mhurhangee/patent-ind-claim-en huggingface dataset:
A lateral sealing device for a packaging machine for sandwiching and laterally sealing a packaging material along a sealing direction intersecting a conveying direction of the packaging material, the lateral sealing device of a packaging machine comprising: a pair of rotating bodies , each of the rotating bodies including a horn assembly and an anvil , the horn assembly including a horn , a plurality of vibrating elements and a plurality of resonators , each of the rotating bodies being rotatable about a rotation axis (C1, C2), each rotating body having a forward side and a reverse side relative to a direction of rotation about the rotation axis; and a securing member adapted to grip the horn assembly at the forward side and the reverse side thereof, and to secure the horn assembly to the rotating bodies ; wherein the horn is mounted on the rotating body and the peripheral members thereof; and a plurality of vibration elements are coupled so as to line up at equidistant intervals along the sealing direction behind the horn ; characterized in that the securing member is provided with a plurality of resonators , a holding part , and a securing part , the plurality of resonators being coupled to the horn in adjacent positions so as to sandwich the vibrating elements from two sides, the holding part holding the plurality of resonators , and the securing part securing the holding part ; and the lateral sealing device is configured such that a node of ultrasonic vibrations is centrally positioned in the major axis direction of each resonator , and the vicinity of the node is held in place to secure the corresponding rotating body . a pair of rotating bodies , each of the rotating bodies including a horn assembly and an anvil , the horn assembly including a horn , a plurality of vibrating elements and a plurality of resonators , each of the rotating bodies being rotatable about a rotation axis (C1, C2), each rotating body having a forward side and a reverse side relative to a direction of rotation about the rotation axis; and a securing member adapted to grip the horn assembly at the forward side and the reverse side thereof, and to secure the horn assembly to the rotating bodies ; wherein the horn is mounted on the rotating body and the peripheral members thereof; and a plurality of vibration elements are coupled so as to line up at equidistant intervals along the sealing direction behind the horn ; characterized in that the securing member is provided with a plurality of resonators , a holding part , and a securing part , the plurality of resonators being coupled to the horn in adjacent positions so as to sandwich the vibrating elements from two sides, the holding part holding the plurality of resonators , and the securing part securing the holding part ; and the lateral sealing device is configured such that a node of ultrasonic vibrations is centrally positioned in the major axis direction of each resonator , and the vicinity of the node is held in place to secure the corresponding rotating body .
A particulate sensing system configured to detect particulates in exhaust gas from a combustion process, said system comprising: a first electrode ; a second electrode spaced apart from the first electrode , wherein particulates are detected based on electrical conductivity between the first electrode and the second electrode ; a heater element configured to heat the first electrode and the second electrode , wherein the first electrode , the second electrode , and the heater element cooperate to form a sensor ; and a processor configured to operate the heater element to establish a sensor temperature greater than a dew-point temperature of the exhaust gas and less than a burn-off temperature of the sensor to reduce thermophoretic accumulation of particulates on the sensor , characterized in that the processor is further configured to apply a zero-bias voltage across the first electrode and the second electrode if the exhaust temperature of the exhaust gas is less than the dew-point temperature and, wherein the processor is further configured to apply a zero-bias voltage across the first electrode and the second electrode if the sensor temperature is greater than the exhaust temperature of the exhaust gas . a first electrode ; a second electrode spaced apart from the first electrode , wherein particulates are detected based on electrical conductivity between the first electrode and the second electrode ; a heater element configured to heat the first electrode and the second electrode , wherein the first electrode , the second electrode , and the heater element cooperate to form a sensor ; and a processor configured to operate the heater element to establish a sensor temperature greater than a dew-point temperature of the exhaust gas and less than a burn-off temperature of the sensor to reduce thermophoretic accumulation of particulates on the sensor ,
One or more non-transitory, computer-readable media, NTCRM, having instructions that, when executed by one or more processors, cause a wireless communication device (108a-d) to: establish a plurality of virtual medium access control layers, vMACs, (202a-b) to perform respective communication or sensing operations, wherein the vMACs (202a-b) are associated with respective medium access control MAC, addresses; allocate virtual physical layers, vPHYs, (204a-b) and radio circuits (206a-d) of the wireless communication device (108a-d) to the respective vMACs (202a-b); and perform the communication or sensing operations concurrently using the respective vMACs (202a-b) and the allocated vPHYs (204a-b) and radio circuits (206a-d). establish a plurality of virtual medium access control layers, vMACs, (202a-b) to perform respective communication or sensing operations, wherein the vMACs (202a-b) are associated with respective medium access control MAC, addresses; allocate virtual physical layers, vPHYs, (204a-b) and radio circuits (206a-d) of the wireless communication device (108a-d) to the respective vMACs (202a-b); and perform the communication or sensing operations concurrently using the respective vMACs (202a-b) and the allocated vPHYs (204a-b) and radio circuits (206a-d).
A compound according to the general structural formula as well as pharmaceutically acceptable salts, solvates and/or R/S enantiomers thereof, wherein R 1 is H, a branched or unbranched, saturated or unsaturated, substituted or unsubstituted hydrocarbon chain having a chain length of 1 to 12, R 7 is H or OH, R 8 is H or R 9 , NH 2 , NHR 9 , N(R 9 ) 2 or NHCOOR 1 R 9 is a branched or unbranched alkyl group having a chain length of 1 to 4 carbon atoms, and wherein possible substituents for R 1 and R 9 are selected from the group consisting of fluorine, chlorine, bromine and iodine, oxygen, sulfur, alkoxy, acyloxy, hydroxyl, mercapto, cyano, nitro and a thio alkoxy group, wherein if R 7 is H and R 8 is NH 2 , R 1 is not H or not CH 2 CH 3 . R 1 is H, a branched or unbranched, saturated or unsaturated, substituted or unsubstituted hydrocarbon chain having a chain length of 1 to 12, R 7 is H or OH, R 8 is H or R 9 , NH 2 , NHR 9 , N(R 9 ) 2 or NHCOOR 1 R 9 is a branched or unbranched alkyl group having a chain length of 1 to 4 carbon atoms, and
A method of determining the concentration of a detected sequence in non-fragmented nucleic acids comprising the following steps: i. determining a length distribution (LD) of nucleic acids in a sample comprising fragmented nucleic acids, wherein the fragmented nucleic acids are derived from said non-fragmented nucleic acids; ii. measuring the concentration of said detected sequence in said sample comprising fragmented nucleic acids with a measuring method, wherein measuring the concentration of the detected sequence comprises amplifying a sequence to be amplified comprising the detected sequence, and iii. correcting the measured concentration of said detected sequence in the sample comprising fragmented nucleic acids with a correction coefficient to obtain the concentration of said detected sequence in non-fragmented nucleic acids, wherein the correction coefficient is based on the length distribution (LD) and at least one parameter of the measuring method, wherein the at least one parameter of the measuring method comprises the length of the sequence to be amplified (L a ), wherein the method does not comprise assembly of the fragmented nucleic acids into a contiguous sequence. i. determining a length distribution (LD) of nucleic acids in a sample comprising fragmented nucleic acids, wherein the fragmented nucleic acids are derived from said non-fragmented nucleic acids; ii. measuring the concentration of said detected sequence in said sample comprising fragmented nucleic acids with a measuring method, wherein measuring the concentration of the detected sequence comprises amplifying a sequence to be amplified comprising the detected sequence, and iii. correcting the measured concentration of said detected sequence in the sample comprising fragmented nucleic acids with a correction coefficient to obtain the concentration of said detected sequence in non-fragmented nucleic acids, wherein the correction coefficient is based on the length distribution (LD) and at least one parameter of the measuring method, wherein the at least one parameter of the measuring method comprises the length of the sequence to be amplified (L a ),
Electrical connector part having a housing body and a housing part which together form a housing , and having at least one electrical plug-in contact element which is connected to an electrical connecting lead and which has an integrally formed latching spring , the housing forming at least one receiving chamber into which the at least one electrical plug-in contact element is inserted, the latching spring latching into a latching projection after the plug-in contact element has been inserted into the receiving chamber , and wherein the housing part can be latched to the housing body and has at least one latching arm which, in a final latching position of the housing part , fixes the at least one plug-in contact element in a receiving chamber in a form-fitting manner, the housing body and the housing part being arranged such that they can be displaced with respect to one another perpendicularly to the plug-in direction of the plug-in connector part and can be fixed to one another in a stable manner in a pre-latching position and a final latching position, characterised in in that the free end section of the at least one locking arm forms at least one latching projection for the latching spring of the at least one plug-in contact element on a wall section of the housing body . having a housing body and a housing part which together form a housing , and having at least one electrical plug-in contact element which is connected to an electrical connecting lead and which has an integrally formed latching spring , the housing forming at least one receiving chamber into which the at least one electrical plug-in contact element is inserted, the latching spring latching into a latching projection after the plug-in contact element has been inserted into the receiving chamber , and wherein the housing part can be latched to the housing body and has at least one latching arm which, in a final latching position of the housing part , fixes the at least one plug-in contact element in a receiving chamber in a form-fitting manner, the housing body and the housing part being arranged such that they can be displaced with respect to one another perpendicularly to the plug-in direction of the plug-in connector part and can be fixed to one another in a stable manner in a pre-latching position and a final latching position, characterised in in that the free end section of the at least one locking arm forms at least one latching projection for the latching spring of the at least one plug-in contact element on a wall section of the housing body .
A restraint bracket system comprising: a wall comprising a course of bricks forming a wall head; and a gable restraint bracket for receiving a masonry block and a timber member comprising a timber engaging portion and a masonry engaging portion upstanding from a base plate engaged with the upper surface of a brick, i.e. the masonry block , in the course of bricks, the timber engaging portion upstanding from a surface of the base plate and the masonry engaging portion upstanding from another surface of the base plate , and a plane including the timber engaging portion includes also the masonry engaging portion , wherein a further masonry engaging portion is upstanding from an edge of the base plate opposite the edge of the base plate from which the masonry engaging portion is upstanding and is substantially perpendicular to the surface of the base plate , and the masonry engaging portion and the further masonry engaging portion form a pair of masonry engaging portions which co-operate to receive the brick between them and against a surface of the base plate , wherein each of the masonry engaging portion and the further masonry engaging portion is integrally formed and folded out of the plane of the base plate . a wall comprising a course of bricks forming a wall head; and a gable restraint bracket for receiving a masonry block and a timber member comprising a timber engaging portion and a masonry engaging portion upstanding from a base plate engaged with the upper surface of a brick, i.e. the masonry block , in the course of bricks, the timber engaging portion upstanding from a surface of the base plate and the masonry engaging portion upstanding from another surface of the base plate , and a plane including the timber engaging portion includes also the masonry engaging portion , wherein a further masonry engaging portion is upstanding from an edge of the base plate opposite the edge of the base plate from which the masonry engaging portion is upstanding and is substantially perpendicular to the surface of the base plate , and the masonry engaging portion and the further masonry engaging portion form a pair of masonry engaging portions which co-operate to receive the brick between them and against a surface of the base plate , wherein each of the masonry engaging portion and the further masonry engaging portion is integrally formed and folded out of the plane of the base plate .
A correcting system comprising: an acquisition unit configured to acquire information indicating first capture efficiency which is capture efficiency of a filter for first microscopic particles; a storage unit configured to store correction data (X) for correcting the first capture efficiency to second capture efficiency which is capture efficiency of the filter for second microscopic particles; and a correction unit configured to correct the first capture efficiency acquired by the acquisition unit to the second capture efficiency on the basis of the correction data (X), the first microscopic particles being either third microscopic particles or fourth microscopic particles, the third microscopic particles being microscopic particles in an atmosphere present around the filter installed in an actual environment, characterised by the fourth microscopic particles being microscopic particles used for measuring capture efficiency of the filter in a reference standard, the second microscopic particles being the other of the third microscopic particles and the fourth microscopic particles. an acquisition unit configured to acquire information indicating first capture efficiency which is capture efficiency of a filter for first microscopic particles; a storage unit configured to store correction data (X) for correcting the first capture efficiency to second capture efficiency which is capture efficiency of the filter for second microscopic particles; and a correction unit configured to correct the first capture efficiency acquired by the acquisition unit to the second capture efficiency on the basis of the correction data (X), the first microscopic particles being either third microscopic particles or fourth microscopic particles, the third microscopic particles being microscopic particles in an atmosphere present around the filter installed in an actual environment, characterised by the fourth microscopic particles being microscopic particles used for measuring capture efficiency of the filter in a reference standard, the second microscopic particles being the other of the third microscopic particles and the fourth microscopic particles.
A pallet component, the pallet component comprising: a support portion ; and an attachment portion (12a-e; 14a-e) extending from the support portion and defined, at least in part, by a perimeter wall (28; 30), the perimeter wall surrounding one or more internal chambers (40; 42), the attachment portion configured to engage a corresponding attachment portion of another pallet component; wherein the one or more internal chambers comprise at least one device chamber configured to at least partially receive an electronic device therein; characterised in that one or more walls of the attachment portion, such as one or more walls of said perimeter wall, comprise one or more cut-outs (32; 34) which define, at least in part, a fluid pathway between the at least one device chamber and atmosphere. a support portion ; and an attachment portion (12a-e; 14a-e) extending from the support portion and defined, at least in part, by a perimeter wall (28; 30), the perimeter wall surrounding one or more internal chambers (40; 42), the attachment portion configured to engage a corresponding attachment portion of another pallet component; wherein the one or more internal chambers comprise at least one device chamber configured to at least partially receive an electronic device therein; characterised in that one or more walls of the attachment portion, such as one or more walls of said perimeter wall, comprise one or more cut-outs (32; 34) which define, at least in part, a fluid pathway between the at least one device chamber and atmosphere.
Value document such as a banknote , a check, a credit or other payment card, an identity card or the like, which has a front side and a back side , shows a representation recognizable to the unaided eye in top view at least from the front side , has specific dimensions (B, H) and comprises a substrate body which has the specific dimensions (B, H) in top view and is constructed from at least one transparent film which also has the specific dimensions (B, H) in top view, wherein the representation recognizable from the front side is generated by a first and at least partly metallized embossed structure and which is arranged on one side of the first film and has a laterally, i.e. transversely to the top view direction, varying profiling and/or metallization, wherein the first and at least partly metallized embossed structure is formed on a film front side facing the front side and a second and at least partly metallized embossed structure is formed on a film back side facing the rear side and at least one of the metallized embossed structures is covered with a levelling cover layer , wherein - the embossed structure comprises micro lenses and/or micromirrors and/or - the embossed structure is formed in sections as a subwavelength structure having a periodicity of 150 nm to 500 nm or being aperiodically with structure widths of 150 nm to 500 nm. - the embossed structure comprises micro lenses and/or micromirrors and/or - the embossed structure is formed in sections as a subwavelength structure having a periodicity of 150 nm to 500 nm or being aperiodically with structure widths of 150 nm to 500 nm.
Device for carrying out a radiation measurement, comprising a receiving device for receiving a biological sample , a radiation source for emitting radiation into the receiving device , a radiation sensor for detecting radiation from the receiving device , at least one first opening for introducing the radiation from the radiation source into the interior of the receiving device and for guiding the radiation out of the interior of the receiving device to the radiation sensor , wherein the device is configured in such a way that only radiation generated by the radiation source can be emitted into the receiving device , and a deflecting device for deflecting the radiation emitted by the radiation source through the first opening , wherein the deflecting device is arranged in the radiation sensor . a receiving device for receiving a biological sample , a radiation source for emitting radiation into the receiving device , a radiation sensor for detecting radiation from the receiving device , at least one first opening for introducing the radiation from the radiation source into the interior of the receiving device and for guiding the radiation out of the interior of the receiving device to the radiation sensor , wherein the device is configured in such a way that only radiation generated by the radiation source can be emitted into the receiving device , and a deflecting device for deflecting the radiation emitted by the radiation source through the first opening , wherein the deflecting device is arranged in the radiation sensor .
Joining system having a processing station for a film, with a processing tool at the processing station which can be opened and closed, the film being transported through the joining system in a machine direction and a driven inserting unit being provided for inserting the film into the open processing tool, the inserting unit having a gripper adapted to keep the film gripped during the feed and to withdraw from the film with a withdrawal movement, characterized in that the gripper is adapted to withdraw from the film longitudinally in the machine direction or in a direction having a component longitudinally in the machine direction , by a movement of the gripper away from its original position in the gripping area to the extent that it just barely no longer covers the film; the gripper still being in contact with the film while withdrawing from the film with a stripping drawing movement, diagonally and/or longitudinally in the machine direction.
An edge protection system for use with concrete flooring, including a first part for coupling to an edge portion of a first concrete flooring panel and a second part for coupling to an opposed edge portion of a second, neighbouring, concrete flooring panel, wherein the system includes a retaining clip for retaining the second part to the first part, characterised in that the first part is slideable relative to the second part to engage the retaining clip against removal from the first and second parts; and in that the retaining clip is frangible to allow separation of the first and second parts after setting of the first and second concrete flooring panels. characterised in that the first part is slideable relative to the second part to engage the retaining clip against removal from the first and second parts; and in that the retaining clip is frangible to allow separation of the first and second parts after setting of the first and second concrete flooring panels.