Microsoft Technology Licensing, LLC

Jesse D McGatha

Jerry Jay Dunietz

Oliver H Foehr

Ahmet Gurcan

Yulin Jin

Khaled Salah Sedky

Ming Gang Liu

Eric Stanfield Leese

Rodrigo Lopez

Shanen Jon Boettcher

Steven E Lucco

Kristofer Noel Iverson

Emmett Walter Lalish

Jomo Fisher

Steven J Steiner

Jedrzej Z Miadowicz

Michael Wayne Jackson

Yunus Kilic

Justin A Slone

Jeffrey G Brown

Kris N Iverson

Arindam Basak

Andrey Shur

Louis Amadio

Feng Yue

Arthur Charles Leonard

Harvinder Pal Singh

Michael P Fenelon

Joshua Michael Pollock

Hristo H Ivanov

Michael Bourgoin

Erik O Peterson

Feng Yuan

Young Gah Kim

Kevin J Boske

Milos Bazelides

Anton Mateasik

Martin Kusnier

Feras Moussa

Vladimír Sisolák

Ján Jakubovic

Igor Belianski

Matthew E Loar

Aspects of the subject matter described herein relate to generating and caching software code. In aspects, a target device may receive software to install. The software may include source code that has not been compiled. The target device may install the software and indicate the source code of the package is to be compiled into intermediate or executable code that is persistently stored. If the target device receives a request to execute the software prior to it being compiled, the target device may compile and execute the software without delay. If the target device receives a request to execute the software after it is compiled, the target device may obtain and execute the compiled code. The behavior above may also be applied to scripting code obtained from a server remote to the target device.

Generating and caching software code

A method, computing system, and one or more computer-readable storage media for fabricating full color three-dimensional objects are provided herein. The method includes transforming a three-dimensional model into instructions for a fabrication device by slicing the three-dimensional model into layers with color information preserved, generating two-dimensional polygons for each layer based on colors on faces, colors on textures, and/or gradient colors, and determining a tool path for fabricating an object from colored materials based on the two-dimensional polygons for each layer. Determining the tool path includes generating instructions that direct the fabrication device to apply colored material for all two-dimensional polygons of a same color before switching colors, smooth an exterior of the object by switching colors at an internal vertex of each two-dimensional polygon within each layer, and deposit transitional material within an infill area, a support structure, and/or an area outside the object when switching colors.

Fabricating full color three-dimensional objects

The claimed subject matter includes a system and method to design 3D objects for fabrication. In embodiments, the method includes sampling coordinates of a two-dimensional object. The method also includes generating fabrication coordinates based on the sampled coordinates and a plane comprising a top layer of a three-dimensional (3D) object. Additionally, the method includes generating a 2D triangular mesh for the top layer of an overhang based on the sampled coordinates, an angle between the top layer and two points in a previous top layer border less than or equal to an overhang threshold angle.

Fabricating three-dimensional objects with overhang

Embodiments relate to an operating system configured to enable arbitrary applications to output 3D models to be physically formed by arbitrary 3D manufacturing devices. The operating system manages the 3D manufacturing devices, including installation of related software, device drivers, device properties, and so forth. The operating system also provides a path through which the arbitrary applications pass arbitrary print jobs (or documents) of 3D models, in a standard format, to the 3D manufacturing devices. The operating system handles queuing and spooling on behalf of the applications and the 3D manufacturing devices. Drivers of the 3D manufacturing devices may translate the 3D models outputted by the applications (in the standard format) to instructions or device language content that is specific to the respective 3D manufacturing devices.

3D manufacturing platform

The claimed subject matter includes techniques for designing three-dimensional (3D) objects for fabrication. An example method includes obtaining a three-dimensional (3D) mesh comprising polygons and obtaining a two-dimensional (2D) image. The method also includes receiving position information describing a location of the 2D image relative to the 3D mesh and modifying the 3D mesh based on the 2D image and the position information to generate an embossed 3D mesh that is embossed with the 2D image.

Fabricating three-dimensional objects with embossing

The subject disclosure is directed towards technology managing three-dimensional object fabrication in full color. In order to transform the object's model into an instruction set for a fabrication device, a fabrication manager computes color values corresponding to geometry within a later of the object's model. After determining an amount of each colored material to deposit, the fabrication manager generates coordinated instructions configured to deposit a combination of colored materials according to the geometry and efficiently transitioning between colored materials during object fabrication.

Full color three-dimensional object fabrication

Various embodiments provide an ability to load documents and access page content associated with documents while the documents are still being loaded. In at least some embodiments, while a document's structure is being processed in the background, individual pages can be requested. The same can be said for individual documents that comprise a part of a package that contains multiple documents. In at least some embodiments, multiple threads are utilized to enable a document's structure to be built and to enable a user to access portions of the document while the document is being built or loaded.

Progressive page loading

This document describes tools capable of validating and enabling validation of a package's structure. To do so, constraint grammar is provided that is capable of enabling a person to build a set of machine-readable constraints for a package's structure. Based on this set of constraints, a package validator module may accurately and automatically validate that a package's structure meets these constraints.

Validating and enabling validation of package structures

Various embodiments can be used to process packages or documents that contain markup language describing one or more documents. Markup language descriptions can be processed to identify certain objects that reoccur or are repeated in the markup language description. If a re-occurring or repeating object is encountered in the markup language description, a resource dictionary can be used to catalog such objects and, an associated object model can include, from the resource dictionary, references to a re-occurring or repeating object. By using the resource dictionary as such, memory resources can be conserved when an in-memory representation of the object model is built.

Load-time memory optimization

A system and method for associating optical character recognition text data with source images are provided. In one embodiment, an association module of a computing system is configured to receive text data from an OCR engine; associate the text data with a source image; and output associated optical character recognition data including the source image, the text data associated with the source image, and a plurality of referrers. Each referrer of the plurality of referrers may indicate a different image reference. The plurality of referrers are configured to cause the viewer application to output the text data associated with the source image to each instance of the source image that is rendered as part of the fixed-layout document in accordance with the multiple image references.

Associating optical character recognition text data with source images

Semantic objects are created that provide a structure for markup language representations of documents. The semantic objects include text runs that are produced from the markup language representation and that are placed into semantic blocks that group text runs according to how text is logically structured in the document being represented. The text runs of each semantic block are ordered to correspond to the logical order of the document being represented. The semantic blocks corresponding to each page of the document being represented are ordered to correspond to the logical order of the document being represented. The ordered semantic blocks including the ordered text runs are saved as a semantic object which can they be utilized to make use of the logical structure of the document being represented by the markup language.

Creation of semantic objects for providing logical structure to markup language representations of documents

Various technologies and techniques detect lists in vector graphics based documents and use them in meaningful ways. The system detects at least one list in a vector graphics based document using a set of rules. Pattern detection logic identifies characters, symbols, numbers, letters, and/or images that may start a list. Additional pattern detection logic determines if a list exists. The system can identify and parse bulleted lists, numbered or lettered lists, and nested lists that are any combination of both. Once identified, the content is translated into a modified format. The content can be output to a destination application in the modified format that is more suitable for output or use by the destination application.

Detection of lists in vector graphics documents

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Sammamish, WA, United States of America

Jesse D McGatha