An environment detecting module, for securing a shell of a server, includes a sensing module, configured to sense an environment status by a polling method and generate a sensing signal according to the environment status; a connection module, configured to electrically connect the environment detecting module to a host terminal with a first connection status or a second connection status; and a microcontroller unit, coupled to the sensing module and the connection module, configured to determine a power source of the environment detecting module according to the first connection status or the second connection status, and to determine a first mode or a second mode of the environment detecting module according to the power source.

The systems and methods disclosed are directed towards a retractable and adjustable display arm for a data center cabinet that allows a user to access internal components of the data center cabinet without completely detaching a display from the data center cabinet. The retractable and adjustable display arm has an attachment base to pivotally couple the retractable and adjustable display arm to the data center cabinet, and also has a mounting portion for mounting a display, such as a computer display monitor, tablet, or the like, to the retractable and adjustable display arm. The attachment base achieves the pivotal coupling between the retractable and adjustable display arm to the data center cabinet using one or more hinges. Further, the mounting portion has one or more adjustable supports, allowing displays of varying sizes to be mounted in various locations on the mounting portion.

Systems and techniques for tracking and providing real-time visualizations of maintenance time for datacenter components. The systems include sensors to detect when datacenter components are opened for maintenance, such as hot switching of hard drive disks, to initialize a countdown timer. Status indicator lights of components within the datacenter component are used to display visual representations of the countdown timer. The visualizations present a remaining or elapsed maintenance time remaining to ensure components of the datacenter component are not damaged by overheating during maintenance.

The present disclosure relates to a compact keyboard, monitor, and mouse (KMM) system for use in an equipment rack. The system includes a tray subsystem including a pair of drawer slides configured to mate with the equipment rack, each drawer slide having a bottom plane parallel to the ground when installed in the equipment rack. The system further includes a console housing supported by the tray subsystem. The console housing has a top surface that defines recesses for a keyboard and a monitor. The system also includes a keyboard. When secured in the keyboard recess, the keyboard is positioned parallel to the bottom plane of the tray subsystem. When positioned in the monitor recess, the monitor is canted at an angle relative to the bottom plane of the tray subsystem. The angle is selected to minimize the overall height of the KMM system while maximizing user ergonomics.

A server rack includes: a rack cabinet equipped with a door; information processing devices installed inside the rack cabinet in accordance with rack mount specifications; collection devices configured to collect environmental status information inside the rack cabinet; a temperature control device configured to control environmental conditions inside the rack cabinet; a network device configured to establish a communication environment between the plurality of information processing devices; a microcomputer configured to exchange data with the information processing devices, to receive operating status information and environmental status information from the temperature control device and the collection devices, and to control the operations of the information processing devices and the temperature control device according to input information; and an input/output device configured to display content corresponding to the output information of the microcomputer, and to generate the input information according to the manipulation of an administrator.

The present disclosure relates to a modular keyboard, monitor, mouse (KMM) system for use in an equipment rack. The system may have a tray subsystem and an electronics subsystem adapted to rest on and be removably secured to the tray subsystem. The electronics subsystem has a housing including a recess, the recess being shaped to nestably support a keyboard therein. A monitor is pivotally supported from the electronics subsystem and movable between a first position, extending up from the electronics subsystem so as to be viewable for use by a user, to a second position for storage such that the monitor is positioned parallel to the housing of the electronics subsystem. A keyboard is removably secured to the electronics subsystem within the recess. The monitor covers at least a substantial portion of the keyboard when folded down into the second position for storage.

Methods, apparatus, systems, and articles of manufacture are disclosed to auto tune data center cooling based on workloads. Disclosed herein is an apparatus including processor circuitry to determine environmental conditions setpoint(s) based on at least one of a future workload status or a current workload status of devices within a data center.

A body part of a KVM (Keyboard, Video, Mouse) switch includes a clamp that holds a cable and is movable in a horizontal direction, and a stay that is equipped with the cable clamp and is movable in a depth direction of the body part to eliminate of the cable hanging down.

A group of at least one cluster and at least one device in a datacenter, wherein the cluster comprises vertically stacked housings, each configured to house one device, the cluster comprising one bus connected to one controlling module, and comprising one data and power line and one ground line both extending vertically continuously along the cluster. The device comprises one electronic tag configured to store an identifier of said device and fixed on the surface of the device in a way to automatically connect the bus when the device is housed in any housing of the cluster. The controlling module is configured to read the identifier when the electronic tag is connected to the bus, to identify the device housed in the cluster.

An electronic cable system operates as an extension cable to facilitate external viewing of internal infrastructure LED status. A wired cable is provided having a first end and a second end, the first end including a first I/O coupler, LED detectors and a power jack; and the second end including a second I/O coupler and a plurality of LEDs. The plurality of LEDs of the second end illuminate in response to activation of the LED detector of the first end. The first I/O coupler may plug into an internal module of electronic infrastructure, such as a server, to detect operational status of the internal module via the LED detectors. The second I/O coupler may couple to infrastructure housing, permitting the plurality of LEDs to be viewed externally of the housing. The plurality of external LEDs on the infrastructure housing mimic internal (non-viewable) status indicator LEDs of the internal module.