Chimney shaped data center

Information

  • Patent Grant
  • 9497892
  • Patent Number
    9,497,892
  • Date Filed
    Monday, August 20, 2012
    13 years ago
  • Date Issued
    Tuesday, November 15, 2016
    9 years ago
  • Inventors
  • Original Assignees
  • Examiners
    • Mintz; Rodney
    • Kenny; Daniel
    Agents
    • Sughrue Mion, PLLC
Abstract
Technical infrastructure (1) for data centers, comprising a plurality of computer rooms (2), characterized in that the rooms (2) are arranged in the shape of a chimney, the cavity (5) of which is open upwards.
Description
CROSS REFERENCE TO RELATED APPLICATIONS

This application is a National Stage of International Application No. PCT/FR2012/051913 filed Aug. 20, 2012, claiming priority based on French Patent Application No. 11/57424, filed Aug. 19, 2011, the contents of all which are incorporated herein by reference in their entirety.


The present invention concerns the architecture of technical infrastructures, and more particularly the energy optimization thereof.


“Technical infrastructure” is understood here as being any capital infrastructure dedicated to information and communication technologies, such as a computing/data center, hosting center, backup site, or a telecom/carrier hotel, or server farm.


These infrastructures are generally in the form of large computer rooms (or buildings) comprising, by way of non-exhaustive examples, telecommunications equipment, servers, storage systems, power supply systems, cooling systems, inverters, electricity distribution systems, and workstations.


In order to maintain the hygrometry and temperature within recommended ranges in these infrastructures, cooling systems and methods are arranged there.


However, with the accelerated deployment of new uses (multimedia, Internet of Things, cloud computing, for example), these infrastructures house more and more energy-hungry equipment, resulting in pushing the cooling systems to their limits, and consequently the energy efficiency of these infrastructures is being reduced.


The known architectures of technical infrastructures further alter the energy efficiency of said architectures. Indeed, these architectures are generally arranged as buildings designed to preserve heat, and not to dissipate it.


The stacking of tiers of computer equipment, with no consideration for the overall morphology of the infrastructure, results in excess energy consumption, particularly by the cooling and air-handling systems.







An object of the present invention is to overcome the limitations of the prior art.


Another object of the present invention is to propose a technical infrastructure architecture (an arrangement) enabling heat to be evacuated.


Another object of the present [invention] is to improve the energy efficiency of a technical infrastructure.


Another object of the present invention is to design energy-efficient data centers.


Another object of the present invention is to reduce or limit the energy consumption of the physical infrastructures (for example, air-handling system, cooling system) of a technical infrastructure.


Another object of the present invention is to integrate the architectural dimension in order to reduce the energy consumption of a technical infrastructure.


Another object of the present invention is to improve the performance of a technical infrastructure and to reduce its ecological footprint.


Another object of the present invention is to reduce the costs related to cooling a technical infrastructure.


To that end, according to a first aspect the invention relates to a technical infrastructure of data centers comprising a plurality of computer rooms arranged in the shape of a chimney, the cavity of which is open upwards, said technical infrastructure further comprising a plurality of ventilators arranged in the sides facing said cavity, each ventilator being arranged to move the air from the interior of the technical infrastructure towards the cavity.


According to one embodiment, each computer room of the technical infrastructure comprises at least one ventilator facing the cavity and at least one opening facing one side of the technical infrastructure.


Advantageously, the vertical cavity resulting from the chimney shape of the technical infrastructure enables the hot air in the interior of the technical infrastructure to be evacuated to the exterior by the chimney effect (thermal draught).


Other characteristics and advantages of the invention will appear more clearly and in more detail from the following description of preferred embodiments, provided with reference to FIG. 1, which diagrammatically illustrates a view in perspective of a technical infrastructure arranged according to the present invention.


The following description is with reference to a data center. Of course, this example of a technical infrastructure is not limiting and can relate to any other capital infrastructure dedicated to information and communication technologies.


Represented in FIG. 1 is a data center 1 that can have more than one function, such as a backup site, a hosting center for a plurality of enterprises, or an interconnection center for a plurality of operators.


The data center 1, composed of a plurality of computer rooms (or blocks) 2, is arranged in the shape of a chimney. The data center 1 thus constitutes a hollow building having a cavity 5 that is open upwards.


Ventilators 4, arranged in the sides facing the cavity 5 of the data center 1, enable the hot air to be moved towards the cavity 5, which in turn evacuates it towards the exterior by the chimney effect. The chimney effect is due to the difference in temperature between the hot air inside the data center 1 and the cool air of the exterior, which causes a rising displacement 6 of air coming from the ventilators 4.


Advantageously, the combination of the chimney effect produced by the cavity 5 and the force of the wind at the intake of the wall openings 3, made in the sides of the data center 1, provides a natural ventilation of the data center 1. In other words, the air is naturally moved through the computer rooms 2 of the data center 1. Indeed, the air that flows through the wall openings 3 towards the interior of the data center 1 goes back out, via the ventilators 4, by thermal draught towards the cavity 5.


As a variation, the ventilation can be artificially produced by the ventilators 4 acting in this case as exhaust fans.


Preferably, the cavity 5 is a convex polygon, particularly rectangular or square. As a variation, the cavity 5 is a concave or crossed polygon.


Preferably, each computer room 2 comprises at least one ventilator 4 facing the cavity 5 and at least one opening 3 facing one side of the infrastructure 1.


Preferably, the computer rooms 2 (or blocks 2) are substantially identical. In one embodiment, the computer rooms 2 are parallelepipeds.


The chimney-shaped arrangement of the data center just described has a number of advantages. Indeed, it makes it possible

    • to improve the energy efficiency of the technical infrastructure by reducing the energy consumed to power and cool a server, for example, compared to its own consumption;
    • to limit the harmful impact on the environment by reducing energy consumption;
    • to extract naturally, by thermal draught (chimney effect), the hot air from the interior of the data center;
    • to improve the cooling of the interior of the data center by controlling the air flow.

Claims
  • 1. A technical infrastructure for data centers, comprising a plurality of computer rooms arranged in the shape of a chimney, thereby forming a hollow building having a cavity that is open upwards, said technical infrastructure further comprises a plurality of fans arranged in one or more sides facing said cavity, each ventilator fan arranged to move the air from the interior of the technical infrastructure towards the cavity, and comprises at least one wall opening arranged to allow air to enter the interior of the technical infrastructure and, wherein, along an upward length of the chimney, the chimney cavity has a uniform cross-sectional area taken in a horizontal plane along a length of the cavity.
  • 2. The technical infrastructure according to claim 1, characterized in that each room comprises one ventilator fan facing the cavity and one opening facing one side of the technical infrastructure.
  • 3. The technical infrastructure according to claim 1, characterized in that the rooms are substantially identical.
  • 4. The technical infrastructure according to claim 1, characterized in that the rooms are parallelepipeds.
  • 5. A data center comprising an infrastructure as defined in claim 1.
  • 6. The technical infrastructure according to claim 1, wherein the uniform cross-sectional area is a polygon.
  • 7. The technical infrastructure according to claim 1, wherein the uniform cross-sectional area is a convex polygon.
  • 8. The technical infrastructure according to claim 1, wherein the uniform cross-sectional area is a rectangle or square.
  • 9. The technical infrastructure according to claim 1, wherein the uniform cross-sectional area is a concave polygon.
  • 10. The technical infrastructure according to claim 1, wherein the technical infrastructure is capital infrastructure dedicated to information and communication technologies.
  • 11. The technical infrastructure according to claim 1, wherein the technical infrastructure is capital infrastructure dedicated to and containing a computing/data center, hosting center, data backup site, a telecom/carrier hotel, or server farm.
  • 12. The technical infrastructure according to claim 1, wherein the chimney is unobstructed at a top of the building.
  • 13. An infrastructure for data centers, comprising a plurality of computer rooms arranged in a shape of a chimney, in which the plurality of computer rooms are arranged to enclose a cavity that extends vertically and that is open upwards, and wherein the computer rooms have walls facing the cavity so as to delimit the cavity of the chimney, at least one or more of the walls comprising a ventilator fan, each ventilator fan arranged to allow air to move from an interior of the corresponding computer room to the cavity, the technical infrastructure further comprising at least one wall opening arranged to allow air to enter the interior of the technical infrastructure and, wherein, along an upward length of the chimney, the chimney cavity has a uniform cross-sectional area taken in a horizontal plane along a length of the cavity.
  • 14. The infrastructure according to claim 13, further comprising data center equipment that generates heat within the computer rooms, the heat is evacuated through the ventilator fan for the corresponding computer room and up the cavity.
  • 15. The technical infrastructure according to claim 13, wherein the uniform cross-sectional area is a polygon.
  • 16. The technical infrastructure according to claim 13, wherein the technical infrastructure is capital infrastructure dedicated to and containing a computing/data center, hosting center, data backup site, a telecom/carrier hotel, or server farm.
Priority Claims (1)
Number Date Country Kind
11/57424 Aug 2011 FR national
PCT Information
Filing Document Filing Date Country Kind 371c Date
PCT/FR2012/051913 8/20/2012 WO 00 7/2/2014
Publishing Document Publishing Date Country Kind
WO2013/026985 2/28/2013 WO A
US Referenced Citations (15)
Number Name Date Kind
6225705 Nakamats May 2001 B1
7278273 Whitted et al. Oct 2007 B1
7508663 Coglitore Mar 2009 B2
7658039 Ziegelman Feb 2010 B2
7961463 Belady et al. Jun 2011 B2
8151537 Pope Apr 2012 B2
8844220 Boersema Sep 2014 B2
8931227 Keane Jan 2015 B2
20050168945 Coglitore Aug 2005 A1
20090229194 Armillas Sep 2009 A1
20090251860 Belady et al. Oct 2009 A1
20100251629 Clidaras et al. Oct 2010 A1
20110138708 Chazelle Jun 2011 A1
20140141707 Carlson et al. May 2014 A1
20140259966 Totani et al. Sep 2014 A1
Foreign Referenced Citations (1)
Number Date Country
2 354 378 Aug 2011 EP
Non-Patent Literature Citations (1)
Entry
International Search Report of PCT/FR2012/051913, dated Dec. 18, 2012.
Related Publications (1)
Number Date Country
20140331582 A1 Nov 2014 US