Abstract: A substrate structure includes a carrier board and a laminated structure. The carrier board has a board body, through holes and conductive portions. The board body has a first surface and a second surface. The through holes communicate the first and second surfaces. Each through hole has a first opening and a second opening. The conductive portions are arranged on the first surface, and the first opening is sealed by a corresponding conductive portion. The laminated structure includes a viscid layer and conductive elements. One surface of the viscid layer is in surface contact with the second surface. Each conductive element passes through and accommodates in the viscid layer, and corresponds to one through hole in a projection direction of the carrier board. One end of each conductive element is electrically connected to one conductive portion through the corresponding through hole.

Abstract: An electronic device includes a sustaining layer, a substrate, a plurality of photoelectric units, and a plurality of signal layers. The substrate is arranged on a contact surface of the sustaining layer. A first end edge of the substrate approaches a first end edge of the sustaining layer, and a second end edge of the substrate approaches a second end edge of the sustaining layer. The sustaining layer and the substrate are arranged in one on one manner. The photoelectric units are arranged on a first surface or/and a second surface of the substrate. The signal layers are arranged on the substrate and electrically connected to the photoelectric units.

Abstract: An electronic device and a manufacturing method thereof are provided. The electronic device includes a redistribution structure configured with a redistribution layer trace; a substrate configured with a substrate trace facing the redistribution structure; an adhesion layer attaching the redistribution structure to the substrate; and a plurality of conductive members arranged at least through the adhesion layer and electrically connecting the RDL trace of the redistribution structure to the substrate trace of the substrate.

Abstract: An electronic device and a manufacturing method thereof are provided. The electronic device includes a redistribution structure configured with a redistribution layer trace; a substrate configured with a substrate trace facing the redistribution structure; an adhesion layer attaching the redistribution structure to the substrate; and a plurality of conductive members arranged at least through the adhesion layer and electrically connecting the RDL trace of the redistribution structure to the substrate trace of the substrate.

Abstract: An ultrastable laser system is based on a polarization-maintaining optical fiber. The ultrastable laser system comprises a laser device; acousto-optic modulators, a first beam splitter, a polarizer, an optical fiber interferometer comprising a second beam splitter, an optical fiber delay line, a third acousto-optic modulator, and a beam combiner; a beam combiner, a polarization beam splitter, photoelectric detectors, a frequency synthesizer, frequency mixers, a servo feedback circuit and a piezoelectric ceramic. The temperature interference is eliminated based on the characteristic that refractive indexes of a fast axis and a slow axis of the polarization-maintaining optical fiber differently change with a temperature, a vacuum structure can be avoided, and the ultrastable laser system has low cost, small system, simple structure and high signal stability.

Abstract: An electronic device includes a sustaining layer, multiple substrates, multiple photoelectric units, and multiple signal layers. The substrates are arranged on a contact surface of the sustaining layer. A first end edge of at least one substrate approaches a first end edge of the sustaining layer, and a first side edge of one substrate is adjacent to a second side edge of another substrate. The photoelectric units are arranged on the first or/and second surfaces of the substrates. The signal layers are arranged on the substrates and electrically connected to the photoelectric units.

Abstract: A light-emitting device comprises a transparent substrate, a reflection structure and a light-emitting unit. The transparent substrate is defined with a first surface and a second surface opposite to each other. The reflection structure is disposed on and contacts the second surface of the transparent substrate. The reflection structure includes a reflection layer and a circuit layer. The reflection structure is configured to define a light-transmitting window. The light-emitting unit is disposed corresponding to the light-transmitting window. The light-emitting unit is electrically connected to the circuit layer of the reflection structure, and one optical path of the light-emitting unit passes through the light-transmitting window.

Abstract: An electronic device and a manufacturing method thereof are provided. The pattern circuit of each surface mount structure of the electronic device is disposed on the substrate; at least two through holes are respectively corresponding to at least two signal lines of the pattern circuit; and the two ends of at least one optoelectronic element are respectively electrically connected to at least two signal lines of the pattern circuit. Each connection pad group of the driving circuit board is corresponding to each surface mount structure, and at least two connection pads are respectively corresponding to the at least two through holes of the surface mount structure. At least two conductive members of each conductive member unit are disposed in the at least two through holes of the surface mount structure, respectively, and extending to the first surface and the second surface of the substrate.

Abstract: An electronic device includes a sustaining layer, multiple substrates, multiple photoelectric units, and multiple signal layers. The substrates are arranged on a contact surface of the sustaining layer. A first end edge of at least one substrate approaches a first end edge of the sustaining layer, and a first side edge of one substrate is adjacent to a second side edge of another substrate. The photoelectric units are arranged on the first or/and second surfaces of the substrates. The signal layers are arranged on the substrates and electrically connected to the photoelectric units.

Abstract: An electronic device includes a first substrate, a second substrate, plural conductive pads, plural hole structures, plural connection pads and plural conductive structures. Hole structures penetrate through the first and second substrates, and are arranged corresponding to the conductive pads. Second ends of hole structures are located at the second substrate, and the corresponding conductive pad is exposed by one of the second ends. Connection pads enclose first ends of hole structures. Conductive structures are arranged in the hole structures and electrically connected to corresponding conductive pads and connection pads. The second diameter portion of each conductive structure penetrates through first substrate and conductive pad and is electrically connected to corresponding connection pad and conductive pad, and first diameter portion thereof penetrates through second substrate and is electrically connected to corresponding conductive pad.

Abstract: An electronic device and an electronic apparatus with a mating structure. The electronic device comprises a first substrate with a first face and a second face opposite to each other, a plural of tiles on the first face and with a second substrate and a patterned layer, a trace layer between the tiles and the first substrates and electrically connected to the patterned layer, and a connection component disposed at a second surface of the first substrate and electrically connected to the trace layer.

Abstract: An electronic device includes a first substrate and a second substrate stacked on each other, a plurality of pad groups, a plurality of channels, and a plurality of conductive members. The first substrate and the second substrate respectively have an inner surface facing to each other and an outer surface away from each other. Each pad group includes two conductive pads, which are respectively disposed at the outer surfaces of the first substrate and the second substrate and are located corresponding to each other. The channels pass through the first substrate and the second substrate, and each channel is disposed corresponding to one of the pad groups. Two ends of each channel are respectively sealed by the two conductive pads of the corresponding pad group. The conductive members are disposed in the channels, and each conductive member is electrically connected to the two conductive pads of the corresponding pad group.

Abstract: An electronic device includes a sustaining layer, multiple substrates, multiple photoelectric units, multiple signal layers, multiple driving structures, and a constraining structure. The substrates are arranged on a contact surface of the sustaining layer. A first end edge of at least one substrate approaches a first end edge of the sustaining layer, and a first side edge of one substrate is adjacent to a second side edge of another substrate. The photoelectric units are arranged on the first or/and second surfaces of the substrates. The signal layers are arranged on the substrates and electrically connected to the photoelectric units. The driving structures are electrically connected to the substrates and disposed close to the first or second end edge of the sustaining layer. The constraining structure constrains the first or second end edge of the sustaining layer, and at least one driving structure is accommodated in the constraining structure.

Abstract: Disclosed are an alumina-based heterojunction material with abundant oxygen vacancies and a preparation method thereof. The heterojunction material is composed of alumina with abundant oxygen vacancies and bismuth-rich bismuth oxychloride. The method includes mixing aluminum nitrate nonahydrate, bismuth nitrate pentahydrate, an ammonium salt and urea, each in certain amount, under stirring to obtain a mixture B, placing the mixture B in a muffle furnace, heating the mixture B and continuing the stirring to gradually melt the mixture B to form an ionic liquid B; and subjecting the ionic liquid B to a spontaneous combustion reaction in the muffle furnace to obtain a product B, and cooling the product B to room temperature to obtain the alumina-based heterojunction material with abundant oxygen vacancies.

Abstract: An electronic package is provided, in which a package module and a shielding member are disposed on a carrier structure, such that the shielding member covers a top surface and side surfaces of the package module to block the radiation outward from the package module and prevent problem that other electronic components on the carrier structure cannot be transmitted signals normally due to the electromagnetic interference of the package module.

Abstract: An electronic device includes a substrate, a trace layer and a plurality of electronic components. The substrate defines a thickness less than or equal to 100 µm. The substrate further defines a plurality of transmittances, and at least one of the transmittances is greater than 20% under the condition of the wavelength of light being between 500 nm and 1300 nm. The trace layer is arranged on the substrate, and the trace layer includes a plurality of connection pads. The electronic components are arranged on the substrate. Each electronic component is provided with at least one electrode, which is arranged on a face of the electronic component facing the substrate. At least one electrode of each electronic component is eutectic bonded to one of the connection pads.

Abstract: An exemplary method includes receiving a hybrid fin device layout for a hybrid fin device that includes a gate disposed over a single-fin active region and a multi-fin active region. The single-fin active region and the multi-fin active region extend lengthwise along a first direction. The gate extends lengthwise along a second direction, the second direction is different than the first direction, and the gate has a width along the first direction. The single-fin active region and a first portion of the gate form a first fin-based device having a first electrical characteristic. The multi-fin active region and a second portion of the gate form a second fin-based device having a second electrical characteristic that is different than the first electrical characteristic. The method further includes tuning the width of the gate to reduce a difference between the first electrical characteristic and the second electrical characteristic.

Abstract: An antenna device includes a first substrate, an antenna element, a second substrate, a circuitry, and one or more conductive structures. The antenna element is arranged on one surface of the first substrate, and the second substrate is arranged on another surface of the first substrate. The conductive structure defines a through hole at least penetrating through the second substrate and a conductive member arranged in the through hole. At least some of the conductive structures are electrically connected to the antenna element and the circuitry, and the antenna elements are electrically connected to corresponding electronic elements.