Abstract: A solar light assembly includes a plurality of housings each having a light, a frame receiving the plurality of housings, and a solar panel substantially positioned over the frame. Each housing including a face, sides and a lip, such that the face and lip lie in intersecting planes. Each housing is removable from the frame to be rotated and repositioned within the frame. A pole could be used to support the frame.

Abstract: The present solar light assembly uses a unique housing having a light that can be adjustably rotated and tilted for park and street lighting applications. Once assembled, the housing is covered by a solar panel that charges a remotely located battery and acts as a protective lid over the housing. Rather than removing the solar panel to access the contents of the housing, the housing can be accessed by excessively tilting the light until a shroud swings away from an opening in the housing designed to accommodate the light. The shroud, which can retract into the housing, protects the contents of the housing from inclement weather and from view. When the light is excessively tilted, the shroud swings away from the housing to expose wires, electronics and other contents of the housing that may require servicing.

Abstract: A rechargeable battery, such as a 12 Volt battery that is recharged by a solar panel, is placed into a container system that includes an enclosure, having a top portion that is open and a bottom portion that is open, that is substantially buried underground. A sleeve, having a bottom portion that is open and a top portion that is closed, is lowered into the enclosure such that air is trapped inside the top portion of the sleeve when water collects against the enclosure. The trapped air prevents flood water from rising high enough to contact terminals of the battery. When flood conditions subside, the water drains out the bottom portion of the container system into the ground. Additionally, a ridge around the bottom of the sleeve makes it easier to insert the sleeve into the enclosure because the ridge slides over the dirt and debris, but the ridge scrapes and removes unwanted dirt and debris from the enclosure whenever the sleeve is removed to access the battery.

Abstract: The present solar light assembly uses a unique housing having a light that can be adjustably rotated and tilted for park and street lighting applications. Once assembled, the housing is covered by a solar panel that charges a remotely located battery and acts as a protective lid over the housing. Rather than removing the solar panel to access the contents of the housing, the housing can be accessed by excessively tilting the light until a shroud swings away from an opening in the housing designed to accommodate the light. The shroud, which can retract into the housing, protects the contents of the housing from inclement weather and from view. When the light is excessively tilted, the shroud swings away from the housing to expose wires, electronics and other contents of the housing that may require servicing.

Abstract: The present solar light assembly uses a unique housing having a light that can be adjustably rotated and tilted for park and street lighting applications. Once assembled, the housing is covered by a solar panel that charges a remotely located battery and acts as a protective lid over the housing. Rather than removing the solar panel to access the contents of the housing, the housing can be accessed by excessively tilting the light until a shroud swings away from an opening in the housing designed to accommodate the light. The shroud, which can retract into the housing, protects the contents of the housing from inclement weather and from view. When the light is excessively tilted, the shroud swings away from the housing to expose wires, electronics and other contents of the housing that may require servicing.

Abstract: A rechargeable battery, such as a 12 Volt battery that is recharged by a solar panel, is placed into a container system that includes an enclosure, having a top portion that is open and a bottom portion that is open, that is substantially buried underground. A sleeve, having a bottom portion that is open and a top portion that is closed, is lowered into the enclosure such that air is trapped inside the top portion of the sleeve when water collects against the enclosure. The trapped air prevents flood water from rising high enough to contact terminals of the battery. When flood conditions subside, the water drains out the bottom portion of the container system into the ground. Additionally, a ridge around the bottom of the sleeve makes it easier to insert the sleeve into the enclosure because the ridge slides over the dirt and debris, but the ridge scrapes and removes unwanted dirt and debris from the enclosure whenever the sleeve is removed to access the battery.

Abstract: The present solar light assembly uses a unique solar light box that has an upper step which visually frames a lower step. The lower step has a deep cavity that houses most of the components of the solar light assembly, such as an LED light source and a 12 volt battery. The lower step is completely covered by a solar panel which functions as a lid in addition to gathering energy that is stored in the battery. The upper step conceals the solar panel from view by a passerby. There is a rain barrier ridge substantially around an opening to the lower step's deep cavity to prevent water that may collect in the upper step from entering the deep cavity. The solar light box is large enough to house additional components, such as a motion sensor or a camera. In the preferred use of the solar light assembly, the solar light box is mounted to a pole that extends over the top of a cluster box unit.