Abstract: A third party system generates a public-private key pair, the public key of the key pair being an encryption key, and the private key of the key pair being a decryption key. The third party system publishes the encryption key as a DNS record of a third party system. The third party system receives a request to sign a message on behalf of a domain owner, the message to be sent to a recipient, and accesses an encrypted delegated private key published by the domain owner via a DNS record of the domain owner, the encrypted delegated private key encrypted using the encryption key. The third party system decrypts the encrypted delegated private key using the decryption key, and generates a signature for the message using the delegated private key. The third party system sends the signature and the message to the recipient.

Abstract: A third party system generates a public-private key pair, the public key of the key pair being an encryption key, and the private key of the key pair being a decryption key. The third party system publishes the encryption key as a DNS record of a third party system. The third party system receives a request to sign a message on behalf of a domain owner, the message to be sent to a recipient, and accesses an encrypted delegated private key published by the domain owner via a DNS record of the domain owner, the encrypted delegated private key encrypted using the encryption key. The third party system decrypts the encrypted delegated private key using the decryption key, and generates a signature for the message using the delegated private key. The third party system sends the signature and the message to the recipient.

Abstract: A third party system generates a public-private key pair, the public key of the key pair being an encryption key, and the private key of the key pair being a decryption key. The third party system publishes the encryption key as a DNS record of a third party system. The third party system receives a request to sign a message on behalf of a domain owner, the message to be sent to a recipient, and accesses an encrypted delegated private key published by the domain owner via a DNS record of the domain owner, the encrypted delegated private key encrypted using the encryption key. The third party system decrypts the encrypted delegated private key using the decryption key, and generates a signature for the message using the delegated private key. The third party system sends the signature and the message to the recipient.

Abstract: A DNS server receives from a receiving email system, a DNS query for an email domain stored at the DNS server, the DNS query including identifying information of a sender of an email. The DNS server extracts the identifying information of the email sender from the DNS query and identifies one of a plurality of delivering organizations from the information. The DNS server determines whether the identified delivering organization is authorized to deliver email on behalf of the email domain. In response to determining that the identified delivering organization is authorized to deliver email on behalf of the email domain, the DNS server generates a target validation record based on the identity of the authorized delivering organization and the email domain, the target validation record including one or more rules indicating to the receiving email system whether the delivering organization is an authorized sender of email for the email domain.

Abstract: In some examples, a chassis contains a fabric module and a plurality node modules that are arranged in a plurality of rows. The fabric module is positioned in a space between a first row and a second row of the plurality of rows, and the fabric module is connected to at least two node modules of the plurality of node modules to provide communications connectivity between the at least two node modules, the chassis to accept longitudinal insertion in a longitudinal direction of the plurality of node modules and the fabric module, the fabric module being removable in the longitudinal direction from the chassis by moving the fabric module in the space between the first row and the second row without first removing the node modules in the plurality of rows.

Abstract: According to an example, a multi-mode agent may include a processor interconnect (PI) interface to receive data from a processor and to selectively route the data to a node controller logic block, a central switch, or an optical interface based on one of a plurality of modes of operation of the multi-mode agent. The modes of operation may include a glueless mode where the PI interface is to route the data directly to the optical interface and bypass the node controller logic block and the central switch, a switched glueless mode where the PI interface is to route the data directly to the central switch for routing to the optical interface, and bypass the node controller logic block, and a glued mode where the PI interface is to route the data directly to the node controller logic block for routing to the central switch and further to the optical interface.

Abstract: An apparatus and method unlock a shaft (42, 142) of a unit (24, 124) for rotation in response to a mechanical reaction between the unit (24, 124) and an enclosure (22, 122) receiving the unit (24, 124) when the unit (24, 124) has been sufficiently inserted into the enclosure (22, 122), whereby rotation of the shaft (42, 142) linearly translates a component of the unit (24, 124) into connection with a component of the enclosure (22, 122).

Abstract: A first riser card of an apparatus in an example substantially axially connects with a first serial connection external interface of a printed circuit board (PCB) and at least in part laterally connects with a parallel connection external interface of a first memory module. The first riser card supports the first memory module with avoidance of abutment of the first memory module with a second memory module supported by a second riser card that is adjacent to the first riser card.

Abstract: A chassis is configured to hold at least one horizontal row of node modules and a fabric module. The fabric module can be positioned above or below the row so that it can communicatively couple two or more node modules. Each of the node modules and the fabric modules can be inserted into and removed from the chassis longitudinally.

Abstract: A first module including a first port to connect to a second module including a second port. The first port including an attraction field to attract a second port if the second port was within the attraction field. A flexible member can be connected to the first port and a first edge can apply a force to the first port.

Abstract: A first processor has a processor port for peer-to-peer processor communications. A switch provides for switching communications from a path between said first processor and a second processor to a path between said first processor and a third processor (and vice-versa).

Abstract: A first riser card of an apparatus in an example substantially axially connects with a first serial connection external interface of a printed circuit board (PCB) and at least in part laterally connects with a parallel connection external interface of a first memory module. The first riser card supports the first memory module with avoidance of abutment of the first memory module with a second memory module supported by a second riser card that is adjacent to the first riser card.

Abstract: A first processor has a processor port for peer-to-peer processor communications. A switch provides for switching communications from a path between said first processor and a second processor to a path between said first processor and a third processor (and vice-versa).

Abstract: A device including a hollow pipe with a variable diameter is used for medical procedures. Means are provided for reducing the diameter either internally or externally so that the pipe can be inserted into a patient's body through an incision or an opening until the distal end of the pipe reaches a desired position. Thereafter, the diameter of the pipe is increased to allow various surgical devices to be introduced through the pipe.

Abstract: A configurable optical communications system (100) for establishing point-to-point communications between multiple computer servers (160) coupled to a common midplane or backplane communications bus (132), wherein at least two of the servers include an optical input/output device (170) for sending and receiving an optical signal (112). The system further includes an optical communications pathway (140) that is configured to carry the optical signal, and at least two pivotable mirrors (150) located within the optical pathway and in-line with the optical input/output devices that are selectively orientated to direct the optical signal between the optical input/output devices to establish the point-to-point communication between the at least two servers.

Abstract: A signal suitable for signaling a computer system to reduce power consumption is generated from a plurality of power supplies. The signal is asserted when at least one of the power supplies of the plurality of power supplies signals impairment, and at least one of the power supplies of the plurality of power supplies signals that the power supply is supplying current above a threshold level.

Abstract: Techniques related to remotely boundary scanning of an integrated circuit embedded in a target computing system are disclosed herein. In an example, a host computing system includes a first peripheral port and a second peripheral port. A port-to-port boundary scan assembly is to interface boundary scan data between the first and the second peripheral ports. Thereby the boundary scan data can be routed from the second peripheral bus to the target computing system via a network port at the host computing system.

Abstract: An apparatus and method unlock a shaft (42, 142) of a unit (24, 124) for rotation in response to a mechanical reaction between the unit (24, 124) and an enclosure (22, 122) receiving the unit (24, 124) when the unit (24, 124) has been sufficiently inserted into the enclosure (22, 122), whereby rotation of the shaft (42, 142) linearly translates a component of the unit (24, 124) into connection with a component of the enclosure (22, 122).

Abstract: Techniques related to remotely boundary scanning of an integrated circuit embedded in a target computing system are disclosed herein. In an example, a host computing system includes a first peripheral port and a second peripheral port. A port-to-port boundary scan assembly is to interface boundary scan data between the first and the second peripheral ports. Thereby the boundary scan data can be routed from the second peripheral bus to the target computing system via a network port at the host computing system.

Abstract: A computer system has extensible firmware interface firmware. The EFI firmware loads incomplete virtual boot data from a resource manager and then completes the boot data. The completed boot data is used to find an operating-system image to boot. The complete virtual boot data is transferred to the resource manager.