The growth in the number of industrial premises and areas requires more advanced monitoring systems. The development of organic electronics and the Internet of Things can create efficient and easily scalable room control systems. This article discusses an example of using sensors to monitor the environment inside greenhouses or poultry farms. Monitoring and managing of the environment state in any agricultural enterprise can significantly improve production efficiency and product quality. Data transmission is carried out wirelessly using Wi-Fi or Bluetooth Mesh technologies. The data is transferred to a smartphone or server. Today's Bluetooth specifications allows to quickly design and deploy a network with multiple peripherals. Creation of a ready-made wireless hardware and software complex will greatly simplify the process of monitoring various industrial and agricultural premises.

The simple scaling of silicon transistors no longer ensures the advantages of high energy efficiency, driving research into nanotechnologies beyond silicon. Specifically, digital circuits based on carbon nanotube (CNT) field-effect transistors promise significant advantages in energy efficiency. However, the inability to perfectly control internal nanoscale defects and the variability of carbon nanotubes hinder the realization of very large-scale integrated systems. In this study, we investigated a novel method for fabricating transistors based on carbon nanotubes (CNTs) using epoxy mixtures, obtained the electrical properties of the transistors, and compared their microstructure and composition via the scanning electron microscopy. The carrier mobility on epoxy-based transistors was 28.87 cm²/V∙s, and the transistor switching frequency was 2.2 MHz. The samples exhibited electrical and physical stability over an extended period of time. The use of carbon nanotubes in epoxy resin as a conducting layer for transistors opens significant prospects in the field of electronics. The CNT-epoxy mixture technology allows for more flexible and rapid fabrication of thin-film transistors compared to classical methods. However, it is not appropriate to speak of a complete replacement; in this study, we present an alternative method for producing thin-film transistors, which may be of interest for specific purposes.

Advancements in compact integrated circuit fabrication have allowed the amalgamation of wireless transceivers, signal processing, and sensors into a unified unit. This breakthrough enables seamless interaction with the physical realm, with applications spanning security, production oversight, and environmental monitoring. Herein, we investigate the design nuances of a distributed sensor network, where each node operates under energy and communication constraints. The integration of existing wireless technologies, computational capabilities, and organic polymers into a new breed of intelligent devices stands as a pivotal aspect. Within this article, we scrutinize the deployment of a wireless sensor network utilizing the Bluetooth Low Energy protocol. Leveraging organic polymers as a sensing stratum enhances energy efficiency and selective sensitivity in monitoring applications. Notably, the expeditious and cost-effective production of electronics rooted in organic polymers constitutes a substantial advantage. Flexible organic electronics, hinging on the semiconductor and flexible traits of organic materials, represent a foundational element of our technology. We delve into key performance prerequisites for operational devices, along with accomplishments and technical hurdles in the realm of designing and fabricating next-generation devices, targeting the optimization of products.

Advancements in compact integrated circuit fabrication have significantly progressed, allowing for the integration of wireless transceivers, signal processing units, and sensors into a unified and compact unit. This technological breakthrough has paved the way for seamless interactions with the physical world, finding applications across various domains, including security, production management, and environmental monitoring. In this study, we delve into the intricate design aspects of a distributed sensor network, where each node operates within defined energy and communication constraints. The integration of prevailing wireless technologies, computational capabilities, and organic polymers into an innovative generation of intelligent devices represents a critical dimension of our exploration. This article meticulously examines the implementation of a wireless sensor network employing the Bluetooth Low Energy (BLE) protocol. The incorporation of organic polymers as a sensing layer amplifies energy efficiency and enables selective sensitivity in diverse monitoring applications. A notable advantage is the rapid and cost-effective production of electronics using organic polymers, underlining their substantial potential. Furthermore, we emphasize flexible organic electronics, underpinned by the semiconducting and flexible properties inherent in organic materials, constituting a fundamental element of our technological paradigm. Key prerequisites for achieving optimal operational device performance are thoroughly discussed, encompassing achievements and technical challenges in the design and fabrication of nextgeneration devices, with a keen focus on product optimization.

With the increasing focus on sustainability and environmental conservation, the application of Information Technology (IT) in ecology and natural resource management has become paramount. This article explores the utilization of wireless monitoring systems for sustainable production, emphasizing the importance of energy-efficient data exchange protocols. The comparison of popular energy-efficient protocols such as Bluetooth Low Energy (BLE), LoRaWAN is a focal point. The role of these protocols in optimizing data transmission while minimizing energy consumption is examined, alongside their efficacy in diverse environmental and production monitoring scenarios. Additionally, the article delves into the deployment of various sensors for monitoring production processes and environmental parameters. By analyzing real-world applications and advancements, this article aims to provide insights into the evolving landscape of wireless monitoring technology and its potential contributions to eco-friendly production practices and natural resource management.

This study considers the possibility of using thin films of new soluble modified polyaniline derivatives in the creation of chemical sensors. The study involves an examination of how the current passing through resistive structures, which are constructed using thin films of polyanilines, is influenced by varying concentrations of ammonia vapors present in the surrounding air.