Boson NetSim for CCNA 6.0 by trojantech

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Boson NetSim for CCNA 6.0 by trojantech

Final ESP Version 4 CCNA 1 skill

Here is the link to download of FINAL ESP Version4 CCNA 1s KILL

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Final ESP Version 4 CCNA 1 skill

RouterSim BSCI Network Visualizer 6.0

RouterSim's BSCI™ Network Visualizer 6.0 is a CCNA and BSCI router and network simulator and is RouterSim's most robust product. You can design, build and configure your own network.
With a program that offers 600 supported commands and over 230 labs, you are empowered to build, test and preview a large variety of networks! BSCI™ Network Visualizer® 6.0 is ideal for:
Anyone studying for the Cisco® CCNA™ 640-802 exam and the BSCI™ 642-901 exam
Deployment over a LAN network
Distance education and deployment on a Citrix server or Microsoft Terminal Services
Corporate trainers and employees
Students at colleges, universities, and technical institutes
Program Features ...
Contains all labs and supported commands from our CCNA Network Visualizer 6.0 package
Added new BSCI labs
Added the 2811 router with four serial interfaces
Added the 2960 switch and the 3560 switch
This program has 28 practice scenarios based on Cisco® 640-802 test objectives and Cisco® 642-901 test objectives that can be graded with our Net Assessment software engine
Offers labs on the SDM
Offers labs on the SSH
Offers labs on IPv6 and OSPFv3
Revamped CCNA and BSCI labs that include more educational material
You have the option of using RouterSim® or Cisco® devices in creating/viewing networks
There are 30, self-contained, Individual labs that can be graded with our Net Assessment software engine
Custom Labs ... Create and share your labs with others via the Network Visualizer menu. This is ideal for instructors
Net Assessment ... for instructors and all other users. Test and evaluate your problem solving and troubleshooting skills
Net Packet Monitor ... You can view a packet real time as it travels through your network

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RouterSim BSCI Network Visualizer 6.0

Subnetting Made Easy! flash tutorial CCNA

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Subnetting Made Easy! flash tutorial CCNA

how to subnetting

1. What is an IP Address?
An IP address is made of 4 Octets, or 32 bits. It is usually represented in dotted decimal format like this: 131.107.2.205. Each number represents an octet. An octet is a group of 8 bits. Since we have 4 octets in an IP Address, there are 8*4=32 bits in an IP Address.
Computers do not understand dotted decimal notation, as they only function in binary. All computers understand is 1 and 0. Therefore, we must find a way to transfer an IP Address from dotted decimal format to binary. We do this octet by octet.
Each bit in an octet has an associated decimal value:
Bit 1 2 3 4 5 6 7 8
Bit value 128 64 32 16 8 4 2 1
So you can follow, here is a decimal to binary calculator. However, I advise you to do the math at first to better understand the concepts...
Insert Number:
Let’s take an example. I have an IP address of 131.107.2.4. What is that in Binary?
Let’s do this octet by octet:
131:
Bit Value 128 64 32 16 8 4 2 1
Binary 1 0 0 0 0 0 1 1
Column with a “1” in binary mean that we count the corresponding bit value. If you add up all the bit values marked with a one, you get 128+2+1=131.
107:
Bit Value 128 64 32 16 8 4 2 1
Binary 0 1 1 0 1 0 1 1
Column with a “1” in binary mean that we count the corresponding bit value. If you add up all the bit values marked with a one, you get 64+32+8+2+1=107
2:
Bit Value 128 64 32 16 8 4 2 1
Binary 0 0 0 0 0 0 1 0
Column with a “1” in binary mean that we count the corresponding bit value. If you add up all the bit values marked with a one, you get 2
4:
Bit Value 128 64 32 16 8 4 2 1
Binary 0 0 0 0 0 1 0 0
Column with a “1” in binary mean that we count the corresponding bit value. If you add up all the bit values marked with a one, you get 4
Now we know that another way of writing our example IP address of 131.107.2.4 is:
10000011.01101011.00000010.00000100
IP Addresses are made of two distinct parts: the Network ID and the Host ID. When you try to ping an IP address, IP at Layer 3 needs to determine whether the target IP address is local or remote to your subnet. To explain this, I like to ask my students the following question:
“Let’s say I live on Maple Tree Lane. You say that you also live on Maple Tree Lane. Are we neighbors? Well, we may be, or we may not be. We do not have enough information to answer that question. Specifically, we do not know if we live in the same town. If we do live in the same town, and our street addresses are similar, then we are neighbors. If we do not live in the same town, it does not matter whether our street addresses are similar or not: we are not neighbors.”
The same applies to IP addressing. Before I can find out what your Host ID is – i.e. your street address – I have to worry about what your Network ID is – i.e. your town.
So how does IP know what the Host ID and Network IDs are? That is the role of the Subnet Mask.
Please note that neither the network ID, the host ID nor the subnet bit can be all 0s or all ones. More to come about this later…
2. What is a Subnet Mask?
A Subnet Mask is used to enable IP at Layer 3 to find out whether the target IP address you are trying to contact is local or remote to your network. That is all it does. It helps you determine which part of an IP Address is the Network ID, and which is the Host ID. So how does it do that?
We have all seen a Subnet Mask before. It usually looks something like this:
255.255.255.0
This subnet mask is obviously displayed in dotted decimal format. As we already know, however, computers do not understand this format. They only understand binary. So let’s apply what we know about binary to our subnet mask:
255
Bit Value 128 64 32 16 8 4 2 1
Binary 1 1 1 1 1 1 1 1
Column with a “1” in binary mean that we count the corresponding bit value. If you add up all the bit values marked with a one, you get 128+64+32+16+8+4+2+1=255
So, 255 is “all ones”, as you may have heard before.
0:
Bit Value 128 64 32 16 8 4 2 1
Binary 0 0 0 0 0 0 0 0
Column with a “1” in binary mean that we count the corresponding bit value. If you add up all the bit values marked with a one, you get 0. So, 0 is “all zeros”, as you may have heard before.
In other words, our 255.255.255.0 subnet masks in binary looks like this:
11111111.11111111.11111111.00000000
Note that a subnet mask is also a 32 bit, 4 octet entity that matches the structure of our IP addresses…
If I were to superimpose the IP address and subnet mask we have translated so far, I would get this:
131.107.2.4 10000011. 01101011. 00000010. 00000100
255.255.255.0 11111111. 11111111. 11111111. 00000000
I highlighted the Network bits in Red, and the Host bits in Blue. Notice anything? All the network bits are the bits that had a value of “1” in the subnet mask, and all the host bits are the bits that had a value of “0” in the subnet mask. Easy, isn’t it? In our example, the Network ID is 131.107.2, and the host ID is 4. If I change the subnet mask to 255.255.0.0, what happens? Well, let’s apply the same logic:
131.107.2.4 10000011. 01101011. 00000010 00000100
255.255.0.0 11111111. 11111111. 00000000 00000000
What happens now? My network ID is now 131.107 and my host ID is 2.4! That is why an IP address on its own cannot exist! That is why a host on a network needs at least an IP address AND a subnet mask!
Let’s say that I tell you that I have 2 IP addresses:
131.107.2.4 and 131.107.5.6
Are they local to each other, or remote?
You cannot answer that question, because it is incomplete! I need to give you the subnet mask as well! Let’s see why…
Let’s say that the subnet mask is 255.255.255.0. Then we have:
131.107.2.4 10000011. 01101011. 00000010. 00000100
131.107.5.6 10000011. 01101011. 00000101. 00000110
255.255.255.0 11111111. 11111111. 11111111. 00000000
Do the Network IDs match? No! Look at the third octect:
0 0 0 0 0 0 1 0
0 0 0 0 0 1 0 1
If the network IDs do not match, then the two IP addresses are remote from each other. They are on different subnets, and you will need a router to go from one to the other.
Let’s take the same example with a different subnet mask of 255.255.0.0:
131.107.2.4 10000011. 01101011. 00000010. 00000100
131.107.5.6 10000011. 01101011. 00000101. 00000110
255.255.0.0 11111111. 11111111. 00000000. 00000000
Do the Network IDs match now? Yes!
If the network IDs match, then the two IP addresses will be on the same network. You do not need a router to go from one to the other in this scenario.
Let’s sum this up: we have seen how only having an IP address is not sufficient, and how the same two IP addresses can be either remote or local to each other depending on which subnet mask you are using. This is at the basis of IP troubleshooting.
3. What are IP classes?
You may have heard of the different classes for IP addresses, namely, class A, B and C. How does that work? Let’s look at the following table:
Class A 1-127* 0xxxxxxx.
Class B 128-191 10xxxxxx.
Class C 192-223 110xxxxx.
*127 is part of the class A range, but you cannot assign any 127.x.x.x IP addresses to hosts as the entire range is reserved by InterNIC for the loop back address…
What does this mean? When talking about a Class of IP addresses, you only look at the first octet to determine what class this IP address belongs to.
For class A, InterNIC decided that the 1st octet would start with a bit value of 0. Therefore, the lowest binary of the 1st octet is 0000001, and the highest is 01111111 (in decimal, that would be from 1 to 127)
For class B, InterNIC decided that the 1st octet would start with a bit value of 10.
Therefore, the lowest binary of the 1st octet is 1000000, and the highest is 10111111 (in decimal, that would be from 128 to 191)
For class C, InterNIC decided that the 1st octet would start with a bit value of 110.
Therefore, the lowest binary of the 1st octet is 1100000, and the highest is 11011111 (in decimal, that would be from 192 to 223)
There are other classes, D and E, but they are not used right now and are illegal on the Internet.
Also, note that you can use any subnet mask classes with any IP address classes. Subnet mask classes are as follows:
Class A 255.0.0.0
Class B 255.255.0.0
Class C 255.255.255.0
In other words, it is totally possible to have a Class B IP address and a class C subnet mask… hang on… isn’t that what we have been taking as an example all along? Remember our 131.107.2.4 w/ a subnet mask of 255.255.255.0?
4. What is subnetting?
Subnetting is the action of taking an IP range where all IP addresses are local to each other and dividing it into different ranges – or subnets – where IP addresses from one range will be remote from any other IP addresses from any other range.
If you want to find out how many hosts you have in an IP range, first you need to determine how many host bits there are. Let’s take our previous example of 131.107.2.4 and 255.255.255.0. We already established previously that the Network ID was 131.107.2 and the Host ID was 4. In other words, we have 3 octets for the Network ID and one octet – or 8 bits – for the Host ID. Now that you have determined the amount of host bits you had, apply that number to the following formula:
(2^N)-2)=number of hosts, where N is your number of host bits
That gives us: ((2^8)-2)=254 hosts.
That means that in our example, we have the 131.107.2.x network, which contains 254 possible IP addresses, all local to each other.
What if I chose a class A subnet mask? I would then have:
(2^24)-2)=16,777,214 valid IP addresses in that range!
What if I do not need that many – heck, who does J -- and decided to divide that range in to several other, more manageable ranges? Well, I need to subnet.
Note: we have to subtract 2 because we lose the all ones and all zeroes values.
If I only had 2 bits to play with, in binary, I would have 2^2=4 possibilities:
00
01
10
11
However, all zeros in IP means the whole network, and all ones is the broadcast ID, neither one being valid IP addresses that can be assigned to a host. That is why we always lose 2 and have to subtract two from (2^N)…
Let’s look at the following table:
Bit Value 128 64 32 16 8 4 2 1
Subnet Mask 192 224 240 248 252 254 255
Number of Subnets 2 6 14 30 62 126 254
This table is the only table you need to learn to understand IP subnetting and IP addressing! Three little lines!
Let’s look at it line by line. The first line we are already acquainted with, so I will not spend more time on it.
The second line tells you what your subnet mask will be. How do we get those results? If you look at the bit value line, and add up the bit values, you will see that:
128+64=192
192+32=224
224+16=240
240+8=248
248+4=252
252+2=254
254+1=255
Easy? J
Now to the third line. This one tells you how many subnets will get if you use the corresponding subnet mask. In other words: if you use the 192 in your subnet mask, you will get 2 subnets. If you use 224, you will get 6 subnets, etc… So how did I get those numbers? Well, let’s take 192 as an example. How many bits did I use to get 192? Well, I added 128 and 64, so that would be two bits, right? Let’s look at our well-known formula:
((2^2)-2)= 2
That is where the values in the third line come from. Want to check another one? Let’s look at 248. How many bits did I use to get to 248? 128+64+32+16+8=248, or a total of 5 bits. ((2^5)-2)=30
So now, we know how to build that table, and we understand how it is built. We are almost done with subnetting!
Let’s say my boss shows up one morning and says:
“Dave, I have an IP range of 131.107.0.0 and a subnet mask of 255.255.0.0. I want 6 subnets out of this.” What do I do now?
I look at my chart, and I see that to get 6 subnets, I need a subnet mask of 224. I already have an existing subnet of 255.255.0.0, which in binary looks like this:
11111111.11111111.00000000.00000000
I cannot “borrow” any more bits from the first 2 octets, as they are already network bits – represented by a binary value of 1. So the only I can add this “224” to my subnet mask is to borrow from the host ID. I take the next available octec – the third in our example – and end up with a subnet mask of 255.255.224.0, which looks like this in binary:
11111111.11111111.11100000.00000000
Note that we “borrowed” 3 host bits – binary value of 0 -- in the third octet and made them network bits – binary value of 1. Note as well that 3 bits is what I need to make 224: 128+64+32=224.
Now that I have a subnet mask, I can tell that I have 13 host bits, meaning that I will have ((2^13)-2)=8190 valid IP addresses per range J
So I can go back to my boss and say “Boss, your new subnet mask for the 131.107.x.x network will be 255.255.224.0, and you will have 6 subnets with 8190 IP addresses in each range.” What’s my boss’ next question?
“Dave, what are those ranges?” Oh yeah… maybe I forgot that part J
5. Calculating IP ranges in subnetted environments
Bit Value 128 64 32 16 8 4 2 1
Subnet Mask 192 224 240 248 252 254 255
Number of Subnets 2 6 14 30 62 126 254
Here is our little subnetting chart again. In this section, we will learn how to derive the actual IP ranges from the network address and subnet mask.
In our example, we had:
Original IP range: 131.107.x.x
Original Subnet Mask: 255.255.0.0
Subnetted subnet mask: 255.255.224.0
Amount of subnets: 6
The first valid range will be 131.107.32.1 to 131.107.63.254. How did I get there? I used the above chart.
Once I determined that 224 was my subnet bit, I asked myself: what is the lowest bit value needed to make 224?” The answer is: 32 (128+64+32=224, and 32 is the lowest of all 3 bit values.) If you look at the chart, you can see this:
Bit value 32
Subnet Mask 224
Number of subnets 6
Visually, it is easy to see that to have 6 subnets, I will use 224 as a subnet bit and will start my first range at 32. I will then increment each range by that same value of 32. I love this chart!
My 6 ranges will be:
131.107.32.1 to 131.107.63.254
131.107.64.1 to 131.107.95.254
131.107.96.1 to 131.107.127.254
131.107.128.1 to 131.107.159.254
131.107.160.1 to 131.107.191.254
131.107.192.1 to 131.107.223.254
As you can see, to get the next range, I simply incremented my original value by the same value (look at the numbers in RED) I started at 32, then incremented 5 times by that same value of 32.
If you look at the values in BLUE you will see that they always are the next red value minus 1. For example, if I look at the first range x.x.32.1 to x.x.63.254, I looked at the next line’s red value, here 64, and subtracted 1 to get to 63. That is all there is to it!
By the way, note that my last octet on the start of range is always 1 – it cannot be 0, or else my host ID would be all 0s – and that the last octet is always 254 in the last IP of each range – it cannot be 255, or else it would be all 1s, which we know is the broadcast address, and is therefore not available for hosts to have.
In this example, we subnetted a Class B network into 6 subnets. Note that it is somewhat different if you subnet a Class A and a Class C. Let’s do a Class A example.
Original IP range: 10.x.x.x
Original Subnet mask: 255.0.0.0
Amount of subnets needed: 14
To get 14 subnets I need a subnet bit of 240, therefore my new subnet mask becomes 255.240.0.0. Note that my subnet bit is now the second octet, not the third as in the previous example. This will have its importance when we create our ranges.
What is the smallest bit value needed to make 240? 16. Therefore I will start my ranges at 16 and will increment by that same value of 16.
My ranges are:
10.16.0.1 to 10.31.255.254 10.128.0.1 to 10.143.255.254
10.32.0.1 to 10.47.255.254 10.144.0.1 to 10.159.255.254
10.48.0.1 to 10.63.255.254 10.160.0.1 to 10.175.255.254
10.64.0.1 to 10.79.255.254 10.176.0.1 to 10.191.255.254
10.80.0.1 to 10.95.255.254 10.192.0.1 to 10.207.255.254
10.96.0.1 to 10.111.255.254 10.208.0.1 to 10.223.255.254
10.112.0.1 to 10.127.255.254 10.224.0.1 to 10.239.255.254
Now let's do this with a class C. Remember, class C is the hardest, so follow this carefully!
Original IP range: 192.168.2.x
Original Subnet mask: 255.255.255.0
Amount of subnets needed: 6
To get 6 subnets I need a subnet bit of 224, therefore my new subnet mask becomes 255.255.255.224. Note that my subnet bit is now the 4th octet, not the third or second as in the previous examples. This will have its importance when we create our ranges.
What is the smallest bit value needed to make 224? 32. Therefore I will start my ranges at 32 and will increment by that same value of 32. (Are you getting the hang of it by now?)
My ranges are:
192.168.2.33 to 192.168.2.62 192.168.2.129 to 192.168.2.158
192.168.2.65 to 192.168.2.94 192.168.2.161 to 192.168.2.190
192.168.2.97 to 192.168.2.126 192.168.2.193 to 192.168.2.222
But, you say, I thought I was starting at 32?!? My first range is starting at 33! Well, remember the other examples? We always started at .1, didn't we? Except that here, because we are already subnetting at the fourth octet, we don't have room for a fifth to add the .1, so we have to incorporate it in the last octet. So why can we not use 192.168.2.32 w/ a subnet mask of 255.255.255.224? Let's see why:
192.168.2.32 11000000. 10101000. 00000010. 00100000
255.255.255.224 11111111. 11111111. 11111111. 11100000
Looking at it in binary, it is obvious that the Host ID is all zeroes, which we know is not possible...
That is it. If you know and understand this, you can subnet! Enjoy practicing...

CCNA practice labs and simulators

CCNA practice labs simulators, good for practicing with step by step instructions.

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CCNA practice labs and simulators

Boson_NetSim_CCNP_7.06-Portable

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Boson_NetSim_CCNP_7.06-Portable

New CCNA Discovery And Exploration v4.0

New CCNA certifications and their contents is changing.According to cisco, the new CCNA will contain two exams.CCNA Discovery and CCNA exploration. IGRP will be removed and some wireless, VoIP and dsl configuration with linksys routers will be added

Discovery:

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CCNA.Discovery.v4.0 part01

CCNA.Discovery.v4.0 part02

CCNA.Discovery.v4.0 part03

CCNA.Discovery.v4.0 part04

Exploration

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CCNA.Exploration.v4.0 part01

CCNA.Exploration.v4.0 part02

CCNA.Exploration.v4.0 part03

CCNA.Exploration.v4.0 part04

Exams:

Semester 1

Semester 2

Boson Simulator for CCNA and CCNP with lab scenarios.

Boson Simulator for CCNA and CCNP with lab scenarios.

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Boson_Router_Simulator

CCNA video mentor

 

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CCNA_video_mentor.zip.001

CCNA_video_mentor.zip.002

CCNA_video_mentor.zip.003

CCNA Fast Pass by Todd Lammle

CCNA Fast Pass by Todd Lammle Coverage includes:

* Designing internetworks using Cisco technology

* Developing an access List

* Evaluating TCP/IP communication process

* Configuring routers and switches

* Configuring IP addresses, subnet masks, and gateway addresses

* Performing LAN, VLAN, and WAN troubleshooting

* Understanding rules for packet control

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CCNA Fast Pass by Todd Lammle

Latest Actualtest ICND 1 ICND 2 Jan 2009

Latest Actualtest ICND 1 ICND 2 Jan 2009

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640-822 ICND1

19/01/2009 Containing 468 Exam Questions and Answers

640-816 ICND2

21/01/2009 Containing 468 Exam Questions and Answers

Authorized router and switch self-study simulation software for CCNA exam preparation

Authorized router and switch self-study simulation software for CCNA exam preparation
Beyond the eSIM network simulator, CCNA Router and Switch eSIM also includes the following self-study learning tools:
* Lab activities Enter router commands, drag and drop objects, and answer questions on topics ranging from IP address classes to basic router configuration to extended ACLs. They are designed to make sure you have a full understanding of router command syntax.
* 200 CCNA Flashcard questions Choose from among the CCNA skill areas, set the amount of time and the number of questions, choose whether questions are ordered or random, and build your own practice CCNA exam.
* Video lessons Expert instructors guide you through processes, such as subnetting Class C IP addresses; complex topics, such as dedicated and switched WAN technologies; and the various components of selected Cisco devices. This expert guidance delivers specific topics in an easy-to-comprehend format.
* PhotoZooms Zoom in for close-up views of high-quality photographs of networking equipment and other products such as cables and diagnostic equipment. You can choose from various views, get detailed information on selected product parts, and zoom in for close-up views to familiarize you with these critical network environment devices.
CCNA Router and Switch eSIM improves upon the traditional interactive multimedia learning experience for networkers who are preparing for the CCNA exam, are new to the networking field, or are practitioners who want to perfect their hands-on configuration skills. CCNA Router and Switch eSIM combines on two CD-ROMs tools that not only provide intermediate- to late-stage hands-on test preparation but also provide help in translating theoretical learning to real-world application. Network simulations, tutorial activities, practice test questions, and other electronic learning tools result in a comprehensive and interactive package for CCNA self-study.
CCNA Router and Switch eSIM begins with the eSIM network simulator. This simulator provides hands-on experience with routers and switches using three network scenarios: five routers, which includes support for access control lists (ACLs); three switches, for trunking and virtual LANs (VLANs); and two switches and one router, for routing between VLANs. Each scenario enables you to specify your own IP addressing schemes, providing you with a dynamic IP addressing environment. The accompanying electronic user manual presents 14 activities for you to work through, but the totally open, freely configurable, simulative environment of the eSIM network simulator allows hours of exploration and experimentation throughout the three network scenarios.
CCNA Router and Switch eSIM is part of a recommended learning path from Cisco Systems that can include simulation and hands-on training from authorized Cisco Learning Partners and self-study products from Cisco Press.Titles in this series provide officially developed exam preparation materials that offer interactive learning, assessment, and networking simulation experience to help Cisco Career Certification candidates learn concepts and understand the application of networking concepts in a real-world setting.
The interactive self-study learning products on two CD-ROMs enable you to
* Practice with freely configurable software-based network scenarios
* Work within three network environments
* Develop your hands-on skills
* Gain confidence for your CCNA exam
Minimum System Requirements
* System running Windows® 95, 98, 2000, or NT® 4.0, Mac® OS 9 or higher300 MHz with 64 MB RAM
* Minimum 800 x 600 video resolution with 256 or more colorsCD-ROM drive
* Windows Media™ Player 7.0 or higher. Note: Windows 95 and NT 4.0 do not support Windows Media Player 7.0, so the videos must be played on a different OS
CCNA® Router and Switch eSIM provides state-of-the-art network environment simulations
Flashcards
Flashcards contain a sampler of 200 questions to help you study for the CCNA certification exam. These questions cover seven key skill areas: the OSI model, Cisco IOS® Software, routing, IP addressing, LAN switching, WANs, and routing protocols.
Videos
Videos further your understanding of complex networking topics and provide an ideal format for showing facilities such as wiring closets. In these videos, Cisco Networking Academy™ Program instructors guide you step-by-step through complex processes like subnetting Class C IP addresses and determining administrative distances. Topics such as dedicated and switched WAN technologies, CSU/DSUs, and access control lists are also discussed. Other videos discuss various components of Cisco equipment.
PhotoZooms
PhotoZooms feature high-quality photographs that enable you to zoom in and out and change angles to see various levels of detail. Fifteen PhotoZooms show various networking equipment including hardware devices, cables, and diagnostic tools.
Host Configuration
To simulate a real-world environment, CCNA Router and Switch eSIM requires you to configure the communication parameters of the host computer connected to the device. Additionally, you can ping from host to host, host to device, or device to device after you correctly configure the devices.
Color Coded Help
Multiple levels of the context-sensitive help provided with Cisco IOS® Software are included. Commands supported by CCNA Router and Switch eSIM are highlighted. Syntax errors are treated just the same way they are on real hardware. Nonsupported commands pop up a window.
Configuration Screen
Interact with devices via a terminal emulation program (CiscoTerminal). Command abbreviation, command completion, the cursor keys, and the More prompt all respond the same way they do with actual Cisco networking equipment.

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CCNA_RouterSwitch_eSIM.part1.rar

CCNA_RouterSwitch_eSIM.part2.rar

CCNA Practice tests for Knowledge

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First set of Practice Questions:

part01

Second set of Practice Questions:

part02

Third set of Practice Questions:

part03

CCNA guide by Exam Prep

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CCNA_Exam_Prep_Exam_640-802

Cisco CCNA Lab Companion 1 and 2

Another Lab manual for CCNA,

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Lab Manuals

Cisco CCNA Companion Labs Guide 1 and 2

The only authorized lab companion for the Cisco Networking Academy Program
Cisco Networking Academy Program CCNA 1 and 2 Lab Companion, is the complete collection of labs created for version 3.1 of the Cisco Networking Academy Program CCNA 1 and CCNA 2 web-based courses.
A collection of more than 100 labs, including the Case Study labs from the CCNA course, provides you with hands-on experience to practice the skills needed for CCNA certification. The material begins to prepare you to take the CCNA certification exam (640-801, or 640-821 and 640-811).
Keep your completed labs on-hand in this book to use as a study guide later. These labs are also referenced in the Cisco Networking Academy Program CCNA 1 and 2 Companion Guide.
Each lab helps facilitate your full understanding of the networking and routing topics covered with features like:
Objective-Identifies the goals that are to be accomplished in the lab.
Background/Preparation-Provides a list of the equipment needed to run the lab.
Reflection Questions-As appropriate, the labs include questions that elicit particular points of understanding. These questions help verify your comprehension of the technology being implemented.
As in the courses, the CCNA 1 section covers networking basics, including the basics of Ethernet technologies, TCP/IP, network media, IP addressing, and routing. The CCNA 2 section covers routers and routing basics, including the basics of configuring routers, routing protocols, more TCP/IP concepts, access control lists, and networking troubleshooting skills.

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Cisco CCNA Companion Labs Guide 1 and 2

CCNA Portable Command Guide

This book has been completely updated to cover topics in the ICND1 640-822, ICND2 640-816, and CCNA 640-802 exams. Use this quick reference resource to help you memorize commands and concepts as you work to pass the CCNA exam. The guide summarizes all CCNA certification-level Cisco IOS® Software commands, keywords, command arguments, and associated prompts, providing you with tips and examples of how to apply the commands to real-world scenarios. Configuration examples throughout the book provide you with a better understanding of how these commands are used in simple network designs.
The ten topics covered are
* TCP/IP
* An Introduction to Cisco Devices
* Configuring a Router
* Routing
* Switching
* Implementing a Wireless LAN
* Network Administration and Troubleshooting
* Managing IP Services
* WANs
* Network Security
Labels: 640-802, ccna, command, ebook
CCNA IOS command guide by Todd Lammle

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CCNA Portable Command Guide

Complete Knowledgenet Cisco Academy - All In One

You only have to install Virtual Drive Pro to make it work (its also included). 3.3 Gb of knowledge that is well worth it. Links all working as of today.
Includes….
Cisco Certified Network Associate (CCNA)
CCNA - Interconnecting Cisco Network Devices (ICND) Express Online Training v2.1
CCNA - Interconnecting Cisco Network Devices (ICND) Student Guide v2.1
CCNA - Introduction to Cisco Networking Technologies (INTRO) Student Guide v1.0A
Cisco Certified Network Professional (CCNP)
CCNP - Building Scalable Cisco Internetworks (BSCI) Express Online Training v2
CCNP - Building Scalable Cisco Internetworks (BSCI) Student Guide Vol. 1&2 v2.2
CCNP - Building Cisco Multilayer Switching Networks (BCMSN) Express Online Training v2
CCNP - Building Cisco Multilayer Switching Networks (BCMSN) Student Guide v2.1
CCNP - Building Cisco Remote Access Networks (BCRAN) Express Online Training v2
CCNP - Building Cisco Remote Access Networks (BCRAN) Student Guide v2
CCNP - Building Cisco Remote Access Networks (BCRAN) Student Guide Vol. 1&2 v2.2
CCNP - Cisco Internetwork Troubleshooting (CIT) Express Online Training v5
CCNP - Cisco Internetwork Troubleshooting (CIT) Student Guide v5.1
Cisco Certified Design Associate (CCDA)
CCDA - Designing for Cisco Internetwork Solutions (DESGN) Express Online Training v1
CCDA - Designing for Cisco Internetwork Solutions (DESGN) Student Guide v1.1
Cisco Certified Design Professional (CCDP)
CCDP - Building Scalable Cisco Internetworks (BSCI) Express Online Training v2
CCDP - Building Scalable Cisco Internetworks (BSCI) Student Guide Vol. 1&2 v2.2
CCDP - Designing Cisco Network Service Architectures (ARCH) Express Online Training v1.1
CCDP - Designing Cisco Network Service Architectures (ARCH) Student Guide v1.0
Cisco Certified Security Professional (CCSP)
CCSP - Securing Cisco IOS Networks (SECUR) Express Online Training v1
CCSP - Securing Cisco IOS Networks (SECUR) Student Guide v1.1
CCSP - Cisco Secure Intrusion Detection Systems (CSIDS) Express Online Training v4
CCSP - Cisco Secure Intrusion Detection Systems (CSIDS) Student Guide v4.1
CCSP - Cisco Secure PIX Firewall Administrator (CSPFA) Express Online Training v3.1
CCSP - Cisco Secure PIX Firewall Administrator (CSPFA) Student Guide v3.2
CCSP - Cisco Secure Virtual Private Networks (CSVPN) Express Online Training v3.1
CCSP - Cisco Secure Virtual Private Networks (CSVPN) Student Guide v3.1
CCSP - Cisco Secure Virtual Private Networks (CSVPN) Student Guide v4
CCSP - Cisco SAFE Implementation (CSI) Student Guide v2
Cisco Certified Voice Professional (CCVP)
CCVP - Cisco Voice Over IP (CVOICE) Express Online Training v4.2
CCVP - Cisco Voice Over IP (CVOICE) Student Guide v4.2
CCVP - Cisco IP Telephony Troubleshooting (IPTT) Express Online Training v1
CCVP - Cisco Implementing Quality of Service (QOS) Express Online Training v2
CCVP - Cisco Implementing Quality of Service (QOS) Student Guide v2
CCVP - Cisco IP Telephony (CIPT) Express Online Training v3.3
CCVP - Cisco IP Telephony (CIPT) Student Guide Part 1 v4
CCVP - Cisco IP Telephony (CIPT) Student Guide Part 2 v4
Cisco Certified Internetwork Professional (CCIP)
CCIP - Building Scalable Cisco Internetworks (BSCI) Express Online Training v2
CCIP - Building Scalable Cisco Internetworks (BSCI) Student Guide Vol. 1&2 v2.2
CCIP - Cisco Implementing Quality of Service (QOS) Express Online Training v2
CCIP - Cisco Implementing Quality of Service (QOS) Student Guide v2
CCIP - Border Gateway Protocol (BGP) Express Online Training v3
CCIP - Border Gateway Protocol (BGP) Student Guide v3
CCIP - Cisco Implementing Multi-Protocol Label Switching (MPLS) Express Online Training v2
CCIP - Cisco Implementing Multi-Protocol Label Switching (MPLS) Student Guide v2
Other Cisco Training Content
Misc - Cisco CallManager Express (CME) Express Online Training v1
Misc - Implementing CiscoWorks for Enterprise LAN/WAN Mangement (CWENT) Express Online Training v1.0
Misc - Implementing CiscoWorks for Enterprise LAN/WAN Mangement (CWENT) Student Guide v1.0
Misc - Cisco Enhanced Voice over Data Design (EVODD) Express Online Training v3.3
Misc - Cisco Enhanced Voice over Data Design (EVODD) Student Guide v3.3
Misc - Cisco Deploying Quality of Service (DQOS) Express Online Training v1
Misc - Cisco Deploying Quality of Service (DQOS) Student Guide v1
Misc - Cisco Unified Systems Communication Admin & Engineer (UCSA & UCSE) Express Online Training
v1.1
Misc - Cisco Unified Systems Communication Administrator (UCSA) Student Guide v1.1
Misc - Cisco Unified Systems Communication Engineer (UCSE) Student Guide v1.1
Misc - Cisco Catalyst 6500 - Express Online Training v2

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KnowledgeNet_Cisco_Academy_Collection.part01.rar

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CCNA Fast Pass by Todd Lammle

Coverage includes:
* Designing internetworks using Cisco technology
* Developing an access List
* Evaluating TCP/IP communication process
* Configuring routers and switches
* Configuring IP addresses, subnet masks, and gateway addresses
* Performing LAN, VLAN, and WAN troubleshooting
* Understanding rules for packet control

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CCNA Fast Pass by Todd Lammle