What is Deep Learning?
Trend

What is Deep Learning?

Deep learning is a way of machine learning, by building a network, setting goals, and learning. Deep learning is not a panacea for artificial intelligence, it can only be designed for specific needs.
Published: Oct 06, 2022
What is Deep Learning?

What is Deep Learning (DL)?

Deep learning is a type of machine learning that uses artificial neural networks to enable digital systems to learn and make decisions based on unstructured, unlabeled data. Machine learning trains an AI to learn from the data it has acquired, identify patterns, make recommendations, and adjust. With deep learning digital systems don’t just respond to a set of rules, but build knowledge from samples and then use the acquired knowledge to react, act, and operate like a human.

Deep Learning (DL) is a subfield of Machine Learning (ML) that uses algorithms similar to the way neurons are used in the human brain. Deep learning creates artificial neural networks and their different layers based on how the human brain works. Deep learning is the field of continuous learning and improvement by studying its algorithms. The work of deep learning is based on artificial neural networks created to mimic the human mind. With the rapid progress of big data analysis, neural networks are becoming more and more complex. This has led to computers accelerating their pace in observing, learning, and reacting to complex situations, sometimes with neural networks faster than the human mind. Models continue to be trained using large amounts of labeled data and neural networks with multiple layers. With image classification, translation capabilities, and speech recognition technology, deep learning can even decode pattern recognition without human help at all.

The foundation of deep learning is distributed representation in machine learning. The dispersion representation assumes that observations are generated by the interaction of different factors. On this basis, deep learning further assumes that the process of this interaction can be divided into multiple levels, representing multiple layers of abstraction for observations. Different numbers of layers and scales of layers can be used for different levels of abstraction. Deep learning uses this idea of hierarchical abstraction, where higher-level concepts are learned from lower-level concepts. This hierarchical structure is often built-up layer by layer using a greedy algorithm to select more efficient features for machine learning.

Why is Deep Learning Important?

Data scientists and developers use deep learning software to power computers to analyze large and complex data sets, perform complex and non-linear tasks, and respond to a text, speech, or images, often faster and more accurately than humans. These capabilities have many practical applications and create many opportunities for modern innovation.

As the amount of data continues to increase, and computing capacity becomes more powerful and cheaper, deep learning has become more important, whether it is in retail, healthcare, transportation, manufacturing, technology, and other fields. Investing is to drive innovation, gain business opportunities, and not be left behind.

How does Deep Learning Work?

The operation of deep learning relies on neural network architectures in multiple layers, high-performance graphics processors deployed in the cloud or on clusters, and large amounts of labeled data to achieve extremely high accuracy in text, speech, and image recognition. All of this helps your developers build digital systems that approach human intelligence and reduce the time to train models from weeks to hours, accelerating time-to-value.

Computer programs have a hierarchical structure, with algorithms at each level applying a level of transformation to the input and creating a statistical model as a reference for the output. Various iterations will be considered until the desired level of accuracy is achieved. The data needs to go through several layers or feature sets to get to the final level, which is why this technique is called deep learning. Now with enough data, deep learning programs have been able to create complex hierarchical models using their iteration-driven outputs. They can create extremely accurate predictive models from massive amounts of unstructured raw data. Going forward, this will play an important role in enabling the Internet of Things (IoT), as much of the data generated by humans and machines is unstructured and therefore best handled by deep learning rather than humans.

What is a Deep Learning Architecture?

To make complex machine learning models easier to implement, developers turn to deep learning architectures. These architectures help simplify the process of collecting data that can be used to train neural networks. Can be used with these architectures to speed up training and inference of models.

Train a Deep Learning Model:
  • Supervised Learning -
    When using supervised learning, the algorithm is trained using a labeled dataset. This means that when the algorithm decides on segment information, it can use the tags contained in the data to check whether the decision is correct. With supervised learning, the data on which the model is trained must be provided by a human, who must label the data before using the data to train the algorithm.
  • Unsupervised Learning -
    When using unsupervised learning, the algorithm is trained on data that does not contain any labels or information, and the algorithm cannot use labels or information to check its judgments. Instead, the system sorts and categorizes data according to the patterns it can recognize.
  • Reinforcement Learning -
    When using reinforcement learning, the system can use a trial-and-error approach to make a series of decisions, achieving desired outcomes even in complex environments. When using reinforcement learning, the algorithm does not use the data set to decide, but the information obtained from the environment to make the decision.
  • Deep Reinforcement Learning -
    When deep learning is combined with reinforcement learning techniques, it results in a type of machine learning called deep reinforcement learning. Deep reinforcement learning uses the same trial-and-error decision-making and sophisticated goal-attainment methods as reinforcement learning, but also relies on the power of deep learning to process and understand large amounts of unstructured data.

What can Deep Learning Achieve?

  • Aerospace and Defense:
    Deep learning is widely used to help satellites identify specific objects or areas of interest and classify them as safe or unsafe for soldiers.
  • Medical Research:
    Deep learning is widely used in the field of medical research. In cancer research, for example, deep learning can be used to automatically detect the presence of cancer cells. UCLA researchers have created an advanced microscope that uses high-end data to teach deep learning applications how to precisely identify cancer cells. The scope of deep learning will eventually enable medical research to create personalized medicines tailored to an individual's genomic structure.
  • Automated Industry:
    The heavy machinery industry is an industry that requires a lot of safety measures. Deep learning ensures the safety of workers in such environments by detecting any person or object that enters the unsafe range of heavy machinery.
  • Chatbots and Service Bots:
    Deep learning drives all chatbots and service bots that interact with customers and enables them to provide intelligent answers to increasingly complex voice- and text-based queries. The technology in this area is currently evolving.
  • Image Colorization:
    Tasks that once had to be done manually and took a long time to complete can now be delegated to a computer. Black and white images can be colored using deep learning algorithms that can put image content in context and accurately recreate them with the correct colors.
  • Face Recognition:
    This ability to leverage deep learning is not only used for a range of security purposes but will soon support in-store purchases. Facial recognition is already widely used at airports to enable seamless, paperless check-in. Deep learning will go a step further, making facial recognition a means of payment, even when the person has changed their hairstyle or has poor lighting.
Published by Oct 06, 2022 Source :tibco, Source :microsoft

Further reading

You might also be interested in ...

Headline
Trend
Innovation in the Medical Consumables Industry Amidst Global Trends
The global healthcare industry is currently undergoing a pivotal paradigm shift. Every macroeconomic trend—from demographic changes, the geopolitical reshaping of supply chains, and the convergence of biotechnology and digitalization, to the urgent demand for environmental sustainability—profoundly impacts the dynamics and trajectory of the medical device market. Against this backdrop, the medical consumables industry must not merely adapt; it must proactively lead innovation and become a key driver in building resilient healthcare defenses.
Headline
Trend
From Components to Systems: Unveiling the Core Drivers of Robotics Industry Trends
Artificial intelligence and automation technologies are advancing at a rapid pace, driving large‑scale deployments of robots across manufacturing, healthcare, logistics, and service sectors. This momentum is propelling overall industry upgrades and operational efficiency leaps. Amid this wave, mastering the manufacture of high‑precision, high‑reliability core components has become the decisive factor in market competitiveness.
Headline
Trend
The Purifying Force Between Industries: The Evolution and Trends of Cutting Fluid Recycling Systems
Over the past decade, cutting fluid recycling and regeneration technologies have evolved from auxiliary support services into essential core equipment and processes within manufacturing. Recycling and reusing cutting fluids reduce raw material and water waste, making production processes more aligned with circular economy principles. According to market forecasts, the global cutting fluid market size will reach USD 3.78 billion in 2024 and is expected to grow to USD 5.64 billion by 2033, with a compound annual growth rate (CAGR) of approximately 4.3%. Among this, the market for regeneration equipment and treatment services is expanding particularly rapidly, reaching about USD 1.31 billion in 2024 and projected to double to USD 2.61 billion by 2033, with a CAGR as high as 7.8%.
Headline
Trend
Future Trends and Key Technological Breakthroughs in Plastic Recycling Equipment
As global environmental awareness continues to grow, the plastic recycling industry is presented with new development opportunities. However, the sector still faces multiple challenges, including improving recycling rates, efficiently sorting various types of plastics, and reducing operational costs.Plastic recycling involves sorting, cleaning, and processing waste plastics into reusable materials, helping reduce pollution and promote resource reuse.
Headline
Trend
The Shift to Onshoring: How Taiwan’s Supply Chain Strength Is Drawing Global Investment
Recently, increasing geopolitical tensions and global supply chain disruptions resulting from the pandemic have caused multinational corporations to rethink the structure of their supply chains. To mitigate risks and improve resilience, a growing number of manufacturers are shifting their operations from offshoring to onshoring and nearshoring. Thanks to its robust manufacturing ecosystem, strategic location, and technological expertise, Taiwan has emerged as a key destination for advanced manufacturing and high-value component production. Backed by a highly skilled workforce, resilient infrastructure, and advanced manufacturing capabilities, Taiwan is deeply integrated into global technology supply chains and offers stable, tech-driven production networks. These strengths position Taiwan as an ideal onshoring partner and are drawing renewed global investment.
Headline
Trend
Custom Mold and Die Services in Southeast Asia: Taiwan’s Competitive Edge
Custom tooling is the foundation of precision manufacturing, enabling the production of everything from smartphone casings and automotive parts to packaging components and medical devices. In this fast-growing market, Taiwan had remained a trusted leader, delivering advanced tooling solutions that meet the speed, complexity, and quality demands of modern industry.
Headline
Trend
Taiwan's E-Bike Export Surge: Key Markets and Trends Driving Growth
Taiwan's e-bike industry has experienced significant fluctuations in recent years. After reaching a peak in 2022, exports faced a downturn in 2024, with a 47% decline in e-bike exports compared to the previous year. Despite these challenges, the industry is showing signs of recovery and adaptation, positioning itself for future growth. Taiwan has rapidly emerged as a global leader in this booming sector. Once primarily recognized for traditional bicycle manufacturing, Taiwan has transformed into a high-tech hub for premium electric mobility solutions.
Headline
Trend
Taiwan's Strategic Role in Global Data Storage and Memory Supply Chains
With its robust semiconductor industry, advanced manufacturing capabilities, and strategic investments, Taiwan contributes significantly to the production and innovation of memory technologies essential for various applications, from consumer electronics to data centers.
Headline
Trend
Taiwan’s Medical Device Manufacturing: The Medical Devices Act and Its Global Significance
In recent years, Taiwan has emerged as a significant player in the global medical device industry—an ascent shaped not only by its advanced manufacturing capabilities but also by bold regulatory transformation. At the heart of this transformation is the Medical Devices Act, a landmark piece of legislation that redefined how medical technologies are developed, approved, and marketed within Taiwan. Driven by the need to align with international standards and respond to the growing complexity of modern medical technologies, the Act has introduced a risk-based regulatory framework, streamlined approval processes, and facilitated global market access. These reforms have strengthened Taiwan’s position as a competitive and trusted source of medical devices for global healthcare markets. Taiwan's medical device industry is now undergoing rapid growth, propelled by this regulatory clarity, continued investment in high-tech innovation, and rising global demand for safe, effective, and export-ready medical solutions. For manufacturers and investors looking to access the international medical device market, Taiwan offers a strategically evolving landscape that is both business-friendly and globally connected.
Headline
Trend
Taiwan’s Strategic Role in the Global Solar and Battery Market: Opportunities and Innovations
Taiwan’s solar generation reached 12.9 billion kWh in 2023, providing almost 48% of Taiwan’s total renewable energy generation. The focus of the government on energy security and sustainability aligns with the expansion of solar energy infrastructure. The growing electricity demand is pushing the need for additional solar photovoltaic (PV) installations, particularly in industrial and commercial sectors, which are significant consumers of electricity in Taiwan. Moreover, the energy requirements of the industrial sector are driving the adoption of large-scale solar PV projects. In parallel, Taiwan's battery market is expected to reach USD 0.77 billion by 2025 and grow at a CAGR of 14.3% to USD 1.49 billion by 2030. The government plans to accumulate 590 MW of battery-based energy storage by 2025, with significant contributions from both public and private sectors.
Headline
Trend
Powering the Future: New Energy Vehicles, Sustainable Manufacturing, and Challenges
In the quest for a sustainable and eco-friendly future, the automotive industry is witnessing a profound transformation with the emergence of New Energy Vehicles. New Energy Vehicles, commonly known as NEVs, encompass a wide range of vehicles powered by alternative energy sources or a combination of traditional and renewable energy technologies. The implementation of sustainable manufacturing practices and collaboration among stakeholders presents challenges for NEV development as well as great potential for market growth.
Headline
Trend
Charging Ahead: Recharging Infrastructure in the Electric Vehicle Industry
As the electric vehicle (EV) revolution gains momentum worldwide, one of the critical pillars supporting this transition is the development of a robust recharging infrastructure network. This network plays a pivotal role in the widespread adoption of electric vehicles, ensuring convenience, accessibility, and sustainability for EV owners. Factors contributing to the acceptance of EVs and their associated recharging infrastructure include environmental awareness, advancements in battery technology, vehicle design, the expanding range of available EV models, and the implementation of government incentives to promote these new technologies.
Agree