mhurhangee/ep-ind-claims huggingface dataset:
A method for calibrating a receiver having a received signal strength below a noise floor, comprising: measuring a noise power output from the receiver across a range of frequencies; analyzing the measured output noise power to determine gain in a frequency band; and calibrating relative gain of the receiver based upon the analysis; and in which the calibration occurs during operation of the receiver in a background mode. measuring a noise power output from the receiver across a range of frequencies; analyzing the measured output noise power to determine gain in a frequency band; and calibrating relative gain of the receiver based upon the analysis; and in which the calibration occurs during operation of the receiver in a background mode.
Linear vibratory conveyor comprising an oscillator, a counterweight and a main frame, the oscillator and the counterweight being movable relative to one another and being drivable by means of at least one vibration drive, the linear vibratory conveyor comprising at least two bending spring arrangements that are arranged so as to be spaced apart from one another and each of which comprises at least one pivot bearing connection device which is connected, in particular releasably, to pivot bearing means or forms the pivot bearing means, each bending spring arrangement being assigned at least one oscillator connection device for attachment, in particular releasable attachment, to the oscillator and at least one counterweight connection device for attachment, in particular releasable attachment, to the counterweight, and the pivot bearing connection device being arranged, in particular centrally, between the oscillator connection device and the counterweight connection device and so as to be spaced apart from each, each bending spring arrangement comprising at least one first bending spring portion which extends from the pivot bearing connection device to the oscillator connection device, or at least one first bending spring which extends from the pivot bearing connection device to the oscillator connection device, and each bending spring arrangement comprising at least one second bending spring portion (27") which extends from the pivot bearing connection device to the counterweight connection device, or at least one second bending spring which extends from the pivot bearing connection device to the counterweight connection device, characterised in that the pivot bearing means form at least one pivot bearing together with pivot bearing mating means provided on, in particular attached to or formed on, the main frame.
Use of the dipeptide of formula R 1 -Tyr-Arg-R 2 for the cosmetic treatment of cutaneous sagging, in the dipeptide: - R 1 being a hydrogen atom or an acyl or sulfonyl group selected from a biotinoyle group or a group having an alkyl, aryl, aralkyl, sugar or alkoxy 1 to 24 carbon atom chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfurated or non sulfurated; and - R 2 being a hydroxyle OH or a -O-R 3 group or a -NR 4 R 5 group, R 3, R 4 and R 5 being independantly from each other a hydrogen, an alkyl, aryl, aralkyl, sugar or alkoxy 1 to 24 carbon atom chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfurated or non sulfurated. - R 1 being a hydrogen atom or an acyl or sulfonyl group selected from a biotinoyle group or a group having an alkyl, aryl, aralkyl, sugar or alkoxy 1 to 24 carbon atom chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfurated or non sulfurated; and - R 2 being a hydroxyle OH or a -O-R 3 group or a -NR 4 R 5 group, R 3, R 4 and R 5 being independantly from each other a hydrogen, an alkyl, aryl, aralkyl, sugar or alkoxy 1 to 24 carbon atom chain being linear, branched or cyclic, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfurated or non sulfurated.
A gas phase process to co-polymerize ethylene and at least one co-monomer in the presence of at least one catalyst poison using a combination catalyst to provide a polymer composition comprising a first polymer component and a second polymer component wherein said process comprises: adjusting the ratio of said first polymer component to said second polymer component by altering the amount of scavenger present; wherein said combination catalyst comprises: an inorganic chromium catalyst, a group 4 single site catalyst, one or more activators; and a support; wherein said inorganic chromium catalyst provides said first polymer component and said group 4 single site catalyst provides said second polymer component; wherein said catalyst poison reduces the polymerization activity of said group 4 single site catalyst relative to said inorganic chromium catalyst; and wherein lowering the level of scavenger in ppm (weight of scavenger relative to the weight of polymer produced in parts per million) from a first higher level to a second lower level, increases said ratio of said first polymer component to said second polymer component, and raising the level of scavenger in ppm (weight of scavenger relative to the weight of polymer produced in parts per million) from a first lower level to a second higher level, decreases said ratio of said first polymer component to said second polymer component. adjusting the ratio of said first polymer component to said second polymer component by altering the amount of scavenger present; wherein said combination catalyst comprises: an inorganic chromium catalyst, a group 4 single site catalyst, one or more activators; and a support; an inorganic chromium catalyst, a group 4 single site catalyst, one or more activators; and a support; wherein said inorganic chromium catalyst provides said first polymer component and said group 4 single site catalyst provides said second polymer component; wherein said catalyst poison reduces the polymerization activity of said group 4 single site catalyst relative to said inorganic chromium catalyst; and wherein lowering the level of scavenger in ppm (weight of scavenger relative to the weight of polymer produced in parts per million) from a first higher level to a second lower level, increases said ratio of said first polymer component to said second polymer component, and raising the level of scavenger in ppm (weight of scavenger relative to the weight of polymer produced in parts per million) from a first lower level to a second higher level, decreases said ratio of said first polymer component to said second polymer component.
System for the lubrication of components comprised of at least one grease gun and at least one replaceable applicator for grease characterized by that the grease gun may be switched between a manually operated grease gun and a power operated grease gun, and that the applicator includes an elongated shaft which includes at least one channel, which culminates into the rotating roller with which grease is applied to the surfaces of components or the like that are to be greased with the system and that grease is conveyed from inside the channel through a plurality of longitudinally and radially placed holes in the area of the shaft found within the applicator, said holes enlarging in size along the length of the channel and shaft within the applicator in the direction from the grease gun in the direction of the grease flow in the channel, allowing for grease to be supplied more uniformly along the roller, said system also including at least one grease cartridge, at least one grease cartridge cap and at least one protector which is intended to be used to protect the roller when not in use, said protector having at least one first end and at least one second end, said grease cartridge cap being able to attach to the second end of the protector when the grease cartridge is attached to the grease gun, when the grease cartridge is disconnected from the grease gun the grease cartridge cap may once again be reattached to the grease cartridge.
A method of manufacturing a composition comprising a crosslinked glycosaminoglycan hydrogel comprising solid particles embedded in the hydrogel, the method comprising: mixing in a single vessel a water suspension at a pH between 5 and 9 the following: (i) hyaluronic acid, (ii) water insoluble solid particles, (iii) a di- or multinucleophilic functional crosslinker comprising a diamino carbohydrate selected from the group consisting of: diamino trehalose, diamino hyaluronic acid tetrasaccharide, diamino hyaluronic acid hexasaccharide, diamino lactose, diamino maltose, diamino sucrose, chitobiose, or diamino raffinose, and (iv) a coupling agent, thereby activating the hyaluronic acid with the coupling agent; crosslinking the activated hyaluronic acid; and embedding the solid particles in the crosslinked hyaluronic acid in a one-pot/one-step process of forming a composition comprising a hyaluronic acid hydrogel embedded with the solid particles. mixing in a single vessel a water suspension at a pH between 5 and 9 the following: (i) hyaluronic acid, (ii) water insoluble solid particles, (iii) a di- or multinucleophilic functional crosslinker comprising a diamino carbohydrate selected from the group consisting of: diamino trehalose, diamino hyaluronic acid tetrasaccharide, diamino hyaluronic acid hexasaccharide, diamino lactose, diamino maltose, diamino sucrose, chitobiose, or diamino raffinose, and (iv) a coupling agent, thereby activating the hyaluronic acid with the coupling agent; (i) hyaluronic acid, (ii) water insoluble solid particles, (iii) a di- or multinucleophilic functional crosslinker comprising a diamino carbohydrate selected from the group consisting of: diamino trehalose, diamino hyaluronic acid tetrasaccharide, diamino hyaluronic acid hexasaccharide, diamino lactose, diamino maltose, diamino sucrose, chitobiose, or diamino raffinose, and (iv) a coupling agent, crosslinking the activated hyaluronic acid; and embedding the solid particles in the crosslinked hyaluronic acid in a one-pot/one-step process of forming a composition comprising a hyaluronic acid hydrogel embedded with the solid particles.
A nucleic acid for use in a method of treating atherosclerosis in a subject, the method comprising administering to the subject a therapeutically effective amount of said nucleic acid; and wherein the nucleic acid comprises the sequence of SEQ ID NO: 1.
An in situ-forming, bioadhesive hydrogel, represented by the following Chemical Formula 6, wherein the Chemical Formula 6 is a heterogeneous blend, comprising i) a star-shaped polymer represented by Tet-TA/DA II having two TA groups and two DA groups and ii) a branched polymer, represented by Gelatin-PEG-TA wherein the branched polymer includes a curved line representing a gelatin polymer backbone. i) a star-shaped polymer represented by Tet-TA/DA II having two TA groups and two DA groups and ii) a branched polymer, represented by Gelatin-PEG-TA wherein the branched polymer includes a curved line representing a gelatin polymer backbone.
A method of forming S-nitrosothiol-functionalized co-condensed silica particles comprising: reacting a thiol-containing silane and a backbone alkoxysilane in a sol precursor solution that comprises water to form thiol-functionalized co-condensed silica particles, wherein the thiol-containing silane comprises a tertiary thiol-containing silane and the backbone alkoxysilane is an alkoxysilane that does not contain a thiol functional group and, wherein the thiol-functionalized co-condensed silica particles comprise a polysiloxane matrix and at least some of thiol groups are present within the polysiloxane matrix; and reacting the thiol-functionalized co-condensed silica particles with a nitrosating agent to provide the S-nitrosothiol-functionalized co-condensed silica particles. reacting a thiol-containing silane and a backbone alkoxysilane in a sol precursor solution that comprises water to form thiol-functionalized co-condensed silica particles, wherein the thiol-containing silane comprises a tertiary thiol-containing silane and the backbone alkoxysilane is an alkoxysilane that does not contain a thiol functional group and, wherein the thiol-functionalized co-condensed silica particles comprise a polysiloxane matrix and at least some of thiol groups are present within the polysiloxane matrix; and reacting the thiol-functionalized co-condensed silica particles with a nitrosating agent to provide the S-nitrosothiol-functionalized co-condensed silica particles.
Semiconductor arrangement comprising a pn junction, which semiconductor arrangement is embodied with an edge region, comprising a second partial layer having a second dopant concentration, and a first partial layer having a first dopant concentration, which is lower than the second dopant concentration, wherein the first and second partial layers (1, 2) together with a third partial layer extending from a top side form a pn junction, wherein the pn junction between the third partial layer and the second partial layer is embodied exclusively in the interior of the semiconductor arrangement and the pn junction between the third partial layer and the first partial layer is embodied in the edge region of the semiconductor arrangement, and wherein the semiconductor arrangement comprises a fourth partial layer extending from the rear side, said fourth partial layer having a fourth dopant concentration, which is higher than the second dopant concentration and significantly higher than the first dopant concentration, wherein the first, second and fourth partial layers are of the same conductivity type, wherein the fourth partial layer directly adjoins the second partial layer over the majority of a cross-sectional area in the interior of the semiconductor arrangement (20, 30) and adjoins the first partial layer only in a comparatively narrow edge region of the cross-sectional area, wherein the second and fourth partial layers (2, 4) of the semiconductor arrangement (20, 30, 60) at least touch, but preferably overlap regionally, in a central region of the semiconductor arrangement (20, 30, 60), wherein the top side of the semiconductor arrangement comprises in the edge region a wide, shallow soaring trench having a soaring width and a soaring depth, wherein the soaring width is greater than 80 micrometres, preferably greater than 100 micrometres, and wherein the ratio of soaring width to soaring depth has a value > 3.
A strain measuring assembly for industrial applications comprising a case and a strain sensor comprising a sensor body and at least one semiconductor strain gauge comprising a strain gauge body and two conductive contacts of the strain gauge, through which the semiconductor strain gauge is attached to the sensor body, wherein the sensor body comprises a contact side for attachment to an inner surface of the case and an outer side opposite the contact side, and wherein the case comprises a body of the case, wherein the contact side comprises a protuberant portion for contact with the inner surface of the case and a recessed portion, on which the semiconductor strain gauge is placed, wherein both conductive contacts of the strain gauge are brought to the outer side of the sensor body, and wherein the sensor body is glued into the body of the case via the contact side, wherein the sensor body is hermetically sealed by the body of the case from the outer side, characterized in that: the case comprises holes for attachment by means of screws and the case further comprises at least two legs of the case, and in that each leg of the case comprises a leg contact area for contact with a measured object, wherein the leg contact area on at least one leg of the case lies in a plane different from the plane in which the leg contact area lies on at least one other leg of the case for creating a tension and/or compression bias in the case during tightening of the screws.
Power installation comprising an uninterruptible power supply system and a user installation, wherein the user installation comprises - a load, - at least one AC power source, - at least one secondary power supply (20, 94), - at least one controllable hardware component (34,) consisting in a switch and an associated cooling fan and - a system Protective Earth, the uninterruptible power supply system comprises - at least one uninterruptible power supply module, and - a control device for controlling the uninterruptible power supply system based on at least one system parameter of the uninterruptible power supply system, wherein the at least one uninterruptible power supply system is connected between the at least one AC power source, the at least one secondary power supply, and the load, characterized in that the power installation further comprises at least one installation control assembly comprising - an assembly controller, and - at least one measurement device connected to the assembly controller, wherein the installation control assembly is galvanically referenced to system Protective Earth, and the assembly controller performs a control of the uninterruptible power supply system and the at least one controllable hardware component (34, 36) based on measurement signals received from the at least one measurement device. - a load, - at least one AC power source, - at least one secondary power supply (20, 94), - at least one controllable hardware component (34,) consisting in a switch and an associated cooling fan and - a system Protective Earth, - at least one uninterruptible power supply module, and - a control device for controlling the uninterruptible power supply system based on at least one system parameter of the uninterruptible power supply system, - an assembly controller, and - at least one measurement device connected to the assembly controller,
Use of (i) the mRNA encoding ROR gamma t, or the corresponding ROR gamma t protein, and (ii) the mRNA encoding at least one marker selected from IL-6, IL-17A, IL-17F, IL-21, IL-22, IL-23A, IL-26 and CCL20, or the corresponding protein, as markers for acne.
The use of a solid material comprising a matrix and a set of microparticles comprising or consisting of at least one antimicrobial agent for preventing, limiting and/or suppressing the contamination of said material and/or the contamination of a composition which is in contact with the said material for at least a given time, and/or preventing, suppressing and/or slowing down biofilm formation on the surface of the said material, wherein the antimicrobial agent does not migrate outside of said material, and wherein said microparticles comprise zinc oxide or consist of zinc oxide (ZnO) or comprise magnesium oxide or consist of magnesium oxide (MgO), or a mixture of magnesium oxide and zinc oxide, wherein the quantity of microparticles is from 0.1 to 10% by weight relative to the weight of the matrix and particles, wherein the microparticles have a mean diameter between 0.1 and 5 micrometres, determined by microscopy, and wherein the matrix is an organic matrix, characterized in that said microparticles are spherical and have a coefficient of sphericity greater than or equal to 0.9, the coefficient of sphericity of a particle being the ratio of the smallest diameter of the particle to the largest diameter thereof, determined by microscopy. wherein the microparticles have a mean diameter between 0.1 and 5 micrometres, determined by microscopy, and wherein the matrix is an organic matrix, characterized in that said microparticles are spherical and have a coefficient of sphericity greater than or equal to 0.9, the coefficient of sphericity of a particle being the ratio of the smallest diameter of the particle to the largest diameter thereof, determined by microscopy.
Transmission device for an electric drive of a motor vehicle, comprising a housing, comprising a first planetary gear set, which is arranged in the housing and which has a first sun gear, a first planet carrier and a first ring gear, comprising a second planetary gear set, which is arranged in the housing and which has a second sun gear, a second planet carrier and a second ring gear, which is or can be coupled to the first planet carrier for conjoint rotation therewith, comprising an input shaft, which can be driven by a rotor of an electric machine, and comprising an output shaft, by means of which at least one wheel of the motor vehicle can be driven, wherein the first planet carrier is permanently coupled to the output shaft for conjoint rotation therewith, wherein - the input shaft is permanently connected to the first sun gear for conjoint rotation therewith; and - the first ring gear is or can be coupled to the second sun gear for conjoint rotation therewith, wherein a third planetary gear set is arranged in the housing, which third planetary gear set comprises a third sun gear, a third planet carrier and a third ring gear, the third sun gear is permanently connected to the second sun gear for conjoint rotation therewith, characterised in that a third shifting element is provided, by means of which the third ring gear or the third planet carrier can be secured to the housing. - the input shaft is permanently connected to the first sun gear for conjoint rotation therewith; and - the first ring gear is or can be coupled to the second sun gear for conjoint rotation therewith,
A magnetic field sensor comprising: a lead frame having a first surface, a second opposing surface, and at least one lead comprising a first lead portion having an end and a second lead portion having an end spaced from and proximate to the end of the first lead portion; a semiconductor die having a first surface in which a magnetic field sensing element is disposed and a second opposing surface attached to the first surface of the lead frame, wherein the semiconductor die is electrically coupled to the lead frame such that a first one of the at least one lead is a power lead of the sensor; a non-conductive mold material enclosing the die and at least a portion of the lead frame; a passive component coupled between the end of the first lead portion and the end of the second lead portion of the first lead such that the passive component is electrically connected in series with the first lead, wherein the passive component is a resistor; and a ferromagnetic mold material secured to a portion of the non-conductive mold material. a lead frame having a first surface, a second opposing surface, and at least one lead comprising a first lead portion having an end and a second lead portion having an end spaced from and proximate to the end of the first lead portion; a semiconductor die having a first surface in which a magnetic field sensing element is disposed and a second opposing surface attached to the first surface of the lead frame, wherein the semiconductor die is electrically coupled to the lead frame such that a first one of the at least one lead is a power lead of the sensor; a non-conductive mold material enclosing the die and at least a portion of the lead frame; a passive component coupled between the end of the first lead portion and the end of the second lead portion of the first lead such that the passive component is electrically connected in series with the first lead, wherein the passive component is a resistor; and a ferromagnetic mold material secured to a portion of the non-conductive mold material.