Abstract: A display includes a seat, a protecting member, and a resisting member. Opposite ends of the protecting member are respectively received in the slide slots defined in the opposite ends of the seat. A front side of the protecting member is received in the slide slot defined in the front side of the seat. The resisting member is mounted to a rear side of the seat, to resist against a rear side of the protecting member.

Abstract: A carrying case for an electronic device includes a main compartment receiving the electronic device and having an opening as an entrance, a cover foldably fixed on the main compartment for covering the opening, a first supporting member positioned on the cover and a second supporting member positioned on the cover and spaced from the first supporting member, a first engaging member and a first fixing member. The first supporting member and the second supporting member are capable of forming a V-shaped ridge structure when the cover is partially elevated above the main compartment and supporting the electronic device. The first engaging member is fixed on the first fixing member to maintain the V-shaped ridge structure.

Abstract: A display includes an outer frame defining an circumferential opening in a center, a protective glass accommodated in the opening, an inner frame mounted to the outer frame below the glass, and a liquid crystal display panel mounted to the inner frame. The inner side of the outer frame bounding the opening defines a latching slot to receive sides of the protective glass. The protective glass protects the liquid crystal display panel from being scraped or scratched.

Abstract: A display includes a first mounting member, a second mounting member, an LCD panel, and a back light module. The first mounting member includes a receiving portion to receive the LCD panel and the back light module. The second mounting member is fixed to the first mounting member to sandwich the LCD panel and the back light module between the first and second mounting members.

Abstract: A display includes a seat, a protecting member, and a resisting member. Opposite ends of the protecting member are respectively received in the slide slots defined in the opposite ends of the seat. A front side of the protecting member is received in the slide slot defined in the front side of the seat. The resisting member is mounted to a rear side of the seat, to resist against a rear side of the protecting member.

Abstract: A display includes an outer frame defining an circumferential opening in a center, a protective glass accommodated in the opening, an inner frame mounted to the outer frame below the glass, and a liquid crystal display panel mounted to the inner frame. The inner side of the outer frame bounding the opening defines a latching slot to receive sides of the protective glass. The protective glass protects the liquid crystal display panel from being scraped or scratched.

Abstract: A carrying case for an electronic device includes a main compartment receiving the electronic device and having an opening as an entrance, a cover foldably fixed on the main compartment for covering the opening, a first supporting member positioned on the cover and a second supporting member positioned on the cover and spaced from the first supporting member, a first engaging member and a first fixing member. The first supporting member and the second supporting member are capable of forming a V-shaped ridge structure when the cover is partially elevated above the main compartment and supporting the electronic device. The first engaging member is fixed on the first fixing member to maintain the V-shaped ridge structure.

Abstract: TBHy is demonstrated as an efficient and a less carbon-containing N precursor for the growth of high-quality InGaAsN by MOCVD at lower growth temperatures. The photovoltaic characteristics of 1.20 eV InGaAsN solar cells, such as open-circuit voltage, short-circuit current, fill factor and efficiency are improved significantly by using TBHy compared to using DMHy. This demonstration can also be applied to other InGaAsN-based optoelectronic and electronic devices. Therefore, this invention is extremely important to expedite the demonstration of next-generation prototype products such as 1.3 &mgr;m-InGaAsN-epitaxial VCSELs for high-speed optical communications, low-power Npn InGaP/InGaAsN/GaAs HBTs and InGaP/AlGaAs/InGaAsN HEMTs for wireless applications, and high-efficiency multiple-junction InGaP/GaAs/InGaAsN/Ge solar cells for space power systems.