This thesis is a part of a development project that is focused on integrating noninvasiveanalysis solutions. The project aims to leverage the connection between a material'senvironment and its dielectric signature, which has been the subject of extensive study in a range of fields, including agriculture and health, among others. The common theme among these studies is the requirement for a vector network analyzer (VNA) to extract the dielectric signature from measurements made in reflection or transmission of a radio wave at various frequencies. However, the use of a VNA is frequently limited by the size, weight, and cost of these instruments, which can limit their application. To overcome these challenges and advance research in this area, this thesis proposes a feasibility study and design for an integrated circuit VNA. The aim of this project is to develop a wideband, more compact, costeffective, and versatile tool that can be used in a variety of promising applications. Through this effort, we hope to contribute to advancements in the fields of health and agriculture by providing a powerful and flexible analysis tool.