Allicdata Part #: | 294-1003-ND |
Manufacturer Part#: |
RUR67B1B |
Price: | $ 0.00 |
Product Category: | Fans, Thermal Management |
Manufacturer: | CTS Thermal Management Products |
Short Description: | HEATSINK PRESSON SINGL MNT TO-92 |
More Detail: | Heat Sink TO-92 Aluminum |
DataSheet: | RUR67B1B Datasheet/PDF |
Quantity: | 1000 |
1 +: | 0.00000 |
Series: | -- |
Part Status: | Obsolete |
Type: | -- |
Package Cooled: | TO-92 |
Attachment Method: | Press Fit |
Shape: | -- |
Length: | -- |
Width: | -- |
Diameter: | -- |
Height Off Base (Height of Fin): | 0.590" (15.00mm) |
Power Dissipation @ Temperature Rise: | -- |
Thermal Resistance @ Forced Air Flow: | -- |
Thermal Resistance @ Natural: | -- |
Material: | Aluminum |
Material Finish: | -- |
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Thermal - Heat Sinks are used to provide a twofold purpose of enabling heat to dissipate from a device and removing it from the immediate environment. This is achieved by creating a large surface area for maximized cooling ability and providing an efficient means of removing heat from the core.
The RUR67B1B is an advantageous and efficient thermal - heat sink solution that utilizes a Dual Integral or DI thermal Technology. This technology helps improve heat transfer between a variety of metal base and fin designs, and is used in applications where precise temperature control is necessary.
The RUR67B1B is made up of either copper or aluminum base plates which are cut and precision machined. These base plates are then provided with die-stamped aluminum fins. The fins have a corrugated height profile that is designed to keep the fins continuously away from the high-temp components within the source heat exchanger.
DI technology further facilitates accelerated and improved heat dissipation by ensuring the highest possible heat transfer rate between the driven fin and the base plate. This is achieved by achieving maximum heat transfer and a temperature differential on the driven fin surfaces. This temperature differential allows for an increased rate of heat exchange.
DI technology provides greater amounts of thermal transfer due to the fact that it locks in the maximized temperature differential on the driven fin surfaces. This assures a continuous and differential distribution of the driven fin surfaces that will balance the temperature of the dissipated heat.
The RUR67B1B utilizes an efficient and reliable thermal design that incorporates the use of smart technology. This technology has been developed to increase the base plates’ maximum heat dissipating capabilities. It also increases the efficiency level of the device itself by maximizing the cooling performance after just one cold start session.
This technology also enables the RUR67B1B to achieve maximum heat dissipation with a minimal footprint. The DI technology designed into this device maximizes the efficiency of the device in several application fields. This device can also be programmed to accommodate the specific thermal needs of different electronic applications.
The RUR67B1B has been developed to be top-notch, efficient thermal solution for a variety of applications. It has been designed to tackle thermal challenges for a variety of industrial equipment, ranging from power electronics to data centers. This device is also able to provide a quieter working environment due to its efficient thermal design.
This device utilizes heat exchange technology to ensure reliable cooling performance. This device also has the capacity to consolidate a number of sources in one unit, making it much more efficient. Its small form factor also makes it an ideal solution for a variety of applications.
The RUR67B1B is a reliable and efficient thermal - heat sink solution for a variety of applications. It is designed to be a cost-effective solution for a variety of electronic products by incorporating smart technology which maximizes heat dissipation while minimizing its footprint and cost. It can also be adapted to meet the specific thermal demands of any given application.
The specific data is subject to PDF, and the above content is for reference