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Combination with herbicides |
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Materials of this chapter were also published in:
- Zlotnikov, A.K., Sergeyev, V.R., Kudryavtsev,N.A., Dolgushkin, A.K., Zlotnikov, K.M.
(2002) Albit increases effectiveness of herbicide applications. Zemledeliye, Nr.1, p. 34-36;
- Gamuev, V.V. (2007) Albit as an safener at herbicide application. / Gamuev,
V.V., Ryabchinskiy, A.K., Zlotnikov, A.K., Shulyakovskaya, L.N., Apasov,
I.V.// Plant protection and quarantine, Nr. 7, p. 25-26
In 1960, herbicides made up 20% of all used chemical pesticides with total
value of 0.85 billions USD, in 1980 herbicides did 41% at the total expenses
on chemical plant protection of 11.6 billions USD, after next 20 years, in
2000, herbicides took 52.1% of total expenses of 30.7 billions USD, and this
tendency of growth appears to be stable. It is clear, that there is no serious
alternative to application of herbicide to control weeds now. However, the
most important problem of herbicide application is the selectivity of
their action. Every agronomist knows, herbicides (regarding to their effectiveness)
are the most unpredictable ones among all other groups of chemical pesticides
(seed treatment agents, fungicides, insecticides, etc.). In biological point
of view, crops and pathogenic fungi are considerably more different than crops
and weeds. Control of weeds is based on hitting certain targets which are common
for all plants (CoA–carboxilase, acetolactatsynthase, photosystems I and II,
biosynthesis of caratinoids, cell division, etc.) Therefore, selectivity of
herbicides is considerably lower, than that of fungicides, and herbicides cause
considerably more severe stress on main crop than fungicides.
This stress activity of herbicides (despite beneficial effects of weeds elimination)
might lead to yield losses up to 50%. After herbicidal treatments, one can
note delay in main culture growth, withering and yellowing of leaves, dramatic
increase of plant sensitivity to diseases. In some cases, application of highly
active herbicides or herbicide mixes leads to practically total suppression
of plant growth, and only well timed rain or treatment with powerful antistressor
are able to save the yield. Therefore, application of safeners
(antidotes) in combination with herbicides has been becoming
more and more widespread in recent time.
Multiple field trials demonstrated that Albit relives stress effect
of herbicides on plants. According to data of All-Russia Institute
of Plant Protection and Orenburg State Agrarian University (2004, 2005),
Albit decreases herbicidal stress on cereals by 5-38%, i.e. saves
up to 40% of yield. According to calculations of All-Russia Institute
of Plant Protection (2004), each rouble invested to application
of Albit in combination with herbicides brings more than 5 roubles of profit.
Reduce of the chlorophyll content is observed in plant leaves as a result of stress effect of herbicide. It results to decrease of yield (so-called ‘herbicide hole’). Albit, as effective antidote, neutralizes stress effect of herbicides, increases the chlorophyll content. For example, changes of chlorophyll content in leaves of wheat after herbicide treatment was observed in field trials of Penza State Agricultural Academy (Fig. 1). Also, using etofumezate-based herbicide at the stage of 2-4 true leaves of white lupin (All-Russian Scientific Research Institute of Lupin Studies, Bryansk Oblast 2019) decreased the accumulation of biomass of lupin up to 30%, and using Albit together with herbicide relieved negative effect of it (Fig. 2). Yield increase of the biomass of lupin in variant Albit+herbicide (in a mix) was 31% to the control (antidote effect), and in variant Albit+herbicide (separately) – 68% (Fig. 2).
Fig. 1. Effect of herbicide and Albit on the
chlorophyll content in leaves of spring wheat var. Tulaikovskaya
10 (left) and winter wheat
var. Bezenchukskaya 380 (right)
(Penza State Agricultural Academy, 2011-2012)
Fig. 2. The impact of using Albit and
etofumezate-based herbicide on the biomass accumulation of white lupin
by the end of growing period (physiological maturity stage) (All-Russian
Scientific Research Institute of Lupin Studies, Bryansk Oblast, 2019)
Application of Albit with herbicides allows to increase
crop capacity by 16.6% in comparison with using pure herbicides,
seed treatment with Albit before herbicide application – by 23.1% (The average long-term data of field trials on various crops are given in Table 1).
Table 1. Antidote effect of Albit on different crops (the average yield increase
provided by application of Albit with herbicides in comparison to that of pure herbicides)
Crops |
Antidote effect, |
Antidote effect, |
t/ha |
% |
Maize |
1.01 |
19.3 |
Flax (straw) |
0.44 |
11 |
Onion |
3.0 |
18 |
Sunflower |
– |
10 |
Millet |
0.54 |
41 |
Winter wheat |
0.6 |
16 |
Spring wheat |
0.12 |
11 |
Canola |
0.17 |
5 |
Sugar beet |
2.57 |
6.9 |
Soybean |
0.32 |
19.1 |
Winter barley |
0.94 |
18 |
Spring barley |
0.35 |
11.8 |
Note: presented data are the arithmetic means of all tests on
combinations of Albit with herbicides available in Albit Scientific and Industrial LLC
(105 field trials during 2001-2007).
Albit can be applied together with herbicides (in a tank
mixture), and after 1-5 days after their using (for removal of excess stress
effect). Also seed treatment is effective. Seed treatment
with Albit makes plants resistant to herbicide stress (Fig.3).
Fig. 3. Schematic diagram of Albit action in combination with herbicides
Albit, in contrast to the majority of similar anti-stress biostimulants,
officially has the status of an antidote, which is confirmed by numerous studies,
scientific publications and regulations. Not each growth biostimulator is an
antidote. The most important thing is that antidote should not reduce
the protective effect of the herbicide against weeds.
For example, in 2015, the effect of a herbicide mixture with Albit and another
known growth regulator was compared in the fields of sugar beet (Volga hybrid)
in LLC Stepanovskoye (GK Dominant, Tambov Region).
It has been shown that the efficacy against weeds persists in herbicides and
when combined with a standard, and with Albit (Fig. 4). But the stress effect
of herbicides on sugar beet plants was taken only by Albit (Fig. 5). The
oppression of growth and development of culture in the version with the standard
lasted 12 days, the yield was 460 c / ha. In the variant with Albit - 577 c
/ ha.
Fig. 4. The effectiveness of herbicides against
weeds remained in both variants: herbicides + standard (right photo)
and herbicides + Albit (left photo) (LLC Stepanovskoe, Group of
companies Dominant, Tambov oblast, 2015)
Fig. 5. Influence of application of pesticides in tank mix with
standard (well-known growth regulator) and Albit on sugar beet (hybrid Volga)
(LLC Stepanovskoe, GC Dominant, Tambov oblast, 2015). Albit (left photo) eliminated
herbicide stress, standard (right photo) – herbicide stress remained (twisted leaves were observed)
In a field trial on white lupin var. Michurinsky (All-Russian Scientific Research Institute of Lupin Studies, 2019), was established that when Albit was used together with herbicides containing etofumezate and imazamox + quizalofop-P-ethyl, the effectiveness of herbicides against weeds was not at all affected. Albit were: 1) added to tank mix with herbicide and used to spray lupin crops at the stage of 2-4 true leaves, and 2) after using herbicide at the stage of 2-4 true leaves, treating crops with Albit separately at the flower budding stage. As the study discovered, the biological effectivity of herbicides was even higher in the treatment groups in which Albit was applied after herbicide treatment and not together with them (Fig. 6).
Fig. 6. Biological effectiveness of herbicides and Albit against
a complex of weeds in crops of white lupine var. Michurinsky (All-Russian Scientific
Research Institute of Lupin Studies, Bryansk Oblast, 2019)
Separate application of Albit and herbicides is due to opinion of some specialists,
who apprehend, that Albit might decrease efficiency of the herbicide. However, there
are no experimental proofs of this suggestion. Albit stimulates wide
range of metabolic reactions in plant cells; as a result, plants that are slightly
suppressed by herbicide (main crop) overcome stress, while in considerably
more suppressed weeds Albit intensifies processes of lysis and destruction,
since these processes are more typically occurring there. Thus, Albit stimulates
solely growth of weeds against which the herbicide is ineffective.
This assumption was confirmed in tests of All-Russia Institute of Plant Protection
(2004). If applied herbicide (or mix of herbicides) is effective against all
available weed species, its combination with Albit will just increase herbicidal
effect.
Additional treatment with Albit after application of herbicides
can be effective mainly for elimination of herbicide overdose consequences.
Application rates of many modern herbicides, for example, metsulphurones and
sulphonylurea–based ones, are quite small (several grams per hectare), that
increases probability of overdosage. By using Albit, farmers managed to recover
growth of sugar beet and soybean after ‘burning’ them with too high doses of
herbicides in Voronezh, Tambov oblasts, and Krasnodar krai (2001-2003).
Noteworthy field trial in Lipetsk oblast, Russia (Agricultural Production
Cooperative "Grachevsky" Usman district, 2004), when Albit was applied
on winter wheat together with herbicide, and then, after a short period of
time, it was conducted a second additional spraying with pure Albit. As a result
of a single treatment with Albit on vegetation, yield increasing to the control
was 0.45 t/ha, during double treatment - 1 t/ha. Yield increasing at a double
application compared to a single one was 15.1%.
Apparently, the high yield could be explained by the fact that under conditions
of double application of Albit its anti-stress activity towards to
herbicide was the highest. The higher antidote activity of double
spraying with Albit of cereals (once in the tillering stage in combination
with herbicide, the second time - in stages from booting to flowering) was
confirmed by the National Institute of Biological Plant Protection (Krasnodar,
Russia) in field trials. In these trials the second spraying increased the
antidote effect of Albit to herbicides on winter wheat by 8% compared to a
single using.
Often, herbicidal stress leads to dramatic increase of plant sensitivity
to leaf infections. Albit, applied together with herbicides, compensates
stress effect of the herbicide and immunizes plants against diseases (powdery
mildew, brown rust, different spots, etc.), that excludes necessity
of additional fungicidal treatments. According to data of All-Russia
Institute of Plant Protection (2004), All-Russia Flax Institute (2003), Agraricultural
Scientific Institute of South-East (2004), Soil Institute and Kursk Regional
Plant Protection Station (2001-2002), Vladimir Regional Plant Protection
Station (2003) and others, application of Albit together with herbicides
is able to considerably decrease following infestation of plants with leaf
and stem infections, whose development is common event after treatment with
pure herbicides.
Antidote effect of Albit is particularly noticeable during
using biostimulant with herbicides on cereals in EC stages
20-29(in particular, after overwintering of winter crops). Plants,
weakened by overwintering, herbicide, root rots, react on Albit treatment
by significant yield increasing. The high effectiveness of such mode treatment
was demonstrated practically on winter wheat and other cereals (Zolotaya
Niva LLC (Stavropol territory), Chapaev breeding farm OSC, Kuban cattle farm,
Niva collective farm, trials of Kursk Regional Plant Protection Station),
resulting in yield increasing up to 1 tonne/hectare (2001-2004).
Let us consider to the main results of trials, where combined application
Albit and herbicides was investigated. In Kursk Plant Protection
Station and Kursk Scientific Research Institute trials on winter wheat (2001-2003)
adding of Albit in tank mixture with herbicide based on tribenuron-methyl
provided the highest yield increasing among trial variants (on average by
0.78 tonne/hectare), even when using increased herbicide consumption rate
(20 g/hectare). Application of Albit on vegetation in the tillering stage
in combination with herbicide based on mefenpyr-diethyl + amidosulfuron
+ iodosulfuron-methyl-sodium on the winter and spring wheat, spring barley
provided the protection against powdery mildew with biological effectiveness
72.3-89.5%, yield increasing by 17-18.5% compared to pure herbicide treatment
(farms of Klimovsk and Karachevsky districts of Bryansk oblast (2003-2004)).
The Experimental and Production Farm "Kuban" of Gulkevich district
of Krasnodar territory (2004) conducted the field trial, where herbicide based
on 2,4-D (2-ethylhexyl) + florasulam was applied in combination with Albit
(30 mL/ha and 50 mL/ha) for winter barley var. Paul at the end of
tillering - the beginning of stem elongation stage. Barley yield in the control
was 5.2 ton/ha, and when using Albit - 6.16-6.18 ton/ha. The yield increasing
as a result of adding of Albit to herbicide compared to pure herbicide was
0.96-0.98 ton/ha (18.5-18.8%).
On winter wheat var. Rufus (Ltd Agricultural company "Zolotaya
niva" of Krasnogvardeisky district, Stavropol territory, 2003), Albit
was applied once during vegetation in the tillering stage, simultaneously with
the introduction of herbicide based on dicamba + chlorsulfuron, in control
variant herbicide only was used. Yield in control variant was 4.81 ton/ha,
the gluten content - 21.3%. Due to growth-stimulating activity of Albit and
herbicidal stress effect reduction, Albit increased gluten content by 0.5%,
the yield by 0.47 ton/ha (9.8%) compared to the control. In the trial of the
Krasnodar Plant Protection Station, conducted in 2004 in farm “Rassvet” of
Vyselkovskiy region on winter wheat var. Batko, Albit treatment in
combination with herbicide based on dicamba + chlorsulfuron gave yield increasing
of 0.32 ton/ha compared to the control (herbicide treatment). On the fields
of farm "Kushchyovskoe" (Krasnodar territory, 2004) spraying with
Albit of winter wheat var. Vita were conducted. Albit was used once
during vegetation period in combination with herbicide based on 2,4-D + dicamba.
Compared to the control (only herbicide application) treatment with Albit provided
yield increasing of 0.46 ton/ha. Gluten content in grain increased by 4%.
The trial of Vladimir Regional Plant Protection Station (2004) on the spring
barley var. Zazerskiy-85 was performed in Suzdal region. Control is
treatment with herbicide based on 2,4-D + dicamba (0.6 L/ha), experimental
variant is tank mixture of the same herbicide + Albit (40 mL/ha). Spraying
was performed on 6th of June (full tillering phase - the beginning of stem
elongation). The biological yield in control was 2.11 t/ha, and in the version
with Albit – 2.93 ton/ha. The yield increasing in the case of Albit application
compared to pure herbicide was 0.82 ton/ha (28%).
The aim of field trial conducted in National Institute of Plants Protection
(2004) was to determine the anti-stress activity of Albit in the mixture with
herbicide on cereals in the tillering stage.
Field trial was conducted in the farm "Concord-Agro" of Ramon region
of Voronezh oblast (village Yamnoe) on spring barley. In the field trial a
new, highly effective herbicide containing two high-active substances (360
g/L dicamba + 22.2 g/L chlorsulfuron) was applied. One of these substances
is also belongs to the class of highly toxic plant compounds (sulfonylureas).
At the stage of tillering plants were treated with different doses of herbicide
and herbicide in combination with Albit (30 mL/ha). The lowest (140 mL/ha),
maximum (200 mL/ha) and increased (300 mL/ha) recommended dose of herbicide
was applied.
Fig. 7. The effect of treatment with herbicide based on dicamba
+ chlorsulfuron and herbicide in a mixture with Albit on the yield of spring
barley (National Institute of Plants Protection, 2004)
Herbicide based on dicamba + chlorsulfuron is recommended for controlling
of dicotyledonous weeds, so it’s efficiency against monocotyledonous weeds,
generally presented barnyardgrass (Åñhinochloa ñrus-galli)
and foxtail (Setaria species) was low (5-26%). In the variant
with dicotyledonous annual weeds: knotweed (Ðîlygonum lapathifolium, Ðolygonum ñînvolvulus),
muchweed (Ñhenopodium àlbum), green
amaranth (Àmaranthus retroflexus), charlock (Sinapsis
arvensis), cleavers (Galium aparine) either alone or in mixture
with Albit demonstrated sufficient efficiency. Weed control was from 64 to
97% depending on the dose of the pure herbicide, and from 62 to 93% when herbicide
combined with Albit.
The tank mixture of herbicide based on dicamba + chlorsulfuron and Albit also
did not reduce the effectiveness of pesticide in the suppression of perennial
weeds. The effectiveness of treatments (weed control) against field sowthistle
(Sonchus arvensis), milky tassel (Sonchus oleraceus) and
blue lettuce (Lactuca tatarica) depending on the dose of herbicide
and measuring ranged from 33 to 84% (herbicide) and from 34 to 81% (herbicide
+ Albit).
With increasing consumption rate of herbicide, its effectiveness was considerably
increased. The difference is especially considerable when comparing mass of
weeds in variants with minimum and increased doses (56% of the surviving weeds
vs. 33% control). However, despite a higher biological effectiveness, with
increasing dose of herbicide, yield of barley with a dose of herbicide 300
mL/ha was less by 1.7 centners/hectare, than with a dose 200 mL/hectare. With
rising dose of herbicide, increasing crop yield decreased from 15% to 8.6%.
Analysis of obtained results revealed that Albit in a mixture with herbicide
based on dicamba + chlorsulfuron almost had no effect on herbicidal
properties of pesticide, but significantly reduced the retardant effect of
herbicide on the main crop (barley). When addition Albit to herbicide,
yield increasing was higher by 1.1-3.1 centners/hectare (4.1-11.6%) than using
of appropriate doses of pure herbicide, moreover the effect increased with
increasing dose of herbicide with active ingredients dicamba + chlorsulfuron
(Fig. 7).
In the control barley yield was 26.7 centners/hectare, when using herbicide
based on dicamba + chlorsulfuron – 28.8-29 centners/hectare, herbicide with
Albit – 29.9-32.1 centners/hectare. Due to the fact that Albit smoothed out
stress effect of herbicide on the main culture, when using together Albit and
herbicide, extra yeild was received up to 4-6 centners/hectare (compared to
pure herbicide treatment). At the conclusion of VNIIZR, application of Albit
in tank mixtures with herbicides is biologically and economically feasible
and should be part of the technology of cultivation of cereals in the conditions
of the Central Black Soil.
High potential of the combined using Albit and herbicides was demonstrated
in the Field Day in Orenburg region (2005) by the theme: "The
main directions of production of high-quality wheat, barley, sunflower seeds
based on technology of Plant Protection" (August 2, 2005).
In the Field Day supervisors and specialists took part from the Regional Department
of Àgricultural Ñomplex, Orenburg State Agrarian University, Orenburg NIISKh,
Orenburg VNIIMS, chiefs, main agronomists of regional managements of Àgricultural
Ñomplex, seed farms, chiefs of Plant Protection Stations, representatives of
leading companies, providing of Àgricultural Ñomplex by pesticides, as well
as representatives of farms from 25 districts of region: Akbulaksky, Alexandrovsky,
Asekeevsky, Belaievsky, Buguruslansky, Buzuluksky, Grachevsky, Ileksky, Krasnogvardeisky,
Kuvadyksky, Kurmanaevsky, Matveevsky, Novosergievsky, Oktyabrsky, Orenburgsky,
Pervomaysky, Perevolotsky, Sakmarsky, Saraktashsky, Sol-Iletsky, Sorochinsky,
Tashlinsky, Totsky, Tyulgansky, Sharlyksky, from Orenburg. In the seminar Deputy
Head of Administration in Orenburg region, the Director of the Department of
Àgricultural Ñomplex V.K. Eremenko took part.
Fig. 8. The influence of treatment by herbicides and
herbicide + Albit on yield of spring wheat var. Albidum-188 (Orenburg
State Agrarian University, 2005). Control is shown with yellow color (1),
herbicide treatment is shown with red color (2), herbicide + Albit is
shown with green color (3)
The Field Day participants were shown the experimental field
plots setting in ZAO "Mayak" of Sol-Iletsk district by Department
of Plant Breeding and Plant Protection in Orenburg Agrarian University. Spring
wheat var. Albidum-188 was once treated in foliar spraying by different
herbicides, as well as complex combinations of herbicides and growth regulators.
In the field trials weediness (air-dry mass of weeds) was measured and based
on it - biological efficacy of herbicides, as well as influence of treatments
on yield of total above-ground air-dry biomass of wheat.
Plot trials, treated by the most effective of the tested growth regulators
– Albit, were attracted the general attention of participants of the event.
In the field trials the most economically important for the region herbicides
were tested (with active ingredient 2,4-D, dicamba + chlorsulfuron, 2,4-D
+ triasulfuron, metsulfuron-methyl + dicamba and 2,4-D + carfentrazone-ethyl).
In spite of high efficiency of the tested herbicides against weeds, the yield
increasing in variants with treatment by pure herbicides was quite low, and
in two variants yield was less than in the control. Due to removing of stress
effect of herbicides, their using together with Albit allowed in all cases
significantly to increase yield of wheat (from 0.9 to 7.5 centner/ha compared
to pure herbicides). More intensive growth of plants on plot trials, treated
by Albit was visible by "the naked eye". This property of Albit
is noted in variants with all tested herbicides in the field
trials (Fig. 8).
For example, when using herbicide based on 2,4-D + triasulfuron, yield was
obtained 19.5 centner/ha, and when using a tank mixture Albit + herbicide,
yield was 27.0 centner/ha (20.4 centner/ha in control). Thus, the biological
effectiveness of herbicide based on 2,4-D + triasulfuron against weeds was
84% and its combination with Albit - 86%.
Thus, the addition Albit practically did not reduce biological efficacy of
herbicides against complex of weeds (Fig. 9). In variant with herbicide based
on 2,4-D, Albit even increased the effectiveness of herbicide (from 24 to 45%).
Fig. 9. The effectiveness of herbicides and their
combinations with Albit to control weeds of spring wheat var. Albidum-188
(field trial in Orenburg State Agrarian University in ZÀÎ "Mayak" of
Sol-Iletsk district, 2005)
Variant with herbicide treatment is shown with red color (first bar), herbicide
+ Albit treatment is shown with green color (second bar). Using Albit together
with herbicides based on clopyralid, haloxyfop-R-methyl and ethofumesate +
phenmedipham + desmedipham in the conditions of Mordovia Republic in the northern
border of sugar beet area, provides the planned yield of agriculture
400-600 centner/ha. In Tambov region Albit is included in the integrated system
of sugar beet treatments by complex of herbicides of company "August" as
an effective antistress agent, which allows to eliminate inhibition of plants
growth. In the farms of Voronezh and Lipetsk regions (their pesticides supply
is provided by the company "Agroliga Russia") when chemical weeding
of sunflower crops, herbicide based on clethodim was shown
a good efficiency (92%) at consumption rate 0.5 L/ha. Addition to this herbicide
biostimulant Albit increased yield of sunflower on average by 10% compared
with pure herbicide.
Fig. 10. The influence of treatment with herbicides
and mixes of herbicides + Albit on yield of fiber flax, depending on
different backgrounds of seed treatment (National Flax Institute, 2003).
Herbicide treatment is shown with red color (first bar), herbicide + Albit
treatment is shown with green color (second bar)
Combination Albit with herbicides has been proven to be effective on fiber
flax. In a field trial VNIIL, National Flax Institute (2003) the
effect presowing seed treatment of flax seeds vs. A-93 by different
herbicides (fungicide based on carboxin + thiram, Albit, mixture Albit with
half-dose of fungicide) on flax product yield was studied. Regardless of
variant presowing seed treatment, all variants of foliar spraying in the
phase "firtree" were sprayed by mixture herbicides with active
ingredient chlorsulfuron (0.005 kg/ha) + quizalofop-P-tefuryl (1 kg/ha) and
by the same herbicides + 50 mL/ha Albit. In all variants with Albit
treatment flax product yield was significantly higher (by 4-6 centner/ha) than
using pure herbicides. The same regularity was confirmed in field trials
VNIIL, National Flax Institute (2004) during herbicide treatment by the mixture
of herbicides based on chlorsulfuron and quizalofop-P-ethyl (0.005 kg/ha
+ 1.5 L/ha). Addition Albit to these herbicides increased yield of flax straw
on average by 3-6 ñentner/ha.
During field trial 2004, it was also noted that using Albit removed
delay of phase growth of flax, caused by retardant action of herbicides
(Fig. 10). As seen in Figure, in July 8 (2004) on field plot with herbicide
+ Albit treatment flush blossoming fiber flax had already observed, while
using pure herbicides only individual flowers were appeared (Fig. 11).
Fig. 11. The blossoming fiber flax with herbicides treatment
(right) and herbicides + Albit treatment (left) (National Flax Institute, 2004)
The high antidote and promoting of plan growth activity of Albit on fiber
flax is the key to widespread using of biostimulant on the culture. Currently,
Albit is used in the largest flax cultivation farming in the country - OAO "Biysk
fiber flax company" (Altai region) precisely as an antidote for herbicidal
stress relief. According to Plant Protection Station in Vologda Regional (2005)
the combined using Albit with herbicides on flax fiber also was effective in
Vologda region
Results of field trials on joint application of Albit and herbicides are
summarized in the following table:
Table 2. Results of field trials on combination of Albit with herbicides
in field trials
Nr. |
Active ingredient of the herbicide(s) |
Application rate of the herbicide used in the experiment, L/hectare (kg/hectare) |
Crop |
Yield, centners/hectare |
Yield increase in Albit/herbicide treated set over herbicide only treated set. (antidote effect) |
Location of field trial, year |
Comments |
herbicide |
herbicide + Albit |
centners/hectare |
% |
1. |
2.4-D |
1.6 |
millet |
13.1 |
18.5 |
5.4 |
41 |
Agraricultural Scientific Institute of South-East, 2004 |
|
2. |
dicamba |
0.225 |
spring wheat |
8.4 |
8.9 |
0.5 |
6 |
Orenburg State Agrarian University, 2005 |
|
3. |
dicamba |
0.03 |
spring wheat |
7.8 |
8.6 |
0.8 |
10 |
Aleysk Agrochemical Service Station, 2004 |
|
4. |
dicamba + triasulfuron |
0.225 + 0.006 |
spring wheat |
7.9 |
8.3 |
0.4 |
5 |
Orenburg State Agrarian University, 2005 |
|
5. |
dicamba + triasulfuron |
0.08 + 0.009 |
winter wheat |
57 |
64.7 |
7.7 |
14 |
Essentuki-khleb OSC, 2005 |
var. Krasnodarskaya 99 |
6. |
dicamba + triasulfuron |
0.08 + 0.009 |
winter wheat |
45.2 |
49.5 |
4.3 |
10 |
Essentuki-khleb OSC, 2005 |
var. Rufa |
7. |
desmedipham + phenmedipham + triflusulfuron-methyl + isodecyl alcohol ethoxylate + clopyralid |
1.5 + 0.03 + 0.2 + 0.12 |
sugar beet |
368 |
397 |
29 |
7 |
Krasnodar Regional Plant Protection Station, 2006 |
|
8. |
desmedipham + phenmedipham + triflusulfuron-methyl + ethoxylate of isodecyl alcohol (surfactant) + clopyralid |
1.5 + 0.03 + 0.2 + 0.12 |
sugar beet |
461.1 |
499 |
37.9 |
8 |
Krasnodar Regional Plant Protection Station, 2006 |
|
9. |
desmedipham + phenmedipham + ethofumesate |
1.5 + 2.5 |
sugar beet |
383.9 |
418.5 |
34.6 |
9 |
All-Russia Institute of Sugar Beet And Sugar, 2006 |
|
10. |
2.4-D + triasulfuron |
0.5 |
spring wheat |
9.2 |
10.1 |
0.9 |
10 |
Orenburg State Agrarian University, 2005 |
|
11. |
dicamba + chlorsulfuron |
0.18 |
spring wheat |
9.2 |
10.1 |
0.9 |
10 |
Orenburg State Agrarian University, 2005 |
|
12. |
dicamba + chlorsulfuron |
0.16 |
spring wheat |
7.6 |
8.4 |
0.8 |
11 |
Orenburg State Agrarian University, 2005 |
|
13. |
tribenuron-methyl |
0.02 |
spring wheat |
25.4 |
27.6 |
2.2 |
9 |
Central Scientific Institute of Agrochemical Service,
2001 |
|
14. |
tribenuron-methyl |
0.02 |
winter wheat |
41.7 |
52.5 |
10.8 |
26 |
Soil Institute, 2002 |
|
15. |
tribenuron-methyl |
0.02 |
spring wheat |
34.3 |
37.1 |
2.8 |
8 |
Soil Institute, 2002 |
|
16. |
tribenuron-methyl |
0.02 |
spring barley |
37.1 |
42 |
4.9 |
13 |
Soil Institute, 2002 |
|
17. |
tribenuron-methyl |
0.01 |
spring barley |
23.1 |
24.4 |
1.3 |
6 |
All-Russia Institute of Plant Protection, 2006 |
treatment in EC stages 20-29 |
18. |
tribenuron-methyl |
0.01 |
spring barley |
23.1 |
24.7 |
1.6 |
7 |
All-Russia Institute of Plant Protection, 2006 |
treatment in EC stages 50-59 |
19. |
tribenuron-methyl |
0.01 |
spring barley |
23.1 |
25.9 |
2.8 |
12 |
All-Russia Institute of Plant Protection, 2006 |
presowing seed treatment. treatment with Albit in EC
stages 20-29 and 50-59 |
20. |
tribenuron-methyl + dicamba |
0.01 + 0.15 |
winter barley |
54.9 |
62.1 |
7.2 |
13 |
Chapaev breeding farm OSC, 2005 |
|
21. |
metsulfuron-methyl |
0.01 |
spring wheat |
9.2 |
9.9 |
0.7 |
8 |
Orenburg State Agrarian University, 2005 |
|
22. |
metsulfuron-methyl + dicamba |
0.15 |
spring wheat |
8.8 |
9.2 |
0.4 |
5 |
Orenburg State Agrarian University, 2005 |
|
23. |
2.4-D + dicamba |
1 |
maize |
38 |
47 |
9 |
24 |
Rossiya collective farm , 2005 |
|
24. |
2.4-D + dicamba |
0.6 |
winter wheat |
32.4 |
34.8 |
2.4 |
7 |
All-Russia Institute of Plant Protection, 2005 |
|
25. |
2.4-D + dicamba |
0.6 |
winter wheat |
32.4 |
35.4 |
3 |
9 |
All-Russia Institute of Plant Protection, 2005 |
|
26. |
2.4-D + dicamba |
0.6 |
winter wheat |
32.4 |
36.6 |
4.2 |
13 |
All-Russia Institute of Plant Protection, 2005 |
|
27. |
2.4-D + dicamba |
1 |
spring barley |
17.7 |
19.8 |
2.1 |
12 |
Rossiya collective farm , 2005 |
|
28. |
2.4-D + dicamba |
0.6 |
spring barley |
45.1 |
56.4 |
11.3 |
25 |
Vlad imir Regional Plant Protection Station, 2003 |
|
29. |
2.4-D + dicamba |
0.6 |
spring barley |
21.1 |
29.3 |
8.2 |
39 |
Vlad imir Regional Plant Protection Station, 2004 |
|
30. |
2.4-D + dicamba |
0.6 |
spring barley |
33.7 |
37 |
3.3 |
10 |
All-Russia Institute of Plant Protection, 2005 |
|
31. |
2.4-D + dicamba |
0.6 |
spring barley |
33.7 |
37.5 |
3.8 |
11 |
All-Russia Institute of Plant Protection, 2005 |
|
32. |
2.4-D + dicamba |
0.6 |
spring barley |
33.7 |
36 |
2.3 |
7 |
All-Russia Institute of Plant Protection, 2005 |
|
33. |
2.4-D + dicamba |
0.6 |
spring barley |
33.7 |
35.3 |
1.6 |
5 |
All-Russia Institute of Plant Protection, 2005 |
|
34. |
2.4-D + dicamba |
0.6 |
spring barley |
33.7 |
35.8 |
2.1 |
6 |
All-Russia Institute of Plant Protection, 2005 |
|
35. |
2.4-D + dicamba |
0.6 |
spring barley |
33.7 |
36 |
2.3 |
7 |
All-Russia Institute of Plant Protection, 2005 |
|
36. |
dicamba + chlorsulfuron |
0.15 |
winter wheat |
20.1 |
33.8 |
13.7 |
68 |
Luch LLC, 2005 |
|
37. |
dicamba + chlorsulfuron |
0.2 |
winter wheat |
45 |
49.2 |
4.2 |
9 |
Lukyanenko Agricultural Scientific Institute, 2004 |
wheat is also treated with lignohumate and NPK fertilizers |
38. |
dicamba + chlorsulfuron |
0.2 |
winter wheat |
48.1 |
52.8 |
4.7 |
10 |
Zolotaya Niva LLC, 2003 |
|
39. |
dicamba + chlorsulfuron |
0.2 |
winter wheat |
52.5 |
55.9 |
3.4 |
6 |
Rassvet Close Corporation, 2004 |
|
40. |
dicamba + chlorsulfuron |
0.2 |
winter wheat |
52.5 |
56.5 |
4 |
8 |
Rassvet Close Corporation, 2004 |
|
41. |
dicamba + chlorsulfuron |
0.2 |
winter wheat |
48.6 |
51.6 |
3 |
6 |
Lukyanenko Agricultural Scientific Institute, 2004 |
wheat is also treated with tebuconazole based fungicide, hydrohumate and NPK fertilizers |
42. |
dicamba + chlorsulfuron |
0.2 |
winter wheat |
36 |
38.4 |
2.4 |
7 |
Lukyanenko Agricultural Scientific Institute, 2004 |
wheat is also treated with hydrohumate |
43. |
dicamba + chlorsulfuron |
0.2 |
spring barley |
25.2 |
31 |
5.8 |
23 |
Tula Regional Plant Protection Station |
|
44. |
haloxyfop-p-methyl |
1 |
canola |
36.2 |
37.9 |
1.7 |
5 |
All-Russia Institute of Plant Protection, 2006 |
canola is also treated with alpha-cypermethrin based insecticide |
45. |
triflusulfuron-methyl + clopyralid + desmedipham + phenmedipham |
0.03 + 0.3 + 3 |
sugar beet |
413 |
432 |
19 |
5 |
All-Russia Institute of Plant Protection, 2002 |
|
46. |
triflusulfuron-methyl + clopyralid + desmedipham + phenmedipham |
0.03 + 0.3 + 3 |
sugar beet |
413 |
439 |
26 |
6 |
All-Russia Institute of Plant Protection, 2002 |
|
47. |
chlorsulfuron + quizalofop-p-tefuryl |
0.005 + 1 |
flax |
30 |
32 |
2 |
7 |
All-Russia Flax Institute, 2002 |
presowing seed treatment with Albit (0.05 kg/tonne) |
48. |
chlorsulfuron + quizalofop-p-tefuryl |
0.005 + 1 |
flax |
32 |
34 |
2 |
6 |
All-Russia Flax Institute, 2002 |
presowing seed treatment with Albit and carboxin/thiram based fungicide |
49. |
chlorsulfuron + quizalofop-p-tefuryl |
0.005 + 1 |
flax |
40 |
46 |
6 |
15 |
All-Russia Flax Institute, 2003 |
without presowing seed treatment |
50. |
chlorsulfuron + quizalofop-p-tefuryl |
0.005 + 1 |
flax |
45 |
49 |
4 |
9 |
All-Russia Flax Institute, 2003 |
presowing seed treatment with carboxin/thiram based fungicide (2 kg/tonne) |
51. |
chlorsulfuron + quizalofop-p-tefuryl |
0.005 + 1 |
flax |
45 |
50 |
5 |
11 |
All-Russia Flax Institute, 2003 |
presowing seed treatment with Albit (0.07 kg/tonne) |
52. |
chlorsulfuron + quizalofop-p-tefuryl |
0.005 + 1 |
flax |
47 |
52 |
5 |
11 |
All-Russia Flax Institute, 2003 |
presowing seed treatment with carboxin/thiram based fungicide (1 kg/tonne) |
53. |
chlorsulfuron + quizalofop-p-tefuryl |
0.005 + 1 |
flax |
43 |
48 |
5 |
12 |
All-Russia Flax Institute, 2003 |
without presowing seed treatment |
54. |
chlorsulfuron + quizalofop-p-tefuryl |
0.005 + 1 |
flax |
45 |
52 |
7 |
16 |
All-Russia Flax Institute, 2003 |
presowing seed treatment with thiram based fungicide (4.5 kg/tonne) |
55. |
chlorsulfuron + quizalofop-p-tefuryl |
0.005 + 1 |
flax |
47 |
54 |
7 |
15 |
All-Russia Flax Institute, 2003 |
presowing seed treatment with thiram based fungicide (3.0 kg/tonne) |
56. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
32 |
36 |
4 |
13 |
All-Russia Flax Institute, 2005 |
without presowing seed treatment |
57. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
37 |
42 |
5 |
14 |
All-Russia Flax Institute, 2005 |
presowing seed treatment with carboxin/thiram based fungicide |
58. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
38 |
42 |
4 |
11 |
All-Russia Flax Institute, 2005 |
|
59. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
40 |
44 |
4 |
10 |
All-Russia Flax Institute, 2005 |
presowing seed treatment with Albit (0.07 kg/tonne) |
60. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
40 |
43 |
3 |
8 |
All-Russia Flax Institute, 2005 |
presowing seed treatment with Albit (0.05 kg/tonne) |
61. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
41 |
46 |
5 |
12 |
All-Russia Flax Institute, 2005 |
presowing seed treatment with Albit + carboxin/thiram based fungicide |
62. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
42 |
44 |
2 |
5 |
All-Russia Flax Institute, 2005 |
without presowing seed treatment |
63. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
46 |
50 |
4 |
9 |
All-Russia Flax Institute, 2005 |
presowing seed treatment with Albit |
64. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
30 |
34 |
4 |
13 |
All-Russia Flax Institute, 2006 |
without presowing seed treatment |
65. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
34 |
42 |
8 |
24 |
All-Russia Flax Institute, 2006 |
presowing seed treatment with carboxin/thiram based
fungicide |
66. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
35 |
42 |
7 |
20 |
All-Russia Flax Institute, 2006 |
|
67. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
38 |
43 |
5 |
13 |
All-Russia Flax Institute, 2006 |
presowing seed treatment with Albit (0.07 kg/tonne) |
68. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
39 |
43 |
4 |
10 |
All-Russia Flax Institute, 2006 |
presowing seed treatment with Albit (0.05 kg/tonne)
+ Na CARBOXYMETHYL CELLULOSE |
69. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
40 |
45 |
5 |
13 |
All-Russia Flax Institute, 2006 |
presowing seed treatment with Albit + carboxin/thiram
based fungicide |
70. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
44 |
48 |
4 |
9 |
All-Russia Flax Institute, 2006 |
without presowing seed treatment |
71. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
48 |
51 |
3 |
6 |
All-Russia Flax Institute, 2006 |
presowing seed treatment with Thiram based fungicide |
72. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
51 |
54 |
3 |
6 |
All-Russia Flax Institute, 2006 |
presowing seed treatment with albit + thiram based fungicide |
73. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
50 |
53 |
3 |
6 |
All-Russia Flax Institute, 2006 |
presowing seed treatment with Albit |
74. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
37 |
40 |
3 |
8 |
All-Russia Flax Institute, 2004 |
without presowing seed treatment |
75. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
39 |
43 |
4 |
10 |
All-Russia Flax Institute, 2004 |
presowing seed treatment with carboxin/thiram based
fungicide (2 kg/tonne) |
76. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
40 |
46 |
6 |
15 |
All-Russia Flax Institute, 2004 |
presowing seed treatment with Albit (0.07 kg/tonne) |
77. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
41 |
47 |
6 |
15 |
All-Russia Flax Institute, 2004 |
presowing seed treatment with Albit (0.07 kg/tonne) |
78. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
41 |
46 |
5 |
12 |
All-Russia Flax Institute, 2004 |
presowing seed treatment with Albit (0.05 kg/tonne) |
79. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
42 |
48 |
6 |
14 |
All-Russia Flax Institute, 2004 |
presowing seed treatment with Albit (0.05 kg/tonne) + carboxin/thiram based fungicide (1 kg/tonne) |
80. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
42 |
46 |
4 |
10 |
All-Russia Flax Institute, 2004 |
without presowing seed treatment |
81. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
45 |
48 |
3 |
7 |
All-Russia Flax Institute, 2004 |
presowing seed treatment with thiram based fungicide (4.5 kg/tonne) |
82. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
48 |
51 |
3 |
6 |
All-Russia Flax Institute, 2004 |
presowing seed treatment with thiram based fungicide (3.0 kg/tonne) |
83. |
chlorsulfuron + quizalofop-p-ethyl |
0.005 + 1.5 |
flax |
46 |
50 |
4 |
9 |
All-Russia Flax Institute, 2004 |
presowing seed treatment with Albit |
84. |
dicamba + triasulfuron |
0.13 |
winter wheat |
29.9 |
49.4 |
19.5 |
65 |
All-Russia Institute of Plant Protection (Moscow branch), 2005 |
yield was examined on 10 m 2 plots |
85. |
2.4-D + tribenuron-methyl |
0.3 + 0.012 |
winter wheat |
53 |
58.8 |
5.8 |
11 |
Ulyanovets LLC, 2005 |
var. Ermak |
86. |
2.4-D + tribenuron-methyl |
0.3 + 0.012 |
winter wheat |
56 |
65.8 |
9.8 |
18 |
Ulyanovets LLC, 2005 |
var. Lira |
87. |
2.4-D + tribenuron-methyl |
0.3 + 0.012 |
winter wheat |
43 |
49 |
6 |
14 |
Ulyanovets LLC, 2005 |
var. Deya |
88. |
2.4-D + metsulfuron-methyl |
0.4 + 0.005 |
spring wheat |
8.4 |
9.9 |
1.5 |
18 |
Orenburg State Agrarian University, 2005 |
|
89. |
quizalofop-p-tefuryl |
1 |
sugar beet |
381.9 |
399.8 |
17.9 |
5 |
All-Russia Institute of Sugar Beet And Sugar, 2006 |
|
90. |
2.4-D + florasulam |
0.6 |
winter barley |
52 |
61.6 |
9.6 |
18 |
Yug Agrobiznes LLC, 2004 |
|
91. |
2.4-D + florasulam |
0.6 |
winter barley |
52 |
61.9 |
9.9 |
19 |
Yug Agrobiznes LLC, 2004 |
|
92. |
2.4-D + florasulam |
0.6 |
winter barley |
49 |
62 |
13 |
27 |
Chapaev breeding farm OSC, 2003 |
|
93. |
2.4-D + florasulam + tralcoxidym |
0.6 + 0.8 |
winter wheat |
40.7 |
44.2 |
3.5 |
9 |
All-Russia Institute of Plant Protection, 2006 |
|
94. |
2.4-D + florasulam + fenoxaprop-p-ethyl + safener (mefenpyr-diethyl
) |
0.6 + 0.8 |
spring barley |
34.5 |
36.4 |
1.9 |
6 |
All-Russia Institute of Plant Protection, 2006 |
|
95. |
amidsulfuron + iodosulfuron-methyl-sodium + mephenpyr-diethyl |
0.15 |
winter wheat |
45 |
47.8 |
2.8 |
6 |
Krasnodar Regional Plant Protection Station, 2006 |
wheat is also treated with lambda-cyhalothrin based insecticide |
96. |
amidsulfuron + iodosulfuron-methyl-sodium + mephenpyr-diethyl |
0.15 |
winter wheat |
55.2 |
61.3 |
6.1 |
11 |
Krasnodar Regional Plant Protection Station, 2006 |
second foliar spraying: Albit combined with triadimenol + triadimefon based fungicide |
97. |
amidsulfuron + iodosulfuron-methyl-sodium + mephenpyr-diethyl |
0.15 |
winter wheat |
55.2 |
60.1 |
4.9 |
9 |
Krasnodar Regional Plant Protection Station, 2006 |
second foliar spraying: Albit combined with lambda-cyhalothrin based insecticide |
98. |
amidsulfuron + iodosulfuron-methyl-sodium + mephenpyr-diethyl |
0.15 |
spring wheat |
7.4 |
7.8 |
0.4 |
5 |
Orenburg State Agrarian University, 2005 |
|
99. |
2.4-D, clopyralid |
0.8 |
spring wheat |
8.4 |
10.3 |
1.9 |
23 |
Orenburg State Agrarian University, 2005 |
|
100. |
trifluralin |
6 |
onion |
170 |
200 |
30 |
18 |
Frarm of Kim V.A., 2006 |
|
101. |
dicamba + chlorsulfuron |
0.2 |
spring barley |
30.7 |
32.4 |
1.7 |
6 |
All-Russia Institute of Plant Protection, 2004 |
|
102. |
dicamba + chlorsulfuron |
0.3 |
spring barley |
29 |
32.1 |
3.1 |
11 |
All-Russia Institute of Plant Protection, 2004 |
|
103. |
fluazifop-p-butyl |
1.5 |
sugar beet |
265 |
282 |
17 |
6 |
Tula Regional Plant Protection Station |
|
104. |
fluazifop-p-butyl |
1.5 |
sugar beet |
265 |
289 |
24 |
9 |
Tula Regional Plant Protection Station |
|
105. |
2.4-D + dicamba |
0.7 |
spring barley |
39.2 |
42.3 |
3.1 |
8 |
Kushchevskoye Agricultural and Scientific Closed Corporation, 2004 |
|
Summarizing all datà about field trials of OOO Company "Albit",
it can be concluded that using Albit together with herbicides due to antidote
effect provides yield, which is higher (on average by 16.6%) than using
pure herbicides. Thus, antidote effect substantially depends on active
ingredient of herbicide (Fig. 12).
Fig. 12. The antidote effect of Albit, depending on active ingredient
of herbicide (integrated according to the results of all field trials 2001–2006).
Complex herbicides are shown with green color
Currently, a high effectiveness of combined using Albit with
herbicides was confirmed in long-standing field trials VNIIZR, NIISKh South-East,
Krasnodar and Kursk STAZR, VNIIL (National Flax Institute), in practical using
in farms of Lipetsk, Orel, Samara, Tula, Omsk, Rostov, Vladimir, Kursk, Tambov,
Bryansk regions, Krasnodar and Stavropol regions, in Mordovia Republic on different
agricultural crops (cereals, flax, sugar beet, soybean). The obtained results
allow to recommend Albit for widespread using together with herbicides in agricultural
practices.
|
|