17532147. Modular Liquid Cooling Architecture For Liquid Cooling simplified abstract (GOOGLE LLC)

Modular Liquid Cooling Architecture For Liquid Cooling

Organization Name

GOOGLE LLC

Inventor(s)

Jerry Chiu of Pacifica CA (US)

Reza H. Khiabani of San Mateo CA (US)

Xiaojin Wei of Dublin CA (US)

Madhusudan K. Iyengar of Foster City CA (US)

Modular Liquid Cooling Architecture For Liquid Cooling - A simplified explanation of the abstract

This abstract first appeared for US patent application 17532147 titled 'Modular Liquid Cooling Architecture For Liquid Cooling

Simplified Explanation

The patent application describes a heat exchanger that consists of two manifolds and a group of conduits connecting them. The conduits create a flow path for liquid to move from the inlet to the outlet. Valves are placed in the manifolds to control the flow path.

• The heat exchanger allows for the liquid to flow either in parallel or in series through the conduits.
• The valves in the manifolds can change the flow path between two states: parallel connection and series connection.
• In the parallel connection state, the liquid flows through all the conduits simultaneously.
• In the series connection state, the liquid flows through the conduits one after another.

Potential applications of this technology:

• HVAC systems: The heat exchanger can be used to transfer heat between two fluids in heating, ventilation, and air conditioning systems.
• Industrial processes: It can be utilized in various industrial processes that require heat exchange, such as chemical manufacturing or power generation.
• Renewable energy systems: The heat exchanger can be integrated into renewable energy systems, such as solar thermal systems or geothermal systems, to improve efficiency.

Problems solved by this technology:

• Flexibility: The ability to switch between parallel and series flow allows for optimization of heat transfer depending on the specific requirements of the application.
• Efficiency: By adjusting the flow path, the heat exchanger can maximize heat transfer efficiency and minimize energy consumption.
• Adaptability: The heat exchanger can be easily adapted to different operating conditions and fluid characteristics.

Benefits of this technology:

• Improved heat transfer efficiency: The ability to control the flow path allows for better utilization of the heat exchange surface area, resulting in improved efficiency.
• Energy savings: By optimizing the flow path, the heat exchanger can reduce energy consumption and operating costs.
• Versatility: The heat exchanger can be used in various applications and can adapt to different fluid flow rates and temperature differentials.

Original Abstract Submitted

A heat exchanger includes a first manifold having an inlet opening and a second manifold having an outlet opening. A group of conduits fluidly connect the first manifold and the second manifold to one another such that a flow path is established for liquid to flow from the inlet opening to the outlet opening. The flow path includes a select portion that extends through all conduits within the group of conduits. Valves are located in the first manifold and the second manifold. The valves are operable to change the select portion of the flow path from between a first state, wherein the conduits within group of conduits are fluidly connected in parallel with one another, and a second state, wherein the conduits within the group of conduits are fluidly connected in series with one another.