8 Hydraulic Capacitance: Qc=CdP/dtConsider the following line connected to an actuator with an assessed oil bulkmodulus of B = 1.4 x 1019 N2mat the working conditions. Determine the effec-tive bulk modulus at minimum and maximum actuator positions.- Hydraulic Capacitance: Qc = C dP/dtConsider the following line connected to an actuator with an assessed oil bulkmodulus of Bo=1.4 x 109 N/m² at the working conditions. Determine the effec-tive bulk modulus at minimum and maximum actuator positions.Steel line 2 m longinternal dia 13 mmexternal dia 16 mmActuator-steelinternal dia 44 mm, thickness 10 mmminimum length 20 mmmaximum length 120 mm

References; Nise, N. S. (2020). Control systems engineering. John Wiley & Sons. Olejnik, P.,…

Answered: 8 Hydraulic Capacitance: Qc = CdP/dt…

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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Referring to the figure shown below, water contained in a piston-cylinder assembly, initially at 1.5 bar and a quality of 20%, is heated at constant pressure until the piston hits the stops. Heating then continues until the water is saturated vapor. The initial height, L₁, is 0.05 m and the change in height, L2, is 0.03 m. For the overall process of the water, evaluate the work and heat transfer, each in kJ/kg. Kinetic and potential effects are negligible. For the overall process of the water, evaluate the work, in kJ/kg. For the overall process of the water, evaluate the heat transfer, in kJ/kg.
give the a) A turbine connected to an electric generator through a gearbox can be modelled as illustrated in Figure 1 = 951 kgm² J2 = 950 kgm² equivalent inertias of the rotary system. The shafts provide a stiffness of k1 = 9.9x10¹Nm/Rad k2 = 4.9x106Nm/Rad spectively. The letters in the parameters represent digits of student numbers: A is the third digit, B is the fifth digit, D is the sixth digit, and F is the seventh digit. i) Draw free-body diagrams ii) Write the equations and put them in matrix form iii) Calculate the dynamic stiffness values iv) Find the natural frequencies and draw mode shapes of the system v) Discuss the effect of coupling stiffness k₁₂ on the natural frequencies k₁₁ 01 k12 O Figure Q2.
Question 2
can I get simple answer for that question please with clear solution .
Find the pressure range for the two Pressure Transmitters, PT1 and PT2? A = Maximum level = 133", B = 1", C = 3" D=5", E = 2", S.G. = 1.02 Blank #1: PT1 Min = Blank #2: PT1 Max = Blank #3: PT2 Min = Blank #4: PT2 Max = "WC "WC "WC "WC OPTI E D LOPT2 MacBook Pro Search or type URL <
#4?
A hydraulic transmission operating at 110-bars pressure has the following characteristics Pump VD = 65 cm³ nx = 86% nm = 92% N = 1740 rpm Find the a. Displacement of the motor b. Motor output torque motor VD = ? nx = 93% ♫m = 89% N = 550 rpm
3. Microfluidic channels will need to be fabricated on a key micro-scale sensor used by aerospace industries. Before running machining tests and analyzing machined quality, preliminary efforts are needed to evaluate selected materials and factors affecting machining process¹. Three material candidates have been selected, including 422SS (stainless steel), IN718 (nickel alloy), and Ti64 (titanium alloy) with their measured tensile properties and equation of true stress-true strain relationship used listed below. Tref25°C. Specifically, three factors will need to be evaluated, including different materials, temperature, and size effect. Please calculate true stress values for true strain ranging between 0-3 for each case listed below. Material A (MPa) & (S-¹) Tm (°C) 870 0.01 1520 422SS (Peyre et al., 2007) IN718 (Kobayashi et al., 2008) Ti64 (Umbrello, 2008) 980 1 1300 782.7 1E-5 1660 Material 422SS (CINDAS, 2011) IN718 (Davis, 1997) Ti64 (Fukuhara and Sanpei, 1993) 0 = X G (GPa) 1+ B…
Compare viscous damping and coulomb damping。
= Problem 2. For a homogeneous, isentropic elastic solid, the bulk modulus, Ev p (dp/dp) = pc², can be written in terms of Young's modulus, E, and Poison's ratio, v, as follows: E₁ = E/[3(1 – 2v)]. Note that for a solid E₁, and E are the same for v = 1/3 and that for a fluid only Ę is defined. Look up Young's modulus, Poison's ratio, and density, for zinc and calculate the speed of sound for temperatures ranging from 0°C to 90 °C. For the same temperature range, look up the speed of sound for water and air. Make a plot of the speed of sound versus temperature for all three materials.
Distilled water at 10deg C stands in a glass tube of 9.0 mm diameter at a height of 24.00 mm. What is the true static height in mm if the surface tesnsion is 0.0742 N/m. a.24 mm b.27.4 mm c.20.6 mm d.3.4 mm
Please solve and include units. Answer is 120 psi. Thanks!

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