mhurhangee/patent-ind-claim-en huggingface dataset:
A gas detecting device, comprising: a transmitter element (101; 200) comprising an infrared light source component ; a receiver element (103; 800) comprising at least one detector component ; and a microcontroller electronically coupled to the transmitter element (101; 200) and the receiver element (103; 800) and configured to generate an alignment indication based at least in part on a first light intensity indication corresponding to first infrared light and a second light intensity indication corresponding to second infrared light, wherein the alignment indication indicates whether the transmitter element (101; 200) and the receiver element (103; 800) are misaligned, wherein the microcontroller is further configured to: cause the infrared light source component to generate the first infrared light triggered at a first discharge energy level, cause the at least one detector component to generate the first light intensity indication, cause the infrared light source component to generate the second infrared light triggered at a second discharge energy level, and cause the at least one detector component to generate the second light intensity indication, wherein the first and the second discharge energy levels are different, and wherein a beam divergence of the infrared light decreases from the first energy discharge level to the second energy discharge level. a transmitter element (101; 200) comprising an infrared light source component ; a receiver element (103; 800) comprising at least one detector component ; and a microcontroller electronically coupled to the transmitter element (101; 200) and the receiver element (103; 800) and configured to generate an alignment indication based at least in part on a first light intensity indication corresponding to first infrared light and a second light intensity indication corresponding to second infrared light, wherein the alignment indication indicates whether the transmitter element (101; 200) and the receiver element (103; 800) are misaligned, wherein the microcontroller is further configured to: cause the infrared light source component to generate the first infrared light triggered at a first discharge energy level, cause the at least one detector component to generate the first light intensity indication, cause the infrared light source component to generate the second infrared light triggered at a second discharge energy level, and cause the at least one detector component to generate the second light intensity indication, cause the infrared light source component to generate the first infrared light triggered at a first discharge energy level, cause the at least one detector component to generate the first light intensity indication, cause the infrared light source component to generate the second infrared light triggered at a second discharge energy level, and cause the at least one detector component to generate the second light intensity indication, wherein the first and the second discharge energy levels are different, and wherein a beam divergence of the infrared light decreases from the first energy discharge level to the second energy discharge level.
A cascade array for thrust reversers for aircraft propulsion systems, comprising: a plurality of comb subassemblies , each said comb subassembly including: a strongback comprising a first thermoplastic material; and a plurality of vanes comprising a second thermoplastic material extending outwardly from the strongback , each vane of the plurality of vanes extending outwardly from a first side surface of the strongback and each vane of the plurality of vanes spaced from each other vane of the plurality of vanes along a length of the strongback ; wherein each comb subassembly is welded to at least one other of the plurality of comb subassemblies , characterized in that : each vane of the plurality of vanes comprises a body that includes a first face surface , a second face surface , a first end , a second end , a first lateral end and a second lateral end , the first lateral end contiguous with the strongback , the second thermoplastic material overmolding the strongback to form the plurality of vanes with each overmolded vane including a first fillet extending along and outwardly from the first face surface , adjacent the second lateral end , and a second fillet extending along and outwardly from the second face surface adjacent the second lateral end , and the first fillet and the second fillet of each respective vane of the plurality of vanes is welded to a second one of the plurality of comb subassemblies . a plurality of comb subassemblies , each said comb subassembly including: a strongback comprising a first thermoplastic material; and a plurality of vanes comprising a second thermoplastic material extending outwardly from the strongback , each vane of the plurality of vanes extending outwardly from a first side surface of the strongback and each vane of the plurality of vanes spaced from each other vane of the plurality of vanes along a length of the strongback ; a strongback comprising a first thermoplastic material; and a plurality of vanes comprising a second thermoplastic material extending outwardly from the strongback , each vane of the plurality of vanes extending outwardly from a first side surface of the strongback and each vane of the plurality of vanes spaced from each other vane of the plurality of vanes along a length of the strongback ; wherein each comb subassembly is welded to at least one other of the plurality of comb subassemblies ,
A method of securing Positioning Reference Signals, PRS, resources for positioning of a user equipment , UE, in a wireless communication network , the method performed by a network entity and comprising: sending, to the UE , first configuration data indicative of a period of time during which at least a portion of a PRS resource is to be transmitted using one or more Orthogonal Frequency Division Multiplexing, OFDM, symbols, wherein: sending the first configuration data occurs prior to transmission of the portion of the PRS resource by a Transmission and Reception Point , TRP, of the wireless communication network ; and the first configuration data excludes at least one transmission parameter value for generating a waveform for each of the one or more OFDM symbols; and sending, to the UE , second configuration data indicative of the at least one transmission parameter value, wherein sending the second configuration data occurs no earlier than the transmission of the portion of the PRS resource. sending the first configuration data occurs prior to transmission of the portion of the PRS resource by a Transmission and Reception Point , TRP, of the wireless communication network ; and the first configuration data excludes at least one transmission parameter value for generating a waveform for each of the one or more OFDM symbols; and sending, to the UE , second configuration data indicative of the at least one transmission parameter value, wherein sending the second configuration data occurs no earlier than the transmission of the portion of the PRS resource.
A gas turbine engine comprising: a combustor disposed about an engine central axis (A) and including a combustor wall and a combustion chamber , the combustor wall having a lip at an exit region of the combustion chamber ; a circumferential row of vanes adj acent the exit region , each said vane including a platform and an airfoil section extending from the platform , the platform defining forward and trailing edges and first and second circumferential side edges joining the forward and trailing edges , the forward edge being adj acent the lip of the combustor wall , wherein the lip defines a first annular slot and the forward edges collectively define a second annular slot , the first and second annular slots together defining an annular seal slot and the first annular slot is defined by radially inner and outer walls of the combustor wall and the second annular slot is defined by radially inner and outer walls of the platform , characterised in that: an annular feather seal is entrapped in the annular seal slot between the combustor wall and the platform ; the annular feather seal is a split ring, the split ring having overlapping ends ; and at least one of the radially inner wall of the first annular slot or the radially inner wall of the second annular slot is scalloped. a combustor disposed about an engine central axis (A) and including a combustor wall and a combustion chamber , the combustor wall having a lip at an exit region of the combustion chamber ; a circumferential row of vanes adj acent the exit region , each said vane including a platform and an airfoil section extending from the platform , the platform defining forward and trailing edges and first and second circumferential side edges joining the forward and trailing edges , the forward edge being adj acent the lip of the combustor wall , wherein the lip defines a first annular slot and the forward edges collectively define a second annular slot , the first and second annular slots together defining an annular seal slot and the first annular slot is defined by radially inner and outer walls of the combustor wall and the second annular slot is defined by radially inner and outer walls of the platform , an annular feather seal is entrapped in the annular seal slot between the combustor wall and the platform ; the annular feather seal is a split ring, the split ring having overlapping ends ; and at least one of the radially inner wall of the first annular slot or the radially inner wall of the second annular slot is scalloped.
A method performed by a terminal in a wireless communication system, the method comprising: receiving (le-25), from a first base station, a predetermined radio resource control, RRC, message including logged measurement configuration information for a minimization of drive test, MDT, while the terminal is in a connected mode, the logged measurement configuration information including a logging duration value for a first timer; upon receiving the logged MDT configuration information, running (le-30) the first timer, the value of the first timer being configured as equal to the logging duration value; when the terminal is switched (le-35) to an RRC inactive mode, performing (1e-40) a logging of measurement in the RRC inactive mode based on the logged measurement configuration until the first timer expires (le-45), wherein the terminal measures signal strength of a serving cell and a neighboring cell, acquires location information thereof, and stores information on the signal strength of the serving cell and the neighboring cell and the location information based on a logging interval period; receiving (le-70), from the second base station, a request message requesting to report the logged measurement; and transmitting (le-75), to the second base station, a response message including information on the logged measurement. receiving (le-25), from a first base station, a predetermined radio resource control, RRC, message including logged measurement configuration information for a minimization of drive test, MDT, while the terminal is in a connected mode, the logged measurement configuration information including a logging duration value for a first timer; upon receiving the logged MDT configuration information, running (le-30) the first timer, the value of the first timer being configured as equal to the logging duration value; when the terminal is switched (le-35) to an RRC inactive mode, performing (1e-40) a logging of measurement in the RRC inactive mode based on the logged measurement configuration until the first timer expires (le-45), wherein the terminal measures signal strength of a serving cell and a neighboring cell, acquires location information thereof, and stores information on the signal strength of the serving cell and the neighboring cell and the location information based on a logging interval period; receiving (le-70), from the second base station, a request message requesting to report the logged measurement; and transmitting (le-75), to the second base station, a response message including information on the logged measurement.
Method of operating a paddle dryer comprising an inlet , a drying chamber and an outlet , wherein product to be dried is fed through the inlet into the drying chamber , in which drying chamber the product is dried during a movement towards the outlet , through which outlet the product leaves the drying chamber , wherein an additional inert medium, in particular water or nitrogen, is introduced into the drying chamber at least temporarily in order to inert an atmosphere in the drying chamber , wherein a temperature is measured at different positions in the drying chamber , characterised in that the inert medium is introduced in the drying chamber , when the measured temperature exceeds a predefined temperature.
A method performed by one or more data processing apparatus (100; 1800; 1810), the method comprising: receiving, by an upward node (110; 810) from one or more nodes (120; 820) of a distributed computing system , event fragments (400; 520) for corresponding events that have occurred within the distributed computing system, wherein each event fragment comprises an age parameter that indicates an age of the corresponding event from a perspective of a node that sent the event fragment to the upward node; calculating, by the upward node and for each event, a corresponding disentangled time based on (i) a received time that represents a time at which the upward node received the event fragment for the event and (ii) the age of the event indicated by the age parameter for the event; and arranging, by the upward node, the events in an order according to the corresponding disentangled time for each event wherein the age for each event that occurred at the node that sends the event fragment for the event to the upward node is equal to a difference between (i) a send time at which the node sends the event fragment for the event to the upward node and (ii) a time at which the event occurred at the node; and/or wherein the age for each event that occurred at a different node that is different from a given node that sends the event fragment for the node to the upward node is equal to a difference between (i) a send time at which the given node sends the event fragment for the event to the upward node and (ii) a timestamp for the event. receiving, by an upward node (110; 810) from one or more nodes (120; 820) of a distributed computing system , event fragments (400; 520) for corresponding events that have occurred within the distributed computing system, wherein each event fragment comprises an age parameter that indicates an age of the corresponding event from a perspective of a node that sent the event fragment to the upward node; calculating, by the upward node and for each event, a corresponding disentangled time based on (i) a received time that represents a time at which the upward node received the event fragment for the event and (ii) the age of the event indicated by the age parameter for the event; and arranging, by the upward node, the events in an order according to the corresponding disentangled time for each event wherein the age for each event that occurred at the node that sends the event fragment for the event to the upward node is equal to a difference between (i) a send time at which the node sends the event fragment for the event to the upward node and (ii) a time at which the event occurred at the node; and/or wherein the age for each event that occurred at a different node that is different from a given node that sends the event fragment for the node to the upward node is equal to a difference between (i) a send time at which the given node sends the event fragment for the event to the upward node and (ii) a timestamp for the event.
An instrument for driving a bone anchor assembly into bone, the instrument comprising: an elongate body having proximal and distal ends; a handle portion formed at the proximal end of the elongate body ; an engagement portion formed at the distal end of the elongate body , the engagement portion being configured to engage a corresponding engagement portion on a bone anchor assembly ; a guide projection formed at a distal end of a stylus (540; 740) positionable within a central lumen of the elongate body such that the guide projection extends distally from the engagement portion , the guide projection being configured for insertion through a cannulation formed in a shank of the bone anchor assembly , the stylus being configured to mechanically engage at least one of the handle portion and the elongate body to maintain an axial position of the stylus relative to the elongate body; and a collar disposed around the handle portion and defining a recess in which a proximal end of the handle portion is received, the collar being longitudinally slidable along an exterior surface of the handle portion between at least a first position in which the collar holds a lock ball in engagement with the stylus to restrict longitudinal translation of the stylus relative to the handle portion and a second position in which the collar does not hold the lock ball in engagement with the stylus . an elongate body having proximal and distal ends; a handle portion formed at the proximal end of the elongate body ; an engagement portion formed at the distal end of the elongate body , the engagement portion being configured to engage a corresponding engagement portion on a bone anchor assembly ; a guide projection formed at a distal end of a stylus (540; 740) positionable within a central lumen of the elongate body such that the guide projection extends distally from the engagement portion , the guide projection being configured for insertion through a cannulation formed in a shank of the bone anchor assembly , the stylus being configured to mechanically engage at least one of the handle portion and the elongate body to maintain an axial position of the stylus relative to the elongate body; and a collar disposed around the handle portion and defining a recess in which a proximal end of the handle portion is received, the collar being longitudinally slidable along an exterior surface of the handle portion between at least a first position in which the collar holds a lock ball in engagement with the stylus to restrict longitudinal translation of the stylus relative to the handle portion and a second position in which the collar does not hold the lock ball in engagement with the stylus .
A tissue distraction device comprising: first and second elongated members adapted to define a generally annular configuration; and an augmenting elongated member fully insertable between and in contact with the first and second elongated members to spread the first and second elongated members apart to increase the dimensional aspect of at least a portion of the tissue distraction device and having a linear extent in the longitudinal direction extending between the proximal and distal ends of the elongated members that is less than the linear extents of the first and second elongated members . first and second elongated members adapted to define a generally annular configuration; and an augmenting elongated member fully insertable between and in contact with the first and second elongated members to spread the first and second elongated members apart to increase the dimensional aspect of at least a portion of the tissue distraction device and having a linear extent in the longitudinal direction extending between the proximal and distal ends of the elongated members that is less than the linear extents of the first and second elongated members .
A bee hive system comprising a housing , at least one ambient condition sensor (6; 61-65) being adapted to sense an ambient condition in the housing , a first fan being adapted to generate an air flow in at least a portion of the housing , electronics (7; 7', 7") connected to the ambient condition sensor (6; 61-65) and to the first fan , wherein the electronics (7; 7', 7") controls the first fan according to the sensed ambient condition, and characterized by a container for a liquid having an opening, wherein the container is arranged such that the air flow generated by the first fan at least partially passes the opening of the container , wherein the first fan is arranged at the opening of the container , and the container is placed inside the housing or under the housing .
A method for relocating an object of interest at a second imaging station based on coordinates for the object of interest at a first imaging station , the method comprising: acquiring a first pair of images including a reference image of a biological specimen comprising cells on the first imaging station and a second image of the specimen on the second imaging station ; identifying a cell group that appears in both the reference image and second image ; determining stage coordinates of the cell group on the first imaging station from stage coordinates at which the reference image was acquired; determining stage coordinates of the cell group on the second imaging station from stage coordinates at which the second image was acquired; and calculating an affine transformation that converts the stage coordinates of the first imaging station to the stage coordinates of the second imaging station , wherein acquiring the first pair of images includes selecting the reference image from a plurality of reference image candidates obtained during a scan of the specimen at the first imaging station , assigning a suitability score to each of a plurality of reference image candidates and selecting a reference image candidate with a highest suitability score as the reference image , wherein assigning the suitability score includes assigning a score that corresponds to a probability that an image of a predetermined size taken from within the reference image includes uniquely identifiable cells acquiring a first pair of images including a reference image of a biological specimen comprising cells on the first imaging station and a second image of the specimen on the second imaging station ; identifying a cell group that appears in both the reference image and second image ; determining stage coordinates of the cell group on the first imaging station from stage coordinates at which the reference image was acquired; determining stage coordinates of the cell group on the second imaging station from stage coordinates at which the second image was acquired; and calculating an affine transformation that converts the stage coordinates of the first imaging station to the stage coordinates of the second imaging station , wherein acquiring the first pair of images includes selecting the reference image from a plurality of reference image candidates obtained during a scan of the specimen at the first imaging station , assigning a suitability score to each of a plurality of reference image candidates and selecting a reference image candidate with a highest suitability score as the reference image , wherein assigning the suitability score includes assigning a score that corresponds to a probability that an image of a predetermined size taken from within the reference image includes uniquely identifiable cells
Electrical super charger comprising: - a housing , - a rotating electrical machine , - a compression member coupled to said rotating electrical machine, - an electronic device intended to electrically power the electrical machine , characterized in that said electronic device comprises two superposed electronic circuit boards and a rigid intermediate part disposed between said two electronic circuit boards such that said boards are fixed to one another by said intermediate part and that the electronic device is fixed to the housing via said rigid intermediate part. - a housing , - a rotating electrical machine , - a compression member coupled to said rotating electrical machine, - an electronic device intended to electrically power the electrical machine ,