mhurhangee/patent-ind-claim-en huggingface dataset:
Metal shelving for displaying merchandise, comprising at least two uprights to which a plurality of shelves is fastened, each upright being provided with slots for fastening the shelves , which slots are arranged at a predetermined distance from each other, wherein each shelf has a thickness (N) lower than said predetermined distance between the slots (p) and such that the space between two shelves spaced heightwise by M pitches p is equal to M*p-N, and wherein the shelves can be arranged so to have a distance of one shelf to the other according to one of the two options: at a distance one to the other corresponding to a products height (Hi) for which the relation m * p − 2 * p < = Hi < m * p − p is true, where m is the number of pitches p, and alternatively at a distance one to the other corresponding to the products height (Hj) for which the relation m * p − 2 * p < = Hj < m * p − N is true, where m is the number of pitches p, and wherein each shelf is obtained from a sheet metal by subsequent shearing and bending operations, wherein front and rear sides of each shelf are ribbed and profiled with downward (301; 101) and inward (201'; 201) bends, wherein at ends of the other two short sides each shelf is provided with down-fold lips which are side by side to supporting brackets , wherein the supporting brackets are obtained from a metal plate and are hooked in a projecting manner to the upright of the shelving, wherein ends of the sheet metal forming said shelf rest on said brackets , and wherein said profiled parts of the front side and of the rear side of the same shelf , as well as ends of metal stiffeners with an inverted omega profile, obtained by means of shearing and bending operations from sheet metal, parallel to said front and rear sides of the shelf and that with their lips are fastened on the lower face of the same shelf by means of spot welds (Z), rest on said brackets , characterized in that said down-fold lips have rounded corners and have a height (Q) of about 12 mm, and said down-fold lips are spaced from the front side and from the rear side of the shelf by a distance (R1) of about 7 mm and by a distance (R2) of about 50 mm respectively, and said down-fold lips on the whole have an extension (T) of about 440 mm, and said down-fold lips are spaced from ends of the stiffeners by a distance (V) of about 4.5 mm, and said down-fold lips at ends are provided with holes with a diameter of about 5 mm, wherein appendages of said brackets supporting the shelf can be inserted which are equipped on a top side with small slots for housing small lugs of about 4 mm obtained by shearing and inwardly bending the fold-down lips .
A solid fertilizer, comprising the following components (A) and (B): (A) a 5-aminolevulinic acid represented by the following general formula (I) R 2 R 1 NCH 2 COCH 2 CH 2 COR 3 (I) wherein R 1 and R 2 are each independently a hydrogen atom, an alkyl group, an acyl group, an alkoxycarbonyl group, an aryl group, or an aralkyl group; and R 3 is a hydroxy group, an alkoxy group, an acyloxy group, an alkoxycarbonyloxy group, an aryloxy group, an aralkyloxy group or an amino group, or a salt of the acid and (B) a solid fertilizer raw material, comprising 1 % by mass or more, as the nitrogen content, of at least one selected from the group consisting of ammonium nitrate, ammonium sulfate, and potassium nitrate in the solid fertilizer or 1 % by mass or more, in terms of P 2 O 5 , of a phosphoric acid in the solid fertilizer, wherein a surface of the solid fertilizer is coated with a coating material, wherein the coating material is a petroleum wax. (A) a 5-aminolevulinic acid represented by the following general formula (I) R 2 R 1 NCH 2 COCH 2 CH 2 COR 3 (I) wherein R 1 and R 2 are each independently a hydrogen atom, an alkyl group, an acyl group, an alkoxycarbonyl group, an aryl group, or an aralkyl group; and R 3 is a hydroxy group, an alkoxy group, an acyloxy group, an alkoxycarbonyloxy group, an aryloxy group, an aralkyloxy group or an amino group, or a salt of the acid and (B) a solid fertilizer raw material, comprising 1 % by mass or more, as the nitrogen content, of at least one selected from the group consisting of ammonium nitrate, ammonium sulfate, and potassium nitrate in the solid fertilizer or 1 % by mass or more, in terms of P 2 O 5 , of a phosphoric acid in the solid fertilizer, wherein a surface of the solid fertilizer is coated with a coating material, wherein the coating material is a petroleum wax.
A detent escapement provided to regulate the functioning of a horology movement, this detent escapement comprising an escape wheel with a plurality of teeth regularly spaced along a perimeter and a balance , the balance being equipped with an impulse pallet by means of which this balance receives driving impulses via the teeth of the escape wheel , the balance being moved by an oscillating movement during which it performs, for each oscillation, a vibration during which it receives a driving impulse and a vibration with no driving impulse, the detent escapement also comprising a hook pivotally mounted on the balance and kept pressed against a stop by a resilient organ , the detent escapement being completed by a detent which is capable of pivoting and which comprises a first arm which collaborates with the escape wheel to ensure the blocking of the latter just before the start of the driving impulse, as well as a second arm which collaborates with the hook of the balance to allow the escape wheel to disengage from its engagement with the first arm at the start of the driving impulse, and which limits the pivoting of this detent to only part of the oscillation of the balance , the detent also being arranged so that, by cooperation with the escape wheel , its return to the position in which it again blocks the escape wheel after the latter has finished providing the driving impulse to the balance is assisted by said escape wheel, the detent escapement lastly comprising a drawing device which opposes a resistance to the unlocking of the escape wheel during shocks applied to the horological movement when the latter is in its lock position on the detent ; a detent escapement in which the first arm of the detent carries on the one hand a lock pallet against which the escape wheel presses with one of its teeth just before the start of a driving impulse, and the second arm of the detent carries a unlocking pallet against which the pivoting hook of the balance presses just before the start of the driving impulse, the pivoting hook being arranged so as to push back the unlocking pallet and to pivot the detent at the start of the vibration stage of the balance where the impulse takes place, so that the lock pallet disengages from the tooth of the escape wheel with which it is engaged and allows this escape wheel to provide the driving impulse to the balance , and the pivoting hook being arranged so that, during the impulse-free vibration of the balance , it is retracted by performing a pivoting movement when it passes by the unlocking pallet , so that the passage of the balance has no influence on the detent during said impulse-free vibration, the detent also carrying a return pallet arranged so that the lock pallet again gradually penetrates the perimeter of the teeth of the escape wheel when the latter finishes providing the driving impulse to the impulse pallet of the balance.
A method for self-adaptive bandwidth control of a CDN platform, comprising: configuring corresponding parameters for a self-adaptive bandwidth task through a UI platform and sending the parameters to a control center ; registering , by a proxy of a plurality of proxies (104; 104-1; 104-n), on the control center ; after the proxy is registered successfully, assigning , by the control center , a range for proxy-controllable CDN service resources (102; 102-1; 102-n) to the proxy; based on the range for proxy-controllable CDN service resources, sending , by the proxy, a data collection command to CDN service resources within the range; after receiving the data collection command, returning , by the CDN service resources, real-time data to the proxy that sends the data collection command, wherein the real-time data comprises real-time bandwidth data of a node and machine data; sending, by the proxy, collected data to the control center; wherein the collected data comprises data obtained by gathering the real-time data by the proxy; gathering , by the control center , the collected data, and generating, by the control center , a control line through data analysis; based on collected data from each CDN service resource combined with the control line, generating , by the control center , a control command for the proxy; and after receiving the control command, performing , by the proxy, a self-learning and adjustment to generate a control policy for each proxy-controllable CDN service resource, and allocating , by the proxy, the control policy to a corresponding CDN service resource. configuring corresponding parameters for a self-adaptive bandwidth task through a UI platform and sending the parameters to a control center ; registering , by a proxy of a plurality of proxies (104; 104-1; 104-n), on the control center ; after the proxy is registered successfully, assigning , by the control center , a range for proxy-controllable CDN service resources (102; 102-1; 102-n) to the proxy; based on the range for proxy-controllable CDN service resources, sending , by the proxy, a data collection command to CDN service resources within the range; after receiving the data collection command, returning , by the CDN service resources, real-time data to the proxy that sends the data collection command, wherein the real-time data comprises real-time bandwidth data of a node and machine data; sending, by the proxy, collected data to the control center; wherein the collected data comprises data obtained by gathering the real-time data by the proxy; gathering , by the control center , the collected data, and generating, by the control center , a control line through data analysis; based on collected data from each CDN service resource combined with the control line, generating , by the control center , a control command for the proxy; and after receiving the control command, performing , by the proxy, a self-learning and adjustment to generate a control policy for each proxy-controllable CDN service resource, and allocating , by the proxy, the control policy to a corresponding CDN service resource.
A motorcycle tire in which a carcass extends from a tread portion through sidewall portions to bead portions , and an outer surface of the tread portion extends from a tire equator (Co) to tread edges (Te) so as to be curved in an arc-shaped manner to protrude radially outwardly, the motorcycle tire comprising: a tread rubber (G2) forming the tread portion ; and sidewall rubbers (G3) forming the sidewall portions and contiguous with the tread rubber (G2) with boundary surfaces (K) interposed therebetween, wherein a loss tangent tanδS at 70°C of each sidewall rubber (G3) is lower than a loss tangent tanδT at 70°C of the tread rubber (G2), wherein the loss tangent tanδS and the loss tangent tanδT at 70°C are values measured according to the standards of JIS-K 6394 using a "viscoelastic spectrometer" under conditions that the measurement temperature is 70°C, the initial strain is 10%, the amplitude is ±1%, the frequency is 10 Hz, and the deformation mode is tension. a tread rubber (G2) forming the tread portion ; and sidewall rubbers (G3) forming the sidewall portions and contiguous with the tread rubber (G2) with boundary surfaces (K) interposed therebetween, wherein a loss tangent tanδS at 70°C of each sidewall rubber (G3) is lower than a loss tangent tanδT at 70°C of the tread rubber (G2), wherein the loss tangent tanδS and the loss tangent tanδT at 70°C are values measured according to the standards of JIS-K 6394 using a "viscoelastic spectrometer" under conditions that the measurement temperature is 70°C, the initial strain is 10%, the amplitude is ±1%, the frequency is 10 Hz, and the deformation mode is tension.
A computer-implemented method for identifying a defect of a passing train via acoustic monitoring, the passing train comprising wheels and bearings, the train traveling on first and second rails of a track , the method comprising the steps of: receiving data from the passing train within a zone of observance using a plurality of microphone assemblies of an acoustic monitoring system that are positioned around a section of the track , the plurality of microphone assemblies in communication with at least one data acquisition module of the acoustic monitoring system ; processing the data to determine pressure levels received by each of the plurality of microphone assemblies ; computing a theoretical pressure level for each of the plurality of microphone assemblies at a plurality of points within a three-dimensional coordinate space representing at least part of the zone of observance, the three-dimensional coordinate space including coordinate locations for each of the plurality of microphone assemblies , wherein, for each of the plurality of points, the theoretical pressure level is calculated assuming its position within the three-dimensional coordinate space is an origin point of the pressure levels received by each of the plurality of microphone assemblies ; determining one or more locations within the three-dimensional coordinate space where the theoretical pressure levels represent actual pressure levels; isolating acoustic signatures of a noise source in the one or more locations; and determining a type of defect based on the acoustic signatures. receiving data from the passing train within a zone of observance using a plurality of microphone assemblies of an acoustic monitoring system that are positioned around a section of the track , the plurality of microphone assemblies in communication with at least one data acquisition module of the acoustic monitoring system ; processing the data to determine pressure levels received by each of the plurality of microphone assemblies ; computing a theoretical pressure level for each of the plurality of microphone assemblies at a plurality of points within a three-dimensional coordinate space representing at least part of the zone of observance, the three-dimensional coordinate space including coordinate locations for each of the plurality of microphone assemblies , wherein, for each of the plurality of points, the theoretical pressure level is calculated assuming its position within the three-dimensional coordinate space is an origin point of the pressure levels received by each of the plurality of microphone assemblies ; determining one or more locations within the three-dimensional coordinate space where the theoretical pressure levels represent actual pressure levels; isolating acoustic signatures of a noise source in the one or more locations; and determining a type of defect based on the acoustic signatures.
A method for in situ operating an internal combustion engine comprising: turbo charging said internal combustion engine ; providing a signal from an accelerometer representative of pressure in a combustion chamber of the internal combustion engine ; determining based on the signal at least one combustion characteristic for said combustion chamber , comprising an actual heat release signal for said combustion chamber ; and inputting said actual heat release signal into a diagnostic logic tree for diagnosing changes in combustion characteristics due to a change in fuel quality; and performing a mitigation technique to compensate for said changes in combustion characteristics; characterized in that , in response to said changes in combustion characteristics being due to said change in fuel quality, said mitigation technique comprises: determining a desired intake manifold pressure as a function of engine operating conditions; comparing a first difference between an actual intake manifold pressure with said desired intake manifold pressure with a first predetermined tolerance; and determining a fuelling correction as a function of said first difference when said first difference is outside a range of said first predetermined tolerance. turbo charging said internal combustion engine ; providing a signal from an accelerometer representative of pressure in a combustion chamber of the internal combustion engine ; determining based on the signal at least one combustion characteristic for said combustion chamber , comprising an actual heat release signal for said combustion chamber ; and inputting said actual heat release signal into a diagnostic logic tree for diagnosing changes in combustion characteristics due to a change in fuel quality; and performing a mitigation technique to compensate for said changes in combustion characteristics; characterized in that , in response to said changes in combustion characteristics being due to said change in fuel quality, said mitigation technique comprises: determining a desired intake manifold pressure as a function of engine operating conditions; comparing a first difference between an actual intake manifold pressure with said desired intake manifold pressure with a first predetermined tolerance; and determining a fuelling correction as a function of said first difference when said first difference is outside a range of said first predetermined tolerance. determining a desired intake manifold pressure as a function of engine operating conditions; comparing a first difference between an actual intake manifold pressure with said desired intake manifold pressure with a first predetermined tolerance; and determining a fuelling correction as a function of said first difference when said first difference is outside a range of said first predetermined tolerance.
An integrated vibrations and contact force converter, comprising: - a first element separated from a second element by an elastic spacer ; - at least one acceleration sensor rigidly connected to the first element and configured to measure amplitude of acceleration of vibrations of the converter; - at least one contact force sensitive element rigidly connected either to the first element or to the second element and configured to measure a force exerted on the second element ; characterized in that : - the first element and the second element are connected by a connector configured to maintain the second element movable with respect to the first element and to provide a non-zero calibrated pressing force from the first element to the second element at the absence of forces external to the converter. - a first element separated from a second element by an elastic spacer ; - at least one acceleration sensor rigidly connected to the first element and configured to measure amplitude of acceleration of vibrations of the converter; - at least one contact force sensitive element rigidly connected either to the first element or to the second element and configured to measure a force exerted on the second element ; - the first element and the second element are connected by a connector configured to maintain the second element movable with respect to the first element and to provide a non-zero calibrated pressing force from the first element to the second element at the absence of forces external to the converter.
Connection module for a noise shielding device , the connection module being obtainable by injection moulding and comprising: - a base element having a first face configured for connection to a first panel of the shielding device , - a suspended mass element spaced apart from the base element in a thickness direction (X-X), the suspended mass element having a second face configured for connection to a second panel of the shielding device , - a plurality of connection elements connecting the base element and the suspended mass element , wherein: - the suspended mass element has a perimeter edge with a first predetermined shape, - the base element has an opening having an inner edge with a second predetermined shape, characterised in that - the first predetermined shape, when projected along the thickness direction (X-X), is internal to the second predetermined shape. - a base element having a first face configured for connection to a first panel of the shielding device , - a suspended mass element spaced apart from the base element in a thickness direction (X-X), the suspended mass element having a second face configured for connection to a second panel of the shielding device , - a plurality of connection elements connecting the base element and the suspended mass element , - the suspended mass element has a perimeter edge with a first predetermined shape, - the base element has an opening having an inner edge with a second predetermined shape, characterised in that - the first predetermined shape, when projected along the thickness direction (X-X), is internal to the second predetermined shape.
An alternating pressure melt impregnation device, including a fiber pre-dispersion area for heating and dispersing a continuous fiber bundle, and a melt injection area for impregnating the continuous fiber bundle, characterized in that , a plurality of throttle plates are alternately provided at a filament-input end and a filament-output end of the melt injection area respectively, the adjacent throttle plates enclose one decompression chamber , at least one decompression chamber exists, and each throttle plate is provided with a filament-moving hole for the continuous fiber bundle going through; and the melt injection area comprises an upper die and a lower die, an interval exists between the upper die and the lower die, the interval forms an impregnation chamber for a resin melt flowing in, and the upper die and the lower die are each provided with a plurality of resin melt runners connected with the impregnation chamber .
A splitting axe for a vertical log splitter provided with structures , wherein the axe has a base wedge-shaped body with a wider upper part that narrows towards a cutting edge defined by two side surfaces , characterized in that at least one of said side surfaces is provided with said structures arranged to prevent the log or the wood part from moving or falling off from the axe , wherein said structures have a depth or an elevation of at least 1 mm and extend to the cutting edge .
A solid phase micro-extraction (SPME) device comprising a filament , a filament extension mechanism and a locking mechanism , wherein the locking mechanism prevents the SPME device from being removed from an instrument to which it is engaged while the filament is in an extended configuration, characterized in that the locking mechanism is automatically activated upon extension of the filament.