The document discusses Deep FreezeTM, a next generation liquid cooling technology for blade servers. Deep FreezeTM uses ionized water circulating through a chassis-based heat sink as a closed-loop system. This allows it to efficiently cool blade servers within the chassis in a self-contained manner, without mixing hot and cold air or requiring complex CFD analysis of airflow. Deep FreezeTM addresses increasing data center cooling challenges and offers benefits like reduced maintenance costs and increased computing efficiency over traditional air-cooling methods. It represents the most efficient blade server cooling design currently available.

1. DEEP FREEZE ™
And Nano-Cooling Technology:
Next Generation Solution for Cooling Blade Servers
CASE STUDY & VALUE
PROPOSITION
September 2011
Presented by:
©2011 Mobee Communications, LTD, Deep Freeze Technology Corporation, NGN Data Services
Corporation & Global Access Advisors, LLC. All rights reserved. The information contained in this article is
proprietary. As such, no part of this article may be copied or reproduced in any means, electronic or
otherwise, without the express permission of Deep Freeze Technology Corporation, NGN Data Services
Corporation and Global Access Advisors, LLC.

2. DEEP FREEZE™
DEEP FREEZE™
The Deep Freeze™ blade server cooling concept is the chief component of
an overall data center design strategy. It is a “cold-plate” technology
evolution that is both “closed-loop” and “chassis-based”, representing the
most efficient cooling design in the market.
It is an independent (after-market, retro-fit product), closed cooling
system (100% self-contained), based on cold plate technology
(metal composites as the cooling structure), using ionized water (non-
damaging electro-sensitive fluid) circulating through a chassis-based
(an actual blade-server component, replacing the relatively inefficient
fan) cooling design.
Beneficial Highlights
As a product, Deep Freeze™ is an
•Independent unit
•Based upon a Retro-fit design
•Designed as an after-market unit serving the $6B blade server industry
The Deep Freeze™ product will
•Drastically reduce the maintenance costs of blade server management
•Dramatically increase the efficiency of the data center computing power
•Obviate the need for expensive CRAC units and other equipment
•Facilitate the “green design” for data center construction and operation
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3. DEEP FREEZE™
Deep Freeze™ and Nano-Cooling Technology:
Next Generation Solution for Cooling Blade Servers1
Executive Summary
It takes about 1,000 times more energy Cooling approach that does not
to move a data byte involve connectivity to external
than it does to perform a computation CRACs (computer room air
with it once it arrives. conditioners), chillers, etc.: their Direct
Additionally, the time taken to complete Liquid Cooling Platform of the HP
a computation is Matrix Blade Technology (Patent
currently limited by how long it takes to Pending): Deep Freeze™.
do the moving- all of
which produces heat, which slows the The Deep Freeze™ design obviates
processing even further. the need for CFD analysis and
maximizes the power to cooling ratio,
Air-cooling can go some way to while saving real estate. They have
removing this heat, which is why prototyped a plug-in, after market
computers have fans inside. Emerging replacement for the CPU fans that
technologies have begun incorporates the liquid cooling
to substitute liquid-cooling agents strategy. The beta model expertly
because a given volume of works for the HP ProLiant2 series, ,
water can hold 4,000 times more waste but they have designs for horizontal
heat than air. (across Corporate offerings) and
vertical (different alloy, densities, etc.)
Deep Freeze Technology Corp has applications.
developed a revolutionary liquid-
1 A blade server is a server chassis housing multiple thin, modular electronic circuit boards, known as server blades.
Each blade is an individual server, often dedicated to a single application. The blades are literally servers on a card,
containing processors, memory, integrated network controllers, an optional Fiber Channel host bus adaptor (HBA)
and other input/output (IO) ports. Blades typically come with two advanced technology attachments (ATAs) or SCSI
drives.
2 HP holds the number 1 position in the world-wide server market with a 31.5%factory revenue sharef for 1Q11. HP’s
10.8% revenue growth was led by increased demand for both their x86-based Proliant Servers and titanium-based
Integrity servers.
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4. DEEP FREEZE™
Background
Increasing operational expenses But mixing hot and cold air is exactly
(energy costs3, space provisioning4, the wrong approach to cooling blade
etc.) are forcing companies to cool servers. Specific amounts of cold air
their data centers more efficiently. The need to be deployed to the blade rack
ubiquitous Blade Server5 exacerbates directly and quickly, while the heated
the problem. A single blade rack air produced by energy consumption
consumes more than 25 kW-4 times must be ventilated quickly away from
the kW required for a standard server. the rack.
Much of that energy is converted to
heat, so cooling blade servers Because blade racks require more
presents its own unique sets of precise ventilation, computational fluid
challenges for the temperature dynamics (CFD) is often used to
maintenance strategies of a server model airflow movements through a
room or data center. data center. By assessing the
variables of the server area's physical
With traditional standard rack servers, properties and cooling capabilities,
cooling was often a function of CFD can predict the appropriate
offsetting temperature variations: by airflow mixture between hot and cold
assessing hardware deployment, the air, and thus accurately predict the
simple calculation of heat produced amount of cold air necessary to cool
would yield the resulting “cool air” the datacenter and the most efficient
required to be pumped into the pathways of cold air circulation directly
environment to maintain temperatures to the servers.
within the hardware's operating limits.
3 Blade servers allow more processing power in less rack space, simplifying cabling (up to an 85% reduction) and
reducing power consumption. The advantage of blade servers comes not only from the consolidation benefits of housing
several servers in a single chassis, but also from the consolidation of associated resources (like storage and networking
equipment) into a smaller architecture that can be managed through a single interface.
4 U is the standard unit of measure for designating the vertical usable space, or height of racks (metal frame
designed to hold hardware devices) and cabinets (enclosures with one or more doors). This unit of measurement
refers to the space between shelves on a rack. 1U is equal to 1.75 inches. For example, a rack designated as 20U,
has 20 rack spaces for equipment and has 35 (20 times 1.75) inches of vertical usable space. Rack and cabinet
spaces- and the equipment which fits into them- are measured in U.
5 The leading manufacturers in the $5.6B blade server technology market (in order of market-share): HP, IBM, Dell,
Cisco, Siemens, Fujitsu, Oracle, Sun, and NEC.
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5. DEEP FREEZE™
Performing CFD calculations can be air, water is more efficient cooling
quite challenging for server arrays agent. And because water goes
deploying both blade and traditional straight to the server, there is no need
servers. Because blade servers to factor hot-cold mixing or CFD.
require more directed cooling,
Mechanical engineers had to dispense Liquid cooling is common in
with traditional datacenter airflow supercomputing and high performance
cooling approaches. Reliance on computing (HPC), where facility
“raised floors” concepts (cold air operators manage computing clusters
pumped through perforated floors) producing high heat loads. Rising heat
gave way to “in row cooling” densities have spurred predictions that
(alternating columns of cold and hot liquid cooling would be more widely
air, with the cold air forced horizontally, adopted, but some data center
from the back of the rack to the front). managers remain wary of having
Currently, the two emerging trend water near their equipment.
seems to be gaining favor: indirect
liquid cooling and direct immersion While liquid cooling is a proven
techniques. technology, it does require a fair
degree of capital overhead. In
Indirect Liquid Cooling. addition to server room air ducts and
electric sockets for cooling units, liquid
With liquid cooling, cold fluid- usually cooling requires the installation of
water- is piped to a special water- piping and failsafe systems (in case of
cooling heat sink, called a water block, a leak or other malfunction). The real
on the processor. While a standard estate benefits sought by the
heat sink has metal fins to increase its utilization of blade server technology is
surface area with the air around the often offset by the addition space
server, a water block consists of a required by the extra cooling units
metal pipe that goes through a needed for liquid cooling.
conductive metal block. The processor
heats the block; cold water travels into
the block, cooling it back down and
warming the water, which is then piped
out to a radiator, which cools it again.
As much better conductor of heat than
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6. DEEP FREEZE™
Direct Immersion Techniques. change, new approaches to cooling
are replacing traditional measures as
Direct immersion (submersibles) is a best practice. Cooler parts last
another innovation in blade server longer. When parts stay below the
cooling. Blade server racks are specified maximum thermal limit they
entirely submersed into tubs of cooled, operate more consistently and voltage
non-static mineral oils. fluctuations that can lead to data
errors and crashes are minimized.
Though not entirely “revolutionary”,
proponents suggest that mineral oil A 2010 survey of nearly 100 members
coolants have been “optimized for of the Data Center Users' Group
data centers” and can support heat revealed that data center managers'
loads of up to 100 kilowatts per 42U top three concerns were density of
rack, far beyond current average heat heat and power (83 percent),
loads of 4 to 8 watts a rack and high- availability (52 percent), and space
density loads of 12 to 30 kilowatts per constraints/growth (45 percent).
rack. These systems are designed to
comply with fire codes and the Clean Answering these concerns requires an
Water Act, and integrate with standard approach that delivers the required
power distribution units (PDUs) and reliability and the flexibility to grow,
network switches. while providing the lowest cost of
ownership possible.
Some mineral oil-style coolants can be
messy to maintain. Proponents say The industry seeks a solution that:
the coolant can be drained for • can effectively and efficiently
enclosure-level maintenance, and address high-density zones
individual servers can be removed for
work. Detractors suggest that the real • supports flexible options that are
estate utilization of horizontal bathing easily scalable
tubs is substituting one issue for
another. • incorporates technologies that
improve energy efficiency, and
Rather than approaching the challenge
of exploding heat removal • become elements of a system that is
requirements using limited, traditional easy to maintain and support
measures, what's needed is a shift in
approach. Because the constant in Deep Freeze™ is one such viable
data center heat loads has been rapid, solution.
unpredictable
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7. DEEP FREEZE™
Deep Freeze Technical Approach viable contact cooling mechanisms.
When air-cooled heat sinks are
Deep Freeze™ is predicated upon inadequate, liquid-cooled cold plates
Cold Plate Technology (liquid-cooled are the ideal high-performance heat
dissipater. The technology uses an transfer solution.
aluminum or other alloy “plate”
containing internal tubing through Cold plate technologies utilize varying
which a liquid coolant is forced, to geometries and coolants to
absorb heat transferred to the plate by provide a range of thermal
transistors and other components performances. The lower the thermal
mounted on it. (Fig.1). resistance, the better the performance
of the cold plate.
For Blade Servers, their compact
design and increasing power densities, As a chassis or component-level
cold plates represent approach, Deep Freeze™ represents
a superior technology.
Fig. 1 Design
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8. DEEP FREEZE™
The Deep Freeze™ design transferring the heat into the ambient
contemplates using a copper fluid path air outside the blade.
and ionized water as the cooling fluid.
The heat exchange takes place inside
Like a car radiator, the liquid CPU the cooled interior of the Deep Freeze
design circulates a cooled liquid unit and the cooled liquid travels back
through a heat sink attached to the into the blade through the heat sink
blade processor. Deep Freeze™ module to continue the process. An
technology uses ionized water- which essential aspect of the Deep Freeze™
acts as a heat sink- to pass through its technology is that cooling occurs in a
module. (Fig. 2).The heat is then closed-coupled environment. This
transferred from the hot processor to allows the heat exchange between the
the heat sink module. The hot liquid nano-chiller and the Deep Freeze unit
then moves through the Deep without heating the room’s exterior.
Freeze™ heat sink module and into its
unit,
Fig. 2 Heat Dissipation Principle
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9. DEEP FREEZE™
Benefits of Closed Loop Cooling
There are basic fundamentals to contemporary data center management: (1)the
higher power consumption of modern blade servers produces more heat 6; (2)
almost all power consumed by rack-mounted equipment is converted to sensible
heat; (3) which increases the temperature in the environment.
A 2010 HP Technical Study7 surveyed the various cooling strategies and the effects
upon a representative example of power consumption in 42U IT equipment rack:
ProLiant DL160 G6 1U servers (42 servers @ 383 W per server). The cooling
requirement was computed:
54,901 BTU/hr ÷ 12,000 BTU/hr per ton = 4.58 tons
HP determined that the increasing heat loads created by the latest server systems
require more aggressive cooling strategies than the traditional open-area approach.
(Fig. 3).
Figure 3: Cooling strategies based on server density/power per rack (HP 2010)
Supplemented
data center
Density (nodes per rack)
cooling
Chassis/component
Cold/hot Closed-loop cooling
level cooling, future
Traditional aisle
cooling technologies
open-area containment
cooling
8 16 24 32 40
Power (kW per rack)
6 The sensible heat load is typically expressed in British Thermal Units per hour (BTU/hr) or watts, where 1 W
equals 3.413 BTU/hr. The rack’s heat load in BTU/hr can be calculated as follows:
Heat Load = Power [W] × 3.413 BTU/hr per watt
In the United States, cooling capacity is often expressed in "tons" of refrigeration, which is derived by dividing the
sensible heat load by 12,000 BTU/hr per ton.
7 “Cooling Strategies for IT Equipment” (September, 2010). Hewlett Packard Development Company.
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10. DEEP FREEZE™
Of the cooling strategies commercially
available, HP concluded that “Closed IBM worked closely with Wolverine’s
Loop Cooling is “the best solution for MicroCool Division to
high-density systems consuming many develop innovative liquid cooling
kilowatts of power. These systems components within this new high
have separate cool air distribution and performance computer. It consumes
warm air return paths that are isolated 40 percent less energy compared to a
from the open room air. Closed-loop similar system using air-cooling
systems typically use heat exchangers technology.
that use chilled water for removing The IBM Blade Server relies upon a
heat created by IT equipment. Since proprietary MicroCool “cold plate” and
they are self-contained, closed-loop integrated Wolverine copper liquid
cooling systems offer flexibility and are cooling loops. The design claims to
adaptable to a wide range of locations maintain an entire electronic footprint
and environments. Closed-loop below 80 degrees C, with a 60
cooling systems can also degrees C inlet fluid made up of water.
accommodate a wide range of server There have been several challenges
and power densities.” to IBM’s “green assertions”.
(www.flickr.com/photos/ibm_research_zurich/453732638
3/)
Deep Freeze™ is a closed-loop
cooling design which performs at the The pilot operation also utilizes the
chassis or component level. It is the waste heat from the computer, to
“future cooling design” predicted in the warm the external structures. IBM
HP study. collaborated for over three years, at a
cost in excess of $22M.
Competitive landscape 2. Google:
In 2009, Google patented a “server
Currently, there are three entrants in sandwich” design in which two
the blade server cooling technology motherboards are attached to either
space suggesting variations on the side of a liquid-cooled heat sink.
“future cooling design” theme. Drawings submitted with the patent
illustrate Google’s design and how it
1. IBM: might be implemented in a data
In July 2010, IBM announced the center.
successful pilot launch of its newly http://www.datacenterknowledge.com/archives/2010/07/0
developed Zero Emissions Liquid 6/google-patents-liquid-cooled-server-sandwich/
Cooled, Blade Server: Aquasar.
The diagram depicts the “server
sandwich” assemblies deployed in a
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11. DEEP FREEZE™
row of racks, with each assembly up to 80 kilowatts per rack in some
connected to supply and return pipes implementations. Google’s patent says
for liquid cooling, which are housed in the heat sink could be configured to
the hot aisle. The illustration of the use either chilled water or a liquid
heat sink provides a view of the coolant.
grooves where processors for the
motherboards would fit onto either 3. Hardcore Computers:
side, allowing the heat sink to cool two In April 2010, Hardcore Computer,
motherboards at once. Inc., announced the launch of Liquid
Blade™, the first Total Liquid
The liquid cooling design patented by Submersion blade server. The initial
Google features custom motherboards Liquid Blade™ server platform, which
with components attached to both is powered by two Intel® 5500 or 5600
sides. Heat-generating processors are series Xeon® processors running on
placed on the side of the motherboard an Intel® S5500HV reference
that comes in contact with the heat motherboard, addresses several major
sink, which is an aluminum block datacenter challenges: power, cooling
containing tubes that carry cooling and space. Hardcore Computer’s
fluid. Components that produce less patented technology submerges all of
heat, like memory chips, are placed on the heat-producing components of the
the opposite side of the motherboard, Liquid Blade.
adjacent to fans that provide air-
cooling for these components. Hardcore’s Liquid Blade technology
contends that it is 1350 times more
Motherboards are attached to either efficient than air at heat removal and
side of the heat sink, creating a increases compute density because
“server sandwich” assembly that can far less space is required between
be housed in a rack. The diagrams components. With little heat escaping
submitted with the patent depict into the datacenter, the need for air
cabinets filled with 10 of these liquid- conditioning and air moving equipment
cooled assemblies, suggesting each is minimized. The net result is a much
takes up 4U in a rack. smaller physical and carbon footprint
for the datacenter. As an added
Similar to Cold Plate Technology the benefit, no need for special fire
heat sink can cool heat loads of protection systems to cover the
servers. This because all of the blade
components are submerged so
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12. DEEP FREEZE™
there is no oxygen exposure. Without oxygen there is no potential for sustainable
fire.
The major criticism of the Hardcore Computer product is that it relies extensively on
proprietary parts. In order to upgrade, most parts will need to be purchased through
Hardcore Computer, thus limiting the consumer options. Other complaints range
from “sizeable footprint” to “messy operations”.
Deep Freeze™: A Comparative Study
In October 2010, Harcore Computer engaged a Third party vendor to develop
construction budgets for two 3.2 megawatt datacenters: one using air-cooling
architecture and the other equipped with Liquid Blade™ servers. In that study of
equivalent compute power facilities, each datacenter was designed to house 6,397
servers utilizing the same 2-CPU-per server technology.
Not surprisingly, the Liquid Blade™ servers significantly outperformed its
competitor in the three key areas: physical space needs, power density and cooling
load.
In June 2011, Deep Freeze™ was comparatively tested, using the same
methodology and criteria. The results are as follows:
Comparative Capacity
Deep Freeze requires far fewer physical servers due to virtualization methodology.
Table 1. Comparative Capacity Analysis
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13. DEEP FREEZE™
Auxiliary Equipment
Deep Freeze’s™ closed loop, chassis/component design obviates the need for
substantial investments in traditional CRAC architectures.
Table 2. Auxiliary Equipment Comparison
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14. DEEP FREEZE™
Cooling Load
As each source of heat generation is examined and compared, the cooling load of the
exterior walls, host, lighting servers and the UPS system were accounted. As
demonstrated in Table 4, the chiller capacity for both the Liquid Blade™ and Air-Cooled
suites is substantially greater than the chiller-less solutions- the primary reason being
that Deep Freeze™ facilitates a smaller footprint to cool, while still being able to
maintain the data center computing capacity.
Table 4. Cooling Load Comparison
Power Consumption
Comparing the Deep Freeze™ design with the Air-Cooled and Liquid Blade™ suites
illustrates that the cost from auxiliary equipment is significantly higher.
Table 5. Power Consumption
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15. DEEP FREEZE™
Construction Costs
Table 6 compares construction costs. Though all suites have identical computing
capacity, the capital costs to construct both the Air-cooled and the Liquid Blade™
Architecture is, on-average, 175% higher than the Deep Freeze™ suite.
Table 6. Construction Costs Comparison
Total Cost of Ownership (TCO)
The Deep Freeze™ approach to data center design, architecture and cooling
methodologies (after-market, retro-fit design) results in a significant overall savings in
estimated TCO. As a retro-fitted, after-market product, Deep Freeze™ units
(replacing the fans installed in blade-server manufacture) will substantially decrease
the TCO due to power efficiencies realized and cooling expenditures reduced.
Table 7. TCO
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16. DEEP FREEZE™
Deep Freeze™: The Value Proposition Realized
Green Design and the “Whole System Approach”
Power and cooling issues can be is the extent to which virtualization’s
articulated separately for the purpose entitlement can be multiplied if power
of explanation and analysis, but and cooling infrastructure is optimized
effective deployment of a total to align with the new, leaner IT profile.
virtualization solution requires a In addition to the financial savings
system-level view. The shift toward obtainable, these same power and
virtualization, with its new challenges cooling solutions answer a number of
for physical infrastructure, re- functionality and availability
emphasizes the need for integrated challenges presented by virtualiza-
solutions using a holistic approach- that tion.”
is, consider everything together, and
make it work as a system8. Two major challenges that
virtualization poses to physical
All system components should infrastructure are the need for
communicate and interoperate. dynamic power and cooling systems,
Demands and capacities must be and the rack-level, real- time
managed in real time, preferably at the management of capacities.
rack level, to ensure efficiency.
These challenges have been met by
A recent and significant datacenter Deep Freeze’s™ closed-loop,
science study concluded that chassis/component cooling
“Virtualization is an undisputed leap architecture and its real-time capacity
forward in data center evolution- it management module. These solutions
saves energy, it increases computing are based on design principles that
throughput, it frees up floor space, it resolve functional challenges, reduce
facilitates load migration and disaster power consumption, and increase
recovery. Less well known efficiency.
8 Niles, Suzanne. “Virtualization: Optimizing Power and Cooling to Maximize Benefits”, 2011. APC data Center
Science Center.
9 Ibid, at page 19.
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17. DEEP FREEZE™
The comprehensive Deep Freeze™ infrastructure, the effective redirection
solution is a self-sufficient green- of the solar production of electricity
energy data center that uses ultra through the generator
efficient cooling methods for both into the UPS packs, reduces the load
blade and structure design. This on the generator system.
challenge is met by taming the cooling
plant’s energy consumption and by This holistic technology uses no
designing a self-sufficient green moving components and requires
building using alternative energy minimal energy resources. Since the
solutions to offset auxiliary energy Deep Freeze™ modules are not
requirements such as lighting devices, participants in the consumption of
and by using solar energy. energy in the data center itself, the
sole energy usage comes from
The second aspect involves cooling computing power.
the blades at the CPU level- this being
the most efficient method to extract In addition to offering a
heat from the blade, and more comprehensive model for new green
importantly, from the rack. As part of energy data centers, Deep Freeze is
the cooling solution, the UPS and also capable of reducing upgrade
storage components were physically expenditures on existing equipment
placed in a separate area in order to making it the ideal solution for existing
control cooling with a variable airflow data centers looking to drastically
and to maintain a constant reduce maintenance costs by
temperature in the surrounding space. optimizing cooling without replacing
costly equipment. Deep Freeze
Deep Freeze™ data centers account closed-coupled liquid CPU cooling
for the integration of solar and natural allows for optimization of space in
gas solutions as an integral part of the existing data centers, resulting in an
self-sustained ability of the data increase in energy savings and the
center. By utilizing grid-tie solar elimination building additional space
systems and natural gas generators, costs.
the load is reduced both on and off the
grid. By diverting the solar production
to the UPS network and by simulating
the generators on a grid-like
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18. DEEP FREEZE™
SIPNOC CASE STUDY
Antonis Valamontes, President, Mobee Communications, LTD
Mobee Communications, Ltd contracted NGN Data Services in 2010 to deploy the
Deep Freeze™ product in their SIPNOC and to design a Tier-3 class data center in
the United States. The data center had to reliably support a 1500 server computing
capacity, while integrating solar and natural gas options as part of a self-sustaining
micro grid design within a 1500 sq. ft. environmental footprint.
Mobee Communications, LTD is a venture-backed start-up that offers Mobile IP
telephony through its Virtual SIPNOC design. By designing their SIPNOC site with
Deep Freeze™ technology, NGN Data Services provided Mobee with the
confidence that Mobee’s environmental needs regarding power, cooling, humidity
and micro grid capability would be met.
The primary goal was to build a self-sustainable facility that could operate efficiently
on and off the grid. Building the facility in Florida presented its set of unique
challenges due to the intense heat and humidity levels. NGN’s solution was to
integrate solar energy and natural gas power generation as the primary sources of
energy, while designing the grid as a backup system; i.e., what could be considered
an “on-grid UPS”; making the grid available should we choose to use it, but not
mandatory.
In effect, NGN created the “micro grid”. The micro grid approach is extremely cost
efficient due to its ability to build excess energy and then push it to the grid.
Everything produced in the system is made for consumption and not for return.
The design incorporates a two-shell building- a building within a building- creating a
6” air pocket in between the outer and inner walls. The purpose of this approach
was to create a natural insulator- the same way feathers create tiny air pockets in
sleeping bags and comforters to insulate and reduce the escape of heat. For the
under-lining of the roof space, NGN used an “icing” approach, to create an R-factor
and further insulate the building to prevent any outside air from entering the
building.
The need to retain the computing capacity in a confined space, as well as Mobee’s
specific requirements for virtualization, made the HP Matrix blade system with the
C7000 enclosures our top choice. The HP Matrix’s superior
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19. DEEP FREEZE™
energy management solution aligned perfectly with the NGN Data Services green
energy data suite model- and by combining it with the Deep Freeze™ solution-
cooling optimization with no additional energy consumption costs were achieved.
While designing the server room NGN isolated the servers in their own space.
Every other accessory, hardware and storage device was designated for
assignment to a smaller space with a controlled air environment. When completed,
the network had an estimated storage capacity of 850 terabytes and a computing
capacity of over 900 virtual servers- all with dedicated NIC interfaces.
The data center server room where heat is generated by the blades is referred to
as the “hot room”; the adjacent room where the storage and UPS are located is
referred to as the “cold room.” The temperatures in both the hot and cold rooms are
maintained at a constant 70F. The temperature is controlled electronically by
variable airflow vents located throughout the building.
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20. DEEP FREEZE™
Since the Deep Freeze™ modules were deployed to extract heat at the CPU level,
the need to use large heavy chillers to cool down the server space was eliminated.
NGN anticipating the higher heat/temperature of the server room designed the
adjacent room to act as a natural heat exchanger and divided the two rooms with a
glass wall- resulting in an efficient heat “exchanger” incorporating an holistic
method of temperature control that required no additional energy consumption. As
a result, the glass became a natural heat exchanger transferring 14,000BTUs/hr of
heat, the equivalent of cooling 1900 virtual servers or two full racks of eight C7000
enclosures. NGN also selected a green, carbon-neutral fire suppression system
called Aero-K that creates zero ozone depletion, zero ecological hazards and zero
contribution to global warming.
A main objective of Mobee Communications, LTD was to become a premier mobile
IP carrier and to operate a globally distributed system. Our need for extensible grid
computing in a totally virtualized environment that could be rapidly deployed
anywhere in the world, with no loss in reliability or performance, was actualized by
the Deep Freeze Technology Corp’s green energy micro grid model.
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21. DEEP FREEZE™
Conclusion
Deep Freeze™ & “Green Data Center Architecture:
The Value Proposition Defined
Temperature management is, in itself, a comprehensive solution for self-sustaining
green energy data centers. Deep Freeze’s™ “plug & play”,, retrofitted liquid cooling
technology provides an after- market, close-looped liquid cooling solution at the
CPU level. Deep Freeze™ obviates the need to replace existing blade servers and
reduces dependencies upon external CRAC architectures.
Deep Freeze™ technology is the prime cost-effective cooling technology in the
industry today, representing the paradigm shift in deploying and cooling high-
performance computing environments. No other cooling method delivers such a
marked reduction in cost, energy consumption and space, simultaneously providing
the ultimate green energy eco-friendly data suite solution.
Beyond the benefits of Deep Freeze™ as the ultimate unified solution to cooling
optimization and overhead cost reduction, the virtualization methodology and “green
data center architecture” saves money, increases computing power and conserves
energy. By offering environmentally and spatially conscious solutions, Deep
Freeze™ nano-chiller technology has become the next evolution in green energy
data centers.
The Deep Freeze™ CPU chilling technology + the NGN virtualization methodology
+ the NGN “green” Data Center architecture model = an across-the-board solution
for reducing costs, and operating with an environmental footprint of high
performance computing. Benefits include:
• Environmentally-friendly approach/design
• Enhanced space, performance, efficiency and liquid cooling
• Energy selective- deployable in areas where energy is limited or expensive
• Increases capacity of existing stand-alone data centers
• Designs can be rapidly deployed as a “one-offs” or in pod-like units
• Ideal for advanced military applications or natural disaster recovery efforts
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22. Contact Information
Deep Freeze™
c/o Global Access Advisors
info@globalaccessadvisors.com