All 220-1201 Test Inside CompTIA Questions

According to the CompTIA A+ Core 1 (220-1201) virtualization objectives, a Type 1 hypervisor is known as a bare-metal hypervisor because it installs directly onto the physical hardware of a system rather than running on top of a traditional operating system. This architecture allows the hypervisor to manage hardware resources—such as CPU, memory, storage, and networking—without the overhead of a host operating system. Because of this direct interaction with the hardware, Type 1 hypervisors typically provide higher performance, better scalability, and improved stability compared to Type 2 hypervisors.

Examples of Type 1 hypervisors include VMware ESXi, Microsoft Hyper-V (bare-metal deployment), and Citrix XenServer. These hypervisors are commonly used in enterprise data centers, cloud infrastructure, and large virtualization environments where multiple virtual machines must run efficiently on a single physical server. ???? ️

Option A (Host OS required) describes a Type 2 hypervisor, such as VMware Workstation or Oracle VirtualBox, which runs on top of an existing operating system. Option C (Lightweight OS) may describe some hypervisor environments but is not the defining characteristic. Option D (Local configuration options) is also not specific to Type 1 hypervisors.

Therefore, the key characteristic that defines a Type 1 hypervisor is that it performs a bare-metal server installation directly on the hardware

The correct answer is A. The internal antenna has been damaged.

According to the CompTIA A+ Core 1 220-1201 objectives under Mobile Devices and Networking:

Many laptop Wi-Fi antennas are embedded in the display panel and connected via small cables to the wireless card on the motherboard.

If the display panel is replaced and the Wi-Fi antenna is disconnected, damaged, or improperly routed, the laptop will experience weak or intermittent Wi-Fi connectivity.

Why the other options are incorrect:

B. Airplane mode is enabled: Would completely disable wireless radios; the question specifies difficulty staying connected, not a total lack of connectivity.

C. The inverter is not connected: The inverter powers the backlight of the display, unrelated to wireless connectivity.

D. The wireless drivers have not been updated: While outdated drivers can cause connectivity issues, a sudden problem after a display replacement strongly points to physical antenna damage.

The correct answer is D. Replace the drive with a cold-swappable drive.

According to CompTIA A+ Core 1 220-1201 objectives under Storage and RAID:

RAID 5 provides both data striping and parity for fault tolerance, but if the RAID controller does not support hot swapping, replacing a failed drive while the system is running is not possible.

Cold-swappable drives are designed to be safely removed and replaced when the system is powered down, which allows maintenance without damaging the array or system.

Why the other options are incorrect:

A. Update the RAID controller firmware to support hot swapping: Firmware updates may add hot swap functionality, but this is not guaranteed and may require a system reboot.

B. Implement a software-based RAID solution: Software RAID requires a system reconfiguration and downtime; it does not immediately resolve the degraded RAID 5 array.

C. Change the drive during off-peak hours: While feasible, this is essentially the same as using a cold-swappable drive but is less precise; using cold-swappable drives ensures safe replacement without downtime considerations.

For a main database server with high read/write activity, the best RAID choice must deliver strong performance while still providing fault tolerance. Per CompTIA A+ Core 1 (220-1201) storage/RAID objectives, RAID 10 (1+0) combines disk mirroring (RAID 1) and disk striping (RAID 0). Striping improves performance by distributing read/write operations across multiple disks, which is ideal for databases that perform frequent transactions. Mirroring provides redundancy by keeping an identical copy of data on a paired drive, allowing the system to tolerate drive failures (typically one drive per mirrored pair) without data loss.

RAID 0 is fast but offers no redundancy, making it inappropriate for critical servers. RAID 5 and RAID 6 use parity, which provides redundancy but introduces a write penalty because parity must be calculated and written during updates—often a poor fit for workloads with heavy random writes like databases. RAID 6 is even more write-intensive