Back in October 2022 I posted a blog article on some tests of various windshields I have: these included the Rode blimp, the Rycote Nano Shield and the Rycote Cyclone. The tests were all about performance in wind, but, of course, windshields also vary in terms of their suspensions. This matters to some degree with field recordings with mics on static stands (where vibrations can travel up the stand), but is especially relevant to mics on boom poles, be that for field recording or, more commonly, production sound for film or TV. With the Cyclone just edging the Nano Shield in terms of pure wind performance (and the Rode blimp not actually far behind), I was interested to test whether it also edged its smaller but newer sibling in terms of handling or other transmitted noise: in general use I wasn’t certain as conditions/use never quite match. Does the floating basket design of the Cyclone outweigh the newly designed lyres of the Nano Shield? How crucial is lyre compliance? And I must admit my curiosity was also raised further by some negative rumblings about the handling noise of the Nano Shield, not least on JWSound (a forum for sound production professionals): was I missing something?
So to some tests. First off, I should clarify what models I have tested: the Cyclone is the medium model (a 2021 model), while the Nano Shield model is the NS4-DB, with the improved sock design (using the same 3D-Tex material as used on the Cyclone) and the modified swivel arm for the suspension: both these updates were part of a free kit supplied by Rycote to address a resonance issue that some experienced with the original design (though some sound production professionals have suggested with only partial success). For mics, I used Rycote’s own HC-22 shotgun mic, for the reasons that I have a pair of them, they have an unusually good low-frequency response (useful for highlighting handling noise and exposing the limits of any suspension), and they have low self-noise (8.5 dBA) that helps reduce any distracting hiss when cranking up the gain to hear and measure handling noise. Needless to say, I didn’t use any high-pass filtering to remove the low frequencies for the purposes of these tests, and, of course, I double-checked to see if the mics really did produce the same level output by using a 1kHz test tone. The mics were mounted on a short stereo bar (at 175mm centres) mounted to a Gitzo carbon-fibre boom pole extended to 2.6m (8ft 6″). All tests were done indoors to reduce distraction of environmental noise and to remove wind from the equation.
The Cyclone vs Nano Shield without baskets
First up, I tested the bare suspensions: that is the mics mounted in the windshield suspensions, but without the baskets. With the Cyclone I also removed its chunky C-arm, which is only necessary to support the basket. With the Nano Shield I used blue-lined lyres, which are 62 shore: the 100g weight of the HC-22 shotgun mic is within the range of mics that Rycote suggest should be used with such lyres (ranging up to the 150g MKH60). Using the stiffer green-lined lyres (68 shore) certainly made for more handling noise, so you need to be careful – as always with Rycote suspensions – not to use too stiff a lyre. With the Cyclone, the choice was a bit harder, not least as the shore numbers across the two different lyre types do not equate: for example, given that the Rycote mics are not yet on any compatibility chart, the Rode NTG1 (at 105g almost the same weight as the HC-22) is shown as compatible with 62-shore Nano Shield lyres and 72-shore older style shores (as used in the InVision mounts and in the Cyclone). Initially, I carried out these tests, therefore, with 72-shore lyres in the Cyclone, but the results were poor compared to the Nano Shield, so I swapped out to 62-shore lyres and results for the Cyclone improved. I can see why Rycote recommend 72-shore lyres for such mic weights, however, since manic/very shaky movement of the Cyclone suspension when enclosed (i.e. in later tests: see below) caused the mic to wobble wildly, generating a lot of noise and with obvious danger of hitting the basket. So, to summarize, for all tests I used the recommended and appropriate lyres in the Nano Shield, but for the Cyclone I used a more compliant lyre than recommended, but which gave better performance in all but the most extreme test: in essence, I used the suspensions I would choose for such mics in normal booming for dialogue or field recording.
With the bare suspensions I did four simple tests:
1) holding the boom pole statically in the H position (above head, arms bent nearly ninety degrees at elbows);
2) holding the boom pole in the less flexible but easier crucifix position (i.e. pole behind neck, arms extended horizontally along the pole);
3) holding the boom pole under one arm, which is rather harder, but allows control of mixer; and
4) the H position again, but tapping the pole near its base to test louder noise/stronger vibration transmission along the pole. Here is the sound file arising for the Cyclone (there is a brief silence between each of the four short clips):
And here is the sound file arising from the Nano Shield:
In each case you can hear a distinct difference: the bare Nano Shield suspension is producing significantly less handling noise than the Cyclone. Looking at one of the tests in a spectrum analyzer, as a typical example, we can visualize the differences:
The sound is all very low frequency (below 80Hz ) and peaks around 25Hz, with about 10dB difference between the two in this example. It represents transmitted noise resulting from straining and shaking muscles and, of course, would be less with a fresh, fit and experienced boom pole operator: it is not often than being a weakling and an amateur is an actual advantage, but a worse-case scenario is useful here to highlight differences. There was, as expected, a smaller difference (around 3dB) in the more stable – and muscle-relaxing – crucifix position. Of course, a mic with more bass roll-off would exhibit less handling noise, and even what was recorded in these tests can be removed by use of a high-pass filter.
The Cyclone vs Nano Shield with baskets fitted
To compare the Cyclone and Nano Shield with their respective baskets fitted I expanded the tests (still using the boom pole at 2.6m (8ft 6″) extension) rather, not least as I now had wind protection for the two mics, as follows:
1) holding the boom pole statically in the H position (above head, arms bent nearly ninety degrees at elbows);
2) holding the boom pole in the less flexible but easier crucifix/cruciform position (i.e. pole behind neck, arms extended horizontally along the pole);
3) holding the boom pole under one arm, which is rather harder, but allows control of mixer;
4) the H position again, but tapping the pole near its base to test louder noise/stronger vibration transmission along the pole;
5) cueing (quick rotations of the boom pole as if moving aim of the mic from one speaker/actor to another);
6) boom swinging – 3m/10ft horizontal arcs;
7) moving the mics up down around 1m (3ft) quickly, as if making a sudden adjustment;
8) holding the boom pole in the H position, but shaking it quite significantly (about 25mm/1 inch) up and down, to really push the suspensions; and
9) testing cable slaps (again rather exaggerated) at the base of the boom pole to test transmission of potentially different frequencies;
Here are the sound files arising (again, there is a brief silence between each of the short clips):
As with the sans basket tests, the Nano Shield significantly outperformed the Cyclone in eight of the nine tests. The one exception was that there wasn’t a lot of difference in the outcome of the underarm static boom pole holding; and I repeated the tests several times to check. The most significant difference was with the shaking test, but, as discussed earlier in the post, this is very much the consequence of the 62-shore lyres in the Cyclone allowing major lateral and vertical movement of the shotgun mic with such extreme handling.
Here are the spectrum analyzer screenshots for each of the nine tests:
While my previous tests for wind performance favoured the Cyclone, these tests of the performance of the suspensions showed that the Nano Shield has the edge. This is reassuring in terms of booming: since getting two Nano Shields I have much preferred them at the end of a boom pole (due to smaller size and lower weight) to a Cyclone, but had wondered if I was losing out in some way, especially given the online rumblings. Of course, these tests are limited in range and by the models of windshield and, indeed, mics used: whilst I can be confident that the Nano Shield is a good choice vs the Cyclone for booming with my HC-22 shotgun mics, other sizes of the two windshield types and different mics may produce different results. I’d be rather surprised if results were reversed, but it can’t be ruled out. Why some others are getting problems with the Nano Shields is unclear: evidently, seriously skilled professional boom pole operators may do things with boom poles that are beyond my usage or imagination! In some cases it may be that the upgrade kits haven’t been applied or, indeed, that too stiff lyres are being used for the mic in hand: both would seem unlikely in the hands of an experienced professional, but, in the absence of any details of the exact set-ups causing issues, perhaps one shouldn’t make assumptions. Certainly, I must confess that before these tests I was using the stiffer green-lined lyres (68 shore), rather than the more suited blue-lined lyres (62 shore). For very light mics, it is the red-lined lyres (55 shore) that will be needed, and these are neither supplied with the Nano Shield kits nor, indeed, easily available.
For anyone who has been following the foray of long-established and respected maker of mic windshields and suspensions, Rycote, into manufacture of mics themselves, the announcement of the BD-10 fig 8 at NAB 2023 is an exciting development. With two shotgun mics produced in 2021 and then, in 2022, omni, cardioid and supercardioid mics, a fig 8 mic was undoubtedly the most hoped-for mic to give a reasonably complete range. You might wish for a wide cardioid too (or variations on the existing polar patterns – a free-field omni mic, for example), but there is no doubt that a fig 8 mic is vital to Rycote’s range of mics for several reasons: first, Rycote’s established customer base is founded on field recording and, especially, those recording sound for film/television, where mid-side recording – and a fig 8 mic – is a key tool; and, second, the company needs a full range if it is to tempt users away from more established manufacturers. That there are few such complete ranges, with a fig 8 mic in the sub-£1000*mic category adds to the significance of the BD-10: with the recent demise of AKG’s competent Blueline mics (launched 30 years ago), I can’t think of another manufacturer producing mid-priced SDC mics with a fig 8 in the line-up other than boutique Taiwanese mic-maker B9Audio (with almost no reviews and mics only available direct from a private address in Taipei, B9Audio is not viable for most) and, possibly, respected German manufacturer MBHO (I say possibly, since the MBHO website has long since failed to list the KA 800 fig 8 capsule, pricing is uncertain, and, again, distribution is not similar to most mainstream mic manufacturers: for example, I can’t find any MBHO mics in stock in the UK). And one-off SDC fig 8 mics (i.e. not forming part of a range of polar patterns) in this category are rare too. Perhaps more surprisingly, not all mic manufacturers producing SDCs in higher price brackets have succeeded in producing a fig 8: most obviously, Sennheiser has never managed to bring a much-anticipated MKH8000 series fig 8 to market (although the excellent, albeit large for an SDC mic, MKH30 has remained in production since launched in 1987), and DPA similarly has no SDC fig 8 offering.
*NB: though Rycote has yet to announce pricing, it will almost certainly be in this category, but perhaps a little pricier than its £670 SDC siblings.
The Rycote BD-10, on paper, then looks like it will be a welcome addition to the market, when it becomes available (probably not until the autumn). Its self-noise is comparable to that of the Schoeps MK8. It is a little (22mm) longer and heavier (15g) than Rycote’s omni, cardioid and supercardioid mics, but not radically so. This reflects the capsule design, which, I understand, is a pairing of 11mm diameter diaphragms one above the other with a waveguide to blend them: the polar pattern graph shows a very symmetrical result from this arrangement, but, of course, the proof of the pudding is in the eating. So, what is the mic like in reality? On to some field tests and trials.
NB The mic tested was a prototype, and the final specs of the BD-10 in production may differ slightly.
As with all mics, I was interested in the impact of radio frequency interference (RFI) on the BD-10. Living in rural Norfolk, much of my life is outside or on the edge of mobile phone reception, where some models of phones transmitting at full power can cause notable interference on mics at up to, say 1m/3ft: not a problem with mics on a stand, but I’ve had this become a real issue with handheld shotgun mics and a phone in my jacket pocket (on those rare occasions when I forget to turn my phone off). And this could be a problem with ENG work too (not least from the phone of an interviewee). So I was glad to find that in testing, as before, with several different phones on the absolute fringe of reception (i.e. working at highest power) the mic showed no sign of RFI even at close distances (100mm): the other Rycote mics are similarly resistant to RFI.
Self-noise and sensitivity
With an 18dBA self-noise figure the BD-10 has significantly more self-noise than its stablemates, which are the HC-15 and HC-22 shotguns at 8.5dBA; the omni OM-08 at 11dBA; the supercardioid SC-08 at 12dBA; and the cardioid CA-08 at 13dBA. The previously released Rycote mics, however, have unusually low self-noise, and higher self-noise for SDC fig 8 mics is normal. For example, at 17dBA the Schoeps MK8 has a very similar self-noise figure to the Rycote fig 8, and, again, 7dBA more than its MK 2 omni capsule counterpart (10dBA). In short, the BD-10 is in good company and 18dBA self-noise for a fig 8 is respectable.
A check on the reality of the 18dBA figure – by recording the sound of nothing (the mic buried deep in duvets in the airing cupboard, with all doors and windows closed and the mains electricity turned off, recording into a Sound Devices MixPre-3 [EIN -130dBV/-128dBu]) and with reference to other mics – confirmed that the self-noise is indeed around that stated.
Testing this in the real world, I rigged the BD-10 as an MS pair with a cardioid CA-08, and a second SDC fig 8 in the form of the AKG CK94: the latter, although just discontinued, is a rare example of another sub-£1000 SDC fig 8 mic with a full frequency range.
First off, recording the ambient sound of my nominally quiet Norfolk village street (yet again!) even in the quieter parts there is no evident difference between the two Rycote mics, but hiss from the AKG CK94 is clearly discernible, which reflects its 22dBA self-noise spec.
Turning to a quieter environment, it was useful to test the BD-10 indoors, in this case with some sound effects/indoor ambience: the mic was set up as a mid-side pair with the cardioid CA-08 in the middle of the kitchen, with various household noises – and some silence – recorded. The AKG CK94 was also paired with the CA-08 for comparison. Here are the two MS tracks and then the three iso tracks for the cardioid mic and the two fig 8 mics:
During the sounds such as cutlery being placed in a drawer the two fig 8 mics are both very usable, but in the quiet passages, such as near the end, the hiss of the AKG CK94 is, again, fairly evident.
The specs state the BD-10’s sensitivity as 14.2mV/Pa (-36.95 dBV). This means that the BD-10 is the least sensitive of the Rycote mics (the next being the cardioid at 24.3 mV/Pa or -32.3 dBV), but its output is still healthy. For example, it is more sensitive than the Schoeps MK8 (12 mV/Pa or -38.5 dBV) and the AKG CK94 (10mV/Pa or -40 dBV). A consequence of this is that the BD-10 has a couple more dB max SPL than its stablemates, but the more practical reason for being aware of its sensitivity is for level matching against different mics when using the BD-10 in an MS pair (matching sensitivity in the recorder in such use giving an easier starting point for monitoring and in post).
Frequency response and ‘sonic signature’
Fig 8 mics generally have a poorer bass response, although some, such as the Sennheiser MKH30 are exceptions: in this case pretty much flat down to 40Hz. The main competitor pricewise to the BD-10, the Ambient Emesser ATE 308, has a marked bass roll-off from 100Hz (if not higher), which is fine if matching for MS to a shotgun mic that has a similar roll-off, but is not ideal for other use. More surprisingly the much-loved Schoeps MK8 has a steady fall off starting from above 200Hz, and, according to its frequency response graph, is down 8dB by 50Hz: at the high end there is a sudden fall-off from 16kHz, so that the response is down by 20dB at 20kHz. The more modestly priced AKG CK94 has a less curtailed frequency response than most of these examples (bar the MKH30) being down about 3.5dB at 50Hz and a similar amount at 15kHz (with no published data beyond). On paper, the Rycote BD-10 looks hopeful: the frequency response graph shows a very gradual roll-off from 200Hz so that it is only -1dB at 100Hz, -2.5dB at 50Hz, and -4dB at 20Hz. If the graphs are correct, then this suggests, a little surprisingly, that the BD-10 has a better bass response than the cardioid CA-08 and supercardioid CS-08. At the upper end, after a little rise around 12kHz, the BD-10 is down about 5dB at 20kHz.
So much for the theory: now to reality! First, a different take on the ambient recording, in this case with the two fig 8 mics (i.e. Rycote BD-10 and AKG CK94) oriented so that in each case one of their lobes faced the rear of a parked car and, in a separate blimp, the SC-08 cardioid likewise facing the car, which was then started. The resulting mono tracks show all three mics capable of rendering the lowest fundamental (at the lowest engine idling speed around 24Hz), with the BD-10 showing more low frequency response than the AKG CK94, but slightly less than the cardioid CA-08: this isn’t a surprise in terms of an expectation of a fig 8 mic versus a cardioid, although it is not what would be anticipated from the frequency response graphs. Graphs aside, though, it is clear that the BD-10 has a good bass response for a fig 8 mic, which suggests good capability for, say, music recording or effects and field recording with a bass component.
At the upper end, it was interesting to see if the BD-10 had any of the extended high-frequency response found in testing of the other Rycote SDC mics. As with the comparison of the Rycote OM-08 and Sennheiser MKH8020 omni mics for extended high frequency response, I recorded a street ambience at 96kHz instead of 48kHz, in this case including the OM-08 and the AKG CK94 alongside the BD-10 for comparison, with levels adjusted to reflect the different sensitivities. As with the omni mics comparison, again the spectrograms are revealing: they show the extended high-frequency response of the omni OM-08, as now expected, with, for example, the gate latch-shutting sound (that tall spike near the right-hand side of the spectrograms) reaching about 48kHz, and the wider spike of the passing tractor (towards the left-hand side of the spectrograms) reaching around 35kHz, and, as would be expected, with much more low-frequency content. The BD-10 shows both clearly, showing that the different capsule design for the fig 8 mic still has a very respectable extended high-frequency response to near 48kHz: moreover, the BD-10 is like the OM-08 in that it is consistently low in terms of self-noise up to the top of the graph (around -136dB at 48kHz) in stark contrast to the previous comparison of the OM-08 and Sennheiser MKH 8020 (where the Sennheiser had considerable self-noise in the extended high frequency range, although not, of course, in the human audible range). The AKG CK94 has a rather lower extended high frequency response, although rather better than anticipated from previous tests on the other Blueline capsules, and has a little more self-noise at such frequencies (as, of course, it does in the audible range). As discussed previously, extended high-frequency response might seem entirely academic outside those recording at high sample rates and pitching down in post (e.g. for bat recordings, or for sound effects), but there are those that argue frequency response over 20kHz is important for high-resolution recording (such as David Blackmer of Earthworks mics in this article). If so minded, there is no doubt that the Rycote fig 8 is a respectable performer over 20kHz, comparable to the other Rycote SDC mics, and with much lower self-noise a useful benefit of the not quite as far extended high-frequency range as found in the Sennheiser MKH 8000 series mics.
Putting this good low and high-frequency response to practical use, I tested the BD-10 on a guitar to cover a wider frequency range. At the same time, given that the previously produced Rycote mics are described by the manufacturer as having ‘a tonal and sonic signature that makes them cut together seamlessly’ and that this relates to frequency response, I also included the omni, cardioid and supercardioid mics in this test, placing mics at the relevant increasing distances to allow for their different polar patterns to reduce the impact of different reflections: the omni mic was placed at 400mm, the cardioid and fig 8 at 680mm (distance factor of 1.7) and the supercardioid at 760mm (distance factor of 1.9). To make comparison most straightforward the wav file has a single strum from each mic in turn (omni, cardioid, fig 8 and supercardioid in turn), followed by a short space and repeated another three times. This was carried out in a normally furnished living room, with a low ceiling.
It is hard to draw definitive conclusions from this simple test. Matching levels was extraordinarily difficult given the different frequency content and different reflections resulting from the different polar patterns, distances and frequency responses: in the end I settled for calculating the impact of the differences of distance and sensitivity. There is, as would be expected, a slight change in the sound as the polar patterns and distances change, and, despite being at the same distance, there is a difference between the fig 8 and the cardioid mic: to a significant degree this is the impact of the greater bass response of the cardioid. Interestingly, the fig 8 and the supercardioid have a very similar sound, doubtless reflecting the reduced bass response of the latter (and, of course, its greater distance: less proximity effect). In short, though, the ‘sonic signature’ for the mics is close enough that I wouldn’t hesitate in using the BD-10 with any of the other mics in a mid-side or double mid-side array.
The BD-10 will have a wide range of applications, but this is likely to include use on a boompole in a MS or DMS rig, so handling noise performance is relevant: all other things being equal, fig 8 mics are the most susceptible to handling noise. Testing for handling noise transmitted via a boompole involved some deliberately clumsy booming, aiming for transmission of vibration to the mics. Three mics were included in the test (i.e. rigged together on a Rycote Invision suspension with back-to-back clips) to allow comparison: the Rycote BD-10, the Rycote SC-08 (supercardioid) and the AKG CK94 (fig 8). Gain levels were adjusted for relative sensitivities.
When holding the boompole still only the BD-10 showed any significant handling noise, which peaked at -38dB, with LUFs at -68.7dB. Evidently this was trembling/vibration from the boom operator’s muscles holding a steady stance, and was all low-frequency energy below c.35Hz: a high-pass filter – a pretty essential adjunct to booming – removes such energy. In the second recording of boompole handling an 80Hz high-pass filter was applied and the low-frequency content in the BD-10 recording is absent: in this case, however, some medium clumsy handling transmits more to the mic than to either the SC-08 or the CK94, which perform very similarly (about 10dB lower noise in terms of LUFs compared to the BD-10). In the third boompole handling test, with extreme rough handling – rather implausibly so! – the difference between the BD-10 and the other two mics remains similar at around 10dB. While previous tests against the AKG CK93 and Oktava MK012 hypercardioids revealed the SC-08’s ability to cope with handling noise rather better, it is clear that the BD-10 doesn’t perform as well as its stablemate or, indeed, the AKG CK94 fig 8, but, other than that sub-c.35Hz transmission – which can be easily cut off by use of a high-pass filter at 40Hz or above – it should offer no problem to the user given a suitable suspension and experienced boom operation (not forgetting that capture of stereo ambiences on a boompole is usually for incidental B-roll, camera perspective stereo etc., not whilst executing complex and rapid boompole movements for dialogue recording!).
Fig 8 mics are especially susceptible to wind noise, so it is interesting to explore this aspect of the BD-10’s performance. To get a base line, a triple rig of BD-10, SC-08 and AKG CK94 was used again, this time, however, with the mics in separate Invision suspensions, spaced along a stereo bar so that no mic was shielded from the wind by the others, and mounted on a boom pole. Fast boom swings were made to generate wind noise, not to represent typical usage of a fig 8. Gain was set as for the handling noise tests (see above). Swinging the bare mics produced overwhelming rumble, as would be expected: the SC-08 and BD-10 performed very similarly, while the AKG CK94 performed rather better (about 13dB better in terms of peak and LUFs). Of course, such use is unrealistic: even with a modest amount of boom movement indoors (or the gentlest air movement around a static mic indoors) at the very least a foam windshield would be used, so the test was repeated with the manufacturer’s original foams on all three mics. Again, the two Rycote mics produced similar levels of wind noise, with the AKG CK94 maintaining an advantage of around 13-15dB. Applying an 80Hz high-pass filter on the recorder in the third test evened things up rather, with wind noise much reduced and with the AKG CK94 having around a (reduced) 5dB advantage over the two Rycote mics. As was noted in the previous SC-08 wind tests against the AKG CK93 and Oktava MK012, it performed between these two mics in terms of noise and, in extensive use since, has not proved problematic. That the BD-10 performs similarly, despite its fig 8 pattern, is reassuring: of course, better wind (and handling) performance at the level of the CK94 would be welcome, but there is no reason to think that the BD-10 isn’t suited to use in wind given, as with any mic, suitable wind protection for the use and conditions.
Following up on this and placing the mic in high wind for an ambient recording confirmed this. I took a mid-side rig with the SC-08 and BD-10 mics in a medium Cyclone windshield up to the north-facing Norfolk coast on a windy day (about 20 mph or more), recording in one location on the inland side of the shingle spit, facing westwards into the wind (including some walking nearby on the shingle), and in a second location on the beach (the wind coming from slightly rear of the left-hand side of the Cyclone). Finally, back in the garden with the same rig and with the wind still blowing (but inevitably not as hard as at the coast), I then did a further recording. For the recordings, I include the individual SC-08 and BD-10 isos, along with the decoded MS and then the latter with an 80Hz high-pass/low-cut filter applied.
It is always hard to translate and communicate conditions let alone those in high wind. In none of these cases would I have attempted a nature/ambience recording as set-up for these tests: I would have sought some shelter from the direct blast of the wind (e.g. in the lee of the pillbox on the beach, or in the lee of the garden wall), not least to reduce vibration of the mic stand. But what the tests do confirm is that the BD-10 is in the same ballpark in terms of wind noise as, say, its supercardioid counterpart. In short, I’d have no hesitation using the Rycote fig 8 for outdoor field recording.
A bit of music
I recently wrote a blog post about a simple video of a singer-songwriter (Lucy Grubb), for a competition entry, and, though I mentioned use of a variation of double mid-side recording, I skipped over just what fig 8 mic I was using. As it is no longer under wraps, it is good to be able to clarify that I used the new BD-10 alongside its supercardioid (SC-08) and cardioid (CA-08) stablemates. Using the three mics, the fig 8 was set conventionally pointed at Lucy, just above the top of her guitar, so that its lobes faced left and right; immediately below this the supercardioid pointed upwards to capture the vocals, and immediately above the fig 8 the cardioid pointed downwards to the guitar – aimed around the 12th fret.
When Rycote followed up on its initial two shotgun mics of 2021 with its omni, cardioid and supercardioid mics the following year, this gave real hope that a fig 8 might follow. Evidently, the capsule design is very different to that used in the other mics, so all the more credit should go to Rycote for persisting. As I said at the outset, a fig 8 is critical to the use of so many recordists that use Rycote’s windshields and shockmounts; and it is important if Rycote wants to be seen as a real contender as a mic manufacturer. That Rycote has come up with a fig 8, and fairly quickly, is good news: that it performs so competently means that it is a great counterpart to the rest of the range. Over a couple of months (intermittently) testing the mic, I have been impressed: I will, however, continue to work with it, not least putting it through its paces on more musical sources, and more field recording. Hopefully, it won’t be long before Rycote clarify availability and pricing.