mhurhangee/ep-ind-claims huggingface dataset:
A transmission method employing a transmission scheme between at least one transceiver pair, each transceiver pair including a first transceiver and a second transceiver, each transceiver including a transmitter and a receiver, said at least one transceiver pair defining a downlink between the transmitter of said first transceiver and the receiver of said second transceiver and further defining an uplink between the transmitter of said second transceiver and the receiver of said first transceiver, the at least one first transceiver of said at least one transceiver pair being located in a device supporting a plurality of links, each transceiver pair transmitting data over a data frame, said data frame includes a plurality of time-slots for transmitting data symbols, said method including: partitioning said data frame into three mutually exclusive time zones, said time zones including a downlink zone, followed by a downlink\uplink zone, followed by an uplink zone, said downlink zone being for downlink transmission by said transmitter of said first transceiver, said uplink zone being for uplink transmission by said transmitter of said second transceiver, said downlink\uplink zone being for at least one of providing additional time slots to downlink transmission by said transmitter of said first transceiver and providing additional time slots to uplink transmission by said transmitter of said second transceiver. partitioning said data frame into three mutually exclusive time zones, said time zones including a downlink zone, followed by a downlink\uplink zone, followed by an uplink zone, said downlink zone being for downlink transmission by said transmitter of said first transceiver, said uplink zone being for uplink transmission by said transmitter of said second transceiver, said downlink\uplink zone being for at least one of providing additional time slots to downlink transmission by said transmitter of said first transceiver and providing additional time slots to uplink transmission by said transmitter of said second transceiver.
A processor comprising: attestation circuitry to determine whether a compute resource of an offload device connected to the processor by an interconnect is trusted; and secure arbitration mode, SEAM, arbitration circuitry to: receive an instruction to form a trusted domain for a virtual machine that includes the compute resource of the offload device; and provision the trusted domain for the virtual machine that includes the processor and the compute resource, wherein the SEAM arbitration circuitry is to arbitrate with a SEAM arbitration circuitry of the offload device to expand the trusted domain to the offload device. attestation circuitry to determine whether a compute resource of an offload device connected to the processor by an interconnect is trusted; and secure arbitration mode, SEAM, arbitration circuitry to: receive an instruction to form a trusted domain for a virtual machine that includes the compute resource of the offload device; and provision the trusted domain for the virtual machine that includes the processor and the compute resource, receive an instruction to form a trusted domain for a virtual machine that includes the compute resource of the offload device; and provision the trusted domain for the virtual machine that includes the processor and the compute resource, wherein the SEAM arbitration circuitry is to arbitrate with a SEAM arbitration circuitry of the offload device to expand the trusted domain to the offload device.
An apparatus for robot-assisted surgery, comprising an instrument unit having a surgical instrument with an instrument shaft, the proximal end of which, facing the patient, is passable through a body orifice of a patient to a target area defined by coordinates (x z, y z, z z) of a coordinate system (X, Y, Z) of the apparatus, a positioning device (600, 700) emitting light as a beam of rays, at least one coupling unit of a manipulator arm, to which optionally the positioning device (600, 700) or the instrument unit is connectable, wherein, when connecting the positioning device (600, 700) to the coupling unit, the position of the central axis of the beam of rays emitted by the positioning device (600, 700) corresponds with the position of the longitudinal axis of the instrument shaft of the instrument unit connected to the coupling unit instead of the positioning device (600, 700), a control unit (40, 46), characterized in that the control unit (40, 46) - when the positioning device (600, 700) is connected to the coupling unit, determines the distance vector, which is orthogonal to the central axis, between the central axis and the target area defined by the coordinates (x z, y z, z z), - generates a first control information when the amount of the determined distance vector has and/or falls below a first preset value, and comprising an output unit (41, 47, 626, 706) which outputs a signal dependent on the first control information. - when the positioning device (600, 700) is connected to the coupling unit, determines the distance vector, which is orthogonal to the central axis, between the central axis and the target area defined by the coordinates (x z, y z, z z), - generates a first control information when the amount of the determined distance vector has and/or falls below a first preset value, and
A retractable lighting fixture, comprising: a lighting fixture housing (20, 120, 220, 320, 575); a flexible multilayer lighting sheet retractably retainable within said lighting fixture housing (20, 120, 220, 320, 575), said multilayer lighting sheet movable between a retracted position at least partially retracted within said lighting fixture housing (20, 120, 220, 320, 575) and an extended position more protracted from said lighting fixture housing (20, 120, 220, 320, 575) than said retracted position; said multilayer lighting sheet having a LED layer (30, 230, 330, 430) and an optical layer (40, 240A/B, 340A/B, 440) at least selectively over said LED layer (30, 230, 330, 430), said LED layer (30, 230, 330, 430) including a plurality of LEDs (34, 134, 234A/B, 334A/B, 434) selectively generating a light output, said optical layer (40, 240A/B, 340A/B, 440) intersecting and transmitting at least some of said light output; wherein portions of said LED layer (30, 230, 330, 430) and said optical layer (40, 240A/B, 340A/B, 440) are in an expanded unrolled state when in said extended position and in a compressed rolled state when in said retracted position. a lighting fixture housing (20, 120, 220, 320, 575); a flexible multilayer lighting sheet retractably retainable within said lighting fixture housing (20, 120, 220, 320, 575), said multilayer lighting sheet movable between a retracted position at least partially retracted within said lighting fixture housing (20, 120, 220, 320, 575) and an extended position more protracted from said lighting fixture housing (20, 120, 220, 320, 575) than said retracted position; said multilayer lighting sheet having a LED layer (30, 230, 330, 430) and an optical layer (40, 240A/B, 340A/B, 440) at least selectively over said LED layer (30, 230, 330, 430), said LED layer (30, 230, 330, 430) including a plurality of LEDs (34, 134, 234A/B, 334A/B, 434) selectively generating a light output, said optical layer (40, 240A/B, 340A/B, 440) intersecting and transmitting at least some of said light output; wherein portions of said LED layer (30, 230, 330, 430) and said optical layer (40, 240A/B, 340A/B, 440) are in an expanded unrolled state when in said extended position and in a compressed rolled state when in said retracted position.
A steel material for a carburized bearing part, having a chemical composition consisting of, by mass%, C: 0.25 to 0.45%, Si: 0.15 to 0.45%, Mn: 0.40 to 1.50%, P: 0.015% or less, S: 0.005% or less, Cr: 0.60 to 2.00%, Mo: 0.10 to 0.35%, V: 0.20 to 0.40%, Al: 0.005 to 0.100%, Ca: 0.0002 to 0.0010%, N: 0.0300% or less, O: 0.0015% or less Ni: 0 to 1.00%, B: 0 to 0.0050%, Nb: 0 to 0.100% and Ti: 0 to 0.10%, with the balance being Fe and impurities, and satisfying Formula to Formula: 1.20 < 0.4 Cr + 0.4 Mo + 4.5 V < 2.75 A 1 / A 2 > 0.50 2.7 C + 0.4 Si + Mn + 0.45 Ni + 0.8 Cr + Mo + V > 2.55 where, a content, in mass%, of a corresponding element is substituted for each symbol of an element in Formula and Formula; if a corresponding element is not contained, "0" is substituted for the symbol of the relevant element; in Formula, "A1" represents a gross area, in μm 2, of sulfides containing Ca in an amount of 1 mol% or more and having an equivalent circular diameter of 1 μm or more in an observation region with a gross area of 4 mm 2 or more in a cross section that is parallel to a rolling direction; and "A2" represents a gross area, in μm 2, of sulfides having an equivalent circular diameter of 1 μm or more in the observation region, and wherein A1 and A2 are measured as described in the description. C: 0.25 to 0.45%, Si: 0.15 to 0.45%, Mn: 0.40 to 1.50%, P: 0.015% or less, S: 0.005% or less, Cr: 0.60 to 2.00%, Mo: 0.10 to 0.35%, V: 0.20 to 0.40%, Al: 0.005 to 0.100%, Ca: 0.0002 to 0.0010%, N: 0.0300% or less, O: 0.0015% or less Ni: 0 to 1.00%, B: 0 to 0.0050%, Nb: 0 to 0.100% and Ti: 0 to 0.10%,
A belt driving device comprising: an endless belt; a stretch roller to engage the endless belt, the stretch roller including a rotary shaft; a steering roller spaced apart from the stretch roller and located within the endless belt; an adjustment member located along the rotary shaft of the stretch roller, the adjustment member to move along the rotary shaft; and a linking mechanism to couple the adjustment member to the steering roller, the linking mechanism to engage a contact surface of the adjustment member, wherein the contact surface of the adjustment member includes contact points positioned at different distances from the rotary shaft to raise the linking mechanism during movement of the adjustment member, to cause the steering roller to tilt at an angle, and to maintain an alignment of the endless belt, characterised in that the adjustment member includes a slit through which at least a portion of the rotary shaft is exposed. an endless belt; a stretch roller to engage the endless belt, the stretch roller including a rotary shaft; a steering roller spaced apart from the stretch roller and located within the endless belt; an adjustment member located along the rotary shaft of the stretch roller, the adjustment member to move along the rotary shaft; and a linking mechanism to couple the adjustment member to the steering roller, the linking mechanism to engage a contact surface of the adjustment member, wherein the contact surface of the adjustment member includes contact points positioned at different distances from the rotary shaft to raise the linking mechanism during movement of the adjustment member, to cause the steering roller to tilt at an angle, and to maintain an alignment of the endless belt, characterised in that the adjustment member includes a slit through which at least a portion of the rotary shaft is exposed.
A damper ring, comprising: an annular body that extends circumferentially around an axial centerline, the body defined by a first end surface, a second end surface, an outer radial surface, and an inner radial surface, wherein the outer radial surface and the inner radial surface extend axially from the first end surface toward the second end surface, wherein the annular body includes one or more check valve passages, each passage extending axially from an open end disposed at the first end surface inwardly toward the second end surface, and disposed between the inner radial surface and the outer radial surface; and wherein an inlet aperture extends between each check valve passage and the outer radial surface providing fluid communication therebetween a fluid check valve disposed in each check valve passage, characterised in that: an outlet aperture extends between each check valve passage and the inner radial surface providing fluid communication therebetween; the fluid check valve is configured to permit fluid flow in a first direction through the check valve passage from the inlet aperture to the outlet aperture and to substantially prevent fluid flow in a second direction opposite the first direction; and at least one fluid stop configured to prevent fluid exit from the open end of each check valve passage. an annular body that extends circumferentially around an axial centerline, the body defined by a first end surface, a second end surface, an outer radial surface, and an inner radial surface, wherein the outer radial surface and the inner radial surface extend axially from the first end surface toward the second end surface, wherein the annular body includes one or more check valve passages, each passage extending axially from an open end disposed at the first end surface inwardly toward the second end surface, and disposed between the inner radial surface and the outer radial surface; and wherein an inlet aperture extends between each check valve passage and the outer radial surface providing fluid communication therebetween a fluid check valve disposed in each check valve passage, characterised in that: an outlet aperture extends between each check valve passage and the inner radial surface providing fluid communication therebetween; the fluid check valve is configured to permit fluid flow in a first direction through the check valve passage from the inlet aperture to the outlet aperture and to substantially prevent fluid flow in a second direction opposite the first direction; and at least one fluid stop configured to prevent fluid exit from the open end of each check valve passage.
A cistern, in particular a concealed cistern, for a water closet or an urinal, - with a cistern body and - with a container for the cistern arranged in the cistern body, with a housing and with at least one chamber (4a, 4b) which is arranged in the housing and which defines a filling volume (F 1, F 2), wherein the housing, in the lower region of the at least one chamber (4a, 4b), has an opening (5a, 5b) which, in the state installed as intended, faces downwards and is arranged in such a manner that the at least one chamber (4a, 4b), in the state installed as intended, can be filled with flushing water and/or air, and wherein the housing has another opening (6a, 6b) in the upper region of the at least one chamber (4a, 4b), characterized in that the container further comprises a plug (7a, 7b) by means of which the further opening (6a, 6b) can be closed so that when the further opening (6a, 6b) is closed by the plug (7a, 7b), the at least one chamber (4a, 4b), in the state installed as intended, is filled with air when filling the cistern and displaces water, and when the further opening (6a, 6b) is not closed by the plug (7a, 7b), the at least one chamber (4a, 4b), in the state installed as intended, is flooded with water when filling the cistern. - with a cistern body and - with a container for the cistern arranged in the cistern body, with a housing and with at least one chamber (4a, 4b) which is arranged in the housing and which defines a filling volume (F 1, F 2), wherein the housing, in the lower region of the at least one chamber (4a, 4b), has an opening (5a, 5b) which, in the state installed as intended, faces downwards and is arranged in such a manner that the at least one chamber (4a, 4b), in the state installed as intended, can be filled with flushing water and/or air, and wherein the housing has another opening (6a, 6b) in the upper region of the at least one chamber (4a, 4b), characterized in that the container further comprises a plug (7a, 7b) by means of which the further opening (6a, 6b) can be closed so that when the further opening (6a, 6b) is closed by the plug (7a, 7b), the at least one chamber (4a, 4b), in the state installed as intended, is filled with air when filling the cistern and displaces water, and when the further opening (6a, 6b) is not closed by the plug (7a, 7b), the at least one chamber (4a, 4b), in the state installed as intended, is flooded with water when filling the cistern.
A method for forming a mobile cell (110; 120) in a network, the method comprising: first predicting, using a computing device processor of a network backbone, a first node (A; B) of the network will be within a predetermined distance of a second node (A1-A3; B1-B2) of the network at a predetermined future time; second predicting, using a computing device processor of a network backbone, the first node's movement pattern (A; B) will be substantially similar to the second node's (A1-A3; B1-B3) movement pattern at the predetermined future time; third predicting, using a computing device processor of a network backbone, that a bandwidth utilization of at least one of the first node (A; B) and the second node (A1-A3; B1-B3) will be less than or equal to a predetermined bandwidth utilization threshold at the predetermined future time; forming, using a computing device processor, a mobile cell (110; 120) at the predetermined future time comprising the first node (A; B) and the second node (A1-A3; B1-B2) based on the first predicting, second predicting and third predicting steps; and selecting, using a computing device processor, one of the first node (A; B) or the second node (A1-A3; B1-B2) as a mobile base station for the mobile cell (110; 120). first predicting, using a computing device processor of a network backbone, a first node (A; B) of the network will be within a predetermined distance of a second node (A1-A3; B1-B2) of the network at a predetermined future time; second predicting, using a computing device processor of a network backbone, the first node's movement pattern (A; B) will be substantially similar to the second node's (A1-A3; B1-B3) movement pattern at the predetermined future time; third predicting, using a computing device processor of a network backbone, that a bandwidth utilization of at least one of the first node (A; B) and the second node (A1-A3; B1-B3) will be less than or equal to a predetermined bandwidth utilization threshold at the predetermined future time; forming, using a computing device processor, a mobile cell (110; 120) at the predetermined future time comprising the first node (A; B) and the second node (A1-A3; B1-B2) based on the first predicting, second predicting and third predicting steps; and selecting, using a computing device processor, one of the first node (A; B) or the second node (A1-A3; B1-B2) as a mobile base station for the mobile cell (110; 120).
A fuel cell separator comprising: a metal substrate; and a titanium layer (2,2') containing titanium formed on the metal substrate, wherein a ratio of a plane to a sum of values obtained by dividing peak intensities of the plane, a plane, and a plane derived from titanium in an X-ray diffraction analysis of a separator surface by respective relative intensities is 16.9% or more. a metal substrate; and a titanium layer (2,2') containing titanium formed on the metal substrate, wherein a ratio of a plane to a sum of values obtained by dividing peak intensities of the plane, a plane, and a plane derived from titanium in an X-ray diffraction analysis of a separator surface by respective relative intensities is 16.9% or more.
A centrifugal compressor (10, 30, 40, 50) having a revolving shaft, an impeller mounted to the rotating shaft, a casing for housing the impeller, a diffuser section connected to the downstream of the impeller, and a volute section connected to the downstream of the diffuser section for compressing fluid by applying a centrifugal force to the fluid by rotating the impeller, the centrifugal compressor comprising: a parting member for dividing a flow channel in the volute section into a plurality of channels in the direction of circulation of the fluid so as to define a hub-side flow channel and a shroud-side flow channel; and a flow rate adjuster for lowering the flow rate of the fluid flowing in the shroud-side flow channel and allowing the fluid to flow in the hub-side flow channel at a high flow rate when the flow rate of the fluid compressed by the impeller is low and not lowering the flow rate of the fluid flowing the shroud-side flow channel to allow the fluid to flow both in the shroud-side flow channel and the hub-side flow channel when the flow rate of the fluid compressed by the impeller is high; characterised by a parting member for dividing a flow channel in the diffuser section. a parting member for dividing a flow channel in the volute section into a plurality of channels in the direction of circulation of the fluid so as to define a hub-side flow channel and a shroud-side flow channel; and a flow rate adjuster for lowering the flow rate of the fluid flowing in the shroud-side flow channel and allowing the fluid to flow in the hub-side flow channel at a high flow rate when the flow rate of the fluid compressed by the impeller is low and not lowering the flow rate of the fluid flowing the shroud-side flow channel to allow the fluid to flow both in the shroud-side flow channel and the hub-side flow channel when the flow rate of the fluid compressed by the impeller is high; characterised by a parting member for dividing a flow channel in the diffuser section.
A method, implemented at a computer system that includes one or more processors and system memory, for generating a masked reference sequence of the Y chromosome for evaluating copy number of the Y chromosome, the method comprising: (a) providing, on the computer system, a training set of genomic reads measured from nucleic acid samples of a first plurality of female individuals; (b) aligning, by the computer system, genomic reads of the training set to a reference genome comprising a reference sequence of the Y-chromosome, thereby providing training sequence tags comprising aligned genomic reads and their locations on the reference sequence of the Y chromosome; (c) dividing, by the computer system, the reference sequence of the Y chromosome into a plurality of bins; (d) determining, by the computer system, counts of training sequence tags located in each bin; and (e) masking, by the computer system, bins that exceed a masking threshold, the masking threshold being based on the counts of training sequence tags in each bin, thereby generating the masked reference sequence of the Y chromosome. (a) providing, on the computer system, a training set of genomic reads measured from nucleic acid samples of a first plurality of female individuals; (b) aligning, by the computer system, genomic reads of the training set to a reference genome comprising a reference sequence of the Y-chromosome, thereby providing training sequence tags comprising aligned genomic reads and their locations on the reference sequence of the Y chromosome; (c) dividing, by the computer system, the reference sequence of the Y chromosome into a plurality of bins; (d) determining, by the computer system, counts of training sequence tags located in each bin; and (e) masking, by the computer system, bins that exceed a masking threshold, the masking threshold being based on the counts of training sequence tags in each bin, thereby generating the masked reference sequence of the Y chromosome.