mhurhangee/patent-ind-claim-en huggingface dataset:
A method for supplying cutting oil which adopts the following processes in a machine tool for cutting plural kinds of work pieces: a: setting cutting times t 1 ,...,t i ,...,t n for work pieces 1,...,i,...,n and selection of cutting oil to be used, wherein n is an integer of not less than one and i denotes a kind of work of an i th order, b: setting quantities q 1 ,...,q i ,...,q n of the cutting oil supplied per unit time according to a cutting area of the work pieces 1,...,i,...,n,where the cutting oil selected by process a is used, c: setting each quantity q 1 ",...,q i ",...,q n " of a fixed value supplied per unit time under condition that inequalities of q i ">q 1 ,...,q i ,...,q n and q 1 " − q 1 t 1 + ... + q i " − q i t i + ... + q n " − q n t n ≤ V , are each satisfied, and supplying the cutting oil to the cutting-oil tank at each of the quantities q 1 ",...,q i ",...,q n " corresponding to cutting each of the work pieces 1,...,i,...,n, wherein a volume of the cutting-oil tank is given as V, and a quantity of the cutting oil in the cutting oil tank before cutting is set to be zero, d: supplying the cutting oil to the cutting area with setting quantities of the cutting oil to be q 1 t 1 ,...,q i t i ,...,q n t n on cutting the work pieces 1,...,i,...,n by flowing out from the cutting-oil tank. a: setting cutting times t 1 ,...,t i ,...,t n for work pieces 1,...,i,...,n and selection of cutting oil to be used, wherein n is an integer of not less than one and i denotes a kind of work of an i th order, b: setting quantities q 1 ,...,q i ,...,q n of the cutting oil supplied per unit time according to a cutting area of the work pieces 1,...,i,...,n,where the cutting oil selected by process a is used, c: setting each quantity q 1 ",...,q i ",...,q n " of a fixed value supplied per unit time under condition that inequalities of q i ">q 1 ,...,q i ,...,q n and q 1 " − q 1 t 1 + ... + q i " − q i t i + ... + q n " − q n t n ≤ V , are each satisfied, and supplying the cutting oil to the cutting-oil tank at each of the quantities q 1 ",...,q i ",...,q n " corresponding to cutting each of the work pieces 1,...,i,...,n, wherein a volume of the cutting-oil tank is given as V, and a quantity of the cutting oil in the cutting oil tank before cutting is set to be zero, d: supplying the cutting oil to the cutting area with setting quantities of the cutting oil to be q 1 t 1 ,...,q i t i ,...,q n t n on cutting the work pieces 1,...,i,...,n by flowing out from the cutting-oil tank.
A method of imaging a heterogeneous object having topological details and comprising a first portion and a second portion, the first portion having the property of attenuating x-rays more than the second portion, the method comprising: positioning the heterogeneous object within a fixture having a chamber ; adding an inert gas to the chamber , the inert gas comprising at least one of argon, xenon, and krypton; sealing the chamber to substantially contain the gas within the chamber ; increasing the pressure within the sealed chamber as a function of the density of the second portion of the object, the density of the gas increasing with the increased pressure within the sealed chamber , wherein increasing the pressure within the sealed chamber comprises: transmitting penetrating x-rays toward the object to generate at least one test image of the object at a first pressure, and changing the pressure within the chamber as a function of the contrast between the second portion and the gas as shown in the test image; penetrating x-rays through the object to produce a plurality of images of the object , the pressurized gas contrasting with the second portion of the object in at least some of the plurality of images; generating a three-dimensional representation of the object using the contrast produced by the pressurized gas in the plurality of images, the three-dimensional representation of the object showing topological details of the object; and measuring at least one of the topological object details using the three-dimensional representation of the object . positioning the heterogeneous object within a fixture having a chamber ; adding an inert gas to the chamber , the inert gas comprising at least one of argon, xenon, and krypton; sealing the chamber to substantially contain the gas within the chamber ; increasing the pressure within the sealed chamber as a function of the density of the second portion of the object, the density of the gas increasing with the increased pressure within the sealed chamber , wherein increasing the pressure within the sealed chamber comprises: transmitting penetrating x-rays toward the object to generate at least one test image of the object at a first pressure, and changing the pressure within the chamber as a function of the contrast between the second portion and the gas as shown in the test image; transmitting penetrating x-rays toward the object to generate at least one test image of the object at a first pressure, and changing the pressure within the chamber as a function of the contrast between the second portion and the gas as shown in the test image; penetrating x-rays through the object to produce a plurality of images of the object , the pressurized gas contrasting with the second portion of the object in at least some of the plurality of images; generating a three-dimensional representation of the object using the contrast produced by the pressurized gas in the plurality of images, the three-dimensional representation of the object showing topological details of the object; and measuring at least one of the topological object details using the three-dimensional representation of the object .
A method for producing a curved laminated glazing, in particular for a windshield or roof of a motor vehicle, comprising the following steps: a. providing a first glass sheet , coated on at least one part of one of its faces with a stack of thin layers , b. a step of depositing, on one part of the surface of the stack of thin layers , in a zone called "zone to be cleared" , a washable dissolving layer , c. a step of pre-firing after which the stack of thin layers located under the washable dissolving layer is dissolved by said washable dissolving layer , d. a step of removing the washable dissolving layer by washing, creating a cleared zone , e. a step of depositing, at least on one part of the cleared zone , an opaque mineral layer , f. a step of curving the first glass sheet and an additional glass sheet , together or separately, g. a step of laminating said first glass sheet with the additional glass sheet using a lamination interlayer , the stack of thin layers being turned towards the lamination interlayer . a. providing a first glass sheet , coated on at least one part of one of its faces with a stack of thin layers , b. a step of depositing, on one part of the surface of the stack of thin layers , in a zone called "zone to be cleared" , a washable dissolving layer , c. a step of pre-firing after which the stack of thin layers located under the washable dissolving layer is dissolved by said washable dissolving layer , d. a step of removing the washable dissolving layer by washing, creating a cleared zone , e. a step of depositing, at least on one part of the cleared zone , an opaque mineral layer , f. a step of curving the first glass sheet and an additional glass sheet , together or separately, g. a step of laminating said first glass sheet with the additional glass sheet using a lamination interlayer , the stack of thin layers being turned towards the lamination interlayer .
An abrasive rotary tool comprising: a tool shank defining an axis of rotation for the rotary tool ; and an abrasive external working surface coupled to the tool shank , characterized in that the abrasive external working surface comprises: a resin ; a plurality of porous ceramic abrasive composites dispersed in the resin , the porous ceramic abrasive composites comprising individual abrasive particles dispersed in a porous ceramic matrix, wherein at least a portion of the porous ceramic matrix comprises glassy ceramic wherein a ratio of the average porous ceramic abrasive composite size to the average individual abrasive particle size is no greater than 15 to 1; and an elastically compressible layer backing the abrasive external working surface ; wherein the abrasive external working surface is a coating disposed on a substrate ; and wherein the porous ceramic abrasive composites represent between 35 percent to 65 percent by weight of the working surface , based on the total weight of the resin and the porous ceramic abrasive composites. a tool shank defining an axis of rotation for the rotary tool ; and an abrasive external working surface coupled to the tool shank , characterized in that the abrasive external working surface comprises: a resin ; a plurality of porous ceramic abrasive composites dispersed in the resin , the porous ceramic abrasive composites comprising individual abrasive particles dispersed in a porous ceramic matrix, wherein at least a portion of the porous ceramic matrix comprises glassy ceramic wherein a ratio of the average porous ceramic abrasive composite size to the average individual abrasive particle size is no greater than 15 to 1; and an elastically compressible layer backing the abrasive external working surface ; wherein the abrasive external working surface is a coating disposed on a substrate ; and wherein the porous ceramic abrasive composites represent between 35 percent to 65 percent by weight of the working surface , based on the total weight of the resin and the porous ceramic abrasive composites. a resin ; a plurality of porous ceramic abrasive composites dispersed in the resin , the porous ceramic abrasive composites comprising individual abrasive particles dispersed in a porous ceramic matrix, wherein at least a portion of the porous ceramic matrix comprises glassy ceramic wherein a ratio of the average porous ceramic abrasive composite size to the average individual abrasive particle size is no greater than 15 to 1; and an elastically compressible layer backing the abrasive external working surface ; wherein the abrasive external working surface is a coating disposed on a substrate ; and wherein the porous ceramic abrasive composites represent between 35 percent to 65 percent by weight of the working surface , based on the total weight of the resin and the porous ceramic abrasive composites.
An air conditioning indoor unit comprising: an indoor unit body having a front surface provided with a blow-in port ; and a front panel covering the front surface of the indoor unit body and configured to at least partially shift to open and close the blow-in port , wherein the front panel includes a first panel positioned in a lower side and a second panel positioned above the first panel , the first panel is vertically longer than the second panel in a front view, and the first panel is configured to shift to be positioned in front of the second panel to open the blow-in port , the air conditioning indoor unit further comprising an arm configured to turn to shift the first panel , characterized in that when the air conditioning indoor unit is not in operation, the first panel and the second panel have surfaces aligned on an identical vertical plane including the front surface of the indoor unit body , and in that the arm has a shaft provided behind the second panel . an indoor unit body having a front surface provided with a blow-in port ; and a front panel covering the front surface of the indoor unit body and configured to at least partially shift to open and close the blow-in port , wherein the front panel includes a first panel positioned in a lower side and a second panel positioned above the first panel , the first panel is vertically longer than the second panel in a front view, and the first panel is configured to shift to be positioned in front of the second panel to open the blow-in port , the air conditioning indoor unit further comprising an arm configured to turn to shift the first panel , characterized in that when the air conditioning indoor unit is not in operation, the first panel and the second panel have surfaces aligned on an identical vertical plane including the front surface of the indoor unit body , and in that the arm has a shaft provided behind the second panel .
A computer system comprising: a DRAM memory ; a reconfigurable logic device having a memory controller coupled to selected inputs and outputs of said DRAM memory ; characterised by a data maintenance block coupled to said reconfigurable logic device and self-refresh command inputs of said DRAM memory , said data maintenance block operative to provide stable input levels on said self-refresh command inputs while said reconfigurable logic device is reconfigured. a DRAM memory ; a reconfigurable logic device having a memory controller coupled to selected inputs and outputs of said DRAM memory ; characterised by a data maintenance block coupled to said reconfigurable logic device and self-refresh command inputs of said DRAM memory , said data maintenance block operative to provide stable input levels on said self-refresh command inputs while said reconfigurable logic device is reconfigured.
A rotary-wing aircraft comprising: - a fuselage provided with a rotary wing ; and - an external device mounted on an outside of the fuselage , wherein the external device comprises - a mounting device fixed to the fuselage and disposed so as to project in a lateral direction of the fuselage , - a mass variation device mounted on the mounting device , the mass variation device having a mass that varies as the mass variation device is used during flight, and - a damper comprising a stiffness variable mechanism , characterised in that - the damper couples the fuselage to the mounting device , the damper supporting the mounting device , and in that - the stiffness variable mechanism is configured to adjust stiffness of the damper during flight in response to a variation in the mass of the mass variation device during flight. - a fuselage provided with a rotary wing ; and - an external device mounted on an outside of the fuselage , wherein the external device comprises - a mounting device fixed to the fuselage and disposed so as to project in a lateral direction of the fuselage , - a mass variation device mounted on the mounting device , the mass variation device having a mass that varies as the mass variation device is used during flight, and - a damper comprising a stiffness variable mechanism , characterised in that - the damper couples the fuselage to the mounting device , the damper supporting the mounting device , and in that - the stiffness variable mechanism is configured to adjust stiffness of the damper during flight in response to a variation in the mass of the mass variation device during flight.
A method for producing a brazed plate heat exchanger comprising a stack of heat exchanger plates provided with a pressed pattern adapted to provide contact points between neighboring heat exchanger plates, such that the heat exchanger plates are kept on a distance from one another under formation of interplate flow channels for media to exchange heat, wherein the interplate flow channels are in selective communication with port openings for the media to exchange heat and circumferentially sealed along an outer periphery in order to avoid external leakage, characterized by the following method steps: a. Calculating the position of the contact points between neighboring plates; b. Calculating a force that must be transferred by each contact point when the heat exchanger is in use; c. Based on the method steps above, calculating a necessary amount of brazing material for each contact point; d. Providing a screen for screen printing the brazing material onto the heat exchanger plates, wherein the screen is provided with openings, the size, position, plate thickness and shape of which being adapted to provide the necessary amount of brazing material to each contact point; e. Screen printing the heat exchanger plates with brazing material using the screen; f. Stacking the heat exchanger plates in a stack; and g. Brazing the stack of the heat exchanger plates in order to join the plates together to form the heat exchanger. a. Calculating the position of the contact points between neighboring plates; b. Calculating a force that must be transferred by each contact point when the heat exchanger is in use; c. Based on the method steps above, calculating a necessary amount of brazing material for each contact point; d. Providing a screen for screen printing the brazing material onto the heat exchanger plates, wherein the screen is provided with openings, the size, position, plate thickness and shape of which being adapted to provide the necessary amount of brazing material to each contact point; e. Screen printing the heat exchanger plates with brazing material using the screen; f. Stacking the heat exchanger plates in a stack; and g. Brazing the stack of the heat exchanger plates in order to join the plates together to form the heat exchanger.
A method implemented by an enterprise threat intelligence server, the method comprising: communicatively coupling to a network of an enterprise and to a global threat intelligence service, GTIS, via a network interface; receiving a reputation request for a uniform resource locator, URL, identifier via the network interface; querying the GTIS for a global reputation for the URL identified by the URL identifier; based at least in part on the global reputation, determining that the URL has an unknown enterprise reputation, wherein the enterprise reputation is specific to the enterprise; establishing , upon said determining that the URL has an unknown enterprise reputation, an enterprise baseline reputation for the URL; setting an expiry for the enterprise baseline reputation, wherein the expiry is based at least partly on a frequency the URL is visited, and wherein a time-to-live, TTL, of the expiry is directly proportional to the frequency; and caching the enterprise baseline reputation for a duration of the expiry. communicatively coupling to a network of an enterprise and to a global threat intelligence service, GTIS, via a network interface; receiving a reputation request for a uniform resource locator, URL, identifier via the network interface; querying the GTIS for a global reputation for the URL identified by the URL identifier; based at least in part on the global reputation, determining that the URL has an unknown enterprise reputation, wherein the enterprise reputation is specific to the enterprise; establishing , upon said determining that the URL has an unknown enterprise reputation, an enterprise baseline reputation for the URL; setting an expiry for the enterprise baseline reputation, wherein the expiry is based at least partly on a frequency the URL is visited, and wherein a time-to-live, TTL, of the expiry is directly proportional to the frequency; and caching the enterprise baseline reputation for a duration of the expiry.
A drape assembly for use with a camera unit and a tracking element of a surgical system, the camera unit including a casing and a plurality of optical sensors supported by the casing for detecting the tracking element, the casing including a base and a post extending upwardly from the base, the drape assembly comprising: a drape having a flexible section configured to drape over the post of the casing to cover the casing and the plurality of optical sensors ; and a collar configured to engage the post to trap said flexible section of said drape between said collar and the post . a drape having a flexible section configured to drape over the post of the casing to cover the casing and the plurality of optical sensors ; and a collar configured to engage the post to trap said flexible section of said drape between said collar and the post .
A method for receiving buffer status information in a wireless local area network, WLAN, the method comprising: transmitting, by an access point, AP, to multiple stations, STAs, a trigger frame soliciting first information on the buffer status information in each of the multiple STAs, wherein the trigger frame includes second information on each of multiple uplink, UL, transmission resources allocated for each respective STA of the multiple of STAs; and receiving, by the AP, multiple UL frames based on the second information from the multiple STAs within an overlapping time resource in response to the trigger frame, wherein each of the multiple UL frames includes the first information for each of the multiple STAs. transmitting, by an access point, AP, to multiple stations, STAs, a trigger frame soliciting first information on the buffer status information in each of the multiple STAs, wherein the trigger frame includes second information on each of multiple uplink, UL, transmission resources allocated for each respective STA of the multiple of STAs; and receiving, by the AP, multiple UL frames based on the second information from the multiple STAs within an overlapping time resource in response to the trigger frame, wherein each of the multiple UL frames includes the first information for each of the multiple STAs.
A method for the production of an aqueous solution of chlorine dioxide, in which an acid, a chlorite and optionally water are introduced into a reactor, characterized in that in the method, the reaction temperature in the reactor is determined and the quantity of acid, chlorite and/or water which is introduced into the reactor is selected in a manner such that the acid introduced into the reactor is introduced into the reactor with a molar excess with respect to the chlorite introduced into the reactor in the range from 2.0 to 3.5 at a determined reaction temperature in the range from 10°C to 40°C, wherein the extent of the molar excess is varied with the level of the determined reaction temperature, with the extent of the molar excess increasing with the level of the reaction temperature.
A method of suspension polymerization comprising (I) providing a composition comprising droplets distributed in an aqueous medium, wherein the droplets comprise 4-vinylphenyl boronic acid dissolved in an organic solution containing one or more monomers, and one or more initiators, and wherein the aqueous medium comprises polyvinyl alcohol; wherein the 4-vinylphenyl boronic acid is present in an amount of 0.05% or less, by weight based on the weight of the organic solution, and (II) stressing the composition so that the initiator initiates polymerization of the monomer. (I) providing a composition comprising droplets distributed in an aqueous medium, wherein the droplets comprise 4-vinylphenyl boronic acid dissolved in an organic solution containing one or more monomers, and one or more initiators, and wherein the aqueous medium comprises polyvinyl alcohol; wherein the 4-vinylphenyl boronic acid is present in an amount of 0.05% or less, by weight based on the weight of the organic solution, and (II) stressing the composition so that the initiator initiates polymerization of the monomer.