Abstract: A system includes a raised floor, a sub-floor space below the raised floor, electrical components in the sub-floor space, and a fire suppression device coupled to the raised floor. The fire suppression device dispenses fire suppression material the electrical components in the sub-floor space.

Abstract: A modular computing system for a data center includes one or more data center modules including rack-mounted computer systems. An electrical module is coupled to the data center modules and provides electrical power to computer systems in the data center modules. One or more air handling modules are coupled to the data center modules. The data center module may include two pre-fabricated portions, each portion including a row of racks of computer systems. The two computing module portions of the data center module may combine to form a computing space when coupled to one another.

Abstract: A remote-controlled data center floor tile of a raised floor plenum is adjustable by a remote control system to selectively direct air supplied from the raised floor plenum to cool particular rack computing systems in a data center. Floor tiles can include one or more remote-controlled flow control elements that can be independently adjusted to different particular configurations to direct air to one or more specific targets. A remote control system can independently adjust various flow control elements configurations in a network of various floor tiles to manage environmental conditions in a data center, including mitigating localized temperature hotspots at particular portions of a rack computing system. Hotspot mitigation can involve responding to detection of a hotspot at a target location by configuring one or more flow control elements to direct air supplied from the raised floor plenum to supply additional air to cool the target location.

Abstract: A data center includes a floor that supports rack computing systems and walls that enclose a computing room. The computing room holds the rack computing systems. One of the walls is a movable wall. The movable wall translates relative to the other walls to increase or decrease the size of the computing room.

Abstract: The formulation of multiple physical flowpaths that fit within a physical space. The formation of physical flowpaths is done by a 3-D printer using a representation of that flowpath that is within a utility flowpath model. The flowpaths are represented in the utility flowpath model so that there is high certainty that the respective physical flowpaths will actual fit into a physical space even if space is limited. Furthermore, the 3-D printing of those physical flowpaths ensures high precision in formulating the physical flowpaths to match the utility flowpath representation.

Abstract: A system includes one or more booths and an air moving system coupled to the booths. The booths may each include an enclosure, an interior space that accommodates a person, and one or more openings. The openings are such that a person in the booth can perform operations on a system or object outside the booth. The booth can be moved from one place to another relative to a floor. The air moving system cools air and moves the cooled air through the interior space of the booth.

Abstract: The formulation of multiple physical flowpaths that fit within a physical space. The formation of physical flowpaths is done by a 3-D printer using a representation of that flowpath that is within a utility flowpath model. The flowpaths are represented in the utility flowpath model so that there is high certainty that the respective physical flowpaths will actual fit into a physical space even if space is limited. Furthermore, the 3-D printing of those physical flowpaths ensures high precision in formulating the physical flowpaths to match the utility flowpath representation.

Abstract: A data center includes a floor that supports rack computing systems and walls that enclose a computing room. The computing room holds the rack computing systems. One of the walls is a movable wall. The movable wall translates relative to the other walls to increase or decrease the size of the computing room.

Abstract: A system for removing heat from electrical systems includes a dehumidification device including a desiccant, an evaporative cooling device, air moving devices, and an air flow control devices. The air moving device moves air through the dehumidification device, the evaporative cooling device, and the electrical systems. The air flow control device controls a rate of flow through the dehumidification device.

Abstract: A storage device of a data center may protect data stored on a storage medium of the storage device using a data security mechanism. The data security mechanism may include a connection detection component and a storage destruction mechanism. The connection detection component may be configured to detect whether the storage device is physically connected to another device (e.g., a storage server) of a data center. The storage destruction mechanism may be configured to destroy at least a portion of the data stored on the storage device in response to the connection detection component detecting that the storage device is physical disconnected from the other device.

Abstract: A power distribution system includes two or more power components that distribute power to one or more electrical components. At least some of the power components send and receive signals over power transmission lines to upstream or downstream power components in the power distribution system. The signals include information about power components in the power distribution system.

Abstract: A data center includes a floor that supports rack computing systems and walls that enclose a computing room. The computing room holds the rack computing systems. One of the walls is a movable wall. The movable wall translates relative to the other walls to increase or decrease the size of the computing room.

Abstract: A multi-input uninterruptible power system (UPS) includes a primary power circuit, a secondary power circuit, and a diode circuit. The primary power circuit and the secondary power circuit include rectifiers that convert AC power into DC power. A diode circuit is electrically coupled between the secondary power circuit and an internal bus of the multi-input UPS. The diode circuit prevents backflow of power into the secondary power circuit when electrical power is received from a primary power source electrically coupled to the primary power circuit and allows electrical power from a secondary power source electrically coupled to the secondary power circuit to flow to the internal bus when electrical power is not being received from the primary power source. An outlet of the multi-input UPS electrically coupled to the internal bus is electrically coupled to a group of electrical loads of multiple groups of electrical loads in a data center.

Abstract: A data center includes one or more racks, one or more computing devices coupled to at least one of the racks, and one or more air moving devices. The computing devices include heat producing components. The computing devices may be inclined in the rack such that the lower ends of the computing devices are at a lower elevation than the higher ends of the computing devices. The air moving devices can move air from the lower end of the inclined computing devices to the higher end of the inclined computing devices such that heat is removed from heat producing components in the inclined computing devices.

Abstract: A storage device of a data center may protect data stored on a storage medium of the storage device using a data security mechanism. The data security mechanism may include a signal generator configured to generate a proximity signal and one or more storage devices including a storage medium, a proximity detection component and a destruction device. The proximity detection component may be configured to detect the proximity signal and to determine whether the storage device has been removed from an assigned location. The storage destruction mechanism may be configured to destroy at least a portion of the data stored on the storage device in response to the proximity detection component detecting that the storage device has been removed from the assigned location.

Abstract: Techniques are described for managing power in a computing system using power controller(s). Power consumption information may be received from power sensors that measure power consumption of computing devices in a rack computing system, or that measure the power received or distributed by power distribution components such as power distribution units (PDUs) in the racks. A determination may be made whether the amount of power being currently consumed within a computing system exceeds a predetermined threshold. If so, control signal(s) may be sent to instruct the power controller(s) to alter characteristic(s), such as frequency, voltage, current, and so forth, of the power being supplied to one or more computing devices or other component(s). The power alteration may occur at one or more points in the power distribution system of one or more racks, such as at one or more PDUs, distribution circuits, breakers, and so forth.

Abstract: A power routing rack can be used to provide various power support redundancies to one or more computing racks in a data center. Power feeds are supplied to bus bars in a power bus bar array extending through the rack, and power routing assemblies positioned in the rack route power from one or more of the bus bars to a computing rack. Each assembly includes circuit breakers that couple to separate bus bars and a routing module that routes power from one or more of the circuit breakers to one or more computing racks. The routing module can include a transfer switch that selectively routes power. The routing module can include an electrical bridge that concurrently routes power. Each assembly can be positioned within the rack to couple the circuit breakers to various power bus bars to adjust the power support redundancy provided to one or more computing racks.

Abstract: A system for removing heat from a computing device includes a carrier and one or more heat removal elements. The carrier includes a carrier surface having a carrier surface pattern. The carrier surface pattern includes coupling portions. The coupling portions of the carrier surface pattern selectively couple, at different locations on the pattern, the heat removal elements to the carrier. The heat removal elements conduct heat from heat producing components of the computing device to the carrier. The carrier conducts heat away from the heat removal elements.

Abstract: A system for removing heat from electrical systems includes a dehumidification device including a desiccant, an evaporative cooling device, air moving devices, and an air flow control devices. The air moving device moves air through the dehumidification device, the evaporative cooling device, and the electrical systems. The air flow control device controls a rate of flow through the dehumidification device.

Abstract: An energy capture system includes a transducer element and an energy storage device. The transducer element moves in response to current in one or more conductors in a set of electrical power lines. The energy storage device accumulates mechanical energy from movement of the transducer element.