What are the requirements for the management of university laboratories?

University laboratory management requirements cover multiple dimensions, including safety, scientific research, teaching, equipment, and personnel. They must comply with national regulations, industry standards, and university systems to ensure efficient, safe, and compliant laboratory operations. The following is a systematic review of the core management requirements:

　　I. Legal and Institutional Basis

Compliance with national/industry regulations

Strictly implement national standards such as "Laboratory Safety Specifications for Higher Education Institutions" (issued by the Ministry of Education in 2023), "Regulations on the Safety Management of Hazardous Chemicals", and "General Requirements for Laboratory Biosafety" (GB 19489).

Implement the "Specifications for the Management of Waste Chemicals in Scientific Research Laboratories" (T/CSTM 0059-2022) and standardize waste classification, storage and disposal processes.

　　School system construction

Formulate detailed rules such as the "Laboratory Safety Manual", "Hazardous Chemicals Management Measures", and "Instrument and Equipment Operating Procedures" to clarify management processes and responsibility boundaries.

Establish a full-cycle management system for laboratory access, use, and exit, forming a closed loop of "system - implementation - supervision".

　　2. Core requirements for safety management

1. Safety responsibility system

Hierarchical responsibility mechanism:

At the school level: Establish a laboratory safety management committee, led by the school leader in charge, to coordinate the school's laboratory safety planning and resource allocation.

Department/Laboratory Level: Designate the laboratory director (PI or project leader) as the primary person responsible for safety, sign a "Safety Responsibility Letter," and implement daily safety inspections (such as "three checks": check preparations before the experiment, check operations during the experiment, and check for hidden dangers after the experiment).

Risk classification management:

Laboratories are divided into "Level 1 (high risk), Level 2 (medium risk), and Level 3 (low risk)" according to the degree of danger, and differentiated management is implemented (for example, Level 1 laboratories must be equipped with dual power supply and automatic gas leak monitoring system).

Establish a "Laboratory Safety Risk Point List" and regularly update information on risk sources such as hazardous chemicals, high-voltage equipment, and biological samples.

2. Personnel access and training

Mandatory training and assessment:

All teachers and students (including graduate students, undergraduates, and visiting scholars) must pass school-level safety education and training (online courses + offline practical training). After passing the assessment, they will obtain a "Laboratory Access Permit" which is valid for 1 year (regular refresher training is required).

Special positions (such as hazardous chemical managers and radiation operators) require additional industry qualification certificates (such as the "Safety Qualification Certificate for Hazardous Chemical Workers").

Role permission management:

Authorization is hierarchically divided into "scientific researchers - technical personnel - management personnel" to restrict unauthorized personnel from operating high-risk equipment (such as centrifuges, high-temperature furnaces) or coming into contact with highly toxic reagents.

A "two-person, two-lock" system is used to manage controlled chemicals (such as precursors to drugs and explosives), and two people's signatures are required for confirmation before they are issued.

3. Full-process control of hazardous chemicals

Procurement and storage:

Strictly implement "purchase on demand" and apply for purchase through the school's unified platform. Private purchase of hazardous chemicals is prohibited; imported chemicals must be registered with customs in advance.

Classified storage: flammable and explosive items (such as ether) and oxidants (such as perchloric acid) should be stored in separate cabinets, and acid and alkali reagents should be isolated from active metals; hazardous chemical cabinets must be affixed with warning signs and networked to monitor temperature and humidity (such as temperature ≤ 30°C, humidity ≤ 60%).

Use and Disposal:

Experimental operations require filling out a "Hazardous Chemicals Use Record", indicating the purpose, amount used, and remaining amount, and double-checking and signing; experiments involving highly toxic substances (such as potassium cyanide) must be reported to the department for approval in advance.

Waste liquid/solid waste shall be handled according to the principle of "classified collection, dedicated containers, and regular removal". Direct discharge into sewers or trash cans is prohibited. It shall be entrusted to a qualified environmental protection company for treatment, and the transfer form shall be retained for reference (retention period ≥ 5 years).

4. Equipment and environmental safety

Equipment life cycle management:

Large equipment (such as nuclear magnetic resonance equipment and freeze dryers) must have operating procedures and post them on the wall. Operators must be trained and certified before they can take up their posts; regular maintenance must be performed (such as checking pressure pipeline safety valves every quarter and calibrating measuring equipment every year), and maintenance records must be kept.

Special equipment (such as pressure vessels and autoclaves) must obtain a registration certificate for use and be inspected regularly by professional organizations (such as pressure vessels must be fully inspected every three years).

Environmental and occupational health:

The laboratory must be equipped with safety facilities such as fume hoods, explosion-proof cabinets, and eyewash stations. The wind speed of the fume hood needs to be tested regularly (≥0.5m/s) to ensure effective exhaust; biological laboratories need to set up pressure differential control (such as the pressure difference between the clean area and the non-clean area ≥10Pa).

Equip teachers and students with appropriate protective equipment (such as chemical protective gloves, goggles, and breathing masks), and conduct regular occupational health examinations (such as physical examinations every six months for those who come into contact with radioactive substances).

　III. Scientific research and teaching management requirements

Experimental project approval

New experimental projects (especially high-risk experiments such as high-pressure reactions and gene editing) must submit an "Experimental Plan Application Form" and can only be carried out after review and approval by the laboratory director and the department safety committee.

Projects involving human/animal experiments or genetically modified organisms require additional approval from an ethics committee or biosafety committee.

Data and intellectual property management

The original experimental data (such as notebooks and instrument diagrams) must be archived in a standardized manner, and the electronic data must be backed up regularly (local + cloud dual storage is recommended) and kept for no less than 5 years (refer to scientific research project management requirements).

Strictly abide by the "Regulations on Intellectual Property Protection and Management of Higher Education Institutions" and experimental results (papers, patents) must pass technical confidentiality review before publication.

Teaching process standards

Undergraduate experimental courses must be fully guided by teachers or teaching assistants, and students are prohibited from performing high-risk experiments (such as distilling organic solvents and using lasers) alone.

Establish a standardized process of "experimental preparation - operation records - result analysis - safety summary", requiring students to clean the table and turn off the power/gas source after the experiment, and leave only after inspection by the administrator.

　　IV. Emergency Management and Continuous Improvement

Emergency plans and drills

Formulate a "Laboratory Emergency Response Plan" to clarify the handling procedures for scenarios such as fire, leakage, electric shock, and biosafety accidents (such as the "three steps" for leakage accidents: emergency shutdown, personnel evacuation, and professional disposal).

Conduct at least one full-process emergency drill (such as fire extinguisher use and escape route simulation) every semester, covering more than 90% of laboratory personnel, and retain drill records and improvement measures.

Monitoring and early warning mechanism

Install an intelligent monitoring system to monitor water, electricity, gas circuits, temperature, humidity, gas concentration and other parameters in real time, automatically alarm in abnormal situations (such as SMS push, sound and light alarm) and link emergency equipment (such as cutting off power supply, starting sprinklers).

A three-level inspection system of "daily inspection, weekly investigation, and monthly inspection" has been established. Departments and colleges will conduct full-coverage inspections every month, the school will conduct random inspections every quarter, and hidden danger rectification will be implemented through "ledger management" (registration - rectification - acceptance - cancellation).

Compliance and Continuous Improvement

Regularly accept external assessments (such as CNAS laboratory accreditation and Ministry of Education safety inspections), rectify problems within a specified time frame, and form a PDCA cycle (Plan-Do-Check-Act).

Encourage teachers and students to participate in safety management, establish a "safety hazard reporting reward mechanism", and give commendations or material rewards to those who put forward effective improvement suggestions.

5. Information management tool support

Universities often use laboratory information management systems to improve management efficiency. The core functions include:

Data digitization: online approval (access, procurement, scrapping), electronic ledgers (hazardous chemicals, equipment), and electronic logs (experimental records).

Process visualization: Real-time monitoring of laboratory environmental parameters, equipment operating status, and personnel entry and exit records (such as access qualifications linked to the access control system).

Intelligent Risk Management: AI identifies illegal operations (such as contacting chemicals without wearing gloves), automatically generates safety reports, and pushes early warning information to multiple devices (PC + mobile app).

　　Summarize

The management of university laboratories must take "safety as the bottom line, compliance as the basis, and efficiency as the goal". Through the trinity of system construction, technological empowerment, and cultural cultivation, a management system of "prevention first, prevention and treatment combined" should be established to ensure the safe and orderly development of teaching and scientific research activities, while meeting the requirements of "Double First-Class" construction for modern laboratory governance.