mhurhangee/ep-ind-claims huggingface dataset:
An electrochemically active powder comprising particles which contain a core which is provided with a coating layer, whereby the core contains a compound represented by formula Li a M m (XO 4) n wherein M comprises at least one transition metal and optionally at least one non-transition metal; and X is chosen among S, P and Si; wherein 0<a≤3.2; 1≤m≤2; and 1≤n≤3; wherein said particles are at least partially coated by said coating layer and whereby the coating layer comprises a carbonaceous material, said carbonaceous material comprising a highly ordered graphite, wherein said highly ordered graphite has a ratio (I 1360 /I 1580) of a peak intensity (I 1360) at 1360 cm -1 to a peak intensity (I 1580) at 1580 cm -1, obtained by Raman spectrum analysis, of at least 1.5 and at most 3.05.
An apparatus for forming a sheet into a beam having four exterior walls (53, 54, 55, 57, 58, 59) and a common center leg extending between an opposing two of the walls, the four exterior walls defining a rectangular cross section, and the center leg dividing the cross section into first and second adjacent tubes, the center leg having radiused ends (62, 64) each defining slip planes perpendicular to the center leg, and the sheet having radiused edges (51, 52) that abut the radiused ends (62, 64), comprising: a roll former including first roll form stations (S1-S7) with first sets of rollers forming the center leg of the sheet and outboard wings of the sheet, with the outboard wings having portions adjacent the center leg that extend perpendicular to the center leg and that are joined to the center leg by the radiused ends (62, 64), and with the outboard wings also having the radiused edges (51, 52) formed thereon; characterized by the roll former further including additional roll form stations (S8-S33) with additional sets of rollers forming the outboard wings into first and second tubes with the center leg being a common wall forming part of each of the first and second tubes; and top and bottom welders (72, 73) welding the radiused edges (51, 52) to the radiused ends (62, 64), wherein both welds are made at a single station with the welding being done simultaneously, wherein one welder is positioned above the welding location and a second welder is positioned below and upstream or downstream of the weld location, wherein the bottom welder is shielded. a roll former including first roll form stations (S1-S7) with first sets of rollers forming the center leg of the sheet and outboard wings of the sheet, with the outboard wings having portions adjacent the center leg that extend perpendicular to the center leg and that are joined to the center leg by the radiused ends (62, 64), and with the outboard wings also having the radiused edges (51, 52) formed thereon; characterized by the roll former further including additional roll form stations (S8-S33) with additional sets of rollers forming the outboard wings into first and second tubes with the center leg being a common wall forming part of each of the first and second tubes; and top and bottom welders (72, 73) welding the radiused edges (51, 52) to the radiused ends (62, 64), wherein both welds are made at a single station with the welding being done simultaneously, wherein one welder is positioned above the welding location and a second welder is positioned below and upstream or downstream of the weld location, wherein the bottom welder is shielded.
Method for the identification of microbes in blood comprising the steps: (a) Dissolving human blood particles in the blood with a surfactant, (b) Separating the microbes from the blood, (c) Cultivating the microbes in a nutrient broth which does not contain antimicrobial compounds of the blood, (d) Separating the microbes from the nutrient broth, (e) Identifying the microbes by similarity analysis of a mass spectrum of the microbe proteins and reference spectra. (a) Dissolving human blood particles in the blood with a surfactant, (b) Separating the microbes from the blood, (c) Cultivating the microbes in a nutrient broth which does not contain antimicrobial compounds of the blood, (d) Separating the microbes from the nutrient broth, (e) Identifying the microbes by similarity analysis of a mass spectrum of the microbe proteins and reference spectra.
Device, comprising: a first layer comprising a first coil comprising at least one first winding of a first electrical wire, the first coil arranged for being driven at a first voltage, and a solid insulating layer (16, 26, 36) adjacent the first layer, the solid insulating layer having a first surface facing the first coil and a second surface opposite the first surface, characterised in that the first surface comprises a first groove between the at least one first winding and the solid insulating layer, the first groove having a width (w) smaller than a diameter of the first electrical wire, wherein the first groove forms a pocket between the at least one first winding and the solid insulating layer.
A method of adaptive interpolation filtering a signal in a receiver to estimate a channel using pilot symbols, comprising: determining (120, 130, 140, 150) at least one correlation function parameter of the channel, wherein the at least one correlation function parameter is a Doppler frequency shift; characterized by determining (122, 134, 142, 152) an asymmetric first filter configuration, for which more old pilot symbols than future pilot symbols are used to perform the channel estimation, based on the correlation function parameter; and performing (124, 136, 144, 158) interpolation filtering in time on the signal using the determined first filter configuration; wherein the method repeats to update the first filter configuration. determining (120, 130, 140, 150) at least one correlation function parameter of the channel, wherein the at least one correlation function parameter is a Doppler frequency shift; characterized by determining (122, 134, 142, 152) an asymmetric first filter configuration, for which more old pilot symbols than future pilot symbols are used to perform the channel estimation, based on the correlation function parameter; and performing (124, 136, 144, 158) interpolation filtering in time on the signal using the determined first filter configuration; wherein the method repeats to update the first filter configuration.
A method of generating a measure of quality for a video signal representative of a plurality of frames, wherein the frames each include a plurality of pixels arranged in a grid fashion, the grid having a plurality of rows and a plurality of columns, the-video signal having: an original form; an encoded form in which the video signal has been encoded using a compression algorithm in which the picture represented by each frame of the signal is divided into macroblocks, each macroblock having an associated quantiser step size, and a decoded form in which the encoded video signal has been at least in part reconverted to the original form, the method comprising: a) generating a first quality measure which is a picture-averaged value of the quantiser step sizes associated with the macroblocks forming that picture; b) the method being characterised by the generation of a second-quality measure which measures spatial complexity as a picture-averaged contrast measure of the absolute difference in average intensity between pairs of adjacent elongate regions in at least part of the frame representing that picture in the video signal in the decoded form, wherein each elongate region is formed by a plurality of pixels arranged along a row portion or a column portion, and wherein both elongate regions forming a pair are elongate in the same direction; c) averaging the first quality measure so derived over the plurality of frames and averaging the second quality measure so derived over the plurality of frames; and d) combining the first and second averaged quality measures in a weighted linear model so as to generate the measure of quality for the video signal. a) generating a first quality measure which is a picture-averaged value of the quantiser step sizes associated with the macroblocks forming that picture; b) the method being characterised by the generation of a second-quality measure which measures spatial complexity as a picture-averaged contrast measure of the absolute difference in average intensity between pairs of adjacent elongate regions in at least part of the frame representing that picture in the video signal in the decoded form, wherein each elongate region is formed by a plurality of pixels arranged along a row portion or a column portion, and wherein both elongate regions forming a pair are elongate in the same direction; c) averaging the first quality measure so derived over the plurality of frames and averaging the second quality measure so derived over the plurality of frames; and d) combining the first and second averaged quality measures in a weighted linear model so as to generate the measure of quality for the video signal.
Continuously operating press, comprising - two endlessly circulating steel belts drawing pressed material through the press, which form a pressing gap between them for pressing the pressed material, - temperature-controlled heating plates supporting the steel belts, - a roller bearing support arranged between the steel belts and the heating plates, - a plurality of frames arranged transversely to the direction of rotation of the steel belts for absorbing the pressing forces, which are inserted via a plurality of hydraulic working cylinders arranged in a row per frame for pressing the pressed material into a material board and for setting the pressing gap directly into the heating plate, and - a control system for controlling and/or regulating the operation of the press, characterized in that a measuring device is provided for detecting the raw density profile via the board thickness of the material board, the control system is set up to control and/or regulate the working cylinders along the press in accordance with a press curve, and the control system comprises an analyzing device which is set up to receive the measured values recorded by the measuring device, to analyze the recorded raw density profile, as an actual raw density profile, with regard to deviations from a target raw density profile, and to determine, based on the analysis, changes to be made to the press curve along the press in order to approximate or match the actual raw density profile to the target raw density profile. - two endlessly circulating steel belts drawing pressed material through the press, which form a pressing gap between them for pressing the pressed material, - temperature-controlled heating plates supporting the steel belts, - a roller bearing support arranged between the steel belts and the heating plates, - a plurality of frames arranged transversely to the direction of rotation of the steel belts for absorbing the pressing forces, which are inserted via a plurality of hydraulic working cylinders arranged in a row per frame for pressing the pressed material into a material board and for setting the pressing gap directly into the heating plate, and - a control system for controlling and/or regulating the operation of the press, characterized in that a measuring device is provided for detecting the raw density profile via the board thickness of the material board, the control system is set up to control and/or regulate the working cylinders along the press in accordance with a press curve, and the control system comprises an analyzing device which is set up to receive the measured values recorded by the measuring device, to analyze the recorded raw density profile, as an actual raw density profile, with regard to deviations from a target raw density profile, and to determine, based on the analysis, changes to be made to the press curve along the press in order to approximate or match the actual raw density profile to the target raw density profile.
An air washer, comprising a housing (2, 3), an electrically driven fan, a water trough (20, 21, 57) and a substantially horizontally lying drum (10 to 19) with an open-pored and/or absorbent structure, which drum (10 to 19) is rotatable about an axis of rotation in an electrically driven manner, wherein the respective lowermost section of the drum (10 to 19) is located below a defined minimum filling level of the water trough (20, 21, 57), wherein a support, preferably cylindrical about the axis of rotation, is formed on the drum (10 to 19) from one or more support elements, and the open-pored and/or absorbent structure is formed as a wettable mat forming a closed circumferential band, which mat spans the support on its outside and can be removed from the drum (10 to 19) by pulling it off in the axial direction and can be pushed onto the drum by a movement in the axial direction, wherein the air flow guidance for the air conveyed by the fan passes through at least an upper portion of the mat located above the water trough (20, 21, 57) and the drum (10 to 19) spanned by the mat, wherein the drum has a drum body with at least one first end plate with support elements and with a second end plate, wherein the support elements run continuously from the first end plate to the second end plate, and the first end plate and the second end plate bound the mat axially on both sides, characterized in that the first end plate is made in one piece with the support elements, and that the second end plate can be reversibly removed from the drum body for removing the mat, preferably can be removed manually from the drum body without tools.
A rotating control device for a drilling operation, comprising: an outer barrel; an inner barrel having an inner barrel bore, wherein the inner barrel is disposed within the outer barrel and is rotatable at a first rotational speed; first and second subs each having a sub bore and a sub seal, wherein the first and second subs are coupled to opposite ends of the inner barrel; and wherein the sub seals are configured to seal against a tubular inserted into the rotating control device; a roller bearing assembly disposed between the inner barrel and the outer barrel, wherein the roller bearing assembly is rotatable by rotation of the inner barrel; characterized by a rotary seal assembly coupled to the roller bearing assembly, wherein the rotary seal assembly includes a first seal configured to seal against either the inner barrel or a first sleeve member disposed between the rotary seal assembly and the inner barrel, and wherein the rotary seal assembly is rotatable relative to the inner barrel at a second rotational speed that is less than the first rotational speed; and a stationary seal assembly disposed adjacent to the rotary seal assembly, wherein the stationary seal assembly includes a second seal, wherein the second seal is configured to seal against the rotary seal assembly. an outer barrel; an inner barrel having an inner barrel bore, wherein the inner barrel is disposed within the outer barrel and is rotatable at a first rotational speed; first and second subs each having a sub bore and a sub seal, wherein the first and second subs are coupled to opposite ends of the inner barrel; and wherein the sub seals are configured to seal against a tubular inserted into the rotating control device; a roller bearing assembly disposed between the inner barrel and the outer barrel, wherein the roller bearing assembly is rotatable by rotation of the inner barrel; characterized by a rotary seal assembly coupled to the roller bearing assembly, wherein the rotary seal assembly includes a first seal configured to seal against either the inner barrel or a first sleeve member disposed between the rotary seal assembly and the inner barrel, and wherein the rotary seal assembly is rotatable relative to the inner barrel at a second rotational speed that is less than the first rotational speed; and a stationary seal assembly disposed adjacent to the rotary seal assembly, wherein the stationary seal assembly includes a second seal, wherein the second seal is configured to seal against the rotary seal assembly.
Gripping device for handling reinforcement cages for tower segments of a wind turbine, comprising - a gripper arm holding fixture, and - multiple gripper arms arranged radially on the gripper arm holding fixture, wherein - a coupling mechanism that can be connected with a reinforcement cage is arranged on each gripper arm, - the length of the gripper arms can be telescopically adjusted by motor, - the gripping device can be coupled with a lifting device that can be moved horizontally and vertically, and is adapted to move a reinforcement cage from apparatus for manufacturing reinforcement cages and/or to put a reinforcement cage down in a casing for creating a tower segment. - a gripper arm holding fixture, and - multiple gripper arms arranged radially on the gripper arm holding fixture, - a coupling mechanism that can be connected with a reinforcement cage is arranged on each gripper arm, - the length of the gripper arms can be telescopically adjusted by motor, - the gripping device can be coupled with a lifting device that can be moved horizontally and vertically, and is adapted to move a reinforcement cage from apparatus for manufacturing reinforcement cages and/or to put a reinforcement cage down in a casing for creating a tower segment.
A method for wireless communications at a wireless device (115; 505; 605; 805), comprising: receiving (420; 905; 1005; 1105; 1205), during a transmission time interval, TTI, of a subframe, control information comprising an indication of transmission repetitions of a transport block, TB, for a plurality of TTIs; identifying (425; 910; 1010; 1110; 1210) a quantity of transmission repetitions of the TB based at least in part on the control information; identifying a value in a field of a control format indicator, CFI, associated with the control information; determining that a second TTI is not available for transmitting one of the transmission repetitions of the TB based at least in part on the value in the field of the CFI; and monitoring (435; 915; 1025; 1125; 1235) for the transmission repetitions of the TB based at least in part on the identified quantity of transmission repetitions and the determination that the second TTI is not available. receiving (420; 905; 1005; 1105; 1205), during a transmission time interval, TTI, of a subframe, control information comprising an indication of transmission repetitions of a transport block, TB, for a plurality of TTIs; identifying (425; 910; 1010; 1110; 1210) a quantity of transmission repetitions of the TB based at least in part on the control information; identifying a value in a field of a control format indicator, CFI, associated with the control information; determining that a second TTI is not available for transmitting one of the transmission repetitions of the TB based at least in part on the value in the field of the CFI; and monitoring (435; 915; 1025; 1125; 1235) for the transmission repetitions of the TB based at least in part on the identified quantity of transmission repetitions and the determination that the second TTI is not available.
An excess air coefficient control method of a gasoline engine catalytic converter, comprising: controlling an excess air coefficient to switch between a first set value and a second set value until an excess air coefficient sensor falls into a closed loop, in an engine idling stage that after an engine is started and before a catalytic converter is ignited; wherein, the excess air coefficient is a ratio of the amount of intake air for fuel combustion to a standard air amount, wherein in case that the excess air coefficient is controlled at the first set value, an air-fuel ratio is formed greater than 14.7 to perform a lean control, and in case that the excess air coefficient is controlled at the second set value, the air-fuel ratio is formed less than 14.7 to perform an enrichment control, and wherein the process of controlling an excess air coefficient to switch between a first set value and a second set value comprises: controlling the excess air coefficient to switch to the second set value after maintaining the first set value for a first set time period, and controlling the excess air coefficient to switch to the first set value after maintaining the second set value for a second set time period. controlling an excess air coefficient to switch between a first set value and a second set value until an excess air coefficient sensor falls into a closed loop, in an engine idling stage that after an engine is started and before a catalytic converter is ignited; wherein, the excess air coefficient is a ratio of the amount of intake air for fuel combustion to a standard air amount, wherein in case that the excess air coefficient is controlled at the first set value, an air-fuel ratio is formed greater than 14.7 to perform a lean control, and in case that the excess air coefficient is controlled at the second set value, the air-fuel ratio is formed less than 14.7 to perform an enrichment control, and wherein the process of controlling an excess air coefficient to switch between a first set value and a second set value comprises: controlling the excess air coefficient to switch to the second set value after maintaining the first set value for a first set time period, and controlling the excess air coefficient to switch to the first set value after maintaining the second set value for a second set time period.
A system for a surgical robotic arm, wherein the system comprises: a robotic arm comprising a first coupler (1239A, 1339A); a surgical table comprising a second coupler (1221A, 1329A) to releasably couple to the first coupler (1239A, 1339A) of the robotic arm; and a cart comprising: a base freely movable on a support surface between a first location remote from the surgical table and a second location adjacent to the surgical table; a first engagement feature, the first engagement feature configured for engagement with a second engagement feature associated with the surgical table such that, when the first engagement feature and the second engagement feature are engaged, the first coupler (1239A, 1339A) of the robotic arm is disposed in a position in which the first coupler (1239A, 1339A) of the robotic arm is engageable with the second coupler (1221A, 1329A) of the surgical table. a robotic arm comprising a first coupler (1239A, 1339A); a surgical table comprising a second coupler (1221A, 1329A) to releasably couple to the first coupler (1239A, 1339A) of the robotic arm; and a cart comprising: a base freely movable on a support surface between a first location remote from the surgical table and a second location adjacent to the surgical table; a first engagement feature, the first engagement feature configured for engagement with a second engagement feature associated with the surgical table such that, when the first engagement feature and the second engagement feature are engaged, the first coupler (1239A, 1339A) of the robotic arm is disposed in a position in which the first coupler (1239A, 1339A) of the robotic arm is engageable with the second coupler (1221A, 1329A) of the surgical table. a base freely movable on a support surface between a first location remote from the surgical table and a second location adjacent to the surgical table; a first engagement feature, the first engagement feature configured for engagement with a second engagement feature associated with the surgical table such that, when the first engagement feature and the second engagement feature are engaged, the first coupler (1239A, 1339A) of the robotic arm is disposed in a position in which the first coupler (1239A, 1339A) of the robotic arm is engageable with the second coupler (1221A, 1329A) of the surgical table.