mhurhangee/ep-ind-claims huggingface dataset:
A splice module for optical fibre cables (9, 10, 17), comprising: a multiplicity of splice point receivers in the splice module and a patch unit having a multiplicity of patch points, each with a detachable connection device, for a respective optical fibre cable, wherein the patch unit also has passage points with no detachable connection devices, which are instead provided for the passage of one continuous optical fibre cable through a respective opening of each passage point, and wherein the passage points and the patch points are each arranged directly adjacent to each other in the sense that, starting from a patch point and proceeding relative to a direction transverse to the local direction of the optical fibre cable, not all the other patch points are closer than the nearest passage point, so there is at least one patch point which is further away than such a nearest passage point, wherein detachable connecting elements for pigtail cables leading to the respective splice point receivers are present on the patch points, which connecting elements are configured to create connections with complementary detachable connecting elements on the respective patch cables at the patch points, characterised in that the pigtail cables are already present and connect the respective patch point to a respective one of the splice point receivers in which no splice point has yet been formed or received. a multiplicity of splice point receivers in the splice module and a patch unit having a multiplicity of patch points, each with a detachable connection device, for a respective optical fibre cable, wherein the patch unit also has passage points with no detachable connection devices, which are instead provided for the passage of one continuous optical fibre cable through a respective opening of each passage point, and wherein the passage points and the patch points are each arranged directly adjacent to each other in the sense that, starting from a patch point and proceeding relative to a direction transverse to the local direction of the optical fibre cable, not all the other patch points are closer than the nearest passage point, so there is at least one patch point which is further away than such a nearest passage point, wherein detachable connecting elements for pigtail cables leading to the respective splice point receivers are present on the patch points, which connecting elements are configured to create connections with complementary detachable connecting elements on the respective patch cables at the patch points, characterised in that the pigtail cables are already present and connect the respective patch point to a respective one of the splice point receivers in which no splice point has yet been formed or received.
A method of storing data, the method comprising determining a number of copies to be initially stored for a data block x, after receiving a request for storing the data block x, storing the data block x according to the number of copies to be initially stored; and performing the following actions periodically: determining a current importance level of the data block x, determining whether a number of copies corresponding to the importance level is identical to a number of currently stored copies of the data block x, and adjusting the number of currently stored copies of the data block x to be consistent with the number of copies corresponding to the importance level if the number of copies corresponding to the importance level is not identical to the number of currently stored copies of the data block x; wherein a higher importance level is corresponding to more copies than a lower importance level; wherein determining a current importance level of the data block x comprises: determining the current importance level of the data block x, according to the obtained data type and the obtained importance degree and a total number of visits to the data block x within a latest period.
A method of measuring physiological parameters, comprising: using a signal acquisition means to obtain a red pulse oximetry signal in the red light spectrum and an infra-red pulse oximetry signal in the infra-red spectrum; decomposing each pulse oximetry signal by wavelet transform analysis to provide a three dimensional wavelet transform surface for the red pulse oximetry signal and a three dimensional wavelet transform surface for the infra-red pulse oximetry signal; and combining the three dimensional wavelet transform surfaces to obtain a measure of a physiological parameter.
Foreign object detection apparatus for an Inductive Power Transfer, IPT, system comprising a primary magnetic structure and a secondary magnetic structure, the apparatus comprising a control means adapted to detect the presence of a foreign object on or adjacent to the primary magnetic structure, characterised in that the control means is operable to determine VAR currents in the primary magnetic structure due to relative position of the primary magnetic structure and the secondary magnetic structure, and measure actual VAR currents in the primary magnetic structure, when the coil of the secondary magnetic structure is in a short circuit condition, to determine whether a foreign object is present on or adjacent the primary magnetic structure.
A method for signal recovery and processing in an optical network component, comprising the steps of - bandpass filtering an incoming modulated optical signal obtaining a filtered signal comprising an optical carrier, - equalizing the filtered signal by a saturation property of an optical amplifier reducing or eliminating amplitude fluctuations, wherein in particular a low-level signal is processed with a higher gain than a high-level signal, and - modulating an obtained optically equalized signal. - bandpass filtering an incoming modulated optical signal obtaining a filtered signal comprising an optical carrier, - equalizing the filtered signal by a saturation property of an optical amplifier reducing or eliminating amplitude fluctuations, wherein in particular a low-level signal is processed with a higher gain than a high-level signal, and - modulating an obtained optically equalized signal.
Polyamide yarn comprising ultrafine single filaments having a single filament fineness of 0.10 dtex or more and 0.50 dtex or less, the average number of fuzz being 1.0 or less per 12,000 m in the length direction of the yarn.
A vaccine comprising an adenoviral vector comprising a first heterologous sequence, wherein said adenoviral vector is replication competent and has a partial E3 deletion, and wherein the first heterologous sequence is integrated into the partial E3 deletion and is operably linked to a native adenovirus splice acceptor site under the control of the endogenous Major Late promoter.
Air-conditioning apparatus for a motor vehicle, comprising - an inlet duct for the introduction of an air stream, - an evaporator, through which at least parts of the air stream can flow, of a refrigerant circuit, and - a heating heat exchanger through which at least parts of the air stream can flow and which is arranged downstream of the evaporator in a flow direction, wherein a flow rate ratio of an air stream fraction flowing through the evaporator with respect to an air stream fraction conducted past the evaporator can be adjusted by means of a pivotable evaporator bypass flap, and wherein a flow rate ratio of an air stream fraction flowing through the heating heat exchanger with respect to an air stream fraction conducted past the heating heat exchanger can be adjusted by means of a pivotable temperature mixing flap, characterized in that the temperature mixing flap and the evaporator bypass flap are mechanically connected to one another, and the pivoting movements thereof are thereby positively coupled. - an inlet duct for the introduction of an air stream, - an evaporator, through which at least parts of the air stream can flow, of a refrigerant circuit, and - a heating heat exchanger through which at least parts of the air stream can flow and which is arranged downstream of the evaporator in a flow direction,
A laminate comprising: a base substrate; and a coating layer formed on the base substrate; wherein the coating layer includes copper alloy portions derived from precipitation-hardening copper alloy particles and hard particle portions which are harder than the copper alloy portions; the hard particle portions are derived from hard particles; the portions bond with each other via an interface; and an aspect ratio of each of the hard particle portions is 1.3 or more and 2.0 or less in its median value. a base substrate; and a coating layer formed on the base substrate; wherein the coating layer includes copper alloy portions derived from precipitation-hardening copper alloy particles and hard particle portions which are harder than the copper alloy portions; the hard particle portions are derived from hard particles; the portions bond with each other via an interface; and an aspect ratio of each of the hard particle portions is 1.3 or more and 2.0 or less in its median value.
Washing bucket with a base, wherein a first long wall (3.1), a second long wall (3.2), a first short wall (4.1) and a second short wall (4.2) have a bucket rim, characterized in that the bucket rim is U-shaped and forms a short overhang and a long overhang, the long overhang forming a lid lock (18.1, 18.2) with a clip strip, the clip strip running in a strip-like manner parallel to the clear surface and extending over the recess of the lid lock (18.1, 18.2) and dividing the lid lock (18.1, 18.2) into an upper and a lower region, the clip strip bridging the recess of the lid lock (18.1, 18.2), the clip strip lying on the same plane as the long overhang.
A clarifying agent composition obtained by heating a mixture to a range of 80 to 180°C, said mixture comprising: not less than 85% by mass of a benzylidene sorbitol compound represented by the following Formula: (wherein, R represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms; and R 1, R 2, R 3 and R 4 each independently represent a hydrogen atom, a halogen atom, a cyano group or an alkyl group having 1 to 4 carbon atoms); 5 to 10% by mass of tetrakis[3(3,5-di-tert-butyl-4-hydroxyphenyl)propionyloxymethyl]methane; and 6 to 9% by mass of a lubricant. not less than 85% by mass of a benzylidene sorbitol compound represented by the following Formula: (wherein, R represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms; and R 1, R 2, R 3 and R 4 each independently represent a hydrogen atom, a halogen atom, a cyano group or an alkyl group having 1 to 4 carbon atoms); 5 to 10% by mass of tetrakis[3(3,5-di-tert-butyl-4-hydroxyphenyl)propionyloxymethyl]methane; and 6 to 9% by mass of a lubricant.
A method of transcoding from source video data having a source resolution to first destination video data having a first resolution and second destination video data having a second, different resolution, comprising the steps of: accessing a first index table comprising a first plurality of entries, each one of the first plurality of entries comprising a pointer portion to hold a value indicating a location of a source macroblock information the first index table dependent on the source resolution and the first resolution; accessing a first plurality of source macroblock information in a first order, wherein the first order is based upon the first index table; processing the first plurality of macroblock information to generate a first estimated destination motion vector; and wherein the source macroblock information includes motion vector and quantization information; and characterized by: accessing a second index table comprising a second plurality of entries, each one of the second plurality of entries comprising a pointer portion to hold a value indicating a location of a source macroblock, the second index table based on second resolution; accessing the first plurality of source macroblock information in a second order, wherein the second order is based upon the second index table; processing the second plurality of source macroblock information to generate a second estimated destination motion vector. accessing a first index table comprising a first plurality of entries, each one of the first plurality of entries comprising a pointer portion to hold a value indicating a location of a source macroblock information the first index table dependent on the source resolution and the first resolution; accessing a first plurality of source macroblock information in a first order, wherein the first order is based upon the first index table; processing the first plurality of macroblock information to generate a first estimated destination motion vector; and wherein the source macroblock information includes motion vector and quantization information; and characterized by: accessing a second index table comprising a second plurality of entries, each one of the second plurality of entries comprising a pointer portion to hold a value indicating a location of a source macroblock, the second index table based on second resolution; accessing the first plurality of source macroblock information in a second order, wherein the second order is based upon the second index table; processing the second plurality of source macroblock information to generate a second estimated destination motion vector. accessing a second index table comprising a second plurality of entries, each one of the second plurality of entries comprising a pointer portion to hold a value indicating a location of a source macroblock, the second index table based on second resolution; accessing the first plurality of source macroblock information in a second order, wherein the second order is based upon the second index table; processing the second plurality of source macroblock information to generate a second estimated destination motion vector.
Electrical sensor for the detection of a physical quantity, comprising: - a housing; - a printed circuit board located in the housing with a sensor element; - an electrical cable arrangement which is electrically connected to the printed circuit board; - an electrically conductive cable shield which at least partially encloses the electrical cable arrangement; and - an electrically conductive shielding sleeve, which at least partially encloses the printed circuit board and the sensor element, whereby the shielding sleeve is electrically connected to the cable shield and is electrically insulated vis-à-vis the housing and the printed circuit board, characterized in that the shielding sleeve is attached to the cable shield by means of an electrically conductive mounting sleeve, whereby the electrically conductive mounting sleeve at least partially encloses the cable shield and is electrically conductively connected to the cable shield and the cable shield is routed through the mounting sleeve and is turned back over a part of the mounting sleeve, whereby the turned-back section of the cable shield is fixed to the part of the mounting sleeve. - a housing; - a printed circuit board located in the housing with a sensor element; - an electrical cable arrangement which is electrically connected to the printed circuit board; - an electrically conductive cable shield which at least partially encloses the electrical cable arrangement; and - an electrically conductive shielding sleeve, which at least partially encloses the printed circuit board and the sensor element, whereby the shielding sleeve is electrically connected to the cable shield and is electrically insulated vis-à-vis the housing and the printed circuit board,
An electrophoretic medium comprising a plurality of charged particles disposed in a hydrocarbon fluid, the medium being characterized in that the fluid comprises at least 75 per cent by weight of a hydrocarbon selected from the group consisting of monounsaturated nonenes and methyloctane.
Method for automatically undocking a passenger boarding bridge from an aircraft, the aircraft having a fuselage and a door, the passenger boarding bridge is initially located in a docked position wherein a bridgehead of the passenger boarding bridge is aligned to the door, the method comprising the following steps: - Detecting a start signal to start the undocking procedure; - Confirming safety conditions, - automatically Moving the passenger boarding bridge from the docking position to a parking position, characterized in that the movement of the passenger boarding bridge is controlled in a manner, that as long as the bridgehead is still within a safety distance from the aircraft, a direction of movement of the bridgehead is perpendicular to a direction of the fuselage. the passenger boarding bridge is initially located in a docked position wherein a bridgehead of the passenger boarding bridge is aligned to the door, the method comprising the following steps: - Detecting a start signal to start the undocking procedure; - Confirming safety conditions, - automatically Moving the passenger boarding bridge from the docking position to a parking position, - Detecting a start signal to start the undocking procedure; - Confirming safety conditions, - automatically Moving the passenger boarding bridge from the docking position to a parking position, characterized in that the movement of the passenger boarding bridge is controlled in a manner, that as long as the bridgehead is still within a safety distance from the aircraft, a direction of movement of the bridgehead is perpendicular to a direction of the fuselage.
A method of precoding data transmissions in a communications node, User Equipment (102, 103) being located within the node's coverage area, the communications node having a predefined codebook servicing said method comprising: selecting User Equipments, UEs (102, 103), from within the coverage area as candidates for precoding wherein the selection of the UEs (102, 103) is based on correlation values calculated for each UE (102, 103)within the coverage area utilising a precoder matrix generated from precoder matrix indicators reported to the communications node by each UE (102, 103); determining correlation values for the selected UEs (102, 103) based on the reported precoder matrix indicator and a Channel Matrix obtained from a fixed codebook of representative channel matrices; selecting a Channel Matrix pair having the highest correlation values; and generating precoders utilising the selected Channel Matrix pair. selecting User Equipments, UEs (102, 103), from within the coverage area as candidates for precoding wherein the selection of the UEs (102, 103) is based on correlation values calculated for each UE (102, 103)within the coverage area utilising a precoder matrix generated from precoder matrix indicators reported to the communications node by each UE (102, 103); determining correlation values for the selected UEs (102, 103) based on the reported precoder matrix indicator and a Channel Matrix obtained from a fixed codebook of representative channel matrices; selecting a Channel Matrix pair having the highest correlation values; and generating precoders utilising the selected Channel Matrix pair.
Method to produce a heat exchanger (10, 10'), comprising at least two plates (11, 12) of metal material, overlapping and joined together so as to define a perimeter edge and at least one circuit for the passage of a heat-carrier fluid defined by at least one or more heat exchange channels made between said plates (11, 12), wherein said method comprises: at least one deposition step, to deposit on at least one of two plates (11, 12) a detaching material according to the shape and the path of the heat exchange circuit to be obtained; the overlapping and hot rolling of said plates (11, 12) with in the middle the template of the circuit made of detaching material; the introduction of a fluid under pressure from at least one aperture made on a perimeter edge made by overlapping the plates (11, 12) and consequent deformation of at least one of the plates (11, 12) in correspondence with said detaching material, thus obtaining, by inflation, one or more channels and at least one heat exchange portion (19, 19') provided with a closing edge (20, 20') situated in proximity to the perimeter edge of the heat exchanger, that is, at a minimum distance from said perimeter edge, characterized in that said heat exchange portion (19, 19') extends beyond the shearing limits, and the edges of the plates (11, 12) that delimit the surface of the heat exchanger are closed together in a finishing step. at least one deposition step, to deposit on at least one of two plates (11, 12) a detaching material according to the shape and the path of the heat exchange circuit to be obtained; the overlapping and hot rolling of said plates (11, 12) with in the middle the template of the circuit made of detaching material; the introduction of a fluid under pressure from at least one aperture made on a perimeter edge made by overlapping the plates (11, 12) and consequent deformation of at least one of the plates (11, 12) in correspondence with said detaching material, thus obtaining, by inflation, one or more channels and at least one heat exchange portion (19, 19') provided with a closing edge (20, 20') situated in proximity to the perimeter edge of the heat exchanger, that is, at a minimum distance from said perimeter edge, characterized in that said heat exchange portion (19, 19') extends beyond the shearing limits, and the edges of the plates (11, 12) that delimit the surface of the heat exchanger are closed together in a finishing step.
A method for wireless communication, comprising: receiving, by a spatial reuse, SR, capable station, a first physical layer protocol data unit, PPDU, from a first network device in a first spatial reuse group, SRG, of a first extended service set, the SR capable station being in a second SRG of a second extended service set, starting, by the SR capable station, a first SR transmission period during which a first target transmit power is to be used for a SR transmission; receiving a second PPDU from a second network device in the second SRG by the SR capable station; starting, by the SR capable station, a second SR transmission period during which a second target transmit power is to be used for the SR transmission, wherein the first SR transmission period and the second SR transmission period overlap in time; and performing, by the SR capable station, the SR transmission upon determining that a backoff timer reaches zero, the performing comprising using an adjusted transmit power that is a minimum of the first target transmit power and the second target transmit power. receiving, by a spatial reuse, SR, capable station, a first physical layer protocol data unit, PPDU, from a first network device in a first spatial reuse group, SRG, of a first extended service set, the SR capable station being in a second SRG of a second extended service set, starting, by the SR capable station, a first SR transmission period during which a first target transmit power is to be used for a SR transmission; receiving a second PPDU from a second network device in the second SRG by the SR capable station; starting, by the SR capable station, a second SR transmission period during which a second target transmit power is to be used for the SR transmission, wherein the first SR transmission period and the second SR transmission period overlap in time; and performing, by the SR capable station, the SR transmission upon determining that a backoff timer reaches zero, the performing comprising using an adjusted transmit power that is a minimum of the first target transmit power and the second target transmit power.