mhurhangee/ep-ind-claims huggingface dataset:
An operations control room radio communications system comprising: a first digital radio of a user in an operational field; a second digital radio of a user in an operational field; one or more digital radio interface modules, DRIM, each digital radio interface module comprising at least one digital to analogue radio conversion circuit, a digital radio interface, and an analogue radio interface, the at least one digital to analogue radio conversion circuit being in bidirectional data communication with the digital radio interface and the analogue radio interface; and a host console computer having installed thereon a Digital Console Interface Management, DCIM, software application with some necessary settings according to the digital radio interface modules, DRIMs, the host console computer being connected to and in operative communication with the first digital radio and the second digital radio of the users in the operational field via one or more dual-band radio modules, BDBR, and via the one or more digital radio interface modules, DRIMs, for patching of radio communications to and from the first and second digital radios of the users in the operational fields by an operator of the Digital Console Interface Management, DCIM, software application. a first digital radio of a user in an operational field; a second digital radio of a user in an operational field; one or more digital radio interface modules, DRIM, each digital radio interface module comprising at least one digital to analogue radio conversion circuit, a digital radio interface, and an analogue radio interface, the at least one digital to analogue radio conversion circuit being in bidirectional data communication with the digital radio interface and the analogue radio interface; and a host console computer having installed thereon a Digital Console Interface Management, DCIM, software application with some necessary settings according to the digital radio interface modules, DRIMs, the host console computer being connected to and in operative communication with the first digital radio and the second digital radio of the users in the operational field via one or more dual-band radio modules, BDBR, and via the one or more digital radio interface modules, DRIMs, for patching of radio communications to and from the first and second digital radios of the users in the operational fields by an operator of the Digital Console Interface Management, DCIM, software application.
A computer-implemented method for testing a real and/or virtual mechatronic automotive system or another real and/or virtual mechatronic system in a test by means of a test environment interacting with the real and/or virtual mechatronic system (12, 18), the method comprising a test series having different test cases (TC1, TC2) of the test under different conditions of execution, and said conditions of execution being defined in test configurations (Conf1, Conf2), each combination of test case (TC1, TC2) and test configuration (Conf1, Conf2) being associated with one test status value for the corresponding test from a group of predefined test status values (+, -, 0) according to an evaluation of the function of the mechatronic system (12, 18), - a relative test coverage of at least one of the status values (+, -, 0) in the resulting test case-configuration matrix (TC1, TC2; Conf1, Conf2) and/or - a relative potential increase in test coverage of at least one of the status values (+, -, 0) with respect to a test case (TC1, TC2) and/or with respect to a configuration (Conf1, Conf2) being determined at least once for further planning, execution, and/or evaluation of the test series, the test configurations (Conf1, Conf2) define the conditions of execution by means of at least one technical physical parameter (T1, T2, T3), characterized in that weightings of the tests, the parameters, the test configurations, and/or the test status are specified, wherein the weighting of the tests and test configurations are specified as the ratio of priority and effort of the tests and test configurations and the calculation rules for the relative test coverage and the relative potential increase in test coverage are also dependent on the corresponding weightings. - a relative test coverage of at least one of the status values (+, -, 0) in the resulting test case-configuration matrix (TC1, TC2; Conf1, Conf2) and/or - a relative potential increase in test coverage of at least one of the status values (+, -, 0) with respect to a test case (TC1, TC2) and/or with respect to a configuration (Conf1, Conf2)
Rotor mast having a power transmission device for a rotary-wing aircraft, wherein the rotor mast is mounted rotatably via a lower and an upper rolling bearing (38, 32), and the power transmission device comprises a spacer tube arranged between the lower and upper rolling bearing, wherein the spacer tube has a first and a second length portion (4, 6), wherein the second length portion has higher flexural elasticity than the first length portion, characterized in that the first length portion has a radially inwardly directed protrusion which, for axially supporting the spacer tube on the rotor mast, reaches into a corresponding recess of the rotor mast in such a manner that, when rotor forces are introduced, the second length portion is axially relieved of load and a spacer element, in particular a spacer disc, is provided which is arranged axially between the protrusion of the spacer tube and the recess of the rotor mast.
Fixing system of an inflated insert seal on a rear light unit of a mo tor vehicle, the fixing system comprising: - two orifices (71, 72) formed on a supporting face of the rear light unit, each apert ure (71, 72) intended to collaborate with a mounting clip formed on the inflating i nsert seal plate; - a fork formed on a side face of the rear light unit to maintain the insert-inflating seal plate laterally in relation to the rear light unit. - two orifices (71, 72) formed on a supporting face of the rear light unit, each apert ure (71, 72) intended to collaborate with a mounting clip formed on the inflating i nsert seal plate; - a fork formed on a side face of the rear light unit to maintain the insert-inflating seal plate laterally in relation to the rear light unit.
A method of determining a linear transformation of a digital watermark signal in an image, the method comprising: providing a seed set of candidate linear transforms; for each of the candidate linear transforms in the seed set, transforming coordinates of components of a digital watermark signal with the candidate linear transform to produce transformed watermark components at transformed watermark signal coordinates; determining a measure of correlation between the transformed watermark components and the image, for the candidate linear transforms; based on the measure of correlation, selecting candidate linear transforms for further processing; for the selected candidate linear transforms: a) determining peak locations within the image that are within neighborhoods around watermark signal coordinates of components of the digital watermark signal, transformed by the selected candidate linear transforms; b) updating locations of components of the digital watermark signal to the peak locations; and c) determining a new linear transform that maps original locations of components of the digital watermark signal to the updated locations; and refining the new linear transforms by steps a)-c) where correlation has increased between the image and the components of the digital watermark signal, transformed by the new linear transforms. providing a seed set of candidate linear transforms; for each of the candidate linear transforms in the seed set, transforming coordinates of components of a digital watermark signal with the candidate linear transform to produce transformed watermark components at transformed watermark signal coordinates; determining a measure of correlation between the transformed watermark components and the image, for the candidate linear transforms; based on the measure of correlation, selecting candidate linear transforms for further processing; for the selected candidate linear transforms: a) determining peak locations within the image that are within neighborhoods around watermark signal coordinates of components of the digital watermark signal, transformed by the selected candidate linear transforms; b) updating locations of components of the digital watermark signal to the peak locations; and c) determining a new linear transform that maps original locations of components of the digital watermark signal to the updated locations; and a) determining peak locations within the image that are within neighborhoods around watermark signal coordinates of components of the digital watermark signal, transformed by the selected candidate linear transforms; b) updating locations of components of the digital watermark signal to the peak locations; and c) determining a new linear transform that maps original locations of components of the digital watermark signal to the updated locations; and refining the new linear transforms by steps a)-c) where correlation has increased between the image and the components of the digital watermark signal, transformed by the new linear transforms.
Nucleotide sequence which encodes a variant of the heat shock protein ClpB, and the amino acid sequence of which is at least 95% identical to SEQ ID NO:2, characterized in that the L-threonine residue at position 7 in the amino acid sequence has been replaced by an L-isoleucine residue.
A textile fabric, in particular for protection against biological and chemical noxious substances and toxins, such as biological and chemical warfare agents, comprising a textile carrier layer and a first sheet-like piece made of activated carbon fibres, which is laminated onto the carrier layer, the fabric further comprising a second sheet-like piece made of activated carbon fibres, which is laminated onto the carrier layer in such a way that the respective adjacent edges of the two sheet-like pieces (3, 4) touch each other, the respective adjacent edges lying flush against each other along the entire contact length, or that the respective adjacent edges of the two sheet-like pieces (3, 4) overlap each other along the entire contact length, the two sheet-like pieces (3, 4) being laminated onto the carrier layer so as to be overlapping over 0.1% to 20% of their respective total areas, and the two sheet-like pieces (3, 4) being interconnected by the carrier layer. that the respective adjacent edges of the two sheet-like pieces (3, 4) touch each other, the respective adjacent edges lying flush against each other along the entire contact length, or that the respective adjacent edges of the two sheet-like pieces (3, 4) overlap each other along the entire contact length, the two sheet-like pieces (3, 4) being laminated onto the carrier layer so as to be overlapping over 0.1% to 20% of their respective total areas, and
An antenna element comprising a lower conducting plane, an upper conducting plane and an upper dielectric layer structure that is positioned between the conducting planes (2, 3), where the upper dielectric layer structure comprises a plurality of conducting vias that electrically connect the conducting planes (2, 3) to each other and circumvent an upper radiating patch formed in the upper conducting plane, where the conducting vias circumvent at least one intermediate radiating patch (7, 8) that is formed in the upper dielectric layer structure, wherein a lowest intermediate radiating patch that is closest to the lower conducting plane is connected to a feed arrangement (9, 10) that comprises at least one feeding probe (9, 10) that is comprised in the antenna element and extends via a corresponding aperture in the lower conducting plane and is directly electrically connected to the lowest intermediate radiating patch, where a first distance between the lowest intermediate radiating patch and the lower conducting plane falls below a second distance (d2, d2') between the upper radiating patch and a closest intermediate patch (7, 8), being the intermediate patch that is closest to the upper radiating patch, wherein each feed arrangement is connected to a power distribution arrangement (19, 20) that extends in a lower dielectric layer structure that is comprised in the antenna element, where the lower conducting plane is positioned between the upper dielectric layer structure and the lower dielectric layer structure, where the lower dielectric layer structure comprises at least one signal layer comprising the power distribution arrangement (19, 20), and at least one dielectric layer for each signal layer.
An agent comprising hyaluronic acid or a salt thereof, for use in a method of preventing side effects associated with a medicament having a steroid nucleus, the method comprising eliminating or accelerating the elimination of the medicament from the mucosal epithelium in an oral cavity of a living body.
A process for preparing Acetyl Iopamidol which comprises reacting compound with serinol according to the scheme: wherein said process is carried out by mechanical co-milling of compound and serinol.
A method for determining fluid momentum through one or more flow tubes of a vibratory flowmeter, comprising the steps of: vibrating at least one of one or more flow tubes (103, 103') in a drive mode vibration; receiving an elongation signal from an elongation sensor indicating an elongation of the one or more conduits due to a flowing fluid; providing a first pickoff and a second pickoff on at least one of the one or more flow tubes; receiving a first pickoff signal and second pickoff signal from the first pickoff and the second pickoff, respectively, based on a vibrational response to the drive mode vibration; calculating a difference between the first pickoff signal and second pickoff signal; determining the fluid mass flow rate from the pickoff signal difference; characterized by: calculating the fluid momentum based on the elongation signal; calculating the fluid velocity (v) from m = ρ A v, wherein: m is the mass flow rate of the fluid; ρ is the density of the fluid; and A is the cross-sectional area of the fluid; calculating the fluid momentum by multiplying the velocity and the mass flow rate; comparing the calculated fluid momentum based on the elongation signal with the calculated fluid momentum based on the mass flow rate; and indicating a fault if the calculated fluid momentum based on the mass flow rate deviates from the calculated fluid momentum based on the elongation signal to a degree greater than a predetermined threshold. vibrating at least one of one or more flow tubes (103, 103') in a drive mode vibration; receiving an elongation signal from an elongation sensor indicating an elongation of the one or more conduits due to a flowing fluid; providing a first pickoff and a second pickoff on at least one of the one or more flow tubes; receiving a first pickoff signal and second pickoff signal from the first pickoff and the second pickoff, respectively, based on a vibrational response to the drive mode vibration; calculating a difference between the first pickoff signal and second pickoff signal; determining the fluid mass flow rate from the pickoff signal difference; calculating the fluid momentum based on the elongation signal; calculating the fluid velocity (v) from m = ρ A v, wherein: m is the mass flow rate of the fluid; ρ is the density of the fluid; and A is the cross-sectional area of the fluid; m is the mass flow rate of the fluid; ρ is the density of the fluid; and A is the cross-sectional area of the fluid; calculating the fluid momentum by multiplying the velocity and the mass flow rate; comparing the calculated fluid momentum based on the elongation signal with the calculated fluid momentum based on the mass flow rate; and indicating a fault if the calculated fluid momentum based on the mass flow rate deviates from the calculated fluid momentum based on the elongation signal to a degree greater than a predetermined threshold.
A dynamic time assignment method, wherein the method is executed by central office equipment, the central office equipment comprises at least two transceivers, and the dynamic time assignment method comprises: Obtaining, by the central office equipment, a length of a new downstream transmission duration; and when the length of the new downstream transmission duration is less than lengths of current downstream transmission durations of the at least two transceivers of the central office equipment, adjusting, by the central office equipment, lengths of current upstream transmission durations of the at least two transceivers to a length of a new upstream transmission duration after shortening the lengths of the current downstream transmission durations of the at least two transceivers to the length of the new downstream transmission duration; or when the length of the new downstream transmission duration is greater than lengths of current downstream transmission durations of the at least two transceivers, adjusting, by the central office equipment, the lengths of the current downstream transmission durations of the at least two transceivers to the length of the new downstream transmission duration after shortening lengths of current upstream transmission durations of the at least two transceivers to a length of a new upstream transmission duration; wherein a sum of the length of the new upstream transmission duration and the length of the new downstream transmission duration is equal to a length obtained by subtracting upstream and downstream switching duration from one transmission frame. Obtaining, by the central office equipment, a length of a new downstream transmission duration; and when the length of the new downstream transmission duration is less than lengths of current downstream transmission durations of the at least two transceivers of the central office equipment, adjusting, by the central office equipment, lengths of current upstream transmission durations of the at least two transceivers to a length of a new upstream transmission duration after shortening the lengths of the current downstream transmission durations of the at least two transceivers to the length of the new downstream transmission duration; or when the length of the new downstream transmission duration is greater than lengths of current downstream transmission durations of the at least two transceivers, adjusting, by the central office equipment, the lengths of the current downstream transmission durations of the at least two transceivers to the length of the new downstream transmission duration after shortening lengths of current upstream transmission durations of the at least two transceivers to a length of a new upstream transmission duration; wherein a sum of the length of the new upstream transmission duration and the length of the new downstream transmission duration is equal to a length obtained by subtracting upstream and downstream switching duration from one transmission frame.
A multi-layer piezoelectric element comprising: a stacked body comprising piezoelectric layers and internal electrode layers laminated together; an external electrode plate connected to a side surface of the stacked body and electrically connected to the internal electrode layers; and an electrically conductive bonding material disposed between the side surface of the stacked body and one main surface of the external electrode plate; wherein a resin layer free of electrical conductive particles is disposed on at least one end of a space between the side surface of the stacked body and the one main surface of the external electrode plate in a width direction in a cross-sectional view perpendicular to the side surface of the stacked body, characterised in that the resin layer is disposed to protrude from between the side surface of the stacked body and the one main surface of the external electrode plate, and a gap is located between the electrically conductive bonding material and the resin layer. a stacked body comprising piezoelectric layers and internal electrode layers laminated together; an external electrode plate connected to a side surface of the stacked body and electrically connected to the internal electrode layers; and an electrically conductive bonding material disposed between the side surface of the stacked body and one main surface of the external electrode plate; wherein a resin layer free of electrical conductive particles is disposed on at least one end of a space between the side surface of the stacked body and the one main surface of the external electrode plate in a width direction in a cross-sectional view perpendicular to the side surface of the stacked body, characterised in that the resin layer is disposed to protrude from between the side surface of the stacked body and the one main surface of the external electrode plate, and a gap is located between the electrically conductive bonding material and the resin layer.
A covering for an architectural opening, comprising: upper and lower horizontal movable rails (204, 206) arranged with the upper horizontal movable rail located above the lower horizontal movable rail and; a first extendable covering material secured to said upper horizontal movable rail such that movement of said upper horizontal movable rail up and down extends and retracts the extendable covering material; characterised by first and second upper rail lift cord spools (212, 214) mounted on said upper horizontal movable rail for rotation together; a first counterwrap cord spool mounted on said upper horizontal movable rail for rotation with said first and second upper rail lift cord spools (212, 214); first and second upper rail lift cords (218, 220) secured to first and second fixed points above said upper horizontal movable rail and to said first and second upper rail lift cord spools (212, 214), respectively; and a first lower rail cord secured to said first counterwrap cord spool and to said lower horizontal movable rail, said first lower rail cord being counterwrapped onto said counterwrap cord spool such that rotation of said first upper rail lift cord spool in a first direction causes said first and second upper rail lift cords (218, 220) to wind onto the first and second upper rail lift cord spools (212, 214), respectively, and unwinds said first lower rail cord from the first counterwrap cord spool. upper and lower horizontal movable rails (204, 206) arranged with the upper horizontal movable rail located above the lower horizontal movable rail and; a first extendable covering material secured to said upper horizontal movable rail such that movement of said upper horizontal movable rail up and down extends and retracts the extendable covering material; characterised by first and second upper rail lift cord spools (212, 214) mounted on said upper horizontal movable rail for rotation together; a first counterwrap cord spool mounted on said upper horizontal movable rail for rotation with said first and second upper rail lift cord spools (212, 214); first and second upper rail lift cords (218, 220) secured to first and second fixed points above said upper horizontal movable rail and to said first and second upper rail lift cord spools (212, 214), respectively; and a first lower rail cord secured to said first counterwrap cord spool and to said lower horizontal movable rail, said first lower rail cord being counterwrapped onto said counterwrap cord spool such that rotation of said first upper rail lift cord spool in a first direction causes said first and second upper rail lift cords (218, 220) to wind onto the first and second upper rail lift cord spools (212, 214), respectively, and unwinds said first lower rail cord from the first counterwrap cord spool.