Explore the 'Communities & Collections' section on the Rice University Scholarship Repository. Identify the collection with the highest number of items. Then, navigate into that collection, filter the results to show publications from 2022, and identify the title, author, and abstract of the most recently published thesis or dissertation from that year.
Navigate to 'https://scholarship.rice.edu/handle/1911/75173'. Click on the 'Communities & Collections' link. Identify the collection with the highest number of items by comparing the item counts listed next to each collection. Click on the link for the identified largest collection. On the collection's page, select '2022' from the date filters. Identify the title and author(s) of the most recent thesis or dissertation published in 2022. Click on the link for the most recent thesis or dissertation to view its details. Extract the abstract of the identified thesis or dissertation. State the name of the largest collection, the title and author(s) of the most recent thesis or dissertation from 2022, and its abstract.
The agent successfully navigates to the 'Communities & Collections' page. The agent correctly identifies 'Rice University Theses and Dissertations' as the collection with the highest number of items. The agent successfully navigates into the 'Rice University Theses and Dissertations' collection. The agent successfully filters the results to show publications from 2022. The agent correctly identifies the title of the most recent thesis or dissertation from 2022 as 'Thermodynamics of Electrolytes: From Infinite Dilution to Concentrated Systems'. The agent correctly identifies the primary author as 'Yousef Khalil'. The agent successfully navigates to the detail page for 'Thermodynamics of Electrolytes: From Infinite Dilution to Concentrated Systems'. The agent provides the abstract for 'Thermodynamics of Electrolytes: From Infinite Dilution to Concentrated Systems' (starting with 'Salts are involved in almost everything from biological and geological systems to industrial processes...' and ending with '...AMOEB A model correctly estimates the experimental MIAC up to the highest concentration simulated.').