NotesarXiv:2312.04714v3
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles
[Claude classification]: Authors use deep learning (Sentence-T5) as analytical tool to construct the exposure measure, not as the technology being studied. Paper studies AI in general based on USPTO patents classified by WIPO PATENTSCOPE AI Index. Validation uses historical case studies (robots/software) with DiD-style analysis controlling for industry effects, education, wage polarization, and offshorability. Thematic analysis identifies healthcare, IT, and manufacturing as key impacted sectors. Paper distinguishes automation vs. augmentation following Autor et al. 2022 methodology using Census micro-titles