Google Summer of Code 2023 proposed ideas - Ιστορικό εκδόσεων

Pkst στις 06:01, 4 Μαΐου 2023

2023-05-04T06:01:59Z

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Pkst: Ανάκληση των αλλαγών Pkst (συζήτηση) επιστροφή στην προηγούμενη αναθεώρηση Zvr

2023-05-04T05:59:39Z

Ανάκληση των αλλαγών Pkst (συζήτηση) επιστροφή στην προηγούμενη αναθεώρηση Zvr

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Pkst στις 05:59, 4 Μαΐου 2023

2023-05-04T05:59:05Z

← Παλαιότερη αναθεώρηση		Αναθεώρηση της 05:59, 4 Μαΐου 2023
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	Nikolaos Cheimarios: nixeimar@chemeng.ntua.gr, Vissarion Fisikopoulos: vissarion.fisikopoulos@gmail.com		Nikolaos Cheimarios: nixeimar@chemeng.ntua.gr, Vissarion Fisikopoulos: vissarion.fisikopoulos@gmail.com



	~~== Control and Management Patterns as Node-RED flows ==~~

	~~==== Brief Explanation ====~~
	Node-RED (https://nodered.org/) is a popular low code programming environment for event driven applications, particularly in the IoT world. It is based on a visual, browser based editor in which developers can write functions, wire them together to form a workflow, group a subset of functions into reusable and parametric subflows etc. Node-RED can interact with any API or service, thus its usage can be extended to be used in collaboration with other services and frameworks.

	The project revolves around the idea of using Node-RED as a controller and orchestrator in event driven programming. For a first look and feel of the scope you can visit this technical report: https://arxiv.org/pdf/2202.09683.pdf

	~~Initial flows that have been created on this scope and can be used as examples can be found here: https://flows.nodered.org/collection/HXSkA2JJLcGA~~

	~~Points for contribution around the proposal include:~~
	- Adaptation of a control logic on the node-red environment by creating a relevant flow that implements it. This flow may regulate how the flow behaves or how it determines how to configure an external system. Examples for such controlling logic may include PID controllers (https://en.wikipedia.org/wiki/PID_controller) inclusion and automated tuning/adaptation, creation of on/off delay switches eyc.
	~~- Replication of Cloud design patterns rationale (https://docs.microsoft.com/en-us/azure/architecture/patterns/), for which a relevant flow can be implemented to support them~~
	- Creation of adaptable pattern flows that respond to real time events and related monitoring information. To this end, controlling logic may be included as the PID case mentioned above or otherwise (e.g. inclusion of a Neural Network controller)
	~~-Packaging of that flow as a subflow and adding parameters of operation and configuration (from the UI or through the incoming message fields)~~

	~~==== Duration of the Project ====~~
	~~350 hours~~

	~~==== Expected Results ====~~
	The purpose of the work is to exploit Node-RED's subflow and workflow features in order to implement reusable flows that can be shared through Node-RED's repository. The initial scope of the flows is around workflow and control structures for created patterns although other scopes can be proposed. .

	~~==== Related repositories ====~~
	~~https://flows.nodered.org/, https://github.com/node-red, https://flows.nodered.org/collection/HXSkA2JJLcGA~~

	~~==== Knowledge Prerequisites ====~~
	~~Necessary: javascript, Preferable: Node-RED~~

	~~==== Mentors: ====~~
	~~George Kousiouris~~

	== Alexandria3k Extensions ==		== Alexandria3k Extensions ==

Pkst στις 14:06, 17 Μαρτίου 2023

2023-03-17T14:06:57Z

@@ Γραμμή 78: / Γραμμή 78: @@
 ==== Mentors: ====
 George Kousiouris
 == Epoptes improvements ==

Pkst στις 09:19, 22 Φεβρουαρίου 2023

2023-02-22T09:19:28Z

← Παλαιότερη αναθεώρηση		Αναθεώρηση της 09:19, 22 Φεβρουαρίου 2023
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	Hariton Polatoglou and Panagiotis Koustoumpardis		Hariton Polatoglou and Panagiotis Koustoumpardis

			== Creating new lattices for Apothesis ==

			==== Brief Explanation ====
			Apothesis is a generalized software for deposition processes on solid surfaces which is based on kinetic Monte Carlo (KMC) method. In order to apply the KMC method [1] a lattice is needed where the elementary processes (adsorption, desorption, migration and surface reaction(s) ) are performed. These lattices consist of sites which are activated centers where the different processes take place. Based on the physical representation of the surfaces different lattices can be constructed. Currently, Apothesis supports Simple Cubic and (partial) Face Cubic Center (FCC) lattices. In the current proposed project, we focus on expanding the capabilities of Apothesis by adding hexagonal [2] and diamond lattices [3] - two very popular lattices used in surface sciences.

			==== Duration of the Project ====
			350 hours (Large Size)

			==== Expected Results ====
			Apothesis has the basic infrastructure (parent class) containing the minimum information for creating a lattice. The goal of the proposed project is the creation of two classes for generating hexagonal and diamond lattices based on these parent class. We expect that this will be a great enhancement in the capabilities of Apothesis allowing the investigation of various physical/chemical systems.

			==== Related repositories ====
			https://github.com/nixeimar/Apothesis

			==== Knowledge Prerequisites ====
			C++, elementary physics

			==== Mentors: ====
			Nikolaos Cheimarios: nixeimar@chemeng.ntua.gr, Vissarion Fisikopoulos: vissarion.fisikopoulos@gmail.com

Pkst στις 08:21, 22 Φεβρουαρίου 2023

2023-02-22T08:21:01Z

@@ Γραμμή 275: / Γραμμή 275: @@
 Sarantos Kapidakis (sarantos.kapidakis@gmail.com)
 [[Κατηγορία:GSOC2023]]
 [[Κατηγορία:GSOC]]

Pkst στις 07:32, 22 Φεβρουαρίου 2023

2023-02-22T07:32:11Z

← Παλαιότερη αναθεώρηση		Αναθεώρηση της 07:32, 22 Φεβρουαρίου 2023
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	Contributors interested to participate should check which of the following projects fits their interests and skills.		Contributors interested to participate should check which of the following projects fits their interests and skills.

	'''Τo communicate with the mentors and ask questions about the projects, students should subscribe to this''' list '''and post relevant questions. Please follow the [[Proposal Template]]'''		'''Τo communicate with the mentors and ask questions about the projects, students should subscribe to this''' [https://lists.ellak.gr/gsoc-developers/listinfo.html list] '''and post relevant questions. Please follow the [[Proposal Template]]'''

	For practical information, developers should visit this '''page'''.		For practical information, developers should visit this '''[https://summerofcode.withgoogle.com/how-it-works page]'''.

Pkst στις 11:53, 17 Φεβρουαρίου 2023

2023-02-17T11:53:47Z

← Παλαιότερη αναθεώρηση		Αναθεώρηση της 11:53, 17 Φεβρουαρίου 2023
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	==== Expected Results ====		==== Expected Results ====
	At the end of that GSoC project the open source for five IoT DIY sensors and five actuators will be designed and implemented. Also five Dashboards on the open source IoT platform ThingsBoard for five corresponding experiment will be designed and implemented.		At the end of that GSoC project the open source code for five IoT DIY sensors and five actuators will be designed and implemented. Also five Dashboards on the open source IoT platform ThingsBoard for five
			corresponding experiment will be designed and implemented. A list of the electronic components, instructions for the assembly and documentation for the software will be prepared.

	==== Related repositories ====		==== Related repositories ====

Pkst στις 10:38, 7 Φεβρουαρίου 2023

2023-02-07T10:38:52Z

← Παλαιότερη αναθεώρηση		Αναθεώρηση της 10:38, 7 Φεβρουαρίου 2023
Γραμμή 4:		Γραμμή 4:

	For practical information, developers should visit this '''page'''.		For practical information, developers should visit this '''page'''.


			== DIY IoT Physics ==

			==== Brief Explanation ====
			Remote physics experiments for students in all the educational levels are the second best to hands on experiments. Especially for students who temporarily cannot attend school or in cases like the Covid-19 and the lockdowns. In many practical cases they are the only alternative, as they are available 24/7, they can involve dangerous materials or conditions, they can be accessed from anywhere and any device, they require less maintenance, have lower cost, can be easily modified, or arranged to perform another experiment, and are less probable to be damaged. They are in line with the modern way to perform experiments, as it is desirable to have as less as possible direct contact with the experiments and use them on-line. Like on-line telescopes and electronic microscopes. This is possible due to the automation, data acquisition and manipulation of the experimental data is done using a computer or a microcomputer. In this way students need not to take pain stacking notes, especially for experiments that take a lot of time to collect data, like days or months. The students can concentrate on data processing and on the physics of the results. Our laboratory has setup a lot of remote experiments and has experience of more than 10 years in designing, setting and servicing remote experiments. Our remote experiments are based on Arduino and readily available sensors and actuators. The aim of the present project is to design and implement a way to make the sensors and the actuators to form an IoT local network so that it will be easier to utilize them in different experiments easily and also to build new experiments. The IoT sensors and actuators will be DIY based on open software. The applicant will program the ESP8266 to receive data from the sensor and transmit through MQTT the data to ThingsBoard and similarly for the actuator the ESP8266 will receive MQTT data from ThingsBoard. The applicant will prepare five DIY IoT sensors and five actuators. ThingsBoard will provide users with the visual representation of the data and the control of the experimental setup through dashboards. The applicant will prepared five dashboards for corresponding experiments.

			==== Duration of the Project ====
			175 hours (Medium Size)

			==== Expected Results ====
			At the end of that GSoC project the open source for five IoT DIY sensors and five actuators will be designed and implemented. Also five Dashboards on the open source IoT platform ThingsBoard for five corresponding experiment will be designed and implemented.

			==== Related repositories ====
			https://github.com/totheworld2004/DIY-Physics-IoT

			==== Knowledge Prerequisites ====
			How to program ESP8266, MQTT to transfer and receive data and design and implement Dashboards on a IoT platform

			==== Mentors: ====
			Hariton Polatoglou and Panagiotis Koustoumpardis




	== Control and Management Patterns as Node-RED flows ==		== Control and Management Patterns as Node-RED flows ==

Pkst στις 11:45, 3 Φεβρουαρίου 2023

2023-02-03T11:45:28Z

@@ Γραμμή 221: / Γραμμή 221: @@
 ==== Mentors: ====
 Alexios Zavras
 [[Κατηγορία:GSOC2023]]
 [[Κατηγορία:GSOC]]