57 results about "Solar tracking system" patented technology

The invention discloses a solar photocatalytic reactor with a triple reflection condensation structure, and belongs to the technical field of solar energy utilization and photocatalysis. The reactor mainly comprises a stainless steel bracket, a triple reflection mirror group, a light capture reaction cavity and a transparent inner tube, the tertiary reflecting mirror group is composed of a primary parabolic reflecting mirror, a secondary plane reflecting mirror and a tertiary parabolic reflecting mirror, and is used for efficiently collecting and conducting incident sunlight in a large receiving angle range, and finally all the incident sunlight converges into the light capture reaction cavity. The inner wall of the reaction cavity is coated with a photocatalyst coating, and the unique optical structure of the photocatalyst coating enables incident light to be subjected to multiple diffuse reflection and not to escape until the incident light is fully absorbed by a catalyst, so that the effects of high illumination intensity, uniform distribution and high light energy utilization rate are achieved. Through optical structure innovation, under the condition that a high-precision sun tracking system is not needed, the technical problems that a traditional solar photocatalytic reactor is uneven in illumination, insufficient in light intensity and depends on tracking are effectively solved.

The invention discloses a method and device for evaluating the remaining life of a battery based on battery capacity measured data and computing equipment, and the method comprises the steps: carrying out the charging and discharging test of the battery based on an actual working environment, and determining the minimum remaining capacity of the current battery according to the capacity when the battery begins to fail; according to the test data, establishing a mathematical model of the residual capacity of the battery and the number of charge-discharge cycles, and substituting the minimum residual capacity of the battery into the pre-established mathematical model to calculate the actual number of charge-discharge cycles of the battery; and calculating the remaining life of the battery according to the actual cycle index and the cycle period. The embodiment of the invention can effectively evaluate the residual life of the solar tracking system battery.

The utility model discloses a photovoltaic module panel supporting member of a solar tracking system, and particularly relates to the technical field of photovoltaic module panel supporting members, which comprises a main shaft and two wingceltis bars arranged on the main shaft, a photovoltaic module is arranged at the tops of the two wingceltis bars, a supporting block is arranged at the center of the top of the main shaft, and the supporting block is connected with the main shaft. Two supporting strips are fixedly connected to the top of the supporting block, and connecting holes are symmetrically formed in the two sides of the supporting block. According to the utility model, through the cooperation of the supporting blocks and the supporting strips, the middle part of the photovoltaic module is supported, the photovoltaic module is prevented from being broken, the photovoltaic module is prevented from being pressed down and damaged due to wind pressure, snow layer accumulation and the like, the middle part is supported, and the supporting blocks and the supporting strips generate deformation buffering force when being extruded, so that the supporting and buffering are convenient; and through cooperation of the stabilizing plate and the connecting rod, the supporting block and the supporting strip can be conveniently installed in the middle of the main shaft, the top photovoltaic module can be conveniently supported, and installation and use are convenient.

A solar panel installation system comprising a support clamp installation vehicle capable of being placed on a torque tube of a solar panel support assembly, and operating on the torque tube to install one or more torque tube clamps onto the torque tube from an overhead position. The solar panel installation system comprises a hopper, a drive system operable to engage a torque tube and to facilitate locomotion of the installation vehicle on the torque tube, and a clamp dispensing system comprising a clamp feed system and a clamp placement system. The solar panel installation system further comprises a control system in communication with the support clamp installation vehicle, and operable to control operation of the drive system and the clamp dispensing system. The solar panel installation system further comprises a solar panel installation vehicle that can be operated in a coordinated manner with the support clamp installation vehicle.

A pin fastener includes a body extending along a longitudinal axis, the body having a first side, a second side, a first end region, a second end region, and a central region therebetween. A first angular projection is positioned adjacent the central region of the body and extending away from the longitudinal axis, a stop is positioned adjacent the second end region. The first end region has a first width and a first height, and the second end region has a second width and a second height, and the first width is smaller than the second width and the first height is smaller than the second height.

A ground pile for a solar tracking system includes an elongate hollow tube extending longitudinally from a first end to a second end, a mount proximate the first end for attaching solar tracking components, one or more threaded longitudinal segments of the hollow tube each having exterior helical segments extending around the longitudinal segment and forming a screw thread, and one or more drivable longitudinal segments of the hollow tube having cross-sections with an internal surface shaped in a non-circular shape.

A solar tracing system includes a torque tube (1810), a first single frame structure (1600) coupled to the torque tube (1810), and a second single frame structure (1700) coupled to the torque tube (1810). The first single frame structure (1600) includes first frame structure first and second module receptacles (1610,1612) at opposite sides of the first frame structure (1600), a first pair of solar modules (1602a, 1602b) received at the first frame structure first and second module receptacles (1610,1612), a first frame structure coupling flange (1614), and a first frame structure coupling flange receptacle (1618). The second single frame structure (1700) includes second frame structure first and second module receptacles (1710,1712) at opposite sides of the second frame structure (1700), a second pair of solar modules (1602c, 1602d) received at the second frame structure first and second module receptacles (1710,1712), a second frame structure coupling flange (1714), and a second frame structure coupling flange receptacle (1718).

A solar tracking system comprises a plurality of solar panel modules, each independently orientatable relative to a solar source. A control system determines a topography associated with the solar panel modules and generates, for each module, a performance model based at least in part on the topography and weather data. The control system independently orients each solar panel module to the solar source based on the respective performance model to optimize energy output from the array. The topography may indicate relative positions or heights of the modules and can be determined using laser site surveys, energy readings from photovoltaics, or aerial imaging. The weather data may include direct normal irradiance, global horizontal irradiance, or diffuse horizontal irradiance. The control system may periodically update the performance model for each module and account for interactions between neighboring modules due to shading.

The invention relates to a universal cleaning device (E) for cleaning solar or photovoltaic panels, formed by one or more units (12-1, 12-2) coupled together and controlled by a manual or automatic control, a water connection (9c) and a power connection (10). The device (E) is formed by at least one cleaning craft (12), two longitudinal profiles (1a, 1b), drive wheels (4a, 4b, 4c, 4d) and climbing wheels (3a, 3b, 3c, 3d). The device cleans arrays of panels with different configurations and features by means of the one or more coupled units (12-1, 12-2) and can be used for wet or dry cleaning. It can also adapt to any size of installation, be used in fixed installations or with solar tracking systems and overcome significant gaps and misalignments between panels. The device (E) creates a universal cleaning system that reduces the high costs of cleaning solar parks.

Embodiments of the present disclosure include a rotation locking assembly for addressing dynamic effects of photovoltaic (PV) modules in a solar installation. In some embodiments, the rotation locking assembly includes a rotational locking mechanism, where the rotational locking mechanism includes a shaft, a locking component rotationally connected to the shaft, and a static cog that may be configured to engage the locking component and stop rotation of the shaft. Additionally, the rotation locking assembly includes a means for transmitting rotation of a torque tube to rotation of the shaft, where the locking mechanism is configured to limit rotation of the torque tube in response to an angular velocity of the torque tube exceeding a threshold.

During the control of an active sun tracking solar system i.e. solar power plant ensuring own solar tracking strategy, control signals created in relation to the daily or intraday schedule of the solar power plant by specifying the power of 15-minute resolution, the current power of the solar power plant, the current values and maximum deviations of the azimuth angles and / or inclination angles of the sun tracking systems and the current Sun position data of the local location. If the current output of the solar power plant exceeds the threshold value of 103% of the current value of the schedule, the electricity production of the solar power plant is controlled in accordance with predetermined control parameters by influencing the azimuth angles and / or inclination angles of the sun tracking system of the solar power plant by the obtained control signals and temporarily disabling the solar power plant's own solar tracking strategy, thereby a control strategy ensuring more accurate schedule keeping is implemented.  The subject of the invention is also a switching arrangement implementing the method.

A solar tracking system comprises multiple solar panel modules forming a grid of solar panel modules, wherein the multiple solar panel modules are orientatable to a solar source independently of each other; and a control system configured to orient each of the multiple solar panel modules to the solar source independently of each other based on a performance model to optimize an energy output from the grid of solar panel modules, wherein the performance model predicts an energy output from the grid of solar panel modules based on a topography of the area containing the grid of solar panel modules and weather conditions local to each of the solar panel modules.

This invention discloses a spectrophotocatalytic nitrate reactor with a secondary focusing structure, belonging to the field of solar energy concentration and photocatalysis technology. The device consists of a stainless steel support, left and right parabolic mirrors, a secondary focusing parabolic surface, and four stages of photocatalytic reactors. The left and right parabolic mirrors form a primary focusing unit with a receiving half-angle of up to 30°, enabling stable light concentration without a solar tracking system. The light is further focused and shaped by the secondary focusing parabolic surface to form a vertically downward fixed beam, with a total system concentration ratio of 12-15. The four stages of photocatalytic reactors are arranged sequentially along the light path, with adjacent reactors tilted in opposite directions. The reactor surfaces are coated with a light-transmitting and reflective layer, and different types of photocatalysts are installed inside, enabling segmented utilization of the full spectrum of sunlight. The nitrate solution circulates in a closed loop within the device under the drive of a water pump, completing the photocatalytic reaction. This invention features high focusing efficiency, lossless light path, and high space utilization, effectively solving the problems of insufficient light intensity, low light utilization, and high operating costs of traditional photocatalytic equipment.

A solar tracking system includes a solar array, a support structure configured to support the solar array, a driveshaft coupled to the support structure, a base configured to rotatably support the driveshaft, and an articulation system coupled to the driveshaft and configured to articulate the driveshaft relative to the base. The articulation system includes a gearbox coupled to the driveshaft. The solar tracking system also includes a motor mechanically operably coupled to the gearbox to cause the driveshaft to rotate, and a controller that determines a fault caused by the winding up of the driveshaft, and, in response to determining the fault, shorting the windings of the motor and / or providing power, which is generated by the motor when the unwinding driveshaft drives the rotation of the motor, to a load, such as an energy storage device, a resistive load, and / or a heating element.

The invention provides a new class of solar energy harvesting devices that integrate both photovoltaic and concentrating solar cogeneration systems with shared heliostatic tracking in an inventive manner that enables synergistic benefits and overall optimization. Roof, ground & water supported preferred embodiments provide benefits for varied applications. The new class of synergistic tracking integrated photovoltaic and concentrating solar energy harvesting systems comprise systems that encompass both (i) a nonconcentrating photovoltaic system such as a solar panel and (ii) a concentrating cogeneration system that includes a concentrating photovoltaic (CPV) receiver and a heat transfer subsystem, wherein the two systems (i) and (ii) share heliostatic tracking provided by a tracking subsystem and are inventively integrated physically and operationally to enable benefits in terms of solar energy harvest efficiency, space-efficiency, cost-effectiveness and lifecycle cost of energy, while minimizing or precluding shadowing losses and enabling further benefits.

A docking station for use with a solar tracking system includes a frame configured to selectively support solar cleaning equipment thereon and a mounting bracket operably coupled to a portion of the frame. The mounting bracket maintains a gap between adjacent edges of the frame and an adjacent solar module, and the frame includes a width that approximates a width of the solar module.

Embodiments of the present disclosure may provide improvements over existing solar tracking systems by implementing a backtracking process that optimizes irradiance capture while also reducing row-to-row shading. In some embodiments, a “slope-aware” backtracking model accounts for east-west and north-south slopes that are present, as in uneven or hilly terrain.

A solar-tracking system uses a combination of active and passive movement to protect solar panels from wind while maximizing energy production. The system rotates the panels around a vertical axis using a drive mechanism controlled by a computing unit. The panels are mounted on horizontal hinges that allow them to tilt upward automatically when exposed to strong wind. The computing unit uses motor current, cable tension, or torque sensor data to estimate panel orientation and wind conditions, without needing separate wind sensors or angle sensors. The system also adjusts panel orientation to improve power output based on real-time electrical measurements. This approach provides reliable wind protection and efficient solar tracking with minimal hardware.

A wind-responsive solar tracking system featuring active vertical-axis rotation and passive horizontal-axis feathering. The system comprises photovoltaic panels mounted to rotatable vertical support members with passive horizontal hinges, enabling panels to lift under wind-induced aerodynamic forces. A computing unit derives a wind load index based on environmental data, issuing motor commands to orient panels rear-surface-to-wind when thresholds are met. Zone-aware logic allows perimeter panels to form a dynamic wind-dampening curtain, reducing structural loads and preserving interior energy production. The system achieves 360° wind protection using minimal actuators, enhancing resilience, operational efficiency, and energy yield.

A two-layer photovoltaic mounting structure comprising a top layer and a bottom layer wherein: the top layer of the mounting structure consists of a plurality of two-sided photovoltaic strings (A) arranged parallel to one another, each photovoltaic string having a top surface (Fs) and a bottom surface (Fi), both surfaces being capable of generating electrical energy from the sun; the single-axis solar tracking system is connected to the photovoltaic string (A), the former being adapted to rotate the latter about its axis of rotation (5) by an angle (alpha); the solar tracking system positions the photovoltaic strings (A) such that the top surface (Fs) and the bottom surface (Fi) of each photovoltaic string (A) are located parallel to the incident light beam, thereby projecting a minimum shadow on the bottom layer of the mounting structure; the bottom layer of the mounting structure consists of additional photovoltaic strings or reflective surfaces.

The support device (314) may include a body including a surface (326). The surface (326) may be configured to physically engage with at least a first surface portion of a torque tube (202). Further, at least a second surface portion of the torque tube (202) may be configured to engage with a surface of an attachment structure (109). The body and the attachment structure (109) may collectively define a bore configured to receive the torque tube (202).

A tracking system is provided for solar panels, which are controlled by a pre-programmed microcontroller that sends movement control to a stepper motor. The motor has a shaft that transmits the movement to another concentric panel shaft, which is attached to a first solar panel. Its tracking function begins at 6:00 AM at an angle of 90° with respect to the horizontal, and changes 15° every hour. By noon, the panel is parallel to the horizontal, and by 6:00 PM it has traveled 180° from its starting point. This same rotational movement is used by an autonomous cleaning system consisting of a pair of guide profiles located on the sides of the panels. These guide profiles support screws with spherical heads, which have tangential contact between the screw head and the profile. This contact allows the system to clean the panels as they move to follow the sun.The cleaning system moves due to gravity, performing a transverse movement which is transferred by means of cleaning shafts attached to cylindrical head screws. These shafts, in turn, support soft bristle brushes that clean the panels, removing dust and dirt collected on them. To transmit the tracking movement to all the solar panels, a gear is installed on the motor shaft of the first panel. This gear transmits the movement to a second panel via a toothed belt. The movement and position of the first panel is replicated in a second panel configured in the same way as the first, and so on for all the panels that need to be installed. Finally, the seasonal orientation movement is achieved by means of a manual movement plate that is adjusted depending on the season; this adjustment is only made once a month.

The invention relates to a pin fastener for securing a torque-tube mount to a rail in a solar-tracking system. The fastener comprises a metal body (215) formed from a single sheet-metal piece and includes a tapered first end region (211) and a wider second end region (213) separated by a central region (212). Two angular projections (210a, 210b) are positioned opposite each other adjacent the central region and are inwardly deflectable during insertion, then spring back to lock the fastener in aligned openings of the mount and rail. A stop (220) formed by a third fold (222) at the second end prevents over-insertion. The differing widths (WL< W2) and heights (HL< H2 = H3) facilitate easy insertion and reliable retention, improving assembly speed and mechanical stability of solar-module coupling.

This invention relates to the field of environmental simulation technology, specifically to a method, system, equipment, and medium for estimating the photolysis rate in an indoor reactor by measuring outdoor solar radiation flux. The method mainly includes correcting the total solar radiation flux based on direct light correction factors, scattered light correction factors, direct light radiation flux, scattered light radiation flux, and a solar radiation flux correction factor to obtain a corrected total solar radiation flux; establishing a photolysis rate model based on the corrected total solar radiation flux; and calculating the photolysis rate. A solar tracking system is built using a modified photolysis spectrometer to obtain the direct and scattered solar radiation flux. Direct and scattered light correction factors are determined using optical simulation, and the value of the solar radiation flux correction factor is verified using chemiphotometry. A precise quantitative model for the average photolysis rate inside the reaction chamber of a smoke chamber is established, enabling accurate calculation of the average photolysis rate within the smoke chamber through outdoor fixed-point measurement.

The invention relates to the technical field of building construction, and provides an active sun tracking system based on a logic calculation circuit. In the system, an insulation board installed on a building outer wall through a fixing stud is arranged in a shell structure of an installation frame, one end of the fixing stud sequentially penetrates through the insulation board and the bottom face of the installation frame and then is connected to the building outer wall, and the other end of the fixing stud is matched with a fixing nut to press the insulation board on the bottom face of the installation frame. A solar panel connected to the installation frame through a plurality of adjusting supporting rods is arranged on the outer side of the heat preservation plate, one end of each adjusting supporting rod penetrates through an adjusting via hole formed in the heat preservation plate in the direction perpendicular to the building outer wall and then is in spherical hinge connection with the installation frame, and the other end of each adjusting supporting rod is in spherical hinge connection with the solar panel. The sunny angle of the solar panel is adjusted through relative telescopic movement of the multiple adjusting supporting rods, so that the solar panel generates electricity to provide electric energy for the heating circuit arranged in the heat preservation plate, the heating circuit works to actively generate heat, and the temperature in the building is adjusted.

A solar tracking system with torsion tubes having solar panels (modules) mounted thereon. Columns support the system and have bearings for rotation of the torsion tubes. A flexible transmission shaft is connected at one end to a mechanical drive mechanism for rotating the torsion tubes and thereby rotating at least an individual row of modules to follow the sun's diurnal motion. The torsion tubes can be rotated in an opposite direction, or backtrack, to prevent shadowing from one individual row of modules to another. The flexible transmission shaft is connected to a single motor at its other end and is constructed of flexible materials to compensate for misalignment due to uneven terrain or staggered row of module configuration. Dampers are also employed and affixed to the row of modules to decouple wind forces imposed on the row of modules.

A solar panel installation system comprising a support clamp installation vehicle capable of being placed on a torque tube of a solar panel support assembly, and operating on the torque tube to install one or more torque tube clamps onto the torque tube from an overhead position. The solar panel installation system comprises a hopper, a drive system operable to engage a torque tube and to facilitate locomotion of the installation vehicle on the torque tube, and a clamp dispensing system comprising a clamp feed system and a clamp placement system. The solar panel installation system further comprises a control system in communication with the support clamp installation vehicle, and operable to control operation of the drive system and the clamp dispensing system. The solar panel installation system further comprises a solar panel installation vehicle that can be operated in a coordinated manner with the support clamp installation vehicle.

A solar tracking system (200) comprises: a plurality of solar panel modules (SPMi) forming a grid of solar panel modules wherein the plurality of solar panel modules (SPMi) are orientable independently of one another to a solar energy source; and a control system SPCi configured to orient each of the plurality of solar panel modules SPMi to the solar energy source independently of one another based on a performance model to optimize energy output from the grid of solar panel modules, wherein the performance model predicts energy output from the grid of solar panel modules based on a surface morphology of a region containing the grid of solar panel modules and weather conditions local to each of the solar panel modules SPMi.

A ground pile for a solar tracking system includes an elongate hollow tube extending longitudinally from a first end to a second end, one or more pair of support blades formed along the elongate hollow tube and extending away from a longitudinal axis of the elongate hollow tube. The one or more pair of support blades being formed by a hydroforming process.

An anti-tip ground pile for a solar tracking system includes an elongate tube having a central longitudinal axis, one or more blades formed along the tube for engaging with a ground in which the ground pile is implanted, and a stabilizing panel rotatably engaged with the tube such that the panel is continuously rotatable around the entire tube. The stabilizing panel providing support to the tube to help prevent the tube from tipping over in soil in which the tube is implanted.