mhurhangee/patent-ind-claim-en huggingface dataset:
A camera actuator comprising: a housing ; a prism unit disposed in the housing ; and a driving unit for tilting the prism unit , wherein a ball bearing and a pulling magnet for generating attractive force to each other are disposed in the prism unit and the housing , wherein the prism unit is supported to the housing by the attractive force between the ball bearing and the pulling magnet , and wherein the ball bearing is in point contact with the pulling magnet , and wherein the ball bearing is made of a magnetic material, and wherein an outer surface of the prism unit facing the pulling magnet includes a groove (333R5) in which the ball bearing is disposed, and wherein an adhesive member for fixing the ball bearing is disposed in the groove, wherein a housing hole is formed in a side portion of the housing facing the groove, and wherein at least a part of the ball bearing and the pulling magnet are disposed in the housing hole . a housing ; a prism unit disposed in the housing ; and a driving unit for tilting the prism unit , wherein a ball bearing and a pulling magnet for generating attractive force to each other are disposed in the prism unit and the housing , wherein the prism unit is supported to the housing by the attractive force between the ball bearing and the pulling magnet , and wherein the ball bearing is in point contact with the pulling magnet , and wherein the ball bearing is made of a magnetic material, and wherein an outer surface of the prism unit facing the pulling magnet includes a groove (333R5) in which the ball bearing is disposed, and wherein an adhesive member for fixing the ball bearing is disposed in the groove, wherein a housing hole is formed in a side portion of the housing facing the groove, and wherein at least a part of the ball bearing and the pulling magnet are disposed in the housing hole .
A computer-implemented method of selecting a fixed point number format for representing values input to, and/or output from, a plurality of layers of a Deep Neural Network, DNN, for use in configuring a hardware implementation of the DNN, the method comprising: receiving an instantiation of the DNN configured to represent the values of each of the plurality of layers using one or more initial fixed point number formats for that layer, each initial fixed point number format comprising an exponent and a mantissa bit length ; identifying a sequence of the plurality of layers wherein each layer is preceded in the sequence by any layer of the plurality of layers on which it depends; forming a plurality of disjoint subsets from the plurality of layers , wherein each of the subsets comprises a contiguous set of layers in the sequence; for each subset of the plurality of subsets, iteratively adjusting the fixed point number formats for the layers in the subset to fixed point number formats with a next lowest mantissa bit length until an output error of the instantiation of the DNN exceeds an error threshold ; in response to determining that the subsets comprise greater than a lower threshold number of layers, forming a higher number of disjoint subsets from the plurality of layers and repeating the iterative adjusting ; and in response to determining that the subsets comprise less than or equal to the lower threshold number of layers, outputting the fixed point number formats for the plurality of layers . receiving an instantiation of the DNN configured to represent the values of each of the plurality of layers using one or more initial fixed point number formats for that layer, each initial fixed point number format comprising an exponent and a mantissa bit length ; identifying a sequence of the plurality of layers wherein each layer is preceded in the sequence by any layer of the plurality of layers on which it depends; forming a plurality of disjoint subsets from the plurality of layers , wherein each of the subsets comprises a contiguous set of layers in the sequence; for each subset of the plurality of subsets, iteratively adjusting the fixed point number formats for the layers in the subset to fixed point number formats with a next lowest mantissa bit length until an output error of the instantiation of the DNN exceeds an error threshold ; in response to determining that the subsets comprise greater than a lower threshold number of layers, forming a higher number of disjoint subsets from the plurality of layers and repeating the iterative adjusting ; and in response to determining that the subsets comprise less than or equal to the lower threshold number of layers, outputting the fixed point number formats for the plurality of layers .
A device configured to determine an estimated remaining use of a brake assembly, the device comprising: a magnet configured to move in response to movement of a wear pin indicator of the brake assembly; a sensor configured to generate an output signal based on a position of the magnet relative to the sensor ; processing circuitry configured to determine the estimated remaining use of the brake assembly based on the output signal generated by the sensor ; characterized in that the device further comprises a spring configured to expand or compress in response to movement of the wear pin indicator ; a mounting element coupled to an end of the spring and configured to move in the same direction as the wear pin indicator in response to the movement of the wear pin indicator ; wherein the magnet is coupled to the mounting element. a magnet configured to move in response to movement of a wear pin indicator of the brake assembly; a sensor configured to generate an output signal based on a position of the magnet relative to the sensor ; processing circuitry configured to determine the estimated remaining use of the brake assembly based on the output signal generated by the sensor ; characterized in that the device further comprises a spring configured to expand or compress in response to movement of the wear pin indicator ; a mounting element coupled to an end of the spring and configured to move in the same direction as the wear pin indicator in response to the movement of the wear pin indicator ; wherein the magnet is coupled to the mounting element.
A wind turbine nacelle comprising a nacelle cover forming a nacelle inner space (S), wherein the nacelle cover includes: a fixed cover which includes a side wall portion of the nacelle cover ; a movable cover which includes at least a part of a ceiling portion of the nacelle cover and is attached to the fixed cover in such a manner as to be liftable in a vertical direction with respect to the fixed cover ; and an opening formed in the nacelle through which a device disposed in the nacelle inner space (S) can be lifted and lowered between the nacelle inner space (S) and a nacelle outer space using a temporary lifting and lowering device , wherein, in use, when the movable cover is lifted in the vertical direction with respect to the fixed cover into a position above the fixed cover , an expanded space (S') as the nacelle inner space (S) is formed below the lifted movable cover such that the expanded space (S') is covered with the movable cover on the upper side, and wherein the movable cover is configured such that, when, in use, the movable cover is lifted in the vertical direction with respect to the fixed cover into the position above the fixed cover, the temporary lifting and lowering device is disposed in the expanded space (S') formed by the moveable cover in the vertical direction with respect to the fixed cover in use of the temporary lifting and lowering device . a fixed cover which includes a side wall portion of the nacelle cover ; a movable cover which includes at least a part of a ceiling portion of the nacelle cover and is attached to the fixed cover in such a manner as to be liftable in a vertical direction with respect to the fixed cover ; and an opening formed in the nacelle through which a device disposed in the nacelle inner space (S) can be lifted and lowered between the nacelle inner space (S) and a nacelle outer space using a temporary lifting and lowering device , wherein, in use, when the movable cover is lifted in the vertical direction with respect to the fixed cover into a position above the fixed cover , an expanded space (S') as the nacelle inner space (S) is formed below the lifted movable cover such that the expanded space (S') is covered with the movable cover on the upper side, and wherein the movable cover is configured such that, when, in use, the movable cover is lifted in the vertical direction with respect to the fixed cover into the position above the fixed cover, the temporary lifting and lowering device is disposed in the expanded space (S') formed by the moveable cover in the vertical direction with respect to the fixed cover in use of the temporary lifting and lowering device .
Method for manufacturing a centre wing box of an aircraft comprising stiffeners , at least one of said stiffeners having at least one through-hole , said centre wing box being produced from a plurality of U-shaped and C-shaped profiles and from an external skin , the U-shaped or C-shaped profiles each having a central part and two legs (40.1, 40.2) on either side of the central part , the manufacturing method comprising the following steps of: - laying the U-shaped and C-shaped profiles juxtaposed entirely around a mould such that first and second legs (40.1, 40.2) of two adjacent U-shaped or C-shaped profiles are placed side by side against one another in order to form a stiffener , - laying the external skin on the central parts of the U-shaped and C-shaped profiles , - polymerization, and - removal from the mould, in which manufacturing method, for each stiffener having at least one through-hole and comprising a first leg (40.1) of a first U-shaped and C-shaped profile and a second leg (40.2) of a second U-shaped and C-shaped profile , the method comprises, for each through-hole , the steps of producing a first section (26.1) of the through-hole in the first U-shaped or C-shaped profile and of producing a second section (26.2) of the through-hole in the second U-shaped or C-shaped profile before the first and second U-shaped or C-shaped profiles are positioned on the mould . - laying the U-shaped and C-shaped profiles juxtaposed entirely around a mould such that first and second legs (40.1, 40.2) of two adjacent U-shaped or C-shaped profiles are placed side by side against one another in order to form a stiffener , - laying the external skin on the central parts of the U-shaped and C-shaped profiles , - polymerization, and - removal from the mould,
A glass yarn mesh coated with an organic binder, characterized in that the binder comprises at least one polymer of at least two different monomers selected from the group consisting of styrene, butadiene, acrylonitrile, (meth)acrylic acid and alkyl (meth)acrylates, said binder representing at least 20% and at most 35% of the weight of the coated glass yarn mesh; and wherein the glass yarns are woven according to a leno weave or a half-leno weave.
LIDAR receiver unit in a focal plane array arrangement, comprising - several sensor elements , which are arranged in macrocells , as well as several readout elements , wherein the readout elements are configured as time-to-digital converters, and wherein - at least two sensor elements are assigned to a macrocell , wherein - each sensor element can be activated and deactivated individually or can be activated and deactivated in groups of sensor elements , characterized in that each sensor element is connected to only one readout element , wherein each readout element is connected to several sensor elements of different macrocells , and wherein these different macrocells are active during different measurement cycles or never two of these macrocells are active simultaneously. - several sensor elements , which are arranged in macrocells , as well as several readout elements , wherein the readout elements are configured as time-to-digital converters, and wherein - at least two sensor elements are assigned to a macrocell , wherein - each sensor element can be activated and deactivated individually or can be activated and deactivated in groups of sensor elements ,
An apparatus for guiding a biopsy instrument into tissue of a patient, the apparatus comprising: (a) a cannula (400; 1000; 1300), wherein at least a portion of the biopsy instrument is insertable into the cannula ; (b) a guide device comprising at least one guide hole , wherein the at least one guide hole is configured to receive the cannula , wherein the at least one guide hole defines a guide axis; (c) a support structure, wherein the support structure is configured to position the guide device relative to a breast of a patient; (d) a lock nut , wherein the lock nut is configured to selectively lock in position at a plurality of axial positions along the cannula , wherein the lock nut is configured to engage the guide device to prevent insertion of the cannula beyond a predetermined axial distance; and (e) a locking assembly , wherein the locking assembly comprises a lock arm wherein the lock arm is rotatable about an axis parallel with the guide axis such that the lock arm is configured to cooperate with the guide device to capture the lock nut between the proximal face of the guide device and the distal face of the lock arm to thereby restrict translational movement of the cannula within the guide hole of the guide device . (a) a cannula (400; 1000; 1300), wherein at least a portion of the biopsy instrument is insertable into the cannula ; (b) a guide device comprising at least one guide hole , wherein the at least one guide hole is configured to receive the cannula , wherein the at least one guide hole defines a guide axis; (c) a support structure, wherein the support structure is configured to position the guide device relative to a breast of a patient; (d) a lock nut , wherein the lock nut is configured to selectively lock in position at a plurality of axial positions along the cannula , wherein the lock nut is configured to engage the guide device to prevent insertion of the cannula beyond a predetermined axial distance; and (e) a locking assembly , wherein the locking assembly comprises a lock arm wherein the lock arm is rotatable about an axis parallel with the guide axis such that the lock arm is configured to cooperate with the guide device to capture the lock nut between the proximal face of the guide device and the distal face of the lock arm to thereby restrict translational movement of the cannula within the guide hole of the guide device .
A management device which is used in a mounting system including a mounting device , the mounting device comprising: a mounting section configured to mount a component on a mounting target (S); a supply section configured to install a feeder configured to hold the component in one of multiple slots of the supply section, which includes a mounting installation section , from which the mounting section is enabled to pick up the component, and a buffer installation section , from which the mounting section is not enabled to pick up the component; and a mounting control section configured to cause the mounting section to pick up the component from the feeder, characterized in that the management device further comprises a management control section configured to. - acquire the number of exchanges of the feeder which is exchanged due to component shortage within a predetermined period in the mounting installation section, - set the number of slots for exchange to be used for exchange of the feeder in the buffer installation section based on the acquired number of exchanges, and - use the buffer installation section of the number of slots for changeover, which is based on the remaining number excluding the number of slots for exchange, in a pre-serving process of a changeover process of the feeder, the changeover process being executed before the next production job. - acquire the number of exchanges of the feeder which is exchanged due to component shortage within a predetermined period in the mounting installation section, - set the number of slots for exchange to be used for exchange of the feeder in the buffer installation section based on the acquired number of exchanges, and - use the buffer installation section of the number of slots for changeover, which is based on the remaining number excluding the number of slots for exchange, in a pre-serving process of a changeover process of the feeder, the changeover process being executed before the next production job.
A rapid charging system for electrically driven vehicles, in particular electric buses or the like, the rapid charging system having a contact apparatus and a charging contact unit , wherein the contact apparatus serves to form an electrical conductive connection between a vehicle and a stationary charging station by means of the charging contact unit , wherein the contact apparatus can be arranged on a vehicle , wherein the contact apparatus comprises a contact device , wherein the contact device can make contact with the charging contact unit, wherein the contact apparatus or the charging contact unit comprises a positioning device , wherein the contact device can be positioned relative to the charging contact unit by means of the positioning device, wherein the contact device has a contact element support comprising contact elements , wherein the contact elements can make contact with charging contact elements of the charging contact unit so as to form contact pairs, wherein the contact elements are bolt-shaped and the charging contact elements are realised as conductor strips or wherein the contact elements are realised as conductor strips and the charging contact elements are bolt-shaped, characterised in that the contact device can be arranged on a roof of the vehicle below the charging contact unit, wherein each of the bolt-shaped contact elements is elastically mounted, wherein the contact elements are arranged on the contact element support relative to the charging contact elements in such a manner or wherein the charging contact elements are arranged on the charging contact unit relative to the contact elements in such a manner that a defined order is maintained when forming contact pairs when the contact device and the charging contact unit are joined.
Process for the cryogenic separation of a feed mixture of at least carbon monoxide, hydrogen and at least 2% methane wherein: i) the feed mixture is separated in a methane wash column fed by a liquid methane stream at the top of the methane wash column to produce a gas enriched in hydrogen, the volume of the liquid methane stream of step i) being varied to take account of varying flowrate demands for a gas enriched in carbon monoxide and/or the gas enriched in hydrogen and as a function of the feed mixture flowrate ii) a liquid stream from the bottom of the methane wash column is treated to produce a mixture of carbon monoxide and methane , iii) the mixture of carbon monoxide and methane is separated in a separation column to produce the gas enriched in carbon monoxide and a liquid methane flow , the liquid methane flow being stored within the process, a first part of the stored liquid methane flow forming the liquid methane stream of step i) and iv) a second part of the stored liquid methane flow is removed from the process as a purge stream v) the flowrate of the second part being varied as a function of the feed mixture flowrate characterized in that , in order to increase the speed of change of production requirement where the flowrates of the gas enriched in carbon monoxide and the gas enriched in hydrogen are required to change, the purge stream flowrate increases during the transient period during which the feed mixture flowrate increases and decreases during the transient period during which the feed mixture flowrate decreases. i) the feed mixture is separated in a methane wash column fed by a liquid methane stream at the top of the methane wash column to produce a gas enriched in hydrogen, the volume of the liquid methane stream of step i) being varied to take account of varying flowrate demands for a gas enriched in carbon monoxide and/or the gas enriched in hydrogen and as a function of the feed mixture flowrate ii) a liquid stream from the bottom of the methane wash column is treated to produce a mixture of carbon monoxide and methane , iii) the mixture of carbon monoxide and methane is separated in a separation column to produce the gas enriched in carbon monoxide and a liquid methane flow , the liquid methane flow being stored within the process, a first part of the stored liquid methane flow forming the liquid methane stream of step i) and iv) a second part of the stored liquid methane flow is removed from the process as a purge stream v) the flowrate of the second part being varied as a function of the feed mixture flowrate
An air vent for a vehicle, the air vent comprising a housing having an inlet opening and an outlet opening , wherein the housing forms an air channel for air flowing from the inlet opening to the outlet opening , and wherein at least one adjustable front air guide element and at least one adjustable rear air guide element are arranged in the housing , wherein the at least one adjustable rear air guide element is positioned upstream of the at least one adjustable front air guide element with respect to the flow direction (L) of the air, further comprising a control element arranged in the region of the outlet opening for adjusting at least the at least one adjustable rear air guide element , wherein the control element is carried by at least one of the at least one adjustable rear air guide element via a transmission element extending between the control element and the at least one adjustable rear air guide element , wherein the transmission element is adapted to transmit a movement of the control element into a movement of the at least one adjustable rear air guide element , the transmission element for transmitting a movement of the control element into a movement of the at least one adjustable rear air guide element constitutes a first transmission element , characterized in that the control element is connected to the at least one adjustable front air guide element upstream of the outlet opening via a second transmission element , wherein the second transmission element is adapted to transmit a movement of the control element into a movement of the at least one adjustable front air guide element , wherein the first transmission element comprises an indentation for receiving a part of the second transmission element during the movement of the at least one adjustable front air guide element .
A head protection device for a user, comprising: a hard hat ; a hard hat adapter coupled to the hard hat ; and a helmet shell comprising: an outer face shield and an inner face shield coupled to the hard hat adapter at a first pivot point; and a blower shell coupled to the hard hat adapter via a lower arm of the hard hat adapter , wherein at least a portion of the blower shell is vertically below the outer face shield and the inner face shield . a hard hat ; a hard hat adapter coupled to the hard hat ; and a helmet shell comprising: an outer face shield and an inner face shield coupled to the hard hat adapter at a first pivot point; and a blower shell coupled to the hard hat adapter via a lower arm of the hard hat adapter , wherein at least a portion of the blower shell is vertically below the outer face shield and the inner face shield . an outer face shield and an inner face shield coupled to the hard hat adapter at a first pivot point; and a blower shell coupled to the hard hat adapter via a lower arm of the hard hat adapter , wherein at least a portion of the blower shell is vertically below the outer face shield and the inner face shield .