A window comprising: an inner glass substrate and an outer glass substrate, the inner and outer glass substrates being substantially parallel to one another; a multi-layer low-E ultraviolet blocking coating supported by an inner surface of the outer glass substrate, the low-E UV blocking coating blocking significant amounts of UV in the range of from 380-400 nm; a liquid crystal inclusive layer disposed between at least the inner and outer glass substrates; first and second substantially transparent conductive layers, the first and second substantially transparent conductive layers being provided between the liquid crystal inclusive layer and the outer and inner glass substrates, respectively; first and second polymer inclusive laminating layers, the first laminating layer provided between at least the liquid crystal inclusive layer and the outer glass substrate and the second laminating layer provided between at least the liquid crystal inclusive layer and the inner glass substrate; at least one bus bar in electrical communication with the first and/or second transparent conductive layer(s) so as to cause the liquid crystal inclusive layer to become activated when a voltage is applied thereto; and wherein the multi-layer low-E UV blocking coating comprises: a dielectric titanium oxide layer, a first lower contact layer a first conductive and metallic IR reflecting layer, wherein the first contact layer contacts the first IR reflecting layer, a first upper contact layer, which contacts the first IR reflecting layer, a first dielectric layer, a second dielectric layer, a second conductive and metallic IR reflecting layer, a second upper contact layer, which contacts the second IR reflecting layer, a third dielectric layer, a forth protective dielectric layer, and a UV blocking layer surrounded by dielectric layers (609; 623) of tin oxide, so that no more than 20% of ambient light having a wavelength of from 380-400 nm reaches the liquid crystal inclusive layer, wherein the coated article has a visible transmission of at least 55% when the liquid crystal inclusive layer is activated and wherein the liquid crystal inclusive layer is stable up to at least 120°C. an inner glass substrate and an outer glass substrate, the inner and outer glass substrates being substantially parallel to one another; a multi-layer low-E ultraviolet blocking coating supported by an inner surface of the outer glass substrate, the low-E UV blocking coating blocking significant amounts of UV in the range of from 380-400 nm; a liquid crystal inclusive layer disposed between at least the inner and outer glass substrates; first and second substantially transparent conductive layers, the first and second substantially transparent conductive layers being provided between the liquid crystal inclusive layer and the outer and inner glass substrates, respectively; first and second polymer inclusive laminating layers, the first laminating layer provided between at least the liquid crystal inclusive layer and the outer glass substrate and the second laminating layer provided between at least the liquid crystal inclusive layer and the inner glass substrate; at least one bus bar in electrical communication with the first and/or second transparent conductive layer(s) so as to cause the liquid crystal inclusive layer to become activated when a voltage is applied thereto; and wherein the multi-layer low-E UV blocking coating comprises: a dielectric titanium oxide layer, a first lower contact layer a first conductive and metallic IR reflecting layer, wherein the first contact layer contacts the first IR reflecting layer, a first upper contact layer, which contacts the first IR reflecting layer, a first dielectric layer, a second dielectric layer, a second conductive and metallic IR reflecting layer, a second upper contact layer, which contacts the second IR reflecting layer, a third dielectric layer, a forth protective dielectric layer, and a UV blocking layer surrounded by dielectric layers (609; 623) of tin oxide, so that no more than 20% of ambient light having a wavelength of from 380-400 nm reaches the liquid crystal inclusive layer, wherein the coated article has a visible transmission of at least 55% when the liquid crystal inclusive layer is activated and wherein the liquid crystal inclusive layer is stable up to at least 120°C. a dielectric titanium oxide layer, a first lower contact layer a first conductive and metallic IR reflecting layer, wherein the first contact layer contacts the first IR reflecting layer, a first upper contact layer, which contacts the first IR reflecting layer, a first dielectric layer, a second dielectric layer, a second conductive and metallic IR reflecting layer, a second upper contact layer, which contacts the second IR reflecting layer, a third dielectric layer, a forth protective dielectric layer, and a UV blocking layer surrounded by dielectric layers (609; 623) of tin oxide, so that no more than 20% of ambient light having a wavelength of from 380-400 nm reaches the liquid crystal inclusive layer, wherein the coated article has a visible transmission of at least 55% when the liquid crystal inclusive layer is activated and