mhurhangee/ep-ind-claims huggingface dataset:
A reverse shoulder orthopaedic implant, comprising: a metaglene component having a platform with (i) a number of screw holes extending through it, and (ii) an elongated stem extending outwardly from a medial surface thereof, the elongated stem being configured to be implanted into the scapula of a patient and having a bore formed therein, a glenosphere component having a bore formed therein, and a screw cap having (i) a shaft positioned in the bore of the metaglene component, and (ii) a locking flange extending outwardly from the shaft so as to cover each of the number of screw holes of the metaglene component at least partially, characterised in that a retaining ring is secured within the bore in the glenosphere component, the screw cap being retained in the glenosphere component by means of the retaining ring. a metaglene component having a platform with (i) a number of screw holes extending through it, and (ii) an elongated stem extending outwardly from a medial surface thereof, the elongated stem being configured to be implanted into the scapula of a patient and having a bore formed therein, a glenosphere component having a bore formed therein, and a screw cap having (i) a shaft positioned in the bore of the metaglene component, and (ii) a locking flange extending outwardly from the shaft so as to cover each of the number of screw holes of the metaglene component at least partially, characterised in that a retaining ring is secured within the bore in the glenosphere component, the screw cap being retained in the glenosphere component by means of the retaining ring.
A method for maintaining a thermal camera equipped with: - a detector-cooler comprising: i. a cooling machine; ii. a cryostat; iii. an IR detector placed in the cryostat; iv. a first sensor for the temperature T D of the IR detector; - a processing card comprising means for servo-controlling the cooling machine as a function of the temperature T D; characterised in that it comprises a number of cycles, "nb-cycles", denoted "on-off" cycles, for cooling the cooling machine, with the following steps for each cycle: - computing the temperature T S inside the camera by means of a second sensor for the temperature T S inside the camera; and - computing, by the processing card, the cooling time TMF on the basis of the temperatures T D and Ts; and, on completion of said "nb-cycles" denoted "on-off" cycles: - a step of computing the following by the processing card: ○ the trend of the drift of the cooling time TMF as a function of "nb-cycles"; ○ a number of "on-off" cycles before breakdown, as a function of said trend of the drift of the TMF compared to a maximum predetermined TMF representing a breakdown; - a step of storing data used in said computations, said data being cumulative data and not the temperature measurements T D and T S or said TMF. - a detector-cooler comprising: i. a cooling machine; ii. a cryostat; iii. an IR detector placed in the cryostat; iv. a first sensor for the temperature T D of the IR detector; i. a cooling machine; ii. a cryostat; iii. an IR detector placed in the cryostat; iv. a first sensor for the temperature T D of the IR detector; - a processing card comprising means for servo-controlling the cooling machine as a function of the temperature T D; - computing the temperature T S inside the camera by means of a second sensor for the temperature T S inside the camera; and - computing, by the processing card, the cooling time TMF on the basis of the temperatures T D and Ts; - a step of computing the following by the processing card: ○ the trend of the drift of the cooling time TMF as a function of "nb-cycles"; ○ a number of "on-off" cycles before breakdown, as a function of said trend of the drift of the TMF compared to a maximum predetermined TMF representing a breakdown; ○ the trend of the drift of the cooling time TMF as a function of "nb-cycles"; ○ a number of "on-off" cycles before breakdown, as a function of said trend of the drift of the TMF compared to a maximum predetermined TMF representing a breakdown; - a step of storing data used in said computations, said data being cumulative data and not the temperature measurements T D and T S or said TMF.
A protease variant comprising an alteration in position 142 selected from the group consisting of G142*, G142C, G142S, G142A, G142E and G142T, wherein each position corresponds to SEQ ID NO: 3 and the protease variant has at least 80% sequence identity to SEQ ID NO: 3, and wherein the variant has improved wash performance on egg stains compared to the protease of SEQ ID NO: 3 or SEQ ID NO: 4 when measured as described in Example 2 herein.
A light emitting device, comprising: a first conductivity type semiconductor layer; an active layer under the first conductivity type semiconductor layer; a second conductivity type semiconductor layer under the active layer; a current blocking region under the second conductivity type semiconductor layer; a second electrode layer under the second conductivity type semiconductor layer and the current blocking region; and a first electrode layer arranged on the first conductivity type semiconductor layer, wherein the first electrode layer includes a pad unit and an electrode unit connected to the pad unit, wherein at least one part of the first electrode layer is overlapped with the current blocking region in a vertical direction, wherein the second electrode layer includes an ohmic contact layer contacted to the second conductivity type semiconductor layer, a reflection layer under the ohmic contact layer, and a conductive support substrate under the reflection layer, characterised in that the electrode unit includes a body and a protrusion arranged under the body and protruding from the body into the first conductivity type semiconductor layer, wherein the protrusion has a smaller width than that of the body, and wherein at least one part of the protrusion is overlapped with the current blocking region in a vertical direction; and the light emitting device further comprises a reflection electrode unit between the protrusion and the first conductivity type semiconductor layer. a first conductivity type semiconductor layer; an active layer under the first conductivity type semiconductor layer; a second conductivity type semiconductor layer under the active layer; a current blocking region under the second conductivity type semiconductor layer; a second electrode layer under the second conductivity type semiconductor layer and the current blocking region; and a first electrode layer arranged on the first conductivity type semiconductor layer, wherein the first electrode layer includes a pad unit and an electrode unit connected to the pad unit, wherein at least one part of the first electrode layer is overlapped with the current blocking region in a vertical direction, wherein the second electrode layer includes an ohmic contact layer contacted to the second conductivity type semiconductor layer, a reflection layer under the ohmic contact layer, and a conductive support substrate under the reflection layer, characterised in that the electrode unit includes a body and a protrusion arranged under the body and protruding from the body into the first conductivity type semiconductor layer, wherein the protrusion has a smaller width than that of the body, and wherein at least one part of the protrusion is overlapped with the current blocking region in a vertical direction; and the light emitting device further comprises a reflection electrode unit between the protrusion and the first conductivity type semiconductor layer.
A memory system circuit, comprising: a controller comprising a first (111-A) and a second (111-B) data buffer connectable to receive host data from external to the memory system; and a memory comprising a plurality (131-0, 131-1) of independently controllable non-volatile data storage sections connectable to the controller to receive data, wherein the controller is arranged to: transfer a first data set from the first data buffer (111-A) to a first of the data storage sections (131-0, 131-1); concurrently with the programming of the first data set into the first of the data storage sections (131-0, 131-1), transfer a second data set from the second data buffer (111-B) to a second of the data storage sections (131-0, 131-1); and receive into the first data buffer (111-A, 111-B), concurrently with the transferring of the second data set from the second data buffer (111-B) to the second of the data storage sections (131-0, 131-1), a third data set from external to the memory system prior to the completion of said programming of said first data set into the first of the data storage sections (131-0, 131-1). a controller comprising a first (111-A) and a second (111-B) data buffer connectable to receive host data from external to the memory system; and a memory comprising a plurality (131-0, 131-1) of independently controllable non-volatile data storage sections connectable to the controller to receive data, wherein the controller is arranged to: transfer a first data set from the first data buffer (111-A) to a first of the data storage sections (131-0, 131-1); concurrently with the programming of the first data set into the first of the data storage sections (131-0, 131-1), transfer a second data set from the second data buffer (111-B) to a second of the data storage sections (131-0, 131-1); and receive into the first data buffer (111-A, 111-B), concurrently with the transferring of the second data set from the second data buffer (111-B) to the second of the data storage sections (131-0, 131-1), a third data set from external to the memory system prior to the completion of said programming of said first data set into the first of the data storage sections (131-0, 131-1). transfer a first data set from the first data buffer (111-A) to a first of the data storage sections (131-0, 131-1); concurrently with the programming of the first data set into the first of the data storage sections (131-0, 131-1), transfer a second data set from the second data buffer (111-B) to a second of the data storage sections (131-0, 131-1); and receive into the first data buffer (111-A, 111-B), concurrently with the transferring of the second data set from the second data buffer (111-B) to the second of the data storage sections (131-0, 131-1), a third data set from external to the memory system prior to the completion of said programming of said first data set into the first of the data storage sections (131-0, 131-1).
A half mirror comprising, in sequence: a transparent substrate; an adhesive layer; and a polarized light reflecting layer, wherein the transparent substrate and the adhesive layer are in direct contact with each other, and the adhesive layer and the polarized light reflecting layer are in direct contact with each other, the half mirror has an image clarity value of 90% or more at an optical comb of 0.5 mm, an image clarity value of 70% or more at an optical comb of 0.125 mm, and a visible light reflectivity of 30% or more, the image clarity values being determined by a method for measuring image clarity in accordance with JIS K7374 in a reflectivity mode at an angle of 45° from the transparent substrate side, the transparent substrate is a glass plate, the polarized light reflecting layer has a thickness of 5.0 μm to 80 μm, the adhesive layer is a layer formed by UV-curing of a composition containing an acrylic polymer having a weight-average molecular weight of 800,000 to 2,000,000, a crosslinker, and a silane coupling agent, a total amount of the crosslinker is 1.0 mass% to 8.0 mass% of an amount of the acrylic polymer, the crosslinker includes a photo-crosslinker and a thermal crosslinker, 80 mass% or more of the crosslinker is accounted for by the photo-crosslinker, and the adhesive layer has a thickness of 3 μm to 15 μm. wherein the transparent substrate and the adhesive layer are in direct contact with each other, and the adhesive layer and the polarized light reflecting layer are in direct contact with each other, the half mirror has an image clarity value of 90% or more at an optical comb of 0.5 mm, an image clarity value of 70% or more at an optical comb of 0.125 mm, and a visible light reflectivity of 30% or more, the image clarity values being determined by a method for measuring image clarity in accordance with JIS K7374 in a reflectivity mode at an angle of 45° from the transparent substrate side, the transparent substrate is a glass plate, the polarized light reflecting layer has a thickness of 5.0 μm to 80 μm, the adhesive layer is a layer formed by UV-curing of a composition containing an acrylic polymer having a weight-average molecular weight of 800,000 to 2,000,000, a crosslinker, and a silane coupling agent, a total amount of the crosslinker is 1.0 mass% to 8.0 mass% of an amount of the acrylic polymer, the crosslinker includes a photo-crosslinker and a thermal crosslinker, 80 mass% or more of the crosslinker is accounted for by the photo-crosslinker, and the adhesive layer has a thickness of 3 μm to 15 μm.
A method for utilizing timing advance group synchronization information, the method comprising: identifying a plurality of component carriers as part of a carrier aggregation operation, the plurality of component carriers comprising one or more downlink component carriers and two or more uplink component carriers; determining a plurality of timing advance groups, wherein each component carrier in the plurality of component carriers is included in one of the timing advance groups; identifying a first timing advance group (610-b) including only secondary component carriers (630-b, 630-c) from the plurality of timing advance groups; determining a reference downlink component carrier for the first timing advance group based at least in part on a Radio Resource Control, RRC, configuration that is different from a System Information Block 2, SIB2, linkage, wherein the reference downlink component carrier is determined from a set of activated downlink component carriers; and utilizing the determined reference downlink component carrier for timing adjustment within at least the first timing advance group. identifying a plurality of component carriers as part of a carrier aggregation operation, the plurality of component carriers comprising one or more downlink component carriers and two or more uplink component carriers; determining a plurality of timing advance groups, wherein each component carrier in the plurality of component carriers is included in one of the timing advance groups; identifying a first timing advance group (610-b) including only secondary component carriers (630-b, 630-c) from the plurality of timing advance groups; determining a reference downlink component carrier for the first timing advance group based at least in part on a Radio Resource Control, RRC, configuration that is different from a System Information Block 2, SIB2, linkage, wherein the reference downlink component carrier is determined from a set of activated downlink component carriers; and utilizing the determined reference downlink component carrier for timing adjustment within at least the first timing advance group.
A base station antenna unit, comprising: a first base station antenna that comprises a first housing that includes a first radome and a top end cap; a second base station antenna that comprises a second housing that includes a second radome and a bottom end cap; a jumper cable that includes a first connector port, the jumper cable mounted in one of the top end cap or the bottom end cap, a second connector port that is configured to mate with the first connector port, the second connector port mounted in the other one of the top end cap or the bottom end cap, wherein a first longitudinal axis of the first connector port extends in a vertical direction and a second longitudinal axis of the second connector port extends in the vertical direction, and characterised in that: one of the top end cap and the bottom end cap includes a compartment that has a front wall and a pair of side walls, and wherein the jumper cable is one of a plurality of jumper cables, wherein the plurality of jumper cables are mounted in the compartment. a first base station antenna that comprises a first housing that includes a first radome and a top end cap; a second base station antenna that comprises a second housing that includes a second radome and a bottom end cap; a jumper cable that includes a first connector port, the jumper cable mounted in one of the top end cap or the bottom end cap, a second connector port that is configured to mate with the first connector port, the second connector port mounted in the other one of the top end cap or the bottom end cap, wherein a first longitudinal axis of the first connector port extends in a vertical direction and a second longitudinal axis of the second connector port extends in the vertical direction, and characterised in that: one of the top end cap and the bottom end cap includes a compartment that has a front wall and a pair of side walls, and wherein the jumper cable is one of a plurality of jumper cables, wherein the plurality of jumper cables are mounted in the compartment.
A double-pane window insulating system comprising: a double-pane window including a chamber formed between a pair of window panes, a bead inlet through which a plurality of beads and air are introduced into the chamber, a bead outlet through which the plurality of beads and the air received in the chamber are discharged, and an air entrance/exit opening through which air enters or exits the chamber; and a bead discharge means configured to discharge the plurality of beads received in the chamber to the bead outlet, characterized in that the bead discharge means further includes: a rotatable screw shaft having a helical shape and provided on the bottom of the chamber so as to be directed toward the bead outlet; and a screw shaft drive motor configured to rotate the screw shaft. a double-pane window including a chamber formed between a pair of window panes, a bead inlet through which a plurality of beads and air are introduced into the chamber, a bead outlet through which the plurality of beads and the air received in the chamber are discharged, and an air entrance/exit opening through which air enters or exits the chamber; and a bead discharge means configured to discharge the plurality of beads received in the chamber to the bead outlet, characterized in that the bead discharge means further includes: a rotatable screw shaft having a helical shape and provided on the bottom of the chamber so as to be directed toward the bead outlet; and a screw shaft drive motor configured to rotate the screw shaft. a rotatable screw shaft having a helical shape and provided on the bottom of the chamber so as to be directed toward the bead outlet; and a screw shaft drive motor configured to rotate the screw shaft.
A process for producing an electret, which comprises a step of thermally treating a composition comprising a fluorinated polymer and a silane coupling agent, wherein the fluorinated polymer has an alicyclic structure in its main chain and has a carboxy group or an alkoxycarbonyl group as its terminal group; the silane coupling agent has an amino group; and the weight average molecular weight of the fluorinated polymer is at least 200,000 and at most 850,000.
An arsenic compound As 2 O 5 for a systemic use in the treatment and/or the prevention of skin lesions associated with an autoimmune and/or inflammatory disease in a human subject, said disease being a lupus erythematosus.
An antibody or fragment thereof against human IL-4Rα comprising three heavy chain complementarily region (CDR-H1, CDR-H2 and CDR-H3) and three light chain complementary determining regions (CDR-L1, CDR-L2 and CDR-L3), wherein the amino acid sequence of CDR-H1 is set forth in SEQ ID NO: 1, the amino acid sequence of CDR-H2 is set forth in SEQ ID NO: 2, the amino acid sequence of CDR-H3 is set forth in SEQ ID NO: 3, the amino acid sequence of CDR-L1 is set forth in SEQ ID NO: 4, the amino acid sequence of CDR-L2 is set forth in SEQ ID NO: 5, and the amino acid sequence of CDR-L3 is set forth in SEQ ID NO: 6.
A coupling system (1; 100) for coupling a piece of equipment rigidly connected to a user to at least one rigging strand, the coupling system (1; 100) comprising:: - a central body having an end on the rigging strand side configured for the connection to the at least one rigging strand and an opposite end on the user side; - a fastener comprising two ends (5a, 5b), namely a first end and a second end, said fastener being configured to attach releasably to the piece of equipment rigidly connected to the user; - a shell configured to at least partially cover the side surface of the central body; and - at least one means for blocking the second end of the fastener, configured to cooperate with the shell to releasably block the second end of the fastener at the user-side end of the central body, the shell being translatable on the side surface of the central body and being connected to the central body via at least one elastic recall means, such that, in a position urged away from the elastic recall means in which the shell does not cover the at least one blocking means, the second end of the fastener is configured to be inserted in/removed from the at least one blocking means and, in a position urged alongside the elastic recall means in which the shell covers the at least one blocking means and when the second end of the fastener is arranged in the at least one blocking means, the at least one blocking means is configured to block the second end of the fastener in the coupling system, characterized in that the central body is made up of two parts (3, 4) configured to be assembled with one another via an attachment means. - a central body having an end on the rigging strand side configured for the connection to the at least one rigging strand and an opposite end on the user side; - a fastener comprising two ends (5a, 5b), namely a first end and a second end, said fastener being configured to attach releasably to the piece of equipment rigidly connected to the user; - a shell configured to at least partially cover the side surface of the central body; and - at least one means for blocking the second end of the fastener, configured to cooperate with the shell to releasably block the second end of the fastener at the user-side end of the central body,
A needle-less fluid injection mechanism, comprising: a nozzle head for accepting a dose of fluid to be injected into the skin of a patient; a plunger that is adapted to be pushed into the nozzle to inject the dose of fluid from the nozzle; a hammer that is adapted to be thrust at and to collide with said plunger to cause the release of a first amount of fluid from the nozzle at a high pressure and then to release the rest of the fluid from the nozzle by continuing to push said plunger at a lower pressure until injecting the entire dose of fluid; characterized in that the needle-less fluid injection mechanism further comprises a position motor to position said plunger before thrusting said hammer. a nozzle head for accepting a dose of fluid to be injected into the skin of a patient; a plunger that is adapted to be pushed into the nozzle to inject the dose of fluid from the nozzle; a hammer that is adapted to be thrust at and to collide with said plunger to cause the release of a first amount of fluid from the nozzle at a high pressure and then to release the rest of the fluid from the nozzle by continuing to push said plunger at a lower pressure until injecting the entire dose of fluid; characterized in that the needle-less fluid injection mechanism further comprises a position motor to position said plunger before thrusting said hammer.