scispace - formally typeset
Search or ask a question

What is pid in os? 


Best insight from top research papers

In the context of operating systems, PID stands for Process Identification Number. It is a unique numerical identifier assigned to each process running on a computer system. PID plays a crucial role in process management within an operating system, allowing the system to track and control individual processes effectively. PID control is also significant in the realm of industrial control systems, where it is widely used for automation and regulation purposes. Moreover, PID controllers are integrated with advanced technologies like neural networks to enhance performance, as seen in applications such as ensuring Quality of Service (QoS) in Passive Optical Networks (PONs). Overall, PID in the context of operating systems refers to the unique identifier assigned to processes, facilitating efficient process management and control.

Answers from top 4 papers

More filters
Papers (4)Insight
PID in OS refers to Process IDentifier, a unique number assigned to each process in an operating system. It is not addressed in the paper.
PID in OS stands for Process IDentifier, but in the context of the provided research paper, PID refers to Photonic Integrated Device for generating optical signals using reflective structures and active gain regions.
Proceedings ArticleDOI
03 Aug 2022
3 Citations
Not addressed in the paper.
Proceedings ArticleDOI
03 Aug 2022
2 Citations
Not addressed in the paper.

Related Questions

What is the ultility using PID?4 answersThe Proportional-Integral-Derivative (PID) controller offers significant utility in various applications. It enables active vibration control systems to achieve infinite stiffness by creating a magnetic field through electromagnets, effectively isolating vibrations and maintaining stability. Additionally, PID controllers are crucial in robust stability analysis for uncertain systems, providing a structured approach for control design and ensuring system stability. Furthermore, the optimization of PID controllers using advanced algorithms like Adaptive VURPSO enhances their performance by efficiently reaching optimal solutions and improving convergence speed, making them suitable for diverse optimization problems. PID autotuning algorithms based on relay feedback, as discussed in another paper, facilitate the identification of process frequency response points and enable accurate tuning, even in cases of limited prior information about the system.
How to use PID controller for path tracking for autonomous mobile robot?4 answersTo utilize a PID controller for path tracking in an autonomous mobile robot, several approaches have been proposed in the literature. One method involves implementing a multi-constrained Proportional-Integral-Derivative (PID) controller for trajectory tracking, as discussed in Context_3 and Context_4. Additionally, the design of a PID controller for path tracking involves finding optimal parameters, which can be achieved through meta-heuristic optimization techniques like Teaching Learning based optimization (TLBO), as highlighted in Context_5. The PID controller's parameters are crucial for ensuring efficient path tracking, and the feedback mechanism often involves sensors measuring linear speeds of the wheels, as mentioned in Context_1 and Context_2. By integrating these strategies, autonomous mobile robots can effectively navigate paths while considering obstacles and kinematic limitations.
How to use termeric to cure pid?4 answersTurmeric is not mentioned in any of the provided abstracts, therefore there is no information available on how to use turmeric to cure PID.
What is pidgin?5 answersPidgin is a simplified language that arises as a means of communication between people who speak different languages. It is characterized by a reduced vocabulary and simplified grammar, making it easier for people with different linguistic backgrounds to understand each other. Pidgin languages often borrow words from one language (superstrate) and grammatical structures from another (substrate). Nigerian Pidgin (NP) is a widely spoken pidgin language in Nigeria, used for inter-ethnic communication and in various social contexts. Chinese Pidgin English is another example of a pidgin language that emerged in international trading communities in China. Pidgin languages, such as Tok Pisin in Papua New Guinea, can also have unique grammatical features not found in the source languages, such as the distinction between inclusive and exclusive first person plural pronouns. Overall, pidgin languages serve as important tools for communication and cultural exchange in multilingual societies.
How can I build a PI controller by python?5 answersTo build a PI controller using Python, you can follow these steps. First, discretize the equations that govern the open-loop operation of the converter and the transfer function of the controller. This will simplify the implementation of the simulation technique. Next, evaluate the PID coefficients using tuning algorithms such as Good gain and Pattern search. These tuning methods have been found to provide good voltage stability performance in terms of time-domain specifications. Finally, implement the PI controller using Python programming language, which is open-source and widely used in engineering tasks. By using Python, you can easily simulate and control the variations in terminal voltage effectively. The Python implementation of the PI controller is efficient and can be run in real-time on low-cost micro-computing platforms like Raspberry Pi.
Why are PID controllers used?5 answersPID controllers are widely used in various industrial control fields due to their simple structure, easy principle, and excellent robustness. They are the most adopted controllers in industrial settings because of their advantageous cost/benefit ratio. PID controllers are preferred by control engineers because of their simplicity, reliability, and the ability to provide a basic understanding of the control process. Despite the advancements in mathematical control theory, PID controllers remain the most commonly used controllers in industrial process control due to their simple structure and reliable performance. The use of PID controllers in motion control systems is popular due to their simplicity and satisfactory performance, and fuzzy-tuned PID control has been proposed to overcome the inconsistent performance of PID controllers under different conditions. Overall, PID controllers are used because of their simplicity, reliability, and cost-effectiveness, making them suitable for a wide range of industrial control applications.

See what other people are reading

Is topological phase transition in SSH model second order?
5 answers
The topological phase transition in the SSH model can be considered as a second-order transition. In the SSH model, the transition between different topological phases occurs when the intracell coupling strength equals the intercell coupling strength. This transition leads to the emergence of unique physical properties, such as corner states with bound states in the continuum (BICs) properties in higher-order topological insulators (HOTIs). Additionally, the transition in the SSH model is characterized by changes in the topological edge states, with the formation and suppression of different types of edge states as the coupling between systems is varied. Therefore, the topological phase transition in the SSH model exhibits characteristics of a second-order transition, highlighting the intricate behavior of the system under varying coupling strengths.
What are the material classes for nonlinear optics according to size?
5 answers
Materials classes for nonlinear optics based on size include transition metal dichalcogenide (TMD) nanosheets like MoS2, WS2, and NbSe2, which exhibit size-dependent nonlinear optical properties due to their semiconductive nature. Additionally, the intrinsic second hyperpolarizability is used to identify material classes with ultralarge nonlinear optical responses per unit of molecular size, with super-scaling homologues showing the most promise due to efficient utilization of increased size. Furthermore, all-dielectric materials like barium titanate (BaTiO3) and lithium niobate (LiNbO3) are proposed as alternative options for nonlinear optics, offering extended applicability ranges compared to semiconductors. These diverse material classes showcase the importance of size in determining nonlinear optical properties and applications.
What is quantum dots?
5 answers
Quantum dots (QDs) are zero-dimensional semiconductor nanocrystals with unique optical and electronic properties due to quantum confinement effects, exhibiting discrete energy levels based on their size and composition. These nanomaterials are synthesized through various methods, influencing their size and characteristics for applications in bio-imaging, photovoltaics, LEDs, and more. QDs offer advantages like high luminescence, narrow emission properties, and precise tunability, making them promising in diverse fields. Initially cadmium-based, QDs have transitioned to alternative materials like germanium, silicon, and carbon due to toxicity concerns, enhancing their safety profile while maintaining their unique photonic properties. Overall, QDs represent a cost-effective, eco-friendly, and versatile nanomaterial with significant potential in various technological and biological applications.
What the properties and applications of artificial synapses?
5 answers
Artificial synapses exhibit various properties and applications crucial for neuromorphic systems. They offer features like long-term and short-term plasticity, paired-pulse depression, and spike-time-dependent plasticity. These synapses can achieve reliable resistive switching with low energy consumption, enabling functions such as long-term potentiation and depression, paired-pulse facilitation, and spike-time-dependent plasticity. Additionally, all-optical artificial synapses can provide excitatory and inhibitory behaviors, short-term and long-term plasticity, and learning-forgetting processes, facilitating tasks like pattern recognition with high accuracy. The applications of artificial synapses span from artificial neuromorphic systems to flexible neural networks, offering energy-efficient and highly connected solutions for various complex functions in computing and information processing.
What are the underlying mechanisms that give rise to the distinctive optical properties of metal oxides?
4 answers
The distinctive optical properties of metal oxides stem from their unique structural and compositional characteristics. Metal oxides, abundant in the Earth's crust, exhibit tunable electronic and optical properties based on factors like synthesis techniques, morphology, and defect states, enabling the development of materials with novel functions. In the realm of photovoltaics, metal oxides play a crucial role due to their optical, electrical, and chemical properties, making them ideal for various solar cell components like back contacts, absorbers, and transparent conductive oxide layers. Doping metal oxides with transition and rare-earth metals further refines their optical bandgap and dielectric parameters, enhancing their conductivity for applications in optoelectronics and technologies like light-emitting diodes and photocatalysis. The optical properties of metal nanoparticles coated with oxide layers are also influenced by electron-scattering mechanisms, impacting their polarizability and extinction coefficients.
Introduction of pressure sensor?
5 answers
Pressure sensors are vital devices used for measuring pressure in various applications. Different types of pressure sensors have been developed with unique features. For instance, a passive pressure sensor utilizes a magneto-mechanical oscillator to transduce pressure changes into mechanical oscillations. On the other hand, a pressure sensor based on a quantum well-structured photonic crystal offers high sensitivity and a wide pressure range due to its tunable channel dependent on pressure-induced refractive index changes. Additionally, a pressure sensor with multiple pressure sensing electrodes and a common electrode can detect external forces and determine their positions accurately. These diverse pressure sensor designs cater to different requirements, offering flexibility, sensitivity, and reliability in pressure measurement applications.
What are the potential applications of HEMT terahertz transistors in various industries?
5 answers
HEMT terahertz transistors offer promising applications across various industries. They enable wide spectrum detection, improved sensitivity, and scanning imaging capabilities in wireless communication, non-destructive imaging, and spectrum inspection fields. GaN-based HEMT structures show potential for filling the THz technology gap in medical, biological, industrial imaging, communication, and radar applications. Additionally, novel recessed gate AlGaN/AlN/GaN Nano-HEMT devices on β-Ga2O3 substrates exhibit superior terahertz frequency characteristics, paving the way for high-frequency devices in the future. Furthermore, In0.8Ga0.2As quantum-well HEMTs demonstrate scaling behavior for terahertz devices, achieving drain-induced-barrier-lowering, high-frequency characteristics, and maximum oscillation frequencies suitable for terahertz applications. These advancements highlight the diverse industrial applications of HEMT terahertz transistors in fields like imaging, communication, and high-frequency technology.
What are the origins of microwave assisted fluid heaters?
5 answers
Microwave assisted fluid heaters have diverse origins as seen in the provided research contexts. These heaters utilize microwave energy to heat various liquids efficiently. The origins include designs featuring tubing conduits with microwave emitters for fluid heating, microwave heating bodies absorbing microwaves to generate heat for liquids, fluid pipes in heating furnaces partitioned into multiple chambers for uniform heating, and devices with electromagnetic energy emitters in radio-transparent pipes for even energy spreading in substances. Additionally, there are continuous water heaters with microwave sources mounted on resonator chambers to heat liquid media effectively. These diverse origins showcase the evolution and innovation in microwave-assisted fluid heating technologies.
Can i take drop in 2 nd year and prepare for cfa?
5 answers
Yes, you can take a drop in your second year and prepare for the Chartered Financial Analyst (CFA) exam. While altruism and social support are important aspects in society, your decision to focus on your career goals like preparing for the CFA exam is valid. Virtual prototyping can help speed up product development cycles by creating accurate models, but challenges like unrealistic stress simulations in mechanical tests exist. Additionally, a study on a rod-type drop filter design highlights the importance of tuning performance factors, which can be analogous to your need for strategic preparation for the CFA exam. Ultimately, your decision to take a break to focus on your career aspirations aligns with the pursuit of personal and professional growth, which is essential for success in the financial industry.
What are the current advancements in development and environmental research?
5 answers
Recent advancements in development and environmental research have highlighted the critical interplay between economic growth, environmental protection, and social inequalities. Studies have shown the importance of understanding the environment-income relationship, the urgent need for soil environmental protection and management in countries like China, and the necessity of incorporating the environmental dimension into research on social inequalities and poverty. Additionally, research has emphasized the significance of investing in understanding human-nature interactions and the transformation dynamics of the environment for ensuring global human prosperity. These advancements underscore the essential role of interdisciplinary research in addressing pressing environmental challenges and promoting sustainable development practices worldwide.
How to control the microring wavelength?
4 answers
To control the microring wavelength, innovative techniques have been proposed. One approach involves utilizing a pipelined time-division-multiplexing (PTDM) control scheme that exploits speed mismatches between the heater and controller, enabling scalability while maintaining a high loop bandwidth. Another method involves electrically tuning the working wavelength of silicon microring resonators (Si-MRRs) using high mobility transparent conducting oxide (HMTCO)/hafnium oxide insulator/Si metal-oxide-semiconductor (MOS) capacitors, showcasing large wavelength tuning ranges with high power efficiency. Additionally, gate-tuning on-chip WDM filters using high mobility titanium-doped indium oxide (ITiO) gates has been demonstrated, achieving unprecedented wavelength tunability with near-zero power consumption across a wide wavelength range. These advancements offer efficient and precise control over microring resonator wavelengths for various photonic applications.