SYSTEM Command and Control (C2) Devices in .NET

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SYSTEM Command and Control (C2) Devices
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PERSONNEL require mechanisms to command and control (C2) SYSTEM operations and performance. We refer to these mechanisms as I/O devices. Let s identify some of the various types of I/O devices that serve as candidate solutions for human system interations. Data Entry Devices. Data entry devices consist of electromechanical-optical mechanisms, such as keyboards or touch panels that enable SYSTEM operators and maintainers to enter alphanumeric information. Pointing Control Devices. Pointing control devices consist of mechanisms, such as a computerbased trackball, eyeball trackers, or mouse to enable SYSTEM operators and maintainers to point, manipulate, or maneuver data such as drag and drop.
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Mechanical Control Devices. Mechanical control I/O devices include mechanical tools that enable operators to calibrate, align, control, or adjust the SYSTEM con guration, operation, and performance. Electronic Control Devices. Electronic control I/O devices consist of electronic or electromechanical mechanisms, such as remote controls, toggle or rotary switches, dials, and touch screen displays, con gured to communicate operator controlled pointing position or displacement to speci c data items. Translational Displacement Control Devices. Translational displacement control devices such as joysticks and track balls employ electronics that transform or translate mechanical movements by angular displacement, stress, or compression into electronic signals that are used to control systems. Sensory I/O Devices. Sensory I/O devices consist of mechanisms that sense the presence, degree, proximity, and strength of human interaction. Audio I/O Devices. Audio input devices consist of electro-mechanical mechanisms that translate sound waves into inputs that are compatible with and recognized by the system such as speech recognition. Audio output devices consist of electromechanical mechanisms such as speakers and headphones that communicate tones or messages to the system operator(s).
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Generalized and Specialized I/O Solutions
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In 12, System Interfaces, we introduced the concept of generalized and specialized interfaces. We apply the same approach to human system interfaces. PERSONNEL EQUIPMENT interactions begin with a simple acknowledgement that a logical entity relationship or association exists between two interacting systems, a generalized solution. As the System Developer analyzes the interface and its requirements, candidate solutions are investigated as specialized solutions. Consider the following example:
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A System Developer has a contract to design a system that requires an operator to enter data. Thus, we have a logical association between the PERSONNEL and EQUIPMENT Elements a generalized solution. As a generalized solution we have not speci ed HOW the operator inputs data into the system. The development team responsible for providing the interface explores several viable candidate solutions that include standard keyboards, touch screen displays, and so forth. Subsequently, the team selects a standard keyboard for the application a specialized solution. However, further analysis reveals that the keyboard may be susceptible to dirt, dust, rain, and snow. So, the team decides to go with a ruggedized keyboard which is, another level of specialized solution capable of surviving in the system s OPERATING ENVIRONMENT.
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Guidepost 44.4 At this juncture we have introduced some of the fundamentals of PERSONNEL EQUIPMENT interfaces. We now shift our focus to designing system interfaces that integrate PERSONNEL EQUIPMENT interactions. This brings us to our next topic, Human System Integration (HSI).
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44.5 Human Factors Engineering (HFE)
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Human Systems Integration (HSI) in system design requires consideration of several elements. Since human factors are critical operational and technical issues, especially in aerospace and defense systems design, a signi cant amount of the knowledge we have today originates from those industries. MIL-HDBK-46855A (para. HSI Elements) identi es seven HSI elements that consist of: 1. 2. 3. 4. 5. 6. 7. Human factors engineering (HFE) Manpower Personnel Training Safety Health hazards Human survivability
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Each of these HSI elements includes various areas of concern that provide a basis for further investigation. Table 44.3 provides a listing of example areas of concern that require SE attention.
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Human system interactions encompass more than simply checking to see if the EQUIPMENT and PERSONNEL Elements are assigned the RIGHT mix of tasks. There are other dimensions of the interaction that require consideration by a specialty discipline referred to as Human Factors Engineering (HFE). When human interactions are a key element of system operations, technical decisions have to be made regarding the man machine interface (MMI) between the PERSONNEL and EQUIPMENT System Elements. Depending on the system applications, these decisions often involve a single philosophy. Reiterating previous themes: for a given set of operating conditions and constraints:
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Table 44.3 HSI element areas of concern HSI element Human factors engineering (HFE) 1. 2. 3. 4. 5. 6. 7. 8. 9. Example Areas of Concern Unnecessarily stringent selection criteria for physical and mental capabilities. Compatibility of design with anthropometric and biomedical criteria Workload situational awareness, and human performance reliability Human system interface Implications of mission and system performance requirements on human operator, maintainer, supporter. Effects of design on skill, knowledge, and aptitudes requirements Design driven human performance, reliability, effectiveness, ef ciency, and safety performance requirements Simplicity of operation, maintenance, and support Costs of design-driven human error, inef ciency, or ineffectiveness (continued)
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