Abstract: Systems and methods dynamically adapt network policies for mobile devices by accessing context-based values to allocate or restrict capabilities on the mobile devices or within the network. Context-based values may include position or velocity as well as more general environment features such as proximity of other devices, the presence or absence of other wireless signals or network traffic, parameters measured by local or remote sensors, user credentials, or unique user or signal inputs to the device. Relevant capabilities may include access to hardware and software interfaces and related parameter sets including priority settings.

Abstract: Systems and methods dynamically adapt network policies for mobile devices by accessing context-based values to allocate or restrict capabilities on the mobile devices or within the network. Context-based values may include position or velocity as well as more general environment features such as proximity of other devices, the presence or absence of other wireless signals or network traffic, parameters measured by local or remote sensors, user credentials, or unique user or signal inputs to the device. Relevant capabilities may include access to hardware and software interfaces and related parameter sets including priority settings.

Abstract: Systems and methods dynamically adapt network policies for mobile devices by accessing context-based values to allocate or restrict capabilities on the mobile devices or within the network. Context-based values may include position or velocity as well as more general environment features such as proximity of other devices, the presence or absence of other wireless signals or network traffic, parameters measured by local or remote sensors, user credentials, or unique user or signal inputs to the device. Relevant capabilities may include access to hardware and software interfaces and related parameter sets including priority settings.

Abstract: A recoil absorber for a firearm including a housing, a stock carrier assembly, a primary spring, and a damper cartridge assembly. The damper cartridge assembly includes a high pressure chamber, a low pressure chamber, and a piston. The piston includes a first piston orifice, a second piston orifice, a second spring, and a poppet which includes a poppet orifice. The second spring applies a biasing force on the poppet. Fluid may flow from the high pressure chamber through the poppet orifice and through the first piston orifice into the low pressure chamber when the pressure of the fluid in the high pressure chamber is between a first pressure and a second pressure. When the pressure increases above the second pressure, the poppet compresses the second spring to self-regulate the pressure in the high pressure chamber.

Abstract: Systems and methods dynamically adapt network policies for mobile devices by accessing context-based values to allocate or restrict capabilities on the mobile devices or within the network. Context-based values may include position or velocity as well as more general environment features such as proximity of other devices, the presence or absence of other wireless signals or network traffic, parameters measured by local or remote sensors, user credentials, or unique user or signal inputs to the device. Relevant capabilities may include access to hardware and software interfaces and related parameter sets including priority settings.

Abstract: Systems and methods dynamically adapt network policies for mobile devices by accessing context-based values to allocate or restrict capabilities on the mobile devices or within the network. Context-based values may include position or velocity as well as more general environment features such as proximity of other devices, the presence or absence of other wireless signals or network traffic, parameters measured by local or remote sensors, user credentials, or unique user or signal inputs to the device. Relevant capabilities may include access to hardware and software interfaces and related parameter sets including priority settings.

Abstract: A recoil absorber for a firearm including a housing, a stock carrier assembly, a primary spring, and a damper cartridge assembly. The damper cartridge assembly includes a high pressure chamber, a low pressure chamber, and a piston. The piston includes a first piston orifice, a second piston orifice, a second spring, and a poppet which includes a poppet orifice. The second spring applies a biasing force on the poppet. Fluid may flow from the high pressure chamber through the poppet orifice and through the first piston orifice into the low pressure chamber when the pressure of the fluid in the high pressure chamber is between a first pressure and a second pressure. When the pressure increases above the second pressure, the poppet compresses the second spring to self-regulate the pressure in the high pressure chamber.

Abstract: A recoil absorber for a firearm including a housing, a stock carrier assembly, a primary spring, and a damper cartridge assembly. The damper cartridge assembly includes a high pressure chamber, a low pressure chamber, and a piston. The piston includes a first piston orifice, a second piston orifice, a second spring, and a poppet which includes a poppet orifice. The second spring applies a biasing force on the poppet. Fluid may flow from the high pressure chamber through the poppet orifice and through the first piston orifice into the low pressure chamber when the pressure of the fluid in the high pressure chamber is between a first pressure and a second pressure. When the pressure increases above the second pressure, the poppet compresses the second spring to self-regulate the pressure in the high pressure chamber.

Abstract: A recoil absorber for a firearm including a housing, a stock carrier assembly, a primary spring, and a damper cartridge assembly. The damper cartridge assembly includes a high pressure chamber, a low pressure chamber, and a piston. The piston includes a first piston orifice, a second piston orifice, a second spring, and a poppet which includes a poppet orifice. The second spring applies a biasing force on the poppet. Fluid may flow from the high pressure chamber through the poppet orifice and through the first piston orifice into the low pressure chamber when the pressure of the fluid in the high pressure chamber is between a first pressure and a second pressure. When the pressure increases above the second pressure, the poppet compresses the second spring to self-regulate the pressure in the high pressure chamber.

Abstract: Systems and methods dynamically adapt network policies for mobile devices by accessing context-based values to allocate or restrict capabilities on the mobile devices or within the network. Context-based values may include position or velocity as well as more general environment features such as proximity of other devices, the presence or absence of other wireless signals or network traffic, parameters measured by local or remote sensors, user credentials, or unique user or signal inputs to the device. Relevant capabilities may include access to hardware and software interfaces and related parameter sets including priority settings.