A bicycle saddle includes: a base structure having a top portion; and a cushion coupled to the top portion of the base structure, the cushion including a first lateral side and a second lateral side separated by a longitudinal plane, wherein each of the first lateral side and the second lateral side includes: a first region having a first stiffness; a second region having a second stiffness that is less than the first stiffness; and a third region having a third stiffness that is less than the second stiffness, wherein a perimeter of the second region is at least 75% enclosed within the first region, and wherein a perimeter of the third region is at least 75% enclosed within the second region.

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.

A seat for a bicycle comprising: a seating surface having a longitudinal length, a longitudinally forward portion, a longitudinally rearward portion, and a lateral width between a first lateral end and a second lateral end laterally opposed to the first lateral end; an underside surface below the seating surface; an opening extending through the seating surface and the underside surface; where the opening has an opening length between a longitudinally forward periphery and a longitudinally rearward periphery and an opening width between a first lateral periphery and a second lateral periphery laterally opposed to the first lateral periphery; where the seating surface includes a bridge portion longitudinally located between the opening and the rearward portion of the seating surface; and where the opening has a lateral width greater than its longitudinal length.

A padding structure for providing softness and support may include a laminate having a lower, firm layer and an upper, soft layer operatively attached to the lower, firm layer, wherein the upper, soft layer has a durometer value of from about sub-00 to about 05; and the lower, firm layer has a durometer value of from about 05 to about 10. The padding structure may be used to make a bicycle seat, which further includes a seat base, a top cover, and a seat frame.

A padding structure for providing softness and support may include a laminate having a lower, firm layer and an upper, soft layer operatively attached to the lower, firm layer, wherein the upper, soft layer has a durometer value of from about sub-00 to about 05; and the lower, firm layer has a durometer value of from about 05 to about 10. The padding structure may be used to make a bicycle seat, which further includes a seat base, a top cover, and a seat frame.

A bicycle saddle manufacturing method includes the steps of expanding a foamable material to form the foamable material into a semi-finished saddle body, and performing a thermoforming process to form the semi-finished saddle body into a saddle in a forming mold. As a result, the bicycle saddle manufacturing method of the present invention can avoid waste of material and environmental pollution.

A bicycle saddle manufacturing method includes the steps of expanding a foamable material to form the foamable material into a semi-finished saddle body, and performing a thermoforming process to form the semi-finished saddle body into a saddle in a forming mold. As a result, the bicycle saddle manufacturing method of the present invention can avoid waste of material and environmental pollution.

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.

The present invention relates to a support element for the human body, including a padding component and a base component or body, the base component including an upper, in use, surface, as well as a lower, in use, surface, the padding component includes an upper, in use, surface, and a lower, in use, surface designed to engage the upper, in use, surface of the base component, the support element including removable anchoring means of the base component to the padding component.

The present invention relates to a support element for the human body, including a padding component and a base component or body, the base component including an upper, in use, surface, as well as a lower, in use, surface, the padding component includes an upper, in use, surface, and a lower, in use, surface designed to engage the upper, in use, surface of the base component, the support element including removable anchoring means of the base component to the padding component.