Abstract: A method for producing a vehicle rear module that includes: a clear member monolithically including a lamp section and a window section; and a colored member for shielding at least part of a vehicle interior from the exterior. The method for producing the vehicle rear module comprises: a step for injecting a transparent resin from a single resin injection hole into a first cavity to form the clear member; and a step for injecting a colored resin from a plurality of resin injection holes into a second cavity to form the colored member.

Abstract: Problem: To enhance the accuracy of the information collected from around a vehicle by always keeping constant the relative positions of a plurality of sensors provided at different parts of a vehicle body. Means to Solve the Problem: In a front module panel 11 provided to the front surface of a vehicle body, a panel body 12 is integrally molded by a synthetic resin material, a front grille portion 13 is provided at the center thereof, a front bumper portion 14 is formed below the grille portion, and a translucent cover portion 16 of a head lamp 15 is two-color molded by a transparent resin material at each of both right ends of the panel body 12. A camera is built in each of the head lamps 15, a millimeter wave radar 21 is mounted to an emblem 17, a LIDAR 22 is built in each fog lamp 18, and ultrasonic sensors 23 are disposed near the lower edge of the front bumper portion 14.

Abstract: A method for producing a vehicle rear module that includes: a clear member monolithically including a lamp section and a window section; and a colored member for shielding at least part of a vehicle interior from the exterior. The method for producing the vehicle rear module comprises: a step for injecting a transparent resin from a single resin injection hole into a first cavity to form the clear member; and a step for injecting a colored resin from a plurality of resin injection holes into a second cavity to form the colored member.

Abstract: Provided is a display system for a vehicle. The display system includes a display device installed to be visually recognizable from the outside of a vehicle, and a control device configured to cause the display device to display state information of the vehicle. The control device receives a signal from a sensor that senses a distance from the vehicle to an object around the vehicle, and the control device changes display of the display device based on the distance.

Abstract: Provided is a display system for a vehicle. The display system includes a display device installed to be visually recognizable from the outside of a vehicle, and a control device configured to cause the display device to display state information of the vehicle. The control device receives a signal from a sensor that senses a distance from the vehicle to an object around the vehicle, and the control device changes display of the display device based on the distance.

Abstract: There is provided a production method of a resin composite module for a vehicle, which includes a resin module substrate, and a silicone-based polymer hard coat which is formed on the resin module substrate. The method includes forming the hard coat by coating a silicone-based polymer onto the resin module substrate, and radiating an ultraviolet ray onto at least a part of a surface of the hard coat such that a hardness thereof becomes 0.8 GPa or more as evaluated by a nanoindentation method. The radiating the ultraviolet ray uses a light source unit which includes a light source and emits an ultraviolet ray having a wavelength of 360 nm or less from an emission surface thereof and radiates the ultraviolet ray onto the surface of the hard coat while a distance from the emission surface to the surface of the hard coat is 10 mm or less.

Abstract: Problem: To enhance the accuracy of the information collected from around a vehicle by always keeping constant the relative positions of a plurality of sensors provided at different parts of a vehicle body. Means to Solve the Problem: In a front module panel 11 provided to the front surface of a vehicle body, a panel body 12 is integrally molded by a synthetic resin material, a front grille portion 13 is provided at the center thereof, a front bumper portion 14 is formed below the grille portion, and a translucent cover portion 16 of a head lamp 15 is two-color molded by a transparent resin material at each of both right ends of the panel body 12. A camera is built in each of the head lamps 15, a millimeter wave radar 21 is mounted to an emblem 17, a LIDAR 22 is built in each fog lamp 18, and ultrasonic sensors 23 are disposed near the lower edge of the front bumper portion 14.

Abstract: A water heating device (5) includes an infrared light emitting diode (50) configured to emit a light beam in a wavelength band including a wavelength of 1.4 ?m or more. With the application of an infrared light beam emitted from the infrared light emitting diode (50) toward an applied body (e.g., a front cover (11)), at least a part of the infrared light beam is absorbed into water attached to the applied body to heat the water.

Abstract: Provided is a display system for a vehicle. The display system includes a display device installed to be visually recognizable from the outside of a vehicle, and a control device configured to cause the display device to display state information of the vehicle. The control device receives a signal from a sensor that senses a distance from the vehicle to an object around the vehicle, and the control device changes display of the display device based on the distance.

Abstract: There is provided a production method of a resin composite module for a vehicle, which includes a resin module substrate, and a silicone-based polymer hard coat which is formed on the resin module substrate. The method includes forming the hard coat by coating a silicone-based polymer onto the resin module substrate, and radiating an ultraviolet ray onto at least a part of a surface of the hard coat such that a hardness thereof becomes 0.8 GPa or more as evaluated by a nanoindentation method. The radiating the ultraviolet ray uses a light source unit which includes a light source and emits an ultraviolet ray having a wavelength of 360 0nm or less from an emission surface thereof and radiates the ultraviolet ray onto the surface of the hard coat while a distance from the emission surface to the surface of the hard coat is 10 mm or less.

Abstract: A water heating device (5) includes an infrared light emitting diode (50) configured to emit a light beam in a wavelength band including a wavelength of 1.4 ?m or more. With the application of an infrared light beam emitted from the infrared light emitting diode (50) toward an applied body (e.g., a front cover (11)), at least a part of the infrared light beam is absorbed into water attached to the applied body to heat the water.

Abstract: Provided is a display system for a vehicle. The display system includes a display device installed to be visually recognizable from the outside of a vehicle, and a control device configured to cause the display device to display state information of the vehicle. The control device receives a signal from a sensor that senses a distance from the vehicle to an object around the vehicle, and the control device changes display of the display device based on the distance.

Abstract: A light emitting module includes a board on which a plurality of light emitting devices are mounted, a first interconnecting section having first interconnections, one end of each of which being connected to one of an anode side and an cathode side of an associated one of the light emitting devices, a second interconnecting section having second interconnections, one end of each of which being connected to the other of the anode side and the cathode side of an associated one of the light emitting devices, and a power supply portion provided along one side of the board to receive an external power. The second interconnecting section has at least one, but less than the number of the second interconnections, collectively interconnecting portion to which another end of each of the second interconnections is connected.

Abstract: A light emitting apparatus includes LED chips and a light condenser condensing the light emitted from the LED chips. The light condenser has a first opening functioning as an incident part through which the light emitted from the LED chips enters, a side surface function as a reflector that reflects the light having entered through the first opening, and a second opening functioning as an emission part that emits the light reflected by the side surface. A phosphor layer, which converts the wavelength of the light emitted from the LED chips and emits the wavelength-converted light, is formed in the first opening. The light condenser is arranged such that the phosphor layer is located on the light emission surfaces of the LED chips.

Abstract: A light emitting module includes: a semiconductor light emitting element that emits light of a first color; a wavelength conversion layer that subjects at least a portion of the light of the first color to wavelength conversion and emits light of a second color; and a diffusing layer that diffuses at least one of the light of the first color and the light of the second color. The diffusing layer includes a matrix and a diffusing member distributed in the matrix. The wavelength conversion layer includes a wavelength conversion substance. A difference between a refractive index of the wavelength conversion layer and a refractive index of the matrix is 0.3 or less, and a difference between a refractive index of the matrix and a refractive index of the diffusing member is 0.05 or more.

Abstract: In a light emitting module 40, a light wavelength conversation ceramic 52 converts the wavelength of the light emitted by a semiconductor light emitting element 48 then emits the light. An optical filter 50 transmits the blue light Lb mainly emitted by the semiconductor light emitting element 48 and reflects the yellow light Ly whose wavelength has been mainly converted by the light wavelength conversion ceramic 52. The optical filter 50 is provided on the surface of the light wavelength conversion ceramic 52. The light emitting module 40 is manufactured by: the process where the optical filter 50 is provided on at least one surface of the light wavelength conversion ceramic 52; and the process where the semiconductor light emitting element 48 and the light wavelength conversion ceramic 52 are arranged such that the light emitted by the semiconductor light emitting element 48 is incident into the light wavelength conversion ceramic 52.

Abstract: In a light wavelength conversion unit, a light wavelength conversion member is placed on the emission surface of a semiconductor light-emitting element. The light wavelength conversion member converts the wavelength of blue light, which has emitted from the semiconductor light-emitting element and entered from an incident surface, so as to emit yellow light and then emits the yellow light from an emission surface. A light reflection layer is provided on a lateral face in the surface of the light wavelength conversion member. Here, the lateral face excludes the incident surface and the emission surface. The light wavelength conversion member is roughened such that an average roughness Ra of the lateral face is 0.5 ?m or above.

Abstract: A light emitting device is provided with a semiconductor light emitting element and a wavelength conversion portion. The wavelength conversion portion includes an outer peripheral portion between an input surface and an output surface. The outer peripheral portion includes a first inclined part at a side of the input surface and a second inclined part at a side of the output surface. The first inclined part and the second inclined part define a projecting portion that is projected on the outer peripheral portion.

Abstract: In a light emission module (40), a light wavelength conversion ceramic (52) is formed in a sheet shape which converts the wavelength of the light emitted from a semiconductor light emission element (48) when emitting the light. The light wavelength conversion ceramic (52) has a tapered plane (52a) which is inclined to approach the semiconductor light emission element (48) toward the brim portion. The light wavelength conversion ceramic (52) is transparent and is arranged so that the light emission wavelength band after the conversion has an all ray permeability of 40% or above.

Abstract: A light emitting apparatus includes LED chips and a light condenser condensing the light emitted from the LED chips. The light condenser has a first opening functioning as an incident part through which the light emitted from the LED chips enters, a side surface function as a reflector that reflects the light having entered through the first opening, and a second opening functioning as an emission part that emits the light reflected by the side surface. A phosphor layer, which converts the wavelength of the light emitted from the LED chips and emits the wavelength-converted light, is formed in the first opening. The light condenser is arranged such that the phosphor layer is located on the light emission surfaces of the LED chips.