mhurhangee/patent-ind-claim-en huggingface dataset:
Cutting device which is adapted for cutting substantially round packaging corners from a film web (F), wherein the cutting device has at least one cutting tool comprising a cutting punch which has at its outside at least one concavity provided for forming a cutting edge of the cutting punch , characterized in that the cutting edge has a cutting contour extending both in transverse and in longitudinal extension of the cutting punch .
Method for measuring a capacitance value C M of a capacitive sensor element by means of an integration method, wherein a terminal of the sensor element is electrically connected to a first terminal of an integration capacitor having a known capacitance value C I which is large compared with the capacitance value C M of the sensor element , is electrically connected at a common circuit node , and wherein, after a number IZ of integration cycles carried out, a voltage U CI applied to the integration capacitor is measured by means of an A/D converter while the common circuit node is connected to a ground potential (GND), characterized by the method steps: a) Fixing a number N of integration cycles to be performed to a start value N Start and determining a final value N End for the number N of integration cycles to be performed b) Initializing a voltage sum value U Ges to the value zero c) Initializing the number IZ of performed integration cycles to the value zero d) Connecting the common node and a second terminal (2") of the integration capacitor to the ground potential GND e) Carrying out the integration procedure until the number IZ of integration cycles has reached the number N of integration cycles to be performed f) Adding the voltage value U CI (N) currently determined by the A/D converter to the voltage value U CI (N) to the voltage sum value U Ges g) Increasing the number N by a value n, where n is greater than or equal to 1 and is smaller than N Diff = N End - N Start , h) Repeating the process steps from step e) until the number N exceeds the determined final value N End i) Evaluation of the voltage sum value U Ges as the measurement result. a) Fixing a number N of integration cycles to be performed to a start value N Start and determining a final value N End for the number N of integration cycles to be performed b) Initializing a voltage sum value U Ges to the value zero c) Initializing the number IZ of performed integration cycles to the value zero d) Connecting the common node and a second terminal (2") of the integration capacitor to the ground potential GND e) Carrying out the integration procedure until the number IZ of integration cycles has reached the number N of integration cycles to be performed f) Adding the voltage value U CI (N) currently determined by the A/D converter to the voltage value U CI (N) to the voltage sum value U Ges g) Increasing the number N by a value n, where n is greater than or equal to 1 and is smaller than N Diff = N End - N Start , h) Repeating the process steps from step e) until the number N exceeds the determined final value N End i) Evaluation of the voltage sum value U Ges as the measurement result.
A ball guide retainer for a ball bearing which bearing includes: an inner ring ; and an outer ring ; and balls interposed between the inner ring and the outer ring , the retainer comprising an annular body formed with pockets (Pt) at a plurality of portions thereof in a circumferential direction, the pockets (Pt) holding the respective balls , wherein the annular body includes annular parts and pillar parts , the annular parts being disposed on both sides in an axial direction, the pillar parts being disposed at a plurality of portions spaced in the circumferential direction and connecting between the annular parts , the pockets (Pt) are formed by the annular parts on both the sides in the axial direction and the pillar parts adjacent to each other in the circumferential direction, and first contact portions of the pillar portions, which contact portions contact with the balls in the circumferential direction, are formed by first planes that extend along the axial direction, and the balls are guided by the first planes, characterized in that the two first planes in each pocket (Pt) extend radially inward from portions adjacent to a mid-position of the respective pillar parts in a thickness direction, over a predetermined distance, such that a distance between the two first planes in the circumferential direction is gradually reduced toward the distal ends thereof.
An X-ray inspection apparatus comprising: an X-ray irradiation unit configured to irradiate an article (A) with an X-ray; a transport unit configured to transport the article (A) in one direction such that the article (A) passes through an irradiation space (R) of the X-ray emitted from the X-ray irradiation unit ; an X-ray detection unit configured to detect the X-ray transmitting through the article (A); and an X-ray shielding door disposed on one side of a width direction (Y) with respect to the transport unit to open the irradiation space (R) to an outside in an open state and to prevent the X-ray from leaking from the irradiation space (R) in a closed state, the width direction (Y) being orthogonal to both a transport direction (X) of the article (A) and a vertical direction (Z), characterised in that in the closed state, an inclined portion that is inclined downward in the width direction (Y) from the one side toward the other side of the width direction (Y) with respect to the transport unit when seen in the transport direction (X) is formed in at least a part of an inner surface of the X-ray shielding door , and the inclined portion has a lower end portion and an upper end portion in the vertical direction (Z), and in the closed state, the lower end portion of the inclined portion is located closer to the other side of the width direction (Y) than the end portion of the transport unit on the one side of the width direction (Y) is. an X-ray irradiation unit configured to irradiate an article (A) with an X-ray; a transport unit configured to transport the article (A) in one direction such that the article (A) passes through an irradiation space (R) of the X-ray emitted from the X-ray irradiation unit ; an X-ray detection unit configured to detect the X-ray transmitting through the article (A); and an X-ray shielding door disposed on one side of a width direction (Y) with respect to the transport unit to open the irradiation space (R) to an outside in an open state and to prevent the X-ray from leaking from the irradiation space (R) in a closed state, the width direction (Y) being orthogonal to both a transport direction (X) of the article (A) and a vertical direction (Z), characterised in that in the closed state, an inclined portion that is inclined downward in the width direction (Y) from the one side toward the other side of the width direction (Y) with respect to the transport unit when seen in the transport direction (X) is formed in at least a part of an inner surface of the X-ray shielding door , and the inclined portion has a lower end portion and an upper end portion in the vertical direction (Z), and in the closed state, the lower end portion of the inclined portion is located closer to the other side of the width direction (Y) than the end portion of the transport unit on the one side of the width direction (Y) is.
A tire (41;51) comprising a tread (42;52) at least one carcass ply (48; 58) placed radially inward of the tread (42; 52) and at least one ply (47;57) placed radially inbetween the tread (42; 52) and the at least one carcass ply (48; 58), the tread (42;52) having a contact face (421;521) of a width TW intended to come into contact with the ground during rolling, the tread (42;52) being provided with at least one groove (43;53) of a depth D extending generally in circumferential orientation and opening to the contact face (421;521), the tread (42;52) comprising a center region (422;522) and a pair of shoulder regions (423;523) being positioned on two axial sides of the center region (422;522), the pair of shoulder regions (423;523) each comprising a shoulder rubber layer (425;525) of a thickness ts made of a shoulder rubber composition different from a rubber composition constituting a rest of the tread (42;52), a shear storage modulus G' of the shoulder rubber composition measured at 23°C, 10Hz and 10% of strain being less than or equal to 1.0 MPa, the tire (41;51) further comprising a cap ply (46;56) whose cable (461;561) extends generally in the circumferential orientation and is positioned radially inbetween the tread (42;52) and the at least one ply (47;57) at least in a region corresponding to the pair of shoulder regions (423;523) of the tread (42;52), the tire being characterized in that a force F 5% of the cap ply (46;56) is greater than 900 N per 10 mm of a cap ply width under 5% strain in a direction, where the cable (461;561) of the cap ply (46;56) is extending, and in that the center region (422;522) comprises a center rubber layer (24;524) of a thickness tf made of a center rubber composition different from both the shoulder rubber composition and the rubber composition constituting a rest of the tread (42;52), and in that a shear storage modulus G' of the center rubber composition measured at 23 °C, 10Hz and 10% of strain is higher than the shear storage modulus G' of the rubber composition constituting the rest of the tread (42;52). a force F 5% of the cap ply (46;56) is greater than 900 N per 10 mm of a cap ply width under 5% strain in a direction, where the cable (461;561) of the cap ply (46;56) is extending, and in that the center region (422;522) comprises a center rubber layer (24;524) of a thickness tf made of a center rubber composition different from both the shoulder rubber composition and the rubber composition constituting a rest of the tread (42;52), and in that a shear storage modulus G' of the center rubber composition measured at 23 °C, 10Hz and 10% of strain is higher than the shear storage modulus G' of the rubber composition constituting the rest of the tread (42;52).
A process comprising the steps: a) contacting a mixture comprising furandicarboxylic acid dialkyl ester, a diol comprising ethylene glycol, 1,3-propanediol, 1,4-butanediol, 1,4-cyclohexanedimethanol, or mixtures thereof, and a metal catalyst at a temperature in the range of from about 140°C to about 220°C to form prepolymer, wherein the mole ratio of the furandicarboxylic acid dialkyl ester to the diol is in the range of from 1:1.3 to 1:2.2; b) performing polycondensation by heating the prepolymer under reduced pressure to a temperature in the range of from about 220°C to about 260°C to form poly(alkylene furandicarboxylate) polymer; c) independently adding to step a) and/or step b) at least one anthraquinone compound represented by Structure A wherein each R is independently selected from the group consisting of H, OH, C 1 -C 6 alkyl, NHCOCH 3 , SO 2 NHC 6 H 11 , and each Q, Y, and Z is independently selected from H, OH, NH 2 , and NHR', wherein R' is cyclohexyl or substituted aryl wherein the rate of polycondensation in step c) is faster with the anthraquinone compound present than without. a) contacting a mixture comprising furandicarboxylic acid dialkyl ester, a diol comprising ethylene glycol, 1,3-propanediol, 1,4-butanediol, 1,4-cyclohexanedimethanol, or mixtures thereof, and a metal catalyst at a temperature in the range of from about 140°C to about 220°C to form prepolymer, wherein the mole ratio of the furandicarboxylic acid dialkyl ester to the diol is in the range of from 1:1.3 to 1:2.2; b) performing polycondensation by heating the prepolymer under reduced pressure to a temperature in the range of from about 220°C to about 260°C to form poly(alkylene furandicarboxylate) polymer; c) independently adding to step a) and/or step b) at least one anthraquinone compound represented by Structure A wherein each R is independently selected from the group consisting of H, OH, C 1 -C 6 alkyl, NHCOCH 3 , SO 2 NHC 6 H 11 , and each Q, Y, and Z is independently selected from H, OH, NH 2 , and NHR', wherein R' is cyclohexyl or substituted aryl wherein the rate of polycondensation in step c) is faster with the anthraquinone compound present than without.
A system , comprising: a physiologic sensor circuit , including a sense amplifier circuit to sense respective physiologic signals at two or more candidate stimulation sites at or within at least one chamber of a heart of a patient; an activation timer circuit (221; 320), including a clock circuit coupled to the physiologic sensor circuit to use the sensed respective physiologic signals to produce respective activation timing indicators corresponding to the two or more candidate stimulation sites; a myocardial infarction (MI) receiver circuit to receive respective MI indicators indicating relative spatial proximity of each of the two or more candidate stimulation sites to a MI tissue; and a stimulation site selector circuit (223; 340), communicatively coupled to the activation timer circuit (221; 320) and the MI receiver circuit , configured to: select, automatically or based on a user input, a stimulation site from the two or more candidate stimulation sites using the respective activation timing indicators and the respective MI indicators, wherein the stimulation site selector circuit (223; 340) includes a stimulation site ranking circuit configured to produce a rankable set of a part or all of the candidate stimulation sites using the respective activation timing indicators and the respective MI indicators. a physiologic sensor circuit , including a sense amplifier circuit to sense respective physiologic signals at two or more candidate stimulation sites at or within at least one chamber of a heart of a patient; an activation timer circuit (221; 320), including a clock circuit coupled to the physiologic sensor circuit to use the sensed respective physiologic signals to produce respective activation timing indicators corresponding to the two or more candidate stimulation sites; a myocardial infarction (MI) receiver circuit to receive respective MI indicators indicating relative spatial proximity of each of the two or more candidate stimulation sites to a MI tissue; and a stimulation site selector circuit (223; 340), communicatively coupled to the activation timer circuit (221; 320) and the MI receiver circuit , configured to: select, automatically or based on a user input, a stimulation site from the two or more candidate stimulation sites using the respective activation timing indicators and the respective MI indicators, wherein the stimulation site selector circuit (223; 340) includes a stimulation site ranking circuit configured to produce a rankable set of a part or all of the candidate stimulation sites using the respective activation timing indicators and the respective MI indicators.
A device configured to receive a workpiece along a central axis, comprising: a plurality of UV light sources positioned around said central axis, each light source emitting radiant output toward the central axis, each of the plurality of light sources comprising: a housing containing a plurality of light-emitting elements, a parabolic reflector attached to the housing, a cylindrical lens mounted at an opposite end of the parabolic reflector from the housing, and a controller , wherein each of the plurality of light sources comprises a separate controller, each of the separate controllers including executable instructions to vary a radiant output of the light source independently from a radiant output of the other light sources. a housing containing a plurality of light-emitting elements, a parabolic reflector attached to the housing, a cylindrical lens mounted at an opposite end of the parabolic reflector from the housing, and a controller ,
A method for analysis of partially or full denatured proteins by detecting an analyte in a sample using an immunoassay kit, comprising adding a reducing agent from the immunoassay kit to the sample to detect the presence of, or an amount of, the analyte in the sample and detecting the analyte with one or more analyte specific antibodies or fragments thereof from the immunoassay kit, the one or more analyte specific antibodies or fragments thereof comprising one or more non-disulphide cross-links between at least one heavy chain or fragment thereof and at least one light chain or fragment thereof of the analyte-specific antibodies or fragments thereof characterised that the one or more analyte specific antibodies or fragments detect the presence of, or the amount of, the analyte in the sample under reducing conditions.
A method of allocating wireless resources to a multiple basic service set identifier, BSSID, set including a number of BSSIDs each associated with a corresponding one of a number of access points, APs, the method performed by a first AP and comprising: allocating random access resources for use by stations belonging to the multiple BSSID set based on a group AID mapping contained in a partial virtual bitmap of a traffic indication map, TIM, element; and transmitting a trigger frame containing a number of AID values to the stations belonging to the multiple BSSID set. allocating random access resources for use by stations belonging to the multiple BSSID set based on a group AID mapping contained in a partial virtual bitmap of a traffic indication map, TIM, element; and transmitting a trigger frame containing a number of AID values to the stations belonging to the multiple BSSID set.
A shower head assembly for mounting to a wall portion, the shower head assembly comprising: a housing having a water inlet , a shower outlet and a water outlet , the water outlet having a first water outlet coupling element arranged for coupling to a second water outlet coupling element ; a conduit for water, the conduit being positioned within the housing and being arranged to direct a flow of water from the water inlet to the shower outlet or to the water outlet , the conduit comprising an actuable valve that is arranged such that, when the first and second water outlet coupling elements are coupled to each other, the actuable valve transitions between an actuated and a de-actuated conditions, whereby when the actuable valve is actuated, the water flow is directed to one of the shower outlet and the water outlet , and when the actuable valve is not actuated, the water flow is directed to another one of the shower outlet or the water outlet ; characterised in that an entire upper surface of the housing is, when the shower head assembly is mounted to the wall portion, downward-sloping such that the shower head assembly is ligature-resistant, and in that the housing and a mounting region of a wall entirely encapsulate the conduit when the housing is mounted onto the wall, and in that the housing does not have any portions projecting from a surface of the housing. a housing having a water inlet , a shower outlet and a water outlet , the water outlet having a first water outlet coupling element arranged for coupling to a second water outlet coupling element ; a conduit for water, the conduit being positioned within the housing and being arranged to direct a flow of water from the water inlet to the shower outlet or to the water outlet , the conduit comprising an actuable valve that is arranged such that, when the first and second water outlet coupling elements are coupled to each other, the actuable valve transitions between an actuated and a de-actuated conditions, whereby when the actuable valve is actuated, the water flow is directed to one of the shower outlet and the water outlet , and when the actuable valve is not actuated, the water flow is directed to another one of the shower outlet or the water outlet ; characterised in that an entire upper surface of the housing is, when the shower head assembly is mounted to the wall portion, downward-sloping such that the shower head assembly is ligature-resistant, and in that the housing and a mounting region of a wall entirely encapsulate the conduit when the housing is mounted onto the wall, and in that the housing does not have any portions projecting from a surface of the housing.
A manhole covering system , comprising: a manhole cover as well as a magnetic cover for covering a side of the manhole cover facing away from a manhole , wherein the magnetic cover is designed in such a way that its size essentially corresponds to the size of the side of the manhole cover facing away from the manhole and wherein the magnetic cover and the manhole cover can be kept in a fixed position relative to each other by a magnetic force, wherein the magnetic cover is at least sectionally designed as a permanent magnet and/or electromagnet, and wherein the magnetic cover consists of at least one magnetic sheet and at least one protective film , wherein the magnetic sheet is arranged on the side of the magnetic cover facing the manhole cover and the protective film is arranged on the side of the magnetic cover facing away from the manhole cover , and wherein the protective film is a self-adhesive plastic film, wherein the protective film is connected with the magnetic sheet via an adhesive film formed by the plastic film. a manhole cover as well as a magnetic cover for covering a side of the manhole cover facing away from a manhole , wherein the magnetic cover is designed in such a way that its size essentially corresponds to the size of the side of the manhole cover facing away from the manhole and wherein the magnetic cover and the manhole cover can be kept in a fixed position relative to each other by a magnetic force, wherein the magnetic cover is at least sectionally designed as a permanent magnet and/or electromagnet, and wherein the magnetic cover consists of at least one magnetic sheet and at least one protective film , wherein the magnetic sheet is arranged on the side of the magnetic cover facing the manhole cover and the protective film is arranged on the side of the magnetic cover facing away from the manhole cover , and wherein the protective film is a self-adhesive plastic film, wherein the protective film is connected with the magnetic sheet via an adhesive film formed by the plastic film.