mhurhangee/patent-ind-claim-en huggingface dataset:
A holographic antenna comprising: a transmission line structure having a traveling wave mode along a length of the transmission line structure ; and a plurality of reconfigurable radiating elements located along the length of the transmission line structure ; a plurality of tuning devices coupled to and arranged along at least one respective reconfigurable radiating element of the plurality of reconfigurable radiating elements ; and a plurality of bias lines , wherein a respective bias line is coupled to a respective tuning device for controlling the respective tuning device of the plurality of tuning devices to be shorted to the transmission line structure or to be not shorted to the transmission line structure to reconfigure the respective reconfigurable radiating element to steer a radiation from the antenna in a desired direction and to tune a frequency of operation of the antenna. a transmission line structure having a traveling wave mode along a length of the transmission line structure ; and a plurality of reconfigurable radiating elements located along the length of the transmission line structure ; a plurality of tuning devices coupled to and arranged along at least one respective reconfigurable radiating element of the plurality of reconfigurable radiating elements ; and a plurality of bias lines , wherein a respective bias line is coupled to a respective tuning device for controlling the respective tuning device of the plurality of tuning devices to be shorted to the transmission line structure or to be not shorted to the transmission line structure to reconfigure the respective reconfigurable radiating element to steer a radiation from the antenna in a desired direction and to tune a frequency of operation of the antenna.
A protective assembly configured to be formed on an exterior surface of an aerospace structure body of an aerospace structure , the protective assembly comprising: a first region comprising a composite of particles and polymer, the first region formulated and configured to provide protection from alpha, beta, and electromagnetic radiation; a second region comprising a composite of fibers and polymer, the second region formulated and configured to provide protection from ballistic impact from hail, rocks, dirt, micro-meteoroids, and other debris as well as protection from erosion from dust and rain; a third region comprising a composite of particles , fibers, and polymer, the third region formulated and configured to provide protection from thermal radiation, and protection from rain ablation; and an additional region comprising at least one of a metallic mesh or a metallic foil , wherein the additional region is formulated and configured to provide protection from at least one of electrostatic discharge and electromagnetic discharge; wherein the first region , the second region , the third region , and the additional region comprise a common polymer, and wherein the common polymer is continuous at bond interfaces between the first region , the second region , the third region , and the additional region via a co-curing process to form substantially indistinct interfaces therebetween. a first region comprising a composite of particles and polymer, the first region formulated and configured to provide protection from alpha, beta, and electromagnetic radiation; a second region comprising a composite of fibers and polymer, the second region formulated and configured to provide protection from ballistic impact from hail, rocks, dirt, micro-meteoroids, and other debris as well as protection from erosion from dust and rain; a third region comprising a composite of particles , fibers, and polymer, the third region formulated and configured to provide protection from thermal radiation, and protection from rain ablation; and an additional region comprising at least one of a metallic mesh or a metallic foil , wherein the additional region is formulated and configured to provide protection from at least one of electrostatic discharge and electromagnetic discharge; wherein the first region , the second region , the third region , and the additional region comprise a common polymer, and wherein the common polymer is continuous at bond interfaces between the first region , the second region , the third region , and the additional region via a co-curing process to form substantially indistinct interfaces therebetween.
A mutant TGFβ polypeptide that antagonizes the activity of the TGFβ natural ligands mediated by the ALK5 receptor, said polypeptide having more than 90% identity with the sequence of (i) native, human TGFβ1, (ii) native, human TGFβ2, or (iii) native, human TGFβ3; and wherein said polypeptide comprises at least one substitution mutation in one of the amino acid residues selected from the group consisting of W30, W32, L101, 151, L51, Q67 and Y6 of the sequence of native, human TGFβ1, TGFβ2 or TGFβ3, whose amino acid residue numbering is provided in any of SEQ ID NOs: 2-73. (i) native, human TGFβ1, (ii) native, human TGFβ2, or (iii) native, human TGFβ3;
A method of manufacturing a product having a complex shape by using at least one jig and at least one mandrel , the method comprising: a preparation step of preparing a prepreg sheet and a cylindrical first mandrel around which the prepreg sheet is wound; a first rolling step of forming a first stacking surface by winding the prepreg sheet around the first mandrel ; a first heating step of taping and heating the first stacking surface ; a second mandrel preparation step of removing the tape and locating a second mandrel on an outer circumferential surface of the first stacking surface ; a second rolling step of forming a second stacking surface by winding the first stacking surface and the second mandrel with a prepreg sheet; a second heating step of taping and heating the second stacking surface ; and a core removal step of removing the first mandrel and the second mandrel wherein the second mandrel is a jig having one of various shapes. a preparation step of preparing a prepreg sheet and a cylindrical first mandrel around which the prepreg sheet is wound; a first rolling step of forming a first stacking surface by winding the prepreg sheet around the first mandrel ; a first heating step of taping and heating the first stacking surface ; a second mandrel preparation step of removing the tape and locating a second mandrel on an outer circumferential surface of the first stacking surface ; a second rolling step of forming a second stacking surface by winding the first stacking surface and the second mandrel with a prepreg sheet; a second heating step of taping and heating the second stacking surface ; and a core removal step of removing the first mandrel and the second mandrel wherein the second mandrel is a jig having one of various shapes.
A method to improve the performance in fail-safe trajectory planning for a moving entity (MOV), where the method uses at least three subsystems (COM, MON, DECIDE), wherein a first of said subsystems, the so-called commander (COM), implements at least a sensor fusion stage (SF1) and a trajectory planning stage (TRJ-PLN), and wherein a second of said subsystems, the so-called monitor (MON) implements at least a sensor fusion stage (SF2), and a safe envelope generating stage (ENV) and wherein sensors (SENS1-SENS3, SENSk, SENSk1) are monitoring the surrounding of the moving entity (MOV), and wherein said sensor fusion stages (SF1, SF2) of the commander (COM) and the monitor (MON) accept raw and/or preprocessed sensor data from the monitoring of said sensors (SENS1-SENS3, SENSk, SENSk1) as input, and wherein based on said input the sensor fusion stages (SF1, SF2) of the commander (COM) and the monitor (MON) produce as output real-time images (COM-OBJ1, COM-OBJ2, MON-OBJ1, MON-OBJ2) of objects (OBJ1, OBJ2) detected due to the monitoring by the sensors, and wherein the trajectory planning stage (TRJ-PLN) of the commander (COM) generates one or more trajectories (COM-TRJ1, COM-TRJ2) based at least on the output of the sensor fusion stage (SF1) of the commander (COM), and wherein said safe envelope generating stage (ENV) of the monitor (MON) generates a safety envelope based at least on the output of the sensor fusion stage (SF2) of the monitor (MON), and wherein the commander (COM) provides the one or more trajectories (COM-TRJ1, COM-TRJ2) to the monitor (MON) as well as to the decision subsystem (DECIDE), wherein a trajectory verification stage (TRJ-VRFY) of the monitor (MON) verifies a trajectory (COM-TRJ1, COM-TRJ2) generated by the commander (COM) if and only if said trajectory (COM-TRJ1, COM-TRJ2) is completely located inside said safety envelope generated by the safe envelope generating stage (ENV) of the monitor (MON), and wherein a moving entity (MOV) uses a trajectory (COM-TRJ1, COM-TRJ2) generated by the commander (COM) only when said trajectory is verified by the monitor (MON), and wherein the sensor fusion stages (SF1, SF2) of the commander (COM) and the monitor (MON) produce as output real-time images (COM-OBJ1, COM-OBJ2, MON-OBJ1, MON-OBJ2) of objects (OBJ1, OBJ2) detected due to the monitoring of the sensors, and wherein the trajectory planning stage (TRJ-PLN) of the commander (COM) generates one or more trajectories (COM-TRJ1, COM-TRJ2) based on the output of the sensor fusion stage (SF1) of the commander (COM), and wherein the safe envelope generation stage (ENV) generates the safety envelope based at least on the output of the sensor fusion stage (SF2) of the monitor (MON).
A solar device, comprising: a first solar cell configured to have a first long edge of a non-linear shape with protruding portions and includes first contact pads (116a-116f, 802) arranged in respective peaks of the protruding portions, wherein the first long edge extends in a length direction between respective ends of two opposing short edges that extend in a width direction; and a second solar cell configured to have a long edge to overlap with the first long edge at the protruding portions of the first solar cell , the long edge of the second solar cell is of a non-linear shape with protruding portions and including second contact pads (116a-116f, 802) in respective peaks of the protruding portions and that are aligned with the first contact pads (116a-116f, 802) to electrically connect the first solar cell and the second solar cell , thereby the first and second solar cells are arranged in a shingled manner such that an overlapping area in the width direction is larger over the contact pads (116a-166f, 802) than at points between the contact pads a first solar cell configured to have a first long edge of a non-linear shape with protruding portions and includes first contact pads (116a-116f, 802) arranged in respective peaks of the protruding portions, wherein the first long edge extends in a length direction between respective ends of two opposing short edges that extend in a width direction; and a second solar cell configured to have a long edge to overlap with the first long edge at the protruding portions of the first solar cell , the long edge of the second solar cell is of a non-linear shape with protruding portions and including second contact pads (116a-116f, 802) in respective peaks of the protruding portions and that are aligned with the first contact pads (116a-116f, 802) to electrically connect the first solar cell and the second solar cell , thereby the first and second solar cells are arranged in a shingled manner such that an overlapping area in the width direction is larger over the contact pads (116a-166f, 802) than at points between the contact pads
A method for sampling of milk in a milking machine comprising teat cups, a milk receiver to which vacuum from a vacuum supply draws milk from the teats cups, and a milk sampling arrangement, the milk sampling arrangement comprising an agitation device configured to provide a stirring process of the milk in the milk receiver , a milk sample device configured to extract a milk sample from the milk in the milk receiver , and an outlet valve device configured to control the milk flow out of the milk receiver , wherein the method comprises the steps of: - attaching teat cups to teats of an animal and starting to milk said teats; - receiving a first amount of milk in the milk receiver while keeping the outlet valve device open; - closing the outlet valve device; - continuing the receiving of milk in the milk receiver ; - agitating the milk in the milk receiver using the agitation device; and - taking a regular milk sample from the milk in an outlet portion of the milk receiver by means of the milk sample device; and - opening the outlet valve device so that the milk can be transferred to the milk tank. - attaching teat cups to teats of an animal and starting to milk said teats; - receiving a first amount of milk in the milk receiver while keeping the outlet valve device open; - closing the outlet valve device; - continuing the receiving of milk in the milk receiver ; - agitating the milk in the milk receiver using the agitation device; and - taking a regular milk sample from the milk in an outlet portion of the milk receiver by means of the milk sample device; and - opening the outlet valve device so that the milk can be transferred to the milk tank.
A method of processing content in a client computing system , content including one or more simultaneous protected content streams with distinct security properties and keying material, comprising: establishing a hardware-based root of trust between the client computing system and a service provider server; obtaining, by the client computing system , encrypted content and a key blob having an encrypted title key associated with the encrypted content from the service provider server , said key blob being bound to the client computing system; controlling content processing on the client computing system by a security processor of the client computing system ; decrypting, by the security processor , the encrypted title key and re-encrypting the title key based on a storage key burned into fuses of a platform control hub of the client computing system , in order to form a key blob; passing the encrypted title key associated with the encrypted content from the security processor to a graphics engine over a protected chip to chip data interface; passing encrypted content to the graphics engine over a protected audio/video path at the full system memory bandwidth without compromising performance or security; decrypting, decoding, and decompressing the encrypted content using the encrypted title key received from the security processor , and composing display image data, within the graphics engine ; re-encrypting the display image data within the graphics engine ; and passing the encrypted display image data to a display over a protected display interface. establishing a hardware-based root of trust between the client computing system and a service provider server; obtaining, by the client computing system , encrypted content and a key blob having an encrypted title key associated with the encrypted content from the service provider server , said key blob being bound to the client computing system; controlling content processing on the client computing system by a security processor of the client computing system ; decrypting, by the security processor , the encrypted title key and re-encrypting the title key based on a storage key burned into fuses of a platform control hub of the client computing system , in order to form a key blob; passing the encrypted title key associated with the encrypted content from the security processor to a graphics engine over a protected chip to chip data interface; passing encrypted content to the graphics engine over a protected audio/video path at the full system memory bandwidth without compromising performance or security; decrypting, decoding, and decompressing the encrypted content using the encrypted title key received from the security processor , and composing display image data, within the graphics engine ; re-encrypting the display image data within the graphics engine ; and passing the encrypted display image data to a display over a protected display interface.
A method of wirelessly transmitting power , comprising: creating a first coupling region of a first electromagnetic field within a near field of a power supply transmit antenna of a wireless power supply; coupling the first electromagnetic field and a receiver antenna of a first receiver device within the first coupling region; creating a second coupling region of a second electromagnetic field that is: (i) different from the first coupling region and (ii) within a near field of a transmit antenna of the first receiver device; coupling the second electromagnetic field to a receive antenna of a second receiver device within the second coupling region; wirelessly delivering power from the wireless power supply to the first receiver device by way of the power supply transmit antenna via the first coupling region; causing at least some of the power wirelessly delivered to, and received by, the first receiver device to be re-transmitted to the second receiver device by way of both (i) the transmit antenna of the first receiver device and (ii) the second coupling region of the electromagnetic field; the method characterized by : establishing a communication channel between the wireless power supply and the first receiver device and between the first receiver device and the second receiver device for receiving power requirement information from each of the first receiver device and the second receiver device based on changes in characteristic load factors associated with the first receiver device and the second receiver device. creating a first coupling region of a first electromagnetic field within a near field of a power supply transmit antenna of a wireless power supply; coupling the first electromagnetic field and a receiver antenna of a first receiver device within the first coupling region; creating a second coupling region of a second electromagnetic field that is: (i) different from the first coupling region and (ii) within a near field of a transmit antenna of the first receiver device; coupling the second electromagnetic field to a receive antenna of a second receiver device within the second coupling region; wirelessly delivering power from the wireless power supply to the first receiver device by way of the power supply transmit antenna via the first coupling region; causing at least some of the power wirelessly delivered to, and received by, the first receiver device to be re-transmitted to the second receiver device by way of both (i) the transmit antenna of the first receiver device and (ii) the second coupling region of the electromagnetic field; the method characterized by : establishing a communication channel between the wireless power supply and the first receiver device and between the first receiver device and the second receiver device for receiving power requirement information from each of the first receiver device and the second receiver device based on changes in characteristic load factors associated with the first receiver device and the second receiver device.
A bioreactor consumable unit comprising: a bioreactor comprising a chamber ; at least one fluid feed container integrally connected with the bioreactor and in fluid communication with the bioreactor chamber ; and an integral pumping element configured to enable fluid to flow from the at least one fluid feed container to the bioreactor chamber , wherein: the or each pumping element comprises a syringe and a valve; and the valve comprises a three-way valve (102; 1102), with a first port directly coupled to an outlet at the bottom of the fluid feed container , a second port coupled to the syringe , and a third port coupled to the bioreactor via a conduit . a bioreactor comprising a chamber ; at least one fluid feed container integrally connected with the bioreactor and in fluid communication with the bioreactor chamber ; and an integral pumping element configured to enable fluid to flow from the at least one fluid feed container to the bioreactor chamber , wherein: the or each pumping element comprises a syringe and a valve; and the valve comprises a three-way valve (102; 1102), with a first port directly coupled to an outlet at the bottom of the fluid feed container , a second port coupled to the syringe , and a third port coupled to the bioreactor via a conduit . the or each pumping element comprises a syringe and a valve; and the valve comprises a three-way valve (102; 1102), with a first port directly coupled to an outlet at the bottom of the fluid feed container , a second port coupled to the syringe , and a third port coupled to the bioreactor via a conduit .
A fortified plastic connector mount comprising: an elongated back nose with a distal end fluidly connected to a square interior channel formed axially therein; a wall with a predetermined thickness surrounding the square interior channel with an outer annular surface ; a flat top affixed to or formed as part of a proximal end of the nose; four pairs of force buttressing ribs (120 & 120') affixed to both the flat top and along the length of the outer annular surface; wherein each force buttressing rib has an interior edge and outer edge; wherein each pair of force buttressing ribs have substantially parallel interior edges; and, wherein at each corner of the outer annular surface there are two force buttressing ribs, one member from each of two pairs, affixed at the corner offset by 90 degrees. an elongated back nose with a distal end fluidly connected to a square interior channel formed axially therein; a wall with a predetermined thickness surrounding the square interior channel with an outer annular surface ; a flat top affixed to or formed as part of a proximal end of the nose; four pairs of force buttressing ribs (120 & 120') affixed to both the flat top and along the length of the outer annular surface; wherein each force buttressing rib has an interior edge and outer edge; wherein each pair of force buttressing ribs have substantially parallel interior edges; and, wherein at each corner of the outer annular surface there are two force buttressing ribs, one member from each of two pairs, affixed at the corner offset by 90 degrees.