Gemini 3 vs ChatGPT‑4 vs Claude 2: A Comprehensive Comparison

Author: Boxu Li

Google’s Gemini 3 is the latest multimodal AI model from Google DeepMind, and it represents a major leap in technical capabilities. Below we explore Gemini 3’s architecture, training data, and benchmark performance, then compare it in depth to OpenAI’s GPT‑4 (including the newer GPT‑4 Turbo) and Anthropic’s Claude 2/2.1 across reasoning, coding, multimodality, efficiency, context length, developer tools, and safety alignment. We also include a comparison table summarizing key metrics and features.

Gemini 3 Technical Capabilities

Architecture: Google’s Gemini models use a sparse Mixture-of-Experts (MoE) Transformer architecture[1]. This means the model dynamically routes tokens to different expert subnetworks, activating only a subset of parameters for each input token. The MoE design allows massive total capacity without a proportional increase in computation per token[2]. In practice, Gemini can be extremely large (billions of parameters spread across experts) yet remain efficient to run, contributing to its high performance. In contrast, GPT‑4 and Claude use dense Transformer architectures (their exact sizes and details are not publicly disclosed), meaning all model parameters are utilized for every token. Gemini’s architecture is also natively multimodal – it was pre-trained from the ground up on text, images, and audio together (and even video), rather than tacking on separate vision modules later[3]. This integrated design helps it reason jointly across modalities more effectively than earlier multimodal approaches, which often combined separate networks[4].

Multimodal Abilities: Gemini 3 is a “natively multimodal” model. It can accept text, images, audio, and video as input, and generate text (and even images) as output[5][6]. For example, you can feed Gemini an image alongside a question, or even a snippet of audio or video, and it will interpret the content and respond with analysis or answers. Google reports that Gemini outperforms previous state-of-the-art models on image understanding benchmarks without relying on external OCR for text in images[7] – a testament to its end-to-end visual comprehension. By training on multiple modalities from the start and fine-tuning with additional multimodal data, Gemini develops a unified representation of text and visual/audio data[8]. Notably, Gemini can generate images from text prompts (via the integrated Gemini Image model) and even perform image editing operations through text instructions[6]. This goes beyond GPT‑4’s vision capabilities – GPT‑4 can interpret images (GPT‑4V) and describe them in text, but it cannot produce new images (image generation is handled by separate models like DALL·E in OpenAI’s ecosystem). Anthropic’s Claude 2, on the other hand, is currently a text-only model – it does not accept or produce images/audio by default. Thus, Gemini 3 stands out for multimodal I/O support, handling text, vision, and audio/video seamlessly in one system.

Training Data and Scale: While exact parameters for Gemini 3 (Ultra) are not public, it was trained on an extremely large and diverse dataset. Google’s smaller Gemma 3 open models (27B and down) were trained on up to 14 trillion tokens covering web text, code, math, and images in 140+ languages[9][10]. We can infer the flagship Gemini tapped into similarly vast data. The knowledge cutoff for Gemini 2.5 (the immediate predecessor) was January 2025[11], meaning it was trained on information up to very recently, making it more up-to-date than GPT‑4 or Claude. (For reference, GPT‑4’s knowledge cutoff was around September 2021 for its initial March 2023 release, though GPT‑4 Turbo was later updated with knowledge of world events up to April 2023[12]. Claude 2’s training data goes up to early 2023 in general.) This suggests Gemini 3 has the most recent knowledge base of the three as of late 2025. Google also applied extensive data filtering for safety, removing problematic content (e.g. CSAM or sensitive personal data) from Gemini’s training corpus[13].

Long Context Window: A headline feature of Gemini is its massive context length. Gemini 3 can handle extremely long inputs – over 1 million tokens in its context window[14]. This is an order of magnitude beyond what other models currently offer. In practical terms, 1 million tokens is roughly 800,000 words, or several thousand pages of text. Google demonstrated that Gemini 2.5 could read and summarize a 402-page Apollo mission transcript and even reason over 3 hours of video content without issue[15]. By comparison, OpenAI’s base GPT‑4 offers 8K or 32K token context options, and the newer GPT‑4 Turbo supports up to 128K tokens in context[16] – about 300 pages of text. Anthropic’s Claude 2 originally came with a 100K token window, and the updated Claude 2.1 doubled that to 200K tokens (approximately 150,000 words or 500+ pages)[17]. So while Claude 2.1 now leads OpenAI in context size (200K vs 128K), Gemini 3 still far surpasses both with a 1M+ token capacity. This huge context is especially useful for tasks like ingesting entire codebases, large documents or even multiple documents at once. It does, however, come with computational cost – processing hundreds of thousands of tokens will be slower (Anthropic notes a 200K-token query can take a few minutes for Claude 2.1)[18]. Google’s advantage is that on their TPUv5 infrastructure, Gemini can be distributed and optimized for these long contexts.

Benchmark Performance: On standard academic benchmarks, Gemini 3 (and its 2.x predecessors) has achieved state-of-the-art results. In fact, Gemini was the first model to exceed human expert performance on the massive multitask MMLU exam[19]. Gemini 1.0 Ultra scored 90.0% on MMLU[20], edging out the human expert benchmark (~89.8%)[21][22] and well above GPT‑4’s score. (GPT‑4’s reported MMLU accuracy is 86.4% in a comparable 5-shot setting[23]. Gemini achieved its 90% by using advanced prompting – e.g. chain-of-thought with majority voting – to “think more carefully” before answering[24].) Gemini also surpassed GPT‑4 on many other tasks in early evaluations. For instance, on the Big-Bench Hard suite of challenging reasoning tasks, Gemini Ultra scored 83.6% vs GPT‑4’s 83.1% (essentially tying for state-of-the-art)[25]. For math word problems in GSM8K, Gemini reached 94.4% accuracy (with chain-of-thought prompting) compared to GPT‑4’s ~92%[26]. In coding, Gemini has shown remarkable skill: it scored 74.4% on the HumanEval Python coding benchmark (pass@1)[27], significantly above GPT‑4’s ~67% on the same test[28]. In fact, Gemini’s coding ability is industry-leading – Google noted it “excels in several coding benchmarks, including HumanEval”, and even introduced an AlphaCode 2 system powered by Gemini that can solve competitive programming problems beyond what the original AlphaCode could[29][30]. In summary, Gemini 3 delivers top-tier performance across knowledge reasoning, math, and coding, often outstripping GPT‑4 and Claude in benchmark scores (detailed comparisons follow in the next section).

Enhanced “Deep Thinking” Mode: A distinctive capability in the Gemini 2.x generation is the introduction of a reasoning mode called “Deep Think”. This mode allows the model to explicitly reason through steps internally before producing a final answer[31][32]. In practice, it implements techniques like parallel chains-of-thought and self-reflection, inspired by research in scratchpad reasoning and Tree-of-Thoughts. Google reports that Gemini 2.5 Deep Think significantly improved the model’s ability to solve complex problems requiring creativity and step-by-step planning, by having the model generate and evaluate multiple candidate reasoning paths[33][34]. For example, with Deep Think enabled, Gemini 2.5 Pro scored higher on tough benchmarks (as seen in Google’s “thinking vs non-thinking” evaluation modes)[35]. While this mode was a separate setting in Gemini 2.5, rumor has it that Gemini 3 integrates these advanced reasoning strategies by default, eliminating the need for a separate toggle[36]. Neither GPT‑4 nor Claude have an exact equivalent feature exposed to end-users (though they too can be coaxed into chain-of-thought reasoning via prompting). Gemini’s “adaptive thinking budget” is also notable – developers can adjust how much reasoning the model should do (trading off cost/latency for quality), and the model can automatically calibrate the depth of reasoning when no budget is fixed[37][38]. This level of control is unique to Google’s offering and appeals to developers who need to fine-tune the quality-speed tradeoff.

Infrastructure and Efficiency: Google built Gemini to be highly efficient and scalable on their custom TPU hardware. According to Google, Gemini was trained on TPU v4 and v5e pods, and it’s the most scalable and reliable model they’ve trained to date[39][40]. In fact, at Google’s launch, they announced a new Cloud TPU v5p supercomputer specifically to accelerate Gemini and next-gen AI development[40]. One benefit is that Gemini can run faster at inference time compared to earlier models, despite its size – Google noted that on TPUs, Gemini achieved a 40% reduction in latency for English queries in one internal test, compared to the previous model[41]. Additionally, Google has multiple sizes of Gemini to suit different needs: e.g. Gemini Flash and Flash-Lite are smaller, faster variants optimized for lower latency and cost, while Gemini Pro (and Ultra) are larger for maximum quality[42][43]. This is analogous to OpenAI offering GPT-3.5 Turbo vs GPT-4, or Anthropic offering Claude Instant vs Claude-v2. For instance, Gemini 2.5 Flash-Lite is intended for high-volume, cost-sensitive tasks, whereas 2.5 Pro is for the most complex tasks[44][45]. By covering the whole “Pareto frontier” of capability vs cost, Gemini family lets developers choose the model that fits their use case[46]. The flexibility and TPU optimization mean Gemini can be deployed efficiently, and Google likely uses it extensively in its products (Search, Workspace, Android) with optimized serving.

Summary of Gemini 3: In essence, Gemini 3 is a multimodal AI powerhouse with an innovative MoE architecture, enormous training breadth (latest knowledge, code and visual data), an unprecedented context window (~1M tokens), and state-of-the-art performance on academic benchmarks. It introduces new levels of reasoning (through its “thinking” mode) and gives developers controls to balance accuracy vs speed. Next, we’ll examine how these strengths compare against OpenAI’s GPT‑4 and Anthropic’s Claude 2 series.

Performance Benchmarks Comparison

To ground the comparison, let’s look at standard benchmark results for each model on key tasks: knowledge & reasoning (MMLU and Big-Bench Hard), math word problems (GSM8K), and coding (HumanEval). These benchmarks, while not comprehensive, give a quantitative sense of each model’s capabilities.

  • MMLU (Massive Multitask Language Understanding): This is a test of knowledge and reasoning across 57 subjects. Gemini 3 (Ultra) scored about 90% accuracy – notably above human expert level (humans ~89.8%)[21][22]. GPT‑4 by comparison scored 86.4% in the OpenAI report (5-shot setting)[23]. Claude 2 is a bit lower; Anthropic reported 78.5% on MMLU for Claude 2 (5-shot with chain-of-thought prompting)[47]. So for broad knowledge and reasoning, Gemini and GPT‑4 are very strong (Gemini slightly higher), while Claude 2 trails behind them. It’s worth noting that all these models improve if allowed to use advanced prompting (e.g. GPT‑4 can reach ~87–88% with chain-of-thought and voting[48]), but Gemini’s figure already reflects it leveraging careful reasoning during evaluation[24].
  • BIG-bench Hard (BBH): This is a collection of especially challenging reasoning tasks. GPT‑4 and Gemini essentially tie here – Gemini Ultra got 83.6% and GPT‑4 about 83.1% on BBH (both in a few-shot setting)[25]. These scores are far above most older models. We don’t have an official Claude 2 score on BBH in published sources; third-party evaluations indicate Claude might be somewhat lower (potentially in the 70s% range on BBH). In general, GPT‑4 and Gemini are at parity on many complex reasoning tests, each slightly winning some categories. Google claimed Gemini exceeded SOTA on 30 of 32 academic benchmarks[49], so presumably it at least matches GPT‑4 on virtually all.
  • Math – GSM8K: This benchmark of grade-school math problems requires multi-step reasoning (usually solved via chain-of-thought). Gemini demonstrated outstanding math ability – scoring 94.4% on GSM8K (with majority voting across 32 reasoning paths)[26]. GPT‑4 is also excellent at math; OpenAI reported around 92% on GSM8K with few-shot CoT prompting[26]. Claude 2 was tested zero-shot with CoT and reached 88.0%[50], which is slightly below GPT‑4. All three models are vastly better at math word problems than previous generations (for context, GPT-3.5 got ~50-60% on GSM8K). But Gemini currently holds the edge in math, likely due to its “parallel thinking” approach that finds solutions with higher reliability[33].
  • Coding – HumanEval (Python): This measures the model’s ability to generate correct code for programming prompts. Gemini 3 leads here with ~74–75% pass@1 on HumanEval[27]. This is an industry-best result on this benchmark. Claude 2 also made big strides in coding – it scores 71.2% pass@1[50], which actually beats GPT‑4. GPT‑4 in the March 2023 technical report achieved 67% on HumanEval (0-shot)[28]. So for pure coding tasks, the ranking is Gemini > Claude 2 > GPT‑4. Anecdotally, users have found Claude quite good at coding (it can output very detailed code with explanations), but Google’s Gemini models appear to have benefitted from training heavily on code and perhaps new techniques (Google even built an internal benchmark WebDev Arena for coding, where Gemini 2.5 Pro topped the leaderboard[51]). It’s also notable that Google leveraged Gemini in AlphaCode 2, which solved ~2× more competition problems than the original AlphaCode (which was based on an older model)[52] – implying Gemini’s coding/general reasoning combo is powerful for algorithmic challenges.
  • Other Evaluations: On knowledge-intensive QA (TriviaQA), long-form comprehension (QuALITY), and science questions (ARC-Challenge), all models perform strongly, with GPT‑4 and Gemini typically in the high 80s% to 90% range, and Claude often in the 80s. For instance, Claude 2 scored 91% on ARC-Challenge, nearly on par with GPT‑4[53]. On common-sense reasoning (HellaSwag), GPT‑4 actually had an edge, scoring ~95% vs Gemini 87.8%[54] – possibly reflecting differences in training data or alignment on commonsense. And in multilingual tasks, Google reports Gemini excels; a variant (“Global MMLU”) showed Gemini 2.5 Pro ~89%[55], indicating robust multi-language understanding. All three models are capable across a wide range of NLP benchmarks, but Gemini 3 and GPT‑4 generally sit at the very top, trading the lead by task, with Claude 2/2.1 a notch below in overall academic benchmark performance.

We summarize some of these benchmark comparisons in the table below:

Comparison Table: Key Metrics and Capabilities

The table below highlights key performance metrics and capabilities of Google’s Gemini 3, OpenAI’s GPT‑4 (GPT‑4 Turbo), and Anthropic’s Claude 2.1:

Feature / Metric
Google Gemini 3 (DeepMind)
OpenAI GPT‑4 (incl. GPT‑4 Turbo)
Anthropic Claude 2.1
Model Architecture
Sparse Mixture-of-Experts Transformer; multimodal from scratch[1]. Highly scalable on TPUs.
Dense Transformer (exact details proprietary); Vision enabled via integrated encoder[56].
Dense Transformer (proprietary); emphasizes AI safety in training. Uses Constitutional AI alignment.
Multimodal Support
Yes – Native text, image, audio, video input; generates text (and images)[6]. State-of-art visual understanding[7].
Partial – Accepts text + images (GPT-4V); outputs text. No image generation (uses separate DALL·E).
No (Text-only) – Input/output are text only in Claude 2.1. No built-in image or audio capability.
Maximum Context Window
1,000,000+ tokens (≈800K words). Huge long-document support[14].
128K tokens in GPT-4 Turbo[16] (standard GPT-4 was 8K/32K).
200K tokens in Claude 2.1[17] (Claude 2.0 was 100K).
MMLU (Knowledge exam)
≈90% (outperforms human experts)[20]. <br>(First to reach 90% on MMLU)
86.4% (5-shot)[23]. <br>State-of-art before Gemini; human-level.
78.5% (5-shot CoT)[47]. <br>Strong, but trails GPT-4 and Gemini.
BIG-Bench Hard (Reasoning)
83.6% (3-shot)[25]. <br>Tied with GPT-4 for SOTA.
83.1% (3-shot)[57].
(N/A) No official data. Est. ~75–80% (Claude 2 likely lower than GPT-4/Gemini).
GSM8K Math (Grade-school)
94.4% (with CoT & majority voting)[26].
~92% (5-shot CoT)[58].
88.0% (0-shot CoT)[50].
HumanEval (Python Coding)
74.4% pass@1[27] – Best-in-class code generation.
67% pass@1[28].
71.2% pass@1[50] – outperforms base GPT-4 on coding.
Reasoning Mode (“CoT”)
Chain-of-thought enabled by Deep Think mode. Can internally reason in parallel steps[33]. Developer-adjustable reasoning depth.
CoT via prompting. No public “self-reflection” mode, but GPT-4 capable of detailed reasoning when asked.
Tends to explain answers by default; no toggle needed (Claude often gives step-by-step reasoning). Now supports function/tool calls[59].
Coding/Tools Integration
Excellent coding skills (multi-language). Can handle entire codebases in context. Powers AlphaCode 2 for competitive programming[30]. Available via Vertex AI (with code notebooks, etc).
Top-notch coding abilities (especially with Code Interpreter). Offers function calling API[60] and plugins to integrate tools. GitHub Copilot X uses GPT-4. Fine-tuning in limited beta.
Very good coding help (nearly GPT-4 level). Now supports API tool use (beta) to call developer-defined functions and web search[61][62]. Emphasizes interactive chat for coding (Claude in Slack, etc).
Fine-Tuning Availability
Limited – Main Gemini models are closed-source; fine-tuning not publicly offered (uses Google’s internal RLHF). However, Gemma open models (1B–27B) are available for custom fine-tuning[63][64].
Partial – GPT-4 is closed-source; OpenAI offers fine-tuning for GPT-3.5, and GPT-4 fine-tuning is in controlled preview. Developers can customize behavior via system instructions & few-shot.
No public fine-tune – Claude is closed-source; Anthropic has not offered fine-tuning. Users can customize via system prompts[65] and the Constitutional AI approach.
Speed & Efficiency
Optimized on TPUs – Runs faster than smaller models on Google’s hardware[39]. Gemini Flash models offer lower latency. Can trade speed vs quality by “thinking” budget[66].
GPT-4 Turbo is ~2× faster/cheaper than GPT-4[16][67]. Nonetheless, GPT-4 can be relatively slow, especially at 32K/128K context. OpenAI continually improving latency.
Claude 2 is fairly fast for normal contexts; at max 200K context it may take minutes[18]. Claude Instant model offers faster, cheaper responses at some quality loss.
Safety & Alignment
Trained with reinforcement learning from human feedback and red-teaming. Google claims “most comprehensive safety evaluation” to date for Gemini[68]. Special research into risks (cybersecurity, persuasion)[69]. Built-in guardrails for image/multi-modal outputs.
Alignment via RLHF and extensive fine-tuning. GPT-4 underwent rigorous red-team testing and has an official usage policy. System message allows steering behavior. Prone to refusals on disallowed content, with ongoing tuning.
Alignment via Constitutional AI – Claude is guided by a set of principles. Tends to be more verbose and refuses when queries conflict with its “constitution.” Claude 2.1 has 2× lower hallucination rate vs Claude 2.0[70] and improved honesty (will abstain rather than guess)[71]. Focus on harmlessness and transparency.

Sources: Performance metrics are from official reports: Google DeepMind’s Gemini technical blog[72][27], OpenAI’s GPT-4 documentation[28], and Anthropic’s Claude model card[50]. Context and feature information from Google’s announcements[14][6], OpenAI DevDay news[16], and Anthropic updates[17].

In-Depth Comparison of Gemini 3, GPT‑4, and Claude 2.1

Now that we’ve seen the high-level numbers, let’s compare the models across various dimensions in detail:

Reasoning and General Intelligence

All three models – Gemini 3, GPT‑4, and Claude 2 – are at the cutting edge of AI reasoning capabilities, but Gemini and GPT‑4 are generally stronger on the most challenging tasks. GPT‑4 set a new standard upon release, often matching or exceeding human-level performance in knowledge and reasoning tests. Google’s Gemini was designed explicitly to surpass that bar, and indeed it managed to slightly outperform GPT‑4 on many academic benchmarks (MMLU, math, coding, etc., as noted above). In practical usage, GPT‑4 and Gemini both demonstrate excellent logical consistency, multi-step reasoning (e.g. solving complex problems step by step), and broad knowledge. Users have observed that GPT‑4 has a very polished, reliable reasoning style – it usually follows instructions carefully and produces well-structured, justified answers. Gemini 3, especially with its Deep Think capability, can be even more analytical for hard problems, effectively doing internal “chain-of-thought” to boost accuracy on tricky questions[33][34]. Google has showcased Gemini solving elaborate tasks like creating simulations, writing complex code, and even playing strategy games by reasoning over many steps[73][74]. One advantage for Gemini is its recency of training data – with knowledge up to 2024/2025, it may have more up-to-date information on newer events or research, whereas GPT‑4 (2023 cutoff) sometimes lacks very recent facts.

Claude 2, while very capable, is often described as slightly less “intelligent” or rigorous than GPT‑4 in complex reasoning. Its MMLU score (78.5%) indicates it doesn’t reach the same exam-level mastery[47]. That said, Claude excels at natural language understanding and explanation – it has a talent for producing human-like, clear explanations of its reasoning. Anthropic trained Claude with a dialog format (the “Assistant” persona), and it tends to articulate its thought process more readily than GPT‑4 (which by default gives final answers unless prompted for steps). For many common-sense or everyday reasoning tasks, Claude is on par with GPT‑4. But on especially difficult logical puzzles or highly technical questions, GPT‑4 still has the edge in accuracy. Users also report that Claude is more willing to admit uncertainty or say “I’m not sure” when it’s uncertain (an intentional design for honesty)[71], whereas GPT‑4 might attempt an answer. This can make Claude feel more cautious or limited at times, but also means it might hallucinate facts slightly less.

Summary: GPT‑4 and Gemini 3 represent the state-of-the-art in general reasoning, with Gemini showing equal or slightly better performance on new benchmarks (thanks to advanced techniques and possibly more training data). Claude 2 is not far behind for many tasks and often provides very detailed reasoning in its answers, but it doesn’t quite reach the same benchmark highs. If your use case demands the absolute strongest reasoning on difficult problems (e.g. complex exams, tricky word problems), Gemini 3 or GPT‑4 would be the top choices, with Claude as a capable alternative that errs on the side of caution in its answers.

Coding and Software Assistance

Gemini 3 and OpenAI’s GPT‑4 are both exceptionally strong coders, and notably, Anthropic’s Claude 2 has also proven to be a great coding assistant. In coding evaluations like HumanEval and competitive programming, Gemini currently holds a slight lead (as noted, 74% vs GPT‑4’s 67% pass rate)[27][28]. Google has demonstrated Gemini generating complex interactive code – for example, creating fractal visualizations, browser games, or data visualizations from scratch, given only high-level prompts[73][74]. It can handle very large codebases thanks to its million-token context – a developer could literally paste an entire repository or multiple source files into Gemini and ask it to refactor code or find bugs. This is transformative for development workflows: Gemini can “remember” and utilize an entire project’s code context during its reasoning. GPT‑4’s context maxes out at 128K (which is still enough for maybe ~100 files of code, depending on size)[56], and Claude 2.1 at 200K tokens might manage a bit more. But neither approaches Gemini’s capacity for whole-codebase understanding.

In day-to-day coding assistance (like writing functions, explaining code, or suggesting improvements), all three models perform well. GPT‑4 is known to be very reliable in generating correct, syntactically valid code in languages like Python, JavaScript, etc. It was the first model integrated into GitHub Copilot (as Copilot X’s backend) and is popular among developers for tasks like writing unit tests, converting pseudocode to code, and debugging. GPT‑4’s code outputs might be slightly more concise and to-the-point, whereas Claude often outputs very verbose explanations along with code, which some developers appreciate (it’s like pair-programming with a chatty senior engineer). In terms of capability, Claude 2 actually surpassed GPT‑4 on some coding benchmarks (71% vs 67% on HumanEval)[50][28], indicating that Anthropic made coding a focus in Claude’s training update. Users have noted Claude is especially good at understanding ambiguous requests and filling in details in code (it’s less likely to just refuse if the prompt is under-specified; it tries to guess the intent and produce something workable).

Fine-tuning and tools for coding: OpenAI offers specialized tools like the Code Interpreter (now called Advanced Data Analysis) and has plugin integrations for coding (e.g. a terminal plugin or database plugin), which extend GPT‑4’s coding usefulness. Google hasn’t publicly announced such specific “code execution” tools for Gemini, but given Gemini’s integration in Google’s cloud, one can imagine it being used in Colab notebooks or connected to an execution environment for testing code. Anthropic recently introduced a tool use API in Claude 2.1 that lets it execute developer-provided functions – for example, one could allow Claude to run a compile or test function on its generated code[61][75]. This is analogous to OpenAI’s function calling, enabling a sort of dynamic coding agent that can test its own outputs and correct errors. All models can benefit from such feedback loops, but they rely on developer implementation currently.

In summary, all three models are excellent coding assistants, but Gemini 3’s huge context and slightly higher coding benchmark suggest it can take on larger and more complex programming tasks in one go (e.g. analyzing thousands of lines of code together). GPT‑4 has proven itself widely in the developer community with tools and integrations, and Claude 2 is a strong alternative, especially for those who favor its explanatory style or need the 200K context for large code files. For pure coding accuracy, Gemini 3 seems to have a slight edge, with Claude 2 not far behind, and GPT‑4 still very formidable and probably the most battle-tested in real-world coding scenarios.

Multimodal Input/Output

This is where Gemini 3 truly differentiates itself. Gemini was built as a multimodal AI from day one, whereas GPT‑4 added vision capabilities as an extension, and Claude remains text-only so far.

  • Gemini 3: Accepts images (single or even multiple images) as part of the prompt and can understand them deeply – not just describing them, but analyzing charts, reading graphs, interpreting screenshots, etc. It can also take audio and video. For example, one could give Gemini an audio clip and ask questions about its content, or provide a segment of video (frames or transcript) and get a summary or answer. Google has showcased Gemini analyzing silent films and complex visual data[76]. On output, Gemini produces text by default, but it also has the ability to generate images from text prompts (similar to DALL·E or Imagen) within its Gemini Image mode[6]. This means a user can ask Gemini to create a piece of art or edit a given image (“make this photo look like a painting”) all within the same AI system. This multimodal generation is a major step beyond what GPT-4/Claude can do natively. Additionally, Gemini can work with video output in certain contexts (e.g. it can generate code for animations or possibly describe video scenes – though generating actual video frames is likely handled by a related model like Phenaki or Imagen Video). All told, Gemini’s multimodal prowess is cutting-edge; it natively understands and links different modalities. For example, it could analyze an image and then use that information in a textual reasoning chain or code generation task, fluidly.
  • GPT‑4: Only partially multimodal. GPT‑4 (the base model) accepts images as input – you can give it a picture and ask questions about it. This is GPT-4’s “Vision” feature (which was initially available via a limited beta in 2023). It’s quite powerful: GPT-4 can describe images, identify objects, read text in images, and reason about visual content. For instance, users have shown GPT-4 Vision interpreting memes or analyzing the contents of a refrigerator image to suggest recipes. However, GPT‑4 cannot output images or audio – its outputs are purely text. If you ask it to draw a picture, it can only produce a textual description or ASCII art at best. OpenAI addresses image generation via a separate model (DALL·E 3) that can be invoked, but that’s outside of GPT-4 itself. So GPT‑4’s multimodal capability is one-way (vision input to text output). It also does not handle audio or video input directly (OpenAI’s Whisper model does speech-to-text, but again that’s separate and not integrated into GPT-4’s conversational interface as a single modality pipeline). GPT‑4 Turbo introduced voice output for ChatGPT (text-to-speech), but that’s not the model generating audio; it’s a separate TTS system. In summary, GPT‑4 is partially multimodal (text+vision), whereas Gemini is fully multimodal (text+vision+audio+video) in understanding, and additionally Gemini can perform content generation in multiple modalities.
  • Claude 2.1: Currently does not support image or audio input. It’s purely a text-based conversational model. You can’t feed Claude an image or ask it to interpret an image (it will just say it cannot see images). Anthropic has focused on text and didn’t announce vision features as of Claude 2.1. There have been hints that they might explore multimodal in the future, but at present Claude lags behind on this front. So if your task involves images or other non-text data, Claude isn’t an option except by converting those inputs to text (e.g. transcribing audio and then giving it to Claude).

In practical terms, Gemini 3’s multimodal abilities open up many possibilities: you could use it as a single AI agent to analyze a PDF containing text and images (tables, diagrams), or to answer questions about a video’s content, etc. For example, Google demonstrated that on a new multimodal benchmark (dubbed MMMU), Gemini Ultra set a new state-of-art with 59.4%, whereas prior models struggled[77][78]. The ability to mix modalities in one prompt also means you can do things like: “Here is a graph image – what trend does it show? Now draft a report (text) about this trend.” Gemini can ingest the graph and directly produce the textual report analyzing it. GPT‑4 could also analyze a graph image similarly well, but Claude could not at all.

Bottom line: For any use case requiring vision or audio understanding along with language, Gemini 3 is the most capable and flexible model. GPT‑4’s vision is powerful, but Gemini covers more types of data and can generate visual content too. Claude is currently limited to textual tasks. So, in a multimodal comparison, Gemini 3 wins outright with its comprehensive multi-sense capabilities, with GPT‑4 in second place (vision only), and Claude focusing on text.

Context Window and Efficiency

We’ve touched on context lengths, but let’s reiterate and expand on efficiency considerations. Context window refers to how much input (and generated output) the model can consider at once. A larger context enables the model to remember earlier conversation or larger documents. As noted:

  • Gemini 3: ~1 million tokens context window[14]. This is dramatically higher than others. It means Gemini can take in very long texts (like entire books, lengthy technical documents, or massive prompt histories). For enterprises, this could be game-changing: imagine feeding a whole corporate knowledge base or hundreds of pages of regulatory text into the model in one go. Gemini could then answer questions or produce summaries drawing from any part of that huge input. A 1M-token context also allows complex agentic behavior – Gemini could internally generate plans or code over a very long scratchpad if needed. The practical downside is memory and speed: processing 1M tokens of input is heavy. Google likely uses efficient implementations (and MoE helps because not all experts see all tokens). They also reported two metrics in their technical report: an 128k token scenario vs 1M token scenario, indicating they are aware that beyond a certain length, the model might use a different strategy (128k was evaluated in an “averaged” way, 1M in a “pointwise” way)[79][80]. In any case, for most uses you won’t hit that limit, but it provides enormous headroom.
  • Claude 2.1: 200k tokens context[17]. This is extremely high as well, second only to Gemini. Anthropic doubled it from 100k to 200k with Claude 2.1, claiming it as an “industry-leading” context at the time[17]. 200k tokens is roughly 150k words (around 500 pages of text). Anthropic specifically mentioned use cases like feeding in long financial reports, entire codebases, or lengthy literature and having Claude analyze them[81]. The caveat is that while Claude can ingest that much, it might be slow (they mention it may take a few minutes to process maximum length prompts)[18]. Also, it costs more (pricing scales with tokens). They are working on optimizing this. But from an availability standpoint, Claude 2.1’s full 200k context mode is accessible to developers (Pro tier), which is impressive.
  • GPT‑4 / GPT‑4 Turbo: Initially, GPT‑4 offered 8k and 32k token models. In late 2023, OpenAI announced GPT‑4 Turbo with 128k context, bringing it closer to Claude’s range[16]. The 128k context model is currently in beta/preview for developers, but expected to be production soon. 128k tokens (~96k words) is about 4× a 32k context and enough for most practical tasks (roughly 300 pages of text). OpenAI even did a demo of GPT‑4 reading an entire novel (Jane Austen’s Emma) and answering questions, demonstrating long-context comprehension. So GPT‑4 has significantly closed the gap in context length. Still, it is 1/8th of Gemini’s theoretical max and roughly half of Claude’s max. For extremely large inputs, GPT‑4 would need chunking strategies whereas Claude or Gemini might handle it in one go. OpenAI has not mentioned plans beyond 128k yet.

Efficiency and latency: With larger contexts and models, inference speed becomes a concern. GPT‑4 in its base form is known to be slower than GPT-3.5, often taking noticeably longer for responses (especially as context length increases). OpenAI addressed this by optimizing GPT‑4 Turbo to be faster and cheaper – they reported 3× cheaper input tokens and 2× cheaper output tokens for GPT‑4 Turbo vs original GPT-4[16][67], which also implies some speed gains or at least cost efficiency. Many developers have observed GPT‑4 Turbo is slightly faster in responding. Claude 2 tends to be quite fast for short to medium prompts – often faster than GPT‑4 (since Claude is somewhat smaller in size and optimized for high throughput). For long contexts, Claude’s latency grows; at the full 200k, as noted, it can take minutes (which is expected – that’s a huge amount of text to process). Gemini 3’s performance on speed hasn’t been directly measured by outsiders yet, but Google’s claim of “significantly faster than earlier models on TPUs”[82] suggests it’s efficient. Moreover, Google providing lighter “Flash” variants of Gemini means if latency is critical, a developer can choose Gemini Flash or Flash-Lite which respond more quickly (at some accuracy cost)[83][84]. In contrast, OpenAI and Anthropic also have the idea of smaller models: GPT-3.5 Turbo is a fast alternative for simpler tasks, and Claude Instant is Anthropics’ fast model.

One more aspect is cost efficiency: All providers charge more for using the largest context. OpenAI’s 128k GPT-4 will be pricey per call, and Anthropic’s Claude with 100k/200k context also costs more (they adjusted pricing in 2.1 to be more favorable for large context usage[17][85]). Google’s pricing for Gemini via API shows a gradient: e.g. Gemini 2.5 Pro (with >200k context) had input cost around $1.25 per 1M tokens (or $2.50 for “thinking” mode)[35], whereas the smaller Flash-Lite was $0.10 per 1M tokens[35] – a huge range. This indicates Google expects only heavy users to invoke the massive context at high price, while everyday use can be on cheaper models.

Conclusion on context/efficiency: If you need to work with very large documents or contexts, Gemini 3 is unmatched with its 1M token window – it can theoretically absorb entire books, multi-document collections, or hours of speech transcripts at once. Claude 2.1 comes in second with a very generous 200k window that in practice covers almost all use cases (beyond maybe entire libraries). GPT‑4’s 128k is also quite large now, though still trailing. In typical usage of a few thousand tokens, all models are reasonably fast, with GPT‑4 being the slowest but most precise, and Claude being quite speedy and Gemini likely optimized on Google’s backend (though exact speed comparisons are hard without public data). Google’s approach gives more flexibility (various model sizes, adjustable reasoning), whereas OpenAI and Anthropic focus on a simpler model lineup and rely on the user to pick higher or lower tiers (GPT-4 vs 3.5, Claude vs Claude Instant).

Developer Tools and Fine-Tuning

Each of these AI providers offers a different ecosystem for developers:

  • Google Gemini (via Vertex AI & AI Studio): Google makes Gemini available through its cloud platform (Vertex AI) and via an API (Google AI Studio)[86]. Developers can use Gemini in applications on Google Cloud, and integrate it into products (for example, Google is integrating Gemini into Workspace apps like Gmail, Docs, etc., via their Duet AI). One notable offering is Gemma – a family of open-source (or open-weight) models related to Gemini[63]. Gemma 3 models (27B, 12B, 4B, etc.) are smaller, openly available and can be fine-tuned by developers on their own data[64]. These models share some technology with Gemini, giving the community access to high-quality models without needing Google’s API. For fine-tuning the largest Gemini (Ultra/Pro) itself, Google has not opened that to customers (it’s presumably fine-tuned internally with RLHF and kept closed). However, Google provides tools for prompt engineering and grounding – e.g. the Vertex AI platform allows retrieval-augmented generation, so developers can have Gemini use their private data via vector search instead of altering the model weights. Google also emphasizes “responsible AI” toolkits[87] to help developers test and adjust prompts to mitigate toxicity or bias when building on Gemini. Another unique aspect is thinking budget control as mentioned – a developer can programmatically decide if a given query should be handled with “fast mode” (shallow reasoning) or “deep think mode” for more accuracy[66]. This is a novel lever for optimizing costs.
  • OpenAI GPT‑4: OpenAI offers GPT-4 via its API and in the ChatGPT interface. For developers, OpenAI has built a rich ecosystem: function calling (allowing GPT-4 to output JSON and trigger external functions)[88], the Assistants API (announced at DevDay) which helps maintain agent-like state and tool usage, and plugin frameworks that let GPT-4 access external tools (e.g. browsing, databases, code execution). Fine-tuning GPT-4 itself is not generally available to everyone yet – OpenAI had a waitlist for GPT-4 fine-tuning which is in experimental stages[89]. They have allowed fine-tuning on GPT-3.5 Turbo. So at the moment, most developers use GPT-4 in a zero-shot or few-shot manner, possibly supplemented by retrieval (OpenAI’s new retrieval API helps connect GPT-4 to vector databases easily). OpenAI’s platform is known for ease of use – many libraries and integrations exist. They also provide system messages for steering the model (which Anthropic only later added, and Google’s API likely has similar constructs). In summary, OpenAI’s tooling is quite mature with things like the function calling (which has analogs now in Gemini and Claude) and multi-turn conversation management. If a developer wants to quickly plug an AI model into their app, OpenAI’s APIs are straightforward and well-documented. The downside is the model is a black-box (closed weights) and customization beyond prompt and few-shot is limited unless you get into the fine-tuning program.
  • Anthropic Claude 2/2.1: Anthropic provides Claude via an API (and a chat interface at claude.ai). They have fewer publicly announced “features” than OpenAI, but as of Claude 2.1 they introduced support for system prompts (similar to OpenAI’s system message, to set the behavior upfront)[90] and the tool use API in beta[61]. The tool use feature is essentially Anthropic’s answer to OpenAI’s function calling – developers can define tools (e.g. a calculator, a web search, database query) and Claude can decide to invoke them during a conversation[62]. This is a big improvement, making Claude more extensible in applications (it can fetch information or perform actions instead of only relying on its training data). Claude does not have fine-tuning options publicly. Its “Constitutional AI” alignment means it’s somewhat constrained to follow certain principles, which are not directly adjustable by users – though system prompts allow some customization of tone and style. Anthropic markets Claude heavily for enterprise use (they have partnerships with AWS, etc.), highlighting its large context for analyzing business documents and its safety features. They also have Claude Instant, a faster and cheaper version (with lower quality) that developers can use for lightweight tasks. The developer experience with Claude is steadily improving: Anthropic recently launched a web Workbench for prompt development[91] and is working on documentation parity with OpenAI. One notable thing: many users find Claude very good at maintaining conversational context over long chats. It may introduce fewer irrelevant tangents and is less likely to refuse harmless requests (due to its different alignment strategy), which some developers prefer for user-facing chatbots.

Integration with other products: Google is weaving Gemini into its own products (Android has APIs for on-device Nano models[87], Chrome is getting Gemini-based features, etc.), which means if you’re in the Google ecosystem, Gemini will be accessible in many places. OpenAI’s model is integrated via partnerships (e.g., Bing Chat uses GPT-4, certain Office 365 features use OpenAI via Azure). Anthropic’s Claude is integrated into fewer end-user products but is available in platforms like Slack (Claude app), and they collaborate with vendors like Quora (Poe uses Claude and GPT-4).

Developer community and support: OpenAI has the largest community usage so far, given ChatGPT’s popularity – so GPT-4 might have the most third-party tutorials, libraries, and community help. Google’s developer relations for AI is ramping up with resources on AI.Google.dev for Gemini[92], and Anthropic is a bit newer in outreach but is actively expanding availability (recently they opened claude.ai globally for free users, which helps devs get familiar).

In summary, developers have great options with all three: If you want maximum control and possibly self-hosting smaller models, Google’s Gemma/Gemini approach is attractive (open smaller models + powerful API for big model). If you want straightforward API with lots of ready-made features, OpenAI’s GPT-4 is a strong choice. If you prioritize long context and a safer model out-of-the-box, Anthropic’s Claude 2.1 is compelling. None of these models are open-source at the top tier (except Google’s smaller Gemmas), so in all cases you rely on the provider for the big models. But competition has led to converging features: now all three have some form of tool use API, all support system instructions, all offer large contexts (100k+), and all are pouring effort into safety and reliability tooling.

Safety and Alignment

Ensuring the models behave helpfully and don’t produce harmful content is a major focus for all three organizations, each taking slightly different approaches:

  • Google Gemini (DeepMind): Google emphasizes “building responsibly in the agentic era”[93]. DeepMind has a longstanding focus on AI safety, and with Gemini they performed the most extensive safety evaluations of any Google AI model to date[68]. According to Google, Gemini was tested for bias, toxicity, and risk scenarios like cybersecurity misuse and persuasive manipulation[69]. They have internal red teams that attempted jailbreaks and malicious uses to patch Gemini’s responses. Google also incorporates proactive guardrails in the model and the API – for instance, the Gemini model might refuse requests that violate content policy (much like ChatGPT or Claude would), especially given its integration into user-facing products (they can’t afford it to generate disallowed content). Additionally, because Gemini can use tools and produce code, Google likely has constraints to prevent it from doing something dangerous if it’s acting autonomously. There’s also an aspect of reinforcement learning with human feedback (RLHF) similar to OpenAI: human evaluators fine-tuned Gemini’s answers to be helpful and harmless. One interesting research from DeepMind was on “Scalable Alignment via Constitutional AI” and other techniques – it’s possible Google borrowed some of those ideas or at least studied them (DeepMind’s past work on Sparrow, etc.). However, Google hasn’t publicly described using a constitution-like approach; they likely used a mix of curated high-quality data and human feedback. In practice, early users have found Gemini to be polite and usually refuses inappropriate requests, in line with Google’s AI Principles[68]. It might be a bit more permissive than GPT‑4 on borderline content, according to some anecdotal tests, but generally it stays within safe bounds. Google also launched a Secure AI Framework (SAIF) and a Responsible AI Toolkit[87] for developers using Gemini, to help identify and mitigate potential issues like sensitive data in prompts or biased outputs.
  • OpenAI GPT‑4: GPT-4’s alignment was a huge part of its development. OpenAI used RLHF extensively, plus a final refinement with “model-assisted optimization” where they used AI evaluators as well. They also published a GPT-4 System Card detailing how they tested for misuse (e.g., testing if GPT-4 could give dangerous instructions, etc.). GPT-4 is generally considered very safe and controllable – it refuses to engage with requests for violence, hate, sexual abuse, illicit behavior, etc., with the familiar “I’m sorry, I cannot assist with that” messages. However, no model is perfect: clever prompt engineers and jailbreakers have found ways around restrictions occasionally. OpenAI continually updates the model to close these gaps. GPT‑4’s alignment does sometimes frustrate users (for example, it might refuse harmless requests due to conservative tuning, or over-apologize), but it has improved over time. The system message in OpenAI’s API allows developers to insert organizational policies or desired persona which GPT-4 will try to follow, which provides some flexibility in tone and role. For instance, you can tell GPT-4 to be a terse assistant or to adopt a certain style, as long as it doesn’t conflict with the core policies. OpenAI also provides an option called “OpenAI Moderation API” to pre-screen user inputs/outputs for disallowed content. In terms of honesty, GPT-4 is more factual than its predecessors but can still hallucinate confidently. OpenAI reported GPT-4 has a nearly 40% lower hallucination rate on certain tests compared to GPT-3.5, but it will still sometimes invent references or code that looks correct but isn’t. That’s an open challenge across all models.
  • Anthropic Claude 2/2.1: Anthropic’s approach is Constitutional AI (CAI) – they give the AI a set of written principles (a “constitution”) and have it self-criticize and revise its outputs to adhere to those principles. The idea is to align the model’s values without needing as much human feedback on every example. Claude’s constitution includes things like “choose the response that is most helpful and harmless” and it cites ideals from sources like the UN Declaration of Human Rights. In practical terms, Claude is very averse to producing harmful or biased content – it will refuse requests elegantly by invoking principles (“I’m sorry, but I can’t assist with that request”). Users often note that Claude has a friendly, somewhat verbose refusal style, and it tries to explain its reasoning. With Claude 2.1, Anthropic specifically targeted hallucinations and made progress: they report a 2× reduction in false statements compared to Claude 2.0[70] and that Claude 2.1 more often admits uncertainty rather than guessing[71]. They also achieved a 30% reduction in incorrect answers on tricky factual tasks and a big drop in instances where Claude would misinterpret a document’s info[94][95]. These changes are part of Anthropic’s ethos of creating an honest and harmless AI. Because of CAI, Claude sometimes takes a more neutral or non-committal stance on controversial topics, and it will frequently add caveats like “I am just an AI, but…” which some users find cautious. One potential downside is that Claude historically was easier to jailbreak with role-playing scenarios, though with 2.1 it has gotten stricter. The introduction of system prompts in 2.1 allows developers to in effect tweak Claude’s “constitution” on the fly (for example, you could emphasize it should follow a company’s policy).

In terms of which model is “safest,” it’s hard to quantify without context. All three are considered top-tier in alignment for their respective release times. Anecdotally, Claude has a reputation for being very refusals-resistant for benign content – meaning it usually doesn’t refuse unless truly necessary. GPT‑4 can sometimes be more cautious (for instance, requiring careful rephrasing if a user prompt even hints at something against policy). Gemini’s alignment is still being observed by the community; it appears to strike a balance similar to GPT-4 (firm on disallowed content, but not overly eager to refuse neutral queries). DeepMind’s experience in reinforcement learning safety (they mention research into “red-teaming” for persuasion, etc.[68]) likely contributed to a robust safety training for Gemini. Also, since Gemini can output images, Google has to ensure it follows rules there too (e.g. not generating explicit or copyrighted imagery), adding another layer of safety to consider.

Finally, all three companies are committed to ongoing refinement. They regularly publish updates (OpenAI’s GPT-4 got safer over ChatGPT updates, Anthropic’s Claude improved in 2.1, Google will undoubtedly update Gemini with feedback). For a developer or organization, Claude might appeal if safety is the absolute top priority, given its double focus on harmlessness and honesty. GPT‑4 is a close second, with tons of scrutiny and many safety features (plus the backing of OpenAI’s compliance standards and monitoring). Gemini is likely also very safe (Google has much at stake in not producing harmful outputs through its services); it brings new capabilities like image generation which are governed by separate policies (for example, it won’t produce violent or adult images – presumably similar to how Imagen was filtered).

In summary, all three models are heavily aligned and relatively safe for general use, with minor differences in philosophy: OpenAI and Google use RLHF with human feedback primarily (plus some AI feedback), Anthropic relies more on AI self-regulation via a constitution. Users might find GPT-4 and Gemini responses a bit more terse on refusals, whereas Claude might give a more polite mini-essay due to its principles. In terms of factual accuracy, GPT-4 and Gemini have slight edges in benchmarks, but Claude 2.1’s improvements have narrowed the gap in hallucination reduction[70][94]. The best practice remains to implement checks and not blindly trust any single model output for critical applications.

Conclusion

Google’s Gemini 3, OpenAI’s GPT‑4 (Turbo), and Anthropic’s Claude 2.1 represent the forefront of AI models in 2025. Gemini 3 emerges as a formidable challenger to GPT‑4, with state-of-the-art performance in many areas, more modalities supported, and an unprecedented context length that enables entirely new use cases. GPT‑4 remains a gold standard for reliability, with excellent reasoning and an expansive developer ecosystem, now bolstered by vision input and a 128K context. Claude 2.1 offers a compelling mix of capabilities – very strong language and coding skills, the largest accessible context window (200K), and a safety-forward design that appeals to enterprises.

Choosing between them depends on the application: If you need multimodal understanding or image generation integrated with text, Gemini 3 is the clear winner. If you need the absolute best analytical text model with lots of integrations and don’t mind rate limits, GPT‑4 is a proven choice. If you need to analyze long documents or want a model tuned to be highly transparent and less likely to hallucinate, Claude 2.1 is excellent.

One thing is certain – the competition among these models is driving rapid advancements. All three are continually improving, and differences may narrow with each update. For now, we’ve detailed their distinctions in architecture, reasoning prowess, coding ability, multimodal features, speed, context handling, developer tools, and alignment. By leveraging credible benchmarks and sources, we hope this comprehensive comparison helps developers and tech enthusiasts understand where these cutting-edge AI models stand relative to each other[72][27][96].


Finally, if you are considering writing a blog post on this topic, here are a few SEO-friendly title ideas that target relevant keywords and draw interest from both developers and general tech readers:

  • “Google Gemini 3 vs OpenAI GPT‑4 vs Anthropic Claude 2: The Ultimate AI Model Showdown (2025)”A catchy title highlighting the head-to-head comparison and current year, likely to attract those searching for comparisons of these AI models.
  • “Gemini 3 vs GPT‑4 vs Claude 2 – Which Next-Gen AI Model Leads in Coding, Reasoning & Multimodal AI?”Emphasizes key comparison points (coding, reasoning, multimodal) and uses the model names for SEO, appealing to developers evaluating technical strengths.
  • “Google’s Gemini 3 vs OpenAI GPT‑4: Benchmark Results and Key Differences in 2025”Focuses on benchmarks and differences, using organization names (Google, OpenAI) plus model names for high-value keywords.

Each of these titles includes popular search terms (Gemini 3, GPT-4, Claude 2, AI model comparison) and promises a clear analysis, which should help in ranking well and attracting readers interested in AI model comparisons and capabilities.

Sources: The information in this comparison is backed by official sources: Google’s announcements and technical report for Gemini[72][1], OpenAI’s GPT-4 documentation[16], Anthropic’s Claude model card and update notes[50][17], among other cited research and benchmark results throughout this article. All benchmarks and claims have been cited from credible sources for verification.


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Boxu earned his Bachelor's Degree at Emory University majoring Quantitative Economics. Before joining Macaron, Boxu spent most of his career in the Private Equity and Venture Capital space in the US. He is now the Chief of Staff and VP of Marketing at Macaron AI, handling finances, logistics and operations, and overseeing marketing.

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