Amazon Technologies, Inc.

Siddharth Gupta

Jerry Yee-Ming Chung

Robert Arthur Sprague

Hany Mounir Ghali

Boo Boon Khoo

Herve Jacques Clement Letourneur

Weihsin Hou

Gregory Turner Witmer

Chin Siong Khor

Robert L D Zenner

Angel Calvo

Himanshu Sharma

Wilfrido Loor Canizares

Nadim Awad

Anoop Menon

Angeles Marcia Almanza-Workman

Vikram Srinivas

Juho Ilkka Jalava

Haili Wang

Kathryn Chinn

Jack Shih-Chieh Wei

Benny Ng

Sherman Shwe Win Tan

Robert Waverly Zehner

Bruce Robert Woodley

Bokke Johannes Feenstra

Lakshman Rathnam

Tiffany Yun

Scott Dylewski

Premal Parekh

Marcel Colman Eric Stieber

Sridhar Sampath

Jukka Kristian Backman

Keith Ho Soo Suan

Christopher Wells Fitzhugh

Ravikanth Repaka

Syed-Faraz-Ul Hassan Kazmi

Yao Li

Rex L Allison

Mohammad Ali Shatnawi

Rakesh Varadarajan

Soundararajan Thangaraj

Robert L Zenner

Sherman Shwe Tan

Premal Vinodchandra Parekh

Robert LD Zenner

Robert A Sprauge

Methods, systems, and computer-readable media for compliance lifecycle management for cloud-based resources are disclosed. A selection is received of a compliance pack from a plurality of compliance packs. The compliance pack comprises a plurality of rules associated with policy compliance. The compliance pack is selected from the plurality of compliance packs via a user interface. The selection is associated with one or more resources hosted in one or more provider networks. An evaluation is performed of compliance of the one or more resources with respect to the plurality of rules of the compliance pack. Data describing the evaluation is generated and displayed. The data comprises an aggregate compliance status for at least one of the one or more resources, and the aggregate compliance status represents an aggregate compliance with the plurality of rules.

Compliance lifecycle management for cloud-based resources

A device that uses a motor may quickly and safely stop the motor using a rapid braking system. For example, the device may stop to avoid collision with an object, upon determining a failure of an internal component, upon receipt of a command, and so forth. Responsive to a signal to stop, the motor is disconnected from the battery. A braking circuit is activated that dissipates, in a controlled fashion, power produced by continuing motion of the motor. When the voltage produced by the motor's continuing motion drops below a threshold, a stop circuit shorts the terminals of the motor, causing the motor to resist further rotation. When the stop condition no longer applies the signal to stop is removed resulting in the motor being reconnected to the battery, the braking circuit being deactivated, the stop circuit opens the short between the terminals of the motor, and normal operation resumes.

Rapid braking system for an autonomous mobile device

An autonomous mobile device (AMD) includes an active braking circuit able to quickly stop the movement of the AMD. For example, the device may stop to avoid an obstacle, upon determining a failure of an internal component, upon receipt of a command, and so forth. Responsive to a signal to stop, an active braking circuit uses sensor data from a driving motor moving with a first rotation to actively commutate that motor to an opposite rotation, bringing the AMD quickly to a stop. In some implementations, the active braking circuit may include an independent power source and motor drivers and operate as a backup to a primary braking system.

Active braking system for an autonomous mobile device

An electronic device includes a stack assembly and a cover glass. The stack assembly includes an electrophoretic display sub-assembly for rendering content, a front light sub-assembly comprising a light guide, a light FPC, and a plurality of light sources, and a capacitive touch sensing sub-assembly for detecting touch inputs. A yellow-pigmented tape is applied over the light sources and an edge of the light guide. A stiffener member is coupled to the light FPC opposite the yellow-pigmented tape.

Electronic device stack assembly

An electronic device with a flexible display subassembly is provided. The display stack may use two layers of adhesives having different elastic properties to improve mechanical impact resistance, with a first adhesive layer made of a viscoelastic material and a second adhesive layer having a low modulus of elasticity. The display stack may also include a hot melt protective sheet (HMPS) covering the display subassembly. The HMPS may be wrapped around the two side edges of a rigid substrate to attach directly to the substrate, thereby aiding in the adhesion of the display stack to the substrate. The display stack may also includes a patterned back protective sheet in which the protective backing layer is removed along the curved portions of the display stack.

Borderless display with curved edges

This disclosure describes techniques for a configuration-monitoring service of a service provider network to provide users with the ability to access to configuration data across multiple accounts using a single account or other centralized access point. The configuration-monitoring service may allow users with multiple accounts registered with the service provider network to designate a central account (or 'aggregator account') through which the users can access and review configuration data across multiple accounts (or 'source accounts') and/or multiple regions (or &#x201c;source regions&#x201d;). After determining an aggregator account, the configuration-monitoring service may begin collecting configuration data from the source accounts and/or source regions, and transporting the configuration data to the aggregator region to be accessed using the aggregator account. The user may use their aggregator account to view a dashboard that presents the configuration data from the source accounts and/or source regions along with configuration data for the aggregator account.

Centralized access of configuration data for computing resources

A processor configured to reduce the amount of time necessary for a mobile device to resume from a hibernation state is described. While in the hibernation state, power to all components of a mobile, except a motion sensor, may be powered off. The processor, upon receiving a signal from a wakeup sensor, causes the mobile device to initiate a transition from the hibernation mode to an awake mode. A validation sensor on the mobile device detects a user contact with the mobile device or user proximity with respect to the mobile device. Upon receiving a validation signal confirming validation of the transition from the hibernation state to the awake state, the processor resumes the transition to the awake mode. In the awake mode the mobile device may detect user input indicative of activating the mobile device. Upon receiving a signal indicating user input to activate the device, the processor may cause the device to become fully active, and ready for user interaction.

Wakeup from hibernation state using motion sensor

An electrowetting display device comprises electrowetting pixels. Each of the electrowetting pixels includes a hydrophobic layer portion disposed on a first electrode, an electrolyte solution overlying the hydrophobic layer, and a thin film transistor (TFT) that is switched on to select each of the electrowetting pixels using active matrix addressing, wherein the TFT is in electrical contact with the first electrode. The electrowetting display further includes a second electrode in electrical contact with the electrowetting pixels, and a reset control circuit in electrical contact with the second electrode to provide a reset pulse in unison to the electrowetting pixels.

Global reset for an electrowetting display device

A borderless display utilizes a support frame having a bulged periphery (or outer portion), and a flexible electrophoretic display (EPD) structure that is curved at least partly around the support frame. The bulged outer portion of the support frame allows the flexible EPD structure to be wrapped around the outer portion of the support frame without damaging elements of the EPD structure in the process. Meanwhile, the center portion of the support frame can be made thinner, as compared to the thickness of the support frame at the bulged, outer portion. In this manner, the overall profile (in the z-direction) of the electronic device can be made as thin as possible without damaging fragile elements in the EPD structure.

Borderless display with thin profile

A content item to be displayed via a display of an electronic device may be associated with a first set of grey values or a set of color values. The electronic device may generate, maintain, or at least have access to one or more mappings that map the set of color values and/or the first set of grey values to a second set of grey values. Based on the one or more mappings, the electronic device may convert a color value of the set of color values or a first grey value of the first set of grey values to a second grey value of the second set of grey values. The content item may then be displayed utilizing the second grey value.

Grey level-based page turn adjustment

Systems, methods, and computer-readable media are disclosed for borderless display stacks for use with electronic devices. In one embodiment, a display stack may include a thin film transistor (TFT) layer comprising an active area, an electrophoretic layer coupled to the TFT backplane, and an electrode coupled to a perimeter portion of the electrophoretic layer. The electrode may extend beyond peripheral edges of the electrophoretic layer. A portion of the electrode may be positioned between the electrophoretic layer and the TFT backplane, and the electrode may surround the active area. The display stack may include a cover layer coupled to the electrophoretic layer.

Display stack for borderless electronic displays

A thin border display for an electronic device may comprise an optical assembly that includes a support frame and an electrophoretic display (EPD) structure attached to the support frame in a manner that allows for the display of the electronic device to exhibit a 'thin border' or 'borderless' look at a periphery of the electronic device. A portion of the EPD structure may at least partly curve around a curved portion of the support frame, the curved portion of the support frame being near the periphery of the support frame. In some embodiments, the EPD structure includes a transparent protective substrate disposed on a rear surface of a flexible backplane substrate within the flat outer region where a driver chip is disposed on a front surface of the flexible backplane substrate. The transparent protective substrate protects the driver chip attachment from being damaged during manufacture.

Thin border displays

Growing community of inventors

San Bruno, CA, United States of America

Siddharth Gupta