| 瑭崇窗鍙冩暩(sh霉) | |||
|---|---|---|---|
| 鍝佺墝 | 鍏朵粬 | 鍨嬭櫉 | MCBW-1821 |
| 鍔犲伐瀹氬埗 | 鏄� | 椤炲瀷 | 鐗╃悊鏁欏鍎€鍣� |
| 鏉愯唱 | 閻� | 绲愭鍨嬪紡 | 绲勫悎寮� |
| 闆绘鍔熺巼 | 15KW | 宸ヤ綔闆诲 | 380V |
| 澶栧舰灏哄 | 3900,2700,3500 | 鐢ㄩ€� | 寤虹瓚闁€绐楃殑淇濇韩鎬ц兘妾㈡脯 |
| 鐢�(ch菐n)鍦� | 涓婃捣 | ||
MCBW-1821闁€绐椾繚婧€ц兘妾㈡脯瑷倷 寤虹瓚闁€绐椾繚婧€ц兘妾㈡脯瑷倷 寤虹瓚闁€绐椾繚婧€ц兘瑭﹂姗�
涓€銆佽ō鍌欑啊浠嬶細寤虹瓚闁€绐椾繚婧€ц兘妾㈡脯瑷倷鏄垜鍏徃鏈€鏂扮爺鍒堕枊鐧�(f膩)鐨勫叏鑷嫊妾㈡脯绯荤当(t菕ng)銆備緷鐓B/T 8484-2020銆婂缓绛戝闁€绐椾繚婧€ц兘妾㈡脯鏂规硶銆�锛岃┎鏂规硶鐨勭悊璜栦緷鎿�(j霉)鐐篏B/T 13475-2008 銆婄禃鐔� 绌�(w臎n)鎱�(t脿i)鍌崇啽鎬ц唱鐨勬脯瀹� 妯欏畾鍜岄槻璀风啽绠辨硶銆嬩腑鐨勬瀹氱啽绠辨硶銆傚畠鏄熀浜庣┅(w臎n)鎱�(t脿i)鍌崇啽鍘熺悊锛岄噰鐢ㄦ瀹氱啽绠辨硶妾㈡脯寤虹瓚澶栭杸绐楀偝鐔辩郴鏁�(sh霉)銆傝│浠朵竴鍋寸偤鐔辩锛屾ā鎿緵鏆栧缓绛戝啲瀛ｅ鍏ф埃婧浠讹紱鍙︿竴鍋寸偤鍐风锛屾ā鎿啲瀛ｅ澶栨埃婧拰姘ｆ祦閫熷害銆傚湪灏嶈│浠剁斧闅欓€茶瀵嗗皝铏曠悊锛岃│浠跺叐鍋村悇鑷繚鎸佺┅(w臎n)瀹氱殑绌烘埃婧害銆佹埃娴侀€熷害鍜岀啽杓诲皠姊濅欢涓�锛屾脯閲忕啽绠变腑鍔犵啽瑁濈疆鍠綅鏅傞枔鍏х殑鐧�(f膩)鐔遍噺锛屾笡鍘婚€氶亷鐔辩澹�銆佽│浠舵銆佸～鍏呮澘銆佽│浠跺拰濉厖鏉块倞绶ｇ殑鐔辨悕澶憋紝闄や互瑭︿欢闈㈢⿳鑸囧叐鍋寸┖姘ｆ韩宸殑涔樼⿳锛屽嵆鍙緱鍒拌│浠剁殑鍌冲煼(zh铆)绯绘暩(sh霉)K鍊�銆�
浜�銆佹妧琛撳弮鏁�(sh霉)锛�
1銆佺啽绠辨帶婧寖鍦嶏細10锝�50鈩� 娓噺绮惧害锛�0.2鈩� 锛�
2銆佹帶婧尝鍕曡寖鍦嶏細0.01锝�0.1 鈩冿紱
3銆佸喎绠辨帶婧寖鍦嶏細-22锝�-10鈩� 娓噺绮惧害锛�0.2鈩冿紱
4銆佹帶婧尝鍕曡寖鍦嶏細0.01锝�0.2 鈩� 锛�
5銆佺啽绠卞姛鐜囨脯鎺ц寖鍦嶏細10锝�1500W 绮惧害锛�0.2% 锛�
6銆佺啽绠辩┅(w臎n)鎱�(t脿i)鍔熺巼娉㈠嫊鑼冨湇锛� ≤1% 锛�
7銆佹脯瑭︽晥鐜囷細
(1) 鏂风簩(x霉)瑭︿欢娓│锛氭寚涓嶅畾鏈熼枔姝囧紡娓│涓€鍊嬭│浠剁附鑰楁檪绱勶細9锝�10灏忔檪/浠� 锛�
(2) 閫ｇ簩(x霉)瑭︿欢娓│锛氭寚涓€娈垫檪鏈熷収锛岄€ｇ簩(x霉)娓│鍚屼竴鎴栦笉鍚屼竴瑭︿欢鐨勭附鑰楁檪绱� 8锝�9灏忔檪/ 浠� 锛�
8銆侀杸绐楄│浠跺昂瀵革細1500mm×1500mm 锝� 1800mm×2100mm鑼冨湇鍏ч伕瀹� 锛�
9銆侀厤闆诲嫊鍔涳細浜ゆ祦380V锛屽姛鐜�≤15kW 锛屼笁鐩镐簲绶氬埗 锛�
10銆佽ō鍌欏褰㈠昂瀵革細闀�×瀵�×楂�(mm) 3900×2700×3500 锛�
11銆佽ō鍌欏畨瑁濅娇鐢ㄧ┖闁擄細闀�×瀵�×楂�(mm) 6000×4200×4000
涓�銆佸劒(y艒u)鍕㈢壒榛烇細
1銆侀噰鐢ㄤ竴娆℃垚鍨嬭仛姘ㄨ剛鏉�锛屾瘡濉婇爯鍒舵澘鍥涘懆鍧囧煁鏈夐珮寮峰害閹栧叿锛屽瘑灏佽壇濂�锛� 绲勮鏂逛究銆傜壒鍒ヨō瑷堢殑瑙掓澘銆乀 鍨嬫澘鑳藉崄鍒嗘柟渚垮湴绲勬垚涓嶅悓灏哄瑕佹眰鐨勮│椹楀銆�
2銆佹墍鏈夋韩搴﹀偝鎰熷櫒鍏ㄩ儴閲囩敤鍦嬮殯鍏獚鐨勯珮绮惧害Pt1000閴戦浕闃�锛屼笉鎯滄垚鏈⒑淇濈簿搴�锛岄噰鐢ㄥ劒(y艒u)璩ぇ鍔熺巼鍐峰噸姗燂紝蹇€熷埗鍐�锛屾彁楂樿│椹楁晥鐜囷紱
3銆佸厛閫茬殑鏁�(sh霉)鎿�(j霉)閲囬泦铏曠悊绯荤当(t菕ng)锛屾墍鏈夋洸绶氱湡瀵﹂’绀猴紝鑳借嚜鍕曞皪绲愭灉閫茶鍒嗘瀽铏曠悊锛屽苟鍙婃檪婧栫⒑鐨勮几鍑烘娓牨鍛�锛�
4銆佹繒搴︽帶鍒剁郴绲�(t菕ng)閲囩敤灏堢敤闄ゆ繒姗燂紝鎺у埗绮惧害瀹屽叏婊胯冻鏂版婧栫殑瑕佹眰锛�
5銆佸師濮嬭閷勯噰鐢∕icrosoft Word閫茶铏曠悊锛岀敤鎴跺彲鑷淇敼鍒朵綔鍏у锛岃粺浠跺収闄勫湅瀹跺缓绛戝伐绋嬭唱閲忕洠(ji膩n)鐫ｆ椹椾腑蹇冪殑鍫卞憡鏍煎紡渚涚敤鎴跺弮鐓�銆俆he insulation perbance testing equipment for building doors and bs is the latest fully automatic testing system developed by our company. According to GB/T 8484-2020 "Test Method for Thermal Insulation Perbance of Building External Doors and Windows", the theoretical basis of this b is the calibration hot box b in GB/T 13475-2008 "Determination of Thermal Insulation Steady State Heat Transfer Properties - Calibration and Protection Hot Box Method". It is based on the principle of steady-state heat transfer and uses the calibrated hot box b to detect the heat transfer coefficient of building exterior doors and bs. One side of the test piece is a hot box, simulating the indoor temperature conditions of a heating building in winter; The other side is a cold box that simulates outdoor temperature and airflow velocity in winter. After sealing the gaps of the specimen and maintaining stable air temperature, airflow velocity, and thermal radiation conditions on both sides of the specimen, measure the heat generation per unit time of the heating device in the hot box. Subtract the heat loss passing through the hot box wall, specimen frame, filling plate, specimen, and filling plate edge, and divide by the product of the specimen area and the temperature difference between the air on both sides to obtain the K value of the specimen's adhesion coefficient.
娼よ壊璀枃瑭﹁│AI缈昏
绛嗚
