Abstract: A system includes first, second and third photovoltaic modules on a rood. Each module includes an upper edge, a lower edge and at least one solar cell. Lower edges of the cells of the first and second modules are offset from lower edges of the first and second modules. Upper edge of the cell of the second module is offset from the upper edge of the second module. The upper edge of the cell of the third module is offset from the upper edge of the third module. The first module overlays the second module. The lower edge of the cell of the first module is substantially aligned with the upper edge of the cell of the second module. The second module overlays the third module. The lower edge of the cell of the second module is substantially aligned with the upper edge of the cell of the third module.

Abstract: Systems and methods of the present disclosure establish a connection with a distributed data network configured to maintain token-holding data structures storing digital tokens for users utilizing client devices. One or more first digital tokens may be accessed, where the first digital tokens are maintained by a first token-holding data structure associated with a first user. The first user may utilize a first client device to access the distributed data network. The first digital tokens may be parsed to identify attributes of the first digital tokens and access to one or more computing resources is assigned to the first client device based on the one or more attributes.

Abstract: An example of an apparatus to transport utility-scale lithium-ion batteries in a racked and operational state. The apparatus includes a base and an isolation platform. In addition, the apparatus includes an isolator mounted on the base to support the isolation platform. The isolator is to dampen forces exerted on the isolation platform from the base. Furthermore, the apparatus includes a rack mounted onto the isolation platform. The rack is to secure a plurality of lithium-ion batteries to store energy at a utility-scale to be provided to a power distribution network. The plurality of lithium-ion batteries is racked in an operational state during transportation.

Abstract: Systems and methods of the present disclosure establish a connection with a distributed data network configured to maintain token-holding data structures storing digital tokens for users utilizing client devices. One or more first digital tokens may be accessed, where the first digital tokens are maintained by a first token-holding data structure associated with a first user. The first user may utilize a first client device to access the distributed data network. The first digital tokens may be parsed to identify attributes of the first digital tokens and access to one or more computing resources is assigned to the first client device based on the one or more attributes.

Abstract: Systems and methods enable a marketplace system to display, in an interface accessible to a user, first digital tokens maintained in a first token-holding data structure of a first token-holding data structure provider of a blockchain network. A selection of a second token-holding data structure provider and a selection of a second token-holding data structure associated with the second token-holding data structure provider may be received from the user. An authentication message may be received, the authentication message including encrypted information which may be decrypted to extract information for authentication of the user as owner of the second token-holding data structure. Upon authentication, a link to the second token-holding data structure may be established, and information about second digital tokens maintained in the second token-holding data structure may be received via the link to display the first digital tokens and the second digital tokens in the interface.

Abstract: Systems and methods are configured to receive an indication that a moment, such as an anchor, is to be positioned at a first location on a webpage, via code embedded in the webpage. A content specification associated with the ancor is received. An interaction rule associated with the anchor is received that specifies that content specified by the content specification is to be displayed at least partly in response to a specified user interaction with the webpage. Code is automatically generated configured to cause the anchor to be located at the first location when accessed by a user browser, wherein, at least partly in response to a user browser accessing the first webpage, and the first user interacting with the webpage in a manner that satisfies the interaction rule, the content specified by the content specification is rendered.

Abstract: Described is an image guided radiation therapy (IGRT) apparatus comprising a medical imaging device and a radiation source, wherein the radiation source is provided on a gantry which surrounds the medical imaging device. The apparatus further comprises ducting for directing cool air from a source of cool air to a gap between the gantry and the medical imaging device.

Abstract: Described is an image guided radiation therapy (IGRT) apparatus comprising a medical imaging device and a radiation source, wherein the radiation source is provided on a gantry which surrounds the medical imaging device. The apparatus further comprises ducting for directing cool air from a source of cool air to a gap between the gantry and the medical imaging device.

Abstract: The leaves of a multi-leaf collimator can be driven more easily and hence more quickly if they are supported on a ball-race instead of in a sliding groove. A recirculating path is preferred, in which the rolling elements of the ball-race support the leaf over part of their path and then return to a start of the path. In addition, the rolling elements could be driven by a drive screw in order to drive the leaf.

Abstract: The disclosure relates to measurement and classification of tissue structures in samples using a combination of light imaging and spectroscopy, in particular although not necessarily exclusively for detection of tumors such as basal cell carcinoma or breast tumors in tissue samples. Embodiments disclosed include a method of automatically identifying tissue structures in a sample, the method comprising the steps of: measuring (1702, 1703) a response of an area of the sample to illumination with light; identifying (1704) regions within the area having a measured response within a predetermined range; determining (1705) locations within the identified regions; performing (1706) spectroscopic analysis of the sample at the determined locations; and identifying (1707) a tissue structure for each region from the spectroscopic analysis performed on one or more locations therein.

Abstract: An IGRT apparatus comprising a medical imaging device (1) integrated with a linear accelerator (3, 4), the linear accelerator (3, 4) configured for emitting a radiation beam which is shaped by a beam shaper (8, 17), wherein the position of the beam shaper (8, 17) is adjustable between a first position and a second position, wherein the first position is a treatment position and the second position is a non-treatment position and wherein the IGRT apparatus comprises a gantry (2) and wherein the first position is within the gantry (2) and the second position is removed from the gantry (2).

Abstract: A radiation therapy apparatus includes a radiation source and a ring shaped gantry. The gantry includes a static ring component and a dynamic ring component upon which the radiation source is mounted, the dynamic ring component is rotatable about its center and is provided in multiple arcuate parts that can be assembled together to form the dynamic ring component.

Abstract: An example method of controlling an electrified vehicle includes activating a coast switch to a place an electrified vehicle in a coast mode.

Abstract: The disclosure relates to measurement and classification of tissue structures in samples using a combination of light imaging and spectroscopy, in particular although not necessarily exclusively for detection of tumours such as basal cell carcinoma or breast tumours in tissue samples. Embodiments disclosed include a method of automatically identifying tissue structures in a sample, the method comprising the steps of: measuring (1702, 1703) a response of an area of the sample to illumination with light; identifying (1704) regions within the area having a measured response within a predetermined range; determining (1705) locations within the identified regions; performing (1706) spectroscopic analysis of the sample at the determined locations; and identifying (1707) a tissue structure for each region from the spectroscopic analysis performed on one or more locations therein.

Abstract: An IGRT apparatus comprising a medical imaging device (1) integrated with a linear accelerator (3, 4), the linear accelerator (3, 4) configured for emitting a radiation beam which is shaped by a beam shaper (8, 17), wherein the position of the beam shaper (8, 17) is adjustable between a first position and a second position, wherein the first position is a treatment position and the second position is a non-treatment position and wherein the IGRT apparatus comprises a gantry (2) and wherein the first position is within the gantry (2) and the second position is removed from the gantry (2).

Abstract: An IGRT apparatus includes a medical imaging device integrated with a linear accelerator, the linear accelerator is configured for emitting a radiation beam, which is shaped by a beam shaper, and a gantry. The position of the beam shaper is adjustable between a first position and a second position; the first position is a treatment position and the second position is a non-treatment position and the first position is within the gantry and the second position is removed from the gantry.

Abstract: An example method of controlling an electrified vehicle includes activating a coast switch to a place an electrified vehicle in a coast mode.

Abstract: A liquid filling kit having a container with a separable bottom and top member and containing the remaining cooperating elements of the filling kit. A plurality of elongated legs, a pouch holding rack and a filling member are provided to allow flexible pouches to be filled and sealed with premixed liquids for subsequent use. The bottom member may be adapted to receive the elongated legs to thereby elevate the pouch holding rack and the filling member so that the premixed liquids may be poured through the compartments of the filling member into the open pouches held by the holding rack therebelow. Subsequent use of the filling kit, the components may be disassembled for storage within the bottom and top members forming the container.

Abstract: An IGRT apparatus includes a medical imaging device integrated with a linear accelerator, the linear accelerator is configured for emitting a radiation beam, which is shaped by a beam shaper, and a gantry. The position of the beam shaper is adjustable between a first position and a second position; the first position is a treatment position and the second position is a non-treatment position and the first position is within the gantry and the second position is removed from the gantry.

Abstract: A radiation therapy apparatus includes a radiation source and a ring shaped gantry. The gantry includes a static ring component and a dynamic ring component upon which the radiation source is mounted, the dynamic ring component is rotatable about its center and is provided in multiple arcuate parts that can be assembled together to form the dynamic ring component.