Abstract: An example hardware accelerator for a computer system includes a programmable device and further includes kernel logic configured in a programmable fabric of the programmable device, and an intellectual property (IP) checker circuit in the kernel logic. The IP checker circuit is configured to obtain a device identifier (ID) of the programmable device and a signed whitelist, the signed whitelist including a list of device IDs and a signature, verify the signature of the signed whitelist, compare the device ID against the list of device IDs, and selectively assert or deassert an enable of the kernel logic in response to presence or absence, respectively, of the device ID in the list of device IDs and verification of the signature.

Abstract: An example hardware accelerator for a computer system includes a programmable device and further includes kernel logic configured in a first programmable fabric of the programmable device, a shell circuit configured in a second programmable fabric of the programmable device, the shell circuit configured to provide an interface between a computer system and the kernel logic, and an intellectual property (IP) checker circuit in the kernel logic The IP checker circuit is configured to obtain a device identifier (ID) from the first programmable fabric and a signed whitelist, the signed whitelist including a list of device IDs and a signature, verify the signature of the signed whitelist, compare the device ID against the list of device IDs, and selectively assert or deassert an enable of the kernel logic in response to presence or absence, respectively, of the device ID in the list of device IDs and verification of the signature.

Abstract: A method of digital assessment of chemical dip tests is disclosed. A photograph of a dip tester including a colour change pad is taken with a mobile device, for example a mobile phone. The dip tester is photographed on or alongside a reference card, with both the dip tester and the reference card in the same frame. A processor on the mobile device analyses the photograph thus obtained to determine a value for a characteristic of water being tested. The characteristic may be for example, pH, concentration of iron, concentration of copper. The water may be central heating system water.

Abstract: An example hardware accelerator for a computer system includes a programmable device and further includes kernel logic configured in a first programmable fabric of the programmable device, a shell circuit configured in a second programmable fabric of the programmable device, the shell circuit configured to provide an interface between a computer system and the kernel logic, and an intellectual property (IP) checker circuit in the kernel logic The IP checker circuit is configured to obtain a device identifier (ID) from the first programmable fabric and a signed whitelist, the signed whitelist including a list of device IDs and a signature, verify the signature of the signed whitelist, compare the device ID against the list of device IDs, and selectively assert or deassert an enable of the kernel logic in response to presence or absence, respectively, of the device ID in the list of device IDs and verification of the signature.

Abstract: An example hardware accelerator for a computer system includes a programmable device and further includes kernel logic configured in a programmable fabric of the programmable device, and an intellectual property (IP) checker circuit in the kernel logic. The IP checker circuit is configured to obtain a device identifier (ID) of the programmable device and a signed whitelist, the signed whitelist including a list of device IDs and a signature, verify the signature of the signed whitelist, compare the device ID against the list of device IDs, and selectively assert or deassert an enable of the kernel logic in response to presence or absence, respectively, of the device ID in the list of device IDs and verification of the signature.

Abstract: A table may be sized and configured to nest with an adjacent table to reduce a height of a plurality of stacked tables in a nested configuration. The table top may include an upper surface, a sidewall and a receiving portion at least partially disposed in the upper surface and the sidewall. The receiving portion may be sized and configured to receive an engaging portion of an adjacent table when the tables are disposed in a nested configuration. The table top may also include a plurality of strengthen members disposed in the lower portion of the table top that are sized and configured to support the receiving portion. For example, the strengthening members may include an inner surface sized and configured to support an inner surface of the receiving portion.

Abstract: The present invention is a system and method for disease mapping and infection control. It may collect data from many sources, including through the tracking of Entities and external sources. Such data may be analysed by the system and represented visually. The system further facilitates data modelling. The present invention facilitates calculations of risk and exposure to an infection posed to a person, location or community. The system may be used to test and monitor infection spread and control measures. It can further be configured so as to produce reporting based upon its data to produce information relevant to the creation of infection control policies. The reports may also be utilized to develop standards and measures to improve the operation response to an outbreak of infection within an Institution or a Geographical Area, at the syndromic or pandemic levels.

Abstract: A table may be sized and configured to nest with an adjacent table to reduce a height of a plurality of stacked tables in a nested configuration. The table top may include an upper surface, a sidewall and a receiving portion at least partially disposed in the upper surface and the sidewall. The receiving portion may be sized and configured to receive an engaging portion of an adjacent table when the tables are disposed in a nested configuration. The table top may also include a plurality of strengthen members disposed in the lower portion of the table top that are sized and configured to support the receiving portion. For example, the strengthening members may include an inner surface sized and configured to support an inner surface of the receiving portion.

Abstract: A method and apparatus (10) for separating magnetic and non-magnetic particles from water in a domestic central heating system is disclosed. A magnet (60) is located in the housing and the inlet and the outlet are arranged so that, in use, water flows through the apparatus in a cyclonic motion from the inlet downwardly proximate the walls of the housing, and then upwardly within the downwardly flowing water, to the outlet. Particles entrained within the water separate out by vortex separation as the water flows downwardly. Also, magnetic particles entrained within the water are collected on the magnet as the water flows upwardly. The apparatus also comprises a sleeve (30) located within the housing such that an outer circulation channel (31) is defined between the housing and the sleeve. The magnet is located within the sleeve such that an inner circulation channel (61) is defined between the sleeve and the magnet.

Abstract: The present invention is a system and method for disease mapping and infection control. It may collect data from many sources, including through the tracking of Entities and external sources. Such data may be analysed by the system and represented visually. The system further facilitates data modelling. The present invention facilitates calculations of risk and exposure to an infection posed to a person, location or community. The system may be used to test and monitor infection spread and control measures. It can further be configured so as to produce reporting based upon its data to produce information relevant to the creation of infection control policies. The reports may also be utilized to develop standards and measures to improve the operation response to an outbreak of infection within an Institution or a Geographical Area, at the syndromic or pandemic levels.

Abstract: A modular enclosure may include a number of components, such as floor panels, wall panels and roof panels, which may be interconnected to form a structure such as a shed. For example, the shed may include wall panels with connecting portions that are sized and configured to allow adjacent wall panels to be interconnected. The wall panels may also include outwardly extending projections that allow the wall panels to be connected to the floor panels. In addition, the wall panels may include receiving portions that may receive portions of the roof panels, such as an outwardly extending lip. Advantageously, a truss may extend through the receiving portions in the wall panels and the truss may include a channel that is sized and configured to allow any water that enters the shed through a roof panel seam to be removed from the shed.

Abstract: A modular enclosure, such as a shed, may include a floor constructed from one or more floor panels. The floor panels, which may be constructed from blow-molded plastic, may include a pattern disposed on the upper surface. The floor panels may also include depressions that are formed in the lower surface and extend towards the upper surface. If desired, the depressions may be generally aligned with a portion of the pattern in the upper surface and the depressions may have a length that is less than the distance separating the upper surface and the lower surface. Advantageously, the depressions may be sized and configured to increase the strength of the floor panels. In addition, the floor panels may include a pattern disposed on the lower surface and the depressions may be at least partially disposed in the pattern. The patterns on the opposing sides of the panels may be generally offset and/or have different orientations.

Abstract: A modular enclosure may include a number of interlocking components, such as panels, that may be interconnected to form sidewalls, roof and/or floor. The panels may be constructed from blow-molded plastic and a first pattern may be disposed on one surface and a second pattern may be disposed on an opposing surface. One or more points of intersection may be located where the first pattern and the second pattern overlie, and a depression may be disposed at the points of intersection. The depressions are preferably sized and configured to increase the strength and/or rigidity of the panel.

Abstract: A modular enclosure, such as a shed, may include sidewalls and a roof. The roof, for example, may include one or more roof panels. The roof may also include a truss that is sized and configured to support the roof panels. The shed may also include one or more support beams that may be connected to the truss and may be connected to one or more panels. The shed may include one or more brackets used to connect a pair of panels that are positioned at an angle to form a corner of the shed. The shed may also include a cover, which may include one or more receiving portions sized and configured to receive at least a portion of the brackets. A plurality of roof panels may be positioned within a shipping container to form storage areas or cavities sized and configured to receive all or at least a portion of one or more floor panels.

Abstract: A method and apparatus (10) for separating magnetic and non-magnetic particles from water in a domestic central heating system is disclosed. A magnet (60) is located in the housing and the inlet and the outlet are arranged so that, in use, water flows through the apparatus in a cyclonic motion from the inlet downwardly proximate the walls of the housing, and then upwardly within the downwardly flowing water, to the outlet. Particles entrained within the water separate out by vortex separation as the water flows downwardly. Also, magnetic particles entrained within the water are collected on the magnet as the water flows upwardly. The apparatus also comprises a sleeve (30) located within the housing such that an outer circulation channel (31) is defined between the housing and the sleeve. The magnet is located within the sleeve such that an inner circulation channel (61) is defined between the sleeve and the magnet.

Abstract: A modular enclosure, such as a shed, may include a plurality of corner panels that are constructed from blow-molded plastic. Each of the corner panels may include a living hinge that generally divides the corner panel in half and allows the corner panel to be moved between a generally planar position to facilitate packaging of the shed and an angled position. The shed may also include a plurality of wall panels constructed from blow-molded plastic and disposed between the corner panels. The living hinge is preferably generally vertically positioned when the corner panels are used to construct the shed and the living hinge preferably extends generally from a top portion of the corner panel to a lower portion of the corner panel. Advantageously, the living hinge may be used to construct other portions of the shed such as shelves, skylights and roof caps.

Abstract: A modular enclosure may include a number of interlocking components, such as panels, that may be interconnected to form sidewalls, roof and/or floor. The panels may be constructed from blow-molded plastic and a first pattern may be disposed on one surface and a second pattern may be disposed on an opposing surface. One or more points of intersection may be located where the first pattern and the second pattern overlie, and a depression may be disposed at the points of intersection. The depressions are preferably sized and configured to increase the strength and/or rigidity of the panel.

Abstract: A modular enclosure may include a number of interlocking components, such as panels, that may be interconnected to form sidewalls, roof and/or floor. The panels may be constructed from blow-molded plastic and a first pattern may be disposed on one surface and a second pattern may be disposed on an opposing surface. One or more points of intersection may be located where the first pattern and the second pattern overlie, and a depression may be disposed at the points of intersection. The depressions are preferably sized and configured to increase the strength and/or rigidity of the panel.

Abstract: A modular enclosure may include a number of interlocking components, such as panels, that may be interconnected to form sidewalls, roof and/or floor. In particular, the modular enclosure may consist of a shed and the shed may be packaged within a container. For example, the shed may constructed from a number of outer wall panels and corner panels. The corner panels preferably include a living hinge that allows the corner panel to be moved between a generally planar position and an angled position. Advantageously, the wall panels and the corner panels may be capable of being stacked within the container to facilitate packaging of the shed when the corner panels are in the generally planar position.