mhurhangee/ep-ind-claims huggingface dataset:
A fastener chain with a separable bottom end stop comprising: a pair of fastener tapes; rows of fastener elements attached to both edges of the fastener tapes which face each other; a separable bottom end stop attached to ends of the fastener tapes and contacted with the rows of elements; a reinforced portion (107a, 107b) provided on at least portions of the fastener tapes to which the separable bottom end stop is attached, the reinforced portion into which a curing adhesive (205, 308, 402) has penetrated and cured; characterised in that the reinforced portion has a misalignment-free strength of 100 N or more. a pair of fastener tapes; rows of fastener elements attached to both edges of the fastener tapes which face each other; a separable bottom end stop attached to ends of the fastener tapes and contacted with the rows of elements; a reinforced portion (107a, 107b) provided on at least portions of the fastener tapes to which the separable bottom end stop is attached, the reinforced portion into which a curing adhesive (205, 308, 402) has penetrated and cured; characterised in that the reinforced portion has a misalignment-free strength of 100 N or more.
Building panel for external walls, comprising a load-bearing structure both for the floor above and for the upper storeys of the building, which structure is composed of a plurality of metal section bars, of which at least two head section bars placed at two opposite ends of the panel and two or more load section bars (1") parallel to each other and perpendicular to said head section bars and fastened to said head section bars, thermally and acoustically insulating material interposed between said section bars and a first and second structural plates (6, 3) coupled on the opposite faces of the load-bearing structure, characterized in that the first and second structural plates (6, 3) are plates of gypsum fibre or cement fibre and have a thickness ranging from 8 to 20 mm, said section bars have a width in the direction perpendicular to their longitudinal axis corresponding to 250 mm and are provided with through apertures for thermal break, wherein said through apertures are shaped like segments adjacent with each other and staggered with each other to form eight lines parallel to the longitudinal axis of the section bar. the first and second structural plates (6, 3) are plates of gypsum fibre or cement fibre and have a thickness ranging from 8 to 20 mm, said section bars have a width in the direction perpendicular to their longitudinal axis corresponding to 250 mm and are provided with through apertures for thermal break, wherein said through apertures are shaped like segments adjacent with each other and staggered with each other to form eight lines parallel to the longitudinal axis of the section bar.
3D matrices of human elastin-like polypeptides characterized in that they are obtainable by transglutaminase enzymatic cross-linking of at least one human elastin-like polypeptide having sequence MRGSHHHHHHGSAA(AAAAAAKAAAKAAQFGLVPGVGVAPGVGVAPGV GVAPGVGLAPGVGVAPGVGVAPGVGVAPGIAP) n GV (SEQ ID NO:1) where n is an integer comprised between 4 and 12.
Apparatus for readout of an exposed imaging plate, comprising a light source, with which readout light can be generated, a deflection unit, with which the readout light for readout of the imaging plate can be directed sequentially onto the imaging plate with a readout spot, whereby a migrating readout spot can be generated there, a detector unit for fluorescence light emitted by the imaging plate during the readout by the readout light, a control device configured to control the light source, the deflection unit, and the detector unit, characterized in that the control device is configured to carry out a pre-readout of the imaging plate for determining readout parameters and subsequently carry out a readout of the imaging plate using the determined readout parameters.
A method comprising: cloning, by circuitry at a node, a first virtual machine, VM, arranged to run at least one set of containers that includes a first container and a second container that are separately capable of executing respective first and second applications, the cloning to result in a second VM (120-C) arranged to at least temporarily run the first and second containers concurrently with the first and second containers running at the first VM; switching a network connection for the second container running at the first VM to cause input/output packets associated with the second container executing the second application to be re-routed from the first VM to the second VM; and dropping output packets generated by the second application executed by the second container running at the first VM following switching of the network connection, and dropping output packets generated by the first application executed by the first container running at the second VM, wherein the cloning of the first VM is responsive to a change in an operating characteristic for at least one of the first or second containers to cause the first container to be isolated from the second container; and wherein the change in the operating characteristic is based on a request for isolation whereby the first and second applications are to be executed by containers arranged to run on separate VMs. cloning, by circuitry at a node, a first virtual machine, VM, arranged to run at least one set of containers that includes a first container and a second container that are separately capable of executing respective first and second applications, the cloning to result in a second VM (120-C) arranged to at least temporarily run the first and second containers concurrently with the first and second containers running at the first VM; switching a network connection for the second container running at the first VM to cause input/output packets associated with the second container executing the second application to be re-routed from the first VM to the second VM; and dropping output packets generated by the second application executed by the second container running at the first VM following switching of the network connection, and dropping output packets generated by the first application executed by the first container running at the second VM, wherein the cloning of the first VM is responsive to a change in an operating characteristic for at least one of the first or second containers to cause the first container to be isolated from the second container; and wherein the change in the operating characteristic is based on a request for isolation whereby the first and second applications are to be executed by containers arranged to run on separate VMs.
A hydraulic actuating device, comprising two working cylinders which are connected to a source of pressure by at least one supply line (30, 30a, 30b) in order to provide a hydraulic pressure medium, wherein a shut-off system is disposed between the pressure source and the working cylinders which impedes the pressure medium from draining out in the case of a disruption-related drop in pressure, wherein the shut-off system is integrated into a valve assembly which comprises a valve housing with two inlet connections and two outlet connections (40a, 40b), a common closing body, as well as a respective spring element associated with the respective outlet connection (40a, 40b), wherein, in disruption-free operation, the closing body is located in a floating position between the outlet connections (40a, 40b), and the case of a disruption-related drop in pressure in a supply line (30a, 30b) between an outlet connection (40a, 40b) and the working cylinder associated therewith leads to displacement of the closing body to its outlet connection (40a, 40b) on the valve assembly in order to prevent the pressure medium from draining out of the outlet connection (40a, 40b), wherein a hydraulic flow divider is provided for a uniform flow through the valve assembly, wherein the two working cylinders are rigidly mechanically connected together and therefore act as hydraulic flow dividers.
A hydraulic PTO (power take-off) for use with industrial drives, the hydraulic PTO, comprising: a PTO housing mounted between a prime mover and a piece of driven industrial equipment; an output shaft extending from the PTO housing to selectively deliver power to the piece of driven equipment for driving rotation of a rotatable component of the piece of driven industrial equipment; a brake assembly arranged within the PTO housing for slowing rotation of the output shaft, the brake assembly including, a brake ring radially spaced from the output shaft; a brake pack having interleaved brake plates including a first set of brake plates rotationally fixed with respect to the brake ring and that a second set of brake plates arranged to rotate in unison with the output shaft; characterized in that the hydraulic PTO additionally comprises a disconnect lever assembly movable between a locked position preventing rotation of the brake ring and the first set of brake plates with respect to the PTO housing and an unlocked position permitting rotation of the brake ring and the first set of brake plates to rotate in unison with the second set of brake plates and the output shaft. a PTO housing mounted between a prime mover and a piece of driven industrial equipment; an output shaft extending from the PTO housing to selectively deliver power to the piece of driven equipment for driving rotation of a rotatable component of the piece of driven industrial equipment; a brake assembly arranged within the PTO housing for slowing rotation of the output shaft, the brake assembly including, a brake ring radially spaced from the output shaft; a brake pack having interleaved brake plates including a first set of brake plates rotationally fixed with respect to the brake ring and that a second set of brake plates arranged to rotate in unison with the output shaft; characterized in that the hydraulic PTO additionally comprises a disconnect lever assembly movable between a locked position preventing rotation of the brake ring and the first set of brake plates with respect to the PTO housing and an unlocked position permitting rotation of the brake ring and the first set of brake plates to rotate in unison with the second set of brake plates and the output shaft. a brake ring radially spaced from the output shaft; a brake pack having interleaved brake plates including a first set of brake plates rotationally fixed with respect to the brake ring and that a second set of brake plates arranged to rotate in unison with the output shaft; characterized in that the hydraulic PTO additionally comprises a disconnect lever assembly movable between a locked position preventing rotation of the brake ring and the first set of brake plates with respect to the PTO housing and an unlocked position permitting rotation of the brake ring and the first set of brake plates to rotate in unison with the second set of brake plates and the output shaft.
A method for operating a liquid droplet dispensation system comprising a reservoir, the method comprising: pressurizing a first fluid sample in the reservoir to a first pressure, the first fluid sample having a first amount of entrained air contained therein; dispensing a first droplet of the first fluid sample from the reservoir at the first pressure; measuring a first velocity of the first droplet during dispensation at the first pressure; measuring a first mass of the first droplet; logging the first velocity, the first pressure, and the first mass as a first data point; pressurizing the first fluid sample in the reservoir to a second pressure; dispensing a second droplet of the first fluid sample from the reservoir at the second pressure; measuring a second velocity of the second droplet during dispensation at the second pressure; measuring a second mass of the second droplet; logging the second velocity, the second pressure, and the second mass as a second data point; generating a comparative data set that comprises the first data point and the second data point; pressurizing a second fluid sample in the reservoir to a third pressure; dispensing a droplet of the second fluid sample from the reservoir at the third pressure; measuring a third velocity of the droplet of the second fluid sample during dispensation at the third pressure; and determining a third mass of the droplet of the second fluid sample based upon the third pressure, the third velocity of the droplet, and the comparative data set. pressurizing a first fluid sample in the reservoir to a first pressure, the first fluid sample having a first amount of entrained air contained therein; dispensing a first droplet of the first fluid sample from the reservoir at the first pressure; measuring a first velocity of the first droplet during dispensation at the first pressure; measuring a first mass of the first droplet; logging the first velocity, the first pressure, and the first mass as a first data point; pressurizing the first fluid sample in the reservoir to a second pressure; dispensing a second droplet of the first fluid sample from the reservoir at the second pressure; measuring a second velocity of the second droplet during dispensation at the second pressure; measuring a second mass of the second droplet; logging the second velocity, the second pressure, and the second mass as a second data point; generating a comparative data set that comprises the first data point and the second data point; pressurizing a second fluid sample in the reservoir to a third pressure; dispensing a droplet of the second fluid sample from the reservoir at the third pressure; measuring a third velocity of the droplet of the second fluid sample during dispensation at the third pressure; and determining a third mass of the droplet of the second fluid sample based upon the third pressure, the third velocity of the droplet, and the comparative data set.
A method for profile and/or separation measurement of a toothed workpiece, the tooth flanks of which are provided with feed marks (12a, 12b) due to the tooth forming processing, wherein a measuring probe is guided along corresponding to the diametral axial orientation of the feed marks (12a, 12b) on the tooth flank or within the feed spiral, which is composes of multiple feed marks (12a, 12b) of successive tooth flanks, characterized in that the measuring probe, in the measuring movement in or shortly before leaving the tooth flank and/or a predefined assessment region (5, 17) and/or when reaching a security distance to the took flank is displaced into a feed mark valley, at the same tooth flank, located closer to the toothing center, by means of an axial transducer position change.
A medium transport apparatus comprising: a transport section configured to support a medium and transport the medium in a transport direction; and a tension applying and wrinkle reducing section comprising two rollers (46, 47) configured to come into contact with the medium to reduce the formation of wrinkles in the medium, the apparatus being characterized by the two rollers (46, 47) being wrinkle removing rollers and having similar structures except that the outer diameters of the two rollers are different, one of the two rollers having a larger outer diameter than the other, and in that the one of the two rollers having the larger outer diameter does not rotate as the medium is transported and has a plurality of surfaces (46a-d) of different surface characteristics as contact surfaces configured to come into contact with the medium, and in that the one of the two rollers having the larger outer diameter can be individually rotated and fixed in position to change which of the contact surfaces (46a-d) comes into contact with the medium. a transport section configured to support a medium and transport the medium in a transport direction; and a tension applying and wrinkle reducing section comprising two rollers (46, 47) configured to come into contact with the medium to reduce the formation of wrinkles in the medium, the apparatus being characterized by the two rollers (46, 47) being wrinkle removing rollers and having similar structures except that the outer diameters of the two rollers are different, one of the two rollers having a larger outer diameter than the other, and in that the one of the two rollers having the larger outer diameter does not rotate as the medium is transported and has a plurality of surfaces (46a-d) of different surface characteristics as contact surfaces configured to come into contact with the medium, and in that the one of the two rollers having the larger outer diameter can be individually rotated and fixed in position to change which of the contact surfaces (46a-d) comes into contact with the medium.
A van incorporating a storage assembly mounted in the van, the assembly having a trapezoidal shape in plan view, with the front and rear ends (16, 22) in use substantially parallel to each other, the storage assembly being mounted in the load area of the van so as to extend rearwardly from substantially adjacent the bulkhead of the van with the storage assembly extending for at least substantially the majority of the length of the load area of the van.
A network element in a first cell in a wireless telecommunication network, the network element comprising: a processor configured to provide uplink and downlink grants in the first cell, wherein the first cell is a low-power cell within the coverage area of a second, high-power, cell, and wherein the first cell acts as a secondary serving cell and the second cell acts as a primary serving cell, wherein both the first cell and the second cell simultaneously connect to a user equipment, UE, wherein at least one uplink control signal is received by one of only the first cell or both the first cell and the second cell, wherein the network element comprises means for scheduling the uplink and downlink grants based on information received from the second cell via an X2 interface between the first and second cells, and wherein the information comprises subframes when the UE will communicate with the second cell, wherein the network element comprises means for receiving a buffer status report sent from the UE independently from a buffer status report sent from the UE to the second cell. a processor configured to provide uplink and downlink grants in the first cell, wherein the first cell is a low-power cell within the coverage area of a second, high-power, cell, and wherein the first cell acts as a secondary serving cell and the second cell acts as a primary serving cell, wherein both the first cell and the second cell simultaneously connect to a user equipment, UE, wherein at least one uplink control signal is received by one of only the first cell or both the first cell and the second cell, wherein the network element comprises means for scheduling the uplink and downlink grants based on information received from the second cell via an X2 interface between the first and second cells, and wherein the information comprises subframes when the UE will communicate with the second cell, wherein the network element comprises means for receiving a buffer status report sent from the UE independently from a buffer status report sent from the UE to the second cell.
A plant fertilization pouch comprising: a) a fertilizer composition comprising controlled release fertilizer; and b) a hot water-soluble pouch encapsulating said fertilizer composition, wherein the hot water-soluble pouch dissolves at 41 to 80 degrees Celsius and wherein said hot water-soluble pouch comprises polyvinyl alcohol film. a) a fertilizer composition comprising controlled release fertilizer; and b) a hot water-soluble pouch encapsulating said fertilizer composition,
A method for automatic or semiautomatic selection of a better starting gear in a vehicle, comprising the following steps executed in mentioned order: - selecting and engaging a first vehicle starting gear at vehicle stand still (S2, S32), - on driver demand controlling vehicle propulsion torque in such a way as to attempt to achieve a first vehicle take off (S3, S33), - detecting if said first vehicle starting gear is too high for a prevailing condition of the first vehicle take off (S4, S34), - if the first vehicle starting gear is too high then interrupting the first vehicle take off and braking the vehicle (S6, S36), - disengaging said first vehicle starting gear (S7, S37), - selecting and engaging a second starting gear which is a lower gear compared to said first starting gear and having a higher gear ratio (S8, S38), - controlling vehicle propulsion torque in such a way as to attempt to achieve a second vehicle take off, - and if said second vehicle take off attempt results in a transmitting of torque to driven wheels of the vehicle being enough as to perform a take off then stop braking the vehicle (S9, S39). - selecting and engaging a first vehicle starting gear at vehicle stand still (S2, S32), - on driver demand controlling vehicle propulsion torque in such a way as to attempt to achieve a first vehicle take off (S3, S33), - detecting if said first vehicle starting gear is too high for a prevailing condition of the first vehicle take off (S4, S34), - if the first vehicle starting gear is too high then interrupting the first vehicle take off and braking the vehicle (S6, S36), - disengaging said first vehicle starting gear (S7, S37), - selecting and engaging a second starting gear which is a lower gear compared to said first starting gear and having a higher gear ratio (S8, S38), - controlling vehicle propulsion torque in such a way as to attempt to achieve a second vehicle take off, - and if said second vehicle take off attempt results in a transmitting of torque to driven wheels of the vehicle being enough as to perform a take off then stop braking the vehicle (S9, S39).
A method for identifying an optimal ion exchange chromatography separation condition to analyze a plurality of compositions, wherein each composition comprises a polypeptide and one or more contaminants, the method comprising a) plotting a net charge versus pH curve at a selected temperature based on the amino acid composition of the polypeptides of two or more of the compositions, and b) determining the inflection point of the net charge versus pH curve at or near neutral pH by determining the second derivative of the plots of step a); wherein the optimal ion exchange chromatography separation condition is a pH at about a common inflection point for the polypeptide(s) of one or more of the compositions. a) plotting a net charge versus pH curve at a selected temperature based on the amino acid composition of the polypeptides of two or more of the compositions, and b) determining the inflection point of the net charge versus pH curve at or near neutral pH by determining the second derivative of the plots of step a);