Technologies for providing power to a rack
A rack for supporting sleds includes a pair of elongated support posts and pairs of elongated support arms that extend from the elongated support posts. Each pair of the elongated support arms defines a sled slot to receive a corresponding sled. A power supply is attached to an elongated support arm of each pair of elongated support arms to provide power to a corresponding sled. The power supply may include a chassis-less circuit board substrate that is removable from a power supply housing coupled to the corresponding elongated support arm.
1. A rack to support a plurality of sleds, the rack comprising:
two elongated support posts that extend vertically, wherein the two elongated support posts define a first plane;
a plurality of pairs of elongated support arms, wherein each pair of the plurality of pairs of elongated support arms comprises a first support arm that extends outwardly from a first support post of the two elongated support posts and a second support arm that extends outwardly from a second support post of the two elongated supports posts, wherein each pair of the plurality of pairs of elongated support arms extends substantially orthogonally relative to the first plane and defines a sled slot to receive a corresponding sled; and
a plurality of power supply housings, wherein each power supply housing is secured to a different first elongated support arm and includes (i) a power supply received therein, wherein each power supply comprises a chassis-less circuit board substrate, and (ii) a power connector to supply a power to the corresponding power supply, wherein the supplied power has an input voltage that is greater than an output voltage of an output power supplied by the corresponding power supply;
wherein each power supply is associated with a corresponding sled slot and includes a sled-side power connector to mate with a corresponding power connector of the corresponding sled when the corresponding sled is received in corresponding sled slot to supply power to electrical components of the corresponding sled.
2. The rack of claim 1 , wherein each power supply includes a power supply housing secured to the corresponding first elongated support arm.
3. The rack of claim 1 , wherein the sled-side power connector of each power supply is located toward a distal end of the corresponding first elongated support arm relative to the first support post.
4. The rack of claim 1 , wherein each the power connector positioned within each power supply housing is mated with a rack-side power connector of the corresponding power supply.
5. The rack of claim 1 , wherein each power supply housing comprises an access opening and the chassis-less circuit board substrate of the corresponding power supply is removable from the corresponding power supply housing through the access opening.
6. The rack of claim 1 , wherein:
the sled-side power connector of each power supply is coupled to the chassis-less circuit board substrate of the corresponding power supply, and
each power supply further includes a rack-side power connector coupled to the chassis-less circuit board substrate of the corresponding power supply,
wherein the rack-side power connector of each power supply is mated with the power connector of a corresponding power supply housing when the each power supply is received in the corresponding power supply housing.
7. The rack of claim 6 , wherein each power supply further comprises power supply circuitry coupled to the chassis-less circuit board substrate, wherein each power supply circuitry is coupled to the rack-side connector and the sled-side connector of the corresponding power supply, wherein each power supply circuitry is to step down the input voltage to the output voltage.
8. The rack of claim 7 , wherein the input voltage is about 277 volts.
9. The rack of claim 8 , wherein the output voltage is about 12 volts.
10. A data center comprising:
a rack comprising:
a first and a second elongated support post, wherein each of the first and the second elongated support posts extends vertically and wherein the first and the second elongated support posts define a first plane,
a first elongated support arm coupled to the first elongated support post, wherein the first elongated support arm extends outwardly from the first elongated support post,
a second elongated support arm coupled to the second elongated support post, wherein the second elongated support arm extends outwardly from the second elongated support posts, wherein the first elongated support arm and the second elongated support arm extend substantially orthogonally relative to the first plane and cooperate to define a sled slot to receive a corresponding sled,
a power supply housing coupled to the first elongated support arm, wherein the power supply housing includes (i) a power supply received therein, wherein the power supply comprises a chassis-less circuit board substrate, and (ii) a power connector to supply a power to the power supply, wherein the supplied power has an input voltage that is greater than an output voltage of an output power supplied by the power supply, and wherein the power supply is associated with the sled slot and includes a sled-side power connector; and
a sled mounted in the sled slot, wherein the sled includes a chassis-less circuit board substrate and a power connector coupled to the chassis-less circuit board substrate, wherein the power connector is mated to the sled-side power connector of the power supply to receive power from the power supply.
11. The data center of claim 10 , wherein the sled-side power connector of the power supply is located toward a distal end of the first support arm relative to the first support post.
12. The data center of claim 10 , wherein the power connector positioned within the power supply housing is mated with a rack-side power connector of the power supply.
13. The data center of claim 10 , wherein the power supply housing comprises an access opening and the chassis-less circuit board substrate of the power supply is removable from the power supply housing through the access opening.
14. The data center of claim 10 , wherein the sled-side power connector of the power supply is coupled to the chassis-less circuit board substrate, and
the power supply further includes a rack-side power connector coupled to the chassis-less circuit board substrate of the power supply,
wherein the rack-side power connector of the power supply is mated with the power connector of the power supply housing when the power supply is received in the power supply housing.
15. The data center of claim 14 , wherein the power supply further comprises power supply circuitry coupled to the chassis-less circuit board substrate, wherein the power supply circuitry is coupled to the rack-side connector and the sled-side connector of the power supply, and wherein the power supply circuitry is to step down the input voltage to the output voltage.
16. The data center of claim 15 , wherein the input voltage is about 277 volts.
17. The data center of claim 16 , wherein the output voltage is about 12 volts.
18. A rack to support a plurality of sleds, the rack comprising:
two elongated support posts that extend vertically, wherein the two elongated support posts define a first plane;
a plurality of pairs of elongated support arms, wherein each pair of plurality of pairs of elongated support arms comprises a first support arm that extends outwardly from a first support post of the two elongated support posts and a second support arm that extends outwardly from a second support post of the two elongated supports posts, wherein each pair of the plurality of pairs of elongated support arms extends substantially orthogonally relative to the first plane and defines a sled slot to receive a corresponding sled;
a plurality of power supply housings, wherein each power supply housing is secured to a different first elongated support arm and includes (i) a power supply received therein, wherein each power supply comprises a chassis-less circuit board substrate, (ii) an access opening, and (iii) a power connector to supply a power to the corresponding power supply, wherein the supplied power has an input voltage that is greater than an output voltage of an output power supplied by the corresponding power supply; and
a power supply received in each power supply housing, wherein each power supply comprises chassis-less circuit board substrate having a rack-side power connector mated with the power connector of the corresponding power supply housing and a sled-side power connector to mate with a power connector of the corresponding sled when the corresponding sled is received in a corresponding sled slot to supply power to electrical components of the corresponding sled, wherein the chassis-less circuit board substrate is removable from the corresponding power supply housing via the access opening of the corresponding power supply.
19. The rack of claim 18 , wherein each power supply further comprises power supply circuitry coupled to the corresponding chassis-less circuit board substrate, wherein each power supply circuitry is coupled to the rack-side connector and the sled-side connector of the corresponding power supply, wherein each power supply circuitry is to step down the input voltage to the output voltage.