Abstract: A heating arrangement for a cooking appliance, such as a toaster or oven. Heating elements can be exposed in a cavity of the appliance and can have a shield that permits infrared energy to pass but blocks microwaves and/or provides physical support for internal components such as a quartz tube or resistance element. The shield can be grounded to one or more cavity walls by grounding elements that engage with the shield and a portion of the cavity wall. The heating element can emit a greater amount of infrared radiation in one direction than an opposite direction, e.g., due to a convex or other shape of the resistance element. Sets of heating elements can be controlled so that a second element begins to emit visible light at a same time that a first element stops emitting visible light. Convection air can be directed at one or more heating elements, which diffuse the air flow or otherwise prevent flow of air directly to food in the cavity.

Abstract: A heating arrangement for a cooking appliance, such as a toaster or oven. Heating elements can be exposed in a cavity of the appliance and can have a shield that permits infrared energy to pass but blocks microwaves and/or provides physical support for internal components such as a quartz tube or resistance element. The shield can be grounded to one or more cavity walls by grounding elements that engage with the shield and a portion of the cavity wall. The heating element can emit a greater amount of infrared radiation in one direction than an opposite direction, e.g., due to a convex or other shape of the resistance element. Sets of heating elements can be controlled so that a second element begins to emit visible light at a same time that a first element stops emitting visible light. Convection air can be directed at one or more heating elements, which diffuse the air flow or otherwise prevent flow of air directly to food in the cavity.

Abstract: Systems and methods track capacity and model forecasts across multiple platforms. A flow of data traffic from a first device to a second device is monitored. A future flow of data traffic is forecast based on the monitored flow, the future flow of data traffic including additional data traffic in addition to the monitored flow of data traffic. A threshold is anticipated to be reached in the forecasted future flow of data traffic. A corrective action is determined to mitigate the anticipated threshold being reached and then implemented.

Abstract: A heating arrangement for a cooking appliance, such as a toaster or oven. Heating elements can be exposed in a cavity of the appliance and can have a shield that permits infrared energy to pass but blocks microwaves and/or provides physical support for internal components such as a quartz tube or resistance element. The shield can be grounded to one or more cavity walls by grounding elements that engage with the shield and a portion of the cavity wall. The heating element can emit a greater amount of infrared radiation in one direction than an opposite direction, e.g., due to a convex or other shape of the resistance element. Sets of heating elements can be controlled so that a second element begins to emit visible light at a same time that a first element stops emitting visible light. Convection air can be directed at one or more heating elements, which diffuse the air flow or otherwise prevent flow of air directly to food in the cavity.

Abstract: Disclosed herein are bi-spring surgical impact tools and methods of use thereof. The bi-spring surgical impact tools can include a housing, a shuttle, a pinion, and first and second springs. The housing can define a cavity having a first end and a second end. The shuttle can be located within the cavity and define a plurality of indentations. The pinion can be located proximate the shuttle and have a plurality of protrusions sized to mesh with the plurality of indentations during rotation of the pinion. The first and second springs can be mechanically coupled to the housing and the shuttle. Rotation of the pinion in a first direction can translate the shuttle in a first direction towards the first end of the housing and rotation of the pinion in a second direction can translate the shuttle in a second direction towards the second end of the housing.

Abstract: A monitoring system for a cargo holding area (12) of a vehicle (10) comprises a pressure sensing device (22) locatable within the cargo holding area (12), in use, and configured to provide a pressure output indicative of the pressure applied by cargo (17) within the cargo holding area (12) to determine a state of the cargo; a determination module (42) for determining one or more comparison states of the cargo (17); a comparator module (44) configured to compare the state of the cargo with the one or more comparison states of the cargo (17) and to determine whether there is a correspondence between them; and a notification module (46) configured to provide a notification to a user of the vehicle (10) that the cargo (17) is in an unacceptable state in dependence on the result of the comparison, for example if the pressure output does not correspond to the one or more comparison states.

Abstract: A method for transforming an audio waveform into a three dimensional solid that constitutes a replication of that particular audio waveform.

Abstract: A method for specifying the layout of computing system resources includes receiving a request for a virtual machine, the request comprising a processor requirement and a memory requirement, gathering resource groupings, each resource grouping comprising a latency penalty between a processor and at least a memory. The method further includes calculating a proportionality for each resource grouping, wherein the proportionality comprises a minimum of: an amount of the processor requirement the resource grouping can satisfy and an amount of the memory requirement the resource grouping can satisfy, sorting the resource groupings based on at least the proportionality for each resource grouping to create an ordered list and binding, based on the ordered list, at least one resource group to the virtual machine, wherein the at least one resource group satisfies the processor requirement and the memory requirement.

Abstract: A method for specifying the layout of computing system resources includes receiving a request for a virtual machine, the request comprising a processor requirement and a memory requirement, gathering resource groupings, each resource grouping comprising a latency penalty between a processor and at least a memory. The method further includes calculating a proportionality for each resource grouping, wherein the proportionality comprises a minimum of: an amount of the processor requirement the resource grouping can satisfy and an amount of the memory requirement the resource grouping can satisfy, sorting the resource groupings based on at least the proportionality for each resource grouping to create an ordered list and binding, based on the ordered list, at least one resource group to the virtual machine, wherein the at least one resource group satisfies the processor requirement and the memory requirement.

Abstract: A method and system for developing a minimized install profile for installing a minimized operating environment. After installing an operating environment comprising a plurality of installation packages on a computer system, one or more applications are also installed. System changes are determined and used to identify components added by the installed applications. Additionally, installation packages are identified that are required by the installed applications and that correspond to elements of the operating environment referenced by the added components. A minimized installation profile is created for installing a minimized operating environment based upon a minimum profile template and including the identified installation packages.