GB/T 39718-2020 in English

VALID

High mass flux catalyst for hydrogen peroxide decomposition

Issued on:2020-12-14
Implemented on:2021-07-01
File Format:PDF
Delivery:Via email within 1~3 business days

Price(USD)： $190.00
$185.00

Standard No:	GB/T 39718-2020
Document status:	VALID
Title in English:	High mass flux catalyst for hydrogen peroxide decomposition
Title in Chinese:	高通量过氧化氢分解催化剂
Language:	English
File Format:	Electronic (PDF)
Delivery:	Via email within 1~3 business days
Issued on:	2020-12-14
Implemented on:	2021-07-01
ICS Classification:	71.100.99-Other products of the chemical industry
Chinese Classification:	G75-Catalyst
Professional Classification:	GB-National Standard
Related Keywords:	standard high-throughput hydrogen peroxide decomposition catalyst high mass flux catalyst hydrogen peroxide decomposition introduction analysis hydrogen peroxide/kerosene engine dynamic mass loss method
Related Topics:	catalyst Qualcomm hydrogen peroxide catalytic super catalyst new catalyst Nitric acid hydrogen peroxide digestion method flux catalyst potential Catalyst Standard hydrogen break down high throughput efficient decomposition efficient catalytic conversion Microvolume High Throughput hydrogen peroxide Microwave Digestion of Hydrogen Peroxide photocatalytic cocatalysis mass of hydrogen peroxide Analysis method of hydrogen peroxide Microwave digestion + hydrogen peroxide dissolved catalyst business catalyst Cobalt Photocatalytic Oxidation Efficient catalyst hydrogen peroxide temperature Nitric acid and hydrogen peroxide digestion Nitric acid hydrogen peroxide digestion method Nitric acid hydrogen peroxide digestion method catalytic voc voc catalyst voc catalyst voc catalyst voc catalysis voc++ catalytic voc catalytic Catalytic VOC voc catalytic voc+catalysis voc catalyst t9 catalyst business catalyst photocatalyst oxygen perchloric acid hydrogen peroxide hydrogen peroxide+ Digestion of hydrogen peroxide standard catalyst hydrogen peroxide Hydrogen peroxide for digestion digest hydrogen peroxide hydrogen peroxide fluorescence efficient oxidizing agent microwave hydrogen peroxide How Hydrogen Peroxide 10 Lithium oxide catalyst Novel Cobalt Oxide Catalyst Zinc hydroxide Hydrogen peroxide microwave digestion suburban catalyst hydrogen peroxide reaction Hydrogen peroxide reagent Microwave Digestion of Hydrogen Peroxide hydrogen peroxide decomposition Nitric acid-hydrogen peroxide digestion Hydroxide catalyst contact catalyst Analytical method of hydrogen peroxide Nitric acid + hydrogen peroxide digestion method mononuclear catalyst Catalyst catalytic digestion Hydrazine Decomposition Hydrogen Production Efficient electrolysis of hydrogen High throughput? Hydrogen peroxide and nitric acid digestion Thorium catalyst How to Measure Catalyst catalytic decomposition of water Efficient spectrum catalyst Catalytic self-electrolysis plastic catalyst Cobalt Catalyzed Hydrogen Hydrogen peroxide pre-digestion Efficient photocatalysis catalytic decomposition total oxidant catalytic decomposition broad spectrum catalyst Air hydrogen peroxide content Production of high-efficiency catalysts hydrogen peroxide microwave digest hydrogen peroxide hydrogen peroxide method base catalyst how about hydroperoxide Hydrogen peroxide quality oxygen catalyst Hydrogen peroxide alloy Cadmium hydroxide Hydrogen peroxide alloy decomposition rate Catalyst protium deuterium tritium Hydrogen Peroxide + Reagent The new catalyst can UV decomposition of hydrogen peroxide amount of hydrogen peroxide Hydrogen peroxide quality Hydrogen Peroxide Synthesis new catalyst Alumina Catalyst Digestion Yttrium Hydroperoxide photocatalytic oxygen removal Electron catalyst Guanidine catalyst photocatalytic water splitting UV hydrogen peroxide decomposition oxidation peak height hydrogen peroxide and perchloric acid hydrogen peroxide hydride electrolytic catalysis Hydrogenation catalyst + device plastic catalyst complex catalyst positive catalyst Four Classifications of Catalysts hydrogen peroxide vapor phase rubber dissolution catalyst New high-efficiency catalyst How is hydrogen peroxide detected? ember catalyst hydrogen peroxide hydrogen peroxide decomposition Water Hydrogen Peroxide Hydrogen peroxide Aerobic decomposition hydrogen peroxide + fluorescence by dose "catalyst perchloric acid hydrogen peroxide Efficient Catalyst Components by molecular weight Analysis of Hydrogen Peroxide Content Hydrogen Peroxide Digester Lao catalytic oxidation high-throughput trace Rhenium + + hydrogen peroxide Catalytic water splitting total oxidants and Molybdenum Telluride Electrolysis for Hydrogen Production prehydrogenation catalyst GBT39718 GB/T 39718-2020 catalytic oxidation catalyst CatalystLOA Note on microwave digestion of hydrogen peroxide heterogeneous catalytic oxidation Hydrogen bromide has a peroxide effect Oxidative decomposition and hydrolysis Catalase Test Differentiation Experimental operation of producing oxygen from hydrogen peroxide High Iridium Catalyst catalyst execution Vaporized hydrogen peroxide detection Hydrogen peroxide calibration Standard catalyst titanium content Hydrogen peroxide design Nitric acid hydrogen peroxide digestion method catalytic oxidation country Hydrogen peroxide national use Hydrogen peroxide resistance meter Hydrochloric acid hydrogen peroxide digestion method Carbamide peroxide quality Cleaning agent hydrogen peroxide residue Beryllium hydroxide mass Hydrogen Peroxide International Hydrogen peroxide standard curve Hydrogen peroxide execution Quality of ??Based Hydrogen Peroxide Catalyst commercial Cadmium hydroxide product quality Iron hydroxide quality Water electrolysis hydrogen production catalyst Limits of hydrogen peroxide in dairy products Catalyst industry Peroxide curing agent Oxidant classification Alumina catalyst quality

《GB/T 39718-2020高通量过氧化氢分解催化剂》由TC63（全国化学标准化技术委员会）归口，TC63SC10（全国化学标准化技术委员会化工催化剂分会）执行，主管部门为中国石油和化学工业联合会。

Introduction

Analysis of the core content of the standard

High-throughput hydrogen peroxide decomposition catalyst is a key material for aerospace propulsion systems, and its performance directly affects the efficiency of rocket engines. This standard defines the 7 core technical indicators of the catalyst, among which the requirements of decomposition efficiency ≥98% and starting response time ≤600ms reflect the stringent standards of aerospace-grade products.

Comparison of key technical indicators

Performance parameters	Standard requirements	Test methods	Engineering significance
Silver mass fraction	≥10.0%	ICP-OES method	Determine the density of catalytic active centers
Pressure bearing performance	≥12.0MPa	1980.5N pressure test	Ensure structural integrity under high pressure conditions
Start-up response time	≤600ms	QJ3310 hot test	Influence on engine ignition reliability

Innovation of test method

Determination of catalytic decomposition rate

The dynamic mass loss method is used: immerse a 20×20mm sample in a 90% hydrogen peroxide solution and record the time required for the mass to decrease by 20g. This method simulates the liquid phase mass transfer process during actual operation and is closer to the actual working conditions than traditional gas phase testing.

Hot test verification system

A three-level verification procedure is established based on the QJ3310 standard:

10s short-range test verifies starting performance
3 repeated tests assess durability
200s long-range test evaluates steady-state characteristics

Data is collected through pressure sensors (±0.1% accuracy) and thermocouples to ensure the reliability of test results.

Application Cases in Aerospace Engineering

In the hydrogen peroxide/kerosene engine, the catalyst must meet the following requirements:

Chamber pressure roughness ≤5% to ensure combustion stability
Decomposition efficiency ≥98% to ensure specific impulse performance
Reused more than 3 times to reduce mission costs

The measured data of Xi'an Aerospace Engine Technology Co., Ltd. show that catalysts that meet this standard can increase the engine specific impulse by 6-8%.

Recommendations for the implementation of the standard

1. Raw material control: The silver loading process should ensure the uniform distribution of active components. 2. Process inspection: Each square meter of mesh needs to be inspected for appearance and pressure bearing performance. 3. Storage management: The humidity of vacuum packaging should be ≤10% to avoid oxidation of active components. 4. Application verification: New batches of products must pass a 200s hot test before installation.

More samples: GB 18306-2015 QC/T 942-2021 DL/T 368-2010

Sample only — not a preview of GB/T 39718-2020

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