mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal comprising a back lighting structure for a key button, comprising: at least one light emitting device configured to illuminate the key button; a case part formed at least partly of a light transmissive material of a second layer, and configured to receive light from the light emitting device; and a first coating layer (164; 1164, 1320), on a third layer, over the case part, excluding a specific region on the case part, and formed of a material having a transmittance different from a transmittance of the case part. characterized by: a first embossing coating layer being a fourth layer, over the first coating layer and configured to comprise at least one semi-transmissive material having a transmittance different from the transmittance of the first coating layer, wherein the first embossing layer is scattered discretely excluding the region where the key button is located, wherein a first layer and the second, third and fourth layers are laminated in a series, and wherein the at least one light emitting device is on the first layer. at least one light emitting device configured to illuminate the key button; a case part formed at least partly of a light transmissive material of a second layer, and configured to receive light from the light emitting device; and a first coating layer (164; 1164, 1320), on a third layer, over the case part, excluding a specific region on the case part, and formed of a material having a transmittance different from a transmittance of the case part. characterized by: a first embossing coating layer being a fourth layer, over the first coating layer and configured to comprise at least one semi-transmissive material having a transmittance different from the transmittance of the first coating layer, wherein the first embossing layer is scattered discretely excluding the region where the key button is located, wherein a first layer and the second, third and fourth layers are laminated in a series, and wherein the at least one light emitting device is on the first layer. a first embossing coating layer being a fourth layer, over the first coating layer and configured to comprise at least one semi-transmissive material having a transmittance different from the transmittance of the first coating layer, wherein the first embossing layer is scattered discretely excluding the region where the key button is located, wherein a first layer and the second, third and fourth layers are laminated in a series, and wherein the at least one light emitting device is on the first layer.
A method for a client device (102, 502, 702, 1700) comprising: transmitting a request to communicate with a network (110, 510, 710); establishing a security context for a connection with the network, wherein the security context includes at least an encryption algorithm, an encryption key, an integrity protection algorithm, an integrity protection key, or combinations thereof; receiving one or more encrypted client device contexts from the network in response to the request, wherein the one or more encrypted client device contexts include network state information associated with the client device, the network state information including at least the security context and information associated with one or more bearers for the client device; and transmitting a message that includes at least one of the one or more encrypted client device contexts to the network, wherein the one or more encrypted client device contexts enable reconstruction of a context at the network for communication with the client device, the context including the network state information. transmitting a request to communicate with a network (110, 510, 710); establishing a security context for a connection with the network, wherein the security context includes at least an encryption algorithm, an encryption key, an integrity protection algorithm, an integrity protection key, or combinations thereof; receiving one or more encrypted client device contexts from the network in response to the request, wherein the one or more encrypted client device contexts include network state information associated with the client device, the network state information including at least the security context and information associated with one or more bearers for the client device; and transmitting a message that includes at least one of the one or more encrypted client device contexts to the network, wherein the one or more encrypted client device contexts enable reconstruction of a context at the network for communication with the client device, the context including the network state information.
A method of controlling the shrinkage and/or growth of a ceramic honeycomb structure between a green body state and a fired state, the method comprising: (a) providing a substantially clay-free cordierite batch composition comprising hydrated alumina and suitable for making a ceramic honeycomb structure; (b) extruding the batch composition into a green honeycomb structure; (c) measuring the dimensions of the green honeycomb structure; (d) firing the green honeycomb structure; (e) measuring the dimensions of the fired honeycomb structure; (f) determining the shrinkage or growth of the fired honeycomb structure as compared to the green honeycomb structure and selecting a desired hydrated alumina amount of the batch composition based on a function or relationship between shrinkage or growth and the hydrated alumina amount of the batch composition; (g) adjusting the hydrated alumina content of the composition by the addition of the selected amount of at least one hydrated alumina to the batch composition; and (h) repeating steps (a)-(g) as necessary to obtain a desired level of shrinkage between the green body and fired states. (a) providing a substantially clay-free cordierite batch composition comprising hydrated alumina and suitable for making a ceramic honeycomb structure; (b) extruding the batch composition into a green honeycomb structure; (c) measuring the dimensions of the green honeycomb structure; (d) firing the green honeycomb structure; (e) measuring the dimensions of the fired honeycomb structure; (f) determining the shrinkage or growth of the fired honeycomb structure as compared to the green honeycomb structure and selecting a desired hydrated alumina amount of the batch composition based on a function or relationship between shrinkage or growth and the hydrated alumina amount of the batch composition; (g) adjusting the hydrated alumina content of the composition by the addition of the selected amount of at least one hydrated alumina to the batch composition; and (h) repeating steps (a)-(g) as necessary to obtain a desired level of shrinkage between the green body and fired states.
Method for scheduling transmission-link capacity between packet switched telecommunications flows in a telecommunications network element, in which method - digital information is transmitted as constant or variable-size packets, Pkt, - a priority value, P, is attached to each packet, - a weighting-factor value, W, is attached to each packet, - there are at least two priority-value alternatives, - of the packets that are offered for forwarding, one is selected and is forwarded from the system using an outgoing data transmission link, and once the transmission has terminated the next packet is selected, characterized in that the selection of the packet to be forwarded is performed in two stages, as follows: 1), a sub-group, J\Highest,, which contains the packets representing the highest priority value to be found from the group, J, of the packets offered, is separated from the group, J, of the packets, Pkt, offered for forwarding, and 2) a packet to be forwarded is selected, using a weighting-factor based scheduling method, from the sub-group, J\Highest, obtained, in such a way that, in the consecutive selection situations, the sub-groups, J\Highest, representing different priority values, P, are handled using the same weighting-factor based scheduling process. - digital information is transmitted as constant or variable-size packets, Pkt, - a priority value, P, is attached to each packet, - a weighting-factor value, W, is attached to each packet, - there are at least two priority-value alternatives, - of the packets that are offered for forwarding, one is selected and is forwarded from the system using an outgoing data transmission link, and once the transmission has terminated the next packet is selected, 1), a sub-group, J\Highest,, which contains the packets representing the highest priority value to be found from the group, J, of the packets offered, is separated from the group, J, of the packets, Pkt, offered for forwarding, and 2) a packet to be forwarded is selected, using a weighting-factor based scheduling method, from the sub-group, J\Highest, obtained, in such a way that, in the consecutive selection situations, the sub-groups, J\Highest, representing different priority values, P, are handled using the same weighting-factor based scheduling process.
A transistor protection circuit for protecting a voltage-driven transistor that is switch-controlled by the application of a high-potential-side voltage or low-potential-side voltage of a power supply to a gate terminal of the transistor by a drive circuit, the transistor protection circuit comprising: a power supply controller that gradually lowers the high-potential-side voltage of the power supply upon receiving a protection command for executing protection of the transistor, in order to perform soft interruption of the transistor, a gate short-circuit part for causing short circuit in the gate terminal and a source or emitter terminal of the transistor; and a short-circuit controller for controlling the gate short-circuit part so as to cause short circuit in the gate terminal and the source or emitter terminal of the transistor after a predetermined delay time period, which is shorter than an operation delay time period of the drive circuit, elapses since the reception of the protection command, wherein the power supply voltage is prevented from declining more than necessary during the predetermined delay time period, so that discontinuation of the operation of another circuit, that uses this power supply voltage, can be avoided. a power supply controller that gradually lowers the high-potential-side voltage of the power supply upon receiving a protection command for executing protection of the transistor, in order to perform soft interruption of the transistor, a gate short-circuit part for causing short circuit in the gate terminal and a source or emitter terminal of the transistor; and a short-circuit controller for controlling the gate short-circuit part so as to cause short circuit in the gate terminal and the source or emitter terminal of the transistor after a predetermined delay time period, which is shorter than an operation delay time period of the drive circuit, elapses since the reception of the protection command, wherein the power supply voltage is prevented from declining more than necessary during the predetermined delay time period, so that discontinuation of the operation of another circuit, that uses this power supply voltage, can be avoided.
A method for calculating a service quality indicator in a web page browsing service, comprising: collecting (S110; S210) multiple packets related to the web page browsing service; determining packets generated in a same time of web page browsing; and calculating a service quality indicator of the web page browsing according to the packets generated in the same time of web page browsing, wherein the packets comprise a request packet and a response packet, and the step of the determining packets generated in a same time of web page browsing comprises: sequentially comparing a currently extracted request packet with a previously extracted request packet or a response packet corresponding to a previously extracted request packet, so as to determine whether the packets are generated in the same time of web page browsing; and if it is determined that the packets are generated in the same time of web page browsing, extracting a next request packet for comparison. collecting (S110; S210) multiple packets related to the web page browsing service; determining packets generated in a same time of web page browsing; and calculating a service quality indicator of the web page browsing according to the packets generated in the same time of web page browsing, wherein the packets comprise a request packet and a response packet, and the step of the determining packets generated in a same time of web page browsing comprises: sequentially comparing a currently extracted request packet with a previously extracted request packet or a response packet corresponding to a previously extracted request packet, so as to determine whether the packets are generated in the same time of web page browsing; and if it is determined that the packets are generated in the same time of web page browsing, extracting a next request packet for comparison. sequentially comparing a currently extracted request packet with a previously extracted request packet or a response packet corresponding to a previously extracted request packet, so as to determine whether the packets are generated in the same time of web page browsing; and if it is determined that the packets are generated in the same time of web page browsing, extracting a next request packet for comparison.
A rocket engine section, comprising - a combustion chamber body having an inner wall; - a channel (210, 220) carrying a cooling medium and extending outside and along the inner wall; and - a porous portion formed integrally with the inner wall and integrated into the inner wall and configured to allow the cooling medium guided in the channel (210, 220) to pass from the channel (210, 220) into the interior of the combustion chamber body, wherein a porosity of the porous portion determines a volume flow rate and/or mass flow rate of the cooling medium let through into the interior of the combustion chamber body, characterised in that the rocket engine section further comprises: - a plurality of supply lines (212, 222) fluidly connecting the channel carrying the cooling medium and the porous portion, wherein a part of the plurality of supply lines (212, 222) has a flow rate of the cooling medium that is different from a flow rate of the cooling medium of the remaining part of the plurality of supply lines (212, 222), such that different regions of the porous portion are supplied with a different volume flow rate and/or mass flow rate of the cooling medium. - a combustion chamber body having an inner wall; - a channel (210, 220) carrying a cooling medium and extending outside and along the inner wall; and - a porous portion formed integrally with the inner wall and integrated into the inner wall and configured to allow the cooling medium guided in the channel (210, 220) to pass from the channel (210, 220) into the interior of the combustion chamber body, wherein a porosity of the porous portion determines a volume flow rate and/or mass flow rate of the cooling medium let through into the interior of the combustion chamber body, - a plurality of supply lines (212, 222) fluidly connecting the channel carrying the cooling medium and the porous portion,
A sliding device for a palletizing device for the stacking of filled sacks into a stack of sacks, having a sliding surface and a sliding table arranged next to the sliding surface, wherein the sliding surface has at least one structural section with a three-dimensional surface structure for the reduction of the friction during the sliding of the sacks, wherein the three-dimensional surface structure is a surface of the structural section, which has a three-dimensional shape due to elevations or recesses, characterized in that the plurality of structural elements are arranged relative to each other offset to each other in the sliding direction of the slider, wherein the individual structural elements are arranged in rows transversely to the sliding direction, wherein the subsequent row has an offset in the sliding direction, and that the sliding device additionally has a slider for a sliding of the sacks from the sliding surface onto the sliding table.
A method, performed by an ultrasound imaging apparatus (100, 1000), of registering a first image that is an ultrasound image and a second image that is an image from another modality, the method comprising: loading the second image pre-acquired for a patient; acquiring information about a position and an orientation of an ultrasound probe based on a three-dimensional positional relationship between at least one external electromagnetic sensor (210, 530) attached to a first feature point of a patient's body and an electromagnetic sensor of the ultrasound probe; extracting, from the second image, a second feature point corresponding to the first feature point; registering the first and second images based on the three-dimensional positional relationship between the at least one external electromagnetic sensor (210, 530) and the electromagnetic sensor of the ultrasound probe and on a position of the second feature point extracted from the second image; and correcting a registration error generated due to a difference of the position and an angle between the second feature point extracted from the second image and the at least one external electromagnetic sensor (210, 530) attached to a surface of the patient's body, wherein the correcting of the registration error comprises: calculating a minimum distance between the second feature point extracted from the second image and a surface of the patient's body represented in the second image; and correcting a position error in the second image based on the calculated minimum distance. loading the second image pre-acquired for a patient; acquiring information about a position and an orientation of an ultrasound probe based on a three-dimensional positional relationship between at least one external electromagnetic sensor (210, 530) attached to a first feature point of a patient's body and an electromagnetic sensor of the ultrasound probe; extracting, from the second image, a second feature point corresponding to the first feature point; registering the first and second images based on the three-dimensional positional relationship between the at least one external electromagnetic sensor (210, 530) and the electromagnetic sensor of the ultrasound probe and on a position of the second feature point extracted from the second image; and correcting a registration error generated due to a difference of the position and an angle between the second feature point extracted from the second image and the at least one external electromagnetic sensor (210, 530) attached to a surface of the patient's body, wherein the correcting of the registration error comprises: calculating a minimum distance between the second feature point extracted from the second image and a surface of the patient's body represented in the second image; and correcting a position error in the second image based on the calculated minimum distance. calculating a minimum distance between the second feature point extracted from the second image and a surface of the patient's body represented in the second image; and correcting a position error in the second image based on the calculated minimum distance.
A microphone that comprises: (a) a transducer; and (b) sound transmission elements (18, 20) comprising a closed cell foam material and positioned between the transducer and an area for receiving ambient sound, such that the sound transmission elements (18, 20) are located on opposing sides of the transducer, and the closed cell foam material is in the form of a sheet as positioned between the transducer and an opening of a housing through which the ambient sound passes to reach the transducer, wherein the microphone comprises the housing; wherein the closed cell foam has an average cell size of 0.1 mm 3 to 1 mm 3 such that the closed cell foam exhibits an insertion loss of not greater than 10 dB/mm in the 300 Hz to 3400 Hz frequency band when measured according to the Insertion Loss Test Method. (a) a transducer; and (b) sound transmission elements (18, 20) comprising a closed cell foam material and positioned between the transducer and an area for receiving ambient sound, such that the sound transmission elements (18, 20) are located on opposing sides of the transducer, and the closed cell foam material is in the form of a sheet as positioned between the transducer and an opening of a housing through which the ambient sound passes to reach the transducer, wherein the microphone comprises the housing; wherein the closed cell foam has an average cell size of 0.1 mm 3 to 1 mm 3 such that the closed cell foam exhibits an insertion loss of not greater than 10 dB/mm in the 300 Hz to 3400 Hz frequency band when measured according to the Insertion Loss Test Method.
An autonomous floor cleaning system, comprising: a dry vacuuming robot for generating a working airflow for removing dirt from a surface to be cleaned and storing the dirt in a collection space, the dry vacuuming robot further comprising: a drive system (130, 131, 128) for autonomously moving the dry vacuuming robot over the surface to be cleaned; a stain sensing system (186, 1186) for detecting a stain; and a beacon deployment system for selectively deploying a beacon at the location of the stain; a deep cleaning robot for storing a cleaning fluid and delivering the cleaning fluid to the surface to be cleaned, and for removing the cleaning fluid and debris from the surface to be cleaned and storing the recovered cleaning fluid and debris, the deep cleaning robot further comprising: a controller for controlling the operation of the deep cleaning robot; and a drive system for autonomously moving the deep cleaning robot over the surface to be cleaned based on inputs from the controller; and wherein the dry vacuuming robot is configured to detect the stain via the stain sensing system (186, 1186) and deploy the beacon at the location of the detected stain and the beacon is operably coupled to the controller such that the beacon guides the deep cleaning robot to the location. a dry vacuuming robot for generating a working airflow for removing dirt from a surface to be cleaned and storing the dirt in a collection space, the dry vacuuming robot further comprising: a drive system (130, 131, 128) for autonomously moving the dry vacuuming robot over the surface to be cleaned; a stain sensing system (186, 1186) for detecting a stain; and a beacon deployment system for selectively deploying a beacon at the location of the stain; a drive system (130, 131, 128) for autonomously moving the dry vacuuming robot over the surface to be cleaned; a stain sensing system (186, 1186) for detecting a stain; and a beacon deployment system for selectively deploying a beacon at the location of the stain; a deep cleaning robot for storing a cleaning fluid and delivering the cleaning fluid to the surface to be cleaned, and for removing the cleaning fluid and debris from the surface to be cleaned and storing the recovered cleaning fluid and debris, the deep cleaning robot further comprising: a controller for controlling the operation of the deep cleaning robot; and a drive system for autonomously moving the deep cleaning robot over the surface to be cleaned based on inputs from the controller; and a controller for controlling the operation of the deep cleaning robot; and a drive system for autonomously moving the deep cleaning robot over the surface to be cleaned based on inputs from the controller; and wherein the dry vacuuming robot is configured to detect the stain via the stain sensing system (186, 1186) and deploy the beacon at the location of the detected stain and the beacon is operably coupled to the controller such that the beacon guides the deep cleaning robot to the location.