## 1 Introduction
The deployment of LEO satellites can offer an alternate method of connecting individuals and companies to the internet due to insufficient infrastructure for terrestrial broadband and cellular networks. In rural and distant places, where it could be challenging or expensive to develop standard broadband infrastructure, this might be extremely crucial. The agriculture sector is where this technology might increase the effectiveness and productivity of their operations, and farmers can benefit from using sensors, drones, and other IoT technology. For instance, the use of IoT and LEO satellites can aid in the development of new markets and commercial prospects for organizations that offer these products and services. By generating jobs and boosting local firms' competitiveness, it can also contribute to economic development and growth in these areas. Furthermore, facilitating access to important services, such as healthcare, education, and other necessities, the usage of these technologies can also assist in raising the quality of life for those who live in these areas. Figure 1: DEWASAT-1 Access Time within a 24-h window. Figure 2: DEWASAT–1 Orbit Path. This paper investigates the possible benefits of having satellites with lower inclination orbits because there is a need to utilize more suitable orbit regimes for the Middle East and North Africa (MENA) and near-equatorial regions. For these regions, many countries do not have the ability to launch a satellite constellation, so it is important to receive telemetry data from the satellite as frequently as possible. In other words, we are aiming to minimize the number of satellites in the constellation by decreasing the revisit time and increasing the number of passes to the ground station. Additionally, since various missions concern a specified region not global coverage, it is not necessary to launch the satellite in the SSO. Moreover, emphasizing the new technology of LoRa-IoT implemented in satellites will help to reduce the power and complexity of IoT equipment, utilize DCTS IoT terminals in order to automate the entire measurement-to-ground station, and to launch new satellites using the same technology but with the right inclination angle. The key point of this paper is to design, build and test an IoT terminal and use simulation to prove that a low inclination orbit for an IoT communication satellite mission is better than SSO for the specified area of interest in terms of area coverage, coverage time, revisit time, and number of passes to the ground station. As a result, future satellites will be launched into lower-inclination orbits depending on the area of interest to maximize the benefits. Finally, the concept also looks at utilizing IoT for government and utility companies to provide orbital data as a service. The choice of a lower-inclination orbit provides more data for various business units. The contributions of this paper are as follows:  
* This paper clarifies and demonstrates the IoT-LoRa concept using nanosatellite technology. * This paper explores the implementation of CSS modulation using store and forward approach where SDR receiver payload was installed in DEWASAT-1. * This paper studies the link margin assessment for IoT-LoRa mission. * This paper investigates and simulates the advantages of having lower inclination orbit in terms of coverage, access times, and revisit time. * This paper validates the IoT terminal design by displaying the real-time DEWASAT-1 satellite data for some of the use-cases. The rest of this paper is structured as follows: Section 2 focuses on the selection of orbit and the IoT terminal design. Section 3 presents and discusses the simulation results. Finally, Section 4 concludes the paper.