mhurhangee/ep-ind-claims huggingface dataset:
Circuit arrangement comprising an electrical and/or electronic circuit unit (10, 10', 10") which comprises a circuit carrier (14, 14'), on which at least one electrical and/or electronic component is arranged, and at least one connection area (5, 5') with at least one contact unit (14.2. 14.2') for electrically contact-connecting the electrical and/or electronic circuit unit (10, 10', 10'') to other electrical and/or electronic structural units, wherein the circuit carrier (14, 14') is constructed as at least one lead frame assembly having individual conductor tracks (14.1, 14.1', 14.11, 14.12), and wherein the conductor tracks (14.1, 14.1', 14.11, 14.12) are arranged in at least two different planes (14.3, 14.4), characterized in that the conductor tracks (14.1, 14.1', 14.11, 14.12) arranged in at least two different planes (14.3, 14.4) are configured in such a manner that partial multi-layered arrangements form a capacitance (14.6) which can be used as a capacitor for interference suppression and/or stabilization of a link circuit voltage.
Drive shaft (2, 2000) of a dynamoelectric machine comprising at least two different heat conduction paths (20, 21, 2001, 2002, 2003, 2004, 2005) that are thermally separate from one another, wherein each heat conduction path (20, 21, 2001, 2002, 2003, 2004, 2005) has two physically separate ends (200, 201, 210, 211) and is embodied such that heat can couple into the drive shaft at one of the two ends (200, 210) and can couple out of the drive shaft (2, 2000) at the other end (201, 211), characterised in that the heat conduction paths (20, 21, 2001, 2002, 2003, 2004, 2005) are thermally separate from one another by at least one layer, wherein each layer comprises a material with thermal conductivity that is worse than the thermal conductivity of the heat conduction paths (20, 21, 2001, 2002, 2003, 2004, 2005), wherein the heat conduction paths (20, 21, 2001, 2002, 2003, 2004, 2005) and the at least one layer are manufactured by an additive manufacturing method.
An agricultural composition a) comprising living microorganisms encapsulated in polymer gel microbeads for applying onto seeds, or b) comprising living microorganisms encapsulated in polymer gel macrobeads for planting with seeds in soil, wherein the agricultural composition further comprises an amendment encapsulated in the microbeads or macrobeads; and wherein the amendment is trehalose. wherein the agricultural composition further comprises an amendment encapsulated in the microbeads or macrobeads; and wherein the amendment is trehalose.
Coriolis mass flowmeter with at least one sensor arrangement and at least one housing, wherein the sensor arrangement includes at least one measuring tube, at least one oscillation generator and at least one oscillation sensor, and wherein the measuring tube can be excited by the oscillation generator in at least one operating frequency, wherein, additionally, at least one reinforcement element is arranged in the housing and the reinforcement element is joined to the housing in such a manner that the implemented eigenfrequencies of the housing are shifted away from the operating frequency of the measuring tube, characterized in that the reinforcement element consists of at least one hollow body, so that a closed volume is defined within the reinforcement element and a medium can be conveyed within the reinforcement element for setting the temperature of the measuring medium within the measuring tube.
A method of calibrating a brain computer interface for receiving a plurality of electro-physiological signals acquired by means of a plurality of sensors during a plurality of observation windows associated with observation epochs and providing control signals describing a trajectory to be carried out by a computer or a machine, said electro-physiological signals being subjected to a pretreatment (110, 210) to obtain a tensor X of input variables representative of said electro-physiological signals, said trajectory being represented (120, 220) by a tensor Y of output variables, the brain computer interface using a linear predictive model to estimate the tensor Y of output variables from the tensor X of input variables, characterised in that: tensor X is extended (130, 230) to obtain an tensor of input variables ( X̃ ( s), X̃ P, X̃ comb) extended through concatenation, of the tensor X and of a second tensor comprising at least one order derivative (s) of X according to the observation epoch and/or a difference between the tensor X and a tensor the components of which are obtained from a polynomial interpolation of the components of X according to the observation epochs; tensor Y (140, 240) is extended by a zero tensor according to the mode of the observation epochs to obtain an extended tensor Ỹ of output variables; a N-way regression (150, 250) of the partial least squares (NPLS) is performed between the extended tensor of output variables Ỹ and the extended tensor of input variables; the linear predictive model is parameterized (160, 260) by means of the score matrices ( B f, f = 1,..., F) and the weighting vectors ( w f i, q f j, f = 1,..., F) provided by said N-way regression. tensor X is extended (130, 230) to obtain an tensor of input variables ( X̃ ( s), X̃ P, X̃ comb) extended through concatenation, of the tensor X and of a second tensor comprising at least one order derivative (s) of X according to the observation epoch and/or a difference between the tensor X and a tensor the components of which are obtained from a polynomial interpolation of the components of X according to the observation epochs; tensor Y (140, 240) is extended by a zero tensor according to the mode of the observation epochs to obtain an extended tensor Ỹ of output variables; a N-way regression (150, 250) of the partial least squares (NPLS) is performed between the extended tensor of output variables Ỹ and the extended tensor of input variables; the linear predictive model is parameterized (160, 260) by means of the score matrices ( B f, f = 1,..., F) and the weighting vectors ( w f i, q f j, f = 1,..., F) provided by said N-way regression.
A method performed by a user equipment, UE, in a wireless communications system, the method comprising: receiving, from a base station through radio resource control, RRC, signaling, information associated with an uplink carrier switching from a first uplink carrier of a first cell to a second uplink carrier of a second cell, for transmission of an aperiodic sounding reference signal, SRS; performing the uplink carrier switching from the first uplink carrier to the second uplink carrier, based on the information associated with the uplink carrier switching; and in response to receiving downlink control information of a first format for transmission of the aperiodic SRS, suspending uplink transmission on the first uplink carrier of the first cell and performing uplink transmission of the aperiodic SRS on the second uplink carrier of the second cell, wherein the downlink control information of the first format is padded equal to a size of downlink control information of a second format. receiving, from a base station through radio resource control, RRC, signaling, information associated with an uplink carrier switching from a first uplink carrier of a first cell to a second uplink carrier of a second cell, for transmission of an aperiodic sounding reference signal, SRS; performing the uplink carrier switching from the first uplink carrier to the second uplink carrier, based on the information associated with the uplink carrier switching; and in response to receiving downlink control information of a first format for transmission of the aperiodic SRS, suspending uplink transmission on the first uplink carrier of the first cell and performing uplink transmission of the aperiodic SRS on the second uplink carrier of the second cell, wherein the downlink control information of the first format is padded equal to a size of downlink control information of a second format.
A shredder comprising: a housing having a throat for receiving at least one article to be shredded; a shredder mechanism received in the housing and including an electrically powered motor and cutter elements, the shredder mechanism enabling the at least one article to be shredded to be fed into the cutter elements and the motor being operable to drive the cutter elements so that the cutter elements shred the articles fed therein; a thickness detector configured to detect a thickness of the at least one article being received by the throat; and characterised by a progressive indicator system configured to indicate to a user of the shredder the thickness of the at least one article detected by the detector within a range of thicknesses, wherein the progressive indicator system has a plurality of indicators, wherein each indicator is associated with a corresponding predetermined thickness of the at least one article within said range thereof and the plurality of indicators including a maximum thickness indicator corresponding to the predetermined maximum thickness, wherein the progressive indicator system activates the indicator associated with its respective corresponding predetermined thickness based on the detector detecting that the thickness of the at least one article is at least equal to the corresponding predetermined thickness. a housing having a throat for receiving at least one article to be shredded; a shredder mechanism received in the housing and including an electrically powered motor and cutter elements, the shredder mechanism enabling the at least one article to be shredded to be fed into the cutter elements and the motor being operable to drive the cutter elements so that the cutter elements shred the articles fed therein; a thickness detector configured to detect a thickness of the at least one article being received by the throat; and characterised by a progressive indicator system configured to indicate to a user of the shredder the thickness of the at least one article detected by the detector within a range of thicknesses, wherein the progressive indicator system has a plurality of indicators, wherein each indicator is associated with a corresponding predetermined thickness of the at least one article within said range thereof and the plurality of indicators including a maximum thickness indicator corresponding to the predetermined maximum thickness, wherein the progressive indicator system activates the indicator associated with its respective corresponding predetermined thickness based on the detector detecting that the thickness of the at least one article is at least equal to the corresponding predetermined thickness.
A method of manufacturing a cosmetic tool (1; 21), comprising: immersing, by impregnating an aqueous solution of skin care ingredients in an annular frame (2; 22) of a retainer (3; 23) including the annular frame (2; 22) and a handle (5; 26) for holding the frame (2; 22), the frame (2; 22) in the aqueous solution; and freeze-drying the aqueous solution in which the frame (2; 22) is immersed. immersing, by impregnating an aqueous solution of skin care ingredients in an annular frame (2; 22) of a retainer (3; 23) including the annular frame (2; 22) and a handle (5; 26) for holding the frame (2; 22), the frame (2; 22) in the aqueous solution; and freeze-drying the aqueous solution in which the frame (2; 22) is immersed.
A pipe corrugator for forming a pipe, said corrugator having opposed series of mold blocks (8, 10) that come together at an inlet and are driven by a primary drive to form a moving mold tunnel with said mold blocks (8, 10) separating at an exit of said moving mold tunnel, the improvement comprising each series of mold blocks (8, 10) including a mold block transfer station controlling separation of said mold blocks (8, 10) at said exit of said moving mold tunnel; said mold block transfer station having a first drive mechanism and a second drive mechanism for moving a last block of said moving mold tunnel at said exit of said moving mold tunnel; said first drive mechanism (30, 102, 104, 106) engaging the last mold block (8a, 10a) and primarily displacing the last mold block (8a, 10a) in a direction generally perpendicular to a longitudinal axis of the moving mold tunnel to a clear position where a mold cavity of the last mold block (8a, 10a) has moved sufficiently to clear the formed pipe and said last mold block (8a, 10a) is subsequently rotated by a second drive mechanism of the respective mold block transfer station for return to the inlet of said moving mold tunnel; characterized in that said first drive mechanism (30, 102, 104, 106) includes a plurality of actuators for engaging a transfer pin provided on each mold block (8a, 10a) and moving an engaged mold block (8a, 10a) to said clear position, wherein each actuator includes a gripper and an actuating arm.
A method for noise distribution shaping for CDMA coded signals comprising the acts of - generating a blanking control signal by comparing a received CDMA coded signal with at least one blanking threshold, - adapting the at least one blanking threshold or the received CDMA coded signal according to an offset value depending on the amplitude of the received CDMA coded signal (S12, S13, S14), wherein the amplitude of the received CDMA coded signal is calculated based on the estimated power P est of the received CDMA coded signal and the offset value is calculated from the calculated amplitude of the received CDMA coded signal, by multiplying the square root of the estimated power P est with a scaling factor being +1 or -1 depending on the chip values of the CDMA coded signal, and - modifying the noise distribution of the received CDMA coded signal by applying blanking of the received CDMA coded signal under control of the blanking control signal. - generating a blanking control signal by comparing a received CDMA coded signal with at least one blanking threshold, - adapting the at least one blanking threshold or the received CDMA coded signal according to an offset value depending on the amplitude of the received CDMA coded signal (S12, S13, S14), wherein the amplitude of the received CDMA coded signal is calculated based on the estimated power P est of the received CDMA coded signal and the offset value is calculated from the calculated amplitude of the received CDMA coded signal, by multiplying the square root of the estimated power P est with a scaling factor being +1 or -1 depending on the chip values of the CDMA coded signal, and - modifying the noise distribution of the received CDMA coded signal by applying blanking of the received CDMA coded signal under control of the blanking control signal.
A brake caliper for a vehicle brake, in particular an air disc brake of a commercial vehicle, the vehicle brake having a pair of brake pads configured to be coupled to the brake caliper and a disc positioned in between the brake pads, wherein the brake caliper has an adjuster unit mounted to the brake caliper, the adjuster unit comprising: - a gearwheel configured for being rotary driven in a first direction, and - an adjuster nut operatively coupled with the gearwheel and configured to be operatively coupled with one of the brake pads, such that the rotational movement of the gearwheel in the first direction is converted by the adjuster nut into an axially movement of the brake pad towards the disc, wherein the gearwheel is mounted in the brake caliper such that the gearwheel is axially fixed relative to the brake caliper, while the adjuster nut and the gearwheel are in an axially slidable engagement with respect to one another, further comprising a bracket mounted to the brake caliper, wherein the gearwheel is rotatable mounted to the bracket and axially fixed relative to the bracket, characterised in that the gearwheel and the bracket are coupled in a snap-fit connection, wherein the snap-fit connection comprises a snap ring coaxially arranged to the gearwheel and being configured to couple the bracket and the gearwheel in a positive connection. - a gearwheel configured for being rotary driven in a first direction, and - an adjuster nut operatively coupled with the gearwheel and configured to be operatively coupled with one of the brake pads, such that the rotational movement of the gearwheel in the first direction is converted by the adjuster nut into an axially movement of the brake pad towards the disc, wherein the gearwheel is mounted in the brake caliper such that the gearwheel is axially fixed relative to the brake caliper, while the adjuster nut and the gearwheel are in an axially slidable engagement with respect to one another, further comprising a bracket mounted to the brake caliper, wherein the gearwheel is rotatable mounted to the bracket and axially fixed relative to the bracket, characterised in that the gearwheel and the bracket are coupled in a snap-fit connection, wherein the snap-fit connection comprises a snap ring coaxially arranged to the gearwheel and being configured to couple the bracket and the gearwheel in a positive connection.
An isolated population of human extensively self-renewing erythroblasts (ESRE) that proliferates in culture and maintains the ability to terminally mature, and is derived from a population of definitive erythroid progenitors, wherein the population of ESRE is not immortalized, and exhibits a higher expression level of Bmi-1 compared to erythroblasts undergoing restrictive self-renewal and primary proerythroblasts, and wherein the population of ESRE is capable of undergoing at least 30 cell divisions.
A method of communicating carrier aggregation, CA, capabilities from a User Equipment, UE, to a network node in a wireless communication network, the method comprising: separately transmitting to the network node CA capabilities relating to the UE radio frequency, RF, operation and CA capabilities relating to the UE baseband, BB, operation; wherein the RF capabilities of the UE comprise the number of supported frequency bands by the UE and number of MIMO layers supported by the UE; and wherein the BB capabilities of the UE comprise an indication of the aggregated bandwidth supported by the UE and an indication of the Channel State Information, CSI, process complexity supported by the UE; said method being characterized by further comprising, prior to separately transmitting the RF and BB capabilities (102, 104), transmitting to the node an indication that separate RF and BB capability transmission is supported by the UE; and receiving, in response to the indication that separate RF and BB capability transmission is supported, an indication from the node that reception of separate RF and BB capability transmission is supported by the node. separately transmitting to the network node CA capabilities relating to the UE radio frequency, RF, operation and CA capabilities relating to the UE baseband, BB, operation; wherein the RF capabilities of the UE comprise the number of supported frequency bands by the UE and number of MIMO layers supported by the UE; and wherein the BB capabilities of the UE comprise an indication of the aggregated bandwidth supported by the UE and an indication of the Channel State Information, CSI, process complexity supported by the UE; said method being characterized by further comprising, prior to separately transmitting the RF and BB capabilities (102, 104), transmitting to the node an indication that separate RF and BB capability transmission is supported by the UE; and receiving, in response to the indication that separate RF and BB capability transmission is supported, an indication from the node that reception of separate RF and BB capability transmission is supported by the node.
Method of producing filter cigarettes (30.1, 30.2) from assembled tobacco rod-filter plug-tobacco rod groups, wherein tobacco rod-filter plug-tobacco rod groups arranged in a row cross-axially one after the other are cross-axially conveyed on conveying elements of a filter application machine, wherein the conveyed tobacco rod-filter plug-tobacco rod groups are each individually provided, by means of a first perforation device, with two perforation patterns which are spaced apart from one another in a longitudinal-axial manner, wherein the tobacco rod-filter plug-tobacco rod groups are then cut into single-length filter cigarettes (30.1, 30.2), such that two parallel rows of single-length filter cigarettes (30.1, 30.2) respectively arranged cross-axially one after the other are formed, following which a one-track, one-layer flow of single-length filter cigarettes (30.1, 30.2) arranged cross-axially one after the other in one row is formed from the single-length cross-axially conveyed filter cigarettes (30.1, 30.2), wherein the single-length filter cigarettes (30.1, 30.2) of the one-track, one-layer flow are then individually perforated on their preriphery by means of a second perforation device and wherein, before single-length filter cigarettes (30.1, 30.2) are fed to the second perforation device and before formation of the one-track, one-layer flow with single-length filter cigarettes (30.1, 30.2) arranged in one row cross-axially one after the other, the single-length filter cigarettes (30.1, 30.2) of both tracks are each individually tested by means of a first testing device.
A single-mode large mode area optical fiber that is helically coiled with a preselected bend radius, comprising: a core having a high aspect ratio elongated cross-section and having a first refractive index, wherein the core is narrower in a fast-axis direction and wider in a slow-axis direction, the core including a protrusion that is Gaussian in transverse cross-section, and wherein a width of the protrusion in the slow-axis direction, a maximum height of the protrusion in the fast-axis direction, and the bend radius are selected for single-mode operation; and a cladding surrounding the core, the cladding having a second refractive index different than the first refractive index. a core having a high aspect ratio elongated cross-section and having a first refractive index, wherein the core is narrower in a fast-axis direction and wider in a slow-axis direction, the core including a protrusion that is Gaussian in transverse cross-section, and wherein a width of the protrusion in the slow-axis direction, a maximum height of the protrusion in the fast-axis direction, and the bend radius are selected for single-mode operation; and a cladding surrounding the core, the cladding having a second refractive index different than the first refractive index.
Animal feed composition comprising two components, an outer component which completely surrounds an inner component, where the outer component comprises potato flour and further at least one ingredient selected from a fat, a protein or a combination of the same and is harder than the inner component, where: - the inner component comprises potato flour, - the outer component has a potato flour fraction of at least 10% by weight, and the outer component has a total moisture content of less than 8% by weight, - the outer component is free from cereal constituents, - the inner component is free from cereal constituents, and - the animal feed composition is produced by co-extrusion of the inner component within the outer component. - the inner component comprises potato flour, - the outer component has a potato flour fraction of at least 10% by weight, and the outer component has a total moisture content of less than 8% by weight, - the outer component is free from cereal constituents, - the inner component is free from cereal constituents, and - the animal feed composition is produced by co-extrusion of the inner component within the outer component.