Published Volumes & Issues
Browse all published issues of International Journal of Technical Innovation in Modern Engineering & Science. Click any issue card to view its papers inline.
Volume 12
2026
3 issues ·
5 papers
Issue 1
(January - March) 2026
2 papers →
Issue 2
(April - June) 2026
2 papers →
Issue 3
(July - September) 2026
1 paper →
Volume 11
2025
4 issues ·
11 papers
Issue 1
(January - March) 2025
3 papers →
Issue 2
(April - June) 2025
3 papers →
Issue 3
(July - September) 2025
2 papers →
Issue 4
(October - December) 2025
3 papers →
Volume 10
2024
5 issues ·
13 papers
Issue 1
(January - March) 2024
2 papers →
Issue 2
(April - June) 2024
4 papers →
Issue 3
(July - September) 2024
1 paper →
Issue 4
(October - December) 2024
3 papers →
Issue 10
Issue 10 2024
3 papers →
Volume 9
2023
4 issues ·
12 papers
Issue 1
(January - March) 2023
3 papers →
Issue 2
(April - June) 2023
2 papers →
Issue 3
(July - September) 2023
2 papers →
Issue 4
(October - December) 2023
5 papers →
Volume 8
2022
7 issues ·
7 papers
Issue 2
(April - June) 2022
1 paper →
Issue 3
(July - September) 2022
1 paper →
Issue 4
(October - December) 2022
1 paper →
Issue 5
Issue 5 2022
1 paper →
Issue 10
Issue 10 2022
1 paper →
Issue 11
Issue 11 2022
1 paper →
Issue 12
Issue 12 2022
1 paper →
Volume 7
2021
10 issues ·
15 papers
Issue 1
(January - March) 2021
3 papers →
Issue 2
(April - June) 2021
2 papers →
Issue 4
(October - December) 2021
1 paper →
Issue 5
Issue 5 2021
2 papers →
Issue 7
Issue 7 2021
1 paper →
Issue 8
Issue 8 2021
1 paper →
Issue 9
Issue 9 2021
2 papers →
Issue 10
Issue 10 2021
1 paper →
Issue 11
Issue 11 2021
1 paper →
Issue 12
Issue 12 2021
1 paper →
Volume 6
2020
12 issues ·
80 papers
Issue 1
(January - March) 2020
7 papers →
Issue 2
(April - June) 2020
6 papers →
Issue 3
(July - September) 2020
8 papers →
Issue 4
(October - December) 2020
5 papers →
Issue 5
Issue 5 2020
8 papers →
Issue 6
Issue 6 2020
8 papers →
Issue 7
Issue 7 2020
4 papers →
Issue 8
Issue 8 2020
7 papers →
Issue 9
Issue 9 2020
7 papers →
Issue 10
Issue 10 2020
11 papers →
Issue 11
Issue 11 2020
7 papers →
Issue 12
Issue 12 2020
2 papers →
Volume 5
2019
19 issues ·
1424 papers
Issue 1
(January - March) 2019
68 papers →
Issue 2
(April - June) 2019
59 papers →
Issue 3
(July - September) 2019
202 papers →
Issue 4
(October - December) 2019
202 papers →
Issue 5
Issue 5 2019
194 papers →
Issue 6
Issue 6 2019
111 papers →
Issue 7
Issue 7 2019
61 papers →
Issue 8
Issue 8 2019
39 papers →
Issue 9
Issue 9 2019
14 papers →
Issue 10
Issue 10 2019
4 papers →
Issue 11
Issue 11 2019
9 papers →
Issue 12
Issue 12 2019
6 papers →
Issue 13
Issue 13 2019
162 papers →
Issue 14
Issue 14 2019
56 papers →
Issue 15
Issue 15 2019
18 papers →
Issue 16
Issue 16 2019
46 papers →
Issue 17
Issue 17 2019
12 papers →
Issue 18
Issue 18 2019
142 papers →
Issue 19
Issue 19 2019
19 papers →
Volume 4
2018
13 issues ·
1461 papers
Issue 1
(January - March) 2018
44 papers →
Issue 2
(April - June) 2018
22 papers →
Issue 3
(July - September) 2018
22 papers →
Issue 4
(October - December) 2018
64 papers →
Issue 5
Issue 5 2018
240 papers →
Issue 6
Issue 6 2018
251 papers →
Issue 7
Issue 7 2018
201 papers →
Issue 8
Issue 8 2018
157 papers →
Issue 9
Issue 9 2018
120 papers →
Issue 10
Issue 10 2018
92 papers →
Issue 11
Issue 11 2018
104 papers →
Issue 12
Issue 12 2018
114 papers →
Issue 13
Issue 13 2018
30 papers →
Volume 3
2017
12 issues ·
216 papers
Issue 1
(January - March) 2017
1 paper →
Issue 2
(April - June) 2017
3 papers →
Issue 3
(July - September) 2017
20 papers →
Issue 4
(October - December) 2017
37 papers →
Issue 5
Issue 5 2017
22 papers →
Issue 6
Issue 6 2017
15 papers →
Issue 7
Issue 7 2017
12 papers →
Issue 8
Issue 8 2017
4 papers →
Issue 9
Issue 9 2017
9 papers →
Issue 10
Issue 10 2017
26 papers →
Issue 11
Issue 11 2017
32 papers →
Issue 12
Issue 12 2017
35 papers →
Volume 2
2016
9 issues ·
32 papers
Issue 1
(January - March) 2016
1 paper →
Issue 4
(October - December) 2016
7 papers →
Issue 5
Issue 5 2016
7 papers →
Issue 6
Issue 6 2016
1 paper →
Issue 8
Issue 8 2016
1 paper →
Issue 9
Issue 9 2016
3 papers →
Issue 10
Issue 10 2016
5 papers →
Issue 11
Issue 11 2016
4 papers →
Issue 12
Issue 12 2016
3 papers →
Vol.2,
Issue 12 — Issue 12 2016
3 papers
01
Vol.2, Issue 12 · Issue 12 2016 · ID: IJT-2021-18AADB
Purumani Supriya
, Guggilla Raju, Damera Ramachander · Department of Civil Engineering & GCET, IN
Abstract
In such a situation the Quarry rock dust can be an economic alternative to the river sand. Quarry Rock Dust can be defined as residue, tailing or other non-voluble waste material after the extraction and processing of rocks to form fine particles less than 4.75mm. Usually, Quarry Rock Dust is used in large scale in the highways as a surface finishing material and also used for manufacturing of hollow blocks and lightweight concrete prefabricated Elements.
This paper presents the feasibility of the usage of Quarry Rock Dust as 100% substitutes for Natural Sand in concrete. Mix design has been developed for M40 grade using design approach IS for both conventional concrete and quarry dust concrete. Tests were conducted on cubes and beams to study the strength of concrete made of Quarry Rock Dust and the results were compared with the Natural Sand Concrete. It is found that the compressive and flexural strength of concrete made of Quarry Rock Dust are nearly 10% more than the conventional concrete. Tests were also conducted on cubes and beams which are exposed to temperatures of 300°C for 1hr, 3hr durations respectively.
The results show that at a dosage 1.3% of super plasticizer by weight of cement the concrete made of quarry stone dust as fine aggregate attained low strengths when compared with other dosages (1% and 1.6%) in compression and flexure.
Keywords: concrete, fine particles, super plasticizers, compressive strength, flexural strength.
02
Vol.2, Issue 12 · Issue 12 2016 · ID: IJT-2021-CC4199
Alakanandana .A
· Department of BS, G. Narayanamma Institute of Technology & Science, Hyderabad, India, IN
Abstract
Of late, conducting polymers are assuming a lot of importance. In this study, proton conducting polymer electrolyte based on PVA complexed with Oxalic acid and Malonic acid is prepared using solution cast technique. XRD is used to examine the complexation of PVA polymer with Oxalic acid and Malonic acid. The results of XRD reveal that with the increase of Oxalic acid and Malonic acid concentration, the amorphous nature of PVA polymer matrix increases. FTIR spectra studies for pure and complexed polymers reveal the vibrational changes that occur due to the presence of dopant salt in the polymer. Also, the presence of O-H, C-H and C-C groups is indicated when FTIR spectrum of pure PVA is compared with the spectra of complexed polymers. The DC conductivity measurements have been taken on the polymer samples in the temperature range 303 K to 373 K. From these measurements it is observed that the conductivity is found to increase with the concentration of dopant as well as temperature. The results obtained are presented.
Keywords: XRD, FTIR, polymer electrolyte, conducting polymers, composite PVA, Oxalic acid,Malonic acid.
03
Vol.2, Issue 12 · Issue 12 2016 · ID: IJT-2021-C40751
Bhavin P. Pandya
· Assistant Professor, KJ Institute of Engineering and Technology, Savli, Vadodara, Gujarat, India, IN
Abstract
Heat Transfer is the most important phenomena in engineering application. Complete recovery of heat is a challenging task. Different people opt for different option for heat recovery. The most important parameter in heat transfer is heat transfer coefficient. Higher the value of heat transfer coefficient higher is heat transfer from the system. The objective of the dissertation is to study the effect on heat transfer in pipe and pipe having different flow cross section using ANSYS. To achieve this pipe of length 1.5 meter is taken. The fluid is flowing full in pipe. The different parameters like pressure, velocity, temperature, and heat flux and heat transfer coefficient are found out using simulation at various cross sections along the flow. The cross section is at 0.3, 0.6, 0.9, 1.2 and 1.5 meters respectively. The simulations are carried out at different mass flow rates.
