mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transmitting data on resource units in a wireless local area network, WLAN, the method comprising: allocating, by an access point, AP, a plurality of resource units in a bandwidth, generating, by the AP, a physical layer protocol data unit, PPDU, including the plurality of resource units, wherein the plurality of resource units include a basic tone unit, BTU, and a small tone unit, STU, wherein the STU includes a total of 26 tones, wherein 2 pilot tones for the STU are included in the total of 26 tones, wherein the BTU includes a plurality of tones being greater than the total of 26 tones, and wherein 4 pilot tones for the BTU are included in the plurality of tones; and transmitting, by the AP, the PPDU based on the plurality of resource units, wherein a position of pilot tones of the BTU is defined based on [a x y b] on a frequency axis, characterised in that the allocating further comprises: dividing the BTU into two STUs on the frequency axis such that a position of pilot tones of a first STU among the two STUs is defined based on [a x] and a position of pilot tones of a second STU among the two STU is defined based on [y b], where a, x, y, and b denote an index of tones in the frequency axis. allocating, by an access point, AP, a plurality of resource units in a bandwidth, generating, by the AP, a physical layer protocol data unit, PPDU, including the plurality of resource units, wherein the plurality of resource units include a basic tone unit, BTU, and a small tone unit, STU, wherein the STU includes a total of 26 tones, wherein 2 pilot tones for the STU are included in the total of 26 tones, wherein the BTU includes a plurality of tones being greater than the total of 26 tones, and wherein 4 pilot tones for the BTU are included in the plurality of tones; and transmitting, by the AP, the PPDU based on the plurality of resource units, wherein a position of pilot tones of the BTU is defined based on [a x y b] on a frequency axis, characterised in that the allocating further comprises: dividing the BTU into two STUs on the frequency axis such that a position of pilot tones of a first STU among the two STUs is defined based on [a x] and a position of pilot tones of a second STU among the two STU is defined based on [y b], where a, x, y, and b denote an index of tones in the frequency axis.
A sewing machine needle comprising: a cylindrical shank portion that is attachable to a sewing machine; and a needle shaft portion that is provided closer to a tip of the sewing machine needle than the shank portion ; wherein the cylindrical shank portion is formed into a cylindrical shape having an invariable thickness; characterized in that one or more groove portions are formed in a circumferential face of the shank portion to extend continuously over the entire circumference. a cylindrical shank portion that is attachable to a sewing machine; and a needle shaft portion that is provided closer to a tip of the sewing machine needle than the shank portion ; wherein the cylindrical shank portion is formed into a cylindrical shape having an invariable thickness; characterized in that one or more groove portions are formed in a circumferential face of the shank portion to extend continuously over the entire circumference.
An antibody or a pharmaceutically acceptable composition comprising the antibody and a pharmaceutically acceptable carrier or diluent for use in treating a ROR-1-expressing cancer, wherein the antibody binds the same epitope as an antibody comprised of heavy and light chain variable regions encoded by the nucleotide sequence of SEQ ID NO: 13 (heavy chain) the nucleotide sequence of SEQ ID NO: 15 (light chain).
A bottom seal assembly for a dock ramp comprising a docking opening defined by a moveable swing lip dock leveller at a lower peripheral edge of the docking opening; the bottom seal assembly comprising a seal plate and a bottom seal which is mounted substantially horizontally and moveable vertically with the dock leveller between a lowered position and a raised, in-use position at the lower peripheral edge of the docking opening; and further comprising at least one guidance device configured for the swing lip dock leveller to engage with the seal plate and comprising a horizontal section provided to the rear of the seal plate and an inclined section extending forward and downwards in relation to the seal plate.
A corner profile for arrangement on profiled strips which abut one another and thereby form a corner, wherein the profiled strips are embodied as step edge strips and comprise a tread leg, comprising subportions which are aligned at an angle to one another and which are each designed to receive and fasten one of the profiled strips , wherein the corner profile has an outer casing and an overlap formed thereon, which overlap is designed to engage in the tread legs of the profiled strips to produce a frictional locking of the corner profile and the profiled strips , characterized in that a thickening is provided on the outer casing in each of the subportions which is designed to form a stop and bearing surface for the respective profiled strip .
A method for feeding electrical power into an electrical supply grid by means of at least one wind power installation or of a wind farm having a plurality of wind power installations at a grid connection point, wherein - a plurality of energy generators feed power into the electrical supply grid and - a plurality of consumers draw power from the electrical supply grid so that a power balance between the infed power and the drawn power results in the electrical supply grid, which power balance is positive when more power is fed in than drawn, and the method comprises the following steps: - monitoring of a power indicator that is representative of the power balance in the electrical supply grid, - determination of an amount of balancing energy depending on the power indicator, - infeed of a basic electrical power depending on the available wind power, and - changing of the infeed of the basic electrical power by the determined amount of balancing energy. - a plurality of energy generators feed power into the electrical supply grid and - a plurality of consumers draw power from the electrical supply grid so that a power balance between the infed power and the drawn power results in the electrical supply grid, which power balance is positive when more power is fed in than drawn, and the method comprises the following steps: - monitoring of a power indicator that is representative of the power balance in the electrical supply grid, - determination of an amount of balancing energy depending on the power indicator, - infeed of a basic electrical power depending on the available wind power, and - changing of the infeed of the basic electrical power by the determined amount of balancing energy.
A method for adjusting a motorized screen comprising an apron that is windable on a winding tube , an actuator for maneuvering the winding tube so as to move the apron in a first movement direction and a second movement direction, and a blocking mechanism (18; 46, 48; 52) of the free end of the apron defining a so-called blocked position (P2) in the second movement direction, the blocking being activated in the second movement direction of the apron if the free end of the apron reaches at least one entry position (P3) in the blocking mechanism beforehand, located beyond the blocked position (P2) in the first movement direction of the apron , the motorized screen installation being provided with a means for measuring a parameter related to the movement of the motorized screen , said method comprising the following step: - analyzing variations in the parameter related to the movement of the motorized screen during a movement of the motorized screen ; characterized in that said method further comprises the following step: - determining , from this analysis, the entry position (P3) in the blocking mechanism, said entry position (P3) in the blocking mechanism (18; 46, 48; 52) being obtained by determining a reference position (PMB), the reference position (PMB) being associated with the detection of a local maximum value of the parameter or with the detection of a local maximum variation value of the parameter, said parameter being the torque exerted by the actuator driving the movement of the apron during a movement in the second movement direction. - analyzing variations in the parameter related to the movement of the motorized screen during a movement of the motorized screen ; - determining , from this analysis, the entry position (P3) in the blocking mechanism, said entry position (P3) in the blocking mechanism (18; 46, 48; 52) being obtained by determining a reference position (PMB), the reference position (PMB) being associated with the detection of a local maximum value of the parameter or with the detection of a local maximum variation value of the parameter, said parameter being the torque exerted by the actuator driving the movement of the apron during a movement in the second movement direction.
A decoder system for providing a stereo signal by complex prediction stereo coding, the decoder system comprising: an upmix stage (206, 207, 210, 211; 306, 307, 308, 309, 312; 406, 407, 408, 409; 1410; 1421; 1433) adapted to generate the stereo signal based on first frequency-domain representations of a downmix signal (M) and a residual signal (D), each of the first frequency-domain representations comprising first spectral components representing spectral content of the corresponding signal expressed in a first subspace of a multidimensional space, the upmix stage comprising: a module (206; 306, 307; 408) for computing a second frequency-domain representation of the downmix signal based on the first frequency-domain representation thereof, the second frequency-domain representation comprising second spectral components representing spectral content of the signal expressed in a second subspace of the multidimensional space that includes a portion of the multidimensional space not included in the first subspace; a weighted summer (210, 211; 308, 309; 406, 407) for computing a side signal (S) by combining the first frequency-domain representation of the residual signal, the first frequency-domain representation of the downmix signal weighted by a real-valued part of a complex prediction coefficient encoded in a bit stream signal, and the second frequency domain representation of the downmix signal weighted by an imaginary-valued part of the complex prediction coefficient; and a sum-and-difference stage (207; 312; 409) for computing the stereo signal on the basis of the first frequency-domain representation of the downmix signal and the side signal, wherein the upmix stage is further operable in a pass-through mode, in which said downmix and residual signals are supplied to the sum-and-difference stage directly. a module (206; 306, 307; 408) for computing a second frequency-domain representation of the downmix signal based on the first frequency-domain representation thereof, the second frequency-domain representation comprising second spectral components representing spectral content of the signal expressed in a second subspace of the multidimensional space that includes a portion of the multidimensional space not included in the first subspace; a weighted summer (210, 211; 308, 309; 406, 407) for computing a side signal (S) by combining the first frequency-domain representation of the residual signal, the first frequency-domain representation of the downmix signal weighted by a real-valued part of a complex prediction coefficient encoded in a bit stream signal, and the second frequency domain representation of the downmix signal weighted by an imaginary-valued part of the complex prediction coefficient; and a sum-and-difference stage (207; 312; 409) for computing the stereo signal on the basis of the first frequency-domain representation of the downmix signal and the side signal, wherein the upmix stage is further operable in a pass-through mode, in which said downmix and residual signals are supplied to the sum-and-difference stage directly.
Line feedthrough for feeding at least one line through a wall, with a. a housing with a tube-shaped outer shell extending in an axial direction from a front side end to a rear side end , and b. an insert arranged inside the outer shell of the housing and having at least one sealing membrane which surrounds a feed-through opening for feeding through a line, and c. the at least one sealing membrane is surrounded by a tube-shaped inner shell of the insert , which extends in the axial direction and at least in some areas along the outer shell of the housing , and characterized in that d. the housing has cut-outs extending through the outer shell , through each of which a clamping rib of the insert extends radially outwards. a. a housing with a tube-shaped outer shell extending in an axial direction from a front side end to a rear side end , and b. an insert arranged inside the outer shell of the housing and having at least one sealing membrane which surrounds a feed-through opening for feeding through a line, and c. the at least one sealing membrane is surrounded by a tube-shaped inner shell of the insert , which extends in the axial direction and at least in some areas along the outer shell of the housing , and characterized in that d. the housing has cut-outs extending through the outer shell , through each of which a clamping rib of the insert extends radially outwards.
An integrated electric drive power assembly, characterized in that : the integrated electric drive power assembly comprises an motor and a gearbox, an output shaft of the motor and an input shaft of the gearbox are integrally manufactured, to form a main shaft of the power assembly, a parking lock wheel is provided within the gearbox, and the parking lock wheel is fixedly mounted to the main shaft ; a motor rear end cover and a gearbox front housing are integrally manufactured, a shaft mounting bore is provided at gearbox front housing , and the main shaft passes through the shaft mounting bore to enter the gearbox; a middle bearing and an oil seal are mounted at the shaft mounting bore, the middle bearing supports the main shaft , and the oil seal seals a gap between the main shaft and the shaft mounting bore, to seal and isolate the gearbox and the motor; a left end bearing and a right end bearing are respectively provided at two ends of the main shaft , the left end bearing is fixedly mounted to a gearbox rear housing , a bearing seat is correspondingly provided at the gearbox rear housing , the right end bearing is fixedly mounted to a motor front end cover , and a bearing seat is correspondingly provided at the front end cover ; multi-stage gear pairs are provided in the gearbox, a rightmost first-stage gear pair is connected to the main shaft and is neighboring the motor, and the parking lock wheel is located on a left side of the first gear pair.
Burner tip for incorporation in a burner , wherein the burner tip has an air duct system that is open to the surrounding area of the burner tip and a fuel duct system that is open to the surrounding area of the burner tip, wherein an air duct , which is part of the air duct system, runs centrally in the burner tip and this central air duct is surrounded by a wall structure which is openly porous and/or configured as a space lattice, wherein pores located in the wall structure and/or lattice interspaces which are part of the air duct system form a connection between the air duct and the surrounding area of the burner tip, characterized in that the wall structure consists of multiple layers that have different porosities and/or different lattice structures, wherein the air duct system passes through the layers in succession.
Control unit , configured to receive a first measurement parameter p1 from a first ultrasound receiver detecting a first ultrasound signal, which has been travelling along a first path ; receive a second measurement parameter p2 from a second ultrasound receiver detecting a second ultrasound signal, which has been travelling along a second path different from the first path; determine the ratio p1/p2 of the first measurement parameter p1 to the second measurement parameter p2; determine the ratio h/D of a known distance h covered by the first ultrasound signal along the first path to a known distance D covered by the second ultrasound signal along the second path ; compare the ratio p1/p2 with the ratio h/D; and to control a process based on the comparison of the ratio p1/p2 with the ratio h/D. receive a first measurement parameter p1 from a first ultrasound receiver detecting a first ultrasound signal, which has been travelling along a first path ; receive a second measurement parameter p2 from a second ultrasound receiver detecting a second ultrasound signal, which has been travelling along a second path different from the first path; determine the ratio p1/p2 of the first measurement parameter p1 to the second measurement parameter p2; determine the ratio h/D of a known distance h covered by the first ultrasound signal along the first path to a known distance D covered by the second ultrasound signal along the second path ; compare the ratio p1/p2 with the ratio h/D; and to control a process based on the comparison of the ratio p1/p2 with the ratio h/D.
A water output device, comprising: an electronic sensor component configured for sensing a water demand signal; a waterway electronic valve configured for opening or closing a waterway under control of a signal; a flow adjusting component configured for adjusting a flow rate of outputted water; an electronic control component , which is communicatively connected to the waterway electronic valve and the electronic sensor component, wherein the electronic control component is configured to control the waterway electronic valve according to a signal sent by the electronic sensor component; and wherein the water output device further comprises a detection component configured for detecting a flow adjusting position of the flow adjusting component , and the detection component is communicatively connected to the electronic control component ; characterized in that , the flow adjusting component has a first position, and a flow rate corresponding to the first position is greater than zero; and in a case that the detection component detects that the flow adjusting component reduces the flow rate to reach the first position, the detection component is configured to send a signal to the electronic control component , and the electronic control component closes the waterway electronic valve according to the signal. an electronic sensor component configured for sensing a water demand signal; a waterway electronic valve configured for opening or closing a waterway under control of a signal; a flow adjusting component configured for adjusting a flow rate of outputted water; an electronic control component , which is communicatively connected to the waterway electronic valve and the electronic sensor component, wherein the electronic control component is configured to control the waterway electronic valve according to a signal sent by the electronic sensor component; and wherein the water output device further comprises a detection component configured for detecting a flow adjusting position of the flow adjusting component , and the detection component is communicatively connected to the electronic control component ; characterized in that , the flow adjusting component has a first position, and a flow rate corresponding to the first position is greater than zero; and in a case that the detection component detects that the flow adjusting component reduces the flow rate to reach the first position, the detection component is configured to send a signal to the electronic control component , and the electronic control component closes the waterway electronic valve according to the signal.
A fragmentation device designed to fragment the glass of a used window , and comprising at least: - a conveyor designed to transport said window , flat, along a longitudinal axis (L), - at least one fragmentation assembly , surmounting the conveyor , and designed to fragment the glass of said window as it is being transported on said conveyor , said device being characterized in that the fragmentation assembly comprises a drum arranged above said conveyor along an axis of revolution (R) transverse to said longitudinal axis (L), said drum being connected by at least one chain to at least one impactor assembly comprising at least one percussion head designed to strike the conveyor upon each revolution of said drum . - a conveyor designed to transport said window , flat, along a longitudinal axis (L), - at least one fragmentation assembly , surmounting the conveyor , and designed to fragment the glass of said window as it is being transported on said conveyor , said device being characterized in that the fragmentation assembly comprises a drum arranged above said conveyor along an axis of revolution (R) transverse to said longitudinal axis (L), said drum being connected by at least one chain to at least one impactor assembly comprising at least one percussion head designed to strike the conveyor upon each revolution of said drum .
A decorative holding device for window sills comprising at least two supports , wherein each support comprises a substantially L-shaped first supporting element having a vertical leg and a horizontal leg arrangeble on the upper side of a window sill, and a second support element having a clamping projection arranged on the lower free end portion and being displaceable in relation to the first support element in the direction of the vertical leg of the first support element , and wherein the first and second supporting elements are fixable in their relative position to one another by a fixing means , wherein the fixing means include an actuating portion which is situated above the horizontal leg of the first supporting element and thus, in the assembled state, above the window sill plane, characterized in that the decorative holding device comprises at least one transverse connecting element , preferably two or more transverse connecting elements , and in that fastening grooves and/or projections are provided on each first support element for receiving the transverse connecting elements each arrangeble between two supports , and in that compensating elements for adjustment to the angle of inclination and/or the cross-section of the respective window sill are respectively provided on the underside of the horizontal leg of the first supporting element and/or on the lower free end portion of the second supporting element .
Multi-layer composite body, comprising - a base panel , preferably in the form of a hard fiberboard or medium-density fiberboard, - a polymeric laminate , preferably comprising at least one layer , applied to the base panel , - at least one bonding layer between the base panel and the polymeric laminate , - wherein the base panel comprises, on the side facing away from the lower layer of the polimeric laminate , at least in part a spacer element connected thereto via at least one bonding layer , characterized in that the spacer element is configured as a nonwoven and has a surface weight of approx. 40 to 150 g/m 2 , preferably approx. 50 to 150 g/m 2 in accordance with DIN EN 29073-1. - a base panel , preferably in the form of a hard fiberboard or medium-density fiberboard, - a polymeric laminate , preferably comprising at least one layer , applied to the base panel , - at least one bonding layer between the base panel and the polymeric laminate , - wherein the base panel comprises, on the side facing away from the lower layer of the polimeric laminate , at least in part a spacer element connected thereto via at least one bonding layer , characterized in that the spacer element is configured as a nonwoven and has a surface weight of approx. 40 to 150 g/m 2 , preferably approx. 50 to 150 g/m 2 in accordance with DIN EN 29073-1.