Amazon Technologies, Inc.

Andrew Jay Roths

Jesper Mikael Johansson

Darren Ernest Canavor

Jon Arron McClintock

Brandon William Porter

Varadarajan Gopalakrishnan

Abraham Martin Passaglia

Daniel Wade Hitchcock

Bharath Kumar Bhimanaik

Quentin N Robinson

Rashmesh Radhakrishnan

Arnaud Marie Froment

Chelsea Celest Krueger

QingYun Wei

Phivos Costas Aristides

Priti Marappan

James Domit Mackraz

Marc Solsona-Palomar

Scott Donald Gregory

Vijay Rangarajan

Cory Adam Johnson

Avinash Joshi

Jason George McHugh

Bhavnish H Lathia

Roger Robert Webster

Charles Louis Ward

Robert Vaughan Williams

James Edwin Christy

Amir Frenkel

Paul Francis Dean Ferraro

Maximilian Francis Barrows

Heidi Lynn Daigler

Eric Allan Shell

Gregory Branchek Roth

Daniel Buchmueller

Shih-Chun Chang

Ilya Vladimirovich Brailovskiy

Menashe Haskin

Patrik Schnell

Fabian Hensel

Edward James Gayles

Paul Berenberg

Oguz Hasan Elibol

James David Meyers

Lior Shapira

Roberto Barra Chicote

John Lawrence Miller

Rajasimman Madhivanan

Daniel Christopher Bay

Chris DeCenzo

Mark Wodrich

Kadirvel Chockalingam Vanniarajan

Zhao Lou

Vlad Troyanker

Omar Abdul Baki

Itay Teller

Sudharsan Sampath

Jason Anthony Mobarak

Yixiong Meng

Neelam Rani

Paul Joseph Ellis

Kevin Kwanghoon Ha

Kian Jamali Abianeh

Roger Hau-Bin Cheng

Udhgee Murugesan

Mansour Ahmadi

Nicholas Ray Byrd

Victor Thomas Wilburn

Nathan David Scherer

Abraham Martin Passagia

Jon Arron Mcclintock

A method of implementing a network-enabled secure door lock, comprising obtaining measurements of an environment associated with a door from a variety of sensor types; generating, based at least in part on the measurements, a set of inputs to a machine-learning model; inputting the set of inputs into the machine learning model to determine a status of the door; generating a message that indicates the status of the door; and transmitting the message to a user device.

Sensor-based door lock confidence

Techniques for establishing a data connection are described. In an example, a computer system receives, from a second device of a computer network, first data associated with a first device and second data associated with the second device. The first device is not connected to the computer network. The computer system determines third data generated by one or more devices other than the first device and the second device and associated with at least one of: the first device, the second device, a user account, or the computer network. The computer system generates, based on the first data, the second data, and the third data, a confidence score indicating a likelihood of a user authorization to connect the first device to the computer network. The computer system sends, to the second device based on the confidence score, instructions associated with connecting the first device to the computer network.

Confidence based network provisioning of devices

Techniques for determining whether audio is machine-outputted or non-machine-outputted are described. A device may receive audio, may process the audio to determine audio data including audio features corresponding to the audio, and may process the audio data to determine audio embedding data. The device may process the audio embedding data to determine whether the audio is machine-outputted or non-machine-outputted. In response to determining that the audio is machine-outputted, then the audio may be discarded or not processed further. Alternatively, in response to determining that the audio is non-machine-outputted (e.g., live speech from a user), then the audio may be processed further (e.g., using ASR processing).

Detecting machine-outputted audio

This disclosure describes a distributed automated mobile vehicle ('automated mobile vehicle') system for autonomously delivering orders of items to various delivery locations and/or autonomously returning items to a return location. In some implementations, each user may own or be assigned their own automated mobile vehicle that is associated with the user and an automated mobile vehicle control system maintained by the user. When the user orders an item, the user owned or controlled automated mobile vehicle navigates to a materials handling facility, retrieves the ordered item and delivers it to the user.

Distributed automated mobile vehicle routing based on characteristic information satisfying a minimum requirement

Techniques for a server-based reconnection of disconnected devices in a network are described. In an example, a computer system receives, from a second device, first data of a first device. The first data indicates that the first device has disconnected from the network due a change in the password of the network. The computer system determines that the first device is authorized to connect to the network. Based on the first device being authorized, the computer system transmits a request for a token. The computer system compares the token to a token stored by the computer system. In response to the tokens matching, the computer system transmits second data to the first device via the second device. The second data includes an updated password of the network. The first device uses the second data to reestablish a connection with the network.

Process for managing reconnections of devices in a network

Techniques for providing a credential of a secure data network to a computing device are described. In an example, a system stores an association between the computing device and a user account. The user account is also associated with a credential of the secure data network. The system receives a certificate of the computing device and determines the association between the computing device and the user account based on the certificate. Further, the system authenticates the computing device based on the association being determined to send to the computing device data, where this data is verified based on a private key of the system. The system receives a request of the computing device for the credential based on the data and sends the credential to the computing device.

Server-based setup for connecting a device to a local area network

Systems, methods, and computer-readable media are disclosed for systems and methods for sending and receiving anonymized signals or beacons. Example methods may include determining an authentication code and sending a signal associated with the authentication code from an electronic device to a server via a connected device. Example methods may include determining an authentication code by a server or a second electronic device and requesting signal information from the server corresponding to the signal associated with the authentication code.

Anonymized bluetooth beacons

Technologies for cloud-based secure WLAN group self-forming are described. One provisioner portal device receives, from a client provisionee device that desires to connect to a home WLAN, a first SSID and forwards, to a cloud service via a wireless AP device, the first SSID and a MAC address. The provisioner portal device receives, from the cloud service via the WAP device, a second SSID and a passphrase. The provisioner portal device sends, to the client provisionee device, a response that includes the second SSID. The provisioner portal device creates a one-time provisioning wireless network with the second SSID and the passphrase. Through the provisioner portal device, WAP credentials can be exchanged from the cloud server to the client provisionee device over a secure channel. The WAP credentials can be used to switch to the home WLAN without user interaction to manually enter the WAP credentials at the client provisionee device.

Cloud-based secure wireless local area network (WLAN) group self-forming technologies

This disclosure describes methods, apparatus, and systems related to controlled access data allocation. A device may receive a first request from a first device to establish a first connection with a wireless network. The device may receive a second request from a second device to establish a second connection with the wireless network. The device may determine a first access data for the first device, wherein the first access data is associated with a first access configuration. The device may determine a second access data for the second device, wherein the second access data is associated with a second access configuration, wherein the second access configuration is different from the first access configuration. The device may send the first access data to the first device. The device may send the second access data to the second device. The device may establish the first connection with the first device, wherein the first connection is at the first access configuration. The device may establish the second connection with the second device, wherein the second connection is at the second access configuration.

Network access control

Techniques for connecting computing devices to a network are described. For example, a network access device (NAD) connects to a first network that includes a first access point (AP). The NAD receives, from a computing device, first data identifying a second network to be established for the computing device and sends the first data to a server. The NAD receives back a first credential associated with access to the second network and sets up a second AP to the second network. The second AP is associated with the first credential. The NAD sends, to the computing device, second data indicating that access to the second network is available, generates a second credential associated with access to the first network via the first AP, and sends the second credential to the computing device via the second AP.

Managing access of a computing device to a network

Techniques for providing a server-based Wi-Fi Protected Setup (WPS) PIN procedure are described. In an example, a computing device generates a PIN associated with a WPS-PIN procedure. The computing device encrypts the PIN to generate an encrypted PIN based on a public key associated with a server. Further, the computing device sends, to another computing device that is communicatively coupled with the server via an access point, a WPS probe request that includes the encrypted PIN. Based on the WPS probe request, the computing device receives, from at least one of the other computing devices or the server, a credential associated with the access point. The computing devices connects to the access point based on the credential.

Server-based Wi-Fi protected setup (WPS) PIN procedure

Growing community of inventors

Seattle, WA, United States of America

Andrew Jay Roths