Abstract:
A luggage cover for covering a luggage container, comprising a plurality of panels comprising a front panel, a rear panel, a top panel, a bottom panel, a first side panel, and a second side panel, the panels capable of being shaped into a protective shell for covering the luggage container, and a first fastening apparatus for detachably fastening the plurality of panels together to maintain the shape of the protective shell, wherein one of the plurality of panels is an expandable panel.
Abstract:
A new and novel method utilizing current nano-technological processes for fabricating a range of micro-devices with significantly expanded capabilities, unique functionalities at microscopic levels, enhanced degree of flexibilities, reduced costs and improved performance in the fields of bioscience and medicine is disclosed in the within patent application. Micro-devices fabricated using the disclosed nano-technological techniques have significant improvements in many areas over the existing, conventional methods. Such improvements include, but are not limited to reduced overall costs, early disease detection, targeted drug delivery, targeted disease treatment and reduced degree of invasiveness in treatment. Compared with existing, conventional approaches, the said inventive approach disclosed in this patent application is much more microscopic, sensitive, accurate, precise, flexible and effective. This novel approach is able to deliver a superior level of performance in medical treatments over the existing modalities.While microelectronic processes have been used for fabricating integrated circuit (“IC”) devices such as microprocessors, digital signal processors (“DSP”) and memory chips for the past two to three decades, their use has not been extended to most areas of bioscience and medicine. While there have been some application of micro-chips used in the area of laboratory diagnostic tests such as gene/DNA mapping and potential tests for diseases, their meaningful application in the areas of in-vivo diagnosis, drug delivery and disease treatments have not been utilized and are basically non-existent in the current state of the art. The disclosure herein utilizes these techniques to manufacture micro-devices for use in biological and medical applications as a microscopic way of treating disease.
Abstract:
A computer-implemented system and method for verifying access to a network account are provided. A first user communication portal is associated with a user network account. A request to access the user network account is received from a second user communication portal. Security criteria related to the second user communication portal is determined. Access to the user network account is enabled upon receipt of a communication associated with the first user communication portal when the security criteria is of a predetermined value.
Abstract:
A new and novel method utilizing current nano-technological processes for fabricating a range of micro-devices with significantly expanded capabilities, unique functionalities at microscopic levels, enhanced degree of flexibilities, reduced costs and improved performance in the fields of bioscience and medicine is disclosed in the within patent application. Micro-devices fabricated using the disclosed nano-technological techniques have significant improvements in many areas over the existing, conventional methods. Such improvements include, but are not limited to reduced overall costs, early disease detection, targeted drug delivery, targeted disease treatment and reduced degree of invasiveness in treatment. Compared with existing, conventional approaches, the said inventive approach disclosed in this patent application is much more microscopic, sensitive, accurate, precise, flexible and effective. This novel approach is able to deliver a superior level of performance in medical treatments over the existing modalities.While microelectronic processes have been used for fabricating integrated circuit (“IC”) devices such as microprocessors, digital signal processors (“DSP”) and memory chips for the past two to three decades, their use has not been extended to most areas of bioscience and medicine. While there have been some application of micro-chips used in the area of laboratory diagnostic tests such as gene/DNA mapping and potential tests for diseases, their meaningful application in the areas of in-vivo diagnosis, drug delivery and disease treatments have not been utilized and are basically non-existent in the current state of the art. The disclosure herein utilizes these techniques to manufacture micro-devices for use in biological and medical applications as a microscopic way of treating disease.
Abstract:
A method for chemical mechanical polishing of mirror structures. The method includes providing a semiconductor substrate, e.g., silicon wafer. The method includes forming a first dielectric layer overlying the semiconductor substrate and forming an aluminum layer overlying the first dielectric layer, the aluminum layer having an upper surface with a predetermined roughness of greater than 20 Angstroms RMS. The method also includes processing regions overlying the upper surface of the aluminum layer using a touch polishing process to reduce a surface roughness of the upper surface of aluminum layer to less than 5 Angstroms to form a mirror surface on the aluminum layer. Preferably, a protective layer is formed overlying the mirror surface on the aluminum layer. The method includes patterning the aluminum layer to expose portions of the dielectric layer to form a plurality of pixel regions defined by borders from the exposed portions and forming a second dielectric layer overlying the patterned aluminum layer and exposed portions of the first dielectric layer. The method includes removing a portion of the second dielectric layer to expose the protective layer, whereupon the protective layer acts as a polish stop layer. In a specific embodiment, the selectivity between the protective layer and the second dielectric layer is 1:30 or greater.
Abstract:
A method for chemical mechanical polishing of mirror structures. Such mirror structures may be used for displays (e.g., LCOS, DLP), optical devices, and the like. The method includes providing a semiconductor substrate, e.g., silicon wafer. The method forms a first dielectric layer overlying the semiconductor substrate and forms an aluminum layer overlying the dielectric layer. The aluminum layer has a predetermined roughness of greater than 20 Angstroms RMS. The method patterns the aluminum layer to expose portions of the dielectric layer. The method includes forming a second dielectric layer overlying the patterned aluminum layer and exposed portions of the dielectric layer. The method removes a portion of the second dielectric layer. The method processes regions overlying the patterned aluminum layer using a touch-up polishing process to reduce a surface roughness of the patterned aluminum to less than 5 Angstroms and eliminate the dielectric residue overlaying the patterned aluminum to form a mirror surface on the patterned aluminum.
Abstract:
A luggage container with a detachable pocket includes a compartment having at least front, rear, top, bottom and side surfaces and at least one pocket receiving portion configured to receive the detachable pocket and formed on an outer surface of the compartment, the outer surface including at least the front surface, rear surface, top surface, bottom surface or side surface. The detachable pocket is attached to the compartment via the at least one pocket receiving portion to form an opening of the pocket configured to receive an object via the opening.
Abstract:
A fixing structure for fixing a casing and a base frame of an electronic device together includes: a melt hole disposed in the base frame and a melt post formed on the casing, wherein the melt hole is provided with an opening having its diameter being gradually enlarged from inside outward, so that when combining the casing with the base frame, the melt post passes through the melt hole and is exposed by the opening. Through the design of the opening, the fixing effect upon melting can be strengthened without occupying a lot of space around the melt hole.
Abstract:
An apparatus is disclosed for carrying articles capable of collapsing into a smaller configuration. The apparatus comprises a first wall, a second wall, and a bag receiving portion, wherein edges of the first wall and the second wall are substantially joined together to form a bag. A flap is disposed on a portion of a front surface of the first wall for forming a pocket. A first zipper track and a second zipper track are disposed proximal to a portion of an outer edge of the flap for at least one of selectively attaching and detaching a portion of the flap from the front surface. When the bag is not in use, the first wall and the second wall are contracted into a compressed state and an outer surface of the flap and a portion of the first wall defines a container adapted for receiving and concealing the bag from view by a user.
Abstract:
A luggage cover for covering a luggage container, comprising a plurality of panels comprising a front panel, a rear panel, a top panel, a bottom panel, a first side panel, and a second side panel, the panels capable of being shaped into a protective shell for covering the luggage container, and a first fastening apparatus for detachably fastening the plurality of panels together to maintain the shape of the protective shell, wherein one of the plurality of panels is an expandable panel.