A helmet for communicating with a vehicle function controller and method for operating the same has a first memory, a first transmitter, a first receiver and a first controller in communication with the first memory, the first transmitter and the first receiver. The first receiver receives a plurality of vehicle function settings. The first memory stores the vehicle function settings within a memory of the helmet. The first transmitter communicates the vehicle function settings from the first memory to the vehicle function controller.

A safety hat assembly for enhancing safety and comfort of a user includes a hat that is selectively sizable to a head of a user and which has a brim coupled thereto. The hat is positionable on the head of the user with the brim extending over a forehead of the user. A pair of safety glasses is slidably engaged to the hat and is selectively positionable in a stowed configuration within the hat and a deployed configuration to protect eyes of the user. An earplug is engaged to and selectively extendible from the hat to allow insertion into a respective ear canal of the user to protect hearing of the user. A set of pads is engaged to and positioned within the hat to cushion the head of the user.

An Illuminating device for sports helmet eye shield includes a housing, an eye shield attachment, a light-emitting diode (LED) strip, a chipset, a rechargeable battery, and a plurality of control buttons. The housing includes a lateral wall, a rear plate, and a front opening. The lateral wall is perimetrically connected around the rear plate. The front opening is delineated within the lateral wall. The eye shield attachment is connected onto an outer plate of the lateral wall. The LED strip is perimetrically connected to the lateral wall through the front opening. The chipset and the rechargeable battery are internally mounted to the housing. The control buttons are externally connected to an inner plate of the lateral wall. The LED strip, the control buttons, and the chipset are electrically connected to the rechargeable battery. The LED strip and the control buttons are electronically connected to the chipset.

The disclosed invention relates to a head lamp including a front main band and a rear main band present along the sagittal suture, wherein a front surface of the rear main band in contact with the back head of the user is concave. The head lamp has improved wearing comfort and reduced failure rate.

A device for indicating appropriate social distancing includes the ability to project light (in various forms and in a various ways) onto the ground in a manner visible by the user and those around them. A boundary of the projected light can be set to an acceptable social distance and can include different colors to indicated varying social distances for varying levels of trusted individuals. Proximity sensors set to appropriate distancing requirements, along with the varying levels of trust can be implemented into multiple devices being used in a group setting.

The present specification discloses systems, devices, and methods and uses provide a mounting system which includes rail and a bracket which is selectively secured to the rail. A bracket disclosed herein selectively and/or automatically secures or locks to a rail disclosed herein when positioned on the rail by actuating or triggering a locking mechanism disclosed herein to adopted a locked configuration. In addition, a bracket disclosed herein may be selectively removed from a rail by actuating or triggering a locking mechanism disclosed herein to adopted an unlocked configuration. The disclosed mounting systems, devices, and methods enable a device to be protected from impact and moisture exposure, enable a device to be securely mounted on a base, and/or enable a device to be quickly secured and removed from a base.

The present specification discloses systems, devices, and methods and uses provide a mounting system which includes rail and a bracket which is selectively secured to the rail. A bracket disclosed herein selectively and/or automatically secures or locks to a rail disclosed herein when positioned on the rail by actuating or triggering a locking mechanism disclosed herein to adopted a locked configuration. In addition, a bracket disclosed herein may be selectively removed from a rail by actuating or triggering a locking mechanism disclosed herein to adopted an unlocked configuration. The disclosed mounting systems, devices, and methods enable a device to be protected from impact and moisture exposure, enable a device to be securely mounted on a base, and/or enable a device to be quickly secured and removed from a base.

A helmet is provided with a shell and an opening wherein a first controller is supported by the shell. A pod is operatively coupled to the first controller and the pod comprises an input device. The input device provides an input to the first controller and the pod is receivable within the opening.

A helmet system includes a helmet shell and a battery interface. The battery interface may be disposed on an exterior of a rear portion of the helmet shell. The battery interface may include a base, a mechanical latch feature, and a magnetic latch feature. The mechanical latch feature may be configured to interface with a complementary mechanical feature of the battery to contribute to a releasable maintenance of the battery within the battery receiving slot. The magnetic latch feature may be configured to interface, via a magnetic bias, with a complementary magnetic feature of the battery to contribute to the releasable maintenance of the battery within the battery receiving slot.

A marker system includes an enclosure with a controller therewithin. Emitters are electrically interfaced to the controller and include visible wavelength emitters and infrared wavelength emitters. The controller is configured to selectively initiate a flow of electric current though the visible wavelength emitters or through the infrared wavelength emitters causing the visible wavelength emitters or the infrared wavelength emitters to emit light and the light passes through the enclosure. There is at least one infrared detector, each of which is electrically interfaced to the controller and each of which is configured to detect infrared light that enters the enclosure. When the controller receives an electrical signal from any of the at least one infrared detector indicating reception of infrared light, the controller emits a signal to warn of the reception of infrared light (e.g., an audible signal, a vibration, a wireless signal, a wired signal).