A graphene backlight module, comprising a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, a second insulating protection layer, a metallic reflection layer, and a first black matrix, wherein the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; the second insulating protection layer covers the graphene gates and the first insulating protection layer; the metallic reflection layer is disposed along a side of the lower substrate away from the graphene light generation layer; and the first black matrix is disposed on the second insulating protection layer and among the graphene light generation blocks.

A graphene backlight module, comprising a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, and a second insulating protection layer, wherein the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; and the second insulating protection layer covers the graphene gates and the first insulating protection layer.

A liquid crystal display device comprising a graphene backlight module, q liquid crystal member, an upper substrate, a lower polarization film, and an upper polarization film, wherein the liquid crystal member is disposed between the graphene backlight module and the upper substrate; the lower polarization film is disposed between a light emission side of the graphene backlight module and the liquid crystal member; the upper polarization film is disposed on a side of the upper substrate away from the liquid crystal member; the graphene backlight module comprises a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, and a second-13-insulating protection layer; the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; and the second insulating protection layer covers the graphene gates and the first insulating protection layer.

A graphene backlight module, comprising a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, a second insulating protection layer, a metallic reflection layer, and a first black matrix, wherein the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; the second insulating protection layer covers the graphene gates and the first insulating protection layer; the metallic reflection layer is disposed along a side of the lower substrate away from the graphene light generation layer; and the first black matrix is disposed on the second insulating protection layer and among the graphene light generation blocks.

A graphene backlight module, comprising a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, and a second insulating protection layer, wherein the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; and the second insulating protection layer covers the graphene gates and the first insulating protection layer.

A liquid crystal display device comprising a graphene backlight module, q liquid crystal member, an upper substrate, a lower polarization film, and an upper polarization film, wherein the liquid crystal member is disposed between the graphene backlight module and the upper substrate; the lower polarization film is disposed between a light emission side of the graphene backlight module and the liquid crystal member; the upper polarization film is disposed on a side of the upper substrate away from the liquid crystal member; the graphene backlight module comprises a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, and a second-13-insulating protection layer; the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; and the second insulating protection layer covers the graphene gates and the first insulating protection layer.

A graphene backlight module, comprising a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, a second insulating protection layer, a metallic reflection layer, and a first black matrix, wherein the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; the second insulating protection layer covers the graphene gates and the first insulating protection layer; the metallic reflection layer is disposed along a side of the lower substrate away from the graphene light generation layer; and the first black matrix is disposed on the second insulating protection layer and among the graphene light generation blocks.

A graphene backlight module, comprising a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, and a second insulating protection layer, wherein the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; and the second insulating protection layer covers the graphene gates and the first insulating protection layer.

A liquid crystal display device comprising a graphene backlight module, q liquid crystal member, an upper substrate, a lower polarization film, and an upper polarization film, wherein the liquid crystal member is disposed between the graphene backlight module and the upper substrate; the lower polarization film is disposed between a light emission side of the graphene backlight module and the liquid crystal member; the upper polarization film is disposed on a side of the upper substrate away from the liquid crystal member; the graphene backlight module comprises a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, and a second-13-insulating protection layer; the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; and the second insulating protection layer covers the graphene gates and the first insulating protection layer.

A graphene backlight module, comprising a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, a second insulating protection layer, a metallic reflection layer, and a first black matrix, wherein the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; the second insulating protection layer covers the graphene gates and the first insulating protection layer; the metallic reflection layer is disposed along a side of the lower substrate away from the graphene light generation layer; and the first black matrix is disposed on the second insulating protection layer and among the graphene light generation blocks.

A graphene backlight module, comprising a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, and a second insulating protection layer, wherein the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; and the second insulating protection layer covers the graphene gates and the first insulating protection layer.

A liquid crystal display device comprising a graphene backlight module, q liquid crystal member, an upper substrate, a lower polarization film, and an upper polarization film, wherein the liquid crystal member is disposed between the graphene backlight module and the upper substrate; the lower polarization film is disposed between a light emission side of the graphene backlight module and the liquid crystal member; the upper polarization film is disposed on a side of the upper substrate away from the liquid crystal member; the graphene backlight module comprises a lower substrate, a plurality of graphene sources, a plurality of graphene drains, a graphene light generation layer, a first insulating protection layer, a plurality of graphene gates, and a second-13-insulating protection layer; the graphene sources and drains are disposed alternately at intervals on the lower substrate; the graphene light generation layer is disposed on the lower substrate, the graphene sources and drains, where the graphene light generation layer comprises a plurality of graphene light generation blocks disposed at intervals, and each graphene light generation block covers a pair of graphene source and drain; the first insulating protection layer covers the lower substrate and the graphene light generation layer; the graphene gates are disposed at intervals on the first insulating protection layer, each corresponding to a graphene light generation block; and the second insulating protection layer covers the graphene gates and the first insulating protection layer.