Knowledge (XXG)

Leaf sensor

Source đź“ť

918: 882: 906: 894: 84:
interfaces. For example, a base system utilizing the wirelessly transmitted information of several sensors appropriately distributed over various sectors of a round field irrigated by a center-pivot irrigation system could tell the irrigation lever exactly when and what field sector needs to be irrigated.
78:
A Phase I research grant from the National Science Foundation in 2007 showed that the leaf sensor technology has the potential to save between 30% and 50% of irrigation water by reducing irrigation from once every 24 hours to about every 2 to 2.5 days by sensing impending water deficit stress. Leaf
96:
Precision irrigation monitoring using the SG-1000 leaf sensor and commercial data loggers for irrigation control has been achieved in recent years. Researchers have found a direct correlation between leaf thickness and Relative Water Content (RWC) of plant leaves using the SG-1000 Leaf Sensor under
105:
The agriculture sustainability benefits of water and energy savings have been established using the SG-1000 leaf sensor under field conditions and in greenhouses. Plant science researchers and agronomists have utilized the SG-1000 Leaf Sensor for studying the relationship between water content and
92:
In a 2008 USDA sponsored field study AgriHouse's SG-1000 Leaf Sensor attached to dry beans demonstrated a 25% savings of irrigation water and pumping cost. In 2010 the University of Colorado, Boulder, Colorado granted AgriHouse Inc an exclusive license of its patented leaf sensor technology.
83:
of a leaf, which decreases dramatically at the onset of leaf dehydration. Early detection of impending water deficit stress in plants can be used as an input parameter for precision irrigation control by allowing plants to communicate water requirements directly to humans and/or electronic
270: 48:
for a mechanical leaf thickness sensing device in 2001. LeafSen has made strides incorporating their leaf sensory technology into citrus orchards in Israel. A solid state smart leaf sensor technology was developed by the
43:
processes) that measures water loss or the water deficit stress (WDS) in plants by real-time monitoring the moisture level in plant leaves. The first leaf sensor was developed by LeafSens, an Israeli company granted a
106:
leaf cell turgidity potential and leaf thickness. Plant leaf characteristics including water potential and osmotic water potential relationships have been studied with the device.
443:
Seelig, Hans-Dieter; Stoner, Richard J.; Linden, James C. (July 2012). "Irrigation control of cowpea plants using the measurement of leaf thickness under greenhouse conditions".
415: 65:(NSF) STTR grant in conjunction with the University of Colorado to further develop the solid state leaf sensor technology for precision irrigation control in 2007. 202: 478:
Seelig, Hans-Dieter; Wolter, Adelheid; Schröder, Fritz-Gerald (5 March 2015). "Leaf thickness and turgor pressure in bean during plant desiccation".
523: 822: 28: 50: 303: 328: 304:"CU-Boulder Invention May Allow Thirsty Crops to Signal Farmers | News Center | University of Colorado at Boulder" 786: 62: 817: 516: 949: 917: 617: 360: 285: 827: 685: 632: 543: 203:"Physiological functions characteristic of plants, 2009, National Center for Biological Information (MeSH)" 268:, Bravado, B.A., Sharon, Y., Seligmann, R., "Leaf thickness sensing device", issued 2001-02-13 383: 886: 647: 509: 342: 265: 812: 761: 136: 905: 637: 579: 680: 607: 460: 847: 756: 416:"AgriHouse Inc. Completes Exclusive License for Univ. of Colorado Water Management Technology" 247: 218:"Unraveling the effects of plant hydraulics on stomatal closure during water stress in walnut" 944: 922: 862: 642: 487: 452: 237: 229: 156: 40: 898: 842: 652: 361:"New Device Lets Plants Talk: Smart sensors let crops text-message growers for more water" 176: 80: 79:
sensor technology developed by AgriHouse indicates water deficit stress by measuring the
867: 171: 307: 242: 217: 938: 791: 700: 612: 602: 161: 832: 776: 705: 597: 532: 464: 491: 429: 910: 852: 807: 735: 730: 662: 627: 574: 569: 146: 121: 837: 751: 720: 695: 564: 559: 456: 151: 141: 116: 58: 771: 675: 622: 45: 251: 17: 368: 27: 857: 670: 329:"AgriHouse Inc. Wins NSF Grant to Develop CU Water Management Technology" 126: 401: 710: 131: 233: 715: 690: 781: 402:"AgriHouse awarded exclusive licensing for leaf sensor technology" 181: 26: 725: 166: 54: 505: 501: 216:
Cochard H, Coll L, Le Roux X, Améglio T (January 2002).
404:. Northern Colorado Business Report. January 12, 2010. 57:
in 2007. It was designed to help monitor and control
430:"Sensors Enable Farmers to Text Messages to Farmers" 800: 744: 661: 590: 552: 384:"New Leaf Sensor Alerts When Plants Are Thirsty" 517: 8: 348:. National Science Foundation. June 7, 2007. 331:. University of Colorado TTO. June 7, 2007. 524: 510: 502: 432:. NASA Spinoff Publication. January 2012. 241: 39:is a phytometric device (measurement of 194: 31:AgriHouse Smart Leaf Sensor (SG-1000) 7: 893: 823:Controlled-environment agriculture 25: 74:Water deficit stress measurements 51:University of Colorado at Boulder 916: 904: 892: 881: 880: 418:. Seed Today. January 11, 2010. 382:M. O'Brien; M. Walton (2010). 1: 492:10.1016/j.scienta.2014.12.025 101:Water and Energy Conservation 61:demand. AgriHouse received a 787:Ultrasonic hydroponic fogger 388:National Science Foundation 63:National Science Foundation 966: 818:Aquaculture of sea sponges 876: 539: 457:10.1007/s00271-011-0268-2 828:Historical hydroculture 686:Expanded clay aggregate 633:Nutrient film technique 544:Historical hydroculture 480:Scientia Horticulturae 371:on September 13, 2012. 32: 648:Sub-irrigated planter 266:US patent 6185833 30: 813:Aquaculture of coral 762:Irrigation sprinkler 343:"Turning A New Leaf" 69:Precision monitoring 638:Organic hydroponics 41:plant physiological 681:Diatomaceous earth 608:Deep water culture 445:Irrigation Science 359:Jones, W. (2009). 284:Cohen, D. (2001). 97:field conditions. 88:Irrigation control 59:agricultural water 33: 932: 931: 848:Plant propagation 757:Hydroponic dosers 234:10.1104/pp.010400 16:(Redirected from 957: 950:Plant physiology 920: 908: 896: 895: 884: 883: 863:Vertical farming 801:Related concepts 526: 519: 512: 503: 496: 495: 475: 469: 468: 440: 434: 433: 426: 420: 419: 412: 406: 405: 398: 392: 391: 379: 373: 372: 367:. Archived from 356: 350: 349: 347: 339: 333: 332: 325: 319: 318: 316: 315: 306:. Archived from 300: 294: 293: 286:"Fruit Drinking" 281: 275: 274: 273: 269: 262: 256: 255: 245: 213: 207: 206: 199: 157:Plant physiology 21: 965: 964: 960: 959: 958: 956: 955: 954: 935: 934: 933: 928: 872: 843:Plant nutrition 796: 740: 657: 586: 548: 535: 530: 500: 499: 477: 476: 472: 442: 441: 437: 428: 427: 423: 414: 413: 409: 400: 399: 395: 381: 380: 376: 358: 357: 353: 345: 341: 340: 336: 327: 326: 322: 313: 311: 302: 301: 297: 283: 282: 278: 271: 264: 263: 259: 215: 214: 210: 201: 200: 196: 191: 186: 177:Turgor Pressure 112: 103: 90: 81:turgor pressure 76: 71: 23: 22: 15: 12: 11: 5: 963: 961: 953: 952: 947: 937: 936: 930: 929: 927: 926: 914: 902: 890: 877: 874: 873: 871: 870: 868:Water aeration 865: 860: 855: 850: 845: 840: 835: 830: 825: 820: 815: 810: 804: 802: 798: 797: 795: 794: 789: 784: 779: 774: 769: 764: 759: 754: 748: 746: 742: 741: 739: 738: 733: 728: 723: 718: 713: 708: 703: 698: 693: 688: 683: 678: 673: 667: 665: 659: 658: 656: 655: 650: 645: 640: 635: 630: 625: 620: 615: 610: 605: 600: 598:Aquatic garden 594: 592: 588: 587: 585: 584: 583: 582: 572: 567: 562: 556: 554: 550: 549: 547: 546: 540: 537: 536: 531: 529: 528: 521: 514: 506: 498: 497: 470: 451:(4): 247–257. 435: 421: 407: 393: 374: 351: 334: 320: 295: 276: 257: 208: 193: 192: 190: 187: 185: 184: 179: 174: 172:Sustainability 169: 164: 159: 154: 149: 144: 139: 134: 129: 124: 119: 113: 111: 108: 102: 99: 89: 86: 75: 72: 70: 67: 24: 14: 13: 10: 9: 6: 4: 3: 2: 962: 951: 948: 946: 943: 942: 940: 925: 924: 919: 915: 913: 912: 907: 903: 901: 900: 891: 889: 888: 879: 878: 875: 869: 866: 864: 861: 859: 856: 854: 851: 849: 846: 844: 841: 839: 836: 834: 831: 829: 826: 824: 821: 819: 816: 814: 811: 809: 806: 805: 803: 799: 793: 792:Water chiller 790: 788: 785: 783: 780: 778: 775: 773: 770: 768: 765: 763: 760: 758: 755: 753: 750: 749: 747: 743: 737: 734: 732: 729: 727: 724: 722: 719: 717: 714: 712: 709: 707: 704: 702: 699: 697: 694: 692: 689: 687: 684: 682: 679: 677: 674: 672: 669: 668: 666: 664: 660: 654: 651: 649: 646: 644: 643:OrganopĂłnicos 641: 639: 636: 634: 631: 629: 626: 624: 621: 619: 616: 614: 613:Kratky method 611: 609: 606: 604: 603:Bottle garden 601: 599: 596: 595: 593: 589: 581: 578: 577: 576: 573: 571: 568: 566: 563: 561: 558: 557: 555: 551: 545: 542: 541: 538: 534: 527: 522: 520: 515: 513: 508: 507: 504: 493: 489: 485: 481: 474: 471: 466: 462: 458: 454: 450: 446: 439: 436: 431: 425: 422: 417: 411: 408: 403: 397: 394: 389: 385: 378: 375: 370: 366: 365:IEEE Spectrum 362: 355: 352: 344: 338: 335: 330: 324: 321: 310:on 2009-12-08 309: 305: 299: 296: 291: 290:New Scientist 287: 280: 277: 267: 261: 258: 253: 249: 244: 239: 235: 231: 228:(1): 282–90. 227: 223: 222:Plant Physiol 219: 212: 209: 204: 198: 195: 188: 183: 180: 178: 175: 173: 170: 168: 165: 163: 162:Plant Science 160: 158: 155: 153: 150: 148: 145: 143: 140: 138: 135: 133: 130: 128: 125: 123: 120: 118: 115: 114: 109: 107: 100: 98: 94: 87: 85: 82: 73: 68: 66: 64: 60: 56: 52: 47: 42: 38: 29: 19: 921: 909: 897: 885: 833:Hydroponicum 777:Spray nozzle 766: 706:Mineral wool 618:Ebb and flow 533:Hydroculture 483: 479: 473: 448: 444: 438: 424: 410: 396: 387: 377: 369:the original 364: 354: 337: 323: 312:. Retrieved 308:the original 298: 289: 279: 260: 225: 221: 211: 197: 137:Conservation 104: 95: 91: 77: 36: 34: 923:Wikiversity 853:Rhizosphere 808:Algaculture 767:Leaf sensor 745:Accessories 731:Vermiculite 628:Microponics 575:Hydroponics 570:Aquascaping 147:Hydroponics 122:Agriculture 37:leaf sensor 18:Leaf Sensor 939:Categories 838:Paludarium 752:Grow light 736:Wood fibre 721:Rice hulls 696:Growstones 663:Substrates 565:Aquaponics 560:Aeroponics 314:2009-08-30 152:Irrigation 142:Greenhouse 117:Aeroponics 911:Wikibooks 701:Lava rock 676:Coco peat 623:Fogponics 486:: 55–62. 189:Footnotes 46:US patent 887:Category 858:Root rot 671:Charcoal 653:Top drip 591:Subtypes 252:11788773 127:Agronomy 110:See also 945:Sensors 899:Commons 772:Net-pot 711:Perlite 580:passive 465:5030522 292:(2290). 132:Drought 782:Timers 716:Pumice 691:Gravel 463:  272:  250:  243:148995 240:  553:Types 461:S2CID 346:(PDF) 182:Water 726:Sand 248:PMID 167:Soil 55:NASA 53:for 488:doi 484:184 453:doi 238:PMC 230:doi 226:128 941:: 482:. 459:. 449:30 447:. 386:. 363:. 288:. 246:. 236:. 224:. 220:. 35:A 525:e 518:t 511:v 494:. 490:: 467:. 455:: 390:. 317:. 254:. 232:: 205:. 20:)

Index

Leaf Sensor

plant physiological
US patent
University of Colorado at Boulder
NASA
agricultural water
National Science Foundation
turgor pressure
Aeroponics
Agriculture
Agronomy
Drought
Conservation
Greenhouse
Hydroponics
Irrigation
Plant physiology
Plant Science
Soil
Sustainability
Turgor Pressure
Water
"Physiological functions characteristic of plants, 2009, National Center for Biological Information (MeSH)"
"Unraveling the effects of plant hydraulics on stomatal closure during water stress in walnut"
doi
10.1104/pp.010400
PMC
148995
PMID

Text is available under the Creative Commons Attribution-ShareAlike License. Additional terms may apply.

↑