Abstract: In various embodiments, the mounting systems described herein may be configured to mount a solar panel array to a flat concrete roof like those found throughout the Caribbean and Central and South America. Other systems described herein may be configured to facilitate mounting structures on standing seam metals roofs. Still other systems described herein may be configured to facilitate mounting structures on composite shingle, slate, or tile roofs. The mounting systems described herein may be configured as rail-less or rails free roof mounting systems.

Abstract: A mount assembly is provided for mounting a structure to a roof having a top surface. The mount includes a flashing including an aperture; a bracket including a first portion and a second portion, the first portion having an opening and a countersink extending around the opening, the second portion extending at an angle away from the flashing, the second portion including a slot configured to be coupled to the structure; a fastener extending through the aperture and through the opening of the bracket; and a seal extending around the aperture and positioned between the flashing and the first portion of the bracket, the seal engaging the countersink of the bracket and being compressed against the flashing.

Abstract: A multi-color HDR image sensor includes at least a first combination color pixel with a first color filter and an adjacent second combination color pixel with a second color filter which is different from the first color filter, wherein each combination color pixel includes at least two sub-pixels having at least two adjacent photodiodes. Within each combination color pixel, there is a dielectric deep trench isolation (d-DTI) structure to isolate the two adjacent photodiodes of the two adjacent sub-pixels with same color filters in order to prevent the electrical cross talk. Between two adjacent combination color pixels with different color filters, there is a hybrid deep trench isolation (h-DTI) structure to isolate two adjacent photodiodes of two adjacent sub-pixels with different color filters in order to prevent both optical and electrical cross talk. Each combination color pixel is enclosed on all sides by the hybrid deep trench isolation (h-DTI) structure.

Abstract: A roof mount system supports a solar panel above a roof and includes a base positioned on the roof and a first fastener connected to the base and extending away from the roof and moveable along the base in a direction generally parallel to the roof. A first clamp supports a bottom surface of a solar panel frame and adjusts the height of the solar panel above the roof by moving the first clamp along a first fastener in a direction perpendicular to the roof. A second clamp is connected to a second fastener and moves with respect to the first clamp perpendicular to the roof. The solar panel is clamped between the first clamp and the second clamp portion. A protrusion extends from the first or second clamp to form an electrical bond between the solar panel frame and the respective first or second clamp.

Abstract: A mount assembly is provided for mounting a structure to a roof having a top surface. The mount includes a flashing including an aperture; a bracket including a first portion and a second portion, the first portion having an opening and a countersink extending around the opening, the second portion extending at an angle away from the flashing, the second portion including a slot configured to be coupled to the structure; a fastener extending through the aperture and through the opening of the bracket; and a seal extending around the aperture and positioned between the flashing and the first portion of the bracket, the seal engaging the countersink of the bracket and being compressed against the flashing.

Abstract: In various embodiments, a tile system for mounting structures to a roof may comprise a base assembly, a fastener, a seal, a flashing, and a mounting bracket. The fastener may be installable on the base assembly. The seal may be installable on the fastener. The flashing may be configured to replace a roof tile. Moreover, a protrusion may be field formed in the flashing during installation of the tile system by driving the fastener through the flashing in response to the base assembly being positioned on the roof surface. The bracket may be installable on the fastener and configured to compress the flashing against the seal and the base assembly.

Abstract: A roof mount for mounting at least one solar panel to a roof surface including a base. The roof mount includes a clamp connected to the base and a first recess sized to support a first solar panel. The first recess has a first height extending between a first top flange and a first bottom flange. The clamp also includes a second recess sized to support one of a second solar panel and a skirt flange. The second recess has a second height extending between a second top flange and a second bottom flange. The roof mount further includes a fastener connected to the clamp. The second fastener is operable to adjust the first and second heights, such that upon tightening of the second fastener, the first height increases and the second height decreases, and upon loosening of the second fastener, the first height decreases and the second height increases.

Abstract: An image sensor includes an array of split dual photodiode (DPD) pairs. First groupings of the array of split DPD pairs consist entirely of either first-dimension split DPD pairs or entirely of second-dimension split DPD pairs. Each first grouping of the array of split DPD pairs consisting of the first-dimension split DPD pairs is adjacent to an other first grouping of the array of split DPD pairs consisting of the second-dimension split DPD pairs. The first-dimension is orthogonal to the second-dimension. A plurality of floating diffusion (FD) regions is arranged in each first grouping of the split DPD pairs. Each one of a plurality of transfer transistors is coupled to a respective photodiode of a respective split DPD pair, and is coupled between the respective photodiode and a respective one of the plurality of FD regions.

Abstract: In various embodiments, the mounting systems described herein may be configured to mount a solar panel array to a flat concrete roof like those found throughout the Caribbean and Central and South America. Other systems described herein may be configured to facilitate mounting structures on standing seam metals roofs. Still other systems described herein may be configured to facilitate mounting structures on composite shingle, slate, or tile roofs. The mounting systems described herein may be configured as rail-less or rails free roof mounting systems.

Abstract: A roof mount for mounting at least one solar panel to a roof surface including a base. The roof mount includes a clamp connected to the base and a first recess sized to support a first solar panel. The first recess has a first height extending between a first top flange and a first bottom flange. The clamp also includes a second recess sized to support one of a second solar panel and a skirt flange. The second recess has a second height extending between a second top flange and a second bottom flange. The roof mount further includes a fastener connected to the clamp. The second fastener is operable to adjust the first and second heights, such that upon tightening of the second fastener, the first height increases and the second height decreases, and upon loosening of the second fastener, the first height decreases and the second height increases.

Abstract: A multi-color HDR image sensor includes at least a first combination color pixel with a first color filter and an adjacent second combination color pixel with a second color filter which is different from the first color filter, wherein each combination color pixel includes at least two sub-pixels having at least two adjacent photodiodes. Within each combination color pixel, there is a dielectric deep trench isolation (d-DTI) structure to isolate the two adjacent photodiodes of the two adjacent sub-pixels with same color filters in order to prevent the electrical cross talk. Between two adjacent combination color pixels with different color filters, there is a hybrid deep trench isolation (h-DTI) structure to isolate two adjacent photodiodes of two adjacent sub-pixels with different color filters in order to prevent both optical and electrical cross talk. Each combination color pixel is enclosed on all sides by the hybrid deep trench isolation (h-DTI) structure.

Abstract: An image sensor includes an array of split dual photodiode (DPD) pairs. First groupings of the array of split DPD pairs consist entirely of either first-dimension split DPD pairs or entirely of second-dimension split DPD pairs. Each first grouping of the array of split DPD pairs consisting of the first-dimension split DPD pairs is adjacent to an other first grouping of the array of split DPD pairs consisting of the second-dimension split DPD pairs. The first-dimension is orthogonal to the second-dimension. A plurality of floating diffusion (FD) regions is arranged in each first grouping of the split DPD pairs. Each one of a plurality of transfer transistors is coupled to a respective photodiode of a respective split DPD pair, and is coupled between the respective photodiode and a respective one of the plurality of FD regions.

Abstract: A mount assembly is provided for mounting a structure to a roof having a top surface. The mount includes a flashing including an aperture; a bracket including a first portion and a second portion, the first portion having an opening and a countersink extending around the opening, the second portion extending at an angle away from the flashing, the second portion including a slot configured to be coupled to the structure; a fastener extending through the aperture and through the opening of the bracket; and a seal extending around the aperture and positioned between the flashing and the first portion of the bracket, the seal engaging the countersink of the bracket and being compressed against the flashing.

Abstract: A roof mount for mounting at least one solar panel to a roof surface including a base. The roof mount includes a clamp connected to the base and a first recess sized to support a first solar panel. The first recess has a first height extending between a first top flange and a first bottom flange. The clamp also includes a second recess sized to support one of a second solar panel and a skirt flange. The second recess has a second height extending between a second top flange and a second bottom flange. The roof mount further includes a fastener connected to the clamp. The second fastener is operable to adjust the first and second heights, such that upon tightening of the second fastener, the first height increases and the second height decreases, and upon loosening of the second fastener, the first height decreases and the second height increases.

Abstract: A roof mount system supports a solar panel above a roof and includes a base positioned on the roof and a first fastener connected to the base and extending away from the roof and moveable along the base in a direction generally parallel to the roof. A first clamp supports a bottom surface of a solar panel frame and adjusts the height of the solar panel above the roof by moving the first clamp along a first fastener in a direction perpendicular to the roof. A second clamp is connected to a second fastener and moves with respect to the first clamp perpendicular to the roof. The solar panel is clamped between the first clamp and the second clamp portion. A protrusion extends from the first or second clamp to form an electrical bond between the solar panel frame and the respective first or second clamp.

Abstract: In various embodiments, a roof mounting system may comprise a short base, a tall base, a first clamp assembly and a second clamp assembly. The short base may have a first body and a first slot. The first slot may be formed on the first body at an angle. The tall base may have a second body and a second slot. The second slot may be formed on the second body at the angle. The first clamp assembly may be configured to be operatively couple to the first slot. The second clamp assembly may be configured to be operatively couple to the second slot. The first clamp and the second clamp may be configured to engage and retain a solar panel on the short base and the tall base at the angle.

Abstract: In various embodiments, a mounting system may comprise a downslope rail, an upslope rail, a first clamp and a second clamp. The downslope rail may have a first profile and comprising a downslope face and an upslope shelf. The upslope rail may have a second profile and comprising a downslope shelf and an upslope face. The first clamp may be configured to engage the downslope face and accept the installation of a first end of a solar panel.

Abstract: In various embodiments, a flashing system may comprise a flashing having a uniform top surface having at least one of a flat profile, an S profile, and a W profile. The flashing system may further include a hook capable of being attached to the decking of a roof and disposed beneath the flashing. The flashing may be customizable by a user in the field to adjust a slot in the flashing to install the flashing on the hook.

Abstract: In various embodiments, a stabilization assembly may comprise a shaft, a foot, a snap plate and a nut. The foot may be operatively coupled to the shaft. The snap plate may be configured to surround and retain the shaft. The nut may be installable on the shaft and engagable to raise and lower a foot. The stabilization assembly may be installed in a solar panel coupling. The foot may be driven to engagement with a roof surface in response to the coupling being installed on the roof.

Abstract: Embodiments herein describe tools, instruments and methods for aseptic loading, dispensing and/or delivering cells into an implantable device and aseptically and selectively sealing a device inside a sterile package as well as and storing and preparing for shipment the cell-filled device.