mhurhangee/patent-ind-claim-en huggingface dataset:
A method for handling a communication operation, the method performed by a network of a wireless communication system in a time-division duplexing, TDD, mode, the method comprising: determining an uplink/downlink, called UL/DL hereinafter, reconfiguration set, the reconfiguration set being equal to three UL/DL configurations; scheduling a UL/DL configuration of the reconfiguration set for a frame; determining a reference UL/DL configuration according to the reconfiguration set wherein the reference UL/DL configuration is one of the three UL/DL configurations; transmitting information comprising the reference UL/DL configuration to a communication device of the wireless communication system; and performing a communication operation in the frame with the communication device according to the reference UL/DL configuration, irrespective of the UL/DL configuration previously scheduled for the frame, wherein the communication operation is a transmission, or the communication operation is a reception; wherein each DL subframe of each of the three UL/DL configurations with a same subframe index corresponds to a DL subframe of the reference UL/DL configuration. determining an uplink/downlink, called UL/DL hereinafter, reconfiguration set, the reconfiguration set being equal to three UL/DL configurations; scheduling a UL/DL configuration of the reconfiguration set for a frame; determining a reference UL/DL configuration according to the reconfiguration set wherein the reference UL/DL configuration is one of the three UL/DL configurations; transmitting information comprising the reference UL/DL configuration to a communication device of the wireless communication system; and performing a communication operation in the frame with the communication device according to the reference UL/DL configuration, irrespective of the UL/DL configuration previously scheduled for the frame, wherein the communication operation is a transmission, or the communication operation is a reception; wherein each DL subframe of each of the three UL/DL configurations with a same subframe index corresponds to a DL subframe of the reference UL/DL configuration.
A bag-in-box container comprising a flexible container element enclosed in a rigid casing , where the bag-in-box container is provided with an upper opening for an outlet connected to the flexible container element , the upper opening being arranged above the middle on a side of the bag-in-box container, where the bag-in-box container further is provided with a pressurizing element (1-5, 11) which is arranged to apply pressure to the flexible container element , where further the pressurizing element (1-5, 11) is constituted at least by two plate devices (2-3, 5) being urged apart by at least one resilient element , characterised in that the at least by two plate devices (2-3, 5) are provided with engageable hook elements that may be set out of engagement by shifting one of the plate devices with respect to the other essentially along the plane of the plate devices.
A medical device, comprising: a. a contact lens comprising at least one surface; and b. one or more coatings provided on at least a portion of said at least one surface; comprising: 1) at least one drug reservoir layer produced at least in part by printing, wherein said at least one drug reservoir layer comprises at least one drug; and 2) at least one barrier layer comprising one or more three dimensional structures; wherein said at least one barrier layer modulates the release of said at least one drug from said at least one drug reservoir layer; and further wherein said one or more three dimensional structures are printed at least in part by additive digital three dimensional printing. a. a contact lens comprising at least one surface; and b. one or more coatings provided on at least a portion of said at least one surface; comprising: 1) at least one drug reservoir layer produced at least in part by printing, wherein said at least one drug reservoir layer comprises at least one drug; and 2) at least one barrier layer comprising one or more three dimensional structures; wherein said at least one barrier layer modulates the release of said at least one drug from said at least one drug reservoir layer; and further wherein said one or more three dimensional structures are printed at least in part by additive digital three dimensional printing. 1) at least one drug reservoir layer produced at least in part by printing, wherein said at least one drug reservoir layer comprises at least one drug; and 2) at least one barrier layer comprising one or more three dimensional structures;
Glatiramer acetate for use in a regimen of three subcutaneous injections of a pharmaceutical composition comprising a 40mg dose of glatiramer acetate every seven days with at least one day between each subcutaneous injection for treating a human patient who is suffering from relapsing-remitting multiple sclerosis, wherein the tolerability of glatiramer acetate treatment in the human patient is increased by reducing the frequency and severity of an immediate post injection reaction or an injection site reaction, wherein the pharmaceutical composition is in a prefilled syringe for self administration by the patient and said treatment comprises reducing the progression of MRI-monitored disease activity in the patient.
A control apparatus for controlling a device having a movable unit, on which a tool for cutting and shaping a work can be mounted, movable by a plurality of drive shafts, comprising: target trajectory set means (S6) for dynamically setting a target trajectory for a movement section defined by a start point and an end point; remaining distance estimation means (S8) for estimating a remaining distance along said target trajectory from a current position to said end point in each control cycle; the control apparatus being characterized by : acceleration calculation means (S10) for repeatedly calculating for each control cycle such a constant acceleration that a movement velocity of said movable unit varies from a current movement velocity to a target movement velocity when said movable unit moves by the remaining distance estimated in each control cycle; and movement velocity updating means (S12) for calculating a new target movement velocity value by correcting said current movement velocity with the calculated constant acceleration. target trajectory set means (S6) for dynamically setting a target trajectory for a movement section defined by a start point and an end point; remaining distance estimation means (S8) for estimating a remaining distance along said target trajectory from a current position to said end point in each control cycle; the control apparatus being characterized by : acceleration calculation means (S10) for repeatedly calculating for each control cycle such a constant acceleration that a movement velocity of said movable unit varies from a current movement velocity to a target movement velocity when said movable unit moves by the remaining distance estimated in each control cycle; and movement velocity updating means (S12) for calculating a new target movement velocity value by correcting said current movement velocity with the calculated constant acceleration. acceleration calculation means (S10) for repeatedly calculating for each control cycle such a constant acceleration that a movement velocity of said movable unit varies from a current movement velocity to a target movement velocity when said movable unit moves by the remaining distance estimated in each control cycle; and movement velocity updating means (S12) for calculating a new target movement velocity value by correcting said current movement velocity with the calculated constant acceleration.
A welding-type power supply, comprising: - an input circuit , disposed to receive input power, and to provide an intermediate signal; - a dc bus disposed to receive the intermediate signal; - an output circuit , disposed to receive the dc bus , wherein the output circuit is configured to provide an ac welding-type output across an electrode output and a work output, and includes a first half-bridge inverter having at least a first switch and a second switch , wherein the first half-bridge inverter is connected to receive power from the dc bus and to provide power to the work output, and further wherein the output circuit includes a commutation circuit, which comprises a second half-bridge inverter having at least a first commutation switch and a second commutation switch , wherein the second half-bridge inverter is connected to receive power from the DC bus and to provide power to the electrode output, and which is configured to provide a first freewheeling path that includes the first commutation switch , the electrode output, the work output and a diode antiparallel to the first switch ; and - a control module including an inverter control module that is arranged to provide control signals to the first half-bridge inverter, and further including a commutation control module that is arranged to provide modulating control signals to the first commutation switch ; characterized in that the modulating control signals cause the first commutation switch to be turned on and off multiple times during commutation of the current to the diode antiparallel to the first switch , whereby a first rate of change of a current in the work output and the electrode output is controlled. - an input circuit , disposed to receive input power, and to provide an intermediate signal; - a dc bus disposed to receive the intermediate signal; - an output circuit , disposed to receive the dc bus , wherein the output circuit is configured to provide an ac welding-type output across an electrode output and a work output, and includes a first half-bridge inverter having at least a first switch and a second switch , wherein the first half-bridge inverter is connected to receive power from the dc bus and to provide power to the work output, and further wherein the output circuit includes a commutation circuit, which comprises a second half-bridge inverter having at least a first commutation switch and a second commutation switch , wherein the second half-bridge inverter is connected to receive power from the DC bus and to provide power to the electrode output, and which is configured to provide a first freewheeling path that includes the first commutation switch , the electrode output, the work output and a diode antiparallel to the first switch ; and - a control module including an inverter control module that is arranged to provide control signals to the first half-bridge inverter, and further including a commutation control module that is arranged to provide modulating control signals to the first commutation switch ;
A device for continuous producing coils of wound strips , comprising means for continuously depositing a protective film on a sticky face of a web , characterized in that the means for continuously depositing a protective film are connected to means for slitting the web and its protective film into several longitudinal strips , the slitting means being connected to winding means configured to wind each strip in the form of a coil , the means for continuously depositing a protective film comprising an automatic loader of protective film ) configured to allow the continuous deposition of the protective film .
Production method for producing a hollow body from diecast aluminium in a diecasting machine with a diecasting die consisting of mould parts having a stationary mould part and having one movable mould part , wherein slides are guided in the movable mould part of the die, and wherein the four slides , conjointly with four corner battens that are disposed in the four corners of the movable mould part , form a space into which a core is introduced, characterized in that the slides and the corner battens have in each case stepped terminations and, upon being converged, form a multi-stage seal, and in that the slides in the closed position of the die are blocked by respective interlocks which are attached to the stationary mould part .
A method for synchronizing timing among test network interface cards in a network equipment test device , the method comprising: at a management network interface card in a network equipment test device , obtaining or generating a clock; generating and sending timing synchronization measurement signals from a timing synchronizer within the network equipment test device to the management network interface card and a test network interface card in the network equipment test device ; recording times of receipt of the timing synchronization measurement signals at the management network interface card and the test network interface card wherein the times of receipt of the timing synchronization measurement signals are respectively recorded using the clock of the management network interface card and a clock of the test network interface card ; and reporting the times of receipt of the timing synchronization signals from the management network interface card and the test network interface card to the timing synchronizer for computing, by the timing synchronizer and by using the times of receipt of the timing synchronization signals, a frequency adjustment factor and a phase offset; reporting, by the timing synchronizer , the frequency adjustment factor and the phase offset to the test network interface card , adjusting the clock of the test network interface card using the frequency adjustment factor and the phase offset. at a management network interface card in a network equipment test device , obtaining or generating a clock; generating and sending timing synchronization measurement signals from a timing synchronizer within the network equipment test device to the management network interface card and a test network interface card in the network equipment test device ; recording times of receipt of the timing synchronization measurement signals at the management network interface card and the test network interface card wherein the times of receipt of the timing synchronization measurement signals are respectively recorded using the clock of the management network interface card and a clock of the test network interface card ; and reporting the times of receipt of the timing synchronization signals from the management network interface card and the test network interface card to the timing synchronizer for computing, by the timing synchronizer and by using the times of receipt of the timing synchronization signals, a frequency adjustment factor and a phase offset; reporting, by the timing synchronizer , the frequency adjustment factor and the phase offset to the test network interface card , adjusting the clock of the test network interface card using the frequency adjustment factor and the phase offset.
A display device comprising: a first substrate ; a pixel (PX1) disposed on the first substrate and including first (SPX1), second (SPX2) and third (SPX3) sub-pixel electrodes adjacent to each other; a second substrate spaced from the first substrate ; a colour conversion layer disposed on the second substrate, the colour conversion layer including a first wavelength conversion layer (WC1) overlapping with the first sub pixel electrode and a second wavelength conversion layer (WC2) overlapping with the second sub pixel electrode; a transmissive layer including a first transmissive layer overlapping with the third sub-pixel electrode and a second transmissive layer disposed between the first wavelength conversion layer (WC1) and the second wavelength conversion layer (WC2); and a planarization layer disposed on the colour conversion layer and the transmissive layer , wherein the first transmissive layer and the second transmissive layer are made of the same material, characterised in that each of the first transmissive layer and the second transmissive layer includes a light-transmitting resin and a light-scattering material , and a first weight percentage of the light-scattering material in the first transmissive layer is the same as a second weight percentage of the light-scattering material in the second transmissive layer . a first substrate ; a pixel (PX1) disposed on the first substrate and including first (SPX1), second (SPX2) and third (SPX3) sub-pixel electrodes adjacent to each other; a second substrate spaced from the first substrate ; a colour conversion layer disposed on the second substrate, the colour conversion layer including a first wavelength conversion layer (WC1) overlapping with the first sub pixel electrode and a second wavelength conversion layer (WC2) overlapping with the second sub pixel electrode; a transmissive layer including a first transmissive layer overlapping with the third sub-pixel electrode and a second transmissive layer disposed between the first wavelength conversion layer (WC1) and the second wavelength conversion layer (WC2); and a planarization layer disposed on the colour conversion layer and the transmissive layer , wherein the first transmissive layer and the second transmissive layer are made of the same material, characterised in that each of the first transmissive layer and the second transmissive layer includes a light-transmitting resin and a light-scattering material , and a first weight percentage of the light-scattering material in the first transmissive layer is the same as a second weight percentage of the light-scattering material in the second transmissive layer .
A wax inhibitor for hydrocarbon oils comprising an esterified copolymer having repeating structural units derived from an esterified ethylenically unsaturated dicarboxylic acid and a-olefins having at least 18 carbon atoms, whereof at least 3 mol-% of the a-olefins have 30 or more carbon atoms, and wherein the ethylenically unsaturated dicarboxylic acid has been esterified with a mixture of alcohols comprising i) 70 to 97 mol-% of a saturated fatty alcohol having 18 to 24 carbon atoms and ii) 3 to 30 mol-% of an unsaturated alcohol having 16 to 24 carbon atoms. i) 70 to 97 mol-% of a saturated fatty alcohol having 18 to 24 carbon atoms and ii) 3 to 30 mol-% of an unsaturated alcohol having 16 to 24 carbon atoms.
Method for manufacturing a thermal inkjet print head comprising the steps of providing resistors onto a substrate according to a staggered pattern, forming a fluid feed channel through the substrate so that the channel extends substantially orthogonal to the chip surface and having staggered edges that follow the staggered pattern of the resistors so that a fluid path length between a resistor edge and a corresponding staggered edge is substantially similar for each resistor, characterized in that the fluid channel is formed by sandblasting starting from the rear side of the substrate without reaching the opposite surface, and subsequent laser ablation to a through-slot.
Pluggable data store having a housing and an electrical connector, by which an electrical connection to another object can be established, wherein the housing comprises a push-pull device , wherein the push-pull device comprises two spacer elements and a pushing-surface element , wherein the assembly of the two spacer elements , the pushing-surface element and the housing forms an in particular torsionally rigid pulling lug , wherein the pushing-surface element is configured as a planar surface, wherein the planar surface is arranged orthogonally to both the direction of pull and the direction of push, wherein at least the part of the surface of the housing that is spatially closest to the pushing-surface element has a structure , wherein said structure is configured as a groove-shaped and/or stud-shaped projection, characterised in that the pushing-surface element has an inscription , wherein the spacer elements are formed in an L shape, in particular by reducing the height of the spacer elements in parts, in a manner visible in a side view, compared with the rest of the housing and the pushing-surface element . a housing and an electrical connector, by which an electrical connection to another object can be established, wherein the housing comprises a push-pull device , wherein the push-pull device comprises two spacer elements and a pushing-surface element , wherein the assembly of the two spacer elements , the pushing-surface element and the housing forms an in particular torsionally rigid pulling lug , wherein the pushing-surface element is configured as a planar surface, wherein the planar surface is arranged orthogonally to both the direction of pull and the direction of push, wherein at least the part of the surface of the housing that is spatially closest to the pushing-surface element has a structure , wherein said structure is configured as a groove-shaped and/or stud-shaped projection, characterised in that the pushing-surface element has an inscription , wherein the spacer elements are formed in an L shape, in particular by reducing the height of the spacer elements in parts, in a manner visible in a side view, compared with the rest of the housing and the pushing-surface element .
An apparatus comprising a processor for receiving and processing a data set of multiple mass spectra from a mass spectrometer, characterized in that the processing comprises a normalization process for the data set, the data set comprising N spectra that each contain M m/z bins and have a common spectral profile and differential peaks between the spectra, the normalization process comprising the steps of: - running a non-negative matrix factorization algorithm several times on the data set in rank-1 mode to obtain a profile vector and a vector with scaling factors which form a rank-1 approximation of the data set, wherein differential peaks in the profile vector are penalized by deducting in each iteration differential residuals from the data set; - estimating the common ion current of a spectrum as the area-under-the curve of the profile vector scaled by the scaling factor of the spectrum; - for each spectrum, scaling back the spectrum with the inverse of its common ion current or a common ion current derived scaling factor. - running a non-negative matrix factorization algorithm several times on the data set in rank-1 mode to obtain a profile vector and a vector with scaling factors which form a rank-1 approximation of the data set, wherein differential peaks in the profile vector are penalized by deducting in each iteration differential residuals from the data set; - estimating the common ion current of a spectrum as the area-under-the curve of the profile vector scaled by the scaling factor of the spectrum; - for each spectrum, scaling back the spectrum with the inverse of its common ion current or a common ion current derived scaling factor.