Ambroz, Simon

An outside cabinet assembly is disclosed. A cavity is formed under ground. An enclosure is received in the cavity. An equipment cabinet is received within the enclosure and configured to house electronic components. An environmental control unit (ECU) is thermally coupled to the equipment cabinet. A utility fluid conveyance (UFC) is disposed outside the enclosure. A thermal transfer system (TTS) is in fluid or thermal communication with the ECU and extending from the enclosure to the UFC disposed outside the enclosure. The TTS may include a heat-conductive conduit thermally coupled to the UFC through a thermal interface material so as to exchange heat with fluid transported by the UFC to regulate an internal temperature of the equipment cabinet while the equipment cabinet remains under the ground.

A cooling system can include a cooling loop, a targeted cooling path, a valve for controlling the flow of a first cooling fluid through the targeted cooling path, and a controller for operating the valve. The cooling loop can include a first heat exchanger for transferring heat from a first heat load to the first cooling fluid, a second heat exchanger for rejecting heat from the first cooling fluid, and a prime mover for circulating the first cooling fluid through the cooling loop. The targeted cooling path can include a third heat exchanger for transferring heat from a second heat load to the first cooling fluid.

Systems and methods for managing sensor assignments in a thermal management system. In embodiments, a sensor network includes a plurality of sensors and a plurality of gateway devices, and managing sensor assignments includes assigning sensors to gateways based on sensor location in a coverage area, reassigning moved sensors to new gateway devices, and disconnecting sensors from previously assigned gateway devices to eliminate conflicting reports and erroneous sensor alters and alarms. In embodiments, managing sensor assignments includes polling gateway devices to identify dormant sensors and disconnecting dormant sensors from gateway devices. The system and methods may be implemented in a data center environment.

A display panel according to an example of the present disclosure includes a first data line including a first multiple-wire part and a first single-wire part provided alternately in a first direction, and a second data line including a second multiple-wire part and a second single-wire part provided alternately in the first direction, the first multiple-wire part and the second single-wire part are provided in a second direction intersecting the first direction, and the first single-wire part and the second multiple-wire part are provided in the second direction.

A method for detecting heat exchanger clogging in a cooling system can include determining expected operational parameters, detecting current operational parameters, confirming that the cooling system is operating in steady state as a prerequisite to detecting the current operational parameters, comparing the expected operational parameters with the current operational parameters, identifying heat exchanger clogging based at least in part on the comparison, and providing an indication if heat exchanger clogging is detected. Determining expected operational parameters can include operating the cooling system in steady state and/or at predetermined capacity and recording then current operational parameters as the expected operational parameters and/or calculating the expected operational parameters.

Described are systems and methods for training a machine-learning model to generate image of biological samples, and systems and methods for generating enhanced images of biological samples. The method for training a machine-learning model to generate images of biological samples may include obtaining a plurality of training images comprising a training image of a first type, and a training image of a second type. The method may also include generating, based on the training image of the first type, a plurality of wavelet coefficients using the machine-learning model; generating, based on the plurality of wavelet coefficients, a synthetic image of the second type; comparing the synthetic image of the second type with the training image of the second type; and updating the machine-learning model based on the comparison.

A system for thermal protection in a power distribution apparatus is disclosed. A power distribution system includes first and second silicon-controlled rectifiers (SCRs) coupled to a heat sink. A first temperature sensor configured to sense a temperature of the first SCR while a second temperature sensor configured to sense a temperature of the second SCR. A control unit is configured to compare a temperature from the first temperature sensor to a plurality of temperature thresholds while the second SCR is disconnected from a load. The control unit generates a warning in response to the temperature reading from the first temperature sensor exceeding a first threshold but not a second threshold. The control unit may further cause disconnection of the first SCR from the load and connection of the second SCR to the load in response to the temperature reading from the first temperature sensor exceeding the second threshold.

A fault detection method includes: sequentially transmitting a first control signal to control chips corresponding to each of the plurality of battery switches after detecting a reverse feeding fault, when the plurality of battery switches are turned on and the plurality of utility power switches are turned off, causing a corresponding battery switch to be turned off; and detecting a difference between a front and a back terminal voltage of each of the plurality of utility power switches connected to the corresponding battery switch when the corresponding battery switch is turned off, where each of the plurality of utility power switches is off; determining that the plurality of utility power switches are short-circuited when a difference between the front terminal voltage and the back terminal voltage of at least one of the plurality of utility power switches is greater than or equal to a preset threshold; otherwise, determining that the plurality of utility power switches are normal.

A cooling system for a TEC module may include a cold plate including a base and a top body mounted thereon at a predetermined distance from the base, where the base and the top body is configured to create an enclosure therebetween to facilitate fluid flow. The cold includes an inlet (116) and an outlet (118), where the inlet and outlet are configured to allow fluid to flow through the enclosure. The cold plate includes a plurality of internal ribs (120) configured on the base, where the plurality of internal include a plurality of holes (122) configured to facilitate fluid dispersion and turbulence. The cold plate also includes a plurality of ridges (124) configured on the base between a pair of the plurality of internal ribs, where the plurality of ridges are configured to disrupt laminar fluid flow and create turbulence to enhance heat transfer efficiency.

A flat-pack battery cabinet is disclosed. The flat-pack battery cabinet (100) comprises a plurality of frames connected to each other by a plurality of vertical members (121). Each frame of the battery cabinet comprises a plurality of side brackets (105), a plurality of slats (110), a plurality of support brackets (115) and a plurality of lock brackets (120). The side brackets (105) comprises holes, grooves, and slits to attach to support brackets using fasteners to form shelf frames. The slats (110) fit into the slits of the side brackets. The lock brackets (120) receive the vertical members to lock the cabinet structure during assembly. The support brackets are designed to allow objects, such as batteries, to be mounted on the assembled shelves. The cabinet structure of the present disclosure is a flat-pack configuration that enables easy mounting, assembly and shipping.