mhurhangee/ep-ind-claims huggingface dataset:
A device for preparing optionally cold or warm milk froth or for dispensing optionally cold or warm milk, comprising a milk container that can be removed from the device, a milk inlet which connects the milk container via a milk valve channel to a cold-frothing device that can be activated via an air valve channel, an outlet line arranged downstream from the cold-frothing device, with an outlet and, as needed, optionally activatable means for heating the milk froth prepared in the cold-frothing device or the milk flowing through the cold-frothing device, characterised in that the milk container can be inserted in a guided manner into the device and has on its bottom a milk plug valve, in that a complementary milk plug valve receptacle that is firmly arranged in the device is embodied as a milk inlet directly at the milk valve channel such that, upon insertion of the milk container, the milk plug valve can be plugged into the complementary milk plug valve receptacle and can be locked therein.
A method, comprising: providing a test element configured for analyzing a first analyte being a ketone and a second analyte being glucose in a sample; contacting the test element with the sample; determining concentration of the second analyte in the sample and automatically providing an indication related to the concentration of the second analyte after performing the test; determining concentration of the first analyte in the sample, and (i) providing an indication related to concentration of the first analyte in response to determining the first analyte concentration is above a predetermined value and therefore not acceptable; and/or (ii) performing a plurality of tests to determine concentrations of said first and second analytes in samples from said subject, wherein each of the tests includes applying the sample to a test element configured for analyzing the first and second analytes in the sample; storing the first analyte concentration determined from each test performed; analyzing the stored concentrations of the first analyte to monitor for an existence of an upwardly increasing trend in the stored concentrations toward a predetermined value; and providing a first indication in response to detecting the existence of the trend. providing a test element configured for analyzing a first analyte being a ketone and a second analyte being glucose in a sample; contacting the test element with the sample; determining concentration of the second analyte in the sample and automatically providing an indication related to the concentration of the second analyte after performing the test; determining concentration of the first analyte in the sample, and (i) providing an indication related to concentration of the first analyte in response to determining the first analyte concentration is above a predetermined value and therefore not acceptable; and/or (ii) performing a plurality of tests to determine concentrations of said first and second analytes in samples from said subject, wherein each of the tests includes applying the sample to a test element configured for analyzing the first and second analytes in the sample; (i) providing an indication related to concentration of the first analyte in response to determining the first analyte concentration is above a predetermined value and therefore not acceptable; and/or (ii) performing a plurality of tests to determine concentrations of said first and second analytes in samples from said subject, wherein each of the tests includes applying the sample to a test element configured for analyzing the first and second analytes in the sample; storing the first analyte concentration determined from each test performed; analyzing the stored concentrations of the first analyte to monitor for an existence of an upwardly increasing trend in the stored concentrations toward a predetermined value; and providing a first indication in response to detecting the existence of the trend.
A control method of a lawn mower robot being configured to be operated in a work area defined by a boundary indication unit, comprising: sensing whether or not an obstacle is present during driving at a normal velocity; characterized by: decelerating the lawn mower robot, when the obstacle is sensed, to different velocities according to a distance between the obstacle and the lawn mower robot; sensing whether or not the lawn mower robot collides with the obstacle in the decelerated state; and driving differently the lawn mower robot between if a collision of the lawn mower robot with the obstacle is sensed and if a collision of the lawn mower robot with the obstacle is not sensed. sensing whether or not an obstacle is present during driving at a normal velocity; characterized by: decelerating the lawn mower robot, when the obstacle is sensed, to different velocities according to a distance between the obstacle and the lawn mower robot; sensing whether or not the lawn mower robot collides with the obstacle in the decelerated state; and driving differently the lawn mower robot between if a collision of the lawn mower robot with the obstacle is sensed and if a collision of the lawn mower robot with the obstacle is not sensed. decelerating the lawn mower robot, when the obstacle is sensed, to different velocities according to a distance between the obstacle and the lawn mower robot; sensing whether or not the lawn mower robot collides with the obstacle in the decelerated state; and driving differently the lawn mower robot between if a collision of the lawn mower robot with the obstacle is sensed and if a collision of the lawn mower robot with the obstacle is not sensed.
A method in a network device, comprising: - receiving a random access request message from a terminal device; and - transmitting to the terminal device a Random Access Response, RAR, message in response to the random access request message, wherein the RAR message has a format dependent on a type of the random access request message, characterized in that the RAR message includes an RAR Service Data Unit, SDU, and a Medium Access Control, MAC, sub-header, wherein the MAC sub-header contains a type indicator indicating the format of the RAR SDU and wherein the RAR SDU has a first format including a Timing Advance, TA, command field, an uplink, UL, grant field, and a temporary Cell-Radio Network Temporary Identifier, C-RNTI, field when the random access request message is for initial access; or the RAR message includes an RAR Service Data Unit, SDU, and a Medium Access Control, MAC, sub-header, wherein the MAC sub-header contains a type indicator indicating the format of the RAR SDU, and wherein the RAR SDU has a second format including the TA command field when the random access request message is for intra-cell beam switch or contention-free access for a secondary carrier in a Carrier Aggregation, CA, configuration; or the RAR message includes an RAR Service Data Unit, SDU, and a Medium Access Control, MAC, sub-header, wherein the MAC sub-header contains a type indicator indicating the format of the RAR SDU, and wherein the RAR SDU has a third format including the TA command field and the UL grant field when the random access request message is for contention-free handover. - receiving a random access request message from a terminal device; and - transmitting to the terminal device a Random Access Response, RAR, message in response to the random access request message, wherein the RAR message has a format dependent on a type of the random access request message,
Blind rivet (2, 34) for connecting workpieces (4a, 4b), comprising a hollow, deformable rivet body with a support collar and an adjoining sleeve, a rivet mandrel arranged in the sleeve and extending through the support collar with a tool receiving head, and at least one sealing ring, wherein the at least one sealing ring is arranged between the support collar and the tool receiving head, wherein the at least one sealing ring consists of a hardenable and not completely hardened sealing material, wherein the at least one sealing ring is arranged so that when the blind rivet (2, 34) contracts, it is pressed axially towards the support collar by a tool that can be connected to the tool receiving head or by a section of the rivet mandrel, and wherein the at least one sealing ring is designed to flow radially and axially into gaps and spaces on the support collar and between the support collar and the workpieces (4a, 4b) when the sealing ring is pressed and to adhere there. a rivet mandrel arranged in the sleeve and extending through the support collar with a tool receiving head, and at least one sealing ring, wherein the at least one sealing ring is arranged between the support collar and the tool receiving head, wherein the at least one sealing ring consists of a hardenable and not completely hardened sealing material, wherein the at least one sealing ring is arranged so that when the blind rivet (2, 34) contracts, it is pressed axially towards the support collar by a tool that can be connected to the tool receiving head or by a section of the rivet mandrel, and wherein the at least one sealing ring is designed to flow radially and axially into gaps and spaces on the support collar and between the support collar and the workpieces (4a, 4b) when the sealing ring is pressed and to adhere there.
A spark plug comprising: a center electrode extending along an axis from front to rear; a cylindrical insulator (40; 90) having formed therein along the axis an axial hole (41; 91) in which the center electrode is arranged, the insulator (40; 90) including a step portion formed on an outer circumferential surface thereof and having a diameter increasing from a front end side to a rear end side; a cylindrical metal shell arranged radially outside the insulator (40; 90), the metal shell including a shelf portion formed on an inner circumferential surface thereof and facing the step portion in a direction of the axis; and a ground electrode joined to the metal shell and facing the center electrode, wherein the insulator (40; 90) includes a front end portion (45; 92) located frontward of the step portion, wherein an outer circumferential surface (45b; 93) of the front end portion (45; 92) has an arithmetic average roughness of 0.5 μm or smaller in a circumferential direction, characterized in that a recess (53; 96) is formed with a depth of 3 to 20 μm in at least a part of an end surface and the outer circumferential surface (45b; 93) of the insulator (40; 90) so as to extend from the front toward the rear. a center electrode extending along an axis from front to rear; a cylindrical insulator (40; 90) having formed therein along the axis an axial hole (41; 91) in which the center electrode is arranged, the insulator (40; 90) including a step portion formed on an outer circumferential surface thereof and having a diameter increasing from a front end side to a rear end side; a cylindrical metal shell arranged radially outside the insulator (40; 90), the metal shell including a shelf portion formed on an inner circumferential surface thereof and facing the step portion in a direction of the axis; and a ground electrode joined to the metal shell and facing the center electrode, wherein the insulator (40; 90) includes a front end portion (45; 92) located frontward of the step portion, wherein an outer circumferential surface (45b; 93) of the front end portion (45; 92) has an arithmetic average roughness of 0.5 μm or smaller in a circumferential direction, characterized in that a recess (53; 96) is formed with a depth of 3 to 20 μm in at least a part of an end surface and the outer circumferential surface (45b; 93) of the insulator (40; 90) so as to extend from the front toward the rear.
A method for route guidance of traffic participants, wherein the traffic participants have assigned to them electronic terminals for route guidance, saif method comprising the following steps: - via the electronic terminals, individual route requests or routes are generated from the traffic participants and transmitted to a computer unit, - in the computer unit based on the individual route requests individual route guidances are calculated for the respective terminals and provided to the respective terminals, - these calculated individual route guidances and the routes are compared in the computer unit with data from an extended collective traffic model accessed by the computer unit, - wherein the calculated individual route guidances of all route requests and all routes that have been generated and transmitted to the computer unit, are integrated into a collective traffic model thereby generating the extended collective traffic model, - in the computer unit, the extended collective traffic model is evaluated for detecting a disturbance or the risk of disturbance on the individual route guidance or the route of each traffic participant, - and if a particular event is detected on the individual route guidance or the route of a traffic participant, at least one alternative information to the calculated individual route guidance or to the route is generated in the computer unit and transmitted to the electronic terminal of the traffic participant. - via the electronic terminals, individual route requests or routes are generated from the traffic participants and transmitted to a computer unit, - in the computer unit based on the individual route requests individual route guidances are calculated for the respective terminals and provided to the respective terminals, - these calculated individual route guidances and the routes are compared in the computer unit with data from an extended collective traffic model accessed by the computer unit, - wherein the calculated individual route guidances of all route requests and all routes that have been generated and transmitted to the computer unit, are integrated into a collective traffic model thereby generating the extended collective traffic model, - in the computer unit, the extended collective traffic model is evaluated for detecting a disturbance or the risk of disturbance on the individual route guidance or the route of each traffic participant, - and if a particular event is detected on the individual route guidance or the route of a traffic participant, at least one alternative information to the calculated individual route guidance or to the route is generated in the computer unit and transmitted to the electronic terminal of the traffic participant.
A method for an optical network termination, ONT, of transferring a message to a host device, wherein the ONT and the host device are connected to form a combined ONT-host unit, and the message comprises information related to an ONT Management and Control Interface, OMCI, configuration of the ONT-host unit, the ONT is provided with a memory being shared by the ONT and the host device, and therefore being accessible also to the host device, the memory comprising a lock registry, characterized in that the method comprises: - determining, by reading the lock registry, if the memory is available; - locking the memory to the host device, by writing in the lock registry, when determining that the memory is available; - writing the message in the memory; and - storing a value, indicating availability of the message from the ONT for the host device, in the lock registry of the memory. - determining, by reading the lock registry, if the memory is available; - locking the memory to the host device, by writing in the lock registry, when determining that the memory is available; - writing the message in the memory; and - storing a value, indicating availability of the message from the ONT for the host device, in the lock registry of the memory.
Method for producing an immunoglobulin or immunoglobulin fragment or fusion polypeptide with G1 glycostructure comprising the following steps: - incubating an affinity chromatography column eluate containing the immunoglobulin or immunoglobulin fragment or fusion polypeptide with a galactosyltransferase, - incubating the galactosyltransferase reaction product with a sialyltransferase, - incubating the sialyltransferase reaction product with a beta-1,4-galactosidase, - removing or inactivating the beta-1,4-galactosidase, and - incubating the beta-1,4-galactosidase reaction product, in which the beta-1,4-galactosidase has been removed or inactivated, with a sialidase and thereby producing an immunoglobulin or immunoglobulin fragment or fusion polypeptide with G1 glycostructure. - incubating an affinity chromatography column eluate containing the immunoglobulin or immunoglobulin fragment or fusion polypeptide with a galactosyltransferase, - incubating the galactosyltransferase reaction product with a sialyltransferase, - incubating the sialyltransferase reaction product with a beta-1,4-galactosidase, - removing or inactivating the beta-1,4-galactosidase, and - incubating the beta-1,4-galactosidase reaction product, in which the beta-1,4-galactosidase has been removed or inactivated, with a sialidase and thereby producing an immunoglobulin or immunoglobulin fragment or fusion polypeptide with G1 glycostructure.
A reactor for degumming oil in the absence of cavitation, the reactor comprising: a housing having a flow path, the flow path having a surface and the flow path comprising an upstream portion for receiving oil and a downstream portion for receiving processed oil; an annular obstruction attached to the surface of the flow path for reducing the cross-sectional area of the flow path, the obstruction having an opening; a frusto-conical body or a portion thereof positioned in the opening of the annular obstruction, the frusto-conical body having a surface and being positioned along the centerline of the flow path of the housing; the annular obstruction having two or more circumferential spacers in series positioned around the surface of the frusto-conical body; and the two or more circumferential spacers in series positioned around the surface of the frusto-conical body form ring gaps around the surface of the frusto-conical body, wherein the cross-sectional area of each ring gap (Ax) is less than that of the next downstream ring gap (Ax+1) according to the following equation: 1.2≤Ax+1/Ax ≤ 1.4, where x=1, 2, 3, and wherein the radial length of the ring gap is selected so that the ratio between a ring gap radial length and the next downstream ring gap radial length is in the range from 1.08 to 1.27, the ring gap radial length being the minimal distance between an innermost tip of a circumferential spacer and the surface of the frusto-conical body. a housing having a flow path, the flow path having a surface and the flow path comprising an upstream portion for receiving oil and a downstream portion for receiving processed oil; an annular obstruction attached to the surface of the flow path for reducing the cross-sectional area of the flow path, the obstruction having an opening; a frusto-conical body or a portion thereof positioned in the opening of the annular obstruction, the frusto-conical body having a surface and being positioned along the centerline of the flow path of the housing; the annular obstruction having two or more circumferential spacers in series positioned around the surface of the frusto-conical body; and the two or more circumferential spacers in series positioned around the surface of the frusto-conical body form ring gaps around the surface of the frusto-conical body, wherein the cross-sectional area of each ring gap (Ax) is less than that of the next downstream ring gap (Ax+1) according to the following equation: 1.2≤Ax+1/Ax ≤ 1.4, where x=1, 2, 3, and wherein the radial length of the ring gap is selected so that the ratio between a ring gap radial length and the next downstream ring gap radial length is in the range from 1.08 to 1.27, the ring gap radial length being the minimal distance between an innermost tip of a circumferential spacer and the surface of the frusto-conical body.
A stationary blade for a steam turbine, comprising: - a main unit portion made of a metal plate formed by plastic deformation having a hollow blade structure; and - a blade tail section (8,9) including a blade trailing edge, and joined to the main unit portion; wherein the main unit portion has a protrusion formed of a portion of the metal plate on a suction-side surface of the main unit portion that extends towards the blade trailing edge; the blade tail section (8, 9) has a pressure-side surface and a suction side surface; the blade tail section (8, 9) has an upper portion and a lower portion; the blade tail section (8, 9) has a recess formed in the upper portion of the suction-side surface of the blade tail section (8, 9); the blade tail section (8, 9) has a slit (25, 26) leading from the pressure-side surface of the blade tail section (8, 9) to the recess; and the recess is covered by the protrusion of the main unit portion. - a main unit portion made of a metal plate formed by plastic deformation having a hollow blade structure; and - a blade tail section (8,9) including a blade trailing edge, and joined to the main unit portion;
A system for focusing an ultrasound transducer, the system comprising: an ultrasound transducer comprising a plurality of transducer elements for providing sonications to at least one target region; and a controller configured to: (a) cause the transducer to generate a plurality of sonications to the at least one target region; (b) measure reflection signals of each of the sonications off at least one transient acoustic reflector (202, 426, 428) located in proximity to the at least one target region; characterized in that the controller is further configured to: (c) select the measured reflection signals based on at least one of (i) a comparison of the reflection signals from two consecutive measurements, or (ii) consistency between the reflection signals, and (d) based at least in part on the selected reflection signals, adjust a parameter value associated with at least one of the transducer elements so as to improve an ultrasound focus at the target region. an ultrasound transducer comprising a plurality of transducer elements for providing sonications to at least one target region; and a controller configured to: (a) cause the transducer to generate a plurality of sonications to the at least one target region; (b) measure reflection signals of each of the sonications off at least one transient acoustic reflector (202, 426, 428) located in proximity to the at least one target region; (a) cause the transducer to generate a plurality of sonications to the at least one target region; (b) measure reflection signals of each of the sonications off at least one transient acoustic reflector (202, 426, 428) located in proximity to the at least one target region; characterized in that the controller is further configured to: (c) select the measured reflection signals based on at least one of (i) a comparison of the reflection signals from two consecutive measurements, or (ii) consistency between the reflection signals, and (d) based at least in part on the selected reflection signals, adjust a parameter value associated with at least one of the transducer elements so as to improve an ultrasound focus at the target region. (c) select the measured reflection signals based on at least one of (i) a comparison of the reflection signals from two consecutive measurements, or (ii) consistency between the reflection signals, and (d) based at least in part on the selected reflection signals, adjust a parameter value associated with at least one of the transducer elements so as to improve an ultrasound focus at the target region.