mhurhangee/ep-ind-claims huggingface dataset:
A system for wirelessly sensing a parameter from a remote location, comprising: a wireless reader configured to communicate with a wireless sensor; a self-test device which emulates at least one electrical behavior of said wireless sensor in a known manner when placed in communication with said reader; wherein said system is configured to carry out a self-test such that said reader wirelessly communicates with said self-test device and obtains at least one response from said self-test device, and; wherein said at least one response is compared to an expected response from said self-test device, in order to assess a functional performance of said reader. a wireless reader configured to communicate with a wireless sensor; a self-test device which emulates at least one electrical behavior of said wireless sensor in a known manner when placed in communication with said reader; wherein said system is configured to carry out a self-test such that said reader wirelessly communicates with said self-test device and obtains at least one response from said self-test device, and; wherein said at least one response is compared to an expected response from said self-test device, in order to assess a functional performance of said reader. wherein said system is configured to carry out a self-test such that said reader wirelessly communicates with said self-test device and obtains at least one response from said self-test device, and; wherein said at least one response is compared to an expected response from said self-test device, in order to assess a functional performance of said reader.
A first base station apparatus for a wireless communication system in which, when connecting one terminal apparatus to the first base station apparatus and a second base station apparatus, the second base station apparatus selects a frequency band to be used for a control channel being transmitted from the terminal apparatus to the second base station apparatus from a plurality of frequency bands usable by the second base station apparatus, and notifies the terminal apparatus of the selected frequency band, the first base station apparatus comprising: acquisition means for acquiring, from the terminal apparatus, information about radio quality of a signal received from the second base station apparatus for the plurality of frequency bands; extraction means for extracting one or more frequency bands out of the plurality of frequency bands such that the radio quality of an extracted frequency band is higher than a predetermined value; and notification means for notifying the second base station apparatus of first information representing the one or more frequency bands that are extracted by the extraction means and second information representing one or more other frequency bands that are not extracted by the extraction means, wherein the first information and the second information are notified in a distinguishable manner. acquisition means for acquiring, from the terminal apparatus, information about radio quality of a signal received from the second base station apparatus for the plurality of frequency bands; extraction means for extracting one or more frequency bands out of the plurality of frequency bands such that the radio quality of an extracted frequency band is higher than a predetermined value; and notification means for notifying the second base station apparatus of first information representing the one or more frequency bands that are extracted by the extraction means and second information representing one or more other frequency bands that are not extracted by the extraction means, wherein the first information and the second information are notified in a distinguishable manner.
A method of relaxing frequency measurement by a terminal in a wireless communication system, the method comprising: receiving, from a base station, system information including first configuration information related to frequency measurement and second configuration information related to relaxed frequency measurement, wherein the second configuration information includes information related to a not at cell edge criterion; and determining whether to perform relaxed frequency measurement based on the not at cell edge criterion, wherein the first configuration information includes S IntraSearchP for a cell selection receive level value, Srxlev, S IntraSearchQ for a cell selection quality value, Squal, SnonlntraSearchP for the Srxlev, and S nonIntraSearchQ for the Squal, and wherein the information related to the not at cell edge criterion includes S SearchThresholdP for the Srxlev for relaxed frequency measurement which is less than or equal to both the S IntraSearchP and the S nonIntraSearchP, and S SearchThresholdQ for the Squal for relaxed frequency measurement which is less than or equal to both the S IntraSearchQ and the S nonIntraSearchQ. receiving, from a base station, system information including first configuration information related to frequency measurement and second configuration information related to relaxed frequency measurement, wherein the second configuration information includes information related to a not at cell edge criterion; and determining whether to perform relaxed frequency measurement based on the not at cell edge criterion, wherein the first configuration information includes S IntraSearchP for a cell selection receive level value, Srxlev, S IntraSearchQ for a cell selection quality value, Squal, SnonlntraSearchP for the Srxlev, and S nonIntraSearchQ for the Squal, and wherein the information related to the not at cell edge criterion includes S SearchThresholdP for the Srxlev for relaxed frequency measurement which is less than or equal to both the S IntraSearchP and the S nonIntraSearchP, and S SearchThresholdQ for the Squal for relaxed frequency measurement which is less than or equal to both the S IntraSearchQ and the S nonIntraSearchQ.
A method for radio resources management within a set of cells (C 1,...,C N) covered by base stations (BS 1,...,BS N), the method comprising the following steps: - retrieving traffic demands information including relative Quality of Service - QoS - and radio performance figures on each cell (C i) from correspondent base station (BS i); - processing the traffic demands information so as to detect at least one periodic traffic pattern, this processing comprising an identification step of a stable traffic periodic slot within the detected at least one periodic traffic pattern, a stable traffic periodic slot being a time period during which variations on the traffic activity is limited in comparison with a predefined threshold; - adjusting allocated radio resources for each cell (C i) according to the detected at least one periodic traffic pattern, this adjusting being performed per identified stable traffic periodic slot per cell, (C i); and - reviewing the adjusted allocated radio resources according to base stations (BS 1,...,BS N) feedbacks. - retrieving traffic demands information including relative Quality of Service - QoS - and radio performance figures on each cell (C i) from correspondent base station (BS i); - processing the traffic demands information so as to detect at least one periodic traffic pattern, this processing comprising an identification step of a stable traffic periodic slot within the detected at least one periodic traffic pattern, a stable traffic periodic slot being a time period during which variations on the traffic activity is limited in comparison with a predefined threshold; - adjusting allocated radio resources for each cell (C i) according to the detected at least one periodic traffic pattern, this adjusting being performed per identified stable traffic periodic slot per cell, (C i); and - reviewing the adjusted allocated radio resources according to base stations (BS 1,...,BS N) feedbacks.
Method for operating a medical system, in which a patient is moved manually by means of a patient table that can be moved relative to a component (1, 4, 5), which is embodied as an imaging apparatus, of the system with a motion parameter, comprising the following steps: detection of a speed of the patient relative to the component (1, 4, 5) as the motion parameter using a sensor, and automatic interaction between an image parameter of the imaging apparatus and the motion parameter so that the value of the image parameter changes dynamically with the value of the motion parameter.
A display apparatus comprising a plurality of blue pixels configured to emit blue light, a plurality of green pixels configured to emit green light, and a plurality of red pixels configured to emit red light, each of the plurality of blue, green, and red pixels comprising: a reflection layer; a first electrode arranged on the reflection layer; a light-emitting region arranged on the first electrode; and a second electrode arranged on the light-emitting region, wherein the reflection layer constitutes a microcavity together with the second electrode, wherein an upper surface of the reflection layer of each of the plurality of blue pixels is continuously flat, and is level with an upper surface of the reflection layer of the green pixel and an upper surface of the reflection layer of the red pixel, and wherein each of the plurality of green pixels and each of the plurality of red pixels comprises a plurality of nano-structures protruding from a bottom surface of the reflection layer to the upper surface of the reflection layer, the plurality of nano-structures being configured to determine resonance wavelength of the microcavity of each of the plurality of green pixels and each of the plurality of red pixels, and wherein a height of the plurality of nano-structures in each of the plurality of green pixels is equal to a height of the plurality of nano-structures in each of the plurality of red pixels. a reflection layer; a first electrode arranged on the reflection layer; a light-emitting region arranged on the first electrode; and a second electrode arranged on the light-emitting region, wherein the reflection layer constitutes a microcavity together with the second electrode, wherein an upper surface of the reflection layer of each of the plurality of blue pixels is continuously flat, and is level with an upper surface of the reflection layer of the green pixel and an upper surface of the reflection layer of the red pixel, and wherein each of the plurality of green pixels and each of the plurality of red pixels comprises a plurality of nano-structures protruding from a bottom surface of the reflection layer to the upper surface of the reflection layer, the plurality of nano-structures being configured to determine resonance wavelength of the microcavity of each of the plurality of green pixels and each of the plurality of red pixels, and wherein a height of the plurality of nano-structures in each of the plurality of green pixels is equal to a height of the plurality of nano-structures in each of the plurality of red pixels.
A method for mitigating interference between radio access technology, RAT, components in a wireless device, the method comprising: detecting an interference situation between a first RAT component and a second RAT component in the wireless device; and sending a notification of the detected interference situation to a network, wherein the notification comprises information for assisting with the detected interference situation, and wherein the information comprises at least one of the following: a list of frequencies affected by the interference situation between the first RAT component and the second RAT component or information associated with time division multiplexing, TDM, in the wireless device. detecting an interference situation between a first RAT component and a second RAT component in the wireless device; and sending a notification of the detected interference situation to a network, wherein the notification comprises information for assisting with the detected interference situation, and wherein the information comprises at least one of the following: a list of frequencies affected by the interference situation between the first RAT component and the second RAT component or information associated with time division multiplexing, TDM, in the wireless device.
Cooking appliance, in particular a pyrolytic oven, comprising at least two components (4, 5), one component being an appliance housing and one component being an appliance door and the appliance door being arranged so as to be movable relative to the appliance housing, and comprising a door lock, and • in a first state, the appliance door being in a closed position and the door lock being in an engaged position in engagement with the appliance door, • in a second state, the appliance door being in a position that is open at least by way of a gap, and the door lock being in the engaged position in engagement with the appliance door, a drive means being provided to transfer the first state into the second state and vice versa, and at least one cooking program being stored with which the position that is open by way of a gap can be controlled during the program sequence and/or towards the end of the program, • in a third state, the door lock being in a release position and releasing the appliance door, characterised in that the appliance door is preloaded in the opening direction by a spring device, in that the appliance door is opened in the third state by the spring force of the spring device and a transfer from the first state into the second state by means of the drive means is slower than an opening of the appliance door by the spring force of the spring device in the third state. • in a first state, the appliance door being in a closed position and the door lock being in an engaged position in engagement with the appliance door, • in a second state, the appliance door being in a position that is open at least by way of a gap, and the door lock being in the engaged position in engagement with the appliance door, a drive means being provided to transfer the first state into the second state and vice versa, and at least one cooking program being stored with which the position that is open by way of a gap can be controlled during the program sequence and/or towards the end of the program, • in a third state, the door lock being in a release position and releasing the appliance door,
An aeration device configured to be fitted to a membrane filtration module having membranes mounted therein, the aeration device comprises: a sleeve configured to at least partially surround the membrane filtration module, the sleeve having one end adapted to engage with the membrane filtration module and another end adapted to engage with a filtrate collection conduit or manifold, the sleeve comprising: an outer wall and an inner wall spaced therefrom, the inner wall and the outer wall downwardly extending co-axially from a joining portion, wherein the inner wall extends downwardly at least part way along a length of the outer wall of the sleeve. the outer wall and the inner wall defining a chamber therebetween having an open lower end at a distal end of the inner wall and a closed upper end at the joining portion where the inner wall and the outer wall of the sleeve are joined; a gas inlet configured to communicate gas from a source of gas to the chamber wherein the gas inlet is provided at the joining portion of the sleeve; one or more aeration openings defined in the inner wall of the sleeve and configured to provide fluid communication between the chamber and the membranes of the membrane filtration module; one or more drain openings defined in the outer wall of the sleeve and configured to provide fluid communication between the membranes of the membrane filtration module and an outside of the sleeve.
A method for feeding back a message, applied in a base station, wherein the method comprises: acquiring transaction data to be transmitted to a user equipment UE when the UE is in an inactive state; allocating an uplink resource to the UE according to a service type of the transaction data, when one or more feedback messages from the UE are required for the transaction data; and the method further being characterized by: transmitting a specified message to the UE, wherein the specified message comprises the transaction data and configuration information of the uplink resource, the configuration information is configured to indicate a resource block RB corresponding to the uplink resource and a sub-frame location corresponding to the RB, and the UE transmits the one or more feedback messages on the uplink resource according to the configuration information. acquiring transaction data to be transmitted to a user equipment UE when the UE is in an inactive state; allocating an uplink resource to the UE according to a service type of the transaction data, when one or more feedback messages from the UE are required for the transaction data; and the method further being characterized by: transmitting a specified message to the UE, wherein the specified message comprises the transaction data and configuration information of the uplink resource, the configuration information is configured to indicate a resource block RB corresponding to the uplink resource and a sub-frame location corresponding to the RB, and the UE transmits the one or more feedback messages on the uplink resource according to the configuration information. transmitting a specified message to the UE, wherein the specified message comprises the transaction data and configuration information of the uplink resource, the configuration information is configured to indicate a resource block RB corresponding to the uplink resource and a sub-frame location corresponding to the RB, and the UE transmits the one or more feedback messages on the uplink resource according to the configuration information.
A golf club head comprising: a face having an outer surface configured for striking a ball; a body connected to the face and extending rearward from the face, the body including a heel, a toe, a top side, and a sole configured to confront a playing surface in use; and a first inwardly recessed channel and a second inwardly recessed channel at least partially located on the sole of the body and being configured to influence the impact of a ball on the face, the first channel being elongated between a proximal end located proximate a center of the sole and a distal end located more proximate the heel, and the second channel being elongated between a proximal end located proximate the center of the sole and a distal end located more proximate the toe, wherein a gap is defined proximate the center of the sole between the proximal ends of the first and second channels, characterised in that the sole further comprises a keel positioned along the center of the sole and extending rearward from a bottom edge of the face toward a rear of the head opposite the face, wherein the keel is configured to be a lowest surface of the head in use, and at least a portion of the keel is raised with respect to adjacent surfaces of the sole, and wherein the keel is located at least partially within the gap. a face having an outer surface configured for striking a ball; a body connected to the face and extending rearward from the face, the body including a heel, a toe, a top side, and a sole configured to confront a playing surface in use; and a first inwardly recessed channel and a second inwardly recessed channel at least partially located on the sole of the body and being configured to influence the impact of a ball on the face, the first channel being elongated between a proximal end located proximate a center of the sole and a distal end located more proximate the heel, and the second channel being elongated between a proximal end located proximate the center of the sole and a distal end located more proximate the toe, wherein a gap is defined proximate the center of the sole between the proximal ends of the first and second channels, characterised in that the sole further comprises a keel positioned along the center of the sole and extending rearward from a bottom edge of the face toward a rear of the head opposite the face, wherein the keel is configured to be a lowest surface of the head in use, and at least a portion of the keel is raised with respect to adjacent surfaces of the sole, and wherein the keel is located at least partially within the gap.
A camshaft comprising a decompression device for reducing pressure in a cylinder when an engine starts, the camshaft having a flange and one or more lobes (14, 15, 17) having a lobe face for actuating corresponding cylinder valves, the decompression device comprising: a bias member for biasing a portion of a weight member toward the axis of the camshaft; the weight member pivotably connected to the camshaft for actuating a drive pin; the drive pin connecting the weight member and a shaft such that the weight member rotates the shaft; wherein said shaft is located axially within the camshaft, and is rotatable relative to the camshaft to extend or retract a lifter radially; the lifter is provided inwardly of the lobe face of one of said lobes (14, 15, 17) on the camshaft in a radial direction of the camshaft such that the lifter can extend outwardly or retract inwardly in the radial direction from the lobe face; wherein the weight member and the drive pin are located on the camshaft between the flange and one of the said lobes (14, 15, 17), wherein a camshaft sprocket, through which a rotational drive is provided to the camshaft, is located between the flange and said one of said lobes (14, 15, 17) and wherein the weight member is mounted via a pivot pin to the flange, charaterised in that the pivot pin extends through a slot in the sprocket. a bias member for biasing a portion of a weight member toward the axis of the camshaft; the weight member pivotably connected to the camshaft for actuating a drive pin; the drive pin connecting the weight member and a shaft such that the weight member rotates the shaft; wherein said shaft is located axially within the camshaft, and is rotatable relative to the camshaft to extend or retract a lifter radially; the lifter is provided inwardly of the lobe face of one of said lobes (14, 15, 17) on the camshaft in a radial direction of the camshaft such that the lifter can extend outwardly or retract inwardly in the radial direction from the lobe face; wherein the weight member and the drive pin are located on the camshaft between the flange and one of the said lobes (14, 15, 17), wherein a camshaft sprocket, through which a rotational drive is provided to the camshaft, is located between the flange and said one of said lobes (14, 15, 17) and wherein the weight member is mounted via a pivot pin to the flange, charaterised in that the pivot pin extends through a slot in the sprocket.