mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing sample tubes for microbial cultures comprising: loading a plurality of sample tubes filled with culture media into at least one free standing tray ; placing said at least one free standing tray onto a slant rack , having a plurality of slant rack shelves and a back support , where each said slant rack shelf and back support are oriented at a slant angle, said slant rack shelf and back support maintaining said at least one tray and sample tubes within the tray in a position such that the culture media slants at the slant angle within said sample tubes , wherein the slant angle is measured from the sample tubes is a horizontal position; sterilizing said tray holding said plurality of sample tubes filled with culture media in a sterilizing apparatus while said tray is positioned in said slant rack at said slant angle; cooling said slant rack and tray holding said plurality of sample tubes filled with culture media and said slant rack after completion of the sterilizing step, so that the culture media solidify within said sample tubes at the slant angle; and transferring said free standing tray holding said plurality of sample tubes after the cooling step from said slant rack into shipping packages for shipment, wherein said free standing tray holding said plurality of sample tubes is ready for use by an end user. loading a plurality of sample tubes filled with culture media into at least one free standing tray ; placing said at least one free standing tray onto a slant rack , having a plurality of slant rack shelves and a back support , where each said slant rack shelf and back support are oriented at a slant angle, said slant rack shelf and back support maintaining said at least one tray and sample tubes within the tray in a position such that the culture media slants at the slant angle within said sample tubes , wherein the slant angle is measured from the sample tubes is a horizontal position; sterilizing said tray holding said plurality of sample tubes filled with culture media in a sterilizing apparatus while said tray is positioned in said slant rack at said slant angle; cooling said slant rack and tray holding said plurality of sample tubes filled with culture media and said slant rack after completion of the sterilizing step, so that the culture media solidify within said sample tubes at the slant angle; and transferring said free standing tray holding said plurality of sample tubes after the cooling step from said slant rack into shipping packages for shipment, wherein said free standing tray holding said plurality of sample tubes is ready for use by an end user.
A capacitor comprising, a flexible strip comprising a first region having a plurality of nodules and a second region having a plurality of nodules , and wherein the strip further comprises a first flexible portion which is interposed between the first and second regions (2a,b), and wherein the flexible strip is folded at the first flexible portion so that, the first and second regions (2a,b) overlay one another and the nodules of the first region extend in a direction towards the second region , and the nodules of the second region extend in a direction towards the first region , and wherein the flexible strip comprises electrically conductive material; and a flexible foil which is arranged to be interposed between the first and second regions (2a,b), and wherein the foil comprises electrically conductive material; wherein the flexible foil further comprises a plurality of depressions defined on a first surface thereof and plurality of depressions defined on a second surface thereof which is opposite to the first surface, and wherein at least a portion of each nodule is received into a respective depression .
A fast chip removal reaming screw , comprising: a screw head , comprising a top portion and a neck portion which extends from the top portion and gradually tapers towards a direction opposite to the top portion ; a rod body , extending out of the neck portion of the screw head , wherein the rod body comprises a rod body portion connected to the neck portion , a reaming portion connected to the rod body portion , and a pointed cone portion connected to an end of the reaming portion opposite to the rod body portion , the reaming portion comprises a plurality of first reaming blocks , a plurality of second reaming blocks , a plurality of third reaming blocks which are disposed in a helically staggered manner, and a plurality of chip removal paths formed between the plurality of first reaming blocks , the plurality of second reaming blocks and the plurality of third reaming blocks , the chip removal paths further comprise a first chip removal path located between any two of the plurality of first reaming blocks and a second chip removal path located between any two of the plurality of second reaming blocks ; and at least one first thread , annularly arranged on a peripheral surface of the rod body away from the pointed cone portion via the reaming portion to the rod body portion ; wherein the first chip removal path has a first width (W1) on the peripheral surface of the rod body , the second chip removal path has a second width (W2) on the peripheral surface of the rod body , and the first width (W1) and the second width (W2) are different. a screw head , comprising a top portion and a neck portion which extends from the top portion and gradually tapers towards a direction opposite to the top portion ; a rod body , extending out of the neck portion of the screw head , wherein the rod body comprises a rod body portion connected to the neck portion , a reaming portion connected to the rod body portion , and a pointed cone portion connected to an end of the reaming portion opposite to the rod body portion , the reaming portion comprises a plurality of first reaming blocks , a plurality of second reaming blocks , a plurality of third reaming blocks which are disposed in a helically staggered manner, and a plurality of chip removal paths formed between the plurality of first reaming blocks , the plurality of second reaming blocks and the plurality of third reaming blocks , the chip removal paths further comprise a first chip removal path located between any two of the plurality of first reaming blocks and a second chip removal path located between any two of the plurality of second reaming blocks ; and at least one first thread , annularly arranged on a peripheral surface of the rod body away from the pointed cone portion via the reaming portion to the rod body portion ; wherein the first chip removal path has a first width (W1) on the peripheral surface of the rod body , the second chip removal path has a second width (W2) on the peripheral surface of the rod body , and the first width (W1) and the second width (W2) are different.
A headrest for a vehicle seat , comprising: an enclosure for supporting the head of an occupant of the vehicle seat , the enclosure including one or more acoustic transducers ; and a bar for mounting the headrest on a backrest of the vehicle seat , such that the mounted headrest is movable with respect to the backrest to different positions over an adjustable range, the bar comprising: one or more wires each of which is coupled to an electrical contact at one end and one of the acoustic transducers at an opposite end, the one or more wires disposed within a hollow interior portion of the bar, and an opening disposed on a sidewall of the bar for permitting an electrical connection to be established between i) an electrical connector coupled to an external source and ii) the electrical contact coupled to the one or more wires 204, 202), the electrical connection being maintained over the adjustable range of the headrest by a mechanical bias on either the electrical connector or the electrical contact . an enclosure for supporting the head of an occupant of the vehicle seat , the enclosure including one or more acoustic transducers ; and a bar for mounting the headrest on a backrest of the vehicle seat , such that the mounted headrest is movable with respect to the backrest to different positions over an adjustable range, the bar comprising: one or more wires each of which is coupled to an electrical contact at one end and one of the acoustic transducers at an opposite end, the one or more wires disposed within a hollow interior portion of the bar, and an opening disposed on a sidewall of the bar for permitting an electrical connection to be established between i) an electrical connector coupled to an external source and ii) the electrical contact coupled to the one or more wires 204, 202), the electrical connection being maintained over the adjustable range of the headrest by a mechanical bias on either the electrical connector or the electrical contact .
A method of allowing larvae of barnacles to exhibit negative phototaxis of moving away from a light source embedded into a substrate in water, comprising the step of irradiating light comprising the spectrum of 409 to 412 nm and a part of 400 to 460 nm to the larvae in the settlement stage in a direction from the substrate to the larvae in the settlement stage, wherein the light has a peak wavelength in the range between 409 and 412 nm.
A light emitting device for a display, comprising: a first LED stack ; a second LED stack disposed under the first LED stack; a third LED stack disposed under the second LED stack; a first transparent electrode interposed between the first LED stack and the second LED stack, and being in ohmic contact with a lower surface of the first LED stack; a second transparent electrode interposed between the first LED stack and the second LED stack, and being in ohmic contact with an upper surface of the second LED stack; a third transparent electrode interposed between the second LED stack and the third LED stack, and being in ohmic contact with an upper surface of the third LED stack; an n electrode pad disposed on a first conductivity type semiconductor layer of the third LED stack; a lower p electrode pad disposed on the third transparent electrode; and bump pads disposed on the first LED stack, wherein each of the first to third LED stacks includes a first conductivity type semiconductor layer , an active layer and a second conductivity type semiconductor layer , wherein the bump pads include first to third bump pads and a common bump pad , wherein the common bump pad is commonly electrically connected to the first to third LED stacks, wherein the first to third bump pads are electrically connected to the first to third LED stacks, respectively, and wherein an upper surface of the n electrode pad is located at the same elevation as that of the lower p electrode pad. a first LED stack ; a second LED stack disposed under the first LED stack; a third LED stack disposed under the second LED stack; a first transparent electrode interposed between the first LED stack and the second LED stack, and being in ohmic contact with a lower surface of the first LED stack; a second transparent electrode interposed between the first LED stack and the second LED stack, and being in ohmic contact with an upper surface of the second LED stack; a third transparent electrode interposed between the second LED stack and the third LED stack, and being in ohmic contact with an upper surface of the third LED stack; an n electrode pad disposed on a first conductivity type semiconductor layer of the third LED stack; a lower p electrode pad disposed on the third transparent electrode; and bump pads disposed on the first LED stack, wherein each of the first to third LED stacks includes a first conductivity type semiconductor layer , an active layer and a second conductivity type semiconductor layer , wherein the bump pads include first to third bump pads and a common bump pad , wherein the common bump pad is commonly electrically connected to the first to third LED stacks, wherein the first to third bump pads are electrically connected to the first to third LED stacks, respectively, and wherein an upper surface of the n electrode pad is located at the same elevation as that of the lower p electrode pad.
A data processing method, performed by a computer device , the method comprising: determining (S201, S403), in response to a login trigger event for a target application, an environment identification parameter used for identifying a running environment of the target application; determining (S202), from an application server and according to the environment identification parameter, a login entry information set related to the target application, the login entry information set comprising login entry information corresponding to each of login platforms, the login platforms being of at least two operating systems; rendering (S203, S406) login entry options each corresponding to a respective one of the login platforms of the at least two operating systems according to the login entry information in the login entry information set; and displaying (S204, S407) rendered login entry options in a user interface . determining (S201, S403), in response to a login trigger event for a target application, an environment identification parameter used for identifying a running environment of the target application; determining (S202), from an application server and according to the environment identification parameter, a login entry information set related to the target application, the login entry information set comprising login entry information corresponding to each of login platforms, the login platforms being of at least two operating systems; rendering (S203, S406) login entry options each corresponding to a respective one of the login platforms of the at least two operating systems according to the login entry information in the login entry information set; and displaying (S204, S407) rendered login entry options in a user interface .
A method for managing a backup service gateway, SGW, (112 1 ) associated with a primary SGW (112 2 ), the method comprising: in response to a determination that the primary SGW (112 2 ) has returned to operation after failure and is a working node, synchronizing user equipment, UE, session state information of existing UE sessions between the backup (112 1 ) and primary SGWs (112 2 ) for at least those UEs previously, before failure, supported by the primary SGW (112 2 ), by: in response to a revertive action trigger, creating a handover channel between the backup (112 1 ) and primary SGWs (112 2 ) to enable a transition of UE support from the backup SGW (112 1 ) to the primary SGW (112 2 ); and generating one or more control messages adapted to reaffirm UE connectivity and session validity with the primary SGW (112 2 ); wherein said backup SGW (112 1 ) is associated with a set of local IP addresses that does not conflict with, i.e. is different to, IP addresses associated with said primary SGW (112 2 ); and said existing UE sessions migrated to said primary SGW (112 2 ) in response to the revertive action trigger comprise only those UE sessions initially associated with IP addresses, which were previously, before the failure of the primary SGW (112 2 ), supported by the primary SGW (112 2 ), and were associated with said primary SGW (112 2 ) IP addresses. in response to a determination that the primary SGW (112 2 ) has returned to operation after failure and is a working node, synchronizing user equipment, UE, session state information of existing UE sessions between the backup (112 1 ) and primary SGWs (112 2 ) for at least those UEs previously, before failure, supported by the primary SGW (112 2 ), by: in response to a revertive action trigger, creating a handover channel between the backup (112 1 ) and primary SGWs (112 2 ) to enable a transition of UE support from the backup SGW (112 1 ) to the primary SGW (112 2 ); and generating one or more control messages adapted to reaffirm UE connectivity and session validity with the primary SGW (112 2 ); in response to a revertive action trigger, creating a handover channel between the backup (112 1 ) and primary SGWs (112 2 ) to enable a transition of UE support from the backup SGW (112 1 ) to the primary SGW (112 2 ); and generating one or more control messages adapted to reaffirm UE connectivity and session validity with the primary SGW (112 2 ); wherein said backup SGW (112 1 ) is associated with a set of local IP addresses that does not conflict with, i.e. is different to, IP addresses associated with said primary SGW (112 2 ); and said existing UE sessions migrated to said primary SGW (112 2 ) in response to the revertive action trigger comprise only those UE sessions initially associated with IP addresses, which were previously, before the failure of the primary SGW (112 2 ), supported by the primary SGW (112 2 ), and were associated with said primary SGW (112 2 ) IP addresses.
A heat sink for use with a thermal pad , the heat sink comprising: a heat sink body to engage the thermal pad ; and wherein said heat sink body engages said thermal pad between said heat sink body and an electrical component; a plurality of relief holes formed within the heat sink body , wherein the plurality of relief holes receives a portion of the thermal pad to limit an applied heat sink pressure onto a component, the heat sink body includes an alignment feature to receive the thermal pad, wherein the alignment feature is a recessed portion of the heat sink body , and wherein said relief holes are configured to allow for the thermal pad to flow through the relief holes , and characterized in that a size and a quantity and a position of the plurality of relief holes corresponds to the applied heat sink pressure onto the component. a heat sink body to engage the thermal pad ; and wherein said heat sink body engages said thermal pad between said heat sink body and an electrical component; a plurality of relief holes formed within the heat sink body , wherein the plurality of relief holes receives a portion of the thermal pad to limit an applied heat sink pressure onto a component, the heat sink body includes an alignment feature to receive the thermal pad, wherein the alignment feature is a recessed portion of the heat sink body , and wherein said relief holes are configured to allow for the thermal pad to flow through the relief holes , and characterized in that a size and a quantity and a position of the plurality of relief holes corresponds to the applied heat sink pressure onto the component.
Cam follower roller device comprising a tappet body , a pin mounted into said tappet body, and a roller mounted on said pin and provided with an outer surface and with end faces axially delimiting said outer surface, at least one lubricant supply through-hole being formed into the thickness of the tappet body and extending from the outer surface to the inner surface of the tappet body, said lubricant supply through-hole locally facing an edge of the roller delimited between the outer surface and one of the end faces , characterized in that an axis of said lubricant supply through-hole is oriented towards said edge of the roller.
A calculation method carried out by a computer-comprising the steps of: acquiring first distance image information including information of a distance between a point group constituting an object and a first sensor, measured by the first sensor, and second distance image information including information of a distance between a point group constituting the object and a second sensor, measured by the second sensor; acquiring a first vector, a second vector in a different direction from the first vector, and a first translation point from the first distance image information; acquiring information of a third vector treated as a vector parallel to and in a same direction as the first vector in a real space, a fourth vector treated as a vector parallel to and in a same direction as the second vector in the real space, and a second translation point treated as a same position as the first translation point in the real space from the second distance image information; calculating a rotation angle and a translation distance for aligning the point group of the object measured by the second sensor with respect to the point group of the object measured by the first sensor on the basis of an end point of the first vector, an end point of the second vector, the first translation point, an end point of the third vector, an end point of the fourth vector, and the second translation point; and storing the rotation angle and the translation distance in a storage device. acquiring first distance image information including information of a distance between a point group constituting an object and a first sensor, measured by the first sensor, and second distance image information including information of a distance between a point group constituting the object and a second sensor, measured by the second sensor; acquiring a first vector, a second vector in a different direction from the first vector, and a first translation point from the first distance image information; acquiring information of a third vector treated as a vector parallel to and in a same direction as the first vector in a real space, a fourth vector treated as a vector parallel to and in a same direction as the second vector in the real space, and a second translation point treated as a same position as the first translation point in the real space from the second distance image information; calculating a rotation angle and a translation distance for aligning the point group of the object measured by the second sensor with respect to the point group of the object measured by the first sensor on the basis of an end point of the first vector, an end point of the second vector, the first translation point, an end point of the third vector, an end point of the fourth vector, and the second translation point; and storing the rotation angle and the translation distance in a storage device.
A cassette for arranging and loading reagent containers into a staining apparatus , the cassette including: a housing with a base and walls upstanding from the base to define a plurality of compartments (Xa-Xe), each compartment being configured for receiving a reagent container, wherein, the housing includes two portions , pivotably coupled together at respective first ends thereof, and configured to pivot between an open configuration, in which the two housing portions are oriented at generally 180 degrees relative to each other, and a closed configuration, in which the two housing portions are positioned side by side, characterized in that each portion (100; 200) of the housing in the closed configuration is receivable within a corresponding one of an adjacent pair of channels located within the staining apparatus when the cassette is loaded therewithin, and wherein, when the housing is in the closed configuration, the two housing portions are spaced apart from each other by a predetermined distance that corresponds to a spacing between the adjacent pair of channels located within the staining apparatus . a housing with a base and walls upstanding from the base to define a plurality of compartments (Xa-Xe), each compartment being configured for receiving a reagent container, wherein, the housing includes two portions , pivotably coupled together at respective first ends thereof, and configured to pivot between an open configuration, in which the two housing portions are oriented at generally 180 degrees relative to each other, and a closed configuration, in which the two housing portions are positioned side by side, characterized in that each portion (100; 200) of the housing in the closed configuration is receivable within a corresponding one of an adjacent pair of channels located within the staining apparatus when the cassette is loaded therewithin, and wherein, when the housing is in the closed configuration, the two housing portions are spaced apart from each other by a predetermined distance that corresponds to a spacing between the adjacent pair of channels located within the staining apparatus .