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Abstract and Figures

The evolution of freshwater fish distribution and long term change in the composition of fish assemblages in rivers are currently the subject of various ecological studies. These studies usually focus on a relatively short range of time, rarely exceeding the last few years. However, this interval is far too short to understand in what extent human societies impact their environment. In order to study interactions between human activities and rivers and their fish assemblages over longer periods of time, we searched the historical record to retrieve information on fish and their distribution in streams in the Seine River basin. A database, named CHIPS (Catalogue HIstorique des Poissons de la Seine), was developed to organize the information. In a first step, we focused data collection on the last two centuries. We present preliminary qualitative analyses using selected parts of this database. They show notably that the distribution area has changed for some species and that a substantial evolution in fish assemblages has occurred in certain rivers since the beginning of the 19th century.
- Species abundance for three rivers: Créanton River (top), Armançon data. River (middle), Ouanne River (bottom); in grey: historical data, in black: actual CONCLUSION AND PERSPECTIVE rence and density). We are aware that these two methods of The CHIPS database, presented here for assessing species abundance are probably not totally equiv- the first time, compiles a considerable amount of historical alent. However, we think they are useful for highlighting data from the last two centuries about fish distribution in the major changes in fish assemblage composition. Seine River basin (see Annexe 1). Some data sources are Between the end of the 19 th century and the decade well-known, classical ichthyology books, but the majority of 2000-2010, the fish assemblage changed considerably in the the sources were difficult to access (particularly handwrit - Créanton River, the smallest river, with a significant reduc - ten papers) and most information came from very detailed tion of limnophilic species (preferring slow flowing condi - research in different archives and libraries. The data greatly tions). In the Ouanne River, the proportion of rheophilic spe - expand our knowledge of the Seine fish fauna and its history. cies (preferring high flow conditions) increased [e.g. Salmo This database project was originally developed during inter- trutta fario Linnaeus, 1758, Lampetra planeri (Bloch, 1784), disciplinary discussions with a variety of specialists: fish Leuciscus leuciscus (Linnaeus, 1758) and Squalius cephalus biologists and ecologists, historians, and archaeozoologists. (Linnaeus, 1758)]. In the Armançon, which is the largest In the future, we plan to extend CHIPS to a broader tem- river of the three, the distribution remained about the same. poral scale and, possibly, include complementary data sourc- At this point no definitive conclusion can be drawn to es, such as drawings, photographs, maps, and archaeological
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

by
Sarah BESLAGIC* (1, 2), Marie-Christine MARINVAL (1) & Jérôme BELLIARD (2)
Cybium 2013, 37(1-2): 75-93.
(1) Université Paris 1 Panthéon-Sorbonne, Maison René Ginouvès, UMR 7041, ArScAn, Équipe archéologies environnementales,
21 allée de l’Université, 92023 Nanterre c e d e x , France. [marie-christine.marinval@mae.u-paris10.fr]
(2) Irstea, UR HBAN, 1 rue Pierre-Gilles de Gennes, CS 10030, 92761 Antony cedex, France. [jerome.belliard@irstea.fr]
* Corresponding author [sarah.beslagic@mae.u-paris10.fr]
Most studies of river ecology and particularly of fish
assemblages focus on spatial issues and frequently neglect
temporal ones. In those studies addressing temporal issues,
the time period studied is generally short, rarely exceeding
the few last years when sh sampling methods were more
or less standardized. This is often the result of limited access
to longer term data sets and to the unavoidable problem of
the heterogeneity of data from historical time periods. How-
ever, long term temporal studies are needed, notably because
ecosystem management and environmental policies are
increasingly oriented to long term approaches. For example,
the European Water Framework Directive mandates aquatic
ecosystems management measures to be implemented over
nearly thirty years (Hering et al., 2010). Moreover, global
change and its impacts on river ecosystems and on their bio-
diversity must be addressed at a scale of at least several dec-
ades or even a century (Ducharne et al., 2007; Logez and
Pont, 2013).
Several authors have proposed a statistical approach
based on present-day, sh distribution data sets to modelling
the ecological niche of species in order to predict the conse-
quences of long term environmental change on riverine sh
distribution and their assemblages. By running these models
under probable future, environmental conditions, they have
tried to assess how sh assemblages might react (Lassalle
and Rochard, 2009; Buisson et al., 2008; Logez and Pont,
2013).
These sh assemblages studies over a long range of time
(1) assessed the natural and anthropogenic causes of sh dis-
tribution change during the historical time period, (2) provid-
ed original information on the rate of assemblage change in
given contexts, and (3) tested the models mentioned above,
as well as encouraging interdisciplinary discussion about the
evolution of biodiversity.
Long-term approaches are not often applied to Euro-
pean rivers (but see Lelek, 1989; Keith, 1998; Wolter et al.,
Abstract. – The evolution of freshwater sh distribution and long term change in the composition of sh assem-
blages in rivers are currently the subject of various ecological studies. These studies usually focus on a relatively
short range of time, rarely exceeding the last few years. However, this interval is far too short to understand in
what extent human societies impact their environment. In order to study interactions between human activities
and rivers and their sh assemblages over longer periods of time, we searched the historical record to retrieve
information on sh and their distribution in streams in the Seine River basin. A database, named CHIPS (Catalo-
gue HIstorique des Poissons de la Seine), was developed to organize the information. In a rst step, we focused
data collection on the last two centuries. We present preliminary qualitative analyses using selected parts of this
database. They show notably that the distribution area has changed for some species and that a substantial evolu-
tion in sh assemblages has occurred in certain rivers since the beginning of the 19th century.
. – CHIPS : une base de données historiques sur les poissons du bassin de la Seine.
L’évolution de la distribution spatiale et les changements à long terme des peuplements de poissons en cours
d’eau sont l’objet de divers travaux en écologie. Ces travaux se concentrent généralement sur des périodes de
temps relativement courtes, excédant rarement les dernières années. Cet intervalle de temps apparaît trop court
lorsque l’on cherche à comprendre comment les sociétés humaines impactent leur environnement. Pour aborder
les interactions entre les activités humaines et les cours d’eau et leurs peuplements de poissons sur de plus lon-
gues périodes de temps, nous avons développé une base de données dénommée CHIPS (pour “Catalogue HIsto-
rique des Poissons de la Seine”). Elle rassemble les informations collectées dans les documents anciens sur les
cours d’eau et leurs peuplements ichtyologiques dans un bassin hydrographique donné, ici le bassin de la Seine.
La collecte de données a, dans un premier temps, été restreinte à la période de temps correspondant aux deux
derniers siècles. Nous présentons ici des analyses préliminaires qualitatives obtenues à partir de l’exploitation
de segments de cette base. Elles révèlent notamment que la distribution spatiale de certaines espèces a fortement
évolué et qu’il existe une évolution signicative de la composition des peuplements depuis le 19e siècle dans
certains cours d’eau.
© SFI
Received: 4 Apr. 2012
Accepted: 19 Mar. 2013
Editors: E. Dufour, O. Otero
Key words
Fish community
Historical data
Seine
Temporal evolution
Database
CHIPS
CHIPS: a Seine basin historical database Beslagic e t a l .
76 Cybium 2013, 37(1-2)
2000 or Carrel, 2002). A recent publication on American riv-
ers (Rinne et al., 2005) presents examples of the historical
change in fish assemblages in 27 river systems. However,
with few exceptions [see Gammon (2005), for the Wabash
River over two centuries], most studies address change in
sh assemblages over only the past few decades or only sup-
ply a compilation of native and non-native species to illus-
trate major changes.
To nd information on long term changes in sh fauna
and assemblages, we studied historical archives and older
scientic publications dealing with sh (and craysh) and
their distribution in the Seine River basin (France). Previ-
ous historical studies provided a good basis for our work
(Belliard et al., 1995; Boët et al., 1999; Costil et al., 2002;
Rochard et al., 2009). They focus on global modications
of sh fauna and, to a lesser extent, on the local evolution
of sh communities, especially in the Seine River estuary. A
database named CHIPS (Catalogue HIstorique des Poissons
de la Seine) was developed to organize the historical infor-
mation. As a beginning, we focused data collection on the
period from the end of the 18th century to the mid-20th cen-
tury. The end of the 18th century corresponds to the begin-
ning of the Industrial Revolution during which several major
anthropogenic impacts on rivers and fish were observed.
First, this paper presents the database. We outline the types
of sources consulted and the data record elds used, and we
give some general information about the extent of the data-
set currently available. Second, to illustrate how this data-
base might contribute to future research, we briey present
the results of a preliminary qualitative analysis.


The search for historical sh data was done at the French
National Archives (Archives nationales) in Paris and in Fon-
tainebleau, and the departmental archives of Eure and Yonne
(in Evreux and Auxerre Prefectures, respectively), and in dif-
ferent institutes and university libraries, such as the Muséum
national d’Histoire naturelle (MNHN) in Paris, the Sainte-
Geneviève Library, and the French National Research Insti-
tute of Science and Technology for Environment and Agri-
culture (Irstea, Institut national de recherche en sciences et
technologies pour l’environnement et l’agriculture). We also
found documents on Gallica, a digital library created by the
French National Library (BnF, Bibliothèque nationale de
France).
We distinguished between different categories of docu-
ments depending on their origin and content. The rst cat-
egory includes handwritten (and also typewritten) docu-
ments. A large part of these come from official sources,
usually government archives or institutions in charge of
the national planning (e.g. the government departments of
Ponts et Chaussées and Eaux et Forêts). These documents
are normative (legislative texts, rules, etc.), administrative
(reports, correspondence, etc.) or technical documents (civil
engineering plans and projects). We looked at all individual
correspondence. The latter should be used with caution due
to their possibly subjective nature (e.g. in the case of com-
plaint). A second category includes numerous historic docu-
ments, such as naturalists’ notebooks and scientic litera-
ture, published between the end of the 18th and the beginning
of 20th centuries.
In total, we consulted several thousands of documents,
but few of them provided useful information. It should be
noted that information on rivers in general (i.e. structures
on rivers such as dams, locks, water-mills, as well as rivers
maps, etc.) was quite easily found in the historical record,
but information on sh is much more difcult to nd. There
is no research guide that references all the historical sources
on sh. Of the thousands of documents consulted, only 282
documents provided relevant information on the presence
of fish in rivers or ponds (Fig. 1). About 45% are printed
documents and the rest are handwritten papers. Administra-
tive texts (e.g. reports) represented the greatest part of the
handwritten documents (130 documents). These documents
provided information about shing legislation, shing lim-
its, river restocking, and sh protection. Ten personal state-
ments, eight technical texts, and two normative texts, that
include information on sh, were also found in the handwrit-
ten papers.
Examples of sources
To illustrate what kinds of sources were found, we chose
two examples of public inquiries led by the Ponts et Chaus-
sées department. In 1879, the Senate created a commission
to propose rules to limit sh depletion and to ensure restock-
ing. This commission collected information on river and
migratory sh stocks, best restocking practices, and evalua-
Figure 1. - Historical data: origin and percentages for observations
from all sources.
Be s l a g i c e t a l . CHIPS: a Seine basin historical database
Cybium 2013, 37(1-2) 77
Table I. - Major information entered into the CHIPS database.

Code (numeric code automatically generated)
Taxa
 (name as noted in the source)
Detail: French local name is recorded
 (name as noted in the source)
Species code (code used by Onema, it allows sorting of species recorded under different names)

Watershed (in this case: Seine basin)
(stream name)
Water body (river, pond, canal, other)
(unspecied, spawning ground, growth area, transition area, migration upstream limit)
(free eld)
(free eld; when is completed it corresponds to upstream location)
(id.: downstream location)

(Bourgogne, Centre, Île-de-France, Haute-Normandie, Champagne-Ardenne, Picardie)
(free eld: department number)
City (free eld)
(free eld)

(date is noted under format dd/mm/yyyy)
Detail: when no date is specied, we gave the publication date; when only the year is given, we recorded the date under January
1st of the year
 (exact date, exact month and year, exact year, some years, decades, exact century)
 (exact date, period, date of knowledge, publication date, rst observation, last observation)

(present or absent)
Detail: species are noted “absent” when it is specied in the source
(free eld: as noted in the source)
 (free entry + detail)
(extinction signalled or not)
Information indicated with check boxes + detail in “other information”
(free eld: every data that provides additional information, in particular details about species biometry, shing
stocks, restocking, spawning date, etc.)
(catch/direct observation, inquiry/summary, story or account)
Detail:
- catch/direct observation: author account
- inquiry/summary: in the case of inquiry led by the one who has shed or catches whom the author have heard previously.
We mentioned in the eld “Other information” if it was a catch or an observation.
- story or account: in case of an account told to the author and which could have not been checked.
(correct data, partially correct data, possible doubt, incorrect data)
Detail: in case of story or account, the observation quality is noted as “partially accurate” or “possible accuracy”

(link with a bibliographic Endnote database including all appropriate elds: author name, article/book/journal
title, publication date, etc. For sources from government archives, the archive box reference is also noted.)


(check box in case of condential source and difculty of obtaining access to the document)
CHIPS: a Seine basin historical database Beslagic e t a l .
78 Cybium 2013, 37(1-2)
tion measures to maintain or improve river sh production1.
A questionnaire was sent by the Ministry of Public Works
to government agency personnel, particularly to the Ponts
et Chaussées engineers. It included twenty-four questions
about rivers divided into three themes: (1) statistics: abun-
dance, species occurrence, species reduction, sh numbers;
(2) causes of depletion: direct human causes (fishing and
poaching); industrial, climatic, and accidental causes; inad-
equate legislation and/or regulation; and (3) restocking:
measures under consideration, site selection, etc.
In 1889, the Ministry of Public Works sent an addition-
al questionnaire to the French departmental governments2
regarding change in the legislation on Atlantic salmon sh-
ing. It included questions about: observation of the different
kind of salmon; migration periods; number of migrations;
upstream limit of migrations; obstacles limiting migration
(dams, factories, traps, water quality, etc.); location of sh
passages (passage type, size) and sh passage effectiveness;
spawning grounds and spawning dates; sh condition before
and after spawning (size, colour, state of health, etc.); times
when juveniles were observed, the length of their stay in
the river before migrating to the sea; local names of juve-
nile sh; size and weight of sh caught; different methods
of shing; sh markets; if the opening and closing dates for
shing differed from those set by decree.

The data collected from the different historical sources
were managed in the database CHIPS (Catalogue HIsto-
rique des Poissons de la Seine). The database is built with
“sh observation” as the key entry eld and is the presence
or absence of a given species (or taxa) in a known location
with an observation date. In order to limit the effect due to
heterogeneity of the historical documents, we paid particu-
lar attention to assessing the accuracy and the quality of the
observations (Tab. I).
The data elds were chosen to t the information required
for distribution and assemblage quality analyses. The elds
are taxa identication, hydrographical references and geo-
graphical information, temporal information, biological and
ecological information, type of data, and data reliability.
Taxa identication
For each observation, we used the vernacular and Latin
sh names given in the historical sources and assigned a tax-
onomic code. The taxonomic codes are based on those used
by Keith (1998) and by the Ofce national de l’eau et des
1 AN F14 13600: Ponts et Chaussées answers to the Senate com-
mission inquiry for the rivers restocking (1879, July 29th), 1879.
2 AN F14 13603: Ponts et Chaussées answers to the ministerial cir-
cular (1888, December 27th) about legislation on Atlantic salmon
shing, 1889.
milieux aquatiques (ONEMA, the French National Agency
for Water and Aquatic Environments). Each code is linked
to a taxon, generally at the species level, following the Euro-
pean sh list from Kottelat and Freyhof (2007). As a result,
sh that have been recorded with different local or scientic
names can be easily sorted. For some genera, the recent list
by Kottelat and Freyhof (2007) distinguishes several species
that were initially listed as a single species in older publi-
cations (e.g. in the genera Cottus, Gobio and Phoxinus). In
CHIPS, this is not a problem because, in the Seine basin,
these genera are currently represented by a single species and
we have no reason to believe that this situation has changed
during the past two centuries. For example, the former Cot-
tus gobio (Linnaeus, 1758) is now differentiated into about
ten different species distributed across Europe, but only one
species, Cottus perifretum Freyhof, Kottelat & Nolte, 2005,
is present in the Seine basin (Keith et al., 2011).
For species identied by obsolete Latin names, we used
FishBase, which provides synonyms for scientific names.
Additionally, we developed a list of local sh names used
during the 19th century and the beginning of the 20th century
and we included the corresponding vernacular English and
French names next to the scientic names (Tab. II). This list
is largely based on an earlier list developed in 1890 by the
Commission in Charge of River Fishing Control3 and sup-
plemented by Belloc’s work (1898).
The sh taxonomic designation depends on the accuracy
of the observation by the observer and on the understand-
ing by the document’s author (not necessarily the same per-
son). In some cases, we could only determine the genus or a
complex of species. In these cases, we added supplementary
codes. For some cyprinids, especially some “carps”, which
could not be clearly identied, we used the code “CYPR”,
which includes for instance Cyprinus kollarii (Heckel, 1836)
and C. buggenhagii (Bloch, 1784) and refers to different
cyprinid species and hybrids that are not easily differenti-
ated. For the Petromyzontidae, 39 references could not be
assigned a genus. These sh were recorded under their local
names using the code “PETR”. For craysh, 112 observa-
tions were recorded under the code “ECRE” and seven obser-
vations of Mugilidae were entered under the code “MUGI”.
We use the code “TRX” to group together all the trout for
which the genus was not known (frequently only the labels
“trout” or “salmon trout” were used in the documents and
probably referred to resident and migratory forms of Salmo
trutta (Linnaeus, 1758). In some historic sources, other sal-
monid species, such as Salvelinus fontinalis (Mitchill, 1815)
and Oncorhynchus mykiss (Richardson, 1836) may have
been identied as “trout” or “salmon trout”. We could not
assign any taxonomic code to 76 observations.
3 AN F14 13606: Principales espèces uviales et leurs noms locaux
Commission in charge of river shing control report, 1890.
Be s l a g i c e t a l . CHIPS: a Seine basin historical database
Cybium 2013, 37(1-2) 79
Table II. - Species recorded with family names, English and French common names, French local names (families, species names and
French common names are mainly based on Keith et al., 2011; English common names are from Fishbase and French local names are from
Belloc, 1898).
Species  


 
Petromyzon marinus (Linné,
1758)
Petromyzontidae Sea lamprey Lamproie
marine
Anguille, Lampresse, Grande lamproie
Lampetra planeri (Bloch, 1784) Petromyzontidae European brook
lamprey
Lamproie de
Planer
Chatouille, Lamproie sucet, Petite lamproie
Lampetra uviatilis (Linné,
1758)
Petromyzontidae River lamprey Lamproie de
rivière
Lamproie uviatile, Petite lamproie,
Chatouille, Sept-œil, Sept-œil rouge, Sept-œil
aveugle
Acipenser sturio (Linné, 1758) Acipenseridae Sturgeon Esturgeon Atargeon
Anguilla anguilla (Linné, 1758) Anguillidae European eel Anguille Cibèle, Cive, Civèle, Civelle
Alosa alosa (Linné, 1758) Clupeidae Allis shad Grande alose Hareng alose, Clupée alose
Alosa fallax (Lacepède, 1803) Clupeidae Twaite shad Alose feinte Finte, Caluyau, Feinte œuvrée, Clupée feinte,
Pucelle
Tinca tinca (Linné, 1758) Cyprinidae Tench Tanche Tinche, Tenca, Tenco, Beurotte
Leucaspius delineatus (Heckel,
1843)
Cyprinidae Belica Able de Heckel
Alburnus alburnus (Linné, 1758) Cyprinidae Bleak Ablette Abiot, Ablet, Aublet, Blanchaille, Blanchet,
Douzai, Douzain, Ovelle, Auble, Blison,
Dormelle
Barbus barbus (Linné, 1758) Cyprinidae Barbel Barbeau
uviatile
Barbillon, Barberin
Rhodeus amarus (Bloch, 1782) Cyprinidae Bitterling Bouvière Péteuse, Rosière
Blicca bjoerkna (Linné, 1766) Cyprinidae White bream Brème
bordelière
Petite brème, Harriot, Henrriot, Blike
Abramis brama (Linné, 1758) Cyprinidae Fishwater
bream
Brème
commune
Hazeau, Brenne
Hypophthalmichthys molitrix
(Valenciennes, 1844)
Cyprinidae Silver carp Carpe argentée
Carassius carassius (Linné,
1758)
Cyprinidae Crucian carp Carassin Carasche, Carreau
Carassius auratus (Linné, 1758) Cyprinidae Goldsh Carassin doré Daurade de Chine, Cyprin doré, Poisson-
rouge
Carassius gibelio (Bloch, 1782) Cyprinidae Prussian carp Carassin argenté Carpe Gibèle
Cyprinus carpio (Linné, 1758) Cyprinidae Common carp Carpe Kèrpaille, Kèrpe
Squalius cephalus (Linné, 1758) Cyprinidae Chub Chevaine Meunier, Juène, Catis, Cabeda, Able meunier,
Cavergne, Cheneviot, Cherverne, Momer,
Rotisson, Vilain, Vilna, Vilnachon
Rutilus rutilus (Linné, 1758) Cyprinidae Roach Gardon Roche, Gardon rouge, Gardon blanc,
Rousseau, Able rosse, Rosse, Rossat, Rousse,
Ryssling
Gobio gobio (Linné, 1766) Cyprinidae Gudgeon Goujon Goiffon, Goiffou, Goujin, Gof, Jol, Tragnan,
Chabroua
Chondostroma nasus (Linné,
1758)
Cyprinidae Common nase Hotu Aloge, Alonge, Allonge, Ame noire, Seue
grise, Seuffre, Écrivain, Nez, Mulet, Nase
Leusicus idus (Linné, 1766) Cyprinidae Ide Ide mélanote
Scardinius erythrophtalmus
(Linné, 1758)
Cyprinidae Rudd Rotengle Charin, Roche, Rosse, Rochard, Gardon
rouge, Rousseau
Alburnoides bipunctatus (Bloch,
1782)
Cyprinidae Chub Spirlin Able grise, Éperlan de Seine, Épelan de Seine,
Able bordé, Able brodé, Able rayé, Lignotte,
Lugnotte, Lorette, Lurette, Louvotte, Rieland
CHIPS: a Seine basin historical database Beslagic e t a l .
80 Cybium 2013, 37(1-2)
Species  


 
Phoxinus phoxinus (Linné,
1766)
Cyprinidae Eurasian
minnow
Vairon Arlequin, Beuzou, Véron, Woéron, Gravier
Leuciscus leuciscus (Linné,
1758)
Cyprinidae Common lace Vandoise Seuffe, Gravelet, Ventoise
Misgurnus fossilis (Linné, 1758) Cobitidae Weathersh Loche d’étang Misgurne, Grande kerliche, Palmo
Cobitis taenia (Linné, 1758) Cobitidae Spine loach Loche de rivière
Barbatula barbatula (Linné,
1758)
Nemacheilidae Stone leach Loche franche Barbotte, Barbette, Barbillon , Barbotin,
Loque, Enmantelle, Mantelle
Ameiurus melas (Ranesque,
1820)
Ictaluridae Black bullhead Poisson-chat
Silurus glanis (Linné, 1758) Siluridae Wels catsh Silure
Esox lucius (Linné, 1758) Esocidae Northern pike Brochet Aiguillon, Bécot, Bécquet, Bec-de-canne
Osmerus eperlanus (Linné,
1758)
Osmeridae Pond smelt Éperlan Épelan
Coregonus lavaretus (Linné,
1758)
Salmonidae European
whitesh
Corégone Féra, Ferra, Lavaret
Coregonus clupeoides
(Lacépède, 1803)
Salmonidae Powan Corégone
Salvelinus umbla (Linné, 1758) Salmonidae Artic char Omble chevalier Ombre
Thymallus thymallus (Linné,
1758)
Salmonidae Grayling Ombre commun
Salmo salar (Linné, 1758) Salmonidae Atlantic salmon Saumon
atlantique
Bécard, Saumon Rille
Oncorhynchus tshawytscha
(Walbaum, 1792)
Salmonidae Chinook salmon Saumon quinnat Quinnat, Saumon de Californie
Salvelinus fontinalis (Mitchill,
1815)
Salmonidae Brook trout Saumon de
fontaine
Truite de fontaine
Oncorhynchus mykiss (Richard-
son, 1836)
Salmonidae Rainbow trout Truite arc-en-
ciel
Hucho hucho (Linné, 1758) Salmonidae Huchen Huchon
Salmo trutta fario (Linné, 1758) Salmonidae Brown trout Truite fario Truite de rivière, Truite saumonée, Truitie
Lota lota (Linné, 1758) Gadidae Burbot Lote Moustèle, Moutelle, Barbote, Barbotte,
Chatoille, Alote
Gasterosteus gymnurus (Cuvier,
1729)
Gasterosteidae Three-spined
stickleback
Epinoche Picot, Savenier, Estrangla, Darselet, Arselet,
Épingale
Pungitius laevis (Cuvier, 1829) Gasterosteidae Ninespine
stickleback
Epinochette Marichand
Liza ramada (Risso, 1826) Mugilidae Thinlip grey
mullet
Mulet porc Muge capiton
Gymnochephalus cernuus
(Linné, 1758)
Percidae Ruffe Grémille Perche goujonnière, Perche goujonnée,
Grenillet, Perche à goujon, Chagrin, Grimon
Perca uviatilis (Linné, 1758) Percidae European perch Perche Perco, Hurlin, Perchat, Perchelle
Sander lucioperca (Linné, 1758) Percidae Pike-perch Sandre Sandat
Micropterus salmoides
(Lacepède, 1802)
Centrarchidae Largemouth
black bass
Black-bass
Lepomis gibbosus (Linné, 1758) Centrarchidae Pumpkinseed Perche-soleil
Cottus perifretum (Linné, 1758) Cottidae Bullhead Chabot Têtard, Séchot, Bavard, Chaboisseau,
Chabaou, Bânes, Cafard, Jacquard, Cabot,
Chamsot, Sabot, Sabotier, Chapsot, Chafaux,
Caborgne
Table II. - Continued.
Be s l a g i c e t a l . CHIPS: a Seine basin historical database
Cybium 2013, 37(1-2) 81
Hydrographical references and geographical information
In the database, each fish observation was associated
with a corresponding water body described by three charac-
teristics: the watershed (in this case, the Seine River basin),
the water body name, and the water body type (river, pond,
canal). The name of the water body was included as it was
reported in the historical source. Because of the wide het-
erogeneity of geographic scales used in historical sources, it
was not possible to propose a unique scheme to satisfactorily
describe locations for all observations. Therefore, we used
four levels to specify the spatial location of the observations.
The coarser level is the region and the database includes a
pull-down list of the regions in the Seine basin. When pos-
sible, we also noted the department and the nearest city or
village. Some of the observations correspond to a specic
location or to a river reach with dened upstream and down-
stream limits. This is the most precise geographical informa-
tion in the database. We also used a free entry data eld for
other geographical information that cannot be included in
the four previous elds.
Temporal information
A date was given in the database for each reference and
corresponds to the date of the sh observation. All the dates
were recorded under the format dd/mm/yyyy. The date of
observation was rarely given with precision in the historical
record. In such cases, the “observation date” eld registers
the date with as much precision as possible. For instance, if
a sh was observed in May 1840, we used 01/05/1840 and if
a species was observed in 1878, we used 01/01/1878. When
the observation lacked any date, we used the publication
date, which is specied in the eld “Type of date”. A pull-
down list (exact date, period, date of knowledge, publication
date, and rst and last observation dates) gives the different
types of information.
To complete the field “observation date” and to detail
dating information, we used a “temporal detail” pull-down
list (exact date, exact month and year, exact year, several
year range, decade, and century).
Biological and ecological information
The presence or the absence of sh taxa is the key infor-
mation eld in CHIPS. Information related to species abun-
dance was also included when available in the archives. The
reason for the presence or absence of a species (stocking,
introduction, extinction) was indicated where possible.
Details about the characteristics of the river reach as they
relate to sh ecology were also noted. These details are par-
ticularly useful for migratory sh as they provide informa-
tion such as location of spawning grounds, growth areas, and
upstream migration limits.
Most of the historical archives contained complementary
ecological or biological information. Because of their con-
siderable variability, it was not possible to include them in
the main database. However, we did keep this information in
a eld where we noted if the historical source included sup-
plementary data, such as sh ecology (particularly spawning
dates), biometry (sh size), catch number, and sh health.
Type of data and reliability
Observations are often recorded in reports and public
inquiries. In CHIPS, they were separated into three cat-
egories: (1) catch/direct observation documented by an
observer: the observation is considered to be quite reliable;
(2) inquiry/summary: for example, an ofcial inquiry that
collects information from observers. In the data eld “Other
information”, we indicated if it was either a catch or an
observation; and (3) story or account: a second-hand account
told to the author but not veried. This information may not
be accurate.
To indicate the accuracy of each observation, we added a
eld called “Observation quality” that is based on our assess-
ment of data reliability. It takes into account the taxa identi-
cation, the spatial location, and the observation date. There
are four categories: (1) accurate data: taxa identification,
location, and date are precisely given; (2) partially accurate
data: location and/or date are given with some vagueness;
(3) possible inaccuracy: where we have reasons to doubt the
Species  


 
Platichthys esus (Linné, 1758) Pleuronectidae European
ounder
Flet
Austropotamobius pallipes
(Lereboullet, 1858)
Astacidae Écrevisse à
pieds blancs
Astacus astacus (Linné, 1758) Astacidae Écrevisse à
pieds rouges
Écrevisse commune, Cancre, Craibosse,
Creuviche, Creuvisse, Écrebisse, Équeurvisse,
Greuche
Orconectes limosus (Ranesque,
1817)
Cambaridae Écrevisse
américaine
Table II. - Continued.
CHIPS: a Seine basin historical database Beslagic e t a l .
82 Cybium 2013, 37(1-2)
taxa identication, location or date; and (4) incorrect data:
where an observation is clearly inaccurate.
Possible links with other databases
The Sandre (Service d’administration nationale des don-
nées et référentiels sur l’eau) of Onema develops water ref-
erence data sets to promote exchanges between the French
producers of public water data. In order to enable future data
interchange with such databases developed by Onema and
improve the CHIPS database accessibility for a larger audi-
ence, we used the same taxonomic codes and references.


A total of 4283 observations were collected in histori-
cal archives and included in the database. Absence of a taxa
accounted for about 5% of observations. Presence/absence
data had some indications of species abundance for a quarter
of the observations.
Even though published sources represented less than
the half of the documents (Fig. 1), they resulted in approxi-
mately three quarters of the observations. In terms of data
quantity, published sources contained the largest part of the
data. However, handwritten archives frequently provide
obscure or totally new information. This was especially true
in governmental archives for migratory and commercial spe-
cies (for examples, see the questionnaires referenced in the
“Material and methods” section).
About 5% of the observations reported fish restocking
activities (about 1% for species introduction attempts and
2% for extinction events). Additional information about
sh ecology (13%), biometry (14%), catches (8%), and sh
health (less than 1%) was also available in archive sources.
Species and taxa
In total, 58 species or taxa were identied (Tab. II). They
included the following families (with the number of species
in parenthesis): Petromyzontidae (3), Acipenseridae (1),
Anguillidae (1), Clupeidae (2), Cyprinidae (22), Cobitidae
(2), Nemacheilidae (1), Ictaluridae (1), Siluridae (1), Esoci-
dae(1), Osmeridae (1), Salmonidae (11), Gadidae (1), Gas-
terosteidae (2), Mugilidae (1), Percidae (3), Centrarchidae
(2), Cottidae (1) and Pleuronectidae (1) and for crayfish
Astacidae (2) and Cambaridae (1). The two most diverse
families in the Seine basin are the Cyprinidae (37%) and the
Salmonidae (18%).
The species most frequently observed were those com-
mon in the Seine basin and preferentially caught by sher-
men and also in aquaculture (Fig. 2). This is the case for the
trout (mix of taxa), which accounts for more than 7% of all
observations, Salmo salar Linnaeus, 1758, Perca uviatilis
Linnaeus, 1758, and Esox lucius Linnaeus, 1758. Anguilla
anguilla (Linnaeus, 1758) has a protection designation that
has changed over time, including a high value species, a par-
tially protected species or a pest species. During the last two
centuries, restocking measures and eradication campaigns
have both been conducted for A. anguilla. Between 1870 and
1890, young A. anguilla were released into many rivers in
the Seine basin. In 1888, in the Department of Aube, 190 000
A. anguilla juveniles were reintroduced into rivers4. In 1877,
thousands of A. anguilla were stocked in small tributaries
of the lower Seine River (particularly in the Cailly, Robec,
and Lézarde rivers) in order to maintain populations5. In
1964, A. anguilla was declared by decree to be undesirable
in salmonid rivers and extensive destruction of populations
was undertaken over nearly twenty years. Finally, in 1985,
4 AN F14 13609: Department of Aube, Ponts et Chaussées engi-
neer report, 1889
5 AN F14 13609: Department of Seine inférieure, Ponts et
Chaussées engineer report, 1879
Figure 2. - Main species in the database
(% of observations). Black bars refer to
taxa identication higher than species
level.
Be s l a g i c e t a l . CHIPS: a Seine basin historical database
Cybium 2013, 37(1-2) 83
A. anguilla was removed from the French list of pest spe-
cies (Boude et al., 2007) and the species is now protected
throughout Europe (Anonyme, 2010).
Space and time
Data from more than 220 water bodies were recorded.
Most data were from rivers (80%). The rest was divided
between ponds (12%) and canals (8%). The Seine River
was the water body the most cited in historic sources (23%)
(Tab. III). Major tributaries such as the Yonne, Marne, and
Oise rivers and, to a lesser extent, the Eure and Loing riv-
ers were also cited. There were also some observations from
smaller streams (Fig. 2).
About twenty canals were identied in the documents.
The two major ones were the Bourgogne Canal (35%) and
the Nivernais Canal (15%), both in the Bourgogne region.
There were also many observations for ponds, which were
signicant shing reserves for anglers and sh farmers.
The data cover a large part of the Seine basin and all the
major rivers are mentioned (Fig. 3).
A large part of the data was assigned to the regional scale
(93%) [30% in Bourgogne, 20% in Champagne-Ardenne,
19% in Île-de-France, 16% in Haute-Normandie, 6% in
Picardie, and 2% in Centre], and at the departmental scale
(85%). Fifty-eight percent of data was associated with a city
or a village, but only 7% was precisely located on a river
reach (or a lake or pond).
Table III. - Principal waterbodies.
Major streams Data (%)
Seine 23.0
Yonne 7.5
Marne 6.7
Oise 3.5
Armançon 3.2
Eure 3.2
Bourgogne canal 3.1
Loing 3.0
Vanne 2.5
Others 44.3
Figure 3. - Waterbodies with historical sh data.
CHIPS: a Seine basin historical database Beslagic e t a l .
84 Cybium 2013, 37(1-2)
Because we focused our archival research on the modern
period, a large majority of data (98.5%) was from the 19th
and 20th centuries. In anticipation of a probable, future, tem-
poral extension of our database, older data were occasion-
ally recorded in CHIPS. The oldest ones date back to the 16th
century.
Data type and reliability
More than 90% of the collected data was classified as
inquiry/summary. Five percent were direct observations or
catches, and the remaining data (4%) were stories and sec-
ond-hand accounts.
Most references (90%) were considered to be accurate.
Only 10% were partially accurate or uncertain. These last
two categories contained stories or second-hand accounts
and, in some cases, were observations on extinction. Authors
may have confused extinction of a species with its absence in
a given river or location. Data in these two categories should
be used with caution.

During the past two centuries, 58 species or taxa have
been identied in the Seine basin (Tab. II). Species for which
the distribution seems to have changed the most are migra-
tory fish. Several species became extinct in the beginning
of the 20th century. Introduced species distribution changed
with on-going colonization of the Seine River system.
Non-native species
Twenty-two non-native species were referenced in the
Seine River system (Tab. IV). The introduction method var-
ied, as well as the species’ country of origin. Some species
were introduced by man and others colonized the basin using
canals connecting catchments (Nelva-Pasqual, 1985; Boët et
al., 1999).
The rediscovery by Remy and Gehin in 1842 of the arti-
cial reproduction of trout (Haxo, 1853) and the creation of
the rst sh breeding institution at Huningue (Haut-Rhin)
responsible for egg distribution to restock French rivers,
in 1853, played a major part in planned fish introductions
(Keith et al., 2011).
For several non-native species, there were contradictions
between the date of the first observation in the historical
record and the date cited in the literature for their introduc-
tion in the Seine basin (Belliard, 1994; Boët et al., 1999).
For most introduced species, the observation date was sever-
al years after their known introduction date. For some others,
such as Silurus glanis Linnaeus, 1758 and Leuciscus idus
Table IV. - List of non-native species present in the Seine basin. The rst observation date corresponds to the oldest date mentioned in the
CHIPS database. Dates of introduction cited in the literature are mainly extracted from Belliard (1994), Boët et al. (1999) and Keith and
Allardi (2001). * dates corresponding to the Seine basin.
Non-native species First observation date Date of introduction in the Seine basin or
in France cited in the literature
Carassius carassius (Linné, 1758) 1868 (De La Blanchère, 1868) 18th century
Carassius auratus (Linné, 1758) 1843 (Ray, 1843) 18th century
Carassius gibellio (Bloch, 1782) 1843 (Ray, 1843) 20th century
Cyprinus carpio (Linné, 1758) 1851 (Ray, 1851) Middle ages
Chondrostoma nasus (Linné, 1766) 1860 (Moreau, 1898) About 1860
Hypophthalmichtys molitrix (Valenciennes, 1844) 1948 (Elluin, 1948) In the last part of the 20th century
Leucaspius delineatus (Heckel, 1843) 1946 (Spillmann, 1961) 20th century
Leuciscus idus (Linné, 1766) 1864 (Bert, 1986) About 1995
Ameirus melas (Ranesque, 1820) 1871 (Jeunet, 1894) 1871
Silurus glanis (Linné, 1758) 1875 (Millet, 1875) About 1980
Oncorhynchus mykiss (Richardson, 1836) 1893 (AN F* 13611-Jacob, 1896) About 1880
Oncorhynchus tshawytscha (Walbaum, 1792) 1878 (Jeunet, 1891) 1877 in France
Salvelinus umbla (Linné, 1758) 1863 (F* 6048-1869) Autochthonous in France, in the Alps
Salvelinus fontinalis (Mitchill, 1815) 1885 (Vacher, 1892) About 1880
Hucho hucho (Linné, 1758) 1864 (AN F* 13595-Coste, 1864) In the last part of the 20th century in France
Thymallus thymallus (Linné, 1758) 1965 (Spillmann, 1965) About 1960
Coregonus lavaretus (Linné, 1758) 1861 (Roger-Desgenettes, 1863) Autochthonous in France, in the Alps
Coregonus clupeoides (Lacepède, 1803) 1893 (De Confévron, 1893) (disappear) In the last part of the 20th century in France
Gymnochephalus cernuus (Linné, 1758) 1797 (Lacombe, 1797) In the beginning of 18th century
Sander lucioperca (Linné, 1758) 1827 (Baudrillart, 1827) About 1960
Lepomis gibbosus (Linné, 1758) 1948 (Elluin, 1948) About 1885
Micropterus salmoides (Lacepède, 1802) 1904 (Roger, 1906) About 1890
Be s l a g i c e t a l . CHIPS: a Seine basin historical database
Cybium 2013, 37(1-2) 85
(Linnaeus, 1758), some observations predate the recog-
nised, successful introduction. It is possible that these
individuals were a remnant population from previous
introduction attempts thought to have failed. In 1854,
the Société impériale zoologique d’acclimatation was
created, whose mission was to introduce, acclimatize,
and domesticate useful or ornamental species (Keith et
al., 2011). Consequently, some sh were introduced for
scientic purposes (to increase diversity of sh fauna),
such as S. glanis, L. idus, Ameiurus melas (Ranesque,
1820), and Lepomis gibbosus (Linnaeus, 1758), and
some others for commercial purposes, such as Micro-
pterus salmoides (Lacepède, 1802), Salvelinus fonti-
nalis, Oncorhynchus mykiss, and O. tshawytscha (Wal-
baum, 1792). These last species originally came from
North America and were introduced into French rivers
during the 19th century to increase stocks, and were
much valued by French fishermen. This introduction
coincided with the development of angling as a sport.
For some species, especially salmonids, introduction
attempts did not result in established populations (e.g.
O. tshawytscha, Salvelinus umbla (Linnaeus, 1758),
and Coregonus sp.). Others are still present in the basin
today, probably due to continuous stocking practices
(e.g. S. fontinalis and O. mykiss). The cases of S. glanis
and L. idus illustrate that, for some species, repeated
introduction was necessary before permanent popula-
tions became established.
There have also been some unplanned introduc-
tions, notably of Sander lucioperca (Linnaeus, 1758)
and Chondrostoma nasus (Linnaeus, 1758). In the
beginning of the 19th century, Baudrillart (1827) noted
the presence, though very rare, of S. lucioperca in the
Seine River. This rst mention for the Seine catchment
is based on an account that could not have been checked
by the author. The rst catch in France was document-
ed much later, in 1888, in the river Rhine (Armengaud,
1962 in Keith et al., 2011). At the beginning of the 20th
century, this species from central Europe extended its
range to the west and the south, colonizing the canals
connecting the Rhine River to the Marne and Rhône
Rivers (Spillmann, 1961). Around 1950, the coloniza-
tion of Seine basin was confirmed and even if canal
connections between catchments were major coloniza-
tion pathways, stocking promoted by French sheries
associations, considerably favoured the establishment
of sander (Goubier, 1975). C. nasus is a similar exam-
ple. It is probable that many sh species used the canals
Figure 4. - Distribution changes of Salmo salar in the Seine
basin during the last two centuries.
Main migratory axis; Location of active spawning
grounds; Sporadic salmon observations; Stocking
attemps.
CHIPS: a Seine basin historical database Beslagic e t a l .
86 Cybium 2013, 37(1-2)
connecting the different European river basins to reach the
Seine basin (Nelva-Pasqual, 1985).
Evolution of migratory sh distribution: the case of Salmo
salar
Little is known about the early distribution of S. salar
in the Seine River basin. During the 19th century, spawning
grounds were recorded only in some small tributaries of the
Seine River estuary (Gadeau de Kerville, 1897) and in the
upper basin on the Cure River (Moreau, 1898; Poplin, 1952;
Fig. 4). It was commonly thought that its distribution area
was restricted to the Seine-Yonne-Cure axis and to a lesser
extent to the mouth of the Eure, Andelle and Epte Rivers, all
situated in the Haute-Normandie region (Thibault, 1987).
Even though the Seine-Yonne-Cure axis represented the
main path for the migration of S. salar during the 19th cen-
tury, our data show that the species was also observed (but in
low numbers) in several other places throughout the Seine
basin (Fig. 4), suggesting an earlier, larger, geographical dis-
tribution.
The cause of salmon population decline during the 19th
century is often attributed to overfishing, pollution and
development of reservoirs and dams in the upper basin that
were built to oat timber downstream (Belliard, 1994). The
construction of the Settons Dam (19 m in height) on the Cure
River was completed in 1858 and closed access to upstream
spawning grounds (Moreau, 1898). The weir at Poses locat-
ed in the estuarine part of the Seine River was put in service
in 1885. It also contributed to the decline of migratory spe-
cies. In the beginning of the 20th century, the sh catch of
S. salar was only several tens of kilograms per year. During
the same period, it was about 57 tons per year in the Loire
basin (Euzenat et al., 1992).
Canalization of rivers for navigation purposes began
in 1830 in the centre of the basin and later extended to the
lower Seine River basin. It progressively increased the
number of barriers to sh migration (Lavollée, 1902). A sec-
ond phase of river canalization, starting in 1879, resulted in
higher weirs and lock systems. This precipitated the decline
of migratory stocks, particularly for Salmo salar (Mouchel
et al., 1998; Belliard et al., 2009). During the same period,
domestic and industrial pollution from Paris led to the pro-
gressive degradation of water quality in the lower Seine that
introduced a new and important negative pressure on migra-
tory sh populations (Lavollée, 1902; Belliard et al., 2009).
Our data also highlight the underestimation of the wide-
spread use of stocking starting in the second part of the 19th
century. Stocking with eggs or ngerlings was implemented
in many places in the basin (Fig. 4), including places with no
historical record of native salmon populations. Stocking did
not result in permanent populations.
Despite stocking and several attempts to reduce the neg-
ative impact of dams, the populations of S. salar declined
progressively, resulting in their extinction at the begin-
ning of the 20th century. However, relict populations may
have persisted later in some tributaries in the estuarine part
of the Seine. Between 1867 and 1895, a mean of two tons
(0.4-10.5 tons) of S. salar was still caught annually in sher-
ies in the Rouen region. Between 1896 and 1919, the total
annual catch of S. salar fell to a few tens of kilograms in the
same reach (Euzenat et al., 1992). In 1902, S. salar migra-
tions still occurred but to a much-diminished extent (Lavol-
lée, 1902) and, in 1920, regular migrations had denitively
stopped along the Seine-Yonne-Cure axis (Roule, 1920).
After the extinction of S. salar as a breeding population, the
Seine estuary still remained an attractive area for large sal-
monid sh (sea trout and, to a lesser extent, S. salar), even
during the 1960’s when the pollution level was at its highest
(Arrignon, 1967). No new upstream salmon migration was
observed until very recently (Perrier et al., 2010).
In 1970, anoxic events occurred at the waste water treat-
ment plant at Achères located just downstream of Paris
resulting in the elimination of several migratory shes (Bel-
liard et al., 2009; Rochard et al., 2009). Since the end of
the 1990’s, several migratory fish species extirpated from
the Seine catchment during the 20th century have under-
gone natural re-colonisation. This results directly from the
on-going improvement of water quality in the lower part of
the Seine River (Belliard et al., 2009). Today, S. salar swims
up the Seine at least to downstream of Paris. In 2008, 260
specimens of S. salar were counted at the Poses sh pass and
some spawning grounds have been identied in small tribu-
taries of the estuarine part of the Seine River, particularly in
the Andelle and Risle catchments.
Local assemblage evolution: three examples from the
“Département de l’ Yonne” (Seine basin)
We studied change in the sh community composition in
the three river reaches, for which historic species abundance
was the most precisely documented at the end of the 19th
century (Fig. 5). The historical data are from Moreau (1897,
1898), who specically described sh species presence and
abundance for several rivers and streams in the “Départe-
ment de l’Yonne” at the end of the 19th century. Current sh
data are from numerous electroshing sampling events. To
facilitate the comparison between historical and electrosh-
ing data, the abundance of a sh was coded from 1 to 5. His-
torical data were coded 1 for a species documented as “rare”
or “very rare”, 2 for “quite rare” or “uncommon”, 3 for
“somewhat”, 4 for “common”, and 5 for “very common”. To
assess present day species abundance, we used a recent set
of electroshing data from the same river reaches. A species
was coded 1 when it was infrequently sampled with a low
population density, and was coded 5 when it was systemati-
cally sampled with a high population density (intermediate
situations were coded 2, 3 or 4, depending on species occur-
Be s l a g i c e t a l . CHIPS: a Seine basin historical database
Cybium 2013, 37(1-2) 87
rence and density). We are aware that these two methods of
assessing species abundance are probably not totally equiv-
alent. However, we think they are useful for highlighting
major changes in sh assemblage composition.
Between the end of the 19th century and the decade
2000-2010, the sh assemblage changed considerably in the
Créanton River, the smallest river, with a signicant reduc-
tion of limnophilic species (preferring slow owing condi-
tions). In the Ouanne River, the proportion of rheophilic spe-
cies (preferring high ow conditions) increased [e.g. Salmo
trutta fario Linnaeus, 1758, Lampetra planeri (Bloch, 1784),
Leuciscus leuciscus (Linnaeus, 1758) and Squalius cephalus
(Linnaeus, 1758)]. In the Armançon, which is the largest
river of the three, the distribution remained about the same.
At this point no definitive conclusion can be drawn to
explain the sh community change observed in
smaller streams. Instead, we propose hypoth-
eses about both large spatial scale and local
processes. If climate warming has had a sig-
nicant impact on the sh population at these
sites, we might note a general increase in warm-
water species, which was not systematically
observed. Indeed, the sh community changes
are different from one site to another, and it is
likely that they are controlled by local factors.
The local modifications of the morphology
of the streams, such as channelization, with a
consequent increase the river slope, and the
removal of low head dams, with a consequent
increase in the ow velocity and/or a reduction
of the river depth, could explain the reduction
of limnophilic sh species and/or the increase
of rheophilic species observed in the Créan-
ton and the Ouanne rivers. At a regional scale,
reduction of lakes and ponds in the catchment
area, and disruption of the connections between
small streams and large rivers, which are colo-
nisation sources for numerous sh species, may
also explain the reduction in limnophilic spe-
cies in the Créanton River. Recent improvement
of water quality might also explain part of the
change in the sh assemblage at the two small-
est sites. Finally, change in the sh assemblage
appeared to be more pronounced in smaller
rivers, suggesting that they may have suffered
more drastic environmental changes than in
larger rivers. This tendency should be conrmed
by further analysis on additional rivers experi-
encing on-going anthropogenic pressure.

The CHIPS database, presented here for
the rst time, compiles a considerable amount of historical
data from the last two centuries about sh distribution in the
Seine River basin (see Annexe 1). Some data sources are
well-known, classical ichthyology books, but the majority of
the sources were difcult to access (particularly handwrit-
ten papers) and most information came from very detailed
research in different archives and libraries. The data greatly
expand our knowledge of the Seine sh fauna and its history.
This database project was originally developed during inter-
disciplinary discussions with a variety of specialists: fish
biologists and ecologists, historians, and archaeozoologists.
In the future, we plan to extend CHIPS to a broader tem-
poral scale and, possibly, include complementary data sourc-
es, such as drawings, photographs, maps, and archaeological
Figure 5. - Species abundance for three rivers: Créanton River (top), Armançon
River (middle), Ouanne River (bottom); in grey: historical data, in black: actual
data.
CHIPS: a Seine basin historical database Beslagic e t a l .
88 Cybium 2013, 37(1-2)
data. We also plan to georeference the data in GIS in order
to link each historical sh observation with a site. However,
georeferencing will be a complex task, rst because the loca-
tion of historical sh observations can be very imprecise and
second because river channels and other waterbodies have
undergone considerable change during the historical time
period (for example, the ponds “du Der”, for which we have
historical data, have now disappeared and have been replaced
by a lake, “Lac du Der”, which covers a much larger area).
The types of data gathered in CHIPS might be useful to
environmental history specialists to better describe the evo-
lution of aquatic environments through historical time and
to understand the relationships between human societies and
freshwater sh communities. Our database also makes new
information available to ecologists, including such subjects
as sh community response to climate change and to anthro-
pogenic pressure over long time periods (colonization and
extinction mechanisms, their impact on their environment,
and conservation of endangered species). While recent cli-
mate warming is considered as a major driver for long term
modications in French river sh communities (Daufresne
and Boët, 2007), preliminary analysis of some of the CHIPS
data suggests, that at a local scale, other anthropogenic pres-
sures might also be decisive. Our data may contribute to the
on-going discussion on the concept of “reference condi-
tions” that is at the centre of biomonitoring tools’ develop-
ment (Hering et al., 2010).
Finally, CHIPS is a step in the development of interdisci-
plinary research, a necessary, integrative approach needed to
thoroughly understand how human societies have modied
aquatic ecosystems over years and centuries, and also show
sh communities answer to these anthropogenic pressures
on the aquatic environment. Understanding these interac-
tions will lead to improvement in sh management planning
for the restoration and preservation of species and their eco-
systems.
. – This project was nancially supported by
Onema (the French National Agency for Water and Aquatic Envi-
ronments) and the PIREN-Seine Program. We are particularly
grateful to L. Beaulaton, N. Poulet, and C. Pénil (Onema) and
P. Keith, S. Corbin, and H. Dacosta (MNHN) for helpful discus-
sions. We thank Deborah Slawson who greatly helped with the
proofreading of this manuscript.
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90 Cybium 2013, 37(1-2)


Fontainebleau’s archives
Versement 19770761 : transports, service des voies navigables
et du domaine public
* art. 19-21 : Pêches scientiques (1925-1975)
Versement 19890468 : agriculture, direction forêts
* art. 1-12 : Commissions de la pêche fluviale (1942-1949),
Commissions des embouchures uviales (1899) : questionnaire sur
les migrateurs, Commissions des estuaires (1924)
* art. 32 : Pêche dans les étangs, dossiers d’affaires (1899-
1941)
* art. 44 : Législation sur la pêche (1941-1961)
Versement 19920558 : environnement, direction de la pêche
* art. 1-4 : Projets de lois et décrets divers sur la pêche uviale
(1986-1939)
* art. 10-11 : Exploitation de la pêche (baux et adjudications,
circulaires, correspondances (1922-1982)
* art. 18-24 : Espèces (1877-1984)
Caran
Série F10 : agriculture
* 4361 : Pêche dans les cours d’eau non navigables ni ottables
Série F14 : travaux publics
Navigation uviale et maritime, police des eaux, hydraulique et
agriculture, industrie
* 3599 : Législation sur la pêche : révision du décret du 10 août
1875
* 13595 et 13596 : Législation de la pêche (1802-1890)
* 13598 et 13599 : Applications et révisions du décret du 10
août 1875
* 13600 à 13606 et 13609 : Révision de la législation (1879-
1911), Réglementation de la pêche du saumon (1832-1898), Echel-
les à poissons (1892-1896), Anguilles et écrevisses (1880)
* 13611 : Législation de la pêche. Pisciculture (1854-1913)
* 13613 à 13618 : Législation de la pêche, Barrages et échelles
à poisson (1843-1910),
* 13620 et 13621 : Législation de la pêche. Réserves de pêche
(1868-1934)
* 6048 : Service hydraulique des Ponts et Chaussées - Pêches-
uviales : comptes-rendus d’inspection (1860-1870)
* 16564 : Police de la pêche et de la navigation : réglementa-
tion de la pêche

Série S : travaux publics et transports
14 S Pêche uviale
* 3 : Pêche uviale, règlements
Arrêtés de la police uviale et de la préfecture de l’Eure, cor-
respondances, rapports des Ponts et Chaussées
* 6 : Pêche uviale, pisciculture
Rapports du service de la pêche des Ponts et Chaussées
Délibérations du conseil général
* 11 : Pêche sur l’Andelle et la Charentonne
Police de la pêche, rapports d’inspection des Eaux et forêts, let-
tres de plaintes
* 12 : Pêche sur l’Eure (1941-1950)
Rapports des Ponts et Chaussées, des Eaux et forêts, procès-
verbaux d’alevinage, délits de pêche
* 13 : Pêche sur la Seine
6
ALBERT-PETIT G., CUNISSET-CARNOT, JOUSSET DE BEL-
LESME, JOYEUX-LATFUIE, LAUNAY M., MAISON E. ,
MARSILLON C., CARRÉ M., MINVILLE, PÉREZ C.,
POYET G. & VOULQUIN G., 1933. - La pêche moderne.
1 vol., 590 p. Paris: Larousse
ANDRÉ M., 1935. - Sur un prétendu caractère spécique de l’écre-
visse à pieds blancs (Astacus pallipes). Bull. Soc. Cent. Aquic.
Pêche, 42: 53-54.
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6 : “For some references (historical data), initial
of author’s name are not mentioned, as they do not appear in
books and library contents lists.”
Be s l a g i c e t a l . CHIPS: a Seine basin historical database
Cybium 2013, 37(1-2) 91
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... These historical written sources are of multiple types (early scientific and naturalist literature, fishery laws, administrative surveys on fish stocks, catch records, river engineering projects, observations by fishermen and anglers, etc.), each type of source having its own advantages and limitations. For the Seine River basin, a database called CHIPS was developed to gather historical written sources on freshwater fish in order to improve knowledge about past species distribution and composition of communities [7]. While the oldest data stored in this database date back to the sixteenth century, most of the observations relate to the period from the nineteenth to the first half of the twentieth century and are therefore complementary to the more recent electrofishing data set. ...
... Several studies have analysed changes in composition of fish communities in different localities of the Seine River basin since the late nineteenth and early twentieth century. Such studies relied on historical sources and more recent scientific sampling data [7,26,27], and, overall, they examined community changes in about 30 river stretches with varying environmental characteristics (i.e. from small rural rivers to the lower Seine River). Although the data and methods used in these studies were not always similar (e.g. ...
... Reconstruction of long-term trajectories of fish community composition (proportion of rheophilic/oxyphilic species vs. limnophilic/low-oxygen-tolerant species) for different watercourse types in the Seine basin. This schematic and simplified representation was established on the basis of historical data available for about 30 sites covering the Seine basin (see[7,26,27] for original studies) ...
... These historical written sources are of multiple types (early scientific and naturalist literature, fishery laws, administrative surveys on fish stocks, catch records, river engineering projects, observations by fishermen and anglers, etc.), each type of source having its own advantages and limitations. For the Seine River basin, a database called CHIPS was developed to gather historical written sources on freshwater fish in order to improve knowledge about past species distribution and composition of communities [7]. While the oldest data stored in this database date back to the sixteenth century, most of the observations relate to the period from the nineteenth to the first half of the twentieth century and are therefore complementary to the more recent electrofishing data set. ...
... Several studies have analysed changes in composition of fish communities in different localities of the Seine River basin since the late nineteenth and early twentieth century. Such studies relied on historical sources and more recent scientific sampling data [7,26,27], and, overall, they examined community changes in about 30 river stretches with varying environmental characteristics (i.e. from small rural rivers to the lower Seine River). Although the data and methods used in these studies were not always similar (e.g. ...
... Reconstruction of long-term trajectories of fish community composition (proportion of rheophilic/oxyphilic species vs. limnophilic/low-oxygen-tolerant species) for different watercourse types in the Seine basin. This schematic and simplified representation was established on the basis of historical data available for about 30 sites covering the Seine basin (see[7,26,27] for original studies) ...
Chapter
Full-text available
Using both historical and current data, we retrace the long-term evolution of fish assemblages in the Seine River basin since 1880, from headwaters to upstream of the Seine River estuary. Successive phases are observed, related to anthropogenic impacts on habitat conditions and river water quality. Temporal trajectories were thus reconstructed on several reaches based on the change of the proportion of species’ ecological traits, in order to detect the main drivers of alteration. Contrasted trends occur between large rivers and small streams of the basin. In this context, migratory fish declined, whereas the proportion of non-native species increased in the fish community of the Seine River.
... For example, digital river network data are available at the global scale though HydroSHEDS (river network topology; Lehner et al., 2008) and Hydro-ATLAS (river reach covariates; Linke et al., 2019; see also Domisch et al., 2015). Fish species' occurrence records (e.g., Buisson et al., 2008;BeSlagic et al., 2013) and trait characteristics (e.g., Brosse et al., 2021;Froese and Pauly, 2021) have also been compiled in digital repositories and traditional publications. By combining these alternative data resources with the modeling procedure demonstrated here, it will be possible to model fish habitat suitability in new regions and to integrate the results in other conservation applications. ...
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Full-text available
Scenic rivers programs are a potential tool to conserve freshwater habitat but few studies have attempted to characterize fish habitat within scenic rivers. Using the Virginia Scenic Rivers Program as a case study, we built species distribution models for a representative set of Virginia freshwater fishes and tested whether model-predicted habitat suitability values for scenic rivers are consistently higher than the range-wide average values. We began by selecting 33 fish species that were broadly representative of the complete functional trait space comprised by Virginia's freshwater ichthyofauna. This subset included 11 state-listed imperiled species. Next, we built maximum entropy species distribution models for each of the 33 fishes and used the models to predict habitat suitability throughout each species' range. Habitat suitability within state-listed scenic rivers was then summarized and compared with the complete, state-wide distribution of habitat suitability for each species. For 21 of 33 species, model-predicted habitat suitability was significantly higher in currently listed Virginia scenic rivers than in the state-wide distribution; of these 21 species, 5 were imperiled taxa. Furthermore, habitat suitability within scenic rivers is predicted to exceed the range-wide average by a significant margin for 25 species, including eight imperiled species, if all pending scenic listing petitions are approved. We conclude that scenic rivers provide important conservation benefits to Virginia's freshwater fishes. We also note that our flexible, model-based process can be applied in other rivers and used to inform other types of freshwater conservation programs that seek to identify and protect the highest quality habitats.
... Researchers struggle to quantify historical fish community changes in rivers with a long history of urbanization. Observations of the fish community changes are anecdotal (e.g., River Thames, United Kingdom; Carter and England 2004) or take place long after anthropogenic alterations occur (e.g., Seine River, France; Beslagic et al. 2013). In this study, challenges in quantifying fish community changes included fish records taken after anthropogenic alterations, incomplete records since first fish collections, inferring expected fish communities from reference conditions, and uncertainty in historical flow. ...
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... To document past species distribution from the end of the eighteenth century to the midtwentieth century, we used the CHIPS database (Historical Catalog of Fishes of the Seine Basin), which compiles historical written sources [53]. Fish observations from the CHIPS database were updated, georeferenced, and used to map the historical distributions of the three studied species according to the locations of the most upstream presences on the hydrographic network [54]. ...
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Thesis
La première partie aborde, à travers des niveaux de perception temporelle, les aspects relatifs à l'évolution des peuplements piscicoles du bassin de la Seine. L'origine biogéographique de la faune est rappelée. Le poids des activités humaines sur la composition de l'ichtyocoenose actuelle est souligné et l'évolution de la structure des peuplements, depuis le milieu du siècle dernier, est détaillée pour quelques secteurs du bassin. La seconde partie analyse l'organisation actuelle des peuplements à l'échelle du bassin en liaison avec quelques paramètres de l'environnement. Deux facteurs structurants sont plus particulièrement examinés : le gradient longitudinal du réseau fluvial responsable d'une succession d'espèces de l'amont vers l'aval, et l'organisation régionale du bassin qui conduit à une différenciation des peuplements issus de rivières traversant des régions naturelles différentes.
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