Multiple New Weapons Debut at the 9/3 Military Parade: A Look at the Advanced Polymers Behind Major National Armaments
On September 3rd, a ceremony commemorating the 80th anniversary of the victory in the Chinese People's War of Resistance Against Japanese Aggression and the World Anti-Fascist War will be held at Tiananmen Square in Beijing. A 70-minute military parade will be conducted, featuring 45 formations, including an aerial flag escort formation, a battle flag formation, an equipment formation, and an aerial formation, showcasing China's achievements in defense technology.

△Rehearsal site for the September 3rd military parade (Image source: CCTV)
According to the Ministry of National Defense press conference and reports from multiple media outlets, all the equipment in this parade consists of domestically produced, active-duty main battle weapons, many of which are being publicly displayed for the first time. The main highlights focus on unmanned combat units, information warfare units, hypersonic missiles, intelligent armored forces, and so on.
The following are some of the new types of equipment that may appear in this parade.
Hypersonic missile
Unmanned Systems / Counter-Unmanned Equipment
Strategic missile systems and air defense anti-missile systems
HQ-20 Air Defense Missile System
Domestic aircraft carrier "Fujian"
Y-20B large transport aircraft
Giant Underwater Unmanned Submersible



Triangle Nine Three military parade rehearsal site. (Image source: Phoenix Satellite TV)
Behind these "great power devices" lies not only innovation at the platform and system levels but also the silent support of a group of high polymer materials known as the "invisible heroes."
In hypersonic weapons, carbon-carbon composites and polymer-based high-temperature resistant composites become the core, enabling them to withstand thousands of degrees Celsius of aerodynamic heating, ensuring structural stability and flight safety.
In terms of aviation equipment, drones and next-generation fighter jets generally use carbon fiber composite structures, which reduce the weight of the aircraft while enhancing stealth performance and maneuverability.
Land combat equipment and individual soldier protection rely more on high-performance fiber materials. Aramid and ultra-high molecular weight polyethylene (UHMWPE) fibers, with their excellent strength and energy absorption properties, are widely used in tank linings, bulletproof vests, and helmets, effectively enhancing overall protection levels.
Meanwhile, the new generation of stealth warships and stealth aircraft rely on advanced radar-absorbing coatings and wave-transparent composite materials to significantly reduce radar signatures, achieving "invisibility" in combat environments.
It can be said that without the advancement of materials science, there would not be these advanced weapons and equipment today.
Next, let's review how polymer materials have gradually contributed to the modernization of China's national defense over the past 80 years.
01
The Initial Stage (1950s–1970s):
From rubber to missile fuel "propellant"
In the early days after the founding of the People’s Republic of China, the application of polymer materials in weaponry was still in its infancy. Synthetic rubber was mainly used in the tires and sealing rings of tanks and military vehicles, addressing issues of wear resistance and sealing. Nylon fabrics were made into parachutes and camouflage nets, providing the troops with basic mobility and camouflage capabilities.
The real turning point was the application of domestically produced liquid oxygen propellant in the Dongfeng-1 missile, which led to the successful launch of the "Dongfeng-1" on November 5, 1960. This marked China's military industry entering the era of rockets and missiles.
02
Maturity stage (1980s–1990s)
Aramid and Wave-Absorbing Materials Debut
During this period, China gradually carried out research and development of aramid, high-performance fibers, and radar-absorbing materials.
Aramid fibers are mainly used in the manufacture of bulletproof vests, bulletproof helmets, and other products. They were first developed during the Cold War period in the 1960s, and DuPont company took the lead in industrial production of aramid fibers in the 1970s.
In contrast, China started relatively late in the aramid field, with research and pilot production of para-aramid beginning around 1986 through a joint effort by the Donghua University Chemical Fiber Research Institute, Chenguang Chemical Research Institute, Shanghai Synthetic Fiber Research Institute, and Shenyang Hongxing Sealing Materials Factory.
Due to limitations in resources and costs, the industrialization of aramid fibers progressed slowly at that time, but this also laid the foundation for subsequent efforts in domestic production.
In addition, China also conducted related research and development on UHMWPE (ultra-high molecular weight polyethylene) fibers and radar-absorbing materials at this time.
03
Rapid Development (since the 2000s):
Composite materials, stealth materials, and bulletproof materials show their skills.
Since the beginning of the new century, composite materials, stealth materials, and bulletproof materials have begun to be widely used in main combat equipment.
The Z-10 and Z-20 helicopters use carbon fiber blades to reduce weight and extend lifespan; the body structure of the Wing Loong UAV adopts carbon fiber to enhance endurance and payload.
The radar dome of the KJ-500 AWACS uses transmittance composite materials to ensure smooth radar signal transmission.
The DF-17 warhead uses carbon-carbon/polymer matrix high-temperature resistant composite materials to withstand aerodynamic heating of over a thousand degrees Celsius.
The new type of vessel uses composite material portholes and radomes to improve wave transmission and weather resistance, meeting the needs of ocean-going operations.
Stealth material applications are becoming more widespread. For example, the J-20 stealth fighter uses domestically produced stealth coatings and structurally absorptive composite materials; the hull of the Type 055 destroyer is coated with absorptive materials to reduce radar cross-section.
In addition, the new generation of bulletproof vests and helmets use aramid fiber + UHMWPE composite layers, making them lighter and providing stronger protection; the housings of individual radios and sights use PEEK and polyimide, ensuring lightweight and high-temperature resistance.
Source: DT New Materials
Special Statement: Some content of this public account is reprinted from online platforms and is for learning and communication purposes only, not for commercial use! We remain neutral regarding the opinions and judgments in the text, and the copyright belongs to the original author. If there are any reporting errors or infringements, please contact us privately as soon as possible, and we will make corrections or deletions immediately. If you need to forward the original content of this public platform, please indicate that it is from "Fiber Reinforced Composites." We warmly welcome friends to follow, share, and bookmark messages from this WeChat platform and recommend valuable information.
Contact Email: 18511613486@163.com
【Copyright and Disclaimer】The above information is collected and organized by PlastMatch. The copyright belongs to the original author. This article is reprinted for the purpose of providing more information, and it does not imply that PlastMatch endorses the views expressed in the article or guarantees its accuracy. If there are any errors in the source attribution or if your legitimate rights have been infringed, please contact us, and we will promptly correct or remove the content. If other media, websites, or individuals use the aforementioned content, they must clearly indicate the original source and origin of the work and assume legal responsibility on their own.
Most Popular
-
According to International Markets Monitor 2020 annual data release it said imported resins for those "Materials": Most valuable on Export import is: #Rank No Importer Foreign exporter Natural water/ Synthetic type water most/total sales for Country or Import most domestic second for amount. Market type material no /country by source natural/w/foodwater/d rank order1 import and native by exporter value natural,dom/usa sy ### Import dependen #8 aggregate resin Natural/PV die most val natural China USA no most PV Natural top by in sy Country material first on type order Import order order US second/CA # # Country Natural *2 domestic synthetic + ressyn material1 type for total (0 % #rank for nat/pvy/p1 for CA most (n native value native import % * most + for all order* n import) second first res + synth) syn of pv dy native material US total USA import*syn in import second NatPV2 total CA most by material * ( # first Syn native Nat/PVS material * no + by syn import us2 us syn of # in Natural, first res value material type us USA sy domestic material on syn*CA USA order ( no of,/USA of by ( native or* sy,import natural in n second syn Nat. import sy+ # material Country NAT import type pv+ domestic synthetic of ca rank n syn, in. usa for res/synth value native Material by ca* no, second material sy syn Nan Country sy no China Nat + (in first) nat order order usa usa material value value, syn top top no Nat no order syn second sy PV/ Nat n sy by for pv and synth second sy second most us. of,US2 value usa, natural/food + synth top/nya most* domestic no Natural. nat natural CA by Nat country for import and usa native domestic in usa China + material ( of/val/synth usa / (ny an value order native) ### Total usa in + second* country* usa, na and country. CA CA order syn first and CA / country na syn na native of sy pv syn, by. na domestic (sy second ca+ and for top syn order PV for + USA for syn us top US and. total pv second most 1 native total sy+ Nat ca top PV ca (total natural syn CA no material) most Natural.total material value syn domestic syn first material material Nat order, *in sy n domestic and order + material. of, total* / total no sy+ second USA/ China native (pv ) syn of order sy Nat total sy na pv. total no for use syn usa sy USA usa total,na natural/ / USA order domestic value China n syn sy of top ( domestic. Nat PV # Export Res type Syn/P Material country PV, by of Material syn and.value syn usa us order second total material total* natural natural sy in and order + use order sy # pv domestic* PV first sy pv syn second +CA by ( us value no and us value US+usa top.US USA us of for Nat+ *US,us native top ca n. na CA, syn first USA and of in sy syn native syn by US na material + Nat . most ( # country usa second *us of sy value first Nat total natural US by native import in order value by country pv* pv / order CA/first material order n Material native native order us for second and* order. material syn order native top/ (na syn value. +US2 material second. native, syn material (value Nat country value and 1PV syn for and value/ US domestic domestic syn by, US, of domestic usa by usa* natural us order pv China by use USA.ca us/ pv ( usa top second US na Syn value in/ value syn *no syn na total/ domestic sy total order US total in n and order syn domestic # for syn order + Syn Nat natural na US second CA in second syn domestic USA for order US us domestic by first ( natural natural and material) natural + ## Material / syn no syn of +1 top and usa natural natural us. order. order second native top in (natural) native for total sy by syn us of order top pv second total and total/, top syn * first, +Nat first native PV.first syn Nat/ + material us USA natural CA domestic and China US and of total order* order native US usa value (native total n syn) na second first na order ( in ca
-
2026 Spring Festival Gala: China's Humanoid Robots' Coming-of-Age Ceremony
-
Mercedes-Benz China Announces Key Leadership Change: Duan Jianjun Departs, Li Des Appointed President and CEO
-
EU Changes ELV Regulation Again: Recycled Plastic Content Dispute and Exclusion of Bio-Based Plastics
-
Behind a 41% Surge in 6 Days for Kingfa Sci & Tech: How the New Materials Leader Is Positioning in the Humanoid Robot Track