April 25, 2025|20 min reading

DeepSeek AI: The Rise of a Powerful Open-Source Chatbot

DeepSeek AI: A New Force in Artificial Intelligence
Author Merlio

published by

@Merlio

Don't Miss This Free AI!

Unlock hidden features and discover how to revolutionize your experience with AI.

Only for those who want to stay ahead.

DeepSeek has emerged as a significant player in the artificial intelligence landscape. In a remarkable turn of events, the Chinese chatbot rapidly climbed to the top of the most downloaded applications on the Apple App Store, even outperforming ChatGPT for a period. This achievement was particularly noteworthy given that DeepSeek, backed by a relatively young company with considerably less investment than OpenAI, demonstrated the potential to challenge the established market leader.

The Genesis of DeepSeek

The story of DeepSeek began with Chinese entrepreneur Liang Wengfeng. After earning his degrees in electronic information engineering (2007) and information and communication engineering (2010) from Zhejiang University, Liang embarked on a path that would eventually lead to the creation of this innovative AI.

In 2008, Liang collaborated with university peers to gather financial market data and explore quantitative trading strategies using machine learning algorithms. This early venture laid the foundation for his future endeavors in AI. February 2016 marked the establishment of High-Flyer by Liang and two fellow engineering graduates. This company focused on developing artificial intelligence for trading algorithms, including investment strategies and stock price pattern recognition.

A pivotal moment arrived in April 2023 when High-Flyer established an artificial general intelligence lab. The initial purpose of this lab was to develop AI tools specifically not intended for stock trading. By May 2023, this lab evolved into an independent entity known as DeepSeek.

The AI world took notice in January 2025 with the launch of DeepSeek-R1, a 671-billion-parameter open-source reasoning AI model. This model quickly gained traction, becoming the number one free app on the U.S. Apple App Store, signaling its global appeal and power.

Key Milestones in DeepSeek's Journey:

  • 2016: High-Flyer Founded. This company, initially focused on AI trading algorithms, provided the groundwork and expertise that would later fuel DeepSeek's development.
  • 2023: DeepSeek's Inception. Launched in April as an artificial general intelligence lab under High-Flyer, DeepSeek achieved independence by May, marking its formal entry into the AI arena.
  • 2025: DeepSeek-R1's Debut. The release of DeepSeek-R1 became a global sensation, rapidly climbing the charts as a leading chatbot and showcasing the company's advanced capabilities.

Overcoming Obstacles: DeepSeek's Resilience

DeepSeek's ascent to prominence was not without significant hurdles. In its early stages, the company relied on Nvidia A100 graphics processing units. However, U.S. export restrictions later prohibited the shipment of these high-performance chips to China. Undeterred, DeepSeek's developers adapted by transitioning to the less powerful H800 chips, which were also subsequently subject to export limitations.

Despite these considerable challenges in accessing essential hardware, DeepSeek successfully developed its advanced R1 model using a relatively modest $5.6 million worth of H800 chips. To provide context, the training costs for models like GPT-4 are estimated to range between $50 million and $100 million, highlighting DeepSeek's remarkable efficiency.

According to Liang Wengfeng, "Our biggest challenge has never been money, it is the embargo on high-end chips." This statement underscores the resourcefulness and ingenuity that have characterized DeepSeek's development.

DeepSeek's Core Features and Innovative Technologies

A key differentiator for DeepSeek lies in its commitment to open-source models. Unlike many proprietary chatbots, DeepSeek's technology allows users to delve into its inner workings. This transparency fosters trust, as it demystifies the "black box" nature often associated with AI, enabling the community to examine and understand its behavior.

The open-source nature of DeepSeek's components empowers developers and researchers to contribute to its evolution. This collaborative environment facilitates rapid improvements, bug fixes, and the adaptation of the technology for specialized applications. Consequently, open-source projects like DeepSeek tend to evolve at an accelerated pace, with new features, enhancements, and use cases emerging more swiftly than with closed, proprietary systems.

Several important technical innovations contribute to the efficiency and performance of DeepSeek's models:

  • MoE (Mixture of Experts)
  • MLA (Multi-head Latent Attention)
  • MTP (Multi-Token Prediction)

Unpacking the Technologies:

Mixture of Experts (MoE): This machine learning technique enhances chatbot performance by strategically combining the predictions of multiple specialized models, known as "experts."

In the context of DeepSeek:

  • The model likely employs a large pool of around 256 specialized neural networks (the experts). Each expert is a smaller model trained to excel in specific data patterns or features. For natural language processing, this could mean individual experts focusing on syntax, semantics, or specific knowledge domains.
  • A "gating network" intelligently determines which experts to activate for each incoming token. It analyzes the input and assigns weights to the experts, selecting the top 8 most relevant experts for the current piece of information. This selective activation ensures that only a fraction of the total experts are engaged at any given time.
  • By activating only the most pertinent experts, DeepSeek achieves significant computational efficiency. The model can scale to a substantial size (in terms of parameters) without a proportional increase in processing demands.

Multi-head Latent Attention (MLA): This powerful mechanism combines the strengths of multi-head attention with latent space representations to achieve improved efficiency and performance in AI models.

Here's how MLA operates within DeepSeek:

  • Standard multi-head attention involves dividing the input into multiple "heads," each learning to focus on different aspects of the data.
  • MLA begins by encoding the input data (such as text or images) into a high-dimensional representation.
  • This representation is then projected into a lower-dimensional "latent space" using a learned transformation, often a neural network layer.
  • The latent representation is subsequently split into multiple heads, each calculating attention scores within this reduced latent space. This allows the model to efficiently focus on various aspects of the data.
  • By operating in a latent space, MLA significantly reduces the computational cost associated with attention mechanisms, making it feasible to process large datasets or lengthy sequences more effectively.
  • The synergy of multi-head attention and latent representations enables the model to capture intricate patterns and relationships within the data, leading to enhanced performance in tasks like natural language processing, recommendation systems, and data analysis.

Variant of Multi-Token Prediction (MTP) in DeepSeek: Multi-token prediction is a technique that empowers language models to predict multiple subsequent tokens (words or subwords) in a sequence, rather than just the immediate next one. This approach fosters the generation of more coherent and contextually accurate text by encouraging the model to consider longer-range dependencies and the overall structure of the information.

DeepSeek's implementation of MTP involves:

  • Encoding the input sequence (e.g., a sentence or paragraph) using a transformer-based architecture, which captures the contextual meaning of each token within the sequence.
  • Employing multiple output heads, each specifically trained to predict a different future token. For instance, one head predicts the very next token, another predicts the token after that, and so on.
  • During text generation (inference), the model operates autoregressively, meaning it generates text step-by-step. However, the multi-token training ensures that each prediction is informed by a broader context, resulting in more cohesive and accurate output.

DeepSeek leverages multi-token prediction to enhance the quality of its language models, making them more adept at tasks such as text generation, translation, and summarization.

DeepSeek's Current Models: V3 and R1

DeepSeek has recently introduced two prominent models: DeepSeek-V3, released in December 2024, and DeepSeek-R1, launched in January 2025. These models are positioned as competitors to OpenAI's offerings, with V3 aiming to rival GPT-4o and R1 being comparable to the o1 model.

  • DeepSeek-V3: This model stands out as a versatile option for a wide range of everyday tasks. It excels at answering questions across diverse topics, engaging in natural-sounding conversations, and demonstrating creativity. DeepSeek-V3 is well-suited for writing, content creation, and addressing common queries.
  • DeepSeek-R1: In contrast, DeepSeek-R1 is specifically designed for complex problem-solving, logical reasoning, and step-by-step analytical tasks. It excels at tackling challenging queries that demand in-depth analysis and structured solutions, making it particularly useful for coding challenges and logic-heavy questions.

ModelStrengthsWeaknessesDeepSeek-V3General coding assistance and explaining concepts in simpler termsMay sacrifice some niche expertise for versatilityCreative writing with deep understanding of contextMay overgeneralize in highly technical domainsWell-suited for quick content generationLacks strong reasoning abilitiesDeepSeek-R1Can handle niche technical tasksStruggles with broader context or ambiguous queriesHigh accuracy in specialized domains (math or code, for example)Rigid and formulaic output in creative tasksOptimized for technical writing such as legal documents or academic summariesLess adaptable to style and tone changesExport to Sheets

Both DeepSeek-V3 and DeepSeek-R1 share similar technical specifications:

FeatureDeepSeek-V3-BaseDeepSeek-R1-BaseTypeGeneral-purpose modelReasoning modelParameters671B (37B activated)671B (37B activated)Context length128K128KExport to Sheets

The primary distinction between these models lies in their training methodologies. DeepSeek-R1 was trained using a refined approach building upon the foundation of V3:

  • Cold Start Fine-tuning: Instead of overwhelming the model with vast amounts of data initially, training begins with a smaller, high-quality dataset to establish refined response patterns from the outset.
  • Reinforcement Learning Without Human Labels: Unlike V3, DeepSeek-R1 relies entirely on reinforcement learning, enabling it to develop independent reasoning capabilities rather than simply mimicking training data.
  • Rejection Sampling for Synthetic Data: The model generates multiple potential responses, and only the highest-quality answers are selected to further train the model, enhancing its output quality.
  • Blending Supervised & Synthetic Data: The training data strategically combines the best AI-generated responses with supervised fine-tuning data derived from DeepSeek-V3, leveraging the strengths of both approaches.
  • Final RL Process: A final stage of reinforcement learning ensures the model exhibits strong generalization across a wide range of prompts and can reason effectively across diverse topics.

The benchmark results further illustrate the capabilities of V3 and R1 in comparison to other leading models across various tasks, including mathematics (AIME 2024 and MATH-500), general knowledge (GPQA Diamond and MMLU), and coding (Codeforces and SWE-bench Verified).

Distilled DeepSeek Models: Efficiency Through Innovation

Distillation in artificial intelligence is a crucial process for creating smaller, more computationally efficient models from larger, more complex ones. This technique allows the resulting smaller models to retain a significant portion of the reasoning power of their larger counterparts while demanding fewer computational resources.

Recognizing that deploying the full-scale V3 and R1 models might not be feasible for all users due to their requirement of 8 NVIDIA H200 GPUs with 141GB of memory each, DeepSeek has developed six distilled models ranging from 1.5 billion to 70 billion parameters.

The creation of these distilled models involved a strategic three-step process:

Leveraging Existing Open-Source Models: DeepSeek started with six open-source models from Llama 3.1/3.3 and Qwen 2.5, establishing a strong foundational architecture.

Generating High-Quality Reasoning Samples: The powerful DeepSeek-R1 model was then used to generate 800,000 high-quality reasoning samples, providing a rich dataset for training the smaller models.

Fine-tuning on Synthetic Reasoning Data: Finally, the smaller models were fine-tuned using this synthetically generated reasoning data, effectively transferring the reasoning capabilities of the larger R1 model to the more efficient distilled versions.

The performance of these six distilled models on key benchmarks in math (AIME 2024 and MATH-500), general knowledge (GPQA Diamond), and coding (LiveCode Bench and CodeForces) demonstrates the effectiveness of this distillation approach.

As expected, the benchmark results generally improved with an increasing number of parameters. The smallest 1.5 billion parameter model exhibited the lowest performance, while the largest 70 billion parameter model achieved the highest scores. Interestingly, the Qwen-32B model appeared to be particularly well-balanced, achieving performance levels close to the Llama-70B model despite having half the number of parameters.

The Future Trajectory of DeepSeek

DeepSeek's rapid ascent in the AI landscape is a testament to its innovation and efficiency. Achieving global recognition in a short span is a remarkable feat. However, the challenge now lies in sustaining this momentum and building long-term brand visibility and trust within a highly competitive market. The financial and technical resources of tech giants like Google and OpenAI significantly dwarf those of DeepSeek.

One of the most pressing challenges for DeepSeek is the computational gap. Compared to its U.S. counterparts, DeepSeek operates with considerably less computational power, a disparity exacerbated by U.S. export controls on advanced chips. This limitation restricts DeepSeek's access to the cutting-edge hardware essential for developing and deploying even more powerful AI models.

While DeepSeek has demonstrated impressive operational efficiency, greater access to advanced computational resources could significantly accelerate its progress and bolster its competitive standing against companies with greater capabilities. Bridging this compute gap is crucial for DeepSeek to scale its innovations and solidify its position as a major global contender.

Despite these challenges, DeepSeek's achievements to date are significant. The company has proven that it is possible to create a world-class AI product even with limited resources, challenging the notion that billion-dollar budgets and massive infrastructure are prerequisites for innovation in this field. DeepSeek's success is likely to inspire many others and further accelerate the already rapid advancements in artificial intelligence technologies.

SEO FAQ About DeepSeek AI

Q: What is DeepSeek AI? A: DeepSeek AI is a Chinese company that has developed advanced open-source artificial intelligence models, including the popular DeepSeek-V3 and DeepSeek-R1 chatbots.

Q: How does DeepSeek compare to ChatGPT? A: DeepSeek's R1 model briefly surpassed ChatGPT in app downloads, showcasing its competitive capabilities, particularly in reasoning and complex problem-solving. DeepSeek also emphasizes open-source accessibility.

Q: What are the key features of DeepSeek models? A: Key features include open-source availability, and advanced technical solutions like Mixture of Experts (MoE), Multi-head Latent Attention (MLA), and Multi-Token Prediction (MTP) for enhanced efficiency and performance.

Q: What are DeepSeek-V3 and DeepSeek-R1 best for? A: DeepSeek-V3 is a general-purpose model excellent for conversational tasks and content creation. DeepSeek-R1 excels in complex problem-solving, logic, and technical reasoning tasks like coding.

Q: What does "open-source" mean for DeepSeek AI? A: Open-source means the underlying code of DeepSeek's models is publicly accessible, allowing developers and researchers to examine, understand, and contribute to the technology. This fosters transparency and community-driven innovation.

Q: What is AI distillation, and why is it important for DeepSeek? A: AI distillation is the process of creating smaller, more efficient AI models from larger ones. It's important for DeepSeek as it allows for broader deployment of their technology by reducing computational demands without significantly sacrificing performance.

Q: What are the challenges facing DeepSeek AI? A: Key challenges include competing with tech giants with significantly larger resources and overcoming limitations in accessing advanced computational hardware due to export controls.

Q: What makes DeepSeek AI stand out? A: DeepSeek's rapid rise with relatively limited resources, its commitment to open-source models, and its innovative technical solutions like MoE and MLA make it a notable and impactful player in the AI field.

Q: Where can I learn more about DeepSeek AI? A: You can find more information on DeepSeek's official website and through tech news outlets that cover artificial intelligence advancements. Keep an eye on Merlio's blog for further updates and insights into the world of AI.