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DE-102025130724-A1 - LIGHT CONTROL SYSTEM, LIGHT CONTROL METHOD AND VEHICLE

DE102025130724A1DE 102025130724 A1DE102025130724 A1DE 102025130724A1DE-102025130724-A1

Abstract

A lighting control system for a moving object and a lighting control method for it are provided. The lighting control system comprises a luminaire for emitting a beam pattern from multiple beam patterns towards the front of the moving object, a memory for storing location-based driving data or data obtained by analyzing and refining the location-based driving data, and a processor for controlling the beam pattern based on the data stored in the memory and the location information of the moving object.

Inventors

  • Jun Young SUNG

Assignees

  • HYUNDAI MOBIS CO., LTD.

Dates

Publication Date
20260513
Application Date
20250804
Priority Date
20241108

Claims (20)

  1. Lighting control system for a moving object, wherein the lighting control system comprises: a luminaire configured to emit a beam pattern consisting of multiple beam patterns toward the front of the moving object; a memory for storing location-based driving data or data obtained by analyzing and refining location-based driving data; and a processor configured to control the beam pattern based on the data stored in the memory and location information of the moving object.
  2. Lighting control system according to Claim 1 , wherein the processor is further configured to control the luminaire to increase a beam width of the beam pattern based on a lane-change frequency of the driving data corresponding to the location information of the moving object when this exceeds a preset reference value.
  3. Lighting control system according to Claim 2 , wherein the processor is further configured to emit a beam pattern with a beam width that increases proportionally to the track change frequency.
  4. Lighting control system according to Claim 1 , 2 or 3 , wherein the processor is further configured to control the luminaire to reduce a beam width of the beam pattern based on a lane-change frequency of the driving data corresponding to the location information of the moving object, when this falls below a preset reference value.
  5. Lighting control system according to one of the Claims 1 until 4 , wherein the processor is further configured to control the luminaire to increase a beam distance or beam width of the beam pattern based on a frequency of sudden braking of the driving data corresponding to the location information of the moving object when this exceeds a preset reference value.
  6. Lighting control system according to Claim 5 , wherein the processor is further configured to emit a beam pattern with a beam distance or beam width that increases proportionally to the frequency of sudden braking.
  7. Lighting control system according to one of the Claims 1 until 6 , wherein the processor is further configured to determine, based on driving data of the moving object, whether the moving object intends to overtake a vehicle ahead, and controls the light to emit a specific beam pattern based on location-based usage history data of the specific beam pattern and the location information of the moving object.
  8. Lighting control system according to Claim 7 , wherein the processor is further configured to control the luminaire to emit a beam pattern with a beam distance or beam width that increases proportionally to the frequency of use of the specific beam pattern.
  9. Lighting control system according to one of the Claims 1 until 4 , wherein the data are obtained by analyzing and refining location-based driving data, or the driving data comprise data obtained by collecting and processing data on lane-change frequency on a separate road segment, sudden braking frequency on the separate road segment, or usage frequency of a specific beam pattern on the separate road segment by multiple moving objects based on information about the separate road segment or location information.
  10. Lighting control system according to one of the Claims 1 until 9 , wherein the processor is further configured to additionally use at least one of the following information to control the beam pattern: navigation information, information related to a driver assistance system, or information from a vehicle control output interface.
  11. Lighting control system for a moving object, wherein the lighting control system comprises: a luminaire configured to emit a beam pattern consisting of multiple beam patterns toward the front of the moving object; a memory for storing data obtained by analyzing and refining location-based usage history data of a specific beam pattern or usage history data of the specific beam pattern; and a processor configured to control the beam pattern based on the data stored in the memory and the location information of the moving object.
  12. Lighting control system according to Claim 11 , wherein the processor is further configured to activate an adaptive lighting mode based on a frequency of illumination of the specific beam pattern that corresponds to the location information of the moving object, as indicated by the data exceeding a preset reference value.
  13. Lighting control system according to Claim 12 , wherein the processor is further configured to emit a beam pattern with a central brightness that increases proportionally to the frequency of illumination.
  14. Lighting control system according to Claim 12 or 13 , wherein the processor is further configured to disable the adaptive lighting mode, change an operating mode of the luminaire, or change a parameter of the adaptive lighting mode based on a frequency of switching off the specific beam pattern that corresponds to the location information of the moving object, as indicated by the data exceeding a preset reference value.
  15. Lighting control system according to Claim 14 , wherein the operating mode of the light includes a high beam assist mode or a low beam mode.
  16. Lighting control system according to Claim 14 or 15 , wherein the processor is further configured to use a camera of the moving object to determine the average detection or non-detection of a rear light of a vehicle ahead over a preset period of time and calculates a result.
  17. Lighting control system according to Claim 16 , wherein the processor is further configured to control the light according to the result of the detection or non-detection of the rear light of the vehicle ahead.
  18. Lighting control system according to one of the Claims 11 until 17 , wherein the location-based usage history data of the specific beam pattern includes data linked to operational information of a lever for illuminating the specific beam pattern and location information of a navigation of multiple moving objects.
  19. Lighting control system according to one of the Claims 11 until 18 , wherein the data obtained by analyzing and refining the location-based usage history data of the specific beam pattern comprise Big Data obtained by collecting and analyzing a usage history of the specific beam pattern of multiple moving objects based on location information.
  20. A lighting control method for a moving object, performed by a lighting control system comprising a luminaire configured to emit a beam pattern toward the front of the moving object, wherein the lighting control method comprises: acquiring location information of the moving object; extracting data obtained from location-based driving data or by analyzing and refining the location-based driving data; and controlling the beam pattern based on the extracted data and the location information of the moving object.

Description

1. Area The present invention relates to a lighting control system, a lighting control method and a vehicle, in particular a lighting control system, a lighting control method and a vehicle that use location information corresponding to driving data. Description of the state of the art With the increasing use of light-emitting diodes (LEDs) as light sources in vehicle lights, the number of high-beam and low-beam modules with varying performance characteristics has also increased. In particular, a trend towards the integration of high-beam and low-beam vehicle modules has emerged, attracting considerable attention in the market due to their low cost, compact design, simple construction, and comprehensive functionality. As public interest in road safety increases, a significant number of traffic accidents occur each year due to the improper use of high beams. A vehicle lighting module with an Intelligent Front Lighting System (IFS) can, to a certain extent, resolve the conflict between high and low beams. This means the vehicle lighting module provides excellent visibility for the driver while preventing glare from other drivers. The IFS function incorporates a type of intelligent control that can regulate the illumination area and brightness in real time by independently controlling each LED, effectively preventing glare from other vehicles and pedestrians. In existing vehicles equipped with IFS (Intelligent Front-lighting System), the driver directly sets a speed at which the IFS activates, and the system is automatically activated when the vehicle exceeds this speed. However, this existing method has the disadvantage of controlling the lighting without considering the surroundings of the road. This results in the lights being dimmed on relatively dark roads or brighter in relatively bright areas, impairing the visibility of pedestrians or other drivers. The IFS may activate earlier than the driver intends, potentially leading to numerous malfunctions due to camera detection errors, or it may activate later than desired, causing frustration. It is common for drivers to be unaware of the IFS function, even though the vehicle is equipped with it, and therefore not use it. A procedure is therefore needed to automatically activate the IFS function according to the road environment and the driver's preferences. SUMMARY The present invention proposes a lighting control system configured to control a light using driving data, a vehicle with the lighting control system, or a method for doing so. The present invention proposes a lighting control system configured to control a beam pattern according to a data-based lane-change frequency when performing lighting control, a vehicle with the lighting control system, or a method therefor. The present invention proposes a lighting control system configured to control a beam pattern according to a driving data-based frequency of sudden braking during the execution of the lighting control, a vehicle with the lighting control system, or a method therefor. The present invention proposes a lighting control system configured to detect, based on driving data, whether a low beam is being used when performing lighting control, and controls a beam pattern accordingly, a vehicle with the lighting control system, or a method for doing so. The objects of the present invention are not limited to those described above. Other objects not described above may be apparent to a person skilled in the art from the following description of the present invention. The tasks are solved using the features of the independent claims. Preferred aspects are defined in the dependent claims. In general terms, a lighting control system for a moving object comprises: a luminaire configured to emit a beam pattern consisting of multiple beam patterns toward the front of the moving object; a memory for storing location-based driving data or data obtained by analyzing and refining location-based driving data; and a processor configured to control the beam pattern based on the data stored in the memory and location information of the moving object. Furthermore, the processor can be configured to control the light so that it amplifies a beam width of the beam pattern based on a lane-change frequency of the driving data according to the location information of the moving object, when this exceeds a preset reference value. The processor can also be configured to emit a beam pattern with a beam width that increases proportionally to the track change frequency. Furthermore, the processor can be configured to control the light so that it reduces the beam width of the beam pattern based on the lane-change frequency of the driving data according to the location information of the moving object, if this falls below a preset reference value. The processor can also be configured to control the light so that it increases a beam distance or beam width of the beam pattern based on a frequency of sudden braking of the driving