1. Motivation

I always wanted to make my own homepage. I tried to make it using react and node.js, but it took a long time to learn design and coding. Therefore, while looking for a simple way to make it, I learned how to create a blog with github.

2. Start github blog

1. Start with github_blog_create
2. Choose one from Jekyll theme
3. check README–> check Github pages
4. Import it to ‘local’ using git clone, modify code using VScode, and git push
   • After that, add, commit, and push are repeated to continue pushing.;;
   • Check the local build of README.
   • But I may not know what you mean…

3. Local build detailed method

1. Install ruby Install Jekyll
2. Go from Ruby ‘start command’.

1. Enter gem install bundler jekyll after going to code address imported to ‘local’ via cd

1. Enter bundle exec jekyll serve after installation is completed

1. Enter http://localhost:4000/ in Chrome after loading!!

Then, you can see that it’s floating well

4. Analyzing my own homepage code

Oh, it’s hard! But it’s so nice that it’s organized neatly!

Decorate your own homepage from 2022-04-20!

1. Motivation

By creating and distributing VR educational content on semiconductors, display devices, and processes that overcome physical limitations and maximize learning effectiveness, we expect to contribute to educational innovation and industrial development.

2. Partner Organizations

• NINT National Institute for Nonomoterials Technology

• RAPA KOREA RADIO PROMOTION ASSOCIATION

• ReadyMade

• POSTECH
• WADE Lab

3. Promotional Video for the Content

VR Semiconductor and Display Device Educational Content

4. brochure

1. Motivation

Paper : IGZO channel ferroelectric memory FET (Masaharu Kobayashi ,1-4 Sept. 2020)

An experiment was conducted to confirm the ferroelectric phenomenon in ITZO rather than IGZO by adding HZO based on the paper.

To that end, it is important to plan the manufacturing process of FeFET well, and we made the mask necessary for the photolithography process.

2. Introduction of team members

• Taewon Jin
• Teahyeon Noh

3. Progress

Please understand that there is a private part of the lab that is covered.

In the process, it is necessary to check how it is deposited on the Si substrate.

Therefore, we check the deposition process while making it using the shape of the ppt.

It was also necessary to identify which process was required for each step.

If the mask is not checked several times, the position of the Mask may change.

I may have to wait for the Mask production again, so we need to check carefully.

I made a Mask using Klayout and check the ppt to see if there is any problem.

Steps to request the manufacture of the Mask to the company

4. Result

All were completed without re-deposition and the ferroelectic phenomenon was confirmed.

However, the performance was lower than that of IGZO.

5. Code

This is the Klayout python code.

• Making a square

class Square :
  global layout,unit,top
  
  def __init__(self, x, y, width, height,l):  
    self.x = x/unit
    self.y = y/unit
    self.width = width/unit
    self.height = height/unit
    self.l = l
    self.lay = layout.layer(l,0)
    
    self.box = pya.Box(self.x-self.width/2,self.y-self.height/2,self.x+self.width/2,self.y+self.height/2)
    
  
  def info(self):
    return pya.Region(self.box)
    
  def create(self):   
    obj = pya.Region(self.box)
    res = top.shapes(self.lay).insert(self.box) 
    return obj
  
  def create_hole(self,h_x,h_y,h_width,h_height):
    h_x = h_x/unit
    h_y = h_y/unit
    h_width = h_width/unit
    h_height = h_height/unit
    self.h_box = pya.Box(h_x-h_width/2,h_y-h_height/2,h_x+h_width/2,h_y+h_height/2)
  
    self.box = pya.Polygon(self.box)
    self.box.insert_hole(self.h_box)
    obj = pya.Region(self.box)
    res= top.shapes(self.lay).insert(self.box)
    return obj
  
  def dup(self,dif_x,dif_y,num):
    dif_x = dif_x/unit
    dif_y = dif_y/unit
    new_obj = self.box
    total_obj = pya.Region(new_obj)
    top.shapes(self.lay).insert(new_obj)
    for i in range(0,num):
      new_obj = new_obj.dup()
      new_obj = new_obj.moved(dif_x,dif_y)
      res = top.shapes(self.lay).insert(new_obj)
      total_obj += new_obj
    return total_obj
    
  def dup_2(self,dif_x,dif_y,num1,num2):
    dif_x = dif_x/unit
    dif_y = dif_y/unit
    new_obj = self.box
    total_obj = pya.Region()
    
    for i in range(0,num1):
      if i!=0:
        new_obj = new_obj.dup()
        new_obj = new_obj.moved(0,dif_y)
      for j in range(0,num2):
        if j ==0 and i!=0:
          new_obj = new_obj.moved(-(num2-1)*dif_x,0)
        new_box = new_obj.dup()
        if j ==0:
          pass
        else:
          new_obj = new_obj.moved(dif_x,0)
        res = top.shapes(self.lay).insert(new_obj)
        total_obj += new_obj
        
    return total_obj

  def rotate(self,degree):
    self.box.move(-self.x,-self.y)
    rotate = pya.ICplxTrans(1,degree,False,0,0)
    new_obj =pya.Polygon(self.box).transform(rotate)
  
    new_obj.move(self.x,self.y) 
    res = top.shapes(self.lay).insert(new_obj)
      
    return new_obj

• Making a circle

class Circle:
  global layout,unit,top,angle_point
  
  def __init__(self, x, y, r,degree, rotation,l):  
    self.x = x/unit
    self.y = y/unit
    self.r = r/unit
    self.l = l
    self.lay = layout.layer(l,0)
    self.degree = degree
    self.n_point = self.degree / angle_point + 1
    self.radian_step = 2.0*pi*(self.degree/360) / (self.n_point - 1)
    self.radian_offset = 2.0*pi*(rotation/360)
    self.points = [pya.Point(round(self.r * math.cos(i * self.radian_step + self.radian_offset) + self.x), round(self.r * math.sin(i * self.radian_step + self.radian_offset) + self.y)) for i in range(int(self.n_point))]
    
    if self.degree != 360:
      self.points.append(pya.Point(self.x, self.y))  
    
    self.circle = pya.Polygon(self.points)
    

  def create(self):   
    res= top.shapes(self.lay).insert(self.circle)
    obj = pya.Region(self.circle) 
    return obj
  
  def create_hole(self,r2):
    r2 = r2/unit
    self.points2 = [pya.Point(round(r2 * math.cos(i * self.radian_step + self.radian_offset) + self.x), round(r2 * math.sin(i * self.radian_step + self.radian_offset) + self.y)) for i in range(int(self.n_point))]
    
    if self.degree != 360:
      self.points2.append(pya.Point(self.x, self.y))
      
    self.circle.insert_hole(self.points2)
  
    res= top.shapes(self.lay).insert(self.circle)
    obj = pya.Region(self.circle) 
    return obj

  
  def dup(self,dif_x,dif_y,num):
    dif_x = dif_x/unit
    dif_y = dif_y/unit
    new_obj = self.circle
    total_obj = pya.Region(new_obj)
    top.shapes(self.lay).insert(new_obj)
    
    for i in range(0,num):
      
      new_obj = new_obj.dup()
      new_obj = new_obj.moved(dif_x,dif_y)
      pya.Region(new_obj)
      res = top.shapes(self.lay).insert(new_obj)
      total_obj += new_obj
    return total_obj
    
  def dup_2(self,dif_x,dif_y,num1,num2):
    dif_x = dif_x/unit
    dif_y = dif_y/unit
    new_obj = self.circle
    total_obj = pya.Region()
    
    for i in range(0,num1):
      if i!=0:
        new_obj = new_obj.dup()
        new_obj = new_obj.moved(0,dif_y)
      for j in range(0,num2):
        if j ==0 and i!=0:
          new_obj = new_obj.moved(-(num2-1)*dif_x,0)
        new_obj = new_obj.dup()
        if j ==0:
          pass
        else:
          new_obj = new_obj.moved(dif_x,0)
          
        pya.Region(new_obj)
        res = top.shapes(self.lay).insert(new_obj)
        total_obj += new_obj
    return total_obj

In addition, I have defined codes that make other shapes such as align mark and name.

If you need it or want to use it, please send me an email.

I will explain in detail with my example code.

1. Motivation

ITZO (In-Sn-Zn-O) has higher mobility than IGZO.

In addition, an efficient orbital overlapping chip phenomenon occurs in the 5s orbital of n3+ and Sn4+, making it easy to move electrons.

Annelling has an effect on ITZO in the process.

• The annealing process increases the electrical properties and stability of the TFT thin film. It also increases oxygen vacancy removal, M-O bond formation, and charge carrier generation.
• Oxygen in the chamber is diffused into the empty space of the channel to reduce the empty space of oxygen and increase the interface trap between a-ITZO/SiO2.

Thus, I will grasp the characteristics of ITZO according to Annelling.

Conditions

• Hot plate (AS, 150°C, 200°C, 250°C) [1 hour]
• RTA (AS, 200°C, 300°C, 400°C, 500°C) [30 second]

Announcement day : 2021-12-01

2. Introduction of team members

• Taewon Jin
• Xinkai Sun
• Teahyeon Noh

3. Progress & Results

• [Experiment 1] Determine the temperature dependence of ITZO

Problem Occurred

• [Experiment 2] Changes in the device after isolation

Solution

• [Experiment 3] RTA

• Conclusion

4. The final conclusion

5. Reference

[1] Junghwan Kim, Hoichang Yang& Jae Kyeong Jeong(2020.October.1). Nature research

[2] Youngjoon Choi, Saeroonter Choi and Jaekyun Kim(2020. September. 29). Semicomductor Science and Technology

1. Motivation

The voltage-current relationship of TFT(Thin File Transistor) is as follows.

Therefore, an experiment was conducted to check whether the properties of TFTs change according to changes in W and L.

2. Introduction of team members

• Taewon Jin

3. Process

Use the following TFTs:

The Mask that will shape the Metal

4. Conclusion

Result of Width change!

Result of Length change!

1. What is TCAD Sentaurus?

Technology Computer-Aided Design (TCAD) refers to using computer simulations to develop and optimize semiconductor processing technologies and devices. TCAD simulation tools solve fundamental, physical, partial differential equations, such as diffusion and transport equations for discretized geometries, representing the silicon wafer or the layer system in a semiconductor device. This deep physical approach gives TCAD simulation predictive accuracy.

Therefore, it is possible to substitute TCAD computer simulations for costly and time-consuming test wafer runs when developing and characterizing a new semiconductor device or technology.

2. Process

I would appreciate it if you could refer to the pdf for detailed instructions. PDF

3. Result

1. Introduction of team members

• Kangseok Kim
• Seoungmin Park

2. Process

Please understand that the detailed process has a private laboratory.

1. Explain of the contest

Competition: Overtail_GameJam

Organized by: College of computing

Period: Monday, July 18, 2022 to Wednesday, July 20, 2022 (3 Days)

2. Introduction of team members

Team member: Kim Taeyeop , Kim kangseok , Song Junsu

3. Process

Team name: NaRoHo

Keywords: water(물), heat(더위), passion(정열)

Topic: On the 18th, three words related to summer will be randomly extracted and distributed to the team. Create a game using keywords for the next 3 days

After making the game, film the video and upload it to YouTube.

4. Result

Result: 2022 Overtail Game Jam Software Dean’s Excellence Award (3rd place)

Announcement video : https://youtu.be/uRoRvXMdkAk

1. Explain of the contest

It is a contest to present ideas about what Hanyang University ERICA needs.

2. Introduction of team members

Leader: Junsu Song (ME)

Team members: Jin Taewon, Kim Minje, Yang Heejun

3. Process

Our team presented the problem of Hanyang University application and conducted a survey accordingly.

We proceeded with the preparation step for designing the optimal application.

• Current status of application contracts with univ

• Investigate what students need

• Research the optimal GUI by examining various universities

The final GUI designed by our team Website used

4. Result

We won the Excellence Award ~!

1. Motivation

The start-up club was started under the guidance of Professor Kim Young-hyun.

Until February, the team members steadily presented their ideas once a week and selected the best start-up idea among them.

After that, I presented my idea to Hanyang University’s start-up education center and I was able to receive support as a start-up club.

I decided to participate in the contest and get the team’s ideas evaluated.

2. Introduction of team members

Leader: Junsu Song (ME)

Team members: Kim Sang Hoon, Kim Dong Gu, Kim Sung Mok, Roh Tae Hyun, Park Seung Min, Park Jae Hyuk

3. Process

4. Result

1. Explain of the contest

2. Introduction of team members

Leader: Junsu Song (ME)

Team members: Kangseok Kim, Seoungmin Park

3. Process

4. Result

The Idea Task of Photoelectronic Creation

• Project1: A robot that acts according to the path of various situations.
• Project2 : Making robots necessary for everyday life.

Project1

If you want to see Video, please click the link and refer to ideal.mp4!

Project2

Reason for creation: As more people go to eat alone, there will be more tables for one person

If you raise the stick, it moves the object to the right color.

1. Introduction of team members

Team members : Kangseok Kim , Choi Ilgyu

2. Process

I made a project through Python. Put the values measured by the semiconductor device into the project.

The project is designed to automatically create graphs as shown in the picture below.