mhurhangee/ep-ind-claims huggingface dataset:
A blood filtering machine comprising a blood circuit, which comprises at least one filter (3, 4; 23) and a plurality of ducts (5a-5c) made of a transparent material and designed to be flown through by organic fluids, and a measuring system comprising: at least one optical sensor (8a-8c), which comprises a reading window placed in a point of a respective duct of the plurality of ducts (5a-5c) so as to allow for the vision of the organic fluid flowing in the duct (5a-5c), a light emitter to emit light towards the duct (5a-5c) through the reading window and a light receiver to receive said light after it has gone through the duct (5a-5c); and signal acquiring and processing means to read a signal provided by the light receiver and to measure at least one intrinsic parameter of the organic fluid in the duct (5a-5c) as a function of said signal; the machine being characterized in that said at least one optical sensor comprises a plurality of optical sensors (8a-8c), each arranged on a respective duct of the plurality of ducts (5a-5c), and in that said signal acquiring and processing means comprise one single spectrometer, an optical mixer, which comprises a plurality of inputs, each connected to the light receiver of a respective one of the optical sensors (8a-8c), and an output connected to an input of the spectrometer, and a control unit, which is configured to activate the light emitter of one optical sensor (8a-8c) at a time so as to measure a parameter of one organic fluid at a time.
An apparatus for producing pseudoionone and hydroxy pseudoionone, comprising - a first vertically oriented reactor chamber arranged such that components flow through the first reactor chamber in a first flow direction, - a second vertically oriented reactor chamber in fluid communication with the first reactor chamber, and the second reactor chamber being oriented such that components flow through the second reactor chamber in a second flow direction different from the first flow direction, wherein - the first reactor chamber is configured to receive a first component feed containing a first aqueous mixture through an inlet, and to produce a second aqueous mixture by allowing to react for a reaction time the components of the first aqueous mixture and wherein - the apparatus comprises a mixing device positioned downstream of the first component feed inlet and configured to add a second component feed to the first component feed when the second aqueous mixture has formed, and - the second reactor chamber is configured to receive the first and second component feeds unified in the mixing device from the first reactor chamber and to produce a third aqueous mixture from the first and second aqueous mixtures; wherein a vertical orientation refers to the respective reactor chamber or chambers being oriented within +/-15° of being perpendicular to a ground surface on top of which the apparatus is installed. - a first vertically oriented reactor chamber arranged such that components flow through the first reactor chamber in a first flow direction, - a second vertically oriented reactor chamber in fluid communication with the first reactor chamber, and the second reactor chamber being oriented such that components flow through the second reactor chamber in a second flow direction different from the first flow direction, - the first reactor chamber is configured to receive a first component feed containing a first aqueous mixture through an inlet, and to produce a second aqueous mixture by allowing to react for a reaction time the components of the first aqueous mixture and wherein - the apparatus comprises a mixing device positioned downstream of the first component feed inlet and configured to add a second component feed to the first component feed when the second aqueous mixture has formed, and - the second reactor chamber is configured to receive the first and second component feeds unified in the mixing device from the first reactor chamber and to produce a third aqueous mixture from the first and second aqueous mixtures; wherein a vertical orientation refers to the respective reactor chamber or chambers being oriented within +/-15° of being perpendicular to a ground surface on top of which the apparatus is installed.
An impact wrench, comprising: a motor; a tool housing comprising the motor; a hammer comprising a first drive member rotatably driven by the motor; an anvil comprising a second drive member, the first drive member of the hammer periodically engaging and disengaging the second drive member of the anvil such that the first and second drive members impact against each other; an output drive rotatably driven by the anvil; a battery supplying power to the motor; and a handle comprising a switch to turn the motor on and off; characterized in that the battery is disposed between a stator of the motor and the handle; and a battery dock, for the battery, is disposed laterally within an outer boundary of a motor opening, of the tool housing, enclosing the stator. a motor; a tool housing comprising the motor; a hammer comprising a first drive member rotatably driven by the motor; an anvil comprising a second drive member, the first drive member of the hammer periodically engaging and disengaging the second drive member of the anvil such that the first and second drive members impact against each other; an output drive rotatably driven by the anvil; a battery supplying power to the motor; and a handle comprising a switch to turn the motor on and off; characterized in that the battery is disposed between a stator of the motor and the handle; and a battery dock, for the battery, is disposed laterally within an outer boundary of a motor opening, of the tool housing, enclosing the stator.
Hinge member comprising a first part provided with a hinge sphere and an attachment plate located at a distance from this sphere and a second part provided with a spherical hinge housing adapted to surround the sphere and an attachment plate located at a distance from this housing, characterised in that each part includes a bearing surface (7, 7 a; 8a) that can come into contact with a bearing surface (8a; 7, 7a) of the other part starting from a particular opening angle between the two parts, so that when these bearing surfaces are in contact the degrees of freedom of the hinge are limited.
A container (10,10') for packaging of food, such as vacuum packaging or modified atmosphere packaging, said container (10,10') comprising a bottom part defining a bottom plane, and upwardly extending side walls surrounding said bottom part, and having inner wall surfaces facing the interior of said container (10,10') and outer wall surfaces facing the outside of said container (10,10'), said upwardly extending side walls comprising, at an upper end thereof, a circumferential longitudinal rim part having a planer main surface being substantially parallel to said bottom plane, said container (10,10') being arranged with a junction between said side walls and said rim part, characterized in that a least 50% of said junction is non-parallel in relation to a longitudinal direction of said rim part, for generating an increased moment of inertia of said rim part along the longitudinal direction thereof. said upwardly extending side walls comprising, at an upper end thereof, a circumferential longitudinal rim part having a planer main surface being substantially parallel to said bottom plane, said container (10,10') being arranged with a junction between said side walls and said rim part, characterized in that a least 50% of said junction is non-parallel in relation to a longitudinal direction of said rim part, for generating an increased moment of inertia of said rim part along the longitudinal direction thereof.
An enclosure comprising: a first sensor in the enclosure controlled by a first controller that is within the first sensor or remotely located, and a refrigeration system/air conditioner and a refrigeration system/air conditioner controller controlling the refrigeration system/air conditioner; the first sensor being an ultra-wide band radar sensor, wherein the first controller monitors for cargo in the enclosure by scanning the enclosure, by the first sensor, periodically and/or in response to one or more trigger events, identifying from scanned data one or more of cargo presence, cargo type, cargo distribution and cargo quantity, the refrigeration system/air conditioner controller communicating over a network with the first sensor, characterised in that upon the first controller determining from the scanned data the one or more of the cargo presence, the cargo type, the cargo distribution and the cargo quantity, the first controller determines refrigeration/air conditioning requirements within the enclosure for the cargo, and instructs the refrigeration system/air conditioner to condition air in the enclosure, based on the determination of the refrigeration/air conditioning requirements. a first sensor in the enclosure controlled by a first controller that is within the first sensor or remotely located, and a refrigeration system/air conditioner and a refrigeration system/air conditioner controller controlling the refrigeration system/air conditioner; the first sensor being an ultra-wide band radar sensor, wherein the first controller monitors for cargo in the enclosure by scanning the enclosure, by the first sensor, periodically and/or in response to one or more trigger events, identifying from scanned data one or more of cargo presence, cargo type, cargo distribution and cargo quantity, the refrigeration system/air conditioner controller communicating over a network with the first sensor, characterised in that upon the first controller determining from the scanned data the one or more of the cargo presence, the cargo type, the cargo distribution and the cargo quantity, the first controller determines refrigeration/air conditioning requirements within the enclosure for the cargo, and instructs the refrigeration system/air conditioner to condition air in the enclosure, based on the determination of the refrigeration/air conditioning requirements.
An implant fixture made from ceramics containing zirconia, wherein: the implant fixture comprises at least a buried portion that is to be buried in a living organism; the implant fixture has monoclinic percentage of 1 volume % or less and comprises the buried portion having an arithmetic average roughness Ra of 1 to 5 μm; and the zirconia content accounts for 86 mass % or more of the total mass of the implant fixture. the implant fixture comprises at least a buried portion that is to be buried in a living organism; the implant fixture has monoclinic percentage of 1 volume % or less and comprises the buried portion having an arithmetic average roughness Ra of 1 to 5 μm; and the zirconia content accounts for 86 mass % or more of the total mass of the implant fixture.
A method comprising: applying super-heated steam across a catalyst surface within a catalyst chamber to generate ionized steam plasma; forming an anode and a cathode between molecules of the ionized steam plasma; and using the anode and the cathode to generate electricity, wherein the super-heated steam has a temperature between about 350°C and about 450°C, and wherein the catalyst surface has a configuration that comprises at least one of a sintered plug, a nanotube, a microtube, and a granular shape, and wherein high energy anisotropic magnets are arranged around the catalyst chamber to achieve a predetermined density of magnetic flux within the catalyst chamber and to create a magnetic field within the catalyst chamber. applying super-heated steam across a catalyst surface within a catalyst chamber to generate ionized steam plasma; forming an anode and a cathode between molecules of the ionized steam plasma; and using the anode and the cathode to generate electricity, wherein the super-heated steam has a temperature between about 350°C and about 450°C, and wherein the catalyst surface has a configuration that comprises at least one of a sintered plug, a nanotube, a microtube, and a granular shape, and wherein high energy anisotropic magnets are arranged around the catalyst chamber to achieve a predetermined density of magnetic flux within the catalyst chamber and to create a magnetic field within the catalyst chamber.
A method performed by a user equipment, UE for wireless communication, comprising: establishing a first access link, associated with a first subscriber identification module, SIM, of the UE, for communicating with a first base station; establishing a second access link, associated with the first SIM of the UE, for communicating with a second base station; establishing a third access link associated with a second SIM of the UE; determining a need for reduced capability on the second access link to communicate on the third access link; transmitting an indication of the need for the reduced capability to the second base station; and communicating on the third access link using the second SIM simultaneously with communicating on the second access link using the first SIM, wherein communicating on the second access link is at the reduced capability. establishing a first access link, associated with a first subscriber identification module, SIM, of the UE, for communicating with a first base station; establishing a second access link, associated with the first SIM of the UE, for communicating with a second base station; establishing a third access link associated with a second SIM of the UE; determining a need for reduced capability on the second access link to communicate on the third access link; transmitting an indication of the need for the reduced capability to the second base station; and communicating on the third access link using the second SIM simultaneously with communicating on the second access link using the first SIM, wherein communicating on the second access link is at the reduced capability.
A data carrier destruction method for the access-free rendering unreadable and destruction of confidential data carriers made from paper, confidential data carriers being collected at a collection point in secure collection containers and being picked up by means of a collection vehicle and ultimately supplied to a paper recycling plant, characterized in that the confidential data carriers, after collection in secure collection containers, are loaded by means of a loading device, which is coupled to a mobile dissolving device, into the interior of the mobile dissolving device, which is connected to the collection vehicle, in a manner which is secure and inaccessible for unauthorized persons, the confidential data carriers are mixed with a dissolving fluid there and the mixture is mixed by means of a circulating device to form a suspension made from shredded documents and dissolving fluid, wherein a hydromechanical dissolving process takes place in the mobile dissolving device before the suspension is supplied to the paper recycling plant.
Handheld power tool having at least one housing unit (12a; 12b; 12c; 12d; 12e; 12f) which has at least one housing element (14a; 14b; 14c; 14d; 14e; 14f), at least one further housing element (16a; 16b; 16c; 16d; 16e; 16f) and at least one housing connecting element (18a; 18b; 18c; 18d; 18e; 18f) which connects the housing element (14a; 14b; 14c; 14d; 14e; 14f) and the further housing element (16a; 16b; 16c; 16d; 16e; 16f) to one another, and having at least one electrical and/or electronic indication unit (20a; 20b; 20c; 20d; 20e; 20f) which has at least one circumferentially arranged indication element (22a; 22b; 22c; 22d; 22e; 22f) for indicating at least one handheld power tool characteristic variable, wherein at least the indication element (22a; 22b; 22c; 22d; 22e; 22f) is formed at least partially integrally with the housing connecting element (18a; 18b; 18c; 18d; 18e; 18f), characterized in that, viewed along a direction running at least substantially perpendicular to a connecting direction of the housing unit (12a; 12b; 12c; 12e; 12f), the indication element (22a; 22b; 22c; 22e; 22f) extends through the housing element (14a; 14b; 14c; 14e; 14f) and/or through the further housing element (16a; 16b; 16c; 16e; 16f).
A computer implemented method of stent strut detection comprising: accessing a plurality of frames of intravascular imaging data, the plurality of frames comprising optical coherency tomography scan lines; identifying a plurality of shadow regions in the plurality of frames; identifying scan lines comprising the plurality of shadow regions; analyzing the identified scan lines to determine a set of scan lines comprising scan lines corresponding to an interior of a shadow region that does not include transitionary scan lines at a margin of the shadow region, wherein the set of scan lines are candidate strut containing scan lines; and analyzing the candidate strut containing scan lines to identify a location of a stent strut. accessing a plurality of frames of intravascular imaging data, the plurality of frames comprising optical coherency tomography scan lines; identifying a plurality of shadow regions in the plurality of frames; identifying scan lines comprising the plurality of shadow regions; analyzing the identified scan lines to determine a set of scan lines comprising scan lines corresponding to an interior of a shadow region that does not include transitionary scan lines at a margin of the shadow region, wherein the set of scan lines are candidate strut containing scan lines; and analyzing the candidate strut containing scan lines to identify a location of a stent strut.
A liquid-collection canister for collecting liquid from a tissue site to which reduced pressure treatment is applied, the canister comprising: a plurality of walls forming a liquid collection chamber (206, 1224), each wall having an inner surface and an outer surface; a first wall of the plurality of walls having a first recess formed in the outer surface of the first wall; a second wall of the plurality of walls having a second recess formed in the outer surface of the second wall; a first cover disposed over the first recess to form a first space; a second cover disposed over the second recess to form a second space; a first aperture (238, 242, 246) disposed in the first wall to fluidly connect the first space and the liquid collection chamber; a second aperture (538, 542) disposed in the second wall to fluidly connect the second space and the liquid collection chamber; a first liquid-air separator positioned to substantially prevent liquid from the liquid collection chamber (206, 1224) from entering the first space through the first aperture of the first wall; a second liquid-air separator positioned to substantially prevent liquid from the liquid collection chamber (206, 1224) from entering the second space through the second aperture of the second wall; and a reduced pressure port fluidly connected to the first space and the second space. a plurality of walls forming a liquid collection chamber (206, 1224), each wall having an inner surface and an outer surface; a first wall of the plurality of walls having a first recess formed in the outer surface of the first wall; a second wall of the plurality of walls having a second recess formed in the outer surface of the second wall; a first cover disposed over the first recess to form a first space; a second cover disposed over the second recess to form a second space; a first aperture (238, 242, 246) disposed in the first wall to fluidly connect the first space and the liquid collection chamber; a second aperture (538, 542) disposed in the second wall to fluidly connect the second space and the liquid collection chamber; a first liquid-air separator positioned to substantially prevent liquid from the liquid collection chamber (206, 1224) from entering the first space through the first aperture of the first wall; a second liquid-air separator positioned to substantially prevent liquid from the liquid collection chamber (206, 1224) from entering the second space through the second aperture of the second wall; and a reduced pressure port fluidly connected to the first space and the second space.
A forming method of a cartridge electrode for a cartridge detachably mountable to an apparatus main assembly of an image forming apparatus, comprising the steps of: providing a frame for supporting process means of the cartridge for effecting image formation; providing a mold as an injection mold; forming an electrode forming portion between the frame and the mold; integrally molding said cartridge electrode with said frame by injecting, from an injection receiving portion, an electroconductive resin into the electrode forming portion such that the electroconductive resin is branched within the electrode forming portion and the cartridge electrode is molded within the electrode forming portion by the branched electroconductive resin, the cartridge electrode thus molded having a first contact portion that is exposed toward an outside of said frame and that is to contact with a main assembly contact provided in said apparatus main assembly and having a second contact portion provided for being electrically connected to the process means, said first contact portion being arranged so as not to overlap with said injection receiving portion when viewed in a direction perpendicular to a surface of said cartridge electrode on which said injection receiving portion is provided. providing a frame for supporting process means of the cartridge for effecting image formation; providing a mold as an injection mold; forming an electrode forming portion between the frame and the mold; integrally molding said cartridge electrode with said frame by injecting, from an injection receiving portion, an electroconductive resin into the electrode forming portion such that the electroconductive resin is branched within the electrode forming portion and the cartridge electrode is molded within the electrode forming portion by the branched electroconductive resin, the cartridge electrode thus molded having a first contact portion that is exposed toward an outside of said frame and that is to contact with a main assembly contact provided in said apparatus main assembly and having a second contact portion provided for being electrically connected to the process means, said first contact portion being arranged so as not to overlap with said injection receiving portion when viewed in a direction perpendicular to a surface of said cartridge electrode on which said injection receiving portion is provided.