For this assignment, you will research the innovation architecture of at least three companies that are well-known for successfully supporting a culture of innovation. Write a 1,500-word paper that addresses the following:
In: Mechanical Engineering
Problem 15.10: Liquid octane (C8H18) enters a steady-flow combustion chamber at 25°C and 1 atm at a rate of 0.35 kg/min. It is burned with 50 percent excess air that also enters at 25°C and 1 atm. After combustion, the products are allowed to cool to 25°C. Assuming complete combustion and that all the H2O in the products is in liquid form, determine (a) the heat transfer rate from the combustion chamber, (b) the entropy generation rate, and (c) the exergy destruction rate. Assume that T0 = 298 K and the products leave the combustion chamber at 1 atm pressure.
In: Mechanical Engineering
design a vapor compression refrigeration system that will maintain the refrigerated space at -15c while operating in an environment at 20c using refrigerant -134a as the working fluid (By EES )please
In: Mechanical Engineering
A neighborhood fuel cell power plant is to be designed for an electric power output of 2000 kW with liquid– water product. Estimate the flow rates of hydrogen and oxygen during peak power production, assuming an 80% efficient power conditioner is used to convert DC to AC power and the fuel cell efficiency is 55%. What is the plant heat rate?
In: Mechanical Engineering
Steam at 1MPa and 0.9 dryness fraction is throttled to a pressure 200kPa.
Find the final state of the steam and the change in entropy during this process.
In: Mechanical Engineering
Engineering Mechanics (7th Edition), Statics, Chapter 2 Problem 27 why are they using the sin rule to calculate angle beta? is it possible to illustrate this in a diagram? Any help would be greatly appreciated
In: Mechanical Engineering
Explain the Precautions while handling Aviation Lubricants and Fuel. [40%].
What are the Quality checks you do on fuel before it is used on aircraft. Explain [40%]
[You can refer to the Books in Library and mention the books you referred to(20%)]
In: Mechanical Engineering
The radius of a circular truncated cone varies with x as R(x) = (r/L)(8L-0.5x). Determine the extension of the truncated con due to it's own weight in terms of E, L, r,and Y. Where E and Y are the modulus of elasticity and the specific weight of the material, respectively.
In: Mechanical Engineering
A pump is used to fill up a rectangular tank with liquid methanol solution (density 900 kg/m3 and dynamic viscosity 1.20 x 10-3 Ns/m2) through a 2.5 inch diameter pipe. The tank is 1.4 m wide, 1.6 m long and 1.2 m deep.
1. Estimate the volumetric flow rate (m3/s) in the pipe if the pump can move the methanol at a rate of 80.6 L/min through this pipe.
2. Estimate the average velocity in the pipe (m/s) if the pump moves the methanol at a rate of 1.01 x 10-3 m3/s.
3. Estimate the mass flow rate (kg/s) in the pipe if the pump moves the methanol at a rate of 1.69 x 10-3 m3/s.
4. Estimate the time to fill the tank in minutes if the pump moves the methanol at a rate of 1.10 x 10-3 m3/s.
5. Estimate the total mass (kg) of Methanol in the full tank.
6. Estimate the Reynolds number of the flow in in the pipe if the average velocity in the pipe is 0.84 m/s
In: Mechanical Engineering
what do you mean by the term ‘psychrometry’?
In: Mechanical Engineering
Please watch integrated tube production process from SANDVIK, a global manufacturer of stainless steel and alloy steels products on https://goo.gl/tjQzsP. a. Please identify the step by step processes to make steel tube product. b. Please explain the purpose of each of the process. c. Investigate the current step by step processes to make the steel tube and suggest any idea for improvement as detail as possible. Improvement can be in the forms of reduction on production time, reduction on defect product, reduction on energy consumption, reduction on step of processes, improvement on recyclability, etc.
In: Mechanical Engineering
why the United States was “asleep at the wheel during the early 1970s” soon leading to losses in competitiveness against Honda/Toyota/Sony. (Do not include wages)
In: Mechanical Engineering
1. List one advantage and one limitation of a hand pull-back.
2. List the 3 types of radiation emitted from welding processes and the eye damage each can cause?
3.
List the type of circular saw blade appropriate for each of these cutting tasks.
a.) all hard and soft wood for cross, rip or miter cuts
b.) cutting brass, aluminum and bronze
c.) crosscutting of veneers or shipboard
d.) cutting thin steel and sheet iron
4. What are 3 factors that influence the useful life of a respirator canister or cartridge?
In: Mechanical Engineering
UESTION 6
Two or more parts rotating in opposite directions create a __________.
| a. |
inrunning |
|
| b. |
shear point |
|
| c. |
nip point |
|
| d. |
pinch point |
The process of replacing a process to reduce exposure to a hazard is ___________.
| a. |
substitution |
|
| b. |
location |
|
| c. |
safeguarding |
|
| d. |
worker rotation |
The most hazardous type of woodworking machinery is_________?
| a. |
jointers |
|
| b. |
lathes |
|
| c. |
saws |
|
| d. |
power feed planers |
Who may remove a lockout/tagout device?
| a. |
any authorized employee |
|
| b. |
only the person who applied the devcie |
|
| c. |
a supervisor |
|
| d. |
all of the above |
The OSHA standard for control of hazardous energy sources (lockout/tagout) is 29 CFR 1910.______.
| a. |
147 |
|
| b. |
132 |
|
| c. |
212 |
|
| d. |
1200 |
In: Mechanical Engineering
Moist air enters an air-conditioning system as shown in the figure below at T1 = 28°C, ?1 = 85% and a volumetric flow rate of (AV)1 = 0.89 m3/s. At the exit of the dehumidifying section, the air is saturated, ?2 = 100%, and the condensate leaves this section at the same temperature as the moist air. At the exit of the heating section the moist air is at T3 = 24°C, ?3 = 50%. The system operates at steady state, the pressure is 1 bar at all locations, and kinetic and potential energy effects are negligible.
Determine the heat transfer rate for the dehumidifying section, in kw
In: Mechanical Engineering