mhurhangee/ep-ind-claims huggingface dataset:
A printing unit comprising: a main body frame; a platen roller removably mounted to the main body frame; a lock mechanism pivotably supported by the main body frame between a lock position at which the platen roller is rotatably held by the main body frame and an unlock position at which the platen roller is removable from the main body frame; a thermal head to be brought into pressure contact with an outer circumferential surface of the platen roller; a head support body configured to support the thermal head, the head support body being pivotably supported by the main body frame in such directions that the thermal head and the platen roller are brought closer to and away from each other; an urging member interposed between the lock mechanism and the head support body, the urging member being configured to urge the lock mechanism toward the lock position and urge the head support body in such a direction that the thermal head is brought closer to the platen roller; and a plurality of head pressing members configured to press the head support body in such a direction that the thermal head is brought closer to the platen roller, wherein the plurality of head pressing members is configured to urge the head support body in such a direction that the thermal head is brought closer to the platen roller, wherein the lock mechanism individually holds both end portions of the platen roller in an axial direction of the platen roller, and characterized in that the urging member is arranged outside all of the plurality of head pressing members in the axial direction of the platen roller. a main body frame; a platen roller removably mounted to the main body frame; a lock mechanism pivotably supported by the main body frame between a lock position at which the platen roller is rotatably held by the main body frame and an unlock position at which the platen roller is removable from the main body frame; a thermal head to be brought into pressure contact with an outer circumferential surface of the platen roller; a head support body configured to support the thermal head, the head support body being pivotably supported by the main body frame in such directions that the thermal head and the platen roller are brought closer to and away from each other; an urging member interposed between the lock mechanism and the head support body, the urging member being configured to urge the lock mechanism toward the lock position and urge the head support body in such a direction that the thermal head is brought closer to the platen roller; and a plurality of head pressing members configured to press the head support body in such a direction that the thermal head is brought closer to the platen roller, wherein the plurality of head pressing members is configured to urge the head support body in such a direction that the thermal head is brought closer to the platen roller, wherein the lock mechanism individually holds both end portions of the platen roller in an axial direction of the platen roller, and characterized in that the urging member is arranged outside all of the plurality of head pressing members in the axial direction of the platen roller.
Refractory tube, into which refractory tube a sleeve shaft (1, 1', 1", 1′′′) with at least one inlay (3, 3', 3", 3′′′) for collecting particles (31") originating from the material of the sleeve shaft (1, 1', 1", 1′′′) at least in part, is inserted, wherein at least one fluid can flow through the sleeve shaft (1, 1', 1", 1′′′) along an axial direction (R, R', R", R"') which is parallel to the main extension of the sleeve shaft (1, 1', 1", 1′′′), wherein the inlay (3, 3', 3", 3"') comprises at least one first wall section (5, 5', 5", 5"'), wherein the inlay (3, 3', 3", 3"') is or can be inserted at least in part into the sleeve shaft (1, 1', 1", 1′′′) such that at least one part of the first wall section (5, 5', 5", 5′′′) has a radial distance from at least one first area (7, 7', 7", 7′′′) of the inner surface (9, 9', 9", 9′′′) of the sleeve shaft (1, 1', 1", 1′′′), and, hence, that the inlay (3, 3', 3", 3′′′) together with the first area (7, 7', 7", 7′′′) of the inner surface (9, 9', 9", 9′′′) of the sleeve shaft (1, 1', 1", 1′′′) encloses at least one volume domain (11, 11', 11", 11′′′), which volume domain (11, 11', 11", 11′′′) is limited in the axial direction (R, R', R", R′′′) by a limiting element (13, 13', 13", 13"') comprised by the inlay (3, 3', 3", 3′′′), wherein the inlay (3, 3', 3", 3′′′) comprises at least one zone (17, 17', 17", 17′′′) of cylindrical form, and the first shell (19, 19', 19", 19′′′) of at least one first section (21, 21', 21", 21′′′) of the cylindrical zone (17, 17', 17", 17′′′) comprises the first wall section (5, 5', 5", 5′′′), wherein the first section (21, 21', 21", 21"') comprises at least one first end section (23, 23', 23", 23′′′) of the inlay (3, 3', 3", 3"'). wherein at least one fluid can flow through the sleeve shaft (1, 1', 1", 1′′′) along an axial direction (R, R', R", R"') which is parallel to the main extension of the sleeve shaft (1, 1', 1", 1′′′), wherein the inlay (3, 3', 3", 3"') comprises at least one first wall section (5, 5', 5", 5"'), wherein the inlay (3, 3', 3", 3"') is or can be inserted at least in part into the sleeve shaft (1, 1', 1", 1′′′) such that at least one part of the first wall section (5, 5', 5", 5′′′) has a radial distance from at least one first area (7, 7', 7", 7′′′) of the inner surface (9, 9', 9", 9′′′) of the sleeve shaft (1, 1', 1", 1′′′), and, hence, that the inlay (3, 3', 3", 3′′′) together with the first area (7, 7', 7", 7′′′) of the inner surface (9, 9', 9", 9′′′) of the sleeve shaft (1, 1', 1", 1′′′) encloses at least one volume domain (11, 11', 11", 11′′′), which volume domain (11, 11', 11", 11′′′) is limited in the axial direction (R, R', R", R′′′) by a limiting element (13, 13', 13", 13"') comprised by the inlay (3, 3', 3", 3′′′), wherein the inlay (3, 3', 3", 3′′′) comprises at least one zone (17, 17', 17", 17′′′) of cylindrical form, and the first shell (19, 19', 19", 19′′′) of at least one first section (21, 21', 21", 21′′′) of the cylindrical zone (17, 17', 17", 17′′′) comprises the first wall section (5, 5', 5", 5′′′), wherein the first section (21, 21', 21", 21"') comprises at least one first end section (23, 23', 23", 23′′′) of the inlay (3, 3', 3", 3"').
A fuel composition comprising gasoline and a succinic ester acid amine salt or a succinamide acid amine salt (both "amine salt(s)") that is the product of (a) and (b), wherein: (a) is an amine with (i) at least one tertiary nitrogen and (ii) at least one hydroxy alkyl functionality and/or at least one secondary amine functionality; (b) is a hydrocarbyl-substituted or unsubstituted succinic acid and/or anhydride; and wherein said amine salt has a concentration of at least 10 ppm by weight, based on a total weight of said fuel composition; and wherein at least a portion of the amine salt is the product of N-methyldiethanolamine or N,N-dimethylethanolamine and hexadecenylsuccinic anhydride and has the formula: wherein R 1 is hydrogen or a C 1 to C 50 linear or branched hydrocarbyl group; R 4 is a C 1 to C 5 linear or branched hydrocarbyl group; and R 5 and R 6, are independently a C 1 to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring or; wherein at least a portion of the amine salt is the product of N1-(3-(dimethylamino)propyl)-N3,N3-dimethylpropane-1,3-diamine and hexadecenylsuccinic anhydride and has the formula: wherein R 1 is hydrogen or a C 1 to C 50 linear or branched hydrocarbyl group; R 4 and R 7 are independently a C 1 to C 5 linear or branched hydrocarbyl group; and R 5, R 6, are independently a C 1 to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring, n is 0 or 1, and R 8 and R 9 are independently hydrogen or a C 1 to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring. (a) is an amine with (i) at least one tertiary nitrogen and (ii) at least one hydroxy alkyl functionality and/or at least one secondary amine functionality; (b) is a hydrocarbyl-substituted or unsubstituted succinic acid and/or anhydride; and wherein said amine salt has a concentration of at least 10 ppm by weight, based on a total weight of said fuel composition; and wherein R 1 is hydrogen or a C 1 to C 50 linear or branched hydrocarbyl group; R 4 is a C 1 to C 5 linear or branched hydrocarbyl group; and R 5 and R 6, are independently a C 1 to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring or; wherein at least a portion of the amine salt is the product of N1-(3-(dimethylamino)propyl)-N3,N3-dimethylpropane-1,3-diamine and hexadecenylsuccinic anhydride and has the formula: wherein R 1 is hydrogen or a C 1 to C 50 linear or branched hydrocarbyl group; R 4 and R 7 are independently a C 1 to C 5 linear or branched hydrocarbyl group; and R 5, R 6, are independently a C 1 to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring, n is 0 or 1, and R 8 and R 9 are independently hydrogen or a C 1 to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring.
A thermal transfer printer comprising: first and second spool supports (8a, 9a) each being configured to support a spool of ribbon (5, 7); a ribbon drive (8, 9) configured to cause movement of ribbon from the first spool support to the second spool support; a printhead configured to selectively transfer ink from the ribbon to a substrate; a motor configured to cause movement of the printhead towards and away from a printing surface against which printing is carried out, the motor shaft being coupled to the printhead by an inelastic coupling such that the elasticity provided by internal components of the motor is greater than the elasticity of the coupling between the printhead and the motor shaft; and a controller configured to provide a predetermined control signal to the motor to cause the motor to press the printhead against the printing surface. first and second spool supports (8a, 9a) each being configured to support a spool of ribbon (5, 7); a ribbon drive (8, 9) configured to cause movement of ribbon from the first spool support to the second spool support; a printhead configured to selectively transfer ink from the ribbon to a substrate; a motor configured to cause movement of the printhead towards and away from a printing surface against which printing is carried out, the motor shaft being coupled to the printhead by an inelastic coupling such that the elasticity provided by internal components of the motor is greater than the elasticity of the coupling between the printhead and the motor shaft; and a controller configured to provide a predetermined control signal to the motor to cause the motor to press the printhead against the printing surface.
A probe apparatus, comprising: a movable mounting table for holding a test object provided with a plurality of power devices including diodes; a probe card arranged above the mounting table and provided with a plurality of probes; a measuring unit for measuring electrical characteristics of the power devices by bringing the probes into electrical contact with the test object in a state that a conductive film electrode formed on a mounting surface and a circumferential surface of the mounting table is electrically connected to a conductive layer formed on a rear surface of the test object placed on the mounting table; and a conduction mechanism for electrically interconnecting the conductive film electrode formed on the circumferential surface of the mounting table and the measuring unit when measuring the electrical characteristics of the power devices, characterized in that the conductive film electrode is formed on the mounting surface and the circumferential surface of the mounting table. a movable mounting table for holding a test object provided with a plurality of power devices including diodes; a probe card arranged above the mounting table and provided with a plurality of probes; a measuring unit for measuring electrical characteristics of the power devices by bringing the probes into electrical contact with the test object in a state that a conductive film electrode formed on a mounting surface and a circumferential surface of the mounting table is electrically connected to a conductive layer formed on a rear surface of the test object placed on the mounting table; and a conduction mechanism for electrically interconnecting the conductive film electrode formed on the circumferential surface of the mounting table and the measuring unit when measuring the electrical characteristics of the power devices, characterized in that the conductive film electrode is formed on the mounting surface and the circumferential surface of the mounting table.
A method for reducing interference in an incoming signal received at a transceiver of a multi-channel communication device comprising: receiving, in a serial format, a signal to be transmitted over a channel, the transmitted signal to be transmitted from the transceiver; converting the signal to a parallel format to create data representing the signal; performing a transform comprising a Cooley-Tukey transform on the data to create transform domain data; distributing the transform domain data to one or more multipliers; multiplying the transform domain data by one or more weighting variables to create a weighted transform domain signal; performing an inverse transform comprising a Cooley-Tukey transform on the weighted transform domain data to create cancellation data; converting the cancellation data to a serial format signal; and combining the cancellation signal with the incoming signal to reduce interference in the incoming signal; characterized in that performing the transform comprises performing ordering (2008, 2012) on the data based on Good-Thomas ordering, performing a Winograd transform on the data, and then the Cooley-Tukey transform; and performing the inverse transform comprises performing the inverse Cooley-Tukey transform on the weighted transform domain data and then an inverse Winograd transform on the output of the inverse Cooley-Tukey transform, and then performing inverse ordering. receiving, in a serial format, a signal to be transmitted over a channel, the transmitted signal to be transmitted from the transceiver; converting the signal to a parallel format to create data representing the signal; performing a transform comprising a Cooley-Tukey transform on the data to create transform domain data; distributing the transform domain data to one or more multipliers; multiplying the transform domain data by one or more weighting variables to create a weighted transform domain signal; performing an inverse transform comprising a Cooley-Tukey transform on the weighted transform domain data to create cancellation data; converting the cancellation data to a serial format signal; and combining the cancellation signal with the incoming signal to reduce interference in the incoming signal; characterized in that performing the transform comprises performing ordering (2008, 2012) on the data based on Good-Thomas ordering, performing a Winograd transform on the data, and then the Cooley-Tukey transform; and performing the inverse transform comprises performing the inverse Cooley-Tukey transform on the weighted transform domain data and then an inverse Winograd transform on the output of the inverse Cooley-Tukey transform, and then performing inverse ordering.
Encoding method for encoding a sequence of images and delivering a sequence of encoded images, each encoded image comprising an image header identifying encoding characteristics applied to the encoding of the image, the encoded image being divided into sections comprising a section header, each section header comprising an identifying field, the identifying fields being identical for the sections of the same coded image, identity of the image headers of a current encoded image and of a previous encoded image in the sequence of encoded images giving rise to identity of the identifying fields of said current and previous encoded images, a change in the image header of a current encoded image with respect to that of a previous encoded image in the sequence of encoded images causing the identifying fields of said current image to change with respect to said previous image, a method characterised in that it comprises a filling step for filling each bit in the identifying fields with a value directly identifying an encoding characteristic of the encoded image with which said identifying fields are associated, so as to enable decoding of at least one section of the encoded image in the event of loss of data of said encoded image not affecting said section.
A method, comprising: discovering a topology of a network that includes a first wireless station, STA, a second STA and an access point, AP; evaluating a metric for each of at least two routes discovered in the topology; receiving a first packet that identifies the first STA as an intended destination of the first packet; selecting a route of the at least two routes over which to send the first packet based on the metric, each of the at least two routes reaching the first STA; sending the first packet from a reconfigurable multi-radio bridge over the selected route toward the first STA, and coordinating with the AP to effect simultaneous transmission of: the first packet from the AP directly to the first STA over a first channel included in the selected route; a nulling signal from the AP directly to the second STA over a second channel; and a second packet from the reconfigurable multi-radio bridge directly to the second STA over a third channel. discovering a topology of a network that includes a first wireless station, STA, a second STA and an access point, AP; evaluating a metric for each of at least two routes discovered in the topology; receiving a first packet that identifies the first STA as an intended destination of the first packet; selecting a route of the at least two routes over which to send the first packet based on the metric, each of the at least two routes reaching the first STA; sending the first packet from a reconfigurable multi-radio bridge over the selected route toward the first STA, and coordinating with the AP to effect simultaneous transmission of: the first packet from the AP directly to the first STA over a first channel included in the selected route; a nulling signal from the AP directly to the second STA over a second channel; and a second packet from the reconfigurable multi-radio bridge directly to the second STA over a third channel. the first packet from the AP directly to the first STA over a first channel included in the selected route; a nulling signal from the AP directly to the second STA over a second channel; and a second packet from the reconfigurable multi-radio bridge directly to the second STA over a third channel.
A seal assembly structured to establish sealing engagement with differently dimensioned instruments passing through a trocar, comprising: a caged seal assembly (32, 80) movably disposed within the trocar (10, 10') in receiving relation to an instrument passing therethrough, said caged seal (32, 80) assembly including at least two separable and/or detachable seal segments (44, 46, 86, 88) disposable into a sealing orientation relative to the instrument wherein said seal segments (44, 46, 86, 88) are in a closed position and out of a sealing orientation relative to the instrument wherein said seal segments (44, 46, 86, 88) are in an open or separated non-sealing orientation, said caged seal assembly (32, 80) dimensioned and configured to establish sealing engagement with instruments within a predetermined dimensional range, a cage structure (47, 47') including at least two cage segments (48, 49, 82, 84) each connected to a different one of said seal segments (44, 46, 86, 88), a biasing assembly (70, 76, 78) connected to said cage structure (47, 47') and disposed and structured to normally bias said seal segments (44, 46, 86, 88) into said sealing orientation, and said cage structure (47, 47') and said biasing assembly cooperatively structured to dispose said seal segments (44, 46, 86, 88) out of said sealing orientation upon passage therethrough of an instrument sized greater than said predetermined dimensional range. a caged seal assembly (32, 80) movably disposed within the trocar (10, 10') in receiving relation to an instrument passing therethrough, said caged seal (32, 80) assembly including at least two separable and/or detachable seal segments (44, 46, 86, 88) disposable into a sealing orientation relative to the instrument wherein said seal segments (44, 46, 86, 88) are in a closed position and out of a sealing orientation relative to the instrument wherein said seal segments (44, 46, 86, 88) are in an open or separated non-sealing orientation, said caged seal assembly (32, 80) dimensioned and configured to establish sealing engagement with instruments within a predetermined dimensional range, a cage structure (47, 47') including at least two cage segments (48, 49, 82, 84) each connected to a different one of said seal segments (44, 46, 86, 88), a biasing assembly (70, 76, 78) connected to said cage structure (47, 47') and disposed and structured to normally bias said seal segments (44, 46, 86, 88) into said sealing orientation, and said cage structure (47, 47') and said biasing assembly cooperatively structured to dispose said seal segments (44, 46, 86, 88) out of said sealing orientation upon passage therethrough of an instrument sized greater than said predetermined dimensional range.