mhurhangee/patent-ind-claim-en huggingface dataset:
A cast resin transformer having a seismic structure to prevent detachment of a spacer by reducing a displacement occurring when an external force exerts on the cast resin transformer, comprising: a bed frame seated on a floor; a lower frame coupled to the top of the bed frame ; at least one coil installed on the top of the lower frame ; an upper frame installed on the top of the coil and located in parallel with the lower frame ; a core connected to the coil ; a spacer interposed between the coil and the lower frame ; a protrusion part which protrudes from the top of the lower frame and is inserted in a groove formed in the lower end of the spacer so as to prevent the spacer interposed between the lower frame and the coil from being detached; and a reinforcement part connected between the bed frame and the lower frame so as to provide a reinforcing function against an external force, wherein the groove has a size larger than the width of the protrusion part and the spacer is formed so as to move within a clearance space in a state where the protrusion part is inserted in the groove . a bed frame seated on a floor; a lower frame coupled to the top of the bed frame ; at least one coil installed on the top of the lower frame ; an upper frame installed on the top of the coil and located in parallel with the lower frame ; a core connected to the coil ; a spacer interposed between the coil and the lower frame ; a protrusion part which protrudes from the top of the lower frame and is inserted in a groove formed in the lower end of the spacer so as to prevent the spacer interposed between the lower frame and the coil from being detached; and a reinforcement part connected between the bed frame and the lower frame so as to provide a reinforcing function against an external force, wherein the groove has a size larger than the width of the protrusion part and the spacer is formed so as to move within a clearance space in a state where the protrusion part is inserted in the groove .
An Internet protocol, IP, address distribution system comprising: a network formed by a switch apparatus ; and an IP address distribution apparatus connected to the network, wherein, when receiving a signal including a distribution IP address, which is an IP address to be distributed to an apparatus that requests the IP address by the IP address distribution apparatus, the switch apparatus rewrites one part of or the entire of the distribution IP address included in the received signal to a value corresponding to a port that relays the signal and the switch apparatus transmits the rewritten distribution IP address toward the requesting apparatus. a network formed by a switch apparatus ; and an IP address distribution apparatus connected to the network, wherein, when receiving a signal including a distribution IP address, which is an IP address to be distributed to an apparatus that requests the IP address by the IP address distribution apparatus, the switch apparatus rewrites one part of or the entire of the distribution IP address included in the received signal to a value corresponding to a port that relays the signal and the switch apparatus transmits the rewritten distribution IP address toward the requesting apparatus.
An image processing device comprising: • a filter determination unit configured to determine whether to apply a deblocking filter to pixels neighboring a block boundary within a locally decoded image in an encoding process, the deblocking filter including a first deblocking filter and a second deblocking filter having a filter strength greater than that of the first deblocking filter; • a filter strength determination unit configured to, when it is determined by the filter determination unit that deblocking filtering is to be applied, determine whether to apply the first deblocking filter or apply the second deblocking filter; • a filtering unit configured to apply, when the filter strength determination unit determines to apply the second deblocking filter, the second deblocking filter so as to apply a clipping process to a difference value obtained by the second deblocking filter using a second clipping value pv, which is 1 to 8 times that of a first clipping value tc, which is used in case that a clipping process is applied to a difference value obtained by the first deblocking filter, and to generate a filtered image; and • an encoding unit configured to encode an image using the filtered image. • a filter determination unit configured to determine whether to apply a deblocking filter to pixels neighboring a block boundary within a locally decoded image in an encoding process, the deblocking filter including a first deblocking filter and a second deblocking filter having a filter strength greater than that of the first deblocking filter; • a filter strength determination unit configured to, when it is determined by the filter determination unit that deblocking filtering is to be applied, determine whether to apply the first deblocking filter or apply the second deblocking filter; • a filtering unit configured to apply, when the filter strength determination unit determines to apply the second deblocking filter, the second deblocking filter so as to apply a clipping process to a difference value obtained by the second deblocking filter using a second clipping value pv, which is 1 to 8 times that of a first clipping value tc, which is used in case that a clipping process is applied to a difference value obtained by the first deblocking filter, and to generate a filtered image; and • an encoding unit configured to encode an image using the filtered image.
A computer-implemented method of generating a tissue map that differentiates between adipose tissue and scar tissue from an electrophysiology map including a plurality of electrophysiology data points, each electrophysiology data point including an electrophysiological signal and one or more dielectric properties associated with a tissue location, the method comprising: for each electrophysiology data point of the plurality of electrophysiology data points, computing: an adipose tissue probability for the tissue location as a first function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location, and a scar tissue probability for the tissue location as a second function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location; wherein the first function utilizes a first set of user-preset spatially-dependent weighting factors for the one or more characteristics of the electrophysiological signal and the one or more dielectric properties measured at the tissue location, and wherein the second function utilizes a second set of user-preset spatially-dependent weighting factors for the one or more characteristics of the electrophysiological signal and the one or more dielectric properties measured at the tissue location, generating one or more of an adipose tissue probability map and a scar tissue probability map. for each electrophysiology data point of the plurality of electrophysiology data points, computing: an adipose tissue probability for the tissue location as a first function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location, and a scar tissue probability for the tissue location as a second function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location; an adipose tissue probability for the tissue location as a first function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location, and a scar tissue probability for the tissue location as a second function of the one or more characteristics of the electrophysiological signal and the one or more dielectric properties associated with the tissue location; wherein the first function utilizes a first set of user-preset spatially-dependent weighting factors for the one or more characteristics of the electrophysiological signal and the one or more dielectric properties measured at the tissue location, and wherein the second function utilizes a second set of user-preset spatially-dependent weighting factors for the one or more characteristics of the electrophysiological signal and the one or more dielectric properties measured at the tissue location, generating one or more of an adipose tissue probability map and a scar tissue probability map.
An orthopedic device comprising: an elongated body having first and second ends; a first arm member attached to and extending away from said first end and terminating at an outer end; a second arm member extending from said elongated body in the same direction as the first arm member and having a base portion and an outer end, wherein the base portion is configured and adapted to engage the elongated body and allow the second arm member to be longitudinally movable along said elongated body ; and a locking sleeve hingeably connected to the outer end of each of the first and second arm members by a hinge joint, wherein said locking sleeve comprises: an elongated shaft having an elongated pin receiving bore extending therethrough; a collet provided at one end of the elongated shaft , said collet comprising a plurality of collet arms provided with screw threads integrally formed on their exterior surfaces; and a collet nut having an interior surface provided with screw threads for threadably engaging the screw threads of the collet ; wherein rotation of the collet nut in a first direction causes the plurality of collet arms to move radially inward for locking an elongated pin that is received in the elongated pin receiving bore. an elongated body having first and second ends; a first arm member attached to and extending away from said first end and terminating at an outer end; a second arm member extending from said elongated body in the same direction as the first arm member and having a base portion and an outer end, wherein the base portion is configured and adapted to engage the elongated body and allow the second arm member to be longitudinally movable along said elongated body ; and a locking sleeve hingeably connected to the outer end of each of the first and second arm members by a hinge joint, wherein said locking sleeve comprises: an elongated shaft having an elongated pin receiving bore extending therethrough; a collet provided at one end of the elongated shaft , said collet comprising a plurality of collet arms provided with screw threads integrally formed on their exterior surfaces; and a collet nut having an interior surface provided with screw threads for threadably engaging the screw threads of the collet ; wherein rotation of the collet nut in a first direction causes the plurality of collet arms to move radially inward for locking an elongated pin that is received in the elongated pin receiving bore. an elongated shaft having an elongated pin receiving bore extending therethrough; a collet provided at one end of the elongated shaft , said collet comprising a plurality of collet arms provided with screw threads integrally formed on their exterior surfaces; and a collet nut having an interior surface provided with screw threads for threadably engaging the screw threads of the collet ; wherein rotation of the collet nut in a first direction causes the plurality of collet arms to move radially inward for locking an elongated pin that is received in the elongated pin receiving bore.
A pyrolysis, thermal cracking, or steam cracking reactor for cracking hydrocarbons wherein the reactor has an inner wall; characterized in that the inner wall comprises a plurality of concave dimples embedded in a surface of said inner wall, characterized by an area coverage (AC) defined as AC % = total area of the inner wall covered by dimples / total area of the inner wall ∗ 100 ; wherein the AC is at least 20% and at most 90%; and, wherein each concave dimple of the plurality of concave dimples is characterized by a dimple diameter d, wherein d is at least 0.1 cm and at most 5.0 cm; wherein the dimple diameter d is measured as the maximal distance between two antipodal points of the dimple, i.e., diametrically opposite points, lying on the edge of a dimple running as a straight line segment while passing through the center of the dimple. wherein the AC is at least 20% and at most 90%; and, wherein each concave dimple of the plurality of concave dimples is characterized by a dimple diameter d, wherein d is at least 0.1 cm and at most 5.0 cm; wherein the dimple diameter d is measured as the maximal distance between two antipodal points of the dimple, i.e., diametrically opposite points, lying on the edge of a dimple running as a straight line segment while passing through the center of the dimple.
Apparatus for adjusting the yaw of a wind turbine and adapted for mounting on a wind turbine , said wind turbine comprising a tower , nacelle , yaw drive , spinner or rotor , said apparatus comprising - a system for measuring the wind direction and comprising a wind vane or a sonic wind sensor positioned on the nacelle behind the rotor in relation to the wind when the wind turbine is in operation, said system adapted, via a control signal, to control the yaw angle of the wind turbine based on the wind direction, and - a wind sensor system comprising a LiDAR or a spinner anemometer having a sensor , for determining the wind speed and which is placed on spinner or rotor , and adapted to determine the yaw error of the wind turbine , and - means for modifying the control signal obtained from the wind vane or sonic wind sensor positioned on the nacelle based on the yaw error determined by the wind sensor system placed on spinner or rotor . - a system for measuring the wind direction and comprising a wind vane or a sonic wind sensor positioned on the nacelle behind the rotor in relation to the wind when the wind turbine is in operation, said system adapted, via a control signal, to control the yaw angle of the wind turbine based on the wind direction, and - a wind sensor system comprising a LiDAR or a spinner anemometer having a sensor , for determining the wind speed and which is placed on spinner or rotor , and adapted to determine the yaw error of the wind turbine , and - means for modifying the control signal obtained from the wind vane or sonic wind sensor positioned on the nacelle based on the yaw error determined by the wind sensor system placed on spinner or rotor .
A non-destructive inspection and testing system configured for inspecting or measuring a test object according to a predetermined inspection plan during an inspection operation conducted by an operator, the system comprising, a probe configured to emit inspection energy to the test object and receive corresponding response signals from the test object, a data acquisition unit configured to receive response signals from the probe , a data processor , which further comprises an inspection guide control module configured to receive the predetermined inspection plan, a position encoding unit configured to sense and provide probe's sensed position during the inspection operation to the control module , a visual feedback viewing unit configured to display information including the predetermined inspection plan to the operator, and to allow the operator to visualize and hence to position the probe according to the predetermined inspection plan, characterized in that the inspection plan includes a trajectory and a plot of orientations according to which the probe should be positioned, and the position encoding unit is configured to sense and provide real time information to the control module regarding the probe's sensed positions in respect to the test object and regarding the probe's sensed orientations, wherein the control module is configured to validate the probe's sensed position and the probe's sensed orientation in respect of the predetermined inspection plan. a probe configured to emit inspection energy to the test object and receive corresponding response signals from the test object, a data acquisition unit configured to receive response signals from the probe , a data processor , which further comprises an inspection guide control module configured to receive the predetermined inspection plan, a position encoding unit configured to sense and provide probe's sensed position during the inspection operation to the control module , a visual feedback viewing unit configured to display information including the predetermined inspection plan to the operator, and to allow the operator to visualize and hence to position the probe according to the predetermined inspection plan, characterized in that the inspection plan includes a trajectory and a plot of orientations according to which the probe should be positioned, and the position encoding unit is configured to sense and provide real time information to the control module regarding the probe's sensed positions in respect to the test object and regarding the probe's sensed orientations, wherein the control module is configured to validate the probe's sensed position and the probe's sensed orientation in respect of the predetermined inspection plan.
A lighting device comprising: a housing ; a half mirror member ; a first light source portion configured to emit light toward the half mirror member ; a mirror member configured to reflect light reflected by the half mirror member ; a diffusion plate disposed between the first light source portion and the half mirror member ; and a guide portion protruding from a bottom surface of the housing wherein the housing comprises a first area (A1) and a second area (A2) which are formed by the guide portion, wherein the first light source portion is disposed in the first area (A1) and the mirror member is disposed in the second area (A2), and wherein the diffusion plate is supported by the guide portion , characterized by the fact that an opening is formed in the housing and the half mirror member is disposed in the opening; the guide portion is formed to divide the bottom surface of the housing into a first bottom surface and a second bottom surface , wherein the first light source portion is disposed on the first bottom surface and the mirror member is disposed on the second bottom surface , and wherein one side of the diffusion plate is supported by a top end surface of the guide portion . a housing ; a half mirror member ; a first light source portion configured to emit light toward the half mirror member ; a mirror member configured to reflect light reflected by the half mirror member ; a diffusion plate disposed between the first light source portion and the half mirror member ; and a guide portion protruding from a bottom surface of the housing wherein the housing comprises a first area (A1) and a second area (A2) which are formed by the guide portion, wherein the first light source portion is disposed in the first area (A1) and the mirror member is disposed in the second area (A2), and wherein the diffusion plate is supported by the guide portion , an opening is formed in the housing and the half mirror member is disposed in the opening; the guide portion is formed to divide the bottom surface of the housing into a first bottom surface and a second bottom surface , wherein the first light source portion is disposed on the first bottom surface and the mirror member is disposed on the second bottom surface , and wherein one side of the diffusion plate is supported by a top end surface of the guide portion .
Procedure for the detection of a relay attack, wherein radio signals with different frequencies (f1, f2, f3) are transmitted between a first and a second object (O1, O2), wherein switching is carried out between the different frequencies for transmitting and receiving the frequencies, and phase measurements are carried out on these radio signals with different frequencies and wherein these are compared with a reference and wherein a relay attack is assumed if a predetermined deviation or a deviation determined from measurements on the radio signals is exceeded, access or authorisation is denied, a requested action or action is not carried out and/or an alarm or blocking is carried out and/or the absence of a relay attack is assumed if the deviation falls below the predetermined deviation or deviation determined from measurements, in particular signal propagation time measurements, the access or the release is granted and/or the requested action or action is carried out and/or the alarming or blocking is not carried out, characterised in that at least one signal propagation time measurement is also carried out on the radio signals, and in that the change in the phase measurements between different of the frequencies relative to the frequency change of the frequencies when switching between the frequencies is compared with the at least one signal propagation time measurement or its change as a reference, wherein the switching is phase coherent or a phase jump resulting from the switching is known or determined and the measured phase change is corrected by the phase jump or wherein the change in the phase measurements between different ones of the frequencies are those between the transmissions at the frequencies from one object to the other and back.
Electric meter for measuring the electricity consumption of a load (R LOAD ), particularly when charging an electric car, with a) a current output , in particular with two current connections , for the connection of a connecting cable leading to a transfer point , in particular in a plug of the connecting cable , the load (R LOAD ) being supplied with an electric current (I LOAD ) via the connecting cable at the transfer point , and b) a measuring circuit for measuring at least one electrical consumption variable of the current (I LOAD ) flowing via the current output to the load (R LOAD ), c) wherein the electric meter is adapted to be operated selectively in one of several operating modes, the operating modes differing by taking into account line losses in the connecting cable , characterized in d) that one of the operating modes is a first operating mode in which the electric meter takes into account the line losses (P LOSS,B ) in the connecting cable to the load (R LOAD ) by a four-wire measurement directly at the transfer point to the load (R LOAD ), namely on the one hand by a voltage measurement at the transfer point and on the other hand a current measurement in the electric meter , and e) that one of the operating modes is a second operating mode, in which the line losses (P LOSS,A ) in the connecting line are taken into account by a parameterized calculation of the line losses. a) a current output , in particular with two current connections , for the connection of a connecting cable leading to a transfer point , in particular in a plug of the connecting cable , the load (R LOAD ) being supplied with an electric current (I LOAD ) via the connecting cable at the transfer point , and b) a measuring circuit for measuring at least one electrical consumption variable of the current (I LOAD ) flowing via the current output to the load (R LOAD ), c) wherein the electric meter is adapted to be operated selectively in one of several operating modes, the operating modes differing by taking into account line losses in the connecting cable , d) that one of the operating modes is a first operating mode in which the electric meter takes into account the line losses (P LOSS,B ) in the connecting cable to the load (R LOAD ) by a four-wire measurement directly at the transfer point to the load (R LOAD ), namely on the one hand by a voltage measurement at the transfer point and on the other hand a current measurement in the electric meter , and e) that one of the operating modes is a second operating mode, in which the line losses (P LOSS,A ) in the connecting line are taken into account by a parameterized calculation of the line losses.