Abstract: A computer-implemented method for searching a product corresponding to a query from a customer. The method includes: embedding the query to obtain a query embedding; retrieving product information having a product text and a product image; embedding the product text to obtain a product text embedding, embedding the product image to obtain a product image embedding, and combining the product text embedding and the product image embedding to obtain a product embedding, where the product image embedding has a same format as the product text embedding; subjecting the query embedding and the product embedding to a transformer to determine whether the query and the product are relevant; and providing the product as a search result of the query when the query and the product are relevant.

Abstract: In the technical field of plant medicines, disclosed is the application of aloesin in the preparation of products for preventing or treating obesity. Research has found that aloesin can inhibit lipid accumulation, increase the expression of browning genes UCP1 and PRDM16 and transcription factor C-EBPa, increase the expression and release of specific factor adiponectin, and inhibit the release of non-specific factor IL-1?, indicating that aloesin can mediate the browning of 3T3-L1 adipocytes, and aloesin can be used to prepare products for preventing or treating obesity.

Abstract: The present invention provides a Comamonas testosteroni strain and use thereof for the synthesis of 5-hydroxymethyl-2-furancarboxylic acid, wherein the strain is Comamonas testosteroni SC1588, maintained in China Center for Type Culture Collection, CCTCC for short, on Oct. 13, 2016, with an accession number of CCTCC NO: M 2016562.

Abstract: Refining cluster definition: (i) receiving data items, each characterized by values respectively corresponding to a set of dimension(s); (ii) receiving initial cluster identification that divides the set of data items into multiple initial clusters; (iii) determining a distribution curve, with respect to a first dimension, of data items of a first initial cluster; (iv) determining a distribution curve, with respect to the first dimension, of data items of a second initial cluster; and (v) determining a first-dimension-first-cluster-second-cluster cut-off value such that the following two proportions are substantially equal: (a) a proportion of the area under the first distribution curve and below the first-dimension-first-cluster-second-cluster cut-off value to the total area under the first distribution curve, and (b) a proportion of the area under the second distribution curve and above the first-dimension-first-cluster-second-cluster cut-off value to the total area under the second distribution curve.

Abstract: A subset of (k?1)-dimensional tables are received, wherein k is greater than 1. A set of k-dimensional tables is created by combining each of the (k?1)-dimensional tables with a non-included dimension corresponding to a 1-dimensional table. Significance of interaction and interaction effect size is computed for the created set of k-dimensional tables to determine dimension and measure interactions.

Abstract: A subset of (k?1)-dimensional tables are received, wherein k is greater than 1. A set of k-dimensional tables is created by combining each of the (k?1)-dimensional tables with a non-included dimension corresponding to a 1-dimensional table. Significance of interaction and interaction effect size is computed for the created set of k-dimensional tables to determine dimension and measure interactions.

Abstract: Provided are techniques for analyzing fields. Statistical metrics for each field in a data set are received. A general interestingness index is generated for each field using one or more combination functions that aggregate standardized interestingness sub-indexes. One or more fields are identified as interesting for further analysis using the general interestingness index. One or more expert recommendations for field transformations are constructed for the identified one or more fields.

Abstract: Provided are techniques for analyzing fields. Statistical metrics for each field in a data set are received. A general interestingness index is generated for each field using one or more combination functions that aggregate standardized interestingness sub-indexes. One or more fields are identified as interesting for further analysis using the general interestingness index. One or more expert recommendations for field transformations are constructed for the identified one or more fields.

Abstract: A subset of (k?1)-dimensional tables are received, wherein k is greater than 1. A set of k-dimensional tables is created by combining each of the (k?1)-dimensional tables with a non-included dimension corresponding to a 1-dimensional table. Significance of interaction and interaction effect size is computed for the created set of k-dimensional tables to determine dimension and measure interactions.

Abstract: Provided are techniques for analyzing fields. Statistical metrics for each field in a data set are received. A general interestingness index is generated for each field using one or more combination functions that aggregate standardized interestingness sub-indexes. One or more fields are identified as interesting for further analysis using the general interestingness index. One or more expert recommendations for field transformations are constructed for the identified one or more fields.

Abstract: Provided are techniques for analyzing fields. Statistical metrics for each field in a data set are received. A general interestingness index is generated for each field using one or more combination functions that aggregate standardized interestingness sub-indexes. One or more fields are identified as interesting for further analysis using the general interestingness index. One or more expert recommendations for field transformations are constructed for the identified one or more fields.