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BGP is used by service providers as an exterior gateway protocol (ie, to distribute routes to other service providers and to carry external routes within each service provider s network) RFC 2858 defines multiprotocol extensions to BGP, and RFC 3107 builds on this by defining how to advertise labelled routes using BGP In RFC 3107, a label for FEC is piggy-backed on the BGP update message used to advertise the FEC itself BGP is used to signal the VPN labels used in the RFC 2547 standard for implementing IP VPNs over MPLS (now updated in RFC 4364), but it may also be used to advertise labelled FECs between different autonomous systems within one service provider s network or between service providers

Since the object Ob is on the left of the + operator, it invokes its overloaded operator function, which (presumably) is capable of adding an integer value to some element of Ob However, this statement doesn t work:

using using using using using using System; System.Collections.Generic; System.Linq; System.Text; System.Windows; System.Windows.Media;

The reason this statement does not work is that the object on the left of the + operator is an integer, which is a built-in type for which no operation involving an integer and an object of Ob s type is defined You can use built-in types on the left side of an operation if the + is overloaded using two friend functions In this case, the operator function is explicitly passed both arguments and it is invoked like any other overloaded function, according to the types of its arguments One version of the + operator function handles object + integer and the other handles integer + object Overloading the + (or any other binary operator) using a friend allows a built-in type to occur on the left or right side of the operator The following program shows how to accomplish this:

#include <iostream> using namespace std; class CL { public: int count; CL operator=(int i); friend CL operator+(CL ob, int i); friend CL operator+(int i, CL ob); }; CL CL::operator=(int i) { count = i; return *this; }

namespace DictionaryPages { class VisualHolder : FrameworkElement { VisualCollection visuals; Collection

In looking at the subject of MPLS protection it is important to consider the MPLS OAM mechanisms that may be used for fault detection and diagnosis, as well as the traffic protection mechanisms that may be used to route traffic away from a failed link or node, and the node protection mechanisms that have been developed to enhance node availability in IP/MPLS networks Since MPLS reuses IP addressing and IP routing protocols and transports its signalling over IP, the key tools used in MPLS network operation are the same as those defined for use in IP networks If LSPs are established dynamically using RSVPTE or LDP, and if the network elements operate correctly, then IP tools themselves are sufficient for network operation However, additional tools and protocols have been defined to enable detection of MPLS data plane failures LSP ping is defined in RFC 4379 LSP ping may be used to verify connectivity along an MPLS LSP, and if the ping fails, then LSP pings may be sent in traceroute mode to diagnose the location of the fault The key to LSP ping is to ensure that packets are forwarded along the LSP rather than using hop by hop IP forwarding, and if the LSP is broken, that the LSP ping is dropped This is achieved by sending LSP ping requests along an LSP but to an IP destination address in network 127/8 (ie, in the range 127001 to 127255255254) Network 127/8 is guaranteed never to be forwarded by

22:

// This handles ob + int CL operator+(CL ob, int i) { CL temp; tempcount = obcount + i; return temp; } // This handles int + ob CL operator+(int i, CL ob) { CL temp; tempcount = obcount + i; return temp; } int main() { CL obj; obj = 10; cout << objcount << " "; // outputs 10 obj = 10 + obj; // add object to integer cout << objcount << " "; // outputs 20 obj = obj + 12; // add integer to object cout << objcount; // outputs 32 return 0; }

of Visuals public VisualHolder() { visuals = new VisualCollection(this); }