Abstract: This projection display device includes: a light source unit emitting a white light along a first optical axis; a lighting unit provided on a second optical axis, the lighting unit splitting the white light into predetermined color lights and uniformizing an illuminance distribution of the predetermined color lights; an image generator including a display element modulating the predetermined color lights, and a projection lens projecting an image light including the predetermined color lights modulated along a third optical axis; at least one optical path switching unit selectively switching between reflection and transmission of the white light; a light diffuser including a diffusion optical system spreading the white light to a desired illumination area and projecting the spread white light as an illumination light; and a controller causing the at least one optical path switching unit to switch between emission of the image light and emission of the illumination light.

Abstract: A light source device includes: a light source element emitting first light; a first selective reflection element disposed at a position where the first light is incident, the first selective reflection element transmitting a component of first linear polarized light and reflecting a component of second linear polarized light; a second selective reflection element disposed at a position for receiving incident light that has passed through or been reflected by the first selective reflection element, the second selective reflection element transmitting or reflecting the incident light in accordance with a wavelength region; and a first polarization direction conversion element disposed between the first and second selective reflection element, the first polarization direction conversion element converting the first linear polarized light into elliptical polarized light.

Abstract: A light source device includes a light source element that emits light source light in a first wavelength region, a selective reflection element that separates the light source light into first light and second light, a first light direction conversion element that reflects the first light guided in a first direction from the selective reflection element in a second direction, and a wavelength conversion element that converts the first light into third light in a second wavelength region. The first light direction conversion element reflects the third light in a third direction opposite to the first direction. The selective reflection element transmits the third light reflected by the first light direction conversion element. The selective reflection element guides the second light and the third light in the third direction. The light source element emits the light source light in a direction different from the second direction.

Abstract: It is an object of the present invention to provide an underwear capable of preventing a chest of a wearer from jiggling. The underwear according to the present invention comprises a pair of cup portions, a wire, and a wire length adjusting portion. The pair of cup portions protrude to a same side. The wire length adjusting portion is disposed between the foot of the pair of cup portions. Then, the wire extends from the opposite side of the wire length adjusting portion side of the cup portion to the wire length adjusting portion. The wire length adjusting portion can adjust a length L of the wire from the opposite side of the wire length adjusting portion side of the pair of cup portions to the wire length adjusting portion.

Abstract: A wavelength conversion element includes a first phosphor region and a second phosphor region. The second phosphor region is disposed in a thickness direction of the first phosphor region and has a phosphor particle with a particle size different from a particle size of a phosphor particle positioned in the first phosphor region.

Abstract: A booster additive concentrate may advantageously contain: (a) an anti-wear mixture of two or more phosphite/phosphate compounds and one or more ether/thioether compounds; (b) an ashless dispersant; (c) a calcium-containing detergent, such as an overbased calcium phenate; (d) ?2 friction modifiers, at least one of which comprises a polyalkylene polyamine succinimide derivative; (e) optionally a corrosion inhibitor; and (f) a lubricating oil basestock. Based on these additive components, the booster additive concentrate may exhibit specific contents of B/Ca/P and may contain minimal or substantially no additional antioxidants. Lubricant compositions can be made from the booster additive concentrates and a fresh/used lubricant oil composition “diluent,” which can rejuvenate the diluent. Such lubricant compositions can have advantageous anti-shudder durability (ASD) lifetimes and other frictional properties.

Abstract: This projection display device includes: a light source unit emitting a white light along a first optical axis; a lighting unit provided on a second optical axis, the lighting unit splitting the white light into predetermined color lights and uniformizing an illuminance distribution of the predetermined color lights; an image generator including a display element modulating the predetermined color lights, and a projection lens projecting an image light including the predetermined color lights modulated along a third optical axis; at least one optical path switching unit selectively switching between reflection and transmission of the white light; a light diffuser including a diffusion optical system spreading the white light to a desired illumination area and projecting the spread white light as an illumination light; and a controller causing the at least one optical path switching unit to switch between emission of the image light and emission of the illumination light.

Abstract: A booster additive concentrate may advantageously contain: (a) an anti-wear mixture of two or more phosphite/phosphate compounds and one or more ether/thioether compounds; (b) an ashless dispersant; (c) a calcium-containing detergent, such as an overbased calcium phenate; (d) ?2 friction modifiers, at least one of which comprises a polyalkylene polyamine succinimide derivative; (e) optionally a corrosion inhibitor; and (f) a lubricating oil basestock. Based on these additive components, the booster additive concentrate may exhibit specific contents of B/Ca/P and may contain minimal or substantially no additional antioxidants. Lubricant compositions can be made from the booster additive concentrates and a fresh/used lubricant oil composition “diluent,” which can rejuvenate the diluent. Such lubricant compositions can have advantageous anti-shudder durability (ASD) lifetimes and other frictional properties.

Abstract: A light source system includes an excitation light source, a fluorescent plate that emits fluorescence when exposed to the excitation light from the excitation light source, and a compartment storing the fluorescent plate. The compartment has a heat-receiving section and a heat-dissipation section thermally connected to each other. The heat-receiving section is located opposite a fluorescence light output side of the fluorescent plate, in the compartment. The heat-dissipation section is outside the compartment.

Abstract: A wavelength conversion element includes a first phosphor region and a second phosphor region. The second phosphor region is disposed in a thickness direction of the first phosphor region and has a phosphor particle with a particle size different from a particle size of a phosphor particle positioned in the first phosphor region.

Abstract: A wavelength conversion element includes a first phosphor region and a second phosphor region. The second phosphor region is disposed in a thickness direction of the first phosphor region and has a phosphor particle with a particle size different from a particle size of a phosphor particle positioned in the first phosphor region.

Abstract: A light source system includes an excitation light source, a fluorescent plate that emits fluorescence when exposed to the excitation light from the excitation light source, and a compartment storing the fluorescent plate. The compartment has a heat-receiving section and a heat-dissipation section thermally connected to each other. The heat-receiving section is located opposite a fluorescence light output side of the fluorescent plate, in the compartment. The heat-dissipation section is outside the compartment.

Abstract: A wavelength conversion composite includes a plurality of light-incident layers for emitting lights of different wavelength ranges in response to an incident light. The plurality of light-incident layers are disposed in layers on the same plane, adjacent edges of two adjacent light-incident layers among the plurality of light-incident layers being in contact with each other so that the plurality of light-incident layers form an integral whole.

Abstract: A light source system includes an excitation light source, a fluorescent plate that emits fluorescence when exposed to the excitation light from the excitation light source, and a compartment storing the fluorescent plate. The compartment has a heat-receiving section and a heat-dissipation section thermally connected to each other. The heat-receiving section is located opposite a fluorescence light output side of the fluorescent plate, in the compartment. The heat-dissipation section is outside the compartment.

Abstract: A phosphor plate includes: a plate substrate, a reflection coating provided on a surface of the plate substrate, a reflecting layer provided on the reflection coating, and composed of metallic oxide and transparent binder, and a phosphor layer provided on the reflecting layer. The reflecting layer has a thickness ranging from 10 ?m to 90 ?m inclusive, and the metallic oxide is contained in the reflecting layer at a volume density ranging from 15 vol % to 40 vol %.

Abstract: A light source device includes a solid light source, a transmissive fluorescent plate having a phosphor that is excited by excitation light for emitting fluorescent light in a traveling direction of the excitation light, and a color filter plate that cuts a part of a wavelength region of light supplied from the fluorescent plate for trimming the light into desirable color light. The light source device further includes a first reflective film disposed on a light path extending from the fluorescent plate to the color filter plate for reflecting at least a part of the excitation light.

Abstract: Provided are a wireless communication apparatus, a system and a method that are suitable for establishing steady communication by using a redundant configuration. The wireless communication apparatus includes a plurality of devices that transmit and receive data through a wireless network. The devices each include a control section and a decision section. The decision section in one of the devices designates a first device from among the devices as a first valid device, and designates a second device as a second valid device. The control section in the first device copies to the second device the data and coupling information for transmitting and receiving the data. When the second device is determined to valid, the control section in the second device transmits the copied data from the second device.

Abstract: A wavelength conversion element includes a first phosphor region and a second phosphor region. The second phosphor region is disposed in a thickness direction of the first phosphor region and has a phosphor particle with a particle size different from a particle size of a phosphor particle positioned in the first phosphor region.

Abstract: A phosphor plate comprises the following structural elements: a plate substrate, a reflection coating provided on the surface of the plate substrate, a reflecting layer provided on the reflection coating, and composed of metallic oxide and transparent binder, and a phosphor layer provided on the reflecting layer. The reflecting layer has a thickness ranging from 10 ?m to 90 ?m inclusive, and the metallic oxide is contained in the reflecting layer at a volume density ranging from 15 vol % to 40 vol %.

Abstract: The light source apparatus includes a solid state light source, a phosphor plate, a dichroic mirror, a phase differential panel and an optical filter. The solid state light source emits excitation light of first linearly polarized light. The phosphor plate includes phosphor emitting fluorescence through light excitation. The dichroic mirror is disposed between the solid state light source and the phosphor plate, transmitting the excitation light of the first linearly polarized light, and reflecting the fluorescence as well as excitation light of second linearly polarized light. The phase differential panel is disposed between the dichroic mirror and the phosphor plate, and converting the excitation light of the first linearly polarized light to the excitation light of the second linearly polarized light. The optical filter transmits the fluorescence as well as reflects to guide the excitation light of the second linearly polarized light to the phosphor via the dichroic mirror.