A light-emitting diode (LED) light string control system with carrier identification function includes a control module, a power capacitor, and an LED light string. The control module converts a DC voltage to carry signals on the DC voltage through a power switch according to a lighting command. The power capacitor performs a capacitive charge-discharge operation to the signals on the DC voltage to generate capacitive charge-discharge signals. The LED light string includes at least one LED module, and the at least one LED module identifies that a charge-discharge characteristic is a first logic, a second logic, or a latch indication, and to generate a drive command corresponding to the signals on the DC voltage according to one of the first logic, the second logic, and the latch identification to control lighting behavior of the LED light string.

A light-emitting diode (LED) light string control system with carrier identification function includes a control module, a power capacitor, and an LED light string. The control module converts a DC voltage to carry signals on the DC voltage through a power switch according to a lighting command. The power capacitor performs a capacitive charge-discharge operation to the signals on the DC voltage to generate capacitive charge-discharge signals. The LED light string includes at least one LED module, and the at least one LED module identifies that a charge-discharge characteristic is a first logic, a second logic, or a latch indication, and to generate a drive command corresponding to the signals on the DC voltage according to one of the first logic, the second logic, and the latch identification to control lighting behavior of the LED light string.

An LED strip light, including: a first signal line, a second power supply wire and a third power supply wire along a first direction as well as a first LED luminous body and a second LED luminous body along a second direction, and the first LED luminous body being electrically connected to the second LED luminous body; a first type of pins of the first LED luminous body and a first type of pins of the second LED luminous body are in a roughly aligned spatial location relationship along the second direction; and moreover, the strip light has any one of the following characteristics: when the first LED luminous body and the second LED luminous body are connected in series, different types of power supply pins are arranged on a same straight line in a staggered manner.

The present invention relates to a bendable decorative lamp, at least comprising: a plurality of segmental light-emitting bodies that are independent of each other, wherein each said segmental light-emitting body has an elastically bendable transparent tube, a flexible strip light having a plurality of light-emitting cells, and a spring steel band that is integrally formed, and the transparent tube radially wraps therein the strip light and the spring steel band that are arranged in parallel to each other, wherein the segmental light-emitting bodies are mechanically separated from each other and electrically connected to each other.

The present invention relates to a bendable decorative lamp, at least comprising: a plurality of segmental light-emitting bodies that are independent of each other, wherein each said segmental light-emitting body has an elastically bendable transparent tube, a flexible strip light having a plurality of light-emitting cells, and a spring steel band that is integrally formed, and the transparent tube radially wraps therein the strip light and the spring steel band that are arranged in parallel to each other, wherein the segmental light-emitting bodies are mechanically separated from each other and electrically connected to each other.

Disclosed is a helmet provided with a radar reflector. The helmet includes a helmet body formed in a shape corresponding to a shape of a user head, and the radar reflector mounted on an outer surface of the helmet body to reflect a radar signal transmitted from radar equipment. The radar reflector includes a plurality of reflection units each concaved in a trigonal pyramid shape having one opened surface, each of the plurality of reflection units reflecting the radar signal. Thus, by applying the radar reflector to the helmet of a user aboard an object to be detected by using a radar signal, the radar signal is effectively reflected in bad weather or at night, thereby improving the recognition rate of radar equipment.

Disclosed is a helmet provided with a radar reflector. The helmet includes a helmet body formed in a shape corresponding to a shape of a user head, and the radar reflector mounted on an outer surface of the helmet body to reflect a radar signal transmitted from radar equipment. The radar reflector includes a plurality of reflection units each concaved in a trigonal pyramid shape having one opened surface, each of the plurality of reflection units reflecting the radar signal. Thus, by applying the radar reflector to the helmet of a user aboard an object to be detected by using a radar signal, the radar signal is effectively reflected in bad weather or at night, thereby improving the recognition rate of radar equipment.

A show effect system may include a plasma tube configured to generate an electric arc within the plasma tube and a light strip extending along the plasma tube. The light strip may include a plurality of light emitters configured to output light through the plasma tube and backlight the electric arc generated by the plasma tube.

A show effect system may include a plasma tube configured to generate an electric arc within the plasma tube and a light strip extending along the plasma tube. The light strip may include a plurality of light emitters configured to output light through the plasma tube and backlight the electric arc generated by the plasma tube.

A multi-conductor bus with radially arranged conductor wires on which addressable bead devices that may incorporate light-emitting diodes (LEDs) or other surface mount devices (SMDs) can be easily mounted. The radial bus is designed to provide an improved range of flexibility and motion while allowing for easy addition of bead devices along its length that utilize self-addressing bus protocols such as cascading device protocols. The design of the flexible, interruptible radial bus facilitates the use of pass-through and interrupted paths along the bus that simplifies the installation of addressable devices along the bus such as the bus-mounted bead devices disclosed herein.