Fax Machine Sound Effect Download
Raphael Dyen
While a part of me wanted to build one from scratch using an Arduino, I also wanted to make things with what I have and I thought there would be some fun to improve this machine. Other than running it from AA batteries and a bigger speaker, I planned to add it into a timber case. I briefly thought of having separate switches so that the machine was not visible, but that seemed like a lot of effort and I like the idea of having the original case visible.
I have some speakers from our local recycling shop. These are from a small surround sound system. As mentioned earlier the battery holder came from a string of lights and has a built-in switch. I removed the resistor that was in it that had been to limit the current to the string of LEDs.
The collection consists of 43 stereo recordings of 12 rare, industrial machines used many decades ago in German power plants and industrial sites. It includes the sounds of massive 10KV power switches, a Siemens exciter machine (power generator) built in 1945 and many other vintage machines.
SHAPINGWAVES
SHAPINGWAVES creates unique sound collections of sound effects, designed sounds and ambiences recorded around the world. We strive for the best recording quality possible and only use professional recording equipment: Recorders by Sound Devices, Sonosax, Sony, and microphones of the Sennheiser MKH Series, or by Neumann, DPA and others. For more further information and the full catalogue visit
With A Sound Effect, Asbjoern has created a web site where our international community can browse, learn, and share the vast fruits of our labors. Together we are accelerating the very real potential power of sound design as a recognized art form.
A Sound Effect is a great hub, and is one of the first places I visit to look for sounds by category or genre. I started coming here to see if I could find libraries that I knew I had heard, but forgot WHERE I had heard them.
Casino ambience is an important contributor to gambling behaviour (Griffiths and Parke 2005; Dixon et al. 2007; Marmurek et al. 2007; Noseworthy and Finlay 2009; Spenwyn et al. 2010). The flashing lights, the visual design of the space, and in particular the use of loud sounds serves to create feelings of excitement that distract the player by increasing cognitive load (see Kranes 1995; Skea 1995) and, critically, give the impression that winning is much more common than losing. Griffiths and Parke (2005) hypothesized that background sounds and music might increase confidence of the players, increase arousal, help to relax the player, help the player to disregard previous losses, and induce a romantic state leading them to believe that they may win.
Previous studies have typically examined the physiological effect of music in isolation of other sensory modalities. In slot machines, however, sounds are invariably paired with images. In modern multiline slot machines, there is a perceptual onslaught of sights and sounds that accompany the win. In the visual domain, the symbols responsible for the win are often animated, causing them to stand out from the non-winning symbols. In addition, for multiline games, the winning line is highlighted for the player by a coloured line that joins the symbols responsible for the win. Advertising research suggests that image and sound, when used congruently tend to amplify each other (e.g., Iwamiya 1994; Bullerjahn and Güldenring 1994; Bolivar et al. 1994). As such, studies into the response to sound in slot machines must take into consideration the amplifying effect of the visual stimuli.
Skin conductance responses (SCRs) are often used to measure event-related phasic (moment to moment) changes in arousal linked to the processing of emotionally-laden stimuli. In the gambling domain, Dixon et al. (2010) investigated the physiological reactivity of players to wins and losses as they played a commercially available slot machine. Wins led to significantly larger SCRs than losses. In a different study using a slot machine simulator, Dixon et al. (2011), showed that the amplitude of the SCRs for wins was tightly titrated to the size of the win; the larger the win, the larger the SCR. Similar findings have been shown by Lole et al. (2011). Moment-to-moment changes in heart rate can also be used as an index of arousal during slot machine play. Dixon et al. (2010, 2011) showed a temporary slowing of heart rate (heart rate deceleration) followed winning outcomes in slot machines. For slots play on both actual slot machines and on slot machine simulators, winning outcomes led to significant heart rate deceleration, whereas losing outcomes did not.
This analysis revealed no main effects, but a significant Outcome by Gambling Status Group interaction F(18, 486) = 1.904, p = .033. There was also an Outcome by IBI interaction F(24, 1,944) = 2.103, p = .045. Importantly there was neither a main effect of Sound, nor any other higher order interactions involving this variable. Figure 2 shows the Outcome by Gambling Status Group interaction. This interaction appears to be caused by an overall reduction in the heart period of the low-frequency non-problem gamblers at the largest win sizes compared to the moderate-risk group. This interaction was not predicted, does not involve sound, and therefore was not decomposed further.
Average inter-beat intervals for the four gambling groups for each of the slot machine outcomes. Lo-Freq NPGs low frequency non-problem gamblers, Hi-Freq NPGs high frequency non-problem gamblers, Moderate-Risk moderate risk gamblers, PGs problem gamblers
The vast majority of the players that were tested preferred the playing session where wins were accompanied by sounds. This suggests that not only do sounds make the playing session more arousing, but also that they find this arousal pleasurable. If, as Brown (1986) has suggested, arousal is the reinforcer of gambling behaviour, then the results of this study suggest that sounds contribute to the arousing properties of modern multiline slots play and by extension gambling behaviour.
One limitation of the psychophysical data collected in this study involves heart rate deceleration. Here we showed that although HRD appeared to be sensitive to winning versus losing outcomes, it was insensitive to the presence or absence of sound. Sound did not increase the rate of deceleration compared to the sound-off condition. SCRs on the other hand were sensitive to the presence of sounds, and support the subjective arousal ratings of the participants.
Here, we show that sounds contribute to this overestimation effect. Overall, players overestimated the number of times that they won playing this slot machine simulator. In the sound-off condition, players on average estimated that they won 33 times when in reality they were only exposed to 28 wins (thus, on average they overestimate by 5 (i.e., 15 %) the number of times they won). Crucially, this propensity to overestimate these wins is exacerbated when sounds accompany the losses disguised as wins. In this sound-on condition, players estimated that they won on average 36 times (an overestimation of 8 (i.e. 24 %)). As such, sounds may be an integral part of the disguise in the losses disguised as wins, causing players to think that they won more often during a playing session than they actually did.
We have argued that losses disguised as wins (LDWs) are a failure of categorization. We propose that the similarity between the sights and sounds of the actual wins and LDWs causes players to miscategorise these outcomes as wins rather than correctly categorize these outcomes as losses. In this study, we showed that sounds contribute significantly to this miscategorization process.
Another potential limitation of our study is that in order to control outcomes for our study, we used a slot machine simulator and not a real slot machine. The simulator was designed to be as similar to a real slot machine as possible in terms of its audio-visual content. The slot machine simulator was necessary in order for us to manipulate and test the key variables of interest. Indeed, only by controlling the payback percentage, the number of wins, and the total amounts won at the end of the sound-on and sound-off sessions, for example, can we implicate the importance of sound.
To mitigate the potential limitations of our experiment, we provided subjects with an opportunity to win real money, increasing the realism of wins and losses (Ladouceur et al. 2003; Wulfert et al. 2008). Furthermore, the use of a within-subjects design meant that we could make reasonable assumptions regarding the results. Future research may wish to explore the response of players in real casino settings, perhaps employing ear plugs and noise cancelling headphones to reduce auditory feedback (although it is nearly impossible to completely eliminate sound since we hear through bone conductance in addition to through our ears).
Hollywoodedge, Metal Creaks Machine FS015801LibraryFoley Sound LibraryCreated1964First AppearanceThe Train (a United Artists film)Arch-Nemesis ofTBACategoryMetal Creaks; Machine Sound With Loud Squeals. - Train, Brakes.This sound effect can be found on Foley Sound Library, which was made by The Hollywood Edge.
It was often used in Thomas & Friends as its trademark braking sound effect from Season 4-present. It was also often used in Dinosaur Train in a high pitch as its trademark braking sound effect. And it was very often used in Titipo Titipo in various pitches in several episodes. A similar squeak element was also reused in the sound effect, Hollywoodedge, Metal Creaks Machine FS015802, which is also available on the same library.
There are only a few special devices necessary for radio sound effects. I've found it's not the props themselves, but the way they are manipulated that make the difference. For one show, I had Crusaders venturing underneath a volcano. One scene called for them to wade through an ocean of bones. We tried spooning a bunch of gravel, but it didn't sound right. I turned to my mentor, Cliff Thorsness, CBS's ace sound effects artist in Los Angeles from the 1930s to the 1960s for help. At first he grabbed some hi-lighter pens and moved them in his hand, but it didn't sound big enough for an ocean of bones. Then he went to our gravel box and started manipulating the gravel up against the sides of the wooden box--Wham, that was it! It's all in how you use the sound effects devices. Here's how I built a number of simple SFX devices we use all the time.
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