Resistance iron core

434‧‧‧Resistance magnetic coil

44‧‧‧Speed sensor

45‧‧‧Power generator

5‧‧‧Control unit

50‧‧‧Charging circuit

51‧‧‧Computer host

52‧‧‧Import and export interface card

53‧‧‧ Mouse Control Circuit

54‧‧‧ resistance control circuit

55‧‧‧ Analog Digital Converter

56‧‧‧ Mouse Control Circuit

57‧‧‧ resistance control circuit

58‧‧‧Mouse drive circuit

59‧‧‧resistance drive circuit

60‧‧‧ display

61‧‧‧ keyboard

700‧‧‧Power supply

800‧‧‧Electric wheelchair

1 is a side view showing a modern person using a conventional computer; FIG. 2 is a side view showing a conventional electric wheelchair; FIG. 3 is a perspective view showing a bicycle having a sport mouse of the present invention. FIG. 4 is a side view of the preferred embodiment, illustrating a mouse device, with an iron plate and a grip omitted; FIG. 5 is a cross-sectional view of the preferred embodiment illustrating a pedal Figure 6 is a block diagram of the preferred embodiment illustrating a control unit and FIG. 7 is a flow chart showing the operation of the control unit; FIG. 8 is a perspective view showing the operation mouse of the present invention. The bicycle omits a keyboard and is mounted on an electric wheelchair.

3‧‧‧ Mouse device

31‧‧‧iron plate

32‧‧‧ grip

33‧‧‧ Mouse housing

4‧‧‧foot device

41‧‧‧Sheet unit

42‧‧‧Crank unit

5‧‧‧Control unit

60‧‧‧ display

Claims (8)

A bicycle with a sports mouse, comprising: a mouse device, comprising an iron plate, a mouse case located on the iron plate and movable relative to the iron plate, and a housing of the mouse and capable of being accommodated in the mouse case a mouse sensor for sensing the displacement of the mouse housing, and a magnetic unit disposed in the mouse housing and capable of sucking the iron plate; a pedal device including a housing unit and a rotating base a crank unit disposed in the housing unit, a magnetic resistance device that pinches the crank unit, and a rotational speed sensor capable of measuring the rotational speed of the crank unit; and a control unit including an electrical connection device a computer host of the pedal device, and a display electrically connected to the host computer, the computer host receiving the signal of the mouse sensor and the speed sensor, and controlling and driving the magnetic unit and the magnetoresistive according to the signal The force device stops or turns on a mouse pointer displayed by the display according to the rotational speed of the crank unit of the pedal device. The bicycle with a sports mouse according to claim 1, wherein the mouse device further comprises a grip extending upward from the iron plate, the magnetic unit comprising a mouse core, a plurality of a magnetic block around the core of the mouse and a mouse magnetic coil wound around the core of the mouse and electrically connected to the control unit. The bicycle with a sport mouse according to the second aspect of the invention, wherein the crank unit of the pedal device comprises a crank shaft rotatably disposed through the housing unit, and two crankshafts respectively a crank arm extending radially outwardly at two ends, two adjacent to the outer ends of the crank arms a pedal disposed on the crank arms, a crank gear extending radially outward from the outer peripheral surface of the crank shaft, a rotating wheel, a transmission pinion engaged with the crank gear, and a set of gear teeth disposed on the gear The shaft is coupled to the transmission gear of the magnetic resistor, and the crank gear has a larger number of teeth than the transmission pinion and the gear of the transmission gear, and the rotation wheel has a gap corresponding to the rotation speed sensor. A bicycle with a sports mouse according to claim 3, wherein the magnetic resistance of the pedal device includes a resistance pinion that engages the transmission gear, an iron system and a circumference from the resistance tooth shaft. a resistance wheel extending radially outward, a resistance core, and a resistance magnetic coil wound around the resistance core, the resistance wheel being located between the two ends of the resistance core, the number of teeth of the transmission gear being greater than the resistance pinion Number of teeth. The bicycle with a sport mouse according to the fourth aspect of the invention, wherein the housing unit of the pedal device comprises a hollow pedal housing, and two opposite surfaces are disposed on the inner surface of the pedal housing. a drive frame, and a resistance frame disposed on an inner surface of the pedal housing, the transmission pin shaft is rotatably disposed on the transmission frame, and the crank gear is engaged with the transmission pinion at the transmission frame The resistance pinion is rotatably disposed on the resistance frame and the pedal housing. The bicycle with a sport mouse according to claim 5, wherein the control unit further comprises an input/output interface card electrically connected to the host computer, and a mouse control electrically connected to the input/output interface card. a circuit, a resistance control circuit and an analog-to-digital converter, respectively, and a mouse control circuit electrically connected to the mouse control circuit and the resistance control circuit a resistance control circuit, and a mouse driving circuit and a resistance driving circuit respectively electrically connecting the mouse control circuit and the resistance control circuit, the computer host can process the signal input to the interface card, and the output interface card The signal of the analog converter can be transmitted to the host computer, and the signal of the host computer can be transmitted to the mouse control circuit and the resistance control circuit, and the resistance magnetic coil is electrically connected to the resistance driving circuit, and the resistance control a circuit transmission signal is given to the resistance driving circuit, the resistance driving circuit controls a magnetic force generated by the resistance magnetic coil, the mouse magnetic coil is electrically connected to the mouse driving circuit, and the mouse control circuit transmits a signal to the mouse driving circuit The mouse drive circuit controls the magnetic strength of the magnetic coil of the mouse. The bicycle with a sports mouse according to claim 6, wherein the pedal device further includes a power generator driven by the crank unit, the control unit further comprising an electrical connection between the power generator and the computer The charging circuit of the host. A bicycle with a sports mouse according to claim 7, wherein the control unit further comprises a keyboard electrically connected to the host computer.