How I Planned My Home Lab Rack Layout

My 10-inch home lab rack layout from top to bottom, why each piece sits where it does, the patch panel port plan, and the rack rules behind it.

Contents

Don't Miss the Good Stuff

Get tech news that matters delivered to your inbox.

My home lab rack layout puts the network at the top, the computers in the middle and lower shelves, and power at the bottom. The Wi-Fi access point sits on the roof, every cable lands on a patch panel near the top, and short jumpers drop straight into the 2.5G switch under it. That follows the usual rack rules fairly closely, with three changes that make sense in a 10-inch rack on a desk.

The short version

  • From the top: access point, blank panel, patch panel, 2.5G switch, vented panel, gateway, two shelves of small computers, PDU and a fan at the bottom. A 5-port TL-SG105 is also in the rack, out of view.
  • Heavy gear goes low, network gear goes high, and a good layout leaves room to grow.
  • A patch panel right above the switch keeps every jumper short.
  • Plan for growth. Patch panel ports 2 and 10 to 12 and switch port 8 have no front jumper, and a NAS and two more small computers are on the way.

My home lab rack layout, top to bottom

The rack is a DeskPi RackMate T2, a 12U rack for 10-inch equipment. Everything in it is numbered from the top down. The numbers label items on the map, not rack-unit positions. The main server, a tower PC, and an Eaton 5S 1500 UPS stand beside the rack, not in it. How the frame went together is in my DeskPi RackMate T2 build, and our guide to connecting a UPS to a home lab covers the UPS side.

Photo of the 10-inch rack front with numbered labels from 1 at the top to 11 at the bottom, naming each device and panel
Click to expand
The full map. The TL-SG105 (5) is in the rack but hidden from the front, and the fan (11) does not show clearly from the front.
PositionWhat sits thereWhy it sits there
1, on topUniFi U7 Lite access pointRests on the vented top plate
2Blank panelFills the space under the top plate
3GeeekPi 12-port Cat6 patch panel (0.5U)Every cable lands in one place
4TP-Link TL-SG108S-M2, 8 x 2.5GRight under the patch panel, so jumpers stay short
6Vented panelSpacer between the 2.5G switch and the gateway
7UniFi Cloud Gateway UltraRouter and gateway, next to the network gear
8ZimaBlade 7700 and Raspberry Pi 5 with a Samsung T5 SSDSmall boards share one shelf
9ACEMAGIC F5A and ZimaBoard 2The two bigger boxes share the lower shelf
10ElecVoztile 10-inch PDUPower at the bottom, eight outlets at the back
11120 mm fanAt the bottom, blowing air in
5, in the rackTP-Link TL-SG105, 5-port GigabitIn the rack for wall runs and extra devices

What order should equipment go in a server rack?

The basic order is heavy gear at the bottom, network gear at the top and the patch panel right next to the switch.

Heavy gear goes low so the rack never becomes top-heavy. In a full-size rack that means the UPS, its battery packs and the PDU. My PDU sits at the bottom, and the tower server and the UPS stand on the desk beside the rack. I have not weighed the loaded rack.

Network gear goes high. Switches and patch panels are light, and a switch at the top keeps the cable runs from the machines short. A patch panel just above or below the switch does the same for the jumpers and keeps the front tidy.

Blank panels matter more in a closed enclosure than in a mini rack. In an enclosure with front-to-back airflow, solid blanking panels in the empty spaces force cool air through the equipment. An open mini rack like mine does not steer air that way.

Plan the whole layout before you install anything, including where the next devices will go, and leave at least a quarter of the rack free for later.

On build night, with the rack still empty, I went down the front pointing out where things would go, from the top shelves to the power strip at the bottom.

Three frames of a hand pointing at the empty rack, first at the patch panel at the top, then at the middle shelves, then at the panel near the power strip at the bottom
Click to expand
Planning the empty rack on build night, from the patch panel at the top down to the power strip.

Top of the rack: the access point

The UniFi U7 Lite sits on the vented top plate, between the two handles. An access point works best mounted high, with few obstacles around it. The U7 Lite is made for a ceiling or wall with PoE power, and mine gets power and data through one cable from a UniFi 2.5G PoE+ adapter whose power plug is on the rack PDU.

The round white UniFi U7 Lite access point lying on the vented top plate of the rack between two black handles
Click to expand
The U7 Lite resting on the vented top plate between the two handles.

From that spot, a speed test on my Mac over the U7 Lite showed 347 Mbps down and 20 Mbps up, which is the full speed of the internet line, so the access point was not the limit. Our guide to powering a UniFi access point with a PoE adapter covers that cable.

The network section: blank panel, patch panel and switches

Under the top plate is a blank panel, then the 12-port patch panel, then the TP-Link TL-SG108S-M2 directly beneath it. Every network cable in the rack, plus the internet line, lands on the patch panel first. Short front jumpers then drop straight down into the switch. Seven jumpers link panel ports 3 to 9 to switch ports 1 to 7.

Front of the rack top with a blank panel, a 12-port patch panel and a TP-Link 2.5G switch below it, short black jumpers looping between them
Click to expand
Blank panel, patch panel, then the 2.5G switch. The jumpers are short because the switch is right under the panel.

The switch carries the traffic between machines. The gateway's own LAN ports are 1 Gigabit, so the computers talk through the 2.5G switch instead. In our 1 GB file transfers after the move, the main server, the F5A and the ZimaBoard 2 each hit about 2,350 Mbps, and the Raspberry Pi 5 and ZimaBlade reached about 940 Mbps, their 1 Gigabit limit. The smaller TP-Link TL-SG105 is also in the rack for the wall runs and extra devices, but it is hidden from the front.

A hand plugging a short black Ethernet jumper into the 12-port patch panel above the TP-Link switch, with the access point on top of the rack
Click to expand
Plugging in the jumpers. Each one runs from a panel port down to the switch under it.

The patch panel port plan

Port 1 takes the internet line, port 3 the gateway's uplink, and ports 4 to 9 the computers and the access point's PoE adapter.

Patch panel portWhat it carries
1The internet line, through to the gateway's internet port at the back
2Spare
3The gateway's LAN port, jumpered to switch port 1 (the uplink)
4 to 9The main server, the mini PC, the ZimaBoard 2, the ZimaBlade, the Raspberry Pi 5 and the PoE adapter's data line, one port each, jumpered to switch ports 2 to 7
10No front jumper at the moment
11 and 12Spare
Drawn map of a 12-port patch panel above an 8-port switch, with seven jumpers from panel ports 3 to 9 down to switch ports 1 to 7
Click to expand
The same plan as a drawing. Switch port 8 has no jumper.

For more on why a patch panel helps, see how to use a patch panel in a home lab. If a run stops working later, our guide to fixing an Ethernet cable connection is a good first check.

Drawn network diagram with the UniFi gateway at the top, the 2.5G switch in the middle and each computer, the PoE adapter and the 5-port switch below it
Click to expand
How the layout maps to the wiring. The 2.5G switch sits at the center of the network as well as near the top of the rack.

The middle: a vented spacer and the gateway

Below the 2.5G switch is a vented panel, then the UniFi Cloud Gateway Ultra on a shelf. The vented panel fills the gap between the two groups but still has holes for air. The gateway sits right under the network section, close to the patch panel it connects through.

A black vented rack panel above a white UniFi Cloud Gateway Ultra sitting on a 1U shelf
Click to expand
The vented panel and the gateway, the last piece of the network section.

The lower shelves: the small computers

The computers fill the two shelves below the gateway. The top one holds the ZimaBlade and the Raspberry Pi 5 with its Samsung T5 SSD. The lower one holds the ACEMAGIC F5A and the ZimaBoard 2. The ACEMAGIC F5A, ZimaBoard 2 and ZimaBlade were sent to us for review. Our guide to rack mounting a Raspberry Pi and a mini PC shows how they sit on the shelves.

Two rack shelves with small computers, the upper one with two small boards and the lower one with a grey mini PC standing on its side next to a silver finned board
Click to expand
The ZimaBlade and Raspberry Pi 5 above, the ACEMAGIC F5A and ZimaBoard 2 below.

The bottom: power and airflow

The ElecVoztile PDU sits near the bottom, with its switch on the front and its eight outlets at the back. Every plug in the rack runs down to that one strip. At the bottom is a 120 mm fan that blows air into the rack. It does not show clearly from the front.

The black ElecVoztile 10-inch PDU with a red switch, above a vented panel at the bottom of the rack
Click to expand
The PDU above the bottom vented panel. The fan is not visible in this view.

There is no single airflow standard for racks. Rack servers usually pull air in at the front and push it out the back, and low-wattage devices may have no active cooling at all. I have not measured temperatures inside the rack yet.

This Short walks through the rack shelf by shelf, in the same order.

Where my layout departs from the rules

Three things differ from a typical 19-inch rack layout. The tower server and the UPS are outside the rack, on the desk. There is no horizontal cable manager between sections. Dense racks often get up to 1U of cable management for every 1U of patch panels or switches, but with seven short jumpers the front stays clear without one. I did buy a GeeekPi 1U brush cable manager, but it is not on the front of the rack. And the access point sits on the rack's roof instead of a ceiling or wall. For more on keeping the cables tidy, see how to manage cables in a mini rack.

The empty 10-inch rack at an angle with its carry handles, vented top, a 12-port panel near the top and vented shelves down the front
Click to expand
The rack empty on build night, before any gear went in, with the carry handles and vented top plate.

What I would plan for

Leave room. Patch panel ports 2 and 10 to 12 have no front jumper, and switch port 8 is empty. The empty spaces in the rack are spoken for: a NAS and two more small computers are planned. For a sense of how a rack like this adds up, see how much my home lab cost, and for the hardware itself, what's inside my home lab rack. If you are still choosing a rack size, read 10-inch vs 19-inch racks first.

Rack parts in my layout

ProductWhat it does hereWhere to buy
GeeekPi 12-port 0.5U Cat6 patch panelWhere every cable landsCheck it on Amazon
GeeekPi 1U blank panelFills the space under the top plateCheck it on Amazon
GeeekPi vented 1U blank panelSpacer with holes for airCheck it on Amazon
GeeekPi 1U vented shelf, 10.23 in deepHolds the gateway and computersCheck it on Amazon
GeeekPi 1U SBC shelf (current version)Shelf made for Raspberry Pi boardsCheck it on Amazon
ElecVoztile 10-inch PDUEight rear outlets, front switchCheck it on Amazon
GeeekPi RackMate 120 mm USB fanBlows air in at the bottomCheck it on Amazon
GeeekPi 1U brush cable managerBrush strip for cable entry, bought for the rackCheck it on Amazon

Technobezz may earn a commission when you buy through the Amazon links on this page.

Share