A clipper holder rack, for electrical hair clippers, includes an upper enclosure with a first major arc element having a diameter to accommodate the clipper. Left and right portions of the first major arc element transition and continue as vertical extensions. The vertical slot formed by parallel vertical extensions is wide enough to allow passage of the clipper's cord. A lower enclosure has a second major arc element that is coplanar and coaxial with the upper enclosure. The second major arc element can accommodate the clipper's cord. The left and right portions of the second major arc element transition into curvilinear portions that extend outward and are contiguous with the vertical extensions. The vertical extensions prevent forward movement of an enclosed clipper. The second major arc element supports a clipper. An angled rear rod supports the enclosures and is attached to a mounting plate.

A modular wireless appliance charging system includes a primary charging platform having a plurality of adapter slots disposed on its upper side. An adapter is configured to be removably secured within each adapter slot. Each adapter includes a receiver configured to removably secure an appliance to the adapter via a charging port of the appliance. A power supply is operably connected to a charging mechanism which is configured to charge the battery of the appliance that is secured to the receiver of an adapter that is secured within one of the adapter slots. An auxiliary platform having similar components can be connected to the primary platform to expand the system's charging capacity. The adapters can include many configurations for different types of appliances. In this way, the user can customize their charging system to include a specific type, number, and order of adapters for organizing and charging their battery-powered appliances.

The present application relates to a shaving guidance system (10) for guiding a user during a shaving procedure, the system comprising an image sensor (30) configured to register an image of a part of the body of the user, an image data analyzer (41) configured to determine a local hair-growth direction based on data in the image, a controller (40) configured to generate instructions about a direction in which a hair cutting device (20) is to be moved in dependence on the determined local hair-growth direction, and a feedback system (130) configured to provide the instructions to the user.

The present application relates to a shaving guidance system (10) for guiding a user during a shaving procedure, the system comprising an image sensor (30) configured to register an image of a part of the body of the user, an image data analyzer (41) configured to determine a local hair-growth direction based on data in the image, a controller (40) configured to generate instructions about a direction in which a hair cutting device (20) is to be moved in dependence on the determined local hair-growth direction, and a feedback system (130) configured to provide the instructions to the user.

A tray is disclosed for securely holding a shaving razor and a shaving cartridge magazine when not in use.

A tray is disclosed for securely holding a shaving razor and a shaving cartridge magazine when not in use.

The present invention is concerned with an electrically operable shaver with an elongate shaver housing defining a longitudinal axis (I), at least one short-hair cutter unit, at least one long-hair trimmer unit disposed on the shaver housing and at least one light source. The at least one light source is movable substantially parallel to the longitudinal axis (I) between a retracted position and an extended position.

The present invention is concerned with an electrically operable shaver with an elongate shaver housing defining a longitudinal axis (I), at least one short-hair cutter unit, at least one long-hair trimmer unit disposed on the shaver housing and at least one light source. The at least one light source is movable substantially parallel to the longitudinal axis (I) between a retracted position and an extended position.

The present disclosure relates to an Artificial Intelligence (AI) enabled smart facial hair grooming device designed to groom, design, or shave facial hair automatically. Aspects of the present disclosure relate to a grooming device 100 capable of grooming, designing or shaving facial hair of a user, the grooming device 100 including a face shield 102 configured with a plurality of razors 108 installed on at least one inner surface of the face shield 102, at least one micro-controller configured to control movement of the plurality of razors 108, and an Artificial Intelligence (AI) based pixel identifier (PI) module configured to visualize a desired facial hair style on face of the user and program the micro-controller with or without additional motors to move each of the plurality of razors 108 in a desired direction to allow cutting of facial hair of the user as per the desired facial hair style.

A clipper holder, for electrical hair clippers, includes an upper enclosure with a major arc element having a diameter to accommodate the clipper. Left and right portions of the major arc element terminate in opposing blunt ends. The space between the opposing ends is wide enough to allow passage of the clipper's cord. A lower enclosure has a smaller major arc element that is coplanar and coaxial with the upper enclosure. The smaller major arc element can accommodate the clipper's cord. Left and right portions of the smaller major arc element are contiguous with curvilinear portions that extend forward, curving upward toward the opposing blunt ends, finishing as vertical extensions with blunt tips. The vertical extensions prevent forward movement of an enclosed clipper. The smaller major arc element prevents movement anywhere else but up. An angled connecting rear rod supports the enclosures and is attached to a mounting plate.