Techniques for inducing non-uniform cooling are described. According to an embodiment, a system is provided. The system can comprise at least one processor device that executes components stored in a memory, wherein the components comprise: a flow control device that distributes coolant to a location of the at least one processor device; and a sensor controller component that detects a location of a thermal anomaly of the at least one processor device. The components can also comprise a cooling controller component that adjusts the flow control device to direct the coolant to the location of the thermal anomaly.

Methods are directed towards dynamically determining refrigerant film thickness at the rolling-element bearing and for dynamically controlling refrigerant film thickness at the rolling-element bearing. Further, an oil free chiller system is configured for dynamically determining refrigerant film thickness at the rolling-element bearing of the oil free chiller system, wherein the oil free chiller system is also configured for dynamically controlling refrigerant film thickness at the rolling-element bearing of the oil free chiller system.

A controller for controlling a machine includes a coolant monitoring function. The controller generates and records history information in which the measurement values of a state of a coolant are associated with time information on the time when the measurement values are measured. Then, a rate of change in a measurement value for a state of the coolant is calculated based on the recorded history information, and a state of the coolant and a countermeasure therefore are determined based on the calculated rate of change in the measurement value.

Disclosed is a method of communication between a plurality of liquid cooling modules of a cooling system for one or more one computer servers, in which: the cooling modules communicate with each other in a manner that operates in N+1 redundancy where N is greater than or equal to 2, so as to enable a standard replacement of any one of these cooling modules without stopping the cooling and without stopping the operation of the server or servers, this communication being ensured by a collaborative protocol without master/slave, before switching from an active mode where it is cooling to a backup mode where it is no longer cooling, the redundant cooling module verifying beforehand that a data set is consistent across all these cooling modules and that this consistency is maintained for a predetermined duration.

Methods are directed towards dynamically determining refrigerant film thickness at the rolling-element bearing and for dynamically controlling refrigerant film thickness at the rolling-element bearing. Further, an oil free chiller system is configured for dynamically determining refrigerant film thickness at the rolling-element bearing of the oil free chiller system, wherein the oil free chiller system is also configured for dynamically controlling refrigerant film thickness at the rolling-element bearing of the oil free chiller system.

Methods and systems for determining a temperature of goods in a temperature controlled unit are disclosed. Raw temperature data is received for a first iteration. The raw temperature data indicates an air temperature inside the temperature controlled unit at the first iteration. A property value for a good stored in the temperature controlled unit is obtained. Based on the raw temperature data for the first iteration and the property value for the good, a first adjusted stored goods temperature is determined for the good. The first adjusted stored goods temperature for the good represents a first internal temperature of the good. Additional iterations are performed, where raw temperature data is received for a second iteration. Based on the raw temperature for the second iteration and the property value for the good, a second adjusted stored goods temperature is determined.

Machine tool includes an ejection part, a first tank, a second tank, a pump, and a control unit. Control modes of the pump include: a first control mode in which the pump is driven when a first coolant amount in the first tank is more than a first predetermined amount and the pump is stopped when the first coolant amount is less than a second predetermined amount; and a second control mode in which the pump is driven so that the first coolant amount is a constant amount. The control unit controls the pump in first control mode when a second coolant amount in the second tank is more than or equal to a third predetermined amount, and switches the control mode of the pump from the first control mode to the second control mode when the second coolant amount is less than the third predetermined amount.

Techniques for inducing non-uniform cooling are described. According to an embodiment, a system is provided. The system can comprise at least one processor device that executes components stored in a memory, wherein the components comprise: a flow control device that distributes coolant to a location of the at least one processor device; and a sensor controller component that detects a location of a thermal anomaly of the at least one processor device. The components can also comprise a cooling controller component that adjusts the flow control device to direct the coolant to the location of the thermal anomaly.

According to one embodiment, a liquid cooling leakage abatement system includes a systems manager having executable instructions for obtaining location information for each of a plurality of components of a computing cluster in which at least a portion of the components are cooled by a liquid cooling system via a liquid coolant. When the systems manager receives leakage information associated with a leak in the liquid cooling system used to cool a first component, it infers a second component that is affected by the leak, and generates an alert message indicating that the first and second components that are affected by the leak.

Methods are directed towards dynamically determining refrigerant film thickness at the rolling-element bearing and for dynamically controlling refrigerant film thickness at the rolling-element bearing. Further, an oil free chiller system is configured for dynamically determining refrigerant film thickness at the rolling-element bearing of the oil free chiller system, wherein the oil free chiller system is also configured for dynamically controlling refrigerant film thickness at the rolling-element bearing of the oil free chiller system.