Shapable tubular device

1 . A shapable tubular device configured to transfer mechanical energy, comprising:

an elongated silicone tube;

shapable keels disposed inside the elongated silicone tube along an extension direction of the elongated silicone tube; and

vibration units disposed inside the elongated silicone tube along the extension direction of the elongated silicone tube;

wherein the elongated silicone tube is closed at two ends thereof, and a portion of an outer surface of the elongated silicone tube is configured to transfer the mechanical energy of the shapable tubular device to an external object;

wherein the shapable keels are configured to deform the elongated silicone tube during operation, so that a portion of the outer surface of the elongated silicone tube is adapted to a contour of the external object;

wherein the vibration units are configured to transmit the mechanical energy generated during operation to the elongated silicone tube from inside to outside;

wherein a vibration motor is disposed in a head portion of the elongated silicone tube and corresponds to a lower jaw on a thoracico-abdominal outer surface of an extension section, and the vibration motor is configured to transfer the mechanical energy to a top portion of the external object;

wherein a control system of the vibration units is accommodated in a rigid skull, and the rigid skull is disposed inside the head portion of the elongated silicone tube;

wherein a retractable neck of the rigid skull is connected to a head end of a top shapable keel of the shapable keels.

2 . The shapable tubular device according to claim 1 , wherein the shapable keels and the vibration units are alternately disposed along the extension direction of the elongated silicone tube to improve an overall shapeability of the elongated silicone tube and ensure uniformity of vibration distribution.

3 . The shapable tubular device according to claim 1 , wherein an operating surface of the control system is disposed on the head portion of the elongated silicone tube and is corresponding to an upper jaw of a spinal outer surface of the extension section of the elongated silicone tube, and the operating surface of the control system is configured for a user to operate.

4 . The shapable tubular device according to claim 3 , wherein a connecting line of the control system and the vibration units passes through inner cores of the shapable keels.

5 . The shapable tubular device according to claim 4 , wherein two ends of each of the vibration units distributed along a center line of each of the vibration units are respectively a square end and a circular end.

6 . The shapable tubular device according to claim 5 , wherein the vibration units and the shapable keels are connected through sleeve structures.

7 . The shapable tubular device according to claim 6 , wherein each of the sleeve structures comprises a square tube joint and a circular tube joint,

wherein each square tube joint is connected to a corresponding one of the shapable keels and the square end of a corresponding one of the vibration units;

wherein each circular tube joint is connected to a corresponding one of the shapable keels and the circular end of a corresponding one of the vibration units.

8 . The shapable tubular device according to claim 7 , wherein each square tube joint comprises a square end sleeve and a keel tail sleeve coaxially disposed with the square end sleeve;

wherein each square end sleeve comprises two parallel inner surfaces and two arc-shaped inner surfaces, and the two arc-shaped inner surfaces thereof protrude outwards and are configured to separate the two parallel inner surfaces thereof;

wherein the two parallel inner surfaces of each square end sleeve are configured to match with two parallel outer surfaces of the square end of a corresponding one of the vibration units, and the two arc-shaped inner surfaces of each square end sleeve are configured to match with two arc-shaped outer surfaces of the square end of the corresponding one of the vibration units;

wherein each keel tail sleeve is sleeved on a tail end of a corresponding one of the shapable keels.

9 . The shapable tubular device according to claim 8 , wherein each circular tube joint comprises a circular end sleeve and a keel head sleeve coaxially disposed with the circular end sleeve;

wherein each circular end sleeve is connected to a round end of a corresponding one of the vibration units, and each keel head sleeve is sleeved on a head end of a corresponding one of the shapable keels.

10 . The shapable tubular device according to claim 9 , wherein a T-shaped joint is disposed between the rigid skull and the top shapable keel, and the connecting line connecting the control system and the vibration units is partially disposed inside the T-shaped joint.

11 . The shapable tubular device according to claim 10 , wherein a tail end of a vertical sleeve of the T-shaped joint is sleeved with the head end of the top shapable keel, a cross-shaped end of the T-shaped joint is mounted inside the retractable neck of the rigid skull, and the cross-shaped end of the T-shaped joint comprises horizontal plugs.

12 . The shapable tubular device according to claim 11 , wherein through holes are defined on two sides of the retractable neck, and the through holes are coaxially disposed;

wherein the shapable tubular device further comprises screws, and each of the screws passes through a corresponding one of the through holes to screw with a corresponding one of the horizontal plugs.

13 . A shapable tubular device configured to transfer mechanical energy, comprising:

an elongated silicone tube;

shapable keels disposed inside the elongated silicone tube along an extension direction of the elongated silicone tube; and

vibration units disposed inside the elongated silicone tube along the extension direction of the elongated silicone tube;

wherein the elongated silicone tube is closed at two ends thereof, and a portion of an outer surface of the elongated silicone tube is configured to transfer the mechanical energy of the shapable tubular device to an external object;

wherein the shapable keels are configured to deform the elongated silicone tube during operation, so that a portion of the outer surface of the elongated silicone tube is adapted to a contour of the external object;

wherein the vibration units are configured to transmit the mechanical energy generated during operation to the elongated silicone tube from inside to outside;

wherein a tail portion of the elongated silicone tube is coiled into a base ring, and the base ring is configured to be sleeved on a root of an external object;

wherein the elongated silicone tube comprises an extension section extending from the tail portion thereof to a head portion thereof, a thoracico-abdominal outer surface of the extension section is longitudinally contractible and bent, a spinal outer surface of the extension section is longitudinally expandable and bent, and the extension section is capable of being spirally wound on the external object;

wherein a center line of the extension section is substantially coincident with a center line of the base ring, so that the thoracico-abdominal outer surface of the extension section is in an approximate cylindrical shape to adapt to the external object, and the thoracico-abdominal outer surface of the extension section is configured to transfer the mechanical energy to a cylindrical surface of the external object.

14 . The shapable tubular device according to claim 13 , wherein a transition section is connected between the base ring and the extension section extending toward the head portion of the elongated silicone tube, shapes and sizes of cross sections of the transition section gradually change.

15 . The shapable tubular device according to claim 14 , wherein the cross sections of the transition section comprise a circular cross section connected to the base ring and a flat ring-shaped cross section connected to the extension section.

16 . A shapable tubular device configured to transfer mechanical energy, comprising:

an elongated silicone tube;

shapable keels disposed inside the elongated silicone tube along an extension direction of the elongated silicone tube; and

vibration units disposed inside the elongated silicone tube along the extension direction of the elongated silicone tube;

wherein the elongated silicone tube is closed at two ends thereof, and a portion of an outer surface of the elongated silicone tube is configured to transfer the mechanical energy of the shapable tubular device to an external object;

wherein the shapable keels are configured to deform the elongated silicone tube during operation, so that a portion of the outer surface of the elongated silicone tube is adapted to a contour of the external object;

wherein the vibration units are configured to transmit the mechanical energy generated during operation to the elongated silicone tube from inside to outside;

wherein positioning grooves configured to accommodate the vibration units are defined on an inner wall of the elongated silicone tube, and the positioning grooves are configured to prevent the vibration units from moving and prevent the vibration units from longitudinally squeezing the shapable keels.

17 . The shapable tubular device according to claim 16 , wherein a deformation space is defined between outer walls of the shapable keels and the inner wall of the elongated silicone tube, and the deformation space allows the shapable tubular device to be in a working state or in a storage state.