mhurhangee/ep-ind-claims huggingface dataset:
A clamp assembly for use with a tool assembly for stapling tissue, the clamp assembly comprising: a central body portion having first and second ends; a first beam defining a first axis and being pivotably coupled to the first end of the central body portion, the first beam extending transversely outwardly of the first end of the central body portion; and a second beam defining a second axis and being fixedly secured to the second end of the central body portion, the second beam extending transversely outwardly of the second end of the central body portion, wherein the first beam is pivotable from a first position in which the first and second axes define an acute angle and a second position in which the first and second axes are parallel, wherein the central body portion includes a vertical strut and a base portion; and characterised in that the vertical strut includes a hook that defines a circular recess and the first beam supports a pivot member, the pivot member received within the circular recess to pivotably couple the first beam to the central body portion. a central body portion having first and second ends; a first beam defining a first axis and being pivotably coupled to the first end of the central body portion, the first beam extending transversely outwardly of the first end of the central body portion; and a second beam defining a second axis and being fixedly secured to the second end of the central body portion, the second beam extending transversely outwardly of the second end of the central body portion, wherein the first beam is pivotable from a first position in which the first and second axes define an acute angle and a second position in which the first and second axes are parallel, wherein the central body portion includes a vertical strut and a base portion; and characterised in that the vertical strut includes a hook that defines a circular recess and the first beam supports a pivot member, the pivot member received within the circular recess to pivotably couple the first beam to the central body portion.
A wrap tape cassette for a subsea pipeline repair or coating machine, the cassette comprising: a drum carrying a wrap tape; and a housing defining an exit opening for the wrap tape to be dispensed from the drum onto a pipeline during a repair or coating operation; wherein a leading end of the wrap tape is attached to an anchor element that is arranged as a closure for the exit opening and, when moved from the exit opening, for attachment to a pipeline being repaired or coated. a drum carrying a wrap tape; and a housing defining an exit opening for the wrap tape to be dispensed from the drum onto a pipeline during a repair or coating operation;
A metallocene compound represented by the formula: AMX n-1 wherein: M is a transition metal atom having a coordination number of n selected from Group 3, 4, 5 or 6 of the Periodic Table of Elements, or a lanthanide metal atom, or actinide metal atom; A is a substituted cyclopentadienyl ligand, a substituted indenyl ligand, a substituted fluorenyl ligand or a substituted cyclopentanaphthyl ligand pi-bonded to M, wherein said arenyl ligand includes at least one halogen substituent selected from chloro, bromo and iodo directly bonded to any sp 2 carbon atom at a bondable ring position of the ligand; and the or each X is a univalent anionic ligand, or two X are joined and bound to the metal atom to form a metallocycle ring, or two X are joined to form a chelating ligand, a diene ligand, or an alkylidene ligand. M is a transition metal atom having a coordination number of n selected from Group 3, 4, 5 or 6 of the Periodic Table of Elements, or a lanthanide metal atom, or actinide metal atom; A is a substituted cyclopentadienyl ligand, a substituted indenyl ligand, a substituted fluorenyl ligand or a substituted cyclopentanaphthyl ligand pi-bonded to M, wherein said arenyl ligand includes at least one halogen substituent selected from chloro, bromo and iodo directly bonded to any sp 2 carbon atom at a bondable ring position of the ligand; and the or each X is a univalent anionic ligand, or two X are joined and bound to the metal atom to form a metallocycle ring, or two X are joined to form a chelating ligand, a diene ligand, or an alkylidene ligand.
A method for predicting future behavior of an asymmetric fault current in a current path, wherein the method comprises: - continuously sampling the current (i(t)) in the current path, - predicting future values of the current based on the sampled current values and a mathematical model of the current, characterized in that the method further comprises: - saving the sampled values of the current in an adaptively-sized moving sampling window, - comparing the predicted values of the current with sampled values of the current from the same point in time, and on basis thereof - determined whether or not a fault current has occurred in the current path, and upon detecting that a fault current has occurred: o adjusting the moving sampling window to discard current values prior to the fault current, and o predicting future values of the fault current based on the current values in the adjusted sampling window and the mathematical model of the current. - continuously sampling the current (i(t)) in the current path, - predicting future values of the current based on the sampled current values and a mathematical model of the current, characterized in that the method further comprises: - saving the sampled values of the current in an adaptively-sized moving sampling window, - comparing the predicted values of the current with sampled values of the current from the same point in time, and on basis thereof - determined whether or not a fault current has occurred in the current path, and upon detecting that a fault current has occurred: o adjusting the moving sampling window to discard current values prior to the fault current, and o predicting future values of the fault current based on the current values in the adjusted sampling window and the mathematical model of the current. o adjusting the moving sampling window to discard current values prior to the fault current, and o predicting future values of the fault current based on the current values in the adjusted sampling window and the mathematical model of the current.
Mobile transportation means having at least one horizontal loading surface (4, 5), having a frame which supports the loading surface (4, 5), and having at least one lifting floor (6, 7) which is movable between a first position, in which a top side of the lifting floor (6, 7) and the loading surface (4, 5) are arranged in a plane, and at least one second position, in which the lifting floor (6, 7) is lowered in relation to the loading surface (4, 5), wherein the lifting floor (6, 7) comprises a sliding element (9, 12) which forms the top side of the lifting floor (6, 7) and which, when the lifting floor (6, 7) is in the first position, is displaceable parallel to the loading surface (4, 5) between a first position, in which the sliding element (9, 12) overlaps a part of the frame, and a second position, in which the sliding element (9, 12) exposes that part of the frame which is overlapped in the first position, characterized in that the lifting floor (6, 7) comprises a planar base element (8, 11) which supports the sliding element (9, 12).
A method, performed by a communication control device, of establishing a communication link, the method comprising: monitoring a heading direction of a vehicle; when the heading direction of the vehicle is changed by as much as a preset angle or more, determining a search order between a plurality of antenna modules by considering the changed heading direction of the vehicle and mounting positions of the plurality of antenna modules mounted on the vehicle; evaluating the plurality of antenna modules according to the search order; and communicating with a base station via a new antenna module selected based on a result of the evaluating, rather than via an old antenna module used for communication with the base station. monitoring a heading direction of a vehicle; when the heading direction of the vehicle is changed by as much as a preset angle or more, determining a search order between a plurality of antenna modules by considering the changed heading direction of the vehicle and mounting positions of the plurality of antenna modules mounted on the vehicle; evaluating the plurality of antenna modules according to the search order; and communicating with a base station via a new antenna module selected based on a result of the evaluating, rather than via an old antenna module used for communication with the base station.
A method for producing a micropattern on a substrate, in which - a substrate is provided with a relief pattern that exhibits elevations and depressions and in which the elevations and/or depressions are arranged in the form of a desired micropattern, wherin the substrate is provided with an embossing pattern, having elevations and depressions, that forms the relief pattern, or to the substrate is applied a resist coating pattern, having elevations and depressions, that forms the relief pattern, wherein the elevations and depressions of the micropattern, micropattern elements having a line width between 1 μm and 10 μm are formed, and - with a printing tool, an imprint material is transferred to the relief pattern, the viscosity of the imprint material being chosen such that the imprint material is selectively transferred either substantially only onto the elevations or substantially only into the depressions of the relief pattern. - a substrate is provided with a relief pattern that exhibits elevations and depressions and in which the elevations and/or depressions are arranged in the form of a desired micropattern, wherin the substrate is provided with an embossing pattern, having elevations and depressions, that forms the relief pattern, or to the substrate is applied a resist coating pattern, having elevations and depressions, that forms the relief pattern, wherein the elevations and depressions of the micropattern, micropattern elements having a line width between 1 μm and 10 μm are formed, and - with a printing tool, an imprint material is transferred to the relief pattern, the viscosity of the imprint material being chosen such that the imprint material is selectively transferred either substantially only onto the elevations or substantially only into the depressions of the relief pattern.
A cytokine-antibody DNL (dock and lock) complex comprising: a) an antibody moiety attached to two copies of an AD (anchor domain) moiety, wherein the antibody moiety is an IgG antibody or an antigen-binding antibody fragment, wherein the C-terminal end of each heavy chain of the IgG antibody is attached to an AD moiety, and wherein the AD moiety has the peptide sequence of an anchoring domain of an AKAP (A-kinase anchoring protein); and b) four copies of a cytokine moiety, each cytokine moiety attached to a DDD (dimerization and docking domain) moiety, wherein the DDD moiety has the peptide sequence of a dimerization and docking domain of protein kinase A and wherein two DDD moieties form a dimer that binds to an AD moiety to form the DNL complex. a) an antibody moiety attached to two copies of an AD (anchor domain) moiety, wherein the antibody moiety is an IgG antibody or an antigen-binding antibody fragment, wherein the C-terminal end of each heavy chain of the IgG antibody is attached to an AD moiety, and wherein the AD moiety has the peptide sequence of an anchoring domain of an AKAP (A-kinase anchoring protein); and b) four copies of a cytokine moiety, each cytokine moiety attached to a DDD (dimerization and docking domain) moiety, wherein the DDD moiety has the peptide sequence of a dimerization and docking domain of protein kinase A and wherein two DDD moieties form a dimer that binds to an AD moiety to form the DNL complex.
Valve device for a hydraulic circuit comprising An actuator unit with an electromagnetic circuit consisting of a translationally movable armature, a core, an energizable coil arranged on a coil carrier and flux guiding means (24, 26, 28, 30), a valve unit with a regulating valve connected with the armature, an outlet port, an inlet port more distant from the actuator unit than the outlet port, and a regulating port arranged between the inlet port and the outlet port, the fluidic connection of the regulating port with the inlet port and the outlet port being configured to be blocked or opened by means of the regulating valve, wherein the armature is biased in the opening direction of the inlet port by means of a spring element and is adapted to be biased in the opening direction of the outlet port by means of the regulating valve using the electromagnetic circuit, as well as a control piston which, in every position of the regulating valve, is subjected to the same pressure as the inlet port so that the control piston is subjected to a hydraulic force depending on the pressure at the inlet port.
A medical device for treating cardiac arrhythmia, comprising a microprocessor and a digital/analog module in connection with the microprocessor, the microprocessor comprising a main control unit and a time control unit, the digital/analog module comprising a pacing control/generation unit and a sense control/amplification unit, the time control unit at least comprising a first timing unit and a second timing unit, characterized in that the main control unit is configured to cause the medical device to operate in a modified DVI mode in which: when receiving a signal indicating sensing of an atrial event by the sense control/amplification unit, the main control unit sets a post-atrial non-pacing interval and sends a signal to the time control unit, controlling the first timing unit to operate in a timing mode for a duration equal to a duration of the post-atrial non-pacing interval; if a scheduled post-ventricular atrial escaping interval is expected to end at a time not within the post-atrial non-pacing interval, the main control unit sends respective signals to the sense control/amplification unit and the time control unit to dictate the pacing control/generation unit to deliver an atrial pacing pulse and to control the second timing unit to use a paced atrioventricular interval as a next post-atrial ventricular escape interval; and if the scheduled post-ventricular atrial escaping interval is to end within the post-atrial non-pacing interval, the pacing control/generation unit does not deliver an atrial pacing pulse, the main control unit sends a signal to the time control unit such that the second timing unit is controlled to use the paced atrioventricular interval as the next post-atrial ventricular escape interval.
An apparatus (105; 155) for use in a communications system having a plurality of communication frequency carriers operable to communicate information bits in a higher power mode of operation and operable to communicate the information bits in a lower power mode of operation, the apparatus (105; 155) comprising: circuitry (130; 180) configured, for the lower power mode of operation, to allocate power to a carrier of the plurality of communication frequency carriers based on use of that carrier during the higher power mode of operation, and in the lower power mode, to allocate the power to the carrier by setting the power of the carrier to a minimum that provides a noise monitorable carrier, wherein in the higher power mode of operation the carrier includes information bits and in the lower power mode the carrier does not include information bits, wherein in the lower power mode the power is sufficient to generate a signal-to-noise ratio to allow monitoring of noise on the carrier. circuitry (130; 180) configured, for the lower power mode of operation, to allocate power to a carrier of the plurality of communication frequency carriers based on use of that carrier during the higher power mode of operation, and in the lower power mode, to allocate the power to the carrier by setting the power of the carrier to a minimum that provides a noise monitorable carrier, wherein in the higher power mode of operation the carrier includes information bits and in the lower power mode the carrier does not include information bits, wherein in the lower power mode the power is sufficient to generate a signal-to-noise ratio to allow monitoring of noise on the carrier.
A method of controlling a power converter to provide a uniform dimming range to a solid state lighting load independent of a type of dimmer, the method comprising: determining maximum and minimum phase angles of a dimmer connected to the power converter during operation of the solid state lighting load; and adjusting a high end output power of the power converter corresponding to a high end level of light output by the solid state lighting load at the maximum phase angle to match a predetermined high end value of light output and adjusting a low end output power of the output converter corresponding to a low end level of light output by the solid state lighting load at the minimum phase angle to match a predetermined low end value of light output, and determining a value of a power control signal for adjusting an intermediate output power of the power converter based on a detected phase angle of the dimmer and a light output range function determined from said determined maximum and minimum phase angles of the dimmer, the power control signal comprising a pulse width modulation signal and the value of the power control signal comprising a percentage duty cycle. determining maximum and minimum phase angles of a dimmer connected to the power converter during operation of the solid state lighting load; and adjusting a high end output power of the power converter corresponding to a high end level of light output by the solid state lighting load at the maximum phase angle to match a predetermined high end value of light output and adjusting a low end output power of the output converter corresponding to a low end level of light output by the solid state lighting load at the minimum phase angle to match a predetermined low end value of light output, and determining a value of a power control signal for adjusting an intermediate output power of the power converter based on a detected phase angle of the dimmer and a light output range function determined from said determined maximum and minimum phase angles of the dimmer, the power control signal comprising a pulse width modulation signal and the value of the power control signal comprising a percentage duty cycle.
Method for producing an assembled crankshaft for an internal combustion engine, wherein crank webs with receiver openings and crank pins with fixing portions at their ends are provided as joint partners, wherein the receiver openings are provided with a toothing running in a longitudinal direction (x) of the crankshaft, wherein to form the toothing, grooves are formed with a distance (a) from a longitudinal axis of the receiver opening which remains constant over their course and teeth are produced between the grooves, and wherein the cross section of the fixing portions extends in regions through the toothing beyond the inner cross section of an assigned receiver opening, so that on connection of the joint partners, a material displacement and contour deformation occur at the receiver openings of the crank webs or at the fixing portions of the crank pins, and the joint partners are thus connected by form fit, and wherein the fixing portions are pressed into the receiver openings such that the joint partners are fixed together operationally reliably in a force fit connection without further fixing means and without an additional connection in the longitudinal direction (x), wherein the crank webs are provided with receiver openings which taper in the longitudinal section at least in portions in a parabolic shape, starting from an insert side facing the assigned crank pin in the direction of an opposite side, and in that a height difference between tips of the teeth and the base of the grooves of the toothing increases starting from the insert side into the receiver opening.
A maytansine-containing conjugate of the general formula: D q − Lk 1 m − P p − Lk 2 − Lk 3 n − Ab in which D represents a maytansine moiety; q represents an integer from 1 to 10; Lk 1 represents a linker; m represents an integer from 1 to 10; P represents a bond or a z-valent group -P 1 -NH- where z is from 2 to 11 and P 1 is a group containing at least one ethylene unit -CH 2 -CH 2 - or ethylene glycol unit -O-CH 2 -CH 2 -; p represents an integer from 1 to 10; Lk 2 represents a bond or a y-valent linker where y is from 2 to 11 and which consists of from 1 to 9 aspartate and/or glutamate residues; Lk 3 represents a linker of the general formula: − CO − Ph − X − Y in which Ph is an optionally substituted phenyl group; X represents a CO group or a CH.OH group; and Y represents a group of formula: in which each of A and B represents a C 1-4 alkylene or alkenylene group; Ab represents a binding protein or peptide capable of binding to a binding partner on a target, said binding protein or peptide being bonded to Lk 3 via two sulfur atoms derived from a disulfide bond in the binding protein or peptide; and n represents an integer from 1 to s where s is the number of disulfide bonds present in the binding protein or peptide prior to conjugation to Lk 3; the meanings of m, n, p, q, y and z being chosen such that the conjugate contains from 1 to 10 D groups. in which D represents a maytansine moiety; q represents an integer from 1 to 10; Lk 1 represents a linker; m represents an integer from 1 to 10; P represents a bond or a z-valent group -P 1 -NH- where z is from 2 to 11 and P 1 is a group containing at least one ethylene unit -CH 2 -CH 2 - or ethylene glycol unit -O-CH 2 -CH 2 -; p represents an integer from 1 to 10; Lk 2 represents a bond or a y-valent linker where y is from 2 to 11 and which consists of from 1 to 9 aspartate and/or glutamate residues; Lk 3 represents a linker of the general formula: in which each of A and B represents a C 1-4 alkylene or alkenylene group; Ab represents a binding protein or peptide capable of binding to a binding partner on a target, said binding protein or peptide being bonded to Lk 3 via two sulfur atoms derived from a disulfide bond in the binding protein or peptide; and n represents an integer from 1 to s where s is the number of disulfide bonds present in the binding protein or peptide prior to conjugation to Lk 3; the meanings of m, n, p, q, y and z being chosen such that the conjugate contains from 1 to 10 D groups.
Multi-level circuit board for high-frequency applications with at least one first carrier substrate made of a first material suitable for high frequencies, and at least one second carrier substrate (PCB2,3) and at least one signal transmission structure (S1,C1) on a first carrier substrate and at least one ground plane (M2,4) connected to electrical ground potential on one side of the at least one second carrier substrate (PCB2,3) and electrical through-connections through the carrier substrate (PCB1,2,3), wherein through the at least one second carrier substrate (PCB2,3) towards the ground plane (M2,4), a capacity for deflecting high-frequency power to ground potential is created, characterized in that the second carrier substrate (PCB 2,3) is formed from a second material with higher dielectrical losses in relation to the first material, and the capacity through the at least one second carrier substrate (PCB2,3) towards the ground plane (M2,M4) is created by means of the fact that on the side of the at least one second carrier substrate (PCB2,4) located opposite the ground plane (M2,4), a metallization surface is formed with a size that corresponds to the desired capacity, and the metallization surface is connected to the signal transmission structure via a through-contact (V(C1-C3)).