mhurhangee/patent-ind-claim-en huggingface dataset:
A device comprising: a shield can including an opening through which at least a part of a device element is exposed; a heat dissipation module including at least a part that is arranged inside the opening so that the heat dissipation module contacts the device element arranged in the shield can a cover member connected to one surface of the heat dissipation module; and a conductive gasket arranged between the shield can and the cover member, the conductive gasket surrounding the opening and the periphery of the heat dissipation module; wherein the conductive gasket includes an open hole corresponding to the opening , and wherein a size of the open hole is smaller than a size of the opening , wherein the conductive gasket includes an adhesive layer formed on a side wall forming the open hole, the adhesive layer being bonded to the heat dissipation module . a shield can including an opening through which at least a part of a device element is exposed; a heat dissipation module including at least a part that is arranged inside the opening so that the heat dissipation module contacts the device element arranged in the shield can a cover member connected to one surface of the heat dissipation module; and a conductive gasket arranged between the shield can and the cover member, the conductive gasket surrounding the opening and the periphery of the heat dissipation module; wherein the conductive gasket includes an open hole corresponding to the opening , and wherein a size of the open hole is smaller than a size of the opening , wherein the conductive gasket includes an adhesive layer formed on a side wall forming the open hole, the adhesive layer being bonded to the heat dissipation module .
An emitter apparatus comprising: means for encoding light received from a light source to output dual rail encoded light; means for converting the dual rail encoded light into polarization encoded light and for emitting the polarization encoded light over a fibre; means for obtaining , from a receiver, pre-compensation adjustment information concerning polarization rotation in the fibre , the fibre connecting the emitter apparatus with the receiver, characterized by means for controlling the encoding based at least in part on the pre-compensation adjustment information. means for encoding light received from a light source to output dual rail encoded light; means for converting the dual rail encoded light into polarization encoded light and for emitting the polarization encoded light over a fibre; means for obtaining , from a receiver, pre-compensation adjustment information concerning polarization rotation in the fibre , the fibre connecting the emitter apparatus with the receiver, characterized by means for controlling the encoding based at least in part on the pre-compensation adjustment information.
Rubber compound for body ply skim comprising: - a mix of rubber, - a filler material, and - a vulcanization system; said compound being characterized in that said mix of rubber consists of 30 to 80 phr of Nitrile rubber having an Acrylonitrile content higher than 35% in weight; 10 to 50 phr of Epoxidized Natural Rubber (E-NR); and 10 to 50 of phr Natural Rubber (NR); the phr ratio between E-NR and NR ranging from 0.2 to 5.0. - a mix of rubber, - a filler material, and - a vulcanization system;
A method of manufacturing a wind turbine blade , comprising: performing spar cap formation which includes: forming a first-type spar cap by stacking support plates including reinforcing fibers on a mold and injecting a resin into the mold to bond the support plates by a resin bonding layer , and forming a second-type spar cap by stacking reinforcing fiber sheets on a mold and injecting a resin in a state in which the reinforcing fiber sheets are wrapped with a cover ; performing shell formation in which a pressure side shell and a suction side shell are formed by injecting a resin in a state in which the first-type spar cap , the second-type spar cap , and a core panel are disposed between an inner skin and an outer skin , the inner skin and the outer skin being made of fiber-reinforced plastic; and performing shell assembly in which the pressure side shell is joined to the suction side shell . performing spar cap formation which includes: forming a first-type spar cap by stacking support plates including reinforcing fibers on a mold and injecting a resin into the mold to bond the support plates by a resin bonding layer , and forming a second-type spar cap by stacking reinforcing fiber sheets on a mold and injecting a resin in a state in which the reinforcing fiber sheets are wrapped with a cover ; forming a first-type spar cap by stacking support plates including reinforcing fibers on a mold and injecting a resin into the mold to bond the support plates by a resin bonding layer , and forming a second-type spar cap by stacking reinforcing fiber sheets on a mold and injecting a resin in a state in which the reinforcing fiber sheets are wrapped with a cover ; performing shell formation in which a pressure side shell and a suction side shell are formed by injecting a resin in a state in which the first-type spar cap , the second-type spar cap , and a core panel are disposed between an inner skin and an outer skin , the inner skin and the outer skin being made of fiber-reinforced plastic; and performing shell assembly in which the pressure side shell is joined to the suction side shell .
A roof window system comprising at least two window units configured to be built in side by side, separated by a spacing (SP), in a roof structure of a roof, in particular comprising an inclined roof surface, each window unit defining a width (W1, W2) and a common height (H), said roof window system defining a combined width (W) in a mounted condition and comprising an insulating assembly including a plurality of frame members forming at least one insulating frame , the insulating assembly comprising two side members , each side member having a length corresponding substantially to the common height (H) of the window units , a plurality of top and bottom members including at least a first and a second top member , and at least a first and a second bottom member , and two transition members , each transition member being configured to be positioned between facing ends of the at least first and second top members , and the at least first and second bottom members , respectively, the two side members , the plurality of top and bottom members , and the two transition members forming a single insulating frame extending along a periphery of the window units including the top members, the outer side members of the window units , and the bottom members, characterised in that each transition member comprises an insulating element and an engagement element configured to bring the transition member into engagement with the associated top and bottom members at the respective facing ends thereof, that each member of said plurality of top and bottom members of the insulating assembly has a length corresponding substantially to the respective width (W1, W2) of the window units , that each transition member has a shape adapted to the shape of the respective member of said plurality of top and bottom members , and that the single insulating frame spans the combined width (W) and the common height (H) of the roof window system in the mounted condition. each transition member comprises an insulating element and an engagement element configured to bring the transition member into engagement with the associated top and bottom members at the respective facing ends thereof, that each member of said plurality of top and bottom members of the insulating assembly has a length corresponding substantially to the respective width (W1, W2) of the window units , that each transition member has a shape adapted to the shape of the respective member of said plurality of top and bottom members , and that the single insulating frame spans the combined width (W) and the common height (H) of the roof window system in the mounted condition.
Plant for the production of wind energy at sea, comprising - a number of sea-based wind turbines , each with a transformer (1.8, 1.9) and hollow structural elements , which form a foundation structure anchored to the seabed and a tower (1.1) carried by it, and comprising - a substation for connection to the grid, consisting of a number of components (4, 4.1, 4.5, 4.7, 4.8) and connected to the wind turbines by means of cables, characterized in that the components (4, 4.1, 4.5, 4.7, 4.8) are arranged in the hollow structural elements , forming the foundation structure and the tower (1.1), of a number of the wind turbines , the components (4, 4.1, 4.5, 4.7, 4.8) of the substation being distributed among the hollow structural elements , forming the foundation structure and the tower (1.1), of a number of wind turbines. - a number of sea-based wind turbines , each with a transformer (1.8, 1.9) and hollow structural elements , which form a foundation structure anchored to the seabed and a tower (1.1) carried by it, and comprising - a substation for connection to the grid, consisting of a number of components (4, 4.1, 4.5, 4.7, 4.8) and connected to the wind turbines by means of cables,
A computer implemented method to de-obfuscate data, the method comprising: receiving , by a data processing, DP, accelerator , a training request from a host over a link, the training request comprises an obfuscated data that includes one or more artificial intelligence, AI, models and training input data; de-obfuscating , by an obfuscation unit of the DP accelerator , the obfuscated data to obtain the one or more AI models and the training input data; and training the one or more AI models based on the training input data. receiving , by a data processing, DP, accelerator , a training request from a host over a link, the training request comprises an obfuscated data that includes one or more artificial intelligence, AI, models and training input data; de-obfuscating , by an obfuscation unit of the DP accelerator , the obfuscated data to obtain the one or more AI models and the training input data; and training the one or more AI models based on the training input data.
An apparatus comprising: a device interface including one or more ports coupled to and defining respective one or more data channels for respective one or more peripherals , boot control logic , a volatile buffer memory for each data channel , and a volatile configuration memory comprising a volatile configuration memory for each data channel and a volatile device configuration memory , and a non-volatile device storage memory coupled to the device interface and including several memories for boot sequences, each memory comprising two contiguous sub-memory blocks, one for data and one for boot code, each contiguous sub-memory block for boot code contiguously storing boot code with one or more boot sets including a configuration routine for the apparatus or a data channel , wherein the boot control logic is configured to sequentially execute the boot code stored in the memories and including the one or more boot sets at power up or reset of the apparatus, the configuration routine including a load of data from the contiguous sub-memory block for data outside the contiguous sub-memory block for boot code to the buffer memory , and a write of the data from the buffer memory to the configuration memory to initialize the apparatus or the port for the respective data channel . a device interface including one or more ports coupled to and defining respective one or more data channels for respective one or more peripherals , boot control logic , a volatile buffer memory for each data channel , and a volatile configuration memory comprising a volatile configuration memory for each data channel and a volatile device configuration memory , and one or more ports coupled to and defining respective one or more data channels for respective one or more peripherals , boot control logic , a volatile buffer memory for each data channel , and a volatile configuration memory comprising a volatile configuration memory for each data channel and a volatile device configuration memory , and a non-volatile device storage memory coupled to the device interface and including several memories for boot sequences, each memory comprising two contiguous sub-memory blocks, one for data and one for boot code, each contiguous sub-memory block for boot code contiguously storing boot code with one or more boot sets including a configuration routine for the apparatus or a data channel , wherein the boot control logic is configured to sequentially execute the boot code stored in the memories and including the one or more boot sets at power up or reset of the apparatus, the configuration routine including a load of data from the contiguous sub-memory block for data outside the contiguous sub-memory block for boot code to the buffer memory , and a write of the data from the buffer memory to the configuration memory to initialize the apparatus or the port for the respective data channel .
An organic light emitting device comprising: a first electrode; a hole transport layer; a first light emitting layer; a second light emitting layer; an electron transport layer; a third light emitting layer between the second light emitting layer and the electron transport layer; and a second electrode; the hole transporting layer, the first light emitting layer, the second light emitting layer and the third light emitting layer are sequentially laminated; wherein the first light emitting layer comprises a 1-1 host and a 1-2 host, the second light emitting layer comprises a 2-1 host and a 2-2 host, the third light emitting layer comprises a 3-1 host and a 3-2 host, characterized in that the 1-2 host, the 2-1 host and the 3-1 host are the same materials, and the hole transport layer comprises the same material as the 1-1 host. a first electrode; a hole transport layer; a first light emitting layer; a second light emitting layer; an electron transport layer; a third light emitting layer between the second light emitting layer and the electron transport layer; and a second electrode; the hole transporting layer, the first light emitting layer, the second light emitting layer and the third light emitting layer are sequentially laminated; wherein the first light emitting layer comprises a 1-1 host and a 1-2 host, the second light emitting layer comprises a 2-1 host and a 2-2 host, the third light emitting layer comprises a 3-1 host and a 3-2 host, characterized in that the 1-2 host, the 2-1 host and the 3-1 host are the same materials, and the hole transport layer comprises the same material as the 1-1 host.
An oil-based inkjet ink comprising a pigment, an amide-based dispersant and a non-aqueous solvent, wherein the non-aqueous solvent comprises a modified silicone oil having 2 or 3 silicon atoms in one molecule, and a petroleum-based hydrocarbon solvent.
A method of laying pipes in a landfill , characterized in that a blind hole drill channel having a first predefined diameter is produced in the landfill by driving a drill head forward; the blind hole drill channel is widened to a second predefined diameter by driving a blind hole reamer forward; the blind hole reamer is pulled backward out of the widened blind hole drill channel ; and a pipe to be laid is driven into the widened blind hole drill channel .
A mobile computed tomography CT unit , comprising a framework, provided with one or more tomographs, a table , intended to support a lying down patient and movable with respect to the framework , and a plate to which the framework and the table are fastened, wherein the framework , the table and the plate form a single portable rigid structure as a mobile computed tomography CT unit, in a monolithic way, characterized in that the plate comprises grooves for engagement with the forks of an outer forklift.
A floating connector system of an offshore energy converter device, the system comprising: a buoy having a floating I-tube providing buoyancy to the floating connector system; at least two cables for connecting the offshore energy device to additional offshore energy converter devices, the at least two cables entering the interior of the floating I-tube from a bottom end and running to the top end; and a joint box for coupling to the offshore energy device and for providing an electrical connection of the at least two cables to a switchgear of the offshore energy device, wherein the buoy has a first configuration in which the floating I-tube is air-tight at a top end providing the buoyancy and a second configuration in which an interior of the floating I-tube is accessible at the top end and the floating I-tube is not air-tight at the top end, the joint box is disposed at the top end of the floating I-tube and is accessible only in the second configuration, when the joint box is coupled to the offshore energy device and the buoy is in the second configuration, an electrical circuit with the at least two cables may be completed through the offshore energy device via the switchgear, and, when the joint box is disconnected from the offshore energy device and the buoy is in the first configuration and deployed from the offshore energy device, air retained at the top end of the floating I-tube provides the primary source of buoyancy to the floating connector system. a buoy having a floating I-tube providing buoyancy to the floating connector system; at least two cables for connecting the offshore energy device to additional offshore energy converter devices, the at least two cables entering the interior of the floating I-tube from a bottom end and running to the top end; and a joint box for coupling to the offshore energy device and for providing an electrical connection of the at least two cables to a switchgear of the offshore energy device, wherein the buoy has a first configuration in which the floating I-tube is air-tight at a top end providing the buoyancy and a second configuration in which an interior of the floating I-tube is accessible at the top end and the floating I-tube is not air-tight at the top end, the joint box is disposed at the top end of the floating I-tube and is accessible only in the second configuration, when the joint box is coupled to the offshore energy device and the buoy is in the second configuration, an electrical circuit with the at least two cables may be completed through the offshore energy device via the switchgear, and, when the joint box is disconnected from the offshore energy device and the buoy is in the first configuration and deployed from the offshore energy device, air retained at the top end of the floating I-tube provides the primary source of buoyancy to the floating connector system.
A method , comprising: capturing at least one satellite feed (103;203), the at least one satellite feed comprising a plurality of transponder signals ; demodulating each of the plurality of transponder signals, each demodulated transponder signal corresponding to a transport stream comprising a plurality of input streams , wherein the plurality of transponder signals corresponds to a plurality of transport streams; selecting a plurality of streams from the plurality of input streams and parsing the selected input streams from more than one transponder signal of the plurality of transponder signals , wherein the plurality of selected streams are selected based on predetermined criteria including one or more of: a user preference, the bandwidth availability in a coaxial feed, a determination of which video streams are frequently viewed, and the capabilities of the receiving device; assembling a plurality of new transport streams from the plurality of selected streams, wherein the plurality of new transport streams includes a first transport stream (211-a) having a first set of output streams (209-a1..209-ai) corresponding only to selected input streams parsed from more than one of the plurality of transport streams (205-a..205-x) so as to form a new combination of input streams; modulating the plurality of new transport streams to generate at least one new transponder signal ; adding the at least one new transponder signal to a channel stack; and transmitting the channel stack to a receiving device . capturing at least one satellite feed (103;203), the at least one satellite feed comprising a plurality of transponder signals ; demodulating each of the plurality of transponder signals, each demodulated transponder signal corresponding to a transport stream comprising a plurality of input streams , wherein the plurality of transponder signals corresponds to a plurality of transport streams; selecting a plurality of streams from the plurality of input streams and parsing the selected input streams from more than one transponder signal of the plurality of transponder signals , wherein the plurality of selected streams are selected based on predetermined criteria including one or more of: a user preference, the bandwidth availability in a coaxial feed, a determination of which video streams are frequently viewed, and the capabilities of the receiving device; assembling a plurality of new transport streams from the plurality of selected streams, wherein the plurality of new transport streams includes a first transport stream (211-a) having a first set of output streams (209-a1..209-ai) corresponding only to selected input streams parsed from more than one of the plurality of transport streams (205-a..205-x) so as to form a new combination of input streams; modulating the plurality of new transport streams to generate at least one new transponder signal ; adding the at least one new transponder signal to a channel stack; and transmitting the channel stack to a receiving device .
A latch arrangement for fastening a panel of a door or a window to a frame element , the latch arrangement comprising: a locking element mounted on the frame element and displaceable between a locked position in which said locking element is engaged with the panel thereby locking the panel to the frame element, and an unlocked position in which said locking element is disengaged from the panel thereby unlocking the panel from the frame element, wherein said locking element is mounted on the frame element so as to undergo a rotation between said locked position and said unlocked position; and an actuating mechanism mounted on the panel for unlocking the locking element, characterized in that the latch arrangement further comprises a stop latch displaceably attached to said locking element and configured to be selectively displaced between a securing position in which said locking element is secured in said locked position, and a released position in which said locking element is free to be displaced to said unlocked position; and wherein said actuating mechanism is configured to selectively displace said stop latch to said released position and to displace said locking element out of engagement with the panel to said unlocked position, thereby unlocking the panel from the frame element. a locking element mounted on the frame element and displaceable between a locked position in which said locking element is engaged with the panel thereby locking the panel to the frame element, and an unlocked position in which said locking element is disengaged from the panel thereby unlocking the panel from the frame element, wherein said locking element is mounted on the frame element so as to undergo a rotation between said locked position and said unlocked position; and an actuating mechanism mounted on the panel for unlocking the locking element, characterized in that the latch arrangement further comprises a stop latch displaceably attached to said locking element and configured to be selectively displaced between a securing position in which said locking element is secured in said locked position, and a released position in which said locking element is free to be displaced to said unlocked position; and wherein said actuating mechanism is configured to selectively displace said stop latch to said released position and to displace said locking element out of engagement with the panel to said unlocked position, thereby unlocking the panel from the frame element.