Eurocode 7: Geotechnical design - Part 1: General rules

(1) EN 1997-1 is intended to be used as a general basis for the geotechnical aspects of the design of buildings and civil engineering works.
(2) The following subjects are dealt with in EN 1997-1:
Section 1: General
Section 2: Basis of geotechnical design
Section 3: Geotechnical data
Section 4: Supervision of construction, monitoring and maintenance
Section 5: Fill, dewatering, ground improvement and reinforcement
Section 6: Spread foundations
Section 7: Pile foundations
Section 8: Anchorages
Section 9: Retaining structures
Section 10: Hydraulic failure
Section 11: Overall stability
Section 12: Embankments
(3) EN 1997-1 is accompanied by Annexes A to J, which provide:
- in A: recommended partial safety factor values; different values of the partial factors may be set by the National annex;
- in B to J: supplementary informative guidance such as internationally applied calculation methods.

Eurocode 7 - Entwurf, Berechnung und Bemessung in der Geotechnik - Teil 1: Allgemeine Regeln

1.1.1   Anwendungsbereich der EN 1997
(1)   Die Anwendung der EN 1997 ist in Verbindung mit EN 1990:2002 vorgesehen, in der die Grundsätze und Anforderungen für Sicherheit und Gebrauchstauglichkeit festgelegt sind, die Grundlagen der Planung und der Nachweise beschrieben und Richtlinien für die damit verbundenen Gesichtspunkte der Zuverlässigkeit von Tragwerken angegeben werden.
(2)   Es ist vorgesehen, EN 1997 für die geotechnischen Gesichtspunkte bei der Planung von Hoch- und Ingenieurbauwerken anzuwenden. Sie ist in mehrere Teile gegliedert (siehe 1.1.2 und 1.1.3).
(3)   EN 1997 behandelt Anforderungen an die Festigkeit, Standsicherheit, Gebrauchstauglichkeit und Dauerhaftigkeit der Bauwerke. Andere Anforderungen, z. B. an den Wärme- und Schallschutz, werden nicht behandelt.
(4)   Die bei der Planung von Hoch- und Ingenieurbauwerken anzusetzenden Zahlenwerte für die Einwirkungen gibt die EN 1991 an. Aus dem Baugrund herrührende Einwirkungen wie Erddrücke müssen nach den in EN 1997 genannten Regeln ermittelt werden.
(5)   Für Fragen der Qualitätssicherung und Ausführung sind eigene Europäische Normen vorgesehen. Auf sie wird in den entsprechenden Abschnitten verwiesen.
(6)   In EN 1997 wird die Ausführung nur so weit behandelt, wie das für die Erfüllung der Voraussetzungen der Bemessungsregeln erforderlich ist.
(7)   EN 1997 deckt nicht die besonderen Anforderungen an einen erdbebensicheren Entwurf ab. EN 1998 gibt ergänzende Regeln für eine geotechnische seismische Bemessung an, die die Regeln dieser Norm vervollständigen oder anpassen.

Eurocode 7: Calcul géotechnique - Partie 1: Règles générales

(1) La norme EN 1997 doit être utilisée conjointement avec la norme EN 1990 :2002, qui définit les principes et les exigences en matière de sécurité et d'aptitude au service, décrit les principes de base du calcul et de la vérification des structures et donne des directives sur les aspects liés à leur fiabilité.  
(2) La norme EN 1997 doit être appliquée aux aspects géotechniques du calcul des bâtiments et ouvrages de génie civil. Elle est divisée en plusieurs parties (voir 1.1.2 et 1.1.3).
(3) La norme EN 1997 traite des exigences de résistance, de stabilité, d'aptitude au service et de durabilité des ouvrages. Les autres exigences, par exemple celles qui concernent l'isolation thermique ou sonore, ne sont pas abordées.
(4) Les valeurs numériques des actions sur les bâtiments et les ouvrages de génie civil à prendre en compte dans le calcul sont fournies par la norme EN 1991, en fonction des types de constructions. Les actions imposées par le terrain, comme les pressions des terres, doivent être calculées conformément aux règles de l'Eurocode 7.
(5) Des normes européennes séparées doivent être utilisées pour traiter les questions d'exécution et de main d'�uvre. Elles sont notées dans les sections concernées.
(6) Dans la norme EN 1997, l'exécution est traitée dans la mesure où cela est nécessaire pour assurer sa conformité avec les hypothèses des règles de calcul.
(7) La norme EN 1997 ne traite pas des exigences particulières du calcul sismique. La norme EN 1998 donne des règles complémentaires pour le calcul sismique, qui complètent ou adaptent les règles de la présente norme.

Evrokod 7: Geotehnično projektiranje - 1. del: Splošna pravila

(1)   EN 1997-1 naj se uporablja kot splošna osnova za geotehnične vidike projektiranja stavb in gradbenih inženirskih objektov.
(2)   EN 1997-1 obravnava naslednje teme:
1. poglavje: Splošno
2. poglavje: Osnove geotehničnega projektiranja
3. poglavje: Geotehnični podatki
4. poglavje: Nadzor gradnje, tehnično opazovanje in vzdrževanje
5. poglavje: Nasutje, odvodnjavanje, poboljšanje in armiranje tal
6. poglavje: Plitvo temeljenje
7. poglavje: Temeljenje na pilotih
8. poglavje: Sidra
9. poglavje: Podporne konstrukcije
10. poglavje: Hidravlične porušitve
11. poglavje: Globalna stabilnost
12. poglavje: Nasipi

General Information

Status
Published
Public Enquiry End Date
13-Jun-2013
Publication Date
08-Apr-2014
Technical Committee
KON - Structures
Current Stage
6060 - National Implementation/Publication (Adopted Project)
Start Date
30-Jan-2014
Due Date
06-Apr-2014
Completion Date
09-Apr-2014

Relations

Effective Date
01-Mar-2028
Effective Date
02-Oct-2024
Effective Date
01-May-2014
Amendment

SIST EN 1997-1:2005/A1:2014

English language
19 pages
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Frequently Asked Questions

SIST EN 1997-1:2005/A1:2014 is a amendment published by the Slovenian Institute for Standardization (SIST). Its full title is "Eurocode 7: Geotechnical design - Part 1: General rules". This standard covers: (1) EN 1997-1 is intended to be used as a general basis for the geotechnical aspects of the design of buildings and civil engineering works. (2) The following subjects are dealt with in EN 1997-1: Section 1: General Section 2: Basis of geotechnical design Section 3: Geotechnical data Section 4: Supervision of construction, monitoring and maintenance Section 5: Fill, dewatering, ground improvement and reinforcement Section 6: Spread foundations Section 7: Pile foundations Section 8: Anchorages Section 9: Retaining structures Section 10: Hydraulic failure Section 11: Overall stability Section 12: Embankments (3) EN 1997-1 is accompanied by Annexes A to J, which provide: - in A: recommended partial safety factor values; different values of the partial factors may be set by the National annex; - in B to J: supplementary informative guidance such as internationally applied calculation methods.

(1) EN 1997-1 is intended to be used as a general basis for the geotechnical aspects of the design of buildings and civil engineering works. (2) The following subjects are dealt with in EN 1997-1: Section 1: General Section 2: Basis of geotechnical design Section 3: Geotechnical data Section 4: Supervision of construction, monitoring and maintenance Section 5: Fill, dewatering, ground improvement and reinforcement Section 6: Spread foundations Section 7: Pile foundations Section 8: Anchorages Section 9: Retaining structures Section 10: Hydraulic failure Section 11: Overall stability Section 12: Embankments (3) EN 1997-1 is accompanied by Annexes A to J, which provide: - in A: recommended partial safety factor values; different values of the partial factors may be set by the National annex; - in B to J: supplementary informative guidance such as internationally applied calculation methods.

SIST EN 1997-1:2005/A1:2014 is classified under the following ICS (International Classification for Standards) categories: 91.010.30 - Technical aspects; 93.020 - Earthworks. Excavations. Foundation construction. Underground works. The ICS classification helps identify the subject area and facilitates finding related standards.

SIST EN 1997-1:2005/A1:2014 has the following relationships with other standards: It is inter standard links to kSIST FprEN 1990:2022, kSIST FprEN 1997-1:2024, SIST EN 1997-1:2005. Understanding these relationships helps ensure you are using the most current and applicable version of the standard.

SIST EN 1997-1:2005/A1:2014 is associated with the following European legislation: EU Directives/Regulations: 2006-01-2084, 305/2011, 89/106/EEC; Standardization Mandates: M/265. When a standard is cited in the Official Journal of the European Union, products manufactured in conformity with it benefit from a presumption of conformity with the essential requirements of the corresponding EU directive or regulation.

You can purchase SIST EN 1997-1:2005/A1:2014 directly from iTeh Standards. The document is available in PDF format and is delivered instantly after payment. Add the standard to your cart and complete the secure checkout process. iTeh Standards is an authorized distributor of SIST standards.

Standards Content (Sample)


SLOVENSKI STANDARD
01-maj-2014
(YURNRG*HRWHKQLþQRSURMHNWLUDQMHGHO6SORãQDSUDYLOD
Eurocode 7: Geotechnical design - Part 1: General rules
Eurocode 7 - Entwurf, Berechnung und Bemessung in der Geotechnik - Teil 1:
Allgemeine Regeln
Eurocode 7: Calcul géotechnique - Partie 1: Règles générales
Ta slovenski standard je istoveten z: EN 1997-1:2004/A1:2013
ICS:
91.010.30 7HKQLþQLYLGLNL Technical aspects
93.020 Zemeljska dela. Izkopavanja. Earthworks. Excavations.
Gradnja temeljev. Dela pod Foundation construction.
zemljo Underground works
2003-01.Slovenski inštitut za standardizacijo. Razmnoževanje celote ali delov tega standarda ni dovoljeno.

EUROPEAN STANDARD
EN 1997-1:2004/A1
NORME EUROPÉENNE
EUROPÄISCHE NORM
November 2013
ICS 93.020; 91.010.30
English Version
Eurocode 7: Geotechnical design - Part 1: General rules
Eurocode 7: Calcul géotechnique - Partie 1: Règles Eurocode 7 - Entwurf, Berechnung und Bemessung in der
générales Geotechnik - Teil 1: Allgemeine Regeln
This amendment A1 modifies the European Standard EN 1997-1:2004; it was approved by CEN on 8 August 2013.

CEN members are bound to comply with the CEN/CENELEC Internal Regulations which stipulate the conditions for inclusion of this
amendment into the relevant national standard without any alteration. Up-to-date lists and bibliographical references concerning such
national standards may be obtained on application to the CEN-CENELEC Management Centre or to any CEN member.

This amendment exists in three official versions (English, French, German). A version in any other language made by translation under the
responsibility of a CEN member into its own language and notified to the CEN-CENELEC Management Centre has the same status as the
official versions.
CEN members are the national standards bodies of Austria, Belgium, Bulgaria, Croatia, Cyprus, Czech Republic, Denmark, Estonia,
Finland, Former Yugoslav Republic of Macedonia, France, Germany, Greece, Hungary, Iceland, Ireland, Italy, Latvia, Lithuania,
Luxembourg, Malta, Netherlands, Norway, Poland, Portugal, Romania, Slovakia, Slovenia, Spain, Sweden, Switzerland, Turkey and United
Kingdom.
EUROPEAN COMMITTEE FOR STANDARDIZATION
COMITÉ EUROPÉEN DE NORMALISATION

EUROPÄISCHES KOMITEE FÜR NORMUNG

CEN-CENELEC Management Centre: Avenue Marnix 17, B-1000 Brussels
© 2013 CEN All rights of exploitation in any form and by any means reserved Ref. No. EN 1997-1:2004/A1:2013: E
worldwide for CEN national Members.

Contents Page
Foreword .3
1 Modification to the Contents .4
2 Modifications to National annex for EN 1997-1 .4
3 Modification to 1.1.2 .4
4 Modification to 1.2 .5
5 Modification to 1.6 .5
6 Modification to Section 8 .7
7 Modifications to Section 9 . 14
8 Modification to 10.2 . 15
9 Modification to 11.4 . 15
10 Modification to Annex A title and A.1 . 15
11 Modification to A.3.3.4 . 16
12 Modifications to A.4 . 16
13 Modification to A.5 . 17
14 Modification to B.3 . 19

Foreword
This document (EN 1997-1:2004/A1:2013) has been prepared by Technical Committee CEN/TC 250
“Structural Eurocodes”, the secretariat of which is held by BSI.
This Amendment to the European Standard EN 1997-1:2004 shall be given the status of a national standard,
either by publication of an identical text or by endorsement, at the latest by November 2014, and conflicting
national standards shall be withdrawn at the latest by November 2014.
Attention is drawn to the possibility that some of the elements of this document may be the subject of patent
rights. CEN shall not be held responsible for identifying any or all such patent rights.
According to the CEN-CENELEC Internal Regulations, the national standards organizations of the following
countries are bound to implement this European Standard: Austria, Belgium, Bulgaria, Croatia, Cyprus, Czech
Republic, Denmark, Estonia, Finland, Former Yugoslav Republic of Macedonia, France, Germany, Greece,
Hungary, Iceland, Ireland, Italy, Latvia, Lithuania, Luxembourg, Malta, Netherlands, Norway, Poland, Portugal,
Romania, Slovakia, Slovenia, Spain, Sweden, Switzerland, Turkey and the United Kingdom.
1 Modification to the Contents
Page 3
Delete: “Section 8 Anchorages”
and replace with:
“Section 8
Anchors”.
2 Modifications to National annex for EN 1997-1
Page 8
National Annex for EN 1997-1
Delete:
“8.5.2(2)P, 8.5.2(3), 8.6(4)”
and replace with:
“8.4(6)P, 8.4(7)P, 8.5.1(1)P, 8.5.1(2)P, 8.5.2(1)P, 8.5.2(2)P, 8.5.2(3)P, 8.5.2(5)P, 8.5.3(1)P, 8.5.3(2)P,
8.5.3(3)P, 8.5.3(4)P, 8.6.2(2)P, 8.6.2(3)P”.
Delete:

— A.3.1, A.3.2, A.3.3.1, A.3.3.2, A.3.3.3, A.3.3.4, A.3.3.5, A.3.3.6,”
and replace with:

— A.3.1, A.3.2, A.3.3.1, A.3.3.2, A.3.3.3, A.3.3.5, A.3.3.6,”.
After:

— A.5”,
add:

— A.6”.
3 Modification to 1.1.2
Page 9
1.1.2 Scope of EN 1997-1
Delete in 1.1.2(2):
“Section 8: Anchorages”
and replace with:
“Section 8: Anchors”.
4 Modification to 1.2
Page 10
1.2 Normative references
After:
“EN 1992 Eurocode 2 Design of concrete structures”,
add:
“EN 1992-1-1:2004 Eurocode 2: Design of concrete structures – Part 1-1: General rules and rules for
buildings”.
Replace:
“EN 1537:1999 Execution of special geotechnical work; Ground anchors”
with:
“EN 1537 Execution of special geotechnical work; Ground anchors”.
After:
“EN ISO 13793:2001 Thermal performance of buildings – Thermal design of foundations to avoid frost
heave”,
add:
“EN ISO 22477-5 Geotechnical investigation and testing – testing of geotechnical structures – Part
5:Testing of anchors (in preparation)”.
5 Modification to 1.6
Page 13
1.6 Symbols
Delete: “P load on anchorage”
Delete: “P proof load in a suitability test of a grouted anchorage”.
p
Delete: “R anchorage pull-out resistance”
a
Delete: “R design value of R ”
a;d a
Delete: “R characteristic value of R ”
a;k a
Delete:
design value of the tensile resistance of a pile or of a group of piles, or of the structural tensile
“R
t;d
resistance of an anchorage”
and replace with:
design value of the tensile resistance of a pile or of a group of piles”.
“R
t;d
partial factor for anchorages”.
Delete: “γ
a
partial factor for permanent anchorages”.
Delete: “γ
a;p
partial factor for temporary anchorages”.
Delete: “γ
a;t
correlation factor for anchorages”.
Delete: “ξ
a
After:
“z vertical distance”,
add:
(begin text)
Latin letters used in Section 8
ultimate limit state design force to be resisted by the anchor
E
ULS;d
design value of the maximum anchor force, including effect of lock off load, and sufficient to prevent
F
Serv;d
a serviceability limit state in the supported structure
characteristic value of the maximum anchor force, including effect of lock off load, and sufficient to
F
Serv;k
prevent a serviceability limit state in the supported structure
design value of the force required to prevent any ultimate limit state in the supported structure
F
ULS;d
permissible cumulative loss of load over specified time period, defined in EN ISO 22477-5, used to
k
l;SLS
determine serviceability limit state resistance of an anchor
permissible cumulative loss of load over specified time period, defined in EN ISO 22477-5, used to
k
l;ULS
determine ultimate limit state resistance of an anchor
n minimum number of investigation and/or suitability tests
the critical creep load, determined as the load corresponding to the end of the pseudo linear part of the α
P
c
versus load diagram as defined in EN ISO 22477-5
lock-off load, load left in the anchor head immediately on completion of the stressing operation
P
o
proof load, maximum test load to which an anchor is subjected in a particular load test
P
p
measured value of the resistance of an anchor
R
m
design value of the resistance of an anchor complying with serviceability limit state criteria
R
SLS;d
R characteristic value of the resistance of an anchor complying with serviceability limit state criteria
SLS;k
measured value of the resistance of an anchor complying with serviceability limit state criteria
R
SLS;m
) lowest value of R measured from a number of investigation or suitability tests (n), for each
(R
SLS;m min SLS;m
distinct ground condition
ultimate limit state design resistance of the structural elements of an anchor
R
t;d
design value of the resistance of an anchor complying with ultimate limit state criteria
R
ULS;d
characteristic value of the resistance of an anchor complying with ultimate limit state criteria
R
ULS;k
measured value of the resistance of an anchor complying with ultimate limit state criteria
R
ULS;m
) lowest value of R measured from a number of investigation or suitability tests (n), for each
(R
ULS;m min ULS;m
distinct ground condition
(end text)
design value of φ' “, add:
After “φ'
d
(begin text)
Greek letters used in Section 8
creep rate defining serviceability limit state resistance of an anchor, determined from the
α
SLS
displacement per log cycle of time at constant anchor load as defined in EN ISO 22477-5
creep rate defining ultimate limit state resistance of an anchor, determined from the displacement per
α
ULS
log cycle of time at constant anchor load as defined in EN ISO 22477-5
γ ,γ ,γ ,γ ,γ partial factors
Serv a;ULS a;SLS a;acc;ULS a;acc;SLS
correlation factor
ξ
ULS
(end text)
6 Modification to Section 8
Page 91
Section 8 Anchorages
Delete the entire text of Section 8, including the title and replace with the following:
(begin text)
Section 8 Anchors
8.1 General
8.1.1 Scope
(1)P This Section shall apply to the design of temporary and permanent anchors used e.g.:
— to support a retaining structure;
— to ensure the stability of slopes, cuts or tunnels;
— to resist uplift forces on a structure;
— to prevent sliding or tilting;
— to restrain tension cables;
by transmitting a tensile force to a load resisting formation of soil or rock.
(2)P This section shall be used for the design of anchors covered by EN 1537 and other anchors that are
consistent with 8.1.2.1, such as screw anchors and expander anchors with a free length.
(3)P Tension members without a free length (such as tension piles) shall be designed using the principles
given in Section 7 ‘Pile foundations’.
(4)P Walls providing fixity for dead-man anchors shall be designed using the principles given in Section 9,
‘Retaining structures’.
(5) This section does not cover the design of soil nails or rock bolts.
8.1.2 Definitions
8.1.2.1
anchor
installation capable of transmitting an applied tensile load through a free length to a load bearing stratum
8.1.2.2
grouted anchor
anchor that uses a bonded length formed of cement grout, resin or similar material to transmit the tensile force
to the ground
NOTE A ‘grouted anchor’ in EN 1997–1 is termed a ‘ground anchor’ in EN 1537.
8.1.2.3
permanent anchor
anchor with a design life which is in excess of two years
8.1.2.4
temporary anchor
anchor with a design life of 2 years or less
8.1.2.5
tendon
part of an anchor that is capable of transmitting the tensile load from the anchor head to the resisting element
in the ground
8.1.2.6
anchor fixed length
designed length of an anchor over which the load is transmitted to the surrounding ground
8.1.2.7
anchor free length
length of the anchor between the anchorage point at the anchor head and the proximal end of the anchor fixed
length
8.1.2.8
tendon bond length for grouted anchors
length of the tendon that is bonded directly to the grout and capable of transmitting the applied tensile load
8.1.2.9
tendon free length
length of the tendon between the anchorage point at the anchor head and the proximal end of the tendon
bond length
8.1.2.10
apparent tendon free length
length of tendon which is estimated to be fully decoupled from the surrounding grout and is calculated from
the load-elastic displacement data following testing
8.1.2.11
investigation test
load test to establish the geotechnical ultimate resistance of an anchor and to determine the characteristics of
the anchor in the working load range
8.1.2.12
suitability test
load test to confirm that a particular anchor design will be adequate in particular ground conditions
8.1.2.13
acceptance test
load test to confirm that an individual anchor conforms with its acceptance criteria
8.2 Limit states
(1)P The following limit states (both individually and in combination) shall be considered for all anchors:
— structural failure of the tendon or anchor head, caused by the applied stresses;
— failure of the connection between the tendon and the resisting element in the ground;
— loss of anchor force and excessive displacements of the anchor head due to creep and relaxation;
— failure or excessive deformation of parts of the anchored structure due to the applied anchor force;
— loss of overall stability of the retained ground and the retaining structure (see Section 11);
— limit states in supported or adjacent structures, including those arising from pre-stressing forces;
— instability or excessive deformation of the zone of ground into which tensile forces from a group of
anchors are to be transferred;
— failure at the interface between the resisting element and the ground.
(2)P In addition to the limit states listed in 8.2(1)P, the following limit states (both individually and in
combination) shall be considered for all grouted anchors:
— failure at the interface between the body of grout and the ground;
— failure of the bond at the interfaces of tendon, encapsulation and grout;
— failure of the bond between the tendon and the grout.
(3) For a group of anchors, the most critical failure surface should be considered.
NOTE Depending on spacing and the profile of ground strength, this can involve displacement of part or all of the
block contained by the anchors, often combined with pull-out of the distal ends of the anchors.
8.3 Design situations and actions
(1)P Design situations shall be selected in accordance with 2.2.
(2)P In addition, consideration shall be given to:
— all pertinent limit states listed in 8.2 and their combinations;
— chemical components of ground or groundwater that can adversely affect the durability of the anchor.
(3)P The design value of the anchor load shall be derived from the design of the anchored structure, taking
into consideration ultimate and serviceability limit states.
8.4 Design and construction considerations
(1)P Anchors shall not be used unless their design and construction have been verified by investigation or
suitability tests in accordance with EN ISO 22477-5 or by comparable experience (as defined in 1.5.2.2) and
have been shown to have the required performance and durability, which have been documented.
(2)P Account shall be taken of the effects of any deformations imposed on adjacent structures when installing
the anchor and by the anchor pre-stress force.
(3) The zone of ground into which tensile forces are to be transferred should be included in site investigations
whenever possible.
(4)P For pre-stressed anchors, the anchor head shall be designed to allow the tendon to be stressed, proof-
loaded and locked-off and, if required, released, de-stressed and re-stressed.
(5)P The anchor head shall be designed to tolerate angular deviations of the anchor force, and to be able to
accommodate deformations that can occur during the design life of the structure.
(6)P Since the effectiveness of an anchor depends on its free leng
...

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SIST EN 1997-1:2005/A1:2014는 건물 및 토목 공사의 설계에서 지반 공학적 측면을 위한 일반적인 기초로 사용되는 문서로서, 유럽의 지반 설계에 대한 체계적이고 포괄적인 지침을 제공합니다. 이 표준은 여러 핵심 주제를 다루고 있으며, 특히 다음과 같은 중요한 내용이 포함되어 있습니다. 1. **일반 규칙**: 제1부에서는 지반 설계의 일반적인 원칙을 설명하여, 건축가와 엔지니어들이 설계 과정에서 필요로 하는 기본 지침을 제공합니다. 2. **설계의 기초**: 제2부에서는 지반 설계의 기초를 마련하여, 엔지니어들이 제공해야 하는 기본적인 데이터와 방법론을 자세히 설명합니다. 3. **지반 데이터**: 제3부에서는 지반 데이터 수집과 해석의 중요성을 강조하며, 설계의 정확성을 높이기 위한 지침을 제시합니다. 4. **건설 감독 및 유지 관리**: 제4부는 건설 현장에서의 감독 및 모니터링의 중요성을 다루고, 안전하고 효과적인 공사를 위한 절차를 안내합니다. 5. **기초 종류**: 분산 기초(제6부), 파일 기초(제7부)와 같은 다양한 기초 유형에 대한 구체적인 설계 요구 사항을 제공하여, 다양한 지반 조건에서의 적용성을 높입니다. 6. **구조물의 안정성**: 제9부와 제11부에서는 저수 구조물과 전반적인 안정성에 대한 지침을 제시하며, 실제 적용 사례를 통해 안정성을 평가하는 방법을 설명합니다. 7. **부록 A~J**: 표준은 A부터 J까지의 부록을 제공하여, 권장되는 부분 안전 계수 값과 국제적으로 적용되는 계산 방법 등을 포함하여, 각국에서의 적용을 용이하게 합니다. 이와 같이, SIST EN 1997-1:2005/A1:2014 표준은 지반 공학 설계에 있어 필수 불가결한 도구로 자리잡고 있으며, 폭넓은 주제를 포괄하여 다양한 조건에서 유용하게 활용될 수 있습니다. 지반 설계의 기초를 다지고, 안전하고 신뢰할 수 있는 구조물을 설계하는 데 큰 도움이 되는 이 표준은 현대 건축과 토목 공학에서의 현실적인 요구에 부응합니다.

SIST EN 1997-1:2005/A1:2014は、建物及び土木工事の設計における地盤工学の全般的な基礎として使用されることを目的とした標準です。この標準の範囲は広範囲であり、以下の重要なトピックが扱われています。 第一章では一般的な規則が示され、第二章では地盤設計の基礎が概説されています。第三章は地盤データに関するものであり、第四章では建設監督、モニタリング及び維持管理に焦点を当てています。これに続き、埋立、排水、地盤改良及び補強(第五章)、拡散基礎(第六章)、杭基礎(第七章)、アンカー(第八章)、擁壁構造(第九章)、水圧失敗(第十章)、全体的安定性(第十一章)、土盛り(第十二章)に関する詳細な指針も提供されています。 EN 1997-1は、付属書AからJを伴い、特に付属書Aでは推薦される部分安全係数の値が詳細に記載されています。また、国の附属書によって異なる部分係数の値を設定することができる点は、各国の特性に応じた柔軟性を持たせており、非常に有用です。付属書BからJは、国際的に適用される計算方法を含む補足的な情報ガイダンスを提供しています。 この標準の強みは、その包括的なアプローチにあり、地盤工学的な設計のための安定した基準を提供することにより、建設業界全体での一致した理解を促進する点にあります。また、各章で扱われる具体的な事例や技術的手法は、実務者にとって重要なナビゲーションツールとなり、適切な設計および実施を支援します。 SIST EN 1997-1は、地盤工学における標準的な設計規則として、また建物や土木工程の安全で効果的な設計を実現するための重要なリソースとしての役割を果たしています。この標準は、現代の建設プロジェクトにおける地盤の信頼性と安定性を確保するために、必須であり、すべての関係者にとって極めて関連性が高いものです。

The SIST EN 1997-1:2005/A1:2014, also known as Eurocode 7: Geotechnical design - Part 1: General rules, provides a comprehensive framework for geotechnical design applicable to buildings and civil engineering works. Its clear scope is defined in three major parts, focusing on essential geotechnical design aspects that ensure safety and efficiency in construction projects. One of the strengths of EN 1997-1 is its structured approach to geotechnical design, organized into detailed sections that cover a wide range of topics. Sections addressing the basis of geotechnical design, geotechnical data, and supervision of construction create a robust foundation for practitioners in the field. Furthermore, it includes a practical examination of various structural elements such as spread foundations, pile foundations, and retaining structures. This allows engineers to apply the standard flexibly, adapting it to the specific needs of different projects. The standard excels in providing comprehensive guidelines for monitoring and maintaining infrastructure, which is critical for ensuring long-term performance and stability. Additionally, the inclusion of detailed frameworks for addressing hydraulic failure and overall stability demonstrates the standard’s commitment to safety and risk management in geotechnical practices. Accompanying Annexes A to J enhance the standard's utility by offering recommended partial safety factor values, along with supplementary guidance on internationally accepted calculation methods. This level of detail supports engineers in making informed decisions based on established best practices. Overall, SIST EN 1997-1:2005/A1:2014 stands as a significant reference for geotechnical design, balancing rigor and flexibility while addressing contemporary challenges in the field. Its framework is not only relevant but essential for ensuring safety and efficiency in modern construction practices.