This video provides a technical introduction to using RF power sensors for making trace (power vs. time) measurements. Rohde & Schwarz power sensors are crucial for ensuring that RF systems operate efficiently and within specified power levels. When selecting an RF power sensor, consider factors such as the frequency and power range required for your application, the type of measurement needed (average power, peak power, etc.) #makeideasreal Paul Denisowski https://lnkd.in/e25Jc_Rf

Ever wondered why some radios can run for hours on a tiny battery while others drain power fast? The answer often lies in the shape of their signal. Modulations like FSK and MSK produce a constant envelope signal which means the only parameter of a signal that changes is its frequency not the amplitude. That simple fact makes a huge difference When the amplitude stays constant, the transmitter’s power amplifier doesn’t get pushed into nonlinear regions so there’s no spectral regrowth (no energy spilling into neighbouring channels). This allows the use of high efficiency and less linear PAs in transmitters that deliver strong output with less heat and less energy wasted. 😊

Did you know? COOLIEF® Cooled RF creates a spherical-shaped lesion up to 12mm wide. With COOLIEF, water-cooled electrodes enable more radiofrequency energy to be delivered than traditional RF. Learn more: https://ow.ly/i91130sQ3ut #PainAwarenessMonth #COOLIEF #RFASolutions

SV MICROWAVE’s Integrated RF Filters deliver high-frequency performance in a small form factor. These low pass filters are available with DC to 12 GHz or 18 GHz passbands and feature SMA and SMPM push-on interfaces, making them ideal for reducing interference while maintaining low insertion loss. Key Features Include: • Low insertion loss in passband • Push-on Interface • Small form factor as compared to traditional RF filter Learn more: https://bit.ly/46otAXd #Cover2Sales #SVMicrowave

Learn about the power of Wi-Fi 6E/7 tri-band that provides an extra 1200 MHz of bandwidth for gateways that can achieve gigabit speeds. Read now via Qorvo: https://ow.ly/zjsk50X7m8z

Modern Wi-Fi Access Points are now capable of much higher transmit powers than the client devices. They can run at 200mW, with the average small client device running at 25mW. One technique to limit transmit power in a Wi-Fi network is to use RF power caps on the APs. Read more: https://lnkd.in/gFs4tzAW

This ANT post explains very well the importance of choosing the right antenna type for the wireless application. I thank Silvano Corazza, whom I've known for years as one of the leading antenna experts, for giving me the inspiration for my next post on the "Micro.sp Wireless Connectivity Standard." In this post, I'll address the antenna issue in a "Micro.sp" wireless sensor, where the antenna must obviously have maximum radiation efficiency, if the sensor is to have a 20+ year lifetime. Or when the sensor is inside a truck tire...

Phase Noise in RF systems imagine your signal were a dancer, phase noise would be the tiny “wobbles” that make every move slightly off-beat. In RF systems, phase noise is just that small random fluctuations in the timing (phase) of your carrier signal. Instead of producing a razor-sharp tone at one frequency, it spreads your signal’s energy into nearby frequencies forming those familiar “skirts” around the carrier in a spectrum plot leaking energy into the nearby channels. In radar, it can blur weak target echoes. In communication links, it pollutes your ideal QAM constellation points and increases EVM (Error Vector Magnitude). In receivers, it causes reciprocal mixing, making it harder to detect weak signals near strong ones. Even if your signal power looks fine, a “shaky” carrier can quietly ruin your link performance. Good design starts with a stable oscillator and a well-tuned PLL because a stable phase means a clearer signal. ☺️

Microwave Amplifiers play an indispensable role in high-end applications such as radar, satellite communications, and electronic countermeasures. As the "power engine" of the RF signal chain, how they convert weak signals into powerful power has always been a focus of industry attention. This article will deeply analyze the operating principles of microwave amplifiers and reveal the technical secrets of their efficient energy conversion. news url:https://lnkd.in/dK3hhK35

IsoHorns antennas lead the industry in wireless backhaul performance. Using IsoHorn’s 0.9 m deep-dish backhaul antenna, this WISP was able to maximize the capabilities of their Cambium ePMP Force 4600c radios, delivering 2.1 Gbps of TCP throughput in both directions across a 10 km link. This wasn’t just Cambium’s built-in wireless link test — it was verified with MikroTik’s bandwidth test, showing zero packet loss and ping times under 10 ms, even under load. Order here with free sea shipping worldwide: https://lnkd.in/esK68ksN