Abstract: Method for generating and controlling complex strain patterns on biological materials comprising the steps of providing a magnetic stimulation device and a magneto-responsive substrate; culturing biological material in the substrate; determining the position of the magnetic stimulation device for obtaining a defined strain pattern on the biological material; placing the magnets in the position determined; and activating a magnetic stimulation device to generate a complex strain pattern in the magneto-responsive substrate and consequently in the biological material; and magneto-mechanical stimulation system comprising a magneto-responsive substrate configured to hold biological material; a holder for placing the magneto-responsive substrate; a magnetic stimulation device configured to generate a complex strain pattern on the biological material by generating a magnetic field which acts over the magneto-responsive substrate; a computing module; an imaging module for long-term monitoring; and an interface module

Abstract: Technology is shown for dynamically attaching secure properties to an identity certificate. Claims determining secure properties for an identity are signed and embedded in an identity certificate. Both the identity certificate and the signed claims in the certificate are verified. When a service request is received from the identity, the signed claims from the identity certificate are checked to determine if the request is permitted. If the request is permitted, then the service request is processed. Some examples involve creating claims determining the secure properties for the remote machine, signing the claims to create the signed claims, distributing the signed claims to a certificate authority, embedding the signed claims in the remote machine identity certificate, and distributing the remote machine identity certificate. The claims can be embedded in the certificate as X.509 properties.

Abstract: Technology is shown for establishing a chain of trust for an unknown root certificate in an isolated network that is verified using a chain of trust external to the network. A bootstrap executable and a leaf certificate rooted in the external chain of trust are configured with an OID. The leaf certificate is received in the isolated network and used to sign a new root certificate created in the isolated network to create a blob that is stored in a pre-determined location. The bootstrap executable is executed to instantiate a client machine, which retrieves the blob and verifies its signature using the leaf certificate. The client machine verifies that the OID values from the blob and bootstrap executable match. If the signature and OID checks are successful, then the new root certificate is distributed within the isolated network and installed in a PM certificate chain of trust.

Abstract: A compliance user or auditor is enabled to inject failures into a sandbox environment, which may be similar to a production service. The sandbox environment may be monitored by the same automation that watches compliance controls in the production service. As the user injects compliance failures into the sandbox, they may detect the appropriate alerts fire in the monitoring system, thereby gaining trust that the monitoring works as it should. A rich report resulting from the test activities may allow the user or auditor to see how a failure of a compliance control leads to the expected monitoring alert.

Abstract: A compliance application automatically produces certification controls by translating framework controls. The framework controls are common certification controls used in production of the certification. The application retrieves framework controls including metadata from a compliance framework data store. Metadata of the framework controls map the framework controls to the certification. In addition, the application retrieves certification parity data associated with the metadata. Certification controls are produced based on the framework controls and the certification parity data. A view of the certification including the certification controls is provided to a customer requesting the certification.

Abstract: A compliance user or auditor is enabled to inject failures into a sandbox environment, which may be similar to a production service. The sandbox environment may be monitored by the same automation that watches compliance controls in the production service. As the user injects compliance failures into the sandbox, they may detect the appropriate alerts fire in the monitoring system, thereby gaining trust that the monitoring works as it should. A rich report resulting from the test activities may allow the user or auditor to see how a failure of a compliance control leads to the expected monitoring alert.

Abstract: A compliance user or auditor is enabled to inject failures into a sandbox environment which may be similar to a production service. The sandbox environment, may be monitored by the same automation that watches compliance controls in the production service. As the user injects compliance failures into the sandbox, they may detect the appropriate alerts fire in the monitoring system, thereby gaining trust that the monitoring works as it should. A rich report resulting from the test activities may allow the user or auditor to see how a failure of a compliance control leads to the expected monitoring alert.

Abstract: Techniques to track resource usage statistics per transaction across multiple layers of protocols and across multiple threads, processes and/or devices are disclosed. In one embodiment, for example, a technique may comprise assigning an activity context to a request at the beginning of a first stage, where the activity context has an initial set of properties. The values of the properties may be assigned to the properties in the initial set during the first stage. The value of a property may be stored on a data store local to the first stage. The activity context may be transferred to a second stage when the request begins the second stage. The transferred activity context may include a property from the initial set of properties. The stored values may be analyzed to determine a resource usage statistic. Other embodiments are described and claimed.

Abstract: Provided is a process including: encrypting each of a plurality of data encryption keys with a first public cryptographic key to form encrypted data encryption keys; obtaining a second public cryptographic key; generating a transformation key based on the first public-private cryptographic key pair and the second public cryptographic key; and transforming the encrypted data encryption keys with proxy re-encryption based on the transformation key; and obtaining the second private cryptographic key and the transformed encrypted data encryption keys.

Abstract: Provided is a computer system and method that enables delegated access to encrypted information for distributed messaging and queuing frameworks, or in general, to publish/subscribe architectures. In said frameworks and architectures, data is published by data producers and organized in channels or queues, which consumer applications can subscribe to, and that are managed by one or multiple broker entities.

Abstract: A compliance application automatically produces certification controls by translating framework controls. The framework controls are common certification controls used in production of the certification. The application retrieves framework controls including metadata from a compliance framework data store. Metadata of the framework controls map the framework controls to the certification. In addition, the application retrieves certification parity data associated with the metadata. Certification controls are produced based on the framework controls and the certification parity data. A view of the certification including the certification controls is provided to a customer requesting the certification.

Abstract: A certification application automatically generates a certification document associated with a service. A transformation module retrieves a component information associated with a status of a service from a data store maintaining the component information. The component security data and component metadata is included within the component information. The component information is transformed for insertion into a certification information. Risk analysis, phraseology, and localization data is used to transform the component information. The certification document is generated based on the certification template by inserting the component information into the certification template.

Abstract: A compliance application automatically produces certification controls by translating framework controls. The framework controls are common certification controls used in production of the certification. The application retrieves framework controls including metadata from a compliance framework data store. Metadata of the framework controls map the framework controls to the certification. In addition, the application retrieves certification parity data associated with the metadata. Certification controls are produced based on the framework controls and the certification parity data. A view of the certification including the certification controls is provided to a customer requesting the certification.

Abstract: Provided is a process, including: obtaining a first ciphertext; obtaining the field size with which the first ciphertext was encrypted; obtaining a first private encryption key of the first encryption key pair; receiving a request to delegate access to the first ciphertext to a second recipient; obtaining a second private encryption key; determining a key-switching key based on the field size, the first private encryption key, and the second private encryption key; in response to the request, delegating access by forming a second ciphertext from which the plaintext is accessible with the second private encryption key; and storing the second ciphertext in memory.

Abstract: Provided is a process of securing data in a distributed storage and processing application, the process including: obtaining a cluster of computing nodes, wherein: the cluster stores a plurality of ciphertexts; accessing a transformation key with a first computing node; transforming the ciphertext with the first computing node based on the transformation key into a transformed ciphertext configured to be decrypted with a temporary access key; decrypting the transformed ciphertext with the second computing node based on the temporary access key to obtain plaintext data.

Abstract: Techniques to track resource usage statistics per transaction across multiple layers of protocols and across multiple threads, processes and/or devices are disclosed. In one embodiment, for example, a technique may comprise assigning an activity context to a request at the beginning of a first stage, where the activity context has an initial set of properties. The values of the properties may be assigned to the properties in the initial set during the first stage. The value of a property may be stored on a data store local to the first stage. The activity context may be transferred to a second stage when the request begins the second stage. The transferred activity context may include a property from the initial set of properties. The stored values may be analyzed to determine a resource usage statistic. Other embodiments are described and claimed.

Abstract: Techniques to track resource usage statistics per transaction across multiple layers of protocols and across multiple threads, processes and/or devices are disclosed. In one embodiment, for example, a technique may comprise assigning an activity context to a request at the beginning of a first stage, where the activity context has an initial set of properties. The values of the properties may be assigned to the properties in the initial set during the first stage. The value of a property may be stored on a data store local to the first stage. The activity context may be transferred to a second stage when the request begins the second stage. The transferred activity context may include a property from the initial set of properties. The stored values may be analyzed to determine a resource usage statistic. Other embodiments are described and claimed.

Abstract: A cloud service system may activate features or functionality based on agreement of at least two parties such as a system administrator and a compliance officer to mitigate compliance, security, or privacy impact on the service. The controllers may make the “enable feature” decision independently, but still have equal say in the outcome. In some examples, pre-established profiles may be provided to a controller such as a compliance officer to make decisions by selection on his/her behalf at a particular level of risk acceptance and/or to meet a particular regulatory standard/certification.

Abstract: Allocation of computing threads can include receiving a registration of a workload, the registration including a workload classification and a workload priority; monitoring statuses of a plurality of resources; identifying, by a computing device, a thread of a resource from the plurality of resources, the thread being programmed to execute a task associated with the workload; evaluating, by the computing device, the workload classification and the workload priority of the workload with workload classifications and workload priorities of other workloads requesting the thread; and allocating the thread to one of the workloads based on evaluation of the workload classification and the workload priority.

Abstract: A compliance user or auditor is enabled to inject failures into a sandbox environment which maybe similar to a production service. The sandbox environment, may be monitored by the same automation that watches compliance controls in the production service. As the user injects compliance failures into the sandbox, they may detect the appropriate alerts fire in the monitoring system, thereby gaining trust that the monitoring works as it should. A rich report resulting from the test activities may allow the user or auditor to see how a failure of a compliance control leads to the expected monitoring alert.