BDBQ7.Which information is not related to local conditions.In house expertiseС.SupplierMaterial propertiesА.В.WeatherD.Q8. The performance of an element can be written as p = fi(F).f2(G).f3(M).F, G and M in the performance equation representI. FunctionalII. GeometricIII. MaterialsPropertiesIV. Materials IndexRequirementParametersА. I, П and IIВ. 1, Ш and IVс. П, Ш and IVD. I, II and IVQ9. A local theater effects company has been contracted to provide the stage effects for thenew Broadway Musical production of “Casper, the Friendly Ghosť". One of the effectsinvolves an enormous ghost puppet, which is manipulated through wires attached to alarge crosspiece. The crosspiece must support the substantial load of the puppet at thecenter of the main beam (Fenter), as well as control the puppet motion with wiresattached to the arms of the crosspiece, Frot. The central load problem is modeled as asimply supported beam, while the puppet control requires a large torque at the ends ofthe beam, which leads to a rotational deflection of the backbone, THETA (0). Since thepuppeteers must manipulate the crosspiece, its weight is of significant concern.Identify the constraints for the above design case.I.Weight of the crosspieceRotational deflectionTorque at the ends of the beamStrength (support load)II.III.IV.A. I and IIIB. I and IIC. III and IVD. II and IV

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Q7. Which information is not related to local conditions. In house expertise C. Supplier Material properties А. В. Weather D. Q8. The performance of an element can be written as p = fi(F)f2(G),f;(M). F, G and M in the performance equation represent I. Functional II. Geometric III. Materials IV. Materials Index Requirement Parameters Properties А. I, П and III В. 1, I and IV С. П, I and IV D. I, II and IV Q9. A local theater effects company has been contracted to provide the stage effects for the

Q7. Which information is not related to local conditions. In house expertise C. Supplier Material properties А. В. Weather D. Q8. The performance of an element can be written as p = fi(F)f2(G),f;(M). F, G and M in the performance equation represent I. Functional II. Geometric III. Materials IV. Materials Index Requirement Parameters Properties А. I, П and III В. 1, I and IV С. П, I and IV D. I, II and IV Q9. A local theater effects company has been contracted to provide the stage effects for the

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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1.3 A mixture of two liquids of equal volume is made, the one has a relative density of 0,8 and the other a density of 980 kg/m³. What will the weight of 2 500 litres be? 1.4 1.5 1.6 15 1.7 [21830 N] A solid block of stone with a relative density 4 is broken down and crushed to an average size of 20 mm. If the stone originally had a volume of 50 m³, how many truck loads with a volume of 2 m³, will it take to transport the crushed stone if 25 of the crushed stone has a mass of 80 kg. Has the relative density changed? How much? Why? [32 truck loads] Use table 1.4.2 to determine the kinematic viscosity of crude oil with a density of 855 kg/ m³ at temperatures of 20°C and 100°C. [9,357 x 10-6 m²/s; 3,275 x 10-6 m²/s] Air is used in a sensitive gyroscope to keep the metal bearing surfaces apart. Will the friction losses in the bearing be higher, lower or the same if the temperature of the bearing increases? A widely used S.I. unit for kinematic viscosity is centi- stoke cSt. One stoke is…
I am struggling with a, b,c,d
Break down how got the answer simply? For period what is as?
PLEASE CHOOSE THE CORRECT OPTİONcourse name : Measurement Technique
7. Repeat the experiment using a second and third rod of different material. Data Table: T; °C Lo m Aluminum 0.30 Material AL m T; °C AT °C 5.44 x 10-4 24.6 100.2 0.29 4.21 x 10-4 23.5 99.9 Brass 0.30 3.83 х 104 25.0 100 Copper Data Analysis Table Experimental a Accepted a /°C 24 x 10-6 Material Error % Aluminum 19 х 106 Brass 17x 10-6 Сopper
P1 v? P2 + d2 29 pg L V² + zz + h¢arbin, + hx,toplam hksūrekli= f.5:2a + z1 + hpompa,f pg pg¥H Wmit = hK.yerel =Kr, hg.toplam= hx,sûrekli + hg,yerel Nsp %3D Протра (gH)3/4 一()-)(图)第-(m)(合) 1/2 wWmil Nst = p1/2(gH)5/4 Wmil,B _ PB (WB (DB DA WB (DR HB WB %3D %3D HA Wmil = PgHỳNturbin wa DA VA Wmil = prwv(V; – rw)(1 – cosß) Constant operating speed characteristics; H = 55 – 460v² and ng = 8,2v – 130V3 Water is drawn from a pond by means of a centrifugal pump given with equations, and it is pumped into a 25 m high open water reservoir with a flow rate of 0.15 m^3/s. The pipe length used during this process is 130 m and the continuous load coefficient on the pipe is given as 0.024. Since the local load losses in the system are neglected; (psu= 998 kg/m³) a) Find the diameter of the discharge pipe b) Find the power of the pump. c) Find the manometric head of the pump. 0,12 m 77 kW 0,10 m 83 kW 54,27 m 55,21 m 0,29 m 88 kW O 0,20 m O 79 kW 44,65 m 61,87 m 0,30 m 91 kW 41,54 m
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Q3 (a) Forecast the demand for month of October using the methods described by i-iv. Demand data for an interior decoration contractor is recorded in Table 3. (i) Naive. (ii) 3-period simple moving average. (iii) 4-period weighted moving average with weightage value of 0.4, 0.3 and 0.2 (highest value for the most recent period). It is a common understanding that the summation of weight factors shall equal to 1. (iv) Exponential smoothing with a = 0.3. Assume the forecast for month of July is 1940 Table 3 : Demand Data July Jan |980 Feb |Mar April May June | Sept Aug 1100 1270 1325 1380 1870 1900 1679 1890
The rapid progress of engineering design and information technology has caused difficulties in analyzing system reliability. Because of the increased complexity in system reliability structure (component/subsystem interfaces), many unexpected failure modes could occur, and their behaviors are interdependent. At a system’s design and development stage, the main challenge in analyzing a complex system is the failure uncertainty introduced by the incomplete knowledge of the system. This makes it hard to decompose system reliability into subsystem/component reliability in a deterministic manner, such as series or parallel systems. As a result, some common reliability analysis tools such as fault tree (FT) and reliability block diagram (RBD) become inadequate. Do you agree, why or why not? Are there any other approaches to system reliability assessment beside these tools at the early system’s design and development stage (what are these approaches)?