A garden glove features a body formed from two pieces of material that are sewn together to include a number of finger portions. Webs extend between the finger portions and are delineated from the finger portions by stitching.

Electronic assistive gloves for covering artificial prosthetic or robotic hands. The glove includes a base layer formed to fit on the artificial hand, a plurality of sensors carried by the base layer, and an encapsulation layer covering the base layer and formed of a material that mimics human skin.

Cleansing devices in the form of ergonomic scrub gloves for cleansing various surfaces including large animals and associated animal contact surfaces. The gloves include an inner layer, which is generally waterproof, with an outer layer comprising an abrasive weave.

Aspects herein are directed to a grip film or grip film kit comprising an edge trim portion and at least one ovoid portion. The edge trim portion may have a wave-shaped configuration in which the ovoid portion is at least partially disposed. Other aspects herein are directed to an extremity covering portion comprising the grip film on at least one opening to provide grip that may assist in maintaining the position and/or configuration of the extremity covering portion on the body of a wearer.

A chest protector includes a structure for protecting at least a portion of a cardiac silhouette of a user. The structure may include a base assembly, a pivot plate assembly, and a fulcrum block positioned between the pivot plate assembly and the base assembly. The pivot plate assembly is positioned to pivot on the fulcrum block. In some embodiments, the pivot plate assembly and the fulcrum block may include compressible and resilient material. The structure may be shaped, sized, and positioned to coextend with a region of the user's cardiac silhouette. In some embodiments, the pivot plate assembly includes two pivot plate portions oriented at an angle relative to one another. The pivot plate portions may be connected with a flexible hinge, such as a living hinge.

A method for providing a padding relates to using 3D printing by depositing a filament according to a microarchitecture that entails the definition of superimposed matrices that are adapted to define a structure composed of individual open cells, which are mutually connected and arranged mutually opposite and side by side.

Composite materials having superior material properties useful as impact absorbing devices can be fabricated by embedding a lattice structure (e.g., polymer lattice structure) within a foam, so that the foam reinforces the lattice structure under impact. Materials and dimensions of the foam and the lattice structure may be selected to achieve composite materials having tailored impact absorbing elastic and/or viscoelastic responses over a wide range of temperatures.

A labor protection glove includes a glove body including a glove liner and a back rubber protection layer disposed on a surface of a back of the glove liner. The glove liner includes a skin contact layer, a moisture absorption layer disposed outside the skin contact layer and a wear-resistant layer disposed outside the moisture absorption layer. The back rubber protection layer includes a finger rubber layer disposed at a back of a finger of the glove, a palm-back rubber layer disposed at a back of a palm of the glove body, and a root knuckle rubber layer disposed between the finger rubber layer and the palm-back rubber layer for protecting a knuckle. The finger rubber layer and the root knuckle rubber layer are independently formed by injection molding.

A glove has a window providing an exposed back of the hand and a fastener positioned about the wrist. Each finger of the glove includes a slot connected to the window, thereby exposing both the back of the hand and the backs of the fingers when worn. A pocket at the end of each finger fully covers the fingertip of a wearer. The sides of the gloves may extend upwardly enough to cover the sides of the hand when the glove is worn. Textures may be provided on the palm of the glove to impart improved grip to the wearer.

The present disclosure provides microstructured hydrophobic surfaces and devices for gripping wet deformable surfaces. The surfaces and devices disclosed herein utilize a split contact Wenzel-Cassie mechanism to develop multi-level Wenzel-Cassie structures. The Wenzel-Cassie structures are separated with a spatial period corresponding to at least one wrinkle eigenmode of a wet deformable surface to which the microstructure or device is designed to contact, allowing grip of the deformable surface without slippage. Microstructures of the present invention are specifically designed to prevent the formation of Shallamach waves when a shear force is applied to a deformable surface. The multi-level Wenzel-Cassie states of the present disclosure develop temporally, and accordingly are characterized by hierarchical fluid pinning, both in the instance of slippage, and more importantly in the instance of localization. This temporal aspect to the multi-level Wenzel-Cassie state delays or prevents the transition from a wrinkled eigenmode state in a deformable surface to a buckled state in a deformable surface.