Abstract: A cushion incorporating a bio-gel structure includes a foam material layer and a surface layer set on and covering a surface of the foam material layer. A plurality of spaced through holes is formed in the foam material layer. A bio-gel layer is formed on an undersurface of the foam material layer. A plurality of bio-gel blocks are respectively filled in the through holes of the foam material layer. Each of the bio-gel blocks has a top end in contact with an underside of the surface layer and a bottom end integrally connected with the bio-gel layer. The bio-gel layer provides a rider with comfortable riding experience and also achieves an antibacterial effect.

Abstract: A bike saddle incorporating a bio-gel structure includes, arranged in a saddle, a foam material layer and a surface layer set on and covering a surface of the foam material layer. A plurality of spaced through holes is formed in the foam material layer. A bio-gel layer is formed on an undersurface of the foam material layer. A plurality of bio-gel blocks are respectively filled in the through holes of the foam material layer. Each of the bio-gel blocks has a top end in contact with an underside of the surface layer and a bottom end integrally connected with the bio-gel layer. The bio-gel layer provides a rider with comfortable riding experience and also achieves an antibacterial effect.

Abstract: A cushion incorporating a bio-gel structure includes a foam material layer and a surface layer set on and covering a surface of the foam material layer. A plurality of spaced through holes is formed in the foam material layer. A bio-gel layer is formed on an undersurface of the foam material layer. A plurality of bio-gel blocks are respectively filled in the through holes of the foam material layer. Each of the bio-gel blocks has a top end in contact with an underside of the surface layer and a bottom end integrally connected with the bio-gel layer. The bio-gel layer provides a rider with comfortable riding experience and also achieves an antibacterial effect.

Abstract: A lightweight and high-elastic vibration absorption assembly for a bike saddle includes a pair of vibration-absorption blocks mounted to a bottom of a saddle. The vibration-absorption blocks are each formed with a central hole extending in a vertical direction between a top surface and a bottom surface thereof. A fastening member is received through a through hole of a support base and a central hole of each of the vibration-absorption blocks to be fixed to an underside positioning hole of the saddle. The vibration-absorption blocks are each formed of a plurality of foamed units that are bonded to each other with a bonding portion therebetween. Each of the foamed units includes a plurality of foaming pores formed therein. The vibration-absorption blocks are permitted to be temporarily deformed when receiving a pressing force acting on the saddle so that the pressing force is absorbed by the vibration-absorption blocks.

Abstract: A bike saddle incorporating a bio-gel structure includes, arranged in a saddle, a foam material layer and a surface layer set on and covering a surface of the foam material layer. A plurality of spaced through holes is formed in the foam material layer. A bio-gel layer is formed on an undersurface of the foam material layer. A plurality of bio-gel blocks are respectively filled in the through holes of the foam material layer. Each of the bio-gel blocks has a top end in contact with an underside of the surface layer and a bottom end integrally connected with the bio-gel layer. The bio-gel layer provides a rider with comfortable riding experience and also achieves an antibacterial effect.

Abstract: A memory saddle includes a double elastic foam assembly, in which a saddle is structured to include a first foam material layer and a high-elasticity foam material layer formed on the first foam material layer. The first foam material layer is formed with a first hollowed zone at a location thereof corresponding to an ischiatic pressure bearing zone of the saddle. A second foam material layer is received in and coupled to the first hollowed zone. The high-elasticity foam material layer is formed with a second hollowed zone at a location corresponding to the ischium and a memory foam layer is received in and coupled to the second hollowed zone such that the memory foam layer is in alignment, in a vertical direction, with the second foam material layer received in the first hollowed zone.

Abstract: A compound vibration absorption assembly is provided for a bike saddle, which includes a pair of compound vibration-absorption units mounted to a bottom of the saddle. Each of the compound vibration-absorption units includes an exterior enclosure barrel and an interior elastic component. The interior elastic component is received and housed in an interior space of the exterior enclosure barrel along a force applying direction. When a force is applied to the saddle, a part of the force is absorbed by the interior elastic component, while a remaining part of the force is simultaneously absorbed by the exterior enclosure barrel.