mhurhangee/ep-ind-claims huggingface dataset:
Method for detecting redundant messages in a message stream having a maximum length L that is known and measured in terms of number of characters by means of a server of a telecommunication network, characterized in that it comprises the following steps: - storage by the server of N messages during a first time window of predetermined duration, - concatenation by the server of the N messages, - search by the server for repetitive patterns on the concatenation produced by means of the step of searching for repetitive patterns of the LZW compression algorithm, - updating by the server of a dictionary of patterns from the result of the search for repetitive patterns on the concatenation produced, each pattern being associated with a frequency of appearance in the result of the concatenation, - marking by the server of the messages comprising a pattern from the dictionary of patterns whose length is greater than a threshold S and whose frequency of appearance is greater than a threshold F. - storage by the server of N messages during a first time window of predetermined duration, - concatenation by the server of the N messages, - search by the server for repetitive patterns on the concatenation produced by means of the step of searching for repetitive patterns of the LZW compression algorithm, - updating by the server of a dictionary of patterns from the result of the search for repetitive patterns on the concatenation produced, each pattern being associated with a frequency of appearance in the result of the concatenation, - marking by the server of the messages comprising a pattern from the dictionary of patterns whose length is greater than a threshold S and whose frequency of appearance is greater than a threshold F.
Dental implant comprising an implant surface having at least partially a contact angle of less than 20°, said implant surface being at least partially covered with a protective layer comprising a keratin hydrolyzate wherein said protective layer has a water content of less than 10% by weight.
A method of operating a slave device (110, 120, 130) connected to a CANopen network, the method comprising: creating a process data object for transmission; designating identifier information for the process data object; and transmitting the created process data object to a device corresponding to the designated identifier information, wherein the identifier information includes a communication object identifier allowing another slave device (110, 120, 130) or a master device connected to the CANopen network to receive the process data object, wherein a communication object identifier for the master device is identical to a communication object identifier for the another slave device (110, 120, 130). wherein the communication object identifier for each of a first and a second programmable logic controller slave devices (110, 120, 130) is allocated in a setting mode, and the communication object identifier is allocated through one of a first scheme, which a sequential allocation scheme, and a second scheme of allowing a user to randomly allocate the communication object identifier in a specific range. creating a process data object for transmission; designating identifier information for the process data object; and transmitting the created process data object to a device corresponding to the designated identifier information, wherein the identifier information includes a communication object identifier allowing another slave device (110, 120, 130) or a master device connected to the CANopen network to receive the process data object, wherein a communication object identifier for the master device is identical to a communication object identifier for the another slave device (110, 120, 130). wherein the communication object identifier for each of a first and a second programmable logic controller slave devices (110, 120, 130) is allocated in a setting mode, and the communication object identifier is allocated through one of a first scheme, which a sequential allocation scheme, and a second scheme of allowing a user to randomly allocate the communication object identifier in a specific range.
Temperature probe comprising at least two sensor tines, each sensor tine comprising multiple surface acoustic wave temperature sensors, wherein the at least two sensor tines being fixedly interconnected at respective tine ends and arranged side by side to each other in parallel orientation, and wherein, with regard to the lengthwise direction of the sensor tines, - the surface acoustic wave temperature sensors of each sensor tine are arranged in an array, and - the surface acoustic wave temperature sensors of different sensor tines are positioned at alternating locations. - the surface acoustic wave temperature sensors of each sensor tine are arranged in an array, and - the surface acoustic wave temperature sensors of different sensor tines are positioned at alternating locations.
An in vitro method for screening a substance that affects gelatinase-mediated Eph receptor A4 cleavage, which comprises the steps of: (a) allowing a first biological composition containing gelatinase to be contacted with a second biological composition containing EphA4 in the presence and absence of a candidate substance; (b) measuring the presence or amount of the EphA4 ectodomain and/or endodomain fragment; and (c) selecting the candidate substance as a substance that affects gelatinase-mediated EphA4 cleavage if the results of the step (b) measured in the presence of the candidate substance are changed in comparison with the results of the step (b) measured in the absence of the candidate substance. (a) allowing a first biological composition containing gelatinase to be contacted with a second biological composition containing EphA4 in the presence and absence of a candidate substance; (b) measuring the presence or amount of the EphA4 ectodomain and/or endodomain fragment; and (c) selecting the candidate substance as a substance that affects gelatinase-mediated EphA4 cleavage if the results of the step (b) measured in the presence of the candidate substance are changed in comparison with the results of the step (b) measured in the absence of the candidate substance.
A method for determining a through-flow quantity in a fluid delivery system, in which a fluid is delivered by a pump, the pump comprising an electromotor and the electromotor being operated at a first speed (n 1) when said electromotor is in operation and the through-flow quantity being determined from a measured motor power and the speed (n), said method comprising: - increasing the first speed (n 1) to a second speed (n 2) which is greater than the first speed (n 1); - determining a second through-flow quantity (Q(n 2)) at the second speed (n 2) from the motor power (P(n 2)) and the second speed (n 2); - determining a third through-flow quantity (Q ∗ (n 1)) from the second through-flow quantity (Q(n 2)) by extrapolation of the second speed (n 2) to the first speed (n 1) in accordance with a known relationship between the through-flow quantity and the speed (n), wherein the third through-flow quantity (Q ∗ (n 1)) is the target variable; and, - once the second through-flow quantity (Q(n 2) has been determined, reducing the speed (n) back to the first speed (n 1). - increasing the first speed (n 1) to a second speed (n 2) which is greater than the first speed (n 1); - determining a second through-flow quantity (Q(n 2)) at the second speed (n 2) from the motor power (P(n 2)) and the second speed (n 2); - determining a third through-flow quantity (Q ∗ (n 1)) from the second through-flow quantity (Q(n 2)) by extrapolation of the second speed (n 2) to the first speed (n 1) in accordance with a known relationship between the through-flow quantity and the speed (n), wherein the third through-flow quantity (Q ∗ (n 1)) is the target variable; and, - once the second through-flow quantity (Q(n 2) has been determined, reducing the speed (n) back to the first speed (n 1).
A frozen confectionery product comprising a core of a frozen confection, which is at least partially coated with a gel coating, characterized in that the gel coating has a layer of frozen liquid on the surface of the gel coating that originates from syneresis of the gel, and wherein the gel coating has a total solid content from 20 to 45% based on weight of the gel (wt) and comprises 0.2 to 2 % wt of a gelling agent and konjac, in an amount from 0.1 to 1.0% wt. and wherein the at least one gel layer comprises konjac and carrageenan in a ratio which is in the range from 3:7 to 7:3, and wherein the gel coating or gel coatings has/have a thickness of between 2 and 5 mm, and wherein the frozen confectionery product comprises one or more additional gel coating(s) on top of or beneath the gel coating, which additional gel coatings at least partly overlaps the other gel coating.
A method of plasma etching an additive-containing aluminium nitride film comprising plasma etching an additive-containing aluminium nitride film containing an additive element selected from Sc, Y or Er through a mask for a period of time, t, with a plasma formed in a gaseous atmosphere having an associated gas pressure while a RF bias power is applied to the additive-containing aluminium nitride film; wherein the gas pressure is reduced and/or the RF bias power is increased for a majority of the period of time t, so that the plasma etching becomes less chemical and more physical over a majority of the period of time, t.
A semiconductor device comprising: a voltage-controlled type semiconductor element connected to a primary side of an ignition coil for supplying a voltage to an ignition device of an internal combustion engine; a first resistor and a second resistor inserted in series in a supplying path of an input signal for controlling a gate of the voltage-controlled type semiconductor element; a current control circuit for controlling current flowing through the voltage-controlled type semiconductor element; a second by-pass forming element that is connected in parallel to the first resistor and the second resistor and by-passes the first resistor and the second resistor in a turning OFF process of the voltage-controlled type semiconductor element; wherein the current control circuit includes an active element that is connected to a node between the first resistor and the second resistor and pulls down a gate voltage characterized by a first by-pass forming element that is connected in parallel to the second resistor and by-passes the second resistor in a turning ON process of the voltage-controlled type semiconductor element. a voltage-controlled type semiconductor element connected to a primary side of an ignition coil for supplying a voltage to an ignition device of an internal combustion engine; a first resistor and a second resistor inserted in series in a supplying path of an input signal for controlling a gate of the voltage-controlled type semiconductor element; a current control circuit for controlling current flowing through the voltage-controlled type semiconductor element; a second by-pass forming element that is connected in parallel to the first resistor and the second resistor and by-passes the first resistor and the second resistor in a turning OFF process of the voltage-controlled type semiconductor element;
A method in a wireless device, the method comprising: identifying a set of wireless devices performing Device-to-Device D2D data communication or D2D discovery; identifying a set of Device-to-Device Synchronization Signals D2DSS transmitted by the identified wireless devices performing D2D data communication or D2D discovery; measuring power of a D2DSS from the identified set of D2DSS; and performing a D2D operation using the measured power of the D2DSS. identifying a set of wireless devices performing Device-to-Device D2D data communication or D2D discovery; identifying a set of Device-to-Device Synchronization Signals D2DSS transmitted by the identified wireless devices performing D2D data communication or D2D discovery; measuring power of a D2DSS from the identified set of D2DSS; and performing a D2D operation using the measured power of the D2DSS.
In vitro use of an immunologically reactive microbial transglutaminase for diagnosis and/or monitoring of the treatment of celiac disease or sprue as well as gluten sensitivity, characterized in that an immunologically reactive complex formed from the microbial transglutaminase or parts thereof and gliadin or partial peptides thereof is used for detection of antibodies from a sample and these antibodies are detectable even before antibodies produced against a complex of tissue transglutaminase and gliadin are detectable.
A mount for a shaped strip, in particular a code rail, wherein the mount has activatable and/or operable means, in particular claws, for force-locked connection to a bearer part, in particular a C-hook, characterized in that the mount has means, in particular lugs, for form-locked connection to the shaped strip, wherein the mount has an impact surface for activation and/or operation of the means for force-locked connection.
Computer-implemented method for determining a local deviation of a geometry of an object from a target geometry of the object from a digital representation of the object, wherein the object representation comprises a plurality of items of image information of the object, wherein an item of image information indicates a value of a measured variable for the object at a defined position of the object, wherein the method comprises the following steps: • ascertaining the object representation, • ascertaining a distance field from the items of image information of the object representation, wherein the distance field comprises a plurality of distance values, wherein a distance value for a specific point of the distance field specifies the shortest spacing of the point to a closest material boundary surface of the geometry of the object, • ascertaining the target geometry of the object, wherein the target geometry of the object is predetermined by a user input and/or the target geometry of the object is ascertained from a CAD file, • registering the target geometry of the object on the material boundary surfaces of the geometry of the object specified by the distance values, and • ascertaining the local deviation of the geometry of the object from the target geometry of the object at a test point on a material boundary surface predetermined by the target geometry by reading out the distance value of the distance field at the position of the test point. • ascertaining the object representation, • ascertaining a distance field from the items of image information of the object representation, wherein the distance field comprises a plurality of distance values, wherein a distance value for a specific point of the distance field specifies the shortest spacing of the point to a closest material boundary surface of the geometry of the object, • ascertaining the target geometry of the object, wherein the target geometry of the object is predetermined by a user input and/or the target geometry of the object is ascertained from a CAD file, • registering the target geometry of the object on the material boundary surfaces of the geometry of the object specified by the distance values, and • ascertaining the local deviation of the geometry of the object from the target geometry of the object at a test point on a material boundary surface predetermined by the target geometry by reading out the distance value of the distance field at the position of the test point.
Measurement device for determining the topology of a surface of a bulk material stored in a container, comprising: an antenna arrangement for emitting a transmission signal in a primary radiation direction of the antenna arrangement and for receiving the transmission signal reflected at least on a surface of the bulk material; an echo curve generating unit for generating an echo curve, which corresponds to the signal strength of the reflected transmission signal over a distance measurement range of the measurement device, from the transmission signal which is reflected and received by the antenna arrangement; a positioning device (1307, 1308) for changing the primary radiation direction of the antenna arrangement, in such a way that a series of echo curves can be generated in different primary radiation directions; wherein the positioning device comprises a control system which is configured to change the primary radiation direction of the antenna arrangement so as to minimise the number of generated echo curves in the series of echo curves which cannot be used for determining the topology; characterized in that the control system is configured to determine a maximum angle of the primary radiation direction of the antenna arrangement as a function of the fill level most recently determined by the measurement device. an antenna arrangement for emitting a transmission signal in a primary radiation direction of the antenna arrangement and for receiving the transmission signal reflected at least on a surface of the bulk material; an echo curve generating unit for generating an echo curve, which corresponds to the signal strength of the reflected transmission signal over a distance measurement range of the measurement device, from the transmission signal which is reflected and received by the antenna arrangement; a positioning device (1307, 1308) for changing the primary radiation direction of the antenna arrangement, in such a way that a series of echo curves can be generated in different primary radiation directions; wherein the positioning device comprises a control system which is configured to change the primary radiation direction of the antenna arrangement so as to minimise the number of generated echo curves in the series of echo curves which cannot be used for determining the topology; characterized in that the control system is configured to determine a maximum angle of the primary radiation direction of the antenna arrangement as a function of the fill level most recently determined by the measurement device.
A capsule medical apparatus (1; 1a; 1b), comprising a capsule housing having a protruded portion (lp) on a longitudinal axis at one end of the capsule housing, wherein the protruded portion (lp) is formed so that an outer surface of the protruded portion (lp) intersects perpendicularly with a first straight line, the first straight line substantially intersects with a second straight line (lvm) connecting a center of buoyancy (Pv) and a center of gravity (Pm) when the capsule housing is in liquid in a body cavity, and the first straight line and the second straight line (lvm) substantially intersect at a point (Pf) where buoyant moment produced by buoyancy acting on the center of buoyancy and gravitational moment produced by gravity acting on the center of gravity are substantially balanced, wherein the capsule medical apparatus (1; 1a; 1b) is in point contact (Pp) with a body cavity inner wall surface at an intersection of the first straight line that intersects perpendicularly with the outer surface of the protruded portion (lp) and the protruded portion (lp), wherein either the point (Pf) at which the moments are balanced is positioned on a line between the point contact (Pp) and a center of curvature (Pc) of the protruded portion (lp) at the point contact (Pp) in a plane including the point (Pf) at which the moments are balanced, the point contract (Pp), and the center of buoyancy (Pv), or the point contract (Pp) is positioned on a line between the point (Pf) at which the moments are balanced and the center of curvature (Pc).
An LLC circuit having output terminals for supplying an LED load, comprising: - a half-bridge or full-bridge circuit having two switches (202, 203) in series, wherein the switches (202, 203) are alternatingly switched on with respective switch-on time periods TON1, TON2 which respectively depend on a designed duty-cycle value, - a transformer, and - a control circuit configured to control the switch-on time period TON1 of the first switch and the switch-on time period TON2 of the second switch in each cycle to at least reduce any asymmetry of two successive voltage cycles at a secondary side of the transformer, characterized in that LLC control circuit comprises a lookup table, which contains in one column the LED voltage and in another column the designed duty-cycle value, the LLC control circuit being configured to set an appropriate/designed duty-cycle value based on the LED load voltage; the lookup table of the LLC control circuit further comprising respective switch-on time periods TON1, TON2 of switches and, and the LLC control circuit being further configured to set, if an asymmetry is detected, the degree of asymmetry of the switch-on time periods TON1, TON2 in a feed-forward approach wherein the switching frequency is constant, using a feedback signal representing the voltage of the LED load; whereby the LLC control circuit is configured to change the duty-cycle as first, and, if the asymmetry cannot be solved by changing the duty-cycle, to change the switch-on times TON1 and TON2. - a half-bridge or full-bridge circuit having two switches (202, 203) in series, wherein the switches (202, 203) are alternatingly switched on with respective switch-on time periods TON1, TON2 which respectively depend on a designed duty-cycle value, - a transformer, and - a control circuit configured to control the switch-on time period TON1 of the first switch and the switch-on time period TON2 of the second switch in each cycle to at least reduce any asymmetry of two successive voltage cycles at a secondary side of the transformer, LLC control circuit comprises a lookup table, which contains in one column the LED voltage and in another column the designed duty-cycle value, the LLC control circuit being configured to set an appropriate/designed duty-cycle value based on the LED load voltage; the lookup table of the LLC control circuit further comprising respective switch-on time periods TON1, TON2 of switches and, and the LLC control circuit being further configured to set, if an asymmetry is detected, the degree of asymmetry of the switch-on time periods TON1, TON2 in a feed-forward approach wherein the switching frequency is constant, using a feedback signal representing the voltage of the LED load; whereby the LLC control circuit is configured to change the duty-cycle as first, and, if the asymmetry cannot be solved by changing the duty-cycle, to change the switch-on times TON1 and TON2.