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A system for and methods of processing non-traditional payment transactions on a traditional payment network is disclosed. More specifically, a payments system includes one or more payment program managers (PPMs), which are the providers of alternative payment products, in combination with one or more payment program processors (PPPs), which serve as processors for the PPMs. The PPMs and PPPs operate on a payment network, such as a traditional payment network. The payments system includes the utilization of traditional bank identification numbers (BINS) in order to process non-traditional transactions on a traditional payment network. Surrogate numbers are issued on BIN ranges to the non-traditional transactions in order to process them on the traditional payment network. Additionally, the payments system includes pricing structures that are associated with alternative payment products. These pricing structures are implemented and processed on the payment network, alongside the pricing structures of traditional payment products.

The present invention involves a new system and process for automatically controlling whether a displayed web page and associated frames displayed within a window of a web browser are secure or non-secure. For example, whether the displayed web page and associated frames are provided via a secure socket layer (SSL), i.e. a web page from an HTTPS address (secure), or simply via an HTTP address (non-secure), respectively. Specifically, the present invention uses a dynamic “Web Component” to remotely control web page security states. Further, the Web Component according to the present invention uses the same script and HTML for all implementations or instantiations of the Web Component, regardless of which, or how many, unique local clients make use of the Web Component. This code reuse is accomplished by using entry web pages, or “entry points,” as described in further detail below, to set the value of function properties or parameters of the Web Component for dynamically and controlling the security state of a web page having at least two frames. The script and/or HTML source code of the Web Component pages does not change based on each new implementation or instantiation. Consequently, little setup work is required for each implementation, and only a basic verification test pass is needed for each unique automatically customized Internet web page.

Certain example embodiments described herein relate to security systems and/or methods for cloud computing environments. More particularly, certain example embodiments described herein relate to the negotiation and subsequent use of Trading Partner Agreements (TPAs) between partners in a Virtual Organization, the TPAs enabling resources to be shared between the partners in a secure manner. In certain example embodiments, TPAs are negotiated, an algorithm is executed to determine where an executable is to be run, the resource is transferred to the location where it is to be run, and it is executed—with the TPAs collectively defining a security policy that constrains how and where it can be executed, the resources it can use, etc. The executable may be transferred to a location in a multipart (e.g., SMIME) message, along with header information and rights associated with the executable.

A computerized system is provided for modeling a business process, the computerized system comprising a web server and a database server. The web server implements a user interface to the system. The database server is in operable communication with the web server and comprises a data architecture representing the business process. The data architecture comprises an entity model representing an entity responsible for implementing at least a portion of the business process, a transaction model comprising at least one step defining a business process, a list model representing at least one step in the transaction, the list model comprising a list of at least one entity associated with the transaction; and a task model associated with the list, the task model defining at least one task associated with the at least one step in the transaction.

The method according to a preferred embodiment of the present invention allows an improved travel request service to end-users who request proposals for a trip from a Global Distribution System (GDS). This uses a new travel request which comprises a wider range for each search parameter than previous travel requests from the prior art. The new travel request includes many different ranges of parameters in the same travel request whereas the prior art travel request has to be repeated for each different requested value for each search parameter. The method according to a preferred embodiment of the present invention provides a combination of two modules, a master module and a worker module, to carry out the improved travel request service.

The invention discloses an FPGA prototype verification device and method. The device comprises a PICE interface, a clock module, a memory and an FPGA chip which are arranged on a board card. The method comprises the steps that a to-be-verified RTL code used for achieving an MCTP based on a PCIE bus is compiled to generate an execution file; the execution file is transplanted to the FPGA chip; the FPGA chip creates a CPU, a chip internal interconnection bus, a memory controller and an MCTP processing module by running the execution file, wherein the CPU is connected with the memory and the MCTP processing module through the chip internal interconnection bus; and then MCTP data packet receiving and transmitting verification between the CPU and a test host is carried out through the PCIE interface. According to the invention, a software and hardware verification platform is provided for realizing the MCTP by adopting the PCIE bus, time to market of a product is accelerated, and the research and development cycle of the product is shortened.

Fast and scalable architectures and methods adaptable to available resources, that (1) compute 2-D convolutions using 1-D convolutions, (2) provide fast transposition and accumulation of results for computing fast cross-correlations or 2-D convolutions, and (3) provide parallel computations using pipelined 1-D convolvers. Additionally, fast and scalable architectures and methods that compute 2-D linear convolutions using Discrete Periodic Radon Transforms (DPRTs) including the use of scalable DPRT, Fast DPRT, and fast 1-D convolutions.

The present invention relates to a transceiver element for an optical unit of a photoelectric barrier to such a photoelectric barrier. In particular, a transceiver element comprises at least one optical sender, at least one optical receiver and a control element, wherein said control element comprises a driver unit for driving said at least one optical sender to emit radiation and at least one receiver unit for sensing and evaluating electrical signals generated by said optical receiver.