mhurhangee/ep-ind-claims huggingface dataset:
Method for enhancing the usage of user equipment resources and/or network resources related to the transmission of environment-related information between an user equipment and a mobile communication network, wherein the mobile communication network comprises a base station entity, wherein the user equipment comprises at least one radio interface, wherein an uplink radio connection between the user equipment and the base station entity is to be established using the at least one radio interface of the user equipment, wherein the method comprises the following steps: -- transmitting, in a first step, a measurement configuration information from the mobile communication network to the user equipment, wherein a control channel of the mobile communication network is used for the transmission of the measurement configuration information, and wherein the measurement configuration information comprises an indication that a requested measurement, to be conducted by the user equipment and resulting in obtaining a local network information, shall be reported to the base station entity together with at least one other uplink transmission performed by the user equipment using the at least one radio interface of the user equipment, -- obtaining by the user equipment the local network information by conducting the requested measurement, in a second step subsequent to the first step, and -- transmitting by the user equipment, in a third step subsequent to the second step, the local network information together with the at least one other uplink transmission performed by the user equipment to the base station entity by using the at least one radio interface of the user equipment, wherein the initiation of an uplink synchronization of the user equipment solely due to transmitting the local network information is avoided. -- transmitting, in a first step, a measurement configuration information from the mobile communication network to the user equipment, wherein a control channel of the mobile communication network is used for the transmission of the measurement configuration information, and wherein the measurement configuration information comprises an indication that a requested measurement, to be conducted by the user equipment and resulting in obtaining a local network information, shall be reported to the base station entity together with at least one other uplink transmission performed by the user equipment using the at least one radio interface of the user equipment, -- obtaining by the user equipment the local network information by conducting the requested measurement, in a second step subsequent to the first step, and -- transmitting by the user equipment, in a third step subsequent to the second step, the local network information together with the at least one other uplink transmission performed by the user equipment to the base station entity by using the at least one radio interface of the user equipment, wherein the initiation of an uplink synchronization of the user equipment solely due to transmitting the local network information is avoided.
An integrated manufacturing process to co-produce 1-chloro-3,3,3-trifluoropropene, 1,3,3,3-tetrafluoropropene, and 1,1,1,3,3-pentafluoropropane starting from 1,1,1-3,3-pentachloropropane (HCC-240fa) comprising the steps of: (a) in a first reactor, conducting the fluorination of HCC-240fa to produce 1-chloro-3,3,3-trifluoropropene (1233zd); (b) in a second reactor, conducting the fluorination of 1233zd to produce 1,1,1,3,3-pentafluoropropane; and (c) in a third reactor, conducting the dehydrofluorination of 245fa to produce 1,3,3,3-tetrafluoropropene (1234ze). (a) in a first reactor, conducting the fluorination of HCC-240fa to produce 1-chloro-3,3,3-trifluoropropene (1233zd); (b) in a second reactor, conducting the fluorination of 1233zd to produce 1,1,1,3,3-pentafluoropropane; and (c) in a third reactor, conducting the dehydrofluorination of 245fa to produce 1,3,3,3-tetrafluoropropene (1234ze).
A method of controlling a resolution and a frame rate of a screen image, in a first device which shares the screen image of the first device with a second device, the method comprising: detecting a class of a content currently displayed on a screen based on a sum of motion vectors and text recognition of the screen image, wherein a class of the content determined based on the sum of motion vectors is further classified based on a ratio of the text on the screen image obtained by the text recognition; determining a Quality of Experience, QoE, policy indicating desired levels of the resolution and the frame rate within a range of an allowable bitrate based on the detected class of the content, wherein the allowable bitrate is determined based on a state of a network; encoding the screen image of the first device based on the determined QoE policy; and transmitting the encoded screen image to the second device. detecting a class of a content currently displayed on a screen based on a sum of motion vectors and text recognition of the screen image, wherein a class of the content determined based on the sum of motion vectors is further classified based on a ratio of the text on the screen image obtained by the text recognition; determining a Quality of Experience, QoE, policy indicating desired levels of the resolution and the frame rate within a range of an allowable bitrate based on the detected class of the content, wherein the allowable bitrate is determined based on a state of a network; encoding the screen image of the first device based on the determined QoE policy; and transmitting the encoded screen image to the second device.
A liquefier assembly for use in an additive manufacturing system, the liquefier assembly comprising: a rigid member comprising one or more thermally-conductive materials, and having a gap extending along a longitudinal axis wherein the rigid member comprises a clam block having a base portion connected to a pair of arms (68a, 68b), which collectively define the gap; a liquefier tube disposed within the gap, and having an inlet end and an outlet end offset along the longitudinal axis; a heater assembly (56a, 56b) disposed in the gap and in contact with the liquefier tube, wherein the heater assembly (56a, 56b) is configured to heat the liquefier tube in a zone-by-zone manner along the longitudinal axis; a thermal resistor (60a, 60b) disposed in the gap between the rigid member and the heater assembly (56a, 56b), wherein the thermal resistor (60, 60b) is configured to conduct a portion of the heat from the heater assembly (56a, 56b) to the rigid member; and a heat sink unit coupled to the rigid member to draw the conducted heat away from the rigid member. a rigid member comprising one or more thermally-conductive materials, and having a gap extending along a longitudinal axis wherein the rigid member comprises a clam block having a base portion connected to a pair of arms (68a, 68b), which collectively define the gap; a liquefier tube disposed within the gap, and having an inlet end and an outlet end offset along the longitudinal axis; a heater assembly (56a, 56b) disposed in the gap and in contact with the liquefier tube, wherein the heater assembly (56a, 56b) is configured to heat the liquefier tube in a zone-by-zone manner along the longitudinal axis; a thermal resistor (60a, 60b) disposed in the gap between the rigid member and the heater assembly (56a, 56b), wherein the thermal resistor (60, 60b) is configured to conduct a portion of the heat from the heater assembly (56a, 56b) to the rigid member; and a heat sink unit coupled to the rigid member to draw the conducted heat away from the rigid member.
Method for determining a measuring offset of a rotor position sensor assigned to a rotor of an electric machine comprising stator windings that are supplied by an inverter converting a voltage at a DC link capacitor into an AC current, wherein a candidate value for the measuring offset is determined, comprising the following steps: - controlling a power unit of the inverter to provide the current based on rotor position information measured by the rotor position sensor to the stator windings such that the DC link capacitor of the inverter is actively discharged, - evaluating a plausibility of the candidate value for the measuring offset based on a voltage of the DC link capacitor detected while the power unit is controlled to actively discharge the DC link capacitor, and - providing the candidate value as determined measuring offset, if a result of the evaluation is positive. - controlling a power unit of the inverter to provide the current based on rotor position information measured by the rotor position sensor to the stator windings such that the DC link capacitor of the inverter is actively discharged, - evaluating a plausibility of the candidate value for the measuring offset based on a voltage of the DC link capacitor detected while the power unit is controlled to actively discharge the DC link capacitor, and - providing the candidate value as determined measuring offset, if a result of the evaluation is positive.
Device for filling containers, comprising preferably one storage container in which a fluid that is to be bottled in the containers can be accommodated, comprising a filling device which fills the fluid into the containers, and comprising a transport line by means of which the fluid is transported preferably from the storage container to the filling device, wherein a valve device is arranged in the transport line preferably between the storage container and the filling device, which valve device automatically switches between an open and a closed state depending on a flow rate of the fluid within the transport line, characterised in that the valve device comprises a valve body formed by a magnetic material arranged inside the transport line and a magnet which is arranged outside the transport line and that the apparatus comprises a bypass line which bridges the valve device so that a simple opening of the valve device is possible by means of pressure compensation.
A balloon catheter for insertion in a vessel for treating a treatment area, comprising: a shaft; an inflatable balloon attached to the shaft and having an interior; and at least three radiopaque markings (30, 32, 34) located on the shaft and spaced along a longitudinal axis of the catheter in the interior of the balloon, wherein a first distance separating a first radiopaque marking from a second adjacent radiopaque marking is different from a second distance separating the second radiopaque marking from a third adjacent radiopaque marking, characterized in that the balloon includes an uninflated midpoint location and an inflated midpoint location of the working surface of the balloon; one of the three radiopaque markings is positioned at an offset location relative to the uninflated midpoint location, whereby on inflation of the balloon, the one radiopaque marking substantially aligns with the inflated midpoint location. a shaft; an inflatable balloon attached to the shaft and having an interior; and at least three radiopaque markings (30, 32, 34) located on the shaft and spaced along a longitudinal axis of the catheter in the interior of the balloon, wherein a first distance separating a first radiopaque marking from a second adjacent radiopaque marking is different from a second distance separating the second radiopaque marking from a third adjacent radiopaque marking, characterized in that the balloon includes an uninflated midpoint location and an inflated midpoint location of the working surface of the balloon; one of the three radiopaque markings is positioned at an offset location relative to the uninflated midpoint location,
A rack guide unit comprising: a housing having an accommodation portion through which a rack shaft that is meshed with a pinion shaft passes; a closure member secured to an external opening end that is provided on the opposite side of the accommodation portion from the rack shaft; a rack guide that is accommodated in the accommodation portion so as to be movable in an advancing/withdrawing direction (Y1/Y2) toward the rack shaft or the closure member, and that supports the rack shaft so that the rack shaft is slidable in an axial direction of the rack shaft; and an urging unit (U; UR) that includes a stack of a plurality of coned disc springs urging the rack guide toward the rack shaft and arranged in an identical orientation and a holding member holding the stack, and that is arranged between the closure member and the rack guide, characterized in that the rack guide unit includes an auxiliary coned disc spring (70; 70R) that serves as the holding member, the auxiliary coned disc spring (70; 70R) being arranged in series with the stack and tilted in a free state toward a side opposite a side toward which the stack is tilted, wherein the auxiliary coned disc spring (70; 70R) includes an annular auxiliary coned-disc-spring main body, and a plurality of holding hooks extending from a radially inner portion or a radially outer portion of the auxiliary coned-disc-spring main body and engaged with a radially inner portion or a radially outer portion of the stack. a housing having an accommodation portion through which a rack shaft that is meshed with a pinion shaft passes; a closure member secured to an external opening end that is provided on the opposite side of the accommodation portion from the rack shaft; a rack guide that is accommodated in the accommodation portion so as to be movable in an advancing/withdrawing direction (Y1/Y2) toward the rack shaft or the closure member, and that supports the rack shaft so that the rack shaft is slidable in an axial direction of the rack shaft; and an urging unit (U; UR) that includes a stack of a plurality of coned disc springs urging the rack guide toward the rack shaft and arranged in an identical orientation and a holding member holding the stack, and that is arranged between the closure member and the rack guide, characterized in that the rack guide unit includes an auxiliary coned disc spring (70; 70R) that serves as the holding member, the auxiliary coned disc spring (70; 70R) being arranged in series with the stack and tilted in a free state toward a side opposite a side toward which the stack is tilted, wherein the auxiliary coned disc spring (70; 70R) includes an annular auxiliary coned-disc-spring main body, and a plurality of holding hooks extending from a radially inner portion or a radially outer portion of the auxiliary coned-disc-spring main body and engaged with a radially inner portion or a radially outer portion of the stack.
Method for servicing a vehicle air conditioning system operated with a closed coolant circulatory system, in which in a first servicing phase a circulation mixture of coolant, compressor oil and optionally other mixture components is removed by suction from a vehicle air conditioning system into a separating stage by a coolant compressor producing a certain suction pressure via a separator up to a moderate vacuum and during which coolant is separated by the separator from the circulation mixture removed by suction, compressed and trapped and its amount determined, and in which in a second servicing phase the coolant circulation system of the vehicle air conditioning system is largely emptied of residue by a vacuum pump, characterized by that residual gases pumped off in the second servicing phase are conducted by the coolant compressor through the separating stage and the amount of the coolant residue trapped in this process is determined.
A method for determining a reagent concentration within a sample, comprising the steps: (a) immersing the sample in the reagent; (b) obtaining an experimental time-of-flight versus time for an acoustic signal to pass through the sample immersed in the reagent (S330, S430); (c) providing a plurality of candidate diffusivity constants of the sample (S331, S431); (d) simulating a spatial dependence of diffusion into the sample to generate a model time-of-flight versus time over a plurality of time points, wherein the simulation is conducted for each of the candidate diffusivity constants (S332-S335, S432-S437); (e) comparing the model time-of-flight versus time with the experimental time-of- flight versus time to obtain an error function, wherein a minimum of the error function yields a diffusivity constant for the sample (S336-S339, S438-S439); (f) providing a plurality of candidate porosities of the sample; (g) simulating a spatial dependence of diffusion into the sample to generate a model time-of-flight versus time over a plurality of time points, wherein the simulation is conducted for each of the candidate porosities (S441-S444); (h) comparing the model time-of-flight with the experimental time-of-flight to obtain a second error function, wherein a minimum of the error function yields a porosity of the sample (S445-S448); and (i) calculating a concentration of the reagent at one or more particular spatial points within the sample at a particular time using the diffusivity constant for the sample and the porosity of the sample. (a) immersing the sample in the reagent; (b) obtaining an experimental time-of-flight versus time for an acoustic signal to pass through the sample immersed in the reagent (S330, S430); (c) providing a plurality of candidate diffusivity constants of the sample (S331, S431); (d) simulating a spatial dependence of diffusion into the sample to generate a model time-of-flight versus time over a plurality of time points, wherein the simulation is conducted for each of the candidate diffusivity constants (S332-S335, S432-S437); (e) comparing the model time-of-flight versus time with the experimental time-of- flight versus time to obtain an error function, wherein a minimum of the error function yields a diffusivity constant for the sample (S336-S339, S438-S439); (f) providing a plurality of candidate porosities of the sample; (g) simulating a spatial dependence of diffusion into the sample to generate a model time-of-flight versus time over a plurality of time points, wherein the simulation is conducted for each of the candidate porosities (S441-S444); (h) comparing the model time-of-flight with the experimental time-of-flight to obtain a second error function, wherein a minimum of the error function yields a porosity of the sample (S445-S448); and (i) calculating a concentration of the reagent at one or more particular spatial points within the sample at a particular time using the diffusivity constant for the sample and the porosity of the sample.
A light-emitting assembly comprising a housing, a light source provided in the housing and a heat sink provided on an outer surface of the housing, characterized in that the light-emitting assembly further comprises a holding assembly, wherein the holding assembly comprises a holding rod that partially extends from the housing and is movable between an initial position and a locking position, wherein the holding rod is inserted into the heat sink in the initial position and presses the heat sink against the outer surface in the locking position.
A door handle for actuating a spindle or follower, said spindle or follower being designed separately from the door handle and being rotatable about a transmission axis, for opening a door, wherein a transmission element of the door handle is arranged in a rotatable manner about the transmission axis and the door handle comprises: - an actuation element comprising an actuation surface, wherein the actuation element is movable from a closure position into an opening position by way of force action upon the actuation surface and the actuation surface in the closure position as well as in the opening position is arranged essentially normally to the transmission axis; - an actuation guide with an actuation guide track, along which the actuation element is movable from the closure position into the opening position, wherein the actuation guide track is designed parallel to the transmission axis, - a transmission unit which is capable of converting a movement of the actuation element from the closure position to the opening position into a rotation of the transmission element; wherein the actuation guide comprises at least two guide elements which are rotatably arranged about a guide rotation axis, wherein the guide rotation axis is arranged perpendicularly to the transmission axis and the transmission unit and the transmission element are non-positively connected to one another via a helicoidal guide mechanism, wherein the helicoidal guide mechanism limits a rotation of the transmission element about the transmission axis to maximally 60 angle degrees. - an actuation element comprising an actuation surface, wherein the actuation element is movable from a closure position into an opening position by way of force action upon the actuation surface and the actuation surface in the closure position as well as in the opening position is arranged essentially normally to the transmission axis; - an actuation guide with an actuation guide track, along which the actuation element is movable from the closure position into the opening position, wherein the actuation guide track is designed parallel to the transmission axis, - a transmission unit which is capable of converting a movement of the actuation element from the closure position to the opening position into a rotation of the transmission element;
A signal processing method in a DSL system, wherein the DSL system comprises a network-side device and n subscriber lines, the network-side device sends a downstream signal to n customer premises equipments through the n subscriber lines, and the method comprises: determining that there is no to-be-sent downstream signal on m subscriber lines in the n subscriber lines, wherein n>m≥1; superimposing a signal X=(x 1, x 2,..., x m) on the m subscriber lines, wherein x p indicates a signal component loaded on the p th subscriber line in the m subscriber lines; performing precoding processing on the downstream signal on the n subscriber lines, so that an amplitude of an output signal on the m subscriber lines after the precoding processing is 0, wherein the value of X is calculated according to a condition that the amplitude of the signal output on the m subscriber lines after the precoding processing is 0; and sending the downstream signal that has undergone the precoding processing on another line of the n subscriber lines different from the m subscriber lines. determining that there is no to-be-sent downstream signal on m subscriber lines in the n subscriber lines, wherein n>m≥1; superimposing a signal X=(x 1, x 2,..., x m) on the m subscriber lines, wherein x p indicates a signal component loaded on the p th subscriber line in the m subscriber lines; performing precoding processing on the downstream signal on the n subscriber lines, so that an amplitude of an output signal on the m subscriber lines after the precoding processing is 0, wherein the value of X is calculated according to a condition that the amplitude of the signal output on the m subscriber lines after the precoding processing is 0; and sending the downstream signal that has undergone the precoding processing on another line of the n subscriber lines different from the m subscriber lines.