Abstract: System and methods are described which are useful for efficiently combining characteristic detection rules, such as may be done to efficiently and quickly assist in the dispositioning of user reported security threats.

Abstract: A slicer in a material drop ejecting three-dimensional (3D) object printer determines the number of material drops to eject to form a perimeter in an object layer and distributes a quantization error over the layers forming the perimeter. The slicer also identifies the location for the first material drop ejected to form the perimeter using a blue noise generator.

Abstract: A three-dimensional (3D) metal object manufacturing apparatus is operated to form sloping surfaces having a slope angle of more than 45° from a line that is perpendicular to the structure on which the layer forming the slope surface is formed. The angle corresponds to a step-out distance from the perpendicular line and a maximum individual step-out distance determined from empirically derived data. Multiple passes of an ejection head of the apparatus can be performed within a layer to form a sloped edge and the mass of the sloped structure is distributed within the sloped edge so the edge is formed without defects.

Abstract: Systems and methods are disclosed for creating simulated phishing attack messages that have characteristics which make them appear genuine, while also having characteristics that a user should recognize as being false. Simulated phishing emails may appear to be more realistic to a recipient user if the user observes that the email has also been sent to an individual known to the recipient within the same company. However, it may not be desirable to send the simulated phishing email to such additional recipients. The systems and methods include communicating a simulated phishing email from a server of a simulated phishing attack system to a recipient user of an entity. The simulated phishing email appears to the recipient user as though it is also addressed to one or more non-recipient users of the entity, even though the email is not sent to the non-recipient users.

Abstract: Systems and methods are described for verifying whether simulated phishing communications are allowed to pass by a security system of an email system to email account of users. One or more email accounts of the email system with the security system may be identified to use for a delivery verification campaign. Further, one or more types of simulated phishing communications may be selected from a plurality of types of simulated phishing communications. The delivery verification campaign may be configured to include the selection of the one or more types of simulated phishing communications from the plurality of types of simulated phishing communications. The selected one or more types of simulated phishing communications of the delivery verification campaign may be communicated to the one or more email accounts. Further, whether or not each of the one or more types of simulated phishing communications was allowed by the security system to be received unchanged at the one or more email accounts.

Abstract: A three-dimensional (3D) printer includes an ejector and a coil wrapped partially around the ejector. The 3D printer also includes a power source configured to transmit voltage pulses to the coil. The 3D printer causes one or more drops of the liquid to be jetted out of the nozzle, and a substrate configured to support the one or more drops and advance along a path defined by one or more arcuate contours, where the one or more arcuate contours define a first layer of a strut. One or more struts are printed from the first layer of the strut to a node of each strut. The one or more struts are printed from a first layer to a node and combine to fabricate a lattice structure including one or more vertical struts and/or one or more angled struts wherein each strut intersects with another strut at a node.

Abstract: A slicer in a material drop ejecting three-dimensional (3D) object printer identifies the positions and local densities for a plurality of infill lines within a perimeter to be formed within a layer of an object to be formed by the printer. The local density of each infill line is filtered and a control law is applied to the filtered local density to identify an error in the local density compared to a target density. This process is performed iteratively until the error is within a predetermined tolerance range about the target local density. The error is used to generate machine ready instructions to operate the 3D object printer to achieve the target density for the infill lines.

Abstract: A slicer in a material drop ejecting three-dimensional (3D) object printer identifies the positions and local densities for a plurality of infill lines within a perimeter to be formed within a layer of an object to be formed by the printer. The local density of each infill line is filtered and a control law is applied to the filtered local density to identify an error in the local density compared to a target density. This process is performed iteratively until the error is within a predetermined tolerance range about the target local density. The error is used to generate machine ready instructions to operate the 3D object printer to achieve the target density for the infill lines.

Abstract: Systems and methods are described for verifying whether simulated phishing communications are allowed to pass by a security system of an email system to email account of users. One or more email accounts of the email system with the security system may be identified to use for a delivery verification campaign. Further, one or more types of simulated phishing communications may be selected from a plurality of types of simulated phishing communications. The delivery verification campaign may be configured to include the selection of the one or more types of simulated phishing communications from the plurality of types of simulated phishing communications. The selected one or more types of simulated phishing communications of the delivery verification campaign may be communicated to the one or more email accounts. Further, whether or not each of the one or more types of simulated phishing communications was allowed by the security system to be received unchanged at the one or more email accounts.

Abstract: A slicer in a material drop ejecting three-dimensional (3D) object printer determines the number of material drops to eject to form a perimeter in an object layer and distributes a quantization error over the layers forming the perimeter. The slicer also identifies the location for the first material drop ejected to form the perimeter using a blue noise generator.

Abstract: A three-dimensional (3D) metal object manufacturing apparatus is operated to form sloping surfaces having a slope angle of more than 45° from a line that is perpendicular to the structure on which the layer forming the slope surface is formed. The angle corresponds to a step-out distance from the perpendicular line and a maximum individual step-out distance determined from empirically derived data. Multiple passes of an ejection head of the apparatus can be performed within a layer to form a sloped edge and the mass of the sloped structure is distributed within the sloped edge so the edge is formed without defects.

Abstract: A slicer in a material drop ejecting three-dimensional (3D) object printer identifies the positions and local densities for a plurality of infill lines within a perimeter to be formed within a layer of an object to be formed by the printer. The local density of each infill line is filtered and a control law is applied to the filtered local density to identify an error in the local density compared to a target density. This process is performed iteratively until the error is within a predetermined tolerance range about the target local density. The error is used to generate machine ready instructions to operate the 3D object printer to achieve the target density for the infill lines.

Abstract: A three-dimensional (3D) printer includes an ejector and a coil wrapped at least partially around the ejector. The 3D printer also includes a power source configured to transmit voltage pulses to the coil. The 3D printer includes a computing system causing one or more drops of the liquid to be jetted out of the nozzle, and a substrate configured to support the one or more drops and advance along a path defined by one or more arcuate contours, where the one or more arcuate contours define a first layer of a strut. One or more struts are printed from the first layer of the strut to a node of each strut. The one or more struts are printed from a first layer to a node and combine to fabricate a lattice structure including one or more vertical struts and/or one or more angled struts wherein each strut intersects with another strut at a node.

Abstract: Systems and methods are described for verifying whether simulated phishing communications are allowed to pass by a security system of an email system to email account of users. One or more email accounts of the email system with the security system may be identified to use for a delivery verification campaign. Further, one or more types of simulated phishing communications may be selected from a plurality of types of simulated phishing communications. The delivery verification campaign may be configured to include the selection of the one or more types of simulated phishing communications from the plurality of types of simulated phishing communications. The selected one or more types of simulated phishing communications of the delivery verification campaign may be communicated to the one or more email accounts. Further, whether or not each of the one or more types of simulated phishing communications was allowed by the security system to be received unchanged at the one or more email accounts.

Abstract: System and methods are described which are useful for efficiently combining characteristic detection rules, such as may be done to efficiently and quickly assist in the dispositioning of user reported security threats.

Abstract: Systems and methods are disclosed for creating simulated phishing attack messages that have characteristics which make them appear genuine, while also having characteristics that a user should recognize as being false. Simulated phishing emails may appear to be more realistic to a recipient user if the user observes that the email has also been sent to an individual known to the recipient within the same company. However, it may not be desirable to send the simulated phishing email to such additional recipients. The systems and methods include communicating a simulated phishing email from a server of a simulated phishing attack system to a recipient user of an entity. The simulated phishing email appears to the recipient user as though it is also addressed to one or more non-recipient users of the entity, even though the email is not sent to the non-recipient users.

Abstract: System and methods are described which are useful for efficiently combining characteristic detection rules, such as may be done to efficiently and quickly assist in the dispositioning of user reported security threats.

Abstract: Systems and methods are disclosed for creating simulated phishing attack messages that have characteristics which make them appear genuine, while also having characteristics that a user should recognize as being false. Simulated phishing emails may appear to be more realistic to a recipient user if the user observes that the email has also been sent to an individual known to the recipient within the same company. However, it may not be desirable to send the simulated phishing email to such additional recipients. The systems and methods include communicating a simulated phishing email from a server of a simulated phishing attack system to a recipient user of an entity. The simulated phishing email appears to the recipient user as though it is also addressed to one or more non-recipient users of the entity, even though the email is not sent to the non-recipient users.

Abstract: Systems and methods are described for verifying whether simulated phishing communications are allowed to pass by a security system of an email system to email account of users. The delivery verification campaign may be configured to include the selection of the one or more types of simulated phishing communications from the plurality of types of simulated phishing communications. The selected one or more types of simulated phishing communications of the delivery verification campaign may be communicated to one or more email accounts. It is determined whether or not each of the one or more types of simulated phishing communications was allowed by the security system to be received unchanged at the one or more email accounts.

Abstract: Systems and methods are described for verifying whether simulated phishing communications are allowed to pass by a security system of an email system to email account of users. The delivery verification campaign may be configured to include the selection of the one or more types of simulated phishing communications from the plurality of types of simulated phishing communications. The selected one or more types of simulated phishing communications of the delivery verification campaign may be communicated to one or more email accounts. It is determined whether or not each of the one or more types of simulated phishing communications was allowed by the security system to be received unchanged at the one or more email accounts.