mhurhangee/ep-ind-claims huggingface dataset:
A tobacco filter wrapping paper comprising: a nonwoven fabric layer having interfiber bonding points, characterized in that the nonwoven fabric layer is made up of hydrophobic fibers, wherein a contact angle with water of at least one surface from among a front surface and a back surface of the paper is 90° or greater, and thickness is 100 μm to 300 μm. a nonwoven fabric layer having interfiber bonding points, characterized in that the nonwoven fabric layer is made up of hydrophobic fibers, wherein a contact angle with water of at least one surface from among a front surface and a back surface of the paper is 90° or greater, and thickness is 100 μm to 300 μm.
An integrated circuit, comprising: a processing region configured to run one instruction from a plurality of instructions; a first temperature sensor configured to measure a first temperature within a first temperature measuring region of the integrated circuit in response to the processing region running the one instruction; the processing region being configured to compare the measured first temperature with a predefined temperature at the first temperature measuring region when the processing region runs the one instruction and to trigger an event when the measured first temperature exceeds the predefined temperature by a threshold value; a second temperature sensor configured to measure a second temperature within a second temperature measuring region of the integrated circuit in response to the processing region running the one instruction, and the processing region is further configured to trigger the event when the difference between the measured first temperature and the measured second temperature exceeds a predefined temperature difference by a predetermined amount. a processing region configured to run one instruction from a plurality of instructions; a first temperature sensor configured to measure a first temperature within a first temperature measuring region of the integrated circuit in response to the processing region running the one instruction; the processing region being configured to compare the measured first temperature with a predefined temperature at the first temperature measuring region when the processing region runs the one instruction and to trigger an event when the measured first temperature exceeds the predefined temperature by a threshold value; a second temperature sensor configured to measure a second temperature within a second temperature measuring region of the integrated circuit in response to the processing region running the one instruction, and the processing region is further configured to trigger the event when the difference between the measured first temperature and the measured second temperature exceeds a predefined temperature difference by a predetermined amount.
A method for the sealing of glass tubes in a hot softened state, in which method the glass tube is softened at a severing zone near an end portion of the glass tube, the glass tube is conveyed at a predetermined speed along a conveying path and transverse to its longitudinal axis along a pulling device, and the glass tube is rotated about its longitudinal axis while the end portion is pulled off from the severing zone by means of the pulling device in such a manner that the glass tube is sealed by fusion at the severing zone, wherein the pulling device is rotationally fixed or rotates at an angular speed which is different to the angular speed of the glass tube, and the pulling device is moved in correspondence to the movement of the glass tube transverse to the longitudinal axis while the end portion is pulled off from the severing zone, characterized in that the glass tube is put into a rotation about the longitudinal axis by conveying along the conveying path and by rolling on at least one stationary supporting strip so that it is conveyed transverse to the longitudinal axis along the pulling device in a rolling forward movement and at a constant speed, wherein the supporting strip is inclined obliquely upward.
A polypeptide which binds to human C-X-C chemokine receptor type 4 (CXCR4), comprising a scaffold region and complementarity determining regions (CDR1 and CDR3) contained therein, the scaffold region comprising a sequence which has at least 90% identity to the scaffold region defined by amino acids 1 to 26, 33 to 79 and 88 to 97 of SEQ ID NO:1; and wherein the CDR1 region consists of the sequence set forth in SEQ ID NO: 41 and wherein the CDR3 region consists of the sequence set forth in SEQ ID NO: 42; or wherein the CDR1 region consists of the sequence set forth in SEQ ID NO: 49 and wherein the CDR3 region consists of the sequence set forth in SEQ ID NO: 50; or wherein the CDR1 region consists of the sequence set forth in SEQ ID NO: 57 and wherein the CDR3 region consists of the sequence set forth in SEQ ID NO: 58; or wherein the CDR1 region consists of the sequence set forth in SEQ ID NO: 73 and wherein the CDR3 region consists of the sequence set forth in SEQ ID NO: 74; or wherein the CDR1 region consists of the sequence set forth in SEQ ID NO: 77 and wherein the CDR3 region consists of the sequence set forth in SEQ ID NO: 78; and wherein the polypeptide lacks stem cell mobilisation ability. wherein the CDR1 region consists of the sequence set forth in SEQ ID NO: 41 and wherein the CDR3 region consists of the sequence set forth in SEQ ID NO: 42; or wherein the CDR1 region consists of the sequence set forth in SEQ ID NO: 49 and wherein the CDR3 region consists of the sequence set forth in SEQ ID NO: 50; or wherein the CDR1 region consists of the sequence set forth in SEQ ID NO: 57 and wherein the CDR3 region consists of the sequence set forth in SEQ ID NO: 58; or wherein the CDR1 region consists of the sequence set forth in SEQ ID NO: 73 and wherein the CDR3 region consists of the sequence set forth in SEQ ID NO: 74; or wherein the CDR1 region consists of the sequence set forth in SEQ ID NO: 77 and wherein the CDR3 region consists of the sequence set forth in SEQ ID NO: 78;
A tissue removal tool for use with an endoscope, the tool comprising: a loop (12, 70, 90) formed by a piece of wire (14, 74, 94) and movable between an open position and a closed position; wherein the shape of the loop (12, 70, 90) is defined in the open position by a proximal portion and a distal portion, wherein the loop (12, 70, 90) has a single widest portion, wherein the widest portion of the loop (12, 70, 90) is more proximal to a proximal end of the loop (12, 70, 90) than the mid-point of the length of the loop (12, 70, 90) is, wherein the widest portion is wider than the mid-point of the length of the loop (12, 70, 90), and wherein the piece of wire (14, 74, 94) has a cross-sectional height in the proximal portion unequal to a cross-sectional height in the distal portion. a loop (12, 70, 90) formed by a piece of wire (14, 74, 94) and movable between an open position and a closed position; wherein the shape of the loop (12, 70, 90) is defined in the open position by a proximal portion and a distal portion, wherein the loop (12, 70, 90) has a single widest portion, wherein the widest portion of the loop (12, 70, 90) is more proximal to a proximal end of the loop (12, 70, 90) than the mid-point of the length of the loop (12, 70, 90) is, wherein the widest portion is wider than the mid-point of the length of the loop (12, 70, 90), and wherein the piece of wire (14, 74, 94) has a cross-sectional height in the proximal portion unequal to a cross-sectional height in the distal portion.
An alternator system (3, 130) comprising: an alternator (5, 150) with a stator having at least one stationary winding and a rotor with a rotatable field coil (4, 140) for producing alternating current; and a main voltage regulator (7, 170) having a main controller (72, 172) and a main power switch (75, 175) configured to control the current through the field coil (4, 140); characterised in that the alternator system (3, 130) further comprises a redundant voltage regulator (8, 180) having a redundant controller (82, 182) and a redundant power switch (85, 185) configured to control the current through the field coil (4, 140); wherein the main power switch (75, 175), the field coil (4, 140) and the redundant power switch (85, 185) are connected in series, in that order, wherein the redundant controller (8, 180) is configured to control the redundant power switch (85, 185) independent from the status or activity of the main controller (72, 172) or main power switch (75, 175), and wherein an electrical ground connection of the main voltage regulator (7, 170) is separate and displaced from an electrical ground connection (81, 181) of the redundant voltage regulator (8, 180). an alternator (5, 150) with a stator having at least one stationary winding and a rotor with a rotatable field coil (4, 140) for producing alternating current; and a main voltage regulator (7, 170) having a main controller (72, 172) and a main power switch (75, 175) configured to control the current through the field coil (4, 140); characterised in that the alternator system (3, 130) further comprises a redundant voltage regulator (8, 180) having a redundant controller (82, 182) and a redundant power switch (85, 185) configured to control the current through the field coil (4, 140); wherein the main power switch (75, 175), the field coil (4, 140) and the redundant power switch (85, 185) are connected in series, in that order, wherein the redundant controller (8, 180) is configured to control the redundant power switch (85, 185) independent from the status or activity of the main controller (72, 172) or main power switch (75, 175), and wherein an electrical ground connection of the main voltage regulator (7, 170) is separate and displaced from an electrical ground connection (81, 181) of the redundant voltage regulator (8, 180).
A pipe repair device for repairing a leak in a pipe of a pipeline, the pipe repair device comprising: a body; a leak detection subsystem, which is configured to function to identify the presence of the leak at a leak region and the position of the leak region requiring repair relative to the pipe repair device, such as to enable the pipe repair device to suitably position itself relative to the leak region for a repair, wherein the leak detection subsystem comprises at least one sensor attached to the body for detecting the leak in the pipe; wherein the at least one sensor comprises at least one acoustic microphone configured for aurally identifying the leak region, wherein the at least one acoustic microphone comprises at least one hydrophone configured to identify an axial position and an azimuthal position of the leak region based on triangulation of hydrophone-derived audio signatures corresponding to leakage out of the pipeline; a transport mechanism attached to the body for transporting the pipe repair device along the pipe to the leak region; and a repair mechanism comprising a repair material for repairing the leak, wherein the repair mechanism comprises a stent, the stent reconfigurable between a compressed orientation and an expanded orientation, wherein the stent is expandable to engage a seal of the stent with the leak region for repairing the leak. a body; a leak detection subsystem, which is configured to function to identify the presence of the leak at a leak region and the position of the leak region requiring repair relative to the pipe repair device, such as to enable the pipe repair device to suitably position itself relative to the leak region for a repair, wherein the leak detection subsystem comprises at least one sensor attached to the body for detecting the leak in the pipe; wherein the at least one sensor comprises at least one acoustic microphone configured for aurally identifying the leak region, wherein the at least one acoustic microphone comprises at least one hydrophone configured to identify an axial position and an azimuthal position of the leak region based on triangulation of hydrophone-derived audio signatures corresponding to leakage out of the pipeline; wherein the leak detection subsystem comprises at least one sensor attached to the body for detecting the leak in the pipe; wherein the at least one sensor comprises at least one acoustic microphone configured for aurally identifying the leak region, wherein the at least one acoustic microphone comprises at least one hydrophone configured to identify an axial position and an azimuthal position of the leak region based on triangulation of hydrophone-derived audio signatures corresponding to leakage out of the pipeline; a transport mechanism attached to the body for transporting the pipe repair device along the pipe to the leak region; and a repair mechanism comprising a repair material for repairing the leak, wherein the repair mechanism comprises a stent, the stent reconfigurable between a compressed orientation and an expanded orientation, wherein the stent is expandable to engage a seal of the stent with the leak region for repairing the leak.
System for registering an image sequence, comprising: - an input for obtaining the image sequence, the image sequence comprising a plurality of images arranged sequentially within an image range; - a transformation processor for establishing transformations between adjacent pairs of consecutive images in the image sequence to obtain a plurality of transformations as transformation matrices; - an alignment processor for, based on the plurality of transformations, aligning the images of the image sequence to a reference image to obtain a registered image sequence; - wherein the alignment processor is arranged for establishing the reference image from the plurality of images based on a transformation metric, the transformation metric quantifying a degree of transformation required for aligning the images of the image sequence to the reference image, wherein the alignment processor is arranged for quantifying the degree of transformation in accordance with the transformation metric based on multiplication of the transformation matrices of the adjacent pairs of consecutive images. - an input for obtaining the image sequence, the image sequence comprising a plurality of images arranged sequentially within an image range; - a transformation processor for establishing transformations between adjacent pairs of consecutive images in the image sequence to obtain a plurality of transformations as transformation matrices; - an alignment processor for, based on the plurality of transformations, aligning the images of the image sequence to a reference image to obtain a registered image sequence; - wherein the alignment processor is arranged for establishing the reference image from the plurality of images based on a transformation metric, the transformation metric quantifying a degree of transformation required for aligning the images of the image sequence to the reference image, wherein the alignment processor is arranged for quantifying the degree of transformation in accordance with the transformation metric based on multiplication of the transformation matrices of the adjacent pairs of consecutive images.
Crate in the form of a flap-adhesively-bonded box consisting of cardboard having a bottom and a shell rising from the bottom, said shell forming upper longitudinal edge sections reinforced by means of edge flaps folded inwards between the shell corners in order to dissipate the load via the circumferential walls and said shell having, in the region of the shell corners, latching attachments consisting of attachment tabs (10, 11, 26) which protrude over the edge of the reinforced longitudinal edge sections, wherein the bottom is provided in the region of the shell corners with recesses adapted to the latching attachments and the shell is recessed in the region of the bottom recesses at a depth corresponding to the projection of the latching attachments over the edge of the reinforced longitudinal edge sections, characterised in that the attachment tabs (10, 11, 26) are each bent inwards by 90° about crease lines (12, 13, 27), outwardly offset in relation to the edge of the reinforced longitudinal edge sections, and are adhesively bonded to the opposite side of the shell corner, wherein either the material has, on both sides of the shell corners, attachment tabs (10, 11), which are bent inwards by 90° and are adhesively bonded to one another, or the attachment tabs provided on one side of the shell corners have, on the side facing the other side of the shell corners, an adhesive flap, and in that the bottom recesses are adapted to the outline shape of the latching attachments formed by the inwardly bent attachment tabs (10, 11, 26).
Device for reducing vibrations on a wheel suspension, wherein a vibration absorber is provided which is fitted to a wheel-side component, wherein an absorption mass (16, 18, 28) is supported by means of a flexible support on the wheel-side component, characterised in that the wheel suspension comprises a shock absorber having an integrated, that is to say, single-piece, or fitted shock absorber fork, in that the absorption mass (16, 18, 28) is arranged on the shock absorber fork by means of a carrier base (20, 22, 32) which is produced from resilient material and which forms the flexible support, in that the vibration absorber is adapted with respect to tyre torus resonance to a frequency range of from 150 Hz to 300 Hz, preferably a frequency range of from 160 Hz to 260 Hz, and in that the absorption mass (16,18) of the vibration absorber is between 250 g and 1500 g.
Vehicle seat with a seat part and a backrest, wherein the seat part is height-adjustable and is pretensioned by a spring element into a raised position, wherein the spring force of the spring element is provided so as to be adjustable, wherein the vehicle seat has an occupation sensor which determines whether the seat part is or is not occupied and with what weight the seat part is occupied, wherein the occupation sensor is a lever which interacts with the spring element, characterized in that the spring element is provided in the form of a torsion spring.
A curable coating composition comprising a mixture of: (a) a curable polyester comprising a diacid comprising at least 10 mol% succinic acid and less than 80 mol% isophthalic acid relative to the total diacid content, the molar ratio of succinic acid to isophthalic acid being from 1:4 to 1:1, and at least one diol; (b) a cross-linking agent; and (c) a solvent. (a) a curable polyester comprising a diacid comprising at least 10 mol% succinic acid and less than 80 mol% isophthalic acid relative to the total diacid content, the molar ratio of succinic acid to isophthalic acid being from 1:4 to 1:1, and at least one diol; (b) a cross-linking agent; and (c) a solvent.
Apparatus for rapidly chilling poultry carcasses to reduce the number of viable microorganisms thereon, said apparatus comprising: an insulated chill chamber having an entry port and an exit port; a continuous shackle line located within said chill chamber for conveying poultry carcasses from said entry port to said exit port; a heat exchanger for cooling air by indirect heat exchange against a liquid cryogen; at least one nozzle located parallel to said continuous shackle line for feeding a flow of cooled air into said chill chamber in the form of a planar sheet, said nozzle being arranged to direct said flow over said carcasses and into the body cavity of said carcasses on said shackle line; a first duct for feeding cooled air from said heat exchanger to said nozzle(s); a second duct for feeding warmed air from said chill chamber to said heat exchanger; and a fan for circulating air around the apparatus. an insulated chill chamber having an entry port and an exit port; a continuous shackle line located within said chill chamber for conveying poultry carcasses from said entry port to said exit port; a heat exchanger for cooling air by indirect heat exchange against a liquid cryogen; at least one nozzle located parallel to said continuous shackle line for feeding a flow of cooled air into said chill chamber in the form of a planar sheet, said nozzle being arranged to direct said flow over said carcasses and into the body cavity of said carcasses on said shackle line; a first duct for feeding cooled air from said heat exchanger to said nozzle(s); a second duct for feeding warmed air from said chill chamber to said heat exchanger; and a fan for circulating air around the apparatus.
Suction drum for an inserter having a shell surface, wherein a plurality of openings, which are distributed uniformly in the shell surface, are formed in the shell surface, wherein the shell surface is in rotational symmetry with a rotational axis of the suction drum, and wherein the contour of the shell surface is described by a shell line lying in a plane with the rotational axis and the shell line has at least two different distances from the rotational axis in the longitudinal direction of the rotational axis, characterised in that the maximum distance of the course of the shell line from the rotational axis is located in the centre, wherein the shell line comprises in sections at least two straight lines with different slopes and the shell line has a convex parabolic curve course so that the shell surface has a spherical outer contour and is designed to be symmetrical with the centre of the shell surface.
A catheter connector, comprising: a body having a proximal end and a distal end, said body defining a hollow interior extending from said proximal end to said distal end; a proximal end port configured with said proximal end of body for mating communication with a fluid delivery device; an insert configured within the hollow interior, said insert defining a bore therethrough, said bore configured to receive a catheter at least partially therethrough, said bore comprising an interior wall and an exterior wall defining a thickness therebetween, said interior wall comprising a plurality of discontinuities, characterised in that, when the catheter is inserted through said bore, a plurality of cavities are formed by the catheter and the plurality of discontinuities of the insert, said cavities configured to collect a liquid medium therein, so as to maintain a secure connection between the catheter and the catheter connector when in use. a body having a proximal end and a distal end, said body defining a hollow interior extending from said proximal end to said distal end; a proximal end port configured with said proximal end of body for mating communication with a fluid delivery device; an insert configured within the hollow interior, said insert defining a bore therethrough, said bore configured to receive a catheter at least partially therethrough, said bore comprising an interior wall and an exterior wall defining a thickness therebetween, said interior wall comprising a plurality of discontinuities, characterised in that, when the catheter is inserted through said bore, a plurality of cavities are formed by the catheter and the plurality of discontinuities of the insert, said cavities configured to collect a liquid medium therein, so as to maintain a secure connection between the catheter and the catheter connector when in use.