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User talk:137Fy

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Conditions for Human Occupancy, "there are large variations, both physiologically and psychologically, from person to person, it is difficult to satisfy everyone in a space. The environmental conditions required for comfort are not the same for everyone." ‘’’Rapid Response’’’ – Cove heaters heat instantly and are an ‘even’ heat. It is draftless with minimal temperature differential from floor to ceiling. Within a case study during a record cold winter, thermal analysis showed the radiant panel system provides localized thermal comfort after thermostat set back or recovery within 10 to 15 minutes and room-wide comfort in approximately 45 minutes. ‘’’Clean and Quiet’’’ – Since this heater design has no moving parts or combustion it is a silent heater and with no fans in operation there are no filters to clean. ‘’’Save Space and Floor Area’’’ – Since this system is mounted high on the wall, all floor space can be utilized for greater freedom of furnishings arrangement. This also allows for safer operation as the system is high and out of reach.
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interest is the fact that regardless of the source of heat – this heat increases the activity within the atoms of the structure. The increased movement of the internal elements of the atoms results in great emissions from each atom of electro-magnetic energy which is beamed into space equally in all directions.(electromagnetic energy source) Also of interest is the fact that CO2 moisture-laden air have a high affinity for energy in this wave length thus resulting in instant heating of these particles and these in turn on impact with oxygen and nitrogen heat these in direct proportion to the angle of impact. (electromagnetic energy source) Thus the air in the heated space is also heated indirectly but sufficiently to permit temperature control by a standard air type thermostat from anywhere in the within the heated area.
87:(186,282 miles per second) and reaches the body and objects instantly, and also instantly becomes converted to heat in the surface of the body and or objects. The system’s effectiveness is also enhanced since it beams energy at a wave length which the human skin can most comfortably absorb. It is this direct warming that gives the sense of optimal thermal comfort and well-being at lower air temperatures, thus lowering operating costs. The typical body has between 20 ft2 to 22 ft2 of surface area which serves as a radiator for releasing heat via radiation to lower the body temperature or as an absorber to take in radiant energy to raise the body temperature. The skins emissivity is around 0.98 which makes it almost perfect as a radiator and absorber. 338:
But this high speed of distribution in itself is not alone a factor in the high efficiency of this system. It is important that as much of the input energy (heat) to the panel be radiated with little loss to convection and conduction. Other factors such as surface temperature, surface aspect ratio (20 to 1 i.e. length to height most desirable to reduce induced convection to the minimum) and total effective surface are all important; but the emissivity of the panel surface is the key to high efficiency for rapid comfort heating at minimum power consumption.
292:‘’’Infrared Heats Everything’’’ – Since this system primarily utilizes infrared heat, it not only heats the air, it heats everything in its path. Air is low in density therefore it is easier for it to dissipate energy or change temperatures. By warming higher density objects such as furniture and the floor it creates thermal mass within the heated space and allows for more optimal 365:
done with maximum efficient use of input power, it is essential not only that the surface of the panel be heated to the exact temperature range but also that the surface be a most efficient emitter. Because of the exacting requirements, the composition of this type of heating system requires the proper and successful arrangement of specific components to achieve these results.
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perfect parabolic reflector surface as it is desired that the radiation of energy be as diffused throughout the space to be heated as much as possible. (thermal comfort source) (However for certain industrial baking, drying or curing applications an effective parabolic reflector system used with the panel is desirable to focus the energy exactly to the product in process.)
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The reflector is a vital part of the system since it reflects back through the panel all wave energy emitted from the back surface of the Front Panel. This functions much like how a headlight reflector reflects light energy forward for a brighter beam. For human heating it is not desirable to have a
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The heating element is one of the electric resistance type. These elements are known as Calrod heating Elements. A heating element converts electricity into heat through the process of Joule heating. Electric current through the element encounters resistance, resulting in heating of the element. Of
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A high emissive finish with a flat or matte coating used in combination of the basic substrate (aluminum alloys), results in a system of high efficiency. It does not produce more B.T.U.’s per watt of electric energy but rather distributes this energy faster than other heat systems (speed of light).
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The object of this heating system is to directly and instantly heat the human body and/or other objects. To do this, it is required that the system beam energy into the desired space with a safe infrared wave length which the human body and/or objects can best absorb. To provide that this must be
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with the basic and prime object of having a surface and body condition which assures a maximum emissivity factor. The human skin has a 98% emissivity and thus also absorptivity factor of 98%. Note: a good emitter is also a good absorber and vice versa. (2) The panel is designed and constructed to
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in each room can be specifically tailored to individual area requirements. The result is economical heating and automatic heating comfort for each heating area instead of heating the entire building with one centrally located thermostat. According to ANSI/ASHRAE Standard 55, Thermal Environmental
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cove heating units provide a highly efficient radiant surface for maximum instant human comfort heating. Cove heaters are designed to be located at the junction of the ceiling and wall, a feature that provides optimum heating and saves floor space while providing better latitude for furnishings
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operate at a temperature which results in the radiation of electro-magnetic energy (infrared) in wave lengths from 4.7 to 5.6 microns which have been found to be most compatible with what the human body can best absorb for maximum comfort.(Skin Infrared Microns absorb source)
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from the Sun sends no heat to the Earth, it sends radiant waves or energy that can produce heat after the waves strike an object. When this energy strikes an object it causes the molecules of the absorbing object to vibrate. This vibration converts the energy into heat.
764:. It's reasonable to have doubts about citations you can't read, and there are a variety of strategies for dealing with non-English (or, analogously, off-line) sources, but they are permitted by policy. Have a great day! -- 124:
is invisible light and does not contain harmful radiation waves. This system creates a man-made sunlight type of heat. Much of the energy from the Sun arrives on Earth in the form of infrared radiation. Sunlight at
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heat which passes through the air as energy striking everything in its path such as floor, walls and furniture so that our bodies need not accelerate their rate of heat dissipation for optimal
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Thank you for reviewing my article, you recently declined: Articles for creation/Cove heater Comment: No significant changes from the last review 137Fy (talk) 12:12, 21 April 2013 (UTC)
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justification was incorrect. There is no requirement for references to be in English. Please don't decline articles using that as valid criteria. Regards and happy editing,
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The original submission is not displayed within the new submission. Below is the original. There have been many changes since the first submission.
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per square meter at sea level. Of this energy, 527 watts is infrared radiation, 445 watts is visible light, and 32 watts is ultraviolet radiation
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of the emitting surface of the panel. If the emissivity is low, a greater percentage of the input power is dissipated in
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arrangement. Its radiant transfer is a linear function from warm objects to colder objects. Cove heaters produce
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Watson, R., & Chapman, K. Ph.D. (1996, July). Radiant Heating for Thermal Comfort. ASHRAE Journal. 24-30.
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Watson, R., & Chapman, K. Ph.D. (1996, July). Radiant Heating for Thermal Comfort. ASHRAE Journal. 24-30.
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Watson, R., & Chapman, K. Ph.D. (1996, July). Radiant Heating for Thermal Comfort. ASHRAE Journal. 24-30.
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I came here to say the same thing, the relevant Knowledge policy is part of our Verifiability policy at
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That is not correct. An article can be verifiable even if all of the sources are not in English.
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Reusch, William (1999). "Infrared Spectroscopy". Michigan State University. Retrieved 2012-10-27.
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non-English sources are also acceptable though English sources are obviously preferred. Yours,
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My point is that you need at least one English source. Otherwise the verification falls apart.
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Description of Components and other observations pertinent to this Radiant Heating System:
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Hello, as requested i updated the page with new references, could you please check again;
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with a comment that said "English article needs English sources". That's not correct; per
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http://en.wikipedia.org/Wikipedia_talk:Articles_for_creation/Ali_R%C4%B1za_Babao%C4%9Flan
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http://www2.chemistry.msu.edu/faculty/reusch/VirtTxtJml/Spectrpy/InfraRed/infrared.htm
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systems are specifically designed in configuration for maximum instant human
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and coated with specific high emissivity flat, matted finish, enamel or
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1.24 <a href="/Milli" title="Milli" class="db-bXctcmVkaXJlYw": -->
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The key to the efficiency and effectiveness of this system is the
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This message was delivered automatically by your robot friend,
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Watson, Richard (1996). "Radiant Heating for Thermal Comfort".
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The heat panel is most commonly composed of high heat transfer
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It is a common belief that all heat only rises. According to
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Knowledge talk:Articles for creation/Alexander Karasyov
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Electric fast-acting 1: 296:with lower operating costs. 165:Photon Energy (eV)</a: --> 710: 148:Light Comparison</a: --> 822: 755:21:27, 24 April 2013 (UTC) 728:01:15, 22 April 2013 (UTC) 679: 668:17:02, 24 April 2013 (UTC) 653:19:26, 21 April 2013 (UTC) 639:18:42, 21 April 2013 (UTC) 611:19:50, 24 April 2013 (UTC) 25:14:07, 21 April 2013 (UTC) 525:Michigan State University 161:Frequency (Hz)</a: --> 145: 805:14:59, 16 May 2013 (UTC) 648: 342:Reflector or Back Shield 20: 771:14:20, 1 May 2013 (UTC) 201:Ultraviolet</a: --> 91:Common Misconceptions 660:Arthur goes shopping 333:High Emissive Finish 171:Gamma ray</a: --> 743:Your recent decline 706:I'm a Teahouse host 617:Non-English sources 777:Ali Riza Babaoglan 713:Visit the Teahouse 479:"Facts about Skin" 422:Unknown parameter 406:Unknown parameter 274:300 GHz</a: --> 216:Visible</a: --> 180:124 keV - 300+ GeV 808: 791:comment added by 735: 734: 730: 550:Missing or empty 523:Reusch, William. 504:. Healthy Heating 481:. Healthy Heating 285: 284: 270:1 mm - 100,000 km 256:300 GHz - 300 MHz 238:430 THz - 300 GHz 222:790 THz - 430 THz 195:124 eV to 124 keV 174:less than 0.01 nm 813: 807: 785: 717: 715: 696:Be our guest at 685: 678: 677: 596: 593: 587: 584: 578: 575: 569: 566: 560: 559: 553: 548: 546: 538: 536: 534: 520: 514: 513: 511: 509: 497: 491: 490: 488: 486: 474: 463: 460: 454: 453: 451: 449: 438: 432: 431: 425: 419: 413: 409: 404: 402: 394: 386: 267:Radio</a: --> 210:3.3 eV to 124 eV 207:30 PHz - 790 THz 189:0.01 nm to 10 nm 186:X-Ray</a: --> 177:more than 10 EHz 143: 821: 820: 816: 815: 814: 812: 811: 810: 786: 779: 740: 731: 716: 711: 676: 619: 600: 599: 594: 590: 585: 581: 576: 572: 567: 563: 549: 539: 532: 530: 522: 521: 517: 507: 505: 499: 498: 494: 484: 482: 476: 475: 466: 461: 457: 447: 445: 441:Dr. Kuew, S.C. 440: 439: 435: 421: 405: 395: 388: 387: 376: 371: 362: 353: 351:Heating Element 344: 335: 322:aluminum alloys 318: 310: 297: 294:thermal comfort 290: 276:3 Hz</a: --> 225:1.7 eV - 3.3 eV 219:380 nm - 700 nm 192:30 EHz - 30 PHz 133:of just over 1 93: 66:thermal comfort 53:thermal comfort 46: 32: 12: 11: 5: 819: 817: 778: 775: 774: 773: 739: 736: 733: 732: 695: 688: 686: 675: 672: 671: 670: 618: 615: 598: 597: 588: 579: 570: 561: 515: 500:Bean, Robert. 492: 477:Bean, Robert. 464: 455: 433: 391:ASHRAE Journal 373: 372: 370: 367: 361: 358: 352: 349: 343: 340: 334: 331: 317: 314: 309: 306: 291: 289: 286: 283: 282: 277: 271: 268: 263: 262: 257: 254: 253:1 mm - 1 meter 251: 245: 244: 239: 236: 233: 227: 226: 223: 220: 217: 212: 211: 208: 205: 204:10 nm - 380 nm 202: 197: 196: 193: 190: 187: 182: 181: 178: 175: 172: 167: 166: 162: 158: 155: 151: 150: 140: 97:thermodynamics 92: 89: 85:speed of light 45: 42: 40: 31: 28: 13: 10: 9: 6: 4: 3: 2: 818: 809: 806: 802: 798: 794: 790: 784: 776: 772: 769: 767: 763: 759: 758: 757: 756: 752: 748: 747:FoCuSandLeArN 744: 737: 729: 725: 721: 714: 709: 707: 703: 699: 693: 687: 684: 680: 673: 669: 665: 661: 657: 656: 655: 654: 650: 646: 641: 640: 636: 632: 628: 624: 621:You declined 616: 614: 612: 608: 604: 592: 589: 583: 580: 574: 571: 565: 562: 557: 544: 529: 526: 519: 516: 503: 496: 493: 480: 473: 471: 469: 465: 459: 456: 444: 437: 434: 429: 417: 400: 392: 385: 383: 381: 379: 375: 368: 366: 359: 357: 350: 348: 341: 339: 332: 330: 327: 326:powder coated 323: 315: 313: 307: 305: 302: 295: 287: 280:fe</a: --> 278: 272: 269: 265: 264: 260:µe</a: --> 258: 255: 252: 250: 247: 246: 242:me</a: --> 240: 237: 235:700 nm - 1 mm 234: 232: 229: 228: 224: 221: 218: 214: 213: 209: 206: 203: 199: 198: 194: 191: 188: 184: 183: 179: 176: 173: 169: 168: 163: 159: 156: 153: 152: 149: 144: 141: 138: 136: 132: 128: 123: 122:Infrared heat 118: 114: 110: 106: 102: 98: 90: 88: 86: 82: 78: 74: 69: 67: 63: 58: 54: 50: 43: 41: 38: 35: 29: 27: 26: 22: 18: 793:Alibabaoglan 787:— Preceding 780: 741: 702:SarahStierch 698:the Teahouse 691: 689: 642: 620: 601: 591: 582: 573: 564: 531:. 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Index

137Fy
talk
14:07, 21 April 2013 (UTC)
thermal comfort
radiant
infrared
thermal comfort
emissivity
convection
conduction
speed of light
thermodynamics
Heat
energy
Radiant Heat
energy
solar energy
Infrared heat
zenith
irradiance
kilowatt
Microwave
thermal comfort
thermostats
aluminum alloys
powder coated



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