Work Sample 2021 by congqi wang

Architecture Work Sample

Congqi Wang

https://issuu.com/congqiwang06181996/docs/2020_portfolio_to_issue

Congqi Wang Email: congqiwang@alumni.upenn.edu Tel: 267-881-7659

Education 08.2019-12.2020

09.2014-06.2019

University of Pennsylvania Philadelphia, US Master of Science in Design-Environmental Building Design Central South University Changsha, China Bachelor of Architecture *GPA:3.82/4.0

09.2020-Present

Carl Massara Architect. LLC -Assistant Architecture Designer -Philadelphia, US

Professional Experience

06.2020-08.2020

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Plan drawing for urban residential apartment project;

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Plan and Facade drawing for housing projects in AutoCAD;

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Physical Model Fabrication for residential projects;

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3D Digital Model built in Rhino and interior render for residential projects.

Robert Cohen Architect. LLC- Architectural Internship

-Westport, US

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Energy Performance Simulation for office and residential projects;

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Daylight simulation and data visualization for the proposed concept design;

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Assist with the development of building simulation computer models of a building product that saves energy at windows. And assist in developing models that could reduce solar radiation at a window using the PTDH concept;

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Assistance in cost analysis for the product based on energy savings and calculation of ROI;

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Develop the final presentation of the simulation model and a shadow simulation video.

ͳͳǤʹͲͳͺǦͲʹǤʹͲͳͻ Ǥǡ Internship- Shanghai, China 

Plan drawing of high-rise residential buildings;

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Render of residential projects.

Ͳ͸ǤʹͲͳ͹ǦͲͺǤʹͲͳ͹

Internship- Changsha, China

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Surveying and Mapping Practice of Ancient Buildings in Historic Village

Design Competition Ͳ͹ǤʹͲͳ͹

Finalist -Project: Rural Living Room

ͳʹǤʹͲͳ͸ Ƭ ȋ Ƭ Ȍ

-Project: Rural Architecture in UA City

Proficiency

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LinkedIn: https://www.linkedin.com/in/congqi-wang-1424011a0/

Email: congqiwang@alumni.upenn.edu

Cloud Cover

Temperature

Solar Radiation

Humidity

[Flowable surface] Climate-adaptive Design for the Data Center of the Future Academic Project: Future Data Center Design Detroit City Climate Research: Group work with Xuezhu Sun, Xuehan Zhang Data Center Design:Individual Work

Studio Coordinator: Dorit Aviv Instructors: Zherui Wang, Kit Elsworth, Kian Wee Chen Spring 2020 Design Studio Model: Rhino/ Grasshopper Cliamte Data Visualization: GIS/ Grasshopper/CFD Render: Vray for Rhino

Email: congqiwang@alumni.upenn.edu

Site Analysis

Email: congqiwang@alumni.upenn.edu

CFD is applied to a wide range of research and engineering problems in many fields of study and industries, including aerodynamics and aerospace analysis, weather simulation, natural science and environmental engineering, indu engine and combustion analysis. In this research, we use CFD to simulate the wind condition in downtown Detroit. The direction of the arrows represent the wind direction in downtown Detroit. The length of the arrows represent the the wind pass through the gap between buildings. So we can use the shape or the envelop of the building to channel wind and use the wind pressure for cooling strategies. In the extremely cold Detroit winter, the wind comes from sout the climate of our site. Next we will think about how to make full use of the wind for passive cooling of the data center building.

In summer the wind mainly blows from the north-east and north. The average wind speed is 9m/s.

In spring the wind becomes a lot more humid. The wind mainly blows from west and northwest. The average wind speed is 7m/s.

ustrial system design and analysis, biological engineering, fluid flows and heat transfer, and e wind speed. From the above 3 season result, it can be seen the wind speed will change when thwest. From the analysis of the wind simulation result, we got a thorough understanding of

Email: congqiwang@alumni.upenn.edu

Interior Render of Data Center Server Space

Section and Programs:

Technology of Underground Heat Transformation:

Email: congqiwang@alumni.upenn.edu

Double-stack System for Surviving in a future of We Group work with Junjie Lu, Vidya Unnikrishnan, Navaz Bilimoria Fall 2020 Penndesign Arch754 - Performance Design Workshop Instructor: Jihun Kim Air Flow and Temperature or Radiant Temperature Simulation in Rhino CFD

Energy Flow Diagram with Chimney Effect in Summer

Energy Flow Diagram with Chimney Effect in Winter

Definition of Stack Effect Stack ventilation (also known as stack effect or chimney effect) creates airflow using the natural force that emerges from changes in air pressure, temperature, and density levels between corresponding internal and external environments. Chimney Effect is a useful design strategy in buildings that have greater depth, where cross ventilation may not be sufficient to penetrate to spaces in the center of the building. Stack ventilation is also feasibly for low-rise buildings that have a vertical volume where pressure differences can occur. Natural stack ventilation supplies and removes air from indoor spaces without the assistance of mechanical systems thus saving on a lot of cost induced by HVAC.

Combined Strategy with Underground Circulation System and Trombe Chimney

eather Extremity Summer

Fall

Winter

Energy Flow Diagram of Combined Strategy with Trombe Chimney and Underground System Velocity

Temperature

Velocity

Summer Simulation Result

Temperature

Winter Simulation Result

Future System Iteration1: Stack Ventilation+Geothermal system for Multi-Level Structure

Future Sysyem Iteration2: Double Stack Ventilation System

Winter Hypothesis

Summer Hypothesis

Email: congqiwang@alumni.upenn.edu

SIMULATION RESULT Extreme Hot

Stack Ventilation& Weather Extremity Extreme Cold

Temperature

Velocity

Radiant Temperature

Conclusion The combination of Geothermal and stack effect works for indoor temperature control. The ventilation overall is shown to be high, with barely any air re-circulating. This cond however, we may need to improve air exchange rate to 100% to be really effective in th For winter, while ventilation seems to be efficient, we need additional heating sources f Future studies: we could like to explore how we can better control velocity and tempera hurricanes, extreme winters, and of course, rising temperatures due to global warming.

Iteration1: Stack Ventilation+Geothermal system for Multi-Level Structure

Iteration2: Double Stack Ventilation System

Temperature

Summer Velocity

Velocity

Winter Velocity

Radiant Temperature

dition would help in curbing the virus spread, his aspect. for winter months. ature for extreme weather conditions such as g.

Winter Velocity with Fan

Email: congqiwang@alumni.upenn.edu

[Far Beyond The Bridge] Rural Activity Center Design in South Hunan

Phase 1:

Phase 2:

Phase 3:

Academic Project: Rural Activity Center Designed for Left-behind Groups Individual Work Location: Yongzhou, Hunan, China Tutor: Ming Luo, Weidong Li Date: 07, Apr.2017-09, Aug.2017

Email: congqiwang@alumni.upenn.edu

Basic Unit For Usual State

Basic Unit For Festival Celebration

Composite Unit For Left-behind Children

Composite Unit For The Bazaar

Composite Unit For Left-behind Elderly

Composite Unit For Traditional Opera Performance

Basic Unit For Busy Farming Season

Composite Unit For Parent-child Interaction

Composite Unit For Grain Storage

Wooden frame mortise an Composite Unit For Tourists

Composite Unit For The Clan Rally

Composite Unit For Harvest Festival

Plan

nd tenon joint

Email: congqiwang@alumni.upenn.edu

Phase 1 of Smart Facade

[Smart Facade in the future cities] Academic Project Group Work with Junjie Lu, Vidya

Instructor: Billie Faircloth Studio Fall 2020

The current trends with regarding facades are a phenomenon which deserves this separate chapter. For this reason, today we will discuss different dynamic facades as follows.We could say that in the last few years, an additional function has been added to the well-known aesthetic, waterproof and insulating (thermal and acoustic) facades’ functions, that is the minimization of energy consumption. This is not exactly a new function, but rather an extension of the previous. Either through passive shading and ventilation, or through complex dynamic systems, the need to control a building’s interior environment in order to reduce our reliance on air conditioning, heating systems or artificial lightning, has led to the development of the buildings’ exteriors, made possible by technology.

Phase 2 of

Smart Facade

Phase 3 of Smart Facade

Pre and Post Simulation of Solar Radiation

Radiation Analysis Philadelphia Jun.21st

Radiation Analysis Philadelphia Jan.1st 6:00-Dec.31st 18:00

Pre and Post Simulation of Visual Comfort

Email: congqiwang@alumni.upenn.edu

[Memory Restore]

Design of Aizhai Tourist Service Center

Individual Work Location: Jishou, Hunan, China Tutor: Mingjing Xie Date: 03, Mar.2019-06, Jun.2019

Email: congqiwang@alumni.upenn.edu

[INCOMPLETE WALLS] A House Designing for an Artist with a Cat and a Dog Academic work: Residential House Design Individual Work

Tutor: Ming Luo, Weidong Li Date: 03, Oct.2018-06, Dec.2018

Email: congqiwang@alumni.upenn.edu

Interior Render

Section

Email: congqiwang@alumni.upenn.edu

[ S PAC E D I V I D E D B Y A R C H STRUCTURE] Coffee Bar in Greater Philadelphia Competition: Coffeen Bar Design for Social Place Individual Work Location: Philadelphia, Pennsylvania, United States Tutor: Mingjing Xie, Ying Song Date: 07, May.2018-09, Aug.2018

Email: congqiwang@alumni.upenn.edu

[STATIC TORSION] Campus Shared Performance Theatre Design

Academic work: Campus Theatre Design Individual Work Tutor: Yu Wang, Weidong Li Date: 03, Mar.2018-06, Jun.2018

Email: congqiwang@alumni.upenn.edu

[Complementary work] Suspended Cable-arch Structure Team Work：Structural Selection Design 2016.06—2016.07/with He Jianing Leading Roll in Structure Design, Model Making

Suspended cable-arch structure is a load-bearing structure formed by flexible tension cable and its edge members. Rope material can be made of wire bundles, wire ropes, chains and other wire with good tensile properties. The arch at the centre lifts a net of cables extending outward, which consists of transverse load-bearing cables and longitudinal stabilisers. And the central arch is connected to the ground, so the load on the roof is partly carried by the central arch, and the other part is transmitted to the eaves on both sides by the cable network. The load is carried by the columns on both sides and dispersed to the ground. The advantage of suspended cable-arch structure is that it makes good use of the properties of metal materials. As the arch material used as the frame is metal, it can well withstand the transverse tensile force, so as to avoid the risk of being easily folded by shear force.

Email: congqiwang@alumni.upenn.edu

[Other work]01 Team Work:Youth Single Apartment Design with He Jianing Date: 14.Sep, 2017-10.Dec, 2017 Tutor: Yu Wang, Mingqiao Zhao

Email: congqiwang@alumni.upenn.edu

[Other work]02 THE RITTENHOUSE CONDOMINIUM Professional Project at Carl Massara Architect. LLC OCT2020 210 WEST RITTENHOUSE SQURE, UNIT2005-2006 PHILADELPHIA, PA 19103 Group Work with Jingyi Sun for contribution in the fabrication of physical model

Email: congqiwang@alumni.upenn.edu

[Other Work]03 Revit Skill Sample-Villa Savoye B

Top 9

Roof level 6

Floor Level 3

Ground level 0

Underground

Section

-3

Top 9

Roof level 6

Floor Level 3

193 / 1000

Ground level 0

Underground -3

East Elevation

Top 9

Roof level 6

Floor Level 3

Ground level 0

Underground -3

South Elevation

1st Floor Plan

D 193 / 1000

C DN

2nd Floor Plan

Email: congqiwang@alumni.upenn.edu