Trueposition, Inc.

Other

Google Inc.

Emc Corporation

Skyhook Wireless, Inc.

Isilon Systems, Inc.

Garrison Dental Solutions LLC

Massachusetts Institute of Technology

Royal Free Hospital School of Medicine

Cs3, LLC

Robert J Anderson

Matthew L Ward

Rashidus S Mia

Louis A Stilp

Joseph W Sheehan

Jeffrey Francis Bull

Carlos Hernandez Esteban

Darren P Schack

Aaron Passey

Neal Thomas Fachan

Simon Issakov

Ronald Lefever

Thomas S Ginter

Alan E E Rogers

Peter John Godman

Eric Michael Lemar

Paul Matthew Czarnecki

Steven Maxwell Seitz

Larry V Dodds

David Richards

Arvind Srinivasan

Justin Husted

Adrian J Isles

Pete A Boyer

Vineet Sachdev

Michael Krainin

Changchang Wu

Andrew F Harbison

David Robert Gallup

John E Maloney

Paul A Mikesell

Edward Knapp

Jonathan Philip Levine

Thai Duong

Nathan Edward Dire

Jyotirmaya Akkad

Samuel Thomas Denton

Edwin E McCook

John Solley

Frederic A Beckley

Anthony Richard Brigidi

Michael John Kovach, Jr

Alan E Rogers

Joshua L Weaver

Erik Hubert Dolly Goossens

Christopher Edward Hoover

Stephen A Konkle, Jr

David A Dunlap

Thomas D Garrison

Matthew Thomas Valente

John E Garrison

Brian R Bolon

Benjamin H Cohen

Scott Doenges

Riley Adams

Alex Hull

Tom Garrison

Willard L Van Harn

Carol M Anderson

Sandra J Konkle

John W Jeracka

Ian Duncan MacDonald

Hugh Grant Prentice

Michael Alan Ruck

Erik Christopher Anderson

Shipra Malhotra

Robert Binion, Ii

Michael Arthur Ruck

Tim J Harris

Edgar L Garrison

Thomas Stephan Ginter

Robert Ii Binion

In various embodiments, crowd sourcing techniques are provided to determine beacon altitudes that may then be used in 3D positioning of UE. Some techniques may crowd source beacon altitudes based on global navigation satellite system (GNSS) position fixes obtained by UE. Other techniques may crowd source beacon altitudes based on uncalibrated pressure measurements obtained by UE. Still other techniques may combine beacon altitude crowd-sourcing and pressure sensor calibration on UE. Such techniques may make inferences based on line of sight (LOS) between UE and beacons, determined using signal strength, connection status, and/or timing measurement. The techniques may be implemented separately, or as part of a combined system that determines beacon altitudes in diverse manners. Once beacon altitudes are known, that may be used to determine 3D positions of the UE (e.g., by trilateration, multilateration or other positioning techniques).

Crowd sourced beacon altitudes for 3D positioning

In various embodiments, crowd sourcing techniques are provided to enable RTT-based positioning of UE. To address issues of discovering which beacons (e.g., Wi-Fi APs, cellular base stations, BLE transmitters, etc.) support measurement of RTT (e.g., according to IEEE 802.11mc, 3GPP Release 16, etc.), beacon RTT capabilities may be crowd-sourced from UE and maintained by a cloud-based location platform in a beacon database (or more specifically, a RTT database portion thereof). To address the issue of determining physical antenna positions, RTT measurements may be crowd-sourced from UE for those beacons that are RTT capable, and used by a trilateration algorithm (e.g., a WLS multilateration algorithm) to determine physical antenna positions, which also may be maintained in the beacon database. Accuracy of the trilateration may be enhanced by obtaining raw GNSS measurements (e.g., psuedoranges) from the UE, and performing a cloud-based RTK GNSS position fix for the UE.

Crowd sourced RTT-based positioning

In various embodiments, crowd sourcing techniques are provided to enable RTT-based positioning of UE. To address issues of discovering which beacons (e.g., Wi-Fi APs, cellular base stations, BLE transmitters, etc.) support measurement of RTT (e.g., according to IEEE 802.11mc, 3GPP Release 16, etc.), beacon RTT capabilities may be crowd-sourced from UE and maintained by a cloud-based location platform in a beacon database (or more specifically, a RTT database portion thereof). To address the issue of determining physical antenna positions, RTT measurements may be crowd-sourced from UE for those beacons that am RTT capable, and used by a trilateration algorithm (e.g., a WLS multilateration algorithm) to determine physical antenna positions, which also may be maintained in the beacon database. Accuracy of the trilateration may be enhanced by obtaining raw GNSS measurements (e.g., psuedoranges) from the UE, and performing a cloud-based RTK GNSS position fix for the UE.

In various embodiments, crowd sourcing techniques are provided to enable RTT-based positioning of UE. To address issues of discovering which beacons (e.g., Wi-Fi APs, cellular base stations, BLE transmitters, etc.) support measurement of RTT (e.g., according to IEEE 802.11mc, 3GPP Release 16, etc.), beacon RTT capabilities may be crowd-sourced from UE and maintained by a cloud-based location platform in a beacon database (or more specifically, a RTT database portion thereof). To address the issue of determining physical antenna positions, RTT measurements may be crowd-sourced from UE for those beacons that are RTT capable, and used by a trilateration algorithm (e.g., a WLS multilateration algorithm) to determine physical antenna positions, which also may be maintained in the beacon database. Accuracy of the trilateration may be enhanced by obtaining raw GNSS measurements (e.g., pseudoranges) from the UE, and performing a cloud-based RTK GNSS position fix for the UE.

In various embodiments, techniques are provided for deploying a positioning applet to a SIM (e.g., a physical SIM card or an embedded SIM (eSIM)/integrated SIM (iSIM)) via an over-the-air (OTA) update or by permanent programming (i.e. 'burning in') during manufacture. The positioning applet may run solely on a processor of the SIM, functioning without support of application, OS or baseband software executing on the CPU or baseband processor of the UE, or network deployed infrastructure support. In operation, the positioning applet collects positioning measurements from a baseband processor (e.g., a baseband chipset) of the UE (e.g., via 3GPP protocols) which are sent (e.g., as an encrypted payload) to a remote location platform that compares the positioning measurements to known positioning data in a database (e.g., a crowd sourced database) to determine UE position. The remote location platform may provide an estimated position to a designated recipient system, without involvement of the UE.

SIM-based positioning

Provided is an erosion control kit (ECK) comprising: (I) an erosion control block comprising: (a) a degradable box-shaped frame of latticed ligament with a top, bottom and four sides; (b) a degradable fabric framed just inside the top, bottom and four sides of the frame and defining an interior space; and (c) soil substantially filling the interior space; and (II) one or more anchors configured to bind a bottom portion of the frame to a substratum. Related erosion control features and methods are further provided.

Erosion block

Implementations disclose an access control mechanism for peer-to-peer sharing technology. A method includes receiving, by a processing device of a first user device, an encrypted media item and a wrapped key from a second user device, wherein the wrapped key comprises content masked from the first user device; transmitting, by the first user device, the wrapped key and a request to a media server to determine whether the first user device is authorized to play the encrypted media item; receiving, from the media server, a response indicating the first user device is authorized to play the encrypted media item, the response comprising a cryptographic key derived from the wrapped key; and decrypting the encrypted media item using the cryptographic key.

Access control technology for peer-to-peer sharing

A tool or hinge positioning jig for creating hinge mortises including a hinge jaw having an hinge jaw first portion opposite and substantially parallel to an hinge jaw second portion, and an exterior first surface facing opposite an exterior second surface wherein at least one of the exterior first surface or the exterior second surface is laterally adjustably coupled to the hinge jaw, and wherein the hinge jaw first portion and hinge jaw second portion are capable of being aligned with first and second hinge edges, respectively, and the exterior first surface and exterior second surface are capable of being aligned with first and second workpiece edges, respectively.

Adjustable story stick

A processing device of a media server selects a media item to be provided to users via a satellite broadcast system, encrypts the media item using an encryption key to generate an encrypted media item, and transmits the encrypted media item to the satellite broadcast system via a first communication protocol. The processing device receives a request from a user device for authorization to decrypt the encrypted media item obtained by the user device via a direct connection with the satellite broadcast system. The request is received by the media server via a second communication protocol that is different from the first communication protocol. The processing device determines whether the user device is authorized to decrypt the encrypted media item, and transmits a key for decrypting the encrypted media item in response to the user device being authorized to decrypt the encrypted media item.

Providing online media content via a satellite broadcast system

The technology relates to transitioning between panoramic imagery and the imagery from which the panoramic imagery was generated. Individual images of a portion of a scene may be combined to create a panoramic image of the entire scene. The individual images may be associated with the portion of the panoramic image which they form. The full panoramic image may then be displayed. Based on user input, a portion of the panoramic image may be zoomed-in on, and the individual image associated with that portion of the panoramic image may be displayed.

Dynamic 3D panoramas

Systems and methods are described include defining, at a computing device, a set of images based on captured images, projecting, at the computing device, a portion of the set of images from a planar perspective image plane onto a spherical image plane by recasting a plurality of viewing rays associated with the portion of the set of images from a plurality of viewpoints arranged around a curved path to a viewpoint, determining, at the computing device, a periphery boundary corresponding to the viewpoint and generating updated images by removing pixels that are outside of the periphery boundary, and providing, for display, the updated images within the bounds of the periphery boundary.

Omnistereo capture and render of panoramic virtual reality content

Systems and methods for capturing omnistereo content for a mobile device may include receiving an indication to capture a plurality of images of a scene, capturing the plurality of images using a camera associated with a mobile device and displaying on a screen of the mobile device and during capture, a representation of the plurality of images and presenting a composite image that includes a target capture path and an indicator that provides alignment information corresponding to a source capture path associated with the mobile device during capture of the plurality of images. The system may detect that a portion of the source capture path does not match a target capture path. The system can provide an updated indicator in the screen that may include a prompt to a user of the mobile device to adjust the mobile device to align the source capture path with the target capture path.

Omnistereo capture for mobile devices

Implementations disclose an access control mechanism for peer-to-peer sharing technology. A method includes receiving, by a processing device of a first user device, an encrypted media item and a wrapped encryption key from a second user device via a peer-to-peer connection; transmitting, by the first user device, the wrapped encryption key and a request to a media server to determine whether the first user device is authorized to play the encrypted media item; receiving, from the media server, a response indicating the first user device is authorized to play the encrypted media item, the response comprising an encryption key derived from the wrapped encryption key; and decrypting the encrypted media item using the encryption key to play the media item.

Systems and methods are related to a camera rig and generating stereoscopic panoramas from captured images for display in a virtual reality (VR) environment.

Camera rig and stereoscopic image capture

Growing community of inventors

Phoenixville, PA, United States of America

Robert J Anderson