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WO2018028439A1 - 光源模组及带有光源模组的灯具 - Google Patents

光源模组及带有光源模组的灯具 Download PDF

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Publication number
WO2018028439A1
WO2018028439A1 PCT/CN2017/094648 CN2017094648W WO2018028439A1 WO 2018028439 A1 WO2018028439 A1 WO 2018028439A1 CN 2017094648 W CN2017094648 W CN 2017094648W WO 2018028439 A1 WO2018028439 A1 WO 2018028439A1
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WO
WIPO (PCT)
Prior art keywords
light source
chip
light
color
color temperature
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Ceased
Application number
PCT/CN2017/094648
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English (en)
French (fr)
Inventor
武良举
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Vertex Lighting and Electrical Co Ltd
Original Assignee
Vertex Lighting and Electrical Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Vertex Lighting and Electrical Co Ltd filed Critical Vertex Lighting and Electrical Co Ltd
Priority to ES17838569T priority Critical patent/ES2905879T3/es
Priority to DK17838569.6T priority patent/DK3499109T3/da
Priority to EP17838569.6A priority patent/EP3499109B8/en
Publication of WO2018028439A1 publication Critical patent/WO2018028439A1/zh
Anticipated expiration legal-status Critical
Ceased legal-status Critical Current

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Classifications

    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F21LIGHTING
    • F21SNON-PORTABLE LIGHTING DEVICES; SYSTEMS THEREOF; VEHICLE LIGHTING DEVICES SPECIALLY ADAPTED FOR VEHICLE EXTERIORS
    • F21S8/00Lighting devices intended for fixed installation
    • F21S8/02Lighting devices intended for fixed installation of recess-mounted type, e.g. downlighters
    • F21S8/026Lighting devices intended for fixed installation of recess-mounted type, e.g. downlighters intended to be recessed in a ceiling or like overhead structure, e.g. suspended ceiling
    • HELECTRICITY
    • H10SEMICONDUCTOR DEVICES; ELECTRIC SOLID-STATE DEVICES NOT OTHERWISE PROVIDED FOR
    • H10HINORGANIC LIGHT-EMITTING SEMICONDUCTOR DEVICES HAVING POTENTIAL BARRIERS
    • H10H20/00Individual inorganic light-emitting semiconductor devices having potential barriers, e.g. light-emitting diodes [LED]
    • H10H20/80Constructional details
    • H10H20/85Packages
    • H10H20/851Wavelength conversion means
    • H10H20/8511Wavelength conversion means characterised by their material, e.g. binder
    • H10H20/8512Wavelength conversion materials
    • H10H20/8513Wavelength conversion materials having two or more wavelength conversion materials
    • HELECTRICITY
    • H10SEMICONDUCTOR DEVICES; ELECTRIC SOLID-STATE DEVICES NOT OTHERWISE PROVIDED FOR
    • H10HINORGANIC LIGHT-EMITTING SEMICONDUCTOR DEVICES HAVING POTENTIAL BARRIERS
    • H10H20/00Individual inorganic light-emitting semiconductor devices having potential barriers, e.g. light-emitting diodes [LED]
    • H10H20/80Constructional details
    • H10H20/85Packages
    • H10H20/852Encapsulations
    • H10H20/853Encapsulations characterised by their shape
    • H10W90/00
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F21LIGHTING
    • F21YINDEXING SCHEME ASSOCIATED WITH SUBCLASSES F21K, F21L, F21S and F21V, RELATING TO THE FORM OR THE KIND OF THE LIGHT SOURCES OR OF THE COLOUR OF THE LIGHT EMITTED
    • F21Y2105/00Planar light sources
    • F21Y2105/10Planar light sources comprising a two-dimensional array of point-like light-generating elements
    • F21Y2105/14Planar light sources comprising a two-dimensional array of point-like light-generating elements characterised by the overall shape of the two-dimensional array
    • F21Y2105/16Planar light sources comprising a two-dimensional array of point-like light-generating elements characterised by the overall shape of the two-dimensional array square or rectangular, e.g. for light panels
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F21LIGHTING
    • F21YINDEXING SCHEME ASSOCIATED WITH SUBCLASSES F21K, F21L, F21S and F21V, RELATING TO THE FORM OR THE KIND OF THE LIGHT SOURCES OR OF THE COLOUR OF THE LIGHT EMITTED
    • F21Y2105/00Planar light sources
    • F21Y2105/10Planar light sources comprising a two-dimensional array of point-like light-generating elements
    • F21Y2105/14Planar light sources comprising a two-dimensional array of point-like light-generating elements characterised by the overall shape of the two-dimensional array
    • F21Y2105/18Planar light sources comprising a two-dimensional array of point-like light-generating elements characterised by the overall shape of the two-dimensional array annular; polygonal other than square or rectangular, e.g. for spotlights or for generating an axially symmetrical light beam
    • HELECTRICITY
    • H10SEMICONDUCTOR DEVICES; ELECTRIC SOLID-STATE DEVICES NOT OTHERWISE PROVIDED FOR
    • H10HINORGANIC LIGHT-EMITTING SEMICONDUCTOR DEVICES HAVING POTENTIAL BARRIERS
    • H10H20/00Individual inorganic light-emitting semiconductor devices having potential barriers, e.g. light-emitting diodes [LED]
    • H10H20/80Constructional details
    • H10H20/85Packages
    • H10H20/851Wavelength conversion means
    • H10H20/8514Wavelength conversion means characterised by their shape, e.g. plate or foil
    • HELECTRICITY
    • H10SEMICONDUCTOR DEVICES; ELECTRIC SOLID-STATE DEVICES NOT OTHERWISE PROVIDED FOR
    • H10HINORGANIC LIGHT-EMITTING SEMICONDUCTOR DEVICES HAVING POTENTIAL BARRIERS
    • H10H20/00Individual inorganic light-emitting semiconductor devices having potential barriers, e.g. light-emitting diodes [LED]
    • H10H20/80Constructional details
    • H10H20/85Packages
    • H10H20/857Interconnections, e.g. lead-frames, bond wires or solder balls

Definitions

  • the utility model relates to a light source module and a lamp with a light source module, wherein the light source emitted by the light source can realize colorful coloring, and has white light with adjustable color temperature points, which enhances diversity and practicability.
  • the LED has a colorful light source and energy saving, and is widely used in people's daily life.
  • the current LED light source on the market has the following problems: from the perspective of the light source, the existing light source module only contains three primary color LED chips, although during use, the user can obtain different output voltage or current parameters by adjusting the power supply.
  • the combined proportion of red, green and blue LED chips is used to satisfy the colorful light source effect, but such a combined light source has many use defects, such as low light efficiency and uneven light color (ie, each light source emits The light color deviation is large) and so on.
  • the LED light source is limited in use, and can only be applied to decorative lighting, landscape lighting or mood lighting, etc., and cannot be applied to white lighting occasions (such as reading, dining, meeting, office) that people need daily. .
  • a COB light source with a two-color temperature
  • the RGBW four-channel color output COB light source module combining the two also has certain defects. Since such a light source module contains three primary colors and a single white light (color temperature of 6000K or more) LED chip, it can be adjusted and driven.
  • the output voltage or current parameter of the power supply uses the ratio of the luminous intensity of the LED red green blue chip and the white light chip to obtain the color light effect of the combined white light, but the combined white light thus produced cannot emit the natural warm or the light color with the same brightness and warm white light, so this The LED-like light source is difficult to obtain the ideal white color effect of the color temperature, and cannot satisfy the diverse white lighting scene.
  • RGBW light source module is difficult to make a four-output common anode or common cathode structure in the packaging process, that is, each light color chipset has positive and negative two wire bond pins, RGBW light source mode.
  • the group has a total of eight wire bond pins, which results in a long engineering quantity of the welding wires during the assembly process of the lamp, which affects the production efficiency of the lamp to a certain extent.
  • each LED discrete device has a lens on the structure, when secondary light distribution is performed on multiple light-emitting points, especially the secondary light distribution of the key lighting fixtures, it is easy to cause ghosting and spotting.
  • Optical performance defects such as unnatural transition, different light color stratification.
  • An object of the present invention is to provide a light source module and a light fixture with the light source module, which can realize colorful coloring and color temperature white light effect to meet diverse scene usage requirements.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein a three primary color light source and a set of color temperatureable light sources are symmetrically disposed on a substrate, respectively.
  • a circuit component controls the three primary color light sources and the chromatic temperature source to emit a plurality of combined light sources.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, the three primary color light sources and the color tunable temperature light source being the same anode, and the three primary color light sources and the adjustable The color temperature light sources respectively have different cathodes, and the three primary color light sources and the color tunable temperature light source are each capable of changing the color temperature according to the intensity of the voltage or current.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, the color temperature source includes a first color temperature light source and a second color temperature light source, and the first color temperature light source and/or Or a second color temperature light source is selectively mounted to the substrate in accordance with the three primary color light sources.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein each of the first color temperature light sources of the light source module are symmetrically disposed on two sides of the three primary color light sources.
  • the three primary color light sources and the first color temperature light source are combined to emit a colorful light beam.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein the second color temperature light sources of the light source module are symmetrically disposed on two sides of the three primary color light sources, The three primary color light sources and the second color temperature light source are combined to emit a colorful light beam.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein the three primary color light sources, each of the first color temperature light sources, and each of the second color temperature light sources are symmetrically disposed on the a central region of the substrate, wherein each of the first color temperature light sources is located outside the three primary color light sources, and the first color temperature light sources are respectively located intermediate the three primary color light sources and the second color temperature light sources.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein the three primary color light sources, each of the first color temperature light sources, and each of the second color temperature light sources are symmetrically disposed on the a substrate, wherein each of the second color temperature light sources is respectively located outside of the three primary color light sources, and the second color The warm light sources are respectively located in the middle of the three primary color light sources and the first color temperature light sources.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein the first color temperature light source and/or the second color temperature light source are respectively concentrically disposed at the center of the three primary color light sources.
  • the substrate respectively forms a periphery of the three primary color light sources.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein the three primary color light sources, the first color temperature light source, and the second color temperature light source are respectively the same anode, and the three The primary color light source, the first color temperature light source, and the second color temperature light source respectively have different cathodes, and the three primary color light sources, the first color temperature light source, and the second color temperature light source are respectively changed according to the intensity of the voltage or current Color temperature.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein the three primary color light sources include a set of first chips and a first cover layer, and each of the first chips is along the same An A-axis on the substrate is longitudinally aligned such that the first chip is capable of emitting each of the three primary color sources that are adjustable.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein the first color temperature light source comprises a set of second chips and a second cover layer, and each of the second chips is along The A-axis is longitudinally aligned, and the second cover layer covers the second chip such that the second chip is capable of producing adjustable cool white light.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein the second color temperature light source comprises a set of third chips and a third cover layer, and each of the third chips is along The A-axis is longitudinally aligned, and the third cover layer covers the third chip, so that the third chip is capable of producing adjustable warm white light.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein the light source shares a lens to achieve a secondary light distribution design with a certain beam angle of the key illumination effect.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein each of the light sources is symmetrically disposed on the substrate according to a predetermined preset rule, and the structure is compact.
  • Another object of the present invention is to provide a light source module and a light fixture with a light source module, which is a COB (Chip On Board) light source module of a chip scale package, and has a small size, so that the light source module Compact structure.
  • a light source module which is a COB (Chip On Board) light source module of a chip scale package, and has a small size, so that the light source module Compact structure.
  • Another object of the present invention is to provide a light source module and a lamp with a light source module, wherein the light source module is a COB light source module, which is made by an LED package manufacturer, thereby reducing production process and saving Cost of production.
  • the light source module is a COB light source module, which is made by an LED package manufacturer, thereby reducing production process and saving Cost of production.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, the lamp includes a casing and a connecting component, the casing further comprising a base, a casing and a cover.
  • the base, the outer casing and the cover are detachably connected by the connecting member, respectively.
  • Another object of the present invention is to provide a light source module and a light fixture with the light source module, wherein the light source module is detachably disposed in the receiving cavity of the base through a heat dissipating component, and a lens is disposed at the same time.
  • the light source module is detachably disposed in the receiving cavity of the base through a heat dissipating component, and a lens is disposed at the same time.
  • a light source module includes a substrate, and a light source assembly, the light source assembly includes a light source, and the light source is disposed on the substrate, wherein the light source
  • the light source further includes a three primary color light source, the three primary color light sources are disposed on the substrate, and at least one color temperatureable light source, wherein each of the color tunable temperature light sources are respectively disposed on the substrate, and each of the The color temperatureable light sources are respectively disposed outside the three primary color light sources, and the three primary color light sources and the color tunable temperature light sources are combined to emit a plurality of combined light sources.
  • the color tunable temperature source comprises a set of first color temperature light sources, each of the first color temperature light sources being located on opposite sides of the three primary color light sources, the three primary color light sources and the first A color temperature source can be combined to emit a plurality of combined sources.
  • the color tunable temperature source comprises a set of second color temperature light sources, each of the second color temperature light sources being respectively located on two sides of the three primary color light sources, the three primary color light source sheets and the The second color temperature source is combined to emit a plurality of combined sources.
  • the color tunable temperature source comprises a set of first color temperature light sources and a set of second color temperature light sources, each of the first color temperature light sources being respectively located on opposite sides of the three primary color light sources,
  • the second color temperature light source is located outside the first color temperature light source, that is, the first color temperature light source is located between the three primary color light sources and the second color temperature light source.
  • the color tunable temperature source comprises a set of first color temperature light sources and a set of second color temperature light sources, each of the second color temperature light sources being respectively located on opposite sides of the three primary color light sources,
  • the first color temperature light source is located outside the second color temperature light source, that is, the second color temperature light source is located between the three primary color light sources and the second color temperature light source.
  • the color temperature source includes a first color temperature light source and a second color temperature light source, wherein each of the first color temperature light source and each of the second color temperature light sources respectively have the three primary colors
  • the center point of the pattern formed by the light source is centered, and is disposed at the periphery of the three primary color light sources at the same center point.
  • the three primary color light sources comprise a set of first chips and a first cover layer, each of the first chips being longitudinally arranged along an A axis on the substrate, the first cover The layers are correspondingly longitudinally covered along the A-axis to the surface of the first chip.
  • the first color temperature light source comprises a set of second chips and a second cover layer, each of the second chips being longitudinally arranged along the A axis, the second cover layer A surface of the second chip is longitudinally covered along the A-axis.
  • the second color temperature light source comprises a set of third chips and a third cover layer, each of the third chips being longitudinally arranged along the A axis, the third cover layer A surface of the third chip is longitudinally covered along the A-axis.
  • each of the second chips is located on two sides of the first chip, and the first chip and the second chip are combined to emit a plurality of light sources.
  • each of the second chips is located at two sides of the first chip, and the third chip is located outside the second chip, that is, the second chip is located at the first The middle of the chip and the third chip.
  • each of the third chips is located on two sides of the first chip, and the first chip and the third chip are combined to emit a plurality of light sources.
  • each of the third chips is located on two sides of the first chip, and the second chip is located outside the third chip, that is, the third chip is located at the first The middle of the chip and the second chip.
  • each of the second chips and each of the third chips are respectively disposed at the center point of the pattern formed by the first chip, and the same center point is disposed on the three primary color light sources.
  • the periphery is a preferred embodiment.
  • the light source assembly includes a circuit component, the circuit component is disposed on the substrate, and the three primary color light sources and the color tunable temperature light source are respectively electrically connected to the circuit component.
  • An external power source is electrically coupled to the illumination source through the circuit component such that the illumination source is emitted to be combined to emit a plurality of light sources.
  • the circuit component comprises an electrode member and an electrical component
  • the electrode member and the electrical member are respectively electrically connected to the first chip, the second chip and the third chip, and the external power source causes the three through the electrode member and the electrical connector
  • the primary color source, the first color temperature source, and the second color temperature source are in an operational state of the emission source.
  • the electrode member further includes an anode and a set of negative electrodes, and one ends of the first chip, the second chip, and the third chip are electrically connected to the anode, the first The other ends of the chip, the second chip, and the third chip are respectively electrically connected to the negative electrode, the anode is electrically connected to the positive electrode of the external power source, and the negative electrode is electrically connected to the negative electrode of the external power source.
  • the first chip is a three-primary LED chip
  • the three primary color LED chips respectively comprise a red optical chip, a blue optical chip, a green optical chip three-way chip set, and the first cover layer a transparent colloidal material such as silica gel or epoxy resin; adjusting the voltage or current value ratio of the three-way photochromic chip set in the three primary color LED chips, and transmitting through the first cover layer
  • the combination emits a variety of colored lights.
  • the second cover layer is a colloidal material having a specific ratio of YAG phosphor components, and the second chip is transparent.
  • the second cover layer cold white light having an excellent temperature range of 4500K-7000K is generated
  • the third cover layer is another specific ratio of a colloidal material having a YAG phosphor component, and the third chip is transparent.
  • the third cover layer is configured to generate warm white light having an excellent temperature range of 1000K-4500K; by adjusting the ratio of voltage or current values of the second chip and the third chip, respectively, and correspondingly transmitting
  • the second cover layer and the third cover layer are combined to emit white light with an excellent temperature range of 1000K-7000K, so that the light source module obtains a white light illumination effect with adjustable color temperature.
  • a lamp with a light source module includes a lamp body, the lamp body includes a casing and a connecting component, the casing includes a base and a casing, and the connecting component includes a first connecting component and a set a mounting member, the base is disposed on the outer casing through the first connecting member, each of the mounting members is respectively disposed on two sides of the outer casing; and a light source module, wherein the light source module is disposed on the The light source module is disposed in a receiving cavity of the outer casing, the light source module includes a substrate and a light source component, the light source component is disposed on the substrate, and the light source component includes a
  • the light source comprises a three primary color light source and a set of color tunable temperature light sources, wherein the three primary color light sources and the tonable temperature light source are respectively disposed on the substrate, the three primary color light sources and the adjustable The color temperature source is capable of emitting a plurality of light sources that are combined.
  • the light source assembly comprises a circuit component
  • the circuit component is In the substrate
  • the three primary color light sources and the color tunable temperature source are respectively electrically connected to the circuit component
  • an external power source is electrically connected to the illumination source through the circuit component, so that the illumination source is emitted.
  • the housing includes a cover
  • the connecting member includes a second connecting member
  • the cover is disposed on the outer casing through the second connecting member, and the cover has a transparent cover
  • the light beam emitted by the light source module is transmitted through the light transmitting surface.
  • the housing includes a lens
  • the connecting component includes a heat dissipating member
  • the lens is disposed on the heat dissipating member
  • the light source module is disposed on the heat dissipating component while A light source module is located within the lens.
  • the light source comprises a three primary color light source and a set of cold second color temperature light sources, wherein the three primary color light sources and the color tunable temperature light source are respectively disposed on the substrate, the three primary colors a light source and the color tunable light source are respectively electrically connected to the circuit component, and an external power source is electrically connected to the light source through the circuit component, so that the three primary color light sources and the color tunable light source are emitted A variety of light sources that are combined.
  • the three primary color light sources comprise a set of first chips and a first cover layer, each of the first chips being longitudinally arranged along an A axis on the substrate, the first cover A layer covers the first chip.
  • the first color temperature light source comprises a set of second chips and a second cover layer, each of the second chips being longitudinally arranged along the A axis, the second cover layer Covering the second chip.
  • the second color temperature light source comprises a set of third chips and a third cover layer, each of the third chips being longitudinally arranged along the A axis, the third cover layer Covering the third chip.
  • each of the second chips is located on two sides of the first chip, and the first chip and the second chip are combined to emit a plurality of combined light sources.
  • each of the second chips is located at two sides of the first chip, and the third chip is located outside the second chip, that is, the second chip is located at the first The middle of the chip and the third chip.
  • each of the third chips is located on two sides of the first chip, The first chip and the third chip are combined to emit a plurality of combined light sources.
  • each of the third chips is located on two sides of the first chip, and the second chip is located outside the third chip, that is, the third chip is located at the first The middle of the chip and the second chip.
  • the circuit component comprises an electrode member and an electrical component
  • the electrode component and the electrical component are respectively electrically connected to the first chip and the second chip
  • the external power source causes the three primary color light sources and the first color temperature light source to be in an operating state in which the light source is generated through the electrode member and the electrical link.
  • the circuit component comprises an electrode member and an electrical component
  • the electrode component and the electrical component are respectively electrically connected to the first chip and the third chip
  • the external power source causes the three primary color light sources and the second color temperature light source to be in an operating state in which the light source is generated by the electrode member and the electrical link.
  • the circuit component comprises an electrode member and an electrical component
  • the electrode component and the electrical component are respectively electrically connected to the first chip, the second chip and the And a third chip
  • the external power source passes the electrode member and the electrical component to cause the three primary color light sources, the first color temperature light source, and the second color temperature light source to be in an operating state in which the light source is generated.
  • the electrode member further includes an anode and a set of negative electrodes
  • one end of the first chip and the second chip are electrically connected to the anode
  • the first chip and the The other end of the second chip is electrically connected to the negative electrode
  • the anode is electrically connected to the positive electrode of the external power source
  • the negative electrode is electrically connected to the negative electrode of the external power source.
  • the electrode member further includes an anode and a set of negative electrodes
  • one end of the first chip and the third chip are electrically connected to the anode
  • the first chip and the The other end of the third chip is electrically connected to the negative electrode
  • the anode is electrically connected to the positive electrode of the external power source
  • the negative electrode is electrically connected to the negative electrode of the external power source.
  • the electrode member further includes an anode and a set of negative electrodes, and one ends of the first chip, the second chip, and the third chip are electrically connected to the anode, the first The other ends of the chip, the second chip, and the third chip are respectively electrically connected to the negative electrode, the anode is electrically connected to the positive electrode of the external power source, and the negative electrode is electrically connected to the negative electrode of the external power source.
  • the negative electrode further comprises a first negative electrode and a second negative
  • the first negative electrode is electrically connected to the first chip
  • the second negative electrode is electrically connected to the second chip, so that the three primary color light sources and the first color temperature light source are respectively changed by voltage or current Value, change the brightness of the light.
  • the negative electrode further includes a first negative electrode and a third negative electrode, the first negative electrode is electrically connected to the first chip, and the third negative electrode is electrically connected to the third chip.
  • the three primary color light sources and the second color temperature light source are respectively changed in light intensity by changing a voltage or current value.
  • the negative electrode further includes a first negative electrode, a second negative electrode, and a third negative electrode, wherein the first negative electrode is electrically connected to the first chip, and the second negative electrode is electrically connected to The second chip is electrically connected to the third chip, so that the three primary color light sources, the first color temperature light source, and the second color temperature light source are respectively changed by changing a voltage or current value. Light intensity.
  • the first chip is a three primary color LED chip.
  • the second chip and the third chip are respectively LED blue chips.
  • the first cover layer is a transparent light transmissive gel material such as silica gel or epoxy resin.
  • the second cover layer is a light transmissive colloid having a YAG phosphor composition, such that the first color temperature source is capable of producing cool white light having a color temperature ranging from 4500K to 7000K.
  • the third cover layer is a light transmissive colloid having a YAG phosphor composition, such that the second color temperature source is capable of producing warm white light having a color temperature ranging from 1000K to 4500K.
  • the substrate is a sheet-like structure made of aluminum or ceramic.
  • 1A and 1B are a first embodiment of a positional relationship of a three primary color light source and a first color temperature light source disposed on a substrate according to the present invention.
  • 2A and 2B are a second embodiment of a positional relationship of a three primary color light source and a second color temperature light source disposed on a substrate according to the present invention.
  • 3A and 3B are a third embodiment of a positional relationship of a three primary color light source, a first color temperature light source, and a second color temperature light source disposed on a substrate according to the present invention.
  • 4A and 4B are a fourth embodiment of a positional relationship of a three primary color light source, a first color temperature light source, and a second color temperature light source disposed on a substrate according to the present invention.
  • 5A and 5B are a fifth embodiment of a positional relationship of a three primary color light source, a first color temperature light source, and a second color temperature light source disposed on a substrate according to the present invention.
  • FIG. 6 is a schematic circuit diagram of a first chip, a second chip, and a third chip disposed on a substrate according to the present invention.
  • Figure 7 is an overall schematic view of a luminaire with a light source module in accordance with the present invention.
  • Figure 8 is an exploded view of a luminaire with a light source module in accordance with the present invention.
  • a light source module 1 of the present invention realizes colorful color grading and white light having different gradable temperature points, so that the light source module 1 can be widely used in various life.
  • the traditional light source module is subject to many restrictions during use.
  • the light source module 1 includes a substrate 10 and a light source assembly 20 .
  • the light source assembly 20 is disposed on a central area of a mounting surface of the substrate 10 , and the substrate 10 provides a mounting plane for the light source module 1 .
  • the substrate 10 is a sheet-like structure made of aluminum or ceramic.
  • the light source assembly 20 includes a light source 21 and a circuit component 22, and each of the light source 21 and the circuit component 22 are respectively disposed on the mounting surface of the substrate 10, and the light source 21 passes the
  • the circuit component 22 is electrically coupled to an external power source such that the illumination source 21 produces a light source when energized.
  • the light source module 1 can generate different light source combinations according to the needs of the user, and combine different light beams according to different light-emitting brightness ratios of the three primary colors; or use cool white light and/or warm white light to combine different brightness ratios to achieve high light efficiency. White light with different color temperature points.
  • the illumination source 21 further includes a three primary color light source 211 and at least one color temperatureable light source 212.
  • the three primary color light sources 211 and the color tunable temperature source 212 are respectively disposed on the substrate 10
  • the three primary color light sources 211 and the color tunable temperature light source 212 are respectively electrically connected to the circuit component 22, and an external power source is electrically connected.
  • the three primary color light sources 211 and the color tunable temperature light source 212 are respectively in a charged working state, and the three primary color light sources 211 and the light source emitted by the color tunable temperature light source 212 are selected.
  • the three primary color light sources 211 are chips of three primary color bands, and those of the three primary color bands are understood by those skilled in the art that the three primary color light sources 211 can emit red light, blue light, and green light.
  • the three primary color band light sources are based on three primary colors, and different color ratios are selected according to different application environments to combine colorful tones, that is, the three primary color light sources 211 can be arbitrarily adjusted according to the actual needs of the user. Different color beams to meet the needs of use.
  • the color temperature source 212 includes a set of first color temperature light sources 2121 and a set of second color temperature light sources 2122.
  • the first color temperature light source 2121 is capable of generating cool white light in an energized state
  • the second color temperature light source 2122 It is possible to produce warm white light when it is energized.
  • the first color temperature light source 2121 and the second color temperature light source 2122 combine white light of different color temperature points with high light efficiency by different brightness ratios to meet the use requirements of the environment.
  • the light source module 1 can selectively adjust the combination ratio of the three primary color light sources and/or the cool and warm white light sources to enhance the practicability.
  • the light source module on the market can only use the three primary color light source or the color temperatureable light source. Once the two are used at the same time, the combined white light can not obtain the natural warm or white color with the same brightness and warm white light. It is difficult for the light source to obtain the ideal white color effect of the color temperature, and it cannot satisfy the diverse white lighting scene.
  • the three primary color light sources 211 include a first chip 2111 and a first cover layer 2112.
  • the first chip 2111 is disposed in a central region of the substrate 10 and regularly along the A axis.
  • the A axis it is understood as a longitudinal axis direction, and perpendicular to the A axis, it is understood as a horizontal axis direction, and the red light chip, the blue light chip, and the green light chip are sequentially along the same.
  • the A-axis is longitudinally arranged.
  • the first cover layer 2112 is longitudinally covered on the surface of the first chip 2111 along the A-axis.
  • the first cover layer 2112 is a transparent colloid.
  • the material is made of silicone or epoxy resin.
  • the photo-colloid material, the first chip 2111 is capable of emitting a three-primary light source under the first cover layer 2112.
  • the first color temperature light source 2121 includes a second chip 21211 and a second cover layer 21212.
  • the second cover layer 21212 covers the second chip 21211.
  • the second cover layer 21212 covers the surface of the second chip 21211 longitudinally along the A-axis.
  • the second chip 21211 is configured to emit a first color temperature light source in a state covered by the second cover layer 21212, such that the first color temperature light source 2121 is capable of generating cool white light, and the color temperature thereof is between 4000K and 8000K, preferably The range is 4500K-7000K.
  • the second chips 21211 are longitudinally arranged along the A axis according to a certain regularity, and each of the second chips 21211 has a gap of a predetermined distance.
  • the second covering layer 21212 is a colloid having a YAG phosphor component.
  • the second color temperature light source 2122 includes a set of third chips 21221 and a third cover layer 21222.
  • the third cover layer 2122 is longitudinally covered along the A axis to the third chip 21221.
  • the surface of the third chip 21221 is covered with the third cover layer 21222.
  • the third chip 21221 is configured to emit a second color temperature light source in a state where the third cover layer 21222 is covered, so that the second color temperature light source 2122 can generate warm white light, and the color temperature ranges from 1000K to 4500K, which is preferred. The range is 2000K-3500K.
  • the third chip 21221 is longitudinally arranged along the A axis according to a certain regularity, and each of the third chips 21221 has a gap of a predetermined distance.
  • the third covering layer 21222 is a colloid having a YAG phosphor component.
  • the first chip 2111 is a three-primary LED chip; the second chip 21211 is a cool white LED chip (high-efficiency InGaN/GaN-based LED blue chip); the third chip 21221 For LED chips with warm and cold light (high-efficiency InGaN/GaN-based LED blue chip), the LED blue chip energizes and illuminates the YAG phosphor components with different ratios in the colloidal cap layer to produce white light of different color temperatures.
  • the second chip 21211 is energized to emit light to excite the YAG phosphor in the second cover layer 21212 to generate cool white light having a color temperature ranging from 4500K to 7000K.
  • the third chip 21221 energizes and emits light to excite the YAG phosphor in the third cover layer 21222 to produce warm white light having a color temperature between 1000K and 4000K. Adjusting the voltage or current value ratio of the set second chip 21211 and the third chip 21221, and respectively transmitting the excellent temperature through the second cover layer 21212 and the third cover layer 21222 The white light in the range of 1000K-7000K enables the light source module 1 to obtain a white light illumination effect with adjustable color temperature.
  • each of the first chip 2111, each of the second chips 21211, and each of the third chips 21221 is realized by an associated light emitting semiconductor packaging process.
  • Each of the first chips 2111 is electrically connected to each other in series
  • each of the second chips 21211 is electrically connected to each other in series
  • each of the third chips 21221 is electrically connected to each other.
  • the electrical connection between the first chip 2111, the second chip 21211, and the third chip 21221 is in series.
  • the arrangement between the first chip 2111, the second chip 21211 and the third chip 21221 has four arrangements.
  • the first chip 2111 is arranged vertically on the substrate 10 along the A axis, and each of the second chips 21211 is located in the first chip.
  • the two sides of the second chip 2121 are also vertically arranged along the A axis, and the first chips 2111 and the second chip 21211 are arranged in the same direction.
  • the first chip 2111 and the second chip 21211 are respectively parallel to each other.
  • the user can adjust the brightness adjustment of the first chip 2111 and the second chip 21211 to selectively form a colorful combined light beam, that is, the three primary color light sources 211 and the first color temperature light source 2121 are combined with each other. Colorful light source.
  • the first chip 2111 is arranged vertically on the substrate 10 along the A axis, and each of the third chips 21221 is located in the first chip.
  • the third chip 21221 is also vertically arranged along the A axis, and the first chip 2111 and the third chip 21221 are arranged in the same direction.
  • the first chip 2111 and the third chip 21221 are respectively parallel to each other.
  • the user can adjust the brightness adjustment of the first chip 2111 and the third chip 21221 to selectively form a colorful combined beam, that is, the three primary color light sources 211 and the second color temperature light source 2122 are combined with each other. Colorful light source.
  • the first chip 2111 is arranged vertically on the substrate 10 along the A axis, and each of the second chips 21211 is located in the first chip.
  • the two sides of the second chip 21211 are also vertically arranged along the A axis;
  • the third chip 21221 is respectively located at the periphery of the second chip 21211, wherein the periphery is understood as the first
  • the three chips 21221 are adjacent to the ring edge of the substrate 10, and the first chip 2111, the second chip 21211, and the third chip 21221 are arranged in the same direction.
  • the second chips 21211 are respectively located in the middle of the first chip 2111 and the third chip 2121.
  • the first chip 2111, the second chip 21211, and the third chip 21221 are respectively parallel to each other.
  • the user can adjust the brightness adjustment of the first chip 2111, the second chip 21211 and the third chip 21221 to selectively form a combined beam of different colors according to requirements. That is, the colorful combination of the three primary color light sources 211, the first color temperature light source 2121, and the warm light source 2122 light source.
  • first chip 2111, the second chip 21211, and the third chip 21221 are arranged in a straight line in the longitudinal direction, they are applied to the first chip 2111 and the second chip 21211.
  • the transparent sealing gel corresponding to the position of the third chip 21221 is used, the dispensing process is also simplified into a linear moving direction, which improves the production efficiency of the light source module 1 to some extent.
  • the first chip 2111 is arranged vertically on the substrate 10 along the A axis, and each of the third chips 21221 is located in the first chip.
  • the two sides of the second chip 21211 are also vertically arranged along the A axis; the second chip 21211 is respectively located at the periphery of the third chip 21221, wherein the periphery is understood as the
  • the three chips 21221 are adjacent to the ring edge of the substrate 10, and the first chip 2111, the second chip 21211, and the third chip 21221 are arranged in the same direction.
  • the third chip 21221 is located between the first chip 2111 and the second chip 2111, respectively.
  • the first chip 2111, the second chip 21211, and the third chip 21221 are respectively parallel to each other.
  • the user can adjust the brightness adjustment of the first chip 2111, the second chip 21211 and the third chip 21221 to selectively form a combined beam of different colors according to requirements. That is, a colorful light source in which three different primary light sources 211, the first color temperature light source 2121, and the second color temperature light source 2122 are combined with different light sources.
  • the first chip 2111 is located in a central area of the substrate 10, and the second chip 21211 and the third chip 21221 are respectively formed by the first chip 2111.
  • the same center points of the constituent patterns are arranged.
  • the second chip 21211 and/or the third chip 21221 are respectively disposed at the periphery of the first chip 2111, that is, the second chip 21211 is located at the first chip 2111.
  • the periphery, or the third chip 21221 is located at the periphery of the first chip 2111, or the second chip 21211 and the third chip 21221 are respectively located at the periphery of the first chip 2111.
  • the first color temperature light source 2121 and/or the second color temperature light source 2122 are in an annular or annular band, and the outer ring of the three primary color light sources 211 is located.
  • the first chip 2111 is formed in a circular shape, and the second chip 21211 and the third chip 21221 are respectively formed in a circular shape. As shown in FIG. 5B, the first chip 2111 forms a square shape, and the second chip 21211 and the third chip 21221 respectively form a square ring shape.
  • the circuit elements 22 are respectively Electrically connected to the three primary color light sources 211, the first color temperature light source 2121, and the second color temperature light source 2122, after an external voltage is turned on the circuit component 22, the light source 21 can emit a light source, and at the same time Correspondingly adjusting the voltage or current intensity of the three primary color light sources 211, the first color temperature light source 2121, and the second color temperature light source 2122, thereby changing the three primary color light sources 211 and the first color temperature light source 2121 and the second color temperature light source 2122 emit the intensity of the light source.
  • the circuit component 22 includes an electrode member 221 and an electrical component 222.
  • the electrode component 221 is electrically connected to the electrical component 222 for conducting an external power source.
  • An electrical connection between each of the first chip 2111, the second chip 21211 and the third chip 21221 is performed by the electrical component 222, and an external power source is electrically connected to the electrode component 221 and passes through the electrical After the joint 222, the light source 21 is brought into a conducting state to emit a light source.
  • the circuit components 22 are respectively electrically connected to the three primary color light sources 211 and the first color temperature light source 2121.
  • the illuminating source 21 is capable of emitting a light source, and at the same time, correspondingly adjusting the voltage or current intensity of the three primary color light sources 211 and the first color temperature light source 2121 according to requirements, thereby changing the three primary color light sources 211 and the first color temperature.
  • Light source 2121 emits the intensity of the light source.
  • the circuit component 22 includes an electrode member 221 and an electrical component 222.
  • the electrode component 221 is electrically connected to the electrical component 222 for conducting the external power source.
  • the first chip 2111 and the second chip 2111 are electrically connected by the electrical component 222, and the external power source is electrically connected to the electrode component 221 and passed through the electrical component 222.
  • the three primary color light sources 211 and the first color temperature light source 2121 are in a conducting state to emit a light source.
  • the circuit elements 22 are electrically connected to the three primary color light sources 211 and the second color temperature light source 2122, respectively, after the external voltage is turned on by the circuit component 22, the The light source 21 is capable of emitting a light source, and at the same time, the voltage or current intensity of the three primary color light sources 211 and the second color temperature light source 2122 are correspondingly adjusted according to requirements, thereby changing the three primary color light sources 211 and the second color temperature light sources 2122.
  • the circuit component 22 includes an electrode member 221 and an electrical component 222.
  • the electrode component 221 is electrically connected to the electrical component 222 for conducting an external power source.
  • the first chip 2111 and the third chip 21221 are electrically connected by the electrical component 222, and the external power source is electrically connected to the electrode component 221 and passed through the electrical component 222 to make
  • the three primary color light sources 211 and the warm light source 2122 are in a conducting state. The light source is emitted.
  • the electrode member 221 includes an anode 2211 for a positive electrode for electrical connection to an external power source, and a negative electrode 2212 for a negative electrode for electrical connection to an external power source.
  • the illuminating source 21 shares an anode, thereby reducing the setting of the anode 2211 on the substrate 10, thereby reducing the number of processes, while reducing the installation soldering process and saving power lead material.
  • the negative electrode 2212 further includes a first negative electrode 22121, a second negative electrode 22122 and a third negative electrode 22123. The first negative electrode 22121 is electrically connected to the three primary color light sources 211, and the second negative electrode 22122 is electrically connected to the second negative electrode 22122.
  • the first color temperature light source 2121 is described, and the third negative electrode 22123 is electrically connected to the second color temperature light source 2122.
  • the operating condition of the light-emitting module 1 is that the positive electrode of the external power source is electrically connected to the anode 2211, and the negative electrode of the external power source is electrically connected to the first negative electrode 22121, the second negative electrode 22122, and the first
  • the third negative electrode 22123 causes the light-emitting module 1 to be in a conducting state, thereby causing the light-emitting module 1 to be in a light-emitting state.
  • the illumination source 21 is driven to adjust color and brightness changes according to actual needs of the user.
  • the first negative electrode 22121 has three negative electrode points, and three negative negative points are respectively electrically connected to the red light chip, the blue light chip and the green light chip.
  • One ends of the first chip 2111, the second chip 21211, and the third chip 21221 are electrically connected to the anode 2211, and the first chip 2111, the second chip 21211, and the third chip 21221 are respectively One end is electrically connected to the negative electrode 2212, the anode 2211 is electrically connected to the positive electrode of the external power source, and the negative electrode 2212 is electrically connected to the negative electrode of the external power source.
  • the first negative electrode 22121 is electrically connected to the three primary color light sources 211, and the second negative electrode 22122 is electrically connected to the first color temperature light source 2121.
  • the operating condition of the light-emitting module 1 is that the anode of the external power source is electrically connected to the anode 2211, and the cathode of the external power source is electrically connected to the first anode 22121 and the second anode 22122, respectively.
  • the illuminating module 1 is in a conducting state, and the illuminating module 1 is in a illuminating working state.
  • the illumination source 21 is driven to adjust color and brightness changes according to actual needs of the user.
  • the first negative electrode 22121 has three negative electrode points, and three negative negative points are respectively electrically connected to the red light chip, the blue light chip and the green light chip.
  • One end of the first chip 2111 and the second chip 21211 are electrically connected to the anode 2211, and the other ends of the first chip 2111 and the second chip 21211 are electrically connected to the negative electrode 2212, respectively.
  • the anode 2211 is electrically connected to the positive pole of the external power source, and the anode 2212 is electrically connected to the anode The negative pole of the external power supply.
  • the first negative electrode 22121 is electrically connected to the three primary color light sources 211, and the third negative electrode 22123 is electrically connected to the second color temperature light source 2122.
  • the operating condition of the light-emitting module 1 is that the anode of the external power source is electrically connected to the anode 2211, and the cathode of the external power source is electrically connected to the first anode 22121 and the third anode 22123, respectively.
  • the illuminating module 1 is in a conducting state, and the illuminating module 1 is in a illuminating working state.
  • the illumination source 21 is driven to adjust color and brightness changes according to actual needs of the user.
  • the first negative electrode 22121 has three negative electrode points, and three negative negative points are respectively electrically connected to the red light chip, the blue light chip and the green light chip.
  • One end of the first chip 2111 and the third chip 21221 are electrically connected to the anode 2211, and the other ends of the first chip 2111 and the third chip 21221 are electrically connected to the negative electrode 2212, respectively.
  • the anode 2211 is electrically connected to a positive electrode of the external power source
  • the negative electrode 2212 is electrically connected to a negative electrode of the external power source.
  • the utility model also relates to a lamp 2 having a light source module, which can be used as a daily practical lamp such as a desk lamp, a work lamp, a decorative lamp, etc., and only needs to change the illumination source of the daily lamp to
  • the lamp is a ceiling lamp, which can be installed on a mounting plane such as a ceiling, and the ceiling lamp has the advantages of hidden installation and reduced installation space, so it is widely used in life.
  • the lamp 2 having a light source module includes a lamp body 30 and a light source module 20, and the light source module 20 is disposed on the lamp body 30, so that the lamp 30 can emit different brightness ratios of three primary colors. Combining a variety of colorful light beams; or using cool white light and/or warm white light to combine different brightness ratios to produce high-efficiency white light with different color temperature points, so that the light fixture 2 has a wide application environment and meets users. demand.
  • the lamp body 30 includes a housing 31 and a connecting component 32.
  • the housing 31 and the light source module 20 are respectively connected to each other through the connecting component 32.
  • the housing 31 includes a base 311 and a housing 312.
  • the base 311 is detachably disposed on the housing 312.
  • the connecting member 32 includes a first connecting member 321 and a set of mounting members 322.
  • the base member 311 is detachably coupled to the outer casing 31 by the first connecting member 321, and the mounting members 322 are respectively symmetric.
  • the lamp body 30 is disposed on the two sides of the outer casing, and the lamp body 30 is disposed on the mounting plane through the mounting member 322.
  • the mounting member 322 is a suspension having elasticity.
  • the housing 31 further comprises a cover 313, and the connecting element 32 is further The step includes a second connector 323 that is detachably coupled to the base 311 by the second connector 323.
  • the middle surface of the cover 313 has a light transmissive surface, and the light beam emitted by the light source module 20 passes through the transparent surface.
  • the housing 31 further includes a lens 314 and a heat dissipating member 324.
  • the lens 314 and the heat dissipating member 324 are respectively disposed in the cavity of the outer casing 312, and the light source module 20 is attached.
  • the heat sink 324 is disposed.
  • the light beam generated by the light source module 20 in an energized state is emitted through the lens 314.
  • the light source module 1 is disposed in the lens 314, and the light source module 1 is compared with the conventional technology.
  • the lens 314 is used for collecting and guiding light of the light source module 1.
  • the light spot has a natural transition and no mottle.
  • the light source modules 1 of the above four different embodiments are respectively installed in a receiving cavity of the lamp body 31 according to requirements, which meets the needs of use.

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  • Engineering & Computer Science (AREA)
  • General Engineering & Computer Science (AREA)
  • Non-Portable Lighting Devices Or Systems Thereof (AREA)
  • Circuit Arrangement For Electric Light Sources In General (AREA)
  • Led Device Packages (AREA)

Abstract

一种光源模组(1)及具有光源模组的灯具(2)。光源模组(1)包括基板(10)和光源组件(20)。光源组件(20)包括发光源(21),发光源(21)被设置于基板(10)上,包括三基色光源(211)和至少一可调色温光源(212),并且可调色温光源(212)分别设置于三基色光源(211)的外围,三基色光源(211)以及可调色温光源(212)得以组合发射多种光源。还公开了具有该光源模组(1)的灯具(2)。

Description

光源模组及带有光源模组的灯具 技术领域
本实用新型涉及一光源模组及一带有光源模组的灯具,其发射的光源得以实现多彩调色,同时具有可调的不同色温点的白光,增强多样性和实用性。
背景技术
LED具有多彩光源及节能等作用,被广泛地应用于人们的日常生活中。但是目前市面上的LED光源存在以下几个问题:从光源角度分析,现有光源模组仅仅含有三基色的LED芯片,虽然在使用过程中,用户能够通过调节电源的输出电压或电流参数获得不同红、绿、蓝三种LED芯片的组合比例光,以用于满足多彩的光源效果,但是这样组合光源具有很多使用缺陷,比如其光效较低、光色不统一(即每个光源所发出的光色偏差较大)等问题。因此使得LED光源在使用过程中受到限制,仅仅只能被应用于装饰照明、景观照明或情调照明等场合,不能被应用于人们日常所需的白光照明场合(如阅读、就餐、会议、办公)。虽然也具有双色温的COB光源,但是仅仅只是具有冷暖白光二种方式的,又不能满足多色彩的需求。将两者组合在一起的RGBW四路光色输出的COB光源模组也具有一定缺陷,由于此类光源模组中含有三基色和单一白光(色温为6000K以上)的LED芯片,可以通过调节驱动电源的输出电压或电流参数,使用LED红绿蓝芯片和白光芯片的发光强度比例以获得组合白光的光色效果,但这样出来的组合白光不能射出自然或光色高度一致的冷暖白光,因此这类LED光源难以得到理想的可调色温的白光效果,无法满足多样化的白光照明场景。
从封装工艺角度分析,RGBW光源模组在封装工艺上难以做成四路输出共阳极或共阴极的结构,即每种光色的芯片组各自具有正负两个焊线引脚,RGBW光源模组共具有八个焊线引脚,这样造成灯具组装过程中焊接电线的工程量较长,从一定程度上影响灯具的生产效率。目前主要通过回流焊机工艺,将不同的单一光色的LED分立式器件焊贴在铝基板,形成SMD光源模组,但是其生产工艺复杂,制造成本较高,同时SMD光源模组的体积较大,从而使得灯具的体积 相应增加;由于每一个LED分立式器件在结构上各自带有一次透镜,在对多个发光点进行二次配光时,特别是重点照明灯具的二次配光,容易造成重影、光斑过渡不自然、不同光色分层等光学性能缺陷。
实用新型内容
本实用新型的一目的在于提供一光源模组及带有光源模组的灯具,所述光源模组得以实现多彩调色及可调色温的白光效果,以满足多样化的场景使用需求。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,所述光源模组中的一三基色光源以及一组可调色温光源分别对称地设于一基板,一电路元件控制所述三基色光源以及所述可调色温光源发射多种组合光源。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,所述三基色光源以及所述可调色温光源为同一阳极,同时所述三基色光源以及所述可调色温光源以分别具有不同的阴极,所述三基色光源以及所述可调色温光源得以分别根据电压或电流的强度改变色温。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,所述可调色温光源包括一第一色温光源以及一第二色温光源,所述第一色温光源和/或第二色温光源得以选择性地与所述三基色光源相匹配安装于所述基板。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,所述光源模组的各所述第一色温光源分别对称地设于所述三基色光源的两侧,所述三基色光源以及所述第一色温光源得以组合发射多彩光束。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,所述光源模组的所述第二色温光源分别对称地设于所述三基色光源的两侧,所述三基色光源以及所述第二色温光源得以组合发射多彩光束。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,所述三基色光源、各所述第一色温光源及各所述第二色温光源分别对称地设于所述基板的中心区域,其中各所述第一色温光源分别位于所述三基色光源的外侧,同时所述第一色温光源分别位于所述三基色光源以及所述第二色温光源的中间。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,所述三基色光源、各所述第一色温光源及各所述第二色温光源分别对称地设于所述基板,其中各所述第二色温光源分别位于所述三基色光源的外侧,同时所述第二色 温光源分别位于所述三基色光源以及所述第一色温光源的中间。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,所述第一色温光源和/或第二色温光源分别以所述三基色光源的中心,同中心地设于所述基板,分别形成所述三基色光源的外围。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,所述三基色光源、所述第一色温光源以及所述第二色温光源分别为同一阳极,同时所述三基色光源、所述第一色温光源以及所述第二色温光源分别具有不同的阴极,所述三基色光源、所述第一色温光源以及所述第二色温光源得以分别根据电压或电流的强度改变色温。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,其所述三基色光源包括一组第一芯片以及一第一覆盖层,各所述第一芯片沿着所述基板上的一A轴纵向排列,使得所述第一芯片得以发射可调的各所述三基色光源。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,其所述第一色温光源包括一组第二芯片以及一第二覆盖层,各所述第二芯片沿着所述所述A轴纵向排列,所述第二覆盖层覆盖于所述第二芯片,使得第二芯片得以产生可调的冷色白光。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,其所述第二色温光源包括一组第三芯片以及一第三覆盖层,各所述第三芯片沿着所述所述A轴纵向排列,所述第三覆盖层覆盖于所述第三芯片,使得第三芯片得以产生可调的暖色白光。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,其所述发光源共用一透镜,以实现二次配光设计,具有一定光束角度的重点照明效果。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,其各所述发光源按照一定预设规则对称地设于所述基板,其结构紧凑。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,其为芯片级封装的COB(Chip On Board)光源模组,具有体积小的特点,使得所述光源模组的结构紧凑。
本实用新型的另一目的在于提供一种光源模组及带有光源模组的灯具,其光源模组为COB光源模组,由LED封装厂商制成,进而减少生产工艺环节,节约 生产成本。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,其灯具包括一壳体以及一连接件,所述壳体进一步包括一基座、一外壳以及一面盖,所述基座、所述外壳以及所述面盖分别通过所述连接件可拆卸地连接。
本实用新型的另一目的在于提供一光源模组及带有光源模组的灯具,其光源模组通过一散热件可拆卸地设于所述基座的收纳腔内,同时将一透镜设于所述光源模组。
依据本实用新型的技术方案实现上述至少一目的,一光源模组包括一基板;和一光源组件,所述光源组件包括一发光源,所述发光源被设置于所述基板,其中所述发光源进一步包括一三基色光源,所述三基色光源被设于所述基板,和至少一可调色温光源,其中各所述可调色温光源分别被设置于所述基板,并每个所述可调色温光源分别被设于所述三基色光源的外部,所述三基色光源以及所述可调色温光源得以组合发射多种组合光源。
在一个优选实施例中,其中所述可调色温光源包括一组第一色温光源,各所述第一色温光源述位于所述三基色光源的两侧,所述三基色光源以及所述第一色温光源得以组合发射多种组合光源。
在一个优选实施例中,其中所述可调色温光源包括一组第二色温光源,各所述第二色温光源分别位于所述三基色光源的两侧,所述三基色光源片以及所述第二色温光源得以组合发射多种组合光源。
在一个优选实施例中,其中所述可调色温光源包括一组第一色温光源以及一组第二色温光源,各所述第一色温光源分别位于所述三基色光源的两侧,所述第二色温光源位于所述第一色温光源的外侧,即所述第一色温光源位于所述三基色光源以及所述第二色温光源的中间。
在一个优选实施例中,其中所述可调色温光源包括一组第一色温光源以及一组第二色温光源,各所述第二色温光源分别位于所述三基色光源的两侧,所述第一色温光源位于所述第二色温光源的外侧,即所述第二色温光源位于所述三基色光源以及所述第二色温光源的中间。
在一个优选实施例中,其中所述可调色温光源包括一第一色温光源以及一第二色温光源,其中各所述第一色温光源及各所述第二色温光源分别以所述三基色 光源所组成的图案的中心点为中心,并以同一中心点被设于所述三基色光源的外围。
在一个优选实施例中,其中所述三基色光源包括一组第一芯片以及一第一覆盖层,各所述第一芯片沿着所述基板上的一A轴纵向排列,所述第一覆盖层相应沿着所述A轴纵向地覆盖于所述第一芯片的表面。
在一个优选实施例中,其中所述第一色温光源包括一组第二芯片以及一第二覆盖层,各所述第二芯片沿着所述所述A轴纵向排列,所述第二覆盖层相应沿着所述A轴纵向地覆盖于所述第二芯片的表面。
在一个优选实施例中,其中所述第二色温光源包括一组第三芯片以及一第三覆盖层,各所述第三芯片沿着所述所述A轴纵向排列,所述第三覆盖层相应沿着所述A轴纵向地覆盖于所述第三芯片的表面。
在一个优选实施例中,其中各所述第二芯片分别位于所述第一芯片的两侧,所述第一芯片以及所述第二芯片得以组合发射多种光源。
在一个优选实施例中,其中各所述第二芯片分别位于所述第一芯片的两侧,所述第三芯片位于所述第二芯片的外侧,即所述第二芯片位于所述第一芯片以及所述第三芯片的中间。
在一个优选实施例中,其中各所述第三芯片分别位于所述第一芯片的两侧,所述第一芯片以及所述第三芯片得以组合发射多种光源。
在一个优选实施例中,其中各所述第三芯片分别位于所述第一芯片的两侧,所述第二芯片位于所述第三芯片的外侧,即所述第三芯片位于所述第一芯片以及所述第二芯片的中间。
在一个优选实施例中,其中各所述第二芯片及各所述第三芯片分别以所述第一芯片所组成的图案的中心点为中心,以同一中心点被设于所述三基色光源的外围。
在一个优选实施例中,其中所述光源组件包括一电路元件,所述电路元件设于所述基板,所述三基色光源以及所述可调色温光源分别被电联于所述电路元件,一外部电源通过所述电路元件电联于所述发光源,使得所述发光源得以发射被组合成发射出多种光源。
在一个优选实施例中,其中所述电路元件包括一电极件以及一电联件,所述 电极件以及所述电联件分别被电联于所述第一芯片,所述第二芯片以及所述第三芯片,所述外部电源通过所述电极件以及所述电联件使得所述三基色光源、所述第一色温光源以及所述第二色温光源处于发射光源的工作状态。
在一个优选实施例中,其中所述电极件进一步包括一阳极以及一组负极,所述第一芯片、所述第二芯片以及第三芯片的一端共同电联于所述阳极,所述第一芯片、所述第二芯片以及第三芯片的另一端分别被电联于所述负极,所述阳极电联于外部电源的正极,所述负极电联于所述外部电源的负极。
在一个优选实施例中,其中其中所述第一芯片为三基色LED芯片,所述三基色LED芯片分别包括红色光芯片、蓝色光芯片、绿色光芯片三路芯片组,所述第一覆盖层为透明的硅胶或环氧树脂等可透光胶体材料;通过调整设定所述三基色LED芯片中的三路光色芯片组的电压或电流数值比例,并透过所述第一覆盖层得以组合发射出多种彩色光。
在一个优选实施例中,其中所述第二芯片以及所述第三芯片为LED蓝光芯片,所述第二覆盖层为具有特定配比的YAG荧光粉成分的胶体材料,所述第二芯片透过所述第二覆盖层得以产生发射出色温范围在4500K-7000K的冷白色光,所述第三覆盖层为另一特定配比的具有YAG荧光粉成分的胶体材料,所述第三芯片透过所述第三覆盖层得以产生发射出色温范围在1000K-4500K的暖白色光;通过调整设定的所述第二芯片以及所述第三芯片的电压或电流数值比例,并分别相应透过所述第二覆盖层和所述第三覆盖层得以组合发射出色温范围在1000K-7000K的白光,使得所述光源模组获得色温可调的白光照明效果。
一带有光源模组的灯具包括一灯体,所述灯体包括一壳体以及一连接元件,所述壳体包括一基座以及一外壳,所述连接元件包括一第一连接件以及一组安装件,所述基座通过所述第一连接件设于所述外壳,各所述安装件分别设于所述外壳的两侧;和一光源模组,所述光源模组设于所述外壳的一容纳腔,所述光源模组设于所述外壳的一容纳腔,所述光源模组包括一基板以及一光源组件,所述光源组件设于所述基板,所述光源组件包括一发光源所述发光源包括一三基色光源以及一组可调色温光源,所述三基色光源以及所述可调色温光源分别设于所述基板,所述三基色光源以及所述可调色温光源得以发射被组合成的多种光源。
在一个优选实施例中,其中所述光源组件包括一电路元件,所述电路元件设 于所述基板,所述三基色光源以及所述可调色温光源分别电联于所述电路元件,一外部电源通过所述电路元件电联于所述发光源,使得所述发光源得以发射被组合成的多种光源。
在一个优选实施例中,其中所述壳体包括一面盖,所述连接元件包括一第二连接件,所述面盖通过所述第二连接件设于所述外壳,所述面盖具有透光面,所述光源模组发射的光束通过所述透光面传出。
在一个优选实施例中,其中所述壳体包括一透镜,所述连接元件包括一散热件,所述透镜设于所述散热件,所述光源模组设于所述散热件,同时所述光源模组位于所述透镜内。
在一个优选实施例中,其中所述发光源包括一三基色光源以及一组冷第二色温光源,所述三基色光源以及所述可调色温光源分别设于所述基板,所述三基色光源以及所述可调色温光源分别电联于所述电路元件,一外部电源通过所述电路元件电联于所述发光源,使得所述三基色光源以及所述可调色温光源得以发射被组合成的多种光源。
在一个优选实施例中,其中所述三基色光源包括一组第一芯片以及一第一覆盖层,各所述第一芯片沿着所述基板上的一A轴纵向排列,所述第一覆盖层覆盖于所述第一芯片。
在一个优选实施例中,其中所述第一色温光源包括一组第二芯片以及一第二覆盖层,各所述第二芯片沿着所述所述A轴纵向排列,所述第二覆盖层覆盖于所述第二芯片。
在一个优选实施例中,其中所述第二色温光源包括一组第三芯片以及一第三覆盖层,各所述第三芯片沿着所述所述A轴纵向排列,所述第三覆盖层覆盖于所述第三芯片。
在一个优选实施例中,其中各所述第二芯片分别位于所述第一芯片的两侧,所述第一芯片以及所述第二芯片得以组合发射多种组合光源。
在一个优选实施例中,其中各所述第二芯片分别位于所述第一芯片的两侧,所述第三芯片位于所述第二芯片的外侧,即所述第二芯片位于所述第一芯片以及所述第三芯片的中间。
在一个优选实施例中,其中各所述第三芯片分别位于所述第一芯片的两侧, 所述第一芯片以及所述第三芯片得以组合发射多种组合光源。
在一个优选实施例中,其中各所述第三芯片分别位于所述第一芯片的两侧,所述第二芯片位于所述第三芯片的外侧,即所述第三芯片位于所述第一芯片以及所述第二芯片的中间。
在一个优选实施例中,其中所述电路元件包括一电极件以及一电联件,所述电极件以及所述电联件分别电联于所述第一芯片以及所述第二芯片,所述外部电源通过所述电极件以及所述电联件使得所述三基色光源以及所述第一色温光源处于发生光源的工作状态。
在一个优选实施例中,其中所述电路元件包括一电极件以及一电联件,所述电极件以及所述电联件分别电联于所述第一芯片以及所述第三芯片,所述外部电源通过所述电极件以及所述电联件使得所述三基色光源以及所述第二色温光源处于发生光源的工作状态。
在一个优选实施例中,其中所述电路元件包括一电极件以及一电联件,所述电极件以及所述电联件分别电联于所述第一芯片,所述第二芯片以及所述第三芯片,所述外部电源通过所述电极件以及所述电联件使得所述三基色光源、所述第一色温光源以及所述第二色温光源处于发生光源的工作状态。
在一个优选实施例中,其中所述电极件进一步包括一阳极以及一组负极,所述第一芯片以及所述第二芯片的一端共同电联于所述阳极,所述第一芯片以及所述第二芯片的另一端分别电联于所述负极,所述阳极电联于外部电源的正极,所述负极电联于所述外部电源的负极。
在一个优选实施例中,其中所述电极件进一步包括一阳极以及一组负极,所述第一芯片以及所述第三芯片的一端共同电联于所述阳极,所述第一芯片以及所述第三芯片的另一端分别电联于所述负极,所述阳极电联于外部电源的正极,所述负极电联于所述外部电源的负极。
在一个优选实施例中,其中所述电极件进一步包括一阳极以及一组负极,所述第一芯片、所述第二芯片以及第三芯片的一端共同电联于所述阳极,所述第一芯片、所述第二芯片以及第三芯片的另一端分别电联于所述负极,所述阳极电联于外部电源的正极,所述负极电联于所述外部电源的负极。
在一个优选实施例中,其中所述负极进一步包括一第一负极以及一第二负 极,所述第一负极电联于所述第一芯片,所述第二负极电联于所述第二芯片,使得所述三基色光源以及所述第一色温光源分别得以通过改变电压或电流值,改变光照亮度。
在一个优选实施例中,其中所述负极进一步包括一第一负极以及一第三负极,所述第一负极电联于所述第一芯片,所述第三负极电联于所述第三芯片,使得所述三基色光源以及所述第二色温光源分别得以通过改变电压或电流值,改变光照亮度。
在一个优选实施例中,其中所述负极进一步包括一第一负极、一第二负极以及一第三负极,所述第一负极电联于所述第一芯片,所述第二负极电联于所述第二芯片,所述第三负极电联于所述第三芯片,使得所述三基色光源、所述第一色温光源以及所述第二色温光源分别得以通过改变电压或电流值,改变光照亮度。
在一个优选实施例中,其中所述第一芯片为三基色LED芯片。
在一个优选实施例中,其中所述第二芯片以及所述第三芯片分别为LED蓝光芯片。
在一个优选实施例中,其中所述第一覆盖层为透明的硅胶或环氧树脂等可透光胶体材料。
在一个优选实施例中,其中所述第二覆盖层为具有YAG荧光粉成分的可透光胶体,使得所述第一色温光源得以产生色温范围在4500K-7000K的冷白色光。
在一个优选实施例中,其中所述第三覆盖层为具有YAG荧光粉成分的可透光胶体,使得所述第二色温光源得以产生色温范围在1000K-4500K的暖白色光。
在一个优选实施例中,其中所述基板为铝或陶瓷制成的片状结构。
附图说明
图1A和1B是根据本实用新型中一种三基色光源以及第一色温光源设于基板的位置关系第一种实施例。
图2A和2B是根据本实用新型中一种三基色光源以及第二色温光源设于基板的位置关系第二种实施例。
图3A和3B是根据本实用新型中一种三基色光源、第一色温光源以及第二色温光源设于基板的位置关系第三种实施例。
图4A和4B是根据本实用新型中一种三基色光源、第一色温光源以及第二色温光源设于基板的位置关系第四种实施例。
图5A和5B是根据本实用新型中一种三基色光源、第一色温光源以及第二色温光源设于基板的位置关系第五种实施例。
图6是根据本实用新型中第一芯片、第二芯片以及第三芯片设于基板的电路示意图。
图7是根据本实用新型中带有光源模组的灯具的整体示意图。
图8是根据本实用新型中带有光源模组的灯具的爆炸图。
具体实施方式
以下描述用于揭露本实用新型以使本领域技术人员能够实现本实用新型。以下描述中的优选实施例只作为举例,本领域技术人员可以想到其他显而易见的变型。在以下描述中界定的本实用新型的基本原理可以应用于其他实施方案、变形方案、改进方案、等同方案以及没有背离本实用新型的精神和范围的其他技术方案。
如图1A到图4B所示,本实用新型的一光源模组1其得以实现多彩调色及具有不同可调色温点的白光,使得所述光源模组1得以被广泛应用于生活中各种环境中,而传统的光源模组在使用过程中受到很多限制。所述光源模组1包括一基板10以及一光源组件20,所述光源组件20设于所述基板10上一安装面的中心区域,所述基板10为所述光源模组1提供一安装平面,其中所述基板10为铝或陶瓷制成的片状结构。
其中所述光源组件20包括一发光源21以及一电路元件22,各所述发光源21以及所述电路元件22分别设于所述基板10的所述安装面,所述发光源21通过所述电路元件22电联于一外部电源,使得所述发光源21在通电的情况下产生光源。所述光源模组1得以根据用户的需求产生不同的光源组合,其根据三基色的不同发光亮度比例组合成多种多彩光束;或利用冷色白光和/或暖色白光进行不同亮度比例组合出高光效的具有不同色温点的白光。值得一提的是,所述发光源21进一步包括一三基色光源211以及至少一可调色温光源212,所述三基色光源211以及所述可调色温光源212分别设于所述基板10,所述三基色光源211以及所述可调色温光源212分别电联于所述电路元件22,一外部电源通过电联 于所述电路元件22,使得所述三基色光源211以及所述可调色温光源212分别处于带电工作状态,所述三基色光源211以及所述可调色温光源212发射的光源得以被选择性的组合成多种色彩,以用于满足多样化需求。其中所述三基色光源211为三基色波段的芯片,所述三基色波段的光源在本技术领域技术人员的理解为所述三基色光源211得以发射红光、蓝光以及绿光。在实际使用过程中,所述三基色波段光源以三基色为基础,根据不同的应用环境选择不同亮度比例组合出多彩色调,即所述三基色光源211得以根据用户的实际需求,任意调节变化出不同色彩的光束,以满足使用需求。
其中所述可调色温光源212包括一组第一色温光源2121以及一组第二色温光源2122,所述第一色温光源2121得以在通电的状态下产生冷色白光,所述第二色温光源2122得以在通电的状态下产生暖色白光。同时,所述第一色温光源2121以及所述第二色温光源2122通过不同亮度比例组合出高光效的不同色温点的白光,以满足不用环境场合的使用需求。相比较于传统的光源模组,所述光源模组1得以选择地调节三基色光源和/或冷暖白光光源的组合比例,增强实用性。目前市面上的光源模组只能单一的使用三基色光源或可调色温光源,一旦两者同时使用时,组合而成的白光也不能得到自然或光色高度一致的冷暖白光,因此这类光源难以得到理想的可调色温的白光效果,无法满足多样化的白光照明场景。
值得一提的是,所述三基色光源211包括一组第一芯片2111以及一第一覆盖层2112,所述第一芯片2111设于所述基板10的中心区域,并沿着A轴规则地纵向排列,其中发生红光的芯片,蓝光的芯片以及绿光的芯片分别按照一定顺序规则排列。沿着所述A轴得以理解为纵轴方向,垂直于所述A轴得以理解为横轴方向,所述红光的芯片、所述蓝光的芯片以及所述绿光的芯片分别依次沿着所述A轴纵向排列,在横轴方向上,在每一行中,所述发生红光的芯片,所述发生蓝光的芯片以及所述发生绿光的芯片依次按照一定预设间隙排列。所述第一覆盖层2112相应沿着所述A轴纵向地覆盖于所述第一芯片2111的表面,所述第一覆盖层2112为透明的胶体,其材质为硅胶或环氧树脂等可透光胶体材料,所述第一芯片2111在所述第一覆盖层2112下得以发射三基色光源。
所述第一色温光源2121包括一组第二芯片21211以及一第二覆盖层21212,所述第二覆盖层21212覆盖于所述第二芯片21211,当所述第二芯片21211设于 所述基板10时,所述第二覆盖层21212相应沿着所述A轴纵向地覆盖于所述第二芯片21211的表面。所述第二芯片21211在所述第二覆盖层21212覆盖状态下得以发射第一色温光源,使得所述第一色温光源2121得以产生冷白色光,其色温在4000K-8000K范围之间,优选的范围为4500K-7000K。所述第二芯片21211沿着所述A轴按照一定规则地纵向排列,各所述第二芯片21211之间具有一定预设距离的间隙。其中所述第二覆盖层21212为具有YAG荧光粉成分的胶体。
所述第二色温光源2122包括一组第三芯片21221以及一第三覆盖层21222,所述第三覆盖层2122相应沿着所述A轴纵向地覆盖于所述第三芯片21221,当所述第三芯片21221设于所述基板10时,所述第三芯片21221的表面被覆盖有所述第三覆盖层21222。所述第三芯片21221在所述第三覆盖层21222覆盖状态下得以发射第二色温光源,使得所述第二色温光源2122得以产生暖白色光,其色温范围在1000K-4500K之间,其优选范围为2000K-3500K。所述第三芯片21221沿着所述A轴按照一定规则地纵向排列,各所述第三芯片21221之间具有一定预设距离的间隙。其中所述第三覆盖层21222为具有YAG荧光粉成分的胶体。
值得一提的是,所述第一芯片2111为三基色的LED芯片;所述第二芯片21211为具有冷白光的LED芯片(高效InGaN/GaN基的LED蓝光芯片);所述第三芯片21221为具有暖冷光的LED芯片(高效InGaN/GaN基的LED蓝光芯片),LED蓝光芯片通电发光激发胶体覆盖层中具有不同配比的YAG荧光粉成分,以产生不同色温的白光。其中所述第二芯片21211通电发光激发第二覆盖层21212中的YAG荧光粉得以产生色温在4500K-7000K范围之间的冷白光。如同此理,所述第三芯片21221通电发光激发第三覆盖层21222中的YAG荧光粉得以产生色温在1000K-4000K范围之间的暖白光。通过调整设定的所述第二芯片21211以及所述第三芯片21221的电压或电流数值比例,并分别相应透过所述第二覆盖层21212和所述第三覆盖层21222得以组合发射出色温范围在1000K-7000K的白光,使得所述光源模组1获得色温可调的白光照明效果。
值得一提的是,各所述第一芯片2111、各所述第二芯片21211以及各所述第三芯片21221,相互之间的电气连接方式为:通过相关的发光半导体封装工艺手段来实现。各所述第一芯片2111彼此之间电联方式为串联,各所述第二芯片21211彼此之间电联方式为串联,各所述第三芯片21221彼此之间电联方式为串 联;同时所述第一芯片2111、所述第二芯片21211以及所述第三芯片21221三者之间的电联方式为串联。
值得一提的是,所述第一芯片2111、所述第二芯片21211以及所述第三芯片21221三者之间的排列方式具有四种排列方式。如图1A和1B所示第一种实施例,所述第一芯片2111沿着所述A轴设于所述基板10呈竖直排列,各所述第二芯片21211分别位于所述第一芯片2111的两侧,同时所述第二芯片2121同样沿着所述A轴竖直排列,所述第一芯片2111以及所述第二芯片21211的设置方向一致。其中所述第一芯片2111与所述第二芯片21211之间分别相互平行。用户得以根据需求,调节所述第一芯片2111以及所述第二芯片21211的亮度调节进而选择性形成多彩的组合光束,即所述三基色光源211与所述第一色温光源2121相互组合而成的多彩光源。
如图2A和2B所示第二种实施例,所述第一芯片2111沿着所述A轴设于所述基板10呈竖直排列,各所述第三芯片21221分别位于所述第一芯片2111的两侧,同时所述第三芯片21221同样沿着所述A轴竖直排列,所述第一芯片2111以及所述第三芯片21221的设置方向一致。其中所述第一芯片2111与所述第三芯片21221之间分别相互平行。用户得以根据需求,调节所述第一芯片2111以及所述第三芯片21221的亮度调节进而选择性形成多彩的组合光束,即所述三基色光源211与所述第二色温光源2122相互组合而成的多彩光源。
如图3A和3B所示第三种实施例,所述第一芯片2111沿着所述A轴设于所述基板10呈竖直排列,各所述第二芯片21211分别位于所述第一芯片2111的两侧,同时所述第二芯片21211同样沿着所述A轴竖直排列;所述第三芯片21221分别位于所述第二芯片21211的外围,其中所述外围得以理解为所述第三芯片21221毗邻于所述基板10的环边,同时所述第一芯片2111、所述第二芯片21211以及所述第三芯片21221的设置方向一致。换而言之,所述第二芯片21211分别位于所述第一芯片2111以及所述第三芯片21221的中间。其中所述第一芯片2111、所述第二芯片21211以及第三芯片21221三者之间分别相互平行。用户得以根据需求,调节所述第一芯片2111、所述第二芯片21211以及所述第三芯片21221的亮度调节进而选择性形成不同色彩的组合光束。即所述三基色光源211、所述第一色温光源2121以及所述暖光源2122三者之间不同光源组合而成的多彩 光源。
值得一提的是,由于所述第一芯片2111、所述第二芯片21211以及第三芯片21221按照纵向排列成一条直线,则涂覆于所述第一芯片2111、所述第二芯片21211以及第三芯片21221的位置上所对应的透明密封胶体时,点胶工艺亦随之简化成直线来回移动方向,在一定程度上提高所述光源模组1的生产效率。
如图4A和4B所示第四种实施例,所述第一芯片2111沿着所述A轴设于所述基板10呈竖直排列,各所述第三芯片21221分别位于所述第一芯片2111的两侧,同时所述第三芯片21211同样沿着所述A轴竖直排列;所述第二芯片21211分别位于所述第三芯片21221的外围,其中所述外围得以理解为所述第三芯片21221毗邻于所述基板10的环边,同时所述第一芯片2111、所述第二芯片21211以及所述第三芯片21221的设置方向一致。换而言之,所述第三芯片21221分别位于所述第一芯片2111以及所述第二芯片21211的中间。其中所述第一芯片2111、所述第二芯片21211以及第三芯片21221三者之间分别相互平行。用户得以根据需求,调节所述第一芯片2111、所述第二芯片21211以及所述第三芯片21221的亮度调节进而选择性形成不同色彩的组合光束。即所述三基色光源211、所述第一色温光源2121以及所述第二色温光源2122三者之间不同光源组合而成的多彩光源。
如图5A和5B所示第五种实施例,所述第一芯片2111位于所述基板10的中心区域,所述第二芯片21211及所述第三芯片21221分别以所述第一芯片2111所组成的图案的同一中心点地排列。其中,如图5A所示,所述第二芯片21211和/或所述第三芯片21221分别设于所述第一芯片2111的外围,即所述第二芯片21211位于所述第一芯片2111的外围,或所述第三芯片21221位于所述第一芯片2111的外围,或所述第二芯片21211以及所述第三芯片21221分别位于所述第一芯片2111的外围。即所述第一色温光源2121和/或所述第二色温光源2122分别呈环状或环带的形势位于所述三基色光源211的外圈。其中所述第一芯片2111形成一圆形,所述第二芯片21211以及所述第三芯片21221分别形成一圆环形。如图5B所示,其中所述第一芯片2111形成一方形,所述第二芯片21211以及所述第三芯片21221分别形成一方形的环状。
如图6所示,在第三种实施例以及第四种实施例中,所述电路元件22分别 电联于所述三基色光源211、所述第一色温光源2121以及所述第二色温光源2122,一外部电压导通于所述电路元件22后,所述发光源21得以发射光源,同时得以根据需求,相对应地调节所述三基色光源211、所述第一色温光源2121以及所述第二色温光源2122的电压或电流强度,进而改变所述三基色光源211、所述第一色温光源2121以及所述第二色温光源2122发射光源的强度。所述电路元件22包括一电极件221以及一电联件222,所述电极件221电联于所述电联件222,所述电极件221以用于导通外部电源。各所述第一芯片2111、所述第二芯片21211以及所述第三芯片21221之间通过所述电联件222电联,一外部电源导通于所述电极件221,并通过所述电联件222后,使得所述发光源21处于带电导通状态,得以发射光源。
其中,在第一种实施例中,其中所述电路元件22分别电联于所述三基色光源211以及所述第一色温光源2121,所述外部电压导通于所述电路元件22后,所述发光源21得以发射光源,同时得以根据需求,相对应地调节所述三基色光源211以及所述第一色温光源2121电压或电流强度,进而改变所述三基色光源211以及所述第一色温光源2121发射光源的强度。所述电路元件22包括一电极件221以及一电联件222,所述电极件221电联于所述电联件222,所述电极件221以用于导通所述外部电源。各所述第一芯片2111以及所述第二芯片21211之间通过所述电联件222电联,所述外部电源导通于所述电极件221,并通过所述电联件222后,使得所述三基色发光源211以及所述第一色温光源2121处于带电导通状态,得以发射光源。
在第二种实施例中,其中所述电路元件22分别电联于所述三基色光源211以及所述第二色温光源2122,所述外部电压导通于所述电路元件22后,所述发光源21得以发射光源,同时得以根据需求,相对应地调节所述三基色光源211以及所述第二色温光源2122电压或电流强度,进而改变所述三基色光源211以及所述第二色温光源2122发射光源的强度。所述电路元件22包括一电极件221以及一电联件222,所述电极件221电联于所述电联件222,所述电极件221以用于导通外部电源。各所述第一芯片2111以及所述第三芯片21221之间通过所述电联件222电联,所述外部电源导通于所述电极件221,并通过所述电联件222后,使得所述三基色发光源211以及所述暖光源2122处于带电导通状态,得以 发射光源。
值得一提的是,所述电极件221包括一阳极2211以及一组负极2212,所述阳极2211以用于电联于外部电源的正极,所述负极2212以用于电联于外部电源的负极。本实用新型的一特征在于所述发光源21共用一阳极,得以减少所述基板10上所述阳极2211的设定,进而减少工艺程序,同时减少安装焊接工艺以及节省电源导线物料。所述负极2212进一步包括一第一负极22121,一第二负极22122以及一第三负极22123,所述第一负极22121电联于所述三基色光源211,所述第二负极22122电联于所述第一色温光源2121,所述第三负极22123电联于所述第二色温光源2122。所述发光模组1工作条件为,将所述外部电源的正极电联于所述阳极2211,外部电源的负极分别电联于所述第一负极22121,所述第二负极22122以及所述第三负极22123,使得所述发光模组1处于带电导通状态,进而使得所述发光模组1处于发光工作状态。通过分别调节所述三基色光源211,所述第一色温光源2121以及所述第二色温光源2122的电压强度,驱动所述发光源21根据用户的实际需求调节色彩及亮度变化。值得一提的是,所述第一负极22121具有三负极点,三个负极点分别电联于所述红光芯片,所述蓝光芯片以及所述绿光芯片。所述第一芯片2111、所述第二芯片21211以及第三芯片21221的一端共同电联于所述阳极2211,所述第一芯片2111、所述第二芯片21211以及第三芯片21221各自的另一端分别电联于所述负极2212,所述阳极2211电联于所述外部电源的正极,所述负极2212电联于所述外部电源的负极。
其中在第一种实施例中,所述第一负极22121电联于所述三基色光源211,所述第二负极22122电联于所述第一色温光源2121。所述发光模组1工作条件为,将所述外部电源的正极电联于所述阳极2211,所述外部电源的负极分别电联于所述第一负极22121以及所述第二负极22122,使得所述发光模组1处于带电导通状态,进而使得所述发光模组1处于发光工作状态。通过分别调节所述三基色光源211,以及所述第一色温光源2121的电压强度,驱动所述发光源21根据用户的实际需求调节色彩及亮度变化。值得一提的是,所述第一负极22121具有三负极点,三个负极点分别电联于所述红光芯片,所述蓝光芯片以及所述绿光芯片。所述第一芯片2111以及所述第二芯片21211的一端共同电联于所述阳极2211,所述第一芯片2111以及所述第二芯片21211各自的另一端分别电联于所述负极2212,所述阳极2211电联于外部电源的正极,所述负极2212电联于所 述外部电源的负极。
其中在第二种实施例中,所述第一负极22121电联于所述三基色光源211,所述第三负极22123电联于所述第二色温光源2122。所述发光模组1工作条件为,将所述外部电源的正极电联于所述阳极2211,所述外部电源的负极分别电联于所述第一负极22121以及所述第三负极22123,使得所述发光模组1处于带电导通状态,进而使得所述发光模组1处于发光工作状态。通过分别调节所述三基色光源211,以及所述第二色温光源2122的电压强度,驱动所述发光源21根据用户的实际需求调节色彩及亮度变化。值得一提的是,所述第一负极22121具有三负极点,三个负极点分别电联于所述红光芯片,所述蓝光芯片以及所述绿光芯片。所述第一芯片2111以及所述第三芯片21221的一端共同电联于所述阳极2211,所述第一芯片2111以及所述第三芯片21221各自的另一端分别电联于所述负极2212,所述阳极2211电联于所述外部电源的正极,所述负极2212电联于所述外部电源的负极。
如图7和图8所示,本实用新型同时涉及一具有光源模组的灯具2,所述灯具得以为台灯、工作灯、装饰灯等日常实用灯具,只需将日常灯具的发光源改为本实用新型中所述光源模组1,优选地,所述灯具为一吸顶灯,其得以被安装于天花板等安装平面,吸顶灯具有隐藏安装,减少安装空间等优点,所以被广泛应用于生活。所述具有光源模组的灯具2包括一灯体30以及一光源模组20,所述光源模组20被设于所述灯体30,使得所述灯具30得以发射三基色的不同发光亮度比例组合成多种多彩光束;或利用冷色白光和/或暖色白光进行不同亮度比例组合出高光效的具有不同色温点的白光,使得所述具有光源模组的灯具2具有广泛的应用环境,满足用户需求。
其中,所述灯体30包括一壳体31以及一连接元件32,所述壳体31以及所述光源模组20分别通过所述连接元件32相互设置连接。所述壳体31包括一基座311以及一外壳312,所述基座311可拆卸地设于所述外壳312。所述连接元件32包括一第一连接件321以及一组安装件322,所述基座311通过所述第一连接件321可拆卸地连接于所述外壳31,各所述安装件322分别对称地设于所述外壳的两侧,所述灯体30通过所述安装件322设于安装平面。优选地,所述安装件322为具有弹性的悬挂件。
值得一提的是,所述壳体31进一步包括一面盖313,所述连接元件32进一 步包括一第二连接件323,所述面盖313通过所述第二连接件323可拆地连接于所述基座311。其中所述面盖313的中间具有一透光面,所述光源模组20发射的光束穿过所述透光面穿射出去。
值得一提的是,所述壳体31进一步包括一透镜314以及一散热件324,所述透镜314以及所述散热件324分别设置于所述外壳312的腔体内,所述光源模组20贴合设于所述散热件324。所述光源模组20在通电状态下产生的光束通过所述透镜314发射出去。其中,所述透镜314用于所述光源模组1发射光源的聚光及导光作用,所述光源模组1设于所述透镜314内,相比较于传统技术,所述光源模组1共用一所述透镜314,具有一定预设光束角度的重点照明效果,其中所述预设角度一般为10°至60°;同时使得所述光源模组1发射的组合光源的光色均匀自然、光斑过渡自然、无杂色等优点。
值得一提的是,上述四种不同实施例的所述光源模组1得以分别根据需求被安装于所述灯体31的一容纳腔内,满足使用需求。
本领域的技术人员应理解,上述描述及附图中所示的本实用新型的实施例只作为举例而并不限制本实用新型。本实用新型的目的已经完整并有效地实现。本实用新型的功能及结构原理已在实施例中展示和说明,在没有背离所述原理下,本实用新型的实施方式可以有任何变形或修改。

Claims (17)

  1. 一光源模组,其特征在于,包括:
    一基板;和
    一光源组件,所述光源组件包括一发光源,所述发光源被设置于所述基板,其中所述发光源进一步包括:
    一三基色光源,所述三基色光源被设于所述基板,和
    至少一可调色温光源,其中各所述可调色温光源分别被设置于所述基板,并各所述可调色温光源分别被设于所述三基色光源的外部,所述三基色光源以及所述可调色温光源得以组合发射多种光源。
  2. 如权利要求1所述的光源模组,其中所述可调色温光源包括一组第一色温光源以及一组第二色温光源,各所述第一色温光源分别位于所述三基色光源的两侧,所述第二色温光源位于所述第一色温光源的外侧,即所述第一色温光源位于所述三基色光源以及所述第二色温光源的中间。
  3. 如权利要求1所述的光源模组,其中所述可调色温光源包括一组第一色温光源以及一组第二色温光源,各所述第二色温光源分别位于所述三基色光源的两侧,所述第一色温光源位于所述第二色温光源的外侧,即所述第二色温光源位于所述三基色光源以及所述第二色温光源的中间。
  4. 如权利要求1所述的光源模组,其中所述可调色温光源包括一第一色温光源以及一第二色温光源,其中各所述第一色温光源及各所述第二色温光源分别以所述三基色光源所组成的图案的中心点为中心,并以同一中心点被设于所述三基色光源的外围。
  5. 如权利要求2-4任一所述的光源模组,其中所述三基色光源包括一组第一芯片以及一第一覆盖层,各所述第一芯片沿着所述基板上的一A轴纵向排列,所述第一覆盖层相应沿着所述A轴纵向地覆盖于所述第一芯片的表面。
  6. 如权利要求5所述的光源模组,其中所述第一色温光源包括一组第二芯片以及一第二覆盖层,各所述第二芯片沿着所述A轴纵向排列,所述第二覆盖层相应沿着所述A轴纵向地覆盖于所述第二芯片的表面。
  7. 如权利要求6所述的光源模组,其中所述第二色温光源包括一组第三芯片以及一第三覆盖层,各所述第三芯片沿着所述A轴纵向排列,所述第三覆盖层相应沿着所述A轴纵向地覆盖于所述第三芯片的表面。
  8. 如权利要求7所述的光源模组,其中各所述第二芯片分别位于所述第一芯片的两侧,所述第三芯片位于所述第二芯片的外侧,即所述第二芯片位于所述第一芯片以及所述第三芯片的中间。
  9. 如权利要求8所述的光源模组,其中各所述第三芯片分别位于所述第一芯片的两侧,所述第二芯片位于所述第三芯片的外侧,即所述第三芯片位于所述第一芯片以及所述第二芯片的中间。
  10. 如权利要求9所述的光源模组,其中各所述第二芯片及各所述第三芯片分别以所述第一芯片所组成的图案的中心点为中心,以同一中心点被设于所述三基色光源的外围。
  11. 如权利要求10所述的光源模组,其中所述光源组件包括一电路元件,所述电路元件设于所述基板,所述三基色光源以及所述可调色温光源分别被电联于所述电路元件,一外部电源通过所述电路元件电联于所述发光源,使得所述发光源可根据预定的使用要求组合发射出多种光色。
  12. 如要求要求11所述的光源模组,其中所述电路元件包括一电极件以及一电联件,所述电极件以及所述电联件分别电联于所述第一芯片,所述第二芯片以及所述第三芯片,所述外部电源通过所述电极件以及所述电联件使得所述三基色光源、所述第一色温光源以及所述第二色温光源处于发射光源的工作状态。
  13. 如要求要求12所述的光源模组,其中所述电极件进一步包括一阳极以及一组负极,所述第一芯片、所述第二芯片以及第三芯片的一端共同电联于所述阳极,所述第一芯片、所述第二芯片以及第三芯片的另一端分别被电联于所述负极,所述阳极电联于外部电源的正极,所述负极电联于所述外部电源的负极。
  14. 如权利要求13所述的光源模组,其中所述第一芯片为三基色LED芯片,所述三基色LED芯片分别包括红色光芯片、蓝色光芯片、绿色光芯片三路芯片组,所述第一覆盖层为透明的硅胶或环氧树脂等可透光胶体材料;通过调整设定所述三基色LED芯片中的三路光色芯片组的电压或电流数值比例,并透过所述第一覆盖层得以组合发射出多种彩色光。
  15. 如权利要求14所述的光源模组,其中所述第二芯片以及所述第三芯片为LED蓝光芯片,所述第二覆盖层为具有特定配比的YAG荧光粉成分的胶体材料,所述第二芯片透过所述第二覆盖层得以产生发射出色温范围在4500K-7000K的冷白色光,所述第三覆盖层为另一特定配比的具有YAG荧光粉成分的胶体材料,所述第三芯片透过所述第三覆盖层得以产生发射出色温范围在1000K-4500K的暖白色光;通过调整设定的所述第二芯片以及所述第三芯片的电压或电流数值比例,并分别相应透过所述第二覆盖层和所述第三覆盖层得以组合发射出色温范围在1000K-7000K的白光,使得所述光源模组获得色温可调的白光照明效果。
  16. 一带有光源模组的灯具,其特征在于,包括:
    一灯体;和
    根据权利要求1至15中任一所述的一个所述光源模组,其中所述光源模组被设于所述灯体的一容纳腔内,所述光源模组通过调整设定或改变外部电源的电压或电流数值得以组合发射出多种光色。
  17. 如权利要求16所述的带有光源模组的灯具,其中所述灯体包括一壳体,所述壳体进一步包括一外壳以及一透镜,所述透镜设于所述外壳,所述光源模组的光束通过所述透镜发射。
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EP3499109A1 (en) 2019-06-19

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