Time series data variables
Current assignment is about explaining the concepts of economics by adding statistical data to assess the overall performance of an entity. This assignment improves analytical skills of an individual in collecting reliable data from a relevant source. After collection of data from reliable source, the collected will analyse by a person on different parameters. Current report focuses on collecting two different kinds of data of time series and panel data series to draw a comparison among both the data series collected by an individual. Time series data will include various concepts such as stock market returns and Treasury bill rates. Interactive chart will show the declining or rising position of the external markets. It is empirical analysis report in which data series collected by the firm shows the overall performance of the firm in an external entity to take any decisions of investments on the produced results (World Bank data, 2017). Economic concepts use by an individual to test the performance of the overall economy. Data source of the current assignment is from World Bank website which will provide reliable and authentic information find on the website. Efficiency of the time series data can ascertain by applying regression analysis to record the overall trend of increasing or decreasing as the time series data is specifically used for forecasting purpose.
Time series data variables
- Stock and market return
- T bill interest rates
- GDP
- Population
- Inflation
- Poverty
- Gross national income
Another data is related with the panel data series which is about macroeconomic variables collected for large samples of data. This kind of data has used simultaneously in statistics as well as in economics. In the panel data observations of different phenomena has considered by an individual. Panel data series emphasises on the macroeconomic variables such as Gross domestic product, unemployment rate and inflation rate that affects the large group of the business concern within a stipulated time period. Panel data series collected by an individual helps in tracking the overall performance of the firm by identifying all the issues to get rid of all of them in a given span of time.
This report has two parts one part is collection of data and another part is about research project based on one of the collected data. Research report is based on resolving the macroeconomic problem in the business by utilizing the collected data. Literature review is conducted on different objectives framed on the basis of the aims of the current research project.
To improve the decisions making in business with the help of time series data
- To determine the concepts of time series data
- To illustrate the role of time series data in improving business decisions
- To ascertain the business issues which demand the support of time series data
- Suggest some strategies to overcome the issues faced by an entity
- What is the concept of Time series data?
- Explain the role of time series data in improving business decisions?
- Identify business issues which demand the support of time series data?
- Recommend some strategies to overcome the issues faced by an entity.
Background
Present research study is all about explaining the business issues by using the time series data in which an individual will identify all the problems faced by them in an entity to eliminate the same by taking corrective action (Qiu, Ren, Suganthan and Amaratunga, 2017). A business environment is a mixtures of various elements that effects the external entity and do affect but the actions of all the players located in a similar industry or market segment. An enterprise owner plays a significant role in a business as they held responsible for boosting or suppressing their current earnings by making correct decisions in a business. Correct decisions is the basis secret behind the success of the venture through which individuals can boost up their earnings by taking decisions in the favour of all the stakeholders o the business concern.
Every business has flaws and strengths which need to be identify by the owner to get successful as analyzing its own weaknesses is the most important decisions taken by an entity (Deb, Zhang, Yang, Lee and Shah, 2017). Management must analyse their strength and weaknesses to grab all the external opportunities by eliminating all the threats takes places in the external business environment. Time series data is related with the time period as data collected by an entity owner according to specific time period. It includes various components such as Gross domestic product, inflation rate, increasing or decreasing population. By analyzing all the factors of time series data an entity owner can ascertain its overall performance within a given span of time as their motive is achieve the desired goals and the objectives of an entity (Nogi and et.al., 2017). Time series analysis conducted by an individual to show the increasing or declining trend of the business performance of the business concern by focusing on all the important business areas in improving the overall performance of the business concern within a given span of time.
Concept of time series data
Chatfield, (2016) has asserted that time series data selected by an individual in the current research will give new direction to the entire research study that helps in collecting suitable and reliable data that meet all the criteria created by an individual. Time series data has used by an individual in predicting the future performance of the business as the decisions of investment has based on evaluating the gross domestic product of all the countries in the world (Leimbach, Kriegler, Roming and Schwanitz, 2017). Higher gross domestic product generated by the countries shows their efficiency as compared to different countries in the whole world.
Literature Review
Brockwell and Davis, (2016) states that time series analysis used by a person to present all the data points as different variables in showcasing the overall performance of the business concern within a given span of time. Line chart is the best suitable visual technique in presenting the increasing or decreasing trend of inflation which needs to be identified at the later stage to secure the position of the business in the external entity (Zolotoy, Frederickson and Lyon, 2017).
According to the study of Zucchini, MacDonald and Langrock, (2016) time series data play an integral role in improving the business decisions as in the current dynamic world it acts as a data mining tool. Data mining tool utilizes time series data in understanding the inflation patterns in assessing the overall trend of inflation in the external market segment (Talay, Akdeniz and Kirca, 2017). It is one of the analytical tool that consider gross domestic and gross national income that helps in analyzing the income and revenues as against the expenses incurred in a business to know the capability of firm in paying its debts by utilizing all their income in particular time period.
Tanaka, K., 2017) suggested that knowing about the population of all the countries in a world help in knowing the potential target market in which the investors will launch their business to boost up its earnings. Time series data acts as a business proposal that illustrates all the strengths, weaknesses, threats and opportunities.
From the point of view of Schmitt and Huang, (2016) uncertainty in business is inherent risk which will not be eliminated as it can be minimize by taking corrective actions before the occurrence of risks in an entity. Business uncertainties are recession, higher inflation rate, poverty, unemployment. All these variables are part of business uncertainty which can be predicted by an individual by taking the help of time series of data. Decision making process can get successful by focussing on the strengths of the firm by keeping watch on all the external market changes as a faithful dog (Shmueli, and et. al., 2017). Personification has used to explain the qualities of dog which is required in increasing determined targets of the firm (NCD Risk Factor Collaboration, 2017). Another business issue is to overcome all the threats that are merger and acquisition risks faced by an entity due to sudden bankruptcy of the business (Chong and et. al., 2017).
Role of time series data in improving business decision
Research methodology plays an integral role in conducting a particular research study in which the researcher focuses on collecting data for an appropriate research study. It gives right direction to a study that helps in collecting relevant facts and figures that meets all the criteria’s of a particular research (Waljee and et.al., 2017). Research methodology acts a like a compass that gives right direction to the research study. Various approaches and research types helps an individual in collecting the best suitable data meets all the requirements of the business.
Research approach- Research approach is an important technique that helps in collecting authentic and reliable data after analyzing the nature of the research study (Ramirez Cohen and et. al., 2017). There are three different kinds of research approaches such as deductive, inductive research approaches in refining all the collected data by an individual. Inductive approach is suitable in that research kind in which hypothesis of the research is related to generalizing the terms from general to the specific nature of the overall study (Meshram and Prabhune, 2017). In this approach, verification is given more preferences by analyzing the overall data by using several parameters to tests the efficiency of the selected data by an individual in concluding the overall research (Pearson and Raphael, 2017). Inductive approach has applicable in the current research in which the researcher tries to generalize the research study and its hypothesis from general to specific to conclude the current research to accomplish the desired aims and the objectives framed by an enterprise within a given span of time.
Research type- There are two kinds of research such as qualitative as well as quantitative research type which an individual selects according to their convenience (Obenauer, Quinn, Li and Joyner, 2017). Qualitative research is related with theoretical concepts used in a research in which the researcher collects fact and information to develop a theory that helps in overcoming all the issues faced by an individual.
On the other hand, Quantitative research kind is about analyzing the collected data and numerical to take the best suitable decisions in the favour of an entity (Elhorst, 2017). Researcher tries to do justice with the nature of the research study as they held responsible for concluding wrong research as the current research will form basis in the future for authors to start their fresh research (Bacci, 2017). Improving the business decisions is both qualitative as well as quantitative research but in the current research, time series data sets are utilized to get rid of all the issues faced by an individual in an entity which will be resolved within a given span of time.
Identify issues in a business which requires the help of time series data
` Apart from qualitative and quantitative research type, there are two other research types such as primary research as well as secondary research conducted by an individual. Primary research is considered by an entity in case of small sample size along with a need to gather authentic and reliable set of data (Kiviet, Pleus and Poldermans, 2017). On another hand, Secondary research is that kind of research in which data has gathered by a person with the help of books and journals, news articles, magazines and internet as the biggest source of information. Internet is one of the important sources of information which provides different sets of data within a few seconds in the current technology world; an individual will gather large samples of data in less period of time.
2000 |
|
Mean |
46.70694 |
Standard Error |
6.665371 |
Median |
14.54261 |
Mode |
50.35253 |
Standard Deviation |
66.65371 |
Sample Variance |
4442.717 |
Kurtosis |
3.421018 |
Skewness |
1.926664 |
Range |
289.5619 |
Minimum |
0.012082 |
Maximum |
289.574 |
Sum |
4670.694 |
Count |
100 |
Largest(1) |
289.574 |
Smallest(1) |
0.012082 |
Confidence Level (95.0%) |
13.22554 |
2001 |
|
Mean |
31.98447 |
Standard Error |
4.775308 |
Median |
9.607232 |
Mode |
29.43288 |
Standard Deviation |
49.85568 |
Sample Variance |
2485.589 |
Kurtosis |
4.616607 |
Skewness |
2.18428 |
Range |
238.0752 |
Minimum |
0.018825 |
Maximum |
238.0941 |
Sum |
3486.307 |
Count |
109 |
Largest(1) |
238.0941 |
Smallest(1) |
0.018825 |
Confidence Level (95.0%) |
9.465489 |
2002 |
|
Mean |
26.08939 |
Standard Error |
3.684837 |
Median |
9.574764 |
Mode |
21.13843 |
Standard Deviation |
37.21503 |
Sample Variance |
1384.959 |
Kurtosis |
3.115459 |
Skewness |
1.866045 |
Range |
162.9622 |
Minimum |
0.012568 |
Maximum |
162.9748 |
Sum |
2661.118 |
Count |
102 |
Largest(1) |
162.9748 |
Smallest(1) |
0.012568 |
Confidence Level(95.0%) |
7.309726 |
2003 |
|
Mean |
28.26442 |
Standard Error |
3.447126 |
Median |
14.26828 |
Mode |
6.38863 |
Standard Deviation |
35.49033 |
Sample Variance |
1259.564 |
Kurtosis |
2.69585 |
Skewness |
1.664848 |
Range |
169.0659 |
Minimum |
0.002275 |
Maximum |
169.0682 |
Sum |
2996.028 |
Count |
106 |
Largest(1) |
169.0682 |
Smallest(1) |
0.002275 |
Confidence Level(95.0%) |
6.835014 |
2004 |
|
Mean |
34.47542 |
Standard Error |
4.075434 |
Median |
19.59448 |
Mode |
9.313726 |
Standard Deviation |
43.13034 |
Sample Variance |
1860.226 |
Kurtosis |
4.979635 |
Skewness |
1.966215 |
Range |
238.7499 |
Minimum |
0.001444 |
Maximum |
238.7513 |
Sum |
3861.247 |
Count |
112 |
Largest(1) |
238.7513 |
Smallest(1) |
0.001444 |
Confidence Level(95.0%) |
8.075744 |
2005 |
|
Mean |
40.44834 |
Standard Error |
5.476848 |
Median |
18.59044 |
Mode |
18.59044 |
Standard Deviation |
56.12099 |
Sample Variance |
3149.566 |
Kurtosis |
8.163689 |
Skewness |
2.511983 |
Range |
335.9717 |
Minimum |
0.000944 |
Maximum |
335.9727 |
Sum |
4247.075 |
Count |
105 |
Largest(1) |
335.9727 |
Smallest(1) |
0.000944 |
Confidence Level(95.0%) |
10.86079 |
2006 |
|
Mean |
49.80447 |
Standard Error |
6.331244 |
Median |
33.0037 |
Mode |
37.8808 |
Standard Deviation |
66.10013 |
Sample Variance |
4369.227 |
Kurtosis |
10.53218 |
Skewness |
2.777697 |
Range |
390.3877 |
Minimum |
0.001823 |
Maximum |
390.3895 |
Sum |
5428.688 |
Count |
109 |
Largest(1) |
390.3895 |
Smallest(1) |
0.001823 |
Confidence Level(95.0%) |
12.54962 |
2007 |
|
Mean |
73.37965 |
Standard Error |
10.67922 |
Median |
44.53974 |
Mode |
84.94874 |
Standard Deviation |
109.9494 |
Sample Variance |
12088.86 |
Kurtosis |
38.71543 |
Skewness |
5.173535 |
Range |
952.6665 |
Minimum |
0.000868 |
Maximum |
952.6673 |
Sum |
7778.243 |
Count |
106 |
Largest(1) |
952.6673 |
Smallest(1) |
0.000868 |
Confidence Level(95.0%) |
21.17493 |
2008 |
|
Mean |
55.48338 |
Standard Error |
8.568667 |
Median |
31.28782 |
Mode |
70.85264 |
Standard Deviation |
88.21983 |
Sample Variance |
7782.738 |
Kurtosis |
30.30293 |
Skewness |
4.666386 |
Range |
715.1446 |
Minimum |
0.021012 |
Maximum |
715.1656 |
Sum |
5881.238 |
Count |
106 |
Largest(1) |
715.1656 |
Smallest(1) |
0.021012 |
Confidence Level(95.0%) |
16.99008 |
2009 |
|
Mean |
51.14634 |
Standard Error |
7.663489 |
Median |
25.95278 |
Mode |
127.2036 |
Standard Deviation |
78.52739 |
Sample Variance |
6166.551 |
Kurtosis |
34.64407 |
Skewness |
4.895314 |
Range |
660.1611 |
Minimum |
0.102544 |
Maximum |
660.2636 |
Sum |
5370.366 |
Count |
105 |
Largest(1) |
660.2636 |
Smallest(1) |
0.102544 |
Confidence Level(95.0%) |
15.19699 |
2010 |
|
Mean |
44.94058 |
Standard Error |
7.129424 |
Median |
20.6917 |
Mode |
112.3923 |
Standard Deviation |
75.45073 |
Sample Variance |
5692.812 |
Kurtosis |
37.40396 |
Skewness |
5.124801 |
Range |
650.5347 |
Minimum |
0.098838 |
Maximum |
650.6336 |
Sum |
5033.345 |
Count |
112 |
Largest(1) |
650.6336 |
Smallest(1) |
0.098838 |
Confidence Level(95.0%) |
14.12743 |
2011 |
|
Mean |
37.83564 |
Standard Error |
6.517599 |
Median |
13.89362 |
Mode |
44.7955 |
Standard Deviation |
69.28303 |
Sample Variance |
4800.138 |
Kurtosis |
33.91451 |
Skewness |
4.996984 |
Range |
578.1323 |
Minimum |
0.087145 |
Maximum |
578.2195 |
Sum |
4275.428 |
Count |
113 |
Largest(1) |
578.2195 |
Smallest(1) |
0.087145 |
Confidence Level(95.0%) |
12.91379 |
2012 |
|
Mean |
30.83999 |
Standard Error |
4.818191 |
Median |
12.50313 |
Mode |
52.84531 |
Standard Deviation |
51.21807 |
Sample Variance |
2623.291 |
Kurtosis |
27.54439 |
Skewness |
4.422598 |
Range |
409.9084 |
Minimum |
0.071363 |
Maximum |
409.9798 |
Sum |
3484.919 |
Count |
113 |
Largest(1) |
409.9798 |
Smallest(1) |
0.071363 |
Confidence Level(95.0%) |
9.546627 |
2013 |
|
Mean |
33.17782 |
Standard Error |
5.301274 |
Median |
14.80938 |
Mode |
#N/A |
Standard Deviation |
55.85238 |
Sample Variance |
3119.489 |
Kurtosis |
31.12516 |
Skewness |
4.675606 |
Range |
459.4531 |
Minimum |
0.111314 |
Maximum |
459.5644 |
Sum |
3682.738 |
Count |
111 |
Largest(1) |
459.5644 |
Smallest(1) |
0.111314 |
Confidence Level(95.0%) |
10.50588 |
2014 |
|
Mean |
40.86299 |
Standard Error |
6.256119 |
Median |
17.11328 |
Mode |
28.9828 |
Standard Deviation |
63.1837 |
Sample Variance |
3992.18 |
Kurtosis |
27.18103 |
Skewness |
4.32623 |
Range |
497.8169 |
Minimum |
0.00084 |
Maximum |
497.8177 |
Sum |
4168.025 |
Count |
102 |
Largest(1) |
497.8177 |
Smallest(1) |
0.00084 |
Confidence Level(95.0%) |
12.41046 |
2015 |
|
Mean |
72.46158 |
Standard Error |
12.48705 |
Median |
20.01736 |
Mode |
303.9564 |
Standard Deviation |
110.2827 |
Sample Variance |
12162.27 |
Kurtosis |
10.43873 |
Skewness |
2.71995 |
Range |
668.4335 |
Minimum |
0.165294 |
Maximum |
668.5988 |
Sum |
5652.003 |
Count |
78 |
Largest(1) |
668.5988 |
Smallest(1) |
0.165294 |
Confidence Level(95.0%) |
24.8649 |
2016 |
|
Mean |
53.11924 |
Standard Error |
8.05879 |
Median |
20.36108 |
Mode |
17.47536 |
Standard Deviation |
70.71559 |
Sample Variance |
5000.695 |
Kurtosis |
8.739052 |
Skewness |
2.425797 |
Range |
420.9002 |
Minimum |
0.117478 |
Maximum |
421.0177 |
Sum |
4090.181 |
Count |
77 |
Largest(1) |
421.0177 |
Smallest(1) |
0.117478 |
Confidence Level(95.0%) |
16.05047 |
A stock market return of all the countries in whole world has tested by using one of the famous statistical tool techniques. Descriptive statistics has used in analyzing the stock market return data which covers all the tools of central tendency, dispersion, measures of skewness (Bou and Satorra, 2017). It includes various factors such as mean, median, mode, variance, standard deviation, kurtosis, range of the data points and standard error. Mean shows the consistency of the data points by sowing the overall average of stock market return ranging from 2000-2016 that is showing the data response of 17 years. Mean of the data points of the above data is fluctuating in nature as initially its declining, then increasing and again got stable and then increases.
Standard deviation shows the deviation takes places in a collected set of data about all the stock market returns of all the countries exists in the whole world (Moral-Benito, Allison and Williams, 2017). Higher standard deviation shows the closeness of the data points with the mean of the data and lower standard deviation shows no closeness with the data. In the current case, there is lower standard deviation as the standard deviation is declining from 2000-2016 showing deficiency of the overall mean of overall stock market (McCarthy, Fader and Hardie, 2017).
SUMMARY |
||||
Groups |
Count |
Sum |
Average |
Variance |
1.87E+09 |
244 |
2.48E+14 |
1.02E+12 |
1.58E+25 |
1.92E+09 |
244 |
2.47E+14 |
1.01E+12 |
1.56E+25 |
ANOVA |
||||
Source of Variation |
SS |
df |
MS |
F |
Between Groups |
9.5152E+20 |
1 |
9.52E+20 |
6.06E-05 |
Within Groups |
7.6367E+27 |
486 |
1.57E+25 |
|
Total |
7.6367E+27 |
487 |
SUMMARY |
||||
Groups |
Count |
Sum |
Average |
Variance |
1.94E+09 |
248 |
2.57E+14 |
1.04E+12 |
1.67E+25 |
2.02E+09 |
248 |
2.91E+14 |
1.17E+12 |
2.11E+25 |
ANOVA |
||||
Source of Variation |
SS |
df |
MS |
F |
Between Groups |
2.2785E+24 |
1 |
2.28E+24 |
0.120581 |
Within Groups |
9.3347E+27 |
494 |
1.89E+25 |
|
Total |
9.337E+27 |
495 |
SUMMARY |
||||
Groups |
Count |
Sum |
Average |
Variance |
2.23E+09 |
249 |
3.3E+14 |
1.33E+12 |
2.64E+25 |
2.33E+09 |
249 |
3.61E+14 |
1.45E+12 |
3.02E+25 |
ANOVA |
||||
Source of Variation |
SS |
df |
MS |
F |
Between Groups |
1.9563E+24 |
1 |
1.96E+24 |
0.069111 |
Within Groups |
1.404E+28 |
496 |
2.83E+25 |
|
Total |
1.4042E+28 |
497 |
SUMMARY |
||||
Groups |
Count |
Sum |
Average |
Variance |
2.42E+09 |
250 |
3.96E+14 |
1.59E+12 |
3.46E+25 |
2.62E+09 |
250 |
4.54E+14 |
1.82E+12 |
4.32E+25 |
ANOVA |
||||
Source of Variation |
SS |
df |
MS |
F |
Between Groups |
6.6914E+24 |
1 |
6.69E+24 |
0.171997 |
Within Groups |
1.9374E+28 |
498 |
3.89E+25 |
|
Total |
1.9381E+28 |
499 |
SUMMARY |
||||||
Groups |
Count |
Sum |
Average |
Variance |
||
2.79E+09 |
249 |
5.06E+14 |
2.03E+12 |
5.12E+25 |
||
2.5E+09 |
248 |
4.8E+14 |
1.94E+12 |
4.59E+25 |
||
ANOVA |
||||||
Source of Variation |
SS |
df |
MS |
F |
P-value |
F crit |
Between Groups |
1.1818E+24 |
1 |
1.18E+24 |
0.024347 |
0.876069 |
3.860313 |
Within Groups |
2.4028E+28 |
495 |
4.85E+25 |
|||
Total |
2.4029E+28 |
496 |
SUMMARY |
||||||
Groups |
Count |
Sum |
Average |
Variance |
||
2.47E+09 |
248 |
5.34E+14 |
2.15E+12 |
5.39E+25 |
||
2.58E+09 |
248 |
6E+14 |
2.42E+12 |
6.6E+25 |
||
ANOVA |
||||||
Source of Variation |
SS |
df |
MS |
F |
P-value |
F crit |
Between Groups |
8.7584E+24 |
1 |
8.76E+24 |
0.146182 |
0.702375 |
3.860351 |
Within Groups |
2.9597E+28 |
494 |
5.99E+25 |
|||
Total |
2.9606E+28 |
495 |
SUMMARY |
||||||
Groups |
Count |
Sum |
Average |
Variance |
||
245 |
6.15E+14 |
2.51E+12 |
6.92E+25 |
|||
246 |
6.38E+14 |
2.59E+12 |
7.3E+25 |
|||
ANOVA |
||||||
Source of Variation |
SS |
df |
MS |
F |
P-value |
F crit |
Between Groups |
8.1575E+23 |
1 |
8.16E+23 |
0.011471 |
0.914751 |
3.860545 |
Within Groups |
3.4774E+28 |
489 |
7.11E+25 |
|||
Total |
3.4775E+28 |
490 |
SUMMARY |
||||||
Groups |
Count |
Sum |
Average |
Variance |
||
241 |
6.55E+14 |
2.72E+12 |
7.83E+25 |
|||
238 |
6.16E+14 |
2.59E+12 |
7.09E+25 |
|||
225 |
6.18E+14 |
2.75E+12 |
7.68E+25 |
|||
ANOVA |
||||||
Source of Variation |
SS |
df |
MS |
F |
P-value |
F crit |
Between Groups |
3.4152E+24 |
2 |
1.71E+24 |
0.022671 |
0.977585 |
3.008571 |
Within Groups |
5.2801E+28 |
701 |
7.53E+25 |
|||
Total |
5.2805E+28 |
703 |
In one way ANOVA, p value shows the efficiency of the data in which p value between the range of 0 and 1 shows the acceptance or rejection of hypothesis used in a particular research. P value less than 0.05 is rejected as a null hypothesis and p value higher than 0.05 is not null hypothesis (Sturm, Goldstein, Huntington and Douglas, 2017). Current data has higher p value than 0.05 that shows that the entire hypothesis used in the research are not null.
Point |
62149 |
Rank |
Percent |
257 |
5284886348 |
1 |
100.00% |
101 |
4310509136 |
2 |
99.60% |
138 |
4287532629 |
3 |
99.20% |
154 |
3964846386 |
4 |
98.80% |
100 |
3468363155 |
5 |
98.40% |
247 |
2039466775 |
6 |
98.00% |
60 |
2031055831 |
7 |
97.60% |
137 |
1925379611 |
8 |
97.30% |
140 |
1848804300 |
9 |
96.90% |
61 |
1819288343 |
10 |
96.50% |
59 |
1602333626 |
11 |
96.10% |
228 |
1582008622 |
12 |
95.70% |
38 |
1135185000 |
13 |
95.30% |
202 |
1132832536 |
14 |
94.60% |
238 |
1132832536 |
14 |
94.60% |
179 |
1069095267 |
16 |
94.20% |
93 |
997353719 |
17 |
93.80% |
196 |
964601905 |
18 |
93.40% |
107 |
870133480 |
19 |
93.00% |
63 |
842848473 |
20 |
92.60% |
102 |
842145981 |
21 |
92.30% |
105 |
559246165 |
22 |
91.90% |
215 |
511410066 |
23 |
91.10% |
239 |
511410066 |
23 |
91.10% |
213 |
511340559 |
25 |
90.70% |
133 |
510827576 |
26 |
90.30% |
71 |
478005307 |
27 |
90.00% |
132 |
445044474 |
28 |
89.60% |
234 |
430014112 |
29 |
89.20% |
229 |
428318228 |
30 |
88.80% |
126 |
422914642 |
31 |
88.40% |
189 |
417158756 |
32 |
88.00% |
62 |
390207446 |
33 |
87.60% |
96 |
355762200 |
34 |
87.30% |
134 |
322686243 |
35 |
86.90% |
66 |
311539698 |
36 |
86.50% |
103 |
282899816 |
37 |
86.10% |
168 |
277473326 |
38 |
85.70% |
72 |
262862202 |
39 |
85.30% |
151 |
255989130 |
40 |
85.00% |
249 |
249623000 |
41 |
84.60% |
159 |
227903820 |
42 |
84.20% |
236 |
225925572 |
43 |
83.80% |
5 |
224735446 |
44 |
83.40% |
104 |
181436821 |
45 |
83.00% |
27 |
149352145 |
46 |
82.60% |
200 |
148292000 |
47 |
82.30% |
117 |
123537000 |
48 |
81.90% |
34 |
110745760 |
49 |
81.50% |
182 |
107678614 |
50 |
81.10% |
18 |
106188642 |
51 |
80.70% |
172 |
95269988 |
52 |
80.30% |
152 |
85357874 |
53 |
80.00% |
53 |
79433029 |
54 |
79.60% |
255 |
66016700 |
55 |
79.20% |
185 |
61947348 |
56 |
78.80% |
75 |
58512808 |
57 |
78.40% |
65 |
57412215 |
58 |
78.00% |
79 |
57247586 |
59 |
77.60% |
114 |
56719240 |
60 |
77.30% |
231 |
56582821 |
61 |
76.90% |
110 |
56226185 |
62 |
76.50% |
242 |
53921699 |
63 |
76.10% |
246 |
51892000 |
64 |
75.70% |
70 |
48086516 |
65 |
75.30% |
124 |
42869283 |
66 |
75.00% |
158 |
40626250 |
67 |
74.60% |
68 |
38867322 |
68 |
74.20% |
188 |
38110782 |
69 |
73.80% |
261 |
36793490 |
70 |
73.40% |
41 |
34614581 |
71 |
73.00% |
43 |
34271565 |
72 |
72.60% |
7 |
32729739 |
73 |
72.30% |
33 |
27791000 |
74 |
71.90% |
58 |
25912367 |
75 |
71.50% |
244 |
25459604 |
76 |
71.10% |
216 |
25181708 |
77 |
70.70% |
4.044021 |
2.883604 |
3.315775 |
3.657377 |
2.529938 |
3.395625 |
|
4.044021 |
1 |
|||||
2.883604 |
0.959544 |
1 |
||||
3.315775 |
0.503776 |
0.514774 |
1 |
|||
3.657377 |
0.216641 |
0.284309 |
0.823185 |
1 |
||
2.529938 |
0.160879 |
0.236169 |
0.756845 |
0.975362 |
1 |
|
3.395625 |
0.158245 |
0.255915 |
0.732155 |
0.969487 |
0.967799 |
1 |
3.608711 |
5.391203 |
8.957732 |
-2.13637 |
2.077739 |
|
3.608711 |
1 |
||||
5.391203 |
0.997519 |
1 |
|||
8.957732 |
0.40146 |
0.56893 |
1 |
||
-2.13637 |
0.32165 |
0.340525 |
0.456136 |
1 |
|
2.077739 |
0.007049 |
-0.02466 |
0.339567 |
0.579468 |
1 |
4.374596 |
0.571756 |
-2.37226 |
0.420998 |
0.476485 |
-0.89302 |
|
4.374596 |
1 |
|||||
0.571756 |
0.798068 |
1 |
||||
-2.37226 |
0.542334 |
0.651214 |
1 |
|||
0.420998 |
0.490281 |
0.559552 |
0.831273 |
1 |
||
0.476485 |
0.490099 |
0.45981 |
0.571401 |
0.819391 |
1 |
|
-0.89302 |
0.565809 |
0.521478 |
-0.01957 |
0.089902 |
0.673276 |
1 |
Inflation is a biggest negative aspect that crashes overall earrings of the business as this can be controlled by keeping track on the entire inflation rates among all the countries. Trend of inflation is decreasing among all the countries (Wang and Byrd, 2017).
Changes play an integral role in every business as change has dual phase as it is positive as well as negative for the business concern. An entity is required to keep track on its overall performance by identifying all the factors that may affects the performance of the firm in the external business environment (Hsiao, 2014). Aim of the current research emphasises on two important things such as use of time series data as well as improving the business decisions which is beneficial as well as not appropriate for the firm. A wise decisions of the business helps in grabbing large number of business opportunities by improving the current performance of an enterprise. Role of this research targets large number of the external audiences to participate in utilizing various statistical tools in achieving the desired aims and the objectives in the external business environment (Mayda, 2010). Time series analysis has used by an enterprise owner in ascertaining all their weaknesses that helps in getting rid of all the threats by compensating them with the current strengths of the business. Time series data shows the overall trend of all the variables such as gross domestic product, inflation, gross national income, poverty, population, Treasury bill interest rates and stock market returns. All these variables are considered by the firm as these shows both positive as well as negative aspects for an entity.
Basic limitation of the current research study is not to collect authentic data as only one source of website has chosen in the current assignment. Overall data of the research has collected from World Bank website (Baltagi, 2008). Data of different variable’s data has collected from all the countries arranged in an alphabetical order starting from A to Z. Weakness in collecting the data is that some of data for different variable is not available for several countries in the research which will deflate an entity’s desired aims and objectives. Due to lack of data available in some of the countries, the overall trend of the current research cannot be tracked. Another limitation of the research study is due to lack of expertise of the researcher in applying statistical tools. Standard measure of analyzing the data has two options such as excel analysis and SPSS analysis which will be used by a researcher according to their expertise (Petersen, 2009). These two different techniques will generate different results which create further confusion for an individual to take decisions based on the generated output as the input remains the same but differentiation lies in the processing of all the inputs into the systems.
Conclusion And Recommendation
It can summarised from the above study that time series data used by the firm helps in overcoming the biggest issue of business uncertainty. Higher inflation burden imposed on an entity collapses various business markets can be controlled by using forecasting tools under time series data.
It is suggested to an entity to use excel data miner that helps in removing all the impurities lies in the data which helps in achieving all the desired market aims and targets of the firm. R language is another data mining tool in analyzing the overall business performance.
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