315K views · 25K reactions | At this year's G7 Foreign Ministers’ Meeting in Canada, we continued to advance @POTUS's vision of peace through strength, tackling:  Global Peace and Security ⚡ Energy and Critical Minerals  Maritime Security and Prosperity | U.S. Department of State | Facebook

36K views · 5.9K reactions | Don’t let Zone 6 get behind the defense  Julian Sayin drops in a 49 yard pass to Carnell Tate to put the Buckeyes up 3️⃣ scores. @OhioStateFB | #GoBucks | Ohio State Buckeyes | Facebook

This simulation shows the voltages across the components in a series RLC circuit driven by an AC source of 1 kHz frequency. The circuit includes a resistor (R = 100 Ω), an inductor (L = 10 mH), and a capacitor (C = 1 µF) connected in series. The graph at the top displays the instantaneous voltages across R, L, and C along with the supply voltage. The resistor voltage (green) is in phase with the current, the inductor voltage (red) leads the current by 90°, and the capacitor voltage (yellow) lags

This shows the simulation of an RLC circuit powered by a 1 kHz AC source. The graph illustrates the current waveforms through the resistor (orange), inductor (blue), and capacitor (green), along with the total circuit current (red). Each component exhibits a distinct phase relationship: the inductor current lags, the capacitor current leads, and the resistor current remains in phase with voltage. This highlights the dynamic interplay of reactance in AC circuits. #ElectronicsEducation #electronic

This simulation shows the voltages across the resistor (green), inductor (orange), and capacitor (red) in a series RLC circuit driven by a 1 kHz AC source (blue). Although the current waveform is not shown, based on standard RLC circuit theory, the resistor voltage (green) is in phase with the current, the inductor voltage (orange) leads the current, and the capacitor voltage (red) lags behind the current. The phase differences between these voltage waveforms highlight the distinct reactive beha