mhurhangee/patent-ind-claim-en huggingface dataset:
A glenoid implant system comprising: an anchoring structure having a base , a wall , and a ledge , the wall extending from a first surface of the base , the ledge extending generally along at least a portion of a first side of the wall thereby forming an undercut , the wall having a slot formed in a second opposing side of the wall ; and a glenoid liner configured to be removably coupled to the anchoring structure , the glenoid liner having a cap portion , a main body , and a deflectable finger , the cap portion having a first surface and a second opposing surface , the main body extending from the second opposing surface of the cap portion and including a lip configured to engage the undercut of the anchoring structure , the deflectable finger extending from the second opposing surface of the cap portion , the deflectable finger having a protrusion configured to engage the slot of the anchoring structure to aid in securing the glenoid liner to the anchoring structure , wherein the ledge of the anchoring structure includes a first protrusion configured to engage a first corresponding notch formed in the main body of the glenoid liner , characterized in that the first protrusion extends from the first side of the wall a greater distance than a remainder of the ledge . an anchoring structure having a base , a wall , and a ledge , the wall extending from a first surface of the base , the ledge extending generally along at least a portion of a first side of the wall thereby forming an undercut , the wall having a slot formed in a second opposing side of the wall ; and a glenoid liner configured to be removably coupled to the anchoring structure , the glenoid liner having a cap portion , a main body , and a deflectable finger , the cap portion having a first surface and a second opposing surface , the main body extending from the second opposing surface of the cap portion and including a lip configured to engage the undercut of the anchoring structure , the deflectable finger extending from the second opposing surface of the cap portion , the deflectable finger having a protrusion configured to engage the slot of the anchoring structure to aid in securing the glenoid liner to the anchoring structure , wherein the ledge of the anchoring structure includes a first protrusion configured to engage a first corresponding notch formed in the main body of the glenoid liner , characterized in that the first protrusion extends from the first side of the wall a greater distance than a remainder of the ledge .
A method for producing a vinyl alcohol-vinyl acetate copolymer comprising a unit of vinyl alcohol and a unit of vinyl acetate, the vinyl alcohol-vinyl acetate copolymer having a randomness value R of 0.5 or higher, the randomness value R being obtained using the following equation : R = 1 L A + 1 L O where L O represents a mean chain length of the unit of vinyl alcohol and L A represents a mean chain length of the unit of vinyl acetate, the method comprising the step of: transesterification of polyvinyl acetate or a raw material vinyl alcohol-vinyl acetate copolymer using a dianionic zincate complex represented by the following formula : t − Bu n R 4 − n ZnM m where n represents an integer of 1 to 4, m represents 1 or 2, Rs may be the same as or different from one another when n represents 1 or 2 and each represent a C1-C8 alkyl, alkenyl, aryl, or arylalkyl group, and when M represents lithium, m represents 2 and when M represents magnesium, m represents 1.
A percutaneous lead assembly for supplying electrical signals to a medical device implanted within a body of a patient, said lead assembly comprising a flexible elongate member having a first portion adapted to remain external to the body of a patient and adapted to be connected to an external controller, said first portion having a first diameter; and a second portion joined to said first portion and adapted to extend through a hole in a skin layer of the patient, the second portion having a second diameter which is smaller than said first diameter, wherein the second portion includes a first region covered with a textured outer surface and adapted for being placed within the patient's body, and a relatively thin second region adapted to extend externally past the hole with the second diameter and without the textured outer surface , wherein the relatively thin second region is integrally joined to a relatively thick region of said first portion . a first portion adapted to remain external to the body of a patient and adapted to be connected to an external controller, said first portion having a first diameter; and a second portion joined to said first portion and adapted to extend through a hole in a skin layer of the patient, the second portion having a second diameter which is smaller than said first diameter,
A pass gate structure, comprising: a first transistor and a second transistor arranged on a semiconductor fin , wherein the first transistor is stacked vertically above the second transistor, wherein the semiconductor fin is separated vertically into an upper region and a lower region , wherein the upper region of the fin and the lower region of the fin are separated by an insulating layer , wherein the first transistor comprises a first gate structure for controlling the upper region of the semiconductor fin , and wherein the second transistor comprises a second gate structure for controlling the lower region of the semiconductor fin , wherein the second gate structure has a same conductivity type as the conductivity type of the first gate structure ; a first conductive contact contacting a first source/drain region of the first transistor for forming a connection to a first inverter structure; a second conductive contact contacting a first source/drain region of the second transistor for forming a connection to a second inverter structure; a third conductive contact contacting a second source/drain region of the first transistor for forming a first bit line contact; and a fourth conductive contact contacting a second source/drain region of the second transistor for forming a second bit line contact. a first transistor and a second transistor arranged on a semiconductor fin , wherein the first transistor is stacked vertically above the second transistor, wherein the semiconductor fin is separated vertically into an upper region and a lower region , wherein the upper region of the fin and the lower region of the fin are separated by an insulating layer , wherein the first transistor comprises a first gate structure for controlling the upper region of the semiconductor fin , and wherein the second transistor comprises a second gate structure for controlling the lower region of the semiconductor fin , wherein the second gate structure has a same conductivity type as the conductivity type of the first gate structure ; a first conductive contact contacting a first source/drain region of the first transistor for forming a connection to a first inverter structure; a second conductive contact contacting a first source/drain region of the second transistor for forming a connection to a second inverter structure; a third conductive contact contacting a second source/drain region of the first transistor for forming a first bit line contact; and a fourth conductive contact contacting a second source/drain region of the second transistor for forming a second bit line contact.
A method comprising: charging a device coupled to a charger , the device comprising components and a storage element ; detecting a charger attached power supply configuration of two or more power supplies, the two or more power supplies comprising first and second power supplies; and said method being characterised by outputting, by the charger , a charge current of the charger based on a summation of currents of the detected power supplies, wherein the outputting comprises simultaneously: outputting, along a first output charging path , to the components of the device , current input to the charger from one of the first and second power supplies, and outputting, along a second output charging path , to the storage element of the device , current input to the charger from the other one of the first and second power supplies. charging a device coupled to a charger , the device comprising components and a storage element ; detecting a charger attached power supply configuration of two or more power supplies, the two or more power supplies comprising first and second power supplies; and said method being characterised by outputting, by the charger , a charge current of the charger based on a summation of currents of the detected power supplies, wherein the outputting comprises simultaneously: outputting, along a first output charging path , to the components of the device , current input to the charger from one of the first and second power supplies, and outputting, along a second output charging path , to the storage element of the device , current input to the charger from the other one of the first and second power supplies. outputting, along a first output charging path , to the components of the device , current input to the charger from one of the first and second power supplies, and outputting, along a second output charging path , to the storage element of the device , current input to the charger from the other one of the first and second power supplies.
Crankcase ventilation valve, comprising a valve element to be placed on a ventilation aperture in the crankcase, in a crankcase ventilation valve housing or in a housing of a crankcase ventilation filter, a conical spring whose front face with larger diameter is acting upon the valve element , pressing it in a closing position on the ventilation aperture , and a cover to be fixed to the crankcase, the crankcase ventilation valve housing or the housing of the crankcase ventilation filter and supporting the opposite end of the conical spring , characterized in that the valve element is designed as a membrane element which carries a support washer , wherein the support washer is made of metal and supports the conical spring.
A method for wireless communications by a transmitter, comprising: detecting one or more conditions related to transmissions to be made from the transmitter, wherein the detecting comprises detecting that a particular resource allocation type is to be used for the transmissions; and deciding , based on the detection, to disable an interleaver while processing the transmissions, the interleaver used to spread code blocks over available resources; wherein deciding to disable the interleaver comprises deciding to disable the interleaver semi-statically for a given period; the method further comprising providing, to a target receiver, an indication via semi-persistent scheduling, SPS, signaling that the interleaver is disabled. detecting one or more conditions related to transmissions to be made from the transmitter, wherein the detecting comprises detecting that a particular resource allocation type is to be used for the transmissions; and deciding , based on the detection, to disable an interleaver while processing the transmissions, the interleaver used to spread code blocks over available resources; wherein deciding to disable the interleaver comprises deciding to disable the interleaver semi-statically for a given period; the method further comprising providing, to a target receiver, an indication via semi-persistent scheduling, SPS, signaling that the interleaver is disabled.
A combined multi-coupler for connecting to a top drive , comprising: a stem for connecting to the top drive; a first coupling plate fixedly attached to the stem , wherein the first coupling plate has one or more notches formed therethrough; and a securing plate movable relative to the first coupling plate, wherein the securing plate has one or more securing keys aligned with the one or more notches in the first coupling plate, and each securing key is movable between a locked position in the corresponding notch and an unlocked position out of the corresponding notch; and characterized by : a second coupling plate adapted to connect to a tool, wherein the second coupling plate has one or more interlock keys , and each interlock key is alignable with a corresponding notch in the first coupling plate. a stem for connecting to the top drive; a first coupling plate fixedly attached to the stem , wherein the first coupling plate has one or more notches formed therethrough; and a securing plate movable relative to the first coupling plate, wherein the securing plate has one or more securing keys aligned with the one or more notches in the first coupling plate, and each securing key is movable between a locked position in the corresponding notch and an unlocked position out of the corresponding notch; and characterized by : a second coupling plate adapted to connect to a tool, wherein the second coupling plate has one or more interlock keys , and each interlock key is alignable with a corresponding notch in the first coupling plate.
Sealant layer assembly which allows a sealant layer to be applied on an inner cavity of a tyre outside of tyre production plants; said assembly comprises: (i) a sealant layer to be applied with its first surface on the surface of an inner liner layer facing the inner cavity of a tyre and made up of a rubber layer whose viscosity is such as to create an instantaneous "seal" around an object that penetrated a tread or closing the hole left by the object, (ii) a net layer arranged on said first surface of the sealant layer to be, in use, interposed between the sealant layer and the surface of the inner liner layer facing the inner cavity of a tyre, and (iii) one non-stick protective layer; characterized in that said non-stick protective layer is arranged on said net layer; and in that said net layer having meshes each of which has an area ranging from 0.25 mm 2 to 25 mm 2 .
An electrically conductive contact element for an electrical connector which has a contact surface , wherein caverns filled with an auxiliary material which are arranged under the contact surface in a microstructure , characterised in that the contact surface has a surface texture with a deterministic pattern of geometric elements.
An assembly process documentation system comprising: - an image capturing device , and - an image capturing device control system , wherein the assembly process documentation system is configured to determine a position of the image capturing device and/or an orientation of the image capturing device , wherein the image capturing device control system is configured to: determine whether the determined position of the image capturing device fulfils a position condition with respect to a reference position at a manufacturing site, and/or whether the determined orientation of the image capturing device fulfils an orientation condition with respect to a reference orientation at the manufacturing site, and set the image capturing device in an enabled state in case the position fulfils the position condition and/or the orientation fulfils the orientation condition, whereby the image capturing device being in the disabled state or in the enabled state depends on the position and/or orientation of the image capturing device in the manufacturing site. - an image capturing device , and - an image capturing device control system , wherein the assembly process documentation system is configured to determine a position of the image capturing device and/or an orientation of the image capturing device , wherein the image capturing device control system is configured to: determine whether the determined position of the image capturing device fulfils a position condition with respect to a reference position at a manufacturing site, and/or whether the determined orientation of the image capturing device fulfils an orientation condition with respect to a reference orientation at the manufacturing site, and set the image capturing device in an enabled state in case the position fulfils the position condition and/or the orientation fulfils the orientation condition, whereby the image capturing device being in the disabled state or in the enabled state depends on the position and/or orientation of the image capturing device in the manufacturing site. determine whether the determined position of the image capturing device fulfils a position condition with respect to a reference position at a manufacturing site, and/or whether the determined orientation of the image capturing device fulfils an orientation condition with respect to a reference orientation at the manufacturing site, and set the image capturing device in an enabled state in case the position fulfils the position condition and/or the orientation fulfils the orientation condition, whereby the image capturing device being in the disabled state or in the enabled state depends on the position and/or orientation of the image capturing device in the manufacturing site.
A method for producing a conjugated diene rubber, comprising: a first step of obtaining a conjugated diene polymer chain having an active end by polymerizing a monomer comprising a conjugated diene compound and a vinyl compound having a silicon atom-containing functional group using a polymerization initiator in an inert solvent; a second step of reacting a siloxane compound with the active end of the conjugated diene polymer chain having the active end; and a third step of reacting a hydrocarbyloxysilane compound with the conjugated diene polymer chain with which the siloxane compound is reacted that is obtained in the second step. a first step of obtaining a conjugated diene polymer chain having an active end by polymerizing a monomer comprising a conjugated diene compound and a vinyl compound having a silicon atom-containing functional group using a polymerization initiator in an inert solvent; a second step of reacting a siloxane compound with the active end of the conjugated diene polymer chain having the active end; and a third step of reacting a hydrocarbyloxysilane compound with the conjugated diene polymer chain with which the siloxane compound is reacted that is obtained in the second step.
A method of controlling construction machinery for an automated excavation operation, the method comprising: moving a bucket of a working device along a first excavation trajectory to perform an excavation operation on the ground of a work area; calculating a digging force exerted on the bucket during the excavation operation; generating a new second excavation trajectory in real time based on the calculated digging force, to reduce an excavation speed and an excavation depth from the first excavation trajectory when the digging force exceeds a preset value; moving the bucket along the second excavation trajectory, wherein generating the new second excavation trajectory based on the calculated digging force comprises performing a pre-learned prediction algorithm, wherein performing the pre-learned prediction algorithm comprises performing an algorithm trained by using the digging force and topographic data of the work area as training data for estimating the second excavation trajectory, and wherein the algorithm is a learning algorithm based on Dynamic Movement Primitives, DMP, set as a critical dynamics model. moving a bucket of a working device along a first excavation trajectory to perform an excavation operation on the ground of a work area; calculating a digging force exerted on the bucket during the excavation operation; generating a new second excavation trajectory in real time based on the calculated digging force, to reduce an excavation speed and an excavation depth from the first excavation trajectory when the digging force exceeds a preset value; moving the bucket along the second excavation trajectory, wherein generating the new second excavation trajectory based on the calculated digging force comprises performing a pre-learned prediction algorithm, wherein performing the pre-learned prediction algorithm comprises performing an algorithm trained by using the digging force and topographic data of the work area as training data for estimating the second excavation trajectory, and wherein the algorithm is a learning algorithm based on Dynamic Movement Primitives, DMP, set as a critical dynamics model.
A compound as defined in Formula I: wherein, R 1 and R 2 are independently selected from H, F, CN, NO 2 , optionally substituted alkyl, wherein at least one of R 1 and R 2 is CN; R 3 is selected from NHSO 2 R 4 , NHSO 2 OR 4 , SO 2 NHSO 2 R 4 , SO 2 NHSO 2 OR 4 or an optionally substituted heterocycle; R 4 is selected from fluorine, optionally substituted C 1-6 alkyl, and optionally substituted C 6 aryl; (M n+ ) 1/n is a metal cation, wherein M is a metal and n is 1 or 2; or a tautomer thereof. R 1 and R 2 are independently selected from H, F, CN, NO 2 , optionally substituted alkyl, wherein at least one of R 1 and R 2 is CN; R 3 is selected from NHSO 2 R 4 , NHSO 2 OR 4 , SO 2 NHSO 2 R 4 , SO 2 NHSO 2 OR 4 or an optionally substituted heterocycle; R 4 is selected from fluorine, optionally substituted C 1-6 alkyl, and optionally substituted C 6 aryl; (M n+ ) 1/n is a metal cation, wherein M is a metal and n is 1 or 2; or a tautomer thereof.
Sorting system for sorting products (P), such as vegetables and fruit, the sorting system comprising an eliminator : for detecting and removing products (P), such as vegetables and fruit, which have undesired properties, wherein the eliminator is configured to detect and remove such products prior to sorting of the products with a sorting device , wherein the eliminator comprises: - a feed system for supplying products; - a detector configured to determine product properties of a product of the supplied products, wherein the product properties comprise whether the product has rot, and wherein the detector is further configured to determine product dimensions, wherein the product dimensions comprise whether the product is oversized; - a controller operatively connected to the detector and configured to determine on the basis of the determined dimensions and product properties of the product whether the product is suitable for further processing; and - a remover operatively connected to the controller for separating products which are not suitable for further processing in the sorting system, wherein products being not suitable for further processing comprises products which have rot and/or are oversized, from products which are suitable for further processing in the sorting system, wherein the remover comprises a knock-out element; and wherein the sorting system further comprising a sorting device provided with a measuring system , wherein the sorting device is configured to sort on the basis of product measurements performed by the measuring system products deemed suitable by the eliminator to be processed in the sorting device, and wherein the sorting system is configured for setting the remover on the basis of a pitch chosen for the sorting device. - a feed system for supplying products; - a detector configured to determine product properties of a product of the supplied products, wherein the product properties comprise whether the product has rot, and wherein the detector is further configured to determine product dimensions, wherein the product dimensions comprise whether the product is oversized; - a controller operatively connected to the detector and configured to determine on the basis of the determined dimensions and product properties of the product whether the product is suitable for further processing; and - a remover operatively connected to the controller for separating products which are not suitable for further processing in the sorting system, wherein products being not suitable for further processing comprises products which have rot and/or are oversized, from products which are suitable for further processing in the sorting system,