How many bagels should the store have at 3 p.m. to maximize the store's expected profit (from sales between 3 p.m. until closing)? (Hint: Assume day-old a. bagels are sold for $0.99/6 = $0.165 each, that is, don't worry about the fact that day-old bagels are sold in bags of six.) Use Table 13.4 and round-up rule. (Round your answer to a whole number.) Suppose the store manager has 97 bagels at 3 p.m. How many bagels should b. the store manager expect to have at the end of the day? Use Table 13.4 and round-up rule. Suppose the manager would like to have a 0.99 in-stock probability on demand c. that occurs after 3 pm. How many bagels should the store have at 3 p.m. to ensure that level of service? Use Table 13.4 and round-up rule.

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TABLE 13.4
The Distribution, F(Q), and Expected Inventory, I(Q), Functions for the Standard Normal Distribution
Function
F(z)
(z)
-4.0
.0000
.0000
-3.9
.0000
.0000
-3.8
.0001
.0000
-3.7
.0001
.0000
-3.6
.0002
.0000
-3.5
.0002
.0001
-3.4
.0003
.0001
-3.3
.0005
.0001
-3.2
.0007
.0002
-3.1
.0010
.0003
-3.0
.0013
.0004
-2.9
.0019
.0005
-2.8
.0026
.0008
-2.7
.0035
.0011
-2.6
.0047
.0015
-2.5
.0062
.0020
-2.4
.0082
.0027
-2.3
.0107
.0037
-2.2
.0139
.0049
-2.1
.0179
.0065
-2.0
.0228
.0085
-1.9
.0287
.0111
-1.8
.0359
.0143
-1.7
.0446
.0183
-1.6
.0548
.0232
-1.5
.0668
.0293
-1.4
.0808
.0367
-1.3
.0968
.0455
-1.2
.1151
.0561
-1.1
.1357
.0686
-1.0
.1587
.0833
-0.9
.1841
.1004
-0.8
.2119
1202
-0.7
.2420
.1429
-0.6
.2743
.1687
-0.5
.3085
.1978
-0.4
.3446
.2304
-0.3
.3821
.2668
-0.2
.4207
.3069
-0.1
.4602
3509
.0
.5000
.3989
.1
.5398
4509
.2
.5793
.5069
.3
.6179
.5668
.4
.6554
.6304
.5
.6915
.6978
.6
.7257
.7687
.7
7580
.8429
.8
.7881
.9202
.9
.8159
1.0004
1.0
.8413
1.0833
1.1
.8643
1.1686
1.2
.8849
1.2561
1.3
.9032
1.3455
1.4
.9192
1.4367
1.5
.9332
1.5293
1.6
.9452
1.6232
1.7
.9554
1.7183
1.8
.9641
1.8143
1.9
.9713
1.9111
2.0
.9772
2.0085
2.1
.9821
2.1065
2.2
.9861
2.2049
2.3
.9893
2.3037
2.4
.9918
2.4027
2.5
.9938
2.5020
2.6
.9953
2.6015
2.7
.9965
2.7011
2.8
.9974
2.8008
2.9
.9981
2.9005
3.0
.9987
3.0004
3.1
.9990
3.1003
3.2
.9993
3.2002
3.3
.9995
3.3001
3.4
.9997
3.4001
3.5
.9998
3.5001
3.6
.9998
3.6000
3.7
.9999
3.7000
3.8
.9999
3.8000
3.9
1.0000
3.9000
4.0
1.0000
4.0000
Transcribed Image Text:TABLE 13.4 The Distribution, F(Q), and Expected Inventory, I(Q), Functions for the Standard Normal Distribution Function F(z) (z) -4.0 .0000 .0000 -3.9 .0000 .0000 -3.8 .0001 .0000 -3.7 .0001 .0000 -3.6 .0002 .0000 -3.5 .0002 .0001 -3.4 .0003 .0001 -3.3 .0005 .0001 -3.2 .0007 .0002 -3.1 .0010 .0003 -3.0 .0013 .0004 -2.9 .0019 .0005 -2.8 .0026 .0008 -2.7 .0035 .0011 -2.6 .0047 .0015 -2.5 .0062 .0020 -2.4 .0082 .0027 -2.3 .0107 .0037 -2.2 .0139 .0049 -2.1 .0179 .0065 -2.0 .0228 .0085 -1.9 .0287 .0111 -1.8 .0359 .0143 -1.7 .0446 .0183 -1.6 .0548 .0232 -1.5 .0668 .0293 -1.4 .0808 .0367 -1.3 .0968 .0455 -1.2 .1151 .0561 -1.1 .1357 .0686 -1.0 .1587 .0833 -0.9 .1841 .1004 -0.8 .2119 1202 -0.7 .2420 .1429 -0.6 .2743 .1687 -0.5 .3085 .1978 -0.4 .3446 .2304 -0.3 .3821 .2668 -0.2 .4207 .3069 -0.1 .4602 3509 .0 .5000 .3989 .1 .5398 4509 .2 .5793 .5069 .3 .6179 .5668 .4 .6554 .6304 .5 .6915 .6978 .6 .7257 .7687 .7 7580 .8429 .8 .7881 .9202 .9 .8159 1.0004 1.0 .8413 1.0833 1.1 .8643 1.1686 1.2 .8849 1.2561 1.3 .9032 1.3455 1.4 .9192 1.4367 1.5 .9332 1.5293 1.6 .9452 1.6232 1.7 .9554 1.7183 1.8 .9641 1.8143 1.9 .9713 1.9111 2.0 .9772 2.0085 2.1 .9821 2.1065 2.2 .9861 2.2049 2.3 .9893 2.3037 2.4 .9918 2.4027 2.5 .9938 2.5020 2.6 .9953 2.6015 2.7 .9965 2.7011 2.8 .9974 2.8008 2.9 .9981 2.9005 3.0 .9987 3.0004 3.1 .9990 3.1003 3.2 .9993 3.2002 3.3 .9995 3.3001 3.4 .9997 3.4001 3.5 .9998 3.5001 3.6 .9998 3.6000 3.7 .9999 3.7000 3.8 .9999 3.8000 3.9 1.0000 3.9000 4.0 1.0000 4.0000
PA 13-9 (Algo) CPG Bagels starts the day with a large production...
CPG Bagels starts the day with a large production run of bagels. Throughout the morning, additional bagels are produced as needed.
The last bake is completed at 3 p.m. and the store closes at 8 p.m. It costs approximately $0.25 in materials and labor to make a bagel.
The price of a fresh bagel is $0.60. Bagels not sold by the end of the previous day are sold the next day as "day old" bagels in bags of
six for $0.99 a bag. About two-thirds of the day-old bagels are sold; the remainder are just thrown away. There are many bagel flavors,
but for simplicity, concentrate just on the plain bagels. The store manager predicts that demand for plain bagels from 3 p.m. until
closing is normally distributed with a mean of 51 and a standard deviation of 25. Use Table 13.4.
If a part of the question specifies whether to use Table 13.4, or to use Excel, then credit for a correct
answer will depend on using the specified method.
How many bagels should the store have at 3 p.m. to maximize the store's
expected profit (from sales between 3 p.m. until closing)? (Hint: Assume day-old
а.
bagels are sold for $0.99/6 = $0.165 each, that is, don't worry about the fact that
day-old bagels are sold in bags of six.) Use Table 13.4 and round-up rule.
(Round your answer to a whole number.)
Suppose the store manager has 97 bagels at 3 p.m. How many bagels should
b. the store manager expect to have at the end of the day? Use Table 13.4 and
round-up rule.
Suppose the manager would like to have a 0.99 in-stock probability on demand
c. that occurs after 3 pm. How many bagels should the store have at 3 p.m. to
ensure that level of service? Use Table 13.4 and round-up rule.
Transcribed Image Text:PA 13-9 (Algo) CPG Bagels starts the day with a large production... CPG Bagels starts the day with a large production run of bagels. Throughout the morning, additional bagels are produced as needed. The last bake is completed at 3 p.m. and the store closes at 8 p.m. It costs approximately $0.25 in materials and labor to make a bagel. The price of a fresh bagel is $0.60. Bagels not sold by the end of the previous day are sold the next day as "day old" bagels in bags of six for $0.99 a bag. About two-thirds of the day-old bagels are sold; the remainder are just thrown away. There are many bagel flavors, but for simplicity, concentrate just on the plain bagels. The store manager predicts that demand for plain bagels from 3 p.m. until closing is normally distributed with a mean of 51 and a standard deviation of 25. Use Table 13.4. If a part of the question specifies whether to use Table 13.4, or to use Excel, then credit for a correct answer will depend on using the specified method. How many bagels should the store have at 3 p.m. to maximize the store's expected profit (from sales between 3 p.m. until closing)? (Hint: Assume day-old а. bagels are sold for $0.99/6 = $0.165 each, that is, don't worry about the fact that day-old bagels are sold in bags of six.) Use Table 13.4 and round-up rule. (Round your answer to a whole number.) Suppose the store manager has 97 bagels at 3 p.m. How many bagels should b. the store manager expect to have at the end of the day? Use Table 13.4 and round-up rule. Suppose the manager would like to have a 0.99 in-stock probability on demand c. that occurs after 3 pm. How many bagels should the store have at 3 p.m. to ensure that level of service? Use Table 13.4 and round-up rule.
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