An aspect of the present disclosure provides solar panel mounting and charging system comprising a hub and a girder assembly. The hub may comprise a plurality of attachment points on its exterior. The girder assembly may comprise a plurality of top girders configured to be mechanically fastened to each other at their proximal ends, and having a distance between their distal ends that is greater than a distance between the proximal ends of the top girders. The girder assembly may also comprise a plurality of bottom girders configured to be mechanically fastened to each other at their proximal ends and the plurality of top girders at their distal ends. The system may further comprise an electric vehicle charging system affixed to the pole, wherein the electric vehicle charging system is configured to receive electrical power from at least one solar panel affixed to the girder assembly.

A remotely controlled hydrant system which may be quickly and efficiently connected to or disconnected from a hydrant to allow remote control of the hydrant by a remote controller such as a mobile phone. The remotely controlled hydrant system generally includes a frame which may be removably connected to a hydrant, such as a frost-free hydrant commonly used in agriculture. A pair of mount supports are removably secured against the shaft of the hydrant, such as via first and second connectors. An actuator is connected between the frame and the hydrant such that movement of the actuator in a first direction activates the hydrant and movement of the actuator in a second direction deactivates the hydrant. A control unit is adapted to receive activation or deactivation signals from a remote controller and direct operation of the actuator.

According to an example aspect of the present invention, there is provided a system for solar radiation correction in radiosonde temperature measurements, the system comprising a radiosonde having a temperature sensor configured to determine a temperature of the atmosphere at different altitudes, at least one light sensing assembly comprising a light sensor, and a light collector configured to collect light from different solar radiation angles at the different altitudes, and the system further comprising control electronics or a computing device configured to calculate for each altitude a solar radiation correction based on the signal received by the light sensor in order to obtain a corrected temperature reading for each altitude.

According to an example aspect of the present invention, there is provided a system for solar radiation correction in radiosonde temperature measurements, the system comprising a radiosonde having a temperature sensor configured to determine a temperature of the atmosphere at different altitudes, at least one light sensing assembly comprising a light sensor, and a light collector configured to collect light from different solar radiation angles at the different altitudes, and the system further comprising control electronics or a computing device configured to calculate for each altitude a solar radiation correction based on the signal received by the light sensor in order to obtain a corrected temperature reading for each altitude.

A column with at least one photovoltaic element for converting radiation energy is disclosed. The at least one photovoltaic element converts radiation energy of light, such as sunlight, into electrical energy. The at least one photovoltaic element is arranged on the column, and at least one photovoltaic element is a flexible photovoltaic element.

The present disclosure describes a solar power system including at least one mounting assembly including a rail, at least one framed solar module, and at least one clip to secure the solar module to the rail. The clip includes at least a pair of sidewalls extending from a top plate or rear wall, each sidewall including a slot, a recess, and a locking member, at least one of the slot, recess, or both include a serrated edge. The clips may secure a solar module to the rail by coupling to the frame of the solar module to a rail of the mounting assembly within the slots of the sidewalls. The clips may be secured to the mounting assembly by locking members positioned on a distal end thereof. The clips may establish an electrical grounding connection between the frame of the solar module and the rail.

The present disclosure describes a solar power system including at least one mounting assembly including a rail, at least one framed solar module, and at least one clip to secure the solar module to the rail. The clip includes at least a pair of sidewalls extending from a top plate or rear wall, each sidewall including a slot, a recess, and a locking member, at least one of the slot, recess, or both include a serrated edge. The clips may secure a solar module to the rail by coupling to the frame of the solar module to a rail of the mounting assembly within the slots of the sidewalls. The clips may be secured to the mounting assembly by locking members positioned on a distal end thereof. The clips may establish an electrical grounding connection between the frame of the solar module and the rail.

Apparatus and methods for detecting and reporting pollution at an oil facility are disclosed. The technology utilizes a logic control system to read from a pollution sensor and present the sensed data as a pollutant from a leak. The pollution leakage can be further managed and reduced.

The present invention relates to an apparatus and method for the localized capture, storage and specialized use of power generated from natural sources, such as solar power or hydropower. The apparatus can be used, for example, on a deck or a side of a marine vessel, or on a land-based structure, where there is a requirement for managed power generation and storage.

An electricity production module comprising at least one photovoltaic panel (P), characterized in that it further comprises scaring means (E) for chasing away animals, and in particular birds, and detection means (D) capable of detecting the presence of animals that are close to or on the photovoltaic panel (P), the detection means (D), in the presence of an animal, delivering a presence signal capable of triggering the scaring means (E).