mhurhangee/ep-ind-claims huggingface dataset:
A method of selecting an energy detection threshold, EDT, performed by a first radio node deploying listen before talk, comprising: determining a first radio node pair between the first radio node and a second radio node; detecting a first signal parameter, a first interference parameter, and a first noise parameter associated with the first radio node; characterized by receiving a second signal parameter, a second interference parameter, and a second noise parameter associated with the second radio node; calculating a first throughput for the first radio node operating on a first EDT as a first function of a first signal-to-interference-plus noise ratio, SINR, based on the first signal parameter, the first interference parameter, and the first noise parameter, and a third function of a second SINR based on the second signal parameter, the second interference parameter, and the second noise parameter; calculating a second throughput for the first radio node operating on a second EDT, lower than the first EDT, as a second function of a first signal-to-noise ratio, SNR, based on the first signal parameter and the first noise parameter; setting an operating EDT for the first radio node to be the first EDT when the first throughput is higher than the second throughput; and setting the operating EDT for the first radio node to be the second EDT when the second throughput is higher than the first throughput. determining a first radio node pair between the first radio node and a second radio node; detecting a first signal parameter, a first interference parameter, and a first noise parameter associated with the first radio node; characterized by receiving a second signal parameter, a second interference parameter, and a second noise parameter associated with the second radio node; calculating a first throughput for the first radio node operating on a first EDT as a first function of a first signal-to-interference-plus noise ratio, SINR, based on the first signal parameter, the first interference parameter, and the first noise parameter, and a third function of a second SINR based on the second signal parameter, the second interference parameter, and the second noise parameter; calculating a second throughput for the first radio node operating on a second EDT, lower than the first EDT, as a second function of a first signal-to-noise ratio, SNR, based on the first signal parameter and the first noise parameter; setting an operating EDT for the first radio node to be the first EDT when the first throughput is higher than the second throughput; and setting the operating EDT for the first radio node to be the second EDT when the second throughput is higher than the first throughput.
An alignment element for aligning primary single row racks on a primary rack positioning area of a laboratory system, a primary single row rack to be aligned comprising a first end surface and a second end surface, the first end surface having a first surface geometry and the second end surface having a second surface geometry, with the alignment element having a top surface, first and second end sides, a bottom side, a first longitudinal side and a second longitudinal side opposed to the first longitudinal side, wherein the first longitudinal side is complementary to the first surface geometry and the second longitudinal side is complementary to the second surface geometry while the bottom side comprises a clip-like positioning element for positioning the alignment element on the primary rack positioning area in uniform orientation with other alignment elements, wherein each of the first and second longitudinal sides (234, 235) is provided with two vertical partition extensions (237, 239) dividing each longitudinal side (234, 235) into a main centre section (234.1, 235.1) and two smaller adjacent outer sections (234.2, 235.2), respectively, such that an according end surface (76, 78) of the primary single row rack can also be received in between two vertical partition extensions (237, 239) of adjacent alignment elements, respectively.
A computer-implemented video transmission method, the method being performed by a processing device, comprising: receiving (310,330) one or more requests from a plurality of mobile devices (100A,..107Z; 410, 420, 430) to join a group of mobile devices to collectively present a main video on a combined display screen comprising display screens of the mobile devices, the main video represented by a plurality of video items to be provided to the mobile devices; identifying a number of the mobile devices that have joined the group; selecting a preliminary image based on the number of the mobile devices that have joined the group; transmitting, by a processing device, respective portions of the selected preliminary image to the mobile devices; receiving an indication that the mobile devices have been moved into an arrangement in which the mobile devices present the transmitted portions of the preliminary image in an intended order; and in response to receiving the indication of the arrangement of the mobile devices, transmitting a different video item of the plurality of video items representing the main video to each of the mobile devices according to the arrangement of the mobile devices. receiving (310,330) one or more requests from a plurality of mobile devices (100A,..107Z; 410, 420, 430) to join a group of mobile devices to collectively present a main video on a combined display screen comprising display screens of the mobile devices, the main video represented by a plurality of video items to be provided to the mobile devices; identifying a number of the mobile devices that have joined the group; selecting a preliminary image based on the number of the mobile devices that have joined the group; transmitting, by a processing device, respective portions of the selected preliminary image to the mobile devices; receiving an indication that the mobile devices have been moved into an arrangement in which the mobile devices present the transmitted portions of the preliminary image in an intended order; and in response to receiving the indication of the arrangement of the mobile devices, transmitting a different video item of the plurality of video items representing the main video to each of the mobile devices according to the arrangement of the mobile devices.
A method for making a metal reinforcement of a leading edge or a trailing edge of a turbine engine blade having a base, forming the leading edge or the trailing edge of said reinforcement, which base is extended by two side flanks, said method including a step of positioning a preform (26, 70), formed by a first sheet metal and a second sheet metal, by means of a tooling positioning said preform (26, 70) into a position such that said preform (26, 70) has at one end a zone (28, 72) able to receive filler metal, said method being characterised in that it further includes a step of building a base of said metal reinforcement by refilling a filler metal in said zone (28, 72), by superimposing a plurality of metal beads, by means of a MIG welding apparatus including a pulsed current generator and having a pulsed filler wirer flowrate.
A method for manufacturing a substrate for semiconductor light emitting elements, the method characterized in comprising: a first step of etching an upper surface of a substrate using a first single-particle film that is a single layer of first particles having a first particle diameter and closely packed two-dimensionally as a mask; and a second step of etching the upper surface of the substrate using a second single-particle film that is a single layer of second particles having a second particle diameter that is different from the first particle diameter and closely packed two-dimensionally as a mask; characterized by the method further comprises a step of layering the first single-particle film on the second single-particle film, and wherein the etching of the first step and the etching of the second step are carried out simultaneously. a first step of etching an upper surface of a substrate using a first single-particle film that is a single layer of first particles having a first particle diameter and closely packed two-dimensionally as a mask; and a second step of etching the upper surface of the substrate using a second single-particle film that is a single layer of second particles having a second particle diameter that is different from the first particle diameter and closely packed two-dimensionally as a mask; characterized by the method further comprises a step of layering the first single-particle film on the second single-particle film, and wherein the etching of the first step and the etching of the second step are carried out simultaneously.
A method comprising: (a) determining the concentration of cardiac troponin I (cTnI) in a sample obtained from a pregnant woman in the first, second, or third trimester of pregnancy in vitro using an immunoassay; (b) determining that the sample concentration of cTnI from said first, second, or third trimester is higher than a 99th percentile cTnI concentration from a corresponding first, second, or third trimester uncomplicated pregnancy control group as tested by the immunoassay, wherein the 99th percentile cTnI concentration for said first trimester is about 4.0 pg/ml, the 99th percentile cTnI concentration for said second trimester is about 4.0 pg/ml, and the 99th percentile cTnI concentration for said third trimester is about 6.0 pg/ml, and (c) diagnosing the pregnant woman as having, or is at risk of developing, cardiovascular disease. (a) determining the concentration of cardiac troponin I (cTnI) in a sample obtained from a pregnant woman in the first, second, or third trimester of pregnancy in vitro using an immunoassay; (b) determining that the sample concentration of cTnI from said first, second, or third trimester is higher than a 99th percentile cTnI concentration from a corresponding first, second, or third trimester uncomplicated pregnancy control group as tested by the immunoassay, wherein the 99th percentile cTnI concentration for said first trimester is about 4.0 pg/ml, the 99th percentile cTnI concentration for said second trimester is about 4.0 pg/ml, and the 99th percentile cTnI concentration for said third trimester is about 6.0 pg/ml, and (c) diagnosing the pregnant woman as having, or is at risk of developing, cardiovascular disease.
An agent which is an antibody or an antigen-binding antibody fragment that interferes with an interaction between B7-H1 and a receptor for B7-H1, for use in the treatment of an immunosuppression characterized by an impaired function and survival of activated tumor-specific T-cells in a subject with cancer, wherein some or all cells of the cancer express B7-H1, wherein said subject is a human and said B7-H1 is human B7-H1 (hB7-H1), wherein the agent binds to said receptor for hB7-H1, wherein the receptor is the PD-1 receptor, wherein the cancer is a renal cell carcinoma.
A method implemented in a user terminal for accessing a radio channel, comprising: receiving a random access response message from a radio base station, wherein the random access response message indicates an identified radio resource and a user terminal identifier indicating a scrambling sequence that is not specifically assigned to a user terminal, wherein the random access response message is received using a predefined common identity associated with a preamble transmitted by the user terminal; transmitting a message 3 to the radio base station, wherein the message 3 includes a user terminal identity, and wherein the message 3 is transmitted over the identified radio resource, and wherein the message 3 is scrambled using an uplink scrambling sequence based on the user terminal identifier included in the random access response message; receiving a message from the radio base station, which includes the user terminal identity; and transmitting a subsequent data transmission scrambled with an uplink scrambling sequence, specifically assigned to the user terminal, based on the user terminal identity. receiving a random access response message from a radio base station, wherein the random access response message indicates an identified radio resource and a user terminal identifier indicating a scrambling sequence that is not specifically assigned to a user terminal, wherein the random access response message is received using a predefined common identity associated with a preamble transmitted by the user terminal; transmitting a message 3 to the radio base station, wherein the message 3 includes a user terminal identity, and wherein the message 3 is transmitted over the identified radio resource, and wherein the message 3 is scrambled using an uplink scrambling sequence based on the user terminal identifier included in the random access response message; receiving a message from the radio base station, which includes the user terminal identity; and transmitting a subsequent data transmission scrambled with an uplink scrambling sequence, specifically assigned to the user terminal, based on the user terminal identity.
Endoscope comprising a main part, an endoscope shaft connected to the main part, and an imaging optical unit arranged within the endoscope shaft and the main part, said imaging optical unit imaging an object situated in front of the end of the endoscope shaft facing away from the main part into a focal plane of the imaging optical unit, wherein the main part comprises a camera connector at the end facing away from the endoscope shaft, it being possible to attach a camera to said camera connector, wherein the imaging optical unit comprises a correction module, the light for imaging the object being guided therethrough and a splitter unit and a superposition unit being comprised thereby, wherein the light is fed to the correction module via a first beam path, which is split into a first and a second partial beam path (25, 26) by means of the splitter unit, wherein the splitter unit guides light from the visible spectrum in one of the two partial beam paths (25, 26) and light from the near infrared and the other of the two partial beam paths (25, 26), and the superposition unit superposes the light from the two partial beam paths (25, 26) and guides said light in a second beam path that is coaxial to the first beam path, wherein the optical path lengths of the two partial beam paths (25, 26) for the light from the visible spectrum and the light from the near infrared are chosen to be so different that the longitudinal chromatic aberration between the light from the visible spectrum and the light from the near infrared is compensated in the region of the focal plane, characterized in that the correction module is arranged in the main part and is free from imaging optical elements.
A medical device (20, 120, 220, 320) for forming a pathway from an external orifice to a bodily opening defined by tissue of an internal bodily lumen, the medical device (20, 120, 220, 320) comprising: an expandable frame (22, 122, 222, 322) operable between a collapsed configuration and an expanded configuration, and a flexible sheath (24, 224, 324) having a length suitable for forming the pathway, a distal portion of the sheath (24, 224, 324) connected to the expandable frame (22, 122, 222, 322), the sheath (24, 224, 324) collapsible over a substantial portion of its length and operable between a collapsed configuration and an expanded configuration; characterized in that the expandable frame (22, 122, 222, 322) includes first, second and third cages (222b, 222c, 222d), wherein the first and third cages (222b, 222d) are stents, and wherein the second cage includes a plurality of strands extending longitudinally between the first and third cages (222b, 222d) to connect the cages (222b, 222d) and space the cages (222b, 222d) apart. an expandable frame (22, 122, 222, 322) operable between a collapsed configuration and an expanded configuration, and a flexible sheath (24, 224, 324) having a length suitable for forming the pathway, a distal portion of the sheath (24, 224, 324) connected to the expandable frame (22, 122, 222, 322), the sheath (24, 224, 324) collapsible over a substantial portion of its length and operable between a collapsed configuration and an expanded configuration;
Organic light emitting diode comprising: - at least one anode electrode; - at least one emission layer, wherein the emission layer comprises at least one emitter dopant that emits visible light at operation of the OLED; - an electron transport layer stack of at least two electron transport layers (161/ 162), and wherein a) the first electron transport layer comprises i) a first organic aromatic matrix compound having a MW of ≥ 400 to ≤ 1000 and a dipole moment of ≥ 0 Debye and ≤ 2.5 Debye, wherein the first electron transport layer is free of a polar organic aromatic phosphine compound; and b) the second electron transport layer comprises two organic aromatic matrix compounds, which are a mixture of: i) the first organic aromatic matrix compound; and ii) a polar organic aromatic phosphine compound having a MW of ≥ 400 to ≤ 1000, and a dipole moment of > 2.5 Debye and ≤ 10 Debye; and - at least one cathode electrode layer; wherein the electron transport layer stack is arranged between the emission layer and the cathode electrode layer, the first electron transport layer is in direct contact with the second electron transport layer, and wherein the first electron transport layer is arranged nearer to the emission layer and the second electron transport layer is arranged nearer to the cathode electrode layer. - at least one anode electrode; - at least one emission layer, wherein the emission layer comprises at least one emitter dopant that emits visible light at operation of the OLED; - an electron transport layer stack of at least two electron transport layers (161/ 162), and wherein a) the first electron transport layer comprises i) a first organic aromatic matrix compound having a MW of ≥ 400 to ≤ 1000 and a dipole moment of ≥ 0 Debye and ≤ 2.5 Debye, wherein the first electron transport layer is free of a polar organic aromatic phosphine compound; and b) the second electron transport layer comprises two organic aromatic matrix compounds, which are a mixture of: i) the first organic aromatic matrix compound; and ii) a polar organic aromatic phosphine compound having a MW of ≥ 400 to ≤ 1000, and a dipole moment of > 2.5 Debye and ≤ 10 Debye; and a) the first electron transport layer comprises i) a first organic aromatic matrix compound having a MW of ≥ 400 to ≤ 1000 and a dipole moment of ≥ 0 Debye and ≤ 2.5 Debye, wherein the first electron transport layer is free of a polar organic aromatic phosphine compound; and b) the second electron transport layer comprises two organic aromatic matrix compounds, which are a mixture of: i) the first organic aromatic matrix compound; and ii) a polar organic aromatic phosphine compound having a MW of ≥ 400 to ≤ 1000, and a dipole moment of > 2.5 Debye and ≤ 10 Debye; and i) the first organic aromatic matrix compound; and ii) a polar organic aromatic phosphine compound having a MW of ≥ 400 to ≤ 1000, and a dipole moment of > 2.5 Debye and ≤ 10 Debye; and - at least one cathode electrode layer; wherein
A mechanism for securing a fibre optic cable connector, the mechanism comprising: a base, wherein the base includes a connector recess; and a lid, characterised in that the lid is removably attached to the base, and the connector recess is compliant and nominally smaller than the fibre optic cable connector in an unstressed state. a base, wherein the base includes a connector recess; and a lid, characterised in that the lid is removably attached to the base, and the connector recess is compliant and nominally smaller than the fibre optic cable connector in an unstressed state.
A self-propelled vehicle, the vehicle provided only with rail-engaging rolling means and comprising: (i) a chassis; (ii) a working surface connected to the chassis for supporting equipment and/or materials and/or personnel; (iii) the rail-engaging rolling means connected to the chassis for travel on a railway track; and (iv) positioning means (22, 24) connected to the chassis for lifting the vehicle and moving it laterally with respect to a direction of rail travel between a trackside location and an over-the-track location; wherein the working surface extends over the chassis and above the rail-engaging rolling means; wherein a lifting apparatus is mountable on the chassis and moveable along the length of the working surface; wherein the positioning means comprises at least two sets of opposing telescopically extendable shifting means (24a, 24b) connected to the vehicle for moving the vehicle in a substantially horizontal direction over the ground and proximate front and rear ends of the chassis respectively, each set being provided with two telescopically extendable primary lifting means (22a, 22b) depending from opposite ends of the opposing telescopically extendable shifting means (24a, 24b) for engagement with the ground to lift the vehicle in a substantially vertical direction. (i) a chassis; (ii) a working surface connected to the chassis for supporting equipment and/or materials and/or personnel; (iii) the rail-engaging rolling means connected to the chassis for travel on a railway track; and (iv) positioning means (22, 24) connected to the chassis for lifting the vehicle and moving it laterally with respect to a direction of rail travel between a trackside location and an over-the-track location;
A method for determining a user equipment, UE, context by a central unit, CU, of a base station engaged as a secondary base station in dual-connectivity communication with a first UE, the method comprising: receiving, at the CU of the base station from a master node of the dual-connectivity communication, a first configuration message including a first configuration information; based on the received first configuration information, determining a first configuration type; based on the determined first configuration type, generating a first UE Context Setup Request message for the first UE; sending, by the CU, the generated first UE Context Setup Request message to a Distributed Unit, DU, of the base station, the generated first UE Context Setup Request effective to direct the DU to generate a first cell-group configuration; receiving the first generated cell-group configuration; generating a secondary-cell-group configuration using the received first cell-group configuration; and sending the secondary-cell-group configuration in a configuration response message to the master node to configure the first UE. receiving, at the CU of the base station from a master node of the dual-connectivity communication, a first configuration message including a first configuration information; based on the received first configuration information, determining a first configuration type; based on the determined first configuration type, generating a first UE Context Setup Request message for the first UE; sending, by the CU, the generated first UE Context Setup Request message to a Distributed Unit, DU, of the base station, the generated first UE Context Setup Request effective to direct the DU to generate a first cell-group configuration; receiving the first generated cell-group configuration; generating a secondary-cell-group configuration using the received first cell-group configuration; and sending the secondary-cell-group configuration in a configuration response message to the master node to configure the first UE.
A method of tracking an object of interest in the presence of one or more other objects in an imaging field comprising transmitting energy into said imaging field, receiving reflected energy from the imaging field, calculating, from the transmitted and received energy, a series of impulse responses at successive time intervals and selecting a subset of said impulse responses corresponding to a continuous motion of the object of interest.