Non-Archimedean Tame Topology and Stably Dominated Types (AM-192)

Over the field of real numbers, analytic geometry has long been in deep interaction with algebraic geometry, bringing the latter subject many of its topological insights. In recent decades, model theory has joined this work through the theory of o-minimality, providing finiteness and uniformity stat...

Celý popis

Uloženo v:
Podrobná bibliografie
Hlavní autoři: Hrushovski, Ehud, Loeser, François
Médium: E-kniha Kniha
Jazyk:angličtina
Vydáno: United States Princeton University Press 2016
Vydání:1
Edice:Annals of Mathematics Studies
Témata:
ISBN:9781400881222, 1400881226, 9780691161686, 0691161682, 9780691161693, 0691161690
On-line přístup:Získat plný text
Tagy: Přidat tag
Žádné tagy, Buďte první, kdo vytvoří štítek k tomuto záznamu!
Abstract Over the field of real numbers, analytic geometry has long been in deep interaction with algebraic geometry, bringing the latter subject many of its topological insights. In recent decades, model theory has joined this work through the theory of o-minimality, providing finiteness and uniformity statements and new structural tools.For non-archimedean fields, such as the p-adics, the Berkovich analytification provides a connected topology with many thoroughgoing analogies to the real topology on the set of complex points, and it has become an important tool in algebraic dynamics and many other areas of geometry.This book lays down model-theoretic foundations for non-archimedean geometry. The methods combine o-minimality and stability theory. Definable types play a central role, serving first to define the notion of a point and then properties such as definable compactness.Beyond the foundations, the main theorem constructs a deformation retraction from the full non-archimedean space of an algebraic variety to a rational polytope. This generalizes previous results of V. Berkovich, who used resolution of singularities methods.No previous knowledge of non-archimedean geometry is assumed. Model-theoretic prerequisites are reviewed in the first sections.
AbstractList Over the field of real numbers, analytic geometry has long been in deep interaction with algebraic geometry, bringing the latter subject many of its topological insights. In recent decades, model theory has joined this work through the theory of o-minimality, providing finiteness and uniformity statements and new structural tools.For non-archimedean fields, such as the p-adics, the Berkovich analytification provides a connected topology with many thoroughgoing analogies to the real topology on the set of complex points, and it has become an important tool in algebraic dynamics and many other areas of geometry.This book lays down model-theoretic foundations for non-archimedean geometry. The methods combine o-minimality and stability theory. Definable types play a central role, serving first to define the notion of a point and then properties such as definable compactness.Beyond the foundations, the main theorem constructs a deformation retraction from the full non-archimedean space of an algebraic variety to a rational polytope. This generalizes previous results of V. Berkovich, who used resolution of singularities methods.No previous knowledge of non-archimedean geometry is assumed. Model-theoretic prerequisites are reviewed in the first sections.
No detailed description available for "Non-Archimedean Tame Topology and Stably Dominated Types (AM-192)".
Over the field of real numbers, analytic geometry has long been in deep interaction with algebraic geometry, bringing the latter subject many of its topological insights. In recent decades, model theory has joined this work through the theory of o-minimality, providing finiteness and uniformity statements and new structural tools. For non-archimedean fields, such as thep-adics, the Berkovich analytification provides a connected topology with many thoroughgoing analogies to the real topology on the set of complex points, and it has become an important tool in algebraic dynamics and many other areas of geometry. This book lays down model-theoretic foundations for non-archimedean geometry. The methods combine o-minimality and stability theory. Definable types play a central role, serving first to define the notion of a point and then properties such as definable compactness. Beyond the foundations, the main theorem constructs a deformation retraction from the full non-archimedean space of an algebraic variety to a rational polytope. This generalizes previous results of V. Berkovich, who used resolution of singularities methods. No previous knowledge of non-archimedean geometry is assumed. Model-theoretic prerequisites are reviewed in the first sections.
Over the field of real numbers, analytic geometry has long been in deep interaction with algebraic geometry, bringing the latter subject many of its topological insights. In recent decades, model theory has joined this work through the theory of o-minimality, providing finiteness and uniformity statements and new structural tools. For non-archimedean fields, such as the p-adics, the Berkovich analytification provides a connected topology with many thoroughgoing analogies to the real topology on the set of complex points, and it has become an important tool in algebraic dynamics and many other areas of geometry. This book lays down model-theoretic foundations for non-archimedean geometry. The methods combine o-minimality and stability theory. Definable types play a central role, serving first to define the notion of a point and then properties such as definable compactness. Beyond the foundations, the main theorem constructs a deformation retraction from the full non-archimedean space of an algebraic variety to a rational polytope. This generalizes previous results of V. Berkovich, who used resolution of singularities methods. No previous knowledge of non-archimedean geometry is assumed. Model-theoretic prerequisites are reviewed in the first sections.
Author Loeser, François
Hrushovski, Ehud
Author_xml – sequence: 1
  fullname: Hrushovski, Ehud
– sequence: 2
  fullname: Loeser, François
BackLink https://cir.nii.ac.jp/crid/1130000796004273792$$DView record in CiNii
BookMark eNplkM1v1DAQxY2giLbskQPi0AghQQ8Bf8b2cbstH1KBSmzPluNMstlN4jTOUoW_vimJVBUuHo_eT2_ezBF61vgGEHpF8EciiPikpSIcY6UIpfQJWjzqn_7TH6AjionQQpBEPkeHmjGmlFD4BVqEsMUYE0kZk_wQLX_4Jl52blPWkIFtorWtIVr71le-GCLbZNGv3qbVEJ37umxsD1m0HloI0Yfl95hoevoSHeS2CrCY6zG6_nyxXn2NL39--bZaXsY2IUzIONdS5w40yERzmyQyI5hD6rRLaS4kMAnEQZoB2CxPrMTYMQ6WSJHnCbHsGJ1Ovjbs4DZsfNUH87uC1PtdMI_2f2BvbdVDl0HR7YfxY2rbuf_Y9xPbdv5mD6E3fy0dNH1nK3NxtuJEK6rUSL6ZSegqKLyZRkumRYJH9d2kNmVpXHn_EsLGW2OpE4w5lUzq-3EnE7YNve9mi61xfU_UH77Z3TwEKot2n1Zl2JRNYdquHMMP5ur66mz05IrJkXw9kwAwW2kuKMdi1N5OmrPBVmMcU_vGF51tN8EIITTDmt0BuWatwg
ContentType eBook
Book
Copyright 2016 Princeton University Press
Copyright_xml – notice: 2016 Princeton University Press
DBID I4C
E06
RYH
YSPEL
DEWEY 516
DOI 10.1515/9781400881222
DatabaseName Casalini Torrossa eBooks Institutional Catalogue
Princeton University Press eBooks
CiNii Complete
Perlego
DatabaseTitleList





DeliveryMethod fulltext_linktorsrc
Discipline Mathematics
EISBN 9781400881222
1400881226
Edition 1
Editor Loeser, François
Editor_xml – sequence: 1
  fullname: Loeser, François
ExternalDocumentID 9781400881222
EBC4198288
739560
BB20664784
j.ctt18z4hkq
PUPB0004837
9452405
5559309
Genre Electronic books
GroupedDBID -VX
20A
38.
AABBV
AAMYY
AAPBO
AAPZQ
AAUSU
ABARN
ABAZT
ABCYV
ABCYY
ABIAV
ABMRC
ABONK
ABYBY
ACISH
ACJZA
ACLGV
ACVAX
ADDXO
ADKSY
ADNIA
ADVEM
AERYV
AEYCP
AFRFP
AHWGJ
AIGZA
AIUUY
AIXPE
AJFER
AJWNA
ALMA_UNASSIGNED_HOLDINGS
ARPAB
ARSQP
AZZ
BBABE
CZZ
DGSIF
DHNOV
DUGUG
E06
EBSCA
ECNEQ
ECOWB
EWWBQ
FURLO
GEOUK
I4C
J-X
JLPMJ
JSXJJ
KBOFU
MYL
NRCWT
PQQKQ
TI5
XI1
~I6
AAGED
AAHPY
AAYAM
AAZEP
ABHWV
ACBYE
ACEOT
ADUON
ADVQQ
AEAED
AEDVL
AFHFQ
AILDO
AIOLA
AMYDA
AVGCG
BETOA
BFBZU
BFRBX
HELXT
QD8
YSPEL
DGVNY
RYH
ID FETCH-LOGICAL-a61357-f979fce9e7694a667d104ebc9cb2f57e37e1cebdeeadf6a700c34ea175ff61a3
ISBN 9781400881222
1400881226
9780691161686
0691161682
9780691161693
0691161690
ISICitedReferencesCount 15
ISICitedReferencesURI http://www.webofscience.com/api/gateway?GWVersion=2&SrcApp=Summon&SrcAuth=ProQuest&DestLinkType=CitingArticles&DestApp=WOS_CPL&KeyUT=0000054578&url=https%3A%2F%2Fcvtisr.summon.serialssolutions.com%2F%23%21%2Fsearch%3Fho%3Df%26include.ft.matches%3Dt%26l%3Dnull%26q%3D
IngestDate Fri Nov 08 05:50:52 EST 2024
Fri Nov 21 19:47:41 EST 2025
Wed Nov 26 04:44:48 EST 2025
Tue Dec 02 18:55:12 EST 2025
Thu Jun 26 23:41:03 EDT 2025
Wed Oct 15 12:23:44 EDT 2025
Sat Apr 06 03:44:05 EDT 2024
Thu Sep 11 05:52:17 EDT 2025
Thu Apr 10 10:36:38 EDT 2025
IsPeerReviewed false
IsScholarly false
Keywords fundamental space
stably dominated point
imaginary base set
v-continuity
finite-dimensional vector space
continuity criteria
relatively compact set
homotopy
Abhyankar property
Berkovich space
path
continuous map
stability theory
topological structure
linear topology
retraction
definable topology
Galois orbit
algebraic variety
connectedness
algebraic geometry
definable type
Zariski topology
Γ-internal set
pseudo-Galois covering
definable space
stable domination
model theory
iso-definable set
curve fibration
definable compactness
pro-definable bijection
stably dominated type
continuous definable map
strong stability
deformation retraction
topological embedding
ind-definable subset
topology
non-archimedean tame topology
Zariski open subset
germ
orthogonality
sequence
natural functor
definable topological space
real numbers
substructure
o-minimality
stably dominated
stable completion
Γ-internal space
iterated place
definably compact set
Riemann-Roch
definable set
algebraically closed valued field
inflation homotopy
inflation
ind-definable set
transcendence degree
analytic geometry
pro-definable map
g-continuity
main theorem
Γ-internal subset
valued field
o-minimal formulation
pro-definable set
definable function
g-open set
canonical extension
inverse limit
homotopy equivalence
semi-lattice
iso-definable subset
definable subset
forward-branching point
definable homotopy type
topological space
morphism
Zariski dense open set
smooth case
non-archimedean geometry
g-continuous
smoothness
birational invariant
finite simplicial complex
iso-definability
residue field extension
good metric
schematic distance
pro-definable subset
Polynomial
Equivalence relation
Parametrization
Open set
Bijection
Subset
Limit point
Morphism of algebraic varieties
Subgroup
Substructure
Projective variety
Definable set
Dense set
Bounded set
Mathematical induction
Characterization (mathematics)
Canonical map
Quasi-projective variety
Continuous function
Topology
Functor
Cohomology
Existential quantification
Torsor (algebraic geometry)
Transcendence degree
Coset
Direct limit
Dimension (vector space)
Codimension
Homotopy
Homeomorphism
Topological space
Saturated model
Algebraically closed field
Base change
Abelian group
Residue field
Set (mathematics)
Embedding
Connected space
Category of sets
Finite morphism
Pullback
Equivalence of categories
Linear topology
Isolated point
Theorem
Yoneda lemma
Valuation ring
Closed set
Irreducible component
Constructible set (topology)
Transitive relation
Compact space
Generic point
Disjoint union
Morphism
Affine space
Smoothness
Union (set theory)
Algebraic variety
Finite set
Parameter
Galois extension
Pullback (category theory)
Surjective function
Algebraic closure
Irreducibility (mathematics)
LCCN 2015955167
LCCallNum_Ident QA
Language English
LinkModel OpenURL
MergedId FETCHMERGED-LOGICAL-a61357-f979fce9e7694a667d104ebc9cb2f57e37e1cebdeeadf6a700c34ea175ff61a3
Notes Includes bibliographical references (p. [207]-210) and index
OCLC 933388580
PQID EBC4198288
PageCount 227
ParticipantIDs askewsholts_vlebooks_9781400881222
walterdegruyter_marc_9781400881222
proquest_ebookcentral_EBC4198288
perlego_books_739560
nii_cinii_1130000796004273792
jstor_books_j_ctt18z4hkq
igpublishing_primary_PUPB0004837
ieee_books_9452405
casalini_monographs_5559309
ProviderPackageCode J-X
PublicationCentury 2000
PublicationDate 2016
2016.
20160209
[2016]
2016-02-09
PublicationDateYYYYMMDD 2016-01-01
2016-02-09
PublicationDate_xml – year: 2016
  text: 2016
PublicationDecade 2010
PublicationPlace United States
PublicationPlace_xml – name: United States
– name: Princeton, N.J
– name: Princeton
– name: Princeton, NJ
PublicationSeriesTitle Annals of Mathematics Studies
PublicationYear 2016
Publisher Princeton University Press
Publisher_xml – name: Princeton University Press
RestrictionsOnAccess restricted access
SSID ssj0001723374
Score 2.2152793
Snippet Over the field of real numbers, analytic geometry has long been in deep interaction with algebraic geometry, bringing the latter subject many of its...
No detailed description available for "Non-Archimedean Tame Topology and Stably Dominated Types (AM-192)".
SourceID askewsholts
walterdegruyter
proquest
perlego
nii
jstor
igpublishing
ieee
casalini
SourceType Aggregation Database
Publisher
SubjectTerms Abelian group
Affine space
Algebraic
Algebraic closure
Algebraic variety
Algebraically closed field
Analytic
Base change
Berkovich space
Bijection
Bounded set
Canonical map
Category of sets
Characterization (mathematics)
Closed set
Codimension
Cohomology
Compact space
Connected space
Constructible set (topology)
Continuous function
Coset
Definable set
Dense set
Dimension (vector space)
Direct limit
Disjoint union
Embedding
Equivalence of categories
Equivalence relation
Existential quantification
Finite morphism
Finite set
Functor
Galois extension
General Topics for Engineers
Generic point
Geometry
Geometry, Algebraic
Homeomorphism
Homotopy
Irreducibility (mathematics)
Irreducible component
Isolated point
Limit point
Linear topology
Mathematical induction
MATHEMATICS
MATHEMATICS / Geometry / General
Morphism
Morphism of algebraic varieties
Open set
Parameter
Parametrization
Polynomial
Projective variety
Pullback
Pullback (category theory)
Quasi-projective variety
Residue field
Saturated model
Set (mathematics)
Smoothness
Subgroup
Subset
Substructure
Surjective function
Tame algebras
Theorem
Topological space
Topology
Torsor (algebraic geometry)
Transcendence degree
Transitive relation
Union (set theory)
Valuation ring
Yoneda lemma
Zariski topology
SubjectTermsDisplay Algebraic
Analytic
Geometry
Mathematics
Topology
TableOfContents Non-archimedean tame topology and stably dominated types -- Contents -- Chapter One: Introduction -- Chapter Two: Preliminaries -- Chapter Three: The space V of stably dominated types -- Chapter Four: Definable compactness -- Chapter Five: A closer look at the stable completion -- Chapter Six: Γ-internal spaces -- Chapter Seven: Curves -- Chapter Eight: Strongly stably dominated points -- Chapter Nine: Specializations and ACV2F -- Chapter Ten: Continuity of homotopies -- Chapter Eleven: The main theorem -- Chapter Twelve: The smooth case -- Chapter Thirteen: An equivalence of categories -- Chapter Fourteen: Applications to the topology of Berkovich spaces -- Bibliography -- Index -- List of notations.
Front Matter Table of Contents Chapter One: Introduction Chapter Two: Preliminaries Chapter Three: The space \widehat{V} of stably dominated types Chapter Four: Definable compactness Chapter Five: A closer look at the stable completion Chapter Six: Γ-internal spaces Chapter Seven: Curves Chapter Eight: Strongly stably dominated points Chapter Nine: Specializations and ACV²F Chapter Ten: Continuity of homotopies Chapter Eleven: The main theorem Chapter Twelve: The smooth case Chapter Thirteen: An equivalence of categories Chapter Fourteen: Applications to the topology of Berkovich spaces Bibliography Index List of notations
9.6 g-continuity criterion -- 9.7 Some applications of the continuity criteria -- 9.8 The v-criterion on V̂ -- 9.9 Definability of v- and g-criteria -- 10 Continuity of homotopies -- 10.1 Preliminaries -- 10.2 Continuity on relative ℙ^1 -- 10.3 The inflation homotopy -- 10.4 Connectedness and the Zariski topology -- 11 The main theorem -- 11.1 Statement -- 11.2 Proof of Theorem 11.1.1: Preparation -- 11.3 Construction of a relative curve homotopy -- 11.4 The base homotopy -- 11.5 The tropical homotopy -- 11.6 End of the proof -- 11.7 Variation in families -- 12 The smooth case -- 12.1 Statement -- 12.2 Proof and remarks -- 13 An equivalence of categories -- 13.1 Statement of the equivalence of categories -- 13.2 Proof of the equivalence of categories -- 13.3 Remarks on homotopies over imaginary base sets -- 14 Applications to the topology of Berkovich spaces -- 14.1 Berkovich spaces -- 14.2 Retractions to skeleta -- 14.3 Finitely many homotopy types -- 14.4 More tame topological properties -- 14.5 The lattice completion -- 14.6 Berkovich points as Galois orbits -- Bibliography -- Index -- List of notations
Cover -- Title -- Copyright -- Contents -- 1 Introduction -- 2 Preliminaries -- 2.1 Definable sets -- 2.2 Pro-definable and ind-definable sets -- 2.3 Definable types -- 2.4 Stable embeddedness -- 2.5 Orthogonality to a definable set -- 2.6 Stable domination -- 2.7 Review of ACVF -- 2.8 Г-internal sets -- 2.9 Orthogonality to Г -- 2.10 V̂ for stable definable V -- 2.11 Decomposition of definable types -- 2.12 Pseudo-Galois coverings -- 3 The space V̂ of stably dominated types -- 3.1 V̂ as a pro-definable set -- 3.2 Some examples -- 3.3 The notion of a definable topological space -- 3.4 V̂ as a topological space -- 3.5 The affine case -- 3.6 Simple points -- 3.7 v-open and g-open subsets, v+g-continuity -- 3.8 Canonical extensions -- 3.9 Paths and homotopies -- 3.10 Good metrics -- 3.11 Zariski topology -- 3.12 Schematic distance -- 4 Definable compactness -- 4.1 Definition of definable compactness -- 4.2 Characterization of definable compactness -- 5 A closer look at the stable completion -- 5.1 A^n and spaces of semi-lattices -- 5.2 A representation of ℙ^n -- 5.3 Relative compactness -- 6 Г-internal spaces -- 6.1 Preliminary remarks -- 6.2 Topological structure of Г-internal subsets -- 6.3 Guessing definable maps by regular algebraic maps -- 6.4 Relatively Г-internal subsets -- 7 Curves -- 7.1 Definability of Ĉ for a curve C -- 7.2 Definable types on curves -- 7.3 Lifting paths -- 7.4 Branching points -- 7.5 Construction of a deformation retraction -- 8 Strongly stably dominated points -- 8.1 Strongly stably dominated points -- 8.2 A Bertini theorem -- 8.3 Г-internal sets and strongly stably dominated points -- 8.4 Topological properties of V^# -- 9 Specializations and ACV^2F -- 9.1 g-topology and specialization -- 9.2 v-topology and specialization -- 9.3 ACV^2F -- 9.4 The map R^20 21 : V̂20 → V̂21 -- 9.5 Relative versions
3. The space v̂ of stably dominated types
7. Curves
5. A closer look at the stable completion
11. The main theorem
12. The smooth case
4. Definable compactness
Index
10. Continuity of homotopies
-
14. Applications to the topology of Berkovich spaces
13. An equivalence of categories
/
Contents
List of notations
1. Introduction
Frontmatter --
2. Preliminaries
9. Specializations and ACV2F
6. Γ-internal spaces
8. Strongly stably dominated points
Bibliography
Title Non-Archimedean Tame Topology and Stably Dominated Types (AM-192)
URI http://digital.casalini.it/9781400881222
https://ieeexplore.ieee.org/servlet/opac?bknumber=9452405
http://portal.igpublish.com/iglibrary/search/PUPB0004837.html
https://www.jstor.org/stable/j.ctt18z4hkq
https://cir.nii.ac.jp/crid/1130000796004273792
https://www.perlego.com/book/739560/nonarchimedean-tame-topology-and-stably-dominated-types-pdf
https://ebookcentral.proquest.com/lib/[SITE_ID]/detail.action?docID=4198288
https://www.degruyterbrill.com/isbn/9781400881222
https://www.vlebooks.com/vleweb/product/openreader?id=none&isbn=9781400881222&uid=none
Volume 192
WOSCitedRecordID wos0000054578&url=https%3A%2F%2Fcvtisr.summon.serialssolutions.com%2F%23%21%2Fsearch%3Fho%3Df%26include.ft.matches%3Dt%26l%3Dnull%26q%3D
hasFullText 1
inHoldings 1
isFullTextHit
isPrint
link http://cvtisr.summon.serialssolutions.com/2.0.0/link/0/eLvHCXMwtV3Nb9MwFLegBYkeEGOghTEUIW4oIh9OHF83FSYhRg-ttJuVOM9tt5KUJi0bfz3PiZst2QUOXKw2spPav8bv957fByEf4hgin0sPlRyVOTRhzEnDVFdzd4MMxZ-nJK2LTbCLi_jykk9MTdCyLifA8jy-ueHr_wo1XkOwdejsP8Dd3hQv4GcEHVuEHdseI26_mhDaInfqRLIo4LR9fZr8gI_TpghCk2UJmWW6ukXSrP1fNNXUWmhLqs8323JR7Ewh6_Fim7XeOgWUDbSa59Zn66xYdiwGXt9iMNFWfNBJO_rBiB3dEjUv3IE8vwkbfrDThnVSigf9uhmte5Km9f_rDHtMhj4NAzogwy_j77OvdyYy5gcBoyYzKj7wU2fciIyS8hpFAYqJqtS8IikTHU5qCuXo5LPzdWvM2zucIonIl9jn6Ro2K5gXHdXi-a_aSSGD-WZ7W-0PxWuuMX1BhqADUA7II8hfktG3Nq9ueUjiHsa2xtjeY2wjxnaDsd1ibNcYvyKzz-Pp2bljal84CRKskDmKM64kcGARp0kUsQwVZ0gll6mvQgYBA09CmgFuBSpKmOvKgEKCbFCpyEuC12SQFzkcEdtDnRBSlYYZKEpVFEueRUymEeANgfkWeX9vHcVuVR_Tl6Kz2BY53i-vwBemSadeihAV0sDlFjnQKy7MQBoiTwwtYt9ff7Fu0qeIyWxy6jalDCxyVGNiBl4JWVVe_Jsurn9a5ARhEnKpW08fuiKbRXVb14YJGMcfdGgANIP1iXPk4kP3aIp6HsbHWYxPz6jHYz-Ocb49lIVOG9Od75u_6XRMnt29X2_JoNps4YQ8kbtqWW7emb_zH35kjyc
linkProvider ProQuest Ebooks
openUrl ctx_ver=Z39.88-2004&ctx_enc=info%3Aofi%2Fenc%3AUTF-8&rfr_id=info%3Asid%2Fsummon.serialssolutions.com&rft_val_fmt=info%3Aofi%2Ffmt%3Akev%3Amtx%3Abook&rft.genre=book&rft.title=Non-Archimedean+Tame+Topology+and+Stably+Dominated+Types&rft.au=Hrushovski%2C+Ehud&rft.au=Loeser%2C+Fran%C3%A7ois&rft.date=2016-01-01&rft.pub=Princeton+University+Press&rft.isbn=9781400881222&rft_id=info:doi/10.1515%2F9781400881222&rft.externalDBID=n%2Fa&rft.externalDocID=9781400881222
thumbnail_l http://cvtisr.summon.serialssolutions.com/2.0.0/image/custom?url=https%3A%2F%2Fwww.perlego.com%2Fbooks%2FRM_Books%2Fprinceton_university_press_rydfxi%2F9781400881222.jpg
thumbnail_m http://cvtisr.summon.serialssolutions.com/2.0.0/image/custom?url=https%3A%2F%2Fwww.degruyterbrill.com%2Fdocument%2Fcover%2Fisbn%2F9781400881222%2Foriginal
http://cvtisr.summon.serialssolutions.com/2.0.0/image/custom?url=https%3A%2F%2Fvle.dmmserver.com%2Fmedia%2F640%2F97814008%2F9781400881222.jpg
thumbnail_s http://cvtisr.summon.serialssolutions.com/2.0.0/image/custom?url=http%3A%2F%2Fportal.igpublish.com%2Figlibrary%2Famazonbuffer%2FPUPB0004837_null_0_320.png