BUCKLE ASSEMBLY

Abstract

A buckle assembly can include a first buckle, a second buckle, and an operating component. The first buckle component can include a locked portion. The second buckle component can be configured to be engaged with the first buckle component, and the second buckle component can include a locking portion engageable with the locked portion. The operating component can be partially embedded in the second buckle component and partially exposed out of the second buckle component. The operating component can be slidable relative to the second buckle component such that sliding movement of the operating component relative to the second buckle component causes disengagement between the first buckle component and the second buckle component. The operating component can include an abutting portion, and the abutting portion can abut against the locking portion to resiliently deform the locking portion during the sliding movement of the operating component.

Description

FIELD OF THE INVENTION

The present invention relates to a child product, and more specifically, to a buckle assembly.

BACKGROUND OF THE INVENTION

With development of economy and advancement of technology, there are more and more consumer products available in the market to bring convenience in people's life. Child carriers are one of the consumer products.

It is well-known that straps are indispensable for the child carriers, and buckle assemblies are commonly used on the straps for fastening and unfastening the straps.

Currently, a conventional buckle assembly includes a male buckle, a female buckle for engaging with the male buckle and a release button. The male buckle the female buckle can be disengaged from each other by the release button. The release button is usually located at a front surface or a rear surface of one of the male buckle and the female buckle for providing an easy access for a user to operate the release button. However, since the release button is located at such a conspicuous place, it is easy for a child sitting in a child carrier to recognize existence of the release button, which leads to a potential hazard caused by an unintentional release operation of the buckle assembly due to the child's subconscious touching. Meanwhile, when the release button of the conventional buckle assembly is operated, it is required to apply a great force on the release button, which causes a difficulty in the release operation. Furthermore, the configuration of the release button located at the front surface or the rear surface of the one of the male buckle and the female buckle increases a possibility of being hit by other objects, which also leads to the potential hazard caused by the unintentional release operation of the buckle assembly. Although there is a buckle assembly having an inconspicuous release button, such buckle assembly has a complicated structure and a difficult release operation.

Therefore, there is a need to provide an improved buckle assembly to solve the aforementioned problems.

SUMMARY OF THE INVENTION

It is an objective of the present invention to provide a buckle assembly with an inconspicuous operating component and easy operation.

In order to achieve the aforementioned objective, the present invention discloses a buckle assembly. The buckle assembly includes a first buckle component, a second buckle component and an operating component. The first buckle component includes a locked portion. The second buckle component includes a locking portion configured to cooperate with the locked portion. The locking portion engages with the locked portion along a lateral direction of the buckle assembly when the second buckle component is mated with the first buckle component along a mating direction. The operating component is partially embedded in the second buckle component and partially exposed out of the second buckle component. The operating component is configured to cooperate with the locking portion and slidable relative to the second buckle component. The operating component drives the locking portion to move away from the locked portion for disengaging the locking portion from the locked portion during a sliding movement of the operating component relative to the second buckle component.

According to an embodiment of the present invention, the locked portion is located at a front surface of the first buckle component.

According to an embodiment of the present invention, the locking portion is a resilient structure, and the operating component resiliently deforms the locking portion for disengaging the locking portion from the locked portion during the sliding movement of the operating component relative to the second buckle component.

According to an embodiment of the present invention, the locking portion includes a resilient arm and a locking head connected to the resilient arm. The resilient arm is configured to cooperate with the operating component. The locking head is configured to engage with the locked portion. The resilient arm is biased to engage the locking head with the locked portion, and the operating component resiliently deforms the resilient arm for disengaging the locking head from the locked portion during the sliding movement of the operating component relative to the second buckle component.

According to an embodiment of the present invention, the operating component is slidable relative to the second buckle component along the lateral direction. An abutting portion protrudes from the operating component along the lateral direction. A cooperating portion is formed on a free end of the resilient arm and for cooperating with the abutting portion, and the operating component abuts against the cooperating portion by the abutting portion to resiliently deform the resilient arm for disengaging the locking head from the locked portion during the sliding movement of the operating component relative to the second buckle component.

According to an embodiment of the present invention, the cooperating portion is aligned with the abutting portion along the lateral direction.

According to an embodiment of the present invention, the locking head protrudes from an inner wall of the resilient arm along the lateral direction, and the cooperating portion is adjacent to the locking head.

According to an embodiment of the present invention, the locking head and the cooperating portion are sequentially arranged along a direction from a fixing end of the resilient arm toward the free end of the resilient arm.

According to an embodiment of the present invention, the locking portion is detachably connected to the second buckle component.

According to an embodiment of the present invention, the locking portion further includes an engaging bracket fixedly connected to a fixing end of the resilient arm. An engaged structure is formed on the second buckle component and for detachably engaging with the engaging bracket, and the engaging bracket is detachably embedded into the engaged structure.

According to an embodiment of the present invention, the engaged structure includes at least two engaged rods spaced apart from each other. The engaging bracket is embedded between the at least two engaged rods. Each of the at least two engaged rods includes an upper restraining part and a lower restraining part. The upper restraining part and the lower restraining part are configured to restrain movement of the engaging bracket, and the engaging bracket is located between the upper restraining part and the lower restraining part when the engaging bracket is detachably embedded into the engaged structure.

According to an embodiment of the present invention, the engaging bracket includes a step-shaped structure for engaging with the lower restraining part when the engaging bracket is detachably embedded into the engaged structure.

According to an embodiment of the present invention, an avoiding space is formed between the at least two engaged rods and for allowing the resilient arm to move.

According to an embodiment of the present invention, the locked portion includes an abutting structure and a locked structure. The abutting structure abuts against the locking head to resiliently deform the resilient arm during a mating process of the first buckle component and the second buckle component. The locked structure is configured to engage with the locking head, and the operating component resiliently deforms the resilient arm for disengaging the locking head from the locked structure during the sliding movement of the operating component relative to the second buckle component.

According to an embodiment of the present invention, an end portion of the abutting structure includes a first inclined part inclined relative to the mating direction. The locking head includes a second inclined part for cooperating with the first inclined part, and the abutting structure resiliently deforms the resilient arm by abutment of the first inclined part and the second inclined part to pass across the locking head for engaging the locked structure with the locking head during the mating process of the first buckle component and the second buckle component.

According to an embodiment of the present invention, the locked structure is an enclosed recess, and the locking head is configured to engage with the enclosed recess.

According to an embodiment of the present invention, the locking portion includes a first locking portion and a second locking portion. The first locking portion and the second locking portion are located at two opposite sides of the locked portion and clamp the locked portion along the lateral direction. The operating component includes a first operating component and a second operating component. The first operating component and the first locking portion are located at a same side. The second operating component and the second locking portion are located at another same side. The first operating component is configured to cooperate with the second locking portion. The second operating component is configured to cooperate with the first locking portion, and the first operating component and the second operating component respectively deform the second locking portion and the first locking portion for disengaging the first locking portion and the second locking portion from the locked portion during the sliding movement of the operating component relative to the second buckle component.

According to an embodiment of the present invention, the first locking portion includes a first resilient arm and a first locking head connected to the first resilient arm. The first resilient arm is configured to cooperate with the second operating component. The first locking head is configured to engage with the locked portion. The first resilient arm is biased to engage the first locking head with the locked portion. The second operating component is configured to resiliently deform the first resilient arm for disengaging the first locking head from the locked portion. The second locking portion includes a second resilient arm and a second locking head connected to the second resilient arm. The second resilient arm is configured to cooperate with the first operating component. The second locking head is configured to engage with the locked portion. The second resilient arm is biased to engage the second locking head with the locked portion, and the first operating component is configured to resiliently deform the second resilient arm for disengaging the second locking head from the locked portion.

According to an embodiment of the present invention, the first operating component is slidable relative to the second buckle component along the lateral direction. A first abutting portion protrudes from the first operating component along the lateral direction. A second cooperating portion is formed on a free end of the second resilient arm and for cooperating with the first abutting portion. The first operating component abuts against the second cooperating portion by the first abutting portion to resiliently deform the second resilient arm for disengaging the second locking head from the locked portion during a sliding movement of the first operating component relative to the second buckle component. The second operating component is slidable relative to the second buckle component along the lateral direction. A second abutting portion protrudes from the second operating component along the lateral direction. A first cooperating portion is formed on a free end of the first resilient arm and for cooperating with the second abutting portion, and the second operating component abuts against the first cooperating portion by the second abutting portion to resiliently deform the first resilient arm for disengaging the first locking head from the locked portion during a sliding movement of the second operating component relative to the second buckle component.

According to an embodiment of the present invention, the first cooperating portion is aligned with the second abutting portion along the lateral direction, and the second cooperating portion is aligned with the first abutting portion along the lateral direction.

According to an embodiment of the present invention, the first locking head protrudes from an inner wall of the first resilient arm along the lateral direction. The first cooperating portion is adjacent to the first locking head. The second locking head protrudes from an inner wall of the second resilient arm along the lateral direction, and the second cooperating portion is adjacent to the first locking head.

According to an embodiment of the present invention, the first locking head and the first cooperating portion are sequentially arranged along a direction from a fixing end of the first resilient arm to the free end of the first resilient arm, and the second locking head and the second cooperating portion are sequentially arranged along a direction from a fixing end of the second resilient arm to the free end of the second resilient arm.

According to an embodiment of the present invention, the first cooperating portion and the second cooperating portion are located at different levels along an up-down direction of the buckle assembly, and the first abutting portion and the second abutting portion are located at different levels along the up-down direction.

According to an embodiment of the present invention, the first cooperating portion is misaligned with the second cooperating portion along the lateral direction, and the first abutting portion is misaligned with the second abutting portion along the lateral direction.

According to an embodiment of the present invention, the buckle assembly further includes a first magnetic structure and a second magnetic structure. The first magnetic structure is disposed on the first buckle component. The second magnetic structure is disposed on the second buckle component, and the first magnetic structure magnetically attracts or repels the second magnetic structure during the mating process of the first buckle component and the second buckle component.

According to an embodiment of the present invention, a first embedding chamber is formed on the first buckle component. A second embedding chamber is formed on the second buckle component. The first magnetic structure is embedded into the first embedding chamber, and the second magnetic structure is embedded into the second embedding chamber.

According to an embodiment of the present invention, the first embedding chamber is aligned with the second embedding chamber along the mating direction.

According to an embodiment of the present invention, a mating hole is formed on the second buckle component and for allowing the locked portion to pass therethrough.

According to an embodiment of the present invention, the buckle assembly further includes a resilient component disposed between the operating component and the second buckle component and for biasing the operating component to slide away from the locking portion.

According to an embodiment of the present invention, a C-shaped structure is formed on the second buckle component and for accommodating the resilient component.

According to an embodiment of the present invention, a restraining protrusion protrudes from the operating component. The second buckle component includes a restraining block for cooperating with the restraining protrusion, and the second buckle component blocks the operating component by abutment of the restraining block and the restraining protrusion for preventing disengagement of the operating component and the second buckle component.

According to an embodiment of the present invention, one of the first buckle component and the second buckle component is a male buckle, and another of the first buckle component and the second buckle component is a female buckle.

According to an embodiment of the present invention, the locking portion includes a rotating arm, a locking head and a recovering component. The rotating arm is pivotally connected to the second buckle component. The locking head is connected to the rotating arm and for engaging with the locked portion. The operating component is configured to drive the rotating arm to rotate for disengaging the locking head from the locked portion, and the recovering component is disposed between the rotating arm and the second buckle component and for biasing the rotating arm to rotate to engage the locking head with the locked portion.

According to an embodiment of the present invention, the operating component is slidable relative to the second buckle component along the lateral direction. An abutting portion protrudes from the operating component along the lateral direction. A cooperating portion is formed on the rotating arm and for cooperating with the abutting portion. The cooperating portion is aligned with the abutting portion along the lateral direction, and the operating component drives the rotating arm to rotate by abutment of the abutting portion and the cooperating portion for disengaging the locking head from the locked portion during the sliding movement of the operating component relative to the second buckle component.

According to an embodiment of the present invention, the operating component is slidable relative to the second buckle component along an extending direction perpendicular to the lateral direction and the mating direction. An abutting portion protrudes from the operating component along the extending direction. A cooperating portion is formed on the rotating arm and for cooperating with the abutting portion. The cooperating portion is aligned with the abutting portion along the mating direction, and the operating component drives the rotating arm to rotate by abutment of the abutting portion and the cooperating portion for disengaging the locking head from the locked portion during the sliding movement of the operating component.

According to an embodiment of the present invention, the operating component is slidable relative to the second buckle component along the mating direction. An abutting portion protrudes from the operating component along the mating direction. A cooperating portion is formed on the rotating arm and for cooperating with the abutting portion. The cooperating portion is aligned with the abutting portion along the mating direction, and the operating component drives the rotating arm to rotate by abutment of the abutting portion and the cooperating portion for disengaging the locking head from the locked portion during the sliding movement of the operating component.

According to an embodiment of the present invention, the locking portion includes a first locking portion and a second locking portion. The first locking portion and the second locking portion are located at two opposite sides of the locked portion and clamp the locked portion along the lateral direction. The first locking portion includes a first rotating arm, a first locking head and a first recovering component. The first rotating arm is pivotally connected to the second buckle component. The first locking head is connected to the first rotating arm and for engaging with the locked portion. The first locking head protrudes from an inner wall of the first rotating arm along the lateral direction. The first recovering component is disposed between the first rotating arm and the second buckle component and for biasing the first rotating arm to rotate to engage the first locking head with the locked portion. The second locking portion includes a second rotating arm, a second locking head and a second recovering component. The second rotating arm is pivotally connected to the second buckle component. The second locking head is connected to the second rotating arm and for engaging with the locked portion. The second locking head protrudes from an inner wall of the second rotating arm along the lateral direction, and the second recovering component is disposed between the second rotating arm and the second buckle component and for biasing the second rotating arm to rotate to engage the second locking head with the locked portion.

According to an embodiment of the present invention, the operating component includes a first operating component and a second operating component. The first operating component and the first locking portion are located at a same side. The second operating component and the second locking portion are located at another same side. The first operating component and the second operating component are slidable relative to the second buckle component along the lateral direction. A first abutting port ion protrudes from the first operating component along the lateral direction. A second cooperating portion is formed on the second rotating arm and for cooperating with the first abutting portion. The second cooperating portion is aligned with the first abutting portion along the lateral direction. The first operating component drives the second rotating arm to rotate by abutment of the first abutting portion and the second cooperating portion for disengaging the second locking head from the locked portion during a sliding movement of the first operating component. A second abutting portion protrudes from the second operating component along the lateral direction. A first cooperating portion is formed on the first rotating arm and for cooperating with the second abutting portion. The first cooperating portion is aligned with the second abutting portion along the lateral direction. The second operating component drives the first rotating arm to rotate by abutment of the second abutting portion and the first cooperating portion for disengaging the first locking head from the locked portion during a sliding movement of the second operating component. The first cooperating portion and the second cooperating portion are located at different levels along an up-down direction of the buckle assembly. The first cooperating portion is misaligned with the second cooperating portion along the lateral direction. The first abutting portion and the second abutting portion are located at different levels along the up-down direction of the buckle assembly, and the first abutting portion is misaligned with the second abutting portion along the lateral direction.

According to an embodiment of the present invention, the operating component is slidable relative to the second buckle component along an extending direction perpendicular to the lateral direction and the mating direction. A first abutting portion and a second abutting portion protrude from the operating component along the extending direction. A second cooperating portion is formed on the second rotating arm and for cooperating with the first abutting portion. The second cooperating portion is aligned with the first abutting portion along the extending direction. A first cooperating portion is formed on the first rotating arm and for cooperating with the second abutting portion. The first cooperating portion is aligned with the second abutting portion along the extending direction, and the operating component drives the first rotating arm and the second rotating arm to rotate by abutment of the second abutting portion and the first cooperating portion and abutment of the first abutting portion and the second cooperating portion for disengaging the first locking head and the second locking head from the locked portion during the sliding movement of the operating component.

According to an embodiment of the present invention, the operating component is slidable relative to the second buckle component along the mating direction. A first abutting portion and a second abutting portion protrude from the operating component along the mating direction. A second cooperating portion is formed on the second rotating arm and for cooperating with the first abutting portion. The second cooperating portion is aligned with the first abutting portion along the mating direction. A first cooperating portion is formed on the first rotating arm and for cooperating with the second abutting portion. The first cooperating portion is aligned with the second abutting portion along the mating direction, and the operating component drives the first rotating arm and the second rotating arm to rotate by abutment of the second abutting portion and the first cooperating portion and abutment of the first abutting portion and the second cooperating portion for disengaging the first locking head and the second locking head from the locked portion during the sliding movement of the operating component.

In summary, in the present invention, the operating component is disposed on the second buckle component including the locking portion which cooperates with the locked portion of the first buckle component. The operating component drives the locking portion to disengage the locking portion from the locked portion when the operating component is operated. Therefore, the present invention has advantages of simple structure and labor-saving and easy operation.

These and other objectives of the present invention will no doubt become obvious to those of ordinary skill in the art after reading the following detailed description of the preferred embodiment that is illustrated in the various figures and drawings.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a schematic diagram of a buckle assembly according to a first embodiment of the present invention.

FIG. 2 is a diagram of a second buckle component of the buckle assembly according to the first embodiment of the present invention.

FIG. 3 and FIG. 4 are exploded diagrams of the buckle assembly according to the first embodiment of the present invention.

FIG. 5 is a partial diagram of the buckle assembly according to the first embodiment of the present invention.

FIG. 6 is a sectional diagram of the buckle assembly according to the first embodiment of the present invention.

FIG. 7 is a schematic diagram of a buckle assembly according to a second embodiment of the present invention.

FIG. 8 is an exploded diagram of the buckle assembly according to the second embodiment of the present invention.

FIG. 9 and FIG. 10 are diagrams of the buckle assembly in different states according to the second embodiment of the present invention.

FIG. 11 is a schematic diagram of a buckle assembly according to a third embodiment of the present invention.

FIG. 12 is a partial diagram of the buckle assembly according to the third embodiment of the present invention.

FIG. 13 is an exploded diagram of the buckle assembly according to the third embodiment of the present invention.

FIG. 14 and FIG. 15 are diagrams of the buckle assembly in different states according to the third embodiment of the present invention.

FIG. 16 is a schematic diagram of a buckle assembly according to a fourth embodiment of the present invention.

FIG. 17 is a partial diagram of the buckle assembly according to the fourth embodiment of the present invention.

FIG. 18 is an exploded diagram of the buckle assembly according to the fourth embodiment of the present invention.

FIG. 19 and FIG. 20 are diagrams of the buckle assembly in different states according to the fourth embodiment of the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

In order to illustrate technical specifications and structural features as well as achieved purposes and effects of the present invention, relevant embodiments and figures are described as follows.

Please refer to FIG. 1 to FIG. 6. FIG. 1 is a schematic diagram of a buckle assembly 100 according to a first embodiment of the present invention. FIG. 2 is a diagram of a second buckle component 2 of the buckle assembly 100 according to the first embodiment of the present invention. FIG. 3 and FIG. 4 are exploded diagrams of the buckle assembly 100 according to the first embodiment of the present invention. FIG. 5 is a partial diagram of the buckle assembly 100 according to the first embodiment of the present invention. FIG. 6 is a sectional diagram of the buckle assembly 100 according to the first embodiment of the present invention. As shown in FIG. 1 to FIG. 6, the buckle assembly 100 includes a first buckle component 1, the second buckle component 2, an operating component 3 and two resilient components 6. The second buckle component 2 includes a locking portion 4. The first buckle component 1 includes a locked portion 5 configured to cooperate with the locking portion 5. The locking portion 4 engages with the locked portion 5 along a lateral direction when the first buckle component 1 is mated with the second buckle component 2 along a mating direction, which can be an arrow direction P shown in FIG. 6. In this embodiment, the first buckle component 1 can be a male buckle, and the second buckle component 2 can be a female buckle. However, it is not limited to this embodiment. In another embodiment, the first buckle component can be a female buckle, and the second buckle component can be a male buckle.

The operating component 3 is partially embedded into the second buckle component 2 and partially exposed out of a lateral wall of the second buckle component 2. The operating component 3 is configured to cooperate with the locking portion 4 and slidable relative to the second buckle component 2 along the lateral direction. It should be noticed that, in this embodiment, the lateral direction can be an arrow direction M1 or M2 shown in FIG. 5. The operating component 3 drives the locking portion 4 to move away from the locked portion 5 for disengaging the locking portion 4 from the locked portion 5 during a sliding movement of the operating component 3 relative to the second buckle component 2 along the lateral direction. A sliding direction of the operating component 3 can be the same as or opposite a moving direction of the locking portion 4, so that a force acting on the operating component 3 and provided by a user can be completely transmitted to the locking portion 4 along the sliding direction to disengage the locking portion 4 from the locked portion 5, which prevents dispersion of the force in different directions to ensure a labor-saving and easy release operation of the buckle assembly 100.

The locked portion 5 is located at a front surface of the first buckle component 1. A mating hole 21 is formed on the second buckle component 2 for allowing the locked portion 5 to pass therethrough, and the mating direction, which can be the arrow direction P shown in FIG. 6, is intersected with the sliding direction of the operating component 3, which can be the arrow direction M1 or M2 shown in FIG. 5. Such configuration can reduce a thickness of the buckle assembly 100 along the mating direction and allow a reasonable use of an internal space of the buckle assembly 100.

Specifically, as shown in FIG. 3 to FIG. 6, the locking portion 4 is a resilient structure. The operating component 3 resiliently deforms the locking portion 4 along the lateral direction for disengaging the locking portion 4 from the locked portion 5 during the sliding movement of the operating component 3 relative to the second buckle component 2. More specifically, the locking portion 4 includes a first locking portion 4a and a second locking portion 4b. The first locking portion 4a and the second locking portion 4b are located at two opposite sides of the locked portion 5 and clamp the locked portion 5 along the lateral direction. The operating component 3 includes a first operating component 3a and a second operating component 3b. The first operating component 3a and the first locking portion 4a are located at a same side. The second operating component 3b and the second locking portion 4b are located at another same side. The first operating component 3a is configured to cooperate with the second locking portion 4b. The second operating component 3b is configured to cooperate with the first locking portion 4a. The first operating component 3a and the second operating component 3b respectively deform the second locking portion 4b and the first locking portion 4a away from the locked portion 5 for disengaging the first locking portion 4a and the second locking portion 4b from the locked portion 5 during the sliding movement of the operating component 3 relative to the second buckle component 2. By cooperation of the first operating component 3a and the second locking portion 4b and cooperation of the second operating component 3b and the first locking portion 4a, an engaging operation and the release operation of the buckle assembly 100 are more reliable. However, the structures of the operating component and the locking portion are not limited to this embodiment. For example, in another embodiment, the operating component can include one, three or four operating components, and the locking portion can include one, three or four locking portions accordingly.

As shown in FIG. 3 to FIG. 6, the first locking portion 4a includes a first resilient arm 41a and a first locking head 42a connected to the first resilient arm 41a. The first resilient arm 41a is configured to cooperate with the second operating component 3b. The first locking head 42a is configured to engage with the locked portion 5. The first resilient arm 41a is biased to engage the first locking head 42a with the locked portion 5. The second operating component 3b resiliently deforms the first resilient arm 41a away from the locked portion 5 for disengaging the first locking head 42a from the locked portion 5 during a sliding movement of the second operating component 3b relative to the second buckle component 2. The second locking portion 4b includes a second resilient arm 41b and a second locking head 42b connected to the second resilient arm 41b. The second resilient arm 41b is configured to cooperate with the first operating component 3a. The second locking head 42b is configured to engage with the locked portion 5. The second resilient arm 41b is biased to engage the second locking head 42b with the locked portion 5. The first operating component 3a resiliently deforms the second resilient arm 41b away from the locked portion 5 for disengaging the second locking head 42b from the locked portion 5 during a sliding movement of the first operating component 3a relative to the second buckle component 2.

Preferably, in this embodiment, the second operating component 3b can be configured to push the first resilient arm 41a to resiliently deform the first resilient arm 41a away from the locked portion 5, and the first operating component 3a can be configured to push the second resilient arm 41b to resiliently deform the second resilient arm 41b away from the locked portion 5, i.e., the force acting on the operating component 3 and provided by the user can be a pushing force. However, it is not limited to this embodiment. For example, in another embodiment, the first operating component can be configured to pull the first resilient arm to resiliently deform the first resilient arm away from the locked portion, and the second operating component can be configured to pull the second resilient arm to resiliently deform the second resilient arm away from the locked portion, i.e., the force acting on the operating component and provided by the user can be a pulling force. Therefore, it is understandable that the user can push or pull the operating component to resiliently deform the first resilient arm and the second resilient arm away from the locked portion.

As shown in FIG. 3 to FIG. 6, a first abutting portion 31a protrudes from the first operating component 3a along the lateral direction. A second cooperating portion 43b is formed on a free end of the second resilient arm 41b and for cooperating with the first abutting portion 31a. The first operating component 3a resiliently deforms the second resilient arm 41b away from the locked portion 5 by abutment of the first abutting portion 31a and the second cooperating portion 43b for disengaging the second locking head 42b from the locked portion 5. A second abutting portion 31b protrudes from the second operating component 3b along the lateral direction. A first cooperating portion 43a is formed on a free end of the first resilient arm 41a and for cooperating with the second abutting portion 31b. The second operating component 3b resiliently deforms the first resilient arm 41a away from the locked portion 5 by abutment of the second abutting portion 31b and the first cooperating portion 43a for disengaging the first locking head 42a from the locked portion 5. Preferably, the first cooperating portion 43a can be aligned with the second abutting portion 31b along the lateral direction, and the second cooperating portion 43b can be aligned with the first abutting portion 31a along the lateral direction, which makes abutment of the operating component 3 more precise and the release operation of the buckle assembly 100 more labor saving.

As shown in FIG. 3 to FIG. 6, the first locking head 42a protrudes from an inner wall of the first resilient arm 41a along the lateral direction. The first cooperating portion 43a is adjacent to the first locking head 42a. The second locking head 42b protrudes from an inner wall of the second resilient arm 41b along the lateral direction. The second cooperating portion 43b is adjacent to the second locking head 42b. Therefore, when the first abutting portion 31a and the second abutting portion 31b respectively push the second cooperating portion 43b and the first cooperating portion 43a, the first resilient arm 41a and the second resilient arm 41b are resiliently deformed away from the locked portion 5 for disengaging the first locking head 42a and the second locking head 42b from the locked portion 5 rapidly. Preferably, the first locking head 42a and the first cooperating portion 43a can be sequentially arranged along a direction from a fixing end of the first resilient arm 41a toward the free end of the first resilient arm 41a, and the second locking head 42b and the second cooperating portion 43b can be sequentially arranged along a direction from a fixing end of the second resilient arm 41b toward the free end of the second resilient arm 41b. The first cooperating portion 43a and the second cooperating portion 43b can be respectively located at the free end of the first resilient arm 41a and the free end of the second resilient arm 41b, so that the force acting on the operating component 3 and provided by the user for resiliently deforming the first resilient arm 41a and the second resilient arm 41b can be small.

Specifically, the first cooperating portion 43a and the second cooperating portion 43b can be located at different levels along an up-down direction, which can be the arrow direction P shown in FIG. 6, and the first abutting portion 31a and the second abutting portion 31b can be located at different levels along the up-down direction, so that abutment of the first abutting portion 31a and the second cooperating portion 43b and abutment of the second abutting portion 31b and the first cooperating portion 43a occur at different levels, which prevents any structural interface during the sliding movements of the first operating component 3a and the second operating component 3b along the lateral direction and ensures reliability of the release operation of the buckle assembly 100. In this embodiment, heights of the second abutting portion 31b and the first cooperating portion 43a can be higher than heights of the first abutting portion 31a and the second cooperating portion 43a. However, it is not limited to this embodiment.

Preferably, the first cooperating portion 43a can be misaligned with the second cooperating portion 43b along the lateral direction, and the first abutting portion 31a can be misaligned with the second abutting portion 31b along the lateral direction, so that it can reduce an occupied space along the up-down direction and facilitate arrangement of the internal space of the buckle assembly 100. In this embodiment, the first abutting portion 31a and the second cooperating portion 43b can be located ahead the second abutting portion 31b and the first cooperating portion 43a along an extending direction, which can be an arrow direction Q shown in FIG. 6 and perpendicular to the lateral direction and the mating direction. However, it is not limited to this embodiment.

It is understandable that, in another embodiment, when there is only one locking portion located at one side of the locked portion and for engaging with the locked portion, there can be only one operating component located at another side of the locked portion opposite to the locking portion to resiliently push the locking portion away from the locked portion for disengaging the locking portion from the locked portion In other words, the operating component and the locking portion can be located at two opposite sides of the locked portion to push the locking portion by the operating component for disengaging the locking portion from the locked portion. Alternatively, in another embodiment, the operating component and the locking portion can be located at a same side of the locked portion for pulling the locking portion by the operating component for disengaging the locking portion from the locked portion.

As shown in FIG. 3 to FIG. 6, the locked portion 5 includes an abutting structure 51 and a locked structure 52 configured to engage with the two locking heads, i.e., the first locking head 42a and the second locking head 42b. The abutting structure 51 abuts against the two locking heads to resiliently deform the two resilient arms, i.e., the first resilient arm 41a and the second resilient arm 41b, to pass across the two locking heads for allowing the locked structure 52 to engage with the two locking heads during a mating process of the first buckle component 1 and the second buckle component 2. The operating component 3 resiliently deforms the two resilient arms for disengaging the two locking heads from the locked structure 52 during the sliding movement of the operating component 3 relative to the second buckle component 2. Preferably, an end portion of the abutting structure 51 can include a first inclined part 511 inclined relative to the mating direction. Each locking heads includes a second inclined part 421 for cooperating with the first inclined part 511. The abutting structure 51 resiliently deforms the two resilient arms by abutment of the first inclined part 511 and the second inclined parts 421 of the two locking heads to pass across the two locking heads for engaging the locked structure 52 with the two locking heads during the mating process of the first buckle component 1 and the second buckle component 2. Furthermore, the locked structure 52 can be an enclosed recess, and the two locking heads can engage with the enclosed recess. However, it is not limited thereto.

As shown in FIG. 3 to FIG. 5, each resilient component 6 is disposed between the second buckle component 2 and a corresponding one of the first operating component 3a and the second operating component 3b and for biasing the corresponding one of the first operating component 3a and the second operating component 3b to slide away from the locking portion 4, so that the first operating component 3a and the second operating component 3b can be resiliently recovered by the two resilient components 6 when the first operating component 3a and the second operating component 3b are released. However, the number of the resilient component is not limited to this embodiment. For example, in another embodiment, when there is only one operating component, there can be only one resilient component.

Specifically, two C-shaped structures 24 are formed on the second buckle component 2 and for accommodating the two resilient components 6. The two resilient components 6 are respectively disposed between the first operating component 3a and the second buckle component 2 and between the second operating component 3b and the second buckle component 2.

As shown in FIG. 3 to FIG. 5, a restraining protrusion 33 protrudes from each of the first operating component 3a and the second operating component 3b of the operating component 3. Two restraining blocks 25 are formed on the second buckle component 2 and for cooperating with the two restraining protrusions 33. The second buckle component 2 blocks the first operating component 3a and the second operating component 3b of the operating component 3 by abutment of the two restraining blocks 25 and the two restraining protrusions 33 for preventing disengagement of the first operating component 3a and the second operating component 3b of the operating component 3 and the second buckle component 2. However, the number of the restraining block is not limited to this embodiment. For example, in another embodiment, when there is only one operating component, there can be only one restraining block.

As shown in FIG. 3 to FIG. 5, preferably, the locking portion 4 can be detachably connected to the second buckle component 2. Such configuration allows the locking portion 4 or the second buckle component 2 to be replaced easily if being damaged and simplifies a manufacturing process of the buckle assembly 100. Specifically, the locking portion 4 further includes an engaging bracket 44. An engaged structure is formed on the second buckle component 2 and for detachably engaging with the engaging bracket 44. The engaging bracket 44 is fixedly connected to the fixing end of the first resilient arm 41a and the fixing end of the second resilient arm 41b and detachably embedded into the engaged structure. More specifically, the engaged structure includes two engaged rods 22 spaced apart from each other. The engaging bracket 44 is embedded between the two engaged rods 22. Each engaged rod 22 includes an upper restraining part 221 and a lower restraining part 222. The upper restraining part 221 and the lower restraining part 222 are configured to restrain movement of the engaging bracket 44. The engaging bracket 44 is located between the upper restraining part 221 and the lower restraining part 222 when the engaging bracket 44 is detachably embedded into the engaged structure. Preferably, the engaging bracket 44 can includes two step-shaped structures 441 for engaging with the two lower restraining parts 222 when the engaging bracket 44 is detachably embedded into the engaged structure. Such configuration can prevent an unintentional disengagement of the locking portion 4 and the two lower restraining parts 222 and allow a reasonable use of an internal space of the second buckle component 2. Preferably, an avoiding space 9 can be formed between the two engaged rods 22 and for allowing the two resilient arms to move. The two resilient arms protrude out of the avoiding space 9 and are capable of being resiliently deformed to move within the avoiding space 9.

However, the numbers of the engaged rod and the step-shaped structure are not limited to this embodiment. For example, in another embodiment, the engaged structure can include one, three or more engaged rods, and the engaging bracket can include one, three or more step-shaped structures accordingly.

As shown in FIG. 3 to FIG. 6, the buckle assembly 100 further includes a first magnetic structure 7 and a second magnetic structure 8. The first magnetic structure 7 is disposed on the first buckle component 1. The second magnetic structure 8 is disposed on the second buckle component 2. The first magnetic structure 7 and the second magnetic structure 8 can magnetically attract each other during the mating process of the first buckle component 1 and the second buckle component 2, which makes mating of the first buckle component 1 and the second buckle component 2 more rapid. On the other hand, even if the locking portion 4 and the locked portion 5 are disengaged from each other, the first buckle component 1 and the second buckle component 2 can be prevented from being separated from each other due to magnetic attraction of the first magnetic structure 7 and the second magnetic structure 8, which ensure safety of the buckle assembly 100. However, it is not limited to this embodiment. For example, in another embodiment, the first magnetic structure and the second magnetic structure can be configured to magnetically repel each other during the mating process of the first buckle component and the second buckle component, which makes the release operation of the buckle assembly 100 more rapid.

Specifically, a first embedding chamber 11 is formed on the first buckle component 1. A second embedding chamber 23 is formed on the second buckle component 2. The first magnetic structure 7 is embedded into the first embedding chamber 11. The second magnetic structure 8 is embedded into the second embedding chamber 23. Preferably, the first embedding chamber 11 can be aligned with the second embedding chamber 23 along the mating direction for enhancing the magnetic attraction of the first magnetic structure 7 and the second magnetic structure 8. However, it is not limited to this embodiment. Specifically, the second embedding chamber 23 can be aligned with a space between the first locking head 42a and the second locking head 42b along the mating direction, as shown in FIG. 6, so as to achieve a reasonable use of a space of the buckle assembly 100, which makes structure of the buckle assembly 100 more compact.

As shown in FIG. 5 and FIG. 6, an operational principle of the buckle assembly 100 is provided as follows. When it is desired to release the buckle assembly 100, the first operating component 3a and the second operating component 3b can be pressed or operated to respectively resiliently deform the second resilient arm 41b and the first resilient arm 41a by the abutment of the first abutting portion 31a and the second cooperating portion 43b and the abutment of the second abutting portion 31b and the first cooperating portion 43a component 3a for disengaging the second locking head 42b and the first locking head 42a from the locked portion 5. When the second locking head 42b and the first locking head 42a are disengaged from the locked portion 5, i.e., the buckle assembly 100 is in a releasing state, the first buckle component 1 can be separated from the second buckle component 2 to locate the buckle assembly 100 in a separation state. Afterwards, when the first operating component 3a and the second operating component 3b are released, the two resilient components 6 drive the first operating component 3a and the second operating component 3b to recover.

When it is desired to engage the first buckle component 1 with the second buckle component 2, the locked portion 5 can be inserted into the mating hole 21 so as to abut against the first locking head 42a and the second locking head 42b by the abutting structure 51 to resiliently deform the first resilient arm 41a and the second resilient arm 41b for allowing the abutting structure 51 to pass across the first locking head 42a and the second locking head 42b. When the abutting structure 51 passes across the first locking head 42a and the second locking head 42b to align the locked structure 52 with the first locking head 42a and the second locking head 42b, the first locking head 42a and the second locking head 42b can be driven by the first resilient arm 41a and the second resilient arm 41b to engage with the locked structure 52.

Please refer to FIG. 7 to FIG. 10. FIG. 7 is a schematic diagram of a buckle assembly 100′ according to a second embodiment of the present invention. FIG. 8 is an exploded diagram of the buckle assembly 100′ according to the second embodiment of the present invention. FIG. 9 and FIG. 10 are diagrams of the buckle assembly 100′ in different states according to the second embodiment of the present invention. As shown in FIG. 7 to FIG. 10, the buckle assembly 100′ includes the first buckle component 1, a second buckle component 2′, the operating component 3, the two resilient components 6, the first magnetic structure 7 and the second magnetic structure 8. Structures of the first buckle component 1, the operating component 3, the resilient component 6, the first magnetic structure 7 and the second magnetic structure 8 of this embodiment are similar to the ones of the first embodiment. Detailed description is omitted herein for simplicity. The second buckle component 2′ includes a locking portion 4′. The locking portion 4′ includes a first locking portion 4a′ and a second locking portion 4b′. The first locking portion 4a′ and the second locking portion 4b′ are located at the two opposite sides of the locked portion 5 of the first buckle component 1 and clamp the locked portion 5 along the lateral direction, which can be the arrow direction M1 or M2 shown in FIG. 9 and FIG. 10. The first locking portion 4a′ and the first operating component 3a of the operating component 3 are located at a same side. The first locking portion 4a′ is configured to cooperate with the second operating component 3b of the operating component 3. The second locking portion 4b′ and the second operating component 3b of the operating component 3 are located at another same side. The second locking portion 4b′ is configured to cooperate with the first operating component 3a of the operating component 3.

Specifically, the first locking portion 4a′ includes a first rotating arm 41a′ and a first locking head 42a′. The first locking head 42a′ is configured to engage with the locked portion 5. The first rotating arm 41a′ is pivotally connected to the second buckle component 2′ by a first pivoting portion 411a′. A first cooperating portion 43a′ is formed on the first rotating arm 41a′ and for cooperating with the second abutting portion 31b of the second operating component 3b. The first cooperating portion 43a′ is aligned with the second abutting portion 31b along the lateral direction. The first locking head 42a′ is connected to the first rotating arm 41a′ and protrudes from an inner wall of the first rotating arm 41a′ along the lateral direction. The second locking portion 4b′ includes a second rotating arm 41b′ and a second locking head 42b′. The second locking head 42b′ is configured to engage with the locked portion 5. The second rotating arm 41b′ is pivotally connected to the second buckle component 2′ by a second pivoting portion 411b′. A second cooperating portion 43b′ is formed on the second rotating arm 41b′ and for cooperating with the first abutting portion 31a of the first operating component 3a. The second cooperating portion 43b′ is aligned with the first abutting portion 31a along the lateral direction. The second locking head 42b′ is connected to the second rotating arm 41b′ and protrudes from an inner wall of the second rotating arm 41b′ along the lateral direction.

In this embodiment, the first cooperating portion 43a′ and the second cooperating portion 43b′ can be located at different levels along the up-down direction, and the first cooperating portion 43a′ can be misaligned with the second cooperating portion 43b′ along the lateral direction, which prevents any structural interface during a release operation of the buckle assembly 100′ to ensure reliability of the release operation of the buckle assembly 100′ and allows a reasonable use of an internal space of the buckle assembly 100′. Preferably, in this embodiment, the first pivoting portion 411a′ and the second pivoting portion 411b′ can be two slot structures for allowing two pivoting shafts of the second buckle component 2′ to pass there through.

Furthermore, the first locking portion 4a′ further includes a first recovering component 44a′. The second locking portion 4b′ further includes a second recovering component 44b′. The first recovering component 44a′ is disposed between the first rotating arm and the second buckle component 2′ and for biasing the first rotating arm 41a′ to rotate to engage the first locking head 42a′ with the locked portion 5 along the lateral direction. The second recovering component 44b′ is disposed between the second rotating arm and the second buckle component 2′ and for biasing the second rotating arm 41b′ to rotate to engage the second locking head 42b′ with the locked portion 5 along the lateral direction. Preferably, in this embodiment, the first recovering component 44a′ and the second recovering component 44b′ can be two compressed springs. However, it is not limited thereto. For example, in another embodiment, the first recovering component and the second recovering component can be two torsional springs.

When it is desired to release the buckle assembly 100′, the first operating component 3a and the second operating component 3b of the operating component 3 can be pressed or operated to respectively drive the second rotating arm 41b′ and the first rotating arm 41a′ by abutment of the first abutting portion 31a of the first operating component 3a and the second cooperating portion 43b′ of the second locking portion 4b′ and abutment of the second abutting portion 31b of the second operating component 3b and the first cooperating portion 43a′ of the first locking arm 4a′, so as to resiliently compress the second recovering component 44b′ and the first recovering component for disengaging the second locking head 42b′ and the first locking head 42a′ from the locked portion 5. When the second locking head 42b′ and the first locking head 42a′ are disengaged from the locked portion 5, i.e., the buckle assembly 100′ is in the releasing state, the first buckle component 1 can be separated from the second buckle component 2′ to locate the buckle assembly 100′ in a separation state. Afterwards, when the first operating component 3a and the second operating component 3b are released, the two resilient components 6 drive the first operating component 3a and the second operating component 3b to recover.

When it is desired to engage the first buckle component 1 with the second buckle component 2′, the locked portion 5 can be inserted into a mating hole of the second buckle component 2′ so as to abut against the first locking head 42a′ and the second locking head 42b′ by the abutting structure 51 to drive the first rotating arm 41a′ and the second rotating arm 41b′ to rotate to resiliently compress the first recovering component 44a′ and the second recovering component for allowing the abutting structure 51 to pass across the first locking head 42a′ and the second locking head 42b′. When the abutting structure 51 passes across the first locking head 42a′ and the second locking head 42b′ to align the locked structure 52 with the first locking head 42a′ and the second locking head 42b′, the first locking head 42a′ and the second locking head 42b′ can be driven by the first recovering component 44a′ and the second recovering component 44b′ to engage with the locked structure 52.

It is understandable that, in another embodiment, when there is only one locking portion located at one side of the locked portion and for engaging with the locked portion, there can be only one operating component located at another side of the locked portion opposite to the locking portion to resiliently push the locking portion away from the locked portion for disengaging the locking portion from the locked portion In other words, the operating component and the locking portion can be located at two opposite sides of the locked portion to push the locking portion by the operating component for disengaging the locking portion from the locked portion. Alternatively, in another embodiment, the operating component and the locking portion can be located at a same side of the locked portion for pulling the locking portion by the operating component for disengaging the locking portion from the locked portion.

Please refer to FIG. 11 to FIG. 15. FIG. 11 is a schematic diagram of a buckle assembly 100″ according to a third embodiment of the present invention. FIG. 12 is a partial diagram of the buckle assembly 100″ according to the third embodiment of the present invention. FIG. 13 is an exploded diagram of the buckle assembly 100″ according to the third embodiment of the present invention. FIG. 14 and FIG. 15 are diagrams of the buckle assembly 100″ in different states according to the third embodiment of the present invention. As shown in FIG. 11 to FIG. 15, the buckle assembly 100″ includes the first buckle component 1, a second buckle component 2″, an operating component 3″, a resilient component 6″, the first magnetic structure 7 and the second magnetic structure 8. Structures of the first buckle component 1, the first magnetic structure 7 and the second magnetic structure 8 of this embodiment are similar to the ones of the first embodiment. Detailed description is omitted herein for simplicity. The second buckle component 2″ includes a locking portion 4″. The locking portion 4″ includes a first locking portion 4a″ and a second locking portion 4b″. The first locking portion 4a″ and the second locking portion 4b″ are located at the two opposite sides of the locked portion 5 of the first buckle component 1 and clamp the locked portion 5 along the lateral direction, which can be the arrow direction M1 or M2 shown in FIG. 14 and FIG. 15. The operating component 3″ is exposed out of a lateral wall of the second buckle component 2″ and slidable relative to the second buckle component 2″ along the extending direction which can be the arrow direction Q shown in FIG. 14 and FIG. 15. A first abutting portion 31a″ and a second abutting portion 31b″ protrude from the operating component 3″ along the extending direction. The first locking portion 4a″ and the second abutting portion 31b″ are located at a same side and configured to cooperate with each other. The second locking portion 4b″ and the first abutting portion 31a″ are located at another same side and configured to cooperate with each other. The resilient component 6″ is disposed between the operating component 3″ and the second buckle component 2″.

Specifically, the first locking portion 4a″ includes a first rotating arm 41a″ and a first locking head 42a″. The first locking head 42a″ is configured to engage with the locked portion 5. The first rotating arm 41a″ is pivotally connected to the second buckle component 2″ by a first pivoting portion 411a″. A first cooperating portion 43a″ is formed on the first rotating arm 41a″ and for cooperating with the second abutting portion 31b″. The first cooperating portion 43a″ is aligned with the second abutting portion 31b″ along the extending direction. The first locking head 42a″ is connected to the first rotating arm 41a″ and protrudes from an inner wall of the first rotating arm 41a″ along the lateral direction. The second locking portion 4b″ includes a second rotating arm 41b″ and a second locking head 42b″. The second locking head 42b″ is configured to engage with the locked portion 5. The second rotating arm 41b″ is pivotally connected to the second buckle component 2″ by a second pivoting portion 411b″. A second cooperating portion 43b″ is formed on the second rotating arm 41b″ and for cooperating with the first abutting portion 31a″. The second cooperating portion 43b″ is aligned with the first abutting portion 31a″ along the extending direction. The second locking head 42b″ is connected to the second rotating arm 41b″ and protrudes from an inner wall of the second rotating arm 41b″ along the lateral direction. Preferably, in this embodiment, the first pivoting portion 411a″ and the second pivoting portion 411b″ can be two slot structures for allowing two pivoting shafts to pass there through.

Furthermore, the first locking portion 4a″ further includes a first recovering component 44a″. The second locking portion 4b″ further includes a second recovering component 44b″. The first recovering component 44a″ is disposed between the first rotating arm and the second buckle component 2″ and for biasing the first rotating arm 41a″ to rotate to engage the first locking head 42a″ with the locked portion 5 along the lateral direction. The second recovering component 44b″ is disposed between the second rotating arm and the second buckle component 2″ and for biasing the second rotating arm 41b″ to rotate to engage the second locking head 42b″ with the locked portion 5 along the lateral direction. Preferably, in this embodiment, the first recovering component 44a″ and the second recovering component 44b″ can be two compressed springs. However, it is not limited thereto. For example, in another embodiment, the first recovering component and the second recovering component can be two torsional springs.

When it is desired to release the buckle assembly 100″, the operating component 3″ can be pressed or operated to respectively drive the first rotating arm 41a″ and the second rotating arm 41b″ by abutment of the second abutting portion 31b″ and the first cooperation portion 43a″ of the first locking portion 4a″ and abutment of the first abutting portion 31a″ and the second cooperating portion 43b″ of the second locking portion 4b″, so as to resiliently compress the first recovering component 44a″ and the second recovering component 44b″ for disengaging the first locking head 42a″ and the second locking head 42b″ from the locked portion 5. When the first locking head 42a″ and the second locking head 42b″ are disengaged from the locked portion 5, i.e., the buckle assembly 100″ is in the releasing state, the first buckle component 1 can be separated from the second buckle component 2″ to locate the buckle assembly 100″ in a separation state. Afterwards, when the operating component 3″ is released, the resilient component 6 drives the operating component 3″ to recover.

When it is desired to engage the first buckle component 1 with the second buckle component 2″, the locked portion 5 can be inserted into a mating hole of the second buckle component 2″ so as to abut against the first locking head 42a″ and the second locking head 42b″ by the abutting structure 51 to drive the first rotating arm 41a″ and the second rotating arm 41b″ to rotate to resiliently compress the first recovering component 44a″ and the second recovering component 44b″ for allowing the abutting structure 51 to pass across the first locking head 42a″ and the second locking head 42b—. When the abutting structure 51 passes across the first locking head 42a″ and the second locking head 42b″ to align the locked structure 52 with the first locking head 42a″ and the second locking head 42b″, the first locking head 42a″ and the second locking head 42b″ can be driven by the first recovering component 44a″ and the second recovering component 44b″ to engage with the locked structure 52.

It is understandable that, in another embodiment, when there is only one locking portion located at one side of the locked portion and for engaging with the locked portion, there can be only one abutting portion for pushing the rotating arm to rotate to resiliently deform the recovering component for disengaging the locking portion from the locked portion. Alternatively, in another embodiment, the operating component can be configured to pull the rotating arm to rotate for disengaging the locking portion from the locked portion.

Please refer to FIG. 17 to FIG. 20. FIG. 17 is a partial diagram of the buckle assembly 100—according to the fourth embodiment of the present invention. FIG. 18 is an exploded diagram of the buckle assembly 100″ according to the fourth embodiment of the present invention. FIG. 19 and FIG. 20 are diagrams of the buckle assembly 100—in different states according to the fourth embodiment of the present invention. As shown in FIG. 17 to FIG. 20, the buckle assembly 100″ includes the first buckle component 1, a second buckle component 2—, an operating component 3—, a resilient component which is not shown in the figures, a first magnetic structure which is not shown in the figures, and the second magnetic structure 8. Structures of the first buckle component 1, the first magnetic structure and the second magnetic structure 8 of this embodiment are similar to the ones of the first embodiment. Detailed description is omitted herein for simplicity. The second buckle component 2—includes a locking portion 4′″. The locking portion 4′″ includes a first locking portion 4a—and a second locking portion 4b′″. The first locking portion 4a.″′ and the second locking portion 4b″′ are located at the two opposite sides of the locked portion 5 of the first buckle component 1 and clamp the locked portion 5 along the lateral direction, which can be the arrow direction M1 or M2 shown in FIG. 17. The operating component 3—is exposed out of a front wall of the second buckle component 2′″ and slidable relative to the second buckle component 2—along the mating direction which can be the arrow direction P shown in FIG. 17. A first abutting portion 31a′″ and a second abutting portion 31b″ protrude from the operating component 3—along the mating direction. The first locking portion 4a′″ and the second abutting portion 31b″ are located at a same side and configured to cooperate with each other. The second locking portion 4b′″ and the first abutting portion 31a—are located at another same side and configured to cooperate with each other. The resilient component is disposed between the operating component 3—and the second buckle component 2—.

Specifically, the first locking portion 4a.″′ includes a first rotating arm 41a.″′ and a first locking head 42a.″′. The first locking head 42a—is configured to engage with the locked portion 5. The first rotating arm 41a.″′ is pivotally connected to the second buckle component 2—by a first pivoting portion 411a.″′. A first cooperating portion 43a″′ is formed on the first rotating arm 41a.″′ and for cooperating with the second abutting portion 31b″. The first cooperating portion 43a′″ is aligned with the second abutting portion 31b″ along the mating direction. The first locking head 42a.″′ is connected to the first rotating arm 41a″′ and protrudes from an inner wall of the first rotating arm 41a″ along the lateral direction. The second locking portion 4b′″ includes a second rotating arm 41b′″ and a second locking head 42b″. The second locking head 42b″ is configured to engage with the locked portion 5. The second rotating arm 41b′″ is pivotally connected to the second buckle component 2—by a second pivoting portion 411b′″. A second cooperating portion 43b′″ is formed on the second rotating arm 41b″ and for cooperating with the first abutting portion 31a.″′. The second cooperating portion 43b″′ is aligned with the first abutting portion 31a—along the mating direction. The second locking head 42b′″ is connected to the second rotating arm 41b″′ and protrudes from an inner wall of the second rotating arm 41b′″ along the lateral direction. Preferably, in this embodiment, the first pivoting portion 411a.″′ and the second pivoting portion 411b″ can be two pivoting shafts for passing through two slot structures formed on the second buckle component 2′″.

Furthermore, the first locking portion 4a.″′ further includes a first recovering component 44a″′. The second locking portion 4b′″ further includes a second recovering component 44b′″. The first recovering component 44a′″ is disposed between the first rotating arm 41a—and the second buckle component 2—and for biasing the first rotating arm 41a′″ to rotate to engage the first locking head 42a′″ with the locked portion 5 along the lateral direction. The second recovering component 44b″ is disposed between the second rotating arm 41b″ and the second buckle component 2—and for biasing the second rotating arm 41b″ to rotate to engage the second locking head 42b″ with the locked portion 5 along the lateral direction.

When it is desired to release the buckle assembly 100″, the operating component 3—can be pressed or operated to respectively drive the first rotating arm 41a″ and the second rotating arm 41b″ by abutment of the second abutting portion 31b″ and the first cooperating portion 43a″ of the first locking portion 4a″ and abutment of the first abutting portion 31a—and the second cooperating portion 43b″ of the second locking portion 4b″, so as to resiliently compress the first recovering component 44a—and the second recovering component 44b″ for disengaging the first locking head 42a″ and the second locking head 42b″ from the locked portion 5. When the first locking head 42a″ and the second locking head 42b″ are disengaged from the locked portion 5, i.e., the buckle assembly 100—is in the releasing state, the first buckle component 1 can be separated from the second buckle component 2—to locate the buckle assembly 100—in a separation state. Afterwards, when the operating component 3′″ is released, the resilient component drives the operating component 3′″ to recover.

When it is desired to engage the first buckle component 1 with the second buckle component 2″, the locked portion 5 can be inserted into a mating hole of the second buckle component 2—so as to abut against the first locking head 42a″ and the second locking head 42b″ by the abutting structure 51 to drive the first rotating arm 41a.′″ and the second rotating arm 41b″ to rotate to resiliently compress the first recovering component 44a—and the second recovering component 44b″ for allowing the abutting structure 51 to pass across the first locking head 42a—and the second locking head 42b″. When the abutting structure 51 passes across the first locking head 42a″ and the second locking head 42b″ to align the locked structure 52 with the first locking head 42a—and the second locking head 42b″, the first locking head 42a—and the second locking head 42b″ can be driven by the first recovering component 44a″ and the second recovering component 44b″ to engage with the locked structure 52.

It is understandable that, in another embodiment, when there is only one locking portion located at one side of the locked portion and for engaging with the locked portion, there can be only one abutting portion for pushing the rotating arm to rotate to resiliently deform the recovering component for disengaging the locking portion from the locked portion. Alternatively, in another embodiment, the operating component can be configured to pull the rotating arm to rotate for disengaging the locking portion from the locked portion.

In contrast to the prior art, in the present invention, the operating component is disposed on the second buckle component including the locking portion which cooperates with the locked portion of the first buckle component. The operating component drives the locking portion to disengage the locking portion from the locked portion when the operating component is operated. Therefore, the present invention has advantages of simple structure and labor-saving and easy operation.

Those skilled in the art will readily observe that numerous modifications and alterations of the device and method may be made while retaining the teachings of the invention. Accordingly, the above disclosure should be construed as limited only by the metes and bounds of the appended claims.

Claims

1. A buckle assembly comprising: a first buckle component comprising a locked portion;a second buckle component configured to be engaged with the first buckle component, wherein the second buckle component comprises a locking portion engageable with the locked portion; andan operating component partially embedded in the second buckle component and partially exposed out of the second buckle component, the operating component being slidable relative to the second buckle component such that sliding movement of the operating component relative to the second buckle component causes disengagement between the first buckle component and the second buckle component;wherein the operating component includes an abutting portion, and the abutting portion abuts against the locking portion to resiliently deform the locking portion during the sliding movement of the operating component.

2. The buckle assembly of claim 1, wherein the locked portion is located at a front surface of the first buckle component.

3. The buckle assembly of claim 1, further comprising a first magnetic structure and a second magnetic structure, the first magnetic structure being disposed on the first buckle component, the second magnetic structure being disposed on the second buckle component, and the first magnetic structure magnetically attracting or repelling the second magnetic structure during a mating process of the first buckle component and the second buckle component.

4. The buckle assembly of claim 3, wherein a first embedding chamber is formed on the first buckle component, a second embedding chamber is formed on the second buckle component, the first magnetic structure is embedded into the first embedding chamber, and the second magnetic structure is embedded into the second embedding chamber.

5. The buckle assembly of claim 4, wherein the first embedding chamber is aligned with the second embedding chamber along a mating direction.

6. The buckle assembly of claim 1, wherein a mating hole is formed on the second buckle component and is configured to allow the locked portion to pass therethrough.

7. The buckle assembly of claim 1, wherein the locking portion engages the locked portion along a lateral direction of the buckle assembly when the second buckle component is mated with the first buckle component along a mating direction, and the mating direction is substantially perpendicular to the lateral direction.

8. The buckle assembly of claim 1, wherein slidable movement of the operating component drives the locking portion to move away from the locked portion to disengage the locking portion from the locked portion.

9. The buckle assembly of claim 1, wherein the locking portion is a resilient structure.

10. The buckle assembly of claim 9, wherein slidable movement of the operating component resiliently deforms the locking portion to disengage from the locked portion.

11. The buckle assembly of claim 1, wherein the locking portion comprises a resilient arm and a locking head connected to the resilient arm, the locking head is configured to engage with the locked portion.

12. The buckle assembly of claim 11, wherein the resilient arm is connected to the operating component and biased to engage the locking head with the locked portion.

13. The buckle assembly of claim 11, wherein sliding movement of the operating component deforms the resilient arm and causes the locking head to disengage from the locked portion.

14. The buckle assembly of claim 13, wherein the resilient arm includes a cooperating portion, and the abutting portion abuts against the cooperating portion to resiliently deform the resilient arm and disengage the locking head from the locked portion during the sliding movement of the operating component.

15. The buckle assembly of claim 1, wherein the locking portion comprises a first resilient arm connected to a first unitary locking head and a second resilient arm connected to a second unitary locking head, the first unitary locking head and the second unitary locking head are configured to engage with the locked portion.

16. The buckle assembly of claim 15, wherein the first unitary locking head protrudes from an inner wall of the first resilient arm along a lateral direction and the second unitary locking head protrudes from an inner wall of the second resilient arm along the lateral direction, and wherein the lateral direction is perpendicular to a direction of engagement between the first buckle component and the second buckle component.

17. The buckle assembly of claim 1, wherein the locking portion engages the locked portion along a lateral direction; the operating component is slidable along a sliding direction; andthe sliding direction is one of substantially the same direction as the lateral direction or a substantially opposite direction to the lateral direction.

18. The buckle assembly of claim 1, wherein the locking portion is detachably connected to the second buckle component.

19. A buckle assembly comprising: a first buckle component comprising a locked portion formed as a protrusion on a front surface of the first buckle component;a second buckle component comprising a mating hole configured to receive the locked portion to mate the second buckle component with the first buckle component wherein the second buckle component comprises a locking portion engageable with the locked portion; andan operating component partially embedded in the second buckle component and partially exposed out of the second buckle component, wherein the operating component is configured to be slidable relative to the second buckle component,the operating component is configured to cause disengagement between the first buckle component and the second buckle component during a sliding movement of the operating component relative to the second buckle component, andthe operating component includes an abutting portion, and the abutting portion abuts against the locking portion to resiliently deform the locking portion during the sliding movement of the operating component.