mhurhangee/patent-ind-claim-en huggingface dataset:
Advertisement device for placing advertisement items on a sports ground comprising: - a support and a longitudinal housing in the upper part thereof for the mounting and fixing of advertising items in an upright position relative to the ground, the longitudinal housing adopting the form of a longitudinal channel - at least one advertising item in an upright position, relative to the ground - means for fixing the advertising items to the support , and - means for fixing the support on the ground characterised in that the support is an elongated support having a lower longitudinal support surface to be placed on the ground, the longitudinal channel being parallel to the lower support surface, the channel having said advertising item, at least one advertising item being three-dimensional promotional advertisement items made from a flexible material having shape memory, the three-dimensional advertisement items being formed of letters, words, logos, drawings and/or figures having a three-dimensional volume provided by the thickness thereof, the items yielding should a player or person collide against the device for preventing risks to the safety of persons in the proximity thereof. - a support and a longitudinal housing in the upper part thereof for the mounting and fixing of advertising items in an upright position relative to the ground, the longitudinal housing adopting the form of a longitudinal channel - at least one advertising item in an upright position, relative to the ground - means for fixing the advertising items to the support , and - means for fixing the support on the ground
An evaluation method for evaluating the quantity of fluid that is lost in a fluid distribution network that comprises a main pipe to which a main fluid meter (CCQ) is connected, and secondary pipes depending from the main pipe and to which secondary fluid meters (CCi) are connected, the evaluation method comprising the following steps that are repeated over successive measurement periods, themselves subdivided into time intervals: · for each time interval of a given measurement period, acquiring a main measurement taken by the main fluid meter (CCQ) and representative of a quantity of fluid distributed via the main pipe during said time interval, and, for each secondary fluid meter (CCi), acquiring a secondary measurement taken by said secondary fluid meter and representative of a quantity of fluid that is distributed during said time interval via the secondary pipe to which said secondary fluid meter is connected; · for each time interval of the given measurement period, calculating a measurement difference equal to a difference between the main measurement and the sum of the secondary measurements; · determining a minimum value of the measurement differences over the given measurement period; · evaluating the quantity of fluid lost over the given measurement period on the basis of the minimum value. · for each time interval of a given measurement period, acquiring a main measurement taken by the main fluid meter (CCQ) and representative of a quantity of fluid distributed via the main pipe during said time interval, and, for each secondary fluid meter (CCi), acquiring a secondary measurement taken by said secondary fluid meter and representative of a quantity of fluid that is distributed during said time interval via the secondary pipe to which said secondary fluid meter is connected; · for each time interval of the given measurement period, calculating a measurement difference equal to a difference between the main measurement and the sum of the secondary measurements; · determining a minimum value of the measurement differences over the given measurement period; · evaluating the quantity of fluid lost over the given measurement period on the basis of the minimum value.
A radar level gauge for determining a distance to a surface of a product in a tank , said radar level gauge comprising: transceiver circuitry configured to transmit an electromagnetic transmit signal (S T ) and receive an electromagnetic return signal (S R ) reflected from said surface, a signal propagation device arranged to guide said transmit signal towards said surface, and to guide said return signal to said transceiver circuitry, and a first mixer configured to mix said transmit signal and said return signal to provide a first intermediate frequency signal, characterized in that said transceiver circuitry comprises a frequency stabilizing feedback loop configured to generate said electromagnetic transmit signal in the form of a frequency sweep, said frequency stabilizing feedback loop comprising a phase frequency detector having a comparison frequency, wherein a relationship between said comparison frequency and a loop bandwidth of said frequency stabilizing feedback loop is 10 or less, so as to generate an oscillation causing a modulation of said frequency sweep, and in that said radar level gauge further comprises: a second mixer configured to mix said first intermediate frequency signal with a signal having a frequency which is an integer multiple of the frequency of said modulation to provide a second intermediate frequency signal, and processing circuitry configured to determine said distance based on said second intermediate frequency signal. transceiver circuitry configured to transmit an electromagnetic transmit signal (S T ) and receive an electromagnetic return signal (S R ) reflected from said surface, a signal propagation device arranged to guide said transmit signal towards said surface, and to guide said return signal to said transceiver circuitry, and a first mixer configured to mix said transmit signal and said return signal to provide a first intermediate frequency signal, characterized in that said transceiver circuitry comprises a frequency stabilizing feedback loop configured to generate said electromagnetic transmit signal in the form of a frequency sweep, said frequency stabilizing feedback loop comprising a phase frequency detector having a comparison frequency, wherein a relationship between said comparison frequency and a loop bandwidth of said frequency stabilizing feedback loop is 10 or less, so as to generate an oscillation causing a modulation of said frequency sweep, and in that said radar level gauge further comprises: a second mixer configured to mix said first intermediate frequency signal with a signal having a frequency which is an integer multiple of the frequency of said modulation to provide a second intermediate frequency signal, and processing circuitry configured to determine said distance based on said second intermediate frequency signal. a second mixer configured to mix said first intermediate frequency signal with a signal having a frequency which is an integer multiple of the frequency of said modulation to provide a second intermediate frequency signal, and processing circuitry configured to determine said distance based on said second intermediate frequency signal.
A method for producing a shaped article, comprising: - heating a sheet of crystallizable polylactic acid (PLA)-based resin having a ratio of cold crystallization over total melting enthalpy (ΔH cc/ ΔH m ) greater than 0.70 as determined by differential scanning calorimetry (DSC), wherein heating comprises a heating step wherein the sheet is heated from a surface temperature of at most 80 °C to a surface temperature of at least 90 °C to at most 150 °C at a heating rate of 5 °C to 25 °C per second, to provide a heated sheet having a ratio of cold crystallization over total melting enthalpy (ΔH cc /ΔH m ) greater than 0.5 as determined by DSC; and immediately after heating - forming the heated sheet to provide a shaped article by means of a mold, wherein the mold has a temperature of at least 70 °C and at most 120 °C. - heating a sheet of crystallizable polylactic acid (PLA)-based resin having a ratio of cold crystallization over total melting enthalpy (ΔH cc/ ΔH m ) greater than 0.70 as determined by differential scanning calorimetry (DSC), wherein heating comprises a heating step wherein the sheet is heated from a surface temperature of at most 80 °C to a surface temperature of at least 90 °C to at most 150 °C at a heating rate of 5 °C to 25 °C per second, to provide a heated sheet having a ratio of cold crystallization over total melting enthalpy (ΔH cc /ΔH m ) greater than 0.5 as determined by DSC; and immediately after heating - forming the heated sheet to provide a shaped article by means of a mold, wherein the mold has a temperature of at least 70 °C and at most 120 °C.
Radiation collector for heating a gas with light energy, wherein the radiation collector can be exposed to different weather conditions such as winds, hail, snowfall or rain and has an inner flow channel which is delimited towards the irradiation side by an absorber , and also an outer flow channel which at least partially surrounds the inner flow channel and which is delimited towards the irradiation side by a transparent covering , and wherein the transparent covering is formed by a flexible and thin-layer material web, in particular a transparent film, wherein the transparent covering is spread out in a tunnel-shaped manner, characterized in that the transparent covering has a perforation and is configured in such a way that fresh air can flow from the exterior through the covering into the outer flow channel, and in that the absorber is permeable to air and has a perforation , wherein the absorber is formed by a flexible and thin-layer material web, in particular by a light-absorbing film and/or a woven fabric.
A tricycle with height-tilting wheel suspension linked to a driving handlebar, comprising a structural chassis incorporating a rolling assembly made up of a rear wheel associated to a propulsion system by means of pedals and two parallel front wheels linked to the driving handlebar , wherein the parallel front wheels are incorporated in a height-tilting suspension , made up of articulated quadrilaterals able to be deformed independently with vertical movement depending on the individual resting of the parallel front wheels on obstacles or irregularities of the riding terrain, wherein, the mentioned height-tilting suspension being linked, to the handlebar , by means of a transmission , which links the height-oscillating movements of the articulated quadrilaterals of the height-tilting transmission with an equivalent lateral tilting of the handlebar , characterized by the transmission having a clutch which allows for selectively enabling or disabling the linkage of the movements between the height-tilting suspension and the handlebar .
An elevator cabin comprising: a platform having a peripheral edge ; at least one panel arranged near the peripheral edge for defining a wall, said at least one panel comprising an end portion folded outwardly of the platform ; a bracket having an extension along a main direction following a section of said peripheral edge , said bracket comprising a first portion mounted on said peripheral edge and a second portion originating from the first portion with an extension away therefrom, said second portion being located at a first distance above the platform , characterized in that a plurality of first through openings are obtained along said end portion ; said bracket and said platform delimiting a gap ; said second portion having a plurality of second through openings , said end portion being arranged on the bracket so that the first through openings are at least partially superimposed on the second through openings . a platform having a peripheral edge ; at least one panel arranged near the peripheral edge for defining a wall, said at least one panel comprising an end portion folded outwardly of the platform ; a bracket having an extension along a main direction following a section of said peripheral edge , said bracket comprising a first portion mounted on said peripheral edge and a second portion originating from the first portion with an extension away therefrom, said second portion being located at a first distance above the platform , characterized in that a plurality of first through openings are obtained along said end portion ; said bracket and said platform delimiting a gap ; said second portion having a plurality of second through openings , said end portion being arranged on the bracket so that the first through openings are at least partially superimposed on the second through openings .
An active insect capturing device comprising a capture opening having an opening edge, at least one glare light source, and at least one receiving chamber having at least one chamber wall, wherein the active insect capturing device is an, in particular removable, vacuum cleaner attachment for a vacuum cleaner and has a carrying handle, wherein the receiving chamber is a receiving tube and the capture opening is formed on an end of the receiving tube, wherein the at least one glare light source shines directly through the capture opening, wherein the at least one glare light source is adapted and arranged for directly illuminating a zone in front of the capture opening, and wherein the at least one chamber wall and/or the opening edge are/is transparent and/or translucent, at least in regions, and wherein the glare light source is located behind the capture opening and/or in the receiving chamber. wherein the active insect capturing device is an, in particular removable, vacuum cleaner attachment for a vacuum cleaner and has a carrying handle, wherein the receiving chamber is a receiving tube and the capture opening is formed on an end of the receiving tube, wherein the at least one glare light source shines directly through the capture opening, wherein the at least one glare light source is adapted and arranged for directly illuminating a zone in front of the capture opening, and wherein the at least one chamber wall and/or the opening edge are/is transparent and/or translucent, at least in regions, and wherein the glare light source is located behind the capture opening and/or in the receiving chamber.
A method for extracting genomic DNA (gDNA) from a microbial sample comprising the steps of: a) subjecting the microbial sample to mechanical disruption; b) subsequent to step (a) contacting the mechanically disrupted microbial sample with an enzyme cocktail comprising a proteinase and a glycoside hydrolase to produce a lysate of the microbial sample; and c) purifying microbial gDNA from the lysate of the microbial sample. a) subjecting the microbial sample to mechanical disruption; b) subsequent to step (a) contacting the mechanically disrupted microbial sample with an enzyme cocktail comprising a proteinase and a glycoside hydrolase to produce a lysate of the microbial sample; and c) purifying microbial gDNA from the lysate of the microbial sample.
A track link for a ground-engaging track system in a machine comprising: an elongate link body including a first link strap having a track pin bore formed therein, a second link strap having a bushing bore formed therein, and a middle section connecting between the first link strap and the second link strap ; the elongate link body further including a lower shoe-mounting surface , and an upper rail surface , the upper rail surface being located in part upon each of the first link strap , the second link strap , and the middle section , and formed by a wear band of sacrificial wear material; and the sacrificial wear material having a hardness that is varied lengthwise along the upper rail surface to form a first relatively softer zone located in the first link strap including relatively softer material exposed on the upper rail surface, a second relatively softer zone located in the second link strap including relatively softer material exposed on the upper rail surface, and a relatively harder zone located at least in part within the middle section including relatively harder material exposed on the upper rail surface, wherein the softened material of the relatively softer zones extends halfway or less through a depth of the wear band . an elongate link body including a first link strap having a track pin bore formed therein, a second link strap having a bushing bore formed therein, and a middle section connecting between the first link strap and the second link strap ; the elongate link body further including a lower shoe-mounting surface , and an upper rail surface , the upper rail surface being located in part upon each of the first link strap , the second link strap , and the middle section , and formed by a wear band of sacrificial wear material; and the sacrificial wear material having a hardness that is varied lengthwise along the upper rail surface to form a first relatively softer zone located in the first link strap including relatively softer material exposed on the upper rail surface, a second relatively softer zone located in the second link strap including relatively softer material exposed on the upper rail surface, and a relatively harder zone located at least in part within the middle section including relatively harder material exposed on the upper rail surface, wherein the softened material of the relatively softer zones extends halfway or less through a depth of the wear band .
A computer-implemented method for obtaining signals to analyse the state of a structure, the method comprising the steps of: - positioning, in or on a structure to be analysed, a plurality of sensors of fibre Bragg grating FBG-type, the FBG sensors being borne by at least one optical fibre; - measuring a diffuse elastic field propagating through the structure by interrogating at least some of the FBG sensors, each interrogated FBG sensor being a measurement point; and - determining, by a passive inverse filter, functions representative of the impulse response of the structure for pairs of interrogated FBG sensors, each function representative of the impulse response of the structure being a signal for analysing the state of the structure. - positioning, in or on a structure to be analysed, a plurality of sensors of fibre Bragg grating FBG-type, the FBG sensors being borne by at least one optical fibre; - measuring a diffuse elastic field propagating through the structure by interrogating at least some of the FBG sensors, each interrogated FBG sensor being a measurement point; and - determining, by a passive inverse filter, functions representative of the impulse response of the structure for pairs of interrogated FBG sensors, each function representative of the impulse response of the structure being a signal for analysing the state of the structure.
A light emitting device comprising: a first conductivity type semiconductor layer ; an In x Ga 1-x N layer (where, 0<x≤1) on the first conductivity type semiconductor layer ; a GaN layer on the In x Ga 1-x N layer ; a first Al y1 Ga 1-y1 N layer (where, 0<y1≤1) on the GaN layer ; an active layer on the first Al y1 Ga 1-y1 N layer ; and a second conductivity type semiconductor layer on the active layer , characterized in comprising a GaN-based superlattice layer interposed between the first Al y1 Ga 1-y1 N layer and the active layer , wherein the GaN-based superlattice layer comprises a first-group GaN-based superlattice layer having first bandgap energy, and including a first-group well and a first-group barrier , the first bandgap energy being a depth of the first-group well , a second-group GaN-based superlattice layer provided on the first-group GaN-based superlattice layer and having second bandgap energy lower than the first bandgap energy, and including a second-group well and a second-group barrier , the second bandgap energy being a depth of the second-group well , and a third-group GaN-based superlattice layer provided on the second-group GaN-based superlattice layer and including a third-group well and a third-group barrier and having third bandgap energy, the third bandgap energy being a depth of the third-group well , and wherein the third bandgap energy is equal to or lower than the second bandgap energy, and wherein the light emitting device further comprises an undoped GaN layer disposed between the third-group barrier and a quantum well of the active layer . a first conductivity type semiconductor layer ; an In x Ga 1-x N layer (where, 0<x≤1) on the first conductivity type semiconductor layer ; a GaN layer on the In x Ga 1-x N layer ; a first Al y1 Ga 1-y1 N layer (where, 0<y1≤1) on the GaN layer ; an active layer on the first Al y1 Ga 1-y1 N layer ; and a second conductivity type semiconductor layer on the active layer , characterized in comprising a GaN-based superlattice layer interposed between the first Al y1 Ga 1-y1 N layer and the active layer , wherein the GaN-based superlattice layer comprises a first-group GaN-based superlattice layer having first bandgap energy, and including a first-group well and a first-group barrier , the first bandgap energy being a depth of the first-group well , a second-group GaN-based superlattice layer provided on the first-group GaN-based superlattice layer and having second bandgap energy lower than the first bandgap energy, and including a second-group well and a second-group barrier , the second bandgap energy being a depth of the second-group well , and a third-group GaN-based superlattice layer provided on the second-group GaN-based superlattice layer and including a third-group well and a third-group barrier and having third bandgap energy, the third bandgap energy being a depth of the third-group well , and wherein the third bandgap energy is equal to or lower than the second bandgap energy, and wherein the light emitting device further comprises an undoped GaN layer disposed between the third-group barrier and a quantum well of the active layer .
A well fracturing system, comprising a base pipe comprising a fracking port first portion, and a sliding sleeve comprising a fracking port second portion and being arranged around the base pipe, where the sliding sleeve is manoeuvrable into a first and a second position, characterised in that the base pipe comprises an insert port housing a stop ball , said stop ball partially protruding within a chamber of said base pipe ; and in that the sliding sleeve comprises a first sleeve and a second sleeve , said first sleeve comprising an inner surface, said inner surface comprising a void, wherein said void rests on a surface of said base pipe not comprising said insert port, preventing said stop ball from exiting the chamber of said base pipe when said first sleeve is in its first position, and wherein said void rests over said insert port , said stop ball capable of exiting the chamber of said base pipe , to enter said void, when the first sleeve is in its second position, and wherein one or more curved sheets connect(s) said first sleeve to said second sleeve , the space between said one or more curved sheets being said fracking port second portion.
Olaparib for use in a method of treating cancer in a patient, where the patient is treated with posaconazole, wherein said method comprises: (a) treating the patient with posaconazole; (b) stopping posaconazole treatment; and then (c) treating the patient with a reduced dose of olaparib (relative to a reference dose of olaparib) for a time period of 2-42 days after stopping posaconazole treatment, which time period starts the day after stopping posaconazole treatment. (a) treating the patient with posaconazole; (b) stopping posaconazole treatment; and then (c) treating the patient with a reduced dose of olaparib (relative to a reference dose of olaparib) for a time period of 2-42 days after stopping posaconazole treatment, which time period starts the day after stopping posaconazole treatment.