Hon Hai Precision Industry Co., Ltd.

Tsinghua University

Beijing Funate Innovation Technology Co., Ltd.

Hand Held Products, Inc.

Honeywell International Inc.

Magnachip Semiconductor, Inc.

International Business Machines Corporation

Symbol Technologies, LLC

Metrologic Instruments, Inc.

Other

Gopro, Inc.

Intellectual Ventures Ii LLC

Telxon Corporation

Kunlunxin Technology (beijing) Company Limited

Sionyx, Inc.

Chen Feng

Liang Liu

Li Qian

Shou-Shan Fan

Kai-Li Jiang

Yu-Quan Wang

Li Fan

Tao Xian

Zhuo Chen

Ynjiun P Wang

Lin Xiao

Wen-Mei Zhao

William H Havens

Edward C Bremer

Qun-Qing Li

Yuan-Chao Yang

Paul Poloniewicz

Jianhua Li

Yang Wei

Jun Zhu

Kai Liu

Jie Ren

Sean Philip Kearney

Gregory Mark Rueblinger

Xue-Wei Guo

Guo-Fan Jin

Yunxin Ouyang

Xiao-Bo Zhang

Jing-Lei Zhu

Mehul Patel

Scott J Bracken

Erik Van Horn

Gennady Germaine

Colleen P Gannon

Li-Na Zhang

Peng Liu

Patrick Anthony Giordano

Tao Chen

Yong-Chao Zhai

Yiwu Ding

Timothy A Good

Stephen J Colavito

Michael Vincent Miraglia

Jim W Li

Alain Gillet

Hui Li

Tong Shang

Jennifer Liu

Yong Liu

Timothy P Meier

Zon-Yin Shae

Fan Jing Meng

Hani Talal Jamjoom

Huyu Qu

Cheng-Hsien Lin

Kai Tang

Benjamin Hejl

Mark Edward Podlaseck

Robert J Hennick

Ying Huang

Donald Anderson

David Wilz, Sr

Jeffrey Dean Harper

Pu Jin

Yun-Wu Huang

Jian Ming Zhang

Wen-Chin Lee

Wei-Qi Fu

Daniel J Williams

Yao-Wen Bai

Kamal Kumar Bhattacharya

Shankar Ban

Michael Montinarelli

Hao-Xu Zhang

Leonard Forbes

Xiaoxun Zhu

Bin Wang

Jia-Ping Wang

Hui Tian

Robert E Blake

Xiao Xi Liu

Rui Zhang

Xiao-Yang Lin

Rui Guo Zhang

Rui Hou

He Huang

Jun Yin

Lin Wang

Homayoon Haddad

Vivian Loomis Hunter

Robert F Meyerson

Jun Lu

Kevin Saber

Yuefeng Mo

Qing Zhang

Yupeng Li

James A Cairns

Haiming Qu

Jean-Luc Basso

An electronic device, a method of determining a memory access efficiency for a memory, and a storage medium are provided, which relate to a field of computer technology, and in particular to fields of chip, memory and processor technologies. The electronic device includes: a memory configured to store executable instructions and data to be processed; and a processor configured to execute the executable instructions so as to at least: read a data block to be tested from the memory; determine a memory access description information according to a size information of the data block to be tested; and determine, according to the memory access description information and a channel description information, a memory access efficiency of the processor in reading the data block to be tested, where the channel description information describes a plurality of channels for the processor to read the data to be processed from the memory.

Electronic device, method of determining memory access efficiency for memory, and storage medium

The present disclosure provides a joint assembly for an apparatus comprising an object and a base component. The joint assembly comprises a first joint component coupled to a second joint component and each joint component comprises annular joint sections. A first peripheral section of a first annular joint section of the first joint component abut with a second peripheral section of a second annular joint section of the second joint component is defined to rotate about a first axis. A second peripheral section of a second annular joint section of the first joint component abut with the base component is defined to rotate about a second axis. A first peripheral section of a first annular joint section of the second joint component abut with the object is defined to rotate about the third axis. The first axis, the second axis, and third axis are orthogonal to each other.

Joint assembly

Embodiments of the present disclosure provide an alternative illuminator assembly and corresponding imaging assemblies utilizing the alternative illuminator assembly. The alternative illuminator assembly may provide alternative illuminations from those produced by an imager engine, such that the alternative illuminations may provide specific illuminations at specific illumination angles to illuminate a field of view for a desired purpose. In an example context, the alternative illuminator assembly provides one or more alternative illuminations for improving the likelihood of successfully reading specific direct part marking indicias of various types. Embodiments are provided using overlapping subassemblies that enable a small form factor assembly that can fit into mobile apparatus chasses, for example within conventional cell phone housings of around 7 millimeters. The alternative illuminator assembly may be provided together with a small form factor imaging engine, having one or more imager, to improve the direct part marking reading capabilities of the multi-sensor imaging apparatus.

Alternative illuminator assembly and mobile imaging apparatus for improved direct part marking reading

Embodiments described herein provide a middle frame image processing schema in a multi-sensor environment, for example improve image processing throughput and snappiness by processing middle frame image data objects of a middle frame image size that is shared amongst a plurality of image sensors. An example apparatus includes a plurality of image sensors, each configured to capture a full frame image data object and output a middle frame image data object. The apparatus further includes an image frame multiplexer communicable with each of the plurality of image sensors, and configured to receive a plurality of middle frame image data objects, and output a selected middle frame image data object from the plurality of middle frame image data objects. The apparatus further includes a processor communicable with the image frame multiplexer, and configured to receive the selected middle frame image data object, and process the selected middle frame image data object.

Apparatuses and computer-implemented methods for middle frame image processing

Embodiments of the disclosure relate generally to illumination synchronization in a multi-imager environment. Embodiments include systems, methods, computer program products, and apparatuses configured for operating a near-field illumination source associated with a near-field image sensor, based on a first illumination pulse train. An exposure period of a far-field image sensor is determined and one or more characteristics of the first illumination pulse train are modified to accommodate the exposure period of the far-field image sensor.

Illumination control for imaging systems with multiple image sensors

Embodiments of the disclosure relate generally to automatic focus selection in a multi-imager environment. Embodiments include methods, systems, and apparatuses configured for capturing by a first image sensor, a first image of a visual object with a background associated with a subject. A characteristic difference between the visual object in the first image and the background in the first image is determined and a distance determination mode is selected based on the determined characteristic difference. Accordingly, a distance to the subject is calculated based on the selected distance determination mode and a second image sensor is controlled to capture a second image of the subject, based on the calculated distance to the subject.

Systems, methods, and apparatuses for focus selection using image disparity

An optical dimensioning system includes one or more light emitting assemblies configured to project one or more predetermined patterns on an object; an imaging assembly configured to sense light scattered and/or reflected off the object, and to capture an image of the object while the patterns are projected; and a processing assembly configured to analyze the image of the object to determine one or more dimension parameters of the object. The light emitting assembly may include a single piece optical component configured for producing a first pattern and second pattern. The patterns may be distinguishable based on directional filtering, feature detection, feature shift detection, or the like. A method for optical dimensioning includes illuminating an object with at least two detectable patterns; and calculating dimensions of the object by analyzing pattern separate of the elements comprising the projected patterns. One or more pattern generators may produce the patterns.

Dual-pattern optical 3D dimensioning

Provided herein is an image focusing adjustment method, system, and module. A first image of a reference object is received in response to an input signal when the image focusing adjustment module is operating in a first state. The first image of the reference object is analyzed, based on which a plurality of adjustments to the image focusing adjustment module is controlled. The plurality of adjustments, performed by a plurality of actuators controlled by control module, include rotating a lens barrel assembly relative to a neck member along a first axis that causes a translational adjustment of the lens barrel assembly, rotating the neck member relative to a top member around the first axis that causes a rotational adjustment of the lens barrel assembly, and positioning a tilt adjustment member that causes tilt adjustment of the top member relative to a frame member along a second axis.

System and method for an image focusing adjustment module

An indicia-reading module is capable of integration into the smallest face of thin-profile smart device. The module employs chip-on-board packaging and a customized sensor enclosure to eliminate the stack-up height found in conventional packaging. The module also employs a customized frame to reduce volume by integrating circuit subassembly circuit boards into a unique architecture and by serving as the lenses for the illuminator and the aimer, thereby eliminating the need for any extra lenses or holders.

Indicia reader for size-limited applications

Various embodiments described herein provide multi-projector (i.e., two or more) imaging apparatuses utilizing integrated illumination-aimer optics. Embodiments of the present disclosure minimize irreparable component offset to improve overall accuracy associated with the functioning of the apparatuses. Additionally, the integrated illumination-aimer optics enables embodiments disclosed herein to be provided in a significantly smaller form factor than conventional multi-projector imaging apparatuses. An example apparatus includes a near-field imaging lens and a far-field imaging lens, an integrated illumination-aimer optics positioned between the near-field imaging lens and the far-field imaging lens, a near-field illuminator source and a far-field illuminator source positioned for projecting via the integrated illumination-aimer optics, a near-field imaging sensor associated with the near-field imaging lens, a far-field imaging sensor associated with the far-field imaging lens, and an apparatus chassis to align the various components for operation.

Integrated illumination-aimer imaging apparatuses

Various embodiments described herein provide a discrete focusing lens assembly. Some embodiments are designed to enable repositioning of one or more components, such as a lens barrel assembly, to adjust the focus of the discrete focusing lens assembly. Some example discrete focusing lens assemblies include a module base housing a lens barrel assembly having a pair of positioning magnets, a pair of positioning coil assemblies associated with the positioning magnets, and at least one module alignment pin positioning and/or aligning some or all of the components. The positioning coil assemblies together with the positioning magnets are configured to exert various magnetic fields to reposition the lens barrel assembly. Further embodiments are provided for imaging apparatus including at least one discrete focusing lens assembly described herein. Further, embodiments are provided for processes for assembling a discrete focusing lens assembly described herein.

Discrete variable focus assemblies and apparatuses

Growing community of inventors

Beijing, China

Chen Feng