Answer:
Explanation:
A multipurpose transformer can act as step up as well as step down transformer according to the desired setting by a user.
When the voltage at the output is greater than the voltage at the input of the transformer then it acts as step-up transformer and vice-versa acting is a step down transformer.
Given that:
input (primary) voltage of the transformer,
no. of turns in the primary coil,
turns compensating the losses
turns compensating the losses
turns compensating the losses
Answer:
The code is attached.
Explanation:
I created a string s including 6 colors with spaces in between. Then I converted the string into a list x by using split() method. I used three different methods for removing elements from the list. These methods are remove(), pop() and del.
Then I used methods append(), insert() and extend() for adding elements to the list.
Finally I converted list into a string using join() and adding space in between the elements of the list.
Buffering is an important op amp application because it solves impedance-matching problems that can't easily be solved with purely resistive circuits. This allows for the transfer of maximum power between two circuits without any loss of signal strength.
Buffering with operational amplifiers (op amps) is a crucial application in electronics because it helps to overcome impedance-matching problems that cannot be easily resolved with only resistive circuits. Impedance-matching issues can cause signal distortion, and buffering solves this problem by creating a high-input impedance and low-output impedance circuit that separates the input and output signals, preventing the signal from being affected by the load impedance.
By using op amp buffering, the signal can be efficiently transmitted and received without signal loss or distortion, making it a useful technique in many applications, such as audio amplification and signal conditioning.
"
Complete question
Buffering is an important op amp application because it solves _____ that can't easily be solved with purely resistive circuits.
Group of answer choices
delay issues
tolerance issues
temperature issues
loading effects
impedance-matching problems
"
You can learn more about Buffering at
#SPJ11
Answer:
Explanation:
To calculate the currents in the parallel branches, we need to know the impedance of each branch. That will be the sum of the resistance and reactance.
The inductive reactance is ...
The capacitive reactance is ...
Branch 1
The impedance of branch 1 is ...
Z1 = 8 +j4.99984 Ω
so the current is ...
I1 = V/Z = 240/(8 +j4.99984) ≈ 25.440∠-32.005°
The power factor is cos(-32.005°) ≈ 0.848 (lagging)
Branch 2
The impedance of branch 2 is ...
Z2 = 5 -j10 Ω
so the current is ...
I2 = 240/(5 +j10) ≈ 21.466∠63.435°
The power factor is cos(63.436°) ≈ 0.447 (leading)
Total current
The total current is the sum of the branch currents. A suitable calculator can add these vectors without first converting them to rectangular form.
It = I1 +I2 = (21.573 -j13.483) +(9.6 +j19.2)
It ≈ 31.173 +j5.717 ≈ 31.693∠10.392°
The power factor for the circuit is cos(10.392°) ≈ 0.984 (leading)
__
The phasor diagram of the currents is attached.
_____
Additional comment
Given two vectors, their sum can be computed several ways. One way to compute the sum is to use the Law of Cosines. In this application, the angle between the vectors is the supplement of the difference of the vector angles: 84.560°.
Answer:
s_max = 0.8394m
Explanation:
From equilibrium of block, N = W = mg
Frictional force = μ_k•N = μ_k•mg
Since μ_k = 0.3,then F = 0.3mg
To determine the velocity of Block A just before collision, let's apply the principle of work and energy;
T1 + ΣU_1-2 = T2
So, (1/2)m_a•(v_ao)² - F•s =(1/2)m_a•(v_a1)²
Plugging in the relevant values to get ;
(1/2)•(15)•(10)² - (0.3•15•9.81•4) =(1/2)(15)•(v_a1)²
750 - 176.58 = 7.5(v_a1)²
v_a1 = 8.744 m/s
Using law of conservation of momentum;
Σ(m1v1) = Σ(m2v2)
Thus,
m_a•v_a1 + m_b•v_b1 = m_a•v_a2 + m_b•v_b2
Thus;
15(8.744) + 10(0) = 15(v_a2) + 10(v_b2)
Divide through by 5;
3(8.744) + 2(0) = 3(v_a2) + 2(v_b2)
Thus,
3(v_a2) + 2(v_b2) = 26.232 - - - (eq1)
Coefficient of restitution has a formula;
e = (v_b2 - v_a2)/(v_a1 - v_b1)
From the question, e = 0.6.
Thus;
0.6 = (v_b2 - v_a2)/(8.744 - 0)
0.6 x 8.744 = (v_b2 - v_a2)
(v_b2 - v_a2) = 5.246 - - - (eq2)
Solving eq(1) and 2 simultaneously, we have;
v_b2 = 8.394 m/s
v_a2 = 3.148 m/s
Now, to find maximum compression, let's apply conservation of energy on block B;
T1 + V1 = T2 + V2
Thus,
(1/2)m_b•(v_b2)² + (1/2)k(s_1)² = (1/2)m_b•(v_b'2)² + (1/2)k(s_max)²
(1/2)10•(8.394)² + (1/2)1000(0)² = (1/2)10•(0)² + (1/2)(1000)(s_max)²
500(s_max)² = 352.29618
(s_max)² = 352.29618/500
(s_max)² = 0.7046
s_max = 0.8394m
Answer:
(c)- Elastic modulus
Explanation:
We know that in tensile test we measure the properties of the material like yield strength,ultimate tensile strength ,Poisson ratio.
In tensile test
σ = ε E
Where σ is the stress
ε is the strain.
E is the elastic modulus.
Now for shear tress
τ = Φ G
Where τ the shear stress
Φ is the shear strain.
G is the shear modulus.
So we can say that Shear modulus is analogous to Elastic modulus.
Answer:
x3=0.100167
Explanation:
Let's find the answer.
Because we are going to find the solution for sin(Ф)=0.1 then:
f(x)=sin(Ф)-0.1 and:
f'(x)=cos(Ф)
Because 0<Ф<π/2 let's start with an initial guess of 0.001 (x0), so:
x1=x0-f(x0)/f'(0)
x1=0.001-(sin(0.001)-0.1)/cos(0.001)
x1= 0.100000
x2=0.100000-(sin(0.100000)-0.1)/cos(0.100000)
x2=0.100167
x3=0.100167