Abstract: Vaporizers with protection are disclosed. The vaporizers include a built-in child protective mechanism adapted to connect and disconnect the power source from the heating element of the vaporizer thereby mitigating the ability of a child to activate the vaporizer.

Abstract: Vaporization devices, systems, and methods with automated thermal profile control are disclosed. Thermal profile information for a particular vaporizable material is encoded to control the operation of the vaporizer. The thermal profile is defined by a plurality of set points specified by power/temperature setting for a specified time. The thermal profile may be configured to be applied during a single or multiple inhalations. A thermal profile recipe code containing thermal profile information associated with the vaporizer cartridge and/or vaporizable material contained therein may be used to control the thermal profile. The thermal profile information may be automatically read by or communicated to the vaporizer and used thereby to automatically control the vaporizer heating element to implement the desired thermal profile associated with the vaporization material.

Abstract: Vaporizers with protection are disclosed. The vaporizers include a built-in child protective mechanism adapted to connect and disconnect the power source from the heating element of the vaporizer thereby mitigating the ability of a child to activate the vaporizer.

Abstract: A protective case for a mobile device having a multi-layered construction is disclosed herein. In some embodiments, the protective case has two layers, which may include a flexible inner sleeve for conformingly surrounding the mobile device and a rigid shell for engaging the flexible inner sleeve. In some alternate embodiments, the protective case has three layers, which may include a back surface layer, an internal liner layer, and a perimeter bumper layer.

Abstract: A protective case can be used with a mobile device having front and back surfaces and side surfaces extending between the front and back surfaces, including a top side, a bottom side, a right side, and a left side, the mobile device having a screen on the front surface. The protective case can include a shell configured to engage and substantially surround at least three of the surfaces of the mobile device and preferably all or nearly all surfaces of the mobile device while still capable of allowing the user to functionally interact with biometric sensor (such as a fingerprint sensor) and/or not interfere with the intended functionality of the proximity sensors of the mobile device.

Abstract: A protective case for a mobile device having a multi-layered construction is disclosed herein. In some embodiments, the protective case has two layers, which may include a flexible inner sleeve for conformingly surrounding the mobile device and a rigid shell for engaging the flexible inner sleeve. In some alternate embodiments, the protective case has three layers, which may include a back surface layer, an internal liner layer, and a perimeter bumper layer.

Abstract: Vaporizers with protection are disclosed. The vaporizers includes a built-in child protective mechanism adapted to connect and disconnect the power source from the heating element of the vaporizer thereby mitigating the ability of a child to activate the vaporizer.

Abstract: A protective case for a mobile device having a multi-layered construction is disclosed herein. The multi-layered construction includes three layers that are co-molded to one another. The construction is lightweight and low-profile, and also provides a high level of impact protection. The first layer generally forms the external back face surface of the case, the third layer generally forms the perimeter bumper of the case, and the second layer forms the internal liner and includes an elevated pattern of walls upon which the back face of the mobile device rests. The first layer is comprised of material that has a hardness greater than the other two layers. The third layer is comprised of a material that has a hardness that is greater than the hardness of the second layer. The layers are configured to interact with one another to distribute and absorb impact forces.

Abstract: A protective case for a mobile device having a multi-layered construction is disclosed herein. The protective case includes a flexible inner sleeve for conformingly surrounding the mobile device and a rigid shell for engaging the flexible inner sleeve. The flexible inner sleeve conforms to, and encapsulates, the mobile device. The rigid shell receives and engages the inner sleeve. The flexible inner sleeve and the rigid shell may be used separately or may be used as an integrated protective unit to protect a mobile device.

Abstract: A protective case for a mobile device is disclosed herein. The protective case includes a front cover, a back cover, and a relatively rigid shell. The front cover includes multiple fold lines that extend across the cover and allow adjacent regions of the cover to rotate or move relative to each other. The shell is configured to receive and retain the mobile device while providing user access to the mobile device. The shell has an outer surface configured to include a latch with an integrated hook. In operation, the latch hooks and retains one end section of the front cover to maintain the device in an angled use position when open. When in the fully closed position the latch fits within an aperture defined within a back end region of the front cover. Magnets incorporated into the front cover assist in maintaining the case in the fully closed position.

Abstract: A protective case for a mobile device having a multi-layered construction is disclosed herein. The multi layered construction includes three layers that are co-molded to one another. The construction is lightweight and low-profile, and also provides a high level of impact protection. The first layer generally forms the external back face surface of the case, the third layer generally forms the perimeter bumper of the case, and the second layer forms the internal liner and includes an elevated pattern of walls upon which the back face of the mobile device rests. The first layer is comprised of material that has a hardness greater than the other two layers. The third layer is comprised of a material that has a hardness that is greater than the hardness of the second layer. The layers are configured to interact with one another to distribute and absorb impact forces.

Abstract: A protective case for a portable mobile device is disclosed. The protective case comprises a shell that defines a compartment for receiving and retaining a mobile device, a cover panel, and a connector component. The shell has a main panel that includes an aperture and a subpanel that is hinged at a first side within the aperture and reversibly attached to the aperture via mechanical protrusions or detents at a second side so that it can rotatably attach and detach, or snap, into and out of the main panel. The hinge may be formed by one or more flexible layers overlaid on the shell or via mechanical swivel joint such as a pin and socket connection. A connector portion connects the cover panel to the shell and forms a flexible spine between the cover panel and the shell. The connector portion is comprised of opposing inner and outer layers that are overlaid over the internal and external facing surfaces of the shell and cover panel.

Abstract: A protective case for a mobile device having a multi-layered construction is disclosed herein. The protective case includes a flexible inner sleeve for conformingly surrounding the mobile device and a rigid shell for engaging the flexible inner sleeve. The flexible inner sleeve conforms to, and encapsulates, the mobile device. The rigid shell receives and engages the inner sleeve. The flexible inner sleeve and the rigid shell ma be used separately or may be used as an integrated protective unit to protect a mobile device.

Abstract: A protective case for a portable mobile device is disclosed. The protective case comprises a shell that defines a compartment for receiving and retaining a mobile device, a cover panel, and a connector component. The shell has a main panel that includes an aperture and a subpanel that is hinged at a first side within the aperture and reversibly attached to the aperture via mechanical protrusions or detents at a second side so that it can rotatably attach and detach, or snap, into and out of the main panel. The hinge may be formed by one or more flexible layers overlaid on the shell or via mechanical swivel joint such as a pin and socket connection. A connector portion connects the cover panel to the shell and forms a flexible spine between the cover panel and the shell. The connector portion is comprised of opposing inner and outer layers that are overlaid over the internal and external facing surfaces of the shell and cover panel.

Abstract: A protective case for a mobile device having a multi-layered construction is disclosed herein. The protective case includes a flexible inner sleeve for conformingly surrounding the mobile device and a rigid shell for engaging the flexible inner sleeve. The flexible inner sleeve conforms to, and encapsulates, the mobile device. The rigid shell receives and engages the inner sleeve. The flexible inner sleeve and the rigid shell may be used separately or may be used as an integrated protective unit to protect a mobile device.

Abstract: The disclosure relates to a method and apparatus for protecting a mobile device. In one embodiment, a protection device for a mobile device is disclosed which induces a combination of a flexible inner sleeve and a rigid shell. The flexible inner sleeve conforms to, and encapsulates, the mobile device. The rigid shell receives and engages the inner sleeve. The flexible inner sleeve and the rigid shell can be used separately with the mobile device or can encase the mobile device as an integrated protective unit.

Abstract: A protective case for a portable mobile device is disclosed. The protective case comprises a shell that defines a compartment for receiving and retaining a mobile device, a cover panel, and a connector component. The shell has a main panel that includes an aperture and a subpanel that is hinged at a first side within the aperture and reversibly attached to the aperture via mechanical protrusions or detents at a second side so that it can rotatably attach and detach, or snap, into and out of the main panel. The hinge may be formed by one or more flexible layers overlaid on the shell or via mechanical swivel joint such as a pin and socket connection. A connector portion connects the cover panel to the shell and forms a flexible spine between the cover panel and the shell. The connector portion is comprised of opposing inner and outer layers that are overlaid over the internal and external facing surfaces of the shell and cover panel.

Abstract: Vaporizers with protection are disclosed. The vaporizers includes a built-in child protective mechanism adapted to connect and disconnect the power source from the heating element of the vaporizer thereby mitigating the ability of a child to activate the vaporizer.

Abstract: Disclosed herein are multi-use child resistant packaging containers that are capable of protecting children from accessing the contents inside while also controlling the environment of the storage compartment wherein the contents reside. The containers are capable of being used to package goods, including perishable goods, and include valves and/or seals that facilitate purging of the oxygen and other gas from the container storage compartment after the contents have been sealed within the container by either the packager and/or end-user thereby extending shelf-life and freshness. Humidity control packet inserts housed within the lid and separated by a physical barrier from the storage compartment to mitigate against contamination and/or adulteration of the contents are disclosed. The humidity control inserts may be employed with or without a lid that includes the valves and/or seals that facilitate purging of the storage compartment.

Abstract: Vaporization devices, systems, and methods with automated thermal profile control are disclosed. Thermal profile information for a particular vaporizable material is encoded to control the operation of the vaporizer. The thermal profile is defined by a plurality of set points specified by power/temperature setting for a specified time. The thermal profile may be configured to be applied during a single or multiple inhalations. A thermal profile recipe code containing thermal profile information associated with the vaporizer cartridge and/or vaporizable material contained therein may be used to control the thermal profile. The thermal profile information may be automatically read by or communicated to the vaporizer and used thereby to automatically control the vaporizer heating element to implement the desired thermal profile associated with the vaporization material.