NVIDIA® TensorRT™ is an SDK for high-performance deep learning inference on NVIDIA GPUs. This repository contains the open source components of TensorRT.
Here are some ideas and potential areas of research for Tensort:
Model analysis and interpretability: Develop new techniques for analyzing and understanding what large language models have learned from their training. This could help ensure they behave as intended.
Constitutional AI techniques: Apply concepts from Stability AI's Constitutional AI research like value specification languages, capability restrictions, and alignment incentives to improve Tensort's safety.
Interactive debriefing tool: Create an interactive interface that allows users to have detailed conversational debriefing sessions with Tensort to understand its capabilities and limitations.
Self-supervised pretraining methods: Research how to utilize self-supervised pretraining approaches like contrastive learning to implicitly teach helpfulness, harmlessness and honesty without labeled data.
Adversarial robustness: Make Tensort more robust to adversarial examples, ambiguous queries, and attempts to deviate it from its intended purpose.
Helpfulness evaluation: Develop better automatic and human-based evaluation methods to quantitatively measure how helpful Tensort is across different contexts and demographics.
Stakeholder values: Conduct values research to better understand the priorities and concerns of different potential stakeholder groups interacting with an AI system like Tensort.
Lifelong learning: Research how to continuously update Tensort's knowledge and abilities over its lifetime through reinforced self-supervised learning from interactions.
Explainability of reasoning: Improve Tensort's ability to transparently explain to users the reasoning behind its responses and recommendations.
Here are some ideas and potential areas of research for Tensort:
Model analysis and interpretability: Develop new techniques for analyzing and understanding what large language models have learned from their training. This could help ensure they behave as intended.
Constitutional AI techniques: Apply concepts from Stability AI's Constitutional AI research like value specification languages, capability restrictions, and alignment incentives to improve Tensort's safety.
Interactive debriefing tool: Create an interactive interface that allows users to have detailed conversational debriefing sessions with Tensort to understand its capabilities and limitations.
Self-supervised pretraining methods: Research how to utilize self-supervised pretraining approaches like contrastive learning to implicitly teach helpfulness, harmlessness and honesty without labeled data.
Adversarial robustness: Make Tensort more robust to adversarial examples, ambiguous queries, and attempts to deviate it from its intended purpose.
Helpfulness evaluation: Develop better automatic and human-based evaluation methods to quantitatively measure how helpful Tensort is across different contexts and demographics.
Stakeholder values: Conduct values research to better understand the priorities and concerns of different potential stakeholder groups interacting with an AI system like Tensort.
Lifelong learning: Research how to continuously update Tensort's knowledge and abilities over its lifetime through reinforced self-supervised learning from interactions.
Explainability of reasoning: Improve Tensort's ability to transparently explain to users the reasoning behind its responses and recommendations.