mhurhangee/ep-ind-claims huggingface dataset:
Filter device for the cleaning of water polluted by solid particles and/or dissolved pollutants, in particular surface water from road or roof drains, with a housing which has at least one inlet for polluted water and at least one outlet for purified water, located above the inlet, wherein there is provided in the housing, in a flow direction of the water between inlet and outlet, a filter unit through which the water to be purified flows upstream, and wherein the filter unit contains an ion exchanger which is in the form of a synthetic molecular sieve, characterised in that the synthetic molecular sieve is in the form of fill comprised of regularly shaped zeolite grains, wherein the fill has several fill layers (19a, 19b) layered one above the other in the flow direction, each having zeolite grains of a defined grain size distribution, wherein the grain size reduces in the flow direction from fill layer to fill layer.
A tubular connector for connecting tubulars of an offshore platform, the tubular connector having an axis and comprising: a pin having a bore, an axially extending cylindrical portion (1 7) and external threads; a box having a bore with internal threads that engage the external threads of the pin, the box having a rim on an end of the box; the box having a cylindrical portion opposite the rim that is of smaller outer diameter than a portion of the box containing the internal threads; a transition shoulder (61, 47) on respectively the box and pin, the transition shoulder (61, 47) being in a transition shoulder plane perpendicular to the axis and having an outer diameter that is larger than the cylindrical portion (19, 17) of respectively said box and pin adjoining the transition shoulder (61, 47); and an annular undercut recess (45, 63) located on the transition shoulder (61, 47) at a junction with the cylindrical portion (19, 17) joining the transition shoulder (61, 47), wherein, when viewed in cross-section, the undercut recess (45, 63) has an inner curved wall that is flush with the cylindrical portion (19, 17) adjoining the transition shoulder (61, 47). a pin having a bore, an axially extending cylindrical portion (1 7) and external threads; a box having a bore with internal threads that engage the external threads of the pin, the box having a rim on an end of the box; the box having a cylindrical portion opposite the rim that is of smaller outer diameter than a portion of the box containing the internal threads; a transition shoulder (61, 47) on respectively the box and pin, the transition shoulder (61, 47) being in a transition shoulder plane perpendicular to the axis and having an outer diameter that is larger than the cylindrical portion (19, 17) of respectively said box and pin adjoining the transition shoulder (61, 47); and an annular undercut recess (45, 63) located on the transition shoulder (61, 47) at a junction with the cylindrical portion (19, 17) joining the transition shoulder (61, 47), wherein, when viewed in cross-section, the undercut recess (45, 63) has an inner curved wall that is flush with the cylindrical portion (19, 17) adjoining the transition shoulder (61, 47).
System intended to be fixed under the ceiling (Pf) of a building to lay a flexible duct (Gs) under said ceiling and remove said duct, said flexible duct (Gs) being of the type comprising connectors (Cn) to suspend it, characterized in that said system comprises: - a driving unit (Bt), - a return unit (Bv), - a guiding rail (Rg) for the connectors joining the driving unit (Bt) with the return unit (Bv), the driving unit (Bt) comprising a mechanism (Mt) for driving in a loop a suspension cable (Cb) for the connectors (Cn), said mechanism (Mt) comprising a pulley for driving a first strand of said cable (Cb) through the guiding rail (Rg) to drive the connectors (Cn) therein, a driver (En) designed to turn said pulley, the return unit (Bv) comprising a pulley for returning the other strand of said cable (Cb) along said guiding rail (Rg), the cable (Cb) being provided at regular intervals with bushes, each connector (Cn) comprising a fixing means (Mf) including an attachment means intended to suspend said connector on the cable and a chocking means intended to laterally chock said connector on a corresponding bush, each connector (Cn) being provided with two lateral hooks (C11, C12) capable of being hooked onto the cable on either side of a corresponding bush. - a driving unit (Bt), - a return unit (Bv), - a guiding rail (Rg) for the connectors joining the driving unit (Bt) with the return unit (Bv),
An electrostatic latent image-developing toner comprising: a styrene-acrylic resin; an amorphous polyester resin; and a crystalline polyester resin, wherein the electrostatic latent image-developing toner shows maximum absorption peaks at least in absorption wavenumber ranges of 690 to 710 cm -1, 1190 to 1220 cm -1, and 1230 to 1300 cm -1 in an absorption spectrum measured according to the description by attenuated total reflection with a Fourier transform infrared spectrometer, and the ratio (P3/P1) of the height of the maximum absorption peak in the range of 1230 to 1300 cm -1 to the height of the maximum absorption peak in the range of 690 to 710 cm -1 is 0.02 to 6.00. a styrene-acrylic resin; an amorphous polyester resin; and a crystalline polyester resin, wherein the electrostatic latent image-developing toner shows maximum absorption peaks at least in absorption wavenumber ranges of 690 to 710 cm -1, 1190 to 1220 cm -1, and 1230 to 1300 cm -1 in an absorption spectrum measured according to the description by attenuated total reflection with a Fourier transform infrared spectrometer, and the ratio (P3/P1) of the height of the maximum absorption peak in the range of 1230 to 1300 cm -1 to the height of the maximum absorption peak in the range of 690 to 710 cm -1 is 0.02 to 6.00.
An ion source assembly, comprising: an ion source assembly housing, wherein the ion source assembly housing does not house a mass analyzer; a chromatography column arranged within the ion source assembly housing, wherein the chromatography column comprises a liquid chromatography column, a high-performance liquid chromatography (HPLC) column or an ultra-high-performance system liquid chromatography (UHPLC) column; an ion source device in fluid communication with the chromatography column, at least a portion of the ion source device arranged within the ion source assembly housing, the ion source device configured to generate ions for a mass analyzer from a separated compound solution exiting the chromatography column, the chromatography column arranged within a distance to the ion source device of less than about 150 mm; and a thermally insulating member housed in the ion source assembly housing for insulating the chromatography column; or a heater housed in the ion source assembly housing for heating the chromatography column or a mobile phase entering the chromatography column. an ion source assembly housing, wherein the ion source assembly housing does not house a mass analyzer; a chromatography column arranged within the ion source assembly housing, wherein the chromatography column comprises a liquid chromatography column, a high-performance liquid chromatography (HPLC) column or an ultra-high-performance system liquid chromatography (UHPLC) column; an ion source device in fluid communication with the chromatography column, at least a portion of the ion source device arranged within the ion source assembly housing, the ion source device configured to generate ions for a mass analyzer from a separated compound solution exiting the chromatography column, the chromatography column arranged within a distance to the ion source device of less than about 150 mm; and a thermally insulating member housed in the ion source assembly housing for insulating the chromatography column; or a heater housed in the ion source assembly housing for heating the chromatography column or a mobile phase entering the chromatography column.
A method for joining a first component (10, 51, 81a-c) and a second component (20, 82), the method comprising: forming a first bond between the first component and the second component by providing a plurality of projections on the first component and embedding the plurality of projections in the second component, wherein the plurality of projections comprises a first array of one or more projections provided on a first region (12a-d) of the first component and a second array of one or more projections provided on a second region (12a-d) of the first component; creating a fastener hole (21a-b, 53a-c) which passes through the first component and the second component and which encompasses the first array of one or more projections such that the first array of one or more projections is entirely removed by the creation of the fastener hole; and forming a second bond between the first component and the second component by installing a fastener (31, 86) in the fastener hole; the method being characterized in that: the first array of one or more projections is comprised in a subcomponent (40a-c, 83a-b); providing a plurality of projections on the first component (10, 51, 81a-c) comprises arranging the subcomponent on the first component; and the fastener hole (21a-b, 53a-c) encompasses the subcomponent, such that the subcomponent is entirely removed by the creation of the fastener hole. forming a first bond between the first component and the second component by providing a plurality of projections on the first component and embedding the plurality of projections in the second component, wherein the plurality of projections comprises a first array of one or more projections provided on a first region (12a-d) of the first component and a second array of one or more projections provided on a second region (12a-d) of the first component; creating a fastener hole (21a-b, 53a-c) which passes through the first component and the second component and which encompasses the first array of one or more projections such that the first array of one or more projections is entirely removed by the creation of the fastener hole; and forming a second bond between the first component and the second component by installing a fastener (31, 86) in the fastener hole; the method being characterized in that: the first array of one or more projections is comprised in a subcomponent (40a-c, 83a-b); providing a plurality of projections on the first component (10, 51, 81a-c) comprises arranging the subcomponent on the first component; and the fastener hole (21a-b, 53a-c) encompasses the subcomponent, such that the subcomponent is entirely removed by the creation of the fastener hole. the first array of one or more projections is comprised in a subcomponent (40a-c, 83a-b); providing a plurality of projections on the first component (10, 51, 81a-c) comprises arranging the subcomponent on the first component; and the fastener hole (21a-b, 53a-c) encompasses the subcomponent, such that the subcomponent is entirely removed by the creation of the fastener hole.
A vacuum forming method of manufacturing a product by using a vacuum forming mold including a vacuum forming product protrusion forming device, the vacuum forming product protrusion forming device comprising: a body portion fixed on one side of the vacuum forming mold; a guide portion inserted in the body portion to be movable in an up and down direction with respect to the body portion; a hinge portion connected to one side of the guide portion; and a protrusion forming portion connected to the one side of the guide portion through the hinge portion to be pivotable within an angular range around the hinge portion, wherein the body portion comprises: a coupling hole formed to be coupled to the vacuum forming mold; and a storage space formed to have a portion of the guide portion inserted therein, and in a process of separating the vacuum forming mold from the product, the protrusion forming portion pivots around the hinge portion, whereby the protrusion forming portion is removed from the protrusion formed on the product, the vacuum forming method comprising: placing fabric on the vacuum forming mold; forming the fabric by vacuum pressing a same; separating a formed product from the vacuum forming mold; and producing a plurality of products by repeating the placing of the fabric to the separating of the product from the vacuum forming mold. placing fabric on the vacuum forming mold; forming the fabric by vacuum pressing a same; separating a formed product from the vacuum forming mold; and producing a plurality of products by repeating the placing of the fabric to the separating of the product from the vacuum forming mold.
A method of providing a profile package by a profile server, the method comprising: generating (730, 1650) a profile package divided in a plurality of profile package information (621, 622, 623, 624, 625) in an installable unit, wherein each profile package information is to be installed in a universal integrated circuit card, UICC, of an electronic device independently from other profile package information; configuring (735, 1660) the profile package into a plurality of information (631, 632, 633) in an encryptable unit based on the profile package divided in the plurality of profile package information in the installable unit; generating (735, 1665) an encrypted profile package by encrypting the plurality of information in the encryptable unit; and transmitting (740, 1670) the encrypted profile package to the electronic device. generating (730, 1650) a profile package divided in a plurality of profile package information (621, 622, 623, 624, 625) in an installable unit, wherein each profile package information is to be installed in a universal integrated circuit card, UICC, of an electronic device independently from other profile package information; configuring (735, 1660) the profile package into a plurality of information (631, 632, 633) in an encryptable unit based on the profile package divided in the plurality of profile package information in the installable unit; generating (735, 1665) an encrypted profile package by encrypting the plurality of information in the encryptable unit; and transmitting (740, 1670) the encrypted profile package to the electronic device.
An interfering ribonucleic acid that functions upon uptake by an insect pest species to down-regulate expression of a target gene in said insect pest, wherein the target gene (i) is selected from the group of genes having a nucleotide sequence comprising any of SEQ ID NOs 277, 138, 253, and 152, or having a nucleotide sequence that, when the two sequences are optimally aligned and compared, is at least 85% identical to any of SEQ ID NOs 277, 138, 253, and 152, or (ii) is an insect pest orthologue of a gene having a nucleotide sequence comprising any of SEQ ID NOs 277, 138, 253, and 152, wherein the two orthologous genes are similar in sequence to such a degree that when the two genes are optimally aligned and compared, the orthologue has a sequence that is at least 85% identical to any of the sequences represented by SEQ ID NOs 277, 138, 253, and 152; wherein said interfering RNA comprises at least one silencing element, wherein the silencing element is a region of double-stranded RNA comprising annealed complementary strands, one strand of which comprises of a sequence of at least 21 nucleotides which is complementary to a target nucleotide sequence within said target gene. (i) is selected from the group of genes having a nucleotide sequence comprising any of SEQ ID NOs 277, 138, 253, and 152, or having a nucleotide sequence that, when the two sequences are optimally aligned and compared, is at least 85% identical to any of SEQ ID NOs 277, 138, 253, and 152, or (ii) is an insect pest orthologue of a gene having a nucleotide sequence comprising any of SEQ ID NOs 277, 138, 253, and 152, wherein the two orthologous genes are similar in sequence to such a degree that when the two genes are optimally aligned and compared, the orthologue has a sequence that is at least 85% identical to any of the sequences represented by SEQ ID NOs 277, 138, 253, and 152;
Connection device for powering electric equipment, said connection device comprising: - a first electric conductor configured to be electrically connected to an electric power supply, and - a second electric conductor mechanically and electrically connected to the first electric conductor and configured to be electrically connected to the electric equipment to be powered, characterized in that said connection device includes an electrically insulative mechanical retention overmolding enveloping the first electric conductor and the second electric conductor at the level of their connection. - a first electric conductor configured to be electrically connected to an electric power supply, and - a second electric conductor mechanically and electrically connected to the first electric conductor and configured to be electrically connected to the electric equipment to be powered, characterized in that said connection device includes an electrically insulative mechanical retention overmolding enveloping the first electric conductor and the second electric conductor at the level of their connection.
A method of fabricating a part based on carbon/carbon composite material, the method comprising making a preform of carbon fibers, densifying the preform with a carbon matrix, and during the fabrication process, introducing grains or particles of ceramic dispersed within the part, characterized in that, prior to completing densification, impregnation is performed using a liquid formed of a sol-gel type solution containing a precursor of a Zr-O-C system enabling, after heat treatment, one or more zirconium compounds to be dispersed in crystallite form and/or a colloidal suspension containing particles of one or more zirconium compounds, and in that the impregnation and the subsequent treatments, until the final part is obtained, are performed in such a manner as to have, in the final part, crystallites or particles representing a percentage by weight lying in the range 1% to 10% and of composition having at least a majority of the ZrO x C y type with 1 ≤ x ≤ 2 and 0 ≤ y ≤ 1.
A method of operating a medical registration system, the medical registration system comprising a robot which carries a surface point sampling device and comprising a computer connected to the robot, to obtain a registration of a 3D image of a patient with the patient by: a) acquiring the 3D image of the patient; b) acquiring an initial registration of the 3D image with the patient as the registration; c) instructing the robot to sample the spatial locations of N different points on the surface of the patient using the surface point sampling device, wherein N is a positive integer; d) updating the registration based on the spatial locations of the N sampled points; and e) repeating steps c) and d) until a predetermined exit condition is fulfilled. a) acquiring the 3D image of the patient; b) acquiring an initial registration of the 3D image with the patient as the registration; c) instructing the robot to sample the spatial locations of N different points on the surface of the patient using the surface point sampling device, wherein N is a positive integer; d) updating the registration based on the spatial locations of the N sampled points; and e) repeating steps c) and d) until a predetermined exit condition is fulfilled.
An electromagnetic sensor for detecting a microstructure of a metal target, comprising: a magnetic device (410, 420) for providing an excitation magnetic field; a magnetometer for detecting a resultant magnetic field induced in a metal target; and a calibration circuit (450, 551, 552, 553, 554) for generating a calibration magnetic field for calibrating the electromagnetic sensor, wherein the calibration magnetic field is generated by an electrical current induced in the calibration circuit by the excitation magnetic field. a magnetic device (410, 420) for providing an excitation magnetic field; a magnetometer for detecting a resultant magnetic field induced in a metal target; and a calibration circuit (450, 551, 552, 553, 554) for generating a calibration magnetic field for calibrating the electromagnetic sensor, wherein the calibration magnetic field is generated by an electrical current induced in the calibration circuit by the excitation magnetic field.
A method for controlling a smart apparatus performed on a terminal, comprising: acquiring, by the terminal via a close range wireless communication with the smart apparatus, or by scanning a two-dimensional code of the smart apparatus by the terminal, an apparatus identification of the smart apparatus from the smart apparatus, and sending an enquiry request containing the apparatus identification to a server by a terminal; receiving (102, 202, 302, 603) an enquiry response returned from the server and pushing the enquiry response to a user by the terminal, the enquiry response comprising a trigger condition group and an execution condition group corresponding to the apparatus identification; and sending (103, 203, 303, 403, 604) a control instruction to the server by the terminal, the control instruction comprising a first trigger condition and a first execution condition selected by the user according to the trigger condition group and the execution condition group, the control instruction configured to enable the server to control the smart apparatus to execute the first execution condition when the server detects that the first trigger condition is met. acquiring, by the terminal via a close range wireless communication with the smart apparatus, or by scanning a two-dimensional code of the smart apparatus by the terminal, an apparatus identification of the smart apparatus from the smart apparatus, and sending an enquiry request containing the apparatus identification to a server by a terminal; receiving (102, 202, 302, 603) an enquiry response returned from the server and pushing the enquiry response to a user by the terminal, the enquiry response comprising a trigger condition group and an execution condition group corresponding to the apparatus identification; and sending (103, 203, 303, 403, 604) a control instruction to the server by the terminal, the control instruction comprising a first trigger condition and a first execution condition selected by the user according to the trigger condition group and the execution condition group, the control instruction configured to enable the server to control the smart apparatus to execute the first execution condition when the server detects that the first trigger condition is met.
A method for handling printing material packages embodied as rolls in a roll supply system of a print shop comprising a web-fed press having at least one aggregate embodied as a roll changer for printing material delivery, wherein a printing material package is brought into a checkpoint of the printing material supply system comprising at least one storage facility (21; 26) and the at least one roll changer, upon entry into the checkpoint of the printing material supply system acquires the printing material package with respect to at least one property of characterizing data (D(14i, 18)) at an operator interface (22; 27) assigned to the entry point by actuating an operating element (36; 37; 41; 42), transmits said data via a signal path to a database system and there with respect to the relevant printing material package said data are stored together in an individualized manner with a datum individualizing the relevant printing material package in a package data record, characterized in that within the scope of a feeding of the roll changer with a printing material package coming from the checkpoint at least one datum individualizing the current printing material package is determined by an interaction with an operator with an operator interface assigned to the roll changer for printing material delivery on site and is transmitted to the database system, wherein as a consequence of the transmission of the datum relating to the current printing material package in the relevant package data record of the database system individualizing the same datum an entry relating to the status and/or location is changed.