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variable-size frames and ATM cells Based on FSAN recommendations, in 2003 2004 the Telecommunication Standardization Sector of the International Telecommunication Union (ITU-T) approved the new Gigabit-capable PON (GPON) series of specifications, known as ITU-T Recommendations G9841, G9842, and G9843 Although the GPON encapsulation method (GEM) was added to improve the efficiency of Ethernet transport, many artifacts of ATM and SONET/SDH remained in the GPON specification In January 2001, the Ethernet in the first mile (EFM) study group was formed by the IEEE community, targeting migration of existing Ethernet technology into the subscriber access area and focusing on both residential and business access networks Keeping in touch with the very Ethernet tradition, the group set the goal of providing a significant increase in performance while minimizing equipment, operation, and maintenance costs, aiming in fact at the development of Ethernet PON system specifications Ethernet PON (EPON) is a PON-based network that carries subscriber data encapsulated in native Ethernet frames, as defined by the IEEE 8023 standard [2], using 8B10B line coding (8 data bits of PCS layer data encoded into 10 line bits at the PHY layer) and operating at the standard Ethernet speed of 1 Gbps (PCS layer) / 125 Gbps (PHY layer) Where possible, EPON uses the existing IEEE 8023 specification, including application of the existing 8023 full-duplex media access control (MAC) as defined in 1000BASE-X specifications with PON specific extensions at the RS and PCS layers The IEEE 802 group has traditionally focused on enterprise data communication technologies In EPONs, the main emphasis is on preserving the architectural model of Ethernet, and thus no explicit framing structure exists Ethernet frames are transmitted in bursts, with a standard inter frame gap (IFG) inserted between individual frames The burst sizes, as well as the physical layer overhead, are large in EPONs As an example, let s consider the maximum automatic gain control (AGC) interval, which is set to 400 ns, thus providing enough time for the optical line terminal (OLT) to adjust gain without the need for optical network units (ONUs) to perform power-leveling This simplicity enhances robustness and reduces cost Additionally, because the laser on and off times are capped at 512 ns, a value significantly greater than that of GPON (16-bit times), lower quality, and thus much cheaper lasers, as well as receiver modules, can be used in EPON systems Moreover, EPON interfaces seamlessly with an IP core network, due to its inherent capability to carry variable sized datagrams, transparency for higher network layers, simplicity and OAM robustness Newly adopted quality-of-service (QoS) techniques, including full-duplex transmission mode, prioritization (IEEE 8021p), and virtual LAN (VLAN) tagging (IEEE 8021Q), make Ethernet networks capable of supporting voice, data, and video Not surprisingly, Ethernet is poised to become the architecture of choice for next-generation subscriber access networks.

double pow10(int n) long double pow10l(int n)

private void printButton_Click(object sender, EventArgs e) { if (document != null) { if (!SecurityManager.IsTrue(PrintingPermission)) throw new SecurityException( Resources.PrintingNotPermitted); PrintTemplate template = new PrintingTemplate(document); template.Print(); } else { MessageBox.Show(Resources.NoDocumentToPrint); } }

The prototype for pow10( ) is in <mathh> This function is not defined by the ANSI/ISO C/C++ standard The pow10( ) function returns 10 raised to the power n Overflow and underflow are the only possible errors pow10l( ) is the long double version of this function

The EPON market is a rich ecosystem with multiple system vendors focusing on various market segments, starting from chip vendors through system developers to network developers and planners EPONs today are already under extensive deployment, with approximately 6+ million lines in operation, while the total deployed CO port

This program prints the first 11 powers of 10:

#include <stdioh> #include <mathh> int main(void) { int x=0; while(x < 11) printf("%f\n", pow10(x++)); return 0; }

At this point, we have a problem. Actually, we have two problems. The first is that our business logic now lives in the UI. Some form class somewhere is deciding whether or

exp( ), log( ), sqrt( ), pow( )

Passive Optical Networks (PONs)

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