mhurhangee/ep-ind-claims huggingface dataset:
A method for a mobile device to bootstrap Kerberos from EAP, wherein EAP is used for initial network access authentication of the mobile device and Kerberos is used for provisioning session keys to multiple different protocols to support multiple network applications, comprising: a) configuring the mobile node with an EAP peer that negotiates with an EAP server on capabilities regarding an EAP extended functionality pertaining to Kerberos, including employing an EAP extension method (EAP-EXT) that provides capabilities exchange between the EAP server and the EAP peer regarding Kerberos functionality, wherein the method includes: i) the EAP peer receiving a request message transmitted from the EAP server having a new capability bit in a capabilities field related to Kerberos functionality; and ii) having the EAP peer transmit a response message with a new capability bit in a capabilities field related to the Kerberos functionality. a) configuring the mobile node with an EAP peer that negotiates with an EAP server on capabilities regarding an EAP extended functionality pertaining to Kerberos, including employing an EAP extension method (EAP-EXT) that provides capabilities exchange between the EAP server and the EAP peer regarding Kerberos functionality, wherein the method includes: i) the EAP peer receiving a request message transmitted from the EAP server having a new capability bit in a capabilities field related to Kerberos functionality; and ii) having the EAP peer transmit a response message with a new capability bit in a capabilities field related to the Kerberos functionality. i) the EAP peer receiving a request message transmitted from the EAP server having a new capability bit in a capabilities field related to Kerberos functionality; and ii) having the EAP peer transmit a response message with a new capability bit in a capabilities field related to the Kerberos functionality.
An injection device comprising: a housing; a syringe received within the housing, the syringe having a bore terminating at a forward end in a discharge nozzle and at a rearward end in an opening in which a discharge piston having a bore is inserted; a drive element having a forward end consisting of a substantially flat edge region that is adapted to bear upon the discharge piston of the syringe; and an actuator for advancing the drive element so as to advance the discharge piston and discharge the contents of the syringe through the discharge nozzle, characterised in that the opening is flared, that the flat edge region surrounds a projecting middle region that is adapted to be received in the bore of the discharge piston, and that the projecting middle region tapers from the substantially flat edge region to a neb. a housing; a syringe received within the housing, the syringe having a bore terminating at a forward end in a discharge nozzle and at a rearward end in an opening in which a discharge piston having a bore is inserted; a drive element having a forward end consisting of a substantially flat edge region that is adapted to bear upon the discharge piston of the syringe; and an actuator for advancing the drive element so as to advance the discharge piston and discharge the contents of the syringe through the discharge nozzle, characterised in that the opening is flared, that the flat edge region surrounds a projecting middle region that is adapted to be received in the bore of the discharge piston, and that the projecting middle region tapers from the substantially flat edge region to a neb.
A printing apparatus comprising: a conveying unit configured to convey a printing medium; a printing unit configured to print an image on the printing medium; a cutting uni configured to cut the printing medium in a direction perpendicular to a conveying direction of the printing medium; and a control unit configured to control said conveying unit, said printing unit, and said cutting unit, wherein said control unit is configured to execute a test operation, and characterized in that the test operation includes printing a mark by using said printing unit and cutting the printing medium by using said cutting unit while conveyance of the printing medium by said conveying unit is stopped. a conveying unit configured to convey a printing medium; a printing unit configured to print an image on the printing medium; a cutting uni configured to cut the printing medium in a direction perpendicular to a conveying direction of the printing medium; and a control unit configured to control said conveying unit, said printing unit, and said cutting unit, wherein said control unit is configured to execute a test operation, and characterized in that the test operation includes printing a mark by using said printing unit and cutting the printing medium by using said cutting unit while conveyance of the printing medium by said conveying unit is stopped.
Bacterial strains belonging to the species B. adolescentis selected from the group comprising, or consisting of: - (i) Bifidobacterium adolescentis BA06, deposited with the Institute DSMZ in Germany by Probiotical S.p.A. on 7.4.2017 and having the deposit no. 32479; and - (ii) Bifidobacterium adolescentis BA07, deposited with the Institute DSMZ in Germany by Probiotical S.p.A. on 21.4.2017 and having the deposit no. 32491. - (i) Bifidobacterium adolescentis BA06, deposited with the Institute DSMZ in Germany by Probiotical S.p.A. on 7.4.2017 and having the deposit no. 32479; and - (ii) Bifidobacterium adolescentis BA07, deposited with the Institute DSMZ in Germany by Probiotical S.p.A. on 21.4.2017 and having the deposit no. 32491.
A method for storing data in a multi-level cell flash memory device having a plurality of cells, wherein each cell of said multi-level cell flash memory device is capable of storing a plurality of bits, wherein each of said plurality of bits is from a different page, said method characterized by: accumulating a plurality of said pages; encoding said plurality of pages, wherein at least two of said plurality of pages are encoded using at least two different codes; and storing said encoded pages in said multi-level cell flash memory device. accumulating a plurality of said pages; encoding said plurality of pages, wherein at least two of said plurality of pages are encoded using at least two different codes; and storing said encoded pages in said multi-level cell flash memory device.
A welding tape (10, 11) for thermal connection of metallic workpieces (A, B) by melting, wherein the dimensions of the welding tape (10, 11) in a longitudinal direction are a multiple of the dimensions in a transverse direction perpendicular to the longitudinal direction, characterized in that the welding tape (10, 11) comprises in a cross section perpendicular to the longitudinal direction an outwardly terminating cover layer (2, 3), which has an inner cover layer and an outer cover layer, wherein the inner cover layer is arranged so as to face the immediately to be joined parts of the workpieces (A, B) in an intended position of use, and the outer cover layer is arranged so as to face away from the immediately to be joined parts of the workpieces (A, B), wherein in the transverse direction at least in lateral edge regions of the inner layer adhesive layers are present, with which the welding tape (10, 11) is attachable on the workpieces to be joined (A, B), wherein a self-burning exothermic substance is provided inside of the cover layer (2, 3), which provides at ignition for the time required for welding the necessary thermal energy, wherein a non-combustible heat shield is exclusively arranged between the exothermic substance and the outer cover layer, which can withstand the combustion temperature of the exothermic substance and which counteracts the escape of heat to the outer side, and wherein a welding additive is provided between the exothermic substance and the inner cover layer and which will melt during the burning of the exothermic substance and which can be connected to the workpieces to be joined (A, B).
Optoelectronic module comprising: - a layer structure with a plurality of semiconductor layers (10, 20, 100, 200) comprising a substrate layer, a first layer assembly and a second layer assembly, - wherein the first layer assembly comprises a light emitting layer (101, 102) disposed on the substrate layer, - wherein the second layer assembly comprises a plurality of circuits (201, 202, 203, 204) for controlling an operating state of the light emitting layer, and - wherein at least one of the circuits (201, 202, 203, 204) is completely surrounded by the substrate layer and at least one of the circuits (201, 202, 203, 204) is disposed on the substrate layer or partially surrounded by the substrate layer. - a layer structure with a plurality of semiconductor layers (10, 20, 100, 200) comprising a substrate layer, a first layer assembly and a second layer assembly, - wherein the first layer assembly comprises a light emitting layer (101, 102) disposed on the substrate layer, - wherein the second layer assembly comprises a plurality of circuits (201, 202, 203, 204) for controlling an operating state of the light emitting layer, and - wherein at least one of the circuits (201, 202, 203, 204) is completely surrounded by the substrate layer and at least one of the circuits (201, 202, 203, 204) is disposed on the substrate layer or partially surrounded by the substrate layer.
Device for pressing two flanges (2, 3) of a flange connection against each other which lie next to each other between two air duct sections interlinked on the face with each other, wherein the device having an essentially u-shaped profile in cross-section with a web connecting two profile limbs (6, 7) with each other, wherein on the face of each profile limbs (6, 7) a pressing portion (9, 10) is arranged, wherein at one of the two pressing portions at least one screw is arranged whose male thread interacts with a female thread arranged on the pressing portion in such a way that by a rotation around its longitudinal axis towards the other pressing portion the screw is movable, characterized in that the profile limb whose pressing portion does not hold the screw is cranked twice, namely with opposed cranking direction, wherein the pressing portion runs parallel to the opposite pressing portion which holds the screw.
An assay device for determining the concentration of an analyte in a sample, comprising - a plurality of microchambers, wherein the plurality of microchambers are arranged in an array and the plurality of microchambers are at least 100 microchambers; and - a Field-effect transistor arranged at the bottom of each of the plurality of microchambers and wherein capture probe molecules for said analyte are arranged within said plurality of microchambers such that each microchamber contains at most one capture probe molecule, and wherein said FET is arranged in said microchamber to give a readable output signal based on binding of said analyte, or competitor to said analyte, with said capture probe molecule. - a plurality of microchambers, wherein the plurality of microchambers are arranged in an array and the plurality of microchambers are at least 100 microchambers; and - a Field-effect transistor arranged at the bottom of each of the plurality of microchambers and wherein capture probe molecules for said analyte are arranged within said plurality of microchambers such that each microchamber contains at most one capture probe molecule, and wherein said FET is arranged in said microchamber to give a readable output signal based on binding of said analyte, or competitor to said analyte, with said capture probe molecule.
A method for reducing crystallization of 1-[Di(4-octylphenyl)aminomethyl]tolutriazole, comprising the steps of: bringing a first component consisting of 1-[Di(4-octylphenyl)aminomethyl]tolutriazole in process oil to a processing temperature between 80-100°C, adding to the first component a second component consisting of polyacrylate polymer in mineral oil to give 0.1 to 5.0 wt.% polyacrylate polymer as part of a total composition of the first component and second component, stirring the total composition for at least 10 minutes while maintaining the processing temperature, and storing the total composition at room temperature. bringing a first component consisting of 1-[Di(4-octylphenyl)aminomethyl]tolutriazole in process oil to a processing temperature between 80-100°C, adding to the first component a second component consisting of polyacrylate polymer in mineral oil to give 0.1 to 5.0 wt.% polyacrylate polymer as part of a total composition of the first component and second component, stirring the total composition for at least 10 minutes while maintaining the processing temperature, and storing the total composition at room temperature.
An oscilloscope, comprising: one or more ports to receive one or more signals from one or more devices, at least one of the one or more devices being a device under test; a trigger enable logic circuit configured to output a trigger enabled signal when a trigger enable event occurs within the one or more signals, the trigger enable event being a real-time event of the one or more signals; one or more trigger logic circuits configured to generate a plurality of trigger signals when the trigger enable signal is received, each trigger signal being generated after a trigger event occurs within one of the one or more signals; and an acquisition circuit configured to acquire and store data in a memory in response to each of the trigger signals. one or more ports to receive one or more signals from one or more devices, at least one of the one or more devices being a device under test; a trigger enable logic circuit configured to output a trigger enabled signal when a trigger enable event occurs within the one or more signals, the trigger enable event being a real-time event of the one or more signals; one or more trigger logic circuits configured to generate a plurality of trigger signals when the trigger enable signal is received, each trigger signal being generated after a trigger event occurs within one of the one or more signals; and an acquisition circuit configured to acquire and store data in a memory in response to each of the trigger signals.
An ophthalmic endoprobe comprising: a hand-piece coupleable to a cannula assembly having a longitudinal axis, the cannula assembly comprising an inner tube concentric with an outer tube; wherein the hand-piece further comprises a motor (125, 200) the motor comprises a mechanical piston moveable in a longitudinal direction by a pressurized fluid, the mechanical piston providing motion to a transmission shaft; and a transmission system to couple the shaft motion to the cannula assembly, adapted to provide a counter-rotating motion to the inner tube and the outer tube about the longitudinal axis of the cannula, wherein the transmission system comprises uncoupled gear systems for independent drive control of the inner tube and the outer tube. a hand-piece coupleable to a cannula assembly having a longitudinal axis, the cannula assembly comprising an inner tube concentric with an outer tube; wherein the hand-piece further comprises a motor (125, 200) the motor comprises a mechanical piston moveable in a longitudinal direction by a pressurized fluid, the mechanical piston providing motion to a transmission shaft; and a transmission system to couple the shaft motion to the cannula assembly, adapted to provide a counter-rotating motion to the inner tube and the outer tube about the longitudinal axis of the cannula, wherein the transmission system comprises uncoupled gear systems for independent drive control of the inner tube and the outer tube.
A method performed by an anesthetizing monitoring unit configured to generate an improved evoked electromyography response signal (Σ Response), the method comprising: transmitting a stimuli signal (S Stimuli) using an output port of the anesthetizing monitoring unit, receiving an evoked electromyography, EMG, response signal (S Response), having a duration (T Response), in response to the transmitted stimuli signal (S Stimuli) using an input port of the anesthetizing monitoring unit, the method is characterised by comprising the following steps, estimating a periodic noise waveform (S Periodic), having the duration of the response signal (T Response), by using temporal segments of a detected or obtained noise signal (S Noise), generating the improved response signal (Σ Response) by subtracting the noise waveform from the response signal (S Response). transmitting a stimuli signal (S Stimuli) using an output port of the anesthetizing monitoring unit, receiving an evoked electromyography, EMG, response signal (S Response), having a duration (T Response), in response to the transmitted stimuli signal (S Stimuli) using an input port of the anesthetizing monitoring unit, the method is characterised by comprising the following steps, estimating a periodic noise waveform (S Periodic), having the duration of the response signal (T Response), by using temporal segments of a detected or obtained noise signal (S Noise), generating the improved response signal (Σ Response) by subtracting the noise waveform from the response signal (S Response).
A method for performing wireless communication by a first device, the method comprising: receiving, from a base station, information related to a sidelink, SL, resource and information related to a physical uplink control channel, PUCCH, resource; transmitting, to a second device, a transport block through a physical sidelink shared channel, PSSCH, based on the SL resource; generating hybrid automatic repeat request, HARQ, feedback information related to the transport block; and transmitting, to the base station, the HARQ feedback information based on the PUCCH resource, wherein, when the first device having the transport block in a buffer does not receive a physical sidelink feedback channel, PSFCH, related to the PSSCH, due to a priority-based dropping rule of the first device, the HARQ feedback information is generated as a negative acknowledgment, NACK. receiving, from a base station, information related to a sidelink, SL, resource and information related to a physical uplink control channel, PUCCH, resource; transmitting, to a second device, a transport block through a physical sidelink shared channel, PSSCH, based on the SL resource; generating hybrid automatic repeat request, HARQ, feedback information related to the transport block; and transmitting, to the base station, the HARQ feedback information based on the PUCCH resource, wherein, when the first device having the transport block in a buffer does not receive a physical sidelink feedback channel, PSFCH, related to the PSSCH, due to a priority-based dropping rule of the first device, the HARQ feedback information is generated as a negative acknowledgment, NACK.
A food container comprising a sealing surface, wherein the sealing surface is coated with a polymer coating, characterized in that a pattern of ridges (31, 32) and valleys is formed in the polymer coating, and that the sealing surface has oleophilic properties attracting fat such that any fat on the sealing surface has a tendency to settle down in the valleys of the pattern on the sealing surface, wherein a distance (d) between a top plane to which a median of the ridges (31, 32) extend up to and a bottom plane to which a median of the valleys extend down to is from 2 to 200 micrometers, preferably from 2 to 100 micrometers, and most preferred from 2 to 50 micrometers and wherein a median distance (L1; L2) between adjacent ridges (31; 32) is from 1 to 500 micrometers, preferably from 1 to 150 micrometers, and most preferred from 1 to 50 micrometers. wherein the sealing surface is coated with a polymer coating, characterized in that a pattern of ridges (31, 32) and valleys is formed in the polymer coating, and that the sealing surface has oleophilic properties attracting fat such that any fat on the sealing surface has a tendency to settle down in the valleys of the pattern on the sealing surface, wherein a distance (d) between a top plane to which a median of the ridges (31, 32) extend up to and a bottom plane to which a median of the valleys extend down to is from 2 to 200 micrometers, preferably from 2 to 100 micrometers, and most preferred from 2 to 50 micrometers and wherein a median distance (L1; L2) between adjacent ridges (31; 32) is from 1 to 500 micrometers, preferably from 1 to 150 micrometers, and most preferred from 1 to 50 micrometers.
Control input protective circuit for an electrical component, which has a control input, which is designed to receive an electrical drive signal, wherein the control input is connected to a reference potential (12, 13) via an electrical resistor, which is designed as a pull-down resistor, wherein an electrically controllable switch is connected in series with the electrical resistor in the signal path between the control input and the reference potential (12, 13), wherein the switch can be controlled by a controller, wherein the controller is designed to compare a voltage value of the drive signal with a predetermined limit value and to generate a control signal for opening the switch when the voltage value exceeds the limit value, wherein the reference potential is determined by a circuit earth of the electrical component, and wherein the switch is connected directly to the reference potential in the signal path between the control input and the reference potential, characterized in that the electrical component has at least two control inputs (11, 112,..., 11n), in that the control inputs are each connected to the reference potential (12, 13) via an electrical resistor (R1, R2,..., Rn) and via the common electrical switch connected in series with the resistors, in that the controller is designed to compare the voltage values of the drive signals (AS1, AS2,..., ASn) applied to the control inputs (11, 112,..., 11n) with a predetermined individual limit value and to generate a control signal for opening the switch when the voltage value of at least one of the drive signals (AS1, AS2,..., ASn) exceeds the limit value.
Load control device for an engine comprising a compressor for compressing air or an air/fuel mixture in an intake section of the engine; an exhaust gas line for discharging an exhaust gas mass flow from the engine; a turbine which is driven by an exhaust gas mass flow fed by the exhaust gas line and which drives the compressor; a bypass line (170, 170a) which branches off from the exhaust gas line upstream of the turbine, a first valve (190, 190a, 400, 600) being arranged for serving to regulate and/or control the exhaust gas mass flow in the bypass line (170, 170a, a cooling device (180, 180a) which is arranged upstream of the first valve (190, 190a, 400, 600), for cooling the exhaust gas mass flow, and a second valve, in particular a throttle valve, which is arranged downstream of the compressor and in front of the engine, the second valve controlling and/or regulating the air or air/fuel mixture which is fed to the engine, characterized in that the cooling device (180, 180a) is arranged between the branch of the bypass line (170, 170a) from the exhaust gas line and the first valve (190, 190a, 400, 600), the load control device comprising, furthermore: a regulating and/or control device for controlling and/or regulating the first valve (190, 190a, 400, 600) and also the second valve, the regulating and/or control device being set up to carry out the control and/or the regulation of the first valve (190, 190a, 400, 600) and of the second valve as a function of one another.