ew attraction methods of Ips typographus L. p yp gp and
Transcription
ew attraction methods of Ips typographus L. p yp gp and
ew attraction methods of Ips p typographus yp g p L. and Pityogenes chalcographus L. applied in pheromone baited traps Ph.D,Eng. Bartłomiej Bednarz Environmental abiotic factors affecting forest insects behaviour Light Temperature Humidity Precipitation Cumulative interaction of abiotic factors affecting forest insects (mesoclimate) Air Air pressure Wind ot coffee - thermal Infrared picture frared Map of Death Valley Erupting p g large g g geyser y in Yellowstone National Park Infrared Map of Mount St. Helens Infrared picture of deers ed spectrum is used for identifying what a surface is made. Both reflected and emitted energy tells us a lot ks and minerals minerals. We can distinguish minerals (gold and silver exploration). exploration) Estimate the distribution of rocks and Minerals absorb and emit thermal infrared radiation. The spectra produced by this infrared radiation acts as ts, identifying minerals and their proportion in an area. Thermogrames of trees Spruce forest damaged by bark beetles Spruce trees killed by bark beetle (colour infrared) http://www.smartplanes.se IR image of moth-damaged forest. (Infrared aerial of forest damaged b Gypsy by G Moths M th (Lymantria (L t i dispar di L ) Harford L.), H f d County, C t M Maryland) l d) Vampire bats (Desmodontinae) f frared d emitted itt d b by warm bl blooded d d animal i l Cut the skin of vertebrates with sharp teeth to lick up the blood Locate 'warm-blooded' blood. warm blooded prey with use of three heatsensitive pits on their nose that are thermally insulated from the surrounding tissue. Snakes i.e. crotaline snakes (Pit viper), boas (Boidae), pythons th use the th Infrared I f d thermodetectors to detect prey Snake eating the mouse Melanophila acuminata (DeGeer1774) (Buprestidae, Coleoptera) Pyrophilic beetle Melanophila acuminata can detect infrared radiation from forest fires for considerable distances even of 50 km. This is augmented also by a capacity to detect smoke, with the antennae highly sensitive to combustion products. cating of forest fires by the olfactory detection of fire-specific odours in combination with paired infrared pitgans located in the thorax of the insect (red arrows). Authors: Dr. Karl-Heinz Apel, Abt. Waldschutz, Landesforstanstalt Eberswalde Dr. Helmut Schmitz, Zoologisches Institut, Universität Bonn Phaenops cyanea (Fabricius, 1775) (Coleoptera, Buprestidae) elblue jewel beetle is thermophilic and pines i ttrees att forest f t fire fi areas and d sun exposed edges of forests Acanthocnemus nigricans (Hope, 1843) (Coleoptera, Acanthocnemidae) ralian ‘little ash beetle’ is attracted b fforestt fires by fi ((A)) Schematic drawing g of A. nigricans g ((ventral view, legs g omitted). ) Arrows point to the prothoracic organs (bar 500 μm). (B) SEM image of the head and the prothorax seen from the ventral side. The organs are situated in front of the coxae of the prothoracic legs (bar 200 μm). Authors: Eva Eva-Juliane Juliane Kreiss, Anke Schmitz, Helmut Schmitz, Rheinische Friedrich-Wilhelms-Universität Bonn, Institute of Zoology The influence of solar radiation on insects behaviour Affects gastrointestinal activity Light Affects the activity of insects Endocrine s stem system Hormones secretion, gonadal development Increase sexual activity Temperature InfraRed ? Propagation Abundance Survival YSOHN pheromone trap modification he THEYSOHN modified by equipping with a electronic odules powered by 12V direct current battery and two hotovoltaic panels (2x5W/12V/100W/m2). System was protected with fuse against overvoltage. Trap was equipped with photo resistor designed for IR/UV LED er on/off at the night and during insufficient amounts of light to obtain a suitable charging efficiency. Setting the esired temperature of heating panels was controlled by nal ∆t module based on two NPN (BC547B) and PNP transistors (BC557B) and two sensitive thermistors (NTC) measured the ambient temperature range, between surrounding and temp. range on heating nels. The potentiometer regulate temp. range between ing of panels and ambient temperature. Heating wire e from zinc galvanized metal wire used in beekeeping up honey h fframes into i t slices. li P Power off h heating ti panels l 5-10 W. The panels were also equipped with 10 IR and 10 UV LEDs (5 pcs. of each side), connected in parallel uit (IR) and series circuit (UV). Both IR and UV modules ed with the exclusive supply. The device was equipped with digital thermo module (PM435W) to visualize both temperature achieved on heating panels measured by thermistor and battery charge status. ectronic wiring g diagrams g as well as trap p modification was made with help of my colleague Msc. Eng. Łukasz Mateusiak Schematic diagram of modification The research plots had been established in The Żywiec Beskids Żabnica Forest District, Węgierska Górka Forest Division Traps baited with Ipsodor W Chemipan pheromone (Ips typographus L.) Types: white coloured and standard trap without and pheromone baited baited, modified Trap’s arrange: 17. March 2011 Trap’s storage: 16. September 2011 Elevation a.s.l.: 705 m Forest site type classification: mountain forest, variant: fresh Trees composition: 6 Picea abies; 4 Abies alba, age: 73 years C Crown closure: l moderate d t Trees height: 27m, site index class: I Traps had been established at open area Beetles collect twice a day at 7:00 and 18:00 OHN pheromone trap „MIT” with Infrared source IT” therrmal sensoress heating wires es ∆t=2-3 C0 B CF BF MIT C IR/UV LEDs solar panel accumulator B/BF C/CF MIT Period „I” from 2011-04-22 till 2011-05-23 Period „II” from 2011-05-24 till 2011-07-03 Period „III” from 2011-07-04 till 2011-09-09 Ph.D,Eng. B. Bednarz, Dipl.Eng. R. Kotlarski Ph.D,Eng. B. Bednarz, Dipl.Eng. R. Kotlarski Ph.D,Eng. B. Bednarz, Dipl.Eng. R. Kotlarski 2 X C UV A B C X C C A B C X Types of THEYSOHN trap modification solar pane els IR/UV LEDs Type „C” (26) - pheromone baited trap with heating wire and IR LEDs Type „B” (12) - pheromone baited trap with heating wire Type „A” (12) - pheromone baited trap with IR LEDs Type „UV”(6) - pheromone baited trap with UV LEDs Type „X” (13) - standard pheromone baited trap Kanthal D heating wire and IR LEDs IR/UV LEDs ferritic iron-chromium-aluminium iron chromium aluminium alloy (FeCrAl alloy) alloy), up to 1300°C 1300°C. oy is characterized by high resistivity and oxidation resistance. front panel „A - UV” back panel Ph.D,Eng. B. Bednarz, Dipl.Eng. R. Kotlarski, Dipl. Eng. R. Staszyk C O N T R O L C O N T R O L C O N T R O L C O N T R O L Ph.D,Eng. B. Bednarz, Dipl.Eng. R. Kotlarski, Dipl. Eng. R. Staszyk 2012 Installing temperature sensors Ph.D,Eng. B. Bednarz, Ph.D,Eng. M. Kacprzyk, Dipl. Eng. J. Pilarz Temperature sensors installed at the Norway spruce tree trunks Ph.D,Eng. B. Bednarz, Ph.D,Eng. M. Kacprzyk, Dipl. Eng. J. Pilarz anual and automatic data collecting from the sensors installed at the tree trunks mode of connection sequence of measurement manual data collecting Hobo Pro Onset Co. data loger & H b Optic Hobo O ti USB Base B Station St ti designed integrated circuits layout Ph.D,Eng. B. Bednarz, Ph.D,Eng. M. Kacprzyk, Dipl. Eng. J. Pilarz essing trees Ph.D,Eng. B. Bednarz, Ph.D,Eng. M. Kacprzyk, Dipl. Eng. J. Pilarz hermal of Norway spruce with different health condition at cardinal directions Ph.D,Eng. B. Bednarz, Ph.D,Eng. M. Kacprzyk, Dipl. Eng. J. Pilarz est differences in spruces temperature between healthy and weakened trees were at west (4 - 8 C0) and north (3 - 5 C0) cardinal direction east direction the difference in temperature of stressed and healthy trees range from 1C0 to 3 C0 The lowest differences between stressed and healthy trees were observed at south direction The highest temperatures of trunk were recorded at the bottom while the lowest were noticed at the top section rences in temperatures between weakened and healthy all directions were significant (Mann- Whitney U - test) Ph.D,Eng. B. Bednarz, Ph.D,Eng. M. Kacprzyk, Dipl. Eng. J. Pilarz Thank you very much for your attention!