mhurhangee/patent-ind-claim-en huggingface dataset:
An adaptor for connecting a drill bit to a hollow shank of a self-drilling rock bolt, the adaptor including a body which extends in an axial direction between a distal end and a proximal end , a tubular conduit which extends between the ends , an abutment surface formed in an outer surface of the body that divides the body into a proximal portion and a distal portion , wherein at least a part of the proximal portion includes a first taper which tapers towards the proximal end , wherein at least a part of the distal portion includes a second taper which tapers towards the distal end , and wherein the first taper and the second taper are adapted for friction fit in a bore of the shank and a recess in the drill bit respectively.
Sliding door system having a frame which accommodates several sliding door elements which can be moved horizontally along the frame , wherein the sliding door elements have at the top and/or at the bottom bearings, in particular track rollers and/or sliders, by means of which they are movably supported in an upper guide rail and/or in a lower guide rail of the frame and wherein the frame has at least one damper arrangement which damps and limits the movement of a sliding door element in the direction towards an end position of the sliding door element , wherein the damper arrangement has an entrainment member which protrudes into the path of movement of the sliding door element and is positioned such as to come into engagement with the sliding door element , and wherein the damper arrangement is mounted in a spring-elastic manner on the frame , characterised in that the damper arrangement is arranged on a rail , wherein the rail is suspended by means of two springs in a spring-elastic manner on the frame , wherein a first end of the rail is fixed indirectly or directly in a spring-elastic manner to the frame and a second end of the rail is coupled indirectly or directly in a spring-elastic manner with the frame , wherein the damper arrangement as a whole can be moved in a vertical direction upwardly on the frame by compressing the two springs .
A double rustproof PC strand being of a seven-wire strand comprising one core wire and six surrounding wires twisted around the core wire , each of the core wire and the surrounding wires having a plated layer formed by a plating step carried out between a first drawing step and a second drawing step , the core wire and the surrounding wires , each including the plated layer , have diameters respectively according to a condition (A), (B) or (C): (A) diameter of the core wire : 4.42 ± 0.05 mm, diameter of the surrounding wire : 4.25 ± 0.05 mm, (B) diameter of the core wire : 5.22 ± 0.05 mm, diameter of the surrounding wire : 5.06 ± 0.05 mm, or (C) diameter of the core wire : 5.40 ± 0.05 mm, diameter of the surrounding wire : 5.25 ± 0.05 mm; the PC strand formed with a synthetic resin coating on an outer peripheral surface thereof and filling gaps (a) between the respective plated wires , and the PC strand has a tensile strength of 1850 N/mm 2 or higher. (A) diameter of the core wire : 4.42 ± 0.05 mm, diameter of the surrounding wire : 4.25 ± 0.05 mm, (B) diameter of the core wire : 5.22 ± 0.05 mm, diameter of the surrounding wire : 5.06 ± 0.05 mm, or (C) diameter of the core wire : 5.40 ± 0.05 mm, diameter of the surrounding wire : 5.25 ± 0.05 mm;
Network comprising a plurality of voice terminals , each voice terminal comprising: at least a first microphone ; and at least a second microphone designed to detect an ambient sound level, at least a first loudspeaker and an echo path amplifier having an input and an output , the first microphone being connected to the input of the echo path amplifier , and the first loudspeaker being connected to the output of the echo path amplifier , the echo path amplifier having a variable gain, characterized in that each voice terminal further contains at least one gain determining device designed to vary the variable gain of the echo path amplifier depending on an ambient sound level, and wherein the network at least temporarily contains at least one active voice terminal of the plurality of voice terminals and at least one passive voice terminal of the plurality of voice terminals , the active voice terminal being designed to vary the variable gain of the echo path amplifier depending on the ambient sound level of the at least one passive voice terminal , and the passive voice terminal being designed to detect the ambient sound level with at least the second microphone . at least a first microphone ; and at least a second microphone designed to detect an ambient sound level, at least a first loudspeaker and an echo path amplifier having an input and an output , the first microphone being connected to the input of the echo path amplifier , and the first loudspeaker being connected to the output of the echo path amplifier , the echo path amplifier having a variable gain, characterized in that each voice terminal further contains at least one gain determining device designed to vary the variable gain of the echo path amplifier depending on an ambient sound level, and wherein the network at least temporarily contains at least one active voice terminal of the plurality of voice terminals and at least one passive voice terminal of the plurality of voice terminals , the active voice terminal being designed to vary the variable gain of the echo path amplifier depending on the ambient sound level of the at least one passive voice terminal , and the passive voice terminal being designed to detect the ambient sound level with at least the second microphone .
A compression garment comprising: an inflatable bladder having an inner surface , an outer surface substantially opposite the inner surface, and opposing side edges extending longitudinally along a length of the bladder, at least a portion of the bladder defining a compression region expandable to apply pressure to a portion of a wearer's body; characterised in that the compression garment further comprises: a non-wicking material welded to the opposing side edges of the bladder so that the non-wicking material extends laterally away from the side edges of the bladder, the non-wicking material having an inner surface and an outer surface substantially opposite the inner surface; and a wicking material disposed on the inner surface of the non-wicking material for wicking fluid away from the portion of the wearer's body. a non-wicking material welded to the opposing side edges of the bladder so that the non-wicking material extends laterally away from the side edges of the bladder, the non-wicking material having an inner surface and an outer surface substantially opposite the inner surface; and a wicking material disposed on the inner surface of the non-wicking material for wicking fluid away from the portion of the wearer's body.
An electronic device comprising: a conductive member surrounding a side surface of the electronic device; and a first nonconductive member extending in a direction parallel to a front surface and a rear surface of the electronic device and partitioning the conductive member, wherein the partitioned conductive member is configured to be utilized as a plurality of separate antennas; wherein the conductive member is partitioned into a first radiator part that is adjacent to the front surface of the electronic device and a second radiator part that is adjacent to the rear surface of the electronic device, the first radiator part and the second radiator part being parallel to the front surface and extending parallel to each other, wherein the first nonconductive member is separated from the front surface and the rear surface of the electronic device. a conductive member surrounding a side surface of the electronic device; and a first nonconductive member extending in a direction parallel to a front surface and a rear surface of the electronic device and partitioning the conductive member, wherein the partitioned conductive member is configured to be utilized as a plurality of separate antennas; wherein the conductive member is partitioned into a first radiator part that is adjacent to the front surface of the electronic device and a second radiator part that is adjacent to the rear surface of the electronic device, the first radiator part and the second radiator part being parallel to the front surface and extending parallel to each other, wherein the first nonconductive member is separated from the front surface and the rear surface of the electronic device.
An elevator inspection system , comprising: a sensor implement ; a robotic platform , which is portable, supporting the sensor implement , the robotic platform configured for inspecting and performing maintenance in a hoistway ; a controller operationally connected to the robotic platform and the sensor implement , wherein the controller is configured to: control movement of the robotic platform within a hoistway ; and inspect one or more components in the hoistway to determine, from sensor data compared with hoistway model data, that an operational parameter or an alignment of the one or more components is outside predetermined positioning and operating tolerances. a sensor implement ; a robotic platform , which is portable, supporting the sensor implement , the robotic platform configured for inspecting and performing maintenance in a hoistway ; a controller operationally connected to the robotic platform and the sensor implement , wherein the controller is configured to: control movement of the robotic platform within a hoistway ; and inspect one or more components in the hoistway to determine, from sensor data compared with hoistway model data, that an operational parameter or an alignment of the one or more components is outside predetermined positioning and operating tolerances. control movement of the robotic platform within a hoistway ; and inspect one or more components in the hoistway to determine, from sensor data compared with hoistway model data, that an operational parameter or an alignment of the one or more components is outside predetermined positioning and operating tolerances.
A decontamination device adapted to decontaminate a device used to culture cells, manipulate microorganisms, or perform a sterility test, the decontamination device comprising: an ultrasonic atomizer for being placed in the interior of the device used to culture cells, manipulate microorganisms, or perform a sterility test for atomizing a peracetic acid disinfectant by using ultrasonic oscillation to discharge droplets; a diffusion fan diffusing the droplets in the device used to culture cells, manipulate microorganisms, or perform a sterility test; a temperature-humidity sensor for being placed in the interior of the device used to culture cells, manipulate microorganisms, or perform a sterility test for measuring temperature and humidity in the device used to culture cells, manipulate microorganisms, or perform a sterility test; and a controller electrically connected to the ultrasonic atomizer, the diffusion fan, and the temperature-humidity sensor, wherein the device used to culture cells, manipulate microorganisms, or perform a sterility test is a CO 2 incubator, a safety cabinet, a pass box, a clean bench, a temperature controlling device, or a centrifugal separator. an ultrasonic atomizer for being placed in the interior of the device used to culture cells, manipulate microorganisms, or perform a sterility test for atomizing a peracetic acid disinfectant by using ultrasonic oscillation to discharge droplets; a diffusion fan diffusing the droplets in the device used to culture cells, manipulate microorganisms, or perform a sterility test; a temperature-humidity sensor for being placed in the interior of the device used to culture cells, manipulate microorganisms, or perform a sterility test for measuring temperature and humidity in the device used to culture cells, manipulate microorganisms, or perform a sterility test; and a controller electrically connected to the ultrasonic atomizer, the diffusion fan, and the temperature-humidity sensor, wherein the device used to culture cells, manipulate microorganisms, or perform a sterility test is a CO 2 incubator, a safety cabinet, a pass box, a clean bench, a temperature controlling device, or a centrifugal separator.
A method for managing a Media Access Control, MAC, address in a forwarding database, the method comprising: assigning (S301) a priority to the MAC address; and performing a forwarding database learning process with respect to the MAC address based on the priority, wherein the forwarding database includes at least one of the following three types of MAC address: the MAC address assigned with the priority, a static MAC address and a dynamic MAC address, and characterized in that during the forwarding database learning process: if the forwarding database is full, the MAC address assigned with the priority overwrites (S421) a dynamic MAC address in the forwarding database, or if the forwarding database is full and no dynamic MAC address is present in the forwarding database, the MAC address assigned with a higher priority overwrites (S423) a MAC address assigned with a lower priority in the forwarding database. assigning (S301) a priority to the MAC address; and performing a forwarding database learning process with respect to the MAC address based on the priority, wherein the forwarding database includes at least one of the following three types of MAC address: the MAC address assigned with the priority, a static MAC address and a dynamic MAC address, and characterized in that during the forwarding database learning process: if the forwarding database is full, the MAC address assigned with the priority overwrites (S421) a dynamic MAC address in the forwarding database, or if the forwarding database is full and no dynamic MAC address is present in the forwarding database, the MAC address assigned with a higher priority overwrites (S423) a MAC address assigned with a lower priority in the forwarding database. if the forwarding database is full, the MAC address assigned with the priority overwrites (S421) a dynamic MAC address in the forwarding database, or if the forwarding database is full and no dynamic MAC address is present in the forwarding database, the MAC address assigned with a higher priority overwrites (S423) a MAC address assigned with a lower priority in the forwarding database.
Device for fastening a rail (L) of a barred grid (G) on a vertical post (P) comprising: - a first element , called end piece, intended to be inserted into an end of the rail (L), - a second element , called insert, extending and passing through said first element , - an axis carried by said second element and extending perpendicular to said second element , said axis being intended to cooperate with the vertical post (P), - means for holding the device for fastening on the rail (L) intended to secure together said first element , said second element and the rail (L), characterised in that said first element comprises a first hole and said second element comprises a second hole disposed opposite to the first hole , said means for holding cooperating with said first and second holes. - a first element , called end piece, intended to be inserted into an end of the rail (L), - a second element , called insert, extending and passing through said first element , - an axis carried by said second element and extending perpendicular to said second element , said axis being intended to cooperate with the vertical post (P), - means for holding the device for fastening on the rail (L) intended to secure together said first element , said second element and the rail (L),
A method of manufacturing an anvil of a surgical circular stapler, wherein the anvil includes a head and a shank extending proximally from the head, wherein the shank includes a flange extending radially outward from a distal end of the shank, the method comprising: (a) forming the head of a surgical circular stapler using a metal injection molding process; (b) forming an annular array of staple forming pockets in the head ; (c) machining the shank of the surgical circular stapler; and (d) coupling together the head and the shank of the surgical circular stapler that were separately manufactured, by overmolding a cap onto the head of the anvil to sandwich the flange of the shank between the cap and the head. (a) forming the head of a surgical circular stapler using a metal injection molding process; (b) forming an annular array of staple forming pockets in the head ; (c) machining the shank of the surgical circular stapler; and (d) coupling together the head and the shank of the surgical circular stapler that were separately manufactured, by overmolding a cap onto the head of the anvil to sandwich the flange of the shank between the cap and the head.
A solar cell element comprising: a semiconductor substrate having a first surface and a second surface positioned opposite to the first surface ; a passivation layer that is positioned on the second surface and has a plurality of holes (H1); a plurality of through electrodes (E23) that are positioned in the plurality of holes (H1) while being electrically connected to the second surface of the semiconductor substrate ; a first electrode (E21) that is positioned on the passivation layer while being electrically connected to two or more first through electrodes (E231) in the plurality of through electrodes (E23); and one or more second electrodes (E22) that are positioned to linearly extend in a first direction (Y) on the passivation layer while being electrically connected to one or more second through electrodes (E232) in the plurality of through electrodes (E23), and are electrically connected to the first electrode (E21); characterised in that when the first electrode (E21) and the second electrode (E22) are seen in plan perspective view, a ratio of an area occupied by the one or more second through electrodes (E232) in a second region (Ar2) in which the second electrode (E22) is positioned is smaller than a ratio of an area occupied by the two or more first through electrodes (E231) in a first region (Ar1) in which the first electrode (E21) is positioned. a semiconductor substrate having a first surface and a second surface positioned opposite to the first surface ; a passivation layer that is positioned on the second surface and has a plurality of holes (H1); a plurality of through electrodes (E23) that are positioned in the plurality of holes (H1) while being electrically connected to the second surface of the semiconductor substrate ; a first electrode (E21) that is positioned on the passivation layer while being electrically connected to two or more first through electrodes (E231) in the plurality of through electrodes (E23); and one or more second electrodes (E22) that are positioned to linearly extend in a first direction (Y) on the passivation layer while being electrically connected to one or more second through electrodes (E232) in the plurality of through electrodes (E23), and are electrically connected to the first electrode (E21); characterised in that when the first electrode (E21) and the second electrode (E22) are seen in plan perspective view, a ratio of an area occupied by the one or more second through electrodes (E232) in a second region (Ar2) in which the second electrode (E22) is positioned is smaller than a ratio of an area occupied by the two or more first through electrodes (E231) in a first region (Ar1) in which the first electrode (E21) is positioned.
A stable aqueous pharmaceutical formulation, the formulation comprising an anti-PDL1 monoclonal antibody in a concentration of 40 mg/ml to 125 mg/ml, histidine acetate or sodium acetate in a concentration of 15 mM to 25 mM, sucrose in a concentration of 60 mM to 240 mM, polysorbate in a concentration of 0.005% (w/v) to 0.06% (w/v), and pH 5.0 to 6.3; wherein said monoclonal antibody comprises a light chain variable region comprising the amino acid sequence of SEQ ID NO:7, and a heavy chain variable region comprising the amino acid sequence of SEQ ID NO:32; and wherein said monoclonal antibody is a humanized IgG1 antibody.
A wireless communication method by a user equipment, UE, , comprising: being configured by a base station with a listen before talk, LBT, failure recovery procedure; detecting an LBT failure per uplink, UL, bandwidth part, BWP; and triggering an UL LBT failure medium access control, MAC, control element, CE, for one or more serving cells configured to trigger the LBT failure, wherein the MAC CE comprises a serving cell information, the serving cell information of the MAC CE comprises a BWP related information in the MAC CE, and a format of the MAC CE comprises at least one of the followings a first format comprising a bitmap with a size equal to a maximum number of serving cells for a carrier group, CG, and/or a bitmap with a size equal to a maximum number of UL BWPs of a SpCell; or a second format comprising a SCell index for which the UE declares consistent LBT failure and a BWP index for which the UE declares consistent LBT failure. being configured by a base station with a listen before talk, LBT, failure recovery procedure; detecting an LBT failure per uplink, UL, bandwidth part, BWP; and triggering an UL LBT failure medium access control, MAC, control element, CE, for one or more serving cells configured to trigger the LBT failure, wherein the MAC CE comprises a serving cell information, the serving cell information of the MAC CE comprises a BWP related information in the MAC CE, and a format of the MAC CE comprises at least one of the followings a first format comprising a bitmap with a size equal to a maximum number of serving cells for a carrier group, CG, and/or a bitmap with a size equal to a maximum number of UL BWPs of a SpCell; or a second format comprising a SCell index for which the UE declares consistent LBT failure and a BWP index for which the UE declares consistent LBT failure.
A crystal polymorph of potassium N-[8-(2-hydroxybenzoyl)amino]octanoate, characterized in that the crystal polymorph of potassium N-[8-(2-hydroxybenzoyl)amino]octanoate is crystal Form I, and the crystal Form I has at least an X-ray powder diffraction pattern using Monochromatic Cu-Ka ray (λ=1.5406) with characteristic peaks represented by 2θ° of 7.83±0.2, 26.64±0.2, and 18.89±0.2.