A safety garment includes a base layer, and a horizontal, first vertical, and second vertical strip attached to the base layer, and a first and second strip of lighting elements attached to the base layer. The first vertical strip forms at least a first intersection with the horizontal strip. The second vertical strip forms at least a second intersection with the horizontal strip. The first strip of lighting elements is positioned along an outer edge of the first vertical strip. The second strip of lighting elements is positioned along an outer edge of the second vertical strip. A wiring assembly is routed between the base layer and the horizontal strip. An end of the wiring assembly connects to an end of the first vertical strip at the first intersection. Another end of the wiring assembly connects to an end of the second vertical strip at the second intersection.

A wearable lighting system includes a first wireless communications device such as a transmitter disposed within a vehicle, a light-emitting device worn by a user, and a second wireless communications device such as a sensor. The sensor is worn by the user and is in wireless communication with the transmitter. The sensor is adapted to activate the light-emitting device when the sensor is greater than a threshold distance from the transmitter and adapted to deactivate the light-emitting device when the sensor is a less than or equal to the threshold distance from the transmitter, thereby causing the light-emitting device to automatically activate upon the user exiting the vehicle and automatically deactivate when the user returns to the vehicle.

An indoor visible light positioning method and system based on a single LED lamp. The system includes an LED communication module and a smartphone module. The LED communication module sends its coordinates and shape data to the smartphone module. The smartphone module includes an inertial measurement unit (IMU) and a camera. The IMU is configured to obtain movement data of a smartphone. The camera is configured to shoot video streams of the LED lamp. Computing processing is performed on center point coordinates of the LED lamp and IMU data in the video streams, and constraints are provided by using a homography matrix of ellipses in the video streams, to obtain accurate location information of the smartphone, and provide location-based services such as navigation and query for a user.

An LED mother-son lamp includes a mother lamp body and a son lamp body. The mother lamp body includes a mother lamp bracket a mother lamp head, and a mother lamp cover mounted on the mother lamp bracket. The interior of the mother lamp cover forms a receiving chamber for accommodating the son lamp body and having an opening downward. A positioning seat for pairing and mounting the son lamp body is provided on the mother lamp head. The son lamp body includes a son lamp bracket, a son lamp head and a son lamp cover mounted on the son lamp bracket. The son lamp head is located in the son lamp cover. The top of the son lamp bracket is provided with a quick mounting seat for detachable mounting with the positioning seat.

In one aspect, a gloving light includes a plurality of light emitting diodes (LEDs) arranged in an array; a programmable controller configured to store logic including instructions for controlling a functionality of the plurality of LEDs; at least one user interface for modifying the logic stored in the programmable controller; and a housing configured to enclose the electronics and be retained in a digit of a glove. In another aspect, a gloving light includes at least one LED; at least one integrated circuit configured to store logic including instructions for controlling a functionality of the at least one LED; a user interface for modifying the logic stored in the at least one integrated circuit; a housing configured to enclose at least one integrated circuit and to be inserted into a digit of a glove; and a bidirectional communication interface comprising one or more wireless emitters and receivers for bidirectional communication.

A portable light may comprise: a light body having an illumination, e.g., white, light source and one or more laser light sources, each light source being selectively energizable for producing light; and a switch for selectively energizing the illumination light source and/or the laser light sources. The one or more laser light sources provide diverging narrow beams of laser light, so as to appear as spaced apart dots or spots of laser light on objects illuminated by the beams of laser light. Because the laser light beams diverge, the distance between the dots is proportional to the distance to the object which the dots illuminate. A TIR optical element may also be disposed in front of the illumination light source for receiving the light produced thereby.

A collision risk mitigation pedestrian light emitter is a safety device through which a pedestrian's presence is visually signaled to a vehicle operator to decrease collision potential. The safety device includes a first telescoping leg, a second telescoping leg, a light-emitting device, a power source, and a locking mechanism. The first telescoping leg and second telescoping leg are terminally and hingedly connected to each other to form an L-shaped structure. The locking mechanism secures the L-shaped structure and is mechanically integrated between the first telescoping leg and second telescoping leg. The light-emitting device visually indicates the pedestrian's presence and is adjacently mounted to the first telescoping leg to enable variable light height adjustment. The light-emitting device is powered by and electrically connected to the power source mounted to the first telescoping leg. The second telescoping leg is used to mount/attach the safety device to the pedestrian, preferably to a backpack.

An electronic reading device includes a mid-frame structure such that the mid-frame structure can include a reverse draft. A reverse draft corresponds to a back of the electronic reading device being a predetermined amount wider than a front of the electronic reading device. Additionally, a co-molded mid-frame stiffener provides a predetermined rigidity of the electronic reading device. The electronic reading device also includes a display integrated with the front of the mid-frame structure, wherein a space between the display and the mid-frame structure includes one or more electronic reading device components. Similarly, a back cover is integrated with the back of the mid-frame structure, wherein a space between the back cover and the mid-frame structure includes additional electronic reading device components.

An invisible, light-transmissive display system with a light resistant material is provided. Substantially invisible, tapered, light-transmissive holes are penetrated in a light transmissive pattern through at least a portion of the light resistant material using a laser beam having a focal width less than the smallest diameter of the tapered holes.

A system and method for visualizing, tracking and maintaining social distancing includes a visible boundary generating device having a lighting unit that is disposed within a main body, a user attachment mechanism and a controller for selectively communicating with an external processor enabled device. The lighting unit functioning to generate a visible zone of colored light in 360 degrees around a user to whom the device is secured. The visible light representing a safe zone having a radius that conforms to a specified social distance. The system also including a social distancing mobile application for execution on a smartphone or other processor enabled device. The social distancing mobile application including functionality for sending location information to a system administrator device, receiving proximity alerts from the system administrator device and providing notification to a user.