Free Preparation Discussions
MENU
Cisco 800-150 Exam Questions
- Topic 1: Networking Foundations: This section of the exam measures the skills of a Network Engineer and covers the basic building blocks of computer networking. It explains different types of networks like local area networks and wireless networks, and introduces lightweight wireless LANs. It describes the layers of communication models like the OSI model and TCP/IP stack, and explains how data moves across networks. It also discusses the physical cabling used in networks, such as Ethernet and fiber optics. Students will learn about network switching, IP addressing, subnetting, and routing at Layer 3. The section also introduces Cisco’s campus network devices, data center switches, UCS servers, and collaboration devices, describing their roles and functions in the network.
- Topic 2: Common Service Tasks and Tools: This section of the exam measures the skills of a Technical Support Engineer and focuses on tasks commonly needed to manage Cisco devices. It explains how devices boot up, introduces common Cisco IOS commands, and identifies tools for file management. It shows how to confirm physical connections, remotely access devices, and connect to the console port. It also covers how to capture the status of a device, recover passwords, and replace devices by using proper tools. Students are also taught how to find serial numbers on Cisco equipment to assist with support and maintenance activities.
- Topic 3: Cisco Software: This section of the exam measures the skills of a Network Engineer and discusses Cisco’s software systems and licensing. It explains the difference between IOS install and bundle modes and gives an overview of different licensing models. Students learn how to manage Cisco software images, including backing up, transferring, and installing images via FTP, TFTP, or USB. It also covers how to handle configuration files to keep devices running properly and ensure smooth upgrades or replacements.
- Topic 4: Cisco Infrastructure and Collaboration Infrastructure: This section of the exam measures the skills of a Collaboration Engineer and focuses on Cisco infrastructure devices, endpoints, and collaboration technologies. It introduces network devices, collaboration endpoints like IP phones and video systems, and explains on-premises collaboration deployments using tools like Cisco Unified Communications Manager. It also covers how video systems integrate into collaboration environments and highlights Cisco’s cloud services for enterprise communication, including Webex Meetings, Webex Teams, and hosted collaboration solutions.
- Topic 5: Cisco Hardware Replacement: This section of the exam measures the skills of a Technical Support Engineer and teaches how to safely and correctly replace Cisco hardware. It explains safety procedures such as creating safe work zones and handling electrostatic discharge. Students learn the step-by-step processes to replace a wide range of Cisco devices, from switches and routers to firewalls, UCS servers, and collaboration endpoints. It also covers configuring Cisco NX-OS software, including understanding operating modes, boot procedures, and password recovery, and introduces Cisco collaboration endpoint solutions like IP phones and video systems.
- Topic 6: Cisco UCS and Data Center Architecture: This section of the exam measures the skills of a Data Center Engineer and introduces Cisco’s UCS and data center solutions. It explains the devices found in a data center, including switches, UCS servers, and director switches, and describes different server deployment models. Students will also learn about virtualization components like virtual machines, hypervisors, cloud computing concepts, and deployment models. The section covers how Cisco UCS devices fit into campus networks, edge locations, and data centers, and explains the key components and connections used in UCS architecture.
Free Cisco 800-150 Exam Actual Questions
Note: Premium Questions for 800-150 were last updated On Oct. 09, 2026 (see below)
Which scenario would result in a speed mismatch when configuring Ethernet devices with different speed settings?
A speed mismatch occurs when two connected Ethernet devices are configured to operate at different speeds. In scenario A, one device is manually set to 1 Gbps, while the other is set to 100 Mbps. Since both ends are hard-coded to different speeds, they cannot successfully negotiate a common speed, leading to a mismatch and resulting in a failed or unstable link.
In contrast, scenario B, where both ends are manually set to the same speed, ensures compatibility and stable communication. Scenario C can lead to a duplex mismatch rather than a speed mismatch; the auto-negotiating end may default to half-duplex if it cannot determine the duplex setting of the manually configured end. Scenario D is less common; if auto-negotiation fails, devices may revert to their lowest common speed, but this typically results in reduced performance rather than a complete mismatch.
What is a feature of Cisco Meraki switches that simplifies the replacement process?
Cloud-based management is a core feature of Cisco Meraki switches and significantly simplifies the device replacement process. When a failed switch is replaced:
The new hardware can be claimed in the Meraki dashboard.
The previously assigned configuration is automatically applied to the replacement device.
This eliminates the need for local reconfiguration and ensures continuity with minimal manual effort.
This centralized approach ensures that configurations are stored securely and consistently applied across devices.
Why is the midplane-free design of the X9508 Modular Chassis significant in the context of Cisco UCS X-Series compute node replacement?
The Cisco UCS X9508 Modular Chassis, part of the UCS X-Series architecture, is designed without a midplane, which marks a major shift from previous UCS models. The midplane-free design is critical because:
Direct front-to-rear airflow is made possible without obstruction.
This airflow architecture enhances thermal efficiency, especially important during compute node replacements or upgrades.
It allows modules to communicate via side-plane connectors, which are located on the sides rather than a fixed midplane.
This architecture:
Simplifies mechanical design
Reduces cooling complexity
Improves modularity and accessibility
Why the other options are incorrect:
A . Hot-swapping is supported, but not because of midplane-free design---it's a UCS standard feature.
C . Upgrades to faster interconnects are enabled by side-plane I/O, not by midplane absence alone.
D . Power efficiency is a broader chassis feature, not specifically driven by the midplane design.
What is the primary purpose of backing up the endpoint configuration prior to replacing the device?
Backing up the configuration of a network device before replacement is a critical step to ensure business continuity and minimize downtime. The primary purpose of this backup is to restore the existing settings onto the new device, ensuring that it operates identically to the one being replaced.
This process includes preserving interface configurations, routing protocols, access control lists, and other essential parameters. By restoring the backed-up configuration to the new device, network administrators can quickly reintegrate it into the network infrastructure without the need for manual reconfiguration, thereby reducing the risk of errors and service disruptions.
Options A, B, and C do not align with the primary objective of configuration backups in the context of device replacement.
Which protocol should be analyzed when troubleshooting call quality between IP phones?
When addressing call quality issues between IP phones, the Real-time Transport Protocol (RTP) is the primary protocol to analyze. RTP is responsible for the actual transmission of voice data during a call, and its performance directly impacts call quality.
Key factors affecting RTP and, consequently, call quality include:
Packet Loss: Missing packets can lead to audio gaps.
Jitter: Variations in packet arrival times can cause choppy audio.
Latency: Delays in packet delivery can result in noticeable lag.
Analyzing RTP streams allows technicians to identify these issues and implement appropriate Quality of Service (QoS) measures to mitigate them.
In contrast:
SIP (Session Initiation Protocol): Handles call setup, modification, and teardown but not the media stream.
SCCP (Skinny Client Control Protocol): A Cisco proprietary protocol for signaling, not media transport.
- Select Question Types you want
- Set your Desired Pass Percentage
- Allocate Time (Hours : Minutes)
- Create Multiple Practice tests with Limited Questions
- Customer Support
Nathan Lewis
20 days agoAshley Lee
1 month agoSarah Bell
2 months agoKaren Edwards
2 months agoRichard Williams
3 months agoRyan Martinez
3 months agoAmanda Anderson
4 months agoGary Morris
4 months agoBrian Nguyen
5 months agoNancy Green
5 months agoEmma Lopez
6 months agoSusan Rodriguez
6 months agoCynthia Cooper
5 months agoWilliam Lopez
5 months agoJeffrey Nelson
5 months agoEmmett
6 months agoTaryn
7 months agoRuby
7 months agoJoseph
7 months agoPaulene
7 months agoLaura
8 months agoJerrod
8 months agoDeandrea
8 months agoShannan
8 months agoLevi
9 months agoDesmond
9 months agoYoko
9 months agoXuan
9 months agoKathryn
10 months agoBo
10 months agoOdelia
10 months agoLisbeth
10 months agoHermila
11 months agoLaurena
11 months agoSarah
11 months agoBrock
11 months agoAlberto
12 months agoOlive
12 months agoScarlet
1 year agoJohnna
1 year agoMarva
1 year agoPete
1 year agoIra
1 year agoSamira
1 year agoRachael
1 year agoGolda
1 year agoLinn
1 year agoRupert
1 year agoRoxanne
1 year agoAshton
1 year agoSusana
1 year agoFanny
1 year agoAnnice
1 year agoNobuko
1 year agoGlenna
1 year agoMargarita
2 years ago