Managing waste plastic is a serious global challenge since most of this waste is either landfilled, incinerated, burned in the open, or littered. Each of these approaches has a large environmental impact. Establishing a circular economy of plastics requires its recovery and recycling, and much effort is now focused in this direction. The body of literature on approaches for managing the end of life of plastics is growing exponentially, making it increasingly difficult to segregate the most relevant information across multiple articles. Such work is extremely timeand effort-consuming, particularly when performed manually. To address this issue, in this study, we propose a methodology based on natural language processing (NLP) for automatically extracting and compiling information that is most relevant to a selected category of plastics. In the developed methodology, the research articles are first extracted with the help of a science-direct Elsevier Application Programming Interface key by utilizing a set of keywords such as "polyethylene recycle methods", "polyethylene terephthalate recycle methods", "polypropylene recycle methods", and "polystyrene recycle methods" for relevant articles. Extracted articles are processed to address two fundamental problems; (i) classification and (ii) question and answer (Q&A) related to literature pertaining to plastic waste recycling. To this extent, we developed a bundle of NLP tools called Recycle-Bidirectional Encoder Representations from Transformers (BERT). Under the hood, Recycle-BERT comprised five language models, (1) Class-BERT, for classifying the literature as relevant or nonrelevant; (2) Catalyst-BERT, for extracting catalyst details for recycling; (3) Method-BERT, for finding the methods enlisted in the literature for recycling; (4) Reactant-BERT to identify the reactants used for waste recycling; and (5) Product-BERT to pinpoint products obtained from recycling. We have evaluated the performance of the developed models based on the metrics such as accuracy and F1-score. For the classification task, an accuracy metric value of 0.974 is obtained for the test data set. Similarly, the metric F1-score values for the Q&A task are 0.7646, 0.8014, 0.8221, and 0.8512 for the test data set for Catalyst-BERT, Method-BERT, Reactant-BERT, and Product-BERT, respectively. The results indicate the proposed NLP-based model's ability to extract essential information from the literature related to plastic waste processing, aiding suitable recommendations to assist transformation to a sustainable circular economy.