Adobe, Inc.

Praveen Kumar Dhanuka

Arushi Jain

Matthew David Fisher

Nirmal Kumawat

Vineet Batra

Ankit Phogat

Harish Kumar

Gaurav Jain

Sanjeev Kumar Biswas

Sumit Dhingra

Rakesh Baidya

Neeraj Nandkeolyar

Nitin Sharma

Shivi Pal

Ankur Murarka

Varun Sharma

Gaurishankar Kshirsagar

Vijit Saxena

Nathan Aaron Carr

Ashish Jain

Nipun Jindal

Deepali Aneja

Apurva Kumar

Ashish Jindal

Amit Gaurav

Chirag Maheshwari

Curve offset operations as implemented by a digital image editing system are described. Input points are received via a user interface and a determination is made that a first set of the input points satisfy a condition for use as part of a curve offset operation with respect to a curve. A first segment is added to a path using the curve offset operation. The first segment is generated by aligning the first set of input points using an offset value based on the curve. A determination is then made that a second set of the input points do not satisfy the condition for use as part of the curve offset operation and a second segment is added to the first segment of the path. The second segment is generated using the second set of points and the path is displayed.

Curve offset operations

The present disclosure relates to systems, methods, and non-transitory computer-readable media that generates a modified digital image with a modified rendering order of objects within a digital image. For instance, the disclosed systems generate, in response to an input indicating a selected region of a digital image, an object mask for a first object located at least partially within the selected region of the digital image and further generate a vectorized object mask including a boundary of the first object from the object mask. The disclosed systems determine an overlapping region of the vectorized object mask with the selected region and an additional vectorized object mask. The disclosed systems generate a modified digital image by modifying a rendering order of a portion of the first object corresponding to the selected region and a portion of a second object overlapping the portion of the first object within the selected region.

Modifying digital images via adaptive rendering order of image objects

In implementations of systems for visual reordering of partial vector objects, a computing device implements an order system to receive input data describing a region specified relative to a group of vector objects that includes a portion of a first vector object and a portion of second vector object. A visual order as between the portion of the first vector object and the portion of the second vector object within the region is determined. The order system computes a modified visual order as between the portion of the first vector object and the portion of the second vector object within the region based on the visual order. The order system generates the group of vector objects for display in a user interface using a render surface and a sentinel value to render pixels within the region in the modified visual order.

Visual reordering of partial vector objects

Digital image editing techniques are described as implemented by a depth-aware system of a computing device. The depth-aware system employs a depth-aware grid that defines constraints for depth-aware editing of digital images involving perspective. These techniques support automated editing in which changes to directional spacing, perspective arrangement, perspective movement, object redistribution, and so on are implemented in real time, which is not possible in conventional techniques involving object distortion. As such, these techniques improve operation of the computing device that implements these techniques as well as user efficiency in interacting with the computing device to perform digital image editing that involves perspective.

Digital image editing using a depth-aware system

Digital representation techniques of intertwined vector objects are described. These techniques support a non-destructive representation of intertwined digital objects. Additionally, these techniques support editing of overlaps to change a visual ordering in an intuitive and efficient manner. Optimization operations are also implemented that remove redundancy, combine overlaps into a single representation, address visual artifacts at borders between the intertwined objected, and so forth.

Scene graph structure generation and rendering

The present disclosure relates to systems, methods, and non-transitory computer readable media for performing object-specific undo and/or redo operations. For example, in one or more embodiments, the disclosed systems receive a modified digital design image comprising a first modified object and a second modified object. In some examples, the second modified object is modified after the first modified object. The disclosed systems can generate and utilize an object-specific version representation to undo an edit to the first modified object without undoing edits to the second modified object. The disclosed systems can generate and provide, for display via a user interface, an updated digital design document comprising a reverted first object and the second modified object.

Object level selective undo in digital graphic design documents

Embodiments are disclosed for interlacing vector objects. A method of interlacing vector objects may include receiving a selection of a first vector object of an image. The method may further include detecting a second vector object of the image, wherein the second vector object is different than the first vector object. The method may further include determining a first depth position for the first vector object and a second depth position for the second vector object. The method may further include interlacing the second vector object and the first vector object, wherein interlacing comprises drawing the first vector object based on the first depth position and the second vector object based on the second depth position.

Partial depth ordering with vector interlacing

Embodiments are disclosed for identifying and modifying overlapping glyphs in a text layout. A method of identifying and modifying overlapping glyphs includes detecting a plurality of overlapping glyphs in a text layout, modifying a geometry of one or more of the overlapping glyphs based on an aesthetic score, updating a rendering tree based on the modified geometry of the one or more overlapping glyphs, and rendering the text layout using the rendering tree.

Layout-aware text rendering and effects execution

In implementations for free form radius editing, a computing device implements a radius editing system, such as may be integrated with an image editing application. The radius editing system can determine the edge segments for outlines of image objects depicted in a digital image, where the edge segments include corner segments of the image objects. The radius editing system can also determine the radius values of the corner segments of the image objects, and the radius values of the corner segments are maintained in a cache as part of object data corresponding to the image objects depicted in the digital image. The radius editing system can also identify one or more similar corner segments of the image objects that have an equivalent radius value as a selected corner segment responsive to an editing input of a radius of the selected corner segment of an image object.

Free form radius editing

Glyph editing techniques through use of an adornment object are described. In one example, an input is received identifying a glyph and an adornment object in digital content displayed in a user interface. Glyph anchor points are obtained based on the glyph and adornment anchor points based on the adornment object. A link is generated between at least one said glyph anchor point and at least one said adornment anchor point. An edit input is received specifying an edit to a spatial property the glyph. The spatial property of the edit is propagated to a spatial property of the adornment object based on the link.

Glyph edit with adornment object

Offset object alignment operations are described that support an ability to control alignment operations to aid positioning of an object in relation to at least one other object in a user interface based an offset value. This is performable through identification of objects that overlap along an axis in a user interface and calculation of offset values using these object pairs. Filtering and priority based techniques are also usable as part of calculated an offset value to be used as part of an alignment operation.

Offset object alignment operations

The present disclosure relates to systems, non-transitory computer-readable media, and methods for providing angular snapping guides to efficiently, accurately, and flexibly align user interactions and editing operations to existing angular linear segments of digital design objects in a digital design document. In particular, in one or more embodiments, the disclosed systems determine target angular linear segments for presentation of angular snapping guides by generating angular bin data structures based on orientation and signed distances of angular linear segments within the digital design document. Accordingly, in one or more embodiments, the disclosed systems can efficiently search these angular bin data structures based on angles and signed distances corresponding to user interactions. Further, in some embodiments, the disclosed systems identify a target angular linear segment from the angular bins and provide an angular snapping guide corresponding to the target angular linear segment during transformation of the digital design document.

Digital artboard angular snapping guides

In implementations of context-based copy-paste systems, a computing device implements a context system to receive input data describing a selection of a vector object. The context system detects vicinity vector objects based on a bounding box of the vector object and bounding boxes of the vicinity vector objects. A transformation is identified based on similarities between the vicinity vector objects and target vector objects. The context system generates a modified vector object for display in a user interface by transforming the vector object using the transformation and reproducing the transformed vector object relative to a particular target vector object of the target vector objects.

Context-based copy-paste systems

Digital image object anchor point techniques are described that increase user efficiency in interacting with a user interface to create digital images. This is achieved through use of anchor points by the digital image editing system that are defined with respect to an actual geometry of the object. Further, filtering and prioritization techniques are also leveraged to promote real world utility and efficiency of these techniques as a balance between having too many and two few anchor points.

Digital image object anchor points

Glyph sizing control techniques are described for digital content that provide insight regrading a true size of glyphs when rendered using a respective font and also leverages this insight to control font sizing and alignment. In one example, a glyph sizing system outputs a plurality of options to specify a unit-of-measure to control an actual size of a glyph as rendered in a user interface. Examples of units of measure include a capital height, x-height, ICF-height, dynamic height, object height, width, and other spans along a dimension, e.g., based on ascent, descent, or other. These units of measure are leveraged by the glyph sizing system to surface information regarding an actual size of respective glyphs for that unit-of-measure and control glyph sizing and arrangement.

Growing community of inventors

Howrah, India

Praveen Kumar Dhanuka