Motorola Corporation

General Dynamics C4 Systems, Inc.

James Edward Greenwood, Jr

Gerald James Hogg

Bruce Alan Fette

William Robert Worger

David Michael Harrison

George Xenakis

Kerry Lucille Johns-Vano

John B Gehman, Jr

Susan L Gilfeather

Calvin W Harrison

Mary Maureen Weber

Methods (,, and,) and a multi-layer service management system (,) enable mutilayer service management in a global network environment in a communication system (,) which includes a core network (,) and multiple Distributed Virtual Network Segments (DVNSs) (,). The system (,) includes a network service manager (,) capable of managing a set of services for operating the core network, DVNS service managers (DVNSMs) (,) residing within a core side (,) and a product side (,) of each item of DVNS equipment (,) for managing a first and second set of services associated with the DVNS and also a set of value added services (,) provided through the DVNS equipment (,), and a processor/server,residing within customer premises equipment (CPE) (,) for enabling provision of value added services to the CPE. Methods (,, and,) enable management of services using the service management system (,) by distributing service management across the layers of the network architecture (,).

Method and system for multilayer service management

A message processing center (,) is used in a global message delivery system. Message processing center (,) uses at least one GEO satellite (,) and at least one Non-GEO satellite (,) to delivers messages (pages) to a number of ground stations (,) located at various locations on the surface of the earth. Message processing center (,) determines loading for at least one GEO satellite (,) and at least one Non-GEO satellite (,). Message processing center (,) determines available capacity for at least one GEO satellite (,) and at least one Non-GEO satellite (,). Message processing center (,) uses a number of criteria to optimize the delivery of the message data.

Global message delivery system and method using GEO and Non-GEO satellites

A programmable crypto processing system (10) includes several processing resources (14, 16, 26) implemented on a single ULSI die. The processing system is both key and algorithm agile allowing for simultaneous execution of a variety of cryptographic programs through the use of background staging of the next program and context (key and state) during execution of a current program. The programmable crypto processing system includes a programmable crypto processor (17) for processing data units in accordance with a channel program, a crypto controller (11) for identifying a channel program, two interface processors (13, 15) for asynchronously receiving and transferring data units from and from an external host. Data units identify a particular channel program, and are processed in a selected processing engine in accordance the identified channel program. The interface processors are capable of full duplex operation and provide full physical data interface isolation for processing plain-text and cipher-text data.

Programmable cryptographic processing system and method

A complex arithmetic processor and method includes a host interface for distributing data, a left memory and a right memory each coupled to the host interface, and a Z memory coupled to the host interface. The left memory and the right memory store the data and the Z memory stores Z memory data. A right/left switch is coupled to the left memory and to the right memory and makes left memory a data source and a right memory a data destination in a first setting, and makes the right memory the data source and the left memory the data destination in a second setting. An arithmetic engine is coupled to the host interface, to the Z memory, and to the left and right memories. The arithmetic engine uses the data and the Z memory data to perform an operation on the data to produce a result.

Complex arithmetic processor and method

Growing community of inventors

Scottsdale, AZ, United States of America

James Edward Greenwood, Jr