// use the normalized form of the entityName (which will be an LDAP DN).
	userType := IAMUserType(mapping.UserType)
	isGroup := mapping.IsGroup
	entityName := mapping.UserOrGroup
	if globalIAMSys.GetUsersSysType() == LDAPUsersSysType && userType == stsUser {

		// Validate that the user or group exists in LDAP and use the normalized
		// form of the entityName (which will be an LDAP DN).
		var err error
		if isGroup {

    String LDAP_ADMIN_USER_FILTER = "ldap.admin.user.filter";

    /** The key of the configuration. e.g. ou=People,dc=fess,dc=codelibs,dc=org */
    String LDAP_ADMIN_USER_BASE_DN = "ldap.admin.user.base.dn";

    /** The key of the configuration. e.g. organizationalPerson,top,person,inetOrgPerson */
    String LDAP_ADMIN_USER_OBJECT_CLASSES = "ldap.admin.user.object.classes";

		Locality:   []string{"Gophertown"},
		ExtraNames: extra[:0],
		Names: []pkix.AttributeTypeAndValue{
			{Type: asn1.ObjectIdentifier([]int{1, 2, 3, 4, 5}), Value: "golang.org"}},
	}

	tests := []struct {
		dn   pkix.Name
		want string
	}{
		{nn, "L=Gophertown,1.2.3.4.5=#130a676f6c616e672e6f7267"},
		{extraNotNil, "L=Gophertown"},
		{pkix.Name{
			CommonName:         "Steve Kille",

		HTTPStatusCode: http.StatusNotImplemented,
	},
	ErrAdminLDAPExpectedLoginName: {
		Code:           "XMinioLDAPExpectedLoginName",
		Description:    "Expected LDAP short username but was given full DN.",
		HTTPStatusCode: http.StatusBadRequest,
	},
	ErrAdminInvalidGroupName: {
		Code:           "XMinioInvalidGroupName",
		Description:    "The group name is invalid.",
		HTTPStatusCode: http.StatusBadRequest,

(u=p,a&&i.returnWinningObject?c=n[m]:c=f,i.returnFirstMatch)))return c;return c||i.nullResultValue}i.threshold=.4,i.thresholdAbsolute=20,i.caseSensitive=!1,i.nullResultValue=null,i.returnWinningObject=null,i.returnFirstMatch=!1,typeof Dn!="undefined"&&Dn.exports?Dn.exports=i:window.didYouMean=i;var e=Math.pow(2,32)-1;function t(r,n,a){a=a||a===0?a:e;var s=r.length,o=n.length;if(s===0)return Math.min(a+1,o);if(o===0)return Math.min(a+1,s);if(Math.abs(s-o)>a)return a+1;var u=[],c,f,d,p,m;for(c=0;c...

ÅoX¨=Z/ù•hk†*_ ¥,!ÉVž’Rî*Õ íø0 -d t•^ x½ a󽼈ó {·¤‡\áµ× þ6¥Ò îƒ ™xÍ«ù*k­ÈN «£ùn´X*g?NÞ gÆÈà«C \:B¯ C ù€z‡âO¤`~f KùüÒò‹l]¦ð5 „$ » ŒÕðA E ï ¢wô”L8aÜ t‰ŸŽÁ*¥Ð~ K›½púÑ |ÍVp¢ãUuç‡'lÝ£Ä(æ4Ç ° REø¼£xjá UÀ¼œ:… Ûš ˆOì}h?™ŽÜÐ¥é× ©R ’-ê É!U³ ©°X††¡.©ŒÐkŒ9†PÍB2 Ðn >²ú¬bæmHœ@¿oÏ « !ì X3=ÀÓºˆ. Ô‰ c3> ‹È~ ‹Pô ¯Ö¯tã >pZë˜{,5eä²x»2oUT®Ìô~ág™ Ú³sÜÉ×Þ³ñ6…q f‘Å &%øŒ ët™Ú)©ÄÌ wœ d”Ö(5êìázyBtí ’aYS±×jX_óÊM[&`®üÊÄécdÝ Ûà<”†¾— ±8”! ¿gVÙ· $0ƒÔ ©ÝW F[£C 7U#!z YñMƒå=y„ @*Ç ¢Ÿ× "êðÍÜ oÏÿâø/ ‰Á ¤Á{è ‘$aÃÕµO{1 ¨Û®5æ7J(hÔ ´JŽ„DŒÏ»_¦›&HÒþƒZ7Èk|...

    mv "kubelet-key.pem" "pki/private/kubelet.key"
    mv "kubelet.pem" "pki/issued/kubelet.crt"
    rm -f "kubelet.csr"

    # Make a superuser client cert with subject "O=system:masters, CN=kubecfg"
    ./easyrsa --dn-mode=org \
      --req-cn=kubecfg --req-org=system:masters \
      --req-c= --req-st= --req-city= --req-email= --req-ou= \
      build-client-full kubecfg nopass) &>"${cert_create_debug_output}" || true

  let summary = "Padding operator";

  let description = [{
    This operation pads a `input` with zeros according to the `paddings` you
    specify. `paddings` is an integer tensor with shape `[Dn, 2]`, where n is
    the rank of `input`. For each dimension D of `input`, `paddings[D, 0]`
    indicates how many zeros to add before the contents of `input` in that

	// RawTBSRevocationList contains just the tbsCertList portion of the ASN.1
	// DER.
	RawTBSRevocationList []byte
	// RawIssuer contains the DER encoded Issuer.
	RawIssuer []byte

	// Issuer contains the DN of the issuing certificate.
	Issuer pkix.Name
	// AuthorityKeyId is used to identify the public key associated with the
	// issuing certificate. It is populated from the authorityKeyIdentifier

//
// Assume segment ids' shape is [SI0, SI1, ..., SIm] and data's  shape is
// [D0, D1, ..., Dn]. Note that segment ids' shape must be a prefix of data's
// shape, so we can have data's shape represented as [SI0, SI1, ..., SIm,
// Dm+1, ..., Dn]. Then
//   output[segment_ids[SI_i0, SI_i1, ..., SI_im], D_im+1, ..., D_in] =
//      <ReductionOp> over data[SI_i0, SI_i1, ..., SI_im, D_im+1, ..., D_in]