Print Reading for Industry 430 Class Name Date Industry Print Exercise 22-1 Refer to the print PR 22-1 and answer the questions below. 1. What is the total number of parts required to make the welded assembly? 2. How many welding symbols are on the print? 3. How many different types of welds are specified on the print and what are they? 4. For the weld between parts TP1 and TP2, what does the 3 mean? 5. What standard should be used to interpret the weld symbols on this print? 6. As indicated by the welding symbols, are the welds to be made on the near side, far side, or both sides? 7. What note is found in the tail of the welding symbol? 8. Are any field welds indicated? Review questions based on previous units: 9. What is the hole diameter for the small hole located on part AAA316FTP2? 10. What is the largest diameter on this assembly? 11. What geometric tolerancing controls are used on this print? 12. What is the name of this part? 13. What is the smoothest surface finish specified on this print? 14. In the local note for the holes marked M6, what does B.C. stand for? 15. As shown in the sectional side view, what is the total depth of this welded part? Copyright Goodheart-Willcox Co., Inc. Unit 22 Welding Prints 4 AAA316FTP DWG 228 31 +0,3 43 22 TZ blow E0OO Ø125H7 bi lodm Ø140 Su 9.5 e 0 o PR 22-1. Bracket Mounting. Print supplied by United Technologies Otis. Copyright Goodheart-Willcox Co., Inc. 120-400 t0,3 50-120 3-6 6-30 ANGLE (shor ler side length) O,5-10 10-50 ALL DIMENSIONS METRIC 30-120 120-315 O.5-3 A OLERANCE 3-6 6-30 30 120 120 315 315 10000 1000-2000 RAD. /CHAN 0.5-3 40.2 0.5 +8 TOLERANCE + 0,8 t0, +0.8 1,2 +3 TOLERANCE 0.2 + 2 24 NOTES: TOLERANCE 6,3 ALL OVER EXCEPT AS NOTED. 2. BREAK ALL SHARP CORNERS RO, I15 FIT 125H7 0.040 0 3. WELD SYMBOLS IN ACCORDANCE WI TH ISO 2553. 0.033 93061 DATE PART ASSEMBLY OF AAA316FTPI 01-60 AAA316FTP2 AAA316FTP3 B AAA316FTP4 AAA316FTPI, (4)AAA316FTP2, AAA316FTP3 54 15 34 .0.9 20 (4)M5 x 10 DEEP- EQUALLY SPACED 06 (4)M5 THRU- ON 105 B.C EQUALLY SPACED 9 AAA316FTPI 9 1 O0.05 C (2)M6 THRU- ON A 208 B.C TYP ICAL 4c AAA316FTP3 (6)7 THRU- ON 208 B.C EQUALLY SPACED 3 4,15 TYPICAL SEE NOTE 3 4512 6,35 I x 45 CHAMFER Q.025 B A-A AAA316FTP2- CHANGES AAA316FTP SINL BRACKET, MOUNTING DWG OLIVEREO T0 OTNERS ON THE EIPRLSS CONDITIO THA OTIS ENGINEERING CENTER FARMINGTON PART CT ww eti10nn AN SANDIN AAA21 430E 0RAN W.KING ORIGINAL DATE NO 01sn is81 UNITED 2 T APPO J. L.H. ORDER PCAF 2 721 01-60 SHEETS 3 OTIS SHEET MICROFILM 24:1 CAD GENERATED

What is the aerodynamic (equivalent) diameter of an airborne spherical aluminium particle with the diameter of 3 micrometers Group of answer choices 5.31 micrometers 4.36 micrometers 4.61 micrometers 4.93 micrometers (show working)

What does the length characteristic specifically entail?

So how would you go about doing letter C using plus or minus method/ equal bilateral expression??thank you!!!

I need answers for problems 7, 8, and 9 pertaining to the print provided.

1. Wire drawing is cold working process use to decrease the dimeter of wire. A) Explain the process. B) Discuss the effect of this process on mechanical properties in'details? Sketch to illustrate your explanation. 2. Name and explain a manufacturing process of making open end wrench? 3. How can you decided whether to use a cold work or hot work processes? 4. Briefly explain arc welding and oxyacetylene welding? ( 5. Submerged arc welding is suitable for non-ferrous metals. YES, OR NO, AND EXPALIN WHY? 6. Briefly explain powder metallurgy (P/M)? 7. What is flux in welding. What is the main purpose of using it? . 8. Name and explain a method used to measure particle size of powder, especially if you have variety of sizes?( 9. Briefly explain the metallurgy of welding. Sketch it?

What term describes a numerical value that can be applied to a dimensional constraint in a technical drawing that will restrict variation on a part feature yet keep part feature functionality? Please answer quickly

Manufacturing

Statically Equivalent Loads. A highly idealized biomechanical model of the human body is shown below, sectioned in a horizontal plane through the lower back showing the major muscle forces in gray, with the back of the body in the positive y-direction. The same four muscles act on the left and right sides of the trunk and there is symmetry with respect to the y – z plane. On each side, the tensile (pulling) forces acting in each of the four different muscles are: FR = 150 N, Fo = 150 N, F1 = 230 N, and Fr = 320 N, and all are acting in the z-direction. Assume that this system of muscle forces is statically equivalent to a single resultant force vector Fres and a single resultant moment vector Mres, referenced to point 0. a- For this cartesian coordinate system, calculate the three components (x, y, and z) of Mres b- Which components (x, y, or z) of the resultant muscle moment vector would enable you to bend in the forward-backward direction, bend to one side, and twist, respectively?…

Thank you for your response. Please continue to provide the solution to the remainder of Part 1 (d and e).