Analysis and Design of Fm Transmitter

On the new screen job type was selected as opt+freq, charge as 0, spin as 1, method as HF, basis set as 6-311G(d,p), and the input was saved to the computer for further reference.

Next, you will add the AND and OR gates necessary to complete the circuit equations you derived in the lab report, part 1 section. The output F for the canonical SOP circuit should be shown on LEDG[0]. The output G for the canonical POS circuit should be connected to LEDG[1].

The receiving coil was connected in parallel to the coupling capacitors of 100nF. These capacitors helps the coils to improve coupling co-efficient.

Which of the following is not one of the design process phases given in the textbook?

condition is given in Fig. 8, it can be seen that the output voltage takes nearly one cycle to settle whereas

Where Zo is the CPE constant, W is the angular frequency (in rad/s), i2 = -1 is the imaginary number and (n) is the CPE exponent. Based on (n), CPE can represent resistance (n = 0, Zo = R),

Ciampa, M. (2013). WNA Guide to Wireless LAN’s (3rd ed.). [VitalSource Bookshelf]. Retrieved from http://www.devryu.net/

One gram of the following salts were measured out, Calcium chloride, Lithium chloride, Magnesium chloride, Potassium chloride, Sodium chloride, Strontium chloride, and Copper chloride. Each of the salts were placed into cups and added to 80 mL of water. Then Gaviscon was individually dropped into each solution. Do this for each salt solution and record the results. Next, forcefully expel the Gaviscon in a regular steady stream into each different solution. Record the observations.

Then, the Rf values for the known compounds were calculated using the Retention Factor

The first experimental Study of this Laboratory was the investigation of the open loop system

For complete saturation of one of the ESR transitions, and the condition that , the enhancement factor is given by,

The line best fit for the activated solution was y = 0.0007x Au/sec + 0.0034 Au with an R2 value of

The results in figure 8.2 and 8.3 show a shift in amplitude change to the high frequency end as the through-wall extent of the slots increases suggesting that the amplitude responses are more sensitive to

13 The product of resonance frequency and measured quality factor (f_Q) is the critical figure of

VCC = 12 VDC, TA = 25˚C, see test circuit Symbol TACHOMETER Input Thresholds Hysteresis Offset Voltage LM2907/LM2917 LM2907-8/LM2917-8 Input Bias Current VOH VOL I2, I3 I3 K Pin 2 Pin 2 Output Current Leakage Current Gain Constant Linearity OP/AMP COMPARATOR VOS IBIAS Input Common-Mode Voltage Voltage Gain Output Sink Current Output Source Current Saturation Voltage VC = 1.0 VE = VCC −2.0 ISINK = 5 mA ISINK = 20 mA ISINK = 50 mA ZENER REGULATOR Regulator Voltage Series Resistance Temperature Stability TOTAL SUPPLY CURRENT RDROP = 470Ω 7.56 10.5 +1 3.8 6 15 V Ω mV/˚C mA 1.0 40 VIN = 6.0V VIN = 6.0V 0 200 50 10 0.1 0.5 1.0 1.5 3 50 10 500 VCC−1.5V mV nA V V/mV mA mA V V V VIN = ± 50 mVDC VIN = +125 mVDC (Note 3) VIN = −125 mVDC (Note 3) V2 = V3 = 6.0V (Note 4) I2 = 0, V3 = 0 (Note 3) fIN = 1 kHz, 5 kHz, 10 kHz (Note 5) 0.9 −1.0 1.0 0.3 140 VIN = 250 mVp-p @ 1 kHz (Note 2) VIN = 250 mVp-p @ 1 kHz (Note 2) VIN = 250 mVp-p @ 1 kHz (Note 2) 3.5 5 0.1 8.3 2.3 180 240 0.1 1.1 +1.0 % 10 15 1 mV mV µA V V µA µA Parameter Conditions Min Typ Max Units mV mV