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Stereo with the Sennheiser MKH 8018

September 8, 2025
Sennheiser MKH 8018.

Introduction

The MKH 418-S stereo shotgun mic was introduced in 2003, creating – by addition of a fig 8 capsule – what was essentially a mid-side (MS) version of the popular mono MKH 416 shotgun mic. The new MKH 8018 does something similar for the MKH 8000 family of mics, although its mid mic is less directional than the MKH 8060 short shotgun and, of course, a lot less so than the longer MKH 8070. While the specs are significantly improved on the MKH 418-S, the MKH 8018 is aimed squarely at a similar market – most obviously outside sports broadcast. A few reviews have begun to appear on the mic and, rather than repeat ground covered in them, the focus on the tests for this blog post is a bit different: as usual I explore the basics (self-noise, handling noise, frequency response, resistance to RFI etc.), but the field tests focus on the performance of the MKH 8018 as a stereo mic. Above all, I am interested in how this latest take on a stereo shotgun compares to a non-shotgun mid-side pair and, for this, it seems most appropriate to test it in parallel to an MS pair of its MKH 8050 (supercardioid) and MKH 8030 (fig 8) siblings. How can the useful side rejection of a mono shotgun be reconciled with the addition of a fig 8 to create a stereo signal? Likewise, the tight focus of a shotgun mic for some sound effects can be useful, but how does a stereo version work for this? Does the inevitably more erratic (lobar) polar pattern of the shotgun mic at higher frequencies render it very much a poor cousin, or is it eminently usable? Is this mic about having that tight mono shotgun perspective, but with instant flexibility (without changing rig, or, even, making the call in the field) to have that stereo image when useful? If any of these or related questions are of interest to you too, then read on!

PS I should add that the good folks at Sennheiser sent me this MKH 8018 gratis for my unfiltered scrutiny. As usual, I play a straight bat and do my best to be objective (and, if anything, my starting point is a little scepticism about MS and, consequently, DMS with shotguns, as readers may have noticed!), and, with plenty of test WAV files to download, you can pore over my tests and draw your own conclusions. Right: onwards!

PPS It’s not the shortest blog post ever, so if you are after sound samples, stick with it: mostly they are further down.

A look at the mic and its specifications

Well, first to the mic itself. There is no great value in repeating the specifications provided on the Sennheiser website, but a few key ones jump out and merit some discussion. First, of course, is the self-noise, for which figures of 12 dBA are given for the mid (shotgun) mic capsule and 14.5 dBA for the side (fig 8) capsule. These are lower than for the MKH 418-S, for which the mid channel is 14 dBA and the side channel 22 dBA. The fig 8 self-noise improvement is very substantial, but, interestingly, the value is not the same as that for the recently introduced MKH 8030 (13 dBA). The polar pattern of the MKH 8018’s fig 8 is also much less regular than that of the MKH 8030 above 4kHz, which, with the self-noise difference, suggests a different capsule, which Sennheiser have confirmed. The shotgun mic capsule appears to be different from the MKH 8060, and, again, I have had this confirmed…

The MKH 8018 is also a lot more sensitive than the MKH 418-S: for the mid (shotgun) capsule -25 dBV vs -32 dBV; and for the fig 8 capsule -32 dBV vs -40dBV. In both cases, in actual use the substantial difference between the sensitivity of the mid and side channels is then amplified by the fact that the side channel usually gets a much lower signal. In practice I have run 7dB more gain on the side channel in the field with the MKH 8018, to get the capsules up to matching sensitivity, but that’s not always easy with some mixer/recorders with MS linking. And while the MKH 8018 shotgun capsule has quite a hot output, it isn’t unusually so: for example, the MKH 8060 is 1 dBV hotter at -24 dBV.

Thinking about the sensititivies of the two channels leads to another key difference between the MKH 8018 and the MKH 418-S: while the latter outputs the M and S signals only, the MKH 8018 can switch between this option, ‘narrow-XY’ and ‘wide-XY’. No information is given as to the ratio of M to S in the two decoded LR stereo outputs and, while I am sure that they will prove useful to some not familiar or unable to work with the M and S outputs, for all my testing and use I have had the mic set in its MS output mode: I like to know what I am doing!

Turning to the physical appearance of the mic itself, all is exactly described and illustrated on the Sennheiser website. The one thing that wasn’t clear from that was the position of the capsules within the mic, so the first thing I did on opening the box was to hold the mic up to the light to try to see what is going on.

Back-lit view of the slotted tube part of the MKH 8018, showing the three sections: that on the right (i.e. rear) contains the fig 8 capsule with the mid mic capsule then adjoining (to its left); and the two left-hand slotted sections are the actual interference tube of the (shotgun) mid mic, which measures 82mm in length. The internal circular openings can be seen – along with the tight mesh – behind the slots.

Capsules and polar patterns

Polar patterns vary much more across the broad category of shotgun mics than across the individual types of first-order mics (omni, cardioid, supercardioid, hypercardioid, fig 8 etc.). Shotgun mics also have a much more variable polar plot at different frequencies than mics with no interference tube. For example, a shotgun mic might have a similar acceptance angle (signal no more than 3dB down on the on-axis signal) as a hypercardioid (i.e. 105°) up until 1-2kHz, before narrowing (i.e. getting more directional) above that to, say, 25° at 16kHz. So the simple distance factor (i.e. the distance at which the mics get the same direct-to-diffuse field ratio) that can be described for omni mics through to fig 8s has no immediate application to shotgun mics: you will read of ‘typical’ distance factors for shotgun mics of 2 to 3 (with an omni being 1.00, a cardioid being 1.73 and a supercardioid being 1.90), but, clearly, this is a crude approximation given the change in directivity with frequency. Adding to the variables in design (inc. length) of the interference tube and capsule, multi-capsule shotguns also change how the mics reject off-axis sound. The polar pattern (with its particular frequency dependent variation), therefore, has a much more significant role in determining which model of shotgun mic a sound recordist will choose for any given type of recording situation. That doesn’t mean, of course, that the published polar patterns are what a recordist uses to make such choices: an experienced sound recordist will usually base that on how they have heard different microphones perform in use in a range of situations.

MKH 8018 shotgun (mid mic) capsule polar pattern.
MKH 8060 shotgun mic polar pattern.
MKH 8050 supercardioid polar pattern.

Nonetheless, a polar plot, especially if not overly smoothed, contains useful information for a shotgun mic, and it certainly gives an immediate insight into the MKH 8018. This shows that at lower frequencies, up to 1kHz, the MKH 8018 mid mic has a very slightly wider pattern than the MKH 8060, and, indeed, fractionally more so than the supercardioid MKH 8050, but with a much smaller rear lobe than either. Above that there is more divergence: by 2kHz the MKH 8060 has a significantly tighter pattern and this increases with frequency, along with a less noticeable rear lobe. The MKH 8018 and MKH 8050 remain very similar up to 4kHz, but, thereafter, the MKH 8018 gets more directional, as you would expect. As with all polar plots for interference tube mics, by 8kHz that for the MKH 8018 shows erratic, or lobar, form, but the response from a sine wave at a specific frequency is very hard to translate to use: this is where listening to the mic is critical. Hopefully the various test files in this blog post will help, but there’s no substitute to testing for yourself, especially when comparing to a mic known to you.

Composite image to show the MKH 8018’s fig 8 capsule behind the fairly opaque fine mesh: it was a little tricky, but some lighting from above and then below, coupled with careful focusing, reveals something of the fig 8 capsule within the mic.

Turning to the fig 8 capsule, as I said in the introduction, its specs are similar but not identical to that of the new MKH 8030. I am loathe to take the new MKH 8018 apart, but, despite the fine mesh of the mic, careful lighting shows the position and appearance of the capsule. It is positioned (to the rear of the shotgun mid mic capsule, obviously) so that it is centred on the seventh slot from the end of the interference tube (so 12.5mm from the solid part of the mic body), and its appearance is very close to that of the MKH 8030, with a similar stainless-steel filter over the usual MKH symmetrical push-pull single diaphragm, and a brass tensioning ring around it that looks identical to that of the MKH 8030 apart from the mount detail, which, in this case, widens for the fixings at both ends (one end joining to the mid mic capsule). Unlike the MKH 418-S the fig 8 capsule (KS-16-3) does not sit in an oblong block, but, rather, has a rounded tension ring. It appears that, like the MKH 8030, the fig 8 in the MKH 8018 has a16mm-diameter diaphragm, but that is based on a visual estimate compared to the overall mic diameter (22mm). It is a little surprising, given the visual similarity of the MKH 8030 and MKH 8018 fig 8 capsules, that they don’t have identical specs, although in the case of the difference in polar patterns it is unclear whether this relates at all to, in the case of the MKH 8018, the mounting between the preamp and the mid mic capsule (given the nulls it is hard to imagine why this should be so), or indeed the less open slotted tube and close mesh that continues across the fig 8 part of the MKH 8018 vs the more open design and open weave mesh of the MKH 8030. Here are the comparative polar patterns:

MKH 8018 fig 8 capsule polar pattern.
MKH 8030 polar pattern.

The different presentation (90-degree rotation and split vs continuous circles) of the two polar patterns doesn’t disguise the fact that they are quite different, with significant irregularities from 2-4kHz upward in the MKH 8018.

Frequency response

The frequency response curves and sensitivity measurements supplied with (and for) the MKH 8018 example tested here.

Like the MKH 8060 and MKH 8070 shotgun mics the MKH 8018 also has a more limited frequency range than the rest of the MKH 8000 mics. The published figures for the latter are all 30 Hz to 50 kHz, apart from the omni MKH 8020, which has a published range of 10 Hz to 60 kHz. The frequency range given for the MKH 8018 is 40 Hz to 20 kHz, but looking at the plots above you can see that the fig 8 side mic is shown as having much less low end: fig 8 mics are often a little bass-shy compared to other polar patterns, although this shows a steeper fall-off than with the MKH 8030. As discussed in previous posts, an 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). But quoted figures of themselves do not tell the whole story (for example the extended high-frequency capabilities of the first-order MKH 8000 mics comes with a sharp rise in self-noise, which can be problematic for very quiet sounds), so for a field test, I again thought the overtones of some church bells would be an interesting sample, so up I clambered to the belfry at Norwich Cathedral.

Up in the massive early 12th-century cathedral belfry, where the the bells and bell frame seem small by comparison.

For the recording I set up the MKH 8018 and an MKH 8050 + MKH 8030 MS pair in separate Mini-ALTO windshields (there was a breeze inside the belfry) facing the bell-frame. Such a loud sound really brings home the sensitivity of the mid (shotgun) capsule: 20 dB gain was pushing my luck! Here are the 96 kHz sound files:

And here is a spectrogram of part of the recording, showing the chimes. The higher-frequency capability of the MKH 8030 and MKH 8050 are evident with much stronger signals up to 48kHz (the limit on this spectrogram), but, equally, so is the much greater self-noise of these mics from just below 20 kHz and upwards compared to the MKH 8018 (see below for more on self-noise). And while the latter might only be quoted as having a frequency-range up to 20 kHz, like many similarly specified mics there is no abrupt cut-off at this point and there is plenty of signal above this frequency.

Spectrogram of the bells tolling midday, from let to right: MKH 8018 mid mic, MKH 8018 side mic, MKH 8050 mid mic, and MKH 8030 side mic. The vertical axis extends to 48kHz.

Turning to the other end of the spectrum, I set up the MKH 8018 and the MKH 8050 + MKH 8030 pair aimed at the exhaust pipe of the rear of a parked car (with the engine running needless to say!). Here are short clips from the recording, which include a little gentle revving:

And here are the spectrum analyzer visualizations:

MKH 8018 mid (shotgun) mic capsule.
MKH 8050 supercardioid.
MKH 8018 side (fig 8) mic capsule.
MKH 8030 fig 8.

The tracks show all four capsules capable of rendering the lowest fundamental, which was around 26.5Hz, although, of course, the fig 8s show a lot less of the low-end of the engine: this is partly since the exhaust pipe itself was centred on their nulls and partly since fig 8s inherently have a poorer low-frequency response. What is more interesting is that, compared to their MKH 8050 + MKH 8030 counterparts, both MKH 8018 capsules have a greater low-frequency output down to around 50Hz, but a lower output at the 26.5Hz fundamental and then fall away quickly below that. It is comparable to using an MZF 8000 ii filter module on the modular MKH 8000 mics, with its permanent low-cut filter of –3 dB @ 16 Hz, 18 dB/oct: indeed, the comparison is especially valid (and I assume a design intention) since both the MZF 8000 ii filter module and the MKH 8018 have a switchable low-cut filter of -3 dB @ 70 Hz. So without use of the switchable low-cut filter, the MKH 8018 seems to have a steep roll-off of the very low frequencies likely to arise from handling noise (and the inevitable resonant frequency of a mic suspension); and then the option to roll-off more (often not optional in many shotgun mics) at a higher frequency to reduce wind noise, traffic rumble and, even, higher-frequency handling issues. In short, the design allows the MKH 8018 to be used where many a shotgun mic would struggle for lack of low-frequency response, yet is designed with handling in mind and has the option to roll off more low-end in keeping with many a shotgun mic: and the response of the two capsules is consistent in this regard.

Self-noise

The 12 dB-A self-noise figure for the MKH 8018 shotgun mic capsule is respectable for a shotgun mic and as we have seen it is an improvement on the mid mic in the MKH 418-S stereo shotgun (14 dB-A), and only a little higher than the figure for the MKH 8060 shotgun mic (11 db-A). And, while the side mic capsule of the MKH 8018 might have a little more self -noise than the MKH 8030 fig 8 (14.5 dB-A vs 13 dB-A) that is still very good for an SDC fig 8 and radically better than that in the MKH 418-S. But specs of self-noise are one thing and how they sound can be quite another: a single figure doesn’t tell the whole story. So on to some tests…

First off, I checked that the manufacturer’s sensitivity figures were broadly correct, recording a 1kHz tone and measuring that with a tight band-pass filter applied at 1kHz: all was evidently in order at least in relative terms (I compared the two MKH 8018 capsules to an MKH 8030 and an MKH 8050 [also 13dB-A], getting a maximum deviation of 0.8 dBV from the published specs). So, in the absence of an anechoic chamber, I then did my usual recording the sound of nothing with the mics buried deep in duvets in the airing cupboard, with all doors and windows closed and the mains electricity turned off, recording with each mic at 76dB gain (the max of a Sound Devices 788T). Also as usual, to remove any low-frequency sound still permeating, I applied a 100Hz high-pass filter, and, in my DAW, added further gain to match the three less sensitive capsules with the sensitivity of the MKH 8018’s mid mic (the hottest of the four capsules). Normally, I wouldn’t bother including the sound of madly cranked-up mic hiss in a test/review (total gain for the MKH 8050, for example, being 85 dB), but in this case it is quite interesting to compare the different capsules. And, as I have cautioned in the past, don’t panic: all the mics are very quiet in normal use!

And here are the spectrum analyzer visualizations of the noise:

MKH 8018 mid (shotgun) mic capsule.
MKH 8050 supercardioid.
MKH 8018 side (fig 8) mic capsule.
MKH 8030 fig 8.

The sound files and the spectrum analyzer visualizations show that the two MKH 8018 capsules are quite different in terms of self-noise from the MKH 8050 and MKH 8030. The more limited ultra-sonic capabilities mean that the MKH 8018 is not tuned like its first-order siblings, where steeply rising self-noise towards 20kHz continues to rise to 48kHz. With the MKH 8018, the rise in self-noise in both capsules starts lower and is less steep, and then flattens off after 20kHz. This lower and more gradual rise in self-noise means that the character of the self-noise is quite different in the audible spectrum: self-noise in the MKH 8018 capsules is characterized by more of a high-frequency hiss (say in the 6-12kHz region) very evident to my ageing ears and, obviously, much more so to younger ears. Thinking of younger ears, extreme high-frequency hiss in the MKH 8030 and MKH 8050 will become more discernible to them in the 12-20kHz region as the self-noise in these mics rises to match or exceed that of the MKH 8018 capsules. But, I must reiterate, while interesting to compare and to note for reference, these tests are at extreme gains and so unless recording a watch ticking or other very quiet sound effects, self-noise will not be an issue with any of these mics in most use case. And for an extreme example – relevant to sound design and effects – I slowed down the cathedral bells recording included above to a quarter of its speed, bringing down the pitch accordingly (i.e. by two octaves), and yet no hiss is discernible even in the quiet sections unless gain is cranked up to levels that mean the chimes would destroy your speakers and ears! If interested, do have a play with the downloadable files yourself.

RFI

Looking at radio frequency interference (RFI) on the MKH 8018 is nothing to do with its RF design (which, in the words of the MKH designer Manfred Hibbing in his The MKH Story white paper), means the mic essentially has ‘a transmitter and receiver that are directly wired together’), but is about its resistance to external RFI. As I’ve said in posts on other tests, I am interested in the impact of RFI on mics since, as 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 MKH 8018, like its MKH 8000 siblings, showed no sign of RFI even at close distances (100mm): for control I recorded the mic alongside a known problem mic (to check that the intermittent issue was occurring: it was) .

Handling noise

While the MKH 8018 might well see much use mounted on stands (e.g. for line-side recording of sports), it will become a regular fixture in windshields on boom poles or on a pistol grip, whether being used as a mono mic for dialogue or ENG, or in stereo for those times when a bit of ambience is required during production sound recording, or perhaps to get closer to a difficult to access source during field recording. So with that in mind, I put the mic through some boom-pole handling tests, mounting them in Radius Windhsields RAD-2 mounts on a short stereo bar on the end of the boom pole to allow comparison. Gain levels were adjusted for relative sensitivities.

When holding the boom pole statically (extended and horizontally) all four capsules mics showed some handling noise, with the MKH 8050 and MKH 8030 being the most significant, both peaking around 24dB higher than the two MKH 8018 capsules: admittedly the MKH 8050 and MKH 8030 were peaking below 20Hz. This pattern applied across other boom-pole handling tests: rough handling and tapping/thumping the end. To a significant degree – not least given the apparent similarity of the two fig 8 capsule designs – this is doubtless a consequence of the EQ built into the different mics with, as we have seen, the MKH 8018 bass response being very much rolled-off below, say, 50Hz and, especially, below 25Hz. But, equally, there is no denying that the MKH 8018 has handling noise extremely well controlled even without the use of its switchable 70Hz high-pass filter or any such additional, or alternative, filtering in the recorder/mixer or in post.

MKH 8018 mid (shotgun) mic capsule: handling noise test. Note 2kHz upper limit for the spectrum analyzer visualizations showing handling noise.
MKH 8018 side (fig 8) mic capsule: handling noise test.
MKH 8050 supercardioid: handling noise test.
MKH 8030 fig 8: handling noise test.

Wind noise

To get a base line I used a double rig of the MKH 8018 and MKH 8050 + MKH 8030 on a stereo bar and boom pole. Fast boom swings were made to generate wind noise in a controlled fashion. Swinging the bare mics produced overwhelming rumble, as would be expected. The two fig 8s were fairly similar, although the MKH 8030 naturally showed a little more noise at low frequencies (say, below 30Hz). The shotgun mid mic was by far the least susceptible to what was a laminar stream of wind, and the MKH 8050, perhaps surprisingly for some, was by far the most susceptible to wind noise in these conditions. 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. Matching foams between the mics isn’t that easy, so for the next test I stepped up to bare windshields (i.e. sans fur), using Radius Windshields Mini-ALTOs for both. In tests with the windshields side on and into the wind (again, wide arcs from a boom swing), both capsules in the MKH 8018 performed about 3dB better than their MKH 8050 and MKH 8030 counterparts, and, as expected, lacked the very low-end (sub 30Hz) component: given the testing with a boom, this may well have been as much to do with handling noise as wind. I think another round of spectrum analyzer visualization or even WAV files wouldn’t add anything much to this description, so I will spare you those. Suffice it to say, such limited bare and windshield tests, show that the MKH 8018 is not oddly susceptible to wind (and, goodness, you wouldn’t expect it to be!) and, as you will hear from the samples below, this is further borne out by use in the field.

The MKH 8018 and an MKH 8050 + MKH 8050 MS pair on the beach on a grey English summer’s day in a pair of Mini-ALTOs.

Out in the field

A shotgun mic, of course, is primarily designed for outdoor use (OK, for large movie sound stages too), given that reflections are the enemy of interference tube designs. So to test the mic in its natural habitat, I put it through its paces recording a fairly wide range of sources outside. Many of these require it to be compared to something else, naturally, or we have no reference, and for most of the tests I have compared the MKH 8018 to an MKH 8050 and MKH 8030 MS pair: the supercardioid MKH 8050 being the most directional MKH 8000 non-shotgun mic (i.e. without an interference tube). Of course a supercardioid mid mic might well not be ideal for MS either in many situations, but you can refer to my recent tests of the MS pairs with the whole range of MKH 8000 SDC mics (i.e. MKH 8020 omni, MKH 8090 wide cardioid, MKH 8040 cardioid and the MKH 8050) if you are unsure of the differences.

First off, I headed to the beach on what I thought was a calm August day, but which turned out to be a brisk on-shore wind. Here are the two recordings facing straight out to sea:

Retreating a bit from the shoreline and the incoming tide to shelter behind the fishermen’s gear, I recorded myself walking on the shingle in a 360 circle around the mics, starting and finishing directly on axis:

Finally, for the seaside recordings, here’s a closer-up effect, recording the scooping up and dropping of shingle right by the mics:

Back to the same spot I have often been for test recordings, lineside at Holt station, as, yet again, a visiting Grange class locomotive pulls the train towards Sheringham.

Moving inland, I headed for one of my old test haunts at the North Norfolk Railway. Sadly, both the stationmaster and the signalmen recognized me so I had to take the assumption that I am an uber trainspotter on the chin: to deny it would have seemed as if I doth protest too much and, besides, testing mics is arguably an even more suspect activity! Next thing I will be calling a drink a ‘beverage’: it’s a slippery slope… Anyway, here is a three-clip recording of a steam train pulling into Holt station, then after a momentary gap, the signal box bell ringing and then, after another brief silence, the train pulling out. No editing other than the obvious cutting to produce the three parts to the recording:

Scything a rather overgrown field. Easier watching the hard work…

Back outside again, I popped over to my friend Rob’s new field (yes. that’s the same Rob who TIG welds the Mega-Blimps!), where he was sycthing or, as he put it, hacking away with a scythe to return the meadow to some order. Doubtless he will crack and get a tractor on it, but in the meantime here’s a pair of recordings of him sharpening the scythe:

And then a bit of scything/hacking at the nettles. I stood rather behind Rob and to the right so as to avoid him slicing through my rather nice and expensive MS cables.

A little bit of music

After all that fresh air I thought I would head inside for an indoor music test, slightly inspired by the well-known use of the Sennheiser MKH 4018-S for the NPR Tiny Desk concerts (although it has been increasingly supplemented by other mics over the years). So I popped down to woodcarver Luke Chapman’s workshop, which I often use: it has a surprisingly good acoustic. Luke obliged yet again (he must be sick of all these tests!) with guitar, working away on a new composition. Here is a video showing the recording with the MKH 8018 compared to an MS pair (again the MKH 8050 and MKH 8030):

Conclusions

This brief introduction to stereo use of the MKH 8018 has covered a bit of ground, from some discussion and tests of the salient aspects of interest from the specs to some tests in use. There are many uses I haven’t included here, partly reflecting my own interests (for example, I’m not in the business of recording sports events, so that’s for someone else to test!) and partly what is practical within a single blog post. One aspect I haven’t addressed is how the MKH 8018 compares to alternatives as a mono shotgun. For some this may well be a determining consideration for buying the mic: in other words, would the MKH 8018 meet their main needs as a mono shotgun mic, whilst providing a stereo option at all times for those occasions where it might prove useful? That is really hard to address, since comparing mono shotguns is not easy, as different sound recordists – especially experienced production sound mixers – will usually need to compare mics directly in use to see whether the nuances of any particular mic means that it suits their use. And, of course, there are many shotgun mics out there. But, that said, I may return to the MKH 8018 to explore the mono shotgun capability in a comparison with its nearest sibling – the MKH 8060: but don’t hold me to it! At the other end of the spectrum, I did think of including results of testing the MKH 8018 as part of a DMS rig here, but haven’t done so for reasons of not wanting to make an overly long post any longer and, also, since the efficacy of any mid mic in a DMS rig is very much apparent from its use in an MS pair. But, again, I may well return to this in a specific post: not least it might be helpful for some to hear the results of using different polar patterns for the rear-facing mid mic (e.g. just what balances a shotgun mic forward facing mid mic best: an MKH 8090 wide cardioid or an MKH 8040 cardioid?).

Anyway, returning to the ground that is covered in this post, drawing conclusions is as much something for the reader as it is for me: my aim was to explore the different in performance between the MKH 8018 in stereo use and an MS pair comprising its most directional non-shotgun sibling – the MKH 8050 supercardioid – and the MKH 8030. Given the better polar pattern and placement (i.e. above, not behind the mid mic capsule) of the fig 8 in the latter, and the more consistent off-axis performance of the supercardioid, its better performance for stereo is entirely expected and is evident in the various recordings. My aim wasn’t to demonstrate this and, as Basil Fawlty would say, get myself on Mastermind with the ‘special subject of the bleedin’ obvious’, but, rather to try and get a sense of the degree of difference. For some users and, indeed, for some uses, it may be vast: for others, and for other uses, the sonic differences may be too subtle and outweighed by other features of the MKH 8018: its usefulness as a mono-shotgun, its simplicity as a single mic vs rigging an MS pair, its ability to be both a shotgun mic and, say, an ambient pair without changing to (let alone buying) a second MS pair, its resilience to handling noise, its inbuilt pad and high-pass filters, and, even, its cost (less than the combined cost of an MKH 8050 supercardioid, or other mid mic, and the MKH 8030). Hopefully this blog post will help some when balancing all these factors. One major obstacle – the significant self-noise of the MKH 418-S – has been removed with Sennheiser’s new stereo mic, and this is hugely welcome. And if you have been humming and hawing about a stereo shotgun mic (including, the slightly noisier and sans RF technology, Sanken CSM 50, Neumann RSM 191, and the Audio Technica BP4027 and BP4029, as well as Sennheiser’s own MKH 418-S), the MKH 8018 is definitely one to get hold of (if you can!) and test for yourself. I’ve been very pleasantly surprised!

Postscript: wind protection for the MKH 8018

There’s nothing difficult in terms of rigging the MKH 8018 for outdoors (the supplied foam, of course, only being suitable for indoor use): it will fit many a windshield from the usual suspects. I note that Cinela have already got a Pianissimo model to fit (and do remember that the Cinela mono models can often be less expensive than you might expect), and a Rycote Modular 4 or a Rode Blimp would work fine. Here, I have tested the mic in a Rycote Cyclone medium, and much of my concern about using the Cyclones for MS rigs is allayed in this instance: the side lobes of the fig 8 capsule do not aim squarely at the thick plastic ring of this windshield, with evident colouration problems, as I have found with MKH 8030-based MS and DMS rigs in the small Cyclone. But the result is far from compact, so for my field tests with the mic I used the new Mini-ALTO 250 from Radius Windshields: they have been expanding their range of Mini-ALTO sizes and this fits perfectly, and I had no problems with wind noise in the admittedly not overly windy conditions of this English summer. And when not lugging two rigs for comparative purposes, I’ve enjoyed the fact that I can fit the MKH 8018 in the Mini-ALTO 250 in its fur, along with a field recorder, headphones, cable, camera etc. all in my little Think Tank Retrospective 7 bag that I like to use for field recording (yes, I know, I know: this is ironic from the creator of the Mega-Blimp!). For the cable I used an excellent low-profile XLR5F to XLR5M stereo cable, made with super-light and flexible Mogami 2739, which really keeps cable-borne noise to a minimum: critical if booming or use the mic on a pistol grip. This was made by Ed at ETK Cables.

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Double mid side, part 3: comparing with native B-format

August 12, 2025
Double mid side with Schoeps CCM mics (left) and horizontal B-format with Sennheiser MKH 8000 mics (right).

In Part 1 of this three-part series of musings on double mid side (DMS), I went through the three rigging options; in Part 2 I tested the options; but in this final part, as the title says, I do something rather different, which is compare DMS to horizontal B-format (i.e. native B-format with no vertical component).

As we have seen in the previous posts, setting up DMS with side-address mid mics produces an array that looks very similar to a horizontal native B-format, or Nimbus-Halliday, array. In that case, a horizontally-oriented omni mic is flanked by vertically oriented fig 8s, one aimed forwards-backwards and one aimed sideways. In a variation of this, which I have used too, the omni can be set vertically as is one fig 8, with the second fig 8 set horizontally between the two: this variation is designed to address the directionality of the omni mic at higher frequencies in the plane of the mic body (a consequence of the mic body itself). I described and illustrated the two different horizontal B-format arrays in my pipe band recording blog posts last year. The similarity between horizontal B-format and DMS is not just that the two rigs look so alike, but also how they perform since, as Wittek et al (Wittek, H., Haut, C., and Keinath, D., Double M/S – a Surround recording technique put to test (Schoeps paper, 10.03.2010) note:

In principle, Double-M/S signals can also be converted to “horizontal B-format” by addition and subtraction:
W = Mfront+ Mrear;
X = Mfront- Mrear;
Y = S;

In this formula, the W (omni mic) is formed by combining the front and rear cardioids, and the X (forward-rearward facing fig 8) by again using the two cardioids, albeit subtracting one from the other. In that limited sense, deriving B-format from DMS is akin to deriving it from ambisonic (A-format) arrays of cardioids.

So the questions remain: if DMS and horizontal B-format are mathematically equivalent, do they sound the same and, either way, are there pros and cons for selecting either array? This, needless to say, is more complex than you might think, as it rather depends on the use of the array. For example, even if not ideal and demanding care when decoding, DMS can be used with a shotgun microphone, typically when such a narrow polar pattern is required principally as a mono mic (say for dialogue in production sound), but giving scope for flexible stereo or surround sound when needed, without changing the rig. The shotgun can be a mono mic with a fig 8 and a rear-facing cardioid clipped to it, or a stereo shotgun (i.e. with a integrated fig 8 capsule, such as the Sennheiser MKH 8018) with a rear-facing cardioid clipped to it. In this regard DMS has no equivalent in horizontal B-format in any practical sense.

Both arrays can and often are used for stereo recording: both allow mid-side recording with a variable polar pattern for the mid mic, and, indeed, steering of the stereo sound after the event. With DMS the mid mic polar pattern is created by mixing the two back-to-back cardioids, in the same way that a variable-pattern mid mic works: only the cardioid pattern is native to the mid mic. With horizontal B-format the mid mic polar pattern is created by mixing the omni mic and forward-rearward facing fig 8: this also gives you, natively (i.e. without mixing), a fig 8 mid mic and an omni mid mic. I use all three native mid mic polar patterns for MS, so wouldn’t choose between the two approaches on these grounds: besides, you may recall my previous test comparing a cardioid to a virtual cardioid created by my mixing a fig 8 and an omni, which showed little to no difference in the sound other than the more extended bass of the virtual cardioid arising from the use of the pure pressure omni. Well, at least the sound was very similar, but I do wonder, in the light of my DMS and horizontal B-format comparisons (below) whether the polar pattern was quite the same.

Comparing a cardioid MKH 8040 (top) with a virtual cardioid made by mixing a fig 8 MKH 8030 (centre) and omni MKH 8020 (bottom).

It is this extended low-frequency response that is perhaps the most distinctive difference between horizontal B-format and DMS when used for stereo. This difference is acknowledged in the Schoeps DMS plugin, however, which, as the user guide makes clear, ‘normalizes the sensitivity of the CCM 8 to match the CCM 2’s and compensates for the low frequency loss of the figure-of-eight microphone’: the CCM 8 being the fig 8, of course, and the CCM 2 being Schoeps’s flat (free-field) omni in the same CCM range.

Lineside at Holt station (getting some odd looks and banter as usual, not least from the signalmen) for a DMS vs horizontal B-format comparison, as a Grange class locomotive pulls the train towards Sheringham.

Although rigging DMS with side-address cardioids provides the most obvious physical similarity with horizontal B-format, for my test purposes comparing these two rigs isn’t ideal: the Schoeps mics for the DMS rig are quite different from my Sennheiser mics for the horizontal B-format set-up. In my initial tests with these two rigs, I felt I was more demonstrating the difference between the mics than comparing the different configurations. Using end-address cardioids opens up more options, but, without three MKH 8030 fig 8s here (yet!), the best I can manage is DMS with two MKH 8040s and one MKH 30 vs horizontal B-format with two MKH 8030s and one MKH 8020. The MKH 8030 and MKH 30 are not identical, but, as we have seen before, they are fairly close. So with these two rigs in Mega-Blimps, I headed off to the local steam railway, hacking my way through the brambles and bracken to get to a point just beyond the station platform.

First up, we have the individual files for each of the three mics in each array. The files can be downloaded, and have been level-matched using the published sensitivities:

And here we have the files identically processed using the Harpex-X plug-in to stereo files as a coincident pair of hypercardioids at 127 degrees (i.e. equivalent to cardioid MS with a 50:50 balance between mid and side mics):

For some deeper bass, I then compared the two arrays back at home, starting the car to get some nice low-frequency content and, while at it, the usual Foley-like footsteps, gate openings etc. Again, here are the individual files for each of the three mics in each array:

And, again, here we have the files identically processed in Harpex-X to stereo files as a coincident pair of hypercardioids at 127 degrees (i.e. equivalent to cardioid MS with a 50:50 balance between mid and side mics):

The increased bass of the horizontal B-format array is more noticeable with the car engine than the steam locomotive, as you would expect, but both sets of recordings show broader differences between the two techniques. Some of these differences, mainly for the garden recording where there are close sounds, are an inevitable consequence of the spacing of the two rigs (about 1m apart), but there are very obvious differences that go beyond the fact that the two rigs could not be exactly coincidental. The localisation of even distant sounds is quite different. With the uncertainty of what is going on in the various DMS and B-format plug-ins, it is worth looking at a manual MS decode for the two pairs. For the DMS rig, standard MS was simply derived by using the fig 8 MKH 30 and the forward-facing cardioid MKH 8040 (i.e. ignoring the rear-facing cardioid). With the horizontal B-format all three mics were required, first creating a virtual cardioid from a 50:50 mix of the forward-rearward facing fig 8 MKH 8030 and the omni MKH 8020, and then using this as an MS pair with the sidewards-facing fig 8 MKH 8030. Here are the resultant two files for the steam locomotive departing recording:

These two MS pairs, decoded to LR, show very similar results to the DMS and horizontal B-format recordings output to stereo. In both cases the stereo field is rather different, with the B-format derived stereo having less stereo spread. You can hear this in the sample files, but, for a visualization, here are the goniometer plots showing the steam locomotive whistle at the beginning of the railway recording for both the DMS/horizontal B-format recordings output to stereo via Harpex-X and for the two MS equivalents that were derived manually. I chose the whistle as a short clear sound located well off to one side (the left).

Goniometer on train whistle for DMS (left) and horizontal B-format (right), both processed in Harpex-X and output to stereo (XY with hypercardioids at 127 degrees).
Goniometer on train whistle for MS using MKH 8040 and MKH 30 (left) and MKH 8020+MKH 8030 (creating virtual cardioid) and MKH 8030 – i.e. manually derived from horizontal B-format (right), decoded to stereo.

In both instances the whistle in the B-format example (or MS derived from combining the omni and forward-facing fig 8 in the B-format rig to create a virtual cardioid, then used with the side-facing fig 8) is rendered a little more centrally. Of course, this is very easy to adjust with DMS or B-format recordings, so, in some sense, is not a practical issue, but the point is that there is a difference and it isn’t simply the result of the behind-scenes mechanics of the conversion plug-in. This suggests that the mathematical combination of an omni and fig 8 to make a cardioid and the practical implementation of this don’t quite match, which is not entirely surprising: factoring in the different sensitivities of the two mics is an obvious source of possible error, changing the resultant polar pattern, although the audible differences suggest – at least to my ears – that perhaps there is more to this than that factor only.

Conclusions

If ever there was a misleading subheading, then this is it: ‘conclusions’ suggests something far more, er, conclusive than I can offer. First up among caveats, my end-use of either DMS or horizontal B-format is primarily for stereo output. Testing the different rigs with a decent, say, 5.1 system would be an interesting exercise, but at least the files above for individual mics will allow others to do that and see if they can draw any conclusions: indeed, that is the primary purpose of the blog post. The second significant caveat is the evident difficult in getting parity between rigs: using an all Sennheiser MKH approach helped, rather than the Schoeps to Sennhesier comparison, but the MKH 30 is not absolutely identical to an MKH 8030, and, of course, it meant that I had to use end-address cardioids for the DMS rig. I could have used an all Rycote mic approach (I have enough BD-10 fig 8s to achieve this), but the longer mic bodies would not have worked for horizontal B-format in the Mega-Blimp (even that has limits!). However, the previous tests comparing DMS with end-address vs side-address cardioids made me much more sanguine about such an approach. Hopefully something is left that, at the very least, provides readers with food for thought: perhaps even to compare horizontal B-format with DMS themselves.

From my own perspective, the ground I have covered in the tests, many necessarily not included here for reasons of space, for these three DMS blog-posts, along with the practicalities of rigging, the key conclusions I have drawn are:

i) use of end-address cardioids (or. at least, very small SDCs, such as MKH 8000 mics with MZLs or the diminutive Nevatons) for DMS has negligible impact on sound resulting from shadowing and, even, off-centre cardioids, especially compared to the impact of most windshields (OK, that’s not relevant to much indoor recording);

ii) there is, therefore, little reason in most circumstances to go for the more transparent approach of using side-address cardioids for DMS, although, of course, no reason to not do so if the mics are available (suitable windshield permitting if outdoors);

iii) unless the low-frequency response of an omni is critical, then there seems no advantage – at least with the mics and usage I have – of horizontal B-format over DMS.

So, going forward, although I plan to utilize both three-mic rigs in the future, I suspect that I will be using DMS more than horizontal B-format, not least as it allows a wider range of my mics to be used: most obviously, the Nevatons I have acquired recently. But equally, and with my predominantly stereo-focused approach in mind, I will continue to use MS far more (or, indeed, other stereo pairs). Certainly the flexibility of horizontal B-format or DMS in terms of selecting polar pattern or, less of an issue, steering the array in post, are insufficient grounds to merit their use for most cases where a stereo end-product is required. I’m very happy with knowing which way to point the mics (!) and happy enough, with MS, to select the mid-mic polar pattern that will suit the job best be that an omni, wide-cardioid, cardioid, supercardioid or fig 8. That said, I occasionally need to produce surround sound field recordings (e.g. recently a recording of the sea for the intro to a pipe-organ SACD – Organ Fantasy by Jean-Paul Imbert and his students) so horizontal B-format and DMS will continue to be part of my recording life.

Audio Gear

Double mid side, part 2: comparing the different rigging options

July 22, 2025
DMS with Schoeps CCM4V side-address cardioids and CCM8 fig 8: the ideal configuration, and in the most transparent mount and windshield I can muster, but does it actually out-perform other setups?

Introduction

In Part 1 of this three-part blog-post on double mid-side I covered the rigging options for DMS using SDC mics. In this second part, I explore the differences between the rigging options, focusing on the option with side-by-side end-address cardiods and the, theoretically, rather better option with side-address cardioids: are there any audible differences? And I also include some clips of recordings to give a sense of the differences between different DMS set ups: that doesn’t just mean how the mics are configured, but, also, different mics.

Shadowing

One of the criticisms thrown at any configuration of coincident mics, but especially at those with multiple mics, is of the impact of shadowing, where elements of the mic shock-mounts or, more substantially, adjacent mics colour the sound. Of the three DMS configurations that with the most obvious shadowing is, of course, the option with side-by-side cardiods: you wouldn’t normally choose to stick something the size of mic immediately adjacent to and projecting forward from a cardioid mic capsule and there is no doubt that, visually, it looks clunky. But does it sound noticeably different?

For those interested, I did some tests on the shadowing effect in such a clustered DMS rig (using MKH 8000 mics), recording pink noise played bay through one of my Vivid S12 monitors to the forward-facing cardioid in the DMS array, and then moved the fig 8 and rear-facing cardioid away (the mics were carefully set up with a separate stand for the forward-facing mic so that it remained exactly in position when the other mics were removed). This was done with the mic on axis and then 45 degrees off axis, so that, in the latter, the body of the rear-facing mic was shadowing the forward mic.

Pink noise recording by forward-facing MKH 8040 cardioid mic on axis to sound source with mic clear (green) and within DMS rig (red).
Pink noise recording by forward-facing MKH 8040 cardioid mic at 45 degrees to sound source with mic clear (green) and within DMS rig (red).

You can see from the spectrograms below that there was more of an impact on the high frequencies as expected at 45 degrees. Of itself this doesn’t show whether the differences of the single, unimpeded, cardioid mic vs the identically positioned mic within its DMS cluster are significant, so, by way of comparison we can look at some similar tests exploring the impact of two windshields (which I have shown previously). First we have the MKH 8030 with the Min-ALTO 115 basket turned side-on to the speaker source so that the fig 8 mic is on axis to the sound source:

Pink noise test with Mini-ALTO 115 with MKH8030 fig 8 mic aimed at speaker: green is the bare mic on the shock-mount and the red overlay is the recording with the basket added.

And for another comparison, here is the same fig 8 test repeated with a Rycote Cyclone.

Pink noise test with Cyclone (small) with MKH8030 fig 8 mic aimed at speaker: green is the bare mic on the shock-mount and the red overlay is the recording with the basket added.

In short, the impact of shadowing in the DMS mic array is measurable, but is far less significant than the impact of these two windshields, where the fig 8 (obviously a key element of DMS) is affected by the structure of the windshield baskets, with the particularly noticeable difference in the Cyclone basket doubtless largely due to the substantial plastic ring for its end cap.

And to return to our shadowing tests for the DMS rig, we can listen to how the effect of shadowing actually sounds. I used the same means of removing the fig 8 and rear-facing cardioid without disturbing the forward-facing cardioid’s position as before, and again placed the mics in front of a single speaker (Vivid S12) in my studio and played back a short section of a recent recording of mine of a singer-guitarist (Luke Chapman), angling the mics on axis to the speaker and then at 45 degrees. Here are the resulting mono sound files:

First, here is the pair of recordings of the forward-facing cardioid mic on axis, with no surrounding mics, and then shadowed within the cluster of DMS mics:

Second, here is the pair of recordings of the forward-facing cardioid mic at 45 degrees, with no surrounding mics, and then shadowed within the cluster of DMS mics (the body of the rear-facing cardioid mic shadowing the forward-facing mic in particular):

Obviously, comparisons should not be made between the on-axis and the 45-degree recordings as, by definition, the mic has moved!

I suspect many listening to these examples may be surprised by how little difference there is between the two recordings (clear mic and shadowed mic) in each set up (on axis and at 45 degrees). Certainly, I was reassured that shadowing effects are less than might be feared with this more clustered version of the two options that use end-address cardioids. Obviously use of longer and larger mics (think two MKH 40s and an MKH 30) would have a greater effect, but, conversely, two still shorter cardioids (think of those 23.5mm-long Nevaton MC59uS/C2 mics) would reduce the effect more (subject to the impact of any mounts).

Of course, shadowing is only one potential downside with the clustered DMS rig with two side-by-side cardioids: both cardioids are necessarily offset from the centre of the fig 8 capsule, typically by around 12mm or more. With MS normally the recordist aims to align the mics so that one capsule is precisely directly above the other and as close as possible. Losing that vertical alignment, of course, risks introducing comb filtering to sounds directed at the mics from the horizontal plane (or whatever plane the mics are tilted toward): likewise, increasing the vertical spacing between the mics will introduce more comb filtering and narrow the horizontal band where the effects are minimal or non-existent. The last isn’t an issue with DMS with two side-by-side cardioids (indeed, it can allow the vertical distance between the fig 8 and cardioid capsules to reduce), but the former is: the question, again, is does this matter? I have heard the results of MS recordings of classical music with the mics side-by-side, which sound fine (for example search out the recordings of ex-BBC engineer, Roger Long, who, as ‘Rolo46’, has posted many marvellous MS classical music recordings on Gearspace using side-by-side MS mics, mostly with an MKH 30 pair), but do the theorists, who frown at such setups, have a point? My aim was to test this, simplifying matters by doing so with an MS pair, comparing vertically aligned mics with one with the mid mic offset as if for this DMS configuration, but, try as hard as I could, I simply could not get any method to work convincingly: I tried indoors with a single speaker, but comb filtering for the shifted mid mic was obscured by comb filtering from the room (few studios are entirely free of comb filtering: and evidently mine isn’t!), and I tried outdoors (the poor man’s anechoic chamber!), but just couldn’t get reliable, repeatable or convincing results. Perhaps I will have a moment or revelation and work out what I need to do, but in the meantime I’m sorry to have come up short: you’ll just have to hang your hat on whichever side of the debate convinces you most . And, of course, one can learn something from the comparative field recordings below (or, better, your own), which compare the different rigs in action.

Minimizing the impact of the shadowing of end-address cardioid mics when rigged side-by-side with the ultra-short Nevaton MC59uS/C2 mics.

Field testing the different DMS rigs

On which note, I left behind such tests and took the mics into the field, to compare some real DMS rigs. This looked at a combination of different rigging approaches and, closely related, different microphones. I could have added a third variable of different windshields, but, to make things more fairly comparable, I have stuck with the same windshields in each set of field of tests. Being unadventurous (or just lazy?!), the tests comprise a series of my regular ‘quiet’ village street recordings: birdsong (plenty of swifts screaming overhead this summer), passing cars, and a bit of Foley-esque sound (as I open doors and gates, and stomp around aimlessly) cover quite a few bases. The cocker spaniels even joined in at one point with a bit of snuffling (honest, it wasn’t me!).

First off, I set up two rigs comprising the Schoeps CCM4V side-address cardioids and CCM8 fig 8 trio, and the Sennheiser MKH 8040 cardioids and MKH 8030 fig 8 mics for DMS with the mics side-by-side, recording with a Sound Devices 788T at 24bit/96kHz. In both cases I used Mega-Blimps for the windshields. With such large surround sound rigs two seems a sensible limit: three or more would mean that they are spaced rather too far apart to be comparable. Here is a short clip (1:34) of the resultant recordings, with one mono file for each mic (levels balanced according to mic sensitivity, but with no other processing) so that you can play around with them in, say, the Schoeps DMS or Harpex-X plugins: I use both for DMS processing.

a) Sennheiser:

b) Schoeps:

c) and here are two stereo files, generated in Reaper using Harpex-X (with the Blumlein stereo preset):

Second, here are the mono files for a similar test comparing DMS with the Sennheiser MKH 8040 cardioids and MKH 8030 fig 8 mics vs the Nevaton MC59uS/C2 and MC59/8 mics, again using Mega-Blimps for both rigs:

d) Sennheiser:

e) Nevaton

f) and here are two stereo outputs, generated using Harpex-X (with the Blumlein stereo preset):

And, finally, here are the mono files for another garden test, this time with a bit of wind (but no low-pass filtering applied), comparing DMS with the Schoeps CCM4V side-address cardioids and CCM8 fig 8 vs the Nevaton MC59uS/C2 and MC59/8 mics, again using Mega-Blimps for both rigs:

g) Schoeps:

h) Nevaton:

i) and here are two stereo outputs, generated using Harpex-X (with the Blumlein stereo preset):

Now anyone who downloads all those files and listens to them deserves a medal!

Conclusions

It is extraordinarily difficult to draw conclusions that are relevant to others’ use of DMS (not least since the use of side-address and end-address cardioids inherently means using different mics), but, nonetheless, I will have a stab at this. First off, although generally relaxed about multi-mic coincident pairs and the impacts of shadowing and small offsets, I came into these tests with an expectation that the acoustic problems of side-by-side cardioids in what is doubtless the most popular configuration of DMS would be more noticeable than they have proved to be. In reality, and that is with the caveat that I have not been testing DMS with bulkier SDCs such as the MKH 30 and MKH 40, they are much less significant than the impact of many windshields, especially those that were not designed to offer as much transparency to the sides and rear as to a forward-facing directional mic. So, if the aim is to place a DMS rig in a Radius Windshields Mini-ALTO or a Rycote Cyclone, then the consequences of the mic configuration are nothing compared to the impact of the windshield. However, if using a windshield with much better all round transparency such as the Cinela Pianissimo or, if boom pole use is not needed, one of my Mega-Bimps, then the impact of the different configurations will come into play. But this then gets very complex for several reasons: yes, the Schoeps CCM4V side-address cardioids and CCM8 fig 8 offer good alignment and little no shadowing (both from the other mics and the mounts), so using them in a Cinela Zephyx (for lightness) or Mega-Blimp (for more transparency) would offer the best performance from that perspective. But, at the same time, they have higher self-noise than the MKH 8030 + 2x MKH 8040 setup and lack the more humidity-proof RF technology of the Sennheiser mics. And, of course, the Nevaton MC59/8 + 2x MC59uS/C2 rig offers the most minimal shadowing for DMS with side-by-side cardioids (due to the very short length of the cardioids) as well as the lowest self-noise. As for the sound, well that’s one for individuals. I think the Nevaton DMS rig is the best sounding irrespective of mic configuration, but I may be missing something that more refined ears can pick up. Or perhaps it is just taste: it’s not as if top end classical music recordists all prefer the same mics or the same mics for a specific task.

And, just to add complexity where you don’t need it, I was surprised by the difference between the two plugins I have been using – Schoeps’s own DMS plugin and Harpex-X. In part, at least, this seems a product of the Schoeps plugin having built-in gain and frequency response compensation for its mics (which, evidently, isn’t appropriate for other mics), but the upshot is that it is very easy to get more significant differences by processing the recordings differently than it is from the actual mics or configurations used.

If you have all these mics (or, indeed, other good options) the selection criteria will need to balance all these factors: if you have some of the mics only, then that will simplify the choices; and if you have none of the options, but are thinking of one, then the usefulness of the mics for different purposes are likely to come into play (e.g. would you have use for Schoeps CCM4V side-address cardioids, or would end-address cardioids be more use?).

As for my choices? Well, I don’t own the Schoeps mics, so that does simplify things as the advantages of side-address cardioids wasn’t clear enough for me to buy the mics (especially with no other Schoeps mics in my locker), so DMS for me will be MKH 8000 mics (for tougher conditions) in a Mega-Blimp; otherwise, I will be using the Nevaton MC59/8 + 2x MC59uS/C2 rig in the same windshield for, as I said, to my ears, the best sound and, less subjectively, for even lower self-noise. And for ultra-compact DMS, should I ever need it, I would use either rig in a Nanoshield (the Nevaton DMS won’t fit in a Mini-ALTO, and the Sennheiser rig isn’t suited to the Mini-ALTO due to the fig 8 position in relation to the chunky plastic rings). But, the question I still need to address for my own use is whether DMS is preferable to horizontal B-format: and that, of course, is for Part 3 of my DMS blog-post series!

Audio Gear

Sennheiser MKH 8090 for mid-side: the Goldilocks mid mic for field recording?!

May 7, 2025
The MKH 8090 (centre) with its siblings, left to right: MKH 8020 (omni), MKH 8030 (fig 8), MKH 8040 (cardioid) and MKH 8050 (supercardioid).

Introduction

It’s funny how reluctant some are to try an omni as the mid mic in a mid-side pair (seemingly afraid that this will make for a mono recording) despite it often being the best tool for the job. But I have had many queries now about whether a wide cardioid will strike a sweet spot between an omni and a cardioid when paired up with an MKH 8030 for mid-side recording. Normally, I swap between omni, cardioid and supercardioid mid mics, but recently, thanks to the good folks at Sennheiser, I have extended my available mid-mic options to include the wide cardioid MKH 8090. And so has begun my exploration as to whether – and this is said only partly tongue-in-cheek – it is something of a Goldilocks mic, hitting the perfect balance between omni (MKH 8020) and cardioid (MKH 8040) options, or, alternatively, whether – in practical use – for many it represents too fine a mid-point between these polar patterns, if, indeed, it can be described as a ‘mid-point’.

These things are personal, of course, reflecting both taste and subject matter, but in this blog post I will focus on a series of recordings made with the different mid-side pairs at the same time, so hopefully it will be of some use to a few readers – especially those who cannot try the different polar patterns before buying. And, although I have demonstrated the supercardioid (MKH 8050) mid-mic options previously, in comparison to the MKH 8020 and MKH 8040, I have included it again here for completeness. I have omitted the Sennheiser shotgun mid-mic options (MKH 8060 and MKH 8070) for three good reasons: first, mid-side recording with an interference tube mid mic is a very different beast and usually, though not always, for very different purposes than field recording or music recording; second, it is very hard to think of a set-up that could adequately cope with simultaneous recordings or such differently sized mid mics (well, not one that doesn’t involve at least four fig 8s); and, third and most conclusively, I don’t have either! Likewise, it would be rather tricky to include a fig 8 as the mid mic in a typical windshield, given the required orientation of the mic.

The specs

I don’t want to repeat what can be read in detail on Sennheiser’s website, but, nonetheless, a quick comparison of the polar and frequency response charts is a useful starting point, not least as they are rarely seen grouped together for these four mics.

Polar patterns of the omni MKH 8020, wide cardioid MKH 8090, cardioid MKH 8040 and supercardioid MKH 8050.

The most obvious feature of the polar pattern of a wide cardioid such as the MKH 8090 is the absence of a null, with the pattern looking rather that of an omni, albeit consistently reduced at the rear by around 7dB.

Frequency response graphs of the omni MKH 8020, wide cardioid MKH 8090, cardioid MKH 8040 and supercardioid MKH 8050.

In contrast to the situation with polar plots, the frequency response graphs see the MKH 8090 wide cardioid look much more like its cardioid sibling than the omni. The two most noticeable differences from the cardioid are the earlier high-frequency peak and the slightly flatter curve below 100Hz: this is still a long way from the MKH 8020 omni with its almost flat response down to 10Hz.

Test rig for the MKH 8090 comparisons as a mid mic for mid-side: two clusters of three mics, each comprising an MKH 8030 with two SDC siblings (MKH 8020, MKH 8040, MKH 8050 and MKH 8090), on a custom 3d-printed bar (with Radius Windshield hoops for the shock-mounts) in a Mega-Blimp.

Test rig

Even rigging four alternative mid mics is no doddle, especially for outdoor field recording, so I have done some thinking and, inevitably, a bit of 3d printing to make a suitable mount. Although, as readers of this blog will know, I am not overly concerned about the often rather theoretical (or at least often imperceptible) issues of shadowing, even I think a cluster of four mics around a single fig 8 seems a bit too congested, so I split the mics into two pairs each with its own MKH 8030 side mic, spacing the two groups of mics 170mm apart on a 3d-printed bar I made up, and mounted within my roomy Mega-Blimp. It is not perfect, of course, but each MS pair can’t occupy exactly the same space at the same time and be free of other mics nearby, so its is a reasonable compromise, and one, I feel, that doesn’t obscure or misrepresent the differences between the various pairs.

Village street

Although the garden has changed dramatically here over recent months (much of the reason why blog posts have been a little thin on the ground of late!), the nominally quiet village street – used as a frequent test bed for me – seems as noisy as ever, with a ripe mixture of sounds. In the recordings below, you can hear the curious thumps from inside a Waitrose van delivering to a neighbour, followed by its departure, along with passing vehicles and birdsong.

First up, we have MS with the omni MKH 8020 mid mic:

Second, we have MS with the wide cardioid MKH 8090 mid mic:

Third, we have MS with the cardioid MKH 8040 mid mic:

And finally we have MS with the supercardioid MKH 8050 mid mic:

Test recording down at the North Norfolk Railway: always a good test to have a rumbling and hissing locomotive passing, followed by the rattling carriages, even if anyone about assumes I am something of an uber-trainspotter!

Down at the station

Risking large crowds on a bank holiday Monday, I tootled off to Holt station on the North Norfolk Railway, which is another familiar haunt of mine for mic tests, positioning myself a little way from the platforms, opposite the signal box and right next to a signal (I do like the double clunk the latter makes). Funnily enough, it was unexpectedly quiet in terms of people, although the distant hum of traffic and the more disturbing near continuous thunder of aeroplanes overhead were ever present. Here is a snippet, with the signal changing and then a small 0-6-0ST saddle tank setting off, pulling a short train of three Victorian carriages and leaving another train (pulled by an xxxx) hissing steam at the platform:

Following the same sequence as before, first up we have MS with the omni MKH 8020 mid mic:

Second, we have MS with the wide cardioid MKH 8090 mid mic:

Third, we have MS with the cardioid MKH 8040 mid mic:

And finally we have MS with the supercardioid MKH 8050 mid mic:

Conclusions

In the strict sense there are no universal conclusions to be drawn from these tests, with their purpose being simply to illustrate the differences in the polar patterns of the MKH 8090 and its MKH 8020, MKH 8040 and MKH 8050 siblings when used as the mid mic in a mid-side pair. Inevitably, to some these tests will serve to show how the less directional MKH 8090 and MKH 8020 mid mics work well and are viable alternatives to the more commonly used cardioid and supercardioid mid mics. To others, these tests will show how radically different the four mid mics are. Such is the nature of listening tests even without confirmation bias rearing its ugly head. From a personal view, and drawing on wider use than the few test clips presented here, I have been very impressed by the stereo image presented in mid-side with the MKH 8090 mic. Unless more rear rejection is needed from the null of a cardioid or the deeper bass response of an omni is required (and often the bottom end of the MKH 8020 needs rolling off in field recordings), the MKH 8090 is a compelling option, and one I have been using increasingly in my field recordings. In short I am so glad to have it in my arsenal of mics. Now making such finely gradated choices between polar patterns can be hard when field recording compared, say, to setting up mics for an acoustic music recording in a more controlled indoor space, due to the fact that outdoors sound sources can be unpredictable and constantly swapping mics can become impractical, so, in that sense, having an option between a cardioid and an omni can just make life more complex. But, equally, field recording can involve frequent recordings of the same sound source, or similar sound sources, in familiar or similar locations, and for many an experienced recordist having more finally gradated choices in polar patterns can be useful. And if you are just kicking off with mid-side recording and are uncertain as to which initial mid-mic polar pattern to choose, then, just possibly, this post might provide some food for thought.

Audio Gear

Windshields for a mid-side pair? Comparing the Cinela Zephyx and Pianissimo with the Rycote Cyclone

November 25, 2024
The Cinela Zephyx (left) and Pianissimo (right) enjoying a sea breeze.

Introduction

One of the beauties of mid-side recording is its suitability for stereo recording outdoors, with the pair of mics fitting into a single windshield. This, and the fact that the fig 8 side mic can be omitted and just the mid mic used, has meant it has become a common tool for production sound recordists who occasionally need a stereo capability. But mid-side rigs are often a good solution for others recording outdoors too: those recording effects, sound libraries, ambiences, nature and, even, music. Over the years I have used a variety of windshields for mid-side recording, including the humble Rode mk 1 blimp (very flexible in terms of different mic combinations), the Rycote Nano Shield (a bit of a squeeze to get two mics inside), and, for LDC mics, my massive DIY blimp. My default windshield for mid-side recording of late, however, has been the Rycote Cyclone: more particularly the Stereo Cyclone Kit 5, which is configured for an MS pair of 19/20mm mics. And there are new compact options on the horizon: Radius Windshields is nearing production of its mini-ALTO and then ALTO windshields, which will have dedicated MS clips as options, and in Sept 2023 Cinela showed its prototype Cosi windshield for the MKH 8030 MS pair, although its production remains uncertain.

For this post I am focusing on three of the most popular options, and ones that are of a sufficient size to promise reasonable performance outdoors in more than a gentle breeze: that is Cinela’s Zephyx and Pianissimo, and Rycote’s Cyclone. I often read on field recording and similar forums how some recordists, not always beginners, consider just how good a small windshield to be, but, while there is a place for compact protection when wind is light, there is no getting away from the physics. If you need a solid introduction to that, I suggest starting with Bleazey, J.C., ‘Experimental Determination of the Effectiveness of Microphone Wind Screens’, Journal of the Audio Engineering Society (Jan 1961, vol. 9, no. 1), 48-54. Indeed, it is worth remembering that the windshields considered here are themselves compromised on the size front so as to be able to be used on a boom-pole or easily deployed in the field. And if you don’t believe me and the engineers, then keep on reading since, by way of an example, further down the post I do include a test of the Pianissimo vs the diminutive Rycote Nano Shield NS1-BA: not least because I have posted previously on my blog showing how you can squeeze an MS pair into the latter, and it is important to understand the limitations of such small rigs.

A few of the windshields that I have used for mid-side (MS) recording: some designed for it, and some adapted. The photo gives a useful sense of the comparative sizes of the three purpose-designed MS windshields considered here: the Cinela Zephyx, the Cinela Pianissimo and the Rycote Stereo Cyclone (which uses a Cyclone small basket).

The Cinela models tested are recently released variations set up for the Sennheiser MKH 8030 + MKH 8000 mics, and have dedicated MZL connections. As I began these tests, Rycote put into production two new MS Cyclones dedicated to the same mics (one with MZL connectors – the Stereo MS Cyclone Kit 17 – and one with XLRs – the Stereo MS Cyclone Kit 18), but I am using the older Cyclone Kit 5: it uses the same small Cyclone basket and I have set it up similarly as the new models in terms of lyre positions. With the tests relating to mid-side recording, the three windshields see a focus on aspects that might not be as relevant to, say, a shotgun mic: erratic off-axis response is typically a feature of such highly directional mics, whereas the sideways looking fig 8 mic of a mid-side pair demands much more transparency from the sides of a windshield and, therefore, this is examined closely here. That said, hopefully many aspects of the tests should be relevant to those thinking of using the Zephyx, Pianissimo and Cyclone for other mic configurations.

Design and construction

Before getting stuck into testing the three windshields, it is perhaps worth writing a few words on their design and build, not least as there isn’t a lot out there on the Cinelas in particular. Obviously, there is little purpose in repeating what is on the manufacturers’ websites, so do go and look at those: rather, I will cover the main points that have interested me from having the windshields in my hands.

Zephyx: The basket’s overall dimensions are a maximum of 175mm W; 257mm L; and 179mm H. The shape is better appreciated in the photos, and we should be grateful to Cinela for leading the way with the non-cylindrical approach. Weightwise, this version is 405g with the fabric cover only and 588g with the fur added. The grey injection-moulded vertical (longitudinal?) and horizontal ribs interlock and are glued, and there are additional small straight struts top and bottom. The basket comprises two parts, with the smaller rear part attached with lugs/clips (and this is easy to attach and remove). Removal of the rear part allows access to the interior, but this access is principally to allow the user to loosen the screw that holds the shock-mount in place: fitting and removing the mics (at least with this MS version) is not really possible unless the shock-mount is removed from the front basket part too. Even after several weeks of use, I didn’t grow to like the screw fitting of the shock-mount to the basket: it is fiddly. The mic shock-mount attaches to the four-armed suspension, which connects to the front (or main) part of the basket: the independent basket suspension was a revolutionary approach when first introduced with Zephyx in 2007. When whole, the basket has plastic rings top and bottom: the top one provides a fixing point for the vertical, or longitudinal, ribs, while the bottom one also houses the round plastic bellows that provide a flexible air seal between the basket and the shock-mount (allowing some independent movement). The ribs have T-shaped sections, 5mm wide and 8mm deep, so are quite chunky (more so than those of the Pianissimo). Although the ribs are doubled where the two parts of the basket join, this is to the rear of the mic capsules and, thus, this suggests that they are not too large an acoustic issue for MS mics: of course, in a basket designed from the outset for MS, this is perhaps to be expected. The version of the Zephyx for the MKH 8030 + MKH 8000 MS has a double-mic clip, top and bottom loaded, with elasticated ties to hold the mics in. Such ties were new to me, but, as long as access is good (i.e. out of the basket), they are easy enough to use and I like the fact that they are gentle on the mic bodies. The two elliptical E-OSIX (hardness grade 00) shock-mount isolators are canted in at the sides, supporting the mic pair at the middle of the MS clip. This is a quite different configuration than for earlier MS options for the Zephyx, and looks to be an improvement. In short, I am impressed by the design of the MS shock-mount from the bar that holds the suspension hoops upwards: I am a little less enamoured with the design and materials of the section below, with the screw fixing to the basket, the conn box (a little homely, but usefully smaller than the Rycote ones), the bellows, the XLR holder and the 3/8″ mount. Not to say that I had any problems with these lower parts, other than the fiddly screw, and that they aren’t all robust enough and effective: just not entirely what I expected on a relatively expensive windshield.

The Zephyx shock-mount removed from the basket.
The Zephyx with the basket attached: the rear cap has its small piece of fabric covering attached at all times.
Underside of the Zephyx showing the thin rubbery bellows, the pivot, XLR holder and 3/8″ mount.

Pianissimo: The basket’s overall maximum dimensions are 165mm W; 324mm L; and 140mm H. Weightwise, this version is 370g with the fabric cover only and 560g with the fur added, so a little lighter than the Zephyx. The grey injection moulding has the look of the sprues or, more correctly, runners, used for the Airfix kits I made as a nipper. It comprises two halves, top and bottom, which separate to allow access to the interior: unlike the Zephyx, you cannot remove the basket from the shock-mount, but that didn’t concern me, and I found it much easier and quicker to access the mics than in its older sibling. The fabric cover for the lower half stays on permanently, while the cover for the top half has to be put on after the two basket halves are joined (it is elasticated and overlaps the lower half of the basket). Although the four-armed suspension connects to the bottom half only, the top half has the same fixing points, which is surprising as the two half-basket mouldings are not entirely identical: the upper one lacks the integral thick ring at the bottom that allows connection to a boom pole or stand. No great significance, but, again, something I wouldn’t expect in a relatively expensive windshield. There are different gauges of plastic in the basket: 3.1-3.4mm diameter round minor ribs and approximate circles; 3.5mm wide x 6.7mm high T-shaped longitudinal ribs top and bottom; and three sets of T-shaped main cross-ribs c.8.0mm wide and 6.7mm high. The last expand into wide round feet, 15mm diameter, which form the push-fit connectors between the two halves of the basket: when joined together, these feet form six cylindrical posts 75mm high. Although the Pianissimo basket has smaller spaces between the basket components than the Zephyx, the lighter structure and placement of the larger elements means that, on visual grounds at least, the design looks to be more transparent. The main concerns from a mid-side recording perspective are the front and middle rings, with their thicker posts at the joins: the front one is positioned off-axis to a forward-facing mic, and the middle one, which is set behind the mic position a little, is positioned off-axis to the side mic. The version of the Pianissimo for the MKH 8030 + MKH 8000 MS has the same back-to-back clip for the mics and suspension as the Zephyx, which is excellent.

Pianissimo with top half of basket fitted.
Pianissimo with top half of basket removed, showing mic shock-mount and the four-armed basket suspension.
The Cinela windshield connections to boom poles and stands might be made out of a slightly unusual looking plastic, but I must say I do like the pivot/clutch on the Pianissimo: small, but really effective.

Cyclone: The basket’s overall dimensions are 160mm maximum diameter; and 285mm L. Weightwise, this version is 620g with the integrated fabric cover only and 744g with the fur added: so significantly heavier than the Cinela models, with the difference being greatest without the furs (the Rycote fur being lighter). While also being made of grey injection-moulded plastic, there are substantial differences from the Cinelas: the 3D-Tex material is integrated with the basket; the basket is quick to assemble and disassemble (leaving the shock-mount easily accessible) due to its form and connection (held together with magnets and four small levers); and the basket structure is made of smaller cells and ribs of smaller dimensions (3.5mm wide). The smaller cross-section of the ribs of the basket is countered, however, by more substantial mouldings at the top and the bottom (for connection to the shock-mount) and to allow the two halves of the basket to clip together easily, with magnets to aid the fit. As a result of the division of the basket into two parts, the junction of the front semi-dome with the tapering body to the rear is marked with a 19.5mm-wide plastic ring. I can’t pretend other than that this ring has made me wonder about the Cyclone’s suitability for MS as it is positioned on-axis to where naturally you would have the sideways-looking fig 8 mic: with that in mind, I have been using the Cyclone Stereo Kit 5 with the mics forward of this plastic ring, and I notice that is exactly how Rycote have set up their new MKH 8000-specific MS versions (the Stereo MS Cyclone Kits 17 and 18). Obviously the ring remains within the lobes of the fig 8 and the mics are now pushed rather further into the front cap than is ideal (I remember the advice of the designer of the original Cyclone, Chris Woolf, that this was to be avoided…). The basket suspension for the Cyclone is a lot more substantial than that for the Cinelas, which again adds unwanted bulk (and weight), albeit in arguably less sensitive locations than the basket ring: both the top and bottom parts house multiple lyre-like suspension elements to provide a flexible connection to the basket, and are joined by the removable C-arm. The latter itself provides an extra component within the basket, but it is set well behind the capsules of the MS pair so is unlikely to cause significant acoustic issues (DMS may be another matter: one for a later test). More positively, the Cyclone offers a lot more immediate flexibility than its Cinela counterparts: you can move the lyres, reverse them and, indeed, even replace them with Radius hoops should you wish, while the Cinelas very much come specific to the MKH 8030 MS pair, although additional suspensions for different mic set ups can be bought (at a significant cost).

The Cyclone with one half-basket removed.
The Cyclone shock-mount and basket suspension with the basket fully removed. If you want one with MZL connectors for MKH 8000 mics you will need the Stereo MS Cyclone Kit 17.

Overall, then, there is no doubt that the Rycote Cyclone is more flexible, makes use of more consistent materials, and seems better built and better engineered. But, and this is a big but, this engineering gives it some large and chunky components in the thick mouldings in parts of the basket (from an MS perspective, most concerningly the wide ring at the rear of the front cap) and the top, bottom and C-arm of the shock-mount/suspension.

Operation

The two Cinelas operate quite differently. As we have seen, while the Zephyx allows the shock-mount to be used without the windshield, the Pianissimo does not. The Zephyx, then, is like the Cyclone (where the basket and, if required, the C-arm can be removed), although the process of removing and adding the Zephyx’s basket is much more fiddly. For some, this ability to remove the basket may well be crucial: for example, if transitioning from outside to inside booming. That said, such a transition with a mid-side pair may be less common than with a single more directional mic. Certainly, having long used a Cyclone I have rarely found myself using it sans basket as a shock-mount: rather, I have found the ability to remove the basket primarily of use in installing and removing the mics, unimpeded. The ease with which the Cyclone basket can be removed and replaced is very different than with the Zephyx, which is rather more fiddly – it requires removal of the back part of the basket and unscrewing the knob below the mic suspension, with replacement being fiddlier still, getting the bellows in place and getting the screw into the hole. Far from ideal in the field, let alone in low light. So from a practical point of view, the apparent limitation of the Pianissimo of not being able to use sans basket is far from that: while still short of the slickness of a Cyclone, removal of the top half of the basket to get access to the mics is much easier than with the Zephyx.

Obviously the integration of the fabric cover of the Cyclone with the basket means that there is no additional process involved on that front, while both Cinelas need their fabric layer adding after the baskets are assembled. This is a little fiddly, but not as difficult as putting on their fur covers: both furs are unlined, quite stiff and with a coarse internal surface, so are much harder to fit than the lined Rycote fur. Indeed, all the Cinela preparation operations are much easier to do with the windshield in your lap than, say, on a stand at head level (if, for example, doing field recording): I have found myself pulling on a Zephyx fur with both hands providing counter-resistance to the considerable tugging by use of my forehead against the rear of the windshield. Fortunately, nobody has witnessed my clumsiness, and doubtless those using the windshields day-in day-out have mastered the techniques.

When it comes to mounting the windshields, there are differences again . The two Cinelas have XLRs close to the attachment point, evidently geared to boom-pole use, but with no flexibility in positioning, while the Cyclone allows rotation of the whole pivot clamp (indeed, swapping between a 3/8″ and quick-release versions) and the XLR, which is very useful for field recording set ups. Small details that may not matter to some. And this isn’t to argue that for my usage the external details of the Cyclone are entirely preferable: for instance, I have found the small pivot clutch of the Pianissimo easily the best of the three windshields, gripping well without recourse to an over-sized lever like the Cyclone.

Finally, there is the operational aspect of cueing. The Zephyx is harder to point in the right direction than the other two windshields, largely due to its more spherical shape, but also due to how the mics sit inside the basket.

So, operationally, although some have eulogized the Cinelas on all fronts, there is no doubt in my mind over a period of using the three interchangeably over six weeks, that the Cyclone is much easier to set up, add/remove the basket, and dress/undress with its fur. It is followed at a distance by the Pianissimo, and with the Zephyx very much in third place. Once ready to use, the Cyclone and Pianissimo are much easier to aim, with the Pianissimo slightly winning on this front and certainly so in terms of weight when on a long boom pole; the Zephyx is less easy to aim, which doesn’t only matter for production sound, but also for field recording – not problematically so for the latter use, just needs a little more care.

So the question you might be asking – and I certainly was having first set up the Cinelas – is the much-heralded performance of the Zephyx and Pianissimo evident and enough to outweigh any downsides? Well, high time for some testing then!

Handling noise

All three windshields have sought to tackle vibration by having baskets that have separate suspensions from the microphone shock-mounts. As we have seen, Cinela was the first to introduce this with the Zephyx in 2007, and it was then adopted in the Pianissimo (introduced in 2014, after the similarly styled, but longer, Piano model of 2012). Rycote introduced its version of independent basket suspension with the Cyclone in 2014. To compare the windshields I mounted two at a time on a stereo bar at the end of a boom pole and carried out both a static test (i.e. holding the extended boom steady so all that was transmitted was my muscles straining – not insignificant given the weight of two such windshields and my lack of muscle!) and a deliberately shaking/vibrating test. Given the similarity of the two Cinela mic and basket suspensions I found the difference in handling noise to be negligible, but they are both observably different from the Cyclone. Testing the static hold first, here are the sound file clips:

While rendering the clips I noticed that the LUFS for the Cyclone recording was slightly lower (1dB), but listening to the files it is clear that the additional energy in the Pianissimo recording is at a lower frequency and, consequently, to human ears it sounds much more effective. You can see this different frequency in the spectrum analyzer visualizations, with the vibrations falling away very quickly from around 50Hz in the Pianissimo compared to the Cyclone:

Static suspension tests of the Stereo Cyclone (top) and Pianissimo (bottom).

Moving on to the tests with the pair of windshields on the end of the boom-pole being deliberately shaken, here are the sound files:

Again, the Cyclone produces slightly less noise in the test (this time by 2dB when considering LUFs and with a peak 3.8dB lower), yet the frequency spectrum of the noise makes it more audible, as the spectrum analyzer visualizations confirm:

Shaking suspension tests of the Stereo Cyclone (top) and Pianissimo (bottom).

While the differences in the suspensions between the two Cinelas and the Cyclone are measurable and audible, it is hard to tell whether this will be relevant to any user: it will come down to a matter of how much movement is likely, be that fast boom swings (which seem unlikely with an MS pair), handling noise or, if stand mounted, transmitted structure-borne noise from the ground or the stand (the latter itself perhaps produced by wind buffeting), and the degree to which use of an HPF (and at what frequency) is acceptable. In practice, I have not found the Cyclone any less usable on shock-mount/suspension grounds than the Cinelas, but it is something to bear in mind: there is a difference and it may well matter to some users. Certainly it is likely to matter to production sound recordists using versions of the baskets (very probably not the MS variations considered here) on boom-poles.

One interesting aside on suspensions and handling noise is the question of reduction in the mass of the MKH 8000 mics by use of the MZL connectors. MZLs are great when you want to reduce the visual impact of the already small mics (say while recording a live or filmed performance) or where reduction of the bulk of the mic helps acoustically (most obviously in double mid-side – or DMS – recording), but it isn’t entirely clear to me why it is so advantageous for an MS pair in a large windshield, where the additional mass of the MZX 8000 XLR modules and then the XLR plugs themselves may well help lower the resonant frequency of the spring system of the shock-mount (something that Chris Woolf discusses in his eminently readable article ‘Keeping Microphones Quiet’in LineUp 120 for summer 2009, which is freely available via the IPS website). Indeed, when including the pair of MZF 8000 ii filters when he sent the Cinelas, Philippe Chenevez made the point that this was because ‘the suspension is optimised for those, whatever [sic] you switch the filter on or off’: in other words, the additional mass seems to be helpful (although, of course, in addition to its switchable 70Hz HPF, the MZF 8000 ii has a fixed low-cut filter at 16 Hz). More prosaically, the additional length from the MZF filters helps with fitting the mics, but then so would the MZX 8000 XLR modules and, of course, if XLR connectors were used then other similarly-sized mics could be used interchangeably. That’s certainly the case with the Cyclone model used for these tests, which I use equally happily with the Rycote range of mics.

Transparency

I really began to think about transparency of windshields when finally getting around to comparing the wind reduction performance of my massive DIY blimp (built for LDC mics many years ago) to that of my smaller windshields: I had never tested the DIY blimp with SDCs before. As expected the reduction in wind noise was considerable, which is the inevitable consequence of its large size, but I was surprised by how much more transparent it was: I could hear much more in the way of leaves rustling and birds tweeting. What was unclear was how much this was to do with differences in size, coverings, basket design/construction, and shock-mount and other internal differences. Of course, some attenuation of higher frequencies is to be expected from a windshield covering, especially fur – that’s the quid pro quo for wind noise reduction – but, evidently, additional colouration should be minimized: this seems especially relevant to mid-side stereo pairs in a windshield. So a considerable amount of my time testing these windshields was focused on transparency, comparing, where possible, the impact of the bare shock-mount, then the bare basket, the basket with any fabric added (or permanently fixed to the basket), and the impact of adding fur. The tests were carried out using an MKH 8040 cardioid and MKH 8030 fig 8 pair rather than a calibrated test mic: this was due to the shock-mounts (and for the Cinela windshields, the connectors) being designed for such mics, and because I wanted to test the windshields with the actual mics that would be used and in the exact positions in which they would be placed.

In the absence of an anechoic chamber, I started off by making quasi-anechoic measurements, in which room reflections are removed by adding a gate, or time-window, which in this case was 5ms. This meant that lower frequencies were not measured, but this wasn’t a significant concern as my preliminary rough tests showed that colouration only became significant – and significantly different – at higher frequencies. To allow repeatability as I swapped windshields, added baskets to shock-mounts etc. I took a leaf from the Dambusters: instead of using convergence of angled lights to show an exact distance (in that case 60ft above the reservoirs) I applied Benjamin Lockspeiser’s inspired idea to angle two laser levels to coincide on the centre of the mic capsules, allowing me to set and reset distance and height to millimetre accuracy. By angling the two laser levels on axis to the loudspeaker and at 30 degrees, alignment of the mic bodies was also made easy: to reduce the number of measurements to something manageable I had decided to measure head-on (0 degrees) and at 30 degrees with the forward-facing MKH 8040, and at 60 degrees and 90 degrees with the sideward-facing fig 8 mic. Not the full 360 degrees of a polar plot, but, of course, with a full frequency sweep from 200Hz to 20kHz. Simplifying things by reducing the number of angles was just as well as it still took me 11 hours to work through the measurements, each time leaving the test room to control things (via REW software) from my PC: maintaining stability of the windshields while progressively adding baskets, fabric and fur took immense patience and, in some cases, multiple attempts. I am only too aware that much better and more comprehensive measurements could be achieved with an anechoic chamber, better equipment and more expertise, but this is at least an attempt to carry out measurements and I am happy enough with the broad gist of the results.

Lining up the mics for quasi-anechoic tests with a pair of converging lasers (not easy to see the red one, I know): a touch of the Dambusters!

I began the series of measurements looking at the impact of shock-mounts alone. This was measurable with the Cyclone and Zephyx, as only they can be removed from the basket. There was a modest, albeit quite noticeable, impact at 0 degrees vs the bare mics in a back-to-back clip mounted in the simple mic clip provided by Sennheiser, becoming more significant at 30, 60 and 90 degrees with the Cyclone, probably due to the large plastic C-arm (left in place for this test) that links to the top of the basket. Moving on to the impact of bare baskets, this was measurable with the Zephyx and Pianissimo only, as the Cyclone 3D-Tex fabric is bonded to its basket. This showed reasonably increased colouration over shock-mounts only, most noticeable at 30 and 60 degrees with the Zephyx, which makes sense when you consider the more substantial impact of the basket ribs (which are much larger in cross-section than those of the Pianissimo) at such angles. As a comparison, I measured the impact of my massive DIY blimp basket, which was negligible in comparison, as would be anticipated given its open structure and the thin structural components (3mm diameter stainless-steel wire). However, windshields need a covering to be useful, so, though the shock-mount and basket components will have an acoustic effect, sometimes considerably so, it makes sense to look in more detail at the measurements with coverings on.

Rycote Cyclone Kit 5: sound pressure level (SPL) 1kHz-20kHz with MKH 8040 and sound source at 0 degrees (i.e. straight on axis). The black line is the reference of the bare mic (albeit in an MS pair, with back-to-back clips, a simple mic clip and on a stand). The green line shows the basket (which has integrated fabric) and the red line shows the windshield with fur added. All these graphs have 1/48 smoothing.
Cinela Zephyx Z-8030-8040 with MKH 8040 and sound source at 0 degrees. The black line is the bare mic reference, the green line represents the basket and fabric, and the red line shows the windshield with fur added.
Cinela Pianissimo PIANI-2-8030-8040 with MKH 8040 and sound source at 0 degrees. The black line is the bare mic reference, the green line represents the basket and fabric, and the red line shows the windshield with fur added.

With a straight-on signal to the front of the windshields the performance of the three baskets with the addition of the various fabrics supplied shows a fairly modest colouration of the sound, broadly consistent across the different models, with very little attenuation. The addition of the fur shows, as expected, a significant attenuation in high frequencies, beginning as low as 1kHz. The Cyclone and Zephyx are close in this test, with the Pianissimo performing less well, especially from around 12kHz where the attenuation increases significantly. I found almost identical results when repeating the test, but swapping the long-pile fur for the short-pile fur also supplied. Thinking more generally about the attenuation from fur, below is a graph showing the same test but with my massive DIY blimp, in which lined fur (both lining and fur supplied by Rycote many years ago) sit directly on a more open basket, which itself has no fabric covering. In this case, the impact of the fur is much reduced, and there is very little attenuation of high frequencies: food for thought.

DIY windshield for LDC mics with MKH 8040 and sound source at 0 degrees. The red line shows the windshield with fur added, and the minimal attenuation of high frequencies that is in contrast to the smaller windshields above, with more complex basket constructions and tight fabric coverings of the baskets.

Anyway, back to the three windshields we are primarily concerned with here! Turning to their transparency at 90 degrees is particularly relevant to their MS use, as this is, of course, on axis to the fig 8 side mic.

Rycote Cyclone Kit 5 with MKH 8030 and sound source at 90 degrees (i.e. straight on axis to the fig 8 mic). The black line is the bare mic reference, the green line represents the basket and fabric, and the red line shows the windshield with fur added.
Cinela Zephyx Z-8030-8040 with MKH 8030 and sound source at 90 degrees (i.e. straight on axis to the fig 8 mic). The black line is the bare mic reference, the green line represents the basket and fabric, and the red line shows the windshield with fur added.
Cinela Pianissimo PIANI-2-8030-8040 with MKH 8030 and sound source at 90 degrees (i.e. straight on axis to the fig 8 mic). The black line is the bare mic reference, the green line represents the basket and fabric, and the red line shows the windshield with fur added.

Not unexpectedly, when the sound is measured from the side of the windshield, the Cyclone is showing significant colouration from around 7kHz, with a series of peaks and troughs from around 9kHz: that these are seen in the basket + fabric measurements as well as with the fur on confirms that they relate to the basket design, with the obvious culprit being the large plastic ring around the windshield that joins the cap to the tapered body. I understand from Rycote that the suggested set up for the new MS Cyclones for the MKH 8000 mics, whereby the mics are pushed forward into the end-cap, is a consequence of measurements of the impact of this plastic ring in the anechoic chamber: my crude measurements previously with pink noise suggested the same, and, as I mentioned previously, I have followed Rycote’s proposed more forward positioning. The Zephyx sees some similar, but much reduced, behaviour to the Cyclone from around 9kHz too, affecting basket + fabric and fur, while the Pianissimo sees little attenuation with the basket + fabric at any frequency and, in a sharp reversal of its performance at 0 degrees, some fairly modest attenuation when the fur is added.

With no published data for windshields (if only we could have detailed polar plots and frequency response graphs with, say, a measurement omni mic for each windshield basket design), I found making my measurements (necessarily many more than included here) an instructive if painfully long process. It confirmed my suspicion that none of the windshields was free of colouration, suggested that the Cyclone held its own with forward-facing mics, but that the Cinelas had better all-round transparency, and, above all, that they did not suffer from anything equivalent to the impact of the Cyclone’s wide plastic ring on the fig 8 mic. Again, as with the difference in handling noise, whether or not the different transparency matters is another thing: given these tests and what I have noticed with a more informed ear as I listed to my MS field recordings, I would be less inclined to use a Cyclone with an MS rig for the most demanding situations (say outdoor acoustic music recordings), but for many a field or sound effects recording, I suspect that the colouration would be too subtle to notice. Anyway, after all this measuring, with relief, I packed away the laser levels, restored furniture to the test room, turned off the PC, and headed outside…

Wind reduction

While much of this post has been about the compromises that windshields bring – the fiddliness and faff, the inevitable effect on the sound recorded – the bottom line is, of course, the ability to reduce the impact of wind noise on the microphones, whilst keeping these downsides to an acceptable minimum. After weeks of a strange anticyclonic gloom in October and November, at last the weather changed so I headed up to the coast at Cley to get a bit more wind to compare the difference between the two Cinela models. Pointing them into the northerly onshore wind, I first tested the Cinelas with just their fabric covers on (these being a double layer polyester/polyamide fabric), and here the Zephyx clearly won out by a substantial margin, presumably reflecting its larger size and more spherical shape (the latter better for turbulent wind):

Putting furs on made a huge difference, as expected, but interestingly the difference between the two models is much reduced, although the Zephyx still performed better in terms of wind reduction. And in neither test is there an obvious difference between the two windshield models in the recording of the footsteps walking past on the shingle, which were included to get some sense of the effect of the wind reduction on higher frequencies. Admittedly, this isn’t as nuanced as recording an acoustic instrument or vocal, but in the real world these are unlikely to be recorded on an exposed windy shingle beach.

With the strong sound of the wind and the sea beyond, and the fact that the incoming spray wasn’t doing my specs or the equipment any favours, I thought perhaps something more subtle might be equally, or more revealing, so beat a retreat to the garden. There, in addition to wind, there was the noise of leaves moving, the singing of the odd bird that forgot to migrate somewhere nicer for winter, and other village street noises. Again I kicked off with the Zephyx with just its fabric cover, but this time compared it to the Cyclone also without its fur:

The difference between the two windshields is very obvious, with the Cyclone picking up so much more wind noise. Of course, the construction is quite different – the Zephyx having its fabric ‘Z-cover’ stretched over the basket, while the Cyclone has its 3D-Tex material built-in to the basket, with plastic elements of the latter remaining exposed.

Adding furs reduced the wind noise, of course, but the difference between the two windshields remains very evident.

Now that’s more like wind! OK Storm Bert might imply something more dramatic than was the case – certainly far away from the centre, here in Norfolk – but wind around 20-25 mph with gusts over 40 mph was welcome after weeks of anticyclonic gloom. Here we have the Pianissimo (foreground) and the re-purposed LDC DIY blimp (background).

With Storm Bert hitting the UK, scope for windier tests improved, so I went through a whole sequence of comparisons with the MS pairs, each time comparing the Pianissimo to another windshield. First is a variant of the last clips, albeit with more wind, being the Pianissimo (with its long-pile fur) vs the Cyclone (with its fur, of course):

And here are the spectrum analyzer visualizations of the difference between the two, with the audible component (say above 20Hz) clearly greater with the Cyclone.

Pianissimo (top) vs Cyclone (bottom) performance in wind: fig 8 mic only.

As we saw (or heard) with the Zephyx vs Cyclone comparison above, the difference between the two windshields is substantial again, with the Pianissimo offering much better wind reduction that the Stereo Cyclone.

With the gusty wind, I thought it would be interesting to repeat the Pianissimo vs the Zephyx test, this time without the background white noise of the sea. First up is the Pianissimo:

And here is the recording of the Zephyx:

The differences between the two are perhaps rather more evident than in my tests on the beach, and, clearly, of the two Cinelas the Zephyx does a better job at reducing wind (entirely as expected and as advertised, I should hasten to add!). Again, we can see the differences in the spectrum analyzer visualizations:

Pianissimo (top) vs Zephyx (bottom) performance in wind: fig 8 mic only.
The Kelly rain cover on the Pianissimo. I must confess it took me worryingly long to work out why it had such a name!

A slightly unexpected extra in the package from Cinela was a Kelly rain cover for the Pianissimo. I must confess that it will take more than a cheerfully named rain cover to make me think I am Gene Kelly and feel like singing or, rather, recording in the rain – I am a fair-weather recordist – but for some dealing with rain is unavoidable: a few hardy souls even choose to record in the rain. Comprehensive testing of the Kelly is rather outside the scope of my recording experience, but, with the rain cover in hand, I thought that a wind test might prove useful (it is a choice between the Kelly and the fur: you can’t have both on the windshield at the same time). Now, this comparison is between the Pianissimo with the Kelly and the Zephyx with fur: not quite like-for-like, but the two windshields are similar enough and the differences so dramatic that the test is perhaps worth including here:

Pianissimo with Kelly rain cover (top) vs Zephyx with fur (bottom) performance in wind: fig 8 mic only.

Obviously, the rain cover is not something you would deploy unless absolutely necessary. And, of course, it’s function is for rain not wind although, of course, wind and rain often go together (certainly here in the UK!). As the Cinela website says: ‘Depending on the strength of the wind and the intensity of the rain, you have to make the best choice between adding the fur or the rain cover. Your experience and your ears will guide your choice!’ Indeed.

Rycote Nano Shield NS1-BA adapted with Radius hoops and 3d-printed MS clips and mount to hold a MS pair centrally.

Right, and here for something different in the last of this particular batch of tests is a comparison of the Pianissimo with the Rycote Nano Shield, which I promised at the beginning of the this blog post:

As expected, there is a lot more wind noise in the diminutive Nano Shield NS1-BA when coping with the lively wind, and it runs up into much higher frequencies than you’d want (i.e. hard to remove without a high-pass filter set horribly high for most uses – say 200Hz or higher), as evident in the spectrum analyzer visualizations:

Pianissimo (top) vs Nano Shield (bottom) performance in wind: fig 8 mic only

While using the Cinela windshields over many weeks I got better at putting the furs on and taking them off (and I guess they would get more supple with use), but still I wasn’t keen on the fiddly process, and began to wonder just how different they would be with a lined fur. Radius Windshields make aftermarket furs for other makes of windshield, such as Rycote and Cinelas, so I tried a pair of these (thanks to Simon Davies). As expected, fitting was so much easier with more suppleness and the lining making the furs slide on smoothly, but what about performance? Testing was a bit difficult, what with having one of each model only, but trying different combinations of furs (including, as controls, both windshields with the original furs and both with the Radius alternatives), it became clear that while so much easier to deploy, the Radius furs (which are very much the same as Rycote ones: not surprising given their pedigree) offered no performance gain, and, if anything, the original Cinela furs (or at least the long-pile variants) have a slight edge.

Testing aftermarket lined furs by Radius Windshields on the Pianissimo and Zephyx: much easier to fit and remove, but just slightly less effective. A price worth paying?

Anyway, you can judge for yourself in these test files, for which, for a change, I have uploaded the MKH8030 fig 8 tracks only. First off, here are two ‘control’ recordings, with both the Zephyx and the Pianissimo wearing their Cinela furs:

As per the previous tests, the Zephyx has a slight edge in terms of wind reduction. And here are the recordings with the Pianissimo sporting the Cinela (long-pile) fur and the Zephyx with the Radius fur:

There’s not a huge amount in it, and the differences may well be much reduced (or disappear) if using a high-pass filter (you can download the files and have a play in your DAW to examine the effect of your likely HPF settings), but if trying to squeeze every last drop of performance out of the windshields, then the Cinela furs appear to have the edge. But if you are continuously taking the Cinela furs on and off, it is perhaps useful to know that there are some competent alternatives that would make life easier.

And as something of a total aside (I’ve accepted that this is going to be a very long post anyway!), if you are unfamiliar with the physics that relates size of windshield to effectiveness, the Radius furs gave me a chance to make a direct comparison with my large DIY blimp. First off is the Pianissimo with the Radius fur:

And here is the DIY blimp with pretty much identical fur (it has fur and lining provided some years ago by Simon Davies, when running Rycote and, not surprisingly, it seems pretty much identical to the Radius furs):

Pianissimo with Radius fur (top) vs DIY mega blimp (bottom) performance in wind: fig 8 mic only.

The differences are significant and, with some background voices of passing walkers, you can also hear the increased transparency of the DIY blimp in the field. Of course, this doesn’t help you if you wish to boom an MS pair or, indeed, travel very light for field of effects recording!

NB In all these wind tests do note that I used no high-pass filtering at all either in the field or in post, so do download the files and play around. My main aim was to show the differences between the three windshields without the masking effect of HPFs being applied. If you are really keen, you can decode back to M and S if, for example, you wanted to hear the difference just on the forward-facing mid mic to compare the windshields for non-MS use.

Pricing

I haven’t mentioned pricing at all so far, other than oblique references to the windshields being expensive. All three are not cheap, which is, perhaps, which is often a bit of a surprise to some: I think this stems from the plastic construction, which lends itself to mass-production, and that the designs of the baskets and main components are not new (so you might hope that the R&D and tooling investment for the injection-mouldings would be offset by now). Anyway, all three cost no more than one of the MS mics inside!

Here in the UK, the Rycote price is easiest to establish: looking at the prices at Pinknoise (and I would use them for any such purchase), the Stereo Cyclone Kit 5 is priced at £758.40 (inc. VAT). The two recently announced versions specifically for the MKH 8030 + MKH 8000 MS are pricier, with the one with MZL connectors – the Stereo MS Cyclone Kit 17 – naturally being more expensive (at £888 inc. VAT) than the one with XLRs – the Stereo MS Cyclone Kit 18 – at £834 inc. VAT (both prices at Pinknoise again). None of these comes with the small Cyclone fur, which you will almost certainly need: this costs another £138 inc. VAT.

It is harder in the UK to establish the price of the Cinelas, since I can find no stockist of these specific models. I am sure that Pinknoise, Soundkit or similar specialist retailers who sell other Cinela models could order either, but I have found prices for both at Audiosense in Brussels, where the Pianissimo (the Cinela Piani-2-8030-8040) is €1,171 inc. VAT and the Zephyx (the Cinela Z-8030-8040-MS) is €1,411 inc. VAT. At today’s exchange rates, these equate to £977 and £1,177 respectively, which are pretty much as I would expect from the prices of other MS versions of the Pianissimo and the Zephyx that are stocked in the UK. Given that both Cinelas come with furs and travel cases, I can’t really see the price would be a determining factor in making a choice between the three.

Quite different cases for the Pianissimo (left) and the Zephyx (right), with pros and cons (room for furs etc. vs overall size), but good that they – and the furs – are included with the Cinelas.

Conclusions

So where does this leave me or anyone else so minded? Cinela windshields have an excellent reputation amongst professional sound recordists, especially those involved in production sound. Often they are described as the best available and a definite step up from the more prevalent Rycote models, but, in the absence of much comparative testing, it was hard to know what to make of the largely anecdotal evidence. Having had the Pianissimo and Zephyx in my hands for over six weeks, the short answer is that I am impressed, and there is no doubt that they have a significant edge over the Cyclone in terms of pure performance as windshields, not least – as this was the underlying aim of the tests – ones suited to a mid-side pair. That said, I have been a little surprised with some aspects of their construction and the elements of the designs that make them fiddly to use (most especially the means of disassembling and reassembling when changing mics: this is especially the case with the Zephyx), and which are so much better addressed in the Rycote Cyclone.

The design of the windshields has meant there are inevitable compromises in all three cases, some of which they have in common (e.g. overall size). And it is clear that there could be a still better solution within the general design parameters: that is, a windshield as light as the Pianissimo and as effective at reducing wind noise and handling noise as either Cinela, but with a bit more transparency than either of them and, above all, with more of the operational convenience of a Cyclone. But dreaming of non-existent products aside, if I was booming a shotgun mic or a supercardioid mic on a long boom-pole and not continually swapping in and out mics, there is no doubt I would choose the Pianissimo, on grounds of weight, ability to aim and its excellent handling and wind-noise reduction. If you want an MS rig on a long boom-pole, then this is the way to go too. But that isn’t my usage of MS: typically, I am using MS in the field for effects recording with mics on a stand, and frequently swapping out mid mics (changing from omni, to wide-cardioid, to cardioid and supercardioid) and the whole MS pair, and putting the fur on and taking it off again depending on the wind level. And then I am recording music outside, where the lack of complete transparency of any of the options becomes perhaps more evident, but especially with the Cyclone. So I am left scratching my head. Should a sound recordist in similar shoes accept the lesser high-wind reduction of the Cyclone (which, I should clarify, is not at all shabby anyway: it outperforms my other windshields) and the acoustic effect of its large plastic hoop on the fig 8 mic as compromises worth making for increased ease of use in the field? Or should the recordist go for one of the Cinelas, with greater transparency overall and better handling and wind-noise reduction, and just accept it will be less easy to rig? OK, as we have seen, this could be made a bit easier by recourse to an aftermarket lined fur from Radius Windshields, but at the cost of a slight loss in wind reduction performance. And if a recordist is to choose a Cinela, should they go for a Zephyx with its better performance in wind, or the Pianissimo with its greater convenience and ease of aiming? A bit of a dilemma for the recordist that I cannot resolve: what I hope, rather, is to have provided some useful comparative information and food for thought for those looking for capable MS windshield solutions and weighing up these three options. Personally, I would be rather pleased if the Pianissimo didn’t have to disappear back to Paris!

NB Just for transparency, the Cyclone model tested here is one I have been given previously by Rycote for testing, while the Pianissimo and Zephyx have been loaned by Cinela.