Species
What the sources say about this taxon, as written.
behaviour · bio.acousti.ca
References to song. Ragge & Reynolds (1998): recordings from Western Europe; Vedenina & Bukhvalova (2001): recordings from the North Caucasus, South Kazakhstan, and Altai Mountains; Tishechkin & Bukhvalova (2009a): recordings from Saratov Oblast and Eastern Siberia. Song. The song is a loud echeme-sequence lasting 10–30 s (Figs. 31–32). Each echeme consists of two parts: about 7–10 short syllables are followed by 8–14 longer ones (Figs. 33–34). Echeme repetition period averages 650 ms in our recordings from Central Asia. Quite often, male produces a succession of low-amplitude syllables at the beginning or end of the song. Duration of this additional part can vary greatly. Comparative notes. S. scalaris is a mesophilous species living in more or less dense grass. For this reason, the mountains of Central Asia represent an isolated part of its range, similarly to G. sibiricus. Nevertheless, the songs of males from the Central Tien Shan Mts. do not differ from the songs recorded in Europe, the Caucasus, and Siberia.
this account at bio.acousti.ca
behaviour · bio.acousti.ca
Males produce prolonged loud echeme-sequence (Fig. 2) from 11 to 25 s. in length. It is completely consistent with data of other authors who registered signals of 10 s. up to 30 s. (Vedenina & Bukhvalova, 2001; Tishechkin & Bukhvalova, 2009). A male usually produces the discrete loud echeme-sequence right after landing. Sitting for a long time, prior to the loud echeme- sequence, a male can protractedly stridulate dis- crete echemes of syllables with unstable intervals (up to 1.5–2.0 min.), emitting the so-called «introduction» (Ragge & Reynolds, 1998). According to these characteristics, no differences among all the males studied were revealed. The echeme repetition period in loud echeme- sequence is the most important for acoustic identifi- cation of a sexual partner in grasshoppers as well as the number of syllables per echeme (Table 1). Loud echeme-sequence of the calling signal of Staurode- rus scalaris consists of numerous echemes. Each of them consists of two parts, formed by long and short syllables. However, at large sweep speed, it is clear that there is one more transition phase between these parts where syllables follow with shorter (in contrast to the second part) intervals and occasionally they are poorly distinguishable (Fig. 2, shown by arrows). Also, this phase can not be referred to longer sylla- bles, because at the same sweep speed their internal structure is completely indistinguishable, unlike the transition phase. This phase is the result of a change of the algorithm of leg movement during stridulation (Elsner & Popov, 1978) from low to high amplitudes. It should be noted that during the calculation of num- ber of long and short syllables, the transition phase can not always be accounted. The obtained results (Table 1) show that main characteristics of acoustic signals of the males from Samarskaya Luka and the Republic of Tuva fit into their variation range from different locations. Note- worthy, that repetition period of echemes and number of syllables in them vary, decreasing from the beginning to the end of a loud echeme-sequence (Table 2). Hence, a male begins to stridulate faster with shorter echemes. This feature is observed for calling signals of S. scalaris from all the locations studied. Although populations of S. scalaris have a discrete distribution within its area (Sergeev, 2014), calling signals of males are more or less similar and overlap by the characteristics studied according to literature. Thus, we can talk about quite high acoustic conservatism of the species throughout the whole area. However, in our opin- ion, it is worth to pay attention to the differences between intermediate phases in echemes. The problem is that most publications are based on studies of calling signals of 1–2 males from each location. It does not allow us to draw any conclusions in regard to this characteristic at the present stage. It is also possible that this is just some individual variability. Since acoustic calling signals in grasshopper communities differ by amplitude-time character- istics (Bukhvalova & Zhantiev, 1993), little atten- tion is paid to studies of the frequency spectrum. It is known that the frequency spectrum is broad- band and occupies most part of the audio range, including ultrasound area. In all studied males of S. scalaris the main frequency maximum lied in the range 6–14 kHz.
14 measurements across 13 traits. Each name links to its term in the audioBlast vocabulary.
Every value behind the summaries above. Each links to its own record in the API, which carries the reference it was taken from.
| Trait | Value | Call | Part | Sex | Temp. | Source |
|---|---|---|---|---|---|---|
| Song Structure | Syllables | Calling Call | Male | bio.acousti.ca | ||
| Echeme Sequence | Calling Call | Male | bio.acousti.ca | |||
| Crepitation Rate (Hz) | 50 | Crepitation | Male; Female | bio.acousti.ca | ||
| Song (Presence) | Present | Crepitation | Male; Female | bio.acousti.ca | ||
| Time Of Day Of Highest Acoustic Activity | 0900-sunset | bio.acousti.ca | ||||
| Echemes Per Echeme Sequence | 20-50 | Calling Call | Male | bio.acousti.ca | ||
| Syllables per Echeme | 7-13 | Calling Call | Male | bio.acousti.ca | ||
| Syllable Repetition Rate (in echeme) (Hz) | 20-30 | Calling Call | Male | bio.acousti.ca | ||
| Echeme Repetition Rate (Hz) | 1-3 | Calling Call | Male | bio.acousti.ca | ||
| HemisyllableDurationFinal | 0.100-0.200 | Calling Call | Male | bio.acousti.ca | ||
| Echeme Sequence Duration | 10-30 | Calling Call | Male | bio.acousti.ca | ||
| Echeme Duration | 0.300-0.700 | Calling Call | Male | bio.acousti.ca | ||
| Syllable Duration (in Echeme) | 0.025-0.050 | Calling Call | Male | bio.acousti.ca | ||
| Syllable Tooth Impacts (Number) | 5-10 | Calling Call (Closing Hemisyllable) | Male | bio.acousti.ca |
431 in audioBlast.
419 more in the audioBlast browser.
Oscillograms, traces and photographs held against this taxon.
Counts are recordings at or below each taxon, so an empty branch shows as empty before you click it. A dash means the join view holds no column for that rank and cannot roll up to it.
Occurrences the recordings are of, in Darwin Core terms.
| Catalogue | Institution | Basis | Sex | Life stage |
|---|---|---|---|---|
| 010211500 | NHMUK | PreservedSpecimen | — | — |
| 010211501 | NHMUK | PreservedSpecimen | — | — |
| 010211502 | NHMUK | PreservedSpecimen | — | — |
| 010211570 | NHMUK | PreservedSpecimen | — | — |
| 010211571 | NHMUK | PreservedSpecimen | — | — |
| 010211572 | NHMUK | PreservedSpecimen | — | — |
| 010211573 | NHMUK | PreservedSpecimen | — | — |
| 010211574 | NHMUK | PreservedSpecimen | — | — |
Publications audioBlast links to this taxon.
The rows audioBlast holds for this taxon, each matched to the same Catalogue of Life node. Where a source classifies it differently, its own classification is kept.
| Source | Its name | Its rank | Its family | Record |
|---|---|---|---|---|
| iNaturalist | Stauroderus scalaris | Species | Acrididae | iNaturalist/116703 |
| bio.acousti.ca | Stauroderus scalaris | Species | Acrididae | bio.acousti.ca/222 |
Bioschemas is in the head of this page. The Darwin Core RDF lives at the API address below, which negotiates JSON-LD and Turtle.
{
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{
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"@type": "Taxon",
"@id": "https://browse.acousti.cloud/taxon/stauroderus-scalaris/",
"name": "Stauroderus scalaris",
"taxonRank": "species",
"url": "https://browse.acousti.cloud/taxon/stauroderus-scalaris/",
"sameAs": "https://api.audioblast.org/taxon/CoL/4ZM48",
"alternateName": [
"Gebirgsgrashüpfer",
"Räikkäheinäsirkka",
"Large Mountain Grasshopper",
"Criquet jacasseur",
"Skærende Græshoppe",
"Skärrande Gräshoppa",
"Dark-winged grasshopper"
],
"parentTaxon": {
"@type": "Taxon",
"name": "Stauroderus",
"taxonRank": "genus",
"url": "https://browse.acousti.cloud/taxon/stauroderus/"
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