Apple Inc.

General Electric Company

Biomea Fusion, Inc.

Blade Energy Partners Ltd.

Greenore Cleantech (shanghai) Co., Ltd

Ming Gao

Chia Chi Wu

Zhengyu Li

Zheng Gao

Elvis Mwenda Kibiti

Qiliang Xu

Wenhao Wang

Chen Zhang

Paul Xiaopeng Wang

Alex Joseph Lehmann

Michael Vosgueritchian

Nan Chen

Vyom Sharma

Richard Clark McNealy

Sergio Limon

Shuang Shuang Li

Thorsten A Kirschberg

Shuyi Qin

Kenneth M Silz

Karthik Sivaraman

Ron Sherstan

Chien-Tsun Chen

James T Palmer

Huangjing Zhao

Xiaozhou Zhou

Angelina Sau Man Wong

Heow Meng Tan

Hongyan He

Yuanzhen Fan

Jing Lin

Mei You

Bo Zheng

Jay Li

Junlu Ding

Yanjing Zhou

Yuyao Gu

Zyhengyu Li

Kuo-Chiang Chin

Chia-Chi Wu

Richard Xu

Chia-Wei Lee

An electronic device such as a speaker device may have a curved housing characterized by a vertical longitudinal axis. A layer of fabric may cover the curved housing. A touch sensor may be used to detect touch input on the layer of fabric. The touch sensor may include capacitive touch sensor electrodes including drive lines and sense lines. In some arrangements, the touch sensor is formed from conductive strands in the layer of fabric. In other arrangements, the touch sensor is formed from conductive traces on a substrate. The substrate may be formed from portions of the curved housing or may be formed from a layer that is separate from the housing. Light-emitting components and/or fabric with different visual characteristics may be used to mark where the touch-sensitive regions of the fabric are located. The touch-sensitive regions may be shaped as media control symbols.

Fabric-covered electronic device with touch sensor

An electronic device such as a voice-controlled speaker may have an array of strain gauges and light-emitting diodes. The light-emitting diodes may be configured to display dynamically adjustable button icons overlapping the strain gauges. Force measurements from the strain gauges may be used to adjust speaker output and other device operations.

Electronic devices with strain gauges and light sources

Described herein is N-[4-[4-(4-morpholinyl)-7H-pyrrolo[2,3-d]pyrimidin-6-yl]phenyl]-4-[[3(R)-[(1-oxo-2-propen-1-yl)amino]-1-piperidinyl]methyl]-2-pyridinecarboxamide (Compound A) (Formula I),

Crystalline forms of N[4[4-(4-Morpholinyl)-7H-Pyrrolo[2-3-D]Pyrimidin-6-yl]Phenyl]-4-[[3(R)-[(1-Oxo-2-Protein-1-yl)Amino]-1-Piperidinyl]Methyl]2-Pyridinecarboxamide]

An electronic device has a keyboard with an internal membrane. The membrane has a set of strain gauges configured to respond to a key press, such as when a collapsible dome collapses into contact with the membrane. The strain gauges are connected in a half Wheatstone bridge configuration and are positioned on the membrane in order to limit effects of temperature and subtle flexure of the membrane. The strain gauges are also configured to magnify detection of a resistance differential when a keycap is pressed with sufficient force.

Strain sensing key membrane

A coupling system of COcapture in flue gas and COmineralization based on industrial solid waste includes: 1) an adsorption reaction device configured to treat flue gas with the embedded adsorbents, 2) a thermal decomposition device designed to decompose the first carbonate products to oxides and carbon dioxide, wherein the produced oxides are circulated to the adsorption reaction device, and 3) an industrial solid waste mineralization system configured to treat the deactivated oxides and the as-produced carbon dioxide. The coupling system can not only realize carbon capture and utilization, but also can enable the reuse of waste and the production of high-quality carbonates. Meanwhile, the carbon capture line is also convenient to be organically integrated with the production line of carbon mineralization system based on industrial solid waste, reducing the cost of the whole process.

Coupling system of COcapture in flue gas and COmineralization based on industrial solid waste

Methods for assembling low-profile, singulated keyboards by prefabricating key assemblies onto a chassis strip that is divided into individual key assemblies only after the substrate is affixed to a feature plate of keyboard. For example, a row of key assemblies is fabricated onto a chassis strip. The row corresponds to a partial or complete row of keys of the keyboard. The chassis strip is thereafter affixed to a feature plate in a specific location, thereby aligning each prefabricated key assembly to a precise location on the feature plate. While connected, each prefabricated key assembly is independently affixed to the feature plate. Thereafter, interconnecting portions of the chassis strip between the prefabricated key assemblies are removed, thereby singulating each key assembly.

Singulated keyboard assemblies and methods for assembling a keyboard

Embodiments are directed to a backlight integrated membrane for a keyboard. In one aspect, an embodiment includes a keyboard having a key cap. A feature plate may be positioned below the key cap and a membrane may be positioned below the feature plate. The membrane may include a transparent substrate optically coupled to a light emitting element. The membrane may also include electrical traces for a key switch disposed on the transparent substrate. The embodiment may further include a domed structure positioned on the membrane and configured to actuate the key switch when depressed.

Illuminated keyboard structures

A key mechanism is disclosed. The key mechanism comprises a keycap, a dome support structure positioned relative to the keycap and defining an opening, an actuation mechanism coupled to the keycap, and a collapsible dome positioned in the opening of the dome support structure. The actuation mechanism is configured to movably support the keycap relative to the dome support structure. The dome comprises an upstop member configured to limit upward travel of the collapsible dome.

Metal switch for input device

A method of predicting at least one physical change in crack geometry of a crack in a pipeline based on in-line inspection operating pressure is presented. In one method, a first test on a pipeline is performed at a first pressure, which obtains a first set of test data. A second test is performed on the pipeline at a second pressure, obtaining a second set of test data. The first and second sets of test data are compared for any difference. A run comparison software processing device may be employed. In other methods, finite element analysis of crack-like dimensions is performed to predict Crack Mouth Opening Displacement (CMOD) for a given set of crack dimensions for a surface-breaking crack and inline pipe inspection operating run pressure. Another method predicts probability of detection of a crack associated with a given CMOD as a function of pressure in successive inspections.

Method for improved crack detection and discrimination using circumferential magnetic flux leakage

A polycrystalline body includes aluminum oxide, magnesium oxide, zirconium oxide, and lutetium oxide. The lutetium oxide is present in an amount of at least 10 ppm of the weight of the ceramic body, and the magnesium and zirconium oxides are present at a molar ratio of from 0.5:1 to 3:1.

Translucent polycrystalline alumina ceramic

Growing community of inventors

Shanghai, China

Ming Gao