mhurhangee/patent-ind-claim-en huggingface dataset:
An ancillary member for a fenestration unit , the ancillary member comprising: a body defining an elongate length extending longitudinally between first and second ends thereof, the body defining a cross-sectional profile comprising a first region intended to be externally facing, in use, a second region intended to be internally facing, in use, and first and second side surfaces extending between the first and second regions , wherein the first side surface comprises a first gasket extending at least partially along the elongate length of the body such that the first side surface is configured for sealingly engaging a first window frame ; characterised in that : the ancillary member is a cill and comprises a cill cover, wherein the first region comprises a first mounting arrangement for releasably mounting an external profile of the cill cover thereon, and wherein the first mounting arrangement is configured for mounting the external profile to the body via a snap-fitting arrangement; and the first region of the body comprises a second gasket extending at least partially along the elongate length of the body such that the first region is configured for sealingly engaging the external profile of the cill cover. a body defining an elongate length extending longitudinally between first and second ends thereof, the body defining a cross-sectional profile comprising a first region intended to be externally facing, in use, a second region intended to be internally facing, in use, and first and second side surfaces extending between the first and second regions , wherein the first side surface comprises a first gasket extending at least partially along the elongate length of the body such that the first side surface is configured for sealingly engaging a first window frame ; characterised in that : the ancillary member is a cill and comprises a cill cover, wherein the first region comprises a first mounting arrangement for releasably mounting an external profile of the cill cover thereon, and wherein the first mounting arrangement is configured for mounting the external profile to the body via a snap-fitting arrangement; and the first region of the body comprises a second gasket extending at least partially along the elongate length of the body such that the first region is configured for sealingly engaging the external profile of the cill cover.
An endoscopy device for facilitating the use of an endoscope, comprising at least one airway tube having a proximal end and a distal end and a mask carried at the distal end of the at least one airway tube, the mask having a distal end and a proximal end and a peripheral formation capable of conforming to, and of fitting within, the actual and potential space behind the larynx of the patient so as to form a seal around the circumference of the laryngeal inlet, the peripheral formation surrounding a hollow interior space or lumen of the mask and the at least one airway tube opening into the lumen of the mask, the peripheral formation establishing separation between a laryngeal chamber region and a pharyngeal region, the device further comprising a conduit adapted for passage of an endoscope into the oesophagus of a patient when the mask is in place, characterised in that the airway tube comprises a connector at its proximal end , the connector including one or more strap mount comprising a mount bar to which a strap can be removably fixed for securing the device to a patient, wherein the conduit comprises an internal sleeve at its proximal end, wherein the sleeve is integrally formed with the connector.
Vibration excitator, comprising: a main body ; a stinger which is adapted to move relative to the main body , in a particular working direction; an actuator coupled to the main body and the stinger ; wherein the stinger has a first end that is coupled to the main body , and an opposite second end that is intended for attachment to an object (V) to be examined; wherein the stinger has an elastic centre point (Me); wherein the main body has a centre of gravity (G); characterized in that L 1 ≤ L 3 ≤ L 1 + K P K X ⋅ L 2 applies, wherein L1 is the distance between the elastic centre point (Me) and the second stinger end , measured along the said working direction; wherein L2 is the distance between the first stinger end and the second stinger end , measured along the said working direction; wherein L3 is the distance between the centre of gravity (G) and the second stinger end , measured along the said working direction; wherein Kx represents the stiffness [N/m] of the stinger for translation in vertical direction, and wherein Kp represents the stiffness [Nm] of the stinger for angular deflection. a main body ; a stinger which is adapted to move relative to the main body , in a particular working direction; an actuator coupled to the main body and the stinger ; wherein the stinger has a first end that is coupled to the main body , and an opposite second end that is intended for attachment to an object (V) to be examined; wherein the stinger has an elastic centre point (Me); wherein the main body has a centre of gravity (G); characterized in that L 1 ≤ L 3 ≤ L 1 + K P K X ⋅ L 2 applies, wherein L1 is the distance between the elastic centre point (Me) and the second stinger end , measured along the said working direction; wherein L2 is the distance between the first stinger end and the second stinger end , measured along the said working direction; wherein L3 is the distance between the centre of gravity (G) and the second stinger end , measured along the said working direction; wherein Kx represents the stiffness [N/m] of the stinger for translation in vertical direction, and wherein Kp represents the stiffness [Nm] of the stinger for angular deflection.
A method for determining the influence of a condition on a biological sample comprising the steps of: a') dividing said biological sample into two identical parts A and B; b') subjecting said part A to said condition; c') contacting a solution comprising at least one fluorescent compound with parts A and B of said biological sample; d') measuring, for each sample part, the fluorescence emitted by said fluorescent compound at a time T selected from the times of the lag phase of the two-phase profile obtained for a biological sample of the same nature as the biological sample of said step (a') contacted with the same fluorescent compound as that of said step (c') in the absence of any condition likely to affect the fluorescence kinetic profile, e') comparing the values obtained in step (d') for part A and part B of said biological sample, characterised in that the excitation at time T is the only excitation to which the fluorescent compound is subjected during said method and has a duration lower than 1 second. a') dividing said biological sample into two identical parts A and B; b') subjecting said part A to said condition; c') contacting a solution comprising at least one fluorescent compound with parts A and B of said biological sample; d') measuring, for each sample part, the fluorescence emitted by said fluorescent compound at a time T selected from the times of the lag phase of the two-phase profile obtained for a biological sample of the same nature as the biological sample of said step (a') contacted with the same fluorescent compound as that of said step (c') in the absence of any condition likely to affect the fluorescence kinetic profile, e') comparing the values obtained in step (d') for part A and part B of said biological sample, characterised in that
A method of diagnosing light sources for a vehicle, the light sources comprising at least one light source of the continuous-ignition type, remaining on continuously throughout a journey or at least during a significant part of the journey made with the vehicle, and at least one light source of the discontinuous-ignition type, remaining on only during specific phases of the movement of the vehicle, the method of diagnosis comprising the steps of : - polarising the at least one continuously-ignited light source and the at least one discontinuously-ignited light source, - acquiring an output voltage from each polarised light source, - comparing the acquired output voltage with a threshold value so as to verify an operating state of each light source, characterised in that - the polarisation of the at least one continuously ignited type light source is performed immediately before a power supply phase of said at least one continuously ignited type light source, - the polarisation of the at least one discontinuously ignited type light source is carried out immediately after a feeding phase of the at least one discontinuously ignited type light source. - polarising the at least one continuously-ignited light source and the at least one discontinuously-ignited light source, - acquiring an output voltage from each polarised light source, - comparing the acquired output voltage with a threshold value so as to verify an operating state of each light source, characterised in that - the polarisation of the at least one continuously ignited type light source is performed immediately before a power supply phase of said at least one continuously ignited type light source, - the polarisation of the at least one discontinuously ignited type light source is carried out immediately after a feeding phase of the at least one discontinuously ignited type light source.
Egg yolk comprising at least 0.05 ng/ml antisecretory factor (AF) protein fragment with an amino acid sequence as disclosed in SEQ.ID.NO.1 and/or in SEQ.ID.NO.2.
A compound of formula (I), or a pharmaceutically acceptable salt thereof wherein: R 1 is H or -CH 2 OH; R 2 is H, halogen, C 1-4 -alkyl, fluoro-C 1-4 -alkyl or -C≡C-R 3 ; R 3 is H, C 1-4 -alkyl, C 3-7 -cycloalkyl or phenyl, wherein phenyl is optionally substituted with one or more substituents independently selected from C 1-4 -alkyl, halogen, C 1-4 -alkoxy and cyano; X is CH 2 , CHF, CF 2 , O, S, SO, SO 2 , NH or NR 4 ; and R 4 is C 1-4 alkyl. R 1 is H or -CH 2 OH; R 2 is H, halogen, C 1-4 -alkyl, fluoro-C 1-4 -alkyl or -C≡C-R 3 ; R 3 is H, C 1-4 -alkyl, C 3-7 -cycloalkyl or phenyl, wherein phenyl is optionally substituted with one or more substituents independently selected from C 1-4 -alkyl, halogen, C 1-4 -alkoxy and cyano; X is CH 2 , CHF, CF 2 , O, S, SO, SO 2 , NH or NR 4 ; and R 4 is C 1-4 alkyl.
A temperature management pad comprising: a patient facing side, a cushioning layer, said cushioning layer having a top surface forming said patient facing side and configured to support a patient on said pad and a bottom surface forming a support facing side for supporting said pad on a support surface; and a fluid conduit formed between said patient facing side and said cushioning layer for circulating fluid through said pad across said cushioning layer and extending adjacent said patient facing side for circulating fluid across said pad to cool said patient facing side of said pad for cooling a patient lying thereon, and wherein said cushioning layer comprises a gel cushioning layer supporting said patient facing side and said fluid conduit above the support surface ; and wherein said gel cushioning is an elastomeric gel and has a solid upper surface, said solid upper surface having channels formed therein, and said conduit supported in said channels for circulating fluid through said pad laterally across said cushioning layer and at said patient facing side.
A method for realizing a dam or other massive structure, comprising the following steps of: - batching of Massive Self compacting concrete ; - positioning formworks defining the dam ; - delivering of the Massive Self compacting concrete into the dam ; - spreading the Massive Self compacting concrete by placing it in one continuous lift across the entire dam surface; - waiting for self-levelling and self-compacting of the Massive Self compacting concrete ; - removing of the formworks ; wherein said step of batching the Massive Self compacting concrete comprises a phase of realizing a concrete mix design by mixing together: - cementitious content comprises between 25 and 200 kg/m 3 . - fly ash content comprises between 25 and 175 kg/m 3 ; - dirty sand with fine aggregates passing the 75 micron sieve in the range between 3% and 20%; - water content comprised between 150 l/m 3 and 250l/m 3 ; - chemical admixtures comprising these components: - an acrylic, formaldehyde-free polymer-based admixture, modified in aqueous solution; and - a surfactant admixture configured to entrain micro air bubbles in concrete; and - an organic polymer comprising hydrophilic groups for increasing the viscosity of the mixture. - batching of Massive Self compacting concrete ; - positioning formworks defining the dam ; - delivering of the Massive Self compacting concrete into the dam ; - spreading the Massive Self compacting concrete by placing it in one continuous lift across the entire dam surface; - waiting for self-levelling and self-compacting of the Massive Self compacting concrete ; - removing of the formworks ; - cementitious content comprises between 25 and 200 kg/m 3 . - fly ash content comprises between 25 and 175 kg/m 3 ; - dirty sand with fine aggregates passing the 75 micron sieve in the range between 3% and 20%; - water content comprised between 150 l/m 3 and 250l/m 3 ; - chemical admixtures comprising these components: - an acrylic, formaldehyde-free polymer-based admixture, modified in aqueous solution; and - a surfactant admixture configured to entrain micro air bubbles in concrete; and - an organic polymer comprising hydrophilic groups for increasing the viscosity of the mixture. - an acrylic, formaldehyde-free polymer-based admixture, modified in aqueous solution; and - a surfactant admixture configured to entrain micro air bubbles in concrete; and - an organic polymer comprising hydrophilic groups for increasing the viscosity of the mixture.
An oligonucleotide which targets a Transcription factor E3 (TFE3) natural antisense transcript for use as a therapeutic compound, wherein the oligonucleotide increases the expression of Transcription factor E3 (TFE3) and/or Insulin Receptor Substrate 2 (IRS2), and wherein the natural antisense transcript has the nucleic acid sequence as set forth in SEQ ID NO:3, or a variant thereof which retains the function of the natural antisense transcript of SEQ ID NO: 3.
A method for processing and transferring data from a distributed file system to a database system, the method comprising the steps of: initially storing data in the distributed file system, such that this data is available for analysis using a MapReduce processing task; receiving a MapReduce task request for analyzing data, wherein the request is issued also loading data into the database system as a side-effect of executing the requested MapReduce task over the data in the distributed file system, wherein the data includes a plurality of attributes; parsing attributes from data received as a result of the request and determining, based on the request, at least one attribute of the data for loading into the database system, wherein the parsing and determining steps are implemented during a map function of the MapReduce task; and loading the at least one attribute of the data into the database system while continuing to process remaining attributes of the data within the framework of the MapReduce task performing data analysis in the distributed file system. initially storing data in the distributed file system, such that this data is available for analysis using a MapReduce processing task; receiving a MapReduce task request for analyzing data, wherein the request is issued also loading data into the database system as a side-effect of executing the requested MapReduce task over the data in the distributed file system, wherein the data includes a plurality of attributes; parsing attributes from data received as a result of the request and determining, based on the request, at least one attribute of the data for loading into the database system, wherein the parsing and determining steps are implemented during a map function of the MapReduce task; and loading the at least one attribute of the data into the database system while continuing to process remaining attributes of the data within the framework of the MapReduce task performing data analysis in the distributed file system.
An oscillating arm of a motor-vehicle suspension comprising a first rod element and a second rod element , wherein: - said second rod element is a half-shell rod which provides a cavity (C2), - said first rod element is a tubular rod that has an essentially L-shaped profile, said tubular rod having a portion that passes within said half-shell rod , in such a way that said tubular rod and said half-shell rod define an oscillating arm structure with an essentially triangular shape, - said tubular rod and said half-shell rod have respective terminal ends configured to be connected to the body of said motor-vehicle in an oscillating manner, by means of elastic bushings with essentially coincident main axes (I, II), said half-shell rod has a first seat at its first end opposite to said terminal end , configured to receive a spring of said motor-vehicle suspension, said oscillating arm being characterized in that : - said arm comprises also at least one insert made of plastic or composite material reinforced with fibers, which fills said cavity (C2) of said half-shell rod , - said first seat is arranged on said composite insert co-molded with said half-shell rod , said half-shell rod having a hollow portion to enable provision of said spring at said first seat , - said insert has a grooved portion to enable the passage of said portion of said tubular rod passing within said half-shell rod . - said second rod element is a half-shell rod which provides a cavity (C2), - said first rod element is a tubular rod that has an essentially L-shaped profile, said tubular rod having a portion that passes within said half-shell rod , in such a way that said tubular rod and said half-shell rod define an oscillating arm structure with an essentially triangular shape, - said tubular rod and said half-shell rod have respective terminal ends configured to be connected to the body of said motor-vehicle in an oscillating manner, by means of elastic bushings with essentially coincident main axes (I, II), - said arm comprises also at least one insert made of plastic or composite material reinforced with fibers, which fills said cavity (C2) of said half-shell rod , - said first seat is arranged on said composite insert co-molded with said half-shell rod , said half-shell rod having a hollow portion to enable provision of said spring at said first seat , - said insert has a grooved portion to enable the passage of said portion of said tubular rod passing within said half-shell rod .
An exchangeable separation insert for a modular centrifugal separator , the exchangeable separation insert comprising a rotor casing rotatable about an axis of rotation and a first stationary portion , wherein the rotor casing delimits a separation space and comprises frustoconical separation discs arranged in the separation space , wherein a first fluid passage extends through the first stationary portion into the separation space , wherein the axis of rotation extends along an axial direction and the rotor casing has a first axial end portion and a second axial end portion , and wherein the first stationary portion is arranged at the first axial end portion (120, characterised in that the first stationary portion is biased in a first direction away from the rotor casing along the axial direction. the rotor casing delimits a separation space and comprises frustoconical separation discs arranged in the separation space , wherein a first fluid passage extends through the first stationary portion into the separation space , wherein the axis of rotation extends along an axial direction and the rotor casing has a first axial end portion and a second axial end portion , and wherein the first stationary portion is arranged at the first axial end portion (120, characterised in that the first stationary portion is biased in a first direction away from the rotor casing along the axial direction.
A fiber-reinforced resin material used for molding a fiber-reinforced resin which comprises a matrix resin and reinforcing fiber bundles A comprising chopped fiber bundles each including 100 or more single fibers, characterized in that the product of an average porosity within fiber bundles P fav (-) represented by the following equation and an average fiber bundle thickness t fav (mm) represented by the following equation is 0 mm or more and 0.01 mm or less and a porosity of composite P c (-) represented by the following equation is 0.02 or more and 0.4 or less [Equation 1] P fav = 1 n ∑ i = 1 n p 2 i v f 2 i + v m 2 i + p 2 i [Equation 2] t fav = 1 n ∑ i = 1 n t fi [Equation 3] P c = ∑ j = 1 k p 1 j + ∑ i = 1 n p 2 i ∑ x = 1 l v f 1 x + ∑ i = 1 n v f 2 i + v m 2 i + p 2 i + v m 1 + ∑ j = 1 k p 1 j here, i = 1,2, ···n, j = 1,2, ···k, x = 1,2, ···l, which are integers, and n, k, l represent, respectively, the number of all fiber bundles A, the number of voids, and the number of fibers other than the fiber bundles A included in a photographed sectional view, wherein each parameter is: v f1 : area occupied by fibers other than fiber bundles A (mm 2 ) v f2 : area occupied by fibers in fiber bundles A (mm 2 ) v m1 : resin layer area (mm 2 ) v m2 : resin area in fiber bundles A (mm 2 ) p 1 : area of voids present in resin layer (mm 2 ) p 2 : area of voids present in fiber bundles A (mm 2 ) tε : thickness of fiber bundle A (mm), and each parameter is a value calculated from image analysis after binarization of a sectional view prepared by observing a section of a cut surface of the fiber-reinforced resin material in its thickness direction with an optical microscope, and photographing it at effective pixels of 1,600 (H) × 1,200 (V) and a photograph magnification of 300 times. v f1 : area occupied by fibers other than fiber bundles A (mm 2 ) v f2 : area occupied by fibers in fiber bundles A (mm 2 ) v m1 : resin layer area (mm 2 ) v m2 : resin area in fiber bundles A (mm 2 ) p 1 : area of voids present in resin layer (mm 2 ) p 2 : area of voids present in fiber bundles A (mm 2 ) tε : thickness of fiber bundle A (mm), and each parameter is a value calculated from image analysis after binarization of a sectional view prepared by observing a section of a cut surface of the fiber-reinforced resin material in its thickness direction with an optical microscope, and photographing it at effective pixels of 1,600 (H) × 1,200 (V) and a photograph magnification of 300 times.