Hewlett-Packard Development Company, L.p.

Hewlett-Packard Company

Institute for the Development of Emerging Architectures, L.l.c.

International Business Machines Corporation

Hewlett Packard Enterprise Development LP

Institute for the Development of Emerging Architecture L.l.c.

Valtrus Innovations Limited

Alan Hersh Karp

Rajiv Gupta

Jerome C Huck

Peter Markstein

Arindam Banerji

Glenn T Colon-Bonet

Michael J Morrison

Roger A Golliver

Gautam B Doshi

Ming C Hao

Sandeep Kumar

Craig Peter Sayers

Dennis Brzezinski

Chia-Chiang Chao

Ernest Mak

Harumi Kuno

Ashwin Deepak Swaminathan

Jun Li

Kannan Govindarajan

Jean-Francois C Collard

Wojciech Golab

Guillermo Juan Rozas

Sekhar R Sarukkai

Ram Swaminathan

Rajendra Kumar

Dhruva Ranjan Chakrabarti

Terence Patrick Kelly

Antonius A Kalker

Sivakumar Makineni

Venkatesh Krishnan

William Y Chen

Alexandre Bronstein

Michael J Lemon

Mark S Miller

Shankar Umamaheshwaran

Randolph G Scarborough

Shamik Shama

Guillermo Rozas

Umeshwar Dayal

Markus H Gross

Mehul A Shah

Robert S Schreiber

Dale Calvin Morris

Sharad Singhal

Matthew D Pickett

Dean A Mulla

Peter Phaal

David Allen Fotland

Richard J Carter

Alex Xin Zhang

Kevin Smathers

Kemal Guler

Hsiu-Khuern Tang

Claudio Bartolini

William S Worley, Jr

Frederic C Amerson

Ren Wu

Patrick Charles McGeer

Fereydoon Safai

Kay-Yut Chen

Tongwei Liu

Todd M Spencer

Alfred William Shannon

Gregory Pogossiants

Daniel Garfinkel

Anthony Hassitt

Shamik Sharma

Thomas G Fincher

Leslie R Fine

Joseph S Sventek

Charles Young

Thomas Holenstein

Dorothea Beringer

Daniel Cotting

Tyler Close

Thomas Wylegala

Jin-Fan Shaw

Antonius A C M Kalker

Joydip Das

Scott L Williams

Chris Preist

Brian Ono

Thomas Rokicki

William R Bry

Guatam Bhawandas Doshi

Leslie J Toomey

Vineet Singh

Rajiiv Gupta

Glen Colon-Bonet

Mike Morrison

H Roland Kenner

A shiftable memory supporting atomic operation employs built-in shifting capability to shift a contiguous subset of data from a first location to a second location within memory during an atomic operation. The shiftable memory includes the memory to store data. The memory has the built-in shifting capability. The shiftable memory further includes an atomic primitive defined on the memory to operate on the contiguous subset.

Shiftable memory supporting atomic operation

Shiftable memory that supports defragmentation includes a memory having built-in shifting capability, and a memory defragmenter to shift a page of data representing a contiguous subset of data stored in the memory from a first location to a second location within the memory to be adjacent to another page of stored data. A method of memory defragmentation includes defining an array in memory cells of the shiftable memory and performing a memory defragmentation using the built-in shifting capability of the shiftable memory to shift a data page stored in the array.

Shiftable memory defragmentation

A system includes an initiator and processing nodes. The initiator distributes portions of a transaction among the processing nodes. Each processing node has at least one downstream neighbor to which the processing node sends commit messages. The commit messages include a commit status of the processing node. The downstream neighbor is also a processing node.

Distributed transaction processing through commit messages sent to a downstream neighbor

Display screen or portion thereof with a context-adaptive graphical user interface

An encryption key fragment is divided into a number of encryption key fragments. Requests to store different ones of the encryption key fragments are transmitted to different computer memory storage systems. An individual request to store an encryption key fragment includes one of the encryption key fragments and bears an access control hallmark for regulating access to the encryption key fragment.

Encryption key management using distributed storage of encryption-key fragments

In one example, a method for implementing recovery segments includes sending an application message from a parent process executed by a first computing device to a child process executed by a second computing device and identifying a dependency created by the application message. This identified dependency is included in a dependence set of the child process and saved. A checkpoint is generated by the parent process and a checkpoint message that includes dependency information is sent from the parent process to the child process. The child process modifies the dependence set according to the dependency information and generates a second checkpoint that is saved in nonvolatile memory of the second computing device. Upon occurrence of a failure of the parent process, the child process reverts to a most recent checkpoint generated by the child process that does not include the effects of processing an orphan message.

Recovery segments

Illustrated is a system and method that includes identifying data stored as an entry in a list. The system and method also includes truncating the entry to create a truncated entry. It further includes transforming the truncated entry into a hash, the hash used to set an index position value within a Bloom filter. The system and method also includes an interface module to transmit the Bloom filter.

Protecting the information encoded in a bloom filter using encoded bits of data

In one example, a computing device generates a new password for accessing a user account and/or computing system and inspires a change of an existing password for the user account and/or computing system to the new password. Thereafter, the computing device detects occurrence of a condition to trigger another change of the password for the user account and/or computing system and, responsively, inspires another change of the password for the user account and/or computing system.

Password changing

Methods associated with a service are identified. Select ones of the methods are matched to generic methods of a conversation. A new service is established from the conversation that includes the select ones of the methods.

Establishing new service as conversation by replacing variables in generic service in an order with variables from a decoupled method of legacy service

A method for controlling frequency of data transfer of an electronic device is disclosed. A time stamp is fetched over a network connection, wherein the time stamp is not modifiable at the electronic device. The time stamp is stored at the electronic device. In response to a request to transfer digital content, it is determined whether a predetermined time interval since a most recent transfer of the digital content has elapsed.

Controlling frequency of data transfer

Various embodiments of the present invention are directed to methods and systems for distributing digitally encoded information. In one embodiment of the present invention, a licensee desiring to purchase digitally encoded information from a copyright owner posts collateral with a third party entity. The third party entity then provides authentication information to the licensee. The licensee transmits proof of knowledge of authentication information to the copyright owner. The copyright owner sends proof of the licensee's knowledge of authentication information and digital media to the third-party entity. The third-party entity embeds the authentication information in the digitally encoded information, and delivers the digitally encoded information with embedded authentication information to the licensee.

Methods and systems for distributing digitally encoded information

A purchase objective is received from a customer. A merchant is notified of the purchase objective. One or more queries for personal information associated with the customer are received from the merchant. Ones of the received queries that are associated with the purchase objective are validated. For each of the validated queries, information matching the query is retrieved from personal data relating to the customer subject to data access restrictions specified by a privacy policy established by the customer, and the retrieved information is transmitted to the merchant. An offer that satisfies the purchase objective is received from the merchant. The offer is presented to the customer.

Mediating customer-driven exchange of access to personal data for personalized merchant offers

A network service system comprises a service registry adapted to interact with registry clients. The service registry includes a service registry interface operatively coupled to a service data registry and a metadata registry for processing unstructured queries from registry clients.

Network service system and mechanism for searching service registries

Various approaches are described for auditing integrity of stored data. In one approach, a data set is provided from a client to a storage provider, and the data set is stored at a first storage arrangement by the storage provider. An auditor determines whether the data set stored at the first storage arrangement is corrupt without reliance on any part of the data set and any derivative of any part of the data set stored by the client. While the auditor is determining whether the data set stored at the first storage arrangement is corrupt, the auditor is prevented from being exposed to information specified by the data set. The auditor outputs data indicative of data corruption in response to determining that the data set stored at the first storage arrangement is corrupt.

Auditing data integrity

A source computer is associated with multiple certificates. The source signs each certificate with a separate private key. From time to time, the source generates (a) new key pair(s) to replace (an) old one(s). The source uses the new private key(s) to sign the associated certificate(s). The source then requests a connection to a destination computer, the request being associated with the multiple certificates which identify the source. The source also transmits the new public key(s). The destination receives the request, and checks the certificates for validity. If less than all but at least a threshold number of the certificates are valid, the destination notes that one or more new public keys are being distributed. The destination accepts the connection, receives the new public key(s) associated with the invalid certificate(s), and replaces the corresponding old public key(s).

Using multiple certificates to distribute public keys

Growing community of inventors

Palo Alto, CA, United States of America

Alan Hersh Karp