mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle glazed unit , including a glass pane as well as means for allowing the mobility of said glass pane in vertical translation relative to a door of said vehicle, said glass pane being curved and laminated and comprising at least one exterior glass sheet , an interior glass sheet , as well as an adhesive material sheet located between said exterior glass sheet and said interior glass sheet , each sheet having a peripheral edge, the edge of said interior glass sheet and the edge of said adhesive material sheet being located below the edge of said exterior glass sheet so as to form an interior offset having a width (W), said glass pane having a line of sight (VL) creating, when the glazed unit is considered vertically, a separation between, on the one hand, a hidden part of the glass pane (HP), which is located below said line of sight (VL) and which is intended to be hidden inside said door regardless of the position of said glass pane relative to said door and, on the other hand, a visible part of the glass pane (VP), which is located above said line of sight (VL), characterized in that: - the edge of said interior glass sheet and the edge of said adhesive material sheet are both in the lateral projection of the edge of said exterior glass sheet in at least one hidden alignment zone (HAZ1), or even in several hidden alignment zones (HAZ2, HAZ3), which is, or are each, located in said hidden part of the glass (HP), and - said interior offset has a width (W) between 0.8 mm and 5.0 mm, and preferably between 1.0 mm and 4.0 mm, or even between 1.2 mm and 3.8 mm, and is present in the entirety of said visible part of the glass pane (VP). - the edge of said interior glass sheet and the edge of said adhesive material sheet are both in the lateral projection of the edge of said exterior glass sheet in at least one hidden alignment zone (HAZ1), or even in several hidden alignment zones (HAZ2, HAZ3), which is, or are each, located in said hidden part of the glass (HP), and - said interior offset has a width (W) between 0.8 mm and 5.0 mm, and preferably between 1.0 mm and 4.0 mm, or even between 1.2 mm and 3.8 mm, and is present in the entirety of said visible part of the glass pane (VP).
A method of integrating a transgene into a genomic nuclease cleavage site in a maize genome, comprising introducing into a maize cell: a) a first nucleic acid molecule comprising at least 100 contiguous nucleotides, wherein said at least 100 contiguous nucleotides have at least 90% identity with a target site in a nucleotide sequence SEQ ID NO:2, and further comprising a transgene; and b) a second nucleic acid molecule comprising a nucleotide sequence encoding a nuclease for site-directed cleavage at a genomic nuclease cleavage site adjacent to SEQ ID NO:2, that corresponds to the at least 100 contiguous nucleotides of (a), under conditions wherein expression of the second nucleic acid molecule can occur to produce the nuclease and the nuclease can cleave the nucleotide sequence at the genomic nuclease cleavage site, whereby the transgene is integrated at the genomic nuclease target cleavage site in the maize genome. a) a first nucleic acid molecule comprising at least 100 contiguous nucleotides, wherein said at least 100 contiguous nucleotides have at least 90% identity with a target site in a nucleotide sequence SEQ ID NO:2, and further comprising a transgene; and b) a second nucleic acid molecule comprising a nucleotide sequence encoding a nuclease for site-directed cleavage at a genomic nuclease cleavage site adjacent to SEQ ID NO:2, that corresponds to the at least 100 contiguous nucleotides of (a),
A clamp having a clamp band which comprises a clamping head with two clamping jaws , a feed-through opening , through which a clamping element is fed for tensioning the clamp , being realized in each of said clamping jaws, wherein at least one contact surface , on which a support surface of the clamping element can be placed at least in part, is realized on an edge of each of the passage openings , wherein the clamping jaws are arranged at an angle with respect to one another and one of the clamping jaws comprises an anti-rotation device for the clamping element , characterized in that at least one reinforcing bead is realized in the clamping jaws .
A method, comprising: receiving a signal that a ride vehicle is positioned on a plurality of motion bases of a motion base system; and actuating the plurality of motion bases independently of one another to cause the ride vehicle to roll, pitch, heave, yaw, sway, or surge, wherein actuating the plurality of motion bases comprises: providing a first signal to an electrical actuator associated with a first motion base of the plurality of motion bases ; actuating a movable deck of the first motion base to move a first distance relative to a housing of the first motion base at a first time point; providing a second signal to an electrical actuator associated with a second motion base of the plurality of motion bases ; and actuating a movable deck of the second motion base to move a second distance relative to a housing of the second motion base at the first time point. receiving a signal that a ride vehicle is positioned on a plurality of motion bases of a motion base system; and actuating the plurality of motion bases independently of one another to cause the ride vehicle to roll, pitch, heave, yaw, sway, or surge, wherein actuating the plurality of motion bases comprises: providing a first signal to an electrical actuator associated with a first motion base of the plurality of motion bases ; actuating a movable deck of the first motion base to move a first distance relative to a housing of the first motion base at a first time point; providing a second signal to an electrical actuator associated with a second motion base of the plurality of motion bases ; and actuating a movable deck of the second motion base to move a second distance relative to a housing of the second motion base at the first time point. providing a first signal to an electrical actuator associated with a first motion base of the plurality of motion bases ; actuating a movable deck of the first motion base to move a first distance relative to a housing of the first motion base at a first time point; providing a second signal to an electrical actuator associated with a second motion base of the plurality of motion bases ; and actuating a movable deck of the second motion base to move a second distance relative to a housing of the second motion base at the first time point.
A communication control device comprising: a storage unit configured to store conditions as a trigger for setting a profile used by a communication device for communication; and a profile setting unit configured to start to set the profile for the communication device in a case in which a signal received from the communication device satisfies the conditions stored in the storage unit , characterized in further comprising: a condition setting unit configured to invalidate the conditions stored in the storage unit in a case in which the profile setting unit starts to set the profile and configured to validate conditions for setting a profile used by the communication device for communication in a case in which the profile setting unit has failed in setting the profile. a storage unit configured to store conditions as a trigger for setting a profile used by a communication device for communication; and a profile setting unit configured to start to set the profile for the communication device in a case in which a signal received from the communication device satisfies the conditions stored in the storage unit , characterized in further comprising: a condition setting unit configured to invalidate the conditions stored in the storage unit in a case in which the profile setting unit starts to set the profile and configured to validate conditions for setting a profile used by the communication device for communication in a case in which the profile setting unit has failed in setting the profile.
A power monitoring system that calculates an amount of electric energy of a power system, the power monitoring system comprising: a sampling device configured to measure patterns of how loads included in the power system consume energy; an electric meter configured to measure a second amount of energy supplied from a transmission system to the power system; a power supply configured to supply power stored therein or generate power to supply it to the power system, and measure a third amount of energy supplied to the power system; an external server configured to receive the patterns measured from the sampling device , and analyse the received patterns to obtain a first amount of energy consumed by the loads; and a home server configured to receive at least one of the second amount of energy and the third amount of energy and transmit/receive data to/from the external server , wherein the home server is configured to receive the first amount of energy from the external server 40, and calculate: the second amount of energy based on the first amount of energy and the third amount of energy when the measured second amount of energy is not available; or the third amount of energy based on the first amount of energy and the second amount of energy when the measured third amount of energy is not available. a sampling device configured to measure patterns of how loads included in the power system consume energy; an electric meter configured to measure a second amount of energy supplied from a transmission system to the power system; a power supply configured to supply power stored therein or generate power to supply it to the power system, and measure a third amount of energy supplied to the power system; an external server configured to receive the patterns measured from the sampling device , and analyse the received patterns to obtain a first amount of energy consumed by the loads; and a home server configured to receive at least one of the second amount of energy and the third amount of energy and transmit/receive data to/from the external server , wherein the home server is configured to receive the first amount of energy from the external server 40, and calculate: the second amount of energy based on the first amount of energy and the third amount of energy when the measured second amount of energy is not available; or the third amount of energy based on the first amount of energy and the second amount of energy when the measured third amount of energy is not available. the second amount of energy based on the first amount of energy and the third amount of energy when the measured second amount of energy is not available; or the third amount of energy based on the first amount of energy and the second amount of energy when the measured third amount of energy is not available.
An osteosynthesis body made of zirconium dioxide ceramic, in the form of a screw, consisting of a highly dense zirconium dioxide ceramic of tetragonal, polycrystalline zirconium dioxide (TZP) or of a zirconium dioxide mixture ceramic with Al 2 O 3 (ATZ), having a porosity of less than 0.1 %.
A manufacturing method for an internally cooled valve, comprising providing a semi-finished product having an at least partially cylindrical exterior, creating an at least partially cylindrical cavity in the semi-finished product by hot forming, using a stamp, whereby a valve blank is produced, characterized in that the hot forming comprises backward extrusion, wherein a structure is formed on a base of the cavity during the hot forming via a recess at a face of the stamp.
An aircraft comprising: a pair of architectural archways ; and an elongated fuselage with a passenger cabin , an upper crown portion , a floor member , a lower lobe portion , a door member for exterior ingress into the passenger cabin , and a plurality of luggage bins provided on the upper crown portion of the passenger cabin , the pair of archways being positioned in the aircraft adjacent to and framing the door member along a length of the fuselage , each of the archways comprising an inverted curved structure with a curved central portion and two spaced apart leg members, each of said leg members having an end member positioned on the floor member , wherein said end members of each of said archways are positioned on the floor member on opposite sides of the fuselage . a pair of architectural archways ; and an elongated fuselage with a passenger cabin , an upper crown portion , a floor member , a lower lobe portion , a door member for exterior ingress into the passenger cabin , and a plurality of luggage bins provided on the upper crown portion of the passenger cabin , the pair of archways being positioned in the aircraft adjacent to and framing the door member along a length of the fuselage , each of the archways comprising an inverted curved structure with a curved central portion and two spaced apart leg members, each of said leg members having an end member positioned on the floor member , wherein said end members of each of said archways are positioned on the floor member on opposite sides of the fuselage .
A pump housing for a progressive cavity pump, having a housing casing , which extends along a housing longitudinal axis (L), having a first end-side opening , to which a shaft seal for a connecting shaft can be connected, and having a second end-side opening , to which a stator can be connected, and having a tubular inlet connecting piece , which is orientated transversely to the housing longitudinal axis (L), for supplying a medium to be conveyed, the geometry of the inlet connecting piece being configured in such a manner that a flow (S) is generated in the course of the inflow of the medium through the inlet connecting piece into the housing interior, which flow has an inflow direction (R) with a radial directional component (R1), which is directed outwardly away from the housing longitudinal axis (L), and an axial directional component (R2), which is directed towards the first end-side opening , characterized in that the inner cross-sectional area of the inlet connecting piece tapers at least in sections in the direction towards the housing casing , wherein the outlet cross section of the inlet connecting piece is reduced and asymmetrically offset relative to the inlet cross section thereof, or in that the inlet connecting piece has an inner wall, which is constructed in a spiral manner and forms a spiral flow channel and which generates a spiral flow. having a housing casing , which extends along a housing longitudinal axis (L), having a first end-side opening , to which a shaft seal for a connecting shaft can be connected, and having a second end-side opening , to which a stator can be connected, and having a tubular inlet connecting piece , which is orientated transversely to the housing longitudinal axis (L), for supplying a medium to be conveyed, the geometry of the inlet connecting piece being configured in such a manner that a flow (S) is generated in the course of the inflow of the medium through the inlet connecting piece into the housing interior, which flow has an inflow direction (R) with a radial directional component (R1), which is directed outwardly away from the housing longitudinal axis (L), and an axial directional component (R2), which is directed towards the first end-side opening , characterized in that the inner cross-sectional area of the inlet connecting piece tapers at least in sections in the direction towards the housing casing , wherein the outlet cross section of the inlet connecting piece is reduced and asymmetrically offset relative to the inlet cross section thereof, or in that the inlet connecting piece has an inner wall, which is constructed in a spiral manner and forms a spiral flow channel and which generates a spiral flow.
An injection device comprising: a. a housing ; b. a dose indicator positioned within the housing; and c. a dose selector operatively connectable to the dose indicator, the dose selector and the dose indicator being capable of cooperating with one another to set a dose to be ejected from the injection device, wherein the dose indicator comprises an odometer including: i. a units wheel operatively connected to the dose selector so that rotation of the dose selector also rotates the units wheel, and ii. a tens wheel selectively engageable with the units wheel so that rotation of the units wheel also rotates the tens wheel, characterised in that the dose indicator further comprises an axially-moveable shuttle lock rotationally locked to the tens wheel and selectively engageable with the units wheel and the housing, wherein the shuttle lock includes a set of peripheral teeth arranged in one axial location on an outer surface thereof, the peripheral teeth being capable of selectively engaging one or more formations on an internal surface of the housing; wherein the tens wheel is selectively engageable with the units wheel via said shuttle lock; and wherein, when the tens wheel is not engaged with the units wheel, the shuttle lock is rotationally locked to the housing, wherein said units wheel includes a drive dog having a cam surface capable of selectively engaging a dog on said shuttle lock to effect axial movement of said shuttle lock . a. a housing ; b. a dose indicator positioned within the housing; and c. a dose selector operatively connectable to the dose indicator, the dose selector and the dose indicator being capable of cooperating with one another to set a dose to be ejected from the injection device, wherein the dose indicator comprises an odometer including: i. a units wheel operatively connected to the dose selector so that rotation of the dose selector also rotates the units wheel, and ii. a tens wheel selectively engageable with the units wheel so that rotation of the units wheel also rotates the tens wheel, i. a units wheel operatively connected to the dose selector so that rotation of the dose selector also rotates the units wheel, and ii. a tens wheel selectively engageable with the units wheel so that rotation of the units wheel also rotates the tens wheel, characterised in that the dose indicator further comprises an axially-moveable shuttle lock rotationally locked to the tens wheel and selectively engageable with the units wheel and the housing, wherein the shuttle lock includes a set of peripheral teeth arranged in one axial location on an outer surface thereof, the peripheral teeth being capable of selectively engaging one or more formations on an internal surface of the housing; wherein the tens wheel is selectively engageable with the units wheel via said shuttle lock; and wherein, when the tens wheel is not engaged with the units wheel, the shuttle lock is rotationally locked to the housing, wherein said units wheel includes a drive dog having a cam surface capable of selectively engaging a dog on said shuttle lock to effect axial movement of said shuttle lock .
A magnetizing inrush current detection method for a transformer, comprising: sampling (S210) currents to obtain sampled current values (i x (n)) for each AC phase a, b, c of the transformer; and determining whether the sampled current value (i x (n)) of any one of the AC phases exceeds a predetermined current threshold (I set ); the method being characterized by determining (S220), for each phase, difference currents (i x '(n)) based on the sampled current value at a sampling point (i x (n)) and the sampled current value at a sampling point spaced therefrom (i x (n-M)), e.g. i x '(n) = i x (n) - i x (n-1); calculating (S230), for each AC phase, at least two types of factors (A x (n), B x (n); A x , B x ; A a , A b , A c ; B a , B b , B c ) for waveform symmetry recognition, on the basis of the difference currents (i x '(n)) calculated within one period; for each type of factor (A x , B x ; A a , A b , A c ; B a , B b , B c ), obtaining (S240) the maximum value (A max , B max ) of the factors of the same type (A a , A b , A c ; B a , B b , B c ) corresponding to the AC phases, to serve as a maximum phase factor (A max , B max ) of that type of factor; based on the maximum phase factors obtained, using (S250) a waveform symmetry recognition algorithm to calculate a corresponding waveform symmetry parameter (k max ); if the waveform symmetry parameter (k max ) meets a requirement for waveform asymmetry (k max >=K asmy ) and the current i x (n) of any AC phase exceeds the predetermined current threshold (I set ), then determining (S260) that a magnetizing inrush current has occurred. sampling (S210) currents to obtain sampled current values (i x (n)) for each AC phase a, b, c of the transformer; and determining whether the sampled current value (i x (n)) of any one of the AC phases exceeds a predetermined current threshold (I set ); the method being characterized by determining (S220), for each phase, difference currents (i x '(n)) based on the sampled current value at a sampling point (i x (n)) and the sampled current value at a sampling point spaced therefrom (i x (n-M)), e.g. i x '(n) = i x (n) - i x (n-1); calculating (S230), for each AC phase, at least two types of factors (A x (n), B x (n); A x , B x ; A a , A b , A c ; B a , B b , B c ) for waveform symmetry recognition, on the basis of the difference currents (i x '(n)) calculated within one period; for each type of factor (A x , B x ; A a , A b , A c ; B a , B b , B c ), obtaining (S240) the maximum value (A max , B max ) of the factors of the same type (A a , A b , A c ; B a , B b , B c ) corresponding to the AC phases, to serve as a maximum phase factor (A max , B max ) of that type of factor; based on the maximum phase factors obtained, using (S250) a waveform symmetry recognition algorithm to calculate a corresponding waveform symmetry parameter (k max ); if the waveform symmetry parameter (k max ) meets a requirement for waveform asymmetry (k max >=K asmy ) and the current i x (n) of any AC phase exceeds the predetermined current threshold (I set ), then determining (S260) that a magnetizing inrush current has occurred.
Fan shutter, comprising a frame provided with a pair of lateral uprights and defining a passage for an air flow positioned between the lateral uprights , and having an inlet and an outlet, a plurality of blades hinged to the lateral uprights and rotatable between an open passage configuration and a closed passage configuration, wherein the plurality of blades is able to assume the open passage configuration through the direct effect of an air flow between the inlet and outlet of the passage, and a return element connected to the plurality of blades and arranged in such a way as to apply on the blades a return force to return the blades towards the closed passage configuration, characterized in that the plurality of blades comprises an upper blade array and a lower blade array , the upper blades being interconnected so as to simultaneously rotate in the same direction of rotation and being pivoted in such a way as to tend to assume by gravity one of said open or closed passage configurations, and the lower blades being interconnected so as to rotate simultaneously in the same direction of rotation and being pivoted in such a way as to tend to assume by gravity the other of the said open or closed passage configurations, wherein a drive is provided, which connects the upper blade array to the lower blade array in such a way that the two blade arrays are opposite the direction of rotation and the tendency of the upper blades to assume by gravity one of said open or closed passage configurations is countered by the tendency of the lower blades to assume by gravity the other of the said open or closed passage configurations, and wherein the return element is connected to at least one of said upper and lower blade arrays and is arranged in such a way as to apply on the blade array(s) a maximum moment of the return force in the closed passage configuration and a minimum moment of the return force in the open passage configuration.