mhurhangee/patent-ind-claim-en huggingface dataset:
A system for monitoring at least one medical product with at least two monitoring devices (27 - 36) which are connected or can be connected to each other in a monitoring network in a data-conducting manner and which each have a detection device which is configured to detect whether a transponder of the medical product is located in a detection region (39 - 48) extending around the respective monitoring device (27 - 36), wherein the at least two monitoring devices (27 - 36) are arranged in such a way that the detection regions (39 - 48) of the at least two monitoring devices (27 - 36) overlap, a data processing device which is connected or connectable in a data-conductive manner to the at least two monitoring devices (27 - 36) via the monitoring network and which is configured to store times of detections of the transponder by the monitoring devices (27 - 36), and a storage device, characterized in that the data processing device is configured to calculate periods in which the transponder is located exclusively in one of the detection regions (39 - 48) of the at least two monitoring devices (27 - 36), to compare the calculated periods with corresponding target periods stored in the storage device and to output corresponding alarm signals if target periods are exceeded, and/or to register sequences in which the at least two monitoring devices (27 - 36) detect the transponder in the detection regions (39 - 48), to compare the registered sequences with corresponding target sequences stored in the storage device and to output corresponding alarm signals in the event of a deviation from target sequences. at least two monitoring devices (27 - 36) which are connected or can be connected to each other in a monitoring network in a data-conducting manner and which each have a detection device which is configured to detect whether a transponder of the medical product is located in a detection region (39 - 48) extending around the respective monitoring device (27 - 36), wherein the at least two monitoring devices (27 - 36) are arranged in such a way that the detection regions (39 - 48) of the at least two monitoring devices (27 - 36) overlap, a data processing device which is connected or connectable in a data-conductive manner to the at least two monitoring devices (27 - 36) via the monitoring network and which is configured to store times of detections of the transponder by the monitoring devices (27 - 36), and a storage device, characterized in that the data processing device is configured to calculate periods in which the transponder is located exclusively in one of the detection regions (39 - 48) of the at least two monitoring devices (27 - 36), to compare the calculated periods with corresponding target periods stored in the storage device and to output corresponding alarm signals if target periods are exceeded, and/or to register sequences in which the at least two monitoring devices (27 - 36) detect the transponder in the detection regions (39 - 48), to compare the registered sequences with corresponding target sequences stored in the storage device and to output corresponding alarm signals in the event of a deviation from target sequences.
A printed product having an optical security feature, comprising: a printing substrate; a first line structure consisting of a plurality of raised, mutually parallel, spaced-apart lines which are applied to the printing substrate in a screen printing method; and a second line structure consisting of a plurality of raised, mutually parallel, spaced-apart lines which are applied to the printing substrate in a screen printing method and have an orientation which differs from that of the first line structure; the printing ink for printing the first line structure containing color pigments having a tilt effect, the ratio of a line spacing, which refers to the spacing of two immediately adjacent line centers, to a line width of the raised lines of the first line structure being at least 1.5, the first and the second line structure having a height of at least 5 micrometers, the printing ink for printing the first line structure containing at least 30 percent by weight of color pigments having a tilt effect and the printed product further comprising an at least partial-area background print on the printing substrate, the first and the second line structure being printed onto the background print and the background print being carried out with a dark, preferably black, color. a printing substrate; a first line structure consisting of a plurality of raised, mutually parallel, spaced-apart lines which are applied to the printing substrate in a screen printing method; and a second line structure consisting of a plurality of raised, mutually parallel, spaced-apart lines which are applied to the printing substrate in a screen printing method and have an orientation which differs from that of the first line structure; the printing ink for printing the first line structure containing color pigments having a tilt effect, the ratio of a line spacing, which refers to the spacing of two immediately adjacent line centers, to a line width of the raised lines of the first line structure being at least 1.5, the first and the second line structure having a height of at least 5 micrometers, the printing ink for printing the first line structure containing at least 30 percent by weight of color pigments having a tilt effect and the printed product further comprising an at least partial-area background print on the printing substrate, the first and the second line structure being printed onto the background print and the background print being carried out with a dark, preferably black, color.
A method of assembling an orthopaedic prosthesis, the method comprising: aligning a prosthetic trial assembly with a surgical instrument that includes a mounting platform and a stabilizer arm , the prosthetic trial assembly comprising a prosthetic trial component that defines a first axis and an offset adaptor trial that defines a second axis that is offset from the first axis, positioning the prosthetic trial assembly on the mounting platform, rotating the mounting platform to position the first axis and the second axis in a plane extending vertically through the stabilizer arm, advancing the stabilizer arm along the vertically-extending plane to engage the stabilizer arm with the prosthetic trial assembly, locking the mounting platform to prevent rotation relative to the stabilizer arm, positioning a prosthetic component on the mounting platform after removing the prosthetic trial assembly such that a third axis defined by a post of the prosthetic component is positioned in the plane, the prosthetic component having a size and a shape that matches a size and a shape of the prosthetic trial component, positioning an offset adaptor on the post, the offset adaptor including an end that defines a fourth axis that is offset from the third axis by an amount equal to the offset of the first axis and the second axis, rotating the end of the offset adaptor to position the fourth axis in the vertically-extending plane, and securing the offset adaptor to the prosthetic component with the third axis and the fourth axis positioned in the plane. aligning a prosthetic trial assembly with a surgical instrument that includes a mounting platform and a stabilizer arm , the prosthetic trial assembly comprising a prosthetic trial component that defines a first axis and an offset adaptor trial that defines a second axis that is offset from the first axis, positioning the prosthetic trial assembly on the mounting platform, rotating the mounting platform to position the first axis and the second axis in a plane extending vertically through the stabilizer arm, advancing the stabilizer arm along the vertically-extending plane to engage the stabilizer arm with the prosthetic trial assembly, locking the mounting platform to prevent rotation relative to the stabilizer arm, positioning a prosthetic component on the mounting platform after removing the prosthetic trial assembly such that a third axis defined by a post of the prosthetic component is positioned in the plane, the prosthetic component having a size and a shape that matches a size and a shape of the prosthetic trial component, positioning an offset adaptor on the post, the offset adaptor including an end that defines a fourth axis that is offset from the third axis by an amount equal to the offset of the first axis and the second axis, rotating the end of the offset adaptor to position the fourth axis in the vertically-extending plane, and securing the offset adaptor to the prosthetic component with the third axis and the fourth axis positioned in the plane.
A computer-implemented method of controlling electrical power supplied to a component of a vehicle , the computer-implemented method comprising: receiving a signal comprising information associated with an operating condition of a gas turbine engine , wherein the signal is one of: a signal from a throttle lever that includes engine throttle request data; or a signal from a rotational speed sensor that includes sensed rotational speed data of a high pressure compressor or an intermediate pressure compressor of the gas turbine engine ; or a signal from a fuel flow sensor that comprises fuel flow data; or a signal indicative of the pressure of the air at an inlet to a compressor of the gas turbine engine and pressure of the air delivered by the compressor ; determining whether a parameter exceeds a predetermined threshold value using the information in the received signal, wherein the parameter is one of: a rate of change of throttle; or a rate of change of rotational speed of the intermediate pressure compressor or the high pressure compressor ; or a rate of change in fuel flow; or P30/P20, where P20 is the pressure of the air at the inlet to the compressor and P30 is the pressure of the air delivered by the compressor ; and controlling a reduction in electrical power supplied to a component of the vehicle from a generator of the gas turbine engine if the parameter exceeds the predetermined threshold value, wherein the component of the vehicle comprises an electric heater mounted on an inlet of a nacelle . receiving a signal comprising information associated with an operating condition of a gas turbine engine , wherein the signal is one of: a signal from a throttle lever that includes engine throttle request data; or a signal from a rotational speed sensor that includes sensed rotational speed data of a high pressure compressor or an intermediate pressure compressor of the gas turbine engine ; or a signal from a fuel flow sensor that comprises fuel flow data; or a signal indicative of the pressure of the air at an inlet to a compressor of the gas turbine engine and pressure of the air delivered by the compressor ; determining whether a parameter exceeds a predetermined threshold value using the information in the received signal, wherein the parameter is one of: a rate of change of throttle; or a rate of change of rotational speed of the intermediate pressure compressor or the high pressure compressor ; or a rate of change in fuel flow; or P30/P20, where P20 is the pressure of the air at the inlet to the compressor and P30 is the pressure of the air delivered by the compressor ; and controlling a reduction in electrical power supplied to a component of the vehicle from a generator of the gas turbine engine if the parameter exceeds the predetermined threshold value, wherein the component of the vehicle comprises an electric heater mounted on an inlet of a nacelle .
Antenna , comprising a plurality of first radiating elements configured to radiate in a first frequency band, wherein the first radiating elements are arranged in a sparse massive Multiple Input Multiple Output, mMIMO, array , and a plurality of second radiating elements configured to radiate in a second frequency band lower than the first frequency band, wherein the second radiating elements are arranged in an array at least partially overlapping with the sparse array so that at least some of the second radiating elements are disposed in an area covered by the sparse array , wherein the plurality of the second radiating elements includes first-type and second-type second radiating elements , and wherein the first-type second radiating elements are vertical horizontal dipoles and are arranged in the area covered by the sparse array , wherein the vertical horizontal dipoles do not fill the space directly above the first radiating elements , and wherein the second-type second radiating elements are arranged outside of the area covered by the sparse array and are dipoles larger in size and profile than the vertical horizontal dipoles. a plurality of first radiating elements configured to radiate in a first frequency band, wherein the first radiating elements are arranged in a sparse massive Multiple Input Multiple Output, mMIMO, array , and a plurality of second radiating elements configured to radiate in a second frequency band lower than the first frequency band, wherein the second radiating elements are arranged in an array at least partially overlapping with the sparse array so that at least some of the second radiating elements are disposed in an area covered by the sparse array , wherein the plurality of the second radiating elements includes first-type and second-type second radiating elements , and wherein the first-type second radiating elements are vertical horizontal dipoles and are arranged in the area covered by the sparse array , wherein the vertical horizontal dipoles do not fill the space directly above the first radiating elements , and wherein the second-type second radiating elements are arranged outside of the area covered by the sparse array and are dipoles larger in size and profile than the vertical horizontal dipoles.
A fluid transfer system comprising: packaging comprising: a body having a sidewall extending between an open top end and a bottom end and defining an interior cavity ; and at least one protrusion extending radially inward from the sidewall into the interior cavity ; and a fluid transfer device configured to be received within the interior cavity , the fluid transfer device comprising: an inner member configured to be secured to a container; an outer member surrounding at least a portion of the inner member ; and a locking arrangement provided on at least a portion of the inner member , wherein the locking arrangement is configured for cooperating with the at least one protrusion to prevent rotation of the inner member relative to the outer member upon an application of a compressive force on the packaging , wherein the inner member has a first axial position where the inner member is configured to rotate freely relative to the outer member and a second axial position where rotation of the inner member is restricted in the first rotational direction relative to the outer member, characterized in that the locking arrangement is accessible through at least a portion of the outer member . packaging comprising: a body having a sidewall extending between an open top end and a bottom end and defining an interior cavity ; and at least one protrusion extending radially inward from the sidewall into the interior cavity ; and a body having a sidewall extending between an open top end and a bottom end and defining an interior cavity ; and at least one protrusion extending radially inward from the sidewall into the interior cavity ; and a fluid transfer device configured to be received within the interior cavity , the fluid transfer device comprising: an inner member configured to be secured to a container; an outer member surrounding at least a portion of the inner member ; and a locking arrangement provided on at least a portion of the inner member , wherein the locking arrangement is configured for cooperating with the at least one protrusion to prevent rotation of the inner member relative to the outer member upon an application of a compressive force on the packaging , wherein the inner member has a first axial position where the inner member is configured to rotate freely relative to the outer member and a second axial position where rotation of the inner member is restricted in the first rotational direction relative to the outer member, characterized in that the locking arrangement is accessible through at least a portion of the outer member . an inner member configured to be secured to a container; an outer member surrounding at least a portion of the inner member ; and a locking arrangement provided on at least a portion of the inner member , wherein the locking arrangement is configured for cooperating with the at least one protrusion to prevent rotation of the inner member relative to the outer member upon an application of a compressive force on the packaging ,
A computer-implemented method for editing an image using an image-editing application , the method comprising: displaying a master control for adjusting a plurality of luminance editing controls of the image-editing application to edit the image ; automatically defining a mathematical relationship between a master control value of the master control and values of each control of the plurality of luminance editing controls , wherein each mathematical relationship depends on at least one luminance characteristic of the image ; based on input received to modify the master control value and the defined mathematical relationship between the master control value and the values of each of the luminance editing controls dependent on the at least one luminance characteristic of the image , modifying values of the plurality of luminance editing controls ; and adjusting the image based on the modified values of the plurality of luminance editing controls . displaying a master control for adjusting a plurality of luminance editing controls of the image-editing application to edit the image ; automatically defining a mathematical relationship between a master control value of the master control and values of each control of the plurality of luminance editing controls , wherein each mathematical relationship depends on at least one luminance characteristic of the image ; based on input received to modify the master control value and the defined mathematical relationship between the master control value and the values of each of the luminance editing controls dependent on the at least one luminance characteristic of the image , modifying values of the plurality of luminance editing controls ; and adjusting the image based on the modified values of the plurality of luminance editing controls .
A cleaning composition comprising a dispersin, at least one carbohydrase and a cleaning component, wherein the dispersin is a polypeptide having hexosaminidase activity and at least 60% sequence identity to the polypeptide of SEQ ID NO: 17, and wherein the carbohydrase is an alpha-amylase.
A sliding article comprising: a load bearing substrate, having a first major surface, a second major surface, and an edge, the load bearing substrate having a thickness t 1 , an aluminum containing layer overlying and in direct contact with the first major surface, the aluminum containing layer having a thickness t 2 , wherein t 2 is at least 10 microns, a sliding layer overlying the first or the second major surface, wherein a ratio of t 2 /t 1 is at least 1/10 and not greater than 1/3. a load bearing substrate, having a first major surface, a second major surface, and an edge, the load bearing substrate having a thickness t 1 , an aluminum containing layer overlying and in direct contact with the first major surface, the aluminum containing layer having a thickness t 2 , wherein t 2 is at least 10 microns, a sliding layer overlying the first or the second major surface, wherein a ratio of t 2 /t 1 is at least 1/10 and not greater than 1/3.
A multilayer film comprising at least two layers comprising: a sealant layer comprising (A) a first ethylene-based polymer having a density from 0.895 g/cc to 0.925 g/cc and a melt index from 0.5 g/10 min to 30 g/10 min; (B) a branched fatty acid amide; (C) a linear saturated fatty acid amide, wherein the branched fatty acid amide and the linear saturated fatty acid amide have a weight ratio of from 1:5 to 3:1; and a second layer in contact with the sealant layer, the second layer comprising a second ethylene-based polymer. a sealant layer comprising (A) a first ethylene-based polymer having a density from 0.895 g/cc to 0.925 g/cc and a melt index from 0.5 g/10 min to 30 g/10 min; (B) a branched fatty acid amide; (C) a linear saturated fatty acid amide, wherein the branched fatty acid amide and the linear saturated fatty acid amide have a weight ratio of from 1:5 to 3:1; and (A) a first ethylene-based polymer having a density from 0.895 g/cc to 0.925 g/cc and a melt index from 0.5 g/10 min to 30 g/10 min; (B) a branched fatty acid amide; (C) a linear saturated fatty acid amide, wherein the branched fatty acid amide and the linear saturated fatty acid amide have a weight ratio of from 1:5 to 3:1; and a second layer in contact with the sealant layer, the second layer comprising a second ethylene-based polymer.
A transmission device comprising: an elimination unit (32 1 ) configured to eliminate null packets, NP, included in a division stream of a predetermined channel acquired by dividing an input stream configured by a plurality of packets into division streams of a plurality of channels and generates a NP-eliminated stream including deleted null packets, DNP, representing the number of eliminated NPs; a generation unit (33 1 ) configured to generate a stream of a base band, BB, frame of DVB-S2, said stream including the NP-eliminated stream and signaling as a size identifier representing a size of the DNP, wherein the size identifier is included in a BB header or in-band signaling of the BB frame; characterized in a time information generation unit configured to generate time information indicating information regarding transmission time of each packet of the division stream; and a synchronization unit (31 1 ) configured to add the time information to each packet of the division stream to supply to the elimination unit. an elimination unit (32 1 ) configured to eliminate null packets, NP, included in a division stream of a predetermined channel acquired by dividing an input stream configured by a plurality of packets into division streams of a plurality of channels and generates a NP-eliminated stream including deleted null packets, DNP, representing the number of eliminated NPs; a generation unit (33 1 ) configured to generate a stream of a base band, BB, frame of DVB-S2, said stream including the NP-eliminated stream and signaling as a size identifier representing a size of the DNP, wherein the size identifier is included in a BB header or in-band signaling of the BB frame; characterized in a time information generation unit configured to generate time information indicating information regarding transmission time of each packet of the division stream; and a synchronization unit (31 1 ) configured to add the time information to each packet of the division stream to supply to the elimination unit.
A method performed by a user equipment, the method comprising: receiving a common reference signal position and a physical downlink control channel region for each of a plurality of transmission points for a cooperative multipoint system; receiving information about an association between physical resource block resources and at least one of the plurality of transmission points in the cooperative multipoint system; and decoding an enhanced physical downlink control channel based on the information about the association. receiving a common reference signal position and a physical downlink control channel region for each of a plurality of transmission points for a cooperative multipoint system; receiving information about an association between physical resource block resources and at least one of the plurality of transmission points in the cooperative multipoint system; and decoding an enhanced physical downlink control channel based on the information about the association.