mhurhangee/ep-ind-claims huggingface dataset:
Electronic detonator (2, 3, 4, 5, 6) with electronic delayer, comprising: - a conductive shell (21, 35, 41, 51, 62) comprising - an open end or inlet for receiving elements such as an explosive charge, and - a closed end, and - a printed circuit board comprising the electronic circuit of the delayer, the PCB being placed inside the conductive shell (21, 35, 41, 51, 62), characterized in that the electronic detonator (2, 3, 4, 5, 6) further comprises at least a resilient, compressible and conductive gasket (23, 33, 43, 53, 54, 63) - positioned by the open end in a space defined by the PCB and an inner surface of the conductive shell (21, 35, 41, 51, 62), - filling at least part of the space between the PCB and the inner surface of the conductive shell, such that protection against electromagnetic interferences is allowed and - contacting the ground connection of the PCB and the inner surface of the conductive shell such that the contact acts as connection path for grounding the PCB, allowing protection against electro-static interference. - a conductive shell (21, 35, 41, 51, 62) comprising - an open end or inlet for receiving elements such as an explosive charge, and - a closed end, and - an open end or inlet for receiving elements such as an explosive charge, and - a closed end, - a printed circuit board comprising the electronic circuit of the delayer, the PCB being placed inside the conductive shell (21, 35, 41, 51, 62), - positioned by the open end in a space defined by the PCB and an inner surface of the conductive shell (21, 35, 41, 51, 62), - filling at least part of the space between the PCB and the inner surface of the conductive shell, such that protection against electromagnetic interferences is allowed and - contacting the ground connection of the PCB and the inner surface of the conductive shell such that the contact acts as connection path for grounding the PCB, allowing protection against electro-static interference.
A wound roll of fibrous nonwoven sheet structure comprising fibrous material, the fibrous nonwoven sheet structure suitable for subsequent embossing, the sheet structure being gas permeable, and having a first surface and a second surface; the first surface being surface bonded such that the fibrous material on the first surface has been substantially consolidated and stabilized by heat and pressure, and the second surface being capable of accepting printing, wherein the second surface has a smooth surface free of any embossing; the sheet structure having a particle barrier penetration of below 10%, a Gurley Hill Porosity of 40 seconds or less, and a moisture vapor transport rate of 3500 g/m2/day or greater, measured according to the methods defined in the description. the sheet structure being gas permeable, and having a first surface and a second surface; the first surface being surface bonded such that the fibrous material on the first surface has been substantially consolidated and stabilized by heat and pressure, and the second surface being capable of accepting printing, wherein the second surface has a smooth surface free of any embossing; the sheet structure having a particle barrier penetration of below 10%, a Gurley Hill Porosity of 40 seconds or less, and a moisture vapor transport rate of 3500 g/m2/day or greater, measured according to the methods defined in the description.
A cutting tool (1, 101) with an arrangement of at least one cutting body (3, 103), with a base body (2, 102) with at least one first recess (5, 105) for receiving the cutting body (3, 103) and with a second recess (6, 106) for receiving a tensioning means (7, 107) by means of which the cutting body (3, 103) can be applied against the base body (2, 102) and/or can be secured in the base body (2, 102) in a form-fitting manner, wherein the first recess (5, 105) has opposing first guidance regions (14, 114) and second guidance regions (15, 115) which cooperate with third guidance regions (16, 116) and fourth guidance regions (17, 117) of the cutting body (3, 103), wherein the tensioning means (7, 107) has a fifth guidance region (18, 118) which cooperates with a sixth guidance region (19, 119) of the cutting body (3, 103), wherein the first recess (5, 105) and the second recess (6, 106) are arranged adjacent to one another such that the tensioning means (7, 107) is arranged adjacent to the first recess (5, 105) such that the fifth guidance region (18, 118) of the tensioning means (7, 107) is arranged adjacent to the first guidance region (14, 114) of the first recess (5, 105) and the third guidance region (16, 116) of the cutting body (3, 103) engages the first guidance region (14, 114) and the fifth guidance region (18, 118) of the tensioning means (7, 107) engages the sixth guidance region (19, 119), wherein the second recess (6, 106) is a bore and the tensioning means (7, 107) is a tensioning dummy with an enlarging radius as a function of the circumferential angle which can be inserted into the bore and twisted therein, wherein the second recess is formed as a bore with a thread, wherein the tensioning means is an approximately round tensioning dummy with a thread and with a segment section which can be screwed into the bore, wherein the radius of the tensioning dummy is not equal across the circumference, characterised in that the tensioning dummy of the cutting tool has a constant radius in the region of the thread and deviates in the circumferential direction adjacent to the thread and forms an eccentric tensioning region such that, when the tensioning dummy is twisted, the eccentric tensioning region is supported against the cutting body and thus causes a tensioning.
An audio signal processing method for suppressing a noise in a degraded audio signal comprising: recursively adapting noise information using a perturbation method; and suppressing the noise in the degraded audio signal using the noise information, wherein the recursive adaptation of the noise information is performed using one of the following equations: ν ⁢ n + 1 k = ν ⁢ n k + μ ⁢ en k ν ⁢ n k = ν ⁢ n − 1 k + μ ⁢ en k and ν ⁢ n + 1 k = ν ⁢ n k + μ ⋅ sgn en k, wherein vn(k) is the noise information for the nth frame for the frequency number k, en(k) is an error of the nth frame for the frequency number k, μ is a constant, and sgn is a signum function. recursively adapting noise information using a perturbation method; and suppressing the noise in the degraded audio signal using the noise
A method for marking a manufactured item in a batch, the manufactured item comprising a container and a removable closure for the container, the method comprising: at a production centre, filling the container and generating a unique product identifier for the container; generating a first code for marking the container; generating a second code for marking the closure; marking the container with the first code; and marking the closure with the second code, wherein the first code and the second code are different but interrelated such that at least a portion of one of the first code and the second code can be derived from the other of the first code and the second code, wherein the first code and second code are generated from the same said unique product identifier using different code generation processes or using different encryption keys in an identical code generation process, wherein both the first and second codes encode production details for the manufactured item, and wherein the production details uniquely identify the manufactured item from within the batch of manufactured items by identifying the time of production together with an incremental counter value to distinguish items produced within a single time period by the production centre. at a production centre, filling the container and generating a unique product identifier for the container; generating a first code for marking the container; generating a second code for marking the closure; marking the container with the first code; and marking the closure with the second code, wherein the first code and the second code are different but interrelated such that at least a portion of one of the first code and the second code can be derived from the other of the first code and the second code, wherein the first code and second code are generated from the same said unique product identifier using different code generation processes or using different encryption keys in an identical code generation process, wherein both the first and second codes encode production details for the manufactured item, and wherein the production details uniquely identify the manufactured item from within the batch of manufactured items by identifying the time of production together with an incremental counter value to distinguish items produced within a single time period by the production centre.
A blowoff nozzle that blows out air to a film being conveyed, the blowoff nozzle comprising an internally installed portion that is provided near a position where the air is blown out, inside the blowoff nozzle, and that has inclined surfaces (226g, 226h) inclined with respect to a virtual plane passing through an opening surface of an opening of the blowoff nozzle, the opening surface being a surface from which the air is blown out, the inclined surfaces (226g, 226h) being inclined in a manner being close to each other toward the virtual plane, characterized in that, the opening includes first to third openings (222d, 222e, 222f) that are independent from one another, and the internally installed portion comprises: a first internally installed portion provided between the first opening and the second opening, the first internally installed portion having an inclined surface that is inclined with respect to the virtual plane; and a second internally installed portion provided between the second opening and the third opening, the second internally installed portion having an inclined surface that is inclined with respect to the virtual plane. the opening includes first to third openings (222d, 222e, 222f) that are independent from one another, and the internally installed portion comprises: a first internally installed portion provided between the first opening and the second opening, the first internally installed portion having an inclined surface that is inclined with respect to the virtual plane; and a second internally installed portion provided between the second opening and the third opening, the second internally installed portion having an inclined surface that is inclined with respect to the virtual plane. a first internally installed portion provided between the first opening and the second opening, the first internally installed portion having an inclined surface that is inclined with respect to the virtual plane; and a second internally installed portion provided between the second opening and the third opening, the second internally installed portion having an inclined surface that is inclined with respect to the virtual plane.
A composition comprising a CRISPR system for use in the treatment of an HBV infection in a eukaryotic cell, wherein the CRISPR system comprises: (i) a CRISPR protein or a polynucleotide encoding a CRISPR protein, and (ii) two or more CRISPR-Cas system polynucleotide sequences, wherein each CRISPR-Cas system polynucleotide sequence comprises: (a) a guide polynucleotide capable of hybridizing to a target HBV sequence, (b) a tracr mate polynucleotide, and (c) a tracr polynucleotide, the CRISPR protein being capable of forming a CRISPR complex with the CRISPR-Cas system polynucleotide sequence, wherein each of the two or more guide polynucleotides hybridizes to a different target HBV sequence. (i) a CRISPR protein or a polynucleotide encoding a CRISPR protein, and (ii) two or more CRISPR-Cas system polynucleotide sequences, wherein each CRISPR-Cas system polynucleotide sequence comprises: (a) a guide polynucleotide capable of hybridizing to a target HBV sequence, (b) a tracr mate polynucleotide, and (c) a tracr polynucleotide, the CRISPR protein being capable of forming a CRISPR complex with the CRISPR-Cas system polynucleotide sequence, wherein each of the two or more guide polynucleotides hybridizes to a different target HBV sequence. (a) a guide polynucleotide capable of hybridizing to a target HBV sequence, (b) a tracr mate polynucleotide, and (c) a tracr polynucleotide,
A battery module, comprising: a plurality of battery cells; a cell housing configured to accommodate the plurality of battery cells; and a cover housing configured to cover an upper side of the cell housing, wherein the cover housing includes: an upper cover configured to form an upper portion of the cover housing; a lower cover bolt-coupled to the upper cover and disposed at the upper side of the cell housing; and a bus bar unit disposed between the lower cover and the upper cover, electrically connected to electrodes of the plurality of battery cells, and sealing-coupled to at least one of the upper cover and the lower cover, characterized in that the bus bar unit includes: a bus bar body having an electrode connector connected to the electrodes of the plurality of battery cells and a terminal connector connectable to an external high current terminal; and a bus bar sealing portion configured to surround rims of the bus bar body and the terminal connector and sealing-coupled to the upper cover. a plurality of battery cells; a cell housing configured to accommodate the plurality of battery cells; and a cover housing configured to cover an upper side of the cell housing, wherein the cover housing includes: an upper cover configured to form an upper portion of the cover housing; a lower cover bolt-coupled to the upper cover and disposed at the upper side of the cell housing; and a bus bar unit disposed between the lower cover and the upper cover, electrically connected to electrodes of the plurality of battery cells, and sealing-coupled to at least one of the upper cover and the lower cover, characterized in that an upper cover configured to form an upper portion of the cover housing; a lower cover bolt-coupled to the upper cover and disposed at the upper side of the cell housing; and a bus bar unit disposed between the lower cover and the upper cover, electrically connected to electrodes of the plurality of battery cells, and sealing-coupled to at least one of the upper cover and the lower cover, characterized in that the bus bar unit includes: a bus bar body having an electrode connector connected to the electrodes of the plurality of battery cells and a terminal connector connectable to an external high current terminal; and a bus bar sealing portion configured to surround rims of the bus bar body and the terminal connector and sealing-coupled to the upper cover. a bus bar body having an electrode connector connected to the electrodes of the plurality of battery cells and a terminal connector connectable to an external high current terminal; and a bus bar sealing portion configured to surround rims of the bus bar body and the terminal connector and sealing-coupled to the upper cover.
A method comprising: receiving (202, 302, 802) an image having at least one object; generating (204, 306, 804), by a computing device, at least two scale space images from the image, the computing device comprising a processor configured to cause the computing device to create the at least two scale space images, the at least two scale space images having different levels of detail; using the at least two scale space images to determine, for each pixel (406, 408) of the image, a plurality of weights; determining potential values from the plurality of weights, each potential value representing a likelihood of an associated pixel being within a boundary of the object or being outside the boundary of the object; determining a potential map from the potential values; using the potential map to identify the boundary of the object; characterised in that: determining the potential map from the potential values comprises determining a geometric mean for the potential values, the potential map comprising the geometric mean for the potential values. receiving (202, 302, 802) an image having at least one object; generating (204, 306, 804), by a computing device, at least two scale space images from the image, the computing device comprising a processor configured to cause the computing device to create the at least two scale space images, the at least two scale space images having different levels of detail; using the at least two scale space images to determine, for each pixel (406, 408) of the image, a plurality of weights; determining potential values from the plurality of weights, each potential value representing a likelihood of an associated pixel being within a boundary of the object or being outside the boundary of the object; determining a potential map from the potential values; using the potential map to identify the boundary of the object; characterised in that: determining the potential map from the potential values comprises determining a geometric mean for the potential values, the potential map comprising the geometric mean for the potential values.
A method comprising: determining a source from which routing table information is to be obtained based, at least in part, on location data indicating the source; receiving configuration information in near-field communication controller, NFCC, from a device host, DH; the method further characterised by: in response to the location data indicating that the NFCC is configured to receive the routing table information from one or more secure computing environments or from the DH, removing DH-based routing table information included in the configuration information; and obtaining secure routing table information from at least one of the one or more secure computing environments. determining a source from which routing table information is to be obtained based, at least in part, on location data indicating the source; receiving configuration information in near-field communication controller, NFCC, from a device host, DH; the method further characterised by: in response to the location data indicating that the NFCC is configured to receive the routing table information from one or more secure computing environments or from the DH, removing DH-based routing table information included in the configuration information; and obtaining secure routing table information from at least one of the one or more secure computing environments. in response to the location data indicating that the NFCC is configured to receive the routing table information from one or more secure computing environments or from the DH, removing DH-based routing table information included in the configuration information; and obtaining secure routing table information from at least one of the one or more secure computing environments.
Vehicle seat, in particular motor-vehicle seat, having a seat part, having a backrest, and having a kinematics mechanism for transferring the vehicle seat from a use position, in which the vehicle seat is suitable for transporting persons, into a not-in-use position, in particular into an access position, which facilitates access to a rear row of seats, wherein the vehicle seat is able to be transferred from the use position into the not-in-use position, and vice versa, by a drive device, wherein, for securing purposes in the use position, the vehicle seat has a rear foot with a locking device, which is able to be locked to a counterpart element, wherein the vehicle seat has a protective device, in particular a protective device arranged in the region of the locking device, for the purpose of detecting an obstruction in a movement path of the rear foot when the vehicle seat is being transferred from the not-in-use position into the use position, wherein the protective device has a panel, wherein the panel has an opening which, in the fitted state of the panel, is aligned with a receiving opening of the locking device, so that the counterpart element is able to be introduced into the receiving opening of the locking device through the opening, characterized in that a contact element is arranged on at least one edge portion of the opening, wherein the contact element is configured so as to project from an outer surface of the panel. wherein the vehicle seat has a protective device, in particular a protective device arranged in the region of the locking device, for the purpose of detecting an obstruction in a movement path of the rear foot when the vehicle seat is being transferred from the not-in-use position into the use position, wherein the protective device has a panel, wherein the panel has an opening which, in the fitted state of the panel, is aligned with a receiving opening of the locking device, so that the counterpart element is able to be introduced into the receiving opening of the locking device through the opening, characterized in that a contact element is arranged on at least one edge portion of the opening, wherein the contact element is configured so as to project from an outer surface of the panel.
A method of processing a composite structure, the method comprising: positioning a first processing-tool of a tooling assembly and a second processing-tool of the tooling assembly from an open position, in which the first processing-tool and the second processing-tool are spaced apart, to a closed position, in which the first processing-tool and the second processing-tool are sealed to each other and are sealed to a mandrel-tool, supporting the composite structure, to form a vessel that surrounds the composite structure; and processing the composite structure, wherein processing the composite structure comprises at least one of: applying pressure between a first vessel-wall of the tooling assembly and a first conformable membrane, coupled to the first vessel-wall; and applying vacuum between the mandrel-tool and the first conformable membrane; and at least one of: applying pressure between a second vessel-wall of the tooling assembly and a second conformable membrane, coupled to the second vessel-wall; and applying vacuum between the mandrel-tool and the second conformable membrane, wherein: the mandrel-tool comprises a closed cross-sectional shape; and the method further comprises pressurizing an interior volume formed by the mandrel-tool. positioning a first processing-tool of a tooling assembly and a second processing-tool of the tooling assembly from an open position, in which the first processing-tool and the second processing-tool are spaced apart, to a closed position, in which the first processing-tool and the second processing-tool are sealed to each other and are sealed to a mandrel-tool, supporting the composite structure, to form a vessel that surrounds the composite structure; and processing the composite structure, wherein processing the composite structure comprises at least one of: applying pressure between a first vessel-wall of the tooling assembly and a first conformable membrane, coupled to the first vessel-wall; and applying vacuum between the mandrel-tool and the first conformable membrane; applying pressure between a first vessel-wall of the tooling assembly and a first conformable membrane, coupled to the first vessel-wall; and applying vacuum between the mandrel-tool and the first conformable membrane; and at least one of: applying pressure between a second vessel-wall of the tooling assembly and a second conformable membrane, coupled to the second vessel-wall; and applying vacuum between the mandrel-tool and the second conformable membrane, wherein: the mandrel-tool comprises a closed cross-sectional shape; and the method further comprises pressurizing an interior volume formed by the mandrel-tool. the mandrel-tool comprises a closed cross-sectional shape; and the method further comprises pressurizing an interior volume formed by the mandrel-tool.