The Boss is created at 59.88, what is the allowed Position Tolerance? The image is a technical drawing of a cylindrical component, featuring both a front view and a section view labeled as "SECTION A-A" with a scale of 1:1.### Front View Details:- The front view shows a circle with two smaller circles, likely indicating holes. - The central main hole is dimensioned with a diameter of Ø60, which has a tolerance of +0.250 to -0.120.- A geometric tolerance symbol indicates a circular runout tolerance of Ø0.6 in relation to datum points A and B.- There is a feature control frame linked to a geometric dimension of Ø30 with a tolerance of +0.1, alongside another for a diameter symbol feature controlled by Ø0 (M), indicating maximum material condition in relation to datum B.### Section View Details:- The section view shows a cut-through of the component revealing the internal structure.- It highlights the cross-section with diagonal lines to indicate solid material.- Features and datum labels are present to provide additional references for precision manufacturing.### Additional Diagrams and Symbols:- Geometric tolerances are indicated using feature control frames, with modifiers such as maximum material condition (M) and alignment to datum references A and B.- The diameter of another feature is indicated as Ø12.1 with a tolerance band down to Ø12.0.This diagram provides detailed specifications necessary for the precise manufacturing and inspection of the component, ensuring that quality and design intent are met.

Answered: The Boss is created at 59.88, what is…

Engineering

Mechanical Engineering

The Boss is created at 59.88, what is the allowed Position Tolerance?

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

See similar textbooks

Related questions

Q: This still doesnt answer how to get points 2, 2', and 1', so how did you get it?

A: Itis asked to explain how the state points 2, 2' and 1' are obtained

Q: With reference to the drawing callout in figure 5 below, which part(s) would 'pass' or 'fail' along…

A: Data given- Dimensions of standard size 0.25±0.01 So tolerance is equal to 0.02 And the upper…

Q: How many dimensions on this print express the tolerance using the limit method? (Note:exclude thread…

A: Geometric tolerances allow an acceptable amount of dimensional variation with the maximum available…

Q: 4. How many datums are shown on the print? 5. What three symbols are used to describe the small…

A: What there's symbols are used to describe the small hole

Q: how to position this locator on a plate base for a part to ensure conformance with the Production…

Q: Find the tolerance and fit type of Ø 60 H7k6,

A: given: nominal size, D=60mm tolerance hub: H7 tolerance shaft: k6 so for tolerance hub: H7, the…

Q: Refer to the 1.914 dimension. A) Where is the tolerance specified ?…

A: A) For MMC & LMC Consider ϕ0.8740±0.0005 MMC=0.8740+0.0005=ϕ0.8745 LMC=0.8740-0.0005= ϕ0.8735…

Q: What material is being specified by this section line pattern? (Refer to Figure 6-2.)

A: In this print the section lines showing the steel material.

Q: Sketch a setup and measurement method that may be used to check the runout tolerance. Also show the…

A: To sketch a setup and measurement method to check runout tolerance. and to show acceptable max…

Q: What is the MMC of hole "D"?

A: The maximum material condition (MMC) tells the amount of maximum material of the smallest diameter…

Q: 20 BUTT-2A .688 R. .626 DIA..003 5.50 13 812 6.000 -1.000 UNLESS OTHERWISE SPECIFIED: MATERIAL:…

A: 5. Pitch 6. BUTT is designation for 9. Standard or precision class of fit

Q: Which of the following is true about machine home, part origin, and tool change position? (choose…

A: option b and c is correct part origin is set by the programmer. all subsequent relative programmed…

Q: I need the answer for number 10.

A: Five Holes, each hole has diameter of 0.500 inches and the holes are equally spaced such that center…

Q: 1. All orientation controls must have maximum material condition a large tolerance zone O red text…

A: Orientation control is a geometric tolerance that defines the orientation of the part with respect…

Concept explainers

Joining Processes

It is the process of permanent or temporary joining of two metal pieces with the help of heat or pressure. Two metal parts are assembled by applying an energy source for the formation of a single unit. The obtained joined metals cannot be fragmented easily with the application of any force.

Question

The Boss is created at 59.88, what is the allowed Position Tolerance?

The image is a technical drawing of a cylindrical component, featuring both a front view and a section view labeled as "SECTION A-A" with a scale of 1:1.

### Front View Details:
- The front view shows a circle with two smaller circles, likely indicating holes.
- The central main hole is dimensioned with a diameter of Ø60, which has a tolerance of +0.250 to -0.120.
- A geometric tolerance symbol indicates a circular runout tolerance of Ø0.6 in relation to datum points A and B.
- There is a feature control frame linked to a geometric dimension of Ø30 with a tolerance of +0.1, alongside another for a diameter symbol feature controlled by Ø0 (M), indicating maximum material condition in relation to datum B.

### Section View Details:
- The section view shows a cut-through of the component revealing the internal structure.
- It highlights the cross-section with diagonal lines to indicate solid material.
- Features and datum labels are present to provide additional references for precision manufacturing.

### Additional Diagrams and Symbols:
- Geometric tolerances are indicated using feature control frames, with modifiers such as maximum material condition (M) and alignment to datum references A and B.
- The diameter of another feature is indicated as Ø12.1 with a tolerance band down to Ø12.0.

This diagram provides detailed specifications necessary for the precise manufacturing and inspection of the component, ensuring that quality and design intent are met.

Expert Solution

Step 1

Given data as per question

Basic size of the boss =60

Step by step

Solved in 2 steps

SEE SOLUTION Check out a sample Q&A here

Knowledge Booster

Learn more about

Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, mechanical-engineering and related others by exploring similar questions and additional content below.

Similar questions

Given the following sentence descriptions of the geometric tolerance information, correctly sketch the feature control frames for each and include in your lab report. i. The planar surface must be parallel within a thousandth of an inch tolerance zone relative to datum feature A. ii. The axis of a cylinder must be perpendicular within one- hundredth of a millimeter cylindrical tolerance zone at maximum material condition relative to datum feature D. iii. The total runout of the surface must be within a five- hundredths of a millimeter tolerance zone relative to datum feature A. 13 iv. The total surface profile of the surface must be within a two-thousandths of an inch tolerance zone relative to datum feature A. v. The axis of a hole must be positioned within a five- thousandths of a millimeter cylindrical tolerance zone at maximum material condition relative to primary datum feature D, secondary datum feature E, and tertiary datum feature F.
1. a. On the part shown, show a angularity specification to orient the angled surface in relation to the right surface in the side view and top surface in the front view within .005 total. Make sure to label the datum features. b. Shoudl the 25 degree angle above have a plus/minus tolerance applied or should it be basic? Complete this requirement on the drawing. c. What is the flatness tolerance on the angled surface above?
54. A drawing is given and below the drawing are sketches of two produced parts with surface variations exaggerated. Assume the holes are produced exactly on the true positions defined by the drawing. Draw and label datum planes that are needed for the measurements. Indicate any orientation requirement between the datums. Show dimensions on the produced parts to indicate where the location dimensions are measured on each of the given parts. -2х ф.312 +.006 -.001 +0.031 O A BC .500 .312 .900
Calculate the minimum and maximum values for the indicated dimensions attached. All minimum and maximum dimensions indicated with an asterick (*) should be calculated as originating from the DRF established by the datum targets. All other minimum and maximum dimensions should be calculated as the relationship between the features. Please refer to attached image.
I need help with question number 15 that is pertaining to the print provided.
I need help answering this quick review pertaining to the print provided.
Question 3 Make an Isometric Drawing of the support bracket shown in Figure 4. Take the dimension 'H' as 35 mm. As per standard instruction for pictorial views in ENG1100, no dimensioning is required. Orientate the drawing so View A' of Figure 4 is in the direction of the shaded face of the representative isometric view of a cube shown in Figure 3 with the top of the 'View A' orientated towards TOP' as shown in Figure 3. Top Figure 3 140 22 DRILL 96 - 22 22R 16 41 198 40 - 5/ 51- 16- 19R 16 DRILL-3HOLES 51- View A Figure 4: Support Bracket (Source: Boundy AW, Engineering drawing, 8th edn, McGraw Hill, dimensions altered)
The front and the top views of a machine component are given below. Please draw 1. The front view from A-A section surface 2. The top view as given 3. The left view after you ensure the isometric view of the component on a A3 drawing paper within a horizontal direction. (It is recommended to sketch up the isometric perspective view of the component on any draft paper before drawing the multiviews.) 4. Dimension the views based on the numbers given on views. Do not try to take the dimensions from the given views. Unknown dimensions should be taken symmetric, if needed. (Make a good dimensinoning distribution of each view. Do not leave dimensionless of any view or do not repeat the same dimension in different views.) Note: Do not forget to fill a proper title block on the right comer of the paper downward. 65 20 70 125 AT TA 30 30 07 09 32 09
I need help solving problems 7, 11, and 12 pertaining to the print provided below.
Answer CORRESPONDING to what is given in the image. The instruction is already on the image given below. Thank you
Apply geometric tolerancing to part according to the instructions below. This exercise will provide you with experience in correctly applying and interpreting geometric tolerancing symbology. If you have trouble applying the symbols, page through this unit looking for similar examples. The Hole Bar in this unit is a good reference. Draw symbols and feature control frames clearly and neatly. 1. Establish the right face in the side view as datum feature A. Qualify this feature with a flatness of .005. 2. Establish the top surface in the front view as datum feature B. Qualify this feature with a perpendicularity of .005 to datum feature A. 3. Establish the left surface in the front view as datum feature C. Qualify this feature with a perpendicularity of .005 to datum features A and B. 4. Establish all necessary dimensions as basic. 5. Position the .250 hole within a diameter of .005 RFS relative to datum features A,B,C. 6. Position the three holes within a diamter of .012 at MMC relative…
Apply geometric tolerancing to part according to the instructions below. This exercise will provide you with experience in correctly applying and interpreting geometric tolerancing symbology. If you have trouble applying the symbols, page through this unit looking for similar examples. The Hole Bar in this unit is a good reference. Draw symbols and feature control frames clearly and neatly. 1. Establish the right face in the side view as datum feature A. Qualify this feature with a flatness of .005. 2. Establish the top surface in the front view as datum feature B. Qualify this feature with a perpendicularity of .005 to datum feature A. 3. Establish the left surface in the front view as datum feature C. Qualify this feature with a perpendicularity of .005 to datum features A and B. Please refer to the attached image.