mhurhangee/ep-ind-claims huggingface dataset:
A method in a network node the method comprising: receiving, by a network node from a user equipment, UE, a first message comprising an active time request and a UE identifier of the UE; generating, by the network node, a second message comprising an active time response determined based on whether mobile terminated, MT, data is awaiting transmission to the UE; and sending, by the network node, the second message, characterized in that the active time request comprises a mostly mobile originating traffic, MMOT, support flag and the active time response comprises an active timer value, and wherein generating the second message further comprises: setting (304a.), by the network node, the active timer value to zero when a message waiting indication, MWI, flag in the network node is not set and the MMOT support flag is set to true; setting (304b.), by the network node, the active timer value to a preconfigured value when an MWI flag in the network node is set and the MMOT support flag is set to true, wherein the preconfigured value is determined based upon a type of MT data awaiting transmission; and setting, by the network node, the active timer value to a default value when the MWI flag is set and the MMOT support flag is set to false. receiving, by a network node from a user equipment, UE, a first message comprising an active time request and a UE identifier of the UE; generating, by the network node, a second message comprising an active time response determined based on whether mobile terminated, MT, data is awaiting transmission to the UE; and sending, by the network node, the second message, setting (304a.), by the network node, the active timer value to zero when a message waiting indication, MWI, flag in the network node is not set and the MMOT support flag is set to true; setting (304b.), by the network node, the active timer value to a preconfigured value when an MWI flag in the network node is set and the MMOT support flag is set to true, wherein the preconfigured value is determined based upon a type of MT data awaiting transmission; and setting, by the network node, the active timer value to a default value when the MWI flag is set and the MMOT support flag is set to false.
A computer-implemented method at a reduced-performance computer system for distributing processing tasks from a reduced-performance computer system to at least one other computer system, the method comprising: an act of monitoring one or more computing tasks on a reduced-performance computer system to determine a processing resource usage level for each task, wherein the computing tasks are part of a software application running on the reduced-performance computer system; an act of determining that at least one of the monitored tasks is using processing resources beyond a specified threshold level; an act of sending the determined task to a second, different computer system that is configured to receive, process and return the results of the tasks to the reduced-performance computer system, wherein the determined task is divided into one or more portions for processing by the second, different computer system, a size of the portions being dynamically adjusted based on the current strength of a network signal of the reduced-performance computer; and an act of the reduced-performance computer system presenting the processed results received from the second computer system within the running software application. an act of monitoring one or more computing tasks on a reduced-performance computer system to determine a processing resource usage level for each task, wherein the computing tasks are part of a software application running on the reduced-performance computer system; an act of determining that at least one of the monitored tasks is using processing resources beyond a specified threshold level; an act of sending the determined task to a second, different computer system that is configured to receive, process and return the results of the tasks to the reduced-performance computer system, wherein the determined task is divided into one or more portions for processing by the second, different computer system, a size of the portions being dynamically adjusted based on the current strength of a network signal of the reduced-performance computer; and an act of the reduced-performance computer system presenting the processed results received from the second computer system within the running software application.
A scheduling request processing method, performed by a user equipment, characterized by comprising: determining whether to cancel a triggered scheduling request, SR, and/or stop an SR-prohibit timer according to a current status of a buffer status report, BSR, and a type of a logical channel configured to carry the SR; wherein the BSR comprises buffer status when the BSR was last triggered; and the type of the logical channel is configured to indicate whether the logical channel is an SR cancellation exemption logical channel. determining whether to cancel a triggered scheduling request, SR, and/or stop an SR-prohibit timer according to a current status of a buffer status report, BSR, and a type of a logical channel configured to carry the SR; wherein the BSR comprises buffer status when the BSR was last triggered; and the type of the logical channel is configured to indicate whether the logical channel is an SR cancellation exemption logical channel.
A non-aqueous electrolyte secondary battery having a negative electrode containing graphite particles as a negative electrode active material, a positive electrode containing a lithium-containing oxide of a transition metal or a lithium-containing phosphate of a transition metal as a positive electrode active material, and a non-aqueous electrolyte in which a lithium salt is dissolved in an organic solvent, wherein the graphite particles have an exposed crystal face and are bonded with each other so as to be parallel to the orientation plane of each other, and the non-aqueous electrolyte contains a phosphate ester compound represented by the following general formula to which an alkynyl group is bonded and/or an unsaturated phosphate ester compound represented by the following general formula: wherein R 1 and R 2 each independently represents a hydrogen atom or an alkyl group having 1 to 8 carbon atom(s), and R 3 represents an alkyl group having 1 to 8 carbon atom(s), an alkenyl group having 2 to 8 carbon atoms, an alkynyl group having 2 to 8 carbon atoms or a halogenated alkyl group having 1 to 8 carbon atom(s), wherein R 4 and R 5 each independently represents a hydrogen atom or an alkyl group having 1 to 8 carbon atom(s), R 6 represents an alkyl group having 1 to 8 carbon atom(s), an alkenyl group having 2 to 8 carbon atoms, an alkynyl group having 2 to 8 carbon atoms or a halogenated alkyl group having 1 to 8 carbon atom(s), and n represents a number of 1 or 2.
A method for wireless communication by a user equipment, UE (115-a), comprising: determining first timer data based at least in part on a duration for transmitting a first request to send, RTS message (305-a) and a duration for receiving a clear to send, CTS message (310-a); transmitting the first RTS message (305-a) including the first timer data; receiving the CTS message based on the first RTS message before expiration of a first timer associated with said first timer data; and transmitting, in response to receiving the CTS message, a data message (315-a) including second timer data associated with the transmission duration of the data message (315-a), the second timer data being different from the first timer data, the data message (315-a) being transmitted during a data transmission opportunity for the UE. determining first timer data based at least in part on a duration for transmitting a first request to send, RTS message (305-a) and a duration for receiving a clear to send, CTS message (310-a); transmitting the first RTS message (305-a) including the first timer data; receiving the CTS message based on the first RTS message before expiration of a first timer associated with said first timer data; and transmitting, in response to receiving the CTS message, a data message (315-a) including second timer data associated with the transmission duration of the data message (315-a), the second timer data being different from the first timer data, the data message (315-a) being transmitted during a data transmission opportunity for the UE.
A power cable, or power umbilical, comprising a number of electric cables for transfer of electric power/energy, filler material in the form of stiff elongate plastic elements (2, 3) located at least partially around and between the number of electric cables, the number of electric cables and stiff elongate plastic elements being gathered in a twisted bundle by means of a laying operation; a protective sheath that encompasses the electric cables and the filler material (2, 3); and at least one load carrying element at a predetermined location in the cross section of the power cable/umbilical, characterized in that the number of electric cables, the stiff elongate plastic elements (2, 3) and the at least one load carrying element, are alternately laid by continuously alternating direction, in the entire or part of the longitudinal extension of the power cable/umbilical to form a bundle, and the laid bundle is kept fixed substantially torsion stiff by the protective sheath.
A furnace (11, 11') for dental prosthesis or partial dental prosthesis, in particular for dental ceramics, having a heatable firing chamber which is in particular also evacuable; having a control device for controlling the operation of the furnace (11, 11') with reference to a firing program which is based on a set of parameter values; and having an operating unit which is associated with the control device and which is configured to display a representation of the firing program in the form of a firing progress curve, characterized in that the operating unit is configured to display in a simplified operating mode, together with the firing progress curve, at least one control panel (25a-d) for adjusting a selected parameter value of the set of parameter values relating to a predefined program phase of the firing program, with the at least one control panel (25a-d) being fixedly arranged in that region of the displayed firing progress curve which corresponds to the predefined program phase, and with the at least one control panel (25a-d) being superposed on the firing progress curve.
Arc fault protection device having - two contacts which are electrically isolated from one another in a fault state (II to VII) and are electrically short-circuited in an operating state (I, VIII), - a detection device for detecting an arc fault and for automatically changing the arc fault protection device from the operating state (I, VIII) to the fault state (II to VII) if the arc fault is detected, - an operating device for manually switching the arc fault protection device on and off, - a resetting device for capturing a temporal operating sequence of manual operation of the operating device and for resetting the arc fault protection device from the fault state to the operating state on the basis of the captured operating sequence, characterized in that - the arc fault protection device can be reset by means of a second operating sequence which is characterized by a switching-on operation (state VI), a switching-off operation (state VII) in a predefined time window after the switching-on operation and a subsequent renewed switching-on operation (state VIII), in each case by the operating device. - two contacts which are electrically isolated from one another in a fault state (II to VII) and are electrically short-circuited in an operating state (I, VIII), - a detection device for detecting an arc fault and for automatically changing the arc fault protection device from the operating state (I, VIII) to the fault state (II to VII) if the arc fault is detected, - an operating device for manually switching the arc fault protection device on and off, - a resetting device for capturing a temporal operating sequence of manual operation of the operating device and for resetting the arc fault protection device from the fault state to the operating state on the basis of the captured operating sequence, characterized in that - the arc fault protection device can be reset by means of a second operating sequence which is characterized by a switching-on operation (state VI), a switching-off operation (state VII) in a predefined time window after the switching-on operation and a subsequent renewed switching-on operation (state VIII), in each case by the operating device.
A lumen stent preform, where the lumen stent preform is an iron alloy containing at least one strong nitride-forming element, wherein a total alloy element content of the iron alloy is less than or equal to 3 wt% and a carbon content of the total alloy elements of the iron alloy is less than or equal to 0.45 wt% and wherein the strong nitride-forming element is at least one of Ti, Cr, Al, Zr, Nb, V, B, W and Mo, and a total content of the strong nitride-forming element is greater than or equal to 0.05 wt%; and the lumen stent preform has a microstructure with a grain size scale greater than or equal to 9, measured by the Chinese Standard GB/T 6394-2002, or has a cold deformed structure after cold working, wherein the hardness of the stent preform is 160-250HV0.05/10 and wherein the preform has an outer diameter of 1.2-4.2 mm and a wall thickness of 0.08-0.24 mm.
An image-sensing device (200, 900), comprising: a plurality of photoelectric elements, arranged into a plurality of unit cells (220, 230, 240, 250; 930, 940, 950, 960) and each of the unit cells comprising a first photoelectric element (221; 931, 941, 951, 961), a second photoelectric element (222; 932, 942, 952, 962), a third photoelectric element (223; 933, 943, 953, 963) and a fourth photoelectric element (224; 934, 944, 954, 964); wherein the first photoelectric element (221; 931, 941, 951, 961, the second photoelectric element (222; 932, 942, 952, 962), the third photoelectric element (223; 933, 943, 953, 963) and the fourth photoelectric element (224; 934, 944, 954, 964) in each of the unit cells (220, 230, 240, 250; 930, 940, 950, 960) are formed of pillar structures and have different sizes; wherein the first photoelectric element (221; 931, 941, 951, 961) captures a first image in a first phase (δ0), the second photoelectric element (222; 932, 942, 952, 962) captures a second image in a second phase, the third photoelectric element (223; 933, 943, 953, 963) captures a third image in a third phase (δ2), the fourth photoelectric element (224; 934, 944, 954, 964) captures a fourth image in a fourth phase (δ3); wherein the first phase (δ0), the second phase, the third phase (δ2), and the fourth phase (δ3) are different, characterized in that diameters (d0, d1, d2, d3) of the first photoelectric element (221; 931, 941, 951, 961), the second photoelectric element (222; 932, 942, 952, 962), the third photoelectric element (223; 933, 943, 953, 963) and the fourth photoelectric element (224; 934, 944, 954, 964) are 120-350nm. a plurality of photoelectric elements, arranged into a plurality of unit cells (220, 230, 240, 250; 930, 940, 950, 960) and each of the unit cells comprising a first photoelectric element (221; 931, 941, 951, 961), a second photoelectric element (222; 932, 942, 952, 962), a third photoelectric element (223; 933, 943, 953, 963) and a fourth photoelectric element (224; 934, 944, 954, 964); wherein the first photoelectric element (221; 931, 941, 951, 961, the second photoelectric element (222; 932, 942, 952, 962), the third photoelectric element (223; 933, 943, 953, 963) and the fourth photoelectric element (224; 934, 944, 954, 964) in each of the unit cells (220, 230, 240, 250; 930, 940, 950, 960) are formed of pillar structures and have different sizes; wherein the first photoelectric element (221; 931, 941, 951, 961) captures a first image in a first phase (δ0), the second photoelectric element (222; 932, 942, 952, 962) captures a second image in a second phase, the third photoelectric element (223; 933, 943, 953, 963) captures a third image in a third phase (δ2), the fourth photoelectric element (224; 934, 944, 954, 964) captures a fourth image in a fourth phase (δ3); wherein the first phase (δ0), the second phase, the third phase (δ2), and the fourth phase (δ3) are different,
Method for the production of an abradable coating (20, 24, 32, 44) on a component of a continuous flow machine, in particular a gas turbine, having the steps: - application and manufacture of the abradable coating (20, 24, 32, 44) onto the component of the continuous flow machine by means of a kinetic cold gas compacting method, - wherein the component is a static or rotating component of the continuous flow machine and characterised in that - the application of the abradable coating (20, 24, 32, 44) to the static or rotating component occurs according to a predetermined layer pattern for the formation of a structure and/or contour on and/or in the abradable coating (20, 24, 32, 44) and - the structure is formed to be honeycomb-shaped. - application and manufacture of the abradable coating (20, 24, 32, 44) onto the component of the continuous flow machine by means of a kinetic cold gas compacting method, - wherein the component is a static or rotating component of the continuous flow machine and characterised in that - the application of the abradable coating (20, 24, 32, 44) to the static or rotating component occurs according to a predetermined layer pattern for the formation of a structure and/or contour on and/or in the abradable coating (20, 24, 32, 44) and - the structure is formed to be honeycomb-shaped.
A battery pack, comprising: a plurality of battery cells; a protective circuit module electrically connected to the plurality of battery cells; a case accommodating the plurality of battery cells and the protective circuit module, the case including a first case and a second case coupled to the first case; an adhesive sheet (230, 530) attached to at least a portion of an outer surface of the case, the adhesive sheet including a base sheet (231, 531) and a bubble prevention part (232, 532) on the base sheet; and a protective cover (240, 540) interposed between the protective circuit module and the adhesive sheet, wherein the bubble prevention part includes: adhesive layers (233, 533) on one surface of the base sheet; and air discharge paths (234, 534) between the adhesive layers, and the adhesive sheet includes: a first area (A1, B1) overlying a first space accommodating the plurality of battery cells, and a second area (A2, B2) overlying a second space accommodating the protective circuit module, the air discharge paths (234, 534) being only in the first area. a plurality of battery cells; a protective circuit module electrically connected to the plurality of battery cells; a case accommodating the plurality of battery cells and the protective circuit module, the case including a first case and a second case coupled to the first case; an adhesive sheet (230, 530) attached to at least a portion of an outer surface of the case, the adhesive sheet including a base sheet (231, 531) and a bubble prevention part (232, 532) on the base sheet; and a protective cover (240, 540) interposed between the protective circuit module and the adhesive sheet, wherein the bubble prevention part includes: adhesive layers (233, 533) on one surface of the base sheet; and air discharge paths (234, 534) between the adhesive layers, adhesive layers (233, 533) on one surface of the base sheet; and air discharge paths (234, 534) between the adhesive layers, and the adhesive sheet includes: a first area (A1, B1) overlying a first space accommodating the plurality of battery cells, and a second area (A2, B2) overlying a second space accommodating the protective circuit module, the air discharge paths (234, 534) being only in the first area. a first area (A1, B1) overlying a first space accommodating the plurality of battery cells, and a second area (A2, B2) overlying a second space accommodating the protective circuit module, the air discharge paths (234, 534) being only in the first area.
An apparatus for positioning an orifice plate in an orifice flowmeter, the apparatus comprising: an insert having a through-passage extending from a first end to a second end, the second end having extensions configured to secure the apparatus to an internal portion of the orifice flowmeter; characterized by a first side of the insert having a first cutout to allow access to the through-passage; and a second side of the insert having a second cutout to allow access to the through-passage; wherein the through-passage is configured to allow the orifice plate installed on an orifice plate carrier to pass therethrough; and wherein the first and second cutouts (131, 141) are configured to allow a gear to pass therethrough, the gear configured to engage the orifice plate carrier. an insert having a through-passage extending from a first end to a second end, the second end having extensions configured to secure the apparatus to an internal portion of the orifice flowmeter; characterized by a first side of the insert having a first cutout to allow access to the through-passage; and a second side of the insert having a second cutout to allow access to the through-passage; wherein the through-passage is configured to allow the orifice plate installed on an orifice plate carrier to pass therethrough; and wherein the first and second cutouts (131, 141) are configured to allow a gear to pass therethrough, the gear configured to engage the orifice plate carrier.
Use of a gas having an oxygen content of less than 12 vol-% for increasing the storage stability in the dark of an immunoglobulin preparation comprising immunoglobulin in a mass-volume percentage of at least 4%, wherein the storage stability is stability against yellowish coloration over a period of 24 months or longer, and wherein the gas is used in the headspace of a container in which the immunoglobulin preparation is stored.
A pigment composition comprising an inorganic particulate material and calcium chloride, wherein the inorganic particulate material is selected from one or more of: magnesium carbonate, dolomite, calcium carbonate, gypsum, a hydrous kandite clay (for example kaolin, ball clay) an anhydrous (calcined) kandite clay (for example metakaolin, fully calcined kaolin), talc or mica. magnesium carbonate, dolomite, calcium carbonate, gypsum, a hydrous kandite clay (for example kaolin, ball clay) an anhydrous (calcined) kandite clay (for example metakaolin, fully calcined kaolin), talc or mica.
Labelling machine for containers, comprising: - a transport means for the containers; - at least one magazine for labels; - a carousel which is driven in particular directly and comprises pallets circulating thereon for removing the labels from the magazine and for transferring the labels to the containers, characterised in that each pallet is associated with an individual electric-motor drive for pivoting the pallet separately; and the labelling machine comprises a programmable controller for the individual drives, the controller being designed to generate different pivoting movements (10, 11) of the pallets on the magazine and on the containers. - a transport means for the containers; - at least one magazine for labels; - a carousel which is driven in particular directly and comprises pallets circulating thereon for removing the labels from the magazine and for transferring the labels to the containers,