Adobe, Inc.

Lauren Dest

Michele Saad

Balaji Krishnamurthy

William Brandon George

Nikaash Puri

Mihir Naware

Joshua Butikofer

Kumar Mrityunjay Singh

Kunal Kumar Jain

Hyman Chung

Yaman Kumar

Brandon Pack

Matthew William Rozen

Pranjal Prasoon

Somesh Singh

Dustin Ground

Suman Basetty

Clinton Hansen Goudie-Nice

James Patrick O'Reilly

Abhinav Chauhan

Mihai Corlan

Timothy Chia-chi Liu

Alexander Klimetschek

Eunyee Koh

Jose Ignacio Echevarria Vallespi

Irgelkha Mejia

Nathan Douglas Baldwin

Xin Wang

Anna Hammond

Matthew May

Catherine Chiodo

Andrew Thomson

Arjun Athreya

The present disclosure relates to systems, methods, and non-transitory computer readable media for flexibly and accurately utilizing a machine learning model to intelligently determine and provide interface features for display via client devices located across different time zones or geographic regions. For example, the disclosed systems can utilize a feature visualization machine learning model to generate an arrangement of graphics, an assortment of graphics, or other graphical visualization of one or more interface features in a target time zone (or a target geographic region) based on client device interactions from other (e.g., leading) time zones or geographic regions. In certain embodiments, the disclosed systems also (or alternatively) determine a sequence of geographic regions for rolling out, or surfacing, an interface feature based on similarities between geographic regions and a comparison of performance metrics over multiple candidate sequences.

Machine learning approaches for interface feature rollout across time zones or geographic regions

Methods, systems, and non-transitory computer readable media are disclosed for utilizing machine learning models to extract digital signals from low-results web queries and generate item demand deficiency predictions for digital item lists corresponding to websites. In one or more embodiments, the deficiency identification system identifies a low-results query submitted by client devices navigating a website. The deficiency identification system generates features for the low-results query and the digital item list to generate a deficiency prediction relative to demand indicated by the low-results query. In some embodiments, the deficiency identification system utilizes a deficiency prediction model to process the extracted signals and generate a deficiency confidence score corresponding to the low-results query. Based on the deficiency confidence score, the deficiency identification systemd can generate and provide demand notifications via one or more graphical user interfaces.

Utilizing machine learning models to process low-results web queries and generate web item deficiency predictions and corresponding user interfaces

Methods and systems disclosed herein relate generally to increasing visibility of pixel patterns of an image. The system includes a pattern-detection application accessing an image depicting an object. The pattern-detection application determines a set of colors from the transformed image. The pattern-detection application identifies a set of pixels depicting a particular color of the set of colors. For the set of pixels depicting the particular color, the pattern-detection application converts an initial set of pixel values of the set of pixels at an initial color space to another set of pixel values that define the particular color of the set of pixels in another color space. The pattern-detection application modifies one or more values of the other set of pixel values to generate a modified set of pixel values. The modification includes causing the set of pixels visually indicate a simulated color that is different from the particular color.

Increasing visibility of pixel patterns in images

Content creation techniques are described that leverage content analytics to provide insight and guidance as part of content creation. To do so, content features are extracted by a content analytics system from a plurality of content and used by the content analytics system as a basis to generate a content dataset. Event data is also collected by the content analytics system from an event data source. Event data describes user interaction with respective items of content, including subsequent activities in both online and physical environments. The event data is then used to generate an event dataset. An analytics user interface is then generated by the content analytics system using the content dataset and the event dataset and is usable to guide subsequent content creation and editing.

Content analytics as part of content creation

Methods and systems disclosed herein relate generally to systems and methods for predicting content based on vector data structures generated from image pixels. A content-prediction application accesses a color palette having two or more color-palette categories and selects a first color of the color palette. The content-prediction application generates a first vector based on a set of pixel values that represent the first color of the color palette. The content-prediction application determines a distance metric between the first vector and a second vector, in which the second vector is identified by applying a convolutional neural network model on an image depicting an item that includes a second color. In response to determining that the distance metric is less than a predetermined threshold, the content-prediction application selects the content item corresponding to the second vector.

Content prediction based on pixel-based vectors

Methods and systems disclosed herein relate generally to systems and methods for modifying pixel values of an image to improve the visibility of target pixel patterns. A pixel-simulation application accesses an initial image including an initial set of pixel values. The initial set of pixel values define, in an initial color space, a particular color of pixels that indicate a target pixel pattern. The pixel-simulation application generates, based on the initial set of pixel values, a simulated image including a modified set of pixel values that visually indicate another color of pixels in an intermediate color space. The pixel-simulation application generates a pixel map by identifying a difference between the initial set pixel values of the initial image and the modified set of pixel values of simulated image. The pixel-simulation application generates, for display, an output image based at least in part on the pixel map.

Image processing for increasing visibility of obscured patterns

Growing community of inventors

Austin, TX, United States of America

Lauren Dest