戻る
「早戻しボタン」を押すと検索画面に戻ります。

今後説明を表示しない

[OK]

コーパス検索結果 (1語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 ir monocultures or mixtures without pine and birch.
2 t data: (1) dog/cat/horse, (2) timothy grass/birch, (3) molds, (4) house dust mites, (5) peanut/wheat
3 ive quantification of Bet v 1 in 30 marketed birch allergen products in one laboratory, simulating th
4 urement of Bet v 1 in a panel of 'real-life' birch allergen products indicated better repeatability o
5 ma to birch pollen (n = 12) before and after birch allergen provocation.
6 onths decreased the risk of sensitization to birch allergen.
7 allergic patients with sensitization against birch allergen.
8 eding decreased the risk of sensitization to birch allergen; introduction of oats <5.1 months and bar
9 lly associated with milk, timothy grass, and birch allergens.
10 h sensitization to wheat, timothy grass, and birch allergens; the introduction of 1-2 food items at 4
11 rom murine mDCs and PBMCs from patients with birch allergy.
12  black spruce, burned black spruce and paper birch, allowing us to determine vegetation and edaphic d
13 neighbourhood scale, where the proportion of birch among neighbouring trees varied, but not at the pl
14 enome, and advanced germplasm resources make birch an attractive model for forest biotechnology.
15 operator26PFASs per tree was up to 11 mg for birch and 1.8 mg for spruce.
16 ergenic proteins shared by many pollens (eg, birch and alder) and foods (eg, apple, peach, and soy).
17 haw in unburned dominant forest types (paper birch and black spruce) associated with location on elev
18 d the (3)He chemical shifts observed for the Birch and dihydroanthracene reduction products, the two
19  pollen were analyzed regarding IgE to major birch and grass pollen allergens Bet v 1 and Phl p 1/p 5
20 munotherapy for patients symptomatic to both birch and grass pollen allergens.
21                                              Birch and grass pollen allergic individuals underwent sk
22 notherapy with mixed depigmented-polymerized birch and grass pollen extract in 285 patients with alle
23  rhinoconjunctivitis symptomatic during both birch and grass pollen seasons.
24  promoting growth of deciduous shrubs (dwarf birch and gray willow).
25 , indicating T-cell cross-reactivity between birch and hazelnut allergens in all patients of the stud
26 ollen and examine cross-reactivities between birch and nut species.
27                                           In birch and other plant pollens, a major allergen is profi
28 n updated include respiratory allergens from birch and ragweed pollen, midge larvae, and horse dander
29 compositions of the exudates of aspen, white birch and silver birch buds were determined.
30 mentation as the primary factors controlling birch and spruce forest change, respectively.
31 elterwood system with mixed stands of silver birch and spruce in combination with regular harvest of
32 zed both with and without cosensitization to birch and stratified into age-categories.
33 community biomass response, and responses of birch and willow, to warming by 19%, 46%, and 11%, respe
34 with American beech, sugar maple, and yellow birch, and negatively with red spruce and balsam fir - g
35 ing three types of wood logs, namely, beech, birch, and spruce, were chemically characterized using t
36 d spruce, sugar maple, yellow birch, cordate birch, and striped maple.
37 the major pollen allergen Bet v1 from silver birch as examples and showed that these purified recombi
38 resent analyses we included 28 children with birch atopy and randomly selected 28 nonatopic children
39 nd (2) IgE responses to birch (children with birch atopy) or no IgE response at all to 9 common aeroa
40 as well as commercial available softwood and birch-bark pellets were investigated.
41 om timothy grass (Phl p 7), alder (Aln g 4), birch (Bet v 4), turnip rape (Bra r 1), lamb's quarter (
42 (Populus tremuloides) stands and mixed aspen-birch (Betula papyrifera) stands.
43 mbling aspen (Populus tremuloides) and paper birch (Betula papyrifera) to the north vs. eastern cotto
44 d host trees aspen (Populus tremuloides) and birch (Betula papyrifera).
45 berian larch (Larix sibirica Ledeb.), silver birch (Betula pendula Roth.) and black alder (Alnus glut
46                       Foliar fungi of silver birch (Betula pendula) in an experimental Finnish forest
47                                       Silver birch (Betula pendula) is a pioneer boreal tree that can
48 tity with an ACC oxidase from European white birch (Betula pendula), and phylogenetic analyses clearl
49 al plant community were taken, namely silver birch (Betula pendula), Norway spruce (Picea abies), bir
50 )-D-Xylp, which was previously identified in birch (Betula verrucosa) and spruce (Picea abies) GX.
51 T treatment against grass (Phleum pratense), birch (Betula verrucosa) or both was included.
52 elevant nonphylogenetically related species: birch (Betula verrucosa), pine (Pinus sylvestris), and r
53 he exudates of aspen, white birch and silver birch buds were determined.
54 ears, and 13 years) and (2) IgE responses to birch (children with birch atopy) or no IgE response at
55 al susceptibility when growing with pine and birch compared with their monocultures or mixtures witho
56 tional feeding experiments on related silver birch confirmed the SOA results.
57 e synthesis applies the previously developed Birch-Cope sequence to create the key arylic quaternary
58                           The product of the Birch-Cope sequence, a versatile 4,4-disubstituted-2-car
59 tivity to recombinant Bet v 1.0101 (Bet v 1; birch), Cor a 1.0401 (Cor a 1; hazelnut), and Dau c 1.01
60 an adults of red spruce, sugar maple, yellow birch, cordate birch, and striped maple.
61                                 In aspen and birch, CUE and RGR declined significantly with increasin
62 ionally occurring pollen allergens (ragweed, birch, cypress), IgE sensitization was significantly ass
63 e forest tree (Betula alleghaniensis, yellow birch) displayed responses to increased CO2 that were bo
64 s away from graminoid-dominated toward dwarf birch-dominated.
65 s for moderate-to-severe peanut allergy in a birch-endemic region and to create an oral-peanut challe
66                In Hokkaido the prevalence of birch family pollen count was larger than that in other
67  There is cross-reactivity between beech and birch family which related with oral allergic syndrome.P
68 and suggests that chewing damage on mountain birch foliage could significantly increase reactive VOC
69 es along replicated natural transitions from birch forest (Betula pubescens), through deciduous shrub
70 er measurements identified net CH4 uptake in birch forest soils.
71 e wider landscape, lichen heath and mountain birch forest.
72 year period, we observed a nonlinear loss of birch forests and a relatively continuous gain of spruce
73 stimates a transition of ~15 km(2) or ~7% of birch forests to wetlands, where the greatest change fol
74                                Additionally, birch, grass, or pine-pollen extracts were tested.
75 erbivore-induced VOC emissions from mountain birch in laboratory experiments and assessed the impact
76        This conversion was not observed with birch leaf diets, which had lower carbohydrate content.
77  g(-1) wet weight (ww) and 94 ng g(-1) ww in birch leaves and spruce needles, respectively.
78 ncing revealed greater diversity of fungi on birch leaves than the visual assessment method.
79  of electron-deficient pyrroles using either Birch (Li/NH(3)) or ammonia-free (Li/di-tert-butyl biphe
80                            The conversion of birch lignin to monomer C7-C9 hydrocarbons is nearly qua
81              In the second study, Bowman and Birch-Machin show that mitochondrial complex II activity
82                    Global deprotection using Birch metal dissolving conditions did not remove the ter
83                               A fourth-order Birch-Murnaghan equation of state reproduces our experim
84 re <6 GPa, the PAW-GGA can be described by a Birch-Murnaghan equation of state with = 687.4 A(3), = 5
85                                    Among the birch-negatives, prevalences of nut sensitizations decre
86 receiving steroids after SCIT against grass, birch or both were 0.65, 0.83 and 0.72, respectively (P
87 d He@C(60)H(36) have been synthesized by the Birch or dihydroanthracene reduction of C(60) and isolat
88                      Using the aeroallergens birch or grass pollen as model allergens and, for some d
89 ion of effective vaccine candidates to treat birch PFS.
90 group 2 mite allergens (18.2%), Bet v 1 from birch pollen (16.3%) and Fel d 1 from cat (14.4%).
91 -10) protein family and allergic rhinitis to birch pollen (ARbp) from early childhood up to age 16 ye
92 endently of this were children sensitized to birch pollen (Bet v 1).
93 stigated its clinical safety and efficacy in birch pollen (BP)-allergic patients.
94                  Specific immunotherapy with birch pollen (BP-SIT) induces IgG4 antibodies that inhib
95 3) and patients with mild allergic asthma to birch pollen (n = 12) before and after birch allergen pr
96 = 105), Dermatophagoides farina (n = 96) and birch pollen (n = 85).
97                                              Birch pollen (rBet v 1) sensitization with cross-reactiv
98 lied to evaluate the therapeutic efficacy of birch pollen AIT on birch pollen-related food allergy.
99 ovocation (COLAP) test using the recombinant birch pollen allergen Bet v 1 (rBet v 1) for in vivo dia
100 gellin A from Listeria monocytogenes and the birch pollen allergen Bet v 1 (recombinant flagellin A [
101 ions and T-cell responses to the recombinant birch pollen allergen Bet v 1 and recombinant hypoallerg
102 inly results from sensitization to the major birch pollen allergen Bet v 1 and subsequent cross-react
103  monoclonal human IgE, and the corresponding birch pollen allergen Bet v 1 at a molecular level.
104 ntibodies and T cells specific for the major birch pollen allergen Bet v 1 cross-react with structura
105 t fusion proteins of flagellin and the major birch pollen allergen Bet v 1 for suitability as allergy
106                                    The major birch pollen allergen Bet v 1 is considered the prototyp
107  genetically engineered variant of the major birch pollen allergen Bet v 1 that lacks the typical Bet
108 gs which had been immunized with recombinant birch pollen allergen Bet v 1 using patch delivery syste
109 er 25 years ago, the gene encoding the major birch pollen allergen Bet v 1 was the first such gene to
110 ved from the IgE-reactive areas of the major birch pollen allergen Bet v 1 were fused to the hepatiti
111 an ELISA for the quantification of the major birch pollen allergen Bet v 1, established as a referenc
112 minent member of the PR-10 family, the major birch pollen allergen Bet v 1, is the main cause of spri
113 effect of intranasal administration of major birch pollen allergen Bet v 1, omalizumab or placebo on
114 ed with the T-cell receptor specific for the birch pollen allergen Bet v 1, respectively.
115 city and sensitization capacity of the major birch pollen allergen Bet v 1.
116 ged intranasally with omalizumab, placebo or birch pollen allergen Bet v 1.
117 uman basophils function as APC for the major birch pollen allergen Bet v 1.
118 ution of specific surface areas of the major birch pollen allergen Bet v 1.0101 to binding IgE of ind
119 r Tlr4(-/-) BALB/c mice were sensitized to a birch pollen allergen extract (BPEx), then received eith
120        IgE antibodies specific for the major birch pollen allergen frequently cross-react with Bet v
121 llergic patients using recombinant (r) major birch pollen allergen rBet v 1 and major timothy grass p
122  Art v 4 are compared with those of Bet v 2 (birch pollen allergen) as well as with other allergenic
123                        High numbers of major birch pollen allergen, Bet v 1-specific CD4(+)FOXP3(+) T
124 ble for quantification of Bet v 1, the major birch pollen allergen, in preceding phases of BSP090.
125 ed by co-sensitization to Bet v 1, the major birch pollen allergen, its cross-reactive food allergens
126 tides (COPs) derived from Bet v 1, the major birch pollen allergen, showed good clinical tolerability
127 aneous immunotherapy with Bet v 1, the major birch pollen allergen, to intervene in birch pollen alle
128 ty and thus represent promising vaccines for birch pollen allergen-specific immunotherapy.
129 the ideal dose for allergen immunotherapy in birch pollen allergic patients.
130 lind placebo-controlled pilot trial in which birch pollen allergic subjects were challenged intranasa
131                                              Birch pollen allergies are frequently associated with ad
132 ut AD (group 2), 5 allergic patients without birch pollen allergy (group 3), and 5 nonallergic subjec
133                                Patients with birch pollen allergy (major allergen: Bet v 1) have ofte
134                                Patients with birch pollen allergy and associated food allergy to haze
135 le to activate T-cell lines from donors with birch pollen allergy and from mice immunized with the pa
136 ergenicity of hazelnut in individuals with a birch pollen allergy and reactivity to raw hazelnut.
137 uction and characterization of a vaccine for birch pollen allergy is reported.
138 4 sera from Bet v 1-sensitized subjects with birch pollen allergy was determined by using direct ELIS
139 pecific immune responses of 16 patients with birch pollen allergy were characterized up to 54 months
140 ctions in not only most of the patients with birch pollen allergy with AD (11/15) but also in most of
141 ical study was conducted in 15 patients with birch pollen allergy with AD (group 1), 5 patients with
142 ent late reactions not only in patients with birch pollen allergy with AD but also in those without A
143                                Patients with birch pollen allergy with AD had higher Bet v 1-specific
144 ontaining Bet v 1 fragments in patients with birch pollen allergy with and without atopic dermatitis
145 n allergy with AD (group 1), 5 patients with birch pollen allergy without AD (group 2), 5 allergic pa
146  CCR4(+) T cells compared with patients with birch pollen allergy without AD.
147 ed from studies on those with cross-reactive birch pollen allergy.
148 l and allergen-specific IgE in patients with birch pollen allergy.
149 major birch pollen allergen, to intervene in birch pollen allergy.
150 en-specific immune response in patients with birch pollen allergy.
151 ting candidate for specific immunotherapy of birch pollen allergy.
152  for allergen-specific immunotherapy against birch pollen allergy.
153 , and PBMCs were isolated from subjects with birch pollen allergy.
154 pollen profilin, can hamper the diagnosis of birch pollen allergy.
155                         For Bet v 1-mediated birch pollen and associated food allergies, a single wil
156 symptoms, conjunctival provocation test with birch pollen and Bet v 1, and in vitro tests (tIgE, sIgE
157 zations to nuts in individuals sensitized to birch pollen and examine cross-reactivities between birc
158 n an environmental exposure chamber (EEC) to birch pollen at an average concentration of 3500 +/- 500
159                             Sensitization to birch pollen causes cross-sensitization to nuts, but rar
160  patients allergic to grass pollen and 94 to birch pollen completed two questionnaires (RCAT and RQLQ
161 ll subjects with skin prick tests (SPTs) for birch pollen conducted during 1997-2013 in the Skin and
162  Cor a 8 is diluted by the increased role of birch pollen cross-reactivity with Cor a 1.
163  signaling to experimental asthma induced by birch pollen exposure exclusively via the airways.
164  was defined as upper airway symptoms during birch pollen exposure.
165  exposed to native or heat-inactivated white birch pollen extract (BPEx) intratracheally and injected
166 birch pollen-allergic patients together with birch pollen extract and human IL-4.
167 ly increased reactivity to grass compared to birch pollen extract in Bet v 2 only sensitized patients
168  with >90% of Bet v 1 content present in the birch pollen extract, while displaying a weak cross-reac
169 de adjuvant and intranasally challenged with birch pollen extract.
170  recombinant rBet v 1.0101 as well as native birch pollen extracts were measured independently at lea
171         However, specific immunotherapy with birch pollen has inconsistent effects on apple allergy.
172                       It has been shown that birch pollen immunotherapy can induce IgG antibodies whi
173                                As successful birch pollen immunotherapy does not consistently improve
174 r allergen-specific immunotherapy (AIT) with birch pollen improves birch pollen-related food allergy.
175                    In sensitized individuals birch pollen induces an allergic response characterized
176                                 Bet v 1 from birch pollen is a common sensitizing agent, and OAS resu
177       PBMCs obtained from donors allergic to birch pollen or from healthy donors were injected into N
178 ections of ALK Alutard (containing 1000 SQ-U birch pollen or grass pollen) or placebo (ALK diluent).
179 se reactions to food, GI tract symptoms, and birch pollen pollinosis and five healthy controls underw
180  dose-finding study with a sublingual liquid birch pollen preparation (SB) was conducted.
181 total of 40 patients with a clear history of birch pollen rhinoconjunctivitis and associated OAS to a
182 easured (all measures determined outside the birch pollen season).
183 d in autumn 2007 and spring 2008, before the birch pollen season, in 32 Dutch adults with symptoms of
184 of Bet v 1 COP immunotherapy during the 2013 birch pollen season.
185 ngually on 2 consecutive days outside of the birch pollen season.
186 as well as before and after the intermediate birch pollen season.
187 s-reactivity to food allergens after primary birch pollen sensitization.
188                                Inhalation of birch pollen significantly enhanced allergen-specific Ig
189  for inhalant allergies; however, successful birch pollen SIT does not correlate well with the amelio
190 ted from patients before and during AIT with birch pollen were added to the allergen prior to intrana
191 ients with positive skin prick test (SPT) to birch pollen were analyzed regarding IgE to major birch
192  showed that allergen-Ab complexes formed in birch pollen, as well as food allergy, contained IgE, Ig
193 e identified as allergens (e.g. Bet v 7 from birch pollen, Cat r 1 from periwinkle pollen).
194 for a PreS carrier-based peptide vaccine for birch pollen, which, in addition to the established redu
195                                         Both birch pollen- and grass pollen-specific IgG4 increased w
196 by basophils and different types of APC from birch pollen-allergic and nonallergic individuals.
197                               Basophils from birch pollen-allergic donors very efficiently bound Bet
198    IgE immunoblotting studies with sera from birch pollen-allergic individuals demonstrate that cleav
199 re detected in oral tissues from healthy and birch pollen-allergic individuals.
200                           Bet v 1-sensitized birch pollen-allergic patients (n = 35) were diagnosed f
201 , Mal d 1, and Cor a 1 were determined in 42 birch pollen-allergic patients before and during BP-SIT.
202  grass pollen-allergic patients and 45.7% of birch pollen-allergic patients receiving guideline-conco
203 blingual challenge tests in a high number of birch pollen-allergic patients that inter alia can be ap
204 ntraperitoneally allergen-reactive PBMC from birch pollen-allergic patients together with birch polle
205                                   Samples of birch pollen-allergic patients were used as control.
206 9% NaCl were sublingually administered to 72 birch pollen-allergic patients with apple allergy.
207 L) and clones (TCC) established from PBMC of birch pollen-allergic patients with carrot allergy were
208 tained from three healthy individuals and 23 birch pollen-allergic patients with/without oral allergy
209 s) and a moderate correlation of r = -0.539 (birch pollen-allergic patients).
210  pollen-allergic patients and r = -0.795 for birch pollen-allergic patients.
211                                              Birch pollen-associated plant food allergy is caused by
212                                              Birch pollen-driven hazelnut sensitization (Cor a 1) dom
213                          Hazelnut allergy is birch pollen-driven in Northern/Western Europe and lipid
214 nd T-cell cross-reactivity contribute to the birch pollen-food syndrome.
215 g adjuvant in epicutaneous immunotherapy for birch pollen-induced allergic asthma.
216 Bet v 1 COPs versus placebo in subjects with birch pollen-induced allergic rhinoconjunctivitis.
217 ristics, efficacy, and safety in ragweed- or birch pollen-induced seasonal allergic rhinitis (SAR).
218 role of other immunoglobulin isotypes in the birch pollen-plant food syndrome has not been investigat
219  we analyzed the Fc glycosylation pattern of birch pollen-reactive serum IgGs after successful allerg
220                                              Birch pollen-related apple allergy is among the most pre
221                      Sixty participants with birch pollen-related apple allergy were randomized to da
222 ble and relevant for sublingual treatment of birch pollen-related apple allergy.
223 sing approach for the effective treatment of birch pollen-related apple allergy.
224 ns containing either rMal d 1 or rBet v 1 on birch pollen-related apple allergy.
225 munotherapy (AIT) with birch pollen improves birch pollen-related food allergy.
226  therapeutic efficacy of birch pollen AIT on birch pollen-related food allergy.
227 rdized tests to assess clinical reactions to birch pollen-related foods, for example apple.
228 lls were quantified in peripheral blood, and birch pollen-specific IgE and IgG antibody levels were d
229  Bet v 1 is the main sensitizing allergen in birch pollen.
230 ly suppressed asthmatic features elicited by birch pollen.
231 sera and basophils from patients allergic to birch pollen.
232 e-blind intradermal injection with grass and birch pollen.
233 from a separate validation cohort exposed to birch pollen.
234 ing, phase IIb trial in patients allergic to birch pollen.
235  adults with allergic rhinoconjunctivitis to birch pollen.
236 yielded four significant SNP associations to birch pollen.
237  examine sensitizations in an area with less birch-pollen exposure.
238 birch were similar in Lapland with its lower birch-pollen exposure.
239 umber of patients, ILIT with grass-pollen or birch-pollen extracts appears to reduce nasal allergic s
240       Two hundred and sixty-nine adults with birch-pollen-induced AR were randomized to placebo, SB:
241                        Safety, tolerability, birch-pollen-specific immunoglobulin levels and peak nas
242                              IgE specific to birch profilin also binds human profilin I.
243 ysis at Tyr(6)-Val(7) and Trp(35)-Ala(36) in birch profilin and at Trp(32)-Ala(33) in human profilin,
244 at cleavage by chymase attenuates binding of birch profilin to IgE.
245 e (MFC), nanofibrillated cellulose (NFC) and birch pulp derivate, nanofibrillated anionic dicarboxyli
246  of cellulose fibres, except when unmodified birch pulp was used.
247  and alginate were produced using unmodified birch pulp, microfibrillated cellulose (MFC), nanofibril
248                      An unrelated challenge (birch, rDer p2 or anti-IgE) resulted in 53.4% activation
249 and challenging with optimal doses of grass, birch, recombinant house dust mite (rDer p2) allergen or
250                                          The Birch reduction (lithium in liquid ammonia) of graphite
251       The reaction procedure for the ammonia Birch reduction (procedure A) takes about 9.5 h to compl
252  resistant to acidic, basic, Lewis acid, and Birch reduction conditions and was assessed as a polymer
253 smoothly and stereoselectively reduced under Birch reduction conditions to give trans-4,5-disubstitut
254  was found that ambident substrate 12, under Birch reduction conditions, underwent smooth partial red
255 earomatization of the aryl substituent under Birch reduction conditions.
256 es, which are incompatible with the standard Birch reduction conditions.
257 h ammonia (Na/NH3) and ammonia-free (Li/DBB) Birch reduction conditions.
258 es, were selectively partially reduced under Birch reduction conditions.
259 m of the reduction shows similarities to the Birch reduction known from organic chemistry.
260  1,4-cyclohexadienes 2, obtained through the Birch reduction of arenes 1, have found widespread use a
261                                              Birch reduction of the benzylated polymers gives water-s
262                                              Birch reduction of the SEM ether of methyl salicylate fo
263                                         Upon Birch reduction of unprotected, C4-alkylated tetrahydroi
264 bit the expected mass spectral peaks for the Birch reduction products of C 60 *3- (C60Hn).
265 olution, the mass spectral signature for the Birch reduction products of M+@C60-COT*3- and C60-COT*3-
266  into its dihydrocounterpart 16 by using the Birch reduction protocol.
267 the oxazolidine, followed by N-acylation and Birch reduction, completed the syntheses of 2 and 3.
268 ls-Alder, dipolar and ketene cycloadditions, Birch reduction, many types of nucleophilic additions, a
269 ylation, a variant of the nearly century-old Birch reduction, occurs on single-walled carbon nanotube
270 olving three reactions: the enantioselective Birch reduction-allylation, enol ether hydrolysis, and t
271 netic intermediates observed do not fit in a Birch reduction-like or ferraoxetane mechanism.
272 wet chemistry methods based on variations of Birch reduction.
273 r procedure can be only minor isomers of the Birch reduction.
274 nge thus results from a cyclic one-electron (Birch) reduction/protonation/reoxidation (by phenoxyl ra
275 also report that SmI2(H2O)n cleanly mediates Birch reductions of substrates bearing at least two arom
276 el (the Na(2)K-SG(I) reagent) cleanly effect Birch reductions of substrates with at least two or more
277                                              Birch reductive alkylation of methyl m-(hydroxymethyl)be
278                Here we show that the Billups-Birch reductive alkylation, a variant of the nearly cent
279 g variant (FV) of recombinant (r) Bet v 1 on birch-related soya allergy.
280 present data on the effect of rBet v 1-FV on birch-related soya allergy.
281  thus cannot be fitted to a linear relation, Birch's law, which has been used to extrapolate measured
282 mbination with regular harvest of leaves and birch sap and an understory of ground elder, it is poten
283                             Of subjects with birch sensitization, 84% were cosensitized to hazelnut,
284                        In a subgroup without birch sensitization, young children (<5 years) were most
285                                              Birch-sensitized individuals are frequently cosensitized
286 elopment of extensive peatlands, wet tundra, birch shrubland and coniferous forest.
287  across dominant groupings of species (dwarf birch shrubs, willow shrubs, other deciduous shrubs, gra
288 d might be helpful to evaluate the effect of birch-specific immunotherapy on pollen-associated food a
289 rent lignocellulosic biomass, namely, beech, birch, spruce, ash, oak, and pine as well as commercial
290 e and organic matter deposition in aspen and birch stands at the Aspen FACE facility in northern Wisc
291 mated to affect 50-90% of people allergic to birch tree pollen.
292 a n 2 (both from rapeseed) and Bet v 4 (from birch tree).
293 iterpene isolated from the bark of the white birch tree, has been reported to be a selective inducer
294  An alternative approach is the coppicing of birch trees in combination with an understory of ground
295 porarily installing a curbside line of young birch trees.
296 interior Alaska, including black spruce, bog birch, tussock grass and two fens.
297 lish reductions more usually performed under Birch type conditions.
298            Cosensitizations between nuts and birch were similar in Lapland with its lower birch-polle
299 plots containing preferred species (pine and birch) while intermediate preference species (larch and
300 ionships of Empetrum (crowberry) and Betula (birch) with millennial-scale changes in climate, fire ac

WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。
 
Page Top