Top 6 SOTA LLMs for Code, Web search, Research and More

In Artificial Intelligence, large language models (LLMs) have become essential, tailored for specific tasks, rather than monolithic entities. The AI world today has project-built models that have heavy-duty performance in well-defined domains – be it coding assistants who have figured out developer workflows, or research agents navigating content across the vast information hub autonomously. In this piece, we analyse some of the best SOTA LLMs that address fundamental problems while incorporating significant shifts in how we get information and produce original content.

Understanding the distinct orientations will help professionals choose the best AI-adapted tool for their particular needs while closely adhering to the frequent reminders in an increasingly AI-enhanced workstation environment.

Note: This is my experience with all the mentioned SOTA LLMs, and it may vary with your use cases.

1. Claude 3.7 Sonnet

Claude 3.7 Sonnet has emerged as the unbeatable leader (SOTA LLMs) in coding related works and software development in the constantly changing world of AI. Now, although the model was launched on February 24, 2025, it has been equipped with such abilities that can work wonders in areas beyond. According to some, it is not an incremental improvement but, rather, a break-through leap that redefines all that can be done with AI-assisted programming.

Unmatched Coding Capabilities

Claude 3.7 Sonnet distinguishes itself through unprecedented coding intelligence:

• End to End Software Development: From initial project conception to final deployment, Claude handles the entire software development lifecycle with remarkable precision.
• Comprehensive Code Generation: Generates high-quality, context-aware code across multiple programming languages.
• Intelligent Debugging: Possibly identifies, explains and solves complex coding problems with human-bean-like reasoning.
• Large Context Window: Supports up to 128K output tokens, enabling comprehensive code generation and complex project planning.

Key Strengths

• Hybrid reasoning: Unmatched adaptability to think and reason through complex tasks.
• Extended context window: Up to 128K output tokens (more than 15 times longer than previous versions).
• Multimodal merit: Excellent performance in coding, vision, and text-based tasks.
• Low hallucination: Highly valid knowledge retrieval and question answering.

Technological Innovations

Advanced Reasoning Capabilities

Claude 3.7 Sonnet introduces a revolutionary approach to AI reasoning, offering:

• Immediate response generation
• Transparent, step-by-step thinking processes can be observed.
• Fine-grained control over computational thinking time.

Versatile Use Cases

The model knows to excel in different things:

• Software Development: End-to-end coding support online between planning and maintenance.
• Data Analytics: Advanced visual data extraction from charts and diagrams
• Content Generation: Writing nuances with superior tone understanding
• Process Automation: Sophisticated instruction following and complex workflow management.

Hands-On Guide: Your First Claude 3.7 Sonnet Project

Prerequisites

• Anthropic Console account
• API key
• Python 3.7+ or TypeScript 4.5+

Step-by-Step Implementation

1. Install the Anthropic SDK

!pip install anthropic

2. Set Up Your API Environment

export ANTHROPIC_API_KEY='your-api-key-here'

3. Python Code Example: 

import anthropic
client = anthropic.Anthropic()
message = client.messages.create(
    model="claude-3-7-sonnet-20250219",
    max_tokens=1000,
    temperature=1,
    system="You are a world-class poet. Respond only with short poems.",
    messages=[
        {
            "role": "user",
            "content": [
                {
                    "type": "text",
                    "text": "Why is the ocean salty?"
                }
            ]
        }
    ]
)
print(message.content)

Output

[TextBlock(text="The ocean's salty brine,\nA tale of time and design.\nRocks
 and rivers, their minerals shed,\nAccumulating in the ocean's
 bed.\nEvaporation leaves salt behind,\nIn the vast waters, forever
 enshrined.", type='text')]

Best Practices

• Make use of the systems-specific prompts- be clear and specific 
• Experiment with temperature settings- it could steer you toward a new setting 
• Utilize the extended context window- for complex tasks, it can often lead to successful results

Pricing and Availability

• API Access: Anthropic API, Amazon Bedrock, Google Cloud Vertex AI
• Consumer Access: Claude.ai (Web, iOS, Android)
• Pricing:
  • $3 per million input tokens
  • $15 per million output tokens
  • Up to 90% cost savings with prompt caching
  • 50% cost savings with batch processing

Claude 3.7 Sonnet is not just some language model; it’s a sophisticated AI companion capable not only of following subtle instructions but also of implementing its own corrections and providing expert oversight in various fields.

Also Read:

• Document Analysis with Claude 3.7 Sonnet
• Claude 3.7 Sonnet: The Best Coding Model Yet?
• How to Access Claude 3.7 Sonnet API?
• Claude 3.7 Sonnet vs Grok 3: Which LLM is Better at Coding?

2. Gemini 2.0 Flash

Understanding Gemini 2.0 Flash

Google DeepMind has accomplished a technological leap with Gemini 2.0 Flash that transcends the limits of interactivity with multimodal AI. This is not merely an update; rather, it is a paradigm shift concerning what AI could do.

Key Technological Advancements

• Input Multimodalities: Built to take text, images, video, and audio inputs for seamless operation.
• Output Multimodalities: Produce images, text, as well as multilingual audio. 
• Built-in Tool Integration: Access tools for searching in Google, executing code, and other third-party functions. 
• Enhanced on Performance: Does better than any previous model and does so quickly.

Hands-On Guide: Code Execution with Gemini 2.0 Flash

Prerequisites

• Google Cloud account
• Vertex AI Workbench access
• Python environment

Installation and Setup

Before running the example code, you’ll need to install the Google AI Python SDK:

!pip install google-generativeai

Example: Calculating the Sum of the First 50 Prime Numbers

from google import genai
from google.genai import types
# Set up your API key
client = genai.Client(api_keyGoogle DeepMind="GEMINI_API_KEY")
# Create a prompt that requires code generation and execution
response = client.models.generate_content(
  model='gemini-2.0-flash',
  contents='What is the sum of the first 50 prime numbers? '
           'Generate and run code for the calculation, and make sure you get all 50.',
  config=types.GenerateContentConfig(
    tools=[types.Tool(
      code_execution=types.ToolCodeExecution
    )]
  )
)
# Print the response
print(response.text)

Output

Real-World Applications

Gemini 2.0 Flash enables developers to:

• Creating dynamic and interactive applications
• Performing detailed data analyses
• Generating and executing code on the fly
• Seamless integration of multiple data types

Availability and Access

• Experimental Model: Available via Gemini API
• Platforms: Google AI Studio, Vertex AI
• Input Modes: Multimodal input, text output
• Advanced Features: Text-to-speech, native image generation (early access)

Gemini 2.0 is not just a technological advance but also a window into the future of AI, where models can understand, reason, and act across multiple domains with unprecedented sophistication.

Also Read:

• Gemini 2.0 – Everything You Need to Know About Google’s Latest LLMs
• Gemini 2.0 Flash vs GPT 4o: Which is Better?

3. OpenAI o3-mini-high

The OpenAI o3-mini-high is an exceptional approach to mathematically solving problems and has advanced reasoning capabilities. The whole model is built to solve some of the most complicated mathematical problems with a depth and precision that are unprecedented. Instead of just punching numbers into a computer, o3-mini-high provides a better approach to reasoning about mathematics that enables reasonably difficult problems to be broken into segments and answered step by step.

The Essence of Mathematical Reasoning

Mathematical reasoning is where this model truly shines. Its enhanced chain-of-thought architecture allows for a far more complete consideration of mathematical problems, allowing the user not only to receive answers, but also detailed explanations of how those answers were derived. This approach is huge in scientific, engineering, and research contexts in which the understanding of the problem-solving process is as important as the result.

Performance Across Mathematical Domains

The performance of the model is really amazing in all types of mathematics. It can do simple computations as well as complex scientific calculations very accurately and very deeply. Its striking feature is that it solves incredibly complicated multi-step problems that would stump even the best standard AI models. For example, many complicated math problems can be broken down into intuitive steps with this awesome AI tool. There are several benchmark tests like AIME and GPQA in which this model performs at a level comparable to some gigantic models.

Unique Approach to Problem-Solving

What really sets o3-mini-high apart from anything is its nuanced approach to mathematical reasoning. This variant then takes more time than the standard model to process and explain mathematical problems. Although that means response tends to be longer, it avails the user of better and more substantiated reasoning. This model just does not answer; it takes the user through all the reasoning and processing, which really makes it an invaluable tool for educational purposes, research, or professional applications that require full-scale mathematics.

Considerations and Limitations

• Increased use of token 
• Slightly lower response time
• Higher Computational cost

Practical Applications in Mathematical Problem-Solving

In practice, o3-mini-high finds major value in scenarios where the application requires advanced mathematical reasoning. This ability to dissect difficult problems will be particularly helpful to scientific researchers, engineers, and advanced students. Whether developing intricately defined algorithms, addressing multi-step mathematical problems, or conducting thorough scientific calculations, this model literally offers a level of mathematical insight far beyond anything most people would ever expect from a traditional computational tool.

Technical Architecture and Mathematical Reasoning

Dense transformer framework forms the basis for the model architecture, enabling the performance of all mathematical problems in a closely defined way. Such an advanced model deals with various constraints and reasons out verified steps making it best suited for very advanced maths where computation alone cannot represent genuine mathematical understanding.

Hands-On: Practical Guide to Using o3-mini-high for Mathematical Problem-Solving

Step 1: Sign up for API Access

If you are not already part of the OpenAI beta program, you’ll need to request access by visiting OpenAI’s API page. Once you sign up, you may need to wait for approval to access the o3-mini models.

Step 2: Generate an API Key

Once you have access, log in to the OpenAI API platform and generate an API key. This key is necessary for making API requests. To generate the key, go to API Keys and click on “Create New Secret Key”. Once generated, make sure to copy the key and save it securely.

Step 3: Install the OpenAI Python SDK

To interact with the OpenAI API, you will need to install the OpenAI Python SDK. You can do this using the following command:

!pip install openai

Step 4: Initialize the OpenAI Client

After installing the OpenAI SDK, you need to initialize the client by setting up the API key:

import os
import openai
# Set your API key as an environment variable
os.environ["OPENAI_API_KEY"] = "your_api_key_here"

Step 5: Make Requests to the o3-mini-high Model

# Or configure the client directly
client = openai.OpenAI(api_key="your_api_key_here")
# Example chat completion request
response = client.chat.completions.create(
    model="o3-mini-high",
    messages=[
        {"role": "system", "content": "You are a helpful assistant."},
        {"role": "user", "content": "Write a function to calculate the Fibonacci sequence."}
    ],
    temperature=0.7,
    max_tokens=1500
)
# Print the response
print(response.choices[0].message.content)

Ideal Use Cases

O3-mini-high is particularly well-suited for:

• Advanced scientific calculations
• Complex algorithm development
• Multi-step mathematical problem solving
• Research-level mathematical analysis
• Educational contexts requiring detailed problem explanation

Most definitely, the OpenAI o3-mini-high entails a very considerable plus in mathematical reasoning, way beyond what one could expect of traditional computation. Combining advanced reasoning techniques with a thorough understanding of the methodology of solving mathematical problems, this model provides a real solution for anyone needing more than a mere quick answer.

Also Read:

• 5 o3-mini Prompts to Try Out Today
• Which o3-mini Reasoning Level is the Smartest?
• Is o3-mini Better Than o1 for Image Analysis?

4. ElevenLabs API

As AI evolves at breakneck speed, ElevenLabs stands out as a revolutionary technology that is forever changing the shape of how we work with audio tech. At its heart, the ElevenLabs API embodies an elaborate ecosystem of voice synthesis tools that give developers and producers ease and flexibility in creating very natural-sounding speech like never before.

Technological Capabilities

• Text-to-speech conversion
• Intricate Voice cloning technologies
• Real-time voice transformation
• Custom voice models
• Multiple language support for audio content creation

Technical Architecture and Functionality

The only difference between ElevenLabs and traditional voice synthesis tools is the underpinning used for voice generation: The former applies cutting-edge machine learning algorithms to encompass all the fine-grained subtleties in human speech. This API permits developers to fine-tune the parameters that affect the voice with remarkable precision. Users can change parameters representing emotion strength, similarity of reference voice, and intensity of speaking style, thereby giving an unprecedented degree of control over audio generation.

Installation and Integration

Step 1: Sign Up for ElevenLabs

Create an account at elevenlabs.io and select an appropriate subscription plan.

Step 2: Generate an API Key

In your ElevenLabs dashboard, navigate to the Profile section to create and copy your API key.

Step 3: Install the SDK

!pip install elevenlabs 

Step 4: Initialize the Client

from elevenlabs import set_api_key, generate, play, save
# Set your API key
set_api_key("your_api_key_here")

Step 5: Generate Voice Audio

# Generate speech with a pre-made voice
audio = generate(
    text="Hello world! This is ElevenLabs text-to-speech API.",
    voice="Rachel"
)
# Play the audio or save to file
play(audio)
save(audio, "output_speech.mp3")

Step 6: Voice Customization

from elevenlabs.api import Voice, VoiceSettings
audio = generate(
    text="This uses custom voice settings.",
    voice=Voice(
        voice_id="21m00Tcm4TlvDq8ikWAM",  # Rachel's voice ID
        settings=VoiceSettings(
            stability=0.7,
            similarity_boost=0.5
        )
    )
)

Voice Customization Capabilities

Real power behind ElevenLabs lies in very extensive customization. Developers can tweak voice settings down to minute details. The stability setting controls highlights of emotional variations, while the similarity boost settings increase voice replication accuracy. Such tools can be used to produce incredibly human-like voices with adjustable features for different use cases.

Practical Applications

• Narratives are being created as audiobooks by content creators with consistent and high-quality narration. 
• A school can provide interactive learning experiences through an e-learning platform. 
• Dynamic characters can have their voices adapted to the narrative context by gaming companies. 
• Accessibility tools can deliver even livelier, more personal audio experiences for users having visual impairment.

Best Practices and Considerations

With such power comes the need for careful implementation considerations. API key security must be prioritized, rate limits must be respected, and error handling must have a priority in implementation. Cashing the generated audio will prove to be a performance booster, while eliminating a few API calls. A good awareness of these aspects may grant smooth integration, coupled with optimal utilization of the capabilities offered by the platform.

Cost and Accessibility

ElevenLabs have come up with a pricing system which is considered to be inclusive and flexible. The free tier supports developers to play and prototype, whereas advanced use cases use pay-as-you-go and subscription models. The token-based pricing is an advantage as it allows developers to pay only for the resources consumed according to the needs of a project, no matter the scale.

Troubleshooting and Support

The platform recognizes that working with advanced AI technologies can present challenges. 

• Provide comprehensive documentation and support mechanisms
• Verifying API key permissions
• Checking network connectivity
• Ensuring compatibility of audio file formats

Future of Voice Technology

More than an API, ElevenLabs is a glimpse into the future of human-computer interaction. The platform is indeed taking down barriers by democratizing high-end voice synthesis technologies that could open doors to advanced communication, entertainment, and accessibility.

For developers and creators who want to push the edges of audio technology, ElevenLabs provides a fittingly powerful and flexible solution. Consider its features and customization options; innovators can then put them to use in creating engaging audio experiences that sound natural, and pretty much anything else that these innovators wish to accomplish.

5. OpenAI Deep Research

In an increasingly developing arena for large language models, OpenAI’s Deep Research is a pioneering solution specifically designed for exhaustive research. Contrary to the usual LLMs, which are good in either text generation or coding, Deep Research is an absolutely new paradigm in itself concerning how an AI can autonomously navigate, synthesize, and document information from all over the web.

The Research Powerhouse

Deep Research is far more than the latest development of ChatGPT with browsing capability is, rather, an independent agent built on OpenAI’s upcoming o3 reasoning model, turning upside-down what AI research can do in essence. Where typical LLMs concern themselves only with the prompt, Deep Research engages a topic with much more thoroughness and full documentation. 

This tool stands apart from the rest in terms of its independent workflow for research:

• Multistage Investigation: It navigates through hundreds of sources on the open web
• Covers Reading: Through Text, PDF, Image, and Various other Content Format
• Structured Synthesis: Data is transformed into a coherent, well-organized report
• Clear Documentation: All source documents get perfectly cited.

Benchmark-Breaking Performance

Deep Research’s capabilities aren’t just marketing claims—they’re backed by impressive benchmark performance that demonstrates its research superiority:

• Humanity’s Last Exam: Achieved 26.6% accuracy, dramatically outperforming previous models like OpenAI’s o1 (9.1%), DeepSeek-R1 (9.4%), and Claude 3.5 Sonnet (4.3%)
• GAIA Benchmark: Set new state-of-the-art records across all difficulty levels, with particularly strong performance on complex Level 3 tasks requiring multi-step reasoning

The performance’s ability to scale with the complexity of tasks is especially interesting. According to OpenAI’s internal evaluations, Deep Research’s accuracy increases with the number of tool calls. Thus, research paths explored parallel higher quality in the final output.

Implement the Research Agent

Follow the detailed guide in the article to build your Deep Research Agent:
👉 Build Your Own Deep Research Agent

The article will walk you through:

1. Setting up OpenAI and Tavily Search API keys.
2. Configuring LangChain and LangGraph for task automation.
3. Building a system to perform research, summarize data, and generate reports.

When Traditional LLMs Fall Short?

Standard language models excel at generating text, answering questions, or writing code based on their training data. However, they fundamentally struggle with:

• Accessing current, specialized knowledge beyond their training data
• Systematically exploring multiple information sources
• Providing verifiable citations for their outputs
• Conducting multi-hour research tasks that would overwhelm human researchers

A meticulous research assistant is what actually Deep Research is, and that’s how it overcomes various limitations. Instead of acting like a typical chatbot, it helps in investigating research and evaluation to compile. This fundamentally alters how knowledge workers can use such things as AI.

Real-World Application Advantage

For professionals conducting serious research, Deep Research offers distinct advantages over traditional LLMs:

• Finance professionals can receive comprehensive market analyses with citations to authoritative sources
• Scientists can gather literature reviews across hundreds of publications in minutes rather than days
• Legal researchers can compile case precedents and statutory references with proper citation
• Consumers making high-stakes purchasing decisions can receive detailed, multi-factor comparisons

The tool particularly shines in scenarios requiring 1-3 hours of human research time—tasks too complex for quick web searches but not so specialized that they require proprietary knowledge sources.

The Future of AI Research Assistants

Deep Research is the first of a new breed of AI tools that will focus on research autonomously. Still very much in the early stages and subject to the occasional error and confusion regarding the fast-changing state of affairs, it nonetheless shows AI moving beyond simple text generation into genuine partnership in research.

Future improvements being planned while OpenAI continues with its development are:

• Improved visualization for data
• Embedded images support
• Access to private and subscription-based data sources
• Mobile integration

Deep research is the sort of AI that would give knowledge workers and research professionals a sneak preview of how machines will change the gathering and synthesis of information in the future.

6. Perplexity AI

Perplexity AI is the latest entrant in the fiercely competitive domain of AI search tools owing to its huge potential in confronting the incumbents such as Google, Bing, and ChatGPT browsing capabilities. But it is not just the actual web-surfing capability that sets Perplexity apart; instead, it is the mechanism of delivering, showcasing, and integrating information that is reinventing search experience.

A New Paradigm in Search Technology

Contrary to conventional search engines, which usually yield results in the form of hyperlinks necessitating further exploration, here is a fundamentally different approach:

• Direct Answer: Comprehensive and digestible information is provided without the need for users to delve into multiple websites.
• Rich Video Integration: Searches directly include relevant images, videos, and other media to further this purpose.
• Clear Source Attribution: All information comes with clear citations for ease in verification.
• Ad-free experience: Information is presented free from the clutter of sponsored content or advertisements.

Thus research is transformed from a multi-step process into what is essentially an informative experience with enormous savings in terms of time and disinvestment of cognitive energy.

Key Features That Drive Performance

Quick Search vs. Pro Search

Perplexity offers two distinct search experiences:

Quick Search provides rapid, concise answers to straightforward queries—ideal for fact-checking or basic information needs.

Pro Search represents a significant evolution in search technology by:

• Engaging users in conversational discovery
• Asking clarifying questions to understand search intent
• Delivering personalized, comprehensive results based on user preferences
• Drawing from diverse sources to provide balanced information
• Summarizing complex topics into digestible formats

Installation and Integration

To implement Perplexity AI for web search, you’ll need to use their API. Below is a step-by-step guide on how to install and implement Perplexity AI for web search using Python.

Step 1: Obtain an API Key

1. Register on Perplexity: Go to Perplexity’s website and register for an account.
2. Generate API Key: After registration, navigate to your account settings to generate an API key.

Step 2: Install Required Packages

You’ll need requests for making HTTP requests and optionally python-dotenv for managing API keys.

!pip install requests python-dotenv

Step 3: Implement Perplexity AI Search

Here’s a basic example of how to use Perplexity’s API for a web search:

import requests
import os
from dotenv import load_dotenv
# Load API key from .env file if using
load_dotenv()

# Set API key
PERPLEXITY_API_KEY = os.getenv('PERPLEXITY_API_KEY')
def perplexity_search(query):
    url = "https://api.perplexity.ai/chat/completions"
    headers = {
        'accept': 'application/json',
        'content-type': 'application/json',
        'Authorization': f'Bearer {PERPLEXITY_API_KEY}'
    }

    data = {
        "model": "mistral-7b-instruct",
        "stream": False,
        "max_tokens": 1024,
        "frequency_penalty": 1,
        "temperature": 0.0,
        "messages": [
            {
                "role": "system",
                "content": "Provide a concise answer."
            },
            {
                "role": "user",
                "content": query
            }
        ]
    }
    response = requests.post(url, headers=headers, json=data)
    if response.status_code == 200:
        return response.json()
    else:
        return None
# Example usage
query = "How many stars are in the Milky Way?"
response = perplexity_search(query)
if response:
    print(response)
else:
    print("Failed to retrieve response.")

Perplexity AI offers a range of models for web search, catering to different needs and complexity levels. The default model is optimized for speed and web browsing, providing fast and accurate answers suitable for quick searches. For more advanced tasks, Perplexity Pro subscribers can access models like GPT-4 Omni, Claude 3.5 Sonnet, and others from leading AI companies. These models excel in complex reasoning, creative writing, and deeper analysis, making them ideal for tasks requiring nuanced language understanding or advanced problem-solving. Additionally, Perplexity Pro allows users to perform in-depth internet searches with access to multiple sources, enhancing the breadth and depth of search results. This variety of models empowers users to choose the best fit for their specific requirements, whether it’s a simple query or a more intricate research task.

Integration Capabilities

Perplexity extends beyond standalone search through powerful integrations:

• GitHub Copilot Extension: Allows developers to access up-to-date information, documentation, and industry trends without leaving their IDE
• File Upload Functionality: Enables users to search within and contextualize their own documents
• Spaces and Threads: Organizes research projects with collaborative features for team environments

Real-World Application Strengths

Perplexity demonstrates particular excellence in several key areas:

1. Information Discovery

When searching for current events like the Notre-Dame cathedral restoration, Perplexity delivers comprehensive summaries with key dates, critical details, and multimedia content—all presented in an easily digestible format.

2. Professional Research

For business and professional users, Perplexity excels at:

• Competitive analysis
• Market research
• Product comparison
• Technical documentation

3. Academic Applications

Students and researchers benefit from:

• Literature reviews across diverse sources
• Balanced perspectives on complex topics
• Clear citations for reference verification

4. Practical Planning

Daily tasks become more efficient with Perplexity’s approach to:

• Travel planning with comprehensive destination information
• Product research with comparative analysis
• Recipe discovery and customization

How It Compares to Other Leading Tools?

When contrasted with other top search and AI solutions:

Versus Google/Bing:

• Eliminates the need to navigate through multiple search results
• Removes sponsored content and advertisements
• Provides direct answers rather than just links
• Integrates multimedia content more seamlessly

Versus ChatGPT:

• Delivers more up-to-date information with real-time search
• Provides clearer source citations
• Formats information more effectively with integrated media
• Offers faster results for factual queries

Optimization Tips for Power Users

To maximize Perplexity’s capabilities:

1. Strategic Prompting:
   • Use specific keywords for focused results
   • Upload relevant files for contextual searches
   • Leverage Pro Search for complex research needs
2. Personalization Options:
   • Adjust language preferences, output formats, and tone
   • Update profile information to improve relevance
   • Organize research in themed Spaces
3. Collaboration Features:
   • Share Threads publicly when collaboration is beneficial
   • Invite contributors to Spaces for team research
   • Flexibly adjust privacy settings based on project needs

The Future of AI-Powered Search

Perplexity is more than a search tool; it heralds a paradigm change in how we interact with information online. Perplexity has laid its foundation in bridging the best aspects of search with AI: while traditional search engines were designed and built as if they would remain dominant. 

For users looking for a more efficient, complete, and transparent means for information discovery, Perplexity is giving a glimpse into the future of search: where finding information is less about clicking on links and more about receiving contextually verified knowledge directly.

Also Read:

• Perplexity Deep Research Takes on OpenAI & Gemini
• Perplexity AI Mobile Assistant – The Master AI App We All Need
• Perplexity Sonar API: Reliable, Scalable, and Developer-Friendly

Conclusion

The age of generalist AI is fading as specialized SOTA LLMs take center stage. OpenAI’s Deep Research automates complex, citation-backed inquiries, while Perplexity AI transforms web search with rich media results. These aren’t mere upgrades—they’re a paradigm shift in how we access and apply knowledge.

Success won’t hinge on choosing a single AI but on leveraging the right tool for the task. By integrating these specialized systems, knowledge workers can achieve unprecedented productivity, deeper insights, and smarter decision-making. The future belongs not to one dominant AI but to an ecosystem of expert-driven models.