Amazon Technologies, Inc.

Vikram Srinivas

Ramez Nachman

Ali-Reza Bahmandar

Mohammed Aftab Alam

Shankar Ganapathysubramanian

Patrick Jee Tang

Robert Arthur Sprague

Wilfrido Loor Canizares

Siddharth Gupta

David Eric Peters

Anoop Menon

Carl Philip Taussig

James Robert Lim

Shan Cheng

Angeles Marcia Almanza-Workman

Nageswara Rao Tadepalli

Dawnelle Ivy Wynne

Bobak Ranjbaran

Donald Joseph Ashley

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 battery thermal shield is used with a battery to reduce peak temperature exposure caused by a short of a battery from physical damage to the battery (e.g., the battery being pierced by a metal object). The thermal shield may be a highly thermal-conductive substance, such as a film, adhesive, gel, and/or other substance, that acts as an efficient heat spreader. Unlike a typical heat sink or heat fins, the thermal shield may have a low profile and be configured to spread a rapid onset of heat at a localized point or area (e.g., a location of an internal short) to a wider area to reduce a peak (maximum) temperature caused by a short of a battery. The thermal shield may be at least partially formed of graphite which may be adhered to the battery.

Battery thermal shield

A flexible housing for a flexible electronic device is coupled to a cover lens for enclosing components disposed between the flexible housing and the cover lens. The flexible housing includes a flexible polymer substrate. A first metal layer covering at least a portion of the flexible polymer substrate. A second metal layer is disposed on the first metal layer. A protective coating covers the second metal layer.

Flexible protective housing for electronic devices

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

A cover glass of an electronic device may be inspected for defects and damage such as cracks, fractures, scratches, and chips. The electronic device may be placed in an enclosure with a lighting assembly that emits light to the electronic device, and scattered light from defects and damage of the cover glass is captured by an imaging device. A shutter assembly facilitates the capture of scattered light and reduces the capture of reflected light, which enhances the exposure of defects and damage of the captured image of the cover glass. A mirror facilitates the capture of a side surface of the electronic device.

Electronic device inspecting system and method

A method of assessing noise involves evacuating air from a vacuum chamber to a pressure less than about 1 Torr and stimulating a device positioned in the chamber by shaking it or by operating a component of the device. Measuring vibrations in a low pressure environment decreases or eliminates propagation of sound waves, thereby enabling isolation and identification of vibrations caused by mechanical noise. These measurements may be useful for more precise acoustic characterization of audio devices containing multiple components.

Vacuum testing of audio devices

Assemblies and techniques are provided for a light guide having a plurality of edge surfaces, a plurality of light sources optically coupled to the light guide, a grating structure adapted to direct light from a light source of the plurality of light sources to exit the light guide, and a coating on an edge surface of the plurality of edge surfaces, where the coating is adapted to reflect light emitted by the light source.

Light guides having reflective coatings

In some examples, a portable electronic device may monitor onboard sensor information to detect and characterize a fall event. For example, the device may receive acceleration information from one or more accelerometers for determining that the device is falling, and may receive information from one or more gyroscopes for determining an orientation of the device. Based at least in part on the sensor information, the device may determine the fall duration, an estimated fall height, device orientation before during and after the fall, and/or a coefficient of restitution resulting from the device impacting a surface. The device may store the fall information on the device. Further, in some examples, the device may send the fall information to a remote computing device, which may aggregate the fall information from a plurality of the devices, such as for improving or optimizing the design of the devices.

Fall event monitoring

A housing of a computing device, such as a computer, laptop computer, cellular phone, personal digital assistant (PDA), tablet computer, electronic reader or e-reader, or other mobile device constructed using a combination of a metal material and a lightweight core material. The housing includes a front housing component including a display and a rear housing coupled to the front housing component with an internal side of the rear housing facing the front housing. The rear housing component includes a core material and a structural material coupled to the core material at strategic locations. For example, the structural material may be located around a periphery of the rear housing, around connection ports of the electronic device, and diagonally across the external side to provide strength and stiffness to the rear housing.

Variable plated device enclosure

Portable multimedia devices, and techniques for their manufacture, are provided that feature functional parts embedded with a resin matrix that obviates the need for traditional structural components such as midframes and/or outer casings. The resin matrix may be provided through the use of a flowable liquid resin that is flowed around the functional components within a mold cavity. The liquid resin may then be cured into the resin matrix.

Resin-encapsulated portable media device

Assemblies and techniques are provided for light guides integrated into display devices having front light sources. In one aspect, a light guide can include one or more reflective coatings that are applied or otherwise integrated onto one or more internal surfaces of the light guide. Application of at least one reflective coating can modify the luminance and/or chromaticity of the light guide. The one or more coatings can comprise one or more applied layers of paint, such as a layer of a glossy colored paint and/or a layer of a chrome paints.

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San Jose, CA, United States of America

Vikram Srinivas