Abstract: A suspension system for a trailer and associated methods are provided. In some embodiments, the suspension system includes (1) one or more first shock-absorbing components; (2) a second shock-absorbing component; and (3) a connecting member configured to position and connect the first shock-absorbing components and the second shock-absorbing component. The connecting member includes a supporting base configured to support the first shock-absorbing component. The connecting member includes a contacting surface member configured to be in contact with the second shock-absorbing component.

Abstract: Methods and systems for manufacturing large sized sandwich panels are provided. In some embodiments, the method includes (1) positioning a bottom flat portion or a rolled material on a bottom large sized mold; (2) applying a first sealant in a first predetermined pattern on an upper surface of the bottom flat portion; (3) positioning an insulation layer on the upper surface of the bottom flat portion; (4) applying a second sealant in a second predetermined pattern on an upper side of the insulation layer; (5) positioning a upper flat portion on the upper side of the insulation layer; (6) pressing the upper flat portion, by an upper large sized mold, against the insulation layer and the bottom flat portion under a predetermined temperature profile during a predetermined time period.

Abstract: A suspension system for a trailer and associated methods are provided. In some embodiments, the suspension system includes (1) one or more first shock-absorbing components; (2) a second shock-absorbing component; and (3) a connecting member configured to position and connect the first shock-absorbing components and the second shock-absorbing component. The connecting member includes a supporting base configured to support the first shock-absorbing component. The connecting member includes a contacting surface member configured to be in contact with the second shock-absorbing component.

Abstract: A system for covering two or more containers and associated methods are provided. In some embodiments, the system includes (1) one or more corner components configured to be positioned at corners of the two or more containers; (2) one or more elongated components configured to be positioned between sides of the two or more containers; and (3) one or more side supporting components positioned at the sides of the two or more containers. At least one of the one or more elongated component is formed with a socket configured to accommodate an extension of at least one of the one or more side supporting components such that the at least one elongated component and the at least one side supporting component are securely connected.

Abstract: Systems and associated methods for manufacturing multiple sandwich panels are provided. In some embodiments, the system can include (1) a control unit; (2) a surface processing module configured to prepare a rolled material by at least one surface treatment process; (3) an environmental management module configured to control and management environmental factors during the surface treatment process and a pressing process; (4) a sealant module configured to apply sealants in sealant patterns on surfaces of flat portions of the rolled material and insulation layers; (5) a pressing module including a top mold, an intermediate mold, a bottom mold and configured to press multiple pairs of the flat portions and insulation layers so to form multiple sandwich panels in the pressing process.

Abstract: Stackable trailer systems and associated methods are provided. In some embodiments, the trailer system includes (1) a platform structure sized in accordance with a dimension of a shipping container; (2) a corner module configured to be positioned at a corner of the platform structure; and (3) a wheel assembly coupled to the platform structure and configured to move the platform structure. The corner module is formed with an upper recess and a lower recess.

Abstract: Provided is a packaging method for a solar cell module and a solar cell module. The method includes: a cell acquisition step: acquiring cells that are printed with fine gate lines and without a main gate line or that only include fine main gate lines; a cell connecting step: connecting any two of the cells by a welding strip to obtain a plurality of cell strings, wherein connecting any two cells by a welding strip includes fixing the welding strip on the cells by a colloid, the welding strip is enabled to make direct contact with the fine gate lines on the corresponding cells, and each cell string includes a plurality of cells; a cell string packaging step: typesetting the plurality of cell strings, and welding bus bars to obtain a cell string laminate; and a cell string laminate packaging step: heating and laminating the cell string laminate.

Abstract: A spatial integration module includes a chassis, a wall body, a top cover and supporting devices. Each supporting device comprises a lower fixed portion and an upper movable portion. The wall body is detachably connected to the chassis and/or the supporting devices. The fixed portions are mounted on the chassis. A fixed rotation structure is arranged at a position where each movable portion is connected to the corresponding fixed portion. Each movable portion is turned between a horizontal direction state and a vertical direction state by the rotation structure.

Abstract: A metal electrode structure for a solar battery and a battery assembly are provided. The structure of the metal electrode for the solar battery includes multiple main grid lines provided parallel to one another and multiple fine grid lines perpendicular to the main grid lines. Spacing between adjacent two main grid lines is defined as L, and a distance between two end points of each fine grid line is less than L. And connecting ends of adjacent two fine grid lines of the multiple fine grid lines between adjacent two main grid lines are connected to different main grid lines of the adjacent two main grid lines.

Abstract: A spatial integration module includes a chassis, a wall body, a top cover and supporting devices. Each supporting device comprises a lower fixed portion and an upper movable portion. The wall body is detachably connected to the chassis and/or the supporting devices. The fixed portions are mounted on the chassis. A fixed rotation structure is arranged at a position where each movable portion is connected to the corresponding fixed portion. Each movable portion is turned between a horizontal direction state and a vertical direction state by the rotation structure.

Abstract: Migrating services and clients from a legacy topology to a new topology. A method includes receiving user input selecting a first client managed by a first configuration management system to migrate to a second configuration management system. Dependencies of the first client are determined, including determining services on which the first client depends to function in a topology. The dependencies of the first client including services and their data on which the first client depends to function in a topology are migrated to a second configuration management system or an administrator is alerted to the dependencies of the first client including services and their data on which the first client depends to function in a topology.

Abstract: Migrating services and clients from a legacy topology to a new topology. A method includes receiving user input selecting a first client managed by a first configuration management system to migrate to a second configuration management system. Dependencies of the first client are determined, including determining services on which the first client depends to function in a topology. The dependencies of the first client including services and their data on which the first client depends to function in a topology are migrated to a second configuration management system or an administrator is alerted to the dependencies of the first client including services and their data on which the first client depends to function in a topology.