Tuesday, 28 June 2016

600-212 SPLTE Implementing Cisco Service Provider Mobility LTE Networks (SPLTE)

Exam Number 600-212 SPLTE
Associated Certifications Cisco Service Provider Mobility CDMA to LTE Specialist
Cisco Service Provider Mobility UMTS to LTE Specialist
Duration 90 Minutes (55-65 questions)
Available Languages English
Register Pearson VUE
Exam Policies Read current policies and requirements
Exam Tutorial Review type of exam questions

This exam tests a candidate's knowledge of the skills required to understand and implement technologies, components, architecture fundamentals and products that are found in common LTE networks. The exam includes information on the evolved packet core components and their role in the LTE Evolved Packet System (EPS) to include the Evolved Packet Core network as well as the Radio Access Network (RAN). The exam also includes information on standardized technologies that are implemented on the Mobile Management Entity (MME) Serving Gateway (SGW) and the Packet Data Network Gateway (PGW), and their interaction with authentication, charging, and billing components in the network of the mobile operator, as well as, configuration details of how these components are implemented on the Cisco ASR 5000 Series system.

The 600-212 SPLTE Implementing Cisco LTE Packet Core Networks exam tests a candidate's knowledge of the skills required to understand and implement technologies, components, architecture fundamentals, and products that are found in common Long-Term Evolution (LTE) networks.

Recommended Training

Implementing Cisco Service Provider Mobility LTE Networks – (SPLTE)

Courses listed are offered by Cisco Learning Partners—the authorized source for Cisco IT training delivered exclusively by Certified Cisco Instructors. For a list of Cisco Learning Partners, use the Learning Partner Locator.

The Implementing Cisco LTE Packet Core Networks (600-212 SPLTE) exam is a 90-minute, 65–75 question assessment within Cisco's Service Provider Specialist certification. This exam tests a candidate's knowledge of the skills required to understand and implement technologies, components, architecture fundamentals and products that are found in common LTE networks. The exam includes information on the evolved packet core components and their role in the LTE Evolved Packet System (EPS) to include the Evolved Packet Core network as well as the Radio Access Network (RAN). The exam also includes information on standardized technologies that are implemented on the Mobile Management Entity (MME) Serving Gateway (SGW) and the Packet Data Network Gateway (PGW), and their interaction with authentication, charging, and billing components in the network of the mobile operator, as well as, configuration details of how these components are implemented on the Cisco ASR 5000 Series system. This exam is a requirement in order to attain either the Cisco Service Provider Mobility UMTS to LTE Specialist certification or the Cisco Service Provider Mobility CDMA to LTE Specialist certification. Candidates can prepare for this exam by taking the Implementing Cisco Service Provider Mobility LTE Networks (SPLTE) v1.0 training course.

The following topics are general guidelines for the content likely to be included on the exam. However, other related topics may also appear on any specific delivery of the exam. In order to better reflect the contents of the exam and for clarity purposes, the guidelines below may change at any time without notice.

1.0 LTE 5%

1.1 Describe and differentiate LTE / SAE architecture

1.2 Explain attach procedure and call flow

2.0 MME (4G LTE) 16%

2.1 Network functions LTE –MME

2.1.a Identify key functions of the MME and basic understanding of architecture and interfaces
2.1.b Describe MME states of MM and CM management
2.1.c Describe protocol stacks and procedures
2.1.d Describe mobility management signaling and call flows
2.1.e Describe session management signaling and call flows
2.1.f Describe location management signaling and call flows
2.1.g Describe SGS procedures and signaling call flows
2.1.h Describe intra-MME handovers procedure
2.1.i Describe intra-RAT handovers procedure
2.1.j Describe inter-MME handover procedures

2.2 QOS architecture

2.2.a Describe the overall QOS functionality in LTE for single and multi pdn
2.2.b Describe the QOS mapping from UMTS to LTE

2.3 Configurations

2.3.a Configure S1 interface with corresponding services and system parameters
2.3.b Configure S6a interface with corresponding services and system parameters
2.3.c Configure S11 interface with corresponding services and system parameters
2.3.d Configure S13 interface with corresponding services and system parameters
2.3.e Identify and implement gateway selection mechanisms
2.3.f Identify and implement MME operator policy and feature sets
2.3.g Troubleshoot configurations

2.4 Network sharing


2.4.a Describe MOCN architecture
2.4.b Describe GWCN architecture

2.5 Security

2.5.a Describe LTE security principles for MME network node
2.5.b Explain security functions for mobility management procedures

2.6 Idle mode signaling reduction

2.6.a Identify IDLE mode signaling reduction in an LTE network
2.6.b Describe IDLE mode signaling establishment
2.6.c Describe IDLE mode signaling reduction deactivation

2.7 CSFB

2.7.a Describe CSFB architecture in LTE network
2.7.b Describe CSFB call flow and signaling

2.8 IPv6 support

2.8.a Configure IPV6 and dual stack EPS bearer scenarios
2.8.b Configure and implement transport plane IPV6 support for MME

3.0 SGW (4G LTE) 10%

3.1 Network functions LTE-SGW

3.1.a Identify key functions of the SGW and basic understanding of architecture and interfaces
3.1.b Describe SGW attach procedures and call flows
3.1.c Configure S1-U interface with corresponding services and system parameters
3.1.d Configure S5/S8 using PMIP/GTP interface with corresponding services and system parameters
3.1.e Configure S11 interface with corresponding services and system parameters

3.2 Feature functionality and extended application

3.2.a Describe multi-PDN support for SGW
3.2.b Describe downlink delay notification for SGW
3.2.c Describe idle mode signaling reduction support for SGW
3.2.d Configure and implement IPV6 support for SGW

3.3 Internetworking between LTE and other technologies

3.3.a Describe interaction with CDMA/eHRPD internetworking
3.3.b Describe interaction with GSM/UMTS internetworking
3.3.c Configure S4 interface with corresponding services and system parameters
3.3.d Configure S12 interface with corresponding services and system parameters
3.3.e Configure S103 interface with corresponding services and system parameters

3.4 Charging

3.4.a Configure Gx interface with corresponding services and system parameters

3.5 QoS

3.5.a Describe QoS bearer management and marking for SGW
3.5.b Configuring DSCP marking for SGW

4.0 PGW (4G LTE/EHRPD) 15%

4.1 Architecture overview

4.1.a Identify key functions of the PGW and basic understanding of architecture and interfaces

4.2 Implement S5/S8 and Gn/Gp interface

4.2.a Describe GTP protocol
4.2.b Describe mobility management/session management call flows
4.2.c Describe QoS in EPC
4.2.d Configure S5/S8 interface with corresponding services and system parameters
4.2.e Troubleshoot S5/S8 and Gn/Gp

4.3 APN

4.3.a Describe the various IP address allocation mechanisms
4.3.b Describe the concept of virtual APNs
4.3.c Configure APNs and virtual APNs with corresponding service and system parameters
4.3.d Configure IP source address validation and access control list
4.3.e Troubleshoot APN

4.4 Implement Gx interface

4.4.a Describe the important diameter AVPs needed for Gx
4.4.b Describe basic Gx call flows
4.4.c Configure Gx interface with corresponding services and system parameters
4.4.d Troubleshoot Gx interface
4.4.e Describe the common policy use cases
4.4.f Configure failure handling modes
4.4.g Configure usage monitoring over Gx

4.5 Implement Gy interface

4.5.a Describe the important diameter AVPs needed for Gy
4.5.b Describe the basic Gy call flows
4.5.c Configure Gy interface with corresponding services and system parameters
4.5.d Troubleshoot Gy interface
4.5.e Configure failure handling modes
4.5.f Describe OCS selection based on static configuration
4.5.g Describe RADIUS attributes and PCRF out-of-quota redirection handling

4.6 Implement AAA Interface

4.6.a Describe the basic AAA authentication and accounting call flows
4.6.b Describe the important RADIUS attributes for authentication and accounting
4.6.c Configure RADIUS interface with corresponding services and system parameters
4.6.d Troubleshoot RADIUS interface

4.7 Implement S6b interface

4.7.a Describe the important diameter AVPs needed for S6b
4.7.b Describe the basic S6b call flows
4.7.c Configure S6b interface with corresponding services and system parameters
4.7.d Troubleshoot S6b interface

4.8 Interworking with non-3GPP access networks

4.8.a Configure S2a interface with corresponding services and system parameters
4.8.b Configure S2b interface with corresponding services and system parameters
4.8.c Configure S2c interface with corresponding services and system parameters
4.8.d Configure LMA functionality on a PGW
4.8.e Configure non-3GPP IRAT handovers
4.8.f Troubleshoot S2b and S2c interfaces

4.9 SGi Interface

4.9.a Configure and implement various IP transport types
4.9.b Configure and implement static and dynamic routing protocols

5.0 Voice Over LTE 20%

5.1 VoLTE application messages/protocols

5.1.a Describe VoLTE specific diameter interface
5.1.b Describe XCAP, LDAP, SPML
5.1.c Describe CAMEL, CAP, INAP, SOAP, MSML

5.2 Voice over LTE architecture

5.2.a Describe voice evolution in mobile network
5.2.b Identify VoLTE system architecture and functions of network elements

5.3 Network elements in voice over LTE

5.3.a Describe CSCF
5.3.b Describe ENUM
5.3.c Describe MNP — mobile number portability/database
5.3.d Describe telephony application server
5.3.e Describe DRA/DEA
5.3.f Describe HSS
5.3.g Describe PCRF
5.3.h Describe ATCF,ATGW
5.3.i Describe MRF
5.3.j Describe understand OSS and BSS

5.4 QoS

5.4.a Describe QoS in EPS
5.4.b Describe end-to-end QoS in VoLTE

5.5 Interfaces and signaling messages

5.5.a Configure Gx interface and signaling
5.5.b Design Rx interface and signaling
5.5.c Implement Cx interface and signaling
5.5.d Describe ISC interface and signaling
5.5.e Describe Ut interface

5.6 End-to-end call flow

5.6.a Describe IMS client attach to EPC
5.6.b Describe P-CSCF discovery
5.6.c Describe IMS registration, re-registration and de-registration
5.6.d Describe mobile-originated VoLTE call
5.6.e Describe mobile-terminated VoLTE call
5.6.f Describe emergency VoLTE call

5.7 Supplementary services

5.7.a Describe IR.92 supplementary service overview
5.7.b Describe IR.94 supplementary service overview
5.7.c Describe Important services call flows

5.8 VoLTE Interworking

5.8.a Describe PSTN interworking
5.8.b Describe IMS/SIP interworking
5.8.c Describe e-SRVCC

6.0 Other Interfaces 5%

6.1 AAA/diameter related interfaces

6.1.a Describe SWx interface
6.1.b Describe S9 interface
6.1.c Describe Sp interface

6.2 HRPD related interfaces

6.2.a Describe S101
6.2.b Describe S103

7.0 Charging 13%

7.1 Offline charging service

7.1.a Describe offline charging architecture
7.1.b Explain the GTPP protocol header and messages
7.1.c Explain charging data record transport through GTP'
7.1.d Compare and contrast GTPP transfer scenarios
7.1.e Describe and differentiate mobility records generated by MPC nodes
7.1.f Identify and list conditions for record closure and generation
7.1.g Explain Rf offline charging scenarios
7.1.h Identify and list offline charging error cases
7.1.i Configure for offline billing
7.1.j Troubleshoot for offline billing

8.0 Lawful Intercept 5%

8.1 Describe lawful intercept architecture and events

8.2 Configure lawful interception

8.3 Describe lawful intercept trigger element

9.0 Management Protocols 11%

9.1 TACACS

9.1.a Describe admin authentication and command authorization methods
9.1.b Configure Local administration levels
9.1.c Configure external authentication TACACS servers

9.2 Performance counters/statistics

9.2.a Describe the various performance counters
9.2.b Describe the collection and processing of performance counters
9.2.c Describe the common KPIs for various MPC nodes
9.2.d Configure counters and KPIs

9.3 Fault management

9.3.a Describe SNMP protocols, alarms, notification and MIBs
9.3.b Configure SNMP traps, filters and thresholds

9.4 syslog/events Log

9.4.a Describe system log formats and filters
9.4.b Configure syslog servers and event logs

9.5 Security

9.5.a Describe user access control

9.6 NTP

9.6.a Describe system timing
9.6.b Configure NTP servers, system clock, time zone and timestamps

QUESTION 1
Which three options are valid functions performed by Mobility Management Entity? (Choose
three.)

A. Header compression and user plane ciphering
B. PDN GW and Serving GW selection
C. Tracking area list management
D. User plane packet forwarding and routing
E. UE IP address allocation
F. NAS signaling

Answer: B,C,F

Explanation:


QUESTION 2
Which two radio technologies are used in LTE? (Choose two.)

A. OFDMA
B. MIMO
C. TDMA
D. EV-DO
E. VOR
F. DME

Answer: A,B

Explanation:


QUESTION 3
Which parameter provides support of radio resource management by the MME across the S1
interface?

A. RFSP index
B. relative MME capacity
C. GUTI
D. OLD-GUTI

Answer: A

Explanation:


QUESTION 4
Which two Transport protocols can be used for the S6a interface? (Choose two.)

A. SCTP
B. TCP
C. UDP
D. FCP
E. RDP

Answer: A,B

Explanation:


QUESTION 5
Which two statements apply during the attach procedure on an MME? (Choose two.)

A. The attach procedure provides an always-on IP connectivity to the subscriber.
B. Multiple default bearers can be established during the attach procedure.
C. A dedicated bearer can also be established during the attach procedure.
D. The additional guti value in the attach request is derived from a PTMSI.
E. The attach request is always integrity protected.

Answer: A,C

Explanation:

Friday, 17 June 2016

600-199 SCYBER Securing Cisco Networks with Threat Detection and Analysis

Exam Number 600-199 SCYBER
Associated Certifications Cisco Cybersecurity Specialist
Duration 60 minutes (50 - 60 questions)
Available Languages English
Register Pearson VUE
Exam Policies Read current policies and requirements
Exam Tutorial Review type of exam questions

This exam is aimed at testing the knowledge and skills required to proactively detect and mitigate network security threats by leveraging features that exist in Cisco and other industry network security products today. Designed for professional security analysts, the exam covers essential areas of competency, including event monitoring, security event/alarm/traffic analysis, and incident response.

The following course is the recommended training for this exam.

Securing Cisco Networks with Threat Detection and Analysis
Courses listed are offered by Cisco Learning Partners-the only authorized source for Cisco IT training delivered exclusively by Certified Cisco Instructors. Check the List of Learning Partners for a Cisco Learning Partner nearest you.

Exam Description
The Securing Cisco Networks with Threat Detection and Analysis (SCYBER) exam is the exam associated with the Cisco Cybersecurity Specialist certification. This exam is aimed at testing the knowledge and skills required to proactively detect and mitigate network security threats by leveraging features that exist in Cisco and other industry network security products today. Designed for professional security analysts, the exam covers essential areas of competency including event monitoring, security event/alarm/traffic analysis, and incident response.

Recommended Training
The following course is the recommended training for this exam:

Securing Cisco Networks with Threat Detection and Analysis – (SCYBER)

1.0 Information Gathering and Security Foundations 13%
1.1 Describe basic network topologies, application architecture, and host configuration standards
1.2 Identify the services a network and security operations center offers to an organization
1.3 Describe traditional hacking techniques
1.4 Describe basic operational procedures and incident response processes of a security operations center
1.5 Describe basic network security events
1.6 Describe mission-critical network traffic and functions, applications, services, and device behaviors
1.7 Describe corporate security policies
1.8 Describe the role of a network security analyst
1.9 Describe the primary sources of data on vendor vulnerabilities, current threats, exploits, and active attacks
1.10 Describe how vulnerability, attack, and threat data impact operations
1.11 Describe the baseline of a network profile
1.12 Describe correlation baselines (use NetFlow output to validate normal traffic vs. non-normal)
1.13 Describe security around local business process and infrastructure and applications
1.14 Describe risk analysis mitigation

2.0 Event Monitoring 16%
2.1 Describe the various sources of data and how they relate to network security issues
2.2 Monitor the collection of network data as it relates to network security issues
2.3 Monitor and validate health state and availability of devices
2. Monitor DNS query log output (monitor telemetry data to validate devices)
2.5 Identify a security incident (single or recurrent)
2.6 Describe the best practices for evidence collection and forensic analysis
2.7 Describe the different types and severity of alarms and events

3.0 Security Events and Alarms 16%
3.1 Identify and dismiss false positive indicators correctly
3.2 Describe event correlation within the context of the various alarms and corporate infrastructure architecture
3.3 Assess traffic and events in relation to stated policies
3.4 Identify actionable events
3.5 Identify basic incident types
3.6 Describe event metrics and diagnostic procedures

4.0 Traffic Analysis, Collection, and Correlation 24%
4.1 Describe IP packet structures
4.2 Describe TCP and UDP header information
4.3 Analyze network traces or TCP dumps and trace back to actual activities
4.4 Describe packet analysis in IOS
4.5 Describe access packets in IOS
4.6 Acquire network traces
4.7 Configure packet capture

5.0 Incident Response 16%
5.1 Describe standard corporate incident response procedure and escalation policies
5.2 Identify necessary changes to enhance the existing procedure, policy, and decision tree
5.3 Describe the basic emergency mitigation of high-level threats, exploits, and vulnerabilities
5.4 Evaluate and recommend responses to vulnerabilities to ensure adequate monitoring response and mitigation
5.5 Assist level 2 incident response team to mitigate issues
5.6 Describe best practices for post-event investigation
5.7 Describe common legal and compliance issues in security event handling

6.0 Operational Communications 15%
6.1 Describe the communication vehicles related to post-threat remediation
6.2 Generate incident reports and interpret the information to determine the direction of the escalation
6.3 Describe the different types of available metrics and channel to appropriate personnel
6.4 Process incident handling communications and provide context awareness for stakeholders
6.5 Articulate details of problems to remediating teams (constituent-based groups)
6.6 Maintain awareness regarding vulnerabilities and the recommended critical security patches as a result from incident handling
6.7 Communicate recurring issues based on incident handling and provide recommendations for architectural changes or modifications and articulate
6.8 Describe the post-mortem process

QUESTION 1
Which network management protocol relies on multiple connections between a managed device
and the management station where such connections can be independently initiated by either
side?

A. SSH
B. SNMP
C. Telnet
D. NetFlow

Answer: B

Explanation:


QUESTION 2
When an IDS generates an alert for a correctly detected network attack, what is this event called?

A. false positive
B. true negative
C. true positive
D. false negative

Answer: C

Explanation:


QUESTION 3
When is it recommended to establish a traffic profile baseline for your network?

A. outside of normal production hours
B. during a DDoS attack
C. during normal production hours
D. during monthly file server backup

Answer: C

Explanation:


QUESTION 4
Which two activities would you typically be expected to perform as a Network Security Analyst?
(Choose two.)

A. Verify user login credentials.
B. Troubleshoot firewall performance.
C. Monitor database applications.
D. Create security policies on routers.

Answer: B,D

Explanation:


QUESTION 5
Which protocol is typically considered critical for LAN operation?

A. BGP
B. ARP
C. SMTP
D. GRE

Answer: B

Explanation:

Wednesday, 8 June 2016

500-275 SSFAMP Securing Cisco Networks with Sourcefire FireAMP Endpoints (SSFAMP)


QUESTION 1
The FireAMP connector monitors the system for which type of activity?

A. vulnerabilities
B. enforcement of usage policies
C. file operations
D. authentication activity

Answer: C

Explanation:


QUESTION 2
Which disposition can be returned in response to a malware cloud lookup?

A. Dirty
B. Virus
C. Malware
D. Infected

Answer: C

Explanation:


QUESTION 3
The FireAMP Mobile endpoint connector currently supports which mobile OS device?

A. Firefox
B. HTML5
C. Android
D. iPhone

Answer: C

Explanation:


QUESTION 4
If a file's SHA-256 hash is sent to the cloud, but the cloud has never seen the hash before, which
disposition is returned?

A. Clean
B. Neutral
C. Malware
D. Unavailable

Answer: B

Explanation:


QUESTION 5
Which statement describes an advantage of the FireAMP product?

A. Signatures are pushed to endpoints more quickly than other antivirus products.
B. Superior detection algorithms on the endpoint limit the amount of work the cloud must perform.
C. It provides enterprise visibility.
D. It relies on sandboxing.

Answer: C

Explanation:

Friday, 3 June 2016

Cisco & IBM are taking IoT analytics to the edge

The companies are bringing some smarts from IBM's Watson platform to Cisco edge devices

The Internet of Things is no good without a way to act on the data it generates. A new partnership between two of the biggest IoT players promises to put smart collection and advanced analysis of data right where it’s needed.

IBM and Cisco Systems have worked out how to run components of IBM’s Watson IoT analytics on Cisco edge devices. This will bring more intelligence closer to where the action is, helping enterprises run things like factories and oil rigs more efficiently.

In 2014, Cisco unveiled small routers and switches that could be embedded in facilities and vehicles located far from any data center. The devices could take in data from local sensors and analyze it on site with a small, built-in Linux computer. Among other things, this "fog computing" system could decide what data was interesting enough to send to the cloud and what could just be thrown away.

Cisco also included a way to make other analytics platforms work on the data. Watson was an obvious candidate. The partnership with IBM is a big step toward making the IoT edge more intelligent and linking it to powerful cloud-based analytics, said Mike Flannagan, Cisco vice president of data and analytics.

One thing the companies can do is to give edge devices Watson’s own smarts about what data points to send to the Watson cloud for long-term business insights. In addition, the Watson software can do some analytics without sending the information out to the cloud.

Enterprises want to see companies like Cisco and IBM working together on IoT, IDC analyst Vernon Turner said. In a field that’s still highly fragmented among various standards and solutions, cooperation among two big vendors that are already in the mix at many enterprises should help make things easier.

IBM, which has a vast set of offerings in IoT, may go from here to integrate more of those with Cisco in the future, MachNation analyst Steve Hilton said. More cooperation should help drive more IoT deployments, which scare off some enterprises because they fear the hassles of implementation.

The Cisco-IBM integration is available now, and some enterprises are already using it. The Port of Cartagena, in Colombia, has thousands of IoT devices collecting data about things like cranes, vehicles, and shipping containers. The port wanted to apply Watson analytics to the data from those devices, and it turned out that crunching the numbers nearer to the sensors was more effective than sending it all to on-site data centers or the cloud.

Analytics at the edge gives the port quicker reaction times, more efficient use of data and networks, and better dollar value per IoT device, IBM Watson IoT General Manager Chris O’Connor said.

The partnership isn’t exclusive for Cisco or IBM, and there’s nothing stopping enterprises and system integrators from combining the companies’ technologies themselves. But by doing the integration and verification work, Cisco and IBM say they’ll save customers a lot of time and effort.

In addition to the purpose-built IoT devices, Watson can be integrated into many other Cisco products, including ISRs (Integrated Services Routers) and UCS (Unified Computing System) servers.

Thursday, 12 May 2016

400-051 CCIE Collaboration Written Exam Topics v1.0 and Version 1.1

Exam Number 400-051 CCIE Collaboration
Associated Certifications CCIE Collaboration
Duration 120 minutes (90 - 110 questions)
Available Languages English
Register Pearson VUE
Exam Policies Read current policies and requirements
Exam Tutorial Review type of exam questions

 This exam validates that candidates have the skills to plan, design, implement, operate, and troubleshoot enterprise collaboration and communication networks.

Written Exam Topics v1.0 (Recommended for candidates scheduled to take the test BEFORE July 25, 2016)

Written Exam Topics v1.1 (Recommended for candidates scheduled to take the test ON July 25, 2016 and beyond)

Exam Description
The Cisco CCIE® Collaboration Written Exam (400-051) version 1.0 has 90-110 questions and is 2 hours in duration. This exam validates that candidates have the skills to plan, design, implement, operate, and troubleshoot enterprise collaboration and communication networks. The exam is closed book, and no outside reference materials are allowed.

The following topics are general guidelines for the content likely to be included on the exam. However, other related topics may also appear on any specific delivery of the exam. In order to better reflect the contents of the exam and for clarity purposes, the guidelines below may change at any time without notice.

CCIE Collaboration Written Exam Topics v1.0 (Recommended for candidates who are scheduled to take the exam BEFORE July 25, 2016)

1.0 Cisco Collaboration Infrastructure 10%

1.1 Cisco UC Deployment Models

1.2 User management

1.3 IP routing in Cisco Collaboration Solutions

1.4 Virtualization in Cisco Collaboration Solutions

1.4.a UCS
1.4.b VMware
1.4.c Answer files

1.5 Wireless in Cisco Collaboration Solutions

1.6 Network services

1.6.a DNS
1.6.b DHCP
1.6.c TFTP
1.6.d NTP
1.6.e CDP/LLDP

1.7 PoE

1.8 Voice and data VLAN

1.9 IP multicast

1.10 IPv6

2.0 Telephony Standards and Protocols 15%


2.1 SCCP

2.1.a Call flows
2.1.b Call states
2.1.c Endpoint types

2.2 MGCP

2.2.a Call flows
2.2.b Call states
2.2.c Endpoint types

2.3 SIP

2.3.a Call flows
2.3.b Call states
2.3.c DP
2.3.d BFCP

2.4 H.323 and RAS

2.4.a Call flows
2.4.b Call states
2.4.c Gatekeeper
2.4.d H.239

2.5 Voice and video CODECs

2.5.a H.264
2.5.b ILBC
2.5.c ISAC
2.5.d LATM
2.5.e G.722
2.5.f Wide band

2.6 RTP, RTCP, and SRTP

3.0 Cisco Unified Communications Manager (CUCM) 25%

3.1 Device registration and redundancy

3.2 Device settings

3.3 Codec selection

3.4 Call features

3.4.a Call park
3.4.b Call pickup
3.4.c BLF speed dials
3.4.d Native call queuing
3.4.e Call hunting
3.4.f Meet-Me

3.5 Dial plan

3.5.a Globalized call routing
3.5.b Local route group
3.5.c Time-of-day routing
3.5.d Application dial rules
3.5.e Digit manipulations

3.6 Media resources

3.6.a TRP
3.6.b MOH
3.6.c CFB
3.6.d Transcoder and MTP
3.6.e Annunciator
3.6.f MRG and MRGL

3.7 CUCM mobility

3.7.a EM/EMCC
3.7.b Device Mobility
3.7.c Mobile Connect
3.7.d MVA

3.8 CUCM serviceability and OS administration

3.8.a Database replication
3.8.b CDR
3.8.c Service activation
3.8.d CMR

3.9 CUCM disaster recovery

3.10 ILS/URI dialing

3.10.a Directory URI
3.10.b ISL topology
3.10.c Blended addressing

3.11 Call Admission Control

3.11.a CAC/ELCAC
3.11.b RSVP
3.11.c SIP preconditions

3.12 SIP and H.323 trunks

3.12.a SIP trunks
3.12.b H.323 trunks
3.12.c Number presentation and manipulation

3.13 SAF and CCD

3.14 Call recording and silent monitoring

4.0 Cisco IOS UC Applications and Features 20%
4.1 CUCME

4.1.a SCCP phones registration
4.1.b SIP phones Registration
4.1.c SNR

4.2 SRST

4.2.a CME-as-SRST
4.2.b MGCP fallback
4.2.c MMOH in SRST

4.3 CUE

4.3.a AA
4.3.b Scripting
4.3.c Voiceview
4.3.d Web inbox
4.3.e MWI
4.3.f VPIM

4.4 Cisco IOS-based call queuing

4.4.a B-ACD
4.4.b Voice hunt groups
4.4.c Call blast

4.5 Cisco IOS media resources

4.5.a Conferencing
4.5.b Transcoding
4.5.c DSP management

4.6 CUBE

4.6.a Mid-call signaling
4.6.b SIP profiles
4.6.c Early and delayed offer
4.6.d DTMF interworking
4.6.e Box-to-box failover and redundancy

4.7 Fax and modem protocols

4.8 Analog telephony signalling

4.8.a Analog telephony signalling theories (FXS/FXO)
4.8.b Caller ID
4.8.c Line voltage detection
4.8.d THL sweep
4.8.e FXO disconnect
4.8.f Echo

4.9 Digital telephony signalling

4.9.a Digital telephony signalling theories (T1/E1, BRI/PRI/CAS)
4.9.b Q.921 and Q.931
4.9.c QSIG
4.9.d Caller ID
4.9.e R2
4.9.f NFAS

4.10 Cisco IOS dial plan

4.10.a Translation profile
4.10.b Dial-peer matching logics
4.10.c Test commands

4.11 SAF/CCD

4.12 IOS CAC

4.13 IOS accounting

5.0 Quality of Service and Security in Cisco Collaboration Solutions 12%

5.1 QoS: link efficiency

5.1.a LFI
5.1.b MMLPPP
5.1.c FRF.12
5.1.d cRTP
5.1.e VAD

5.2 QoS: classification and marking

5.2.a Voice versus video classification
5.2.b Soft clients versus hard clients
5.2.c Trust boundaries

5.3 QoS: congestion management

5.3.a Layer 2 priorities
5.3.b Low latency queue
5.3.c Traffic policing and shaping

5.4 QoS: medianet

5.5 QoS: wireless QoS

5.6 Security: mixed mode cluster

5.7 Security: secured phone connectivity

5.7.a VPN phones
5.7.b Phone proxy
5.7.c TLS proxy
5.7.d IEEE 802.1x

5.8 Security: default security features

5.9 Security: firewall traversal

5.10 Security: toll fraud

6.0 Cisco Unity Connection  8%

6.1 CUCM and CUCME integration

6.2 Single inbox

6.3 MWI

6.4 Call handlers

6.5 CUC dial plan

6.6 Directory handlers

6.7 CUC features


6.7.a High availability
6.7.b Visual voicemail
6.7.c Voicemail for Jabber

6.8 Voicemail networking

7.0 Cisco Unified Contact Center Express 4%

7.1 UCCX CTI Integration

7.2 ICD functions

7.3 UCCX scripting components

8.0 Cisco Unified IM and Presence 6%

8.1 Cisco Unified IM Presence Components

8.2 CUCM integration

8.3 Cisco Jabber

8.4 Federation

8.5 Presence Cloud Solutions

8.6 Group chat and compliance

CCIE Collaboration Written Exam (400-051) Version 1.1

Exam Description

The Cisco CCIE® Collaboration Written Exam [400-051] version 1.1 has 90-110 questions and is 2 hours in duration. This exam validates that candidates have the skills to plan, design, implement, operate, and troubleshoot enterprise collaboration and communication networks. The exam is closed book, and no outside reference materials are allowed.

The following topics are general guidelines for the content likely to be included on the exam. However, other related topics may also appear on any specific delivery of the exam. In order to better reflect the contents of the exam and for clarity purposes, the guidelines below may change at any time without notice.

CCIE Collaboration Written Exam Topics v1.1 (Recommended for candidates who are scheduled to take the exam ON July 25, 2016 and beyond)

1.0 Cisco Collaboration Infrastructure 10%

1.1 Cisco UC Deployment Models

1.2 User management

1.3 IP routing in Cisco Collaboration Solutions

1.4 Virtualization in Cisco Collaboration Solutions

1.4.a UCS
1.4.b VMware
1.4.c Answer files

1.5 Wireless in Cisco Collaboration Solutions

1.6 Network services

1.6.a DNS
1.6.b DHCP
1.6.c TFTP
1.6.d NTP
1.6.e CDP/LLDP

1.7 PoE

1.8 Voice and data VLAN

1.9 IP multicast

1.10 IPv6

2.0 Telephony Standards and Protocols 12%

2.1 SCCP

2.1.a Call flows
2.1.b Call states
2.1.c Endpoint types

2.2 MGCP

2.2.a Call flows
2.2.b Call states
2.2.c Endpoint types

2.3 SIP

2.3.a Call flows
2.3.b Call states
2.3.c DP
2.3.d BFCP

2.4 H.323 and RAS

2.4.a Call flows
2.4.b Call states
2.4.c Gatekeeper
2.4.d H.239

2.5 Voice and video CODECs

2.5.a H.264
2.5.b ILBC
2.5.c ISAC
2.5.d LATM
2.5.e G.722
2.5.f Wide band

2.6 RTP, RTCP, and SRTP

3.0 Cisco Unified Communications Manager [CUCM] 22%


3.1 Device registration and redundancy

3.2 Device settings

3.3 Codec selection

3.4 Call features

3.4.a Call park
3.4.b Call pickup
3.4.c BLF speed dials
3.4.d Native call queuing
3.4.e Call hunting
3.4.f Meet-Me

3.5 Dial plan

3.5.a Globalized call routing
3.5.b Local route group
3.5.c Time-of-day routing
3.5.d Application dial rules
3.5.e Digit manipulations

3.6 Media resources

3.6.a TRP
3.6.b MOH
3.6.c CFB
3.6.d Transcoder and MTP
3.6.e Annunciator
3.6.f MRG and MRGL

3.7 CUCM mobility

3.7.a EM/EMCC
3.7.b Device Mobility
3.7.c Mobile Connect
3.7.d MVA

3.8 CUCM serviceability and OS administration

3.8.a Database replication
3.8.b CDR
3.8.c Service activation
3.8.d CMR

3.9 CUCM disaster recovery

3.10 ILS/URI dialing

3.10.a Directory URI
3.10.b ISL topology
3.10.c Blended addressing

3.11 Call Admission Control

3.11.a CAC/ELCAC
3.11.b RSVP
3.11.c SIP preconditions

3.12 SIP and H.323 trunks

3.12.a SIP trunks
3.12.b H.323 trunks
3.12.c Number presentation and manipulation

3.13 SAF and CCD

3.14 Call recording and silent monitoring

4.0 Cisco IOS UC Applications and Features 16%

4.1 CUCME

4.1.a SCCP phones registration
4.1.b SIP phones Registration
4.1.c SNR

4.2 SRST

4.2.a CME-as-SRST
4.2.b MGCP fallback
4.2.c MMOH in SRST

4.3 CUE

4.3.a AA
4.3.b Scripting
4.3.c Voiceview
4.3.d Web inbox
4.3.e MWI
4.3.f VPIM

4.4 Cisco IOS-based call queuing

4.4.a B-ACD
4.4.b Voice hunt groups
4.4.c Call blast

4.5 Cisco IOS media resources

4.5.a Conferencing
4.5.b Transcoding
4.5.c DSP management

4.6 CUBE

4.6.a Mid-call signaling
4.6.b SIP profiles
4.6.c Early and delayed offer
4.6.d DTMF interworking
4.6.e Box-to-box failover and redundancy

4.7 Fax and modem protocols

4.8 Analog telephony signalling

4.8.a Analog telephony signalling theories [FXS/FXO]
4.8.b Caller ID
4.8.c Line voltage detection
4.8.d THL sweep
4.8.e FXO disconnect
4.8.f Echo

4.9 Digital telephony signalling

4.9.a Digital telephony signalling theories [T1/E1, BRI/PRI/CAS]
4.9.b Q.921 and Q.931
4.9.c QSIG
4.9.d Caller ID
4.9.e R2
4.9.f NFAS

4.10 Cisco IOS dial plan

4.10.a Translation profile
4.10.b Dial-peer matching logics
4.10.c Test commands

4.11 SAF/CCD

4.12 IOS CAC

4.13 IOS accounting

5.0 Quality of Service and Security in Cisco Collaboration Solutions 12%

5.1 QoS: link efficiency

5.1.a LFI
5.1.b MMLPPP
5.1.c FRF.12
5.1.d cRTP
5.1.e VAD

5.2 QoS: classification and marking

5.2.a Voice versus video classification
5.2.b Soft clients versus hard clients
5.2.c Trust boundaries

5.3 QoS: congestion management

5.3.a Layer 2 priorities
5.3.b Low latency queue
5.3.c Traffic policing and shaping

5.4 QoS: medianet

5.5 QoS: wireless QoS

5.6 Security: mixed mode cluster

5.7 Security: secured phone connectivity

5.7.a VPN phones
5.7.b Phone proxy
5.7.c TLS proxy
5.7.d IEEE 802.1x

5.8 Security: default security features

5.9 Security: firewall traversal

5.10 Security: toll fraud

6.0 Cisco Unity Connection 8%

6.1 CUCM and CUCME integration

6.2 Single inbox

6.3 MWI

6.4 Call handlers

6.5 CUC dial plan

6.6 Directory handlers

6.7 CUC features

6.7.a High availability
6.7.b Visual voicemail
6.7.c Voicemail for Jabber

6.8 Voicemail networking

7.0 Cisco Unified Contact Center Express 4%

7.1 UCCX CTI Integration

7.2 ICD functions

7.3 UCCX scripting components

8.0 Cisco Unified IM and Presence 6%

8.1 Cisco Unified IM Presence Components

8.2 CUCM integration

8.3 Cisco Jabber

8.4 Federation

8.5 Presence Cloud Solutions

8.6 Group chat and compliance

9.0 Evolving Technologies 10%

9.1 Cloud

9.1.a Compare and contrast Cloud deployment models
9.1.a [i] Infrastructure, platform, and software services [XaaS]
9.1.a [ii] Performance and reliability
9.1.a [iii] Security and privacy
9.1.a [iv] Scalability and interoperability
9.1.b Describe Cloud implementations and operations
9.1.b [i] Automation and orchestration
9.1.b [ii] Workload mobility
9.1.b [iii] Troubleshooting and management
9.1.b [iv] OpenStack components

9.2 Network programmability [SDN]

9.2.a Describe functional elements of network programmability [SDN] and how they interact
9.2.a [i] Controllers
9.2.a [ii] APIs
9.2.a [iii] Scripting
9.2.a [iv] Agents
9.2.a [v] Northbound vs. Southbound protocols
9.2.b Describe aspects of virtualization and automation in network environments
9.2.b [i] DevOps methodologies, tools and workflows
9.2.b [ii] Network/application function virtualization [NFV, AFV]
9.2.b [iii] Service function chaining
9.2.b [iv] Performance, availability, and scaling considerations

9.3 Internet of Things

9.3.a Describe architectural framework and deployment considerations for Internet of Things [IoT]
9.3.a [i] Performance, reliability and scalability
9.3.a [ii] Mobility
9.3.a [iii] Security and privacy
9.3.a [iv] Standards and compliance
9.3.a [v] Migration
9.3.a [vi] Environmental impacts on the network


QUESTION 1
A SIP carried delivers DIDs to a Cisco Unified Border Element in the form of +155567810XX,
where the last two digits could be anything from 00 to 99. To match the internal dial plan, that
number must be changed to 6785XXX, where the last two digits should be retained. Which two
translation profiles create the required outcome? (Choose two)

A. rule 1 /555\(.*\).*\(.*\)/ /\150\2/
B. rule 1 /+ 1555\(…\).\(…\)$/ /\15\2/
C. rule 1 /^\+ 1555\(678\)10\(..\)$/ /\150\2/
D. rule 1 /^15+678\(… .\)/678\1/
E. rule 1 /.15+678?10?\(..\)/ /67850\1/

Answer: C,E
Explanation:


QUESTION 2
Which Cisco Unified CM service is responsible for detecting new Call Detail Records files and
transferring them to the CDR Repository node?

A. Cisco CallManager
B. Cisco CDR Repository Manager
C. Cisco SOAP-CDRonDemand Service
D. Cisco Extended Functions
E. Cisco CDR Agent

Answer: E
Explanation:


QUESTION 3
Users report that they are unable to control their Cisco 6941 desk phone from their Jabber client,
but the Jabber client works as a soft phone. Which two configuration changes allow this? (Choose two)

A. Assign group “Standard CTI Allow Control of Phones supporting Connected Xfer and Conf” to the user.
B. Set the End User page to the Primary Extension on the desk phone.
C. Set the Owner User ID on the desk phone.
D. Assign group “Standard CTI Enabled User Group” to the user.
E. Assign group “Standard CTI Allow Control of Phones Supporting Rollover Mode” to the user.

Answer: A,E
Explanation:


QUESTION 4
Which two parameters, in the reply of an MGCP gateway to an Audit Endpoint message, indicate
to a Cisco Unified CM that it has an active call on an endpoint? (Choose two)

A. Bearer Information
B. Call ID
C. Capabilities
D. Connection ID
E. Connection Parameters
F. Connection Mode

Answer: A,D
Explanation:


QUESTION 5
Where the administrator can reset all database replication and initiate a broadcast of all tables on
a Cisco Unified CM cluster running version 9.1?

A. Real Time Monitoring Tool
B. Cisco Unified Serviceability
C. Cisco Unified OS Administration
D. Cisco Unified CM CLI
E. Disaster Recovery System

Answer: D
Explanation:


QUESTION 6
During a Cisco Connection extension greeting, callers can press a single key to be transferred to a
specific extension. However, callers report that the system does not process the call immediately
after pressing the key. Which action resolves this issue?

A. Reduce Caller Input timeout in Cisco Unity Connection Service Parameters.
B. Lower the timer Wait for Additional Digits on the Caller input page.
C. Enable Ignore Additional Input on the Edit Caller input page for the selected key.
D. Enable Prepend Digits to Dialed Extensions and configure complete extension number on the
Edit Caller input page for the selected key.
E. Reduce Caller input timeout in Cisco Unity Connection Enterprise Parameters.

Answer: C
Explanation:

Saturday, 7 May 2016

350-018 CCIE Security version 4.0 and version 4.1

CCIE Security
Exam Number 350-018 CCIE Security
Associated Certifications CCIE Security
Duration 120 minutes (90 - 110 questions)
Available Languages English
Register Pearson VUE
Exam Policies Read current policies and requirements
Exam Tutorial Review type of exam questions

This exam tests the skills and competencies of security professionals in terms of describing, implementing, deploying, configuring, maintaining, and troubleshooting Cisco network security solutions and products, as well as current industry best practices and internetworking fundamentals.

Topics include networking fundamentals and security-related concepts and best practices, as well as Cisco network security products and solutions in areas such as VPNs, intrusion prevention, firewalls, identity services, policy management, and device hardening. Content includes both IPv4 and IPv6 concepts and solutions.

CCIE Security Written Exam (350-018) version 4.0

Exam Description
The Cisco CCIE® Security Written Exam (350-018) version 4.0 is a 2-hour test with 90–110 questions. This exam tests the skills and competencies of security professionals in terms of describing, implementing, deploying, configuring, maintaining, and troubleshooting Cisco network security solutions and products, as well as current industry best practices and internetworking fundamentals.

Topics include networking fundamentals and security-related concepts and best practices, as well as Cisco network security products and solutions in areas such as VPNs, intrusion prevention, firewalls, identity services, policy management, and device hardening. Content includes both IPv4 and IPv6 concepts and solutions.

The exam is closed book, and no outside reference materials are allowed.

The following topics are general guidelines for the content likely to be included on the exam. However, other related topics may also appear on any specific delivery of the exam. In order to better reflect the contents of the exam and for clarity purposes, the guidelines below may change at any time without notice.

CCIE Security Written Exam Topics v4.0 (Recommended for candidates who are scheduled to take the exam BEFORE July 25, 2016)


1.0 Infrastructure, Connectivity, Communications, and Network Security 20%

1.1 Network addressing basics

1.2 OSI layers

1.3 TCP/UDP/IP protocols

1.4 LAN switching (for example, VTP, VLANs, spanning tree, and trunking)

1.5 Routing protocols (for example, RIP, EIGRP, OSPF, and BGP)

1.5.a Basic functions and characteristics
1.5.b Security features

1.6 Tunneling protocols

1.6.a GRE
1.6.b NHRP
1.6.c IPv6 tunnel types

1.7 IP multicast

1.7.a PIM
1.7.b MSDP
1.7.c IGMP and CGMP
1.7.d Multicast Listener Discovery

1.8 Wireless

1.8.a SSID
1.8.b Authentication and authorization
1.8.c Rogue APs
1.8.d Session establishment

1.9 Authentication and authorization technologies

1.9.a Single sign-on
1.9.b OTPs
1.9.c LDAP and AD
1.9.d RBAC

1.10 VPNs

1.10.a L2 vs L3
1.10.b MPLS, VRFs, and tag switching

1.11 Mobile IP networks

2.0 Security Protocols 15%

2.1 RSA

2.2 RC4

2.3 MD5

2.4 SHA

2.5 DES

2.6 3DES

2.7 AES

2.8 IPsec

2.9 ISAKMP

2.10 IKE and IKEv2

2.11 GDOI

2.12 AH

2.13 ESP

2.14 CEP

2.15 TLS and DTLS

2.16 SSL

2.17 SSH

2.18 RADIUS

2.19 TACACS+

2.20 LDAP

2.21 EAP methods (for example, EAP-MD5, EAP-TLS, EAP-TTLS, EAP-FAST, PEAP, and LEAP)

2.22 PKI, PKIX, and PKCS

2.23 IEEE 802.1X

2.24 WEP, WPA, and WPA2

2.25 WCCP

2.26 SXP

2.27 MACsec

2.28 DNSSEC
3.0 Application and Infrastructure Security 10%

3.1 HTTP

3.2 HTTPS

3.3 SMTP

3.4 DHCP

3.5 DNS

3.6 FTP and SFTP

3.7 TFTP

3.8 NTP

3.9 SNMP

3.10 syslog

3.11 Netlogon, NetBIOS, and SMB

3.12 RPCs

3.13 RDP and VNC

3.14 PCoIP

3.15 OWASP

3.16 Manage unnecessary services

4.0 Threats, Vulnerability Analysis, and Mitigation 10%

4.1 Recognize and mitigate common attacks

4.1.a ICMP attacks and PING floods
4.1.b MITM
4.1.c Replay
4.1.d Spoofing
4.1.e Backdoor
4.1.f Botnets
4.1.g Wireless attacks
4.1.h DoS and DDoS attacks
4.1.i Virus and worm outbreaks
4.1.j Header attacks
4.1.k Tunneling attacks

4.2 Software and OS exploits

4.3 Security and attack tools

4.4 Generic network intrusion prevention concepts

4.5 Packet filtering

4.6 Content filtering and packet inspection

4.7 Endpoint and posture assessment

4.8 QoS marking attacks

5.0 Cisco Security Products, Features, and Management 20%

5.1 Cisco Adaptive Security Appliance (ASA)

5.1.a Firewall functionality
5.1.b Routing and multicast capabilities
5.1.c Firewall modes
5.1.d NAT (before and after version 8.4)
5.1.e Object definition and ACLs
5.1.f MPF functionality (IPS, QoS, and application awareness)
5.1.g Context-aware firewall
5.1.h Identity-based services
5.1.i Failover options

5.2 Cisco IOS firewalls and NAT

5.2.a CBAC
5.2.b Zone-based firewall
5.2.c Port-to-application mapping
5.2.d Identity-based firewalling

5.3 Cisco Intrusion Prevention Systems (IPS)

5.4 Cisco IOS IPS

5.5 Cisco AAA protocols and application

5.5.a RADIUS
5.5.b TACACS+
5.5.c Device administration
5.5.d Network access
5.5.e IEEE 802.1X
5.5.f VSAs

5.6 Cisco Identity Services Engine (ISE)

5.7 Cisco Secure ACS Solution Engine

5.8 Cisco Network Admission Control (NAC) Appliance Server

5.9 Endpoint and client

5.9.a Cisco AnyConnect VPN Client
5.9.b Cisco VPN Client
5.9.c Cisco Secure Desktop
5.9.d Cisco NAC Agent

5.10 Secure access gateways (Cisco IOS router or ASA)

5.10.a IPsec
5.10.b SSL VPN
5.10.c PKI

5.11 Virtual security gateway

5.12 Cisco Catalyst 6500 Series ASA Services Modules

5.13 ScanSafe functionality and components

5.14 Cisco Web Security Appliance and Cisco Email Security Appliance

5.15 Security management

5.15.a Cisco Security Manager
5.15.b Cisco Adaptive Security Device Manager (ASDM)
5.15.c Cisco IPS Device Manager (IDM)
5.15.d Cisco IPS Manager Express (IME)
5.15.e Cisco Configuration Professional
5.15.f Cisco Prime

6.0 Cisco Security Technologies and Solutions 17%

6.1 Router hardening features (for example, CoPP, MPP, uRPF, and PBR)

6.2 Switch security features (for example, anti-spoofing, port, STP, MACSEC, NDAC, and NEAT)

6.3 NetFlow

6.4 Wireless security

6.5 Network segregation

6.5.a VRF-aware technologies
6.5.b VXLAN

6.6 VPN solutions

6.6.a FlexVPN
6.6.b DMVPN
6.6.c GET VPN
6.6.d Cisco EasyVPN

6.7 Content and packet filtering

6.8 QoS application for security

6.9 Load balancing and failover

7.0 Security Policies and Procedures, Best Practices, and Standards 8%

7.1 Security policy elements

7.2 Information security standards (for example, ISO/IEC 27001 and ISO/IEC 27002)

7.3 Standards bodies (for example, ISO, IEC, ITU, ISOC, IETF, IAB, IANA, and ICANN)

7.4 Industry best practices (for example, SOX and PCI DSS)

7.5 Common RFC and BCP (for example, RFC2827/BCP38, RFC3704/BCP84, and RFC5735)

7.6 Security audit and validation

7.7 Risk assessment

7.8 Change management process

7.9 Incident response framework

7.10 Computer security forensics

7.11 Desktop security risk assessment and desktop security risk management

CCIE Security Written Exam (350-018) Version 4.1

Exam Description
The Cisco CCIE® Security Written Exam [350-018] version 4.1 is a 2-hour test with 90–110 questions. This exam tests the skills and competencies of security professionals in terms of describing, implementing, deploying, configuring, maintaining, and troubleshooting Cisco network security solutions and products, as well as current industry best practices and internetworking fundamentals.

Topics include networking fundamentals and security-related concepts and best practices, as well as Cisco network security products and solutions in areas such as VPNs, intrusion prevention, firewalls, identity services, policy management, and device hardening. Content includes both IPv4 and IPv6 concepts and solutions.

The exam is closed book, and no outside reference materials are allowed.

The following topics are general guidelines for the content likely to be included on the exam. However, other related topics may also appear on any specific delivery of the exam. In order to better reflect the contents of the exam and for clarity purposes, the guidelines below may change at any time without notice.

CCIE Security Written Exam Topics v4.1 (Recommended for candidates who are scheduled to take the exam ON July 25, 2016 and beyond)


1.0 Infrastructure, Connectivity, Communications, and Network Security 14%

1.1 Network addressing basics

1.2 OSI layers

1.3 TCP/UDP/IP protocols

1.4 LAN switching [for example, VTP, VLANs, spanning tree, and trunking]

1.5 Routing protocols [for example, RIP, EIGRP, OSPF, and BGP]

1.5.a Basic functions and characteristics
1.5.b Security features

1.6 Tunneling protocols

1.6.a GRE
1.6.b NHRP
1.6.c IPv6 tunnel types

1.7 IP multicast

1.7.a PIM
1.7.b MSDP
1.7.c IGMP and CGMP
1.7.d Multicast Listener Discovery

1.8 Wireless

1.8.a SSID
1.8.b Authentication and authorization
1.8.c Rogue APs
1.8.d Session establishment

1.9 Authentication and authorization technologies

1.9.a Single sign-on
1.9.b OTPs
1.9.c LDAP and AD
1.9.d RBAC

1.10 VPNs

1.10.a L2 vs L3
1.10.b MPLS, VRFs, and tag switching

1.11 Mobile IP networks

2.0 Security Protocols 14%

2.1 RSA

2.2 RC4

2.3 MD5

2.4 SHA

2.5 DES

2.6 3DES

2.7 AES

2.8 IPsec

2.9 ISAKMP

2.10 IKE and IKEv2

2.11 GDOI

2.12 AH

2.13 ESP

2.14 CEP

2.15 TLS and DTLS

2.16 SSL

2.17 SSH

2.18 RADIUS

2.19 TACACS+

2.20 LDAP

2.21 EAP methods [for example, EAP-MD5, EAP-TLS, EAP-TTLS, EAP-FAST, PEAP, and LEAP]

2.22 PKI, PKIX, and PKCS

2.23 IEEE 802.1X

2.24 WEP, WPA, and WPA2

2.25 WCCP

2.26 SXP

2.27 MACsec

2.28 DNSSEC

3.0 Application and Infrastructure Security 10%

3.1 HTTP

3.2 HTTPS

3.3 SMTP

3.4 DHCP

3.5 DNS

3.6 FTP and SFTP

3.7 TFTP

3.8 NTP

3.9 SNMP

3.10 syslog

3.11 Netlogon, NetBIOS, and SMB

3.12 RPCs

3.13 RDP and VNC

3.14 PCoIP

3.15 OWASP

3.16 Manage unnecessary services

4.0 Threats, Vulnerability Analysis, and Mitigation 10%

4.1 Recognize and mitigate common attacks

4.1.a ICMP attacks and PING floods
4.1.b MITM
4.1.c Replay
4.1.d Spoofing
4.1.e Backdoor
4.1.f Botnets
4.1.g Wireless attacks
4.1.h DoS and DDoS attacks
4.1.i Virus and worm outbreaks
4.1.j Header attacks
4.1.k Tunneling attacks

4.2 Software and OS exploits

4.3 Security and attack tools

4.4 Generic network intrusion prevention concepts

4.5 Packet filtering

4.6 Content filtering and packet inspection

4.7 Endpoint and posture assessment

4.8 QoS marking attacks

5.0 Cisco Security Products, Features, and Management 18%

5.1 Cisco Adaptive Security Appliance [ASA]

5.1.a Firewall functionality
5.1.b Routing and multicast capabilities
5.1.c Firewall modes
5.1.d NAT [before and after version 8.4]
5.1.e Object definition and ACLs
5.1.f MPF functionality [IPS, QoS, and application awareness]
5.1.g Context-aware firewall
5.1.h Identity-based services
5.1.i Failover options

5.2 Cisco IOS firewalls and NAT

5.2.a CBAC
5.2.b Zone-based firewall
5.2.c Port-to-application mapping
5.2.d Identity-based firewalling

5.3 Cisco Intrusion Prevention Systems [IPS]

5.4 Cisco IOS IPS

5.5 Cisco AAA protocols and application

5.5.a RADIUS
5.5.b TACACS+
5.5.c Device administration
5.5.d Network access
5.5.e IEEE 802.1X
5.5.f VSAs

5.6 Cisco Identity Services Engine [ISE]

5.7 Cisco Secure ACS Solution Engine

5.8 Cisco Network Admission Control [NAC] Appliance Server

5.9 Endpoint and client

5.9.a Cisco AnyConnect VPN Client
5.9.b Cisco VPN Client
5.9.c Cisco Secure Desktop
5.9.d Cisco NAC Agent

5.10 Secure access gateways [Cisco IOS router or ASA]

5.10.a IPsec
5.10.b SSL VPN
5.10.c PKI

5.11 Virtual security gateway

5.12 Cisco Catalyst 6500 Series ASA Services Modules

5.13 ScanSafe functionality and components

5.14 Cisco Web Security Appliance and Cisco Email Security Appliance

5.15 Security management

5.15.a Cisco Security Manager
5.15.b Cisco Adaptive Security Device Manager [ASDM]
5.15.c Cisco IPS Device Manager [IDM]
5.15.d Cisco IPS Manager Express [IME]
5.15.e Cisco Configuration Professional
5.15.f Cisco Prime

6.0 Cisco Security Technologies and Solutions 16%

6.1 Router hardening features [for example, CoPP, MPP, uRPF, and PBR]

6.2 Switch security features [for example, anti-spoofing, port, STP, MACSEC, NDAC, and NEAT]

6.3 NetFlow

6.4 Wireless security

6.5 Network segregation

6.5.a VRF-aware technologies
6.5.b VXLAN

6.6 VPN solutions

6.6.a FlexVPN
6.6.b DMVPN
6.6.c GET VPN
6.6.d Cisco EasyVPN

6.7 Content and packet filtering

6.8 QoS application for security

6.9 Load balancing and failover

7.0 Security Policies and Procedures, Best Practices, and Standards 8%

7.1 Security policy elements

7.2 Information security standards [for example, ISO/IEC 27001 and ISO/IEC 27002]

7.3 Standards bodies [for example, ISO, IEC, ITU, ISOC, IETF, IAB, IANA, and ICANN]

7.4 Industry best practices [for example, SOX and PCI DSS]

7.5 Common RFC and BCP [for example, RFC2827/BCP38, RFC3704/BCP84, and RFC5735]

7.6 Security audit and validation

7.7 Risk assessment

7.8 Change management process

7.9 Incident response framework

7.10 Computer security forensics

7.11 Desktop security risk assessment and desktop security risk management

8.0 Evolving Technologies 10%

8.1 Cloud

8.1.a Compare and contrast Cloud deployment models
8.1.a [i] Infrastructure, platform, and software services [XaaS]
8.1.a [ii] Performance and reliability
8.1.a [iii] Security and privacy
8.1.a [iv] Scalability and interoperability
8.1.b Describe Cloud implementations and operations
8.1.b [i] Automation and orchestration
8.1.b [ii] Workload mobility
8.1.b [iii] Troubleshooting and management
8.1.b [iv] OpenStack components

8.2 Network programmability [SDN]

8.2.a Describe functional elements of network programmability [SDN] and how they interact
8.2.a [i] Controllers
8.2.a [ii] APIs
8.2.a [iii] Scripting
8.2.a [iv] Agents
8.2.a [v] Northbound vs. Southbound protocols
8.2.b Describe aspects of virtualization and automation in network environments
8.2.b [i] DevOps methodologies, tools and workflows
8.2.b [ii] Network/application function virtualization [NFV, AFV]
8.2.b [iii] Service function chaining
8.2.b [iv] Performance, availability, and scaling considerations

8.3 Internet of Things

8.3.a Describe architectural framework and deployment considerations for Internet of Things [IoT]
8.3.a [i] Performance, reliability and scalability
8.3.a [ii] Mobility
8.3.a [iii] Security and privacy
8.3.a [iv] Standards and compliance
8.3.a [v] Migration
8.3.a [vi] Environmental impacts on the network


QUESTION 1
An RSA key pair consists of a public key and a private key and is used to set up PKI. Which statement applies to RSA and PKI?

A. The public key must be included in the certificate enrollment request.
B. The RSA key-pair is a symmetric cryptography.
C. It is possible to determine the RSA key-pair private key from its corresponding public key.
D. When a router that does not have an RSA key pair requests a certificate, the certificate request is sent, but a warning is shown to generate the RSA key pair before a CA signed certificate is received.

Answer: A

Explanation:
An RSA key pair consists of a public key and a private key. When setting up your PKI, you must include the public key in the certificate enrollment request. After the certificate has been granted, the public key will be included in the certificate so that peers can use it to encrypt data that is sent to the router. The private key is kept on the router and used both to decrypt the data sent by peers and to digitally sign transactions when negotiating with peers.
Reference: http://www.cisco.com/c/en/us/td/docs/ios-xml/ios/sec_conn_pki/configuration/xe-3s/sec-pki-xe-3s-book/sec-pki-overview.html


QUESTION 2
Refer to the exhibit.


Which three descriptions of the configuration are true? (Choose three.)

A. The configuration is on the NHS.
B. The tunnel IP address represents the NBMA address.
C. This tunnel is a point-to-point GRE tunnel.
D. The tunnel is not providing peer authentication.
E. The configuration is on the NHC.
F. The tunnel encapsulates multicast traffic.
G. The tunnel provides data confidentiality.

Answer: A,F,G


QUESTION 3
Which two values you must configure on the Cisco ASA firewall to support FQDN ACL? (Choose two.)

A. a DNS server
B. an FQDN object
C. a policy map
D. a class map
E. a service object
F. a service policy

Answer: A,B
Reference: https://supportforums.cisco.com/document/66011/using-hostnames-dns-
access-lists-configuration-steps-caveats-and-troubleshooting


QUESTION 4
Which set of encryption algorithms is used by WPA and WPA2?

A. Blowfish and AES
B. CAST and RC6
C. TKIP and RC6
D. TKIP and AES

Answer: D


QUESTION 5
What are two enhancements in WCCP V2.0 over WCCP V1.0? (Choose two.)

A. support for HTTP redirection
B. multicast support
C. authentication support
D. IPv6 support
E. encryption support

Answer: B,C

Explanation: WCCP V2.0 supports the following enhancements to the WCCP V1.0
Protocol:
* Multi-Router Support.
WCCP V2.0 allows a farm of web-caches to be attached to more than one router.
* Multicast Support.
WCCP V2.0 supports multicasting of protocol messages between web-caches and routers.
* Improved Security.
WCCP V2.0 provides optional authentication of protocol packets received by web-caches and routers.
* Support for redirection of non-HTTP traffic.
WCCP V2.0 supports the redirection of traffic other than HTTP traffic through the concept of Service Groups.
* Packet return.
WCCP V2.0 allows a web-cache to decline to service a redirected packet and to return it to a router to be forwarded. The method by which packets are returned to a router is negotiable.
Reference: https://tools.ietf.org/id/draft-wilson-wrec-wccp-v2-01.txt


Tuesday, 3 May 2016

300-470 CLDAUT Designing the Cisco Cloud

Exam Number 300-470 CLDAUT
Associated Certifications CCNP Cloud
Duration 90 Minutes (55 - 65 questions)
Available Languages English
Register Pearson VUE
Exam Policies Read current policies and requirements
Exam Tutorial Review type of exam questions

Exam Description
The Automating the Cisco Enterprise Cloud (CLDAUT) exam (300-470) is a 90-minute, 55–65 question assessment that is associated with the CCNP Cloud Certification. This exam tests a candidate's knowledge and ability to provision private IaaS, provision private IaaS with catalog scaling, provision private IaaS with network automation, provision hybrid IaaS, and perform application provisioning a life-cycle management. Candidates can prepare for this assessment by taking the Automating the Cisco Enterprise Cloud (CLDAUT v1.0) course.

The following topics are general guidelines for the content likely to be included on the exam. However, other related topics may also appear on any specific delivery of the exam. In order to better reflect the contents of the exam and for clarity purposes, the guidelines below may change at any time without notice.

1.0 Provision Private IaaS Infrastructure 27%

1.1 Create cloud tenant

1.1.a Provision infrastructure devices
1.1.a.1 Provision network
1.1.a.2 Provision compute
1.1.a.3 Provision storage

1.2 Develop policies

1.2.a Network
1.2.b Storage
1.2.c Compute
1.2.d Cost model
1.2.e Service catalog

1.3 Manage virtual data centers

1.3.a Create virtual data center
1.3.b Manage application categories in a VDC

1.4 Manage workflows

1.4.a Create input/output parameters
1.4.b Add tasks to workflow designer
1.4.c Create custom workflow tasks
1.4.d Describe the open automation took kit (SDK)

1.5 Manage catalogs

1.5.a Publish standard and advanced catalogs
1.5.b Cloning a catalog
1.5.c Create user VM action policy
1.5.d Cost (monetary) tracking

1.6 Configure self-service provisioning in Cisco UCS Director

1.6.a Customize portals
1.6.b Create service request workflow
1.6.c Monitor service requests

2.0 Provision Private IaaS Catalog 17%

2.1 Publish Cisco UCS Director services in PSC 11.0

2.1.a Discover Cisco UCS Director catalogs and templates
2.1.b Publish services with RBAC for end-user ordering

2.2 Order PSC IaaS services as end users

2.2.a Login as an end user
2.2.b Order a VM based on standard or advanced
2.2.c Catalogs
2.2.d Order a service container

2.3 Publish application stack services

2.3.a Design application stack services
2.3.b Publish application stack services with RBAC for end-user ordering
2.3.c Order application stack as an end user

3.0 Provision Private IaaS with Network Automation 18%

3.1 Define policies for container

3.1.a Computing policies
3.1.b Network policy
3.1.c Storage policies
3.1.d System policies

3.2 Defining global resource pools

3.2.a Configure VLAN/VXLAN pools
3.2.b Configure IP subnet pools
3.2.c Configure static IP pools

3.3 Creating a Cisco VACS three-tier internal template

3.3.a Specifying a template type
3.3.b Selecting the deployment options
3.3.c Configuring network resource pools
3.3.d Configuring VM networks
3.3.e Adding virtual machines to a template

3.4 Creating a Cisco VACS three-tier external template

3.4.a Define ACL for three-tier external template
3.4.b Configure security zones

3.5 Publish discovered VACS services in PSC 11.0

3.5.a Discover the VACS containers
3.5.b Register the VACS application container templates

4.0 Provision Hybrid IaaS 18%

4.1 Configure intercloud fabric connectivity

4.1.a Set up provider cloud account
4.1.b Set up infrastructure image
4.1.c Set up secure extension
4.1.d Add port profile
4.1.e Create IP pools for VMs
4.1.f Create user groups and users
4.1.g Configure vDCs
4.1.h Configure network and system policies

4.2 Create VM templates to deploy new workloads in the hybrid cloud

4.2.a Configure a virtual machine template
4.2.b Configure network policies
4.2.c Configure system policies
4.2.d Configure storage policies
4.2.e Configure VMware policies (network, system, computing, and storage)
4.2.f Create a catalog for templates

4.3 Create VM templates to migrate workloads between public cloud and private clouds

4.3.a Configure a virtual machine template
4.3.b Configure network policies
4.3.c Configure system policies
4.3.d Configure storage polices
4.3.e Configure VMware policies (network, system, computing, and storage)
4.3.f Create a catalog for templates

4.4 Deploy security appliances in the hybrid cloud

4.4.a Run infrastructure wizard through ICF to bring up ICS services controller and cloud components (such as: PNSC)
4.4.b Add the compute firewall
4.4.c Define compute security profile
4.4.d Define object groups, zones, rules, and policies
4.4.e Create service path
4.4.f Bind the service path to port profile

4.5 Configure routing policies to enable secure communication between hybrid cloud VMs

4.5.a Add edge routers
4.5.b Add system policies
4.5.c Add network policies
4.5.d Add routing policies
4.5.e Assign VMs

4.6 Configure end-user workflows to manage virtual machines in hybrid cloud environment

4.6.a Bursting
4.6.b Sandbox for development
4.6.c Disaster recovery
4.6.d Production deployment on public environment

5.0 Application Provisioning and Life-Cycle Management 20%

5.1 Order a virtual server on PSC 11.0

5.1.a Order a VM based on standard or advanced catalogs
5.1.b Order a service container

5.2 Order a physical server on PSC 11.0

5.2.a Order a bare-metal physical server
5.2.b Order a virtualized physical server

5.3 Order a multitier application container on PSC 11.0

5.3.a Order a three-tier application container

5.4 Managing application containers

5.4.a Access the application container reports
5.4.b Power on the application container
5.4.c Power off the application container
5.4.d Add VMs to application container
5.4.e Delete VMs from application container
5.4.f Delete an application container

5.5 Managing life cycles

5.5.a VM
5.5.b Compute
5.5.c Storage
5.5.d Network

5.6 Snapshots

5.6.a Types
5.6.b Requirements
5.6.c Limitations

QUESTION 1
Cisco Intelligent Automation Cloud is a solution that enables organizations to automate delivery of
physical and virtual servers through the use of a self-service portal. Which two key Cisco products
are used for the automation framework of this solution? (Choose two.)

A. Cisco Process Orchestrator
B. Cisco Prime Service Catalog
C. Cisco Cloud Orchestrator
D. Cisco Server Orchestrator
E. Cisco Process Portal

Answer: A,B

Explanation:


QUESTION 2
Which three statements are true regarding Cisco VACS and its benefit for cloud deployment?
(Choose three.)

A. Cisco VACS offers easy-to-use templates for rapid provisioning.
B. Cisco VACS lacks security although it offers intuitive user interface through Cisco UCS
Director.
C. Cisco VACS is a robust container for three-tier or custom application deployment.
D. CSR benefits up to 10-G/ps throughput with the advent of Cisco VACS support.
E. CSR benefits up to 40-G/ps throughput with the advent of Cisco VACS support.
F. Cisco VACS offers acustom application deployment for the Cisco Prime Service Catalog.

Answer: A,C,D

Explanation:


QUESTION 3
The Cisco UCS Director includes a set of wizards that guide through configuring features. Which
three wizards are available in the Cisco UCS Director? (Choose three.)

A. FlexPod Configuration
B. VDC Creation
C. Catalog Configuration
D. Device Discovery
E. Zoning Creation
F. Storage Discovery

Answer: A,B,D

Explanation:


QUESTION 4
A cost model in UCS Director is used to define the unit level costs of which two virtual resources?
(Choose two.)

A. socket
B. CPU
C. RAM
D. NIC
E. vNIC
F. datastore size

Answer: B,C

Explanation:


QUESTION 5
Which two statements are true regarding role-based access control in Prime Service Catalog?
(Choose two.)

A. IT admin usesthe Cisco Prime Service Catalog as the primary interface to manage tenant life
cycle and services.
B. Tenant admin in the private cloud is associated with tenant billing and cost model.
C. Development of stack designer for application deployment is not within the framework of RBAC.
D. IT admin manages infrastructure in the cloud and uses the Cisco Prime Service Catalog,
Horizon, and Openstack templates as the primary interface.

Answer: A,D

Explanation: