Abstract: Disclosed embodiments are directed at systems, methods, and architecture for providing execution order and execution for plugins installed on an API gateway associated with a microservices application. In application architectures where features of microservices are implemented as plugins and migrated to an API gateway, the relevant APIs are able to be built lighter weight than otherwise. However, the migration of the features to plugins introduces the potential for error states in the microservice application. To resolve the potential issues, the API gateway takes into consideration a set of native instructions in each of the plugins to determine the execution order thereof. The execution order is determined dynamically in response to requests by the APIs of the microservice application.

Abstract: Disclosed embodiments are directed at systems, methods, and architecture for providing execution order and execution for plugins installed on an API gateway associated with a microservices application. In application architectures where features of microservices are implemented as plugins and migrated to an API gateway, the relevant APIs are able to be built lighter weight than otherwise. However, the migration of the features to plugins introduces the potential for error states in the microservice application. To resolve the potential issues, the API gateway takes into consideration a set of native instructions in each of the plugins to determine the execution order thereof. The execution order is determined dynamically in response to requests by the APIs of the microservice application.

Abstract: Disclosed embodiments are directed at systems, methods, and architecture for providing execution order and execution for plugins installed on an API gateway associated with a microservices application. In application architectures where features of microservices are implemented as plugins and migrated to an API gateway, the relevant APIs are able to be built lighter weight than otherwise. However, the migration of the features to plugins introduces the potential for error states in the microservice application. To resolve the potential issues, the API gateway takes into consideration a set of native instructions in each of the plugins to determine the execution order thereof. The execution order is determined dynamically in response to requests by the APIs of the microservice application.

Abstract: Disclosed embodiments are directed at systems, methods, and architecture for providing execution order and execution for plugins installed on an API gateway associated with a microservices application. In application architectures where features of microservices are implemented as plugins and migrated to an API gateway, the relevant APIs are able to be built lighter weight than otherwise. However, the migration of the features to plugins introduces the potential for error states in the microservice application. To resolve the potential issues, the API gateway takes into consideration a set of native instructions in each of the plugins to determine the execution order thereof. The execution order is determined dynamically in response to requests by the APIs of the microservice application.

Abstract: An oral care composition comprising (i) basic amino acid in free or salt form, (ii) calcium carbonate, (iii) a fluoride ion source, (iv) a flavoring agent comprising less than 50% menthol, and (v) an anionic surfactant, wherein the anionic surfactant is present in an amount from 1.00 weight % to 1.39 weight % is provided.

Abstract: An oral care composition comprising (i) basic amino acid in free or salt form, (ii) calcium carbonate, (iii) a fluoride ion source, (iv) a flavoring agent comprising less than 50% menthol, and (v) an anionic surfactant, wherein the anionic surfactant is present in an amount from 1.00 weight % to 1.39 weight % is provided.

Abstract: An oral care composition comprising (i) basic amino acid in free or salt form, (ii) calcium carbonate, (iii) a fluoride ion source, (iv) a flavoring agent comprising less than 50% menthol, and (v) an anionic surfactant, wherein the anionic surfactant is present in an amount from 1.00 weight % to 1.39 weight % is provided.

Abstract: An oral care composition comprising (i) basic amino acid in free or salt form, (ii) calcium carbonate, (iii) a fluoride ion source, (iv) a flavoring agent comprising less than 50% menthol, and (v) an anionic surfactant, wherein the anionic surfactant is present in an amount from 1.00 weight % to 1.39 weight % is provided.

Abstract: An oral care composition comprising (i) basic amino acid in free or salt form, (ii) calcium carbonate, (iii) a fluoride ion source, (iv) a flavoring agent comprising less than 50% menthol, and (v) an anionic surfactant, wherein the anionic surfactant is present in an amount from 1.00 weight % to 1.39 weight % is provided.

Abstract: The present invention relates to an oral care composition having an anionic surfactant, a cationic or amphoteric surfactant, and a potassium salt, wherein the oral care composition does not include a non-ionic surfactant.

Abstract: An oral care composition comprising (i) basic amino acid in free or salt form, (ii) calcium carbonate, (iii) a fluoride ion source, (iv) a flavoring agent comprising less than 50% menthol, and (v) an anionic surfactant, wherein the anionic surfactant is present in an amount from 1.00 weight % to 1.39 weight % is provided.