Selected Works 2018-2022
Sun
Jiapan(Jasper)
Jiapan(Jasper) Sun
Personal Info
Birth:04/07/1999
Nationality:Chinese
Email:
Phone: archpanda@126.com
+8618625772532
Adress:Zhengzhou
Language:
Chinese(Native)
English(Fluent)
Russian(Basic)
Hobbies
Football Arrangement
Education
Sept 2018 - Jul 2023
The North China University of Water Resources and Electric Power Bachelor Degree of Architecture
5 years-undergraduate program
Experience
Jul 2021 - Sept 2021 / Dec 2021 - Feb 2022 / Jun 2022 - Sept 2022
Archi-Union & Fab-Union Assistant Architect & Digital Design Engineer
Workshops
Jun 2021 - jul 2021
''Digital Futures'' Shanghai Summer Workshop 2021 Intellgent Form Studio(Member)
Jun 2022 - jul 2022
''Digital Futures'' Shanghai Summer Workshop 2022 Voxel Metaverse Exhibition Space Design(Teaching Assistant)
Major Awards
Jun 2022
First prize of Scientific and Technological Achievements in Henan Province
Oct 2021
Second prize of BIM Competition in Henan Province
Paper
"Technology Exploration of Autonomous Construction Based on UAV + Composite Fiber Structure."
Science and Technology Innovation and Application 12.31(2022)
Software Skills
Modeling:Rhino(Grasshopper)/AutoCAD/Revit/Blender/SketchUp Scripting:C#(GH)/Python/ROS
Graphic Design:AutoCAD/InDesign/Illustrator/PhotoShop
Animation:Premiere/After Effect/UE4/Houdini
City Food Market
Student Work
NCWU Core Studio(16 Week Personal Work)
FAB-UAV Workflow
Individual Research
Achievements: One paper Reshaping Tradition
Team Work
Achievements: Excellence Award of Henan Construction Festival
'Worksnow' Series
Internship Program
Contribution:From Concept to Construction
'Glory' Archway
Internship Program
Contribution:From Concept to Construction
Reconstruct the Forth Bridge
Intellgent Form Studio
Contribution:From Concept to Drawing
01 02 03 04 05 06
Instructor: Yimeng
01
Food Food Market
(
City
Design Human Touch and 2022 Individual NCWU Core Studio
16
Food Market Design Oriented to The and Efficient Service
Individual Design
16 Week Personal Work)
Yimeng Zhang(NCWU)
01
Original Markets
In the Chinese countryside, at festivals, merchants from various villages will organise themselves to gather at a certain place. It is a very free market where the merchants will work hard to sell their stuff and people will approach the merchants first and then the goods. Such markets are chaotic, but one can feel a strong sense of human touch
Urban Markets
People's lives are very busy in China's cities and in order to match this pace of life, urban food markets are usually very well planned with a simple and efficient flow. People touch the goods first in urban food markets, while the merchants stand behind the goods and provide additional services to the customers. This type of food market is very efficient but lacks a human touch
Internet Markets
With the development of the internet, young people are very fond of buying food online. Many e-commerce companies will have a large warehouse supermarket and many delivery men who will simply place an order online and the delivery man will deliver the food to your home. It is very convenient to buy food in this model, but the merchants disappear completely into virtual information without any human touch
Community Markets
I have thought about what kind of market is needed in China's cities in this day and age, and I want it to be a very convenient, efficient and humane place that serves the community. The traders and the food are independent of each other, the traders can express their own values, and mechanical rails can distribute the food from the warehouse to the shelves and the takeaways. This is a place where people can not only buy food but also taste it and enjoy the community service.
"The Human Touch" "Efficient" "Convenient"
Site Plan 1:1000 0 10 20 50 100 An Shan Road An Shan Road Takeaway parking spaces Bicycle parking spaces Secondary entrance Secondary entrance Main entrance Ground floor garage entrance Ground floor garage exit Fu Shun Road Fu Shun Road 16.5m 16.5m 14.5m 6.6m 9.9m 9.9m 16.5m 16.5m 16.5m 16.5m 16.5m 16.5m 6.6m 6.6m 6.6m 3.3m 3.3m 3.3m 3.3m 6.6m 19.8m 19.8m 16.5m N
DINING AREA
DINING AREA DINING AREA
DINING AREA
DINING AREA
WAT E RBAR BOILED STIR-FRIED BARBECUE BAKED HANDMADE FRIED STEAMED
DINING AREA DINING AREA
DINING AREA DINING AREA
FRUITS PRODUCTS
SEAFOOD PRODUCTS
DINING AREA
G R A I SN STCUDORP G SNIAR L I B R A R Y S T A E M M U I S A N M G TS C U D O R P S T A E M
ON I T I B I H XE EGETABLESPRODUCTS V Customer Flow Line Food Flow Lines
VEGETABLES
WAREHOUSE WAREHOUSE WAREHOUSE WAREHOUSE SEAFOOD O F F I C E
FRUITS
Library Gmnasium
Office
Homemade
Waterbar
Steamed
Boiled
Fruits
Vegetables
Conveyor Office
Exhibition Baked
Stir-fried
Barbecue
Seafood
Meats
Grains
Goods shelf
Customer Flow Line
Food Flow Lines
1 2 4 5 6 7 8 9 10 11 12 13 14 15 16 3 1 1 A A B C D E F G H J B C D E F G H J 2 3 4 5 6 7 2 3 4 5 6 7 Ground Floor Plan 1:400 WAREHOUSE MARKET CANTEEN PUBLIC N
1. Entrance
2. Unloading area
3. Exit
4. Conveyor belts
5. Inspection area
6. Ambient storage area
7. Refrigerated storage area
8. Packing area
8070 8370 8100 8100 8100 8100 8100 8100 7400 64370 8100 8100 8100 44290 3790 8100 8100 11360 8070 8020 8020 69250 8020 8020 8020 9720 8070 8070 14720 55170 8120 8120 A A
9. Packaged temporary storage 10. Vertical transport area
11.
Elevator
12.
Toilet
13.
Office
14.
Meeting Room
15.
Grocery Room
16.
Stairwell
2 3 4 5 6 5 4 3 2 1 1 First Floor Plan 1:400 1 1 A A B C D E F G H J B C D E F G H J 2 3 4 5 6 7 2 3 4 5 6 7 4 3 5 6 7 8 9 10 11 12 14 15 16 16 16 13 13 13 13 16 11 3 3 2 1 1 2 WAREHOUSE MARKET CANTEEN PUBLIC N 8070 8370 8100 8100 8100 8100 8100 8100 7400 64370 8100 8100 8100 44290 3790 8100 8100 11360 8070 8020 8020 69250 8020 8020 8020 9720 8070 8070 14720 55170 8120 8120
1. Main entrance
2. Secondary entrance
3. Stairwell
4. Main stair
5. Toilet
6. Vertical transport area
7. Grain area
8. Meat area
9. Seafood area
10. Vegetable area
11. Fruit area
12. Cashier area
13. Temporary warehouses
14. Takeaway warehouses
15. Takeaway entrance
A A
16.Merchant's operating rooms
2 3 4 3 5 6 7 8 9 10 11 12 13 14 14 14 14 14 14 14 14 14 1 Second Floor Plan 1:400 1 1 A A B C D E F G H J B C D E F G H J 2 3 4 5 6 7 2 3 4 5 6 7 A A WAREHOUSE MARKET CANTEEN PUBLIC N
1. Elevator
2. Main stair
3. Stairwell
4. Toilet
5. Vertical transport area
6. Handmade
7. Baked
8. Stir-fried
8070 8370 8100 8100 8100 8100 8100 8100 7400 64370 8100 8100 8100 44290 3790 8100 8100 11360 8070 8020 8020 69250 8020 8020 8020 9720 8070 8070 14720 55170 8120 8120
9. Fried
10.
Barbecue 11. Boiled 12. Steamed 13. Waterbar 14. Dining areas
1 1 A A B C D E F G H J B C D E F G H J 2 3 4 5 6 7 2 3 4 5 6 7 5 6 6 8 9 10 11 13 12 14 15 7 7 2 3 4 3 1 Third Floor Plan 1:400 WAREHOUSE MARKET CANTEEN PUBLIC N
1. Elevator
2. Main stair
3. Stairwell
4. Toilet
5. Library
6. Shared offices
7. Shared meeting rooms
8. Lecture
9. Exhibitions
10. Gymnasium
11. Dynamic cycling room
12. Yoga Studio
13. Offices
14. Changing rooms
8070 8370 8100 8100 8100 8100 8100 8100 7400 64370 8100 8100 8100 44290 3790 8100 8100 11360 8070 8020 8020 69250 8020 8020 8020 9720 8070 8070 14720 55170 8120 8120 A A
15. Balcony
Efficiency is very important in urban food markets. The efficient transmission system composed of unmanned intelligent warehouse and track can transport all kinds of goods in the warehouse to the sales area, takeaway area and kitchen, and people can feel that they are in a modern and efficient place
Efficient delivery systems are ubiquitous in the food market. This system not only connects various areas , but also makes the market more advanced, which can improve the efficiency and profit of merchants.
Efficient Transmission System
A Place With A Human Touch
Human touch is the unique style of the food market, and the food and merchants themselves are unique exhibits. People can feel a strong sense of human touch in the free market plane. Not only can they see the performance of the merchants handling the ingredients, but they can also hear the cries of the merchants.
The human touch makes this place lively, and the huge flow of people will bring huge economic benefits to the market. The future food market will transform into a place for experience and communication.
FAB-UAV -UAV PATH & AUTONOMOUS
2021-2022
Individual
Instructor: Zhe Guo(HFUT)
Achievements: One paper: Autonomous Fabrication Based Fiber Structure"
02
Workflow
PATH PLANNING
AUTONOMOUS FABRICATION
Individual Research
Guo(HFUT) Yimeng Zhang(NCWU) "Technical Exploration of Based on UAV + Composite Structure"
02
Workflow Diagram of UAV System
Data Resources D E S I G N E R J U D G M E N T H A N D L I N G U A V Data Transmission WORKSTATION FEEDBACK Positioning System Windows Subsystem for Linux Rhino3D NOKOV UE4 QGC CPYTHON Secure Shell NOKOV Motion Capture Data Detection Data QGC 2D Data UE4 3D Data XYZ coordinates 6Dof Yaw Roll Pitch Battery Power Raspberry Data Switchboard Internet Protocol Version4 GH Interface 1 2 3 4 5 6 QGC Data
D A T A I N T E R F A C E F A B R I C A T I O N E X E C U T I O N E F F E C T O R T R A N S M I S S I O N Data Control System Robtic-End Effector CONTROLLER POSTIONING SIMULATION FEEDBACK SIMLATION Execution Results System Virtual Simulation System Linux ArduPilot SITL Simulator Unreal Engine 4 AirSim Capture Device coordinates Onboard Devices 3D Printing Bricklaying Intertwine Air Cruise DJI F450 WIFI Dronkit MAVLINK Dynamical System Pixhawk 2.4.8 5G Pi 4B 7 8 Environmental Simulation Weather Scene Equipment Air Speerd Atmosphere Data Detection UAV Speed UAV Altitude UAV Coordinates Battery Capacity Air route
Framework Diagram of DIY UAV
Elements Diagram
Drone Disassembly Diagram
Positioning Mark
Position Control System
i.Receiver
d.Pixhawk
Position
Designer
The DIY UAV is mainly composed of five parts: electrical power system, data processing system , position control system , dynamical System, and onboard devices
The power system provides energy for other systems; the designer sends the data to the data processing system, which will send data to the position control system and onboard devices after processing; the position control system will analyze the data to control the dynamical system to move; the onboard devices work after arriving at the target location.
g.F450 Rack
k.Buzzer
Electrical Power System
j.GALV
f.YKS Power
a c e f g d b
Fabrication
System UAV E N D C O R E Onboard Devices Data Processing System Data
n.Marker Dynamical
Control
System
Electrical Power System
a.Motor*4
b.Airscrew*4
i.Receiver
j.GALV
c.Raspberry Pi k.Buzzer
d.Pixhawk l.Fixedplate*2
e.Shim m.Baseplate
f.YKS Power n.Marker*6
g.F450 Rack o.Toolhead
h.Rc Esc*4
Core Circuit Diagram
p.Engine
Data Processing System
c.Raspberry Pi
WiFi Receiver
Dynamical System
b.Airscrew
a.Motor
h.Rc Esc
Onboard Devices
p.Engine
o.Toolhead
Legend h l m n o p j i k
Virtual Simulation Experiment
Practice Virtual Simulation System Planning Route
Unmanned Aerial Vehicle Data Send
Designer
In the winding experiment, the UAV has three flying states:
1. Hovering state (the UAV maintains the current position and retracts the wire wheel to keep the wire in a straight state);
2.Turning state (the UAV rotates to let the wire wind on the shelf );
3.Moving state (the movement of the drone ensures that the wire wheel can exit the line smoothly).
Four different flight trajectories:
1. Take-off phase ; 2. Circular winding phase ; 3. Spiral winding phase; 4.Landing phase
The above process will be verified in the virtual simulation experiment according to the pre-planned path.
Establishment of Experimental Environment
Take-off Stage
Cyclic Winding Stage
Spiral Winding Stage
Landing Stage
The take-off stage is to let the UAV take off vertically and leave the take-off and landing area and hover to check whether the control of the UAV is smooth, then turn and move to the experimental area; In the middle, the UAV will turn around several times to ensure that the wire wheel does not get stuck and the wire can go out normally, so that the wire can be wound on the shelf to form a cube with a sense of volume; during the spiral winding stage, the UAV will move and turn in a spiral, wind the wire body and place it Shrink, and finally the UAV completes the flight mission, leaves the work area and returns to the take-off and landing area to hover. After stabilization, it lands vertically and turns off the motor.
Reel Take up Winding Wire Reel Thread Out Turning State Moving State
Hovering State
Whole Flight Process/Freeze Frames of the Movie [00:00] [05:40] [11:20] [16:26] [19:16] [22:06] [01:08] [06:48] [12:28] [17:00] [19:50] [22:40] [02:16] [07:56] [13:36] [17:34] [20:24] [23:14] [03:24] [09:04] [14:44] [18:08] [20:58] [23:48] [04:32] [10:12] [15:52] [18:42] [21:32] [24:22] [01] [06] [11] [16] [21] [26] [02] [07] [12] [17] [22] [27] [03] [08] [13] [18] [23] [28] [04] [09] [14] [19] [24] [29] [05] [10] [15] [20] [25] [30]
Robtic-End Effector Design
Working Principle of the Effector
A' Robtic-End Effector & Fabrication
Carbon Fiber Tight Pulley Electric Wire Electric Motor Carbon Fiber Raspberry Pi B'
RESHAPING RECONSTRUCTION
TRADIONAL TAIHU
2021Teamwork
Instructor: Yimeng Zhang(NCWU)Juepin
Role : Lead
Contribution: From Concept
Achievements: Excellence Award
03
TRADITION
RECONSTRUCTION EXPERIMENT OF TAIHU STONE
2021Teamwork
Zhang(NCWU)Juepin Hou(NCWU)
Lead Designer
Concept to Construction
Award of Henan Construction Festival
03
RESHAPING
STRUCTURE PRINCIPLE
Weaire–Phelan Structure
In geometry, the Weaire–Phelan structure is a three-dimensional structure representing an idealised foam of equal-sized bubbles, with two different shapes. In 1993, Denis Weaire and Robert Phelan found that this structure was a better solution of the Kelvin problem of tiling space by equal volume cells of minimum surface area than the previous best-known solution, the Kelvin structure.One is a Pyritohedron, the second is a form of Truncated hexagonal trapezohedron.
Pyritohedron
An irregular dodecahedron with pentagonal faces, possessing tetrahedral symmetry.
Truncated Hexagonavl Trapezohedron
A species of tetrakaidecahedron with two hexagonal and twelve pentagonal faces.
a a` b b` c a a` b b` c c` c` Minimum Component Element
CONCEPT DESIGN
STEP 1 Minimum Surface Form Finding
STEP 2 Distance Algorithm
Generated minimal surface Optimized minimal surface Shrink to the specified size Modify parameter shape finding 3.5 4.5 5.5 6.5 7.5 Fill the Weaire–Phelan structure Distance Algorithm Interstitial Texture Dot Matrix Form Finding Point Of Determinacy Location
STEP 3 Behavior-based Shape Optimization
Taking into account the scope of the action space, reduce the body blocking the space.
Considering the scope of vision, reduce the form that blocks the space.
STEP 4 Skin Design
Skin Design Concept
When Chinese people talk about nature, "mountain" and "water" must appear at the same time.In Chinese gardens, Taihu stones and pond water systems are often used to express the landscape and reflect the harmony of yin and yang that is both rigid and soft.So, we expressed this idea through different ways of opening holes.
The first classification of different surfaces
The first type of epidermis is formed
The second classification of different surfaces
The second type of epidermis is formed
The third type of epidermis is formed
Based on the irregular shape of Taihu stone, we designed the skin of the building. There are three forms of basal epidermis. Through the combination of holes of different sizes on the skin of a single sphere, echoing the skin of Taihu stone.
Scale×0.7 Scale×0.5 Scale×0.3 Vertices Vertices Vertices Curve Curve Curve Boundary Boundary Boundary Iine Area Area Area
Epidermal type1 Epidermal type2 Epidermal type3
Construction Process
We selected a 5mm thick plastic hollow sheet for machining, laser engraving and hand cutting to get the expansion plane, and then punched and braided the fabrication unit by using strapping rope. After the completion of the unit, we began the formal establishment. Attach units with bolts and nuts. This is the way we build the device.
Laser Cutting Hollow Plate
Attach Units With Bolts And Nuts
Bind With Strapping Tape
Design the Process of Construction
Placing the Base
Upward Connection
Placement of Standoffs
Top Connection
Local Connection
Forming
Construction Photos
After putting this installation on the public green space, we found that different groups of people interact with this installation differently and produce different behaviors. This is basically the same as the phenomenon that people have different behaviors in the space formed by Taihu Rock. We think This experiment was successful.
2022 Internship Program
Archi-Union/Fab-Union(Built)
Architect:Phillip Yuan/Tao Yu/Jiapan Sun(Intern)
Role:Detailed design
Contribution:From Concept to Construction
04.'Worksnow' Series
Working setup is becoming discrete and remote
Setting
Scenarios
Future office needs to match multiple scenarios
Subject Media
Cyber Space Human
WORKSNOW is a product series that redefines the work setup. It was designed to be a smart room that can be flexible placed in common public area with complete office tool kit.
It can be configured in office buildings, shopping malls, outdoor parks and other daily scenarios. As a discrete shared office, it has become a small space carrier that can be flexibly laid out. In a lighter and more convenient way, diverse working needs in different scenes can be fulfilled.
Cyberspace acts as interfaces in scenarios, provides the possibility of information exchange
54 空调
1. Transparent arcylic
2. Solid wood panel
3. Hyperbolic wood panel
4. Solid wood floor
5. Painted stainless steel
6. Cover plate
7. Curved stainless steel plate
8. 3D printed surface
9. Steel plate
10. Carpet
11. Top decoration
Interior Plan
Roof Plan
Roof Plan
Interior Plan
1. Transparent arcylic
2. Solid wood panel
3.Hyperbolic wood panel
4.Solid wood floor
5.Painted stainless steel
6.Cover plate
7.Curved stainless steel
8.3D printed surface
9.Steel plate
10.Carpet
11.Top decoration
55 55 55 55
7.Curved
10.Carpet
Sturcture
57 57 57 57 57 57
1. Transparent arcylic
2. Solid wood panel
3.Hyperbolic wood panel
4.Solid wood floor
5.Painted stainless steel
6.Cover plate
stainless steel
8.3D printed surface
9.Steel plate
2022 Internship Program
Fab-Union
Architect:Tao Yu/Jiapan Sun(Intern)
Role:Detailed design
Contribution:From Concept to Construction
05.'Glory' Archway
Voxelization Prototype
Optimized Design
Spatial Printing Product
Components 'Glory' Archway
The 'Glory' archway project uses the lattice voxel method to translate and deepen, and on the basis of fitting the original China Archway, add wings that can bring a strong sense of halo, implying "wings of light".
The vertical space occupied by the installation makes it an excellent light and shadow carrier, capable of receiving and interpreting various lighting and image projections, making it an ideal art promotion and media platform, and the core highlight of Xujiahui Academy.
The model is obtained by 3D scanning the components of the archway prototype.
Assemble components on site and adjust lighting.
Decomposed into individual blocks to generate 3D printing paths.
Tou Se-We Archway
A.Path_01 C.Path_03 B.Path_02 D.Path_04 Kuka|prc Grasshopper 3D Scanning Mesh Data 3D Printed Grids Paths KUKA Robot Language D C B A
6200 2490 200 200
1.3D printed grids
2.3D printed foundation
3.Activity steps
4.50*50 Steel
5.150*150 Steel
6.Expansion screw
7.Stone facing
8.Stone binder
9.Cement board
10.Hipboard
1 3 1 2 3 1 2 4 5 6 Insatllation Plan Insatllation Elevation 5650 450 50 5200 50 50 400 375 255 80 990 990 255 255 5650 450 50 5200 990 990 255 255 5200 450 5650 200 200 5800 4 10 9 8 7 7 11
11.Structural floor
Provide
Supplementary Ambient Light
Accent Lighting
06.Reconstruct the Forth Bridge
''Digital Future'' Shanghai Summer Workshop 2021 Intellgent Form Studio
Instructor:Mike Xie(RMIT)/Nic Bao(RMIT)/Jianan Peng(CSCEC)
Collaborator:Yuan Lian(QUT)/Zecheng Yin(Tongji)
Contribution:From Concept to Drawing
The Forth Bridge is an elegant cantile-ver bridge with a very long span achievedby structured truss frame, our design is toreconstruct and optimize it in a topologicalway to achiveve a more reasonable structureand free form.
The bridge is divided into 6main parts and they are optimized seperatelybased on different load situation. Use AMEBA for topology optimization design to find the optimal stress path to ensure structural material reduction without loss of support performance. And explore a new form with the beauty of structural mechanics.
Mechanical Analysis Prototype Superimposed Load Final Result Draw diagram of components for 2D force analysis. Upload Ameba to generate an optimized model. Provides a reference for superimposing the correct load on the 3D model.
2D Topology Optinizatiom
3D Topology Optinizatiom
The Forth Bridge Post-processing
Original Form
Step 06/60
Step 12/60
Step 24/60
Step 36/60
Step 50/60
Step 18/60
Step 30/60
Step 42/60
Step 60/60
Structure Analysis
Jiapan(Jasper) Sun Selected Works 2018-2022