Abstract:
Optical multilayer thin-film filters (OMTFFs) are disclosed. An exemplary filter includes a transparent substrate, a multilayer film (MF) on a surface of the substrate, and a top layer. The MF is of alternatingly laminated layers of a high-refractive-index (HRI) material and a low-refractive-index (LRI) material. The top layer is on an uppermost layer of the MF and is of a material having atoms of lower atomic weight than atoms of either the HRI or LRI materials. The OMTFFs are made in a vacuum environment by alternatingly laminating respective thin films of the HRI and LRI materials on the substrate. The top layer is formed on the MF. Between forming the MF and top layer is a suppression step in which the newly formed MF is exposed to moisture by briefly venting the vacuum to atmosphere. The moisture inhibits migration of the low-molecular-weight atoms into the HRI and LRI materials.
Abstract:
Optical multilayer thin-film filters (OMTFFs) are disclosed. An exemplary filter includes a transparent substrate, a multilayer film (MF) on a surface of the substrate, and a top layer. The MF is of alternatingly laminated layers of a high-refractive-index (HRI) material and a low-refractive-index (LRI) material. The top layer is on an uppermost layer of the MF and is of a material having atoms of lower atomic weight than atoms of either the HRI or LRI materials. The OMTFFs are made in a vacuum environment by alternatingly laminating respective thin films of the HRI and LRI materials on the substrate. The top layer is formed on the MF. Between forming the MF and top layer is a suppression step in which the newly formed MF is exposed to moisture by briefly venting the vacuum to atmosphere. The moisture inhibits migration of the low-molecular-weight atoms into the HRI and LRI materials.
Abstract:
Optical multilayer thin-film filters (OMTFFs) are disclosed. An exemplary filter includes a transparent substrate, a multilayer film (MF) on a surface of the substrate, and a top layer. The MF is of alternatingly laminated layers of a high-refractive-index (HRI) material and a low-refractive-index (LRI) material. The top layer is on an uppermost layer of the MF and is of a material having atoms of lower atomic weight than atoms of either the HRI or LRI materials. The OMTFFs are made in a vacuum environment by alternatingly laminating respective thin films of the HRI and LRI materials on the substrate. The top layer is formed on the MF. Between forming the MF and top layer is a suppression step in which the newly formed MF is exposed to moisture by briefly venting the vacuum to atmosphere. The moisture inhibits migration of the low-molecular-weight atoms into the HRI and LRI materials.
Abstract:
An imaging apparatus includes an imaging device for capturing images, a display section, a temporary memory for temporarily recording captured images, a main memory for recording the captured images and a setting mechanism for setting one of a temporary recording mode and a direct recording mode. The images temporarily recorded are displayed for the user to select images to be saved, and the selected images are recorded into the main memory and deleted from the temporary memory. All of the non-selected images remaining in the temporary memory are deleted at once at a predetermined timing instructed by the user.
Abstract:
An imaging apparatus includes: an imaging device acquiring a captured image on a subject; a display section; setting means for setting whether to make effective a temporary recording mode in which the captured image is temporarily recorded in a first storage section; if the temporary recording mode is effective, display control means for playback displaying the captured image recorded in the first storage section from when the temporary recording mode has been effective on the display section in response to an instruction operation of a user; and recording control means for recording an image specified by the user from the playback-displayed captured images in a second storage section as an image to be saved.
Abstract:
An imaging apparatus includes: an imaging device acquiring a captured image on a subject; a display section; setting means for setting whether to make effective a temporary recording mode in which the captured image is temporarily recorded in a first storage section; if the temporary recording mode is effective, display control means for playback displaying the captured image recorded in the first storage section from when the temporary recording mode has been effective on the display section in response to an instruction operation of a user; and recording control means for recording an image specified by the user from the playback-displayed captured images in a second storage section as an image to be saved.
Abstract:
An imaging apparatus includes: an imaging device acquiring a captured image on a subject; a display section; setting means for setting whether to make effective a temporary recording mode in which the captured image is temporarily recorded in a first storage section; if the temporary recording mode is effective, display control means for playback displaying the captured image recorded in the first storage section from when the temporary recording mode has been effective on the display section in response to an instruction operation of a user; and recording control means for recording an image specified by the user from the playback-displayed captured images in a second storage section as an image to be saved.
Abstract:
The present invention relates to a cylinder identifying device to identify the cylinder or cylinders of a running internal combustion engine in a specific stroke, and more particularly to a cylinder identifying device for internal combustion engines suitable for automotive use. A signal plate for detecting revolutions, fitted to the camshaft, is provided with two signal generating means per cylinder; a cylinder identifying signal is added before said two signals; and two sensors are so arranged as to have a phase difference from the detection of said projection. Bit patterns are prepared from the outputs of these two sensors correspondingly to individual cylinders, and cylinder identification is accomplished according to the combination of these patterns. The phase difference here is so set that the number of signals detected by the second sensor (sub-crank angle sensor, hereinafter abbreviated SCAS), out of said two sensors, between signals detected by the first sensor (base crank angle sensor, hereinafter abbreviated to BCAS), can be one of three kinds. A signal from a BCAS signal input means is received, and the number of signals generated is measured by a signal counting means. Further a SCAS signal is received by a SCAS signal input means, and bit patterns are generated by a bit preparing means. Cylinder identification is performed according to a bit pattern for cylinder identification from a cylinder identification criterion storage means, another bit pattern generated by said bit preparing means and the number of signals generated by the signal counting means.
Abstract:
In a hearth liner wherein an evaporation material is adhered to a substrate to form an optical thin film thereon, the present invention is directed to prevent bumping (splashing) when the evaporation material is irradiated by an electron beam from an electron gun to melt and vaporize thereof. A hearth liner of a vacuum evaporation apparatus wherein the electron beam from the electron gun is irradiated on the evaporation material to form an optical thin film on a substrate, wherein the cross-section shape of an evaporation material storage part of the hearth liner is a shallow semicircular (spherical) shape (bowl shape).