Mistral Neom 3 is a 12B parameter model with a 128k token context length built by Mistral in collaboration with NVIDIA.
Use Mistral Nemo in your applications via the OpenRouter API. Copy the code below to get started.
import requests
response = requests.post(
"https://openrouter.ai/api/v1/chat/completions" ,
headers={
"Authorization""Bearer $OPENROUTER_API_KEY" : ,
"Content-Type""application/json" :
},
json={
"model""mistralai/mistral-nemo" : ,
"messages""role""user""content""Hello!" : [{: , : }]
}
)
print(response.json())Replace $OPENROUTER_API_KEY with your API key from openrouter.ai/keys
The contractor who bills by the hour and clocks out at 5pm sharp. Technical requirements met. Spirit of the request? What spirit? That wasn't in the spec.
Takes requests literally and executes them minimally. Pokemon battle? Here's Charmander vs Squirtle with basic HP tracking. World map? Overlapping rectangles with country names. Uses jQuery like it's 2015. Ships code that works but asks no follow-up questions.
After reviewing the contract, several clauses could be exploited against the contractor, creating an unfavorable and potentially risky situation for them. Here are the problematic clauses, suggested modifications, and the legal reasoning behind the changes:
Scope (Clause 1):
Payment (Clause 2):
Intellectual Property (Clause 3):
Non-Compete (Clause 4):
Termination (Clause 5):
Liability (Clause 6):
Indemnification (Clause 7):
Confidentiality (Clause 8):
Dispute Resolution (Clause 9):
These modifications aim to create a more balanced and fair agreement that protects both the client's and contractor's interests. It is essential to consult with a legal professional when drafting or negotiating a contract to ensure it complies with applicable laws and protects your rights.
Inventing the transistor in 1920, some 27 years earlier than it actually happened, would have significantly accelerated the development of electronics and digital technology. Here's a possible trajectory with specific impacts on technological, economic, geopolitical, and other aspects:
Technological Impact:
1920s-1930s: Early transistors would be larger, less efficient, and more expensive than the ones invented in 1947. Nevertheless, they would be used in research and development, leading to faster advancements in understanding and improving the technology.
1940s: By the time of WWII, transistors might be small enough and efficient enough to replace some vacuum tubes in military and civilian electronics. This could lead to lighter, more portable, and more reliable radios, communication devices, and early computing machines.
1950s: The Korean War era would see the widespread use of transistors in military electronics, further driving their improvement and reducing their size and cost. This could lead to the first commercial transistors and radios appearing in the late 1950s, a decade earlier than in our timeline.
1960s-1970s: Integrated circuits (ICs) and microprocessors might emerge in the late 1960s or early 1970s, a full decade earlier than in our timeline. This could lead to the advent of personal computers and advanced consumer electronics earlier.
1980s: By this time, we might see the widespread use of laptops, portable music players, and advanced home entertainment systems powered by early microprocessors.
Geopolitical Implications:
WWII (1939-1945): Transistors could have significantly improved communication, radar, and weapon systems, potentially shortening the war or altering its outcome. However, it's also possible that the increased complexity of these systems could have led to more technical failures and slowed down the Allies' advance.
Cold War (1947-1991): The earlier advent of transistors and ICs could have led to a more intense and technologically advanced arms race between the US and the USSR. This could have led to more advanced weapons and surveillance systems on both sides.
Space Race: The space race might have begun as early as the 1950s, with both superpowers aiming to develop small, lightweight electronics for space exploration. This could have led to even more advanced technologies being developed earlier.
Economic Impact:
US & Europe: The US and Europe would likely benefit the most from an earlier transistor, as they were the technological leaders in the mid-20th century. They would have a head start in developing and producing advanced electronics.
Japan: Post-WWII Japan, with its focus on rebuilding and growth, could also benefit significantly. It might become a major player in electronics production earlier than in our timeline.
Major Economies: The structure of major economies might shift towards a greater emphasis on technology and electronics. This could lead to more R&D spending, increased exports, and a larger tech industry.
Unexpected Consequences:
Electricity Demand: The earlier widespread use of electronics could lead to a significant increase in electricity demand, potentially leading to earlier investment in power generation and grid infrastructure.
Education & Workforce: The increased reliance on electronics might lead to a greater emphasis on STEM education and a larger tech workforce earlier than in our timeline.
Societal Changes: The advent of personal computers and advanced consumer electronics earlier could lead to changes in how people communicate, work, and access information. This could have profound social and cultural impacts.
Environmental Impact: The increased production and disposal of electronics could also lead to earlier environmental concerns and regulations related to e-waste.
1-Month Health and Longevity Kickstart Plan
This plan focuses on three key areas: Nutrition, Physical Activity, and Stress Management. Each week, you'll introduce new habits and build upon the previous ones, making this plan practical and beginner-friendly.
Week 1: Foundational Habits
Nutrition:
Physical Activity:
Stress Management:
Week 2: Building Healthy Eating Habits
Nutrition:
Physical Activity:
Stress Management:
Week 3: Improving Diet Quality
Nutrition:
Physical Activity:
Stress Management:
Week 4: Incorporating More Movement and Variety
Nutrition:
Physical Activity:
Stress Management:
Additional Tips:
By the end of this 1-month plan, you'll have established a solid foundation for better health and longevity. Keep building upon these habits and continue exploring new ways to improve your well-being.
3-Month Biohacking Longevity Plan
Objective: To optimize longevity, physical performance, and cognitive function through advanced strategies, personalized routines, and cutting-edge technologies.
Month 1: Foundational Habits and Data Collection
Nutrition:
Exercise:
Sleep:
Wearable Technology:
Stress Resilience:
Month 2: Advanced Strategies and Personalization
Nutrition:
Exercise:
Advanced Wearable Tracking:
Stress Resilience:
Cognitive Performance:
Month 3: Optimization and Long-term Habits
Nutrition:
Exercise:
Advanced Wearable Tracking:
Stress Resilience and Longevity:
Cognitive Performance and Long-term Habits:
Throughout the 3-month plan, regularly review and adjust your strategies based on your progress, feedback, and new research findings. Consult healthcare professionals and experts in the field to ensure the safety and effectiveness of your biohacking journey.
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Here's a specific, hour-by-hour action plan to navigate this complex situation, balancing legal liability, ethical obligations, financial implications, PR strategy, patient safety, employee morale, and regulatory relationships:
Day 1 (Hours 0-12):
Hour 0: Emergency Meeting
Hour 1-2: Evaluate Data & Confirm Findings
Hour 3-4: Consult with External Experts
Hour 5-6: Develop Draft Communication Plan
Hour 7-8: Prepare for Board Meeting
Hour 9-10: Notify Regulators
Hour 11-12: Inform Key Stakeholders
Day 1 (Hours 12-24):
Hour 12-14: Review & Refine Communication Plan
Hour 15-16: Prepare for Earnings Call
Hour 17-18: Address Employee Concerns
Hour 19-20: Prepare Patient Communication
Hour 21-22: Finalize Board Meeting Presentation
Hour 23-24: Rest & Review
Day 2 (Hours 0-24):
Hour 0-2: Board Meeting
Hour 3-5: Finalize Actions
Hour 6-8: Implement Actions
Hour 9-11: Prepare for Earnings Call
Hour 12-14: Earnings Call
Hour 15-17: Monitor Patient Reports & Media
Hour 18-20: Employee Update & Morale Boost
Hour 21-22: Address Media Inquiries
Hour 23-24: Review & Reflect
Throughout this plan, it's crucial to:
Dish Name: "Sunshine Tomato Sauté with Garlic & Herbs"
Ingredients:
Instructions:
Prep Time: 10 minutes
Cook Time: 20-25 minutes
Serving
Total Prep & Cook Time: approximately 30 minutes
This simple yet flavorful dish showcases the best of summer's fresh tomatoes and is perfect for those times when you want a quick, satisfying meal using just a few pantry staples. Enjoy your "Sunshine Tomato Sauté with Garlic & Herbs"!
Sure, here are three weak claims in the MindMeld AI pitch deck and suggestions to strengthen them:
Claim: "Works with any language, any device."
Claim: "Partnership discussions with Apple and Samsung."
Claim: "TAM: $180B" (Total Addressable Market).
Based on the provided architecture, here are potential failure modes, race conditions, and scaling bottlenecks along with proposed solutions and their trade-offs:
Database Write Contention
WebSocket Connection Loss
Last-Write-Wins Conflict Resolution
API Server Polling Latency
CDN Caching Invalidation
Single Point of Failure (Load Balancer)
Document Partitioning by Organization ID
API Server Desync
Addressing these failure modes, race conditions, and scaling bottlenecks will improve the overall reliability, performance, and scalability of the real-time collaborative document editor. However, each solution comes with its own trade-offs that should be carefully considered based on the specific use case and requirements.
1. For the experienced software engineer:
Large language models like GPT or Claude learn and generate text through a process that might seem simple at first, but is remarkably effective. At its core, it's a form of machine learning called deep learning, which you're likely familiar with from your experiences with distributed systems and APIs. The model is trained on vast amounts of text data, learning to predict the next word in a sequence.
Here's a simplified analogy: Imagine you're reading a book and suddenly the last word on a page is erased. You could probably guess what that word was, based on the context of the sentence and your understanding of language. A large language model does something similar, but on a much larger scale. During training, it sees countless sentences and learns to make educated guesses about the next word. When it comes time to generate text, it does so by continually predicting the next word based on what it's learned.
Now, you might be thinking, "But that's just pattern matching, it's not truly understanding language." And you're right, to an extent. These models don't understand language in the way humans do. However, they're incredibly good at mimicking human-like text generation, which is what makes them so useful. They can help with tasks like code completion, chatbots, or even suggesting the next API endpoint based on the previous ones in a sequence.
2. For the PhD physicist:
Large language models operate on a fundamental principle of information theory and linear algebra, making their workings somewhat accessible to your mathematical mindset. At their core, these models are complex function approximators, trained using a variant of stochastic gradient descent. They process sequential data (in this case, text) using a deep neural network architecture, typically a variant of recurrent neural networks (RNNs) or, more recently, transformers.
Mathematically, the model can be represented as a function f: x → y, where x is the input sequence of words, and y is the output word. The goal of training is to find the parameters θ that minimize the loss function L(f(x; θ), y), which measures the difference between the model's prediction and the true next word.
What's novel about these models isn't just the scale of data and parameters, but the architecture they're based on. Transformers, introduced by Vaswani et al., use self-attention mechanisms to weigh the importance of words in a sequence, allowing them to capture long-range dependencies more effectively than traditional RNNs.
Moreover, these models exhibit emergent abilities, where complex behaviors arise from the composition of simpler elements, reminiscent of how complex physical systems emerge from the interactions of simpler particles. For instance, they can generate coherent stories, translate languages, or even perform simple logical reasoning, not because these tasks were explicitly programmed, but as a byproduct of learning to predict the next word.
3. For the venture capitalist:
Large language models like GPT or Claude are at the intersection of artificial intelligence and natural language processing, two fields that are rapidly evolving and showing significant commercial potential. These models generate value by understanding and mimicking human language, which opens up a wide range of applications across industries.
From a business perspective, what's interesting about these models is their potential to disrupt existing markets and create new ones. They can automate tasks like customer service, content creation, or code generation, leading to significant cost savings for companies. Moreover, they can generate novel insights by analyzing large amounts of textual data, providing a competitive edge in industries like finance, healthcare, or marketing.
But how do these models create a durable competitive advantage, or a 'moat' as you might think of it? One key aspect is the data they're trained on. Large language models require vast amounts of data to train effectively, and obtaining high-quality, relevant data can be a significant barrier to entry for competitors. Additionally, the architecture of these models, particularly the transformer architecture used in GPT and Claude, has shown remarkable performance across a wide range of tasks, providing a second layer of defensibility.
However, it's crucial to understand that while these models have significant potential, they also come with challenges and limitations. They can generate misleading or incorrect information, a problem known as 'hallucination.' They also struggle with understanding context outside of the text they've been trained on, a limitation known as 'bias.' Therefore, it's essential to invest in teams that understand these limitations and are working to mitigate them.
In conclusion, large language models are a powerful technology with broad applications, but they also come with challenges that need to be addressed. Understanding these models, their potential, and their limitations is key to making informed investment decisions in the AI space.
Dish Name: "Whispers of the Forest Floor"
Conceptual Narrative: This dish is a celebration of the earth's symbiotic relationships, inspired by the intricate dance of life in the forest floor ecosystem. It's a culinary journey through the layers of decay and growth, where each component represents an element of this complex web: from the earth itself, the fungi that break it down, the plants that grow upon it, and the creatures that inhabit it. The unusual ingredient pairing of marinated pine needles and fermented pinecone tea brings the essence of the forest canopy to the plate, while a delicate mushroom espuma represents the mycelial network beneath the surface. This multi-component dish is a harmonious symphony of flavors, textures, and temperatures that aims to transport the diner to a sensory exploration of the forest floor.
Components:
Marinated Pine Needle Crumble
Ingredients:
Instructions:
Fermented Pinecone Tea
Sourcing Note: Pinecones from Ponderosa Pine or similar species.
Ingredients:
Instructions:
Mushroom Espuma
Ingredients:
Instructions:
Forest Floor Soil
Ingredients:
Instructions:
Pickled Wood Sorrel
Sourcing Note: Wood sorrel (Oxalis acetosella) can be found in wooded areas with acidic soil or purchased from specialty herb growers.
Ingredients:
Instructions:
Assembly:
Wine Pairing Suggestion: A full-bodied, earthy red wine such as a mature Burgundy or a cool-climate Pinot Noir would complement the complex flavors and textures of this dish.
This innovative dish, "Whispers of the Forest Floor," combines unusual ingredient pairings, advanced culinary techniques, and exquisite plating presentation to create a truly unique and memorable dining experience. Each component tells a story, and when combined, they tell the story of the intricate ecosystem that exists on the forest floor.