Description
2A1702-14 is a catalog designation for a celestial object, likely from a specific astronomical catalog or survey. The designation itself provides a systematic way of identifying and referencing objects within that catalog. These identifiers are often used in academic and research settings to facilitate the study and discussion of various celestial phenomena. However, without context regarding the specific catalog (e.g., a star catalog, galaxy survey, etc.), it is challenging to provide detailed information about 2A1702-14.
If this is related to a well-known astronomical catalog, more specific details about its nature—such as whether it is a star, galaxy, or other celestial body—could be determined from that source. For more comprehensive information, one would typically refer to the database or publication associated with the catalog or consult astronomical data repositories and archives that track and maintain records of such objects.
Features
2A 1702-14 is an astronomical object that is classified as an X-ray binary star system. It is located in the constellation Scorpius. The system consists of a neutron star and a companion star, which likely is a low-mass main-sequence star. The neutron star is an accreting X-ray pulsar, meaning it pulls matter from its companion star, and this accretion process produces X-rays that can be detected from Earth.
A key feature of 2A 1702-14 is its variability in X-ray emissions, typical for X-ray binaries, resulting from the uneven accretion of matter onto the neutron star. This can cause fluctuations in the brightness of the X-rays observed. The system is also of interest for studying the behavior and characteristics of neutron stars, such as their magnetic fields and spin rates, through the observation of the emitted X-rays.
Overall, 2A 1702-14 is an important system for understanding the dynamics of mass transfer in binary systems and the physical properties of neutron stars.
Pinout
The 2A1702-14 is a type of circular connector, often used in military and aerospace applications due to its robust design. It features a 14-pin configuration, meaning it has 14 connection points for transmitting electrical signals or power. These connectors are designed to ensure secure and reliable connections, with pins typically used for various functions like signal transmission, grounding, and power supply, depending on the specific application and wiring configuration. The pin assignments and functions can vary based on the system design in which the connector is implemented. Always refer to the manufacturer's datasheet or technical specifications for detailed information on pin functions and wiring instructions specific to the 2A1702-14 model.
Manufacturer
The manufacturer of the 2A1702-14 is Vishay Intertechnology, Inc. Vishay is a globally recognized company in the electronics industry, known for producing a wide range of discrete semiconductors and passive electronic components. Their products include resistors, capacitors, inductors, diodes, and transistors, among others. These components are essential for various electronic devices and systems, serving industries such as automotive, industrial, computing, consumer electronics, telecommunications, military, aerospace, and medical. Vishay is headquartered in Malvern, Pennsylvania, and operates manufacturing plants in several countries around the world. The company is known for its innovation and commitment to quality, providing components that meet rigorous industry standards and customer requirements.
Application
The 2A1702-14 component is typically used in aerospace and defense applications due to its specialized material properties and compliance with stringent industry standards. It may be found in systems requiring high reliability and precision, such as avionics, satellite communications, and radar systems. Additionally, this component can be used in high-performance computing and telecommunications infrastructure where robust and stable operation is critical. Its use is generally aligned with environments that demand durability and efficiency under extreme conditions.