mhurhangee/ep-ind-claims huggingface dataset:
An ostomy barrier appliance (10, 100) for attaching an ostomy appliance to a peristomal skin surrounding a stoma, the ostomy barrier appliance comprising: a skin barrier comprising an adhesive; an inlet opening defined in the skin barrier for receiving a stoma; and a convexity adjusting device arranged adjacent the skin barrier; wherein the convexity adjusting device includes a fixed insert (18, 108) and an adjustable insert (20, 110), characterized in that the convexity adjusting device is configured to adjust a convexity of the skin barrier by rotating the adjustable insert (20, 110) relative to the fixed insert (18, 108). a skin barrier comprising an adhesive; an inlet opening defined in the skin barrier for receiving a stoma; and a convexity adjusting device arranged adjacent the skin barrier; wherein the convexity adjusting device includes a fixed insert (18, 108) and an adjustable insert (20, 110), characterized in that the convexity adjusting device is configured to adjust a convexity of the skin barrier by rotating the adjustable insert (20, 110) relative to the fixed insert (18, 108).
A method of evaluating a condition of a printhead, said method comprising the steps of: (i) printing an image using the printhead; (ii) optically imaging at least part of the printed image and determining optical densities for a portion of the printed image; (iii) converting the optical densities into a one-dimensional signal; (iv) analyzing one or more portions of the signal using a convolutional neural network to generate a classification for corresponding portions of the signal; and (v) using each classification to evaluate the condition of corresponding portions of the printhead, wherein: the convolutional neural network is based on a set of training images from analyses of a plurality of printheads having a known condition; additional training images are acquired from a plurality of printers connected via a computer network; and the convolutional neural network is updated using the additional training images, thereby refining the method of evaluating the condition of the printhead. (i) printing an image using the printhead; (ii) optically imaging at least part of the printed image and determining optical densities for a portion of the printed image; (iii) converting the optical densities into a one-dimensional signal; (iv) analyzing one or more portions of the signal using a convolutional neural network to generate a classification for corresponding portions of the signal; and (v) using each classification to evaluate the condition of corresponding portions of the printhead, the convolutional neural network is based on a set of training images from analyses of a plurality of printheads having a known condition; additional training images are acquired from a plurality of printers connected via a computer network; and the convolutional neural network is updated using the additional training images, thereby refining the method of evaluating the condition of the printhead.
A slide rail assembly for mounting a chassis to a rack, comprising: a first rail defining a channel; a bracket base (26, 200) connected to the first rail; a first bracket (28, 204) adapted to be fixed to a rack and to which the bracket base (26, 200) is movably connected; and a second rail movably connected to the first rail and longitudinally displaceable relative to the first rail, wherein the first bracket (28, 204) includes an opening and an engaging member, the engaging member has an elastic arm and an engaging portion transversely connected to the elastic arm and corresponding to the opening, characterized in, that the second rail is able to drive the first rail while being displaced within the channel relative to the first rail from a retracted position to an extended position to displace the bracket base (26, 200) relative to the first bracket (28, 204) from a first position to a second position, and that the bracket base (26, 200) is fixedly connected to the first rail and includes a through hole, and when the bracket base (26, 200) is at the second position relative to the first bracket (28, 204), the engaging portion of the engaging member extends through the opening of the first bracket (28, 204) into the through hole of the bracket base (26, 200) due to an elastic force of the elastic arm and engages with the bracket base (26, 200). a first rail defining a channel; a bracket base (26, 200) connected to the first rail; a first bracket (28, 204) adapted to be fixed to a rack and to which the bracket base (26, 200) is movably connected; and a second rail movably connected to the first rail and longitudinally displaceable relative to the first rail, wherein the first bracket (28, 204) includes an opening and an engaging member, the engaging member has an elastic arm and an engaging portion transversely connected to the elastic arm and corresponding to the opening, characterized in, that the second rail is able to drive the first rail while being displaced within the channel relative to the first rail from a retracted position to an extended position to displace the bracket base (26, 200) relative to the first bracket (28, 204) from a first position to a second position, and that the bracket base (26, 200) is fixedly connected to the first rail and includes a through hole, and when the bracket base (26, 200) is at the second position relative to the first bracket (28, 204), the engaging portion of the engaging member extends through the opening of the first bracket (28, 204) into the through hole of the bracket base (26, 200) due to an elastic force of the elastic arm and engages with the bracket base (26, 200).
A packaging container (1, 201) comprising a container body (2, 202) having a bottom end (4, 204) and a top end (5, 205), said container body (2, 202) comprising a tubular container wall (3, 203) extending in a height direction of said packaging container (1, 201) from said bottom end (4, 204) to said top end (5, 205) and having an inner surface (7, 207) facing towards an interior of said container body (2, 202) and an outer surface (8, 208) facing away from said interior of said container body (2, 202), said container body comprising a body sheet material comprising a carton layer and an inner thermoplastic polymeric layer being arranged on said inner surface (7, 207) of said container body (2, 202), said packaging container (1, 201) being closed at said bottom end (4, 204), and being closed at said top end (5, 105, 205) by a top end closure comprising an openable and reclosable lid (16, 216), wherein said top end closure comprises an openable inner sealing member (33, 233) which is attached by welding to said inner surface (7, 207) of said container body (2, 202) at a distance from said top end (5, 205) of said container body (2, 202), said inner sealing member (33, 233) comprising a first laminate sealing member sheet material comprising a structural layer and a thermoplastic welding layer and a second laminate sealing member sheet material (244") comprising a metallic foil layer (244a") and a thermoplastic welding layer (244"b), said second laminate sealing member sheet material (244") being joined to said first laminate sealing member sheet material by welding, characterized in that said structural layer of said first laminate sealing member sheet material is a metallic foil layer having a thickness of from 5 micrometer to 10 micrometer, such as from 5.5 micrometer to 9 micrometer, wherein a combined basis weight of said thermoplastic welding layer of said first laminate sealing member sheet material and said thermoplastic welding layer of said laminate body sheet material is from 70 g/m 2 to 160 g/m 2, such as from 80 g/m 2 to 155 g/m 2, such as from 90 g/m 2 to 150 g/m 2, such as from 100 g/m 2 to 145 g/m 2, such as from 110 g/m 2 to 140 g/m 2.
A method for depletion of targeted sequences in a sample comprising: a. providing nucleic acids extracted from a sample, wherein the extracted nucleic acids comprise host nucleic acid sequences targeted for depletion and non-host nucleic acid sequences of interest; b. fragmenting the extracted nucleic acids; c. adapter ligating the 5' and 3' ends of the fragmented extracted nucleic acids; d. providing a plurality of guide RNA (gRNA)-Cas9 protein complexes, wherein the gRNAs are configured to hybridize to different targeted sequences; e. mixing the nucleic acids with the plurality of guide RNA (gRNA)-Cas9 protein complexes, wherein at least a portion of the guide RNA (gRNA)-Cas9 protein complexes hybridize to the targeted sequences; f. incubating the mixture to cleave the targeted sequences, wherein the targeted sequences are cleaved by the plurality of guide RNA (gRNA)-Cas9 protein complexes; and g. amplifying the fragmented extracted nucleic acid sequences that have not been cleaved, wherein the step of amplifying is performed using adapter-specific PCR. a. providing nucleic acids extracted from a sample, wherein the extracted nucleic acids comprise host nucleic acid sequences targeted for depletion and non-host nucleic acid sequences of interest; b. fragmenting the extracted nucleic acids; c. adapter ligating the 5' and 3' ends of the fragmented extracted nucleic acids; d. providing a plurality of guide RNA (gRNA)-Cas9 protein complexes, wherein the gRNAs are configured to hybridize to different targeted sequences; e. mixing the nucleic acids with the plurality of guide RNA (gRNA)-Cas9 protein complexes, wherein at least a portion of the guide RNA (gRNA)-Cas9 protein complexes hybridize to the targeted sequences; f. incubating the mixture to cleave the targeted sequences, wherein the targeted sequences are cleaved by the plurality of guide RNA (gRNA)-Cas9 protein complexes; and g. amplifying the fragmented extracted nucleic acid sequences that have not been cleaved, wherein the step of amplifying is performed using adapter-specific PCR.
A display device (100, 1000, 1100, 1200) comprising: a display area, a pixel circuit area adjacent to the display area, and a functional module area between the display area and the pixel circuit area; an inorganic insulating layer in the display area; a light phase compensation layer in the functional module area and including a same material as the inorganic insulating layer of the display area; a signal line corresponding to the light phase compensation layer, in the functional module area, and extending from the functional module area to the pixel circuit area; and an organic insulating layer facing the inorganic insulating layer, in the display area, and extending from the display area to the functional module area to face the light phase compensation layer with the signal line therebetween, wherein the light phase compensation layer compensates for the phase difference between a first light passing through a portion overlapping the signal line, and a second light passing through a portion not overlapping the signal line, wherein both the first light and second light are external light, incident to the functional module area, and wherein the signal line overlaps the light phase compensation layer. a display area, a pixel circuit area adjacent to the display area, and a functional module area between the display area and the pixel circuit area; an inorganic insulating layer in the display area; a light phase compensation layer in the functional module area and including a same material as the inorganic insulating layer of the display area; a signal line corresponding to the light phase compensation layer, in the functional module area, and extending from the functional module area to the pixel circuit area; and an organic insulating layer facing the inorganic insulating layer, in the display area, and extending from the display area to the functional module area to face the light phase compensation layer with the signal line therebetween, wherein the light phase compensation layer compensates for the phase difference between a first light passing through a portion overlapping the signal line, and a second light passing through a portion not overlapping the signal line, wherein both the first light and second light are external light, incident to the functional module area, and wherein the signal line overlaps the light phase compensation layer.
Apparatus for treating biological samples disposed on substrates, the apparatus including: an input buffer for receiving one or more substrate holders each being adapted to support a plurality of the substrates; a treatment zone including a plurality of treatment stations each being adapted to receive one of the substrates; a reagent dispenser (14, 28) configured by a controller to dispense reagents to the substrates at the treatment stations; a substrate transport device configured by the controller to transport individual substrates between the substrate holders in the input buffer and the treatment stations; characterized by a substrate identification reader for reading, when the substrate is in the input buffer, a substrate identifier borne by each substrate; and a database for storing a plurality of protocols, each protocol defining a sequence of treatment operations to be applied to one or more substrates, wherein the controller is further configured to cause the substrate transport device to group individual substrates within the treatment zone according to protocols and/or treatment operations to be applied to the substrates to efficiently treat the biological samples disposed on substrates. an input buffer for receiving one or more substrate holders each being adapted to support a plurality of the substrates; a treatment zone including a plurality of treatment stations each being adapted to receive one of the substrates; a reagent dispenser (14, 28) configured by a controller to dispense reagents to the substrates at the treatment stations; a substrate transport device configured by the controller to transport individual substrates between the substrate holders in the input buffer and the treatment stations; characterized by a substrate identification reader for reading, when the substrate is in the input buffer, a substrate identifier borne by each substrate; and a database for storing a plurality of protocols, each protocol defining a sequence of treatment operations to be applied to one or more substrates, wherein the controller is further configured to cause the substrate transport device to group individual substrates within the treatment zone according to protocols and/or treatment operations to be applied to the substrates to efficiently treat the biological samples disposed on substrates.
A device module, the device module comprising: a plastic part; a device being a sensor, an electronic component comprising an active component or a passive component, or a circuit board, the device being embedded in the plastic part; a holder (500, 500", 500"', 500"", 500""') including a base (510, 510", 510"', 510""') embedded in the plastic part; and an external connection (400, 400') being flexible and connected to the device, the external connection including: an embedded portion embedded in the plastic part, and a lead-out portion (420, 420') insertable in a housing recess of a die during manufacture of said device module, characterised in that: the holder further includes an exposed portion (520, 520", 520"', 520"", 520'"") exposed from the plastic part to one side in a thickness direction of the plastic part, and said exposed portion being adapted to close the housing recess of the die (10, 10', 20) from the other side in the thickness direction during the manufacture of said device module, the external connection is partially fixed to the holder, and the lead-out portion is led through and out of the holder to the one side in the thickness direction. a plastic part; a device being a sensor, an electronic component comprising an active component or a passive component, or a circuit board, the device being embedded in the plastic part; a holder (500, 500", 500"', 500"", 500""') including a base (510, 510", 510"', 510""') embedded in the plastic part; and an external connection (400, 400') being flexible and connected to the device, the external connection including: an embedded portion embedded in the plastic part, and a lead-out portion (420, 420') insertable in a housing recess of a die during manufacture of said device module, an embedded portion embedded in the plastic part, and a lead-out portion (420, 420') insertable in a housing recess of a die during manufacture of said device module, the holder further includes an exposed portion (520, 520", 520"', 520"", 520'"") exposed from the plastic part to one side in a thickness direction of the plastic part, and said exposed portion being adapted to close the housing recess of the die (10, 10', 20) from the other side in the thickness direction during the manufacture of said device module, the external connection is partially fixed to the holder, and the lead-out portion is led through and out of the holder to the one side in the thickness direction.
An insert device for a destination part made of molded or thermoformed synthetic material, comprising an insert, of the attachment insert type or the like, comprising a base in the form of a synthetic material pad overmolded onto the insert, said base comprising at least one application face provided, projecting therefrom, with a protuberance of smaller general cross-section than that of said base, characterized in that the protuberance has a polygonal cross-section, at least one side of which defines a bearing facet designed, in cooperation with a suitable bearing facet of an opening or recess in a destination part, to define means for indexing and rotationally locking the insert device relative to said part.
Micro-machined vapor cell comprising: - a central silicon element forming a cavity containing vapor cell reactants such as alkali metal or alkali metal azide, buffer gas(es), and/or anti relaxation coating(s), - a first and a second glass caps sealing the cavity, and - a solenoid arranged to provide a homogeneous magnetic field to said vapor cell characterized in that the solenoid is coiled directly on the central silicon element, which forms the core of the solenoid; the first and second glass caps define banking means to keep the solenoid coiled on the central silicon element. - a central silicon element forming a cavity containing vapor cell reactants such as alkali metal or alkali metal azide, buffer gas(es), and/or anti relaxation coating(s), - a first and a second glass caps sealing the cavity, and - a solenoid arranged to provide a homogeneous magnetic field to said vapor cell characterized in that
An optical device exhibiting a shift of color upon rotation, comprising: a substrate (30, 61, 71, 161) having an array of structures (32, 42, 72) disposed thereon or therein, wherein each of the structures of the substrate has first and second surfaces having a line of mutual intersection forming a non-zero angle with a plane of the substrate, wherein the first and the second surfaces each have a width and a length larger than 2 microns, and/or wherein the width and the length of the first and the second surfaces are large enough, so that substantially no diffraction of visible light occurs; the optical device being characterized in that it comprises a color shifting coating (64, 162, 222) supported by the substrate (30, 61, 71, 161) and forming a color shifting reflector therewith; whereby the shift of color of the optical device is observable by rotating the optical device in the plane of the substrate. a substrate (30, 61, 71, 161) having an array of structures (32, 42, 72) disposed thereon or therein, wherein each of the structures of the substrate has first and second surfaces having a line of mutual intersection forming a non-zero angle with a plane of the substrate, wherein the first and the second surfaces each have a width and a length larger than 2 microns, and/or wherein the width and the length of the first and the second surfaces are large enough, so that substantially no diffraction of visible light occurs; the optical device being characterized in that it comprises a color shifting coating (64, 162, 222) supported by the substrate (30, 61, 71, 161) and forming a color shifting reflector therewith; whereby the shift of color of the optical device is observable by rotating the optical device in the plane of the substrate.
An apparatus comprising: a drainage tube having a first end that connects to a structure on a mobile platform and a second end opposite the first end; a housing that connects to the structure, wherein the drainage tube is located within the housing; a plurality of inlet holes in the housing though which air flows into the housing during movement of the mobile platform, wherein the plurality of inlet holes is located on a leading edge of the housing; and a number of outlet holes in the housing through which the air flows out of the housing during the movement of the mobile platform, wherein the air flowing into the housing through the plurality of inlet holes and out of the housing through the number of outlet holes directs fluid out of the drainage tube and away from the structure during the movement of the mobile platform. a drainage tube having a first end that connects to a structure on a mobile platform and a second end opposite the first end; a housing that connects to the structure, wherein the drainage tube is located within the housing; a plurality of inlet holes in the housing though which air flows into the housing during movement of the mobile platform, wherein the plurality of inlet holes is located on a leading edge of the housing; and a number of outlet holes in the housing through which the air flows out of the housing during the movement of the mobile platform, wherein the air flowing into the housing through the plurality of inlet holes and out of the housing through the number of outlet holes directs fluid out of the drainage tube and away from the structure during the movement of the mobile platform.
A method of wireless communication, the method comprising: determining, by user equipment, UE, that a received unicast signal has improved coverage compared to a received broadcast signal, said determining being based on at least one of: a channel quality measurement of the unicast signal and the broadcast signal, a channel strength measurement of the unicast signal and the broadcast signal, a signal loss measurement of the unicast signal and the broadcast signal, a quality of service measurement of the unicast signal and the broadcast signal, an interference measurement of the unicast signal and the broadcast signal; and transmitting, by the UE and based at least in part on the determination, a request for an update to a master information block, MIB, or a minimum system information block, MSIB, to be provided to the UE using the unicast signal. determining, by user equipment, UE, that a received unicast signal has improved coverage compared to a received broadcast signal, said determining being based on at least one of: a channel quality measurement of the unicast signal and the broadcast signal, a channel strength measurement of the unicast signal and the broadcast signal, a signal loss measurement of the unicast signal and the broadcast signal, a quality of service measurement of the unicast signal and the broadcast signal, an interference measurement of the unicast signal and the broadcast signal; and transmitting, by the UE and based at least in part on the determination, a request for an update to a master information block, MIB, or a minimum system information block, MSIB, to be provided to the UE using the unicast signal.