Abstract: Systems and methods include modifying a random number pool using one or more user-identified randomization processes to produce a modified RN pool with a user-specific modification that is unknown to or otherwise separated from a RN provider. Systems and methods also include sending and receiving encrypted messages that are encrypted and decrypted using the modified RN pool.

Abstract: An example embodiment may involve performing a discovery process to identify configuration items representing computing devices and applications in a managed network and determining that the configuration items exceed a threshold payload size. The embodiment may then involve generating a graph that represents the configuration items as nodes interconnected by unidirectional edges. The edges may represent respective associations between pairs of configuration items to which they connect, and the respective associations are classified either as weak associations that represent non-dependency relationships between a respective pair of nodes or as strong associations that represent dependency relationships between the respective pair of nodes. The embodiment may involve dividing the graph into overlapping sub-graphs based on the respective associations represented by the edges and, for each sub-graph, separately transmitting the configuration items defined therein to one or more server devices.

Abstract: Systems and methods include modifying a random number pool using one or more user-identified randomization processes to produce a modified RN pool with a user-specific modification that is unknown to or otherwise separated from a RN provider. Systems and methods also include sending and receiving encrypted messages that are encrypted and decrypted using the modified RN pool.

Abstract: Systems and methods include modifying a Tme Random Number (TRN) pool using one or more user-identified randomization processes to produce a modified TRN pool with a user-specific modification that is unknown to or otherwise separated from a TRN provider. Systems and methods also include sending and receiving encrypted messages that are encrypted and decrypted using the modified TRN pool.

Abstract: Systems and methods include modifying a Tme Random Number (TRN) pool using one or more user-identified randomization processes to produce a modified TRN pool with a user-specific modification that is unknown to or otherwise separated from a TRN provider. Systems and methods also include sending and receiving encrypted messages that are encrypted and decrypted using the modified TRN pool.

Abstract: An example embodiment may involve performing a discovery process to identify configuration items representing computing devices and applications in a managed network and determining that the configuration items exceed a threshold payload size. The embodiment may then involve generating a graph that represents the configuration items as nodes interconnected by unidirectional edges. The edges may represent respective associations between pairs of configuration items to which they connect, and the respective associations are classified either as weak associations that represent non-dependency relationships between a respective pair of nodes or as strong associations that represent dependency relationships between the respective pair of nodes. The embodiment may involve dividing the graph into overlapping sub-graphs based on the respective associations represented by the edges and, for each sub-graph, separately transmitting the configuration items defined therein to one or more server devices.

Abstract: An example embodiment may involve performing a discovery process to identify configuration items representing computing devices and applications in a managed network and determining that the configuration items exceed a threshold payload size. The embodiment may then involve generating a graph that represents the configuration items as nodes interconnected by unidirectional edges. The edges may represent respective associations between pairs of configuration items to which they connect, and the respective associations are classified either as weak associations that represent non-dependency relationships between a respective pair of nodes or as strong associations that represent dependency relationships between the respective pair of nodes. The embodiment may involve dividing the graph into overlapping sub-graphs based on the respective associations represented by the edges and, for each sub-graph, separately transmitting the configuration items defined therein to one or more server devices.

Abstract: An example embodiment may involve performing a discovery process to identify configuration items representing computing devices and applications in a managed network and determining that the configuration items exceed a threshold payload size. The embodiment may then involve generating a graph that represents the configuration items as nodes interconnected by unidirectional edges. The edges may represent respective associations between pairs of configuration items to which they connect, and the respective associations are classified either as weak associations that represent non-dependency relationships between a respective pair of nodes or as strong associations that represent dependency relationships between the respective pair of nodes. The embodiment may involve dividing the graph into overlapping sub-graphs based on the respective associations represented by the edges and, for each sub-graph, separately transmitting the configuration items defined therein to one or more server devices.

Abstract: The personal wearable speaker system includes a backpack having a plurality of substantially hollow tubular ducts formed from a substantially flexible material designed to promote superior sound wave flow and anti-collapse (pinch) functionality, and a plurality of pairs of sound transducers.

Abstract: The personal wearable speaker system includes a backpack having a plurality of substantially hollow tubular ducts formed from a substantially flexible material designed to promote superior sound wave flow and anti-collapse (pinch) functionality, and a plurality of pairs of sound transducers.

Abstract: A projection screen is constructed of an open mesh fabric central portion for imaging a projected image, a sturdier border, and hanging hardware at each of the corners of the border. The central portion is constructed of a knit of multiple synthetic fibers twisted together and provides a screen with high diffusion. The open mesh provides substantial transparency to the screen when no image is being projected onto the screen permitting the screen to be used in a manner in which it will not act as a significant visual barrier when installed but not in use. The screen is mounted with hanging hardware that pulls the border and central portion taut. The screen when installed and taut has high diffusion and permits both front and rear projection with substantially equal brightness at both sides of the screen.

Abstract: The personal wearable speaker system includes a garment having a plurality of substantially hollow tubular ducts formed from a substantially flexible material designed to promote superior sound wave flow and anti-collapse (pinch) functionality, and a plurality of pairs of sound transducers. The plurality of ducts each have a first end and a second end which are substantially enclosed by the garment. Each of the ducts defines a chamber within. The ducts each have a length, a width, and a height which is perpendicular to both the length and the width, and preferably have a width to height ratio of three to one or less. Alternately, the ducts may be substantially flat and have an undulating front surface. Sound transducers are adapted to fit at least partially within the chambers of the ducts. Some of the sound transducers are adapted to project sound toward an ear of a wearer. Other transducers are adapted to project soundwaves toward a body of the wearer.

Abstract: A directional speaker system includes an enclosure having an inner surface, an outer surface, an open end, and a closed end, a speaker driver directed toward the open end and mounted near the closed end of the enclosure, an in-line phase plug mounted in front of the speaker driver for manipulating the wavefront of sound waves produced by the speaker driver, and a preferably frustoconical shaped wave guide provided between the speaker driver and the open end of the speaker enclosure. A preferably annular space is provided between the enclosure and the wave guide and a plurality of openings are provided between the enclosure at the open end of the enclosure. Out-of-phase sound waves produced by the speaker driver travel into the space and exit the speaker system through the openings.

Abstract: An open back speaker module includes a speaker mounting element having a front face defining at least one sound transducer opening and a rim provided with a first set of electrical contacts, and at least one sound transducer for creating sound waves mounted to the sound transducer opening of the speaker mounting element. The open back speaker module is couplable to a structural element such that the speaker module and the structural element at least partially define a chamber behind the sound transducer. A receptacle or a gasket, couplable to the structural element and adapted to engage or be engaged by the speaker mounting element, may also be provided to help secure the open back speaker module to the structural element. The speaker module, receptacle, and the gasket are preferably flexible such that they may conform to any shaped of structural element. However, the speaker module and/or the receptacle may instead be rigidly formed and pre-shaped to conform to the shape of a specific structural element.

Abstract: A speaker assembly is provided including a rigid front speaker mounting element defining at least one speaker mounting opening, at least one speaker driver coupled to the at least one speaker mounting opening of the speaker mounting element, at least one flexible bladder at least partially forming the sides and rear of the enclosure and coupled to the speaker mounting element, and a valve coupled to the flexible bladder. The flexible bladder has a first wall portion and a second wall portion defining a substantially air-tight interior space therebetween and may take any desired shape when inflated. Together, the speaker mounting element and the bladder form at least one interior chamber at least partially surrounding the speaker driver. The valve, which provides a substantially air-tight seal when closed, is in fluid communication with the interior space of the flexible bladder and can be used for inflation and deflation of the bladder.