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In the preceding example, the first 250 bytes of packets sent to 192168110, on TCP port 80, are captured as they enter the outside interface TIP To make it easier to troubleshoot connections, associate an ACL to the packet capture process to limit the information you re capturing to the specific problem a connection is having

{(x1,y1), (x2,y2), (x3,y3), (x4,y4), (x5,y5)} 4

The promise of customer relationship management (CRM) is to provide a single-technology platform for tracking and managing the sales processWith a common technology platform, CRM offers the opportunity for assigning and managing elements of the sales process continuum to divergent parties while successfully keeping track of all customer interactions In this respect, CRM can alter sales job content As a company shifts parts of the sales process to other resources, what role does the salesperson perform Remember, the definition of this revised job role is the starting point for effective sales compensation design

To view the packets in a packet capture file, use the show capture command:

{(x1,y1), (x2,y2), (x3,y3), ID1} {(x1,y1), (x3,y3), (x4,y4), ID1} {(x1,y1), (x4,y4), (x5,y5), ID1}

ciscoasa# show capture [capture_name] [access-list ACL_ID] [count number] [decode] [detail] [dump] [packet-number number]

The McGraw Hill Companies, 2001

The capture_name parameter specifies the name of the packet capture that you want to view The access-list parameter filters out the packet information in the packet capture based on the permit statements in the ACL The count parameter displays the first x number of packets specified in the capture The decode parameter is used for VPN tunnels terminated on the appliance: ISAKMP data flowing through that interface will be captured after decryption and shown with more information after decoding the fields The detail parameter displays additional protocol information for each packet The dump parameter displays a hexadecimal dump of the packets The packet-number parameter starts displaying the packets at the specified packet number NOTE Without any parameters, only your current capture configuration is shown not the actual captured packets Here is an example that displays the capture processes enabled on the appliance:

23

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Here s an example that displays packets captured by the capture process called arp:

tude A polyline (also called a linestring) consists of a connected sequence of line segments, and can be represented by a list containing the coordinates of the endpoints of the segments, in sequence We can approximately represent an arbitrary curve by polylines, by partitioning the curve into a sequence of segments This representation is useful for two-dimensional features such as roads; here, the width of the road is small enough relative to the size of the full map that it can be considered two dimensional Some systems also support circular arcs as primitives, allowing curves to be represented as sequences of arcs We can represent a polygon by listing its vertices in order, as in Figure 2322 The list of vertices speci es the boundary of a polygonal region In an alternative representation, a polygon can be divided into a set of triangles, as shown in Figure 232 This process is called triangulation, and any polygon can be triangulated The complex polygon can be given an identi er, and each of the triangles into which it is divided carries the identi er of the polygon Circles and ellipses can be represented by corresponding types, or can be approximated by polygons List-based representations of polylines or polygons are often convenient for query processing Such non- rst-normal-form representations are used when supported by the underlying database So that we can use xed-size tuples (in rst-normal form) for representing polylines, we can give the polyline or curve an identi er, and can represent each segment as a separate tuple that also carries with it the identi er of the polyline or curve Similarly, the triangulated representation of polygons allows a rst-normal-form relational representation of polygons The representation of points and line segments in three-dimensional space is similar to their representation in two-dimensional space, the only difference being that points have an extra z component Similarly, the representation of planar gures such as triangles, rectangles, and other polygons does not change much when we move to three dimensions Tetrahedrons and cuboids can be represented in the same way as triangles and rectangles We can represent arbitrary polyhedra by dividing them into tetrahedrons, just as we triangulate polygons We can also represent them by listing their faces, each of which is itself a polygon, along with an indication of which side of the face is inside the polyhedron.

ciscoasa# show capture arp 2 packets captured 19:12:23478429 arp who-has 1721612 tell 1721611 19:12:26784294 arp who-has 1721612 tell 1721611 2 packets shown

Summary