mhurhangee/ep-ind-claims huggingface dataset:
A method of operating User Equipment, UE, in a wireless communication network, comprising: determining that data to the network are delay-tolerant; characterized by: receiving from the network a first value for a Time Alignment Timer, TAT, (56, 66), and a second value for the TAT for non delay-tolerant data, wherein the first value indicates a shorter duration than the second value; when the data is determined delay-tolerant, applying the first value to a Time Alignment Timer (56, 66) moving the UE more rapidly to a non synchronized state than if the data is not delay-tolerant. receiving from the network a first value for a Time Alignment Timer, TAT, (56, 66), and a second value for the TAT for non delay-tolerant data, wherein the first value indicates a shorter duration than the second value; when the data is determined delay-tolerant, applying the first value to a Time Alignment Timer (56, 66) moving the UE more rapidly to a non synchronized state than if the data is not delay-tolerant.
Edge material for panels, the edge material being constructed from a plurality of bonded layers, wherein - the edge material comprises a first layer, which is non-metallic, - the edge material comprises a core layer, which is made of at least one metal layer, and - the edge material comprises a second layer, which is non-metallic, the core layer being arranged between the first layer and the second layer, and the core layer is made of two bonded metal layers, which have a bonded connection 12 therebetween, wherein the first layer and the second layer consist of a composite material, characterized in that the composite material having a percentage by mass of phenolic resin of at least 20 %, and the metal layers have a thickness of between 0.2 mm and 0.35 mm. - the edge material comprises a first layer, which is non-metallic, - the edge material comprises a core layer, which is made of at least one metal layer, and - the edge material comprises a second layer, which is non-metallic, the core layer being arranged between the first layer and the second layer, and the core layer is made of two bonded metal layers, which have a bonded connection 12 therebetween, wherein the first layer and the second layer consist of a composite material, characterized in that the composite material having a percentage by mass of phenolic resin of at least 20 %, and the metal layers have a thickness of between 0.2 mm and 0.35 mm.
An apparatus for providing a dermatological treatment, comprising: a self-contained housing (20; 410; 610) configured for gripping with a person's hand for cordless manipulation during a dermatological treatment; a light source (10; 140; 145; 240; 310) within the housing (20; 410; 610) containing one or more laser emitters; one or more contact sensors (819; 820) configured to detect contact with the skin; an electrical circuit within the housing (20; 410; 610) comprising one or more batteries; an electronic control circuit configured to determine based on signals from the one or more contact sensors (819; 820) whether contact is made between the apparatus and the skin, and in response to determining that contact is made between the apparatus and the skin, automatically energize the light source (10; 140; 145; 240; 310) to emit laser radiation in the form of output light pulses; a light path within the housing (20; 410; 610) including an aperture (14; 100; 105; 200; 420) through which the output light pulses are propagated out of the housing (20; 410; 610); an output fluence of a light pulse emitted by the apparatus is greater than 4J/cm2 and less than 100 J/cm2, the output fluence providing the dermatological treatment; characterized in that the apparatus is configured so that the light pulses emitted by the apparatus are inherently eye safe while maintaining effective fluence to provide the dermatological treatment, wherein eye safety is provided by increasing the divergence and reducing the spatial coherence of the light emitted by the light source (10; 140; 145; 240; 310). a self-contained housing (20; 410; 610) configured for gripping with a person's hand for cordless manipulation during a dermatological treatment; a light source (10; 140; 145; 240; 310) within the housing (20; 410; 610) containing one or more laser emitters; one or more contact sensors (819; 820) configured to detect contact with the skin; an electrical circuit within the housing (20; 410; 610) comprising one or more batteries; an electronic control circuit configured to determine based on signals from the one or more contact sensors (819; 820) whether contact is made between the apparatus and the skin, and in response to determining that contact is made between the apparatus and the skin, automatically energize the light source (10; 140; 145; 240; 310) to emit laser radiation in the form of output light pulses; a light path within the housing (20; 410; 610) including an aperture (14; 100; 105; 200; 420) through which the output light pulses are propagated out of the housing (20; 410; 610); an output fluence of a light pulse emitted by the apparatus is greater than 4J/cm2 and less than 100 J/cm2, the output fluence providing the dermatological treatment; characterized in that the apparatus is configured so that the light pulses emitted by the apparatus are inherently eye safe while maintaining effective fluence to provide the dermatological treatment, wherein eye safety is provided by increasing the divergence and reducing the spatial coherence of the light emitted by the light source (10; 140; 145; 240; 310).
A Metal-Oxide-Semiconductor, MOS, varactor structure comprising: a semiconductor body having a well region, and a plurality of gate electrodes (3a-3d) and a plurality of cathode electrodes arranged over the well region, wherein the plurality of cathode electrodes are connected by a cathode connection pattern, the cathode connection pattern comprising a plurality of arms, each of the plurality of arms arranged to extend over a part of a respective gate electrode (3a-3d), wherein the gate electrodes (3a-3d) are L-shaped and have two end parts either side of a central part, wherein the arms of the cathode connection pattern are arranged to extend over the central part of the L-shaped gate electrodes and wherein the end parts of the L-shaped gate electrodes provide a connection point for a gate connection pattern of the MOS varactor structure, wherein the L-shaped gate electrodes (3a-3d) are electrically separated from one another, and further including a first gate connection pattern and a second gate connection pattern, wherein the gate connection patterns extend in spaced first and second layers, wherein the first gate connection pattern is configured to provide an interconnection for a first subset of the gate electrodes (3a-3d) and the second gate connection pattern is configured to provide an interconnection for a second subset of the gate electrodes (3a-3d), wherein the second subset comprises the gate electrodes outside the first subset. a semiconductor body having a well region, and a plurality of gate electrodes (3a-3d) and a plurality of cathode electrodes arranged over the well region, wherein the plurality of cathode electrodes are connected by a cathode connection pattern, the cathode connection pattern comprising a plurality of arms, each of the plurality of arms arranged to extend over a part of a respective gate electrode (3a-3d), wherein the gate electrodes (3a-3d) are L-shaped and have two end parts either side of a central part, wherein the arms of the cathode connection pattern are arranged to extend over the central part of the L-shaped gate electrodes and wherein the end parts of the L-shaped gate electrodes provide a connection point for a gate connection pattern of the MOS varactor structure, wherein the L-shaped gate electrodes (3a-3d) are electrically separated from one another, and further including a first gate connection pattern and a second gate connection pattern, wherein the gate connection patterns extend in spaced first and second layers, wherein the first gate connection pattern is configured to provide an interconnection for a first subset of the gate electrodes (3a-3d) and the second gate connection pattern is configured to provide an interconnection for a second subset of the gate electrodes (3a-3d), wherein the second subset comprises the gate electrodes outside the first subset.
Method for forming a monocrystal of diamond material from a monocrystalline substrate having a given thickness E and a surface with alternating recesses and initial elevations, the method unfolding in the same given thickness E, without epitaxial lateral overgrowth ELOG, and comprising the steps of: a) forming portions by lateral homoepitaxial growth between the initial elevations in order to carry out a layer of monocrystal having a thickness less than the given thickness E of the monocrystalline substrate and contained in the given thickness E, the monocrystalline substrate and the layer of monocrystal being formed from the same material, b) detecting defect areas in the layer of monocrystal by etching of the layer of monocrystal, which appear at least partially on the initial elevations, c) forming a mask on the layer of monocrystal between the detected defect areas, the mask having a pattern that includes openings on defect areas, d) etching in a thickness less than the given thickness E of monocrystalline substrate, the layer of monocrystal provided with a mask in such a way as to form recesses in the defect areas of the layer situated at the location of the openings, and new elevations outside the defect areas of the layer in the masked areas of the layer of monocrystal covered by the mask, e) repeating a new step a) between the new elevations by lateral homoepitaxial growth from the lateral walls of the new elevations in a thickness less than the given thickness E of monocrystalline substrate and contained in the given thickness E, in order to form a layer of monocrystal, the mask having been eliminated at the end of the step (d) or at the end of the step (e). a) forming portions by lateral homoepitaxial growth between the initial elevations in order to carry out a layer of monocrystal having a thickness less than the given thickness E of the monocrystalline substrate and contained in the given thickness E, the monocrystalline substrate and the layer of monocrystal being formed from the same material, b) detecting defect areas in the layer of monocrystal by etching of the layer of monocrystal, which appear at least partially on the initial elevations, c) forming a mask on the layer of monocrystal between the detected defect areas, the mask having a pattern that includes openings on defect areas, d) etching in a thickness less than the given thickness E of monocrystalline substrate, the layer of monocrystal provided with a mask in such a way as to form recesses in the defect areas of the layer situated at the location of the openings, and new elevations outside the defect areas of the layer in the masked areas of the layer of monocrystal covered by the mask, e) repeating a new step a) between the new elevations by lateral homoepitaxial growth from the lateral walls of the new elevations in a thickness less than the given thickness E of monocrystalline substrate and contained in the given thickness E, in order to form a layer of monocrystal,
Device (10, 50) intended to modify the temperature of an object comprising at least two zones (2, 3) brought to different temperatures, said device (10, 50) comprising a heat transfer fluid and at least one plate (11, 51) passed through by said fluid and intended to come into contact with said object, the plate (11, 51) comprising means for circulating said fluid making it possible to differentiate at least two distinct parts (12, 13, 52, 53) of said plate (11, 51) each having their own capacity to exchange heat and to vary the temperature of one of the zones (2, 3) of said object, and in that said plate (11, 51) comes into contact with the object to reduce the temperature differences between the different zones (2, 3) of said object, the device being characterized in that the plate comprises a fluid inlet, a first outlet and a second outlet for said fluid, and in that the flow rate of the coolant in the circuit between the inlet and the first outlet is greater than the flow rate of said fluid in the circuit between the first outlet and the second outlet.
A cap of a disposable bioreactor which is adapted to be connected to a container wherein the cap has a wall with an upper side and a lower side, the cap wall is limited by a circumferential collar, projecting vertically with respect to the lower cap side and matched to surround a fixation flange of the container, the lower cap side being provided with locking arms which coact with a corresponding fastening indentation of the container, characterised in that the fixation flange of the container has an bent portion in the direction of the opening of the container forming the fastening indentation, the locking arms extend in a lateral direction from a bearing flange of the cap in the direction of the collar, the locking arms are resiliently shortable in their longitudinal direction, the lateral extension of the locking arms is greater than the inner diameter of the fixation flange or the bent end portion, respectively, and the locking arms with U-shaped portions are adapted to engage the end portion of the fixation flange by way of a locking surface.
A vacuum pump comprising a rolling element rotor bearing, a bearing cage retainer for said rolling element rotor bearing; the bearing comprising an outer race, an inner race, and a plurality of separated rolling elements retained within a rotatable bearing cage; the vacuum pump being configured to limit longitudinal axial displacement of the outer race of the bearing; and the bearing cage retainer being configured to have an operational arrangement in which, at the maximum longitudinal axial displacement limit of the outer race in the direction of the retainer, the bearing cage retainer is disengaged from the bearing cage, and a failure configuration characterised by the dislocation of the bearing cage by a longitudinal axial displacement of the bearing cage relative to the outer race in the direction of the retainer and in which the bearing cage retainer engages said bearing cage and the bearing cage maintains the separation of the rolling elements within the bearing and wherein in the failure configuration the bearing cage retainer supports the bearing cage such that each of the rolling elements are in rolling and/or sliding engagement with both the outer race and inner race of the bearing.
A loudspeaker transducer arrangement for a loudspeaker system where a user perceives the emitted sound substantially as the same regardless of relative listening position, where the loudspeaker transducer arrangement includes two sets (10,12 and 14,16) of loudspeakers, where each set of loudspeakers includes one high range loudspeaker (10,14) and one full range loudspeaker (12,16), where the high range loudspeaker and the full range loudspeaker in each set emit sound in different directions (18, 20) away from an imaginary plane arranged between the two loudspeakers (10,12 and 14,16) and where the high range loudspeaker of a first set is arranged on the same side of the imaginary plane as the full range loudspeaker of a second set, where the loudspeaker transducer arrangement is arranged so that a first audio channel is provided to the first set of loudspeakers, and a second different audio channel is provided to the second set of loudspeakers, such that a designated sound signal for one channel is emitted in different directions due to the arrangement of the high range loudspeaker emitting sound in a first direction and the full range loudspeaker in the same set emitting sound in a different direction.
A method of manufacturing an alkali metal titanate, comprising the steps of: mixing an aggregate or a granulation of a titanium oxide and an alkali metal compound using a vibration rod mill, the aggregates or the granulation of the titanium compound having an average particle diameter of 0.1-10mm; and sintering the mixture for manufacturing the alkali metal titanate. mixing an aggregate or a granulation of a titanium oxide and an alkali metal compound using a vibration rod mill, the aggregates or the granulation of the titanium compound having an average particle diameter of 0.1-10mm; and sintering the mixture for manufacturing the alkali metal titanate.
Method for QoS-aware routing of received session flows of separate communication sessions comprising Communication Content achieved and received from Lawful Interception of target sessions, the method comprising: - sorting each separate communication session into one of two groups, a first routing group and a second routing group, according to certain criteria wherein QoS is at least one of the criteria by: - classifying the received session flows into separate communication sessions; - classifying each communication session into one of two traffic classes, a first traffic class and a second traffic class; - Checking QoS of each communication session of the first or second traffic class in relation to a pre-determined key parameter and a pre-set threshold value of said key parameter in a threshold test; - marking each communication session of the first and second traffic class as high quality or low quality in accordance with the outcome of the threshold test; - sorting the communication sessions marked as low quality of the second traffic class into the second routing group and the other communication sessions into the first routing group regardless of quality marking and traffic classes; and - routing communication sessions sorted into the first routing group via a regular handover interface and routing communication sessions sorted into the second routing group via an additional handover interface to a Law Enforcement Agency, LEA. - sorting each separate communication session into one of two groups, a first routing group and a second routing group, according to certain criteria wherein QoS is at least one of the criteria by: - classifying the received session flows into separate communication sessions; - classifying each communication session into one of two traffic classes, a first traffic class and a second traffic class; - Checking QoS of each communication session of the first or second traffic class in relation to a pre-determined key parameter and a pre-set threshold value of said key parameter in a threshold test; - marking each communication session of the first and second traffic class as high quality or low quality in accordance with the outcome of the threshold test; - sorting the communication sessions marked as low quality of the second traffic class into the second routing group and the other communication sessions into the first routing group regardless of quality marking and traffic classes; and - routing communication sessions sorted into the first routing group via a regular handover interface and routing communication sessions sorted into the second routing group via an additional handover interface to a Law Enforcement Agency, LEA.
A marker delivery device, comprising: (a) a tube having a distal end and a lateral marker deployment aperture; (b) at least one biopsy marker disposed proximally of the lateral marker deployment aperture within the tube; (c) a member having a distal end and disposed at least partially within the tube, the member movable in a distal direction to deploy the at least one biopsy marker from the tube through the lateral deployment aperture; and (d) a distal tip positioned at the distal end of the tube, wherein the distal tip comprises a ramp having a ramp surface, and wherein the distal tip comprises a laterally opening push rod recess, wherein the push rod recess (730, 780) has an opening disposed in a portion of the ramp surface, wherein the push rod recess is sized and shaped for receiving a portion of the distal end of the member; characterised in that: the distal tip further comprises a marker engaging element extending proximally from the ramp surface, wherein the marker engaging element comprises a tapered proximal end having a first incident angle; and further comprising a distal ramp extending from the distal end of the lateral marker deployment aperture proximally into the push rod recess (730, 780). (a) a tube having a distal end and a lateral marker deployment aperture; (b) at least one biopsy marker disposed proximally of the lateral marker deployment aperture within the tube; (c) a member having a distal end and disposed at least partially within the tube, the member movable in a distal direction to deploy the at least one biopsy marker from the tube through the lateral deployment aperture; and (d) a distal tip positioned at the distal end of the tube, wherein the distal tip comprises a ramp having a ramp surface, and wherein the distal tip comprises a laterally opening push rod recess, wherein the push rod recess (730, 780) has an opening disposed in a portion of the ramp surface, wherein the push rod recess is sized and shaped for receiving a portion of the distal end of the member; characterised in that: the distal tip further comprises a marker engaging element extending proximally from the ramp surface, wherein the marker engaging element comprises a tapered proximal end having a first incident angle; and further comprising a distal ramp extending from the distal end of the lateral marker deployment aperture proximally into the push rod recess (730, 780). the distal tip further comprises a marker engaging element extending proximally from the ramp surface, wherein the marker engaging element comprises a tapered proximal end having a first incident angle; and further comprising a distal ramp extending from the distal end of the lateral marker deployment aperture proximally into the push rod recess (730, 780).