A holding mechanism prevents a device at a back side of a held object from being hidden by the object. Even if a large smartphone is held, clamping with a fixed clamping part and a movable clamping part prevents the fixed part from being moved, wherein a device located back of the smartphone and at the side of the fixed clamping part cannot be hidden by the smartphone. Due to the movable clamping part being movable farther from a rotation axis than the fixed clamping part, a middle portion of the smartphone in the clamping direction substantially coincides with the rotation axis when holding a smartphone with a specified width, wherein the smartphone cannot be easily moved in a Y- and Z-direction when rotating a holding part to change orientation, and also at the back side, a device located at the side of the clamp cannot be easily hidden.

An adjustable telescopic bracket for clamping an object includes a main body, a driving assembly, an elastic assembly, and a telescopic member. The driving assembly and the elastic assembly are disposed in an operating space of the main body. The telescopic member has a sliding portion in a sliding groove of the main body. The sliding portion has a resisting portion disposed at an end thereof, and a driving section which is transmittably connected with the driving assembly. The sliding portion is able to be extended, forcing the driving assembly to rotate, whereby the elastic assembly generates a pre-force. When the elastic assembly is released, the pre-force drives the driving assembly to rotate reversely. As a result, the resisting portion is retracted to the main body with the sliding portion on which the resisting portion is disposed, for clamping the object.

An adjustable telescopic bracket for clamping an object includes a main body, a driving assembly, an elastic assembly, and a telescopic member. The driving assembly and the elastic assembly are disposed in an operating space of the main body. The telescopic member has a sliding portion in a sliding groove of the main body. The sliding portion has a resisting portion disposed at an end thereof, and a driving section which is transmittably connected with the driving assembly. The sliding portion is able to be extended, forcing the driving assembly to rotate, whereby the elastic assembly generates a pre-force. When the elastic assembly is released, the pre-force drives the driving assembly to rotate reversely. As a result, the resisting portion is retracted to the main body with the sliding portion on which the resisting portion is disposed, for clamping the object.

This disclosure relates to a vehicle-mounted mobile phone holder and a ring buckle. The mobile phone holder comprises a first connecting part, a second connecting part and a middle part; the first connecting part is used for being connected to the mobile phone, at least one card slot is formed in the first connecting part, and at least one card entrance is formed in the card slot; the middle part at least at least comprises a universal connecting end, the universal connecting end is connected with the first connecting part or the second connecting part. The ring buckle comprises a buckle part, a rotary part and a fixed part, the buckle part is connected to the rotary part through a connecting shaft, the rotary part is connected onto the fixed part through a rotating shaft, the fixed part is adhered into the mobile phone.

This disclosure relates to a vehicle-mounted mobile phone holder and a ring buckle. The mobile phone holder comprises a first connecting part, a second connecting part and a middle part; the first connecting part is used for being connected to the mobile phone, at least one card slot is formed in the first connecting part, and at least one card entrance is formed in the card slot; the middle part at least at least comprises a universal connecting end, the universal connecting end is connected with the first connecting part or the second connecting part. The ring buckle comprises a buckle part, a rotary part and a fixed part, the buckle part is connected to the rotary part through a connecting shaft, the rotary part is connected onto the fixed part through a rotating shaft, the fixed part is adhered into the mobile phone.

The support device has a mount part 10 for mounting an electronic device, a pair of support leg parts 20, and a pair of cross brace parts 30. The electronic device 600 when mounted on the mount part 10 is supported so as to be slanted rearward. The two support leg parts of the pair of support leg parts 20 are each provided with multiple receiving seats capable of receiving an anchor part of a cross brace part 30 and multiple bowl-shaped hole parts corresponding to the multiple receiving seats. The two cross brace parts of the pair of the cross brace parts 30 are each provided with a biasing stud having a semispherical tip, and when an anchor part is received by any of the receiving seats of the pair of support leg parts 20, the stud enters the bowl-shaped hole part corresponding to the receiving seat. Furthermore, the two cross brace parts of the pair of cross brace parts 30 maintain the angle of the pair of support leg parts 20 with respect to the mount part once the biasing studs have entered the bowl-shaped hole parts as the anchor parts are received by the receiving seats, and the biasing studs in the bowl-shaped hole parts are pulled out as the anchor parts detach from the receiving seats 201 and slide on inner surfaces of the pair of support leg parts 20 when the support leg parts are turned with respect to the pair of cross brace parts 30.

The support device has a mount part 10 for mounting an electronic device, a pair of support leg parts 20, and a pair of cross brace parts 30. The electronic device 600 when mounted on the mount part 10 is supported so as to be slanted rearward. The two support leg parts of the pair of support leg parts 20 are each provided with multiple receiving seats capable of receiving an anchor part of a cross brace part 30 and multiple bowl-shaped hole parts corresponding to the multiple receiving seats. The two cross brace parts of the pair of the cross brace parts 30 are each provided with a biasing stud having a semispherical tip, and when an anchor part is received by any of the receiving seats of the pair of support leg parts 20, the stud enters the bowl-shaped hole part corresponding to the receiving seat. Furthermore, the two cross brace parts of the pair of cross brace parts 30 maintain the angle of the pair of support leg parts 20 with respect to the mount part once the biasing studs have entered the bowl-shaped hole parts as the anchor parts are received by the receiving seats, and the biasing studs in the bowl-shaped hole parts are pulled out as the anchor parts detach from the receiving seats 201 and slide on inner surfaces of the pair of support leg parts 20 when the support leg parts are turned with respect to the pair of cross brace parts 30.

A holder for holding a mobile electronic device to an object, the holder having two first openings, a first communication path, two second openings, and a second communication path. The two first openings form a first set of openings. The first communication path connects the first openings so a securing device can be fed into one of the first openings and out of the other of the first openings. The two second openings form a second set of openings. The second communication path connects the second openings so that the securing device can be fed into one of the second openings and out of the other of the second openings. The first openings are spaced apart from the second openings so the securing device can be secured to the holder at the first and second sets of openings, and additionally wrapped around the object to secure the holder thereto.

A holder for holding a mobile electronic device to an object, the holder having two first openings, a first communication path, two second openings, and a second communication path. The two first openings form a first set of openings. The first communication path connects the first openings so a securing device can be fed into one of the first openings and out of the other of the first openings. The two second openings form a second set of openings. The second communication path connects the second openings so that the securing device can be fed into one of the second openings and out of the other of the second openings. The first openings are spaced apart from the second openings so the securing device can be secured to the holder at the first and second sets of openings, and additionally wrapped around the object to secure the holder thereto.

An angle adjustment mechanism capable of achieving stable quality is provided. An angle adjustment mechanism (10) includes a base member (20), a support member (40) that supports the base member (20) from below, a mount member (30) having a rotation shaft (16) rotatably connecting the base member (20), and a suppression member (50). The support member (40) moves up and down in conjunction with a rotation operation of the base member (20). The suppression member (50) is formed of an elastic material and attached to the mount member (30), and suppresses up-and-down movement of the support member (40) by frictional force. The suppression member (50) is provided with a hole (52) into which a part of the support member is inserted and slides, and frictional force is generated between the suppression member (50) and the support member (40) in the hole (52).