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The Evolution of Adaptive AI Algorithms What Developers Need to Know in 2024

February 6, 2024
adaptive AI development.

In the ever-evolving landscape of artificial intelligence, the continuous development of Adaptive AI algorithms stands out as a pivotal force, shaping the future of intelligent systems. As we delve into 2024, the intricate interplay between machine learning, neural networks, and adaptive models has reached unprecedented heights, offering developers a dynamic canvas to explore and innovate. This evolution is not merely a chronological progression but a profound transformation, marked by key milestones and breakthroughs that redefine the boundaries of AI capabilities.

This introductory overview sets the stage for an exploration of the critical aspect’s developers need to grasp in the realm of adaptive AI development. From the historical context of AI evolution to the emerging trends steering the course in 2024, this comprehensive guide aims to equip developers with the knowledge necessary to navigate the complexities of building adaptive algorithms.

As the synergy between big data, machine learning models, and ethical considerations becomes increasingly intricate, understanding these dynamics becomes essential for developers driving the next wave of AI advancements.

Historical Overview of AI Evolution

The historical trajectory of Artificial Intelligence (AI) development is a fascinating journey, marked by significant milestones that have shaped the landscape we encounter today. The roots of AI can be traced back to ancient times, with philosophical and mythical references to automata and mechanical beings. However, the formal inception of AI as a field of study is often attributed to the mid-20th century.

The Dartmouth Conference of 1956 is regarded as the birthplace of AI, where pioneers like John McCarthy and Marvin Minsky gathered to explore the possibility of creating machines that could simulate human intelligence. The subsequent decades witnessed the emergence of symbolic AI, focusing on rule-based systems and logical reasoning. However, initial optimism waned as these systems struggled with real-world complexities and uncertainties.

The 1980s and 1990s saw the rise of expert systems and knowledge-based AI, where developers sought to encode human expertise into computer programs. Neural networks, inspired by the human brain’s structure, gained attention during this period but faced challenges due to limited computational power. The late 20th century witnessed the AI winter, a period of reduced funding and interest as the technology fell short of overly optimistic expectations.

The turn of the millennium brought about a resurgence in AI with the advent of machine learning, fueled by increased computational capabilities and the availability of vast datasets. This era saw the dominance of statistical methods, leading to breakthroughs in natural language processing and computer vision. Deep learning, particularly through convolutional neural networks (CNNs) and recurrent neural networks (RNNs), emerged as game-changers in the early 21st century, enabling unprecedented advancements in image and speech recognition.

Today, the historical trajectory of AI is characterized by a continuous cycle of innovation, marked by the fusion of traditional symbolic approaches with data-driven machine learning techniques. This nuanced evolution lays the foundation for understanding the current state of Adaptive AI and sets the stage for exploring its future horizons in 2024.

Key Milestones in Adaptive AI Development

The development of Adaptive AI has been punctuated by key milestones that have propelled the field forward, enhancing the capabilities of intelligent systems and redefining the way machines learn and adapt. One crucial milestone was the introduction of reinforcement learning algorithms in the late 20th century, emphasizing the significance of learning through interaction with the environment. This marked a departure from traditional supervised learning methods, opening avenues for machines to make decisions based on trial and error.

The early 21st century saw the rise of deep learning, a monumental milestone in Adaptive AI. The utilization of deep neural networks, particularly convolutional and recurrent architectures, revolutionized tasks like image recognition and natural language processing. Breakthroughs in hardware, such as Graphics Processing Units (GPUs), played a pivotal role in enabling the training of these deep models on large datasets.

Transfer learning emerged as another milestone, allowing models to leverage knowledge gained from one task and apply it to another. This capability significantly improved the efficiency and performance of Adaptive AI systems, especially in scenarios with limited labeled data.

The development of generative models, exemplified by Generative Adversarial Networks (GANs), marked a breakthrough in creating synthetic data and generating content, opening new possibilities in various domains, including image synthesis and content creation, especially when facilitated by adaptive AI development services.

The increased focus on interpretability and explainability in AI models is also a noteworthy milestone. As AI systems become more complex, understanding how they arrive at decisions becomes crucial, particularly in sensitive applications such as healthcare and finance.

Looking forward, milestones in quantum computing and the integration of AI with edge computing are anticipated to shape the next phase of Adaptive AI. These milestones collectively represent a dynamic journey, reflecting the continual evolution and refinement of AI algorithms to meet the demands of an ever-changing technological landscape.

Emerging Trends in Adaptive AI for 2024

As we approach 2024, several emerging trends in Adaptive AI are poised to reshape the landscape, influencing the development and deployment of intelligent systems. One prominent trend is the heightened emphasis on explainability and transparency in AI models. As AI systems become more intricate, understanding the decision-making processes becomes imperative, especially in critical applications like healthcare, finance, and autonomous vehicles. The drive for explainable AI aims to enhance trust and facilitate the ethical deployment of intelligent systems.

Another noteworthy trend is the convergence of AI with other advanced technologies. The integration of AI with edge computing is gaining momentum, enabling faster processing of data on local devices. This trend is particularly relevant in applications where real-time decision-making is crucial, such as in IoT devices and robotics.

The increasing focus on lifelong learning represents a paradigm shift in Adaptive AI. Moving beyond traditional models that are trained on fixed datasets, lifelong learning systems continuously adapt and accumulate knowledge over time. This trend is crucial in dynamic environments where data distribution may change, ensuring that AI models remain relevant and effective.

The intersection of AI and quantum computing is an exciting frontier. Quantum computing’s potential to handle complex computations at an unprecedented speed could revolutionize AI training and lead to the development of more powerful and efficient algorithms.

Ethical AI considerations continue to be a significant trend, especially in the context of adaptive AI systems development. As AI systems become deeply integrated into various aspects of society, addressing bias, fairness, and privacy concerns becomes paramount. Developers are expected to adopt ethical frameworks and implement safeguards to ensure responsible AI deployment.

In summary, the emerging trends in Adaptive AI for 2024 reflect a maturation of the field, with a focus on ethical, transparent, and efficient applications that leverage cutting-edge technologies to enhance the adaptability and intelligence of AI systems.

Understanding the Basics: What is Adaptive AI?

Adaptive AI, or Adaptive Artificial Intelligence, refers to a category of artificial intelligence systems designed to dynamically adjust and improve their performance over time based on experience and changing inputs. Unlike traditional static AI models, adaptive systems have the ability to learn from data, make informed decisions, and evolve in response to varying environments.

At its core, Adaptive AI leverages machine learning algorithms to enable systems to autonomously adapt to new information without explicit programming. This adaptability is crucial in addressing complex and dynamic tasks where predefined rules may not suffice. The learning process involves the system continuously refining its internal representations and models based on feedback from its interactions with data or the environment.

Key components of Adaptive AI include:

Learning Algorithms

Adaptive AI relies on algorithms capable of learning patterns and relationships from data. Supervised, unsupervised, and reinforcement learning are common techniques used for adaptive learning.

Feedback Loops

Continuous feedback loops enable the system to refine its understanding and predictions. Positive feedback reinforces successful behaviors, while negative feedback prompts adjustments.

Data Integration

Adaptive AI systems thrive on diverse and relevant data. They integrate information from various sources to build a comprehensive understanding of the domain they operate in.

Dynamic Decision-Making

These systems excel in tasks requiring real-time decision-making, as they can adapt to changing conditions and make informed choices based on current information.

Adaptive AI finds applications in a wide range of fields, from healthcare and finance to autonomous vehicles and robotics. Its ability to evolve and improve without human intervention positions it as a cornerstone in the development of intelligent, self-learning systems for the future.

The Role of Machine Learning in Adaptive Algorithms

The role of machine learning in adaptive algorithms is paramount, serving as the engine that drives the learning, adaptation, and improvement processes within these intelligent systems. Machine learning provides the computational framework through which adaptive algorithms can analyze data, identify patterns, and autonomously adjust their behavior based on experience. This dynamic capability distinguishes adaptive algorithms from traditional, rule-based systems by allowing them to evolve and optimize performance over time.

One of the fundamental contributions of machine learning to adaptive algorithms is the ability to learn from examples or data points. Supervised learning, a common machine learning paradigm, enables algorithms to be trained on labeled datasets, learning to map inputs to desired outputs. This process is foundational for adaptive algorithms, as it allows them to generalize from known examples and make predictions or decisions in new, unseen situations.

Unsupervised learning plays a crucial role in adaptive algorithms as well. Through techniques like clustering and dimensionality reduction, unsupervised learning enables systems to uncover hidden patterns and structures within data without explicit guidance. This ability is particularly valuable in scenarios where the relationships between variables are complex or not well-defined, and it becomes even more effective when integrated as part of custom adaptive AI development solutions.

Reinforcement learning, another branch of machine learning, is instrumental in enabling adaptive algorithms to make sequential decisions in dynamic environments. Through trial and error, the algorithm receives feedback in the form of rewards or penalties, allowing it to learn optimal strategies and adapt its behavior to maximize cumulative rewards over time.

In summary, machine learning provides the adaptive capability to algorithms, enabling them to learn, generalize, and improve based on data-driven insights. This symbiotic relationship positions machine learning as the cornerstone of the adaptability and intelligence exhibited by modern adaptive algorithms across various domains and applications.

Challenges and Solutions in Adaptive AI Development

Adaptive AI development, while transformative, is not without its challenges. Understanding and mitigating these challenges are crucial for the successful implementation of intelligent systems that can dynamically evolve and improve. Here are some key challenges and potential solutions in Adaptive AI development:

Lack of Labeled Data:

  • Challenge: Adaptive algorithms often require large amounts of labeled data for effective training, which may not be readily available in certain domains.
  • Solution: Transfer learning and semi-supervised techniques can be employed to leverage knowledge from related tasks or make the most of limited labeled data.


  • Challenge: Overfitting occurs when an adaptive model learns noise in the training data rather than the underlying patterns, leading to poor generalization.
  • Solution: Regularization techniques, cross-validation, and the use of diverse datasets can help prevent overfitting, ensuring that the model captures meaningful patterns.

Ethical Concerns and Bias:

  • Challenge: Adaptive AI models may inadvertently perpetuate or even exacerbate existing biases present in training data, raising ethical concerns.
  • Solution: Rigorous evaluation for fairness, transparency in model decision-making, and ongoing monitoring can help address and rectify biases, promoting ethical AI development.


  • Challenge: Many adaptive AI models, especially deep learning models, are often viewed as “black boxes,” making it challenging to interpret their decisions.
  • Solution: Integrating explainability techniques, such as model-agnostic methods or attention mechanisms, can enhance the interpretability of adaptive AI models.

Dynamic Environments:

  • Challenge: Adaptive algorithms may struggle to adapt quickly in environments with rapidly changing conditions.
  • Solution: Continuous learning strategies, reinforcement learning, and ensemble methods can help adapt models to evolving scenarios in real-time.

Navigating these challenges demands a holistic approach, involving a combination of algorithmic innovations, ethical considerations, and continuous monitoring throughout the lifecycle of adaptive AI systems. Addressing these issues ensures that adaptive algorithms contribute positively to various industries while minimizing potential risks and drawbacks.

Ethical Considerations in Adaptive AI Systems

The development and deployment of Adaptive AI systems bring forth a host of ethical considerations that necessitate careful examination and mitigation. As these systems dynamically learn and adapt based on data, it becomes imperative to ensure that their behavior aligns with ethical standards. Here are key ethical considerations in Adaptive AI systems:

Bias and Fairness

Adaptive AI systems may inherit biases present in the training data, leading to unfair or discriminatory outcomes. Ensuring fairness in algorithms is crucial to prevent perpetuating existing societal biases.

Transparency and Explainability

The adaptability of AI models can make them complex and challenging to interpret. Ethical concerns arise when decisions cannot be explained, hindering accountability and raising questions about trustworthiness.

Privacy Concerns

As Adaptive AI systems continuously learn from data, there is a risk of infringing on individuals’ privacy. Safeguarding sensitive information and adhering to data protection regulations are ethical imperatives.

Accountability and Responsibility

Determining responsibility in the event of AI system errors or undesired outcomes can be challenging. Ethical frameworks must establish clear lines of accountability for developers, organizations, and AI systems themselves.

Consent and Autonomy

Users’ consent for data usage and AI-driven decisions is essential. Ethical AI development requires transparent communication about how data is used and ensuring that users retain control over their information.

Unintended Consequences

The dynamic nature of Adaptive AI introduces the risk of unintended consequences. Ethical development demands thorough risk assessments to anticipate and mitigate potential negative impacts on individuals and society, particularly when considering the integration of AI development services.

Security and Robustness

Ensuring the security of adaptive AI systems is an ethical imperative. Protecting against adversarial attacks and ensuring robustness to unforeseen circumstances are crucial ethical considerations.

Social Impacts

The deployment of Adaptive AI can have profound social impacts, including job displacement and economic shifts. Ethical considerations require proactive measures to address potential societal challenges.

Navigating these ethical considerations involves a collaborative effort from developers, policymakers, ethicists, and the wider public. Establishing ethical guidelines, incorporating diverse perspectives, and fostering transparency are essential steps to ensure that Adaptive AI systems contribute positively to society while respecting fundamental ethical principles.

Practical Applications of Adaptive AI in Different Industries

Adaptive AI has found diverse and impactful applications across various industries, revolutionizing processes, enhancing efficiency, and enabling innovative solutions. Here are practical applications of Adaptive AI in different industries:


Adaptive AI is used for personalized medicine, analyzing patient data to tailor treatment plans. Predictive analytics and continuous learning algorithms aid in early disease detection and prognosis.


In finance, Adaptive AI is employed for dynamic fraud detection, risk management, and algorithmic trading. These systems adapt to changing market conditions and emerging threats.


Adaptive AI optimizes production processes by predicting equipment failures, minimizing downtime, and improving overall efficiency. It facilitates predictive maintenance and quality control.


Retailers use Adaptive AI for dynamic pricing, demand forecasting, and personalized recommendations. These systems adapt to consumer preferences and market trends in real-time.

Autonomous Vehicles

Adaptive AI plays a crucial role in autonomous vehicles, enabling them to adapt to changing traffic conditions, unforeseen obstacles, and dynamic environments for safe navigation.

Marketing and Advertising:

In marketing, Adaptive AI is used for targeted advertising, customer segmentation, and personalized content recommendations. It adapts strategies based on user behavior and market trends.


Adaptive AI optimizes energy consumption in smart grids, predicting demand patterns and adjusting energy distribution accordingly. It enhances the efficiency of renewable energy sources.


In agriculture, Adaptive AI aids in precision farming by analyzing data on soil conditions, weather patterns, and crop health. It enables optimized resource allocation for better yields.

Human Resources

Adaptive AI is utilized in HR for talent acquisition, employee engagement, and workforce management. It adapts recruitment strategies and employee development programs based on evolving needs.


Adaptive AI strengthens cybersecurity by continuously learning and adapting to evolving cyber threats. It identifies anomalous behavior and responds proactively to security incidents.


Adaptive AI in education customizes learning paths for students, tailoring content to individual needs and adapting to different learning styles. It provides real-time feedback and assessment.

These examples illustrate the versatility of Adaptive AI development, showcasing its transformative impact across industries by addressing specific challenges and optimizing processes in dynamic and data-rich environments. The continued integration of Adaptive AI is poised to drive further innovations and improvements across diverse sectors.

The Intersection of Big Data and Adaptive Algorithms

The intersection of Big Data and Adaptive Algorithms represents a synergistic relationship that has significantly advanced the capabilities of intelligent systems. Big Data, characterized by vast volumes, high velocity, and diverse varieties of data, provides the fuel for Adaptive Algorithms to dynamically learn, evolve, and make informed decisions. This convergence has profound implications across various domains:

Enhanced Learning

Big Data serves as a rich source of information for Adaptive Algorithms. The sheer volume and variety of data enable these algorithms to uncover complex patterns, relationships, and trends that might be elusive in smaller datasets.

Improved Predictions

Adaptive Algorithms, when fueled by Big Data, excel in predictive analytics. The ability to analyze large datasets allows these algorithms to make more accurate predictions by discerning subtle correlations and adapting to changing patterns over time.

Real-time Adaptability

Big Data’s high velocity is crucial for Adaptive Algorithms operating in real-time environments. Systems can adapt on the fly, making split-second decisions by continuously processing and learning from streaming data.


The combination of Big Data and Adaptive Algorithms enables personalized experiences in various applications, such as e-commerce, content recommendations, and healthcare. Systems can adapt to individual preferences and behaviors by analyzing large datasets.


Big Data infrastructure facilitates the scalability of Adaptive Algorithms. As the volume of data grows, these algorithms can scale horizontally to handle the increased computational demands, ensuring efficient and effective learning.

Anomaly Detection

Big Data is instrumental in anomaly detection, and when coupled with Adaptive Algorithms, it enables systems to dynamically adapt to new patterns of normal behavior while identifying unusual patterns that may signify potential issues or threats.

Continuous Improvement

The iterative nature of Big Data analytics aligns seamlessly with the adaptive learning process. Adaptive Algorithms leverage continuous streams of data to refine their models, ensuring ongoing improvement and optimization.

The intersection of Big Data and Adaptive Algorithms has transformative implications across industries, driving innovations in healthcare, finance, manufacturing, and beyond. This synergy empowers systems to glean actionable insights from massive datasets, fostering adaptability, and intelligence in the face of ever-growing and dynamic information landscapes. As both fields continue to advance, their collaborative potential, often realized by an AI development company, promises to redefine the capabilities of intelligent systems in an increasingly data-driven world.

Machine Learning Models Driving Adaptive AI Advances

Machine learning models play a pivotal role in driving the advances observed in Adaptive AI, contributing to the development of intelligent systems that can dynamically learn, adapt, and improve. Several key machine learning models are at the forefront of these advancements:

Neural Networks

Deep learning models, particularly neural networks, have been instrumental in the adaptive capabilities of AI. Neural networks, with their ability to model complex relationships in data, form the foundation for many adaptive algorithms.

Reinforcement Learning

Reinforcement learning is a paradigm where agents learn to make decisions by receiving feedback in the form of rewards or penalties. This model is crucial for enabling adaptive systems to learn optimal strategies through interaction with the environment.

Decision Trees

Decision trees are widely used in adaptive algorithms for classification and regression tasks. Their ability to make decisions based on hierarchical rules makes them valuable in scenarios where adaptability to changing conditions is necessary.

Support Vector Machines (SVM)

SVMs are effective in adaptive systems for both classification and regression. They are particularly useful in scenarios with complex decision boundaries, allowing for adaptability to diverse data patterns.

Ensemble Learning

Ensemble learning techniques, such as random forests and gradient boosting, enhance the adaptability of AI models by combining multiple base models. This results in improved accuracy and robustness, especially in the face of diverse data.

Generative Adversarial Networks (GANs)

GANs are pivotal in adaptive systems for generating synthetic data and enhancing the diversity of training datasets. This promotes adaptability by exposing models to a broader range of scenarios.

Recurrent Neural Networks (RNNs)

RNNs are essential for tasks involving sequential data, enabling models to adapt to patterns over time. They find applications in natural language processing, time series analysis, and other dynamic scenarios.

Transfer Learning

Transfer learning allows models to leverage knowledge gained from one task and apply it to another. This capability enhances adaptability by enabling the reuse of learned features across different domains.

The collective use of these machine learning models empowers Adaptive AI systems to navigate complex and dynamic environments, often facilitated by AI development solutions. Their adaptability is derived from the ability to learn from diverse datasets, generalize knowledge, and make informed decisions in real-time—a testament to the synergy between machine learning and the evolution of intelligent, adaptive systems.

Neural Networks and their Impact on Adaptive Systems

Neural networks, with their ability to simulate the complex structure and functionality of the human brain, have profoundly shaped the landscape of adaptive systems, contributing significantly to their development and capabilities. The impact of neural networks on adaptive systems is multifaceted and transformative:

Complex Pattern Recognition

Neural networks excel at complex pattern recognition, allowing adaptive systems to discern intricate relationships within data. This is particularly crucial in scenarios where the patterns are dynamic and may evolve over time.

Non-linearity and Flexibility

The inherent non-linearity of neural networks provides adaptive systems with the flexibility to model and adapt to non-linear relationships in data. This flexibility is essential for handling diverse and dynamic datasets.

Deep Learning for Hierarchical Representations

Deep neural networks, in particular, enable adaptive systems to learn hierarchical representations of features. This hierarchical abstraction allows for the extraction of high-level, abstract features from raw data, enhancing adaptability to various levels of complexity.

Learning from Data

Neural networks, through processes like supervised learning, unsupervised learning, and reinforcement learning, enable adaptive systems to learn directly from data. This learning paradigm facilitates continuous adaptation based on evolving information.

Adaptability to Dynamic Environments

Neural networks are well-suited for adaptive systems operating in dynamic environments. Their ability to adjust weights and parameters based on changing input conditions allows for real-time adaptability to varying scenarios.

Transfer Learning for Generalization

Neural networks contribute to adaptive systems by facilitating transfer learning. Models trained on one task can be leveraged for related tasks, enhancing generalization and adaptability to new, similar domains.

Handling Multimodal Data

Adaptive systems often encounter diverse types of data, such as images, text, and numerical information. Neural networks, through architectures like convolutional neural networks (CNNs) and recurrent neural networks (RNNs), can seamlessly handle multimodal data, enhancing adaptability across different data modalities.

Continual Learning and Lifelong Adaptation

Neural networks support continual learning, allowing adaptive systems to accumulate knowledge over time. This lifelong adaptation ensures that the system remains relevant and effective in evolving environments.

In summary, the impact of neural networks on adaptive systems, often facilitated by generative AI development, is characterized by their capacity to model intricate patterns, adapt to changing conditions, and provide a powerful framework for continuous learning. This synergy has propelled the field of adaptive systems, fostering innovations in diverse applications, from natural language processing and computer vision to robotics and autonomous systems.

Transfer Learning and its Significance in Adaptive AI

Transfer learning plays a pivotal role in the realm of Adaptive AI, offering a powerful mechanism for leveraging knowledge gained from one task and applying it to another. The significance of transfer learning lies in its ability to enhance adaptability, efficiency, and performance across various domains:

Optimized Training with Limited Data

In many real-world scenarios, acquiring labeled data for training a model can be resource-intensive. Transfer learning allows Adaptive AI models to capitalize on knowledge learned from a related task, mitigating the need for large labeled datasets and accelerating the training process.

Generalization Across Domains

Transfer learning facilitates the generalization of models across different domains. Models pretrained on one domain can be fine-tuned or adapted to perform effectively in a related but distinct domain, demonstrating adaptability to diverse data distributions.

Faster Deployment and Reduced Resource Requirements

By reusing pretrained models, transfer learning enables quicker deployment of Adaptive AI systems. This is especially valuable in applications where rapid adaptation to new tasks or environments is essential, saving computational resources and time.

Addressing Data Imbalance

In situations where there is a significant class imbalance or limited examples of specific classes, transfer learning aids in adapting models to handle such imbalances. Knowledge from a balanced dataset can be transferred to improve performance on underrepresented classes.

Lifelong Learning and Continual Adaptation

Transfer learning aligns with the principles of lifelong learning, allowing models to accumulate knowledge over time. As new tasks arise, models can leverage previously acquired knowledge, ensuring continual adaptation to evolving circumstances.

Improved Model Robustness

Pretraining models on diverse datasets can contribute to robust feature representations. This robustness enhances the Adaptive AI model’s ability to handle variations in input data and unforeseen conditions during adaptation.

Task-Specific Fine-Tuning

Transfer learning enables task-specific fine-tuning, where pretrained models can be adapted to the nuances of a particular task. This fine-grained adaptation ensures that the model aligns with the specific requirements of the target application.

In essence, transfer learning empowers Adaptive AI systems to transcend the limitations of isolated task-specific learning. Its significance lies in the efficiency gains, improved generalization, and adaptability it provides, making it a cornerstone in the development of intelligent systems capable of learning and evolving across a spectrum of tasks and domains.

The Key Takeaway

In conclusion, the evolution of Adaptive AI, driven by the interplay of advanced machine learning models and the richness of Big Data, is reshaping the landscape of intelligent systems. Neural networks, reinforcement learning, and transfer learning stand out as key pillars, empowering AI to dynamically learn, adapt, and make informed decisions. 

The significance of these advancements is evident across diverse industries, from healthcare and finance to manufacturing and beyond. As ethical considerations take center stage, the need for transparent, fair, and accountable Adaptive AI systems becomes increasingly paramount. The collaboration of data-driven adaptability and sophisticated algorithms, often realized by an artificial intelligence development company, holds great promise, propelling us toward a future where intelligent systems continually learn, evolve, and contribute positively to our ever-changing world.

The journey ahead involves navigating challenges, embracing ethical principles, and further unlocking the potential of Adaptive AI to revolutionize how we perceive and interact with intelligent technology.

Written by Darshan Kothari

February 6, 2024


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