mhurhangee/ep-ind-claims huggingface dataset:
A printing unit having an operator side and gear side at the opposite side of the operator side, the unit comprising - A pressure roller and a frame; - An ink supplying module comprising an inking roller; - An Inking translation device configured to translate the ink supplying module along a longitudinal line; - A first printing roller system comprising - a first printing shaft configured to hold a printing sleeve and defining a first printing roller when the sleeve is mounted on the first printing shaft; - and a first printing shaft support configured to hold the printing shaft as a cantilever from the gear side of the printing unit; Wherein the first printing roller system is configured to allow the printing sleeve to be replaced from the operator side; - A first longitudinal translation device configured to translate the first printing roller system along the longitudinal line; Wherein - The rotation axis of the first printing roller is perpendicular to the longitudinal line; and - When the printing unit is printing with the printing sleeve mounted on the printing shaft, the printing roller is positioned against the pressure roller and against the inking roller, the respective rotation axis of said three rollers (5, 102, 8) are parallel and distributed along the longitudinal line, and wherein the longitudinal line is horizontal, and wherein the printing unit is configured for an in-line printing machine, - A pressure roller and a frame; - An ink supplying module comprising an inking roller; - An Inking translation device configured to translate the ink supplying module along a longitudinal line; - A first printing roller system comprising - a first printing shaft configured to hold a printing sleeve and defining a first printing roller when the sleeve is mounted on the first printing shaft; - and a first printing shaft support configured to hold the printing shaft as a cantilever from the gear side of the printing unit; Wherein the first printing roller system is configured to allow the printing sleeve to be replaced from the operator side; - a first printing shaft configured to hold a printing sleeve and defining a first printing roller when the sleeve is mounted on the first printing shaft; - and a first printing shaft support configured to hold the printing shaft as a cantilever from the gear side of the printing unit; - A first longitudinal translation device configured to translate the first printing roller system along the longitudinal line; Wherein - The rotation axis of the first printing roller is perpendicular to the longitudinal line; and - When the printing unit is printing with the printing sleeve mounted on the printing shaft, the printing roller is positioned against the pressure roller and against the inking roller, the respective rotation axis of said three rollers (5, 102, 8) are parallel and distributed along the longitudinal line, and wherein the longitudinal line is horizontal, and wherein the printing unit is configured for an in-line printing machine, wherein the longitudinal line is horizontal, and wherein the printing unit is configured for an in-line printing machine,
A spacer element, intended to be used to constitute a light box, characterized in that it has a section comprising a reversed V-shaped cross-section, with two blades extending from the side edges of said section and, at its top, with two longitudinal trenches separated by a central blade having on each of its faces a shoulder, with each one respectively extending to the opposite side of said longitudinal trench so as to form a rail intended to receive the edges of a flexible sheet.
A chemical mechanical polishing composition suitable for use in a tantalum CMP process, which comprises: (a) an abrasive; (b) an organic oxidizer having a standard redox potential (E 0) of not more than 0.5 V relative to a standard hydrogen electrode, the organic oxidizer comprising at least one pi-conjugated ring, the ring including at least one heteroatom directly attached thereto, the at least one heteroatom being selected from the group consisting of N, O, S, and a combination thereof; wherein the organic oxidizer compound comprises an anthraquinone compound; and (c) a liquid carrier therefor. (a) an abrasive; (b) an organic oxidizer having a standard redox potential (E 0) of not more than 0.5 V relative to a standard hydrogen electrode, the organic oxidizer comprising at least one pi-conjugated ring, the ring including at least one heteroatom directly attached thereto, the at least one heteroatom being selected from the group consisting of N, O, S, and a combination thereof; wherein the organic oxidizer compound comprises an anthraquinone compound; and (c) a liquid carrier therefor.
An apparatus for analyzing a gas concentration in a breath of a patient, the apparatus comprising: a gas analyzer configured to measure a gas concentration in the apparatus; an inlet configured to receive the breath of the patient; a breath analyzer (510,526) configured to determine a breathing parameter frequency of the patient's breath; a database comprising a plurality of coefficients corresponding to a plurality of breathing parameter frequencies; and a processor containing a non-transitory computer readable medium containing executable instructions that when executed perform a method of determining the gas concentration of the patient's breath at the inlet of the apparatus, the method comprising: accessing the database to obtain a first plurality of coefficients based on the patient's breathing parameter frequency; deriving a first plurality of polynomial equations based on the first plurality of coefficients; deriving a second plurality of coefficients by inputting the breathing parameter frequency into each of the first plurality of polynomial equations; deriving a compensation equation using the second plurality of coefficients; and determining the inlet gas concentration by inputting the measured gas concentration into the compensation equation. a gas analyzer configured to measure a gas concentration in the apparatus; an inlet configured to receive the breath of the patient; a breath analyzer (510,526) configured to determine a breathing parameter frequency of the patient's breath; a database comprising a plurality of coefficients corresponding to a plurality of breathing parameter frequencies; and a processor containing a non-transitory computer readable medium containing executable instructions that when executed perform a method of determining the gas concentration of the patient's breath at the inlet of the apparatus, the method comprising: accessing the database to obtain a first plurality of coefficients based on the patient's breathing parameter frequency; deriving a first plurality of polynomial equations based on the first plurality of coefficients; deriving a second plurality of coefficients by inputting the breathing parameter frequency into each of the first plurality of polynomial equations; deriving a compensation equation using the second plurality of coefficients; and determining the inlet gas concentration by inputting the measured gas concentration into the compensation equation. accessing the database to obtain a first plurality of coefficients based on the patient's breathing parameter frequency; deriving a first plurality of polynomial equations based on the first plurality of coefficients; deriving a second plurality of coefficients by inputting the breathing parameter frequency into each of the first plurality of polynomial equations; deriving a compensation equation using the second plurality of coefficients; and determining the inlet gas concentration by inputting the measured gas concentration into the compensation equation.
A self-cleaning coating, comprising a porous structure with pores in communication with each other, wherein a volume of the pores comprised in the coating accounts for 40% to 98% of a total volume of the coating (determined as described in the experimental part herein under the section "parameter measurement of coating product"), the pores in the porous structure have a pore size ranging from 0. 5 nm to 40 nm (determined as described in the experimental part herein under the section "parameter measurement of coating product"), wherein the self-cleaning coating is substantially prepared from a host material, and the host material is one or more selected from the group consisting of titanium oxide, zirconium oxide, titanium nitride, silicon oxide, tungsten oxide, g-C 3 N 4 semiconductor polymer, perovskite semiconductor, silver, iron, gold, aluminum, copper, zinc, tin, and platinum.
A preparation and sterilization device for a granule-containing liquid beverage, comprising a storage container, and a batching mechanism communicating with the storage container, wherein the batching mechanism comprises a batching container communicating with the storage container, a liquid inlet pipeline communicating with the batching container, a flow meter disposed on the liquid inlet pipeline, a granule inlet pipeline communicating with the batching container, and a liquid level sensor disposed in the batching container for determining whether the granules entering the batching container raises the liquid level in the batching container to a set height; characterized in that the device further comprises a pure water container, a discharge pipeline respectively communicating with the storage container and the pure water container, a heating mechanism communicating with the discharge pipeline, a sterilization mechanism communicating with the discharge pipeline, and a cooling mechanism communicating with the discharge pipeline, where a medium in the discharge pipeline successively flows into the heating mechanism, the sterilization mechanism and the cooling mechanism, and finally flows into a filling equipment or flows back to the storage container or the pure water container, wherein the discharge pipeline comprises: a first switch valve for communicating the pure water container and a feed end of the discharge pipeline or communicating the storage container and a feed end of the discharge pipeline; and a second switch valve for communicating a discharge end of the discharge pipeline and the pure water container or communicating a discharge end of the discharge pipeline and the storage container; wherein the first switch valve is disposed at the feed end and the second switch valve is disposed at the discharge end. a first switch valve for communicating the pure water container and a feed end of the discharge pipeline or communicating the storage container and a feed end of the discharge pipeline; and a second switch valve for communicating a discharge end of the discharge pipeline and the pure water container or communicating a discharge end of the discharge pipeline and the storage container; wherein the first switch valve is disposed at the feed end and the second switch valve is disposed at the discharge end.
A method for split proxying Secure Socket Layer, SSL, communications across intermediaries deployed between a client and a server, the method comprising: a-1) identifying, by a first intermediary in communication with a server, a first proxy type from a plurality of proxy types, based on a client hello message of a client, wherein the identified first proxy type comprises split proxy; a) establishing, by the first intermediary, a first SSL session with the server; b) establishing, by a second intermediary in communication with one or more clients, a second SSL session with the client using SSL configuration information received from the first intermediary for configuring the second intermediary as a split proxy, the second intermediary and the first intermediary communicating via a third SSL session; c) decrypting, by the first intermediary, encrypted data received from the server using a first session key of the first SSL session; d) transmitting, by the first intermediary to the second intermediary via the third SSL session, the data encrypted using a third session key of the third SSL session; e) decrypting, by the second intermediary, the data encrypted via the third SSL session using the third session key; and f) transmitting, by the second intermediary to the client, the data encrypted using a second session key of the second SSL session. a) establishing, by the first intermediary, a first SSL session with the server; b) establishing, by a second intermediary in communication with one or more clients, a second SSL session with the client using SSL configuration information received from the first intermediary for configuring the second intermediary as a split proxy, the second intermediary and the first intermediary communicating via a third SSL session; c) decrypting, by the first intermediary, encrypted data received from the server using a first session key of the first SSL session; d) transmitting, by the first intermediary to the second intermediary via the third SSL session, the data encrypted using a third session key of the third SSL session; e) decrypting, by the second intermediary, the data encrypted via the third SSL session using the third session key; and f) transmitting, by the second intermediary to the client, the data encrypted using a second session key of the second SSL session.
A rack for a stairway guide, wherein the rack comprises a bendable strip body; characterized in that said bendable strip body comprises - a first main side and a second main side, the first main side being provided with a series of equidistant engagement elements, wherein said elements of the strip body are holes, and - two longitudinal sides, wherein the strip body comprises a series of indentations at both longitudinal sides of the strip body, wherein the indentations comprise blind ends, said blind ends being located in the longitudinal direction of the strip body halfway between two adjacent holes. - a first main side and a second main side, the first main side being provided with a series of equidistant engagement elements, wherein said elements of the strip body are holes, and - two longitudinal sides, wherein the strip body comprises a series of indentations at both longitudinal sides of the strip body, wherein the indentations comprise blind ends, said blind ends being located in the longitudinal direction of the strip body halfway between two adjacent holes.
A piston crown comprising: a face; and a piston bowl recessed within the face and having: an entry side; a bottom side opposite the entry side; a restriction between the entry side and the bottom side; a re-entrant portion at the bottom side; and an annular side surface extending between the entry side and the restriction, characterized in that the annular side surface at least partly defines a space widening in the direction of the restriction. a face; and a piston bowl recessed within the face and having: an entry side; a bottom side opposite the entry side; a restriction between the entry side and the bottom side; a re-entrant portion at the bottom side; and an annular side surface extending between the entry side and the restriction, an entry side; a bottom side opposite the entry side; a restriction between the entry side and the bottom side; a re-entrant portion at the bottom side; and an annular side surface extending between the entry side and the restriction,
An indexable cutting insert for face milling with high feed rates, comprising: an upper side, a lower side which has a smaller outer circumference than the upper side, and side surfaces connecting the upper side and the lower side, wherein, at the transition between the side surfaces and the upper side, rounded cutting corners are formed, which cutting corners are connected via convexly arched cutting edges which each run in a convexly curved manner from one cutting corner to an adjacent cutting corner, wherein, adjacent to the cutting edges, the side surfaces each have main flanks which extend along the respective cutting edge in a continuously convexly curved manner from one cutting corner to an adjacent cutting corner, wherein the side surfaces each run in an inwardly inclined manner in all regions in the direction of the lower side, and the main flanks extend in the direction of the lower side only over part of the height of the side surfaces, characterized in that in the direction of the lower side the main flanks merge in the form of a step recessed with respect to the center of the cutting insert in a stepped manner into secondary surfaces (4b, 4c) which are set back inward. an upper side, a lower side which has a smaller outer circumference than the upper side, and side surfaces connecting the upper side and the lower side, wherein, at the transition between the side surfaces and the upper side, rounded cutting corners are formed, which cutting corners are connected via convexly arched cutting edges which each run in a convexly curved manner from one cutting corner to an adjacent cutting corner, wherein, adjacent to the cutting edges, the side surfaces each have main flanks which extend along the respective cutting edge in a continuously convexly curved manner from one cutting corner to an adjacent cutting corner, wherein the side surfaces each run in an inwardly inclined manner in all regions in the direction of the lower side, and the main flanks extend in the direction of the lower side only over part of the height of the side surfaces, characterized in that in the direction of the lower side the main flanks merge in the form of a step recessed with respect to the center of the cutting insert in a stepped manner into secondary surfaces (4b, 4c) which are set back inward.
A polyacetal resin composition comprising a polyacetal resin and zinc oxide, wherein the content of oxyalkylene constituent units other than an oxymethylene group in the polyacetal resin is 0.1% by mass or more, and wherein the total surface area of the zinc oxide in the polyacetal resin composition is 0.1 to 40 m 2 per 100 g of the polyacetal resin.
A deployment system configured for controlled release of an apparatus relative to a small satellite, comprising: an electrical power source; an energy release device in communication with the power source, and including a resistive element configured to generate heat via the electrical power source; a fusible line configured to be affixed to a structural component of the satellite, wherein the fusible line is configured to be also affixed to at least one deployable apparatus secured to the satellite; wherein the fusible line is configured for contact with the energy release device, and is meltable by the heat of the resistive element, for deployment of the apparatus, wherein the energy release device is a burn bar, characterised in that the burn bar comprises: the resistive element, wherein the resistive element is a reusable resistive element having a substrate body securable to the satellite; an insulative material deposited on an outer surface of the substrate body; a layer of electroconductive material deposited over an external portion of the insulative material; wherein the fusible line comprises a monofilament or multi-strand line secured directly against the electroconductive material, wherein the electroconductive material is configured to be electrically heated to the melting point of the monofilament or the multi-strand line to cause release of the apparatus secured to the monofilament or the multi-strand line. an electrical power source; an energy release device in communication with the power source, and including a resistive element configured to generate heat via the electrical power source; a fusible line configured to be affixed to a structural component of the satellite, wherein the fusible line is configured to be also affixed to at least one deployable apparatus secured to the satellite; wherein the fusible line is configured for contact with the energy release device, and is meltable by the heat of the resistive element, for deployment of the apparatus, wherein the energy release device is a burn bar, the resistive element, wherein the resistive element is a reusable resistive element having a substrate body securable to the satellite; an insulative material deposited on an outer surface of the substrate body; a layer of electroconductive material deposited over an external portion of the insulative material; wherein the fusible line comprises a monofilament or multi-strand line secured directly against the electroconductive material, wherein the electroconductive material is configured to be electrically heated to the melting point of the monofilament or the multi-strand line to cause release of the apparatus secured to the monofilament or the multi-strand line.
A process for the production of nano-scaled graphene platelets which comprises: a) putting a graphite material in contact with molecular or atomic oxygen or a substance capable of releasing molecular or atomic oxygen, selected from the group consisting of oxygen and ozone, obtaining a precursor consisting of graphite material functionalized with oxygen groups, characterized by a carbon/oxygen molar ratio higher than 8:1 b) subsequently chemically or physically reducing said FOG precursor obtaining nano-scaled graphene platelets characterized by a carbon/oxygen molar ratio higher than 20:1; wherein the chemical reduction of the FOG precursor is effected by means of the reducing molecules or compounds: water gas, hydrogen, hydrazine; and wherein the physical reduction of the FOG precursor is effected thermally by heating up to at least 900°C with a thermal gradient of over 50°C per minute. a) putting a graphite material in contact with molecular or atomic oxygen or a substance capable of releasing molecular or atomic oxygen, selected from the group consisting of oxygen and ozone, obtaining a precursor consisting of graphite material functionalized with oxygen groups, characterized by a carbon/oxygen molar ratio higher than 8:1 b) subsequently chemically or physically reducing said FOG precursor obtaining nano-scaled graphene platelets characterized by a carbon/oxygen molar ratio higher than 20:1; wherein the chemical reduction of the FOG precursor is effected by means of the reducing molecules or compounds: water gas, hydrogen, hydrazine; and wherein the physical reduction of the FOG precursor is effected thermally by heating up to at least 900°C with a thermal gradient of over 50°C per minute.