mhurhangee/patent-ind-claim-en huggingface dataset:
A first valve attachment structure for a pump dispenser that causes a piston part to slide for applying pressure to liquid inside a cylinder part including a first valve (FV) and thereby causes the liquid to squirt out from a nozzle part via a second valve (SV), the first valve attachment structure being configured to attach the first valve (FV) to the inside of the cylinder part by means of a valve stopper , the first valve attachment structure comprising: the first valve (FV); and the valve stopper , wherein the first valve (FV) includes a valve body part (F1), and a rod-like part (F2) extending upward from the valve body part (F1), the valve body part (F1) has a plurality of guide pieces (a) and check pieces (b) therearound, the valve stopper has a hole and notches in a ceiling part of the valve stopper , when the valve body part (F1) of the first valve (FV) is inserted through the hole of the valve stopper , the check pieces (b) are allowed to elastically pass through the hole , and after insertion, the check pieces (b) of the first valve (FV) come into contact with the ceiling part of the valve stopper to be retained, characterized in that the notches allow the guide pieces (a) to pass through the notches and the valve stopper is fixable inside the cylinder part . the first valve (FV); and the valve stopper , wherein the first valve (FV) includes a valve body part (F1), and a rod-like part (F2) extending upward from the valve body part (F1), the valve body part (F1) has a plurality of guide pieces (a) and check pieces (b) therearound, the valve stopper has a hole and notches in a ceiling part of the valve stopper , when the valve body part (F1) of the first valve (FV) is inserted through the hole of the valve stopper , the check pieces (b) are allowed to elastically pass through the hole , and after insertion, the check pieces (b) of the first valve (FV) come into contact with the ceiling part of the valve stopper to be retained, characterized in that the notches allow the guide pieces (a) to pass through the notches and the valve stopper is fixable inside the cylinder part .
A solar cell, comprising: a silicon substrate ; a first doped region and a second doped region , alternately disposed on a back side of the silicon substrate and having opposite polarities; a first dielectric layer , disposed on a front side of the silicon substrate ; a second dielectric layer , disposed between the first doped region and the second doped region; and a first conductive layer and a second conductive layer , respectively disposed in the first doped region and the second doped region; wherein: the first doped region and the second doped region use a doped region structure, the doped region structure comprises a first doped layer , a passivation layer , and a second doped layer that are disposed on the silicon substrate in sequence; wherein: the passivation layer is a porous structure comprising a hole region, and the first doped layer and/or the second doped layer are disposed in the hole region; the second doped layer is connected to the silicon substrate through the doped hole region and the first doped layer ; one of the first doped region and the second doped region is a P-type doped region, and the other of the first doped region and the second doped region is an N-type doped region; and the first doped layer and the second doped layer in the P-type doped region are P-type doped layers, and the first doped layer and the second doped layer in the N-type doped region are N-type doped layers, characterised in that: a thickness of a passivation layer in the P-type doped region is greater than a thickness of a passivation layer in the N-type doped region. a silicon substrate ; a first doped region and a second doped region , alternately disposed on a back side of the silicon substrate and having opposite polarities; a first dielectric layer , disposed on a front side of the silicon substrate ; a second dielectric layer , disposed between the first doped region and the second doped region; and a first conductive layer and a second conductive layer , respectively disposed in the first doped region and the second doped region; the passivation layer is a porous structure comprising a hole region, and the first doped layer and/or the second doped layer are disposed in the hole region; the second doped layer is connected to the silicon substrate through the doped hole region and the first doped layer ; one of the first doped region and the second doped region is a P-type doped region, and the other of the first doped region and the second doped region is an N-type doped region; and the first doped layer and the second doped layer in the P-type doped region are P-type doped layers, and the first doped layer and the second doped layer in the N-type doped region are N-type doped layers,
An image decoding method performed by an image decoding apparatus , the image decoding method comprising: generating prediction samples by performing intra prediction on a current block; determining whether to apply position dependent intra prediction combination, PDPC, to the prediction samples; and generating final prediction samples of the current block, by applying PDPC to the prediction samples based on the determination, wherein the determining whether to apply PDPC to the prediction samples comprises determining whether a size of the current block satisfies a predetermined condition, determining whether block difference pulse code modulation, BDPCM, is applied to the current block and determining an intra prediction mode of the current block, wherein, based on the size of the current block satisfying the predetermined condition, the BDPCM not being applied to the current block, and the intra prediction mode being planar mode or DC mode, it is determined to apply PDPC to the prediction samples, wherein, based on the size of chroma components of the current block not satisfying the predetermined condition, it is determined not to apply PDPC to chroma components of the prediction samples, and wherein the predetermined condition is that the size of the current block is greater than or equal to a predetermined threshold. generating prediction samples by performing intra prediction on a current block; determining whether to apply position dependent intra prediction combination, PDPC, to the prediction samples; and generating final prediction samples of the current block, by applying PDPC to the prediction samples based on the determination, wherein the determining whether to apply PDPC to the prediction samples comprises determining whether a size of the current block satisfies a predetermined condition, determining whether block difference pulse code modulation, BDPCM, is applied to the current block and determining an intra prediction mode of the current block, wherein, based on the size of the current block satisfying the predetermined condition, the BDPCM not being applied to the current block, and the intra prediction mode being planar mode or DC mode, it is determined to apply PDPC to the prediction samples, wherein, based on the size of chroma components of the current block not satisfying the predetermined condition, it is determined not to apply PDPC to chroma components of the prediction samples, and wherein the predetermined condition is that the size of the current block is greater than or equal to a predetermined threshold.
Heterojunction transistor fabrication process, comprising the steps of: - forming an implanted zone by ion implantation of magnesium, calcium, zinc or fluorine in a first semiconductor layer of gallium nitride of hexagonal crystal structure, said ion implantation being carried out in line with the direction of this crystal structure; - forming a second semiconductor layer on the first semiconductor layer so as to form an electron gas layer at the interface between the first and second layers; and - forming a control gate above the second conductive layer plumb with the implanted zone . - forming an implanted zone by ion implantation of magnesium, calcium, zinc or fluorine in a first semiconductor layer of gallium nitride of hexagonal crystal structure, said ion implantation being carried out in line with the direction of this crystal structure; - forming a second semiconductor layer on the first semiconductor layer so as to form an electron gas layer at the interface between the first and second layers; and - forming a control gate above the second conductive layer plumb with the implanted zone .
An inspection system, comprising: a probe configured to be inserted into a blind hole formed in a front face of a solid axle , the probe including an inspection portion at a distal end thereof configured for insertion into the blind hole and an ultrasonic transducer at an end face thereof that is configured to generate ultrasonic waves in the solid axle covering an entire portion of the solid axle to be inspected when the probe is within the blind hole, the probe including an engagement member configured to engage the solid axle to which the probe is operatively coupled, the engagement member including a spring loaded member in the form of a ring located radially inward of a coupling member including a number of magnets , the spring loaded member being configured for pressing the end face of the probe against the bottom surface of the blind hole and the coupling member of the probe being configured for engaging the front face of the solid axle and to hold the inspection portion in alignment with the blind hole. a probe configured to be inserted into a blind hole formed in a front face of a solid axle , the probe including an inspection portion at a distal end thereof configured for insertion into the blind hole and an ultrasonic transducer at an end face thereof that is configured to generate ultrasonic waves in the solid axle covering an entire portion of the solid axle to be inspected when the probe is within the blind hole, the probe including an engagement member configured to engage the solid axle to which the probe is operatively coupled, the engagement member including a spring loaded member in the form of a ring located radially inward of a coupling member including a number of magnets , the spring loaded member being configured for pressing the end face of the probe against the bottom surface of the blind hole and the coupling member of the probe being configured for engaging the front face of the solid axle and to hold the inspection portion in alignment with the blind hole.
A battery , comprising: a battery cell , comprising: a pressure relief mechanism configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; an attachment component, configured to support the battery cell or adjust a temperature of the battery cell ; an adhesive, configured to attach the attachment component to the battery cell ; and an isolation component configured to be attached to the attachment component to prevent the adhesive from being applied between the attachment component and the pressure relief mechanism ; wherein the pressure relief mechanism has an actuation region, and the pressure relief mechanism is configured, when the internal pressure or temperature of the battery cell reaches the threshold, to form a relief channel for relieving the internal pressure in the actuation region; the isolation component has a main body and a protrusion arranged to protrude from a surface of the main body , the protrusion is arranged to correspond to a position of the actuation region of the pressure relief mechanism , and the protrusion is configured to at least surround the actuation region to prevent the adhesive from entering the actuation region. a battery cell , comprising: a pressure relief mechanism configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; an attachment component, configured to support the battery cell or adjust a temperature of the battery cell ; an adhesive, configured to attach the attachment component to the battery cell ; and an isolation component configured to be attached to the attachment component to prevent the adhesive from being applied between the attachment component and the pressure relief mechanism ; wherein the pressure relief mechanism has an actuation region, and the pressure relief mechanism is configured, when the internal pressure or temperature of the battery cell reaches the threshold, to form a relief channel for relieving the internal pressure in the actuation region; the isolation component has a main body and a protrusion arranged to protrude from a surface of the main body , the protrusion is arranged to correspond to a position of the actuation region of the pressure relief mechanism , and the protrusion is configured to at least surround the actuation region to prevent the adhesive from entering the actuation region.
A computer-implemented method of processing non-fungible token transactions within a blockchain protocol, comprising: receiving a first non-fungible token transaction request; obtaining a network congestion metric regarding a congestion measure of a blockchain network; on determining that the network congestion metric is below a first threshold level, generating and sending a blockchain transaction to implement the non-fungible token transaction request; on determining that the network congestion metric is above a first threshold level; queuing the first non-fungible token transaction request in a queue, until detecting a queue trigger, the queue trigger including determining that the network congestion metric has fallen below a second threshold level, and, in response, generating and propagating a batch blockchain transaction on the blockchain network that implements two or more queued non-fungible token transaction requests including the first non-fungible token transaction request and at least one additional non-fungible token transaction request, and wherein once the non-fungible token transaction requests in the queue have been processed in the batch blockchain transaction, the method further comprises clearing or emptying the queue and reverting to await receipt of a new non-fungible token transaction request. receiving a first non-fungible token transaction request; obtaining a network congestion metric regarding a congestion measure of a blockchain network; on determining that the network congestion metric is below a first threshold level, generating and sending a blockchain transaction to implement the non-fungible token transaction request; on determining that the network congestion metric is above a first threshold level; queuing the first non-fungible token transaction request in a queue, until detecting a queue trigger, the queue trigger including determining that the network congestion metric has fallen below a second threshold level, and, in response, generating and propagating a batch blockchain transaction on the blockchain network that implements two or more queued non-fungible token transaction requests including the first non-fungible token transaction request and at least one additional non-fungible token transaction request, and wherein once the non-fungible token transaction requests in the queue have been processed in the batch blockchain transaction, the method further comprises clearing or emptying the queue and reverting to await receipt of a new non-fungible token transaction request.
An oral care product comprising an effective amount of a soluble orally acceptable sulfate in a buffered, electrically conductive medium, wherein the product comprises at least two electrodes electrically connectable to a voltage source, wherein the electrodes comprise a cathode and an anode.
An implantable medical device comprising: an implantable medical housing; a processing circuit within the implantable medical housing; a first coil configured to wirelessly receive a signal and secured to the implantable medical device; a second coil configured to wirelessly receive the signal and secured to the implantable medical device; switching circuitry within the housing, characterized in that the processing circuit is configured to cause the switching circuitry to selectably couple the first coil to the second coil in either series such that the first coil is coiled in a same direction as the second coil or in series opposition such that the first coil is coiled in the opposite direction as the second coil ; , wherein the implantable medical device further comprises: a sensor for sensing a parameter that indicates a magnitude of an induced current that is induced over the first coil and the second coil as a result of receiving the signal, wherein the parameter is at least one of temperature, voltage, or current. an implantable medical housing; a processing circuit within the implantable medical housing; a first coil configured to wirelessly receive a signal and secured to the implantable medical device; a second coil configured to wirelessly receive the signal and secured to the implantable medical device; switching circuitry within the housing, characterized in that the processing circuit is configured to cause the switching circuitry to selectably couple the first coil to the second coil in either series such that the first coil is coiled in a same direction as the second coil or in series opposition such that the first coil is coiled in the opposite direction as the second coil ; , wherein the implantable medical device further comprises: a sensor for sensing a parameter that indicates a magnitude of an induced current that is induced over the first coil and the second coil as a result of receiving the signal, wherein the parameter is at least one of temperature, voltage, or current.
A method for testing the adhesion of elastic adhesives or elastic sealing materials on surfaces of components, comprising the following steps: a) applying the adhesive or the sealing material to a component surface of a component; b) attempting, by exerting a peeling force (F), to detach the applied adhesive or the applied sealing material from the component surface , optionally after curing of the adhesive or the sealing material; and c) assessing the adhesion of the adhesive or of the sealing material based on fractures caused in the adhesive or the sealing material by the exertion of the peeling force (F) on the one hand, and based on the detachment of the adhesive or of the sealing material from the component surface by the exertion of the peeling force (F) on the other hand, wherein prior to and/or during step a), an anti-adhesion material layer is applied to at least two first sub-regions of the component surface , as a result of which the adhesive or the sealing material exhibits poorer adhesion to the component surface and therefore can be detached from the component surface using a lower peeling force (F) than directly from the component surface , and the adhesive or the sealing material in step a) is applied as a continuous material region both to the at least two first sub-regions of the component surface to which the anti-adhesion material layer is and/or was applied, and directly to at least one second sub-region of the component surface , so that the adhesive or the sealing material is in direct contact with the component surface , wherein the adhesive or the sealing material is applied to the component surface in such a way that the adhesive or the sealing material extends in a longitudinal direction of the extension thereof from one of the first sub-regions over one of the second sub-regions to another of the first sub-regions . a) applying the adhesive or the sealing material to a component surface of a component; b) attempting, by exerting a peeling force (F), to detach the applied adhesive or the applied sealing material from the component surface , optionally after curing of the adhesive or the sealing material; and c) assessing the adhesion of the adhesive or of the sealing material based on fractures caused in the adhesive or the sealing material by the exertion of the peeling force (F) on the one hand, and based on the detachment of the adhesive or of the sealing material from the component surface by the exertion of the peeling force (F) on the other hand,
A method for enabling an electronic device to access security information of a Subscriber Identity Module acting as a secure element, wherein said electronic device avoids usage of an Application Protocol Data Unit or SIM Toolkit and the security information is used for data communication between the electronic device and a further network component, comprising the steps: - duplicating a data item of a predefined data field of the Subscriber Identity Module for creating a backup of said data item; - storing the security information in the predefined data field of the Subscriber Identity Module; - providing the security information to the electronic device; and - restoring the original data item by means of writing the duplicated data item back into the predefined data field. - duplicating a data item of a predefined data field of the Subscriber Identity Module for creating a backup of said data item; - storing the security information in the predefined data field of the Subscriber Identity Module; - providing the security information to the electronic device; and - restoring the original data item by means of writing the duplicated data item back into the predefined data field.
A system with at least two motor vehicle latches , whereby each motor vehicle latch demonstrates a catch and a pawl for a latching of the catch which is pivotably mounted on a latch plate or a latch case, whereby each motor vehicle latch demonstrates the same latch plate or the same latch case and each catch and each pawl are mounted at the same site on the latch plate or the latch case, characterized in that at least two motor vehicle latches demonstrate differently arranged screwing points in the latch plate or the latch case for the screwing of one of each of the motor vehicle latches to a motor vehicle.