Prachet Hire’s Post

Update 0.24 avaliable! 📜 Added history of interface status changes 🔄 Implemented trap capture (currently only collects link/status changes of ONU across all switches and BDcom GP36xx) 📊 Added export to Excel for selections from analytics and interfaces 📅 Added date of last link status change 🚫 Removed support for old ONU registration components (huawei_onts_registration/zte_onts_registration) 🛠 Fixed ONU reset on FD16xx FW v3 📶 Fixed incorrect signal levels on FD16xx FW v3 📋 Current profiles (line, srv) are now displayed on C-Data ONU 🔍 Changed global search logic - interface/ONU descriptions now appear first in results 🔧 Updated Oxidized to the latest version 📑 Added display settings (sorting/grouping) in the device list 📝 Added page for received traps (logs) 🌟 Slightly refined web interface elements (margins, height, element icons)

The Triplett Model ACDL200 is a True RMS AC Voltage/Current Datalogger with dual input capability (600V/200A). It can datalog up to 131,000 measurements (dual input) or 256,000 measurements (single input), offering dual channel recording of TRMS Voltage/Voltage, Current/Current, or Voltage/Current. You can set the sampling rate from 1 second to 24 hours. Learn more: bit.ly/3qnOkxq

In high-density 400G Ethernet applications, the QSFP56DD-SN-4LR1 transceiver offers the performance and reliability critical to maintaining efficient and robust network operations. Supporting up to 10km reach over single-mode fiber, this module is engineered for environments where high throughput and low latency are crucial. With 4x100G PAM4 lanes using SN duplex connectors, it delivers the breakout 4x100G bandwidth necessary with the advantage of simpler connectivity vs traditional 4xLR1 modules. The QSFP56DD-SN-4LR1 ensures that your network is not only optimized for current needs but also scalable for future growth, making it a strategic investment for any advanced data center. https://hubs.la/Q02M4ywW0 #400G #OpticalTransceivers #NetworkPerformance #TechInnovation

#Analysis tools that operate on both software-modeled and simulated data, as well as actual measured data from #highbandwidth #testequipment, will boost reliability of #6G designs. https://bit.ly/49TuDhn

Hi All, This is a follow up question regarding my question yesterday. https://lnkd.in/grnMqGVb So, basically my question is in regards of phase and magnitude analysis for Frequency Response Analysis (or often called bode plot) measurement in power supply simulation. As we can see in the picture below, at higher frequency the FRA measurement becoming useless due to the measurement at the OUT-port becomes unreliable as the perturbation signals becomes so small there making the signal to be drowned under the output voltage ripple. While the magnitude estimation is still somewhat relatively acceptable, but the phase measurement is completely useless. Because of this, currently for measurement in simulation greater than +50dB or smaller than -50dB the measurement must be considered unreliable. In the real hardware, I have made similar analysis with much more reliable measurement result, however the difference between HW and simulation is, FRA in hardware is much much quicker so I can easily extend the total measurement duration without significant computation time penalty. By the way, the whole FRA algorithm I use in Qspice now is pretty quick... The simulation here only need 2.5mins for FRA from 50Hz to 50KHz with 61 datapoints in logspace. I just need this final piece of algorithm to improve the phase detection at low SNR condition.

Setup Time 1 1.To understand how a setup violation happens lets go through this scenario: Lets assume the FF was storing a logic zero (0) 2.Now a new data arrives at the D input ,that is logic one (1), and starts overwriting the previous stored value 3.The clock edge arrives before the new data have time to overwrite node D. The transmission gates switch

The DM858 series state-of-the-art benchtop digital multimeter features 5.5-digit resolution, max. 125 readings/s, data logging memory of 500,000 points, and 0.03% DCV accuracy (1 year). It provides 11 measurement functions for input signals, 5 Math operations, and 3 graphical display types, satisfying what most experiments and tests require of a multimeter. The 7" touch screen allows a clear view of measurement results. USB and LAN interfaces as well as the Web Control allows operating instrument directly, and efficiently. Attach it to a VESA arm to valuable bench space! https://lnkd.in/eYdbMs4e

As per ACI-318 code section 22.6.4, the two way shear stress (punching shear stress) is very important to be checked at d/2 of column edges, concentrated load and the reaction area. and as we know the CSI programs do a good job of computing the punching shear stress for columns, but don't automatically compute it for the shear walls so, I would like to share with you some simple tricks show how to check the punching shear ratio for the shear walls.