Abstract: The method of the present invention receives a mixture. The method then separates clay and metal within in the mixture. The method then treats pollutants or toxins within in the mixture with magnetic beads. The method then treats the pollutants or toxins using nano-bubbles generated by a 3-in-1 bubble generator. Further, the method screens and classifies the tiny particles within in the mixture based on magnetic separation. Next the method screens and classifies the tiny particles within in the mixture based on gravity separation. The gravity separation includes an anti-leakage net underneath the grinding system. The anti-leakage net avoids loss and collects and resets the leakage into a feeding port connected to the gravitational device. Furthermore, the method screens and classifies the tiny particles within in the mixture based on floatation. Finally, the method collects the target element and rare earth elements (REE).

Abstract: Disclosed herein is an apparatus for facilitating chemical analysis based on color principle. Accordingly, the apparatus may include a base located at the bottom of the apparatus. Further, the base may be composed of a rectilinear receptacle. Further, the apparatus may include an intermediate plate located above the base. Further, the apparatus may include a hood located atop the intermediate plate. Further, the hood may include a hood rectilinear receptacle. Further, the hood rectilinear receptacle may be secured to the intermediate plate using a fastening mechanism. Further, the apparatus may include a roundtable housed within the hood. Further, the apparatus may include a motion system passing through and engaging with the roundtable and the hood. Further, the apparatus may include an analysis system embedded into at least one board suspended within the base. Further, the analysis system facilitates automated chemical analysis of a plurality of extraneous vials.

Abstract: Disclosed herein is an apparatus for facilitating purification of sludge and tailing, in accordance with some embodiments. Accordingly, a sedimentation unit receives sludge and tailing in a first tank, separates wastewater from the sludge and the tailing, and transfers the wastewater from the first tank to a second tank. Further, a centrifugal unit creates a vortex in the wastewater. Further, a thermal hydrolysis unit coagulates a second impurity of the wastewater using coagulants and transfers the wastewater from the second tank to a third tank. Further, a digesting unit digests a macromolecule of the wastewater into a compound and transfers the wastewater from the third tank to a fourth tank. Further, a nutrient removal unit filters the wastewater from the compound and transfers the wastewater from the fourth tank to a fifth tank. Further, a reservoir unit disinfects the wastewater and stores the wastewater in the fifth tank.

Abstract: Provided are methods, systems, and facilities for screening, purification, and recovery of specific heavy metals and/or rare earth elements (REEs) from input materials including low-grade mines, tailings, sludge, rare earth, silt, and specific elements of Waste Electrical and Electronic Equipment (WEEE) by means of efficient microbial and/or algae screening method. The system and method of algae and microbial screening addresses the main problem of inefficient screening speed in the method of algae and microbial screening for recovery of specific heavy metals and/or REEs, which is too slow and time-consuming by integrated acceleration of the cultivation and screening of microbial and algae species of up to 50 times faster than current efficiencies by the application of a recovery rate metric model.

Abstract: Disclosed herein is an apparatus for facilitating chemical analysis based on color principle. Accordingly, the apparatus may include a base located at the bottom of the apparatus. Further, the base may be composed of a rectilinear receptacle. Further, the apparatus may include an intermediate plate located above the base. Further, the apparatus may include a hood located atop the intermediate plate. Further, the hood may include a hood rectilinear receptacle. Further, the hood rectilinear receptacle may be secured to the intermediate plate using a fastening mechanism. Further, the apparatus may include a roundtable housed within the hood. Further, the apparatus may include a motion system passing through and engaging with the roundtable and the hood. Further, the apparatus may include an analysis system embedded into at least one board suspended within the base. Further, the analysis system facilitates automated chemical analysis of a plurality of extraneous vials.

Abstract: According to some embodiments, a system for facilitating non-invasive in-situ imaging of metabolic processes of plants is disclosed. The system may include a frame comprises a frame body and a base member. Further, the system may include at least one rare-earth permanent magnet disposed on the frame. Further, the system may include at least one arm coupled to the frame. Further, the system may include at least one coil disposed on a first end of an arm of the at least one arm. Further, the system may include at least one sensor disposed on the frame. Further, the system may include a processing device communicatively coupled with the at least one sensor and the at least one coil. Further, the system may include an actuator communicatively coupled with the processing device. Further, the system may include a presentation device disposed on the frame.

Abstract: According to some embodiments, a system for facilitating non-invasive in-situ imaging of metabolic processes of plants is disclosed. The system may include a frame comprises a frame body and a base member. Further, the system may include at least one rare-earth permanent magnet disposed on the frame. Further, the system may include at least one arm coupled to the frame. Further, the system may include at least one coil disposed on a first end of an arm of the at least one arm. Further, the system may include at least one sensor disposed on the frame. Further, the system may include a processing device communicatively coupled with the at least one sensor and the at least one coil. Further, the system may include an actuator communicatively coupled with the processing device. Further, the system may include a presentation device disposed on the frame.

Abstract: Disclosed herein is an apparatus for facilitating purification of sludge and tailing, in accordance with some embodiments. Accordingly, a sedimentation unit receives sludge and tailing in a first tank, separates wastewater from the sludge and the tailing, and transfers the wastewater from the first tank to a second tank. Further, a centrifugal unit creates a vortex in the wastewater. Further, a thermal hydrolysis unit coagulates a second impurity of the wastewater using coagulants and transfers the wastewater from the second tank to a third tank. Further, a digesting unit digests a macromolecule of the wastewater into a compound and transfers the wastewater from the third tank to a fourth tank. Further, a nutrient removal unit filters the wastewater from the compound and transfers the wastewater from the fourth tank to a fifth tank. Further, a reservoir unit disinfects the wastewater and stores the wastewater in the fifth tank.