Fornshell College

Students will analyze deep learning and neural network architectures. Learners will synthesize advanced AI programming techniques to build and evaluate predictive models, preparing them for sophisticated automation and analytical tasks.

Students will analyze advanced concepts in blockchain programming and consensus mechanisms. Learners will synthesize these concepts to build complex, secure decentralized applications.

Students will analyze advanced Exchange features, including SSL certificates and PowerShell automation. Learners will synthesize these concepts to manage complex mail environments, including Outlook Web Access and mobile device synchronization.

Students will analyze advanced procedural extensions in Oracle. Learners will construct efficient database schemas and stored procedures, evaluating strategies for maintaining data integrity and system availability.

Students will analyze complex database operations, including joins, aggregates, nested queries, and common table expressions. Learners will synthesize these advanced techniques to optimize database performance and manipulate complex data sets.

Students will analyze the infrastructure components of Amazon Web Services (AWS). Learners will construct and manage cloud environments, evaluating service options to optimize cost and performance for enterprise applications.

Students will analyze advanced Linux configuration and shell scripting. Learners will synthesize these tools to automate system maintenance and optimize server performance.

Students will analyze cloud-based infrastructure management using Microsoft Azure. Learners will construct and maintain cloud server instances, applying security best practices to protect organizational data.

Students will analyze advanced Windows Server administration topics. Learners will synthesize knowledge of group policies, directory services, and security to maintain reliable and secure server infrastructures.

Students will explain the architecture of the Django framework. Learners will apply Python-integrated tools to link content into standardized formats, creating robust back-end web frameworks.

Students will identify and classify various data interchange formats including HTML, XML, JSON, and CSV. Learners will apply these formats to structure and organize data, ensuring compatibility across different web-enabled platforms.

Building directly on foundational memory-safety principles, students will advance their engineering proficiency to systems-level development using Rust. Learners will analyze asynchronous programming paradigms and design highly concurrent, thread-safe software. Students will evaluate performance trade-offs, optimize memory layout, and synthesize these advanced systems concepts to produce a production-grade, high-performance network service.

Building on basic scripting, students will analyze complex system administration workflows. Learners will synthesize advanced scripting techniques to automate enterprise-level tasks and manage system configurations across a network.

This course focuses on advanced C# development. Students will evaluate different architectural approaches to build professional-grade Windows applications and game development projects, ensuring code scalability and maintainability.

Students will analyze high-performance system requirements. Learners will create complex game development projects by synthesizing advanced C++ features, including pointers, references, and memory optimization techniques.

Building on foundational Java skills, students will analyze advanced software patterns and library integration. Learners will synthesize these concepts to develop complex, large-scale enterprise applications and Android-compatible software components.

Students will analyze the complexities of network topologies, including TCP/IP implementation, routing, and VLAN segmentation. Moving beyond theoretical architecture, learners will construct robust distributed applications by integrating Python's asyncio for high-concurrency and SSL for secure data transmission. The course culminates in students formulating encrypted communication frameworks that allow programs on disparate systems to collaborate effectively.

This course introduces foundational programming principles and source control methodologies using Git and GitHub. Students will understand programming syntax, data types, variable scope, and file input/output mechanisms. Practical applications focus on implementing basic input/output, managing control flow, applying logic operators, and manipulating data collections. Students will analyze, design, and synthesize structured software solutions utilizing modular functions, recursion, and object-oriented programming principles.

Students will manage systems and procedures for large passenger jets (e.g., A320neo/747-8), demonstrating advanced flight deck operation, fuel management, and emergency handling.

Students will operate twin-engine turboprop systems, managing pressurization, performance, and flight procedures for aircraft such as the King Air 350i and ATR-42.

Students will execute floatplane and skiplane maneuvers, including glassy water takeoffs and landings, sailing, and beaching procedures, in a simulated environment.

Students will perform rotorcraft flight maneuvers, including hovering, autorotations, slope operations, and confined area landings, in a simulated flight training environment.

Students will demonstrate instructional techniques, including lesson planning, coaching versus criticizing, and student evaluation, to prepare for the Fundamentals of Instructing Knowledge test.

Students will categorize and identify common commercial and private aircraft types to facilitate safe, accurate ground operations and taxiing in congested airport environments.

Students will differentiate between domestic and international procedures, demonstrating proficiency in ICAO phraseology, oceanic non-radar procedures, and altimetry transitions.

Students will apply advanced instrument flight procedures to execute emergency diversions, missed approaches, and holding patterns while demonstrating proficiency in navigation and ATC communication for FAA certification.

Students will analyze the aerodynamic and mechanical complexities of large, multi-engine aircraft and execute emergency and high-altitude procedures using integrated flight management systems.

Students will perform commercial pilot precision maneuvers, such as Chandelles, Lazy Eights, and steep turns, while maintaining the rigorous tolerances defined by the FAA Airman Certification Standards (ACS).

Students will interpret advanced avionics data and execute simulated instrument flight maneuvers, including climbs, turns, and holding patterns, to build foundational skills for instrument operations.

Students will demonstrate proficiency in navigation by identifying sectional/enroute symbology, calculating wind corrections, and managing fuel reserves and flight times for comprehensive flight planning.

Students will explain the principles of operation for various aircraft systems, including piston and turbine engines, hydraulics, electrical power, and pneumatic systems, while evaluating their impact on performance and reliability.

Students will identify and apply Title 14 CFR regulations, specifically parts 43, 61, and 91, to demonstrate the knowledge of maintenance, airman certification, and general operating rules necessary for FAA knowledge tests.

Students will apply navigation techniques including dead reckoning, pilotage, and the utilization of VOR and GPS navigation systems to effectively execute cross-country flight planning and lost procedures.