mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, at a server, a request from a client device to access a web application; passing the request to the web application; receiving a response from the web application; augmenting the response with policy data and a single sign-on application to create an augmented response; and returning the augmented response to the client device, wherein the single sign-on application is configured to: identify a platform associated with the client device; and execute one or more platform-specific operations; wherein the single sign-on application executes in a client browser and performs the steps of: requesting a policy associated with the web application; matching a page received from the web application to the policy; requesting from the server credentials associated with a user, to access the web application; receiving credentials from the server and injecting the received credentials into one or more fields on the page based on the policy; and submitting the credentials to the web application; wherein the single sign-on application performs the further steps of invoking an automated logon chooser process that submits each received credential until a successful logon is detected with one of the received credentials, and wherein the single sign-on application further sends an update request to the server to update the credentials associated with the user for the web application using the received credentials associated with the successful logon. receiving, at a server, a request from a client device to access a web application; passing the request to the web application; receiving a response from the web application; augmenting the response with policy data and a single sign-on application to create an augmented response; and returning the augmented response to the client device, wherein the single sign-on application is configured to: identify a platform associated with the client device; and execute one or more platform-specific operations; identify a platform associated with the client device; and execute one or more platform-specific operations; wherein the single sign-on application executes in a client browser and performs the steps of: requesting a policy associated with the web application; matching a page received from the web application to the policy; requesting from the server credentials associated with a user, to access the web application; receiving credentials from the server and injecting the received credentials into one or more fields on the page based on the policy; and submitting the credentials to the web application; wherein the single sign-on application performs the further steps of invoking an automated logon chooser process that submits each received credential until a successful logon is detected with one of the received credentials, and wherein the single sign-on application further sends an update request to the server to update the credentials associated with the user for the web application using the received credentials associated with the successful logon.
A method performed by a node configured for use in a communication network, the method comprising: obtaining a message with a source address and a destination address, wherein the message is a message of a Lower Transport Layer according to a Bluetooth Mesh Protocol; determining whether the message is a type of message that is sent in response to a different message routed from the destination address to the source address, and whether a forward route from the destination address to the source address has been established; and transmitting the message on a backward route, responsive to determining that the message is said type of message, and that the forward route from the destination address to the source address has been established, or discarding the message, flooding the message or initiating route discovery back to the destination address, responsive to determining that the message is not said type of message, and that the forward route from the destination address to the source address has not been established, wherein the backward route is determined by reversing the established forward route from the destination address to the source address, instead of performing discovery of the backward route, and wherein the node is an intermediate relay node that is on the forward route and the backward route and that is addressed by neither the source address nor the destination address, wherein obtaining the message comprises receiving the message from another node and wherein transmitting the message on the backward route comprises relaying the message along the backward route. obtaining a message with a source address and a destination address, wherein the message is a message of a Lower Transport Layer according to a Bluetooth Mesh Protocol; determining whether the message is a type of message that is sent in response to a different message routed from the destination address to the source address, and whether a forward route from the destination address to the source address has been established; and transmitting the message on a backward route, responsive to determining that the message is said type of message, and that the forward route from the destination address to the source address has been established, or discarding the message, flooding the message or initiating route discovery back to the destination address, responsive to determining that the message is not said type of message, and that the forward route from the destination address to the source address has not been established, wherein the backward route is determined by reversing the established forward route from the destination address to the source address, instead of performing discovery of the backward route, and wherein the node is an intermediate relay node that is on the forward route and the backward route and that is addressed by neither the source address nor the destination address, wherein obtaining the message comprises receiving the message from another node and wherein transmitting the message on the backward route comprises relaying the message along the backward route.
An antenna, in particular a patch antenna, having a planar resonator element which has the geometry of a polygon with a plurality of edges, wherein the resonator element has a plurality of slots at the edges for their extension, wherein the resonator element additionally has a plurality of projections at the edges, characterized in that a slot and / or a projection respectively form a pattern in the shape of lettering.
A computer-implemented method of controlling a messaging system, comprising: detecting that a user is sending a message that has a link to a shared object, to a recipient; accessing an access control list to determine whether the user has appropriate permissions to share the shared object; if it is determined that the user does not have appropriate permissions to share the shared object, accessing the access control list to determine whether the recipient has the permissions to access the shared object; and, if so, sending the message; and generating a user notification display indicating that the recipient has access to the shared object; if it is determined that the user does have appropriate permissions to share the shared object, accessing the access control list to determine whether the recipient has the permissions to access the shared object; and, if not, automatically setting permissions for the recipient so the recipient has access to the shared object and, after that, generating a user interface display that notifies the user that this has happened and sending the message. detecting that a user is sending a message that has a link to a shared object, to a recipient; accessing an access control list to determine whether the user has appropriate permissions to share the shared object; if it is determined that the user does not have appropriate permissions to share the shared object, accessing the access control list to determine whether the recipient has the permissions to access the shared object; and, if so, sending the message; and generating a user notification display indicating that the recipient has access to the shared object; if it is determined that the user does have appropriate permissions to share the shared object, accessing the access control list to determine whether the recipient has the permissions to access the shared object; and, if not, automatically setting permissions for the recipient so the recipient has access to the shared object and, after that, generating a user interface display that notifies the user that this has happened and sending the message.
A robot sensor arrangement system, comprising a robot body on which at least one sensor assembly is arranged, whereby the sensor assembly comprises an image sensor (1001, 1002) and a first inertial sensor of which a position relative to the image sensor (1001, 1002) is fixed; an included angle between a plane where the image sensor (1001, 1002) is located and a vertical axis is in a first angle range, so as to ensure that similar texture structures of ground peripheral images are continuously collected, wherein the first angle range is 5° - 90°; wherein the image sensor (1001, 1002) comprises a visible light image sensor and a depth image sensor of which the position relative to the visible light image sensor is fixed; the distances from the depth image sensor and the visible light image sensor to the ground are in a first distance value range, wherein the first distance value range is 50 cm - 160 cm, so that the field of view of the depth image sensor and the visible light image sensor covers a collection scope; wherein the visible light image sensor and the first inertial sensor are fixed on at least one piece of rigid material, such that the image sensor and the first inertial sensor do not move as external physical conditions change, the external physical conditions comprising vibration and temperature. an included angle between a plane where the image sensor (1001, 1002) is located and a vertical axis is in a first angle range, so as to ensure that similar texture structures of ground peripheral images are continuously collected, wherein the first angle range is 5° - 90°; wherein the image sensor (1001, 1002) comprises a visible light image sensor and a depth image sensor of which the position relative to the visible light image sensor is fixed; the distances from the depth image sensor and the visible light image sensor to the ground are in a first distance value range, wherein the first distance value range is 50 cm - 160 cm, so that the field of view of the depth image sensor and the visible light image sensor covers a collection scope; wherein the visible light image sensor and the first inertial sensor are fixed on at least one piece of rigid material, such that the image sensor and the first inertial sensor do not move as external physical conditions change, the external physical conditions comprising vibration and temperature.
An optical imaging system (100; 410) comprising: a camera configured to provide a camera image of a surface of an object; one or more measurement modules configured to perform one or more measurements at one or more points of the surface of the object; a display module; and a processing module configured to: obtain the camera image of the surface of the object from the camera, obtain the one or more measurements at the one or more points of the surface of the object from the one or more measurement modules, determine a spatial location of the one or more points of the surface relative to the camera image, group the one or more measurements into one or more coherent spatial regions by grouping similar measurements, and provide the camera image with an overlay representing the measurements at the one or more points of the surface of the object to the display module, the overlay representing the one or more coherent spatial regions to the display module. a camera configured to provide a camera image of a surface of an object; one or more measurement modules configured to perform one or more measurements at one or more points of the surface of the object; a display module; and a processing module configured to: obtain the camera image of the surface of the object from the camera, obtain the one or more measurements at the one or more points of the surface of the object from the one or more measurement modules, determine a spatial location of the one or more points of the surface relative to the camera image, group the one or more measurements into one or more coherent spatial regions by grouping similar measurements, and provide the camera image with an overlay representing the measurements at the one or more points of the surface of the object to the display module, the overlay representing the one or more coherent spatial regions to the display module. obtain the camera image of the surface of the object from the camera, obtain the one or more measurements at the one or more points of the surface of the object from the one or more measurement modules, determine a spatial location of the one or more points of the surface relative to the camera image, group the one or more measurements into one or more coherent spatial regions by grouping similar measurements, and provide the camera image with an overlay representing the measurements at the one or more points of the surface of the object to the display module, the overlay representing the one or more coherent spatial regions to the display module.
A method of performing handover at a serving base station in a wireless communications system, in which the serving base station and a target base station have different time slot allocations, the method comprising: determining that a handover of a mobile station from the serving base station to a target base station is probable; characterized in determining that the serving base station and the target base station have different time slot allocations; and sending allocation information to the target base station, the allocation information indicating a current time slot allocation at the serving base station to assist the target base station in predicting a handover delay between the mobile station and the target base station. determining that a handover of a mobile station from the serving base station to a target base station is probable; characterized in determining that the serving base station and the target base station have different time slot allocations; and sending allocation information to the target base station, the allocation information indicating a current time slot allocation at the serving base station to assist the target base station in predicting a handover delay between the mobile station and the target base station.
A method of measuring the depth of a wellbore, the method characterized by the steps of: generating infrasound waves; directing the infrasound waves into the wellbore, wherein the wellbore is a multilateral wellbore having a motherbore and a lateral bore; observing the infrasound waves for resonance indicating that the waves have reached the bottom of the motherbore and the lateral bore of the wellbore; and calculating the depth of each of the motherbore and the lateral bore of the wellbore based on the number of wavelengths of infrasound waves that have entered the wellbore when the resonance is observed. generating infrasound waves; directing the infrasound waves into the wellbore, wherein the wellbore is a multilateral wellbore having a motherbore and a lateral bore; observing the infrasound waves for resonance indicating that the waves have reached the bottom of the motherbore and the lateral bore of the wellbore; and calculating the depth of each of the motherbore and the lateral bore of the wellbore based on the number of wavelengths of infrasound waves that have entered the wellbore when the resonance is observed.
An operating method for a filling plant for the filling of containers with a liquid, wherein the filling plant has a plurality of filling devices which fill the containers with the liquid, and a gas is supplied to the containers at least temporarily during the filling procedure with at least one gas exchange device by way of a first and a second line connection (14, 16) by means of at least two valves (15, 17) for controlling the gas exchange, and the first line connection and the second line connection differ at least in part, and wherein a flushing mode is provided in which the filling devices and the line connections (14, 16) are flushed at least in part with a flushing medium, characterized in that by means of a through-flow measurement device suitable for a quantitative determination of liquid in a liquid supply line through which the liquid to be filled is delivered, the amount of the flushing medium passing through the first line connection and of the flushing medium passing through the second line connection is determined separately for these line connections (14, 16) thereby, that an actuating device of the valves (15, 17) actuates the valves in a purposeful manner and with a time delay in order to permit in this way an entry of the flushing medium with a time delay into the different line connections and also the valves themselves, wherein the actuating device brings the valves (15, 17) in a communication connection with the through-flow measurement device in such a way that the flushing medium is conveyed through the through-flow measurement device in a direction that is opposite to the beverage to be filled.
A fuel cell comprising: a cell structure body including a cathode, an anode, and a solid electrolyte layer interposed between the cathode and the anode; and a current collector in contact with the cathode, wherein an oxidant is supplied to the cathode through the current collector, the current collector includes a porous body made of a metal material, and a chromium adsorbent carried inside pores of the porous body, the metal material includes a first metal and a second metal, the first metal includes nickel, the second metal includes at least one selected from the group consisting of tin, aluminum, cobalt, titanium, manganese, tungsten, copper, silver, and gold, and a ratio of the second metal to a total amount of the first metal and the second metal included in the metal material is more than or equal to 4% by mass and less than or equal to 15% by mass. a cell structure body including a cathode, an anode, and a solid electrolyte layer interposed between the cathode and the anode; and a current collector in contact with the cathode, wherein an oxidant is supplied to the cathode through the current collector, the current collector includes a porous body made of a metal material, and a chromium adsorbent carried inside pores of the porous body, the metal material includes a first metal and a second metal, the first metal includes nickel, the second metal includes at least one selected from the group consisting of tin, aluminum, cobalt, titanium, manganese, tungsten, copper, silver, and gold, and a ratio of the second metal to a total amount of the first metal and the second metal included in the metal material is more than or equal to 4% by mass and less than or equal to 15% by mass.
Calibration object for calibrating an X-ray imaging device, the calibration object comprising: a plurality of sections (10, 20), wherein a first section out of the plurality of sections comprises a first, regular material and a second, dark field active material, wherein a second section out of the plurality of sections comprise a first, regular material and a second, dark field active material, wherein a ratio of the two materials is different in the first section with respect to the second section, wherein the object comprises a first step wedge and a second step wedge, wherein the first step wedge comprises the first, regular material, wherein the second step wedge comprises the second, dark field active material, wherein the first and the second step wedge (4, 5) each have at least 3 steps, wherein the second step wedge is arranged on top of the first step wedge along a predetermined axis, and wherein the second step wedge is arranged over the first step wedge and is 90° rotated in the plane rectangular to the predetermined axis with respect to the orientation of the first step wedge. a plurality of sections (10, 20), wherein a first section out of the plurality of sections comprises a first, regular material and a second, dark field active material, wherein a second section out of the plurality of sections comprise a first, regular material and a second, dark field active material, wherein a ratio of the two materials is different in the first section with respect to the second section, wherein the object comprises a first step wedge and a second step wedge, wherein the first step wedge comprises the first, regular material, wherein the second step wedge comprises the second, dark field active material, wherein the first and the second step wedge (4, 5) each have at least 3 steps, wherein the second step wedge is arranged on top of the first step wedge along a predetermined axis, and wherein the second step wedge is arranged over the first step wedge and is 90° rotated in the plane rectangular to the predetermined axis with respect to the orientation of the first step wedge.
Process for transferring a useful layer to a carrier substrate including a first surface, the process including the successive steps of: a) providing a donor substrate including: - a first surface, - a weakened zone comprising implanted species, - the useful layer, which is bounded by the weakened zone and by the first surface of the donor substrate, - an amorphous zone lying, in the useful layer, parallel to the weakened zone; b) assembling, on the side of the first surface of the donor substrate and on the side of the first surface of the carrier substrate, the donor substrate with the carrier substrate by bonding; step b) being executed so that the amorphous zone is at least partially facing at least one cavity that is partially bounded by the first surface of the donor substrate; c) splitting the donor substrate along the weakened zone so as to reveal the useful layer. a) providing a donor substrate including: - a first surface, - a weakened zone comprising implanted species, - the useful layer, which is bounded by the weakened zone and by the first surface of the donor substrate, - an amorphous zone lying, in the useful layer, parallel to the weakened zone; - a first surface, - a weakened zone comprising implanted species, - the useful layer, which is bounded by the weakened zone and by the first surface of the donor substrate, - an amorphous zone lying, in the useful layer, parallel to the weakened zone; b) assembling, on the side of the first surface of the donor substrate and on the side of the first surface of the carrier substrate, the donor substrate with the carrier substrate by bonding; step b) being executed so that the amorphous zone is at least partially facing at least one cavity that is partially bounded by the first surface of the donor substrate; c) splitting the donor substrate along the weakened zone so as to reveal the useful layer.