Dr Jianglin Huang

F I T Process Modelling Theme Lead

Advanced Forming Research Centre

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Publications

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Publications

Numerical and experimental investigation of deformation characteristics during high-frequency radial forging of AA7075: Tamimi Saeed, Huang Jianglin; Proceedings of the 14th International Conference on the Technology of Plasticity - Current Trends in the Technology of Plasticity 14th International Conference on the Technology of Plasticity, pp. 72-79 (2023); https://doi.org/10.1007/978-3-031-41023-9_8
Microstructure evolution during hot deformation of REX734 austenitic stainless steel: Kulakov Mykola, Huang Jianglin, Ntovas Michail, Moturu Shanmukha; Metallurgical and Materials Transactions A Vol 51, pp. 845-854 (2020); https://doi.org/10.1007/s11661-019-05558-6
Simulation of casting filling process using the lattice Boltzmann method: Zhang Y J, Qian X W, Zhou J X, Yin Y J, Shen X, Ji X Y, Huang J L; IOP Conference Series: Materials Science and Engineering Vol 529 (2019); https://doi.org/10.1088/1757-899X/529/1/012061
A dynamic model for simulation of hot radial forging process: Huang Jianglin, Slater Carl D, Mandral Anup, Blackwell Paul; Procedia Engineering Vol 207, pp. 478-483 (2017); https://doi.org/10.1016/j.proeng.2017.10.808
Effects of forming route and heat treatment on the distortion behaviour of case-hardened martensitic steel type S156: Easton David, Perez Marcos, Huang Jianglin, Rahimi Salah; Heat Treat 2017 (2017)
Curvature control in radial-axial ring rolling: Arthington Matthew R, Cleaver Christopher J, Huang Jianglin, Duncan Stephen R; 17th IFAC Symposium on Control, Optimization and Automation in Mining, Mineral and Metal Processing, pp. 244-249 (2016); https://doi.org/10.1016/j.ifacol.2016.10.128

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Research

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Projects

CORE_06601_Heating Tech: Andreu, Aurik (Principal Investigator) Chalkley, Eleanor (Co-investigator) Huang, Jianglin (Co-investigator); Furnace Efficiency
The work of CORE 06223 focused on tools for assessing and modelling the energy usage and efficiency of heating processes based around the AFRC’s CMI gas furnace. WP3 and WP4 in this project expands the scope of these tools and preparations for assessments to the gas and electrical furnaces that are part of the FutureForge cell.
The characteristics of heating processes in the FutureForge furnaces are to be measured and used to validate existing models. The archive of experimental data from previous years of CORE projects was used to produce a fast analytical model of the CMI gas furnace and develop a tool for calculating the energy balance across multiple modes of use. In order to be able to assess the relative merits of the gas and electrical furnaces, building and analysing a furnace data archive and exploring the parameter space of each furnace to produce effective models will be required.
Life Cycle Assessment (LCA) and carbon accounting processes are likely to be of increasing regulatory and financial importance and so setting up to be rigorous and accurate in these calculations is vital.

Induction Hardening
This project will focus on the simulation of induction heating / hardening process of a crankshaft by applying the knowledge and expertise developed in previous CORD projects sponsored by BIFRANGI (i.e., CORD 1137, CORD 1444, CORD 1844 and CORECORD 06093 projects) on induction heating modelling and temperature measurement improvement.
Following discussions with Bifrangi, due to the complexity of the induction hardening of crankshafts and due to technical capability of the available software, we have decided to use Transvalor Forge for this project.
We propose to apply the developed induction heating process model for simulating induction heating / hardening process carried out at BIFRANGI. By simulating the induction hardening process and comparing the simulation results with experimental results from induction hardened samples, the developed induction heating process model can be further improved and verified. We are planning to carry out numerical sensitivity study/calibration of key parameters (current density, frequency, heating time / exposure, speed, distance coil/part) in the 3D FEM model and also as indicated by Bifrangi, investigate an interesting feature of this induction hardening process, i.e., the modulation of the power during each rotation of the part to stop parts of the crank melting or cracking. The improved maturity of modelling capabilities of the induction heating process should provide valuable information for industrial process design and optimisation.
Following the rescoping exercise due to the unavailability of the FF furnaces, we have a added an additional Workpackage to evaluate the new version Deform V14.0 for the rack bar induction hardening (focusing on rack side).
Completion of this work package will allow us to check if the new functionalities of Deform are working as expected. These functionalities could prove very valuable to model efficiently and more easily dynamic induction hardening process and will place Deform together with Transvalor Forge as a software of choice for this type of process. It is also a very good way to continue collaboration with Wilde Analysis and developers to improve Deform software and performance.; 18-Jan-2023 - 15-Jan-2024
AFRC_CORD_06093_Bifrangi Simulation of Induction heating / hardening process: Andreu, Aurik (Principal Investigator) Huang, Jianglin (Co-investigator); This project will focus on the simulation of the induction heating / hardening process by applying the knowledge and expertise developed in previous CORD projects sponsored by BIFRANGI (CORD 1137, CORD 1444 and CORD 1844 projects) on induction heating modelling and temperature measurement improvement.
In previous projects, the standard and best practice on modelling of induction heating process has been established and the induction heating process model has been verified using lab-scale induction heating trials without billet movement. In this year’s CORD 1844 project, a 3D FEM model has been developed in DEFORM and used to investigate the effect of billet shape, size and offset in BIFRANGI’s induction heating line. An attempt has been made to scale up a 3D FEM model with moving billets to simulate the full BIFRANGI induction heating line with a length of 18 meters using 3 coils and cyclic operation. However, due to some technical issues (difficulty to simulate the full billet and line length, current measurement of the induction heating line (still planned for this year), and internal temperature data), there is still limited experimental data for process model verification.
We propose to apply the developed induction heating process model for simulating induction heating / hardening process carried out at BIFRANGI. By simulating the induction hardening process and comparing the simulation results with experimental results from induction hardened samples, the developed induction heating process model can be further improved and verified. The improved maturity of modelling capabilities of the induction heating process will provide value information for industrial process design and optimisation.
Additionally, following discussions with the Transvalor team and Bifrangi, it was decided to that we will also try out the Transvalor software suite Forge / Simheat to model this induction heating / hardening process. This will include an advanced training on Forge in relation to the induction heating / hardening modelling. This will allow us to compare simulation results with experimental trials and make sure both models in DEFORM and Transvalor are reliable and assess each set of software capabilities related to the induction heating/hardening process.; 01-Jan-2022 - 01-Jan-2023
AFRC_CORD_1844_BIFRANGI - INDUSTRIAL INDUCTION HEATING SIMULATION – YEAR 3: Andreu, Aurik (Principal Investigator) Huang, Jianglin (Co-investigator); This project is a continuation of AFRC CORD 1137 and CORD 1444 projects on induction heating modelling and temperature measurement improvement sponsored by BIFRANGI.
Important progress has been made over the last year in term of modelling in both 2D/3D FEM (Finite Element Method) / BEM (Boundary Element Method). Although a good agreement between the 2D FEM simulation results with laboratory trial results has been reached, several issues were encountered with the DEFORM software as well as significant inconsistencies in the simulation results, especially in the 3D FEM model, which is required to investigate the billet offset effect in BIFRANGI’s induction heating line. Moreover, limited experimental trials were carried out due to the COVID 19 situation.
The above-mentioned technical issues in induction heating modelling were reported to WILDE and the developers and it is hoped they will be resolved in a future software update. At the same time, we are planning to resolve the issues and verify the reliability of the induction heating simulation using an alternative software: SIMUFACT / MARC (Tier 2 members). This will allow the comparison of simulation results obtained with the two software packages and experimental data, especially on 3D FEM modelling.
Additionally to the modelling work, we would like to work on the development of an inline scale removal system (with an external partner) and implementation in the actual induction heating line at BIFRANGI site. This should allow to obtain more accurate in process temperature measurement with pyrometer / Thermal camera, which will provide valuable information for industrial process model validation.; 21-Jan-2021 - 30-Jan-2023
FutureForge strategic programme: Perez, Marcos (Principal Investigator) Bylya, Olga (Fellow) Reshetov, Aleksey (Research Co-investigator) McDonach, Alaster (Fellow) Khatuntseva, Anastasia (Researcher) Andreu, Aurik (Fellow) Fleming, Christopher (Fellow) Chalkley, Eleanor (Fellow) Falsafi, Javad (Principal Investigator) Huang, Jianglin (Fellow) Rosochowska, Malgorzata (Fellow) Khismatullin, Timur (Researcher) Liang, Sha (Researcher) Millar, Richard (Researcher); Aiming to further develop fundamental understanding in key areas related to closed die, open die and isothermal forging, and exploring promising new capabilities, such as process instrumentation & data control and lubrication & coatings for hot forging at high temperatures; 01-Jan-2019 - 31-Jan-2020
AFRC_CORD_1137_Induction Heating: Andreu, Aurik (Principal Investigator) Huang, Jianglin (Co-investigator) Chalkley, Eleanor (Co-investigator); Induction heating (IH) is used in many applications such as: surface hardening, pre-heating for forging/forming, assembly processes, metal/alloy fusion, etc. The primary attraction of this technology is that it offers relatively fast heating rates and due to its direct nature there is little loss of energy in raising the temperature of refractories or other extraneous objects. Thus, if it is applicable it represents an extremely cost effective method of heating. Moreover, advances in key technologies, i.e. power electronics, control techniques, and magnetic component design, have allowed the development of highly reliable and cost-effective systems, making this technology readily available and ubiquitous.

Although IH systems have reached certain maturity, there are still some issues to address to further increase its performance and a number of challenges, notably in its application to non-axisymmetric geometries and it controlling the temperature gradient in the workpiece.

This proposal focuses on examining the capability of commercial software to simulate this process and then developing a validated model. A proposed secondary area for research is the measurement of temperature during IH, particularly on scaled surfaces to deliver improved yield and reduced wastage.

The AFRC’s proposed approach to this project is described below in a series of individual work packages. Depending on member agreement the AFRC may seek an industrial IH supplier to partner on this project – examples might include Ajax Tocco, Inductelec (Sheffield), or Inductotherm (Cheltenham). For coil design the AFRC already has contacts with Induction Coil Solutions with whom it has worked in the past.

It is recognised that elements of this project may require the AFRC project team to liaise with colleagues in the Electrical and Electronic Engineering Department for support in carrying out measurements during trials and for possible simulation of circuit dynamics.; 11-Jan-2018 - 31-Jan-2019
FutureForge - Validation geometry: Perez, Marcos (Principal Investigator) Bylya, Olga (Fellow) Easton, David (Fellow) Reshetov, Aleksey (Research Co-investigator) Ntovas, Michail (Researcher) Fabris, Mathieu (Researcher) Falsafi, Javad (Researcher) Huang, Jianglin (Fellow) Rosochowska, Malgorzata (Fellow) Chalkley, Eleanor (Fellow); Develop fundamental understanding in key areas related related to open, close-die and isothermal forging, exploring promising new capabilities, such as ultrasonic non-destructive characterisation and process instrumentation and data control.; 21-Jan-2018 - 31-Jan-2019