mhurhangee/ep-ind-claims huggingface dataset:
A knitted component for an article of footwear, the knitted component comprising: a portion of the knitted component (130, 500) defining the upper (120, 502), the upper including a portion of at least one of an exterior surface of the knitted component and an opposite interior surface of the knitted component, the interior surface configured to define a void for receiving a foot; and an integral knit tongue formed of unitary knit construction with the upper and extending through a throat area of the knitted component; and wherein the integral knit tongue is joined to a forward portion of the throat area and at least along a portion of a lateral side and a medial side of the throat area of the knitted component extending from the forward portion to an ankle opening of the upper; characterized by the knitted component comprising at least one raised element having at least one lace aperture configured to receive a lace and at least two knit element layers (1400, 1402), wherein at least a first portion of a first knit element layer and a second knit element layer are decoupled along the throat area of the knitted component, and at least a second portion of the first knit element layer and the second knit element layer are joined along the throat area of the knitted component. a portion of the knitted component (130, 500) defining the upper (120, 502), the upper including a portion of at least one of an exterior surface of the knitted component and an opposite interior surface of the knitted component, the interior surface configured to define a void for receiving a foot; and an integral knit tongue formed of unitary knit construction with the upper and extending through a throat area of the knitted component; and wherein the integral knit tongue is joined to a forward portion of the throat area and at least along a portion of a lateral side and a medial side of the throat area of the knitted component extending from the forward portion to an ankle opening of the upper; characterized by the knitted component comprising at least one raised element having at least one lace aperture configured to receive a lace and at least two knit element layers (1400, 1402), wherein at least a first portion of a first knit element layer and a second knit element layer are decoupled along the throat area of the knitted component, and at least a second portion of the first knit element layer and the second knit element layer are joined along the throat area of the knitted component.
A transmitter device, comprising a transmission antenna, the transmission antenna comprising at least one transducer and one signal generation unit for generating an acoustic communication signal to be transmitted to a receiver device including hidden information, characterized in that the signal generation unit is configured to previously record an original acoustic signal, wherein the signal generation unit is configured to previously divide the total duration of an initial signal x(t) derived from the original signal into a set of contiguous successive time intervals of the same duration T, each interval of duration T being divided into 2M sub-intervals U k: U -M,..., U -1, U 1,..., U M, separated by guard intervals, said sub-intervals having increasing durations as a function of the absolute value of k, said communication signal y(t) to be transmitted being equal to the sum of the initial signal x(t) and an auxiliary signal Ψ(x)(t), previously multiplied by α.a n, where α denotes a gain parameter <1, chosen to be low enough for the signal y(t) to be close to the signal x(t), and where a n denotes an information symbol to be transmitted corresponding to the n th interval, said symbol a n having a phase and/or an amplitude carrying the hidden information, said auxiliary signal Ψ(x)(t) being calculated from the initial signal x(t) by means of a chosen transformation operator Ψ, the transformation operator being defined on each of said intervals from a phase parameter exp j.β k, the phase parameter depending on a set of phases β k forming a steganographic key, the transformation operator being applied to the initial signal in each sub-interval U k in order to calculate the value of the corresponding auxiliary signal in said interval, the value of the auxiliary signal Ψ(x)(T/2 + t) at a time T/2 + t, where t belongs to a sub-interval U k, being equal to: Ψ x T / 2 + t = exp j. β k. p t. x T / 2 − t, β k being comprised in the interval [0, 2 π] and p(t) being an amplitude weighting function at time t.
A composition for a conductive ink, comprising: a solvent; conductive particles free from any nanoparticles, wherein the conductive particles further comprise one or more metals; an edible thickener; a surfactant; water in the range of 30 - 60 weight% by weight of the composition; and a dispersant comprising a water-based resin having concentration in a range of 1 to less than 5 weight% by weight of the composition, wherein said water-based resin comprises one or more compounds selected from a group comprising aldehyde ketone resin, epoxy, phenol-formaldehyde resin, polyacrylic acid and polyvinylidene difluoride (PVDF), characterized in that said water-based resin composition having the concentration in the range of 1 to less than 5 weight% by weight makes said conductive ink erasable; and in that said conductive ink forms a conductive trace; wherein the conductive particles optionally comprise one or more particles selected from the group consisting of silver, copper, gold, carbon and any other conductive metal alloy particles; and optionally the conductive particles are added at a concentration in a range of 15 to 50 weight% by weight of the composition. a solvent; conductive particles free from any nanoparticles, wherein the conductive particles further comprise one or more metals; an edible thickener; a surfactant; water in the range of 30 - 60 weight% by weight of the composition; and a dispersant comprising a water-based resin having concentration in a range of 1 to less than 5 weight% by weight of the composition, wherein said water-based resin comprises one or more compounds selected from a group comprising aldehyde ketone resin, epoxy, phenol-formaldehyde resin, polyacrylic acid and polyvinylidene difluoride (PVDF), characterized in that said water-based resin composition having the concentration in the range of 1 to less than 5 weight% by weight makes said conductive ink erasable; and in that said conductive ink forms a conductive trace; wherein the conductive particles optionally comprise one or more particles selected from the group consisting of silver, copper, gold, carbon and any other conductive metal alloy particles; and optionally the conductive particles are added at a concentration in a range of 15 to 50 weight% by weight of the composition.
Device (100, 200, 300, 400) for supplying electricity to light sources participating in the performance of the same light function of a motor vehicle, the device comprising a plurality of control means (110, 120; 210, 220; 310, 320); 410, 420) for controlling the electrical supply of at least one light source each, the control means each comprising diagnostic means (112, 122; 212, 222; 312, 322; 412, 422) configured to supply a diagnostic signal (114, 124; 214, 224; 314, 324; 414, 424) for said light source, characterized in that the device comprises a processing unit (130, 230, 330, 430) for processing diagnostic signals supplied by the plurality of drive means, the processing unit being configured to supply, as a function of said diagnostic signals, a signal for detecting a so-called partial failure (132, 332, 432) of the light sources supplied by one of the drive means, and a signal for detecting a so-called total failure (134, 234, 434) of the light sources supplied by each of the drive means.
Motor vehicle display device, comprising a dial, which has a backing layer, which is three-dimensionally formed and is preferably deep-drawn, wherein the display device has display means, wherein the display means comprise numerals and scale marks, wherein the backing layer is provided with a chromium layer (2"), characterized in that the chromium layer (2") is masked by a colour layer of the display means, wherein the colour layer of the display means has been sprayed over with a further colour layer, wherein the display means have been masked, wherein the entire layer is translucent, so that a light source shines at least partially through the display device.
Sulphated hyaluronic acid for use in the prevention and/or treatment of asthma associated to the activation of IL-1, IL-2, IL-6, IL-7, IL-8, IL-12, and TNF, said sulphated hyaluronic acid, having a molecular weight ranging from 10,000 to 50,000 Da, 150,000 to 250,000 Da and 500,000 to 750,000 Da and a sulphation degree equal to 1 or to 3.
Method in a system for sending a picture (105, 106) from an electronic mobile device to an electronic device, which picture (105, 106) is to be sent over a wireless communications network, the system comprising the electronic mobile device, the electronic device, and the wireless communications network, and wherein the electronic mobile device comprises a camera unit, the method comprising: - capturing a high resolution picture with the camera unit, - creating a low resolution picture in the electronic mobile device based on the high resolution picture, - sending the low resolution picture from the electronic mobile device to the electronic device, wherein a link to the high resolution picture is embedded in the low resolution picture, and when a quality of resources in the wireless communications network is above a threshold, - sending the high resolution picture from the electronic mobile device to at least one database for storage; - receiving in the at least one database a request from the electronic device for the high resolution picture, - downloading the high resolution picture from the database to the electronic device via the link. - capturing a high resolution picture with the camera unit, - creating a low resolution picture in the electronic mobile device based on the high resolution picture, - sending the low resolution picture from the electronic mobile device to the electronic device, wherein a link to the high resolution picture is embedded in the low resolution picture, and when a quality of resources in the wireless communications network is above a threshold, - sending the high resolution picture from the electronic mobile device to at least one database for storage; - receiving in the at least one database a request from the electronic device for the high resolution picture, - downloading the high resolution picture from the database to the electronic device via the link.
A method performed by a lawful interception, LI, mediation system comprising a mediation and delivery function for intercept related information, MF2/DF2 and a mediation and delivery function for call content, MF3/DF3, in a communication system, the method comprising: - receiving (201, 307), by the MF2/DF2 from an intercept access point, IAP, in a rich communication suite, RCS, network element, NE,, an intercepted message, - determining, by the MF2/DF2, that the intercepted message comprises session initiation protocol, SIP, early media content associated with RCS traffic, and as a consequence: - transmitting (205, 309), by the MF2/DF2 via an HI2 interface to a law enforcement agency, LEA, the intercepted message, - transmitting (207, 317), by the MF2/DF2 to the MF3/DF3, the SIP early media content, and - transmitting (209, 319), by the MF3/DF3 via an HI3 interface to the LEA, the SIP early media content. - receiving (201, 307), by the MF2/DF2 from an intercept access point, IAP, in a rich communication suite, RCS, network element, NE,, an intercepted message, - determining, by the MF2/DF2, that the intercepted message comprises session initiation protocol, SIP, early media content associated with RCS traffic, and as a consequence: - transmitting (205, 309), by the MF2/DF2 via an HI2 interface to a law enforcement agency, LEA, the intercepted message, - transmitting (207, 317), by the MF2/DF2 to the MF3/DF3, the SIP early media content, and - transmitting (209, 319), by the MF3/DF3 via an HI3 interface to the LEA, the SIP early media content. - transmitting (205, 309), by the MF2/DF2 via an HI2 interface to a law enforcement agency, LEA, the intercepted message, - transmitting (207, 317), by the MF2/DF2 to the MF3/DF3, the SIP early media content, and - transmitting (209, 319), by the MF3/DF3 via an HI3 interface to the LEA, the SIP early media content.
A metal-bisphosphonate nanoparticle comprising a core comprising: (a) M 1, wherein M 1 is a multivalent metal ion selected from Ca 2+, Mg 2+, Mn 2+, and Zn 2+; and (b) a bisphosphonate, wherein the bisphosphonate comprises a metal complex having the formula M 2 L x, wherein x is an integer of 2 or greater, M 2 is a second metal ion selected from Pt, Ru, and a beta-emitting radionuclide, and wherein each L is a metal ion ligand, further wherein two L are phosphonate group-containing metal ligands, wherein the phosphonate group of each of said phosphonate group-containing metal ligands is available to coordinate to multivalent metal ion M 1, and wherein the bisphosphonate is prepared by reacting a metal complex comprising two hydroxyl ligands with a reagent selected from the group consisting of diethoxyphosphinyl isocyanate, diethoxyphosphinyl isothiocyanate, a diethyoxyphosphinyl-containing carboxylic anhydride, or a diethoxyphosphinyl-containing acyl chloride. (a) M 1, wherein M 1 is a multivalent metal ion selected from Ca 2+, Mg 2+, Mn 2+, and Zn 2+; and (b) a bisphosphonate, wherein the bisphosphonate comprises a metal complex having the formula M 2 L x, wherein x is an integer of 2 or greater, M 2 is a second metal ion selected from Pt, Ru, and a beta-emitting radionuclide, and wherein each L is a metal ion ligand, further wherein two L are phosphonate group-containing metal ligands, wherein the phosphonate group of each of said phosphonate group-containing metal ligands is available to coordinate to multivalent metal ion M 1, and wherein the bisphosphonate is prepared by reacting a metal complex comprising two hydroxyl ligands with a reagent selected from the group consisting of diethoxyphosphinyl isocyanate, diethoxyphosphinyl isothiocyanate, a diethyoxyphosphinyl-containing carboxylic anhydride, or a diethoxyphosphinyl-containing acyl chloride.
A tomographic imaging system for real-time imaging of a biological tissue comprising; (a) a wave source block to direct wave source light waves from the wave source block into the biological tissue to cause an administered fluorescent imaging probe in a three-dimensional target region within the biological tissue to emit fluorescent light, wherein the biological tissue has a volume V surrounded by a boundary surface S; and (b) a wave detector block to detect an intensity of the fluorescent light emitted from multiple points from the biological tissue by using measurements of the fluorescent light outside the biological tissue; and (c) a processor to process the detected intensity of the fluorescent light to generate a tomographic image indicating a quantity of the fluorescent imaging probe in the three-dimensional target region within the biological tissue, characterised in that the processor generates the tomographic image by modeling propagation of diffuse photon waves inside the volume V taking into account the boundary surface S and a modeling of the intensities at the wave detector block located outside the biological tissue, wherein for said modeling, the processor uses an N-order Green's function in a Diffuse Reflection Boundary Method to represent a contribution of each of a plurality of waves to the detected intensity as a sum of an arbitrary integer number N of terms in a series, each term being an intensity of a wave reflected from an arbitrary surface within or outside the biological tissue. (a) a wave source block to direct wave source light waves from the wave source block into the biological tissue to cause an administered fluorescent imaging probe in a three-dimensional target region within the biological tissue to emit fluorescent light, wherein the biological tissue has a volume V surrounded by a boundary surface S; and (b) a wave detector block to detect an intensity of the fluorescent light emitted from multiple points from the biological tissue by using measurements of the fluorescent light outside the biological tissue; and (c) a processor to process the detected intensity of the fluorescent light to generate a tomographic image indicating a quantity of the fluorescent imaging probe in the three-dimensional target region within the biological tissue,
Process for preparing perfluoro-1,3-butadiene, comprising the following steps: A) preparation of fluoro-halo-butanes of formula: CF 2 Y I -CFY II -CFY II -CF 2 Y I in which Y I and Y II, which may be identical or different, may be H, Cl or Br, with the condition that Y I and Y II are not simultaneously hydrogen; by 1) fluorodimerization of a chloroolefin having the formula: CY"Y = CY'Cl in which Y, Y', Y", which may be identical or different, are H, Cl or Br, with the condition that Y, Y', Y" are not simultaneously hydrogen; 2) dehalogenation or dehydrohalogenation of the compound(s) obtained in step 1) to give halo-fluoro-butadienes of formula: CFY I = CY II -CY II = CFY I in which Y I, Y II have the meanings given above; 3) fluorination with elemental fluorine of the halo-fluoro-butadienes of formula into fluoro-halo-butanes of formula: CF 2 Y I -CFY II -CFY II -CF 2 Y I in which Y I and Y II are as defined above; B) dehalogenation or dehydrohalogenation of the fluoro-halo butanes of formula to give perfluoro-1,3-butadiene. A) preparation of fluoro-halo-butanes of formula: CF 2 Y I -CFY II -CFY II -CF 2 Y I in which Y I and Y II, which may be identical or different, may be H, Cl or Br, with the condition that Y I and Y II are not simultaneously hydrogen; by 1) fluorodimerization of a chloroolefin having the formula: CY"Y = CY'Cl in which Y, Y', Y", which may be identical or different, are H, Cl or Br, with the condition that Y, Y', Y" are not simultaneously hydrogen; 2) dehalogenation or dehydrohalogenation of the compound(s) obtained in step 1) to give halo-fluoro-butadienes of formula: CFY I = CY II -CY II = CFY I in which Y I, Y II have the meanings given above; 3) fluorination with elemental fluorine of the halo-fluoro-butadienes of formula into fluoro-halo-butanes of formula: CF 2 Y I -CFY II -CFY II -CF 2 Y I in which Y I and Y II are as defined above; 1) fluorodimerization of a chloroolefin having the formula: CY"Y = CY'Cl in which Y, Y', Y", which may be identical or different, are H, Cl or Br, with the condition that Y, Y', Y" are not simultaneously hydrogen; 2) dehalogenation or dehydrohalogenation of the compound(s) obtained in step 1) to give halo-fluoro-butadienes of formula: CFY I = CY II -CY II = CFY I in which Y I, Y II have the meanings given above; 3) fluorination with elemental fluorine of the halo-fluoro-butadienes of formula into fluoro-halo-butanes of formula: CF 2 Y I -CFY II -CFY II -CF 2 Y I in which Y I and Y II are as defined above; B) dehalogenation or dehydrohalogenation of the fluoro-halo butanes of formula to give perfluoro-1,3-butadiene.
A composition comprising saposin C and dioleoylphosphatidylserine, SapC-DOPS, for use in a method of treating a malignant solid tumor in a patient in need thereof, the method comprising administering to the patient a combination of SapC-DOPS and fractionated radiation therapy, wherein the fractionated radiation therapy comprises a plurality of radiation fractions, each of said fractions delivering a radiation dose lower than a dose effective to inhibit tumor growth when administered alone, and further wherein one or more fractions of the fractionated radiation therapy are administered prior to the SapC-DOPS, and: (a) one or more additional fractions are administered after the SapC-DOPS; (b) one or more additional fractions are administered contemporaneously with the SapC-DOPS; and/or (c) SapC-DOPS and additional fractions are administered in overlapping or alternating sequences. (a) one or more additional fractions are administered after the SapC-DOPS; (b) one or more additional fractions are administered contemporaneously with the SapC-DOPS; and/or (c) SapC-DOPS and additional fractions are administered in overlapping or alternating sequences.
A bone plating system (100, 200, 300) comprising: first (110, 210, 310) and second bone plates (120, 220, 320) configured to contact respective first and second bones (140, 142, 144; 146, 148; 150, 152); a cross-connector (130, 230, 330) having a first end and an opposite second end, the cross-connector (130, 230, 330) extending along a longitudinal axis from the first bone plate (110, 210, 310) to the second bone plate (120, 220, 320); a cutting guide having an elongate body with a bone contacting surface configured to be placed on one of the first and second bones (140, 142, 144; 146, 148; 150 152) to define the longitudinal axis; and a targeter device (400, 500) having a drill guide to align the cross-connector (130, 230, 330) with the first (110, 210, 310) and second (120, 220, 320) bone plates along the longitudinal axis, wherein the bone plating system (100, 200, 300) further comprises an insert housed within one of the first (110, 210, 310) and second bone plates (120, 220, 320), characterized in that one of the first (110, 210, 310) and second bone plates (120, 220, 320) with the insert is pivotable about at least a longitudinal axis extending through a center of said bone plate (110, 210, 310; 120, 220, 320) when said insert is secured to the cross-connector (130, 230, 330) such that the cross-connector applies a compressive force across the first and second bones (140, 142, 144; 146, 148; 150, 152). first (110, 210, 310) and second bone plates (120, 220, 320) configured to contact respective first and second bones (140, 142, 144; 146, 148; 150, 152); a cross-connector (130, 230, 330) having a first end and an opposite second end, the cross-connector (130, 230, 330) extending along a longitudinal axis from the first bone plate (110, 210, 310) to the second bone plate (120, 220, 320); a cutting guide having an elongate body with a bone contacting surface configured to be placed on one of the first and second bones (140, 142, 144; 146, 148; 150 152) to define the longitudinal axis; and a targeter device (400, 500) having a drill guide to align the cross-connector (130, 230, 330) with the first (110, 210, 310) and second (120, 220, 320) bone plates along the longitudinal axis, wherein the bone plating system (100, 200, 300) further comprises an insert housed within one of the first (110, 210, 310) and second bone plates (120, 220, 320), characterized in that one of the first (110, 210, 310) and second bone plates (120, 220, 320) with the insert is pivotable about at least a longitudinal axis extending through a center of said bone plate (110, 210, 310; 120, 220, 320) when said insert is secured to the cross-connector (130, 230, 330) such that the cross-connector applies a compressive force across the first and second bones (140, 142, 144; 146, 148; 150, 152).