Scalable SGRS for Larger Group Sample Clauses

Scalable SGRS for Larger Group. For each join and leave message, we are required to perform a hash operations proportional to the group size. SGRS may encounter a scalability problem when the group size reaches millions of users. For instance, in a group of one million members, each member must maintain a state vector of 999999 nonce instances. In terms of memory consumption, this will require approximately 40MB, which is not an issue for modern end-user devices, but for each leave and join event, the protocol requires the performance of nearly one million hash operations. With such a large group size, the probability of the occurrence of a leave or join event also increases. The problem of scalability can be solved by dividing the large group into smaller cascaded groups arranged in multiple layers, as shown in Figure 9. Let us consider 𝑁 number of members divided into 𝑘 number of groups with each group 𝐺 𝐺
Sample 1
AutoNDA by SimpleDocs
Scalable SGRS for Larger Group. For each join and leave message, we are required to perform a hash operations proportional to the group size. SGRS may encounter a scalability problem when the group size reaches millions of users. For instance, in a group of one million members, each member must maintain a state vector of 999999 nonce instances. In terms of memory consumption, this will require approximately 40MB, which is not an issue for modern end-user devices, but for each leave and join event, the protocol requires the performance of nearly one million hash operations. With such a large group size, the probability of the occurrence of a leave or join event also increases. The problem of scalability can be solved by dividing the large group into smaller cascaded groups arranged in multiple layers, as shown in Figure 9. Let us consider number of members divided into number of groups with each group () having its group key ( ∀ = 1,2,3. . ) shared and generated, as discussed in relation to the SGRS protocol suite. All of these groups can generate a supergroup () by considering each group () as a logical member of the supergroup and considering the corresponding group key as their secret nonce. With this type of arrangement, all of the groups and group members share a common group key generated at the supergroup level. The supergroup () can further be cascaded to generate an ultra-supergroup (), and so on.
Sample 1

Related to Scalable SGRS for Larger Group

  • Required Coverages For Generation Resources Of 20 Megawatts Or Less Each Constructing Entity shall maintain the types of insurance as described in section 11.1 paragraphs (a) through (e) above in an amount sufficient to insure against all reasonably foreseeable direct liabilities given the size and nature of the generating equipment being interconnected, the interconnection itself, and the characteristics of the system to which the interconnection is made. Additional insurance may be required by the Interconnection Customer, as a function of owning and operating a Generating Facility. All insurance shall be procured from insurance companies rated “A-,” VII or better by AM Best and authorized to do business in a state or states in which the Interconnection Facilities are located. Failure to maintain required insurance shall be a Breach of the Interconnection Construction Service Agreement.

  • Loop Provisioning Involving Integrated Digital Loop Carriers 2.6.1 Where InterGlobe has requested an Unbundled Loop and BellSouth uses IDLC systems to provide the local service to the End User and BellSouth has a suitable alternate facility available, BellSouth will make such alternative facilities available to InterGlobe. If a suitable alternative facility is not available, then to the extent it is technically feasible, BellSouth will implement one of the following alternative arrangements for InterGlobe (e.g. hairpinning):

  • Shipping must be Freight On Board Destination to the delivery location designated on the Customer purchase order The Contractor will retain title and control of all goods until delivery is completed and the Customer has accepted the delivery. All risk of transportation and all related charges are the responsibility of the Contractor. The Customer will notify the Contractor and H-GAC promptly of any damaged goods and will assist the Contractor in arranging for inspection. The Contractor must file all claims for visible or concealed damage. Unless otherwise stated in the Agreement, deliveries must consist only of new and unused merchandise.

  • Net Metering If you generate electricity from a renewable generating facility to offset your electricity consumption and/or use net metering at any time during the term of this Agreement, you must notify Starion.

  • CLEC to CLEC Conversions for Unbundled Loops 2.1.11.1 The CLEC to CLEC conversion process for Loops may be used by ITC^DeltaCom when converting an existing Loop from another CLEC for the same End User. The Loop type being converted must be included in ITC^DeltaCom’s Agreement before requesting a conversion.

  • Voice Grade Unbundled Copper Sub-Loop Unbundled Sub-Loop Distribution – Intrabuilding Network Cable (aka riser cable)

  • Packaging Materials and Containers for Retail Sale Packaging materials and containers in which a good is packaged for retail sale shall, if classified with the good, be disregarded in determining whether all the non-originating materials used in the production of the good undergo the applicable change in tariff classification set out in Annex 4, and, if the good is subject to a regional value-content requirement, the value of such packaging materials and containers shall be taken into account as originating or non-originating materials, as the case may be, in calculating the regional value content of the good.

  • Unbundled Copper Loop – Non-Designed (UCL-ND 2.4.3.1 The UCL–ND is provisioned as a dedicated 2-wire metallic transmission facility from BellSouth’s Main Distribution Frame (MDF) to a customer’s premises (including the NID). The UCL-ND will be a “dry copper” facility in that it will not have any intervening equipment such as load coils, repeaters, or digital access main lines (DAMLs), and may have up to 6,000 feet of bridged tap between the End User’s premises and the serving wire center. The UCL-ND typically will be 1300 Ohms resistance and in most cases will not exceed 18,000 feet in length, although the UCL-ND will not have a specific length limitation. For Loops less than 18,000 feet and with less than 1300 Ohms resistance, the Loop will provide a voice grade transmission channel suitable for Loop start signaling and the transport of analog voice grade signals. The UCL-ND will not be designed and will not be provisioned with either a DLR or a test point.

  • Provisioning of High Frequency Spectrum and Splitter Space 3.2.1 BellSouth will provide <<customer_name>> with access to the High Frequency Spectrum as follows:

  • Available Services Subject to the terms of this agreement, Manager may obtain any of the Available Services from Sprint Spectrum in accordance with the provisions of this Section 2.1. The Available Services offered from time to time and the fees charged for such Available Services will be set forth on the then-current Exhibit 2.1.1 (the "Available Services and Fees Schedule"). If Sprint Spectrum offers any new Available Service, it will deliver a new Exhibit 2.1.1 indicating the new service and the fee for the new service. Manager may select one or more of the categories of Available Services. If Manager selects a particular category of services it must take and pay for all of the services under the category selected; Manager may not select only particular services within that category. If Sprint Spectrum determines to no longer offer an Available Service and the service is not a Selected Service, then Sprint Spectrum may give Manager written notice at any time during the term of this agreement that Sprint Spectrum no longer offers the Available Service.

Time is Money Join Law Insider Premium to draft better contracts faster.