The ingredients to match in round no. 15 of "They go really well together" are cold smoked salmon and dark chocolate, and the round is hosted by Mex Mix. I thought I'd give it a go, and ended up with smoked salmon-goat's cheese-chocolate ganache-tortilla roll-ups/wraps.
I've attended "They go really well together" a few times now, and a description of what this flavour pairing relay is really about is given in the previous posts.
Cold smoked salmon wraps are quite popular starter or hors d'oeuvres in Norway, and is commonly made with spreadable goat's cheese. I thought this simple dish with its rather uncomplicated flavour might serve as a good basis for evaluating the salmon-chocolate combination. I wanted the chocolate to be spreadable and therefore made some ganache.
Some of the salmon here in Norway is made using juniper-flavoured smoke. Even though I could not find any match between smoked salmon and juniper berries on the foodpairing web site, this is an "accepted good combination". So I thought using juniper-flavoured cheese and chocolate might add a nice touch (although juniper berries of course are not equal to juniper smoke).
Basic chocolate ganache:
- 100 g dark chocolate (Odense 55%), chopped
- 100 ml double cream
- dried juniper berries, five chopped
The double cream was heated to the boil, the juniper berries were added and let to infuse for a couple of minutes. Chopped chocolate was added while stirring until fully melted. Left to cool, first in room temperature and then in the fridge for 1-2 hrs.
Smoked salmon-goat's cheese-chocolate ganache-tortilla roll-ups:
- Soft wheat flour tortilla
- Spreadable goat's cheese (chevre would probably work as well)
- Smoked salmon
- Rocket/argula
- Balsamic vinegar or lemon juice
- (gin)
The salmon was sliced thinly and brushed with gin and left in the fridge for 3-4 hrs (this made no noticeable difference, save your gin). Goat's cheese, ganache, salmon slices and rocket was spread on the tortilla. The tortillas were rolled and served with either balsamic vinegar or lemon juice for some acidity.
For cheese, I tried two different flavoured varieties: dill and juniper. Both worked, but I'd say that dill was a notch better, as juniper flavoured cheese together with juniper flavoured ganache and rocked gave a slightly too bitter overall experience.
Verdict:
There was no real crash in this dish. However, the salmon and chocolate didn't go up into a higher unity either. The roll-ups do just as well without the chocolate, and in my opinion this means that the chocolate is redundant. The juniper in the ganache was ok, adding a slight bitterness together with the rocket. The acid (balsamic vinegar or lemon juice on the side) was necessary to balance the flavours.
Two different cheese-to-ganache ratios were tested, depending on the area covered by cheese/ganache on the tortilla. Ca. 60:40 cheese:ganache resulted in the chocolate flavour dominating the cheese (but not the salmon). Using less ganache (ca. 80:20 cheese:choc) resulted in just a hint of chocolate.
By the way...
when first seeing this month's combination, my thoughts went to the wonderful comic character Gaston Lagaffe created by ingenious Belgian André Franquin (in Norway, Gaston goes by the name Viggo). Among Gaston's numerous distinctive features is his inherent need for experimenting with explosives and food, and often you wouldn't notice the difference. His favourite office-made dish is chocolate glazed herring (fresh or as kippers). To most of Gaston's readers, this probably sounds like a horrific combination, and I guess that was Franquin's motive. Such an irony then, that Franquin's countrymen at foodpairing.be now indicate that sardines and cocoa/chocolate might indeed be a good match!
Facsimile from a Norwegian Gaston album. Copyright probably the publisher Semic (Egmont), but believed being covered by fair use.
7 Feb 2009
My first spherification
Yes, I know. I'm six years late to be among the cool guys, but who cares? To me it's all about having fun and learning, and then being late is no issue.
As far as I know, spherification and it's related methods were introduced by El Bulli chef Ferran Adrià et al. some time after the turn of century. I has got a lot of attention, and a You Tube search on the term gives quite a few hits on demonstrations of DIY spherification.
The phenomenon is based on using hydrocolloids, that is compounds that can generate gels, mostly with water but other media are also know (oils and alcohol mixtures, that is). A good place to start is Martin Lersch's hydrocolloid recipe collection "Texture". A number of different gelling agents are being used, the most common household substances being gelatin and fruit pectin, the latter often used when making jams and jellies.
In this case I got my hands on some sodium alginate that I wanted to play with. When a mixture containing sodium alginate comes in contact with a calcium solution, the alginate starts to cross-link and a gel is formed. In this case, dripping a alginate-containing solution into calcium chloride generates small beads that are gelatinous on the surface and liquid in the centre. Alginate is somewhat sensitive to the pH, and sodium citrate might be used as a buffer to stabilise the pH at ca. 4-5 (all this information is found in the Textures recipe collection).
Sodium alginate is a polymeric carbohydrate-like compound which is soluble in water. When it reacts with calcium ions, cross-links are formed giving large three dimensional webs that become viscous/gel-like and holds water.
Strawberry spheres in sparkling drink (for lava lamp effect)
(Sparkling Chardonnay or non alcoholic cider are both fine)
Equipment
(immersion) blender
scale (0.1 g precision is needed)
some general kitchenware
disposable plastic pipette (7 ml) or plastic syringe (10-20 ml)
(pH strips)
Ingredients
frozen and thawed strawberries, 200 g
sugar, 25 g
sodium alginate, 1.9 g
sodium citrate1, 2 g
calcium chloride2, 2.5-4 g
water, 500 ml
Sparkling Chardonnay or non-alcoholic drink (i.e. apple cider)
Procedure (see You Tube for informative demonstrations)
For template, the recipe for Melon cantaloupe caviar taken from El Bulli's texturas recipes: The strawberries were blended and mixed with the sugar. pH measured to be ca. 3 (somewhat uncertain since the berries gave some colour to the strips). Sodium citrate was added gradually, stopping at a total of 2 g to get a pH of ca. 4-5.1 Sodium alginate was added and blended (the alginate partially turned into lumps; should have added the alginate to a small portion, mixed this, and then added the rest. Lots of blending did the trick). The mixture was strained through a sieve. For easier dripping (see below), the mixture was diluted 1:1 with water (the initial strawberry mixture was rather viscous, resulting in oblong or drop-shaped "caviars"). This would of course affect gelation, hence the amounts here are deduced on a try-and-fail basis.
Calcium chloride was dissolved in the water. The strawberry mixture was dripped into the calcium chloride solution, the drops forming small strawberry beads, and left for 1/2 to 1 minute.3 The beads were strained, rinsed in water and added to the sparkling wine or cider.
(Tri)sodium citrate functions as a buffer due to its three carboxylic acid functional groups.
Verdict
The strawberry beads/spheres/caviars tasted good, no detectable flavour from the matrix. Simply strawberry. While mixing, the strawberries turned somewhat greyish. Not surprising, since the colour is an anthocyanin pigment (anthocyanin colours are pH dependent, often bright red in acidic environment and more on the green/blue side in basic conditions).
The reason for using Chardonnay was simply that I found Chardonnay to match well with strawberries at the food pairing database, and that this might be a fun aperitif (although I would maybe not spend money on an expensive wine and then put strawberry in it).
What might be taught
Notes/comments
1 It was difficult to assess the pH correctly, and the amounts of sodium citrate suggested in the textures recipe collection did not (seemingly) have the desired effect. Hence, citrate was added until the desired pH, adding up to 2 g.
2 The CaCl2 must be dry/dehydrated. In my case, it had absorbed moisture from the air and gone all wet (quite hygroscopic). It was in left in shallow bowls in the oven at 150-200 °C stirring occasionally. A couple of hours later, a white crystalline/powdery salt was left.
3 Using 2.5 g CaCl2 per 500 ml water and leaving the beads 30 seconds in the bath resulted in rather soft beads. Leaving them for one minute gave beads that were solid almost throughout. I wanted firmer beads with a soft interior. Increasing the concentration to 4 g CaCl2 per 500 ml water did the trick: firm shell, and liquid interior when the beads were left in the bath for somewhat less than a minute.
References
McGee, H.: McGee on Food and Cooking. London: Hodder and Stoughton 2004.
Lersch, M.: Hydrocolloid recipe collection
As far as I know, spherification and it's related methods were introduced by El Bulli chef Ferran Adrià et al. some time after the turn of century. I has got a lot of attention, and a You Tube search on the term gives quite a few hits on demonstrations of DIY spherification.
The phenomenon is based on using hydrocolloids, that is compounds that can generate gels, mostly with water but other media are also know (oils and alcohol mixtures, that is). A good place to start is Martin Lersch's hydrocolloid recipe collection "Texture". A number of different gelling agents are being used, the most common household substances being gelatin and fruit pectin, the latter often used when making jams and jellies.
In this case I got my hands on some sodium alginate that I wanted to play with. When a mixture containing sodium alginate comes in contact with a calcium solution, the alginate starts to cross-link and a gel is formed. In this case, dripping a alginate-containing solution into calcium chloride generates small beads that are gelatinous on the surface and liquid in the centre. Alginate is somewhat sensitive to the pH, and sodium citrate might be used as a buffer to stabilise the pH at ca. 4-5 (all this information is found in the Textures recipe collection).
Sodium alginate is a polymeric carbohydrate-like compound which is soluble in water. When it reacts with calcium ions, cross-links are formed giving large three dimensional webs that become viscous/gel-like and holds water.
Strawberry spheres in sparkling drink (for lava lamp effect)
(Sparkling Chardonnay or non alcoholic cider are both fine)
Equipment
(immersion) blender
scale (0.1 g precision is needed)
some general kitchenware
disposable plastic pipette (7 ml) or plastic syringe (10-20 ml)
(pH strips)
Ingredients
frozen and thawed strawberries, 200 g
sugar, 25 g
sodium alginate, 1.9 g
sodium citrate1, 2 g
calcium chloride2, 2.5-4 g
water, 500 ml
Sparkling Chardonnay or non-alcoholic drink (i.e. apple cider)
Procedure (see You Tube for informative demonstrations)
For template, the recipe for Melon cantaloupe caviar taken from El Bulli's texturas recipes: The strawberries were blended and mixed with the sugar. pH measured to be ca. 3 (somewhat uncertain since the berries gave some colour to the strips). Sodium citrate was added gradually, stopping at a total of 2 g to get a pH of ca. 4-5.1 Sodium alginate was added and blended (the alginate partially turned into lumps; should have added the alginate to a small portion, mixed this, and then added the rest. Lots of blending did the trick). The mixture was strained through a sieve. For easier dripping (see below), the mixture was diluted 1:1 with water (the initial strawberry mixture was rather viscous, resulting in oblong or drop-shaped "caviars"). This would of course affect gelation, hence the amounts here are deduced on a try-and-fail basis.
Calcium chloride was dissolved in the water. The strawberry mixture was dripped into the calcium chloride solution, the drops forming small strawberry beads, and left for 1/2 to 1 minute.3 The beads were strained, rinsed in water and added to the sparkling wine or cider.
(Tri)sodium citrate functions as a buffer due to its three carboxylic acid functional groups.
Verdict
The strawberry beads/spheres/caviars tasted good, no detectable flavour from the matrix. Simply strawberry. While mixing, the strawberries turned somewhat greyish. Not surprising, since the colour is an anthocyanin pigment (anthocyanin colours are pH dependent, often bright red in acidic environment and more on the green/blue side in basic conditions).
The reason for using Chardonnay was simply that I found Chardonnay to match well with strawberries at the food pairing database, and that this might be a fun aperitif (although I would maybe not spend money on an expensive wine and then put strawberry in it).
What might be taught
- chemical reactions might occur between chemical compounds
- experimental and cooking skills (weighing exact amounts, diluting etc.)
- dispersions: gels (hydrocolloids) and macromolecules
- pH, acidity and buffers (citrate)
- density (the beads float up together with the CO2 bubbles, and sink when the bubbles burst)
Notes/comments
1 It was difficult to assess the pH correctly, and the amounts of sodium citrate suggested in the textures recipe collection did not (seemingly) have the desired effect. Hence, citrate was added until the desired pH, adding up to 2 g.
2 The CaCl2 must be dry/dehydrated. In my case, it had absorbed moisture from the air and gone all wet (quite hygroscopic). It was in left in shallow bowls in the oven at 150-200 °C stirring occasionally. A couple of hours later, a white crystalline/powdery salt was left.
3 Using 2.5 g CaCl2 per 500 ml water and leaving the beads 30 seconds in the bath resulted in rather soft beads. Leaving them for one minute gave beads that were solid almost throughout. I wanted firmer beads with a soft interior. Increasing the concentration to 4 g CaCl2 per 500 ml water did the trick: firm shell, and liquid interior when the beads were left in the bath for somewhat less than a minute.
References
McGee, H.: McGee on Food and Cooking. London: Hodder and Stoughton 2004.
Lersch, M.: Hydrocolloid recipe collection
1 Feb 2009
Has the term "Molecular gastronomy" lost it's content?
The term Molecular gastronomy has been debated quite heavily the few last years, and several prominent chefs and writers have denounced the term. What's in a name?
An interesting post on the development and applications of molecular gastronomy (MG), both as a term, but also as a phenomenon at Martin's khymos. Most of the relevant links are found in that post as well. Also, many of the comments are relevant and interesting, making the post more complete.
Has MG reached a point of matureness in the sense that it might have some real impact on peoples cooking in general? As mentioned in Martin's post, it has already to a certain extent, such as sous-vide cooking. However, some of the more spectacular applications (foams, alginate spheres etc.) combined with misuse of the term in media has resulted in the term being discredited. In my opinion, the name is not the main thing (although its ok to avoid misunderstandings and establish a common ground languagewise as well). I'll continue using the term until a better alternative gets the main foothold.
However, I'd be somewhat surprised if we don't see more of the results from MG/research reaching a general public soon. Hopefully, some of the "less spectacular" but more "relevant" or "useful" knowledge might hit the domestic kitchens in not too long. The real test for me is: is this knowledge so relevant to the everyday citizen that I should teach this to my preservice teacher students attending our Food & health courses? A few examples from the top of my head:
Many cookbook recipes might be rewritten just slightly to incorporate this knowledge, giving more flavourful dishes. Furthermore, this knowledge is something that the domestic cook might adopt rather easily. I'd be really happy to see something like this making it into the domestic kitchens around. In that case, MG (or whatever one prefers to call it) does indeed have had an impact.
References (not comprehensive)
Ubbink, J. et al.: "Molecular gastronomy: a food fad or science supporting innovative cuisine?", Trends in Food Science & Technology, 2008, 19, 372-382
Ubbink, J. et al.: "Molecular Gastronomy: A Food Fad or an Interface for Science-based Cooking?", Food Biophysics, 2008, 3, 1557-1866
Martin Lersch (khymos) on definitions of Molecular gastronomy
Kroger, M: "Editorial: What's All This We Hear about Molecular Gastronomy?", Comprehensive Reviews in Food Science and Food Safety, 2006, 5, 48 - 50.
This, H. :"Molecular gastronomy", Angewandte Chemie, 2002, 41, 83-88.
An interesting post on the development and applications of molecular gastronomy (MG), both as a term, but also as a phenomenon at Martin's khymos. Most of the relevant links are found in that post as well. Also, many of the comments are relevant and interesting, making the post more complete.
Has MG reached a point of matureness in the sense that it might have some real impact on peoples cooking in general? As mentioned in Martin's post, it has already to a certain extent, such as sous-vide cooking. However, some of the more spectacular applications (foams, alginate spheres etc.) combined with misuse of the term in media has resulted in the term being discredited. In my opinion, the name is not the main thing (although its ok to avoid misunderstandings and establish a common ground languagewise as well). I'll continue using the term until a better alternative gets the main foothold.
However, I'd be somewhat surprised if we don't see more of the results from MG/research reaching a general public soon. Hopefully, some of the "less spectacular" but more "relevant" or "useful" knowledge might hit the domestic kitchens in not too long. The real test for me is: is this knowledge so relevant to the everyday citizen that I should teach this to my preservice teacher students attending our Food & health courses? A few examples from the top of my head:
- Alginate/hydrocolloid spheres (specifically)? No
- Sous vide cooking? Yes if the focus lies on the method rather than specialty equipment
- Application of knowledge about maillard reactions? Yes/probably
- Application of knowledge about umami taste? Probably
- Dispersions in food and everyday life (two posts)? Yes
Many cookbook recipes might be rewritten just slightly to incorporate this knowledge, giving more flavourful dishes. Furthermore, this knowledge is something that the domestic cook might adopt rather easily. I'd be really happy to see something like this making it into the domestic kitchens around. In that case, MG (or whatever one prefers to call it) does indeed have had an impact.
References (not comprehensive)
Ubbink, J. et al.: "Molecular gastronomy: a food fad or science supporting innovative cuisine?", Trends in Food Science & Technology, 2008, 19, 372-382
Ubbink, J. et al.: "Molecular Gastronomy: A Food Fad or an Interface for Science-based Cooking?", Food Biophysics, 2008, 3, 1557-1866
Martin Lersch (khymos) on definitions of Molecular gastronomy
Kroger, M: "Editorial: What's All This We Hear about Molecular Gastronomy?", Comprehensive Reviews in Food Science and Food Safety, 2006, 5, 48 - 50.
This, H. :"Molecular gastronomy", Angewandte Chemie, 2002, 41, 83-88.