mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a network node (6, 8) in a cellular communication network, the method comprising: transmitting information required by a mobile device for reliable communications with the communication network to mobile devices, characterized in that the information is repeatedly transmitted in a single information block according to a fixed schedule, wherein the single information block is for use by mobile devices operating in a discontinuous reception, DRX, mode of operation and wherein the information required by a mobile device for reliable communications with the communication network comprises a system frame number, SFN, an extension of the SFN, information about access class barring, and one or more indicators or flags that indicate whether any of the information in one or more system information blocks has changed. transmitting information required by a mobile device for reliable communications with the communication network to mobile devices, characterized in that the information is repeatedly transmitted in a single information block according to a fixed schedule, wherein the single information block is for use by mobile devices operating in a discontinuous reception, DRX, mode of operation and wherein the information required by a mobile device for reliable communications with the communication network comprises a system frame number, SFN, an extension of the SFN, information about access class barring, and one or more indicators or flags that indicate whether any of the information in one or more system information blocks has changed.
A method of manufacturing a hermetically sealed feedthrough, comprising the steps of: a) providing a dielectric substrate comprising at least 96 percent alumina; b) forming at least one via hole having a via hole volume extending through the dielectric substrate; c) providing a conductive mixture comprising at least 80% platinum powder mixed with at least one of an inactive organic binder, a solvent and a plasticizer; d) injecting the platinum mixture into the at least one via hole under pressure or via vacuum to thereby fill at least 90% of the via hole volume; e) placing the dielectric substrate having the at least one platinum mixture filled via hole into an air filled heating chamber; f) heating the dielectric substrate from step e) to a first temperature of from 400°C to 700°C and holding the first temperature for a period of time that is sufficient for the at least one of the inactive organic binder, solvent and plasticizer to be substantially baked out of the conductive mixture; g) heating the dielectric substrate from step f) to a second temperature of about 1,400°C to 1,900°C and holding the second temperature for a period of time sufficient for the platinum to hermetically seal to the dielectric substrate forming a monolithic structure such that a hermetic seal is formed between the platinum and the dielectric substrate; and h) cooling the heating chamber. a) providing a dielectric substrate comprising at least 96 percent alumina; b) forming at least one via hole having a via hole volume extending through the dielectric substrate; c) providing a conductive mixture comprising at least 80% platinum powder mixed with at least one of an inactive organic binder, a solvent and a plasticizer; d) injecting the platinum mixture into the at least one via hole under pressure or via vacuum to thereby fill at least 90% of the via hole volume; e) placing the dielectric substrate having the at least one platinum mixture filled via hole into an air filled heating chamber; f) heating the dielectric substrate from step e) to a first temperature of from 400°C to 700°C and holding the first temperature for a period of time that is sufficient for the at least one of the inactive organic binder, solvent and plasticizer to be substantially baked out of the conductive mixture; g) heating the dielectric substrate from step f) to a second temperature of about 1,400°C to 1,900°C and holding the second temperature for a period of time sufficient for the platinum to hermetically seal to the dielectric substrate forming a monolithic structure such that a hermetic seal is formed between the platinum and the dielectric substrate; and h) cooling the heating chamber.
A transmission (10, 60) for torque transfer, comprising: a rotational element (12, 62) configured to supply a load to a test specimen, the rotational element (12, 62) configured for rotation about an axis of rotation (20, 66) relative to a non-rotational element and axially movable along the axis of rotation (20, 66) with respect to the non-rotational element; a rotational transfer link drivable by an actuator; and a flexible connector which is flexible along the axis of rotation and coupled between the rotational transfer link and the rotational element (12, 62), characterized in that the rotational transfer link is rotatable about the axis of rotation (20, 66); and the flexible connector includes flexible elements (74, 84) which are torsionally stiff to rigidly transfer torque between the rotational transfer link and the rotational element (12, 62); wherein the flexible connector includes a first flexure plate attached at a first end to the rotational transfer link and extending outwardly from the rotational transfer link and having a second end, and a second flexure plate attached at a first end to a shaft coupler connected to the rotational element (12, 62) and extending outwardly from the shaft coupler and having a second end coupled to the second end of the first flexure plate through a connector. a rotational element (12, 62) configured to supply a load to a test specimen, the rotational element (12, 62) configured for rotation about an axis of rotation (20, 66) relative to a non-rotational element and axially movable along the axis of rotation (20, 66) with respect to the non-rotational element; a rotational transfer link drivable by an actuator; and a flexible connector which is flexible along the axis of rotation and coupled between the rotational transfer link and the rotational element (12, 62), characterized in that the rotational transfer link is rotatable about the axis of rotation (20, 66); and the flexible connector includes flexible elements (74, 84) which are torsionally stiff to rigidly transfer torque between the rotational transfer link and the rotational element (12, 62); wherein the flexible connector includes a first flexure plate attached at a first end to the rotational transfer link and extending outwardly from the rotational transfer link and having a second end, and a second flexure plate attached at a first end to a shaft coupler connected to the rotational element (12, 62) and extending outwardly from the shaft coupler and having a second end coupled to the second end of the first flexure plate through a connector.
A header including a central portion arranged on a main frame and at least two side portions arranged adjacent to the centre portion, a flexible cutter bar extending over the width of the header and at least one conveyor device which is arranged behind the cutter bar and which on the respective side portions is in the form of at least one endless belt arranged adjacent to the central portion to transport crop material cut by the cutter bar laterally in the direction of the central portion, wherein the side portions have a plurality of carrier arms which are arranged pivotably on the main frame and which carry the cutter bar of the respective side portion and are rigidly connected to the cutter bar, characterised in that each carrier arm is connected to the main frame pivotably about a first axis of rotation (20, 20a) in the vertical direction and about a second axis of rotation (21, 21a) extending perpendicularly to the first axis of rotation (20, 20a).
A method for adjusting a source of illumination on an electronic device having a display and an ambient light sensor, comprising: calculating a lighting level for said source of illumination based on ambient light detected by said ambient light sensor, said lighting level applied to lighting a portion of said electronic device other than said display and said source of illumination being for illumination of said portion; characterized by calculating a luminance level of an image at said display based on luma values of pixels of said image; and if the calculated lighting level for said source of illumination exceeds the calculated luminance level of said image at said display then adjusting the lighting level for said source of illumination to no greater than the calculated luminance level. calculating a lighting level for said source of illumination based on ambient light detected by said ambient light sensor, said lighting level applied to lighting a portion of said electronic device other than said display and said source of illumination being for illumination of said portion; characterized by calculating a luminance level of an image at said display based on luma values of pixels of said image; and if the calculated lighting level for said source of illumination exceeds the calculated luminance level of said image at said display then adjusting the lighting level for said source of illumination to no greater than the calculated luminance level.
A process for preparing a polyester, which process comprises reacting a) a furandicarboxylic acid component, which comprises at least one dialkyl ester of a furandicarboxylic acid, b) a dicarboxylic acid component, which comprises at least one aliphatic dicarboxylic acid or the dialkyl ester or anhydride thereof, c) an alcohol component, which comprises at least 1,4-butanediol, and also d) a catalyst component, comprising at least one catalyst, wherein the components,, and are reacted simultaneously. a) a furandicarboxylic acid component, which comprises at least one dialkyl ester of a furandicarboxylic acid, b) a dicarboxylic acid component, which comprises at least one aliphatic dicarboxylic acid or the dialkyl ester or anhydride thereof, c) an alcohol component, which comprises at least 1,4-butanediol, and also d) a catalyst component, comprising at least one catalyst,
Method to control a hybrid powertrain in order to achieve reverse drive, wherein the hybrid powertrain comprises an internal combustion engine, a gearbox with an input shaft and an output shaft; a first planetary gear, connected to the input shaft; a second planetary gear, connected to the first planetary gear; a first electrical machine, connected to the first planetary gear; a second electrical machine, connected to the second planetary gear; at least one gear pair (60, 72), connected with the first planetary gear and the output shaft; and at least one gear pair (66, 78), connected with the second planetary gear and the output shaft, wherein the internal combustion engine is connected with the first planetary gear via the input shaft, comprising the steps: a) ensuring that moveable parts (22, 26, 50) of the first planetary gear are connected with each other by means of a first coupling device, and that moveable parts (28, 32, 51) of the second planetary gear are disconnected from each other by means of a second coupling device; b) ensuring that the gear pair (66, 78) connected with the second planetary gear and the output shaft is connected, such that the gear pair (66, 78) in the connected state can transfer a rotational movement and torque between the second planetary gear and the output shaft, and ensuring that the gear pair (60, 72) connected with the first planetary gear and the output shaft is disconnected, such that the gear pair (60, 72) in the disconnected state cannot transfer a rotational movement or torque between the first planetary gear and the output shaft; and c) controlling the second electrical machine, such that a negative torque is achieved at the output shaft. a) ensuring that moveable parts (22, 26, 50) of the first planetary gear are connected with each other by means of a first coupling device, and that moveable parts (28, 32, 51) of the second planetary gear are disconnected from each other by means of a second coupling device; b) ensuring that the gear pair (66, 78) connected with the second planetary gear and the output shaft is connected, such that the gear pair (66, 78) in the connected state can transfer a rotational movement and torque between the second planetary gear and the output shaft, and ensuring that the gear pair (60, 72) connected with the first planetary gear and the output shaft is disconnected, such that the gear pair (60, 72) in the disconnected state cannot transfer a rotational movement or torque between the first planetary gear and the output shaft; and c) controlling the second electrical machine, such that a negative torque is achieved at the output shaft.
Refrigerant compressor, particularly a rotary screw compressor, comprising a compressor housing, a compressor element (26, 28) which is arranged in the compressor housing and is driven by a drive (84, 86, 66, 68, 76, 78), at least one bearing unit (62, 64, 72, 74) for at least one element (66, 68) of the drive (84, 86, 66, 68, 76, 78) which comprises at least one bearing housing (116, 118, 82) and at least one roller bearing (112, 114, 202, 204, 206) that is arranged in the bearing housing (116, 118, 82), wherein a lubricant is supplied to the bearing housing (116, 118, 82) by a lubricant distribution system, and a lubricant dispensing unit (152, 154) is associated with the bearing housing (116, 118, 82), characterised in that the lubricant dispensing unit (152, 154) has a filter holding chamber and in that a filter body is arranged in the filter holding chamber.
Anti-corrosion steel for ship, consisting of: C of 0.03 to 0.25 mass%, Si of 0.05 to 0.50 mass%, Mn of 0.1 to 2.0 mass%, P of 0.025 mass% or less, S of 0.01 mass% or less, Al of 0.005 to 0.10 mass%, W of 0.01 to 1.0 mass%, Cr of 0.01 mass% or more and less than 0.20 mass%, N of 0.001 to 0.008 mass%, and the remainder including Fe and inevitable impurities, further optionally containing: one or two selected from Sb of 0.001 to 0.3 mass% and Sn of 0.001 to 0.3 mass% in addition to the composition, and/or one or at least two selected from Ni of 0.005 to 0.25 mass%, Mo of 0.01 to 0.5 mass%, and Co of 0.01 to 1.0 mass% in addition to the composition, and/or one or at least two selected from Nb of 0.001 to 0.1 mass%, Ti of 0.001 to 0.1 mass%, Zr of 0.001 to 0.1 mass%, and V of 0.002 to 0.2 mass% in addition to the composition, and/or B of 0.0002 to 0.003 mass% in addition to the composition, and/or one or at least two selected from Ca of 0.0002 to 0.01 mass%, REM of 0.0002 to 0.015 mass%, and Y of 0.0001 to 0.1 mass% in addition to the composition. C of 0.03 to 0.25 mass%, Si of 0.05 to 0.50 mass%, Mn of 0.1 to 2.0 mass%, P of 0.025 mass% or less, S of 0.01 mass% or less, Al of 0.005 to 0.10 mass%, W of 0.01 to 1.0 mass%, Cr of 0.01 mass% or more and less than 0.20 mass%, N of 0.001 to 0.008 mass%, and the remainder including Fe and inevitable impurities, further optionally containing: one or two selected from Sb of 0.001 to 0.3 mass% and Sn of 0.001 to 0.3 mass% in addition to the composition, and/or one or at least two selected from Ni of 0.005 to 0.25 mass%, Mo of 0.01 to 0.5 mass%, and Co of 0.01 to 1.0 mass% in addition to the composition, and/or one or at least two selected from Nb of 0.001 to 0.1 mass%, Ti of 0.001 to 0.1 mass%, Zr of 0.001 to 0.1 mass%, and V of 0.002 to 0.2 mass% in addition to the composition, and/or B of 0.0002 to 0.003 mass% in addition to the composition, and/or one or at least two selected from Ca of 0.0002 to 0.01 mass%, REM of 0.0002 to 0.015 mass%, and Y of 0.0001 to 0.1 mass% in addition to the composition. one or two selected from Sb of 0.001 to 0.3 mass% and Sn of 0.001 to 0.3 mass% in addition to the composition, and/or one or at least two selected from Ni of 0.005 to 0.25 mass%, Mo of 0.01 to 0.5 mass%, and Co of 0.01 to 1.0 mass% in addition to the composition, and/or one or at least two selected from Nb of 0.001 to 0.1 mass%, Ti of 0.001 to 0.1 mass%, Zr of 0.001 to 0.1 mass%, and V of 0.002 to 0.2 mass% in addition to the composition, and/or B of 0.0002 to 0.003 mass% in addition to the composition, and/or one or at least two selected from Ca of 0.0002 to 0.01 mass%, REM of 0.0002 to 0.015 mass%, and Y of 0.0001 to 0.1 mass% in addition to the composition.
Laminating apparatus for hot laminating a combination of sheet material and laminating foil, the laminating apparatus comprises a housing, through which a pass-through channel for passing the combination extends and in which a laminating device is arranged associated with the pass-through channel, the combination can be laminated in the laminating device under pressure and heat, wherein the laminating device includes a heating device (17, 18) for heating the laminating foil, the heating device (17, 18) including a temperature display device which includes a display element which generates an externally detectable display when the heating device (17, 18) has reached a ready temperature that corresponds to an operational readiness of the laminating apparatus, characterized in that the display element is configured as at least one reversible thermo-chromic element which is operatively coupled with the heating device (17, 18) so that a reversible discoloration of the at least thermo-chromic element occurs as a function of the temperature of the heating device (17, 18).
ADAMTS-13 mutant with enhanced enzymatic activity of ADAMTS-13 for the natural VWF substrate and reduced reactivity of ADAMTS-13 to an anti-ADAMTS-13 neutralizing antibody, as compared to the wild-type ADAMTS-13W688X protein, wherein one charged amino acid in a disintegrin-like domain, a cysteine-rich domain or a spacer domain of ADAMTS-13W688X is substituted with alanine, wherein the one charged amino acid is selected from the group consisting of arginine at position 312, arginine at position 568, glutamic acid at position 569, asparagine at position 579, lysine at position 608, glutamic acid at position 634, aspartic acid at position 635, and asparagine at position 667.
A method of rendering a 2D planar representation from a 3D surface geometry of a 3D model having a hollow hull, the method comprising: generating the 3D model formed by the hollow hull; identifying a first surface section on the 3D surface geometry of the 3D model having a first feature of the hollow hull; selecting first and second points on the 3D surface geometry of the 3D model to form a cutting curve; and at least partly unfolding the 3D surface geometry at the cutting curve by making an incision in the hollow hull and stretching the hollow hull at the incision, so that the edge of the incision forms the edge of the 2D planar representation, to render the 2D planar representation of the hollow hull; wherein the first and second points are selected to facilitate visualization of the first feature in the 2D planar representation, wherein in case of partly unfolding the 3D surface geometry only the first feature is shown in the 2D planar representation. generating the 3D model formed by the hollow hull; identifying a first surface section on the 3D surface geometry of the 3D model having a first feature of the hollow hull; selecting first and second points on the 3D surface geometry of the 3D model to form a cutting curve; and at least partly unfolding the 3D surface geometry at the cutting curve by making an incision in the hollow hull and stretching the hollow hull at the incision, so that the edge of the incision forms the edge of the 2D planar representation, to render the 2D planar representation of the hollow hull; wherein the first and second points are selected to facilitate visualization of the first feature in the 2D planar representation, wherein in case of partly unfolding the 3D surface geometry only the first feature is shown in the 2D planar representation.
A method for wireless communications, comprising: receiving, at a wireless terminal, a first signal broadcast in a communications band from a first non-access communications device on a recurring basis, wherein the first signal is an OFDM beacon signal burst and the wireless terminal does not receive user data from the first non-access communications device; determining (1206, 1210, 1218), based on the first signal, a transmit time interval and a transmit frequency for transmitting a second signal to a second communications device, wherein the second communications device being different to the first communications device; generating the second signal as a function of at least one identifier corresponding to the wireless terminal; transmitting the second signal to the second communications device on the transmit frequency during said transmit time interval; establishing a peer-to-peer communications session with the second communications device using timing synchronization information derived from said first signal, wherein said peer-to-peer communications session being conducted between said wireless terminal and the second communications device; and exchanging user data with the second communications device. receiving, at a wireless terminal, a first signal broadcast in a communications band from a first non-access communications device on a recurring basis, wherein the first signal is an OFDM beacon signal burst and the wireless terminal does not receive user data from the first non-access communications device; determining (1206, 1210, 1218), based on the first signal, a transmit time interval and a transmit frequency for transmitting a second signal to a second communications device, wherein the second communications device being different to the first communications device; generating the second signal as a function of at least one identifier corresponding to the wireless terminal; transmitting the second signal to the second communications device on the transmit frequency during said transmit time interval; establishing a peer-to-peer communications session with the second communications device using timing synchronization information derived from said first signal, wherein said peer-to-peer communications session being conducted between said wireless terminal and the second communications device; and exchanging user data with the second communications device.