Abstract: A cable management system for managing cables associated with an array of solar modules includes a body having an interior surface extending vertically, a lower flange extending directly from the interior surface of the body, and a cable management flange extending directly from the interior surface of the body above the lower flange. The cable management flange and the lower flange define a cable cavity therebetween for retaining at least one cable. Distal ends of the lower flange and the cable management flange define an opening for inserting the at least one cable into the cable cavity. The cable management flange is arranged to engage the at least one cable and secure the at least one cable in the cable cavity. The cable management flange is flexible to accept and retain the at least one cable.

Abstract: A solar module system includes a frame, a microinverter, and an adapter assembly for connecting the microinverter to the frame. The frame includes a body, a lower flange extending from the body, and a cable management flange extending from an interior surface of the body. The cable management flange and the lower flange define a cable cavity therebetween for retaining a cable. The adapter assembly includes an adapter including a microinverter attachment projection attached to the microinverter, a frame attachment extension, and a side wall extending therebetween.

Abstract: A cable management system for managing cables associated with an array of solar modules includes a body having an interior surface extending vertically, a lower flange extending directly from the interior surface of the body, and a cable management flange extending directly from the interior surface of the body above the lower flange. The cable management flange and the lower flange define a cable cavity therebetween for retaining at least one cable. Distal ends of the lower flange and the cable management flange define an opening for inserting the at least one cable into the cable cavity. The cable management flange is arranged to engage the at least one cable and secure the at least one cable in the cable cavity. The cable management flange is flexible to accept and retain the at least one cable.

Abstract: A solar module system includes a frame, a microinverter, and an adapter assembly for connecting the microinverter to the frame. The frame includes a body, a mounting flange extending from a bottom of the body at an edge, and a cable management flange extending from an interior surface of the body. The cable management flange and the mounting flange define a cable cavity therebetween for retaining at least one cable. The adapter assembly includes an adapter including a microinverter attachment projection coupled to the microinverter, a frame attachment extension, and a side wall extending therebetween.

Abstract: A cable management system for managing cables associated with an array of solar modules includes a body having an interior surface extending vertically, a lower flange extending directly from the interior surface of the body, and a cable management flange extending directly from the interior surface of the body above the lower flange. The cable management flange and the lower flange define a cable cavity therebetween for retaining at least one cable. Distal ends of the lower flange and the cable management flange define an opening for inserting the at least one cable into the cable cavity. The cable management flange is arranged to engage the at least one cable and secure the at least one cable in the cable cavity. The cable management flange is flexible to accept and retain the at least one cable.

Abstract: A module frame includes a body having an interior surface, a lower flange extending from the interior surface of the body, and a cable management flange extending from the interior surface of the body. The lower flange and the cable management flange each include a distal end. The cable management flange and the lower flange define a cable cavity therebetween for retaining at least one cable. The distal ends of the lower flange and the cable management flange define an opening for inserting the cable into the cable cavity. The cable management flange is arranged to engage the cable and secure the cable in the cable cavity.

Abstract: A module frame includes a body having an interior surface, a lower flange extending from the interior surface of the body, and a cable management flange extending from the interior surface of the body. The lower flange and the cable management flange each include a distal end. The cable management flange and the lower flange define a cable cavity therebetween for retaining at least one cable. The distal ends of the lower flange and the cable management flange define an opening for inserting the cable into the cable cavity. The cable management flange is arranged to engage the cable and secure the cable in the cable cavity.

Abstract: A solar module system includes a frame, a microinverter, and an adapter assembly for connecting the microinverter to the frame. The frame includes a body, a mounting flange extending from a bottom of the body at an edge, and a cable management flange extending from an interior surface of the body. The cable management flange and the mounting flange define a cable cavity therebetween for retaining at least one cable. The adapter assembly includes an adapter including a microinverter attachment projection coupled to the microinverter, a frame attachment extension, and a side wall extending therebetween.

Abstract: An energy transfer module coupled to a thermal solar module includes a body having a first end member, a second end member, and four side members configured to enclose a first spatial region within a vicinity of the first end member and a second spatial region within a vicinity of the second end member. The first spatial region is in communication with the second spatial region. The module further includes one or more inlet openings provided at the first end member for inputting fluid flow from the thermal solar module. The module also includes an air filter disposed within the first spatial region to remove one or more impurities from the fluid flow. Additionally, the module includes a fan disposed between the first spatial region and the second spatial region to draw the fluid flow through the air filter. The fan is coupled to a drive motor. The module further includes a heat exchanger disposed in the first spatial region and an outlet provided on the second end member.

Abstract: A pan structure for bonding solar modules installed on a target position is provided. The pan structure includes a plate member configured to be disposed across a spacing between two rail structures for mounting one or more solar modules. Additionally, the pan structure includes a pair of edge members configured to couple the plate member respectively with the two rail structures. Each of the pair of edge members has a first ledge characterized to be electrically conductive and configured to be supported by one of the two rail structures and a second ledge connected the first ledge to the plate member to keep the plate member a distance below the first ledge. Moreover, the pan structure includes a plurality of contact elements spatially distributed along the first ledge for bonding both the one or more solar modules and the rail structures for electric grounding.

Abstract: A solar energy system. The system includes a thermal solar system comprising a plurality of thermal modules spatially configured as an N by M array. In a specific embodiment, the plurality of thermal modules are configured to form an aperture region and a backside region. The system has an air moving device comprising a drive device coupled to a blower device. In a specific embodiment, the drive device is spatially disposed within a fluid drive region. The system has a controller operably coupled to the air moving device.

Abstract: A method for operating a thermal solar system, e.g., solar system, photovoltaic system, thermal system, includes providing a thermal array including a plenum. The thermal array may be subjected to a freezing condition, which can include, for example, one or more ice particles and/or crystals, e.g., ice crystal, frost, snow, sleet. The method includes operating a fan device coupled to a drive device in a first direction to cause fluid flow from a second region to a first region that includes at least the plenum for the thermal array. The fan is coupled to the drive device disposed in a fluid flow region between the first region and second regions. The method also includes transferring thermal energy to the thermal array using at least the flow of fluid from the second region to the first region to cause the one or more ice particles and/or crystals to thaw for removal of the one or more ice particles and/or crystals.

Abstract: An energy transfer module coupled to a thermal solar module includes a body having a first end member, a second end member, and four side members configured to enclose a first spatial region within a vicinity of the first end member and a second spatial region within a vicinity of the second end member. The first spatial region is in communication with the second spatial region. The module further includes one or more inlet openings provided at the first end member for inputting fluid flow from the thermal solar module. The module also includes an air filter disposed within the first spatial region to remove one or more impurities from the fluid flow. Additionally, the module includes a fan disposed between the first spatial region and the second spatial region to draw the fluid flow through the air filter. The fan is coupled to a drive motor. The module further includes a heat exchanger disposed in the first spatial region and an outlet provided on the second end member.

Abstract: A solar energy system. The system includes a thermal solar system comprising a plurality of thermal modules spatially configured as an N by M array. In a specific embodiment, the plurality of thermal modules are configured to form an aperture region and a backside region. The system has an air moving device comprising a drive device coupled to a blower device. In a specific embodiment, the drive device is spatially disposed within a fluid drive region. The system has a controller operably coupled to the air moving device.

Abstract: A method for manufacturing a bag for use in vacuum packaging comprises forming a first panel having a plurality of baffles for evacuating air and/or other gases from inside the bag using a suction source, while preventing liquids from being drawn into the suction source, and a second panel. Each panel comprises a gas-impermeable base layer and a heat-sealable inner layer molded from melt-extruded resin. The first panel is overlapped with the second panel, and three of four edges of the panels are heated such that the inner layers bond at the heated edges. This description is not intended to be a complete description of, or limit the scope of, the invention. Other features, aspects, and objects of the invention can be obtained from a review of the specification, the figures, and the claims.

Abstract: An apparatus for vacuum sealing a storage bag including a base and a receptacle component for receiving the end of a storage bag. A vacuum generating device is disposed in either one of the base or the receptacle. The receptacle includes a vacuum chamber for accepting the open end of the bag. The receptacle is pivotally secured to the base and is rotatable relative thereto between a first and second position. A sealing device is disposed on the receptacle for sealing the open end of the bag.

Abstract: An apparatus for vacuum sealing a storage bag including a base and a receptacle component for receiving an end of a storage bag. The receptacle including a vacuum chamber for accepting an open end of the bag. The receptacle is pivotally secured to the base and rotatable relative thereto between a first operating position and a second storage position. A sealing device is disposed on the receptacle for sealing the open end of the bag.

Abstract: A lidless vacuum packaging appliance whereby the number of movable parts is reduced is disclosed. A lidless appliance effectively reduces wear and tear of the appliance. Further, the lidless design allows for convenient placement in the operational environment of the appliance.