The Estate and its wines over
the centuries
Cañada
Honda’s existence as an estate under that name dates
back to 1355, when it is mentioned in a Charter of King
Pedro I of Castile, preserved in the archives of Utiel
Town Council.
Part of the estate has been in the Iranzo family since
time immemorial. Another part was the hereditary estate
of the Marqueses de Caro and Condes de Plegamans, and
was bought by the Iranzo family in the 1940s.
Its exceptional conditions for producing fine wines encouraged
the Marqueses de Caro to bottle wines from the Cañada
Honda vineyards under that label from the late 19th century.
Cañada Honda wines were awarded Gold Medals at
the Valencia Exhibitions of 1909 and 1910.
Following the estate’s purchase by the Iranzo family,
wines have continued to be bottled there under the Cañada
Honda label. |
The Vineyard
55
hectares planted with vines under ideal conditions for
balanced growth.
TERROIR.
Because of its altitude, aspect, soil texture and micro-climate,
Cañada Honda enjoys perfect natural conditions
for cultivating vines for the production of fine wines,
with minimum human intervention.
Cañada Honda lies barely 500 metres from Caudete
de las Fuentes, once the ancient city of Kelin, where
archaeological remains have been found indicating the
existence of vineyards in the 5th century B.C.
As its name suggests, the estate lies in a 1.5 km long
ravine (cañada) at the foot of the Sierra de la
Vicuerca, oriented NW-SE and at an altitude of between
800 and 870 metres. Since antiquity, Cañada Honda’s
singular shape has led to its being known locally as a
“river of wine”.
The vines are cultivated on terraces supported by hydraulic
masonry retaining walls which have been gradually raised
over the centuries as the soil has built up, and which
in some cases are over 2 metres high. The soil texture
varies from sandy to sandy loam, overlying a stony subsoil,
and is poor in organic matter.
The estate’s position in the lee of the mountains
protects the vines from the westerly winds, which can
be scorching in summer, and those from the north, which
are bitterly cold in winter. In addition, it benefits
from excellent insolation. These circumstances, together
with its altitude, tend to ameliorate extremes of temperature,
especially in summer.
The banks of terraces retain rainwater, reducing water
losses from run-off and holding back the cultivable soil,
which would otherwise wash away in torrential rainstorms.
Occasional excess water drains away through the masonry
walls.
All this adds up to a microclimate that differs from
the surrounding area in having less extreme temperatures,
maximum insolation and relatively high soil moisture levels.
This favours moderate growth of the vines, reducing though
not entirely eliminating, hydraulic stress, and encourages
the ripening of the grapes.
The estate’s high altitude is a determining factor
in the quality of the grapes and their acidity level,
a key factor in developing the sharpness of the wines. |
Planting of the Vineyard
The
present vineyard was designed and laid out in 1983 with
a view to achieving two distinct but complementary objectives:
the production of wines of the finest quality; and total
respect for the environment. The volume of wine produced
takes second place to both these objectives.
PREPARATORY WORK.
Only minimal alterations were made to the land, limited
to preventing imminent collapses of certain terraces by
building new retaining walls in the same material as the
existing ones. The other option, widespread levelling
and the removal of terraces and walls, which is often
carried out to facilitate mechanisation and reduce the
cost of installing irrigation, was discarded to avoid
disturbing the soil structure, which would have resulted
in erosion problems and rainwater losses, and brought
the mineral subsoil to the surface, burying and killing
the humus soil by depriving it of oxygen.
In disinfecting the soil, the use of nematocides was
avoided, and mechanical and biological methods were used
instead, including digging out the roots of the former
planting, cultivation and ploughing in of leguminous and
grassy plants, and a lengthy fallow period before replanting.
Deep ploughing was limited to those parcels where the
subsoil is broadly similar in composition to the topsoil.
Soil conditioning work on the rest of the estate was limited
to subsoiling in order to avoid disturbing the soil profile,
with its potential implications for erosion and loss of
fertility.
PLANTING.
To establish the vineyard and achieve a well-developed
root system, it was decided to use bare root plants that
would be grafted in situ when two years old. The rootstock
used is 161-49 Couderc, a rootstock of average vigour
that provides adequate vegetative growth and encourages
fruiting and early ripening, as well as being perfectly
adapted to the physical conditions on the estate.
The planting density is high for the area’s climatic
conditions, approaching 4000 plants per hectare on some
parcels, a practice which, although reducing yields and
raising planting costs, has a marked effect on the quality
of the fruit by reducing the vigour of the vine. The distance
between rows is 2.5 metres, the ideal spacing to enable
the plants’ root systems to exploit the soil to
the full, and to avoid the direct action of the sun on
the soil with its resulting drying effect. Closer spacing
was ruled out because it would have prevented the practice
of green fertilisation.
The orientation of the rows has been designed to simultaneously
counter erosion by following the contours of the land,
and capture the maximum energy from the sun. The general
geographical orientation of the estate means that these
objectives are achieved on almost all parcels.
The principal grape variety is Tempranillo, occupying
36 hectares. The planting material was selected from the
surrounding district to ensure its perfect acclimatisation.
Each plant is individually monitored for three years on
the parcels destined for the production of quality wines.
The Cabernet Sauvignon variety occupies 8.5 hectares and
Merlot 3.5 hectares. These varieties have been introduced
with the aim of producing wines of greater complexity
in aroma and taste, while not disregarding the presence,
in moderation, of the extraordinary qualities of our reigning
variety. The non-native plant material comes from vines
grown on the experimental plots of the Requena School
of Enology and Viticulture, and their quality and adaptation
to the estate’s environment has been repeatedly
confirmed by that institution. Lastly, 7 hectares are
planted with the local Bobal variety.
The vines are trained in simple espalier form, on a single
wire at a height of 60 cm supporting the architecture
of the vine, leaving the growing parts to hang free. This
system of training aims to combine the advantages of the
full cordon method, designed for non-native northern varieties,
with those of the traditional open vase pruning method.
The main advantages of espalier training over vase pruning
are greater ability to capture solar radiation, lower
risk of contamination by cryptogamic diseases, markedly
improved opportunities for mechanisation, and reduced
vegetative growth resulting in better quality fruit in
dry climates. Of the above advantages, the first is the
only one that requires tying back the shoots, a practice
which is unavoidable in regions with low insolation. In
our case, with average annual insolation of 2700 hours,
of which 975 are concentrated in the summer, and an ideal
aspect for capturing solar radiation, it has been found
best to leave the green parts of the vine to hang free,
thus obtaining the main positive effect of the vase pruning
method, that is, better conservation of soil moisture
because of the greater area of shade it produces.
A final question to which special attention was paid
in establishing the vineyard was whether to install an
irrigation system, and if so, which system would be most
suitable.
The answer to the first question was clearly “yes”.
Although excess watering reduces the quality of the grape
in direct relation to the volume applied, it is an inescapable
fact that too little water, by preventing the plant from
meeting its physiological needs, adversely affects both
factors.
The irrigation systems used vary according to the soil
texture and the area of individual parcels. In approximately
half of the vineyard, where there is a predominance of
sandy loams that retain water for long periods, a sprinkler
system has been installed for use in the winter, solely
in years with prolonged droughts. Irrigation in winter
reflects the lack of risk in that season of propagating
cryptogamic diseases and weak evaporation resulting from
the sun’s oblique action on the land. The principal
advantages of this type of irrigation over others are
its similarity to natural rainfall, which results in high
oxygen levels in the water, uniform distribution and considerable
water savings compared with gravity systems. It also does
not require the soil contouring that gravity systems need.
The remaining half of the vineyard has shallow sandy
soils where, without irrigation in summer, the hydraulic
stress imposed on the vines would have an adverse effect
on the size and quality of the vintage. Given the impossibility
of using sprinkler irrigation in summer, because of the
risk of propagating cryptogamic diseases, it was decided
to install point irrigation. Point irrigation has obvious
advantages such as water savings, in addition to avoiding
the spread of fungi. Its main disadvantage from the point
of view of organic agriculture is its tendency to encourage
the growth of root bulbs, which restrict the physiological
action of the roots, resulting in under-exploitation of
the soil’s resources and the need to apply fertilisers
to overcome the deficit. In order to avoid the formation
of root bulbs, the vineyard has been designed so that
the separation between rows of vines is not too wide,
and by installing a large number of irrigation points
in each row.
The area eventually served by the irrigation points is
2.5 x 1.25 metres, enabling any doubt about whether the
root bulbs have been eliminated to be overcome. Achieving
this result is helped by careful management of the system,
with long periods of non-use forcing the roots to exploit
the maximum soil volume. |
Environmental Protection.
For
the Iranzo family, the practice of organic farming reflects
a wider view of the management of natural resources which
has led it, since the 1950s, to reforest over 30 hectares
with native woodland species.
The family has also promoted the establishment of concepts
such as a Flora Micro-reserve and a Biological Station
which have made the Cañada Honda estate the largest
environmentally protected area in the Valencian Community.
Lastly, it has granted use of part of the estate to the
University of Valencia for the construction of the Valencia
Alsthor Station. |
Flora Micro-Reserve
For
generations, the Cañada Honda estate has been managed
in an environmentally responsible manner. This has encouraged
the development of a rich plant diversity that has led
to its being designated a Flora Micro-reserve by the Valencian
Government.
The micro-reserve concept was created by Decree 218/1994
of 17 October of the Valencian Regional Government, implementing
Law 4/1989 on the Conservation of Natural Areas and Wild
Flora and Fauna. The establishment of micro-reserves is
intended to offer full protection to the vegetation of
small areas of natural landscape which contain a high
concentration of rare native plants that are threatened
or of special scientific interest.
The creation of a network of micro-reserves in the Valencia
Region has been widely commented on in conservationist
circles, including a lengthy positive article in the July
1998 issue of Plant Talk.
By Order of the Department of the Environment of the Valencian
Regional Government on 27 November 1996 (published in
the Official Gazette of the Valencian Government of 17
January 1997), a micro-reserve was created on the Cañada
Honda estate, covering an area calculated from GPS co-ordinates
of 1.09 hectares.
The label identifying Organic Products is as shown here:
According to a special report prepared by the Department
of Plant Biology of the Faculty of Biological Sciences
at the University of Valencia, headed by Professor Gonzalo
Mateo Sanz, the composition of the flora in the area covered
by the micro-reserve is as follows:
Dominant vegetation:
· Holm oak (Quercus ilex subsp. rotundifolia)
· Kermes oak (Quercus coccifera)
· Aleppo pine (Pinus halepensis)
Upper shrubby layer:
· Rosemary (Rosmarinus officinalis)
· Juniper (Juniperus oxicedrus subsp. oxicedrus)
· Wild madder (Rubia peregrina subsp. peregrina)
· Phoenician juniper (Juniperus phoenicea)
· Cistus (Cistus clusii)
· Scorpion’s Thorn (Genista scorpius)
Lower shrubby layer:
· Shrubby Gromwell (Lithodora fruticosa)
· Fumanas (Fumana hispidula, F. thimifolia and
F. ericifolia)
· Helianthemums (Helianthemum violaceum, H. hirtum,
H. marifolium and H. cinereum subsp. rotundifolium)
· Everlasting Flower (Helicrysum stoechas)
· Lavender (Lavandula latifolia)
· Thyme (Thymus vulgaris)
· Savory (Satureja tragoriganum)
· Ironwort (Sideritis tragoriganum)
· Prostrate Canary Clover (Dorycnium pentaphyllum
subsp. pentaphyllum)
· Cotton lavender (Santolina chamaecyparissus subsp.
squarrosa)
· Mountain pennyroyal (Teucrium capitatum)
· Thoroughwax (Bupleurum fruticescens)
Vigorous dry grassland:
· Brachypodium retusum
· Carex harellana
· Koeleria vallesiana
· Stipa offneri
· Teucrium pseudochamaepitys
· Carduus assoi subsp. assoi
· Atractylis humilis
· Carlina corymbosa
· Centaurea melitensis
· Cuscuta epithymum
· Leuzea conifera
· Asperula aristata subsp. scabra
· Astragalus incanus
· Thesium divaricatum
· Linum narbonense
· Orobanche latisquama
· Polygala rupestris
· Coris monspeliensis
· Echinops ristro
· Phlomis lychnitis
· Sedum album
· Sedum sediforme
· Dactylis hispanica
· Eufhorbia minuta
· Eufhorbia nicaeensis
· Hippocrepis scabra
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To this list should be added the following species, identified
by the biologist Dr. Emilio García Navarro during
the preparatory fieldwork for the Micro-reserve Management
Plan:
· Ficus carica
· Argyrolobium zanonii
· Helichrysum italicum.
Bodegas Iranzo is a founder member of the association
"Espacios para la Vida", consisting of the owners
of protected areas in the Utiel-Requena district, whose
aim is to maintain and improve the biodiversity and sustainable
development of the district. |
Biological Station - Wildlife
Rserve
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Following the signing of
an agreement with the Valencia Ornithology Association,
the Valencian Government approved, on 14 October 1999,
the creation of a Biological Station on the estate, which
means that hunting is totally prohibited throughout Cañada
Honda. Cañada Honda is arguably the only private
estate in the Valencian Community to which this level
of protection applies. |
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Mirroring the richness of its plant life,
the Cañada Honda estate also has a considerable
variety of wildlife. |
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Valencia Anchor Station
In view of the Cañada Honda estate’s outstanding
environmental conditions, little affected by the impact of human
activity, the University of Valencia has selected it as the
site for the Valencia Anchor Station, a reference meteorological
station.
The Valencia Anchor Station is a latest generation meteorological
station, financed and equipped by the Ministry of Science and
Technology and the Regional Ministry for the Environment. Its
purpose is to validate the data obtained from equipment installed
on the various meteorological satellites managed by the European
Space Agency (ESA). Measurements have been recorded in conjunction
with the GERB (Geostationary Earth Radiation Budget) instruments
installed on the European METEOSAT (MSG-1) satellite, managed
by a European consortium led by the Rutherford Appleton Laboratory
(RAL) in the United Kingdom and composed of the Natural Environment
Research Council (NERC) – United Kingdom, Services Federaux
des Affaires Scientifiques, Techniques and Culturelles (SSTC)
– Belgium, and the Agencia Spaziale Italiana (ASI) –
Italy.
The Valencia Anchor Station has been involved in a number of
scientific programmes, including:
The GERB International Science Team Campaign, carried out between
14 and 30 June in co-operation with NASA, which programmed the
CERES sensors on board the TERRA and ACQUA satellites to converge
on Cañada Honda at a height of 700 km, coinciding with
the GERB satellite at a height of 36,000 km. Measurements were
also made with the LIDAR sensor of Barcelona Polytechnic University,
and atmospheric radiosounding equipment by the National Meteorological
Institute. More information at:
http://asd-www.larc.nasa.gov/PAPS/CERES_Spain.html
The SMOS (Soil Moisture and Ocean Salinity) Mission, organised
jointly by France and Spain, whose initial studies at Cañada
Honda were carried out in July 2003 in conjunction with the
Institute for Mediterranean Desertification Studies. The purpose
of the Mission is to measure soil humidity and ocean salinity
by remote sensing.
Mission EarthCARE (Earth Clouds, Aerosols and Radiation Explorer),
managed by the ESA and NASDA (Japanese Space Agency).
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