Ammolite Detection System Prototype

The goal of this project is to develop a prototype for an ammolite radar detection system, which will enhance the ability to locate and identify ammolite deposits. Ammolite, a rare and valuable gemstone, is primarily found in fossilized ammonite shells. The detection system aims to improve the efficiency and accuracy of locating these deposits, which are often buried beneath layers of sediment. By leveraging radar technology, the system will provide a non-invasive method to detect ammolite, reducing the need for extensive and disruptive excavation. The project will involve researching existing radar technologies, designing a prototype system, and testing its effectiveness in controlled environments. This project provides an opportunity for learners to apply their knowledge of geophysics, radar technology, and system design.

Precision Laser Fossil Preparation

The project involves the meticulous removal of concretion surrounding an ammonite fossil from Southern Alberta using a fiber laser. The goal is to expose the fossil without causing any damage to its delicate structure. This task requires precision and an understanding of both fossil preservation and laser technology. The project will provide learners with the opportunity to apply their knowledge of laser physics and paleontology. The team will need to develop a methodical approach to calibrate the laser settings for optimal precision. Additionally, they will document the process, noting any challenges and solutions encountered. This project aims to enhance learners' skills in precision work and interdisciplinary application of classroom knowledge.

Ammolite Sorting Machine Concept Design

The project involves designing a concept for an automated machine that efficiently sorts ammolite from shale on a conveyor belt system. Ammolite, a valuable gemstone, is often found embedded in shale, and the current manual sorting process is labor-intensive and time-consuming. The goal is to create a design that can distinguish between shale containing ammolite and shale without it, thereby streamlining the sorting process. This project will allow learners to apply their knowledge of mechanical design, automation, and material detection technologies. The design should focus on feasibility, efficiency, and cost-effectiveness, ensuring that the machine can be integrated into existing workflows. Key considerations include the detection mechanism, sorting accuracy, and the overall design's adaptability to different sizes and shapes of shale.

Ammonite Concretion Removal Precision Project

The goal of this project is to develop a precise methodology for removing the concretion surrounding an ammonite fossil from Southern Alberta. The concretion, a hard, compact mass of mineral matter, encases the fossil and must be carefully removed to preserve the delicate structure of the ammonite. This project will allow learners to apply their knowledge of geology, paleontology, and precision tools to develop a step-by-step process for safe and effective concretion removal. The team will research existing techniques, evaluate their effectiveness, and propose improvements or new methods. The project emphasizes precision, safety, and the preservation of the fossil's integrity. Tasks include literature review, tool selection, and method testing. - Research existing concretion removal techniques. - Evaluate the effectiveness and safety of these techniques. - Develop a detailed methodology for ammonite concretion removal. - Test the proposed methodology on sample fossils.