Abstract: A roof rack system is provided for affixing to a vehicle having a plurality of mounting locations. The roof rack system comprises a crossbar comprising a first end and a second end. The crossbar is configured to allow mounting of equipment. The roof rack system further comprises a first stanchion coupled to the first end of the crossbar by a first swivel joint. The roof rack system further comprises a second stanchion coupled to the second end of the crossbar by a second swivel joint. The first and second stanchions are configured to mount to respective mounting locations of the plurality of mounting locations.

Abstract: A vehicle may include an integrated connector system. The vehicle includes a body having an outer surface and a plurality of attachment ports arranged on the outer surface. The attachments ports include a recess that extends below the surrounding outer surface. Each attachment port is configured to receive and engage with an attachment plug of an accessory. In some embodiments, there are different types of attachment ports, configured to engage with respective types of attachment plugs. Various accessories may be engaged with the attachment ports, allowing a range of items and equipment to be secured to the vehicle.

Abstract: A vehicle may include an integrated connector system. The vehicle includes a body having an outer surface and a plurality of attachment ports arranged on the outer surface. The attachments ports include a recess that extends below the surrounding outer surface. Each attachment port is configured to receive and engage with an attachment plug of an accessory. In some embodiments, there are different types of attachment ports, configured to engage with respective types of attachment plugs. Various accessories may be engaged with the attachment ports, allowing a range of items and equipment to be secured to the vehicle.

Abstract: A roof rack system for affixing to a vehicle having a plurality of mounting locations system is provided. The roof rack system comprises a crossbar assembly comprising: an axis of motion, e.g., translational motion; an internal structure; a first section; a second section; a third section; a first end mount; and a second end mount. The first and second sections are configured to translate, in opposite directions, along the axis of motion relative to the internal structure. The internal structure is configured to cause the third section to be centered between the first and second sections as the first and second sections translate. The first and second end mounts are coupled to respective outboard portions of the first and second sections. The first and second end mounts are configured to mount to respective first and second mounting locations, e.g., mounting locations of the vehicle.

Abstract: A smart cable lock is provided that is configured to mechanically secure items and provide an automatic determination that securing is achieved. The smart cable may be integrated into a vehicle, or otherwise may communicate with a vehicle. The vehicle includes one or more ports configured to house the cable when not in use. In some embodiments, an accessory includes one or more ports configured to engage with the connector. In some embodiments, the cable is affixed to the vehicle at one end, using a retractor, for example, and can be unspooled, intertwined with equipment, and then secured to a port on the vehicle. The smart cable lock secures and releases a latch based on user indications and authorizations. For example, if the cable is destroyed or damaged, or an unauthorized indication is made, the cable lock system may sound an alarm, or otherwise alert the user.

Abstract: A glove comprises a flexible area configured to be worn on a hand of a user, the flexible area being positioned to be secured on a palm of the hand. The glove also comprises a reinforced area coupled to the flexible area, the reinforced area configured to engage a thumb of the hand and extend towards the palm of the hand. The glove further comprises a protrusion on the reinforced area, the protrusion comprising a blade. The protrusion orients the blade at an angle with respect to the reinforced area.

Abstract: A power tool with an ergonomic handgrip includes a housing with a rear end portion, a first front end portion, a second front end portion, and lateral sidewalls. A working end proximate the first front end portion is configured to be driven by a motor. A handle has a proximal portion coupled to the housing, a distal end portion away from the housing, a rear wall portion, a front wall portion, and a pair of sidewalls, and defines a handle axis. A trigger is coupled to the handle and defines a trigger axis. A first gripping region includes a rear concave recess on the rear end portion and a lateral concave recess extending along at least one of the lateral sidewalls generally parallel to the tool axis. A second gripping region is on the rear wall portion of the proximal portion of the handle. A third gripping region is on the second front end portion of the housing and offset rearward from first front end portion.

Abstract: A power tool with an ergonomic handgrip includes a housing, a motor in the housing, a working end coupled to a front end of the housing, a handle extending distally from the housing, and a trigger coupled to the handle. The housing defines a tool axis, the handle defines a handle axis, and the trigger defines a trigger axis in its direction of movement. A first gripping region includes a rear concave recess on a rear end of the housing and a lateral concave recess along a lateral sidewall of the housing parallel to the tool axis. A vertical line extending from an innermost point of the rear concave recess intersects the trigger axis forward of where the trigger axis intersects the handle axis. A second gripping region includes a convex surface on a rear portion of the handle with an elliptical curvature having an eccentricity less than 0.5.