Patent application number | Description | Published |
20080217752 | Functional Device Package - A packaging structure for hermitically sealing a functional device by solder connection at a wafer level in which a first Si substrate having a concave portion metallized on its internal surface and a second Si substrate metallized at a position opposed to said concave portion are used, the metallization applied to the internal surface of the concave portion of the first Si substrate and the metallization applied to the second Si substrate at the position opposed to the concave portion are connected by molten solder to hermetically seal the functional device between the first Si substrate and the second Si substrate, whereby the wettability of the solder for the two Si substrates is improved, the bondability between the Si substrates is enhanced, and the yield at which the package is manufactured is improved. | 09-11-2008 |
20080233349 | Functional Device - The present invention provides a low-cost MEMS functional device by improving air tightness of a jointed section by anode junction in wafer level packaging for MEMS based functional devices. The MEMS functional device comprises a function element section formed by processing a substrate mainly made of Si, a metallized film for sealing formed around the functional element, and a glass substrate jointed to the metallized film for sealing by anode junction. Formed on a surface of the metallized film for sealing is a metallized film containing at least one of Sn and Ti as a main component. | 09-25-2008 |
20090126991 | SUBSTRATE FOR MOUNTING ELECTRONIC PART AND ELECTRONIC PART - The present invention is characterized by a structure having a substrate | 05-21-2009 |
20090219728 | SUBMOUNT AND ITS MANUFACTURING METHOD - Submounts for mounting optical devices which have an excellent heat radiating property and can be formed in a wafer state in batch are provided. | 09-03-2009 |
20100002987 | OPTICAL MODULE MOUNTED WITH WDM FILTER - A filter element includes a first glass substrate having a pair of parallel surfaces and a band pass filter arranged on one of the parallel surfaces, a pair of single-crystal substrates (Si wafers) each including a primary surface formed with a depression having an inclined surface with respect to the primary surface occupying at least one half of the opening of the depression, and a second glass substrate having an optical element. The primary surfaces of the single-crystal substrate pair are bonded to a pair of the surfaces of the glass substrate. The depressions are faced through the glass substrate and surround the band pass filter. By this configuration, the filter element can be mass produced with a high accuracy and a low cost by the wafer-level process. | 01-07-2010 |
20100209103 | OPTICAL TRANSCEIVER MODULE - There are provided a downsized and low-cost optical module used as a terminal for wavelength multiplexing optical transmission and one-core bidirectional optical transmission which transmits lights of plural wavelengths through one optical fiber, and a method of manufacturing the optical module. A base on which plural optical elements are mounted, and an optical multiplexer and demultiplexer having wavelength selection filters and mirrors formed on both surfaces of a substrate are prepared. Those two parts are packed into a package so that an optical element mounted surface and a filter surface are substantially parallel to each other, and the optical elements are arranged to emit or receive lights obliquely to the base. With this configuration, because the optical multiplexer and demultiplexer can be mounted in parallel to an X-Y plane, a package can be easily machined by using a lathe, thereby enabling a reduction in the costs. | 08-19-2010 |
20100328638 | LED LIGHT SOURCE, ITS MANUFACTURING METHOD, AND LED-BASED PHOTOLITHOGRAPHY APPARATUS AND METHOD - This invention provides a structurally-simple LED light source that is capable of preventing temperature variations among its multiple LED elements arranged densely on its LED-mounting substrate and also improving the heat release capabilities of the substrate by comprising an LED light source with: a plurality of LED elements each of which is formed by connecting an LED chip to electrodes formed on a ceramic substrate; an LED-mounting substrate on which to mount the plurality of LED elements, the LED-mounting substrate having through holes therein; and a heat sink plate for releasing heat from the LED-mounting substrate, wherein a thermally conductive resin is present between the LED-mounting substrate and the heat sink plate and wherein part of the thermally conductive resin protrudes from the through holes of the LED-mounting substrate and covers the top surface of the LED-mounting substrate on which the plurality of LED elements are mounted, so that the part of the thermally conductive resin is in contact with the plurality of LED elements. | 12-30-2010 |
20110080657 | OPTICAL MODULE - There is provided means of achieving the improvement of optical coupling efficiency between a surface receiving/emitting element and an optical transmission path with a simple structure and low cost. An optical element and a substrate having an optical waveguide layer and electric wiring are connected with each other through a lens having a Fresnel lens shape. A through via is provided in the lens, and the optical element and the electric wiring in the substrate are electrically connected with each other through the through via. Instead of the lens, a unit in which a lens is mounted inside an optical-element mounting substrate may be used. | 04-07-2011 |
20110139856 | BONDING STRUCTURE AND METHOD FOR MANUFACTURING SAME - A bonding structure that a bonding region can endure a high temperature environment and the bonding can be maintained with high reliability is provided as a bonding material capable of maintaining reliable bonding in high temperature environment in place of solder including Pb. In the bonding structure for a first member and a second member, solder and glass are used to bond the first member and the second member together and the glass seals the solder. Thereby, electrical conductivity is ensured and the outflow of melting solder in high temperatures can be inhibited to improve the durability. | 06-16-2011 |
20110243512 | Optical Module - An optical module in a simple configuration is provided which can suppress optical crosstalk due to leakage light without causing characteristics deterioration and reliability decrease of light-emitting elements to thereby obtain appropriate light receiving sensitivity. In an optical module in which a plurality of light-emitting elements | 10-06-2011 |
20130256390 | JUNCTION MATERIAL, MANUFACTURING METHOD THEREOF, AND MANUFACTURING METHOD OF JUNCTION STRUCTURE - The disclosed junction material, manufacturing method thereof, and manufacturing method of junction structure utilize lead-free materials and ensure a high reliability of the junction between a semiconductor element and a frame or substrate, or, between a metal plate and another metal plate. For junctions between a semiconductor element and a frame or substrate, by using as the JUNCTION MATERIAL a laminate material comprising a Zn-based metallic layer ( | 10-03-2013 |
20140134767 | LED LIGHT SOURCE, ITS MANUFACTURING METHOD, AND LED-BASED PHOTOLITHOGRAPHY APPARATUS AND METHOD - Structurally-simple LED light source preventing temperature variations among multiple LED elements arranged densely on LED-mounting substrate is described. LED light source includes a plurality of LED elements each of which is formed by connecting an LED chip to electrodes formed on a ceramic substrate; LED-mounting substrate on which to mount the plurality of LED elements, the LED-mounting substrate having through holes therein; and heat sink plate for releasing heat from the LED-mounting substrate, wherein a thermally conductive resin is present between the LED-mounting substrate and the heat sink plate and wherein part of the thermally conductive resin protrudes from the through holes of the LED-mounting substrate and covers the top surface of the LED-mounting substrate on which the plurality of LED elements are mounted, so thermally conductive resin is in contact with the plurality of LED elements. | 05-15-2014 |