Abstract:
The invention is directed to a system comprising (i) an electrical device connected to a source of electrical power; (ii) a container comprising a solid propellant gas generator, an igniter and a filter positioned between the solid propellant gas generator and an outflow opening for a gas, which outflow opening is fluidly connected to the electrical device; (iii) means to detect fire indicator levels, comprising means to detect a temperature, a carbon monoxide level and a smoke particle level in the electrical device; and (iv) a control system having a control logic which, when two of the three fire indicators levels as measured by means (iii) are above a threshold value, will cut off the source of electrical power, and which will actuate the igniter after a predetermined delay time.
Abstract:
The systems and methods disclosed herein relate to shielding electronic devices with respect to, among other things, projectiles. In some embodiments, an apparatus comprises a plurality of projectile-resistant panels corresponding to exterior surfaces of an electronic device. The apparatus wraps the electronic device, wherein each of the plurality of projectile-resistant panels covers a solid surface of the exterior surfaces of the electronic device and does not cover a perforated surface of the exterior surfaces of the electronic device. In further examples, the apparatus further comprises at least one fabric sheet forming a plurality of pockets in which to receive the plurality of projectile-resistant panels; and an articulation located between a pair of adjacent pockets of the plurality of pockets. The articulation facilitates the apparatus wrapping the electronic device by enabling rotation, relative to one another and about the articulation, between a first projectile-resistant panel and a second projectile-resistant panel.
Abstract:
Protective containers for electronic equipment, and methods of testing, use, and/or manufacture thereof, are provided. The cabinets provide a HEMP protection level to electronic equipment housed therein that meets a HEMP protection level according to MIL-STD-188-125-1.
Abstract:
A server cabinet includes a rack, a server slidably mounted in the rack, and an ejecting member attached to the rack and the server. The ejecting member is made of shape-memory alloy and can be compressed by the server under normal operating conditions. When the server is on fire, the transformation temperature of the ejecting member is greater than a first temperature, the ejecting member restores and ejects the server out of the rack.
Abstract:
A system includes a rack and one or more computer systems mounted in the rack. At least one of the computer systems includes a circuit board assembly, such as a motherboard, and a chassis coupled to the circuit board assembly. At least a portion of the chassis is made of a shock-absorbing polymeric material, such as an expanded foam material.
Abstract:
Equipment and systems for protecting electronics against damage or upsets from electromagnetic pulse (HEMP or EMP), intentional electromagnetic interference (IEMI), and high power RF weapons are disclosed. This equipment can include a shielding arrangement includes a metallic enclosure having an interior volume defining a protected portion and an unprotected portion separated by an electromagnetically shielding barrier, and having a portal providing access to the protective portion and including an access opening, a shielding cover sized to cover the access opening, and an electromagnetically sealing gasket positioned around a perimeter of the access opening. The shielding arrangement also includes one or more filters positioned at least partially within the unprotected portion and along the electromagnetically shielding barrier to dampen electromagnetic signals and/or power signals outside a predetermined acceptable range. In some cases, waveguides beyond cutoff are included, to provide passage of optical signals or airflow through the enclosure.
Abstract:
According to one embodiment, a server rack includes a server, a housing which includes a ventilation opening part, and surrounds the server, a water sensor which is provided outside the housing and senses water, a closing member which is movable between a first position in which the closing member is dislocated from the opening part and a second position in which the closing member covers the opening part, a moving mechanism which moves the closing member from the first position to the second position, an adhering mechanism which brings the closing member that has moved to the second position into close contact with the housing, and a controller which operates the moving mechanism and the adhering mechanism, when the water sensor senses water.
Abstract:
A container data center includes a container, a plurality of power supplies, an electric switch system, a plurality of normally closed switches, an alarm device, and a controller. The electric switch system is received in the container. The plurality of normally closed switches are connected between the power supplies and the electric switch system. Each normally closed switch is connected with a corresponding one of the power supplies in series. The controller is connected to the normally closed switches and the alarm device, configured for receiving earthquake information containing an earthquake intensity, and configured for controlling the alarm device to activate alarms and controlling some of the normally closed switches or all the normally closed switches to open when the earthquake intensity is equal to or greater than a predetermined earthquake intensity.
Abstract:
Equipment and systems for protecting electronics against damage or upsets from electromagnetic pulse (HEMP or EMP), intentional electromagnetic interference (IEMI), and high power RF weapons are disclosed. This equipment can include a shielding arrangement includes a metallic enclosure having an interior volume defining a protected portion and an unprotected portion separated by an electromagnetically shielding barrier, and having a portal providing access to the protective portion and including an access opening, a shielding cover sized to cover the access opening, and an electromagnetically sealing gasket positioned around a perimeter of the access opening. The shielding arrangement also includes one or more filters positioned at least partially within the unprotected portion and along the electromagnetically shielding barrier to dampen electromagnetic signals and/or power signals outside a predetermined acceptable range. In some cases, waveguides beyond cutoff are included, to provide passage of optical signals or airflow through the enclosure.
Abstract:
A cabinet comprises a cabinet frame having a first side and a second side, a pair of doors coupled to the frame on the first side, wherein one of the pair of doors includes a locking rod positioned along a portion of the length of the door, a latch coupled to the frame on the first side and positioned to receive the locking rod, an actuator positioned on the second side of the cabinet frame and coupled to the latch, and an access door, positioned on the second side of the cabinet frame, the access door restricting access to the actuator. Opening the access door allows activation of the actuator to release the locking rod.