 OpenAI - AI in the Enterpriseinterconnected workflows and systems. We’re seeing AI deliver significant, measurable improvements on three fronts: 01 Workforce performance Helping people deliver higher-quality outputs in shorter time from users and stakeholders. Our approach: iterative development OpenAI is organized around three teams. Our Research Team advances the foundations of AI, developing new models and capabilities on repetitive tasks, they could offer more and better insights to clients. They started with three model evals: 01 Language translation Measuring the accuracy and quality of translations produced0 码力 | 25 页 | 9.48 MB | 5 月前3 OpenAI - AI in the Enterpriseinterconnected workflows and systems. We’re seeing AI deliver significant, measurable improvements on three fronts: 01 Workforce performance Helping people deliver higher-quality outputs in shorter time from users and stakeholders. Our approach: iterative development OpenAI is organized around three teams. Our Research Team advances the foundations of AI, developing new models and capabilities on repetitive tasks, they could offer more and better insights to clients. They started with three model evals: 01 Language translation Measuring the accuracy and quality of translations produced0 码力 | 25 页 | 9.48 MB | 5 月前3
 Google 《Prompt Engineering v7》generative AI (gen AI) model you are using. As a general rule of thumb, you should use at least three to five examples for few-shot prompting. However, you may need to use more examples for more complex easier to analyze how each prompt type influences the language model’s output. Let’s dive into these three different kinds of prompts. System prompting Table 3 contains a system prompt, where I specify additional Step-back prompting encourages LLMs to think critically and apply their knowledge in new and creative ways. It changes the final prompt doing the task by utilizing more knowledge in the LLM’s parameters than0 码力 | 68 页 | 6.50 MB | 6 月前3 Google 《Prompt Engineering v7》generative AI (gen AI) model you are using. As a general rule of thumb, you should use at least three to five examples for few-shot prompting. However, you may need to use more examples for more complex easier to analyze how each prompt type influences the language model’s output. Let’s dive into these three different kinds of prompts. System prompting Table 3 contains a system prompt, where I specify additional Step-back prompting encourages LLMs to think critically and apply their knowledge in new and creative ways. It changes the final prompt doing the task by utilizing more knowledge in the LLM’s parameters than0 码力 | 68 页 | 6.50 MB | 6 月前3
 Trends Artificial Intelligence
citizens via connected devices; ever-growing digital datasets that have been in the making for over three decades; breakthrough large language models (LLMs) that – in effect – found freedom with the November adapt to this evolving journey as knowledge – and its distribution – get leveled up rapidly in new ways. Special thanks to Grant Watson and Keeyan Sanjasaz and BOND colleagues who helped steer ideas and out to ‘organize the world’s information and make it universally accessible and useful.’ Nearly three decades later – after some of the fastest change humankind has seen – a lot of information is indeed0 码力 | 340 页 | 12.14 MB | 4 月前3 Trends Artificial Intelligence
citizens via connected devices; ever-growing digital datasets that have been in the making for over three decades; breakthrough large language models (LLMs) that – in effect – found freedom with the November adapt to this evolving journey as knowledge – and its distribution – get leveled up rapidly in new ways. Special thanks to Grant Watson and Keeyan Sanjasaz and BOND colleagues who helped steer ideas and out to ‘organize the world’s information and make it universally accessible and useful.’ Nearly three decades later – after some of the fastest change humankind has seen – a lot of information is indeed0 码力 | 340 页 | 12.14 MB | 4 月前3
 OpenAI 《A practical guide to building agents》to building agents Agent design foundations In its most fundamental form, an agent consists of three core components: 01 Model The LLM powering the agent’s reasoning and decision-making 02 Tools External discoverability, simplify version management, and prevent redundant definitions. Broadly speaking, agents need three types of tools: Type Description Examples Data Enable agents to retrieve context and information guide to building agents Multi-agent systems While multi-agent systems can be designed in numerous ways for specific workflows and requirements, our experience with customers highlights two broadly applicable0 码力 | 34 页 | 7.00 MB | 6 月前3 OpenAI 《A practical guide to building agents》to building agents Agent design foundations In its most fundamental form, an agent consists of three core components: 01 Model The LLM powering the agent’s reasoning and decision-making 02 Tools External discoverability, simplify version management, and prevent redundant definitions. Broadly speaking, agents need three types of tools: Type Description Examples Data Enable agents to retrieve context and information guide to building agents Multi-agent systems While multi-agent systems can be designed in numerous ways for specific workflows and requirements, our experience with customers highlights two broadly applicable0 码力 | 34 页 | 7.00 MB | 6 月前3
 DeepSeek-V2: A Strong, Economical, and Efficient
Mixture-of-Experts Language Modelinput of the ?-th token at an attention layer. Standard MHA first produces q?, k?, v? ∈ R?ℎ?ℎ through three matrices ??,? ?,?? ∈ R?ℎ?ℎ×?, respectively: q? = ??h?, (1) k? = ? ?h?, (2) v? = ??h?, (3) 6 Grouped-Query unbal- anced load will diminish computation efficiency. During the training of DeepSeek-V2, we design three kinds of auxiliary losses, for controlling expert-level load balance (LExpBal), device-level load results for 7B dense models with MHA, GQA, and MQA on four hard benchmarks in Table 8. All of these three models are trained on 1.33T tokens, and share the same architecture except for the attention mechanisms0 码力 | 52 页 | 1.23 MB | 1 年前3 DeepSeek-V2: A Strong, Economical, and Efficient
Mixture-of-Experts Language Modelinput of the ?-th token at an attention layer. Standard MHA first produces q?, k?, v? ∈ R?ℎ?ℎ through three matrices ??,? ?,?? ∈ R?ℎ?ℎ×?, respectively: q? = ??h?, (1) k? = ? ?h?, (2) v? = ??h?, (3) 6 Grouped-Query unbal- anced load will diminish computation efficiency. During the training of DeepSeek-V2, we design three kinds of auxiliary losses, for controlling expert-level load balance (LExpBal), device-level load results for 7B dense models with MHA, GQA, and MQA on four hard benchmarks in Table 8. All of these three models are trained on 1.33T tokens, and share the same architecture except for the attention mechanisms0 码力 | 52 页 | 1.23 MB | 1 年前3
 TVM Meetup Nov. 16th - Linaro● Public mailing lists and IRC channel ● Internal Jira project restricted to Linaro members ● Three sub-projects: ○ Arm Compute Library ○ Arm NN ○ Android NN Driver ● Arm Compute Library has been0 码力 | 7 页 | 1.23 MB | 5 月前3 TVM Meetup Nov. 16th - Linaro● Public mailing lists and IRC channel ● Internal Jira project restricted to Linaro members ● Three sub-projects: ○ Arm Compute Library ○ Arm NN ○ Android NN Driver ● Arm Compute Library has been0 码力 | 7 页 | 1.23 MB | 5 月前3
 TVM@AliOSV1 Mobilenet V2 国TVM/MNN @A53 目TVM/MNN @A72 /NiiOS ! 驱动万物智能 PART THREE AliOos TVM @ Hexagon DSsP AiOS 1驱动万物智能 Alios TVM @ Hexagon DSP 人NiOS ! 驱动万物知 Tensorflow deploy0 码力 | 27 页 | 4.86 MB | 5 月前3 TVM@AliOSV1 Mobilenet V2 国TVM/MNN @A53 目TVM/MNN @A72 /NiiOS ! 驱动万物智能 PART THREE AliOos TVM @ Hexagon DSsP AiOS 1驱动万物智能 Alios TVM @ Hexagon DSP 人NiOS ! 驱动万物知 Tensorflow deploy0 码力 | 27 页 | 4.86 MB | 5 月前3
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