Membrane Forming Technology Platform

Membrane Forming
Technology Platform

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China
Andorra
United Arab Emirates
Afghanistan
Antigua and Barbuda
Anguilla
Albania
Armenia
Angola
Antarctica
Argentina
American Samoa
Austria
Australia
Aruba
Åland Islands
Azerbaijan
Bosnia and Herzegovina
Barbados
Bangladesh
Belgium
Burkina Faso
Bulgaria
Bahrain
Burundi
Benin
Saint Barthélemy
Bermuda
Brunei Darussalam
Bolivia, Plurinational State of
Brazil
Bahamas
Bhutan
Bouvet Island
Botswana
Belarus
Belize
Canada
Cocos (Keeling) Islands
Congo, the Democratic Republic of the
Central African Republic
Congo
Switzerland
Côte d'Ivoire
Cook Islands
Chile
Cameroon
Colombia
Costa Rica
Cuba
Cabo Verde
Curaçao
Christmas Island
Cyprus
Czechia
Germany
Djibouti
Denmark
Dominica
Dominican Republic
Algeria
Ecuador
Estonia
Egypt
Western Sahara
Eritrea
Spain
Ethiopia
Finland
Fiji
Falkland Islands (Malvinas)
Micronesia, Federated States of
Faroe Islands
France
Gabon
United Kingdom of Great Britain and Northern Island
Grenada
Georgia
French Guiana
Guernsey
Ghana
Gibralta
Greenland
Gambia
Guinea
Guadeloupe
Equatorial Guinea
Greece
South Georgia and the South Sandwich Islands
Guatemala
Guam
Guinea-Bissau
Guyana
Hong Kong,China
Heard Island and McDonald Islands
Honduras
Croatia
Haiti
Hungary
Indonesia
Ireland
Israel
Isle of Man
India
British Indian Ocean Territory
Iraq
Iran, Islamic Republic of
Iceland
Italy
Jersey
Jamaica
Jordan
Japan
Kenya
Kyrgyzstan
Cambodia
Kiribati
Comoros
Saint Kitts and Nevis
Korea, Democratic People's Republic of
Korea, Republic of
Kuwait
Cayman Islands
Kazakhstan
Lao People's Democratic Republic
Lebanon
Saint Lucia
Liechtenstein
Sri Lanka
Liberia
Lesotho
Lithuania
Luxembourg
Latvia
Libya
Morocco
Monaco
Moldova, Republic of
Montenegro
Collectivity of Saint Martin
Madagascar
Marshall Islands
Macedonia, the former Yugoslav Republic of
Mali
Myanmar
Mongolia
Macao,China
Northern Mariana Islands
Martinique
Mauritania
Montserrat
Malta
Mauritius
Maldives
Malawi
Mexico
Malaysia
Mozambique
Namibia
New Caledonia
Niger
Norfolk Island
Nigeria
Nicaragua
Netherlands
Norway
Nepal
Nauru
Niue
New Zealand
Oman
Panama
Peru
French Polynesia
Papua New Guinea
Philippines
Pakistan
Poland
Saint Pierre and Miquelon
Pitcairn
Puerto Rico
Palestine, State of
Portugal
Palau
Paraguay
Qatar
Réunion
Romania
Serbia
Russian Federation
Rwanda
Saudi Arabia
Solomon Islands
Seychelles
Sudan
Sweden
Singapore
Saint Helena, Ascension and Tristan da Cunha
Slovenia
Slovakia
Sierra Leone
San Marino
Senegal
Somalia
Suriname
South Sudan
Sao Tome and Principe
El Salvador
Sint Maarten
Syrian Arab Republic
Swaziland
Turks and Caicos Islands
Chad
French Southern Territories
Togo
Thailand
Tajikistan
Tokelau
Timor-Leste
Turkmenistan
Tunisia
Tonga
Turkey
Trinidad and Tobago
Tuvalu
Taiwan,China
Tanzania, United Republic of
Ukraine
Uganda
United States Minor Outlying Islands
United States of America
Uruguay
Uzbekistan
Holy See
Saint Vincent and the Grenadines
Venezuela, Bolivarian Republic of
Virgin Islands, British
Virgin Islands, U.S.
Vietnam
Vanuatu
Wallis and Futuna
Samoa
Yemen
Mayotte
South Africa
Zambia
Zimbabwe

Eco-friendly · High-standard · Maintainable

This technology integrates multiple innovations, significantly optimizing energy efficiency, membrane fiber processing precision, and equipment operational stability in the production process, fully meeting the high-standard requirements for large-scale, continuous production of medical membrane materials.

High-Efficiency

The 316L sanitary-grade pipeline system is used to integrate with process temperature pre-control technology, precisely regulating process temperature and optimizing thermal energy circulation paths and efficiency. The total energy consumption during medical membrane forming is significantly reduced.

Damage-Free Membrane Fiber Traversing

A multi-stage guiding structure design with filament separation needles is applied in an innovative way. It can be ensured that up to 1536 membrane filaments can traverse the complex four-stage water washing tank system efficiently and undamaged, significantly reducing filament damage and improving product yield.

Drive System Optimization

The modular protocol of the transmission mechanism is synchronously improved, significantly enhancing the service life and maintenance convenience of belts and wheels, while reducing maintenance costs and downtime.