mhurhangee/ep-ind-claims huggingface dataset:
A method of triggering a network handover in a communications system comprising a mobile communications device and a plurality of network access points (14a,b,c), wherein a plurality of said network access points (14a,b,c) provide at least one signal to said mobile communications device, the method comprising: determining one or more signal characteristics of each communications channel available to the mobile communications device to establish communications with a network access point (14a,b,c) in said communications system; forecasting a future value of each said signal characteristic; forecasting a future handover margin for each said signal characteristic; and determining if handover, from the current communications channel established with the current network access point to another communications channel at another network access point, is available for the mobile communications device at a predetermined future point in time by: determining if the future value of a signal characteristic of said other communications channel is predicted at that time to exceed the value of the equivalent signal characteristic of the current communications channel at that time by at least the value of the handover margin predicted at that time, characterised by the step of: calculating the probability of a false trigger event; and wherein the future handover margin is dynamically adjusted in accordance with the calculated probability of a false trigger event. determining one or more signal characteristics of each communications channel available to the mobile communications device to establish communications with a network access point (14a,b,c) in said communications system; forecasting a future value of each said signal characteristic; forecasting a future handover margin for each said signal characteristic; and determining if handover, from the current communications channel established with the current network access point to another communications channel at another network access point, is available for the mobile communications device at a predetermined future point in time by: determining if the future value of a signal characteristic of said other communications channel is predicted at that time to exceed the value of the equivalent signal characteristic of the current communications channel at that time by at least the value of the handover margin predicted at that time, determining if the future value of a signal characteristic of said other communications channel is predicted at that time to exceed the value of the equivalent signal characteristic of the current communications channel at that time by at least the value of the handover margin predicted at that time, characterised by the step of: calculating the probability of a false trigger event; and wherein the future handover margin is dynamically adjusted in accordance with the calculated probability of a false trigger event. calculating the probability of a false trigger event; and wherein the future handover margin is dynamically adjusted in accordance with the calculated probability of a false trigger event.
Process for hot rolling an AA6xxx series aluminum alloy comprising the steps of: a. casting a rolling ingot made of AA6xxx series alloy, b. homogenizing the rolling ingot, optionally followed by a reheating, c. first hot rolling to convert the rolling ingot into a blank having a first output thickness from a first hot rolling starting temperature, d. cooling the blank obtained with a mean cooling rate of the mean temperature of the blank of V= C/e up to a second starting temperature of second hot rolling, where V is in °C/s, e is the thickness of the blank in mm, and C is a constant which equals between 400 and 1000°C/s*mm, preferentially between 600 and 900°C/s*mm, more preferentially between 700 and 800°C/s*mm, e. second hot rolling to convert the blank obtained into a strip at the final hot rolling thickness under deformation and temperature conditions such that the strip is recrystallized to at least 50%, f. cold rolling the strip into a sheet. a. casting a rolling ingot made of AA6xxx series alloy, b. homogenizing the rolling ingot, optionally followed by a reheating, c. first hot rolling to convert the rolling ingot into a blank having a first output thickness from a first hot rolling starting temperature, d. cooling the blank obtained with a mean cooling rate of the mean temperature of the blank of V= C/e up to a second starting temperature of second hot rolling, where V is in °C/s, e is the thickness of the blank in mm, and C is a constant which equals between 400 and 1000°C/s*mm, preferentially between 600 and 900°C/s*mm, more preferentially between 700 and 800°C/s*mm, e. second hot rolling to convert the blank obtained into a strip at the final hot rolling thickness under deformation and temperature conditions such that the strip is recrystallized to at least 50%, f. cold rolling the strip into a sheet.
A method for failure recovery in a user equipment, LTE, communicating in dual connectivity, DC, with a master node, MN, and a secondary node, SN, the method comprising: receiving, by the UE, candidate secondary node, C-SN, connection information including a configuration related to a C-SN and at least one condition for connecting to the C-SN; and detecting, by the UE, that a radio connection between the UE and the MN has failed; transmitting to the SN, by the UE, a first indication of the failed radio connection to initiate a procedure for recovering the radio connection between the UE and the MN; and performing at least one of: releasing (720, 807, 887, 1010, 1112) the C-SN connection information, or suspending (907, 1106) a procedure, for connecting to the C-SN. receiving, by the UE, candidate secondary node, C-SN, connection information including a configuration related to a C-SN and at least one condition for connecting to the C-SN; and detecting, by the UE, that a radio connection between the UE and the MN has failed; transmitting to the SN, by the UE, a first indication of the failed radio connection to initiate a procedure for recovering the radio connection between the UE and the MN; and performing at least one of: releasing (720, 807, 887, 1010, 1112) the C-SN connection information, or suspending (907, 1106) a procedure, for connecting to the C-SN.
Lifting platform having two lifting devices (24, 70) which are arranged at a distance from one another, are aligned with a common longitudinal central axis of the lifting platform and between which a working space is provided for lifting and lowering vehicles, each lifting device (24, 70) having a carrier which is movable up and down and each carrier accommodates two support arms which are each mounted on the carrier so as to be pivotable about a pivot axis (43, 44), so that these are aligable parallel to the longitudinal central axis in an initial position and are pivotable into the working space in a position of use, characterized in that each carrier has a longitudinal axis, wherein the longitudinal axis of the respective carrier is aligned parallel to the longitudinal central axis and a connecting straight line extends between the two pivot axes (43, 44) of the carrier, which are arranged at a distance on the carrier, which are aligned at an acute angle α to the longitudinal axis of the carrier in such a way so that two pivot axes arranged in mirror image to the longitudinal central axis are at a greater distance from the longitudinal central axis than the at least two further pivot axes of the support, wherein the longitudinal axis of the support extends between the two pivot axes (43, 44) arranged offset to one another.
A method of replacing a first drone base station (Drone-BS-A) with a second drone base station (Drone-BS-B), the method comprising: sending by the first drone base station first pilot signals indicating a cell identifier (Cell Id1); receiving (Fig 6:step 4) by the first drone base station information that the second drone base station is in the vicinity of the first drone base station; sending (Fig 6:step 10) by the second drone base station second pilot signals which indicate the same cell identifier (Cell Id1) as the first drone base station; receiving by the first drone base station from the second drone base station an indication to cease to send first pilot signals; and dependent upon receiving by the first drone base station from the second drone base station the indication to cease to send first pilot signals, ceasing (Fig 6:step 11) by the first drone base station the sending of first pilot signals. sending by the first drone base station first pilot signals indicating a cell identifier (Cell Id1); receiving (Fig 6:step 4) by the first drone base station information that the second drone base station is in the vicinity of the first drone base station; sending (Fig 6:step 10) by the second drone base station second pilot signals which indicate the same cell identifier (Cell Id1) as the first drone base station; receiving by the first drone base station from the second drone base station an indication to cease to send first pilot signals; and
A mask plate for fabricating a display panel, characterized by comprising: a plurality of through holes spaced apart from each other; a first surface; and a second surface opposite to the first surface; wherein each through hole of the plurality of through holes forms a first opening on the first surface, and forms a second opening on the second surface; wherein an area of the second opening is larger than an area of the first opening; wherein the second openings are arranged in parallel in a first predetermined direction, the first predetermined direction having a predetermined angle with respect to a horizontal direction or a vertical direction of the mask plate, and the predetermined angle is an oblique angle; and wherein a length direction of the second opening is different from a length direction of the first opening, and the first opening is located within a range of a projection of the second opening on a plane of the mask plate. a plurality of through holes spaced apart from each other; a first surface; and a second surface opposite to the first surface; wherein each through hole of the plurality of through holes forms a first opening on the first surface, and forms a second opening on the second surface; wherein an area of the second opening is larger than an area of the first opening; wherein the second openings are arranged in parallel in a first predetermined direction, the first predetermined direction having a predetermined angle with respect to a horizontal direction or a vertical direction of the mask plate, and the predetermined angle is an oblique angle; and wherein a length direction of the second opening is different from a length direction of the first opening, and the first opening is located within a range of a projection of the second opening on a plane of the mask plate.
A twin clutch controlling apparatus which includes a multi-speed transmission having a plurality of gear trains between a main shaft (6, 7) on the input side and a countershaft on the output side, a shift actuator for carrying out changeover of a shift stage of the multi-speed transmission, a twin clutch configured from an odd number stage side clutch and an even number stage side clutch for connecting and disconnecting power transmission between the transmission and an engine, a clutch actuator for controlling the twin clutch, and a manual operation clutch capacity arithmetic operation section for converting an operation amount of clutch manual operation means into an electric signal to arithmetically operate a manual operation clutch capacity arithmetic operation value (tqcltmt) corresponding to the manual operation, wherein: an auto mode (Auto) in which the twin clutch is automatically controlled by the control section, a manual mode (Manual) in which the twin clutch is manually controlled in response to the manual operation clutch capacity arithmetic operation value (tqcltmt), and a temporary manual mode (Temp. Manual) are provided as control modes for the twin clutch; the twin clutch controlling apparatus is configured so as to accept changeover from the auto mode (Auto) to the temporary manual mode (Temp. Manual) in response to an operation of the clutch manual operation means; and characterised in that when an operation of the clutch manual operation means is detected during automatic control in the auto mode (Auto), an event that the manual operation clutch capacity arithmetic operation value (tqcltmt) comes to have a value similar to that of the clutch capacity calculated in the auto mode (Auto) is included in the conditions required for changeover to the temporary manual mode (Temp. Manual). an auto mode (Auto) in which the twin clutch is automatically controlled by the control section, a manual mode (Manual) in which the twin clutch is manually controlled in response to the manual operation clutch capacity arithmetic operation value (tqcltmt), and a temporary manual mode (Temp. Manual) are provided as control modes for the twin clutch; the twin clutch controlling apparatus is configured so as to accept changeover from the auto mode (Auto) to the temporary manual mode (Temp. Manual) in response to an operation of the clutch manual operation means; and characterised in that when an operation of the clutch manual operation means is detected during automatic control in the auto mode (Auto), an event that the manual operation clutch capacity arithmetic operation value (tqcltmt) comes to have a value similar to that of the clutch capacity calculated in the auto mode (Auto) is included in the conditions required for changeover to the temporary manual mode (Temp. Manual).
Lightweight building panel, in particular sandwich panel, which on at least one of its narrow faces has a recess with two mutually opposed recess contact faces (11, 12) and a direction (a) of extension of the depth, wherein the recess contact faces (11, 12) each have a profile in the direction (a) of extension of the depth, and at least one rod-shaped element which is inserted in the recess, wherein the rod-shaped element has two rod contact faces (9, 10) which each have a profile in the direction (a) of extension of the depth and at least partially adjoin a recess contact face (11, 12), wherein preferably at least one rod contact face (9, 10) is at least partially bonded to an adjoining recess contact face (11, 12) by an adhesive, wherein the lightweight building panel further has two covering layers (2, 3), a middle layer arranged therebetween and a supporting edge as the rod-shaped element, wherein the supporting edge ends level with the covering layers (2, 3) at the narrow face of the lightweight building panel, so that a decorative edge can be joined both to the side faces of the covering layers facing towards the narrow face and to the side face of the supporting edge, characterised in that at least one recess contact face (11, 12) and at least one rod contact face (9, 10) has a region with a direction of extension which is different to the direction (a) of extension of the depth of the recess, and the rod-shaped element has an edge working, in particular a chamfer and/or radius, at at least one longitudinal edge facing towards the interior of the panel, so that there is a free space here between the rod contact face (9, 10) and the adjoining recess contact face (11, 12).
A valve device for use in motor vehicles, the finished valve device comprising a housing, which surrounds a flow duct portion (126, 128, 130, 133), and additionally comprising at least two valves (132, 134, 136, 137) accommodated on the housing and rotatable relative thereto about a valve axis such that, by relative adjustment of the valves (132, 134, 136, 137) relative to the housing, the effective flow area of the flow duct portion (126, 128, 130, 133) may be modified, wherein each of the at least two valves (132, 134, 136, 137) comprises two valve shaft portions (132b, 134b, 136b, 137b) which are substantially coaxial relative to the valve axis, with which the respective valve (132, 134, 136, 137) is supported rotatably on the housing, and comprises a valve body (132a, 134a, 136a, 137a), which is provided axially between the valve shaft portions (132b, 134b, 136b, 137b) and which is accommodated in the flow duct portion (126, 128, 130, 133) to modify the flow area, and wherein further the valve axis is provided at a distance from the valve body, wherein the valve body is formed in a curved manner, so that the valve body in a passage position, in which the flow cross-section is at maximum, abuts against the wall of the housing or osculates against the wall at a small distance, characterised in that adjacent valves (132, 134, 136, 137) are produced separately and are coupled together for joint movement by interlocking geometries (164, 166), and in addition to the provided interlocking geometries (164, 166) are connected together operationally non-detachably, by bonding, wherein the two valve shaft portions (132b, 134b, 136b, 137b) are formed in one piece with the valve body (132a, 134a, 136a, 137a) provided axially between them.
A load carrier foot (21, 22) for a load carrying roof rack for a vehicle, said load carrier foot (21, 22) being adapted to be connected with a load carrying bar having a longitudinal extension, a height and a width, said load carrier foot (21, 22) comprises a support surface adapted to rest against a first surface of said vehicle, a lock arrangement for locking said load carrying bar to said load carrier foot (21, 22), said lock arrangement comprising a tensioning member operable to displace a wedge member at least along said longitudinal extension of said load carrying bar to a retaining position in which said wedge member retains said load carrying bar to said load carrying foot (21, 22) in a locked position, a retaining arrangement to retain said load carrier foot (21, 22) to said vehicle, said tensioning member of said lock arrangement is further arranged to operate said retaining arrangement, characterized in that said load carrier foot (21, 22) comprises a body having a cavity, said cavity being adapted to receive at least a part of said load carrying bar.
Sensor device, comprising: - a housing body which has a flow duct formed in the housing body, - a bypass which is formed in the housing body and which branches off from the flow duct at a branching point, wherein the bypass has a wall with an opening, - a sensor element for detecting a gas content in an environment of the sensor element, which sensor element is at least partially arranged in the opening in the wall of the bypass and has the following: -- a sensor body, -- an electrode chamber which is formed in the sensor body, -- a heating element which is embedded in the sensor body and by means of which a predefined region around the electrode chamber can be heated to a predefined operating temperature, -- a longitudinal axis, -- an inlet duct which is coupled to the electrode chamber and which has an inlet on the surface of the sensor body, -- a thermal insulation sleeve on the sensor body, which thermal insulation sleeve extends at least axially in the direction of the longitudinal axis over the region of the electrode chamber. - a housing body which has a flow duct formed in the housing body, - a bypass which is formed in the housing body and which branches off from the flow duct at a branching point, wherein the bypass has a wall with an opening, - a sensor element for detecting a gas content in an environment of the sensor element, which sensor element is at least partially arranged in the opening in the wall of the bypass and has the following: -- a sensor body, -- an electrode chamber which is formed in the sensor body, -- a heating element which is embedded in the sensor body and by means of which a predefined region around the electrode chamber can be heated to a predefined operating temperature, -- a longitudinal axis, -- an inlet duct which is coupled to the electrode chamber and which has an inlet on the surface of the sensor body, -- a thermal insulation sleeve on the sensor body, which thermal insulation sleeve extends at least axially in the direction of the longitudinal axis over the region of the electrode chamber. -- a sensor body, -- an electrode chamber which is formed in the sensor body, -- a heating element which is embedded in the sensor body and by means of which a predefined region around the electrode chamber can be heated to a predefined operating temperature, -- a longitudinal axis, -- an inlet duct which is coupled to the electrode chamber and which has an inlet on the surface of the sensor body, -- a thermal insulation sleeve on the sensor body, which thermal insulation sleeve extends at least axially in the direction of the longitudinal axis over the region of the electrode chamber.
A method of communications, comprising: receiving, from an application, a request to announce an expression, wherein the expression is associated with expression information to be announced over the air, and wherein the request includes an indication to provide location information with the expression information during announcement, wherein the location information includes a time value to allow a receiving user equipment, UE, to determine freshness of the location information based on a timing difference between a location reading time and a transmission time; generating peer discovery, PD, information including the expression information and the location information, wherein the location information is included along with the expression information in a data section of the PD information, and wherein the location information includes at least partial latitude and longitude data, and wherein the generating further comprises: truncating latitude and longitude data based on a range of announcement for the PD information; and announcing the PD information. receiving, from an application, a request to announce an expression, wherein the expression is associated with expression information to be announced over the air, and wherein the request includes an indication to provide location information with the expression information during announcement, wherein the location information includes a time value to allow a receiving user equipment, UE, to determine freshness of the location information based on a timing difference between a location reading time and a transmission time; generating peer discovery, PD, information including the expression information and the location information, wherein the location information is included along with the expression information in a data section of the PD information, and wherein the location information includes at least partial latitude and longitude data, and wherein the generating further comprises: truncating latitude and longitude data based on a range of announcement for the PD information; and announcing the PD information. truncating latitude and longitude data based on a range of announcement for the PD information; and announcing the PD information.