Covid Safe

 

We will be following the highest medical standards of hygiene and disinfection during your consulation and treatment at the clinic.

 

1) All patients will be checked with an infrared forehead thermometer before entering the clinic to ensure they have no fever.

2) All staff will wear medical grade face masks and face shields.There will be replaced or disinfected between patients.

3) Disinfection of all areas i.e.treatment rooms, reception,corridors,toilet etc will be maintained by the use of Ultraviolet germicidal lamps which produces UVC light and ozone which kills 99.99% of bacteria and various (Medical Standards) More information available if required.

 

 All treatment rooms will be disinfected between each patients. General areas will be disinfected Minimum twice a day .The toilet area will be disinfected after each patients usage.

 

4) Use of sneeze screens—These are placed in both reception area and consultation room to protect  both doctors and the patients at the time of booking,payment and consultation.

 

5)  All staff will wear medical grade face masks and face shields.There will be replaced or disinfected between patients.

 

6) All unnecessary items in the clinic have been removed i.e. carpets,vase, displays etc.

 

7) All hard surfaces i.e. door handles, light switches, toilet seat,consultation desk top and sneeze screen etc will be disinfected after each patient.

 

 

IUVA Fact Sheet on COVID-19

国际紫外线协会(IUVA)关于新型冠状病毒(COVID-19)的信息简报

The International Ultraviolet Association (IUVA) believes that UV disinfection technologies can play a role in a multiple barrier approach to reducing the transmission of the virus causing COVID-19, SARS-CoV-2, based on current disinfection data and empirical evidence. UV is a known disinfectant for air, water and surfaces that can help to mitigate the risk of acquiring an infection in contact with the COVID-19 virus when applied correctly. "The IUVA has assembled leading experts from around the world to develop guidance on the effective use of UV technology, as a disinfection measure, to help reduce the transmission of COVID-19 virus. Established in 1999, the IUVA is a nonprofit dedicated to the advancement of ultraviolet technologies to help address public health and environmental concerns," says Dr. Ron Hofmann, Professor at the University of Toronto, and President of the IUVA.

国际紫外线协会(IUVA)认为:根据目前的消毒数据和经验,紫外线消毒技术能够在阻止新型冠 状病毒传播的多级屏障消毒策略中起到重要的作用。在正确的使用下,紫外线是一种被认可的用 于空气,水和表面消毒的方法。它可以降低被新型冠状病毒感染的风险。国际紫外线协会主席, 多伦多大学 Ron Hofmann 教授表示:“国际紫外线协会已经专门成立专家组,汇集了世界各地紫 外线领域的资深专家共同编写如何有效应用紫外线消毒技术的指南,以帮助解决新型冠状病毒传 播所带来的危机。国际紫外线协会是成立于 1999 年的非盈利机构,致力于推动紫外线技术以帮 助解决环境和健康问题。”

It must be noted that “UVC”, “UV disinfection” and “UV” as used here and in the scientific, medical and technical literature, specifically and importantly refers to UVC light energy (200- 280nm light) in the germicidal range which is not the same as the UVA and UVB used in tanning beds or sunlight exposure.

必须引起注意的是,这里的“UVC”,“UV 消毒”和“UV”等用在科学,医学和技术文献中的名词,主 要是特指在 UVC 杀菌波段(200-280nm 紫外光),与日晒床或者太阳照射中的 UVA 和 UVB 波 段是不同的。

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Facts on UV and COVID-19

关于紫外线和新型冠状病毒的事实

Can UVC help prevent COVID-19 transmission by reducing contamination?

Based on existing evidence, we believe so. Here’s why:

紫外线是否能够通过杀菌阻止新型冠状病毒的传播? 根据目前的证据,答案是肯定的,下面是具体的原因。

UVC light has been used extensively for more than 40 years in disinfecting drinking water, waste water, air, pharmaceutical products, and surfaces against a whole suite of human pathogens (Fluence UV Dose Required review IUVA:https://www.iuvanews.com/stories/pdf/archives/180301_UVSensitivityReview_full.pdf). All bacteria and viruses tested to date (many hundreds over the years, including other coronaviruses) respond to UV disinfection. Some organisms are more susceptible to UVC disinfection than others, but all tested so far do respond at the appropriate doses.

紫外线已经被广泛地应用于饮用水和污水,空气,医药用品以及表面消毒有超过 40 年的历史, 可以针对很多种人类的病原体。(紫外线的剂量响应曲线可以从这个 IUVA 文件链接中查找:https://www.iuvanews.com/stories/pdf/archives/180301_UVSensitivityReview_full.pdf)。所 有到目前为止测试的细菌和病毒(多年来研究的几百种,包括两种冠状病毒)都对紫外线有响 应。一些微生物相对于其他的微生物来说对紫外线更敏感,但是所有的微生物在合适的紫外线剂 量范围内都有响应。

• UVC disinfection is often used with other technologies in a multibarrier approach toensure that whatever pathogen is not “killed” by one method (say filtering or cleaning) isinactivated by another (UVC). In this way UVC could be installed now in clinical or other settings to augment existing processes or to shore up existing protocols where these are exhausted by excessive demands due to the pandemic.

紫外线消毒经常和其他的技术联和使用形成多级屏障,以确保在某种致病微生物不能被一种技术 杀灭(比如过滤或清洗)的时候,会被另一种技术杀灭(比如 UVC)。在这种情况下,UVC 可 以安装在诊所或其他场景来加强已有的处理系统或补充目前的处理方法来应对疫情带来的超负荷 的需求。

• UV light, specifically between 200-280nm[i] (UVC or the germicidal range), inactivates(aka, ‘kills’) at least two other coronaviruses that are near-relatives of the COVID-19 virus: 1) SARS-CoV-1[ii] and 2) MERS-CoV[iii] [iv] [v]. An important caveat
is this inactivation has been demonstrated under controlled conditions in the laboratory.

Page | 2

The effectiveness of UV light in practice depends on factors such the exposure time and the ability of the UV light to reach the viruses in water, air, and in the folds and
crevices of materials and surfaces.

紫外光,特别是 200-280 纳米[i](UVC 或者杀菌波段)波段,能够有效的灭活另外两种冠状病 毒,这两种冠状病毒与新型冠状病毒非常相似:1)SARS-CoV-1[ii] 和 2)MERS-CoV[iii] [iv] [v]。值得 注意的是,这些研究是在实验室可控条件下的结果。紫外光的实际有效性取决于像照射时间、以 及紫外线能够照射到水中,空气中,以及材料和表面的褶皱和裂缝中病毒的能力。

• COVID-19 infections can be caused by contact with contaminated surfaces and then touching facial areas (less common than person-to-person, but still an issue)[vi]. Minimizing this risk is key because COVID-19 virus can live on plastic and steel surfaces for up to 3 days[vii]. Normal cleaning and disinfection may leave behind some residual contamination, which UVC can treat suggesting that a multiple disinfectant approach is prudent. UVC has been shown to achieve a high level of inactivation of a near-relative of COVID-19’svirus (i.e., SARS-CoV-1, tested with adequate dose of 254nm UV while suspended in liquid)[viii]. IUVA believes similar results can be expected when treating COVID-19’s virus,SARS-CoV-2. However, the key is applying UVC in such a way that it can effectively reach any remaining viruses on those surfaces.

新型冠状病毒可以通过人接触受污染的表面然后再接触自己的面部区域来传播(虽然这种传播的 机率低于人传人,但是仍然是一个问题)[vi]。减少这种风险很关键,因为新型冠状病毒可以在塑 料或者金属表面存活 3 天[vii]。正常的清洁和消毒不一定能够彻底消杀病毒,使用紫外线作为多级 屏障消毒策略的一个环节是非常明智的。UVC 已经被证明能够有效灭活与新型冠状病毒非常接近 的病毒(例如 SARS-CoV-1,测试条件是使用 254nm 的紫外线照射溶在水中的病毒)[viii]。IUVA认为用紫外线灭活新型冠状病毒可以得到类似的结果。然而,在这种情况下使用 UVC 的关键是 能够有效的照射到那些残留在表面的病毒。

• IUVA also concurs with CDC guidance to hospitals that the germicidal effectiveness of UVC is influenced by the UVC absorbing properties of the suspension, the surface or aerosol that the organism is in; by the type or action spectra of the microorganism; and by a variety of design and operating factors that impact the delivered UV dose to the microorganism (https://www.cdc.gov/infectioncontrol/guidelines/disinfection/ ).

IUVA 也赞同美国疾控中心(USA CDC)对于医院的指导:即紫外线的杀菌效果受悬浮液,生物 体表面或气溶胶的紫外吸收特性、微生物的类型或作用响应谱线(action spectra)的影响;各种 设计和操作因素都会影响紫外线对微生物的照射剂量(https://www.cdc.gov/infectioncontrol/guidelines/disinfection/ )。

Page | 3

• IUVA recognizes that in the cases where the UVC light cannot reach a particular pathogen, that pathogen will not be disinfected. However in general, reducing the total number of pathogens reduces the risk of transmission. The total pathogenic load can be reduced substantially by applying UV to the many surfaces that are readily exposed, as a secondary barrier to cleaning, especially in hurried conditions. This would be a relatively straight-forward matter of illuminating the relevant surfaces with UVC light, for example the air and surfaces around/in rooms and personal protective equipment.

IUVA 认为,在紫外光无法照射到特定病原体的情况下,该病原体不会被灭活。然而,总的来 说,减少病原体总数可以降低传播的风险。通过对许多容易暴露的表面增加紫外线照射,作为清 洁的第二道屏障,特别是在应急的条件下,可以大大减少总的致病菌负荷。这将是一个比较直接 了当的事情,即用紫外线照射相关表面和空间,例如房间周围/室内的空气和表面以及个人防护设 备。

Are UVC disinfection devices safe?

Like any disinfection system, UVC devices must be used properly to be safe.) They all produce varying amounts of UVC light in wavelengths of 200nm-280nm. This UVC light is much“stronger” than normal sunlight, and can cause a severe sunburn-like reaction to your skin, and similarly, could damage the retina of your eye, if exposed. Some devices also produce ozone as part of their cycle, others produce light and heat like an arc welder, others move during their cycles. Hence, general machine-human safety needs to be considered with all disinfection devices, and these considerations should be addressed in the operations manual, in the user training, and appropriate safety compliance.

紫外线消毒设备安全吗? 与任何消毒系统一样,紫外线设备必须正确使用才能确保安全。各种紫外线设备都会产生波长为200nm-280nm 的不同能量的紫外线。这种紫外线比正常的阳光强得多,会对你的皮肤造成严重 太阳晒伤样反应。同样,如果暴露在紫外光下,也会严重损害你的视力。有些设备在操作周期中 也会产生臭氧,有些装置则会像电焊机一样产生光和热,另外一些在操作周期中会运动。因此, 所有消毒设备都需要考虑基本的操作机器安全,这些考虑应在操作手册、用户培训和适当的安全 合规性中加以说明。

Are there performance standards and UVC validation protocols for UV disinfection devices?

Given the wide array of UVC devices marketed for disinfection of air, water and solid surfaces, the lack of uniform performance standards and the highly variable degree of research, development and validation testing that is performed on different devices, the IUVA urges consumers to exercise caution when selecting equipment and look for evidence of third party

Page | 4

testing as well as certification of device materials and electrical components by well-known organizations such as NSF, UL, CSA, DVGW-OVGW or other international requirements as applicable.

For UVC devices designed to inactivate air and solid surfaces in the healthcare industry, members of IUVA are working diligently with other national standards organizations in the lighting and healthcare industry to develop disinfection testing standards[x]. The goal is to develop guidance that will help healthcare providers world-wide choose the best possible technologies for their institutions to use in the fight against multiple drug resistant organisms and other pathogens[xi], like the COVID-19 virus.

IUVA will soon post a website dedicated to UV and COVID-19, please email us at info@iuva.org, if you would like for us to send you alerts on website postings and other IUVA activities.

紫外线消毒设备有性能标准和紫外线验证方案吗?

鉴于市场上用于空气、水和固体表面消毒的 UVC 设备种类繁多,缺乏统一的性能标准,以及不 同设备在研究、开发和验证测试的高度不一致性,IUVA 建议用户在选择设备和寻找证据时要谨 慎检查第三方测试报告以及由相关知名组织(如 NSF、UL、CSA、DVGW-OVGW 或其他适用的 国际要求)对设备材料和电气部件的认证。

对于设计用于灭活医疗行业空气和固体表面的 UVC 设备,IUVA 的成员正与照明和医疗行业的其 他国家标准组织一起努力制定消毒测试标准[x]。其目标是编制相关的指南,以帮助全球医疗保健 提供者选择最佳的技术,使这项技术能够在对抗多种耐药生物和其他病原体[xi]上使用,如新型冠 状病毒。

IUVA 将很快发布一个专门针对紫外线和新型冠状病毒的网站,如果您希望我们向您发送有关网 站发布和其他 IUVA 活动的通知,请发送电子邮件至 info@IUVA.org。

References:

参考文献

[i] “Miscellaneous Inactivating Agents - Guideline for Disinfection and Sterilization in Healthcare Facilities(2008);” Centers for Disease Control and Prevention, National Center for Emerging and ZoonoticInfectious Diseases (NCEZID), Division of Healthcare Quality Promotion (DHQP)(https://www.cdc.gov/infectioncontrol/guidelines/disinfection/disinfection-methods/miscellaneous.html )

[ii] “Large-scale preparation of UV-inactivated SARS coronavirus virions for vaccine antigen,” Tsunetsugu- Yokota Y et al. Methods Mol Biol. 2008;454:119-26. doi: 10.1007/978-1-59745-181-9_11.

Page | 5

[iii] “Efficacy of an Automated Multiple Emitter Whole-Room Ultraviolet-C Disinfection System Against Coronaviruses MHV and MERS-CoV,” Bedell K et al. ICHE 2016 May;37(5):598-9. doi:10.1017/ice.2015.348. Epub 2016 Jan 28.
[iv] “Focus on Surface Disinfection When Fighting COVID-19”; William A. Rutala, PhD, MPH, CIC, David J. Weber, MD, MPH; Infection Control Today, March 20, 2020 (https://www.infectioncontroltoday.com/covid- 19/focus-surface-disinfection-when-fighting-covid-19 )

[v] Ibid.
[vi] “Preventing the Spread of Coronavirus Disease 2019 in Homes and Residential Communities”; NationalCenter for Immunization and Respiratory Diseases (NCIRD), Div. of Viral Diseases (https://www.cdc.gov/coronavirus/2019-ncov/hcp/guidance-prevent-spread.html)
[vii] “New coronavirus stable for hours on surfaces”; CDC (extracted from N van Doremalen, et al. Aerosoland surface stability of HCoV-19 (SARS-CoV-2) compared to SARS-CoV-1. The New England Journal of Medicine. DOI: 10.1056/NEJMc2004973 (2020)) (https://www.nih.gov/news-events/news-releases/new- coronavirus-stable-hours-surfaces).
[viii] “Inactivation of SARS coronavirus by means of povidone-iodine, physical conditions and chemicalreagents;” Kariwa H et al. Dermatology 2006;212 (Suppl 1): 119 (https://www.ncbi.nlm.nih.gov/pubmed/16490989 )
[ix] “Ultraviolet Radiation and the Work Environment (Revised. See: 74-121),” The National Institute forOccupational Safety and Health (NIOSH), Page last reviewed: March 29, 2017 (https://www.cdc.gov/niosh/docs/73-11005/default.html )
[x] “Pathway to Developing a UV-C Standard – A Guide to International Standards Development”, C.Cameron Miller and Ajit Jillavenkatesa, IUVA News / Vol. 20 No. 4, 2018
[xi] “Healthcare Associated Infections Workshop Advances Development Of Ultraviolet DisinfectionTechnologies,” IUVA Press Release, dated 24 Jan 2020 4:14 PM (http://iuva.org/Projects-Articles- Repository/8672736 )

Page | 6

Before entering the clinic

 

Please ring the door bell and wait to be invited in —there maybe a slight delay

 

Please use the hand sanitiser on the door

 

Please wear a face mask at all times in the clinic

 

Safety and sanitary standard for ultraviolet appliance oF air disinfection

ICs 11。 080C59

中华人民共和国国家标准GB28235ˉ —ˉ2011

紫外线空气消毒器安全与卫生标准

2011.12.30发布

2012-05-01实施

中华人民共和国卫生部 中国国家标准化管理委员会

发布

前言

本标准的4.1、6.2.1、6.2.2为推扌性的,其余为强钔性的。本标准由中华人民共和国卫生部提出并归口。本标准负责起草单位:江苏省卫生监督所、北京市疾病预防拄制中心、武汉市疾病预防拄制中心。本标准参加起草单位:盐城砧卫消毒设备有限公司、重庆瑞朗电气有限公司。本标准主要起草人 :顾链 、乔维汉 、邓小虹 、叶蓉春 、梁建生 、王俭 。

GB28235-ˉ2011

1 范围

紫外线空气消毒器安全与卫生标准

本标准规定了紫外线空气消毒器的规格和分类、名称与型号、技术要求、应用范围、使用方法、检验方 法 、标 志 与 包 装 、运 输 与 贮 存 、标 签 和 使 用 说 明 书 及 注 意 事 项 。

本标准适用于以紫外线中心波长为 253.7nm的紫外线杀菌灯、过滤器和风机为元器件的紫外线空气消毒器。

2 规范性引用文件

下列文件中的条款通过本标准的引用而成为本标准的条款。凡是注明日期的引用文件,其随后所有的修改单(不包括勘误的内容)或修订版均不适用于本标准,然而,鼓励根据本标准达成协议的各方研究是否可使用这些文件的最新版本。凡是不注日期的引用文件,其最新版本适用于本标准。

GB/T191 包装储运图示标志
GB zO99.1 家用和类似用途插头插座 第 1部分:通用要求

GB9706.1 医用电气设备 第 1部分:通用要求

GB/T14294 组合式空调机组

GB15982 医院消毒卫生标准

GB/T18202 室内空气中臭氧卫生标准GB19258 紫外线杀菌灯

YY/TO160 直管形石英紫外线低压汞消毒灯GBZ/T189.8 工作场所物理因素测量 第8部分:噪声消毒技术规范(2002年版) 卫生部消毒产品标签说明书管理规范(2005年版) 卫生部

3 术语和定义

下列术语和定义适用于本标准。3.1

紫外线杀菌灯 ultravioII et gemicidaII IIaInp

直接利用紫外线(中心波长为253.7nm)达到消毒目的的特种电光源。 3.2

紫外线空气消毒器 uItraVio1et apPIIEance for air曲sinfection

利用紫外线杀菌灯、过滤器和风机组合成的一种消毒器械,达到消毒目的的设备。其过滤器和风机 不具有杀菌因子的作用。
3.3

消毒周期 山sinfectit,n cyc1e

紫外线空气消毒器实施一次消毒操作处理达到消毒要求的全过程。 3.4

消毒时间 exposed time 紫外线空气消毒器在本标准规定的工作条件下,进行消毒处理的时间。

GB28235-2011

1

GB28235-ˉ2011

3.5
紫外线辐射照度 u【traviolet radiation lumina11ce距紫外线杀菌灯管表面正中法线1.000m处,灯管无反射罩测得的单位面积上以253.7nm为主波

长的紫外线辐射照度,单位为 uW/cm2。3.6

紫外线杀菌灯有效寿命 eFFect加e IIifetime oF untravio:et gemicida1IIamp由新灯的紫外线辐射照度降低到 70uW/cm2(功率≥30W的灯)或降低到本标准规定的 70%(功

率<30W的灯)时的点燃时间。 3.7

循环风旦 cyclic呐nd空气状态下每小时通

消毒器内循环的空气体

、≤150o

为 m3/h。

4 规格与分类

4.1 规格4.1.1 壁挂式消 ≤ 118mO等 。4.1.2 柜式消4.1.3 移动柜4.2 分类4.2.1 按电击4.2.2 按外观

5 名称与型号

5.1 名称应符合《消毒

5.2 型号

100Fn:、 ≤廴108m3、

商品名-

空气循环风量,m3/h柜式紫外线空气消毒器

消毒器

其中:B——壁挂式紫外线空气消毒器代号;G——柜式紫外线空气消毒器代号;Y——移动柜式紫外线空气消毒器代号。

示例闸:商品名-3.600

表示空气循环风量为 600m3/h的 壁挂式紫外线空气消毒器。示例 2:商 品名-G1200

表示空气循环风量为 1200m3/h的柜式紫外线空气消毒器。示例 3:商 品名-孓 lO00

表示空气循环风量为 1000mθ /h的 移6 技术要求

6.1 基本工作条件消毒器在下述 使用电源电压

:≤gO%。

6.2 卫生技术要
6.2.1 原材料
6.2.1.1 消毒
(或保险器)及
ABS)原材料。
6.2.1.2空
styrene,
6.2.1.3初
的原材料。
6.2.1.4 H
6.2.1.5 柜
6.2.2 材质
6.2.2.1 壁挂
阻燃ABs塑料组 薄板制成。6.2.2.2 柜式及

板制成,前面板用A 料粒子高温模压成型。6.2.2.3 移动柜式消 采用无声万向轮。6.2.3 元器件
6.2.3.1 紫外线杀茵灯

6.2.3.1.1 辐射照度
紫外线杀菌灯的初始辐射照度应不低于 的93%,符合GB19258的规定。紫外线杀菌灯的

辐射照度额定值应符合表 1的规定。
表 1 单端紫外线杀茵灯紫外线辐射照度额定值

标称功率W

辐射照度 FtW/cm2

注1:紫外线辐射照度的测量距离为1。 000m。注2:表中辐射照度值为双管灯参效。

55(T5)

GB 28235-2011

制线路板、保险丝盒Butadien←styrene,

lonitrII ←Butadiene- 及活性炭纤维滤材

成型、电器控制盒用;后壁板用 0.8cm的镀锌

3

GB28235-2011

6.2.3.1.2 初始臭氧产出率
紫外线杀菌灯的初始臭氧产出率应低于0。 05g/(kW· h),符合GB19258的规定。

6.2.3.1.3 电参数和技术性能紫外线杀菌灯的电参数、技术性能应符合GB19258的规定。

6.2.3.2 镇流器、起动器 镇流器的镇流器、起动器应符合 GB19258的规定。

6.2.3.3 过滤网
初效过滤器的过滤网活性炭纤维滤材厚度应≥0.5cm。 紫外线阻挡中效过滤器的过滤网活性炭纤

维滤材厚度应≥0.6cm。 使用的活性炭纤维滤材不得有活性炭粉尘脱落。6.2.4 有效寿命

应≥1000h。6.2.5 工作噪声

整机运行时应平稳可靠、无振动,噪声限值为≤55dB(A计权)。6.2.6 循环风Ι要求

出厂时的循环风量应不小于适用体积的10倍。6.2.7 消毒效果

在空气消毒效果试验中,对白色葡萄球菌(8032株)的杀灭率≥99.90%,或对自然菌的消亡率 ≥90%的消毒时间不超过 3h者为合格。

用于医疗机构环境空气消毒的,还应符合GB15982的卫生标准值。6.2.8 适用体积

不得少于 30m3。6.2.9 泄漏I

6.2.9.1 紫外线泄漏II
距消毒器周边 30cm处,紫外线泄漏量应≤5uW/cm2。

6.2。 θ.2 臭氧泄漏工 在有人条件下,消毒器工作时室内空气环境中的1h平均最高容许臭氧浓度为0.1mg/m3,符合

GB/T18202的规定。6.3 安全性技术要求6.3.1 电器安全性

消毒器显示盘上的仪表、电源开关、指示灯、网电源熔断器、过电流释放器、标牌,设备安装、接线、操 作等安全性应符合 GB9706.1的规定。
6.3.2 安装和使用的安全性

消毒器应装配 220V专用电源插座,并应符合 GB20.99.1的要求。设定消毒时间,接通 220V电源,指示灯显示、消毒器开始工作,工作完毕后,自 动停机。

壁挂式消毒器安装时,应将本机牢固地挂在离地面2。 Om以上高度的墙壁上。7 应用范围

消毒器适用于医疗机构、有卫生要求的生产车间、需要消毒的公共场所及家庭居室等场所有人在条件下的室内空气消毒,也可在无人条件下使用。

8 使用方法

8.1 根据待消毒处理空间的体积大小,选择适用的消毒器机型。每台消毒器的适用体积不得大于技术参数的规定,可根据实际使用环境情况进行适当调整,上调幅度不得超过 1m3。 如待消毒空间的体积

4

过大,应根据体积计算增加消毒器的数量。
8.2 按照产品使用说明书要求安装消毒器。
8.3 进行空气消毒时,应关闭门窗,接通电源,指示灯亮,按动开关或遥控器,设定消毒时间,开机5min稳定后,机器开始工作。按设定程序经过一个消毒周期,完成消毒处理。消毒器运行方式采用间断运行。

9 检验方法

9.1 电源电压、温度、相对湿度 用通用计量器具测定。

9.2 消毒器原材料 用目视法检验。

9.3 消毒器材质 用目视法检验。

9.4 镇流器 按GB19258规定的方法测定。

9.5 起动器
按 GB19258规定的方法测定。

9.6 紫外线杀菌灯
9.6.1 紫外线杀菌灯辐射照度

应使用中心波长为 253.7nm的紫外线辐射照度计,按《消毒技术规范》(2002年版)规定的方法测定。

日常监测可参考紫外线强度照射指示卡的测定结果。g。 6.2 紫外线杀茵灯初始臭氧产出率

按GB19258规定的方法测定。9.6.3 紫外线杀茵灯电参数和技术性能

按GB19258的规定的方法测定。θ。7 紫外线杀菌灯有效寿命

有效寿命检测方法按 YY/TO160规定的方法测定。9.8 消毒器电器安全性指标

按 GB9706.1中规定的方法测定。θ。9 消毒器工作噪声

按 GBZ/T189.8规定的方法测定。

9.10 消毒器循环风呈按GB/T14294规定的方法测定。

9.1l 消毒器消毒效果 按《消毒技术规范》(zO02年版)规定的方法测定。

g。 12 消毒器泄漏II9.12.1 紫外线泄漏旦

开启消毒器5min待稳定后,在距离消毒器外表面30cm处,用紫外线辐射照度计检测紫外线辐射 照度,测定方法按《消毒技术规范》(2002年版)的方法测定。
9.12.2 臭氧泄漏I

按 GB/T18202规定的方法测定。

GB28235-2011

5

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