Abstract: There is provided electronic equipment including a first case, a second case provided with an internal part disposed between the first case and the second case, and a side panel provided individually in side spaces defined between the first case and the second case, wherein the side panel has a guide provided to be oriented towards the internal part and opened to penetrate in an alignment direction in which the first case, the internal part, and the second case are aligned, wherein the first case has a first boss extending in the alignment direction and configured to be inserted to pass through the guide, and wherein the first boss is fixed to the second case.

Abstract: A light source unit according to an embodiment includes a device holder including a semiconductor light emitting device; a holder case including an opening where the device holder is disposed; and a dustproof member including a frame-shaped dustproof portion disposed in a gap between an outer periphery of the device holder and a wall surface of the opening.

Abstract: A light source unit according to an embodiment includes a device holder including a semiconductor light emitting device; a holder case including an opening where the device holder is disposed; and a dustproof member including a frame-shaped dustproof portion disposed in a gap between an outer periphery of the device holder and a wall surface of the opening.

Abstract: A charge pump circuit includes a capacitor, a first switch between the capacitor and a power supply terminal, a second switch between the capacitor and an output terminal, a third switch between the output terminal and the capacitor, a fourth switch between the capacitor and a ground terminal, and a control unit configured to generate control signals for the switches. The control signals include first signals generated during a first period that cause first and third switches to be in an ON state and second and fourth switches to be in an OFF state, second signals generated during a second period that cause first and third switches to be in an OFF state and second and fourth switches to be in an ON state, and third signals generated between the first and second periods, that cause the ON/OFF state of each of the switches to be switched at different times.

Abstract: A charge pump circuit includes a capacitor, a first switch between the capacitor and a power supply terminal, a second switch between the capacitor and an output terminal, a third switch between the output terminal and the capacitor, a fourth switch between the capacitor and a ground terminal, and a control unit configured to generate control signals for the switches. The control signals include first signals generated during a first period that cause first and third switches to be in an ON state and second and fourth switches to be in an OFF state, second signals generated during a second period that cause first and third switches to be in an OFF state and second and fourth switches to be in an ON state, and third signals generated between the first and second periods, that cause the ON/OFF state of each of the switches to be switched at different times.

Abstract: There is provided a projector comprising: a polyhedral main body portion made up of a plurality of surfaces which includes a projection unit; and a support plate which has substantially the same size as that of a first surface of the plurality of surfaces of the main body portion and which is detachably attached to the first surface, wherein the support plate has in a substantially central portion a fixing portion to which a second surface of the plurality of surfaces which is smaller than the first surface is fixed, and wherein when the main body portion is placed on the support plate in such a way that the second surface functions as a bottom surface, the second surface of the main body portion is fixed to the fixing portion of the support plate, whereby the main body portion is allowed to stand alone.

Abstract: There is provided a projector comprising: a polyhedral main body portion made up of a plurality of surfaces which includes a projection unit; and a support plate which has substantially the same size as that of a first surface of the plurality of surfaces of the main body portion and which is detachably attached to the first surface, wherein the support plate has in a substantially central portion a fixing portion to which a second surface of the plurality of surfaces which is smaller than the first surface is fixed, and wherein when the main body portion is placed on the support plate in such a way that the second surface functions as a bottom surface, the second surface of the main body portion is fixed to the fixing portion of the support plate, whereby the main body portion is allowed to stand alone.

Abstract: A photo-mask that includes a first light shielding region which is narrow and elongated, and a second light shielding region which is wider and more elongated than the first light shielding region and is away from the first light shielding region. A phase shifter part and a non-phase shifter part are provided adjacently to both sides of the first light shielding region. Two phase shifter parts or two non-phase shifter parts are respectively provided adjacently to both sides of the second light shielding part.

Abstract: A photo-mask, a multiphase exposure method and a method of manufacturing a semiconductor device are disclosed. The photo-mask mask includes a first light shielding region which is narrow and elongated, and a second light shielding region which is wider and more elongated than the first light shielding region and is away from the first light shielding region. A phase shifter part and a non-phase shifter part are provided adjacently to both sides of the first light shielding region. Two phase shifter parts or two non-phase shifter parts are respectively provided adjacently to both sides of the second light shielding part.

Abstract: A process for forming a deposition film on a substrate comprises introducing separately a precursor or activated species formed in a decomposition space (B) and activated species formed in a decomposition space (C), into the deposition space wherein the film is formed on the substrate.

Abstract: A deposition film is formed on a substrate in a deposition space (A) by the chemical reaction between a gaseous precursor of a higher silicon halide or a higher halosilane formed in a decomposition space (B) and a separately-introduced gaseous, activated species of hydrogen, silane or a halosilane formed in a decomposition space (C).

Abstract: A surface-treated metal body comprises a metal body having a plurality of spherical indent recesses as irregularities formed on the surface, and further having fine irregularities formed in the spherical indent recesses.

Abstract: A surface-treated metal body comprises a metal body having a plurality of spherical indent recesses as irregularities formed on the surface, and further having fine irregularities formed in the spherical indent recesses.

Abstract: A photoconductive member has a support comprising aluminum as the main component and a photoconductive layer. The photoconductive layer is provided on the support and contains an amorphous material comprising silicon atoms as a matrix. The support comprises an aluminum alloy with a Fe content of 2000 ppm by weight or less.

Abstract: A process for forming a deposition film on a substrate comprises introducing separately a precursor or activated species formed in a decomposition space (B) and activated species formed in a decomposition space (C), into the deposition space wherein the film is formed on the substrate.

Abstract: A light receiving member has a support and a light receiving layer. The light receiving layer has an inner layer composed of a-Si(Ge,Sn)(H,X) and an outer layer composed of a-Si(H,X) containing neither germanium atoms nor tin atoms. The support has an uneven surface of spherical dimples, each having an inside face provided with minute irregularities.The light receiving member exhibits high photosensitivity in the entire visible region of light; exhibits an excellent matching property with a semiconductor laser and shows quick light response. The member is suited for image formation by using coherent light, free from interference fringe patterns and spots upon reversed development even after repeated use for a long period of time. The member is free from defective images or blurring, shows high density with clear half tones, has a high resolving power, and can provide high quality images.

Abstract: A light receiving member has a support and a light receiving layer. The support has an uneven-shaped surface of a plurality of spherical dimples, each dimple having an identical radius of curvature R and an identical width D, wherein the ratio D/R of the width D to the radius of curvature R is from 0.03 to 0.07. The light receiving layer is a multi-layered structure having an outer layer which formed from an amorphous material containing silicon atoms as the main constituent and at least one of hydrogen atoms and halogen atoms. The light receiving layer contains an inner layer of amorphous silicon which also contains germanium and/or tin and hydrogen and/or halogen.The light receiving member, when used with a coherent laser beam as an optical source, acts to prevent the occurrence of an interference fringe pattern during image formation.

Abstract: A light receiving member has a support and a light receiving layer. The support has an uneven-shaped surface of a plurality of spherical dimples formed by the impact of a plurality of rigid true spheres on the surface of the support. Each of the dimples has an identical radius of curvature R and an identical width D, wherein the radio D/R of the width D to the radius of curvature R is from 0.03 to 0.07. The light receiving layer is a multi-layered structure having a free surface which formed from an amorphous material containing silicon atoms as the main constituent, at least one of oxygen atoms, carbon atoms and nitrogen atoms, and at least one of hydrogen atoms and halogen atoms. The light receiving layer contains a layer region which functions as a photosensitive layer.The light receiving member, when used with a coherent laser beam as an optical source, acts to prevent the occurrence of an interference fringe pattern during image formation.

Abstract: There is provided a light receiving member which comprises a support, a photosensitive layer composed of amorphous material containing silicon atoms and at least either germanium atoms or tin atoms and a surface layer, said surface layer being of multi-layered structure having at least an abrasion-resistant layer at the outermost side and a reflection preventive layer in the inside, and said support having a surface provided with irregularities composed of spherical dimples each of which having an inside face provided with minute irregularities. The light receiving member overcomes all of the problems in the conventional light receiving member comprising a light receiving layer composed of an amorphous silicon and, in particular, effectively prevents the occurrence of interference fringe in the formed images due to the interference phenomenon thereby forming visible images of excellent quality even in the case of using coherent laser beams possible producing interference as a light source.

Abstract: A light receiving member comprises a support and a light receiving layer having a photosensitive layer composed of a-Si(Ge,Sn)(H,X) or a-Si(Ge,Sn)(O,C,N)(H,X) and a surface layer composed of A-Si(O,C,N)(H,X), said support having a surface provided with irregularities composed of spherical dimples, each of which has an inside face provided with minute irregularities. The optical band gap possessed by the surface layer and the optical band gap possessed by the photosensitive layer on which the surface layer is disposed are matched at their interface. The light receiving member can effectively prevent the occurrence of interference fringes in the formed images. In addition, the light-receiving member forms visible images of excellent quality even when coherent laser beams are used as the light source. The member also effectively prevents reflection of incident light at the interface between the surface layer and the photosensitive layer.