CNMNM

Mounting Feature:	--
Operating Temperature:	--
Insertion Loss:	--
Mating Cycles:	--
Dielectric Material:	Polytetrafluoroethylene (PTFE)
Center Contact Material:	Brass
Body Finish:	Nickel
Body Material:	Brass
Includes:	--
Features:	--
Center Contact Plating:	Gold
Ingress Protection:	--
Frequency - Max:	10GHz
Fastening Type:	Threaded, Threaded
Series:	--
Mounting Type:	Free Hanging (In-Line)
Style:	Straight
Impedance:	50 Ohm
Convert To (Adapter End):	N Plug, Male Pin
Convert From (Adapter End):	N Plug, Male Pin
Center Gender:	Male to Male
Adapter Series:	N to N
Conversion Type:	Same Series
Adapter Type:	Plug to Plug
Moisture Sensitivity Level (MSL):	--
Part Status:	Active
Lead Free Status / RoHS Status:	--
Packaging:	Bulk

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CNMNM Application Field and Working Principle

Coaxial Nanomaterials (CNMNM) are complex nanomaterial structures with unique electrical properties that have been used for a variety of applications. CNMNM include structures such as Carbon nanotubes (CNTs), Graphene, Boron Nitride (BN) and Silicon Nanowires (SNW) among others. This article will discuss the application field of CNMNM and the principles behind their operations.The application field of CNMNM is quite vast, as they are used in a wide variety of applications from consumer electronic devices to high-end medical equipment. They are widely used in the manufacturing of coaxial connectors (RF) and adapters, such as SMA, SMB, and SMC connectors. These connectors often have a high-frequency response, allowing for better signal transmission over longer distances. They are also used in high-end medical equipment and smart sensors, to detect changes in electrical signals and transmit the data for analysis.In addition to their use in the aforementioned applications, CNMNM have made a rather impressive entry into energy storage and generation systems. Single-layer graphene-oxide nanomaterials (GONMs) are being widely used to create flexible energy storage devices, such as super-capacitors and batteries. They provide a compact and efficient storage option for energy generation systems. CNMNM have also been used to create ultra-efficient photovoltaic cells for solar energy generation, as well as in nanoelectrodes and nanowire electrodes for generating hydrogen fuel cells.The working principle behind CNMNM is complex and fascinating. These nanomaterials have unique electrical properties due to their nanoscale size, which allow them to interact with charge carriers more efficiently than other materials. This means that they can rapidly transmit and receive data at higher frequencies. When used as connectors, these nanomaterials act as a bridge between two ends so that the electrical current can flow between them.In energy storage and generation, the nanomaterials act as buffers, storing the energy generated and releasing it slowly when needed. The same principle is used in the creation of photovoltaic cells. Here, the nanomaterials act as the light receptor, converting the photons of light into electrons, which then flow through the material and generate a current. This current is then used to power an electrical device.Overall, CNMNM have become an integral part of many different industries, providing an innovative and efficient way to power many devices. Their application field and working principle are fascinating to study and continue to amaze researchers and engineers alike.

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