mhurhangee/patent-ind-claim-en huggingface dataset:
Boiler to generate steam and/or to heat water, comprising a metal container hermetically closed and provided with at least a feed aperture to introduce water inside it, said boiler comprising a heating element associated with said container , said container comprising a first shell and a second shell coupled and hermetically sealed with each other along the respective peripheral edges, wherein said boiler comprises a water discharge aperture and a discharge pipe connected to said discharge aperture , wherein the discharge aperture is disposed in correspondence with the bottom of the container , or in proximity to it, wherein said discharge pipe is disposed in the lower part of a lateral wall of the container , is inclined downward with the container located in a horizontal position, and is protruding toward the outside with respect to said lateral wall , the boiler also comprising a collection cap , associated during use with said discharge pipe , said collection cap being disposed during use completely external to and protruding from said container , said collection cap being provided internally with a cavity configured to house and retain the limescale inside it.
An automatic analyzer comprising: a mounting unit for mounting a specimen vessel (4, 13, 40a-40e) that stores a specimen to be analyzed, a first identifier (12, 41a-41e) arranged at a back position of the mounting unit, a reading unit arranged at a front position of the mounting unit and capable of reading the first identifier (12, 41a-41e), and a control unit for determining whether the specimen vessel (4, 13, 40a-40e) is mounted on the mounting unit based on whether a contrast value of the light reflected from the first identifier (12, 41a-41e) is equal to or greater than a threshold, by using a signal read by the reading unit , wherein the first identifier (12, 41a-41e) is a two-dimensional code, and the contrast value is calculated from the signals of the black part and the white part of the two-dimensional code (12, 41a-41e), characterized in that the mounting unit is suitable for mounting specimen vessel types of various heights, and a plurality of the two-dimensional codes (12, 41a-41e) are arranged at the back position of the mounting unit, and the control unit is configured to determine the type of the specimen vessel (40a-40e) based on the number of the two-dimensional codes (12, 41a-41e) read by the reading unit . a mounting unit for mounting a specimen vessel (4, 13, 40a-40e) that stores a specimen to be analyzed, a first identifier (12, 41a-41e) arranged at a back position of the mounting unit, a reading unit arranged at a front position of the mounting unit and capable of reading the first identifier (12, 41a-41e), and a control unit for determining whether the specimen vessel (4, 13, 40a-40e) is mounted on the mounting unit based on whether a contrast value of the light reflected from the first identifier (12, 41a-41e) is equal to or greater than a threshold, by using a signal read by the reading unit , wherein the first identifier (12, 41a-41e) is a two-dimensional code, and the contrast value is calculated from the signals of the black part and the white part of the two-dimensional code (12, 41a-41e), characterized in that the mounting unit is suitable for mounting specimen vessel types of various heights, and a plurality of the two-dimensional codes (12, 41a-41e) are arranged at the back position of the mounting unit, and the control unit is configured to determine the type of the specimen vessel (40a-40e) based on the number of the two-dimensional codes (12, 41a-41e) read by the reading unit .
Method to determine an operator held remote control means' position in relation to a moveable machine which is controlled by a control unit, wherein a distance determining unit determines the distance between the remote control means and an antenna arrangement located on the machine , the antenna arrangement having a first antenna and a second antenna distanced to each other, wherein the method comprises the following steps: a) the distance determining unit determines a first distance between the first antenna and the remote control means and a second distance between the second antenna and the remote control means , wherein the distance determining unit determines the remote control means position respectively operator's position based on the first and second distance , b) wherein as soon as the remote control means position violates a safety distance and hence the operator's position violates the safety distance the machine is required to stop, wherein the machine is still able to move away from the operator, c) characterized in that in step a), the distance determining unit determines the distances based on control signals which are transmitted between the machine and the remote control means for transferring control commands from the remote control means to the machine . a) the distance determining unit determines a first distance between the first antenna and the remote control means and a second distance between the second antenna and the remote control means , wherein the distance determining unit determines the remote control means position respectively operator's position based on the first and second distance , b) wherein as soon as the remote control means position violates a safety distance and hence the operator's position violates the safety distance the machine is required to stop, wherein the machine is still able to move away from the operator, c) characterized in that in step a), the distance determining unit determines the distances based on control signals which are transmitted between the machine and the remote control means for transferring control commands from the remote control means to the machine .
Catalyst comprising gold, palladium and a porous support, which is in the form of at least one grain, which is in the form of beads or extrudates, in which: - the gold content in the catalyst is between 0.5 and 3% by weight relative to the total weight of the catalyst; - the mean size of the gold particles estimated by transmission electron microscopy (TEM) is between 0.5 nm and 5 nm; - the gold is homogeneously distributed in said porous support; the gold distribution being homogeneous when the partition coefficient R is between 0.8 and 1.2; as measured by a castaing microprobe R corresponding to the following mathematical formula: R = ∫ − r r c x x 2 dx / r 2 3 ∫ − r r c x dx wherein change pour to for c ( x ) for x ∈ [- r ;+ r ] corresponds to the local concentration of element, r the radius of the bead or of the extrudant and x the position of the point of analysis along the diameter of the grain relative to the centre of this grain; at least 80% by weight of the palladium is distributed in a crust at the periphery of said porous support, the thickness of said crust being less than 300 μm; - the gold/palladium molar ratio is greater than 2. - the gold content in the catalyst is between 0.5 and 3% by weight relative to the total weight of the catalyst; - the mean size of the gold particles estimated by transmission electron microscopy (TEM) is between 0.5 nm and 5 nm; - the gold is homogeneously distributed in said porous support; the gold distribution being homogeneous when the partition coefficient R is between 0.8 and 1.2; as measured by a castaing microprobe R corresponding to the following mathematical formula: R = ∫ − r r c x x 2 dx / r 2 3 ∫ − r r c x dx wherein change pour to for c ( x ) for x ∈ [- r ;+ r ] corresponds to the local concentration of element, r the radius of the bead or of the extrudant and x the position of the point of analysis along the diameter of the grain relative to the centre of this grain; at least 80% by weight of the palladium is distributed in a crust at the periphery of said porous support, the thickness of said crust being less than 300 μm; c ( x ) for x ∈ [- r ;+ r ] corresponds to the local concentration of element, r the radius of the bead or of the extrudant and x the position of the point of analysis along the diameter of the grain relative to the centre of this grain; at least 80% by weight of the palladium is distributed in a crust at the periphery of said porous support, the thickness of said crust being less than 300 μm; - the gold/palladium molar ratio is greater than 2.
A gas shielding device adapted to be implemented during a step of welding in a controlled atmosphere of an acoustic attenuation panel , this device comprising a diffusion enclosure including inert gas injection means for injecting said gas into the enclosure and a housing formed by an orifice for receiving a welding torch throughout the enclosure , the inert gas injection means comprise an inert gas diffuser comprising a ring mounted at the periphery of, and coaxially with, said housing of the welding torch , characterized in that it further comprises a grid closing the enclosure , this grid being honeycomb-shaped with through orifices and being arranged to be placed facing the surfaces of the panel to be welded, and in that the ring of the inert gas diffuser comprises gas outlet orifices over its periphery directed towards the concavity of the enclosure opposite to the acoustic attenuation panel .
Check valve assembly for a shock absorber comprising a housing , said housing comprising a first volume , wherein a pressure P1 prevails; a second volume , wherein a pressure P2 prevails; a first housing portion (VE1), and a second housing portion (VE2); a fluid passage between said first volume and said second volume; and a spool , said spool being movably arranged in said housing between at least a first position in which a flow of fluid through said fluid passage between the first and second volume is allowed and at least a second position in which a flow of fluid through said fluid passage between the first and second volume is prevented, said spool comprising a first portion (S1) adapted to engage with said first portion (VE1) of said valve housing 10, forming a first region of engagement (RE1), and a second portion (S2) adapted to engage with said second portion (VE2) of said valve housing , forming a second region of engagement (RE2); characterised in that said first region of engagement (RE1) is arranged at a first location and said second region (RE2) is arranged at a second location, such that a first local state of fluid flow prevailing at the first region of engagement is substantially independent of a second local state of fluid flow prevailing at said second region of engagement, and wherein said first (RE1) and second (RE2) regions of engagement are physically separated. a first volume , wherein a pressure P1 prevails; a second volume , wherein a pressure P2 prevails; a first housing portion (VE1), and a second housing portion (VE2); a first portion (S1) adapted to engage with said first portion (VE1) of said valve housing 10, forming a first region of engagement (RE1), and a second portion (S2) adapted to engage with said second portion (VE2) of said valve housing , forming a second region of engagement (RE2);
An electrically and thermally conductive gasket comprising: a resilient core comprising foam, the resilient core having a plurality of sides including two opposing sides and sides connecting the two opposing sides of the plurality of sides of the resilient core; a heat spreader comprising a graphite sheet disposed along and covering all of the plurality of sides of the resilient core; and an electrically conductive layer disposed along and covering all of the plurality of sides of the heat spreader covering and disposed along all of the plurality of sides of the resilient core such that the heat spreader is between the resilient core and the electrically conductive layer; wherein the electrically conductive layer is configured to provide mechanical strength, abrasion resistance, and protection for the heat spreader covered by the electrically conductive layer, and to provide electrical conductivity and additional thermal transfer for the gasket; whereby the gasket is configured to be positioned and/or compressed between first and second surfaces of components in a device , with the two opposing sides of the gasket including the electrically conductive layer therealong respectively contacting the first and second surfaces to thereby define an electrically conductive path and a thermally conductive path between the first and second surfaces; and wherein the electrically conductive layer is configured to inhibit graphite from flaking or breaking off from the graphite sheet. a resilient core comprising foam, the resilient core having a plurality of sides including two opposing sides and sides connecting the two opposing sides of the plurality of sides of the resilient core; a heat spreader comprising a graphite sheet disposed along and covering all of the plurality of sides of the resilient core; and an electrically conductive layer disposed along and covering all of the plurality of sides of the heat spreader covering and disposed along all of the plurality of sides of the resilient core such that the heat spreader is between the resilient core and the electrically conductive layer; wherein the electrically conductive layer is configured to provide mechanical strength, abrasion resistance, and protection for the heat spreader covered by the electrically conductive layer, and to provide electrical conductivity and additional thermal transfer for the gasket; whereby the gasket is configured to be positioned and/or compressed between first and second surfaces of components in a device , with the two opposing sides of the gasket including the electrically conductive layer therealong respectively contacting the first and second surfaces to thereby define an electrically conductive path and a thermally conductive path between the first and second surfaces; and wherein the electrically conductive layer is configured to inhibit graphite from flaking or breaking off from the graphite sheet.
A method of environmental sensing for use with a) an integrated flood and temperature sensor (120; 201A, 201B; 300) comprising an enclosure enclosing therein a range tester, a plurality of retractable metal probes, a temperature sensor , and a level sensor , and b) a wireless network device remote from and being wirelessly connected to said integrated flood and temperature sensor (120; 201A, 201B; 300), the method comprising: measuring an electrical property at the floor and/or wall with two or more of the plurality of retractable metal probes; determining with the integrated flood and temperature sensor (120; 201A, 201B; 300) a presence of water on the floor and/or wall from the measured electrical property; sensing a temperature in the vicinity of said floor and/or wall with the enclosed temperature sensor; determining an orientation of the integrated flood and temperature sensor (120; 201A, 201B; 300) with respect to gravity with the level sensor to confirm that the orientation permits the plurality of retractable metal probes to make contact with the floor and/or wall; determining with the enclosed range tester if the wireless network device is in range of the range tester; establishing, by a home network manager one or more communications/links of the range tester with the wireless network; and selectively generating a signal indicative of at least one of the determined presence of water, the temperature, and the determined orientation for communication with the wireless network device based on the link. measuring an electrical property at the floor and/or wall with two or more of the plurality of retractable metal probes; determining with the integrated flood and temperature sensor (120; 201A, 201B; 300) a presence of water on the floor and/or wall from the measured electrical property; sensing a temperature in the vicinity of said floor and/or wall with the enclosed temperature sensor; determining an orientation of the integrated flood and temperature sensor (120; 201A, 201B; 300) with respect to gravity with the level sensor to confirm that the orientation permits the plurality of retractable metal probes to make contact with the floor and/or wall; determining with the enclosed range tester if the wireless network device is in range of the range tester; establishing, by a home network manager one or more communications/links of the range tester with the wireless network; and selectively generating a signal indicative of at least one of the determined presence of water, the temperature, and the determined orientation for communication with the wireless network device based on the link.
A suture needle guide tube , comprising: a tube body , for being inserted into a wound to be sutured, the tube body comprising an internal axial channel for arranging a handling tube provided with a suture arrangement member and a handling member therein, and the tube body being provided with a plurality of suture needle passing paths located in different positions for guiding a suture needle to pass therethrough; and a suture needle guide , provided with a plurality of suture needle guide channels located in different positions; wherein the suture needle guide is provided on the tube body , and each suture needle guide channel respectively communicates with a corresponding one of the plurality of suture needle passing paths so as to guide the suture needle to move out of the suture needle guide channel and then pass through the suture needle passing path to enter an inner cavity and to allow the suture needle to exit with a suture, and characterized in that : the suture needle guide is capable of being adjusted to a plurality of predetermined positions by means of axial movement along the tube body so that each of the suture needle guide channels communicates with a corresponding one of the plurality of suture needle passing paths in a corresponding one of the plurality of predetermined positions. a tube body , for being inserted into a wound to be sutured, the tube body comprising an internal axial channel for arranging a handling tube provided with a suture arrangement member and a handling member therein, and the tube body being provided with a plurality of suture needle passing paths located in different positions for guiding a suture needle to pass therethrough; and a suture needle guide , provided with a plurality of suture needle guide channels located in different positions; wherein the suture needle guide is provided on the tube body , and each suture needle guide channel respectively communicates with a corresponding one of the plurality of suture needle passing paths so as to guide the suture needle to move out of the suture needle guide channel and then pass through the suture needle passing path to enter an inner cavity and to allow the suture needle to exit with a suture, and characterized in that : the suture needle guide is capable of being adjusted to a plurality of predetermined positions by means of axial movement along the tube body so that each of the suture needle guide channels communicates with a corresponding one of the plurality of suture needle passing paths in a corresponding one of the plurality of predetermined positions.
Polyethylene composition having the following features: 1) density from 0.935 to 0.945 g/cm 3 , preferably from 0.936 to 0.943 g/cm 3 , determined according to ISO 1183 at 23°C; 2) melt flow index MIF at 190°C with a load of 21.60 kg, determined according to ISO 113, from 10 to 18 g/10 min, preferably from 12 to 18 g/10 min; 3) melt flow index MIP at 190°C with a load of 5 kg, determined according to ISO 113, from 1 to 2.5 g/10 min; 4) ratio MIF/MIP from 5 to 10, in particular from 6 to 9; 5) a ratio M w /M n , where M w is the weight average molar mass and M n is the number average molar mass, both measured by GPC (Gel Permeation Chromatography) from 5 to 8. 1) density from 0.935 to 0.945 g/cm 3 , preferably from 0.936 to 0.943 g/cm 3 , determined according to ISO 1183 at 23°C; 2) melt flow index MIF at 190°C with a load of 21.60 kg, determined according to ISO 113, from 10 to 18 g/10 min, preferably from 12 to 18 g/10 min; 3) melt flow index MIP at 190°C with a load of 5 kg, determined according to ISO 113, from 1 to 2.5 g/10 min; 4) ratio MIF/MIP from 5 to 10, in particular from 6 to 9; 5) a ratio M w /M n , where M w is the weight average molar mass and M n is the number average molar mass, both measured by GPC (Gel Permeation Chromatography) from 5 to 8.
A turbine wheel for a turbine of an exhaust gas turbocharger comprising a base body with a back wall ; and a plurality of turbine blades , connected to the base body , which each have a leading edge , wherein the leading edge is designed with a wave shape, characterized in that the leading edges each define a curve which, beginning from the back wall of the base body and with a positive direction counter to the direction of rotation of the turbine wheel, satisfies all following conditions: (i) The curve has an initial gradient; (ii) The curve has at least one extremum ; and (iii) The curve has at least one inflection point . a plurality of turbine blades , connected to the base body , which each have a leading edge , wherein the leading edge is designed with a wave shape, characterized in that the leading edges each define a curve which, beginning from the back wall of the base body and with a positive direction counter to the direction of rotation of the turbine wheel, satisfies all following conditions: (i) The curve has an initial gradient; (ii) The curve has at least one extremum ; and (iii) The curve has at least one inflection point . (i) The curve has an initial gradient; (ii) The curve has at least one extremum ; and (iii) The curve has at least one inflection point .
A user equipment location information reporting method, wherein the method comprises: receiving (S501, S703), by a user equipment, a first message, wherein the first message comprises a paging trigger indication for triggering the user equipment to report, when receiving a paging message, a measurement result of a positioning reference signal; receiving (S502, S706-2), by the user equipment in an idle state or an inactive state, the paging message; and reporting (S503, S708), by the user equipment, the measurement result of the positioning reference signal based on the received paging trigger indication and the received paging message. receiving (S501, S703), by a user equipment, a first message, wherein the first message comprises a paging trigger indication for triggering the user equipment to report, when receiving a paging message, a measurement result of a positioning reference signal; receiving (S502, S706-2), by the user equipment in an idle state or an inactive state, the paging message; and reporting (S503, S708), by the user equipment, the measurement result of the positioning reference signal based on the received paging trigger indication and the received paging message.
A turbine shroud comprising: a body having a plurality of sides , where a first lateral side is one of the plurality of sides ; a first inward facing groove defined by the first lateral side of the body ; a first seal connected to an inner surface and to the body proximate to an opening created by the first inward facing groove , the first seal covering the first inward facing groove to define a first fluid passage in the first inward facing groove along the first lateral side of the body ; and a first inlet port through the first seal , wherein the first inlet port provides fluid communication through the first seal into the first fluid passage . a body having a plurality of sides , where a first lateral side is one of the plurality of sides ; a first inward facing groove defined by the first lateral side of the body ; a first seal connected to an inner surface and to the body proximate to an opening created by the first inward facing groove , the first seal covering the first inward facing groove to define a first fluid passage in the first inward facing groove along the first lateral side of the body ; and a first inlet port through the first seal , wherein the first inlet port provides fluid communication through the first seal into the first fluid passage .