Cisco Technology, Inc.

Juniper Networks, Inc.

Joel Abraham Obstfeld

David Delano Ward

Louis Gwyn Samuel

Oliver James Bull

Marcelo Yannuzzi

Mu Lin

Andrew Pletcher

Colby Barth

John Edward McDowall

Richard Mandfred Pruss

Pete Rai

Hui Qu

Geoffrey Huang

Daniel Kharitonov

Colin Constable

David John Beazley

Marc Joseph Faggion

Kireeti Kompella

David C White, Jr

David John Zacks

John E Drake

Yaron Sella

Hannes Gredler

Mark Ammar Rayes

Guillaume Sauvage De Saint Marc

Kevin Holcomb

Shine-Chu Wang

Zi Zhou

John W Garrett, Jr

Hemamalini Subash

Ed Kern

Andrew Michael McPhee

Anjali Kulkarni

Anuj Jain

Franciscus Johannes Marcellus Van Lingen

Rashmi Nikhil Patil

N Shalini Srinivasan

Xinping Xu

Daniel Bourque

Anoosh Hosseini

Heng-Hui Debbie Chu

Leyi Zhang

Presented herein are techniques for observing smart contracts. A method can include obtaining, by a digital twin, a first data set from a first smart contract that stores the first data to a first distributed ledger and a second data set from a second smart contract that stores the second data set to a second distributed ledger. Determining operating states of the first and second smart contracts based on the first data set, the second data set, and one or more state messages from an oracle associated with the first distributed ledger and the second distributed ledger. Generating a consolidated view of the first and second smart contracts, based on the operating states. And providing the consolidated view of the first and second smart contracts for monitoring the operating states and interactions between the first and second smart contracts as a whole.

Systems and methods for observing smart contracts

A method, computer system, and computer program product are provided for obfuscating and storing data. A data object is obtained comprising data for storing to a plurality of distributed ledgers. Sequence information is obtained indicating a number of a plurality of data portions into which the data object is divided, and instructions for storing the plurality of data portions to the plurality of distributed ledgers. The plurality of data portions is generated by dividing the data object according to the number. The plurality of distributed ledgers are determined to store the plurality of data portions based on the instructions indicated by the sequence information. The plurality of data portions is stored across the plurality of distributed ledgers by accessing the plurality of distributed ledgers, wherein each data portion is stored to a particular distributed ledger of the plurality of distributed ledgers according to the instructions indicated by the sequence information.

Data obfuscation and protection in a Web3 environment

Methods are provided for a collaborative, decentralized insight engineering based on exchanging telemetry vectors with peer network devices. Each network device independently detects a deviation in its functioning using machine learning of generated feature vectors. Specifically, the methods involve obtaining, from at least one peer network device, at least a first feature vector that represents at least one insight generated from telemetry data of a respective peer network device. The intermediate network device and the at least one peer network device are configured to forward packets of a traffic flow. The methods further involve determining whether a deviation related to one or more of the network devices, exists based at least on the first feature vector and performing the at least one predefined action based on determining that the deviation exists.

Collaborative telemetry engineering

In one embodiment, a control tower device obtains, first state information from sensing or reporting systems or devices at a particular location via a first communication channel. The control tower device makes, based on the first state information, an evaluation regarding the particular location using one or more digital twins representing one or more entities of the particular location. The control tower device obtains second state information from one or more trusted verifiers for the particular location via a second communication channel. The control tower device verifies, based on the second state information, the evaluation regarding the particular location.

Reliable observability in control towers based on side-channel queries

Presented herein are techniques for verifying data. A method can include obtaining, from an oracle, a first data set associated with a distributed ledger. The method further includes obtaining a plurality of data sets from a plurality of sources. The method further includes generating a confidence level regarding the first data set for validating the first data set, based on comparing the first data set to the plurality of data sets. The method further includes storing the first data set in the distributed ledger based on the confidence level indicating that the plurality of data sets concurs with the first data set. The method further includes taking a remedial action without storing the first data set in the distributed ledger based on the confidence level indicating a discrepancy between the plurality of data sets and the first data set.

Systems and methods for providing confidence in an oracle

Methods are provided which involve obtaining information about a distributed ledger instance associated with an enterprise and generating at least one announcement that advertises a presence of the distributed ledger instance based on the information. The methods further involve providing the at least one announcement to one or more network devices associated with other distributed ledger instances to provide visibility of the distributed ledger instance to the other distributed ledger instances.

Distributed ledger network discovery and cross-instance data routing

Systems, methods, and computer-readable media are disclosed for proactively and adaptively rerouting data to a healthier path through network, as part of flow provisioning, based on environmental variables associated with devices in the network. The present technology includes identifying a routing path for forwarding traffic flows in a network, receiving diagnostic data of a routing device on the routing path. The diagnostic data include one or more environmental parameters associated with internal state and surroundings of the routing device. Further, the present technology includes comparing the diagnostic data of the routing device with a predetermined threshold and modifying, prior to a failure of the routing device, the routing path to bypass the routing device for at least a portion of the traffic flows based on the comparison between the diagnostic data of the routing device and the predetermined threshold.

Proactive flow provisioning based on environmental parameters of network devices

In one embodiment, a code authentication service maintains a mapping of uniform resource locators and key information embedded into codes. The code authentication service receives, from a requesting device, a domain name system resolution request for a particular uniform resource locator. The code authentication service determines, based on the mapping, whether the domain name system resolution request is associated with valid key information for the particular uniform resource locator. The code authentication service provides, to the requesting device, a domain name system resolution response that indicates an address associated with the particular uniform resource locator, when the code authentication service determines that the domain name system resolution request includes valid key information for the particular uniform resource locator.

URL validation and redirection for scannable codes

According to one or more embodiments of the disclosure, a service deploys a first service connector to a first deployment network of a first organization and a second service connector to a second deployment network of a second organization. The service receives a selected visibility offering by the first organization and a selected visibility intent for the second organization. The service determines a data sharing policy by matching the selected visibility offering by the first organization to the selected visibility intent for the second organization. The service configures the first service connector to capture data specified by the data sharing policy from the first deployment network and provide that data to the second service connector.

Item identity federation and visibility as a service using a data sharing policy determined based on a visibility offering and a visibility intent

According to one or more embodiments of the disclosure, a first autonomous mobile robot (AMR) encounters a second AMR, while navigating a location. The first AMR receives, from the second AMR, a task list of the second AMR. The first AMR determines an adjustment to the task list of the second AMR, based in part on a comparison between the task list of the second AMR and a task list maintained by the first AMR. The first AMR sends, to the second AMR, the adjustment to the task list of the second AMR.

Opportunistic information and inventory exchange via serendipitous encounters of autonomous mobile robots

Techniques are described for distributing network device tasks across virtual machines executing in a computing cloud. A network device includes a network interface to send and receive messages, a routing unit comprising one or more processors configured to execute a version of a network operating system, and a virtual machine agent. The virtual machine agent is configured to identify a virtual machine executing at a computing cloud communicatively coupled to the network device, wherein the identified virtual machine executes an instance of the version of the network operating system, to send, using the at least one network interface and to the virtual machine, a request to perform a task, and to receive, using the at least one network interface and from the virtual machine, a task response that includes a result of performing the task. The routing unit is configured to update the network device based on the result.

Distributed processing of network device tasks

In one embodiment, a vehicle having a plurality of network interfaces communicates with a first communication network via a first one of the network interfaces. The vehicle receives performance data regarding the first communication network and one or more other communication network, wherein the received performance data is associated with a particular location. The vehicle determines in advance of arriving at the particular location that the vehicle should switch from communicating with the first communication network to communicating with a selected one of the one or more other communication network, based on the received performance data. At the particular location, the vehicle switches from communicating with the first communication network via the first network interface to communicating with the selected communication network via a second one of the plurality of network interfaces.

Optimizing communications across multiple network interfaces of a connected vehicle

In an embodiment, presenting computer datacenter information comprises a server computer system that is coupled to a plurality of internetworking devices. The plurality of internetworking devices is configured to emit device location information. The server computer system receives the device location information from one or more internetworking devices, where the device location information is based on a particular proximity to a mobile computing device. The server computer system determines a geo-location and proximity of the mobile computing device relative to the one or more internetworking devices. The server computer system then selects device related information for a particular internetworking device, of the one or more internetworking devices, that has closest proximity to the determined geo-location of the mobile computing device. The server computer system then modifies a level of detail of the device related information based upon proximity of the mobile computing device and the particular internetworking device. The server computer system presents the device related information for the particular internetworking device, to the mobile computing device. In other embodiments, the invention encompasses a computer-readable medium configured to carry out the foregoing steps.

Augmenting network device management

Presented herein are techniques to receive configuration instructions for elements of a network topology to be simulated and tested. In response to receiving and in accordance with the configuration instructions, a plurality of software images (for a plurality of virtual network elements of the network topology) are configured via an Application Programming Interface (API). The plurality of software images run in a cloud host. In response to receiving and in accordance with the configuration instructions, data is configured via the API, which represents one or more connections between the virtual network elements. A plurality of software images for the plurality of virtual network elements is then executed in accordance with the data representing the connections, for development and testing of the network topology.

Network development and testing as a cloud service

Growing community of inventors

Bushey, United Kingdom

Joel Abraham Obstfeld