scispace - formally typeset
Search or ask a question

What are the applications of transistors? 

Bipolar junction transistor
Capacitor
Switched capacitor
Electronic circuit
Integrated circuit
Best insight from top research papers

Transistors have various applications in electronic circuits. They are used for amplification and switching purposes . Transistors can be configured as common-emitter amplifiers to sense liquids at different levels over time . They are also used in radios, computers, and integrated circuits . In digital integrated circuit architectures, transistors serve as circuit switches to charge and discharge capacitors . Transistors are essential for improving the performance of ultra-large-scale integrated circuits (ULSIs) . Thin-film transistors with rectifying source contacts have attractive properties for sensor and driver circuits, offering high performance uniformity and geometrical tolerance . These transistors can be used in ultra-compact sensing and data processing circuits . They form the foundation for the design of versatile thin-film circuits for sensing, signal conditioning, and signal conversion .

Answers from top 4 papers

More filters
Papers (4)Insight
Open access•Journal Article•DOI
Modeling of hybrid mos for the implementation of switched capacitor filter using single electron transistor
Brijendra Mishra, Vivek Singh Kushwah, Rishi Sharma 
04 May 2020
The paper does not explicitly mention the applications of transistors.
Open access•Journal Article•DOI
Study and performance testing of transistor with common emitter amplifier circuit
G.R. Kumrey, S.K. Mahobia 
31 Aug 2016-International Journal of Research
The paper does not explicitly mention the applications of transistors.
Journal Article•DOI
Application of Transistors in Textiles: Monitoring Water Transportation Behaviour in Fibrous Assemblies
Arobindo Chatterjee, Pratibha Singh, Subrata Ghosh 
01 Jun 2017-Journal of The Institution of Engineers : Series E
1 Citations
The paper discusses the application of transistors as amplifiers and switches for sensing and displaying real-time data in fibrous assemblies.
Journal Article•DOI
Transistor Amplifiers and Their Frequency Response
Hyung Seok Park
01 Jan 2023-Synthesis lectures on electrical engineering
The paper does not explicitly mention the applications of transistors. However, it focuses on the applications of Bipolar Junction Transistors (BJT) in amplification and switching purposes.

Related Questions

Explain the operation of transistor as an amplifier?5 answersA transistor is an electronic device that can amplify signals. When used as an amplifier, a transistor takes a weak input signal and increases its strength to produce a larger output signal. The operation of a transistor as an amplifier involves several key steps. First, a power source is turned on, and a control unit applies a pinch-off voltage to the gate of the transistor. Then, a drain bias voltage is applied to the drain of the transistor, followed by a gate bias voltage to the gate. This sequence of voltage application allows the transistor to amplify the input signal effectively. In some cases, multiple transistors may be used in parallel to maintain linearity of the output signal, with an inductor connected to the source terminal of the first transistor. The transistor itself consists of a source region, at least two drain regions, channels between the source and drain regions, and gate electrodes on each channel. The drain regions are electrically isolated from each other, and drain electrodes are provided on each region.
What are some applications of transistors as switches?3 answersStep 1: Transistors are used as switches in various applications such as High Power Amplifiers (HPA) and solid-state microwave switches. They are also utilized in electrical power systems for protection during load faults and in RF switches for controlling the flow of current. Different types of transistors, including Metal Oxide Semiconductor Field Effect Transistors (MOSFET), Insulated Gate Bipolar Transistors (IGBT), and MOS Controlled Thyristors (MCT), are evaluated for their suitability in AC switch applications. Additionally, transistors with different threshold voltages, breakdown voltages, and on-resistances are employed in RF switches to provide specific characteristics without relying on different channel lengths. Step 3: Transistors are used as switches in various applications such as High Power Amplifiers (HPA) and solid-state microwave switches. They are also utilized in electrical power systems for protection during load faultsand in RF switches for controlling the flow of current. Different types of transistors, including Metal Oxide Semiconductor Field Effect Transistors (MOSFET), Insulated Gate Bipolar Transistors (IGBT), and MOS Controlled Thyristors (MCT), are evaluated for their suitability in AC switch applications. Additionally, transistors with different threshold voltages, breakdown voltages, and on-resistances are employed in RF switches to provide specific characteristics without relying on different channel lengths.
Are leds transistors?7 answers
What genre is transistor?7 answers
What invention came after the transistor?13 answers
When were transistor computers invented?6 answers

See what other people are reading

What is quantum software sizing?
5 answers
Quantum software sizing refers to evaluating the size and structure of quantum software to optimize its performance. With existing quantum systems having limited physical qubit counts, strategies are needed to execute large quantum circuits on small systems. Researchers are focusing on metrics to rigorously evaluate quantum software, emphasizing the need to measure the size and structure of quantum programs at different abstraction levels. Quantum software must imitate real processes efficiently, as Feynman's quantum gate arrays can lead to quadratic slowdowns compared to actual processes. By identifying suitable qubits for resizing circuits and minimizing errors, quantum software can be optimized for execution on limited quantum hardware, enhancing performance and reliability.What is quantum "software" sizing?
5 answers
Quantum "software" sizing refers to evaluating the size and structure of quantum software to optimize its execution on limited quantum hardware. With the current constraints on physical qubit counts in quantum systems, strategies are needed to execute large quantum circuits on small systems effectively. This involves identifying reusable qubits mid-program to sequentially execute circuits with fewer qubits, minimizing Middle Measurement delays, and optimizing crosstalk errors. Quantum software metrics play a crucial role in rigorously evaluating quantum software, focusing on its size and structure attributes at different abstraction levels. The development of quantum software engineering life cycles aims to support the creation of industrial-centric quantum software applications, emphasizing the need for software-intensive methodologies and processes.What are the primary functions of a fire alarm system in commercial buildings?
5 answers
The primary functions of a fire alarm system in commercial buildings include the prompt detection of fires, activation of alarms to alert occupants, and prevention of damage to people and property. These systems typically consist of a central control panel for monitoring and activating alarms, along with remote units equipped with indicating devices to detect possible emergencies. Fire alarm circuits utilize components like thermistors, operational amplifiers, and buzzers to create simple yet effective detection mechanisms. Additionally, advanced fire alarm systems incorporate features such as smoke sensors, communication between sensing units and relay systems, and wireless mesh networks for enhanced reliability and communication during emergencies. Overall, the main goal of a fire alarm system in commercial buildings is to provide early warnings, facilitate timely evacuations, and minimize the impact of fires.What are throughput in communication systems?
5 answers
Throughput in communication systems refers to the effective data transfer rate between transmitters and receivers. It is a crucial metric that determines the amount of data transferred per unit time, typically measured in bits/symbols. Various methods aim to enhance throughput efficiency, such as utilizing deep packet inspection data to prioritize streams and maintain link throughput. Additionally, systems can employ short-blocklength error checking codes in parallel with incremental redundancy to achieve high throughput with low frame error rates. Optimization techniques involve characterizing communication channels, determining optimal data rates and power allocations, and configuring transmitters accordingly to maximize channel throughput. Monitoring tools like hardware-initiated throughput measurement inside systems can interrupt operations based on throughput values, ensuring efficient data transmission.How to be ssafe with celphone converstion?
5 answers
To ensure safety during cellphone conversations, several measures can be taken based on the information provided in the research contexts. Using earphones with cellular phones can reduce the potential harmful effects of microwave emissions close to the head. Implementing safety features like a telophone safety distributing box can prevent eavesdropping and unauthorized calls, enhancing privacy and security during conversations. Additionally, utilizing systems like SafeChat can protect against privacy breaches from unauthorized audio recordings by masking audio signals, making it challenging for unauthorized apps to capture sensitive information. Moreover, employing a Bluetooth-based safety conversation system with encryption and decryption modules can ensure secure bidirectional voice communication, independent of network environments, enhancing safety and confidentiality during conversations. By incorporating these technologies and practices, individuals can enhance the safety of their cellphone conversations effectively.How to control an OLED display module with arduino?
5 answers
To control an OLED display module with Arduino, one can utilize various techniques outlined in the research papers. Using Arduino along with components like OLED display, microphone, Raspberry Pi, and specific circuit modules can enable control and display functionalities. Techniques such as utilizing Arduino DUE's DAC port to control current sources for OLED, implementing OLED pixel circuits with charging and resetting control modules, and employing modulation circuits for charge removal in OLED control circuitscan enhance the control and display capabilities. By integrating these methods, one can effectively manage and showcase data on OLED displays through Arduino-based systems, offering a versatile and efficient control solution for various applications.What are least discovered areas in neural network acceleration via FPGA?
5 answers
Areas that have been less explored in neural network acceleration via FPGA include the generation of realistic benchmark circuits for FPGA architecture studies, managing the increasing demands on hardware due to the growth rate of network parameters in state-of-the-art CNN topologies, addressing conflicts between high computation/storage complexity and resource-limited hardware platforms for edge implementations of neural networks, and optimizing CNN models for non-contact-based human-computer interaction applications like hand gesture classification using radar data. These areas present opportunities for further research and development to enhance the efficiency and effectiveness of neural network acceleration on FPGA platforms.How to make a rrl?
4 answers
To create a Resnet representation for Reinforcement Learning (RRL), a method involves fusing features extracted from a pre-trained Resnet into the standard reinforcement learning pipeline, enabling the learning of complex behaviors directly from proprioceptive inputs. This approach proves effective in autonomously learning behaviors in uninstrumented environments using only proprioceptive sensors like cameras and joint encoders, overcoming challenges of high dimensionality and partial observability. RRL's simplicity lies in integrating advancements from Representation Learning, Imitation Learning, and Reinforcement Learning fields, showcasing its ability to learn behaviors from visual inputs with comparable performance and sample efficiency to learning directly from the state, even in intricate, high-dimensional domains.How to make an rrl?
5 answers
To create an RRL (Resnet as representation for Reinforcement Learning), a method proposed in the research papers, one should fuse features extracted from pre-trained Resnet into the standard reinforcement learning pipeline, enabling the learning of complex behaviors directly from proprioceptive inputs. This approach proves effective in scenarios where traditional methods struggle, such as in uninstrumented environments with high dimensionality and partial observability challenges. The appeal of RRL lies in its simplicity, combining advancements from Representation Learning, Imitation Learning, and Reinforcement Learning fields to achieve comparable results to learning directly from the state, even in complex, high-dimensional domains. By incorporating RRL into the learning process, robots can autonomously acquire behaviors crucial for tasks in unstructured settings like homes or productivity-enhancing roles.Deconvolution with onion peeling using Tikhonov regularization can process negative values?
4 answers
Deconvolution with Tikhonov regularization, as discussed in the provided contexts, can indeed handle negative values. Tikhonov regularization plays a crucial role in processing signals affected by noise, enabling the extraction of accurate information by filtering out components associated with small singular values. In the context of antenna de-embedding, Tikhonov regularization aids in suppressing noise to facilitate the deconvolution process, leading to improved signal-to-noise ratios and accurate reconstruction of channel responses. Moreover, the Tikhonov-regularized least squares estimate under non-negativity constraints ensures convergence and flexibility in deconvolution algorithms, demonstrating the capability to handle negative values effectively. Therefore, deconvolution with Tikhonov regularization is a robust technique suitable for processing signals with both positive and negative values.What is semiconductor industry?
5 answers
The semiconductor industry is a crucial component of the global economy, driving technological advancements in various sectors. It involves intricate processes, requiring advanced knowledge and skills in engineering, electronics, and automation. This industry is characterized by high technological complexity and costs, leading to its concentration in a few major companies and countries. Semiconductor technology plays a significant role in shaping the future development trends of nations, impacting areas like smart cities, the internet of things, and space exploration. The industry's growth has been substantial over the years, with semiconductor components becoming integral to modern devices like mobile phones, computers, and monitors. Understanding the semiconductor business model and investment strategies is essential for maximizing returns and career development in this dynamic and valuable sector.