mhurhangee/patent-ind-claim-en huggingface dataset:
An agricultural machine comprising: a set of ground engaging elements configured to perform a ground engaging operation as the agricultural machine travels in a travel direction; a controllable subsystem configured to control the set of ground engaging elements to perform the ground engaging operation; a rearward sensor mounted to the agricultural machine and configured to sense an area of ground behind the agricultural machine , relative to the travel direction, and to generate a rearward sensor signal; rearward zone generator logic configured to determine a first zone and a second zone , wherein the first zone and the second zone represent different portions of the sensed area of ground behind the agricultural machine ; rearward residue generator logic configured to receive the rearward sensor signal and determine a first residue metric indicative of the amount of residue in the first zone ; and control logic configured to control the controllable subsystem so the set of ground engaging elements perform the ground engaging operation on the sensed area of ground based on the first residue metric. a set of ground engaging elements configured to perform a ground engaging operation as the agricultural machine travels in a travel direction; a controllable subsystem configured to control the set of ground engaging elements to perform the ground engaging operation; a rearward sensor mounted to the agricultural machine and configured to sense an area of ground behind the agricultural machine , relative to the travel direction, and to generate a rearward sensor signal; rearward zone generator logic configured to determine a first zone and a second zone , wherein the first zone and the second zone represent different portions of the sensed area of ground behind the agricultural machine ; rearward residue generator logic configured to receive the rearward sensor signal and determine a first residue metric indicative of the amount of residue in the first zone ; and control logic configured to control the controllable subsystem so the set of ground engaging elements perform the ground engaging operation on the sensed area of ground based on the first residue metric.
DARC signal demodulation circuit arrangement , in particular in an FM multiplex radio receiver, for recovering a DARC signal (W), containing DARC data (data), from an FM multiplex transmission signal (MPX), comprising • a pilot tone control circuit , which is set up to obtain a first (ps19) and a second (pcl9) oscillation, which are orthogonal with respect to one another and which are in sync with a stereo pilot tone that the FM multiplex transmission signal (MPX) comprises, • a frequency quadrupling stage for obtaining a third (ps76) and a fourth (pc76) oscillation, which are orthogonal with respect to one another, at a frequency that is quadrupled in comparison with the stereo pilot tone, • a first multiplication stage for obtaining a first multiplication signal from the FM multiplex transmission signal (MPX) and the third oscillation (ps76) , • a second multiplication stage for obtaining a second multiplication signal from the FM multiplex transmission signal (MPX) and the fourth oscillation (pc76), • a first low-pass filter for obtaining a first DARC signal component (Q) by low-pass filtering the first multiplication signal, • a second low-pass filter for obtaining a second DARC signal component (I) by low-pass filtering the second multiplication signal and • an FM demodulation stage for obtaining the DARC signal (W) from frequency demodulation of the first (Q) and second (I) DARC signal component. • a pilot tone control circuit , which is set up to obtain a first (ps19) and a second (pcl9) oscillation, which are orthogonal with respect to one another and which are in sync with a stereo pilot tone that the FM multiplex transmission signal (MPX) comprises, • a frequency quadrupling stage for obtaining a third (ps76) and a fourth (pc76) oscillation, which are orthogonal with respect to one another, at a frequency that is quadrupled in comparison with the stereo pilot tone, • a first multiplication stage for obtaining a first multiplication signal from the FM multiplex transmission signal (MPX) and the third oscillation (ps76) , • a second multiplication stage for obtaining a second multiplication signal from the FM multiplex transmission signal (MPX) and the fourth oscillation (pc76), • a first low-pass filter for obtaining a first DARC signal component (Q) by low-pass filtering the first multiplication signal, • a second low-pass filter for obtaining a second DARC signal component (I) by low-pass filtering the second multiplication signal and • an FM demodulation stage for obtaining the DARC signal (W) from frequency demodulation of the first (Q) and second (I) DARC signal component.
Torch with a cylindrical housing on whose outer shell an on/off switch is arranged consisting of a rigid annular body which is arranged to be displaceable in each optional radial direction and through which actuation directly or indirectly a button or pressure switch can be actuated characterized in that the annular body is in contact with at least one body (20, 21; 32) which is crowned, preferably spherical, in the longitudinal axial direction of the cylindrical housing and which can be moved by means of a radial displacement pushed out of at least one trough of a further body that is elastically mounted in the longitudinal axial direction and thereby triggers a longitudinal axial displacement of this further body , which produces a pressure contact with the button or the switch that triggers the switching process .
A connection method for UHVDC transmission between a rectification side and an inversion side via an UHVDC transmission line, the rectification side having a UHV converter station at rectification side, characterized in that it comprises: (S102) setting an UHV LV converter station at rectification side close to a first power source collection point of a first power plant and setting (S102) an UHV HV converter station at rectification side close to a second power source collection point of a second power plant,; (S104) configuring said UHV LV converter station at rectification side such that it receives a first AC power from the first power source collection point it converts said first AC power into a first low voltage DC power, and it inputs the first low voltage DC power into the UHV HV converter station at rectification side (S104); (S106) configuring said UHV HV converter station at rectification side such that it receives a second AC power from the second power source collection point and said first low voltage DC power, it rectifies said second AC power, it superimposes it with said first low voltage DC power to generate a first UHVDC power and it outputs the first UHVDC power via an UHV DC transmission line; wherein HV means a voltage above 750kV and LV means a voltage between 300 and 600 kV. (S102) setting an UHV LV converter station at rectification side close to a first power source collection point of a first power plant and setting (S102) an UHV HV converter station at rectification side close to a second power source collection point of a second power plant,; (S104) configuring said UHV LV converter station at rectification side such that it receives a first AC power from the first power source collection point it converts said first AC power into a first low voltage DC power, and it inputs the first low voltage DC power into the UHV HV converter station at rectification side (S104); (S106) configuring said UHV HV converter station at rectification side such that it receives a second AC power from the second power source collection point and said first low voltage DC power, it rectifies said second AC power, it superimposes it with said first low voltage DC power to generate a first UHVDC power and it outputs the first UHVDC power via an UHV DC transmission line; wherein HV means a voltage above 750kV and LV means a voltage between 300 and 600 kV.
A method of replacing a damaged portion of a furnace roof of a metallurgical or refining furnace comprising: providing the metallurgical or refining furnace with a top loading roof panel system having a top loading roof structure comprising roof support beams and a plurality of panels coupled to and supported by the roof support beams , wherein the roof support beams include an inner support ring and an outer support ring , and a plurality of radial beams separate from the inner and outer support rings that extend radially between the inner support ring and the outer support ring to interconnect the inner support ring and the outer support ring; removing a first panel of the plurality of panels from the roof support beams by lifting the first panel from the top loading roof structure; replacing the first panel with a second panel, wherein replacing the first panel with the second panel includes inserting the second panel through an opening defined between the inner support ring, the outer support ring, and two circumferentially adjacent radial beams of the plurality of radial beams; and coupling the second panel to the top loading roof structure so that the second panel is supported below tops of the roof support beams and is located to protect underside hot faces of the roof support beams. providing the metallurgical or refining furnace with a top loading roof panel system having a top loading roof structure comprising roof support beams and a plurality of panels coupled to and supported by the roof support beams , wherein the roof support beams include an inner support ring and an outer support ring , and a plurality of radial beams separate from the inner and outer support rings that extend radially between the inner support ring and the outer support ring to interconnect the inner support ring and the outer support ring; removing a first panel of the plurality of panels from the roof support beams by lifting the first panel from the top loading roof structure; replacing the first panel with a second panel, wherein replacing the first panel with the second panel includes inserting the second panel through an opening defined between the inner support ring, the outer support ring, and two circumferentially adjacent radial beams of the plurality of radial beams; and coupling the second panel to the top loading roof structure so that the second panel is supported below tops of the roof support beams and is located to protect underside hot faces of the roof support beams.
A mobile scanning assembly having at least one scanning device mounted on a platform for 2D or 3D measurement of objects/regions, wherein the platform is guided in such a way that it can be moved along a predetermined path of movement, and having a computing unit that is in data connection with the scanning device, and having a device for location detection, wherein the computing unit is adapted to evaluate the data determined via the scanning device, which is operated preferably in an MMS rotation mode, in particular an MMS-SLAM rotation mode, and the device for location detection, and to determine a trajectory of the scanning assembly, characterized in that the computing unit is adapted, in the event of insufficient data quality of the trajectory or of the 3D cloud of points, to determine at least one position for additionally performing a static scan and to output corresponding information.
A pipe clamp for connecting submerged pipes provided with a flange, the pipe clamp including at least one hinge and at least two segments connected to the at least one hinge , said hinge including a first hinge element on one side of the pipe clamp and a second hinge element on the opposite side of the pipe clamp , wherein each hinge element is provided with through-going eyes in its end portions, wherein each hinge element is rotatably attached to pins in one end portion of one of the at least two segments and to pins in one end portion of the other one of the at least two segments , wherein said segments and hinge form an opening and the pipe clamp is provided with lips and grooves in the opening necessary for holding together the flanges, and the pipe clamp further being provided with a tensioning member arranged to open and close the pipe clamp , wherein the pipe clamp is provided with at least one strain gauge (71-76) arranged to measure the tension of the pipe clamp around the flange of the pipe when the pipe clamp is closed by means of the tensioning member .
Visual comfort device containing at least one inertial sensor , a processing unit and at least one screen , the screen being intended to be positioned laterally in a peripheral visual field of a user, the processing unit being coupled to the inertial sensor and to the screen , characterized in that the device is configured to display on the screen an inertial matrix representative of an item of inertial information, said displayed inertial matrix containing a maximum of sixteen points and/or line intersections.
A diploid cultivated watermelon plant of the species Citrullus lanatus ssp. vulgaris , wherein said plant comprises an introgression fragment from a wild watermelon plant on chromosome 3, whereby said introgression fragment comprises a Cucumber Vein Yellowing Virus (CVYV) - resistance conferring locus and whereby the introgression fragment comprises: a) a Guanine (G) at nucleotide 76 of SEQ ID NO: 2 (SNP_02) or of a sequence comprising at least 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% sequence identity to SEQ ID NO: 2; and b) a Cytosine (C) at nucleotide 76 of SEQ ID NO: 3 (SNP_03) or of a sequence comprising at least 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% sequence identity to SEQ ID NO: 3 and wherein the CVYV-resistance conferring locus is obtainable by crossing a watermelon plant of which seeds were deposited under accession number NCIMB42449, NCIMB42450 or NCIMB42666 with another watermelon plant. a) a Guanine (G) at nucleotide 76 of SEQ ID NO: 2 (SNP_02) or of a sequence comprising at least 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% sequence identity to SEQ ID NO: 2; and b) a Cytosine (C) at nucleotide 76 of SEQ ID NO: 3 (SNP_03) or of a sequence comprising at least 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% sequence identity to SEQ ID NO: 3
A method of fabricating an airfoil preform for a turbine engine by selective melting on a bed of powder, the preform comprising an airfoil and at least one removable support secured to the airfoil, the airfoil being fabricated layer by layer from a first edge of the airfoil corresponding to a leading edge or to a trailing edge of an airfoil to a second edge of the airfoil corresponding to a trailing edge or a leading edge of the airfoil along a direction perpendicular to a height of the first edge, the method comprising fabricating the removable support and the airfoil, said removable support being for securing firstly to a fabrication platform and secondly to a portion of a face forming a pressure side or a suction side of the airfoil situated in the vicinity of the first edge of the airfoil and facing said fabrication platform, the first edge being facing the fabrication platform and the second edge being situated opposite from the fabrication platform; the method being characterized in that the face forming a pressure side or a suction side of the airfoil and facing the fabrication platform includes a flat extending away from said face, the flat being present over a portion of said face that is situated outside the first edge of the airfoil, the removable support being secured to the flat or both to the flat and to the portion of said face that is situated outside the first edge .
A bone implant configured for osteointegration, characterised in that the bone implant comprises a jade material selected from a group consisting of a jadeite jade, nephrite jade, xonothlite jade, vezuvianite jade, pectolite jade, bowenite jade and hydrogrossular jade, wherein the jade material is a silicate mineral aggregate or rock with tangled-fibrous or fine- crystalline structure.
A seal arrangement for a gear mechanism, wherein a spacer ring is arranged between a first and a second shaft sealing ring , wherein a flange part is connected to a connection flange , wherein the connection flange presses the second shaft sealing ring onto the spacer ring , the spacer ring presses onto the first shaft sealing ring , so that the first shaft sealing ring is adjusted against the flange part , wherein the running surface of the first shaft sealing ring and the running surface of the second shaft sealing ring are arranged on a bearing bush which is screw-connected to a shaft , wherein the connection flange is screwed onto the flange part such that the first and second shaft sealing ring are arranged between the connection flange and flange part , and the spacer ring between the first and second shaft sealing ring , characterised in that the spatial region delimited by the flange part , the connection flange , the second shaft sealing ring and the bearing bush and/or the shaft is acted upon with compressed air, wherein the compressed air is supplied through the connection flange , wherein the flange part is connected to a cover part of the gear mechanism, wherein the screw heads of the screws used for connection are overlapped and/or covered by the connection flange , wherein a cascading seal arrangement is arranged between the shaft and cover part , which arrangement seals off the shaft from the housing and thus seals off the interior of the gear mechanism which is filled partially or entirely with oil from the external environment, wherein the cascading seal arrangement has a shaft-sealing-ring seal arrangement , a lamellar seal and a labyrinth seal .
A wireless communication method, comprising: scrambling, prior to a Cyclic Redundancy Check, CRC, attachment, at least part of a first Radio Resource Configuration, RRC, message by a base station based on a seed associated with a mobile device; and transmitting, by the base station, the at least part of the first RRC scrambled message at a layer that is lower than a Radio Link Control, RLC, layer or a Medium Access Control, MAC, layer over a corresponding channel, wherein the at least part of the first RRC message is transmitted without being processed in the RLC layer. scrambling, prior to a Cyclic Redundancy Check, CRC, attachment, at least part of a first Radio Resource Configuration, RRC, message by a base station based on a seed associated with a mobile device; and transmitting, by the base station, the at least part of the first RRC scrambled message at a layer that is lower than a Radio Link Control, RLC, layer or a Medium Access Control, MAC, layer over a corresponding channel, wherein the at least part of the first RRC message is transmitted without being processed in the RLC layer.
Image processing apparatus for processing image data of an image sensor with a regular arrangement of first pixels, wherein the image processing apparatus is configured to determine a brightness value for two or more virtual second pixels of the same size at different intermediate positions between the first pixels, wherein the determination of the respective brightness value comprises an interpolation of the pixels of a neighborhood of the respective intermediate position, the neighborhood comprising several of the first pixels, by means of an associated local filter, wherein each of the local filters comprises a plurality of filter coefficients, wherein for at least one of the local filters more than one of the filter coefficients is unequal to zero, characterized in that the sum of the squared filter coefficients for each of the local filters is equal to a constant value, which according to a first condition is the same for all local filters.
A hydraulic tool comprising: a working head , the working head comprising head indicia that identify a type of the working head; a tool frame having a piston; a hydraulic system coupled to piston; a coupling mechanism, the coupling mechanism releasably coupling the head to the frame and coupling the piston to a working surface of the head; a head sensor , the head sensor being adapted to detect the head indicia; and a controller connected with the head sensor and the hydraulic system, wherein the controller receives a signal generated by the head sensor in response to the head indicia, determines the type of the head, determines a maximum force to apply to the working surface based at least in part on the determined head type, and controls the hydraulic system to apply the maximum force, characterised in that the coupling mechanism comprises a tool connecting portion with a T-shaped slot on the tool frame and a head connecting portion on the working head including connecting arms where a cross section of the connecting arms correspond to the cross section of the T-shaped slot so that when the head connecting portion is aligned with the tool connecting portion , the arms slide into the T-shaped slot . a working head , the working head comprising head indicia that identify a type of the working head; a tool frame having a piston; a hydraulic system coupled to piston; a coupling mechanism, the coupling mechanism releasably coupling the head to the frame and coupling the piston to a working surface of the head; a head sensor , the head sensor being adapted to detect the head indicia; and a controller connected with the head sensor and the hydraulic system, wherein the controller receives a signal generated by the head sensor in response to the head indicia, determines the type of the head, determines a maximum force to apply to the working surface based at least in part on the determined head type, and controls the hydraulic system to apply the maximum force, characterised in that the coupling mechanism comprises a tool connecting portion with a T-shaped slot on the tool frame and a head connecting portion on the working head including connecting arms where a cross section of the connecting arms correspond to the cross section of the T-shaped slot so that when the head connecting portion is aligned with the tool connecting portion , the arms slide into the T-shaped slot .
An abutment as an intermediate piece between an implant and a superstructure , in particular a crown, comprising two connectible and or connected abutment parts, wherein: • one of the abutment parts is formed as a support carrier for producing a connection to the implant, and • one of the abutment parts is formed as a support for constructing and/or fastening the superstructure , • wherein the support carrier has a connecting element for connection to the implant, wherein • the support carrier forms a construction platform , on which a connecting body is mounted, which has an external thread and is aligned perpendicular to the construction platform, • wherein the support is formed as a sleeve with an internal screw thread for connection to the external screw thread of the support carrier , wherein the connecting element is opposite the central axis of the connecting body , in particular angled with respect to the restoration axis (R), wherein the abutment is formed in exactly two parts, wherein one part is a support and the other part is a support carrier. • one of the abutment parts is formed as a support carrier for producing a connection to the implant, and • one of the abutment parts is formed as a support for constructing and/or fastening the superstructure , • wherein the support carrier has a connecting element for connection to the implant, wherein • the support carrier forms a construction platform , on which a connecting body is mounted, which has an external thread and is aligned perpendicular to the construction platform, • wherein the support is formed as a sleeve with an internal screw thread for connection to the external screw thread of the support carrier , wherein the connecting element is opposite the central axis of the connecting body , in particular angled with respect to the restoration axis (R), wherein the abutment is formed in exactly two parts, wherein one part is a support and the other part is a support carrier.