to use the TLS secret: ```bash helm install --set tls.enabled=true,tls.certSecret=tls-ssl-minio minio/minio ``` ### Installing certificates from third party CAs MinIO can connect to other servers, including MinIO nodes or other server types such as NATs and Redis. If these servers use certificates that were not registered with a known CA, add trust for these certificates to MinIO Server by bundling these certificates into a Kubernetes secret and providing it to Helm via the `trustedCertsSecret` value....

to use the TLS secret: ```bash helm install --set tls.enabled=true,tls.certSecret=tls-ssl-minio minio/minio ``` ### Installing certificates from third party CAs MinIO can connect to other servers, including MinIO nodes or other server types such as NATs and Redis. If these servers use certificates that were not registered with a known CA, add trust for these certificates to MinIO Server by bundling these certificates into a Kubernetes secret and providing it to Helm via the `trustedCertsSecret` value....

to use the TLS secret: ```bash helm install --set tls.enabled=true,tls.certSecret=tls-ssl-minio minio/minio ``` ### Installing certificates from third party CAs MinIO can connect to other servers, including MinIO nodes or other server types such as NATs and Redis. If these servers use certificates that were not registered with a known CA, add trust for these certificates to MinIO Server by bundling these certificates into a Kubernetes secret and providing it to Helm via the `trustedCertsSecret` value....

   See the License for the specific language governing permissions and
   limitations under the License.

================================================================

github.com/nats-io/nats-server/v2
https://github.com/nats-io/nats-server/v2
----------------------------------------------------------------
                                 Apache License
                           Version 2.0, January 2004

itsirk?r&af?eg&e?ie???tef?y&onnorb?ønnørb?????r&a&blavs!.sg??g&eppo?la???o&j&f&a!dniv?k?vk??die?e&dnas?kkelf??llins?r&iel?ots??s&lab?t&ab?åb??yt??å!k??ævk??les??ts??åg&eppo?lå???ureksub.sen??e&ayb-yrettn--nx?d&ar?isemmejh321,lom?r&of?øf??år??g&gyr?nats??i&meuv&ejsem&aan?åån??sekaal??rjea??j&d&ef?oks??les??k&er&aom?åom??hgna&ark?årk??iregnir?kot!s??s&ig?uaf???l&bmab?kyb?l&av?ehtats??oh??m&it?ojt?øjt??n&arg?g&os?øs??meh?reil?te?ummok?yrb??r&dils-erts&ev?y&o?ø???ua?vod??sa&ans?åns??t&robraa?spaav??...

panic. // //go:norace func (out *Nat) Exp(x *Nat, e []byte, m *Modulus) *Nat { if !m.odd { panic("bigmod: modulus for Exp must be odd") } // We use a 4 bit window. For our RSA workload, 4 bit windows are faster // than 2 bit windows, but use an extra 12 nats worth of scratch space. // Using bit sizes that don't divide 8 are more complex to implement, but // are likely to be more efficient if necessary. table := [(1 << 4) - 1]*Nat{ // table[i] = x ^ (i+1) // newNat calls are unrolled so they are allocated...

panic. // //go:norace func (out *Nat) Exp(x *Nat, e []byte, m *Modulus) *Nat { if !m.odd { panic("bigmod: modulus for Exp must be odd") } // We use a 4 bit window. For our RSA workload, 4 bit windows are faster // than 2 bit windows, but use an extra 12 nats worth of scratch space. // Using bit sizes that don't divide 8 are more complex to implement, but // are likely to be more efficient if necessary. table := [(1 << 4) - 1]*Nat{ // table[i] = x ^ (i+1) // newNat calls are unrolled so they are allocated...