mhurhangee/ep-ind-claims huggingface dataset:
A method for tracking an object in a field of view of a robotically controlled camera, comprising the steps of: presenting a Graphical User Interface that enables an operator to: set an operator defined region of interest inside of the camera field of view outside of which region of interest no tracking will occur; and set an x offset and a y offset by displaying a first line representing the x offset and a second line representing the y offset and allowing the operator to manipulate the location of each of the first line and the second line by touching and dragging the respective line to manipulate the respective offset; determining if the object that lies within the region of interest matches a reference object; and if so, automatically tracking the object to maintain the object in a fixed relationship relative to a location in the camera field of view if the object has moved more than a threshold distance from the location in the camera field of view, wherein an intersection of the x and y offsets defines the location in the camera field of view. presenting a Graphical User Interface that enables an operator to: set an operator defined region of interest inside of the camera field of view outside of which region of interest no tracking will occur; and set an x offset and a y offset by displaying a first line representing the x offset and a second line representing the y offset and allowing the operator to manipulate the location of each of the first line and the second line by touching and dragging the respective line to manipulate the respective offset; set an operator defined region of interest inside of the camera field of view outside of which region of interest no tracking will occur; and set an x offset and a y offset by displaying a first line representing the x offset and a second line representing the y offset and allowing the operator to manipulate the location of each of the first line and the second line by touching and dragging the respective line to manipulate the respective offset; determining if the object that lies within the region of interest matches a reference object; and if so, automatically tracking the object to maintain the object in a fixed relationship relative to a location in the camera field of view if the object has moved more than a threshold distance from the location in the camera field of view, wherein an intersection of the x and y offsets defines the location in the camera field of view.
A key device comprising: a generally elongate shaft portion; and at least one magnetic key combination element disposed in said shaft portion which is rotatable about a rotation axis, wherein said at least one magnetic key combination element is configured in use to rotate and align with a magnetic plug element such that said at least one magnetic key combination element magnetically interacts with said magnetic plug element and brings said magnetic plug element to a shear line of a cylinder lock, characterized in that said rotation axis is not parallel to said elongate shaft portion. a generally elongate shaft portion; and at least one magnetic key combination element disposed in said shaft portion which is rotatable about a rotation axis, wherein said at least one magnetic key combination element is configured in use to rotate and align with a magnetic plug element such that said at least one magnetic key combination element magnetically interacts with said magnetic plug element and brings said magnetic plug element to a shear line of a cylinder lock, characterized in that said rotation axis is not parallel to said elongate shaft portion.
A method providing packet communications over a wireless channel between a radio network node and a wireless terminal, wherein the wireless terminal includes a jitter buffer configured to reduce jitter resulting from different delays of data packets received at the wireless terminal, the method comprising: emulating, (703, 705, 717, 707, 719), by the radio network node, operation of the jitter buffer for the wireless terminal responsive to data packet transmissions from the radio network node to the wireless terminal based on packet delivery information of the data packet transmissions from the radio network node to the wireless terminal; and responsive to emulating operation of the jitter buffer for the wireless terminal, providing, by the radio network node, a parameter of emulated operation of the jitter buffer including at least one of an emulated late packet loss occurrence, an emulated wireless terminal time scaling occurrence, an emulated jitter buffer fill level, and/or an emulated jitter buffer fill level threshold. emulating, (703, 705, 717, 707, 719), by the radio network node, operation of the jitter buffer for the wireless terminal responsive to data packet transmissions from the radio network node to the wireless terminal based on packet delivery information of the data packet transmissions from the radio network node to the wireless terminal; and responsive to emulating operation of the jitter buffer for the wireless terminal, providing, by the radio network node, a parameter of emulated operation of the jitter buffer including at least one of an emulated late packet loss occurrence, an emulated wireless terminal time scaling occurrence, an emulated jitter buffer fill level, and/or an emulated jitter buffer fill level threshold.
Method for obtaining capsules from a whey protein product, comprising the following steps: a) diluting the whey protein product in water, b) adding the following to the solution of step a): i. functional ingredients to be encapsulated which are capable to be dissolved or suspended in water, or ii. a solution of the ingredient to be encapsulated; characterised in that the method also comprises: c) electrospinning or electrospraying or blow spinning or blow spraying the solution produced in step b), wherein ∘ the electrospinning or electrospraying is carried out with a distance between the capillary and the support of between 2 and 50 cm, a deposition rate range per needle from 0.01 to 10 ml/h and a voltage of between 0.1 and 1000 kV, and ∘ the blow spinning or blow spraying is carried out with a distance between the capillary and the support of between 2 and 50 cm, a deposition rate range per needle from 0.01 to 10 ml/h and by applying a flow of pressurized gas at between 200 and 300 m/s. a) diluting the whey protein product in water, b) adding the following to the solution of step a): i. functional ingredients to be encapsulated which are capable to be dissolved or suspended in water, or ii. a solution of the ingredient to be encapsulated; characterised in that the method also comprises: i. functional ingredients to be encapsulated which are capable to be dissolved or suspended in water, or ii. a solution of the ingredient to be encapsulated; characterised in that the method also comprises: c) electrospinning or electrospraying or blow spinning or blow spraying the solution produced in step b), wherein ∘ the electrospinning or electrospraying is carried out with a distance between the capillary and the support of between 2 and 50 cm, a deposition rate range per needle from 0.01 to 10 ml/h and a voltage of between 0.1 and 1000 kV, and ∘ the blow spinning or blow spraying is carried out with a distance between the capillary and the support of between 2 and 50 cm, a deposition rate range per needle from 0.01 to 10 ml/h and by applying a flow of pressurized gas at between 200 and 300 m/s. ∘ the electrospinning or electrospraying is carried out with a distance between the capillary and the support of between 2 and 50 cm, a deposition rate range per needle from 0.01 to 10 ml/h and a voltage of between 0.1 and 1000 kV, and ∘ the blow spinning or blow spraying is carried out with a distance between the capillary and the support of between 2 and 50 cm, a deposition rate range per needle from 0.01 to 10 ml/h and by applying a flow of pressurized gas at between 200 and 300 m/s.
A biocompatible cationic nanogel comprising a polymer network, said polymer network consisting of polymer units interconnected with one another through a cross-linking agent, wherein said polymer network is obtainable by polymerizing N-vinylcaprolactam and a cross-linking agent in a dispersed medium, in the presence of a cationic initiator and a cationic or non-ionic emulsifier.
A component feeder comprising: a lift for elevating a selection of components from a bulk storage, and a pick surface adjacent to the lift for receiving the selection of components, characterized in that the component feeder comprises a spreader configured to give the selection of components a push for spreading the selection of components from the lift on the pick surface. a lift for elevating a selection of components from a bulk storage, and a pick surface adjacent to the lift for receiving the selection of components, characterized in that the component feeder comprises a spreader configured to give the selection of components a push for spreading the selection of components from the lift on the pick surface.
A method for stabilizing the potency of a LP2086 (fHBP) Subfamily B polypeptide in an immunogenic composition, said method comprising the step of (a) formulating the LP2086 (fHBP) Subfamily B polypeptide in a composition with a molar ratio of detergent to protein of between about 0.5:1 and about 10:1 wherein the composition further comprises aluminum at a concentration between about 0.1 mg/ml and about 1 mg/ml.
Method for generating a value inherent to an electronic circuit by means of measures of a physical quantity carried out on components of this electronic circuit, characterized in that it includes: - calculating and associating to each component at least one value derived from a series of measures (f 1, f 2,... f i) carried out on said component, the calculation of said value comprising: - determining a statistical value from said series of measures (f 1, f 2,... f i), - defining said value derived from the series of measures as being said statistical value or an uncertainty range calculated from this statistical value, - forming a collection of invariable pairs of components, - selecting, in said collection, pairs so that said values associated to the components of each one of these pairs are spaced from each other by at least a setpoint value (Vc), - generating said value inherent to the electronic circuit by concatenating the results of comparisons based on at least one of the following enumerations: - the values associated to the components of each selected pair, - data among which at least one is derived from these values, said results being processed in an invariable order like said values or data relative to these pairs during said comparisons. - calculating and associating to each component at least one value derived from a series of measures (f 1, f 2,... f i) carried out on said component, the calculation of said value comprising: - determining a statistical value from said series of measures (f 1, f 2,... f i), - defining said value derived from the series of measures as being said statistical value or an uncertainty range calculated from this statistical value, - determining a statistical value from said series of measures (f 1, f 2,... f i), - defining said value derived from the series of measures as being said statistical value or an uncertainty range calculated from this statistical value, - forming a collection of invariable pairs of components, - selecting, in said collection, pairs so that said values associated to the components of each one of these pairs are spaced from each other by at least a setpoint value (Vc), - generating said value inherent to the electronic circuit by concatenating the results of comparisons based on at least one of the following enumerations: - the values associated to the components of each selected pair, - data among which at least one is derived from these values, said results being processed in an invariable order like said values or data relative to these pairs during said comparisons. - the values associated to the components of each selected pair, - data among which at least one is derived from these values,
A paperboard structure comprising: a paperboard substrate having a first major surface and a second major surface; a barrier coating layer on the first major surface of the paperboard substrate; the barrier coating layer comprising a barrier coating binder and a barrier coating pigment at a first binder to pigment ratio of at least 1:2, by weight; a top coat on the surface of the barrier coating layer, the top coat (54; 54') comprising a top coat binder and a top coat pigment at a second binder to pigment ratio ranging from 1:1 to 1:10, by weight wherein the barrier coating layer is positioned between the paperboard substrate and the top coat; and a heat-sealable barrier coating layer on the second major surface of the paperboard substrate, wherein the heat-sealable barrier coating layer comprises binder and pigment. a paperboard substrate having a first major surface and a second major surface; a barrier coating layer on the first major surface of the paperboard substrate; the barrier coating layer comprising a barrier coating binder and a barrier coating pigment at a first binder to pigment ratio of at least 1:2, by weight; a top coat on the surface of the barrier coating layer, the top coat (54; 54') comprising a top coat binder and a top coat pigment at a second binder to pigment ratio ranging from 1:1 to 1:10, by weight wherein the barrier coating layer is positioned between the paperboard substrate and the top coat; and a heat-sealable barrier coating layer on the second major surface of the paperboard substrate, wherein the heat-sealable barrier coating layer comprises binder and pigment.
Conveyor work station comprising an endless conveyor chain adapted to carry product carriers in a hanging manner from a loading position to a release position, where the conveyor work station comprises an upper chain wheel driven by a motor, where the upper chain wheel is positioned at the release position, and further comprising a loading arrangement adapted to guide a product carrier to enter the conveyor chain at the loading position, where the loading position is positioned lower than the release position in a vertical direction, characterized in that the conveyor work station further comprises a guide track arranged between the upper chain wheel and the loading arrangement, where the guide track is adapted to support the conveyor chain, where the guide track comprises longitudinal guide channels adapted to guide protruding flanges of the conveyor chain, such that the conveyor chain is supported in the directions perpendicular to the travel direction of the conveyor chain, thereby allowing the conveyor chain to be pushed from the upper chain wheel to the loading arrangement, where the work station further comprises a link wheel which is adapted to support the conveyor chain at the lowermost position of the conveyor chain, where the link wheel is arranged in a foldable manner on a stand comprised in the conveyor work station, such that the link wheel can be pivoted to a position in which it guides the conveyor chain at its lowermost position.
An IgG antibody that binds human receptor tyrosine kinase FLT3, said antibody comprising a heavy chain and a light chain and an amino acid substitution in the constant region relative to a parent anti-FLT3 antibody, wherein said amino acid substitution comprises the amino acid substitutions S239D and I332E, wherein the positional numbering is according to the EU index.
A method for determining a status of an intermediate support of a dump body arrangement comprised in a working machine, the dump body arrangement comprising a support frame, a dump body for receiving a load and pivotally attached to the support frame at a rear pivot point, a hydraulic support for raising and lowering a front part of the dump body, wherein the intermediate support is arranged between the hydraulic support and the rear pivot point to support the dump body, characterised in that the method comprises the steps of: - receiving a signal indicating that the hydraulic support changes between a load-free state and a loaded state relative the dump body; - if the hydraulic support changes from the loaded state to the load-free state relative the dump body, determining (120,120a), when the hydraulic support is in the load-free state, an angle (α1) of the dump body relative the support frame; and/or - if the hydraulic support changes from the load-free state to the loaded state relative the dump body, determining (120, 120b), when the hydraulic support is in the loaded state, any one of an angle (α2) of the dump body relative the support frame and a hydraulic pressure (p) in the hydraulic support; and - determining the status of the intermediate support by comparing any one of the determined angles and the determined hydraulic pressure with a corresponding threshold. - receiving a signal indicating that the hydraulic support changes between a load-free state and a loaded state relative the dump body; - if the hydraulic support changes from the loaded state to the load-free state relative the dump body, determining (120,120a), when the hydraulic support is in the load-free state, an angle (α1) of the dump body relative the support frame; and/or - if the hydraulic support changes from the load-free state to the loaded state relative the dump body, determining (120, 120b), when the hydraulic support is in the loaded state, any one of an angle (α2) of the dump body relative the support frame and a hydraulic pressure (p) in the hydraulic support; and - determining the status of the intermediate support by comparing any one of the determined angles and the determined hydraulic pressure with a corresponding threshold.
Safety system for controlling a dangerous area of an excavation equipment provided with a guide antenna, as well as a rotary head coupled in a sliding manner on said guide antenna and arranged for supporting and moving an excavation battery, said dangerous area being delimited by a curve which develops at a predetermined distance from the excavation battery, said safety system being characterized in that it comprises: - at least one pair of portable sensors (8C', 8D', 8E', 8F; 8C'', 8D'', 8E'', 27) intended to be transported by the support personnel to said excavation equipment, wherein the two sensors (8C', 8D', 8E', 8F; 8C'', 8D'', 8E'', 27) of each pair of sensors are in communication with each other and at least one of said two sensors (8C', 8D', 8E', 8F; 8C'', 8D'', 8E'', 27) is capable of generating a signal further to the detection of the mutual presence of said two sensors (8C', 8D', 8E', 8F; 8C", 8D", 8E", 27); and - at least one receiving or individuation unit (8A, 10, 8B) operatively connected to said at least one pair of portable sensors (8C', 8D', 8E', 8F; 8C'', 8D'', 8E'', 27), said at least one receiving or individuation unit (8A, 10, 8B) being capable of receiving the signal emitted by at least one of said two sensors (8C', 8D', 8E', 8F; 8C", 8D", 8E", 27). - at least one pair of portable sensors (8C', 8D', 8E', 8F; 8C'', 8D'', 8E'', 27) intended to be transported by the support personnel to said excavation equipment, wherein the two sensors (8C', 8D', 8E', 8F; 8C'', 8D'', 8E'', 27) of each pair of sensors are in communication with each other and at least one of said two sensors (8C', 8D', 8E', 8F; 8C'', 8D'', 8E'', 27) is capable of generating a signal further to the detection of the mutual presence of said two sensors (8C', 8D', 8E', 8F; 8C", 8D", 8E", 27); and - at least one receiving or individuation unit (8A, 10, 8B) operatively connected to said at least one pair of portable sensors (8C', 8D', 8E', 8F; 8C'', 8D'', 8E'', 27), said at least one receiving or individuation unit (8A, 10, 8B) being capable of receiving the signal emitted by at least one of said two sensors (8C', 8D', 8E', 8F; 8C", 8D", 8E", 27).
A perovskite structure comprising: a first element X, strontium, iron, cobalt, oxygen and tungsten; wherein the first element X is barium and/or lanthanum and wherein the structure comprises a region of single perovskite and a region of double perovskite, which co-exist as a mixture within the perovskite structure; and wherein the molar percentage of tungsten is in the range of 5 - 10%.
Axially split inner ring for a turbomachine, for fastening to guide vanes of the turbomachine, the inner ring comprising at least a first ring segment arranged upstream and a second ring segment arranged downstream, and the first ring segment being detachably connected to the second ring segment by means of at least one fastening element, characterized in that - either the first ring segment or the second ring segment is connected to at least one sealing segment, and - the inner ring comprises a securing element for securing the fastening element, the securing element being connected to the first ring segment and/or to the second ring segment, and the securing element being arranged separately from the fastening element. - either the first ring segment or the second ring segment is connected to at least one sealing segment, and - the inner ring comprises a securing element for securing the fastening element, the securing element being connected to the first ring segment and/or to the second ring segment, and the securing element being arranged separately from the fastening element.
Use of iron particles as a decomposer for an organohalogen compound, the iron particles consisting of iron and iron oxide, wherein the iron particles have a value of 15% or more by mass as a metallic iron content in the outermost surface layer of the iron particles after ion beam etching has been applied to said iron particles twice under the following etching conditions: degree of vacuum in a chamber: 2.0 × 10 -2 Pa accelerating voltage of an ion gun: 10 kV emission current: 10 mA etching time: 14 seconds; and wherein the iron particles have a peak intensity ratio (I 2 /I 1) of 0.2 or more in the XRD pattern wherein I 1 is an intensity of the peak for plane and I 2 is an intensity of the peak for plane, and wherein the iron particles are produced by a method comprising the steps of: subjecting iron powder to wet treatment in a pot of a ball mill containing a liquid medium; washing the wet treated iron powder with an alcohol; and drying the washed iron powder at a temperature of 30°C or lower to obtain iron particles. degree of vacuum in a chamber: 2.0 × 10 -2 Pa accelerating voltage of an ion gun: 10 kV emission current: 10 mA etching time: 14 seconds; and wherein the iron particles have a peak intensity ratio (I 2 /I 1) of 0.2 or more in the XRD pattern wherein I 1 is an intensity of the peak for plane and I 2 is an intensity of the peak for plane, and wherein the iron particles are produced by a method comprising the steps of: subjecting iron powder to wet treatment in a pot of a ball mill containing a liquid medium; washing the wet treated iron powder with an alcohol; and drying the washed iron powder at a temperature of 30°C or lower to obtain iron particles.