mhurhangee/ep-ind-claims huggingface dataset:
A method, executed in a gateway, the gateway being arranged to facilitate communication between a client device and an application server, the method comprising the steps of: receiving a client request from the client device, the client request comprising at least a portion being bound for the application server; sending an application server request to the application server; receiving an application server response from the application server, the application server response indicating a need to provide authentication; establishing, in response to receiving the application server response, indicating the need to provide authentication, at least one authentication credential of the gateway, using an authentication server for a connection between the client device and the application server, wherein the established authentication credentials are bound to the identity of the client device; and sending a client response to the client device, the client response being based on the application server response and comprising the at least one authentication credential of the gateway, thereby enabling the client device to authenticate itself, using the at least one authentication credential of the gateway. receiving a client request from the client device, the client request comprising at least a portion being bound for the application server; sending an application server request to the application server; receiving an application server response from the application server, the application server response indicating a need to provide authentication; establishing, in response to receiving the application server response, indicating the need to provide authentication, at least one authentication credential of the gateway, using an authentication server for a connection between the client device and the application server, wherein the established authentication credentials are bound to the identity of the client device; and sending a client response to the client device, the client response being based on the application server response and comprising the at least one authentication credential of the gateway, thereby enabling the client device to authenticate itself, using the at least one authentication credential of the gateway.
A composition, comprising: a diatom frustule; and two or more photocatalytic metal oxide nanoparticles dispersed on a surface of the diatom frustule such that each nanoparticle is separate and not in direct physical contact with another nanoparticle; wherein a portion of the surface of the diatom frustule is free from metal oxide. a diatom frustule; and two or more photocatalytic metal oxide nanoparticles dispersed on a surface of the diatom frustule such that each nanoparticle is separate and not in direct physical contact with another nanoparticle; wherein a portion of the surface of the diatom frustule is free from metal oxide.
Device, comprising a strapping device, in particular manual strapping device, having at least one strapping head, further having a preferably motorized drive in or on the strapping head, and having a process sensor which is associated with the drive and which is designed at least to acquire process data, the device further comprising a receiver and a network, wherein the process sensor is connected to the receiver in the form of wireless remote transmission in order to transmit the process data, wherein furthermore the receiver is equipped with a memory for the process data, and wherein the receiver and the memory are designed as components of the network characterized in that an evaluation unit is provided, which is connected to the network designed as the internet and which is designed to process process data stored in the memory, and in that the evaluation unit is located in the region of or is accessible to a manufacturer of the strapping device in question. the device further comprising a receiver and a network, wherein the process sensor is connected to the receiver in the form of wireless remote transmission in order to transmit the process data, wherein furthermore the receiver is equipped with a memory for the process data, and wherein the receiver and the memory are designed as components of the network characterized in that an evaluation unit is provided, which is connected to the network designed as the internet and which is designed to process process data stored in the memory, and in that the evaluation unit is located in the region of or is accessible to a manufacturer of the strapping device in question.
A method for preparing bacon comprising (a) providing a bacon slab; (b) slicing the bacon slab into bacon slices; (c) cooking the bacon slices in a microwave oven for about 30-250 seconds; and (d) finishing the bacon slices in a cooking searing unit by cooking for about 3-20 seconds, wherein the cooking searing unit is a conveyor cooking searing unit and applies flames directly or indirectly to the bacon slices. (a) providing a bacon slab; (b) slicing the bacon slab into bacon slices; (c) cooking the bacon slices in a microwave oven for about 30-250 seconds; and (d) finishing the bacon slices in a cooking searing unit by cooking for about 3-20 seconds, wherein the cooking searing unit is a conveyor cooking searing unit and applies flames directly or indirectly to the bacon slices.
Method for producing urethane (meth)acrylate resins, in which a dianhydrohexitol compound is converted with a diisocyanate in the presence of a monomeric radically co-polymerisable compound as solvent and the product is converted with a hydroxy-substituted (meth)acrylate.
Door of a vehicle comprising a wall intended to come into contact with a body side of the vehicle, the wall extending in a generally vertical and longitudinal plane of extension, the wall having an inner face and an outer face that is connected to the inner face by an end face, the door comprising, on an upper portion of the inner face, a first receiving zone for a primary seal that is arranged at least partially on the perimeter of an opening of the body side intended to be closed by the door and a second receiving zone for a secondary seal that is arranged at least partially on a side roof rail of the body side, the first receiving zone and the second receiving zone extending substantially in a longitudinal direction and at a distance from one another, the door comprising an inter-door seal that extends primarily in a vertical direction, the inter-door seal being arranged at least partially on a joining zone between the inner face of the wall and the end face of the door, the door being characterized in that the inter-door seal comprises a tubular portion delimiting therein an internal fluid discharge duct, and in that an upper end of the inter-door seal is arranged between the first receiving zone and the second receiving zone, the upper end delimiting an orifice opening into the internal duct, the upper end of the inter-door seal being scoop-shaped, and in that the inter-door seal comprises a retaining element for the joining zone between the inner face of the wall and the end face of the wall, the inter-door seal comprising a first portion that extends in the vertical direction and bears the retaining element, the first portion forming a stop designed to be in contact with an additional door, and a second portion that extends in the vertical direction and bears the tubular portion of the inter-door seal, the second portion extending at least partially in front of the end face.
A method of drying semiconductor wafers comprising: lifting one or more semiconductor wafers in a liquid bath from a first position on a first wafer carrier in the bath to a second position above the bath; flowing a mixture of nitrogen and isopropyl alcohol onto the one or more wafers as the one or more wafers are lifted from the bath and from the first carrier to the second position such that the surfaces of the one or more wafers are dried at least in part by the surface tension gradient between the IPA and the liquid in the bath; moving the one or more wafers from the second position to a third position spaced rom a position above the bath; drying the first wafer carrier; shielding the one or more wafers in the third position from deposits arising from drying the first wafer carrier; and returning the one or more wafers to the first wafer carrier following drying of the first wafer carrier. lifting one or more semiconductor wafers in a liquid bath from a first position on a first wafer carrier in the bath to a second position above the bath; flowing a mixture of nitrogen and isopropyl alcohol onto the one or more wafers as the one or more wafers are lifted from the bath and from the first carrier to the second position such that the surfaces of the one or more wafers are dried at least in part by the surface tension gradient between the IPA and the liquid in the bath; moving the one or more wafers from the second position to a third position spaced rom a position above the bath; drying the first wafer carrier; shielding the one or more wafers in the third position from deposits arising from drying the first wafer carrier; and returning the one or more wafers to the first wafer carrier following drying of the first wafer carrier.
Disposable packaging system for storing and dispensing multi-component materials for micro-dispensing and/or application of multi-component materials in medicine or dentistry, wherein the disposable packaging system is separated by films into at least two regions (7, 27) for storing and mixing multi-component materials, wherein the films are provided in the form of separating membranes (9, 17, 18) with media-tightness and bonded connection, and wherein the separating membranes (9, 17, 18) can have weak points which tear open on contact with a sharp object, so that the substances (12, 13) of the multi-component materials separated by the separating membranes (9, 17, 18) mix together, wherein the disposable packaging system has a rigid housing base region, rigid housing walls and an opening which is arranged opposite the housing base and has a rim, a material component of the multi-component material being arranged in the housing base region, the opening being covered by a separating membrane, and there being mounted on the opening a rigid housing extension matched to the cross-section of the housing walls, and the housing extension having a further material component of the multi-component material between two separating membranes (17, 18) which seal the housing extension mediatightly, wherein the rim of the opening has a closely fitting seat on which a housing extension is mounted so as to be exactly fitting and centred.
An image processing apparatus comprising: an image acquiring unit that is adapted to acquire a first image and a second image that are captured at different times, the image acquiring unit being adapted to acquire the first image that is captured by using first observation light and the second image that is captured by using second observation light different from the first observation light; characterised by further comprising: a mode control unit that is adapted to cause the image acquiring unit to acquire the first image and the second image in either a first image acquisition mode of acquiring the first image and the second image such that a ratio of the number of acquired frames of the second image to the number of acquired frames of the first image in a predetermined time range is a first ratio, or a second image acquisition mode of acquiring the first image and the second image such that a ratio of the number of acquired frames of the second image to the number of acquired frames of the first image in the time range is a second ratio higher than the first ratio; a specific target detecting unit that is adapted to detect a specific target from the first image and/or the second image; and a display control unit that is adapted to cause a display apparatus to display the first image, wherein the mode control unit is adapted to cause the image acquiring unit to acquire the first image and the second image in the first image acquisition mode or the second image acquisition mode on the basis of a detection result of the specific target. an image acquiring unit that is adapted to acquire a first image and a second image that are captured at different times, the image acquiring unit being adapted to acquire the first image that is captured by using first observation light and the second image that is captured by using second observation light different from the first observation light; characterised by further comprising: a mode control unit that is adapted to cause the image acquiring unit to acquire the first image and the second image in either a first image acquisition mode of acquiring the first image and the second image such that a ratio of the number of acquired frames of the second image to the number of acquired frames of the first image in a predetermined time range is a first ratio, or a second image acquisition mode of acquiring the first image and the second image such that a ratio of the number of acquired frames of the second image to the number of acquired frames of the first image in the time range is a second ratio higher than the first ratio; a specific target detecting unit that is adapted to detect a specific target from the first image and/or the second image; and a display control unit that is adapted to cause a display apparatus to display the first image, wherein the mode control unit is adapted to cause the image acquiring unit to acquire the first image and the second image in the first image acquisition mode or the second image acquisition mode on the basis of a detection result of the specific target.
A method for video coding, comprising: determining, by processing circuitry (120, 170), a process unit size for a decoder-side motion vector refinement, DMVR; enabling, by the processing circuitry (120, 170), an application of the DMVR on a current block when a size of the current block is smaller than or equal to the process unit size; and disabling, by the processing circuitry (120, 170), the application of the DMVR on the current block when the size of the current block is larger than the process unit size, wherein disabling the application of the DMVR on the current block when the size of the current block is larger than the process unit size further comprises: partitioning the current block into a plurality of sub-current blocks having a size equal to or smaller than the process unit size; and applying the DMVR on each of the sub-current blocks independently. determining, by processing circuitry (120, 170), a process unit size for a decoder-side motion vector refinement, DMVR; enabling, by the processing circuitry (120, 170), an application of the DMVR on a current block when a size of the current block is smaller than or equal to the process unit size; and disabling, by the processing circuitry (120, 170), the application of the DMVR on the current block when the size of the current block is larger than the process unit size, wherein disabling the application of the DMVR on the current block when the size of the current block is larger than the process unit size further comprises: partitioning the current block into a plurality of sub-current blocks having a size equal to or smaller than the process unit size; and applying the DMVR on each of the sub-current blocks independently. partitioning the current block into a plurality of sub-current blocks having a size equal to or smaller than the process unit size; and applying the DMVR on each of the sub-current blocks independently.
A system comprising: a powered device configured for receiving power from a power source device via a channel, the powered device comprising a base load and one or more optional loads; the system being characterized by a sub-system configured for: determining one of a resistance of the channel or a maximum power that can be safely provided to the powered device over the channel of a determined channel type; determining a respective power requirement for each of the one or more optional loads, and based on one of the determined resistance of the channel or the determined maximum power that can be safely provided to the powered device over the channel of a determined channel type and based on the respective power requirements for the one or more optional loads, configuring the powered device to operate the base load and all or a subset of the one or more optional loads. a powered device configured for receiving power from a power source device via a channel, the powered device comprising a base load and one or more optional loads; the system being characterized by a sub-system configured for: determining one of a resistance of the channel or a maximum power that can be safely provided to the powered device over the channel of a determined channel type; determining a respective power requirement for each of the one or more optional loads, and based on one of the determined resistance of the channel or the determined maximum power that can be safely provided to the powered device over the channel of a determined channel type and based on the respective power requirements for the one or more optional loads, configuring the powered device to operate the base load and all or a subset of the one or more optional loads. determining one of a resistance of the channel or a maximum power that can be safely provided to the powered device over the channel of a determined channel type; determining a respective power requirement for each of the one or more optional loads, and based on one of the determined resistance of the channel or the determined maximum power that can be safely provided to the powered device over the channel of a determined channel type and based on the respective power requirements for the one or more optional loads, configuring the powered device to operate the base load and all or a subset of the one or more optional loads.
An apparatus, comprising: logic circuitry configured to cause a connection to be set up; the logic circuitry configured to cause transceiver circuitry to transmit first connectivity information relating to the apparatus comprising information on at least one access device comprised in the apparatus in at least one of a power off state and a hibernation state to a correspondent host over the connection and to receive a request relating to the at least one access device in the at least one of the power off state and the hibernation state from the correspondent host over the connection; the logic circuitry configured to cause at least one of the at least one access device in the at least one of the power off state and the hibernation state to become activated responsive to receipt of the request; and the logic circuitry configured to cause the transceiver circuitry to transmit updated connectivity information relating to the apparatus, the updated connectivity information comprising address information on the activated at least one access device, to the correspondent host. logic circuitry configured to cause a connection to be set up; the logic circuitry configured to cause transceiver circuitry to transmit first connectivity information relating to the apparatus comprising information on at least one access device comprised in the apparatus in at least one of a power off state and a hibernation state to a correspondent host over the connection and to receive a request relating to the at least one access device in the at least one of the power off state and the hibernation state from the correspondent host over the connection; the logic circuitry configured to cause at least one of the at least one access device in the at least one of the power off state and the hibernation state to become activated responsive to receipt of the request; and the logic circuitry configured to cause the transceiver circuitry to transmit updated connectivity information relating to the apparatus, the updated connectivity information comprising address information on the activated at least one access device, to the correspondent host.
Weapon tube module for a weapon tube, wherein the weapon tube module can be removably arranged in the weapon tube, wherein the weapon tube module has a storage module and an ejection module, wherein the storage module has at least a first storage tube and a second storage tube, wherein the first storage tube has at least a first first storage position for a weapon, wherein the second storage tube has at least a first second storage position, wherein the first storage tube and the second storage tube are arranged parallel and adjacent to each other in the longitudinal direction of the weapon tube module, wherein the ejection module is arranged on the side of the storage module facing the inside of the ship, wherein at least the storage module is rotatable around the longitudinal direction of the weapon tube module.
A method for assembling a gas sensor, the method comprising the steps of: (a) disposing an element dummy with its longitudinal direction coinciding a vertical direction, said element dummy having a shape similar to a shape of a sensor element, the sensor element including ceramic as a main constituent material and having an elongated shape; (b) fitting through holes of annular mounting parts (7, 8a, 8b, 8c, 9a, 9b) with said element dummy from vertically above, said annular mounting parts (7, 8a, 8b, 8c, 9a, 9b) each having a disc shape or cylindrical shape, said through holes each having a shape corresponding to a cross-sectional shape of said sensor element; (c) fitting a tubular body with outer peripheries of said annular mounting parts (7, 8a, 8b, 8c, 9a, 9b) from vertically above; (d) abuttingly disposing said sensor element on an upper end of said element dummy such that said element dummy and said sensor element are arranged in line with each other; (e) moving said element dummy vertically downward to move down said sensor element and fitting said through holes of said annular mounting parts (7, 8a, 8b, 8c, 9a, 9b) with said sensor element, to thereby obtain a workpiece including said sensor element, said annular mounting parts (7, 8a, 8b, 8c, 9a, 9b), and said tubular body; (f) vertically inverting a posture of said workpiece; and (g) pressing said annular mounting parts (7, 8a, 8b, 8c, 9a, 9b), wherein in said step (b), a plurality of types of parts including a powder compact (9a, 9b) of ceramic are fitted with said element dummy as said annular mounting parts, and said step (g) includes a step of compressing said powder compact (9a, 9b) and is performed at least after said step (f). (a) disposing an element dummy with its longitudinal direction coinciding a vertical direction, said element dummy having a shape similar to a shape of a sensor element, the sensor element including ceramic as a main constituent material and having an elongated shape; (b) fitting through holes of annular mounting parts (7, 8a, 8b, 8c, 9a, 9b) with said element dummy from vertically above, said annular mounting parts (7, 8a, 8b, 8c, 9a, 9b) each having a disc shape or cylindrical shape, said through holes each having a shape corresponding to a cross-sectional shape of said sensor element; (c) fitting a tubular body with outer peripheries of said annular mounting parts (7, 8a, 8b, 8c, 9a, 9b) from vertically above; (d) abuttingly disposing said sensor element on an upper end of said element dummy such that said element dummy and said sensor element are arranged in line with each other; (e) moving said element dummy vertically downward to move down said sensor element and fitting said through holes of said annular mounting parts (7, 8a, 8b, 8c, 9a, 9b) with said sensor element, to thereby obtain a workpiece including said sensor element, said annular mounting parts (7, 8a, 8b, 8c, 9a, 9b), and said tubular body; (f) vertically inverting a posture of said workpiece; and (g) pressing said annular mounting parts (7, 8a, 8b, 8c, 9a, 9b), wherein