TWM479854U - Apparatus with rotating effect - Google Patents

Abstract

An apparatus with rotating effect includes an outside barrel, a rotating barrel, a rotating device, a pressing device and a speed-reducing device. The rotating barrel is positioned inside of the outside barrel. The rotating device is connected with the rotating barrel and rotates the rotating barrel. The pressing device is connected with the outside barrel. The speed-reducing device is connected with the rotating barrel to reduce the rotating speed of the rotating barrel.

Description

Device with rotation effect

The present invention relates to a device having a rotating effect, such as a pen, a key ring, a shower bottle, and the like.

A device with a rotating effect, such as rarely used on a pen or key ring. Applicant has been approved by US Patent No. 8226314 Press Action Device. For example, after a pen is pressed, one or several reels on the pen will rotate rapidly. Finally, one surface of the reel will be randomly displayed on the window. To achieve the effect of fun.

However, some patterns printed on the drum can express different effects in a slow rotation manner. Therefore, it is necessary to design a mechanism that slowly rotates, especially a pure mechanism design that does not rely on electric power to control the slow rotation of the motor, and in order to This mechanism is placed in a small space, such as a pen, and small body design is not easy.

The main object of the present invention is to provide a device having a rotating effect, especially after the device is pressed, a rotating drum in the device can have a slow turning effect.

In order to achieve the above object, the novel rotating device comprises an outer cylinder, a rotating cylinder, a rotating mechanism, a pressing mechanism and a speed reducing mechanism.

The rotating drum is disposed in the outer cylinder, the rotating mechanism is combined with the rotating drum to rotate the rotating drum, and the pressing mechanism is combined with the outer cylinder. The pressing mechanism includes a pressing stroke and a releasing stroke. When the pressing stroke is performed, the pressing mechanism activates the rotating mechanism to perform a first direction rotation. When the releasing stroke is performed, the rotating mechanism performs a second direction rotation, wherein the second direction The direction of rotation is opposite to the first direction.

The speed reduction mechanism is combined with the rotating drum to slow the rotation speed of the rotating drum. In the embodiment, the speed reduction mechanism includes a guide ring and a damping member, and the damping member is a damping oil, so that the damping oil slows the rotation speed of the rotating drum.

In order to enable your review committee to better understand the technical content of the present invention, three preferred embodiments are described below.

Hereinafter, please refer to FIGS. 1 to 10 together with respect to the first embodiment.

The device 1 having a rotating effect is a pen, which mainly comprises an outer cylinder 10, a rotating cylinder 20, an inner cylinder 30, a pressing mechanism 50, a rotating mechanism 60, a speed reducing mechanism 70, a lighting module 80 and One institution 90.

The outer cylinder 10 includes an upper outer cylinder 11 and a main outer cylinder 12. In the present embodiment, the upper outer cylinder 11 is a pen cap including a pen clip 112. The lower portion of the main outer cylinder 12 is coupled to the pen mechanism 90. The pen mechanism 90 adopts a mechanism for generally pressing the pen (each press is extended or retracted), and includes a tube 91, a head 92, a decorative ring 93, a core 94, a core elastic member 95, and a press. Component 96. Since the pen mechanism 90 is not a new focus of the present invention, it is also a known mechanism and therefore will not be described here.

Referring to FIGS. 3-7 together, the pressing mechanism 50 includes a pressing end 51 (in this embodiment, a button of a pen), a rotating driving rod 54 and an elastic member 55. The rotating driving rod 54 includes a rotating wing 541. In this embodiment, the rotating driving rod 54 is a screw, and the rotating wing 541 is a thread. Please refer to FIG. 6 together. In the embodiment, the light emitting module 80 is disposed under the pressing end 51.

The light module 80 includes a light 81 (such as an LED), a plurality of batteries 82, a light barrel 85, and a light guide 86. The upper end of the lamp cylinder 85 is directly engaged with the pressing end 51 (see FIG. 5), and the lamp 81 is directly connected to the light guiding column 86 (the light guiding column 86 is coupled to the lamp cylinder 85, and the lamp 81 is protruded into the light guiding column 86 outside the lamp cylinder 85). The light provided by the light-emitting module 80 is added to the decorative effect so that the upper portion of the device 1 having the rotating effect can emit light. Since the light-emitting module 80 used in the pen is a known technology and is not a novel focus of the present invention, the circuit mechanism will not be described herein.

The pressing mechanism 50 is coupled to the outer cylinder 10. In the present embodiment, the pressing end 51 is above the upper outer cylinder 11. The inner cylinder 30 is disposed in the rotating cylinder 20, and the rotating driving rod 54 and the elastic member 55 are disposed in the inner cylinder 30, and the top end of the rotating driving rod 54 is fixed in the small hole 861 of the light guiding rod 86.

Referring to FIGS. 3-7 together, the rotating mechanism 60 includes a rotating guide 61, a rotating member 62, a fitting member 63 and a rotating elastic member 64. The rotation guide 61 is provided in the drum 20 at a position below the inner cylinder 30. The rotation guide 61 is engaged with the rotation driving rod 54, and the rotation guide 61 includes a guide groove 611 (FIG. 6). When the rotation rod 54 advances, due to the shape of the guide groove 611, the rotation wing 541 advances when it is guided. The groove 611 causes the rotation guide 61 to perform a first direction of rotation (this embodiment is a counterclockwise direction). Regarding the rotation guide 61 and the guide groove 611, the rotation is a conventional technique, for example, refer to U.S. Patent No. 82,236,414.

Referring to FIG. 6, the rotating guide 61 is provided with a rotating tooth 612. The rotating tooth 612 has a beveled design, and the rotating cylinder 20 is also equipped with a beveled designing tooth 21 so that the rotating guiding member 61 performs a first direction rotation. The drum 20 is also driven to perform a first direction of rotation.

Referring to FIGS. 6-7, the rounded post 624 of the rotating member 62 is matched with the circular hole 634 of the fitting member 63, so that the rotating member 62 and the engaging member 63 are relatively rotatable. The two ends of a rotating elastic member 64 are coupled to the fixing holes 622 of the rotating member 62 and the fixing holes 632 of the engaging member 63.

A rotating member 22 (two protrusions in this embodiment) is disposed under the rotating drum 20, and a matching guiding member 621 (two concave holes in this embodiment) is disposed above the rotating member 62, so that the rotating drum 20 and the rotating member are provided. 62 is a synchronous rotation.

The fitting member 63 is fixed under the main outer cylinder 12, for example, by means of glue. In this embodiment, the fitting member 63 is provided with a plurality of straight rib fasteners 633, and a plurality of straight grooves (not shown) are also disposed at opposite sides of the main outer cylinder 12 to secure the fastener 633, so the fitting 63 is installed. After being disposed in the main outer cylinder 12, the fitting 63 cannot be rotated. Therefore, when the rotating member 62 performs a first direction of rotation, the rotating elastic member 64 is tightened, and when the biasing force of the rotating member 62 is removed, the rotating elastic member 64 provides a rotationally-returning force, so that the rotating member 62 performs a Rotation in the second direction (this embodiment is a clockwise direction).

The speed reduction mechanism 70 includes a guide ring 71 and a damper member 75 in this embodiment. Referring to FIGS. 8-10, the guide ring 71 includes a ring-shaped rib 711, a ring-shaped groove 712 and a plurality of brake bars 713. The upper outer cylinder 11 is provided with a positioning groove 111 and a ring-shaped rib 711. The top end of the drum 20 is provided with an annular mud blocking guide 23, and the mud blocking guide 23 is matched with the annular groove 712. In addition, the damper member 75 of the present embodiment is a damping oil. When assembling, a little damping oil 75 is applied to the annular groove 712, so that when the drum 20 is freely rotated, since the mud blocking guide 23 contacts the damping oil 75, The rotation speed of the drum 20 can be decelerated. Referring to FIG. 9 , a bottom view of the upper outer cylinder 11 is provided. The upper outer cylinder 11 is provided with a plurality of brake blocks 113 that cooperate with the brake bar 713 . Each of the brake blocks 113 has a triangular shape so that the guide ring 71 performs the first direction ( When the embodiment rotates in the counterclockwise direction, each of the brake blocks 113 does not block the respective brake bars 713, and thus the guide ring 71 can be rotated in the first direction. When the guide ring 71 is intended to rotate in the second direction (clockwise direction in this embodiment), each of the brake blocks 113 blocks the respective brake bars 713, so that the guide ring 71 cannot rotate in the second direction.

After understanding the above components, the entire operation flow of the embodiment will be described below. Referring to FIG. 4 together, the pressing end 51 has not been pressed yet, and the rotating driving rod 54 is mostly above the rotating guide 61. Referring to FIG. 5, when a user presses the pressing end 51 (pressing the stroke P1), the pressing end 51 pushes the lamp barrel 85 and the light guiding rod 86 downward, so that the rotating driving rod 54 is pressed downward to rotate the rotating guide 61. Since the rotating member 62 has the through hole 623, the rotating driving rod 54 can enter the rotating member 62 downward. The rotation guide 61 rotates in a first direction C1 at this time, and since the rotation guide rod 54 also presses the rotation guide 61 downward, the rotation teeth 612 of the rotation guide 61 engage the guide teeth 21 of the drum 20, so the drum The first direction rotation is also performed, and then the rotating member 22 of the drum 20 also drives the rotating member 62 to perform a first direction of rotation so that the rotating elastic member 64 is tightened. Referring to FIG. 8, FIG. 9 and FIG. 10 together, when the drum 20 rotates in the first direction, the mud-resisting guide 23 above the drum 20 is rotated by the first direction due to the relationship of the damping oil 75. (Because each of the brake blocks 113 does not block each of the brake bars 713), the user does not need to resist the resistance of the damping oil 75 when pressing the pressing end 51.

The user can quickly press the pressing end 51 several times to increase the degree to which the rotating elastic member 64 is tightened. When the user releases the pressing end 51 (release the stroke P2), referring to FIG. 4, the elastic member 55 pushes the rotating driving rod 54 upward, and the rotating driving rod 54 brings the rotating guide 61 upward, so that the rotation The rotating teeth 612 of the guide 61 are no longer engaged with the guide teeth 21 of the drum 20. Since the rotating elastic member 64 provides the force of the rotating return, the rotating member 62 performs a second direction C2 rotation, and then the rotating member 62 drives the rotating drum 20 to also perform the second direction C2 rotation, and the mud blocking guide 23 is viscous due to the damping oil 75. In the relationship, the mud blocking guide 23 attempts to perform the second direction C2 rotation, but since each of the brake blocks 113 blocks the respective brake bars 713, the guide ring 71 cannot be rotated in the second direction, so the mud blocking guide 23 receives the damping oil. The resistance of 75 causes the rotation speed of the drum 20 to rotate slowly.

The device 1 having a rotating effect may further include an outer cylinder garnish 41, a drum garnish 42 and an inner cylinder garnish 43. The outer cylinder garnish 41 is preferably a printed plastic sheet which is installed in the transparent main outer cylinder 12. Of course, the outer cylinder garnish 41 can also be a pattern printed on the outer outer cylinder 12. The drum garnish 42 is suggested to be printed on the outside of the drum 20, or the drum garnish 42 may be a patterned sticker attached to the outside of the drum 20. The inner cylinder trim 43 can also be printed on the outer surface of the inner cylinder 30 or attached to the outer surface of the inner cylinder 30 in the form of a sticker. Since the drum 20 is an important feature of the present invention, the drum garnish 42 is required, and when the outer cylinder garnish 41 and/or the inner cylinder garnish 43 are engaged, when the drum garnish 42 is rotated, the outer cylinder is decorated. The piece 41 and/or the inner tube garnish 43 can be displayed because it is fixed.

It should be noted that the light-emitting module 80 may not be needed, and the rotating driving rod 54 may be longer (or a cylinder is added above the rotating driving rod 54), and the top end of the rotating driving rod 54 is directly in contact with the pressing end 51, and is generally pressed. The focus of the end 51 is to push the rotation of the rod 54.

Hereinafter, please refer to FIGS. 11 to 12 together with respect to the second embodiment.

The device 1a having a rotating effect is a key ring. The device 1a having a rotating effect is mainly different from the first embodiment in that the device 1a for rotating effect does not have the pen mechanism 90, but the outer tube 15a is joined under the main outer tube 12, and the buckle 151a and the key are provided below the lower outer tube 15a. Ring 152a. The apparatus 1a having the rotation effect has the outer cylinder 10, the rotary cylinder 20, the inner cylinder 30, the pressing mechanism 50, the rotating mechanism 60, the speed reduction mechanism 70, the light-emitting module 80, and the like, and the like, and therefore will not be described again.

Hereinafter, please refer to FIGS. 13 to 19 together with respect to the third embodiment. The device 1d having a rotating effect is a liquid can, such as a shower bottle, a soap liquid can, a shampoo can, and the like. The device 1d having a rotating effect includes an outer cylinder 10d, a rotating cylinder 20d, a pressing mechanism 50d, a rotating mechanism 60d and a speed reducing mechanism 70d.

The outer cylinder 10d includes an upper outer cylinder 11d, a main outer cylinder 12d, a decorative ring 17d and a lower outer cylinder 15d. The main outer cylinder 12d includes an inner cylinder 121d and an outer cylinder 122d. The inner cylinder 121d is a container for liquid (not shown). The decorative ring 17d is a retractable collar, and the upper and lower ends of the decorative ring 17d are respectively connected with the main outer tube 12d and the lower outer tube 15d. Referring to Figures 18-19, when the main outer tube 12d moves downward, the decorative ring 17d is It will be compressed, and the decorative ring 17d can prevent liquid or dirt from entering the lower outer cylinder 15d in addition to the decoration.

The inner cylinder garnish 43d may be attached to the surface of the inner cylinder 121d, and the outer cylinder garnish 41d may be attached to the inner or outer surface of the outer cylinder 122d. Of course, the outer cylinder garnish 41d may be directly printed on the outer cylinder 122d. The outer surface.

The drum 20d of this embodiment includes a main drum 26d and a drum chassis 27d. The main drum 26d is suggested to be a thin printed plastic sheet, that is, the main drum 26d itself is the drum decorative member 42d. A plurality of tabs 261d are disposed under the main drum 26d, and a plurality of notches 271d (see FIG. 16) are also disposed at opposite positions of the drum chassis 27d, so that the tabs 261d can be mounted on the corresponding notches 271d.

The pressing mechanism 50d includes a pressing tube device 56d, a rotation driving lever 54d, and an elastic member 55d. The pressing tube device 56d includes a pressing end 51d (indenter) and a suction tube 561d, and the pressing tube device 56d is coupled to the upper outer tube 11d. The pressing tube device 56d is for extracting the liquid contained in the inner tube 121d. Therefore, the suction tube 561d is disposed in the inner tube 121d. Since the pressing tube device 56d is a conventional technique, it will not be described herein. Referring to FIG. 15, a fastener 1211d is disposed under the inner tube 121d to fix the upper portion of the rotation driving rod 54d. The rotation driving rod 54d includes a circular hole 542d to accommodate the elastic member 55d. The surface of the rotating driving rod 54d includes a rotating wing 541d. In the present embodiment, the rotating driving rod 54d is a screw, and the rotating wing 541d is a thread.

Referring to FIGS. 15-16 together, the rotating mechanism 60d includes a rotating guide 61d, a rotating member 62d, a fitting member 63d and a rotating elastic member 64d. The rotation guide 61d is disposed in the drum 20d, and the rotation guide 61d is engaged with the rotation driving rod 54d. The rotation guide 61d includes a guide groove 611d. When the rotation rod 54d advances, the rotation of the guide groove 611d is designed to rotate. When the wing 541d advances, the guide groove 611d is caused to rotate the rotation guide 61d in a first direction (in this embodiment, the counterclockwise direction). A rotating tooth 612d is disposed under the rotating guide 61d, and the rotating tooth 612d has a beveled design, and the rotating chassis 27d is also matched with a beveled designing tooth 21d, so that the rotating guiding member 61d also rotates when performing a first direction rotation. The barrel 20d is rotated in a first direction.

Referring to FIG. 16, the circular stud 624d of the rotating member 62d is matched with the circular hole 634d of the fitting member 63d so that the rotating member 62d is relatively rotatable with the engaging member 63d. The two ends of a rotating elastic member 64d are coupled to the fixing hole 622d of the rotating member 62d and the fixing hole 632d of the engaging member 63d.

A rotating member 22d (two protrusions in this embodiment) is disposed under the rotating drum 20d, and a matching guiding member 621d (two concave holes in the embodiment) is disposed above the rotating member 62d, so that the rotating drum 20d and the rotating member are provided. 62d is a synchronous rotation.

The fitting member 63d is fixed to the inner casing of the lower outer cylinder 15d, for example, by means of glue. In this embodiment, the fitting member 63d is engaged between the inner annular post 153d and the outer annular post 154d of the lower outer cylinder 15d. Therefore, after the fitting 63d is mounted on the lower outer cylinder 15d, the fitting 63d cannot be rotated. Therefore, when the rotating member 62d performs a first direction of rotation, the rotating elastic member 64d is tightened, and when the biasing force of the rotating member 62d is removed, the rotating elastic member 64d provides a rotationally-returning force, so that the rotating member 62d performs a Rotation in the second direction (this embodiment is a clockwise direction).

The speed reduction mechanism 70d includes a guide ring 71d and a damper 75d in this embodiment. Referring to FIGS. 17-19, the guide ring 71d includes a ring-shaped rib 711d, a ring-shaped groove 712d and a plurality of brake bars 713d. The outer ring column 154d is provided with a positioning groove 1541d and a ring-shaped rib 711d. The rotating cylinder 20d is provided with an annular mud blocking guide 23d at the bottom end of the drum chassis 27d, and the mud blocking guide 23d is matched with the annular groove 712d. The damping member 75d of the embodiment is damping oil, and when assembled, A little damping oil 75d is applied to the annular groove 712d so that when the drum 20d is freely rotated, since the mudguard guide 23d contacts the damping oil 75d, the rotation speed of the drum 20d can be decelerated. Referring to FIG. 17, a top view of the lower outer cylinder 15d and a bottom view of the speed reduction mechanism 70d are provided. The outer annular column 154d is provided with a plurality of brake blocks 1542d that cooperate with the brake bar 713d. Each of the brake blocks 1542d has a triangular shape so that the guide ring When the first direction (in the present embodiment, the counterclockwise direction) is rotated, the respective brake blocks 1542d do not block the respective brake bars 713d, so that the guide ring 71d can be rotated in the first direction. When the guide ring 71 is intended to rotate in the second direction (clockwise direction in this embodiment), each of the brake blocks 1542d blocks each of the brake bars 713d, so that the guide ring 71d cannot be rotated in the second direction.

After understanding the above components, the entire operation flow of the present embodiment will be described below. Referring to FIG. 18 together, the pressing end 51d is not yet pressed, and the rotation driving lever 54d is mostly above the rotation guide 61d. Referring to FIG. 19, when a user presses the pressing end 51d (pressing stroke P1), the pressing end 51d pushes down the main outer cylinder 12d, so that the rotating driving rod 54d is pressed downward to rotate the rotating guide 61d, due to the rotation The member 62d has a through hole 623d, so that the rotation driving lever 54d can enter the rotating member 62d downward. The rotation guide 61d is rotated in the first direction C1 at this time, and since the rotation guide rod 54d also presses the rotation guide 61d downward, the rotation teeth 612d of the rotation guide 61d engage with the guide teeth 21d of the drum 20d, so the drum 20d also rotates in the first direction, and then the rotating member 22d of the drum 20d also drives the rotating member 62d to perform a first direction of rotation, so that the rotating elastic member 64d is tightened. Referring to FIG. 17, when the rotating drum 20d rotates in the first direction, the mud blocking guide 23d has a viscous relationship with the damping oil 75d, so that the guiding ring 71 also rotates in the first direction along with the rotating drum 20d (because each brake block) The 1542d does not block the respective bar 713d), so the user does not need to resist the resistance of the damping oil 75d when pressing the pressing end 51d.

The user can quickly press the pressing end 51d several times to increase the degree to which the rotating elastic member 64d is tightened. When the user releases the pressing end 51d (release stroke P2), referring to Fig. 19, the elastic member 55d pushes the rotating driving rod 54d upward (the main outer tube 12d also follows upward), and the rotating driving rod 54d rotates. The guide member 61d is brought up, so that the rotating teeth 612d of the rotary guide 61d are no longer engaged with the guide teeth 21d of the rotary drum 20d. Since the rotating elastic member 64d provides the force of the rotational return, the rotating member 62d performs a second direction C2 rotation, and then the rotating member 62d drives the rotating drum 20d to also perform the second direction C2 rotation, and the mud blocking guide 23d is viscous due to the damping oil 75d. In the relationship, the mud blocking guide 23d attempts to perform the second direction C2 rotation, but since each of the brake blocks 1542d blocks each of the brake bars 713d, the guide ring 71d cannot be rotated in the second direction, so the mud blocking guide 23d receives the damping oil. The resistance of 75d causes the rotation speed of the drum 20d to rotate slowly.

It should be noted that the above is only an embodiment, and is not limited to the embodiment. For example, those who do not deviate from the basic structure of this new model shall be the scope of rights claimed in this patent, and shall be subject to the scope of patent application. For example, the device with the rotating effect can be a touch pen for the touch screen (the pen mechanism is changed to a stylus mechanism), a toy, or a key ring, a necklace, an attached accessory/decoration on the mobile phone, and the like.

1,1a, 1d‧‧‧A device with a rotating effect
10,10d‧‧‧Outer tube
11,11d‧‧‧Upper cylinder
111‧‧‧ positioning slot
112‧‧‧ pen holder
113‧‧‧煞车块
12,12d‧‧‧main outer tube
121d‧‧‧ inner tube
1211d‧‧‧ card firmware
122d‧‧‧outer tube
15a, 15d‧‧‧ lower outer cylinder
151a‧‧‧ buckle
152a‧‧‧ key ring
153d‧‧‧ inner ring column
154d‧‧‧ outer ring column
1541d‧‧‧ positioning slot
1542d‧‧‧煞车块
17d‧‧‧decorative ring
20, 20d‧‧‧ reel
21, 21d‧‧‧ teeth
22,22d‧‧‧Transfer
23,23d‧‧‧Resistance Guide
26d‧‧‧ main drum
261d‧‧‧Tip
27d‧‧‧drum chassis
271d‧‧‧ gap
30‧‧‧Inner tube
41,41d‧‧‧Outer tube decoration
42,42d‧‧‧drum decoration
43,43d‧‧‧Inner tube decoration
50, 50d‧‧‧ Pressing mechanism
51, 51d‧‧‧ Press end
54,54d‧‧‧Rotating rod
541,541d‧‧‧rotor
542d‧‧‧ round hole
55,55d‧‧‧elastic parts
56d‧‧‧Press tube device
561d‧‧‧Sipper
60, 60d‧‧‧ rotating mechanism
61, 61d‧‧‧Rotary guides
611,611d‧‧ ‧ guiding groove
612,612d‧‧‧ rotating teeth
62,62d‧‧‧Rotating parts
621,621d‧‧‧guides
622,622d‧‧‧Fixed holes
623,623d‧‧‧Perforation
624,624d‧‧‧round stud
63,63d‧‧‧Parts
632, 632d‧‧‧ fixing holes
633‧‧‧Card Firmware
634,634d‧‧‧ round hole
64,64d‧‧‧Rotating elastic parts
70, 70d‧‧‧ speed reduction mechanism
71, 71d‧‧‧ guide ring
711,711d‧‧‧ring ribs
712,712d‧‧‧ring groove
713,713d‧‧‧煞车条条
75,75d‧‧‧damper
80‧‧‧Lighting module
81‧‧‧ lights
82‧‧‧Battery
85‧‧‧Lights
86‧‧‧Light guide
861‧‧‧ hole
90‧‧‧ pen agency
91‧‧‧ pen tube
92‧‧‧ pen head
93‧‧‧decorative ring
94‧‧‧Refill
95‧‧‧Refilled elastic parts
96‧‧‧ pen pressing assembly

Fig. 1 is an external view of a first embodiment of the present invention. Figure 2 is a cross-sectional view showing the first embodiment of the present invention. Figure 3 is an exploded perspective view of the first embodiment of the present invention. Fig. 4 is a partially enlarged cross-sectional view showing the first embodiment of the present invention, showing the pressing mechanism in a state of no pressing. Fig. 5 is a partially enlarged cross-sectional view showing the first embodiment of the present invention, showing a state in which the pressing mechanism is pressed. Fig. 6 is an exploded perspective view showing the drum, the pressing mechanism and the rotating mechanism of the first embodiment of the present invention. Figure 7 is an exploded perspective view of the first embodiment of the present invention with respect to the rotating mechanism. Fig. 8 is an exploded perspective view showing the upper outer cylinder and the speed reduction mechanism of the first embodiment of the present invention. Figure 9 is a bottom plan view of the upper outer cylinder of the first embodiment of the present invention. Figure 10 is an enlarged cross-sectional view showing the upper outer cylinder and the speed reduction mechanism of the first embodiment of the present invention. Figure 11 is an external view of a second embodiment of the present invention. Figure 12 is a cross-sectional view showing a second embodiment of the present invention. Figure 13 is an external view of a third embodiment of the present invention. Figure 14 is a perspective exploded view of a third embodiment of the present invention. Figure 15 is a perspective exploded view of the main outer cylinder, the rotating belt rod and the rotating member of the third embodiment of the present invention. Figure 16 is a perspective exploded view of the third embodiment of the present invention relating to the drum chassis, the rotating member and the fitting member. Fig. 17 is a top plan view of the lower outer cylinder and a lower view of the speed reduction mechanism. Fig. 18 is a partially enlarged cross-sectional view showing the third embodiment of the present invention, showing the pressing mechanism in a state of no pressing. Figure 19 is a partially enlarged cross-sectional view showing the third embodiment of the present invention, showing the state in which the pressing mechanism is pressed.

1‧‧‧A device with a rotating effect

10‧‧‧Outer tube

11‧‧‧Upper cylinder

112‧‧‧ pen holder

12‧‧‧ main outer tube

20‧‧‧ reel

30‧‧‧Inner tube

41‧‧‧Outer tube decoration

42‧‧‧Rot decoration

43‧‧‧Inner tube decoration

50‧‧‧ Pressing mechanism

51‧‧‧ Press end

54‧‧‧Rotating rod

541‧‧‧Rotating Wing

55‧‧‧Flexible parts

60‧‧‧Rotating mechanism

61‧‧‧Rotary guides

62‧‧‧Rotating parts

63‧‧‧Parts

64‧‧‧Rotating elastic parts

70‧‧‧Speed reduction mechanism

71‧‧‧Guide ring

80‧‧‧Lighting module

81‧‧‧ lights

82‧‧‧Battery

85‧‧‧Lights

86‧‧‧Light guide

861‧‧‧ hole

90‧‧‧ pen agency

91‧‧‧ pen tube

92‧‧‧ pen head

93‧‧‧decorative ring

94‧‧‧Refill

95‧‧‧Refill elastic parts

96‧‧‧ pen pressing assembly

Claims (20)

A device having a rotating effect, comprising: an outer cylinder; a rotating drum disposed in the outer cylinder; a rotating mechanism coupled with the rotating drum to rotate the rotating drum; and a pressing mechanism coupled with the outer cylinder, wherein The pressing mechanism includes a pressing stroke and a releasing stroke. When the pressing stroke is performed, the pressing mechanism activates the rotating mechanism to perform a first direction rotation. When the releasing stroke is performed, the rotating mechanism performs a second direction rotation. The second direction is opposite to the first direction of rotation; and a speed reduction mechanism is coupled to the drum for slowing the rotation of the drum. The device of claim 1, wherein the rotating mechanism further comprises a rotating member, a fitting member, and a rotating elastic member, the rotating elastic member connecting the rotating member and the fitting member at both ends And the rotating member and the engaging member are combined, the rotating member is disposed under the rotating cylinder and engaged with the rotating barrel, so that the rotating member performs the first direction of rotation to twist the rotating elasticity during the pressing stroke And in the releasing stroke, the rotating elastic member drives the rotating member to rotate in the second direction, so that the rotating member drives the rotating drum to rotate, and the speed reducing mechanism slows down the rotating speed of the rotating drum. The device of claim 2, wherein the pressing mechanism comprises a pressing end, a rotating driving rod and an elastic member. According to the above configuration, when the pressing end is at the pressing stroke, The rotation drives the rod forward, and when the pressing end is in the releasing stroke, the elastic member drives the rotation to move the rod backward. The device of claim 3, wherein the rotating mechanism further comprises a rotation guide that drives the rotation guide to perform the first direction rotation when the rotation of the rotation rod is advanced, so that the rotation guide The piece drives the drum to perform the first direction of rotation, and the drum thus drives the rotating member to perform the first direction of rotation. A device having a rotating effect as described in claim 4, wherein the speed reducing mechanism includes a guide ring and a damper member, and the drum is engaged with the guide ring. A device having a rotating effect as described in claim 5, wherein the damping member is a damping oil such that the damping oil slows the rotation speed of the rotating drum. The device of claim 6, wherein the guide ring comprises a ring-shaped groove, and the drum is provided with a corresponding mud-proof guide, the damping oil is disposed in the ring-shaped groove. . The device of claim 7, wherein the rotary driving rod comprises a rotating wing, the rotating guiding member comprises a guiding groove, and the rotating wing drives the guiding groove when the rotating driving rod advances The rotation guide is caused to rotate in the first direction. The device of claim 4, wherein the rotating driving rod comprises a rotating wing, the rotating guiding member comprises a guiding groove, and the rotating wing drives the guiding groove when the rotating driving rod advances The rotation guide is caused to rotate in the first direction. The apparatus of claim 9, wherein the outer cylinder comprises an upper outer cylinder and a main outer cylinder, the upper outer cylinder and the main outer cylinder are combined, and the pressing end is disposed on the outer outer Above the tube. The device of claim 10, further comprising an inner cylinder, wherein the inner cylinder is disposed in the rotating cylinder, and the rotating driving rod and the elastic member are disposed in the inner cylinder According to the above configuration, when the pressing end is in the pressing stroke, the rotating driving rod advances, and when the pressing end is in the releasing stroke, the elastic member drives the rotating driving rod to retreat. The device having a rotating effect according to claim 11, wherein the rotating guide is disposed in the rotating cylinder, and the rotating guide engages with the rotating cylinder when the rotating driving rod advances, and when the rotating When the driving rod is retracted, the rotating driving rod disengages the rotating guide from the rotating drum. The device of claim 12, wherein the speed reduction mechanism comprises a guide ring and a damping member, the guide ring is disposed on the upper outer tube, and the rotating tube is engaged with the guide ring. A device having a rotating effect as described in claim 13 of the patent application, further comprising a lighting module. The device of claim 14, wherein the light-emitting module comprises a light, a battery and a light guide, and the light guide is disposed in the inner cylinder. The device having a rotating effect as described in claim 10 of the patent application further includes a mechanism which is combined with the outer cylinder. The device having a rotating effect according to claim 16, wherein the pen mechanism comprises a tube, a core, a core elastic member and a pressing component, and the pen tube is combined with the outer tube, and the pen pressing assembly is used. To control the pen core to enter and exit the pen tube, the rotation driving rod pushes the pen pressing assembly when the rotating rod moves forward. The apparatus of claim 10, wherein the main outer cylinder comprises an inner cylinder and an outer cylinder, and the drum is located between the inner cylinder and the outer cylinder, wherein the inner cylinder The layer cylinder is used to hold a liquid. The device of claim 18, wherein the rotating drum comprises a drum chassis, the rotating guide is disposed above the drum chassis, and the speed reducing mechanism comprises a guide ring and a damping member. The speed reduction mechanism is disposed below the drum chassis. The device having a rotating effect as described in claim 18, wherein the pressing mechanism further comprises a pressing tube device, the pressing tube device comprising a straw disposed in the inner tube.