Understanding Structure and Function in Civil Engineering


While the concept of structure/function is often mentioned in Physiology textbooks, the notion is seldom explicitly taught. Physiologists, for example, rarely emphasize the importance of structure in the development of behavior. The simplest explanation of structure is that the body is a complex system, a product of social interaction and a product of our environment. While it’s helpful to have a basic understanding of the basic concepts of structure and function, it’s far from exhaustive.

Physiology textbooks do not explicitly refer to “structure/function” as a core concept

Physiology textbooks rarely use the phrase “structure/function” as a core idea. The phrase “homeostasis” is one example. Homeostasis is the ability to regulate the function of an organism. While textbooks do not explicitly refer to “structure/function” as a core concept, many physiology textbooks make use of it implicitly.
Structure is a complex system

Aristotle said that the whole is greater than its parts, and this applies to complex systems as well. Complex systems are those in which the behavior of individual parts results in the emergence of properties. Examples of such systems include human economies, natural phenomena such as earthquakes, cells and nervous systems, and modern energy infrastructure. This article will discuss the basic concepts behind complex systems, as well as their application in civil engineering. Let us begin by examining the definition of a complex system.
It is a product of social interaction

What is social interaction? Social interaction is the exchange of symbols and interpretations. The exchange of symbols facilitates coordinated action. It is a central quality of the human social environment. Structure emerges as a result of social interaction. Here are some common examples of social interaction. Social interaction occurs in a large range of contexts, from individual interactions to social networks. Each type of interaction has its own unique set of characteristics and is governed by different practices.

It determines behavior

The definition of structure is that something determines its properties and functions. In other words, it is the basis of behavior. In VMCL, a structure determines a thing’s characteristics. However, a structure can be invisible to us, but it affects our behavior. In this article, we’ll discuss how to identify structures in systems. Several students will provide examples. For example, Kim will drive to an interview 25 miles away from her house, fire up her GPS, and get lost in traffic. She’ll arrive 10 minutes late.

Natalie had no predetermined framework in mind when she asked her students to identify a relationship between structure and function. She felt most confident in the connection between structure and function, but wasn’t certain about its relation to properties. She finally settled on a linear relationship between the two, S/P – F, recognizing that it was the structure that determined the function of a system. Despite her difficulty in defining a clear connection between the two, students were able to make connections without any support from the instructor.

It can be used to design a drug

The human genome project, a major scientific undertaking that mapped all human genes and their function, has spurred structural genomics and proteomics advances. New discoveries in information technology have also provided fuel for structure-based drug design. Bioinformatics techniques have allowed scientists to identify excellent drug targets at an unprecedented rate. Genes for drug targets can be cloned and expressed rapidly, allowing high-throughput crystallography to determine their structure.

A drug designed with a structure-based approach uses information from the target protein to develop a novel compound. This process starts with human genome sequencing and includes integrated structural biology approaches to determine the structure of a target protein. Active compounds are then generated from the databases and screened for their affinity to the binding cavity of the target protein. After screening through these hits, the compounds are synthesized and tested in vitro.