mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: fetching, by a secure interface control of a computer that provides a partial instruction interpretation for an instruction which enables an interruption, a program status word or a control register value from a secure guest storage; notifying, by the secure interface control, an untrusted entity of guest interruption mask updates, the untrusted entity being executed on and in communication with hardware of the computer through the secure interface control to support operations of a secure entity executing on the untrusted entity; receiving, by the secure interface control from the untrusted entity, a request to present a highest priority, enabled guest interruption in response to the notifying of the guest interruption mask updates; and moving, by the secure interface control, interruption information into a guest prefix page and injecting the interruption in the secure entity when an injection of the interruption is determined to be valid, wherein the secure interface control includes a secure interface implemented in internal, secure and trusted hardware and/or firmware between the untrusted entity and the secure entity, the secure interface including a hardware mechanism that prevents the untrusted entity from accessing contents of the secure guest storage. fetching, by a secure interface control of a computer that provides a partial instruction interpretation for an instruction which enables an interruption, a program status word or a control register value from a secure guest storage; notifying, by the secure interface control, an untrusted entity of guest interruption mask updates, the untrusted entity being executed on and in communication with hardware of the computer through the secure interface control to support operations of a secure entity executing on the untrusted entity; receiving, by the secure interface control from the untrusted entity, a request to present a highest priority, enabled guest interruption in response to the notifying of the guest interruption mask updates; and moving, by the secure interface control, interruption information into a guest prefix page and injecting the interruption in the secure entity when an injection of the interruption is determined to be valid, wherein the secure interface control includes a secure interface implemented in internal, secure and trusted hardware and/or firmware between the untrusted entity and the secure entity, the secure interface including a hardware mechanism that prevents the untrusted entity from accessing contents of the secure guest storage.
An apparatus, comprising: a rotary position sensor housing having an annular center portion defining a bore adapted to receive a shaft, wherein the annular center portion is a part of the rotatory position sensor housing; a first rotor disposed in the rotary position sensor housing, the first rotor individually rotatable in the rotary position sensor housing on a first side of, and coaxial with, the center portion; and a second rotor disposed in the rotary position sensor housing on a second side of, and coaxial with, the center portion, the second rotor individually rotatable in the rotary position sensor housing; and a ring element disposed within the rotary position sensor housing between the first rotor and the second rotor, an inner circumference of the ring element engaging the center portion, and an outer circumference of the ring element engaging an interior of the rotary position sensor housing, so that the ring element is held fixedly in place by the center portion and the interior of the housing, wherein the ring element provides a dividing barrier between the first rotor and the second rotor to minimize friction between the first rotor and the second rotor, wherein the ring element comprises a ferromagnetic material. a rotary position sensor housing having an annular center portion defining a bore adapted to receive a shaft, wherein the annular center portion is a part of the rotatory position sensor housing; a first rotor disposed in the rotary position sensor housing, the first rotor individually rotatable in the rotary position sensor housing on a first side of, and coaxial with, the center portion; and a second rotor disposed in the rotary position sensor housing on a second side of, and coaxial with, the center portion, the second rotor individually rotatable in the rotary position sensor housing; and a ring element disposed within the rotary position sensor housing between the first rotor and the second rotor, an inner circumference of the ring element engaging the center portion, and an outer circumference of the ring element engaging an interior of the rotary position sensor housing, so that the ring element is held fixedly in place by the center portion and the interior of the housing, wherein the ring element provides a dividing barrier between the first rotor and the second rotor to minimize friction between the first rotor and the second rotor, wherein the ring element comprises a ferromagnetic material.
A bed system comprising: a frame (106, 106A); a controller; a head spring and a foot spring coupled to the frame; one or more motors (112, 114, 116) for adjustably moving the head or foot spring; a power supply receiving an AC voltage and converting it to the first DC voltage; an assembly comprising: at least one power input port receiving the first DC voltage from the power supply; at least one controller port receiving the first DC voltage and outputting at least one power control signal having the first DC voltage; and at least one output port (212, 214, 312) receiving power control signals having the first DC voltage, wherein the power control signals directly power the one or more motors (112, 114, 116); wherein the assembly comprises a first location and the power supply comprises a second location different from the first location; and wherein the controller port is disposed at a location on one side of the bed system and a second controller port is disposed at a location on the other side of the bed system, and wherein each controller port is connected to the at least one output port (212, 214, 312), and wherein the controller is connected to either side of the bed system. a frame (106, 106A); a controller; a head spring and a foot spring coupled to the frame; one or more motors (112, 114, 116) for adjustably moving the head or foot spring; a power supply receiving an AC voltage and converting it to the first DC voltage; an assembly comprising: at least one power input port receiving the first DC voltage from the power supply; at least one controller port receiving the first DC voltage and outputting at least one power control signal having the first DC voltage; and at least one output port (212, 214, 312) receiving power control signals having the first DC voltage, wherein the power control signals directly power the one or more motors (112, 114, 116); wherein the assembly comprises a first location and the power supply comprises a second location different from the first location; and at least one power input port receiving the first DC voltage from the power supply; at least one controller port receiving the first DC voltage and outputting at least one power control signal having the first DC voltage; and at least one output port (212, 214, 312) receiving power control signals having the first DC voltage, wherein the power control signals directly power the one or more motors (112, 114, 116); wherein the assembly comprises a first location and the power supply comprises a second location different from the first location; and wherein the controller port is disposed at a location on one side of the bed system and a second controller port is disposed at a location on the other side of the bed system, and wherein each controller port is connected to the at least one output port (212, 214, 312), and wherein the controller is connected to either side of the bed system.
A projector comprising: a laser beam generation portion (12, 13, 14) outputting laser beams; a projection portion projecting an image formed by a plurality of pixels on an arbitrary projection region by scanning said projection region with said laser beams; and characterized by a control portion (15, 16, 115, 215, 315, 415) configured to control said laser beam generation portion to selectively output a first laser beam including a relaxation oscillation where the output of said laser is unstabilized in an initial lasing stage and a second laser beam including no said relaxation oscillation so as to project said image formed by a first pixel corresponding to said first laser beam and a second pixel, other than said first pixel, corresponding to said second laser beam on said projection region, wherein said control portion is formed to control said laser beam generation portion to output said first laser beam and said second laser beam and to scan said projection region with said first laser beam and said second laser beam so as to change the positions of said first pixel and said second pixel in said image formed by said plurality of pixels every prescribed frame number of said image formed by said plurality of pixels. a laser beam generation portion (12, 13, 14) outputting laser beams; a projection portion projecting an image formed by a plurality of pixels on an arbitrary projection region by scanning said projection region with said laser beams; and characterized by a control portion (15, 16, 115, 215, 315, 415) configured to control said laser beam generation portion to selectively output a first laser beam including a relaxation oscillation where the output of said laser is unstabilized in an initial lasing stage and a second laser beam including no said relaxation oscillation so as to project said image formed by a first pixel corresponding to said first laser beam and a second pixel, other than said first pixel, corresponding to said second laser beam on said projection region, wherein said control portion is formed to control said laser beam generation portion to output said first laser beam and said second laser beam and to scan said projection region with said first laser beam and said second laser beam so as to change the positions of said first pixel and said second pixel in said image formed by said plurality of pixels every prescribed frame number of said image formed by said plurality of pixels.
An integrated photonic device (100; 400) having a wavelength-dependent characteristic, the integrated photonic device comprising a Mach-Zehnder interferometer comprising: - a Splitter Polarization Rotator (SPR, 11; 41) having an input port for receiving polarized light of a first polarization mode, and a first output port for providing a first wave of a second polarization mode orthogonal to the first polarization mode and a second output port for providing a second wave of the first polarization mode; - a first arm (12; 42) having dimensions for propagating the second polarization mode of the first wave, an input side of the first arm (12; 42) being optically connected to the first output port of the SPR (11; 41); - a second arm (13; 43) having dimensions for propagating the first polarization mode of the second wave, an input side of the second arm (13; 43) being optically connected to the second output port of the SPR; - and a Polarization Rotator and Combiner (PRC, 14; 44) having a first input port optically connected to an output side of the first arm (12; 42) for receiving the propagated first wave, and a second input port optically connected to an output side of the second arm (13; 43) for receiving the propagated second wave, and an output port for providing the combination of the propagated first wave and the propagated second wave as a polarized output wave of the first polarization mode; wherein the dimensions of the first arm (12; 42) and the dimensions of the second arm (13; 43) are selected to substantially cancel out the influence of an external effect on the wavelength-dependent characteristic. - a Splitter Polarization Rotator (SPR, 11; 41) having an input port for receiving polarized light of a first polarization mode, and a first output port for providing a first wave of a second polarization mode orthogonal to the first polarization mode and a second output port for providing a second wave of the first polarization mode; - a first arm (12; 42) having dimensions for propagating the second polarization mode of the first wave, an input side of the first arm (12; 42) being optically connected to the first output port of the SPR (11; 41); - a second arm (13; 43) having dimensions for propagating the first polarization mode of the second wave, an input side of the second arm (13; 43) being optically connected to the second output port of the SPR; - and a Polarization Rotator and Combiner (PRC, 14; 44) having a first input port optically connected to an output side of the first arm (12; 42) for receiving the propagated first wave, and a second input port optically connected to an output side of the second arm (13; 43) for receiving the propagated second wave, and an output port for providing the combination of the propagated first wave and the propagated second wave as a polarized output wave of the first polarization mode;
Changing device for coating media, in particular for paints, having a) a housing, which has an outlet duct which is connectable to an application device; b) at least one changing unit, which for its part comprises: ba) at least one first inlet duct (20.1) and one second inlet duct (20.2); bb) at least one outlet duct; bc) a valve member, by which the first inlet duct (20.1) or the second inlet duct (20.2) is connectable to the outlet duct or the flow path to the outlet duct is blockable, wherein c) the valve member of the changing unit is formed as a rotary member and/or sliding member arranged in a valve chamber, which comprises a plurality of through-ducts which, depending on the position of the valve member, can fluidically connect the outlet duct to one or both of the at least two inlet ducts (20.1, 20.2) of the changing unit, characterized in that d) the changing unit is a first changing unit (14.1) and the changing device comprises at least a second changing unit (14.2) in accordance with the features b), ba), bb), bc) and c) according to Claim 1, wherein the outlet duct of the second changing unit (14.2) is fluid-tightly connected to an inlet duct (20.1, 20.2) of the first changing unit (14.1). a) a housing, which has an outlet duct which is connectable to an application device; b) at least one changing unit, which for its part comprises: ba) at least one first inlet duct (20.1) and one second inlet duct (20.2); bb) at least one outlet duct; bc) a valve member, by which the first inlet duct (20.1) or the second inlet duct (20.2) is connectable to the outlet duct or the flow path to the outlet duct is blockable, wherein ba) at least one first inlet duct (20.1) and one second inlet duct (20.2); bb) at least one outlet duct; bc) a valve member, by which the first inlet duct (20.1) or the second inlet duct (20.2) is connectable to the outlet duct or the flow path to the outlet duct is blockable, c) the valve member of the changing unit is formed as a rotary member and/or sliding member arranged in a valve chamber, which comprises a plurality of through-ducts which, depending on the position of the valve member, can fluidically connect the outlet duct to one or both of the at least two inlet ducts (20.1, 20.2) of the changing unit, characterized in that d) the changing unit is a first changing unit (14.1) and the changing device comprises at least a second changing unit (14.2) in accordance with the features b), ba), bb), bc) and c) according to Claim 1, wherein the outlet duct of the second changing unit (14.2) is fluid-tightly connected to an inlet duct (20.1, 20.2) of the first changing unit (14.1).
A combination comprising a small non-coding RNA or antisense oligonucleotide, a cationic polymeric nanoparticle and at least one cationic amphiphilic compound, said compound having a molecular weight below 1000 g/mol, having a log P value of at least 3, and comprising one or more basic amines, the conjugated acid of no more than one, and more specific only one of said amines having a pKa of at least 5.
A method for ascertaining a positional deviation of a rotational body, which is rotatable about a rotation axis and comprises at least one first flat face, relative to a reference surface, characterized in that at least axial perpendicularity and rotational surface runout of the first flat face of the rotational body are ascertained simultaneously, wherein at least two distance sensors (20, 22, 22') that are stationary with respect to the reference surface perform measurements perpendicular to and in the direction of the first flat face of the rotational body, wherein the distance sensors (20, 22, 22') transmit distances from the first flat face of the rotational body ascertained at different points during rotation of the rotational body to an evaluation device, wherein, based on the distances and taking into account the rotation angle of the rotational body about the rotation axis, an axial perpendicularity and a rotational surface runout of the rotational body can be ascertained in the evaluation device.
A water-resistant stress-distributing layer (10, 20, 46) for use in the protection of tissue of a patient during a surgical procedure, wherein the water-resistant stress-distributing layer (10, 20, 46) is inherently tacky and/or includes a layer of a pressure sensitive adhesive thereon, and the stress-distributing layer (10, 20, 46) has opposite first and second major surfaces, and includes a hydrophobic polymer, wherein the water-resistant stress-distributing layer (10, 20, 46) has a thickness of at least 2 mm and no more than 10 mm, and is to be employed in a method selected from: (i) applying an incise drape to a patient over a presurgical skin preparation followed by applying the water-resistant stress-distributing layer (10, 20, 46) over the incise drape; (ii) applying the water-resistant stress-distributing layer (10, 20, 46) to an incise drape to provide a water-resistant stress-distributing composite and then applying the water-resistant stress-distributing composite to the patient; (iii) applying the water-resistant stress-distributing layer (10, 20, 46) to the tissue of a patient over a presurgical skin preparation, followed by applying an incise drape over the water-resistant stress-distributing layer (10, 20, 46); (iv) applying the water-resistant stress-distributing layer (10, 20, 46) over a presurgical skin preparation without the use of an incise drape; and (v) applying the water-resistant stress-distributing layer (10, 20, 46) over a presurgical polymeric barrier film, characterized in that the stress-distributing layer and the pressure sensitive adhesive are either translucent or transparent. (i) applying an incise drape to a patient over a presurgical skin preparation followed by applying the water-resistant stress-distributing layer (10, 20, 46) over the incise drape; (ii) applying the water-resistant stress-distributing layer (10, 20, 46) to an incise drape to provide a water-resistant stress-distributing composite and then applying the water-resistant stress-distributing composite to the patient; (iii) applying the water-resistant stress-distributing layer (10, 20, 46) to the tissue of a patient over a presurgical skin preparation, followed by applying an incise drape over the water-resistant stress-distributing layer (10, 20, 46); (iv) applying the water-resistant stress-distributing layer (10, 20, 46) over a presurgical skin preparation without the use of an incise drape; and (v) applying the water-resistant stress-distributing layer (10, 20, 46) over a presurgical polymeric barrier film, characterized in that the stress-distributing layer and the pressure sensitive adhesive are either translucent or transparent.
A tag (102-108; 200) comprising: a communication interface that is configured to transmit and receive wireless signals; a movement detector; and a digital logic circuit (210, 220) configured to perform operations comprising: repetitively broadcasting wireless transmissions comprising a tag identification of the tag (102-108; 200) from the communication interface; detecting a movement of the tag (102-108; 200) with the movement detector; receiving a confirmation signal that is sent responsive to the broadcast tag ID at the communication interface of the tag (102-108; 200) indicating that information for the tag ID that was broadcast has been received; and characterized in that, the operations further comprising: adjusting a timing between the repetitive broadcasts responsive to receiving the confirmation signal and responsive to a determination that the movement does not satisfy a movement threshold. a communication interface that is configured to transmit and receive wireless signals; a movement detector; and a digital logic circuit (210, 220) configured to perform operations comprising: repetitively broadcasting wireless transmissions comprising a tag identification of the tag (102-108; 200) from the communication interface; detecting a movement of the tag (102-108; 200) with the movement detector; receiving a confirmation signal that is sent responsive to the broadcast tag ID at the communication interface of the tag (102-108; 200) indicating that information for the tag ID that was broadcast has been received; and characterized in that, the operations further comprising: adjusting a timing between the repetitive broadcasts responsive to receiving the confirmation signal and responsive to a determination that the movement does not satisfy a movement threshold. repetitively broadcasting wireless transmissions comprising a tag identification of the tag (102-108; 200) from the communication interface; detecting a movement of the tag (102-108; 200) with the movement detector; receiving a confirmation signal that is sent responsive to the broadcast tag ID at the communication interface of the tag (102-108; 200) indicating that information for the tag ID that was broadcast has been received; and characterized in that, the operations further comprising: adjusting a timing between the repetitive broadcasts responsive to receiving the confirmation signal and responsive to a determination that the movement does not satisfy a movement threshold.
A component (62;64) for a gas turbine engine comprising: an airfoil (68;74) having a first end; and a first platform (72;82) located at the first end of the airfoil (68;74), characterized by comprising: a compound fillet (120;102) including a first fillet portion tangent to the first platform (72;82) and an airfoil offset and a second fillet portion tangent to a surface of the airfoil and the first fillet portion; and a single fillet separated from the compound fillet (120;102) by a transition fillet, wherein the single fillet includes a radius larger than a radius of the first fillet portion and smaller than a radius of the second fillet portion. an airfoil (68;74) having a first end; and a first platform (72;82) located at the first end of the airfoil (68;74), characterized by comprising: a compound fillet (120;102) including a first fillet portion tangent to the first platform (72;82) and an airfoil offset and a second fillet portion tangent to a surface of the airfoil and the first fillet portion; and a single fillet separated from the compound fillet (120;102) by a transition fillet, wherein the single fillet includes a radius larger than a radius of the first fillet portion and smaller than a radius of the second fillet portion. a compound fillet (120;102) including a first fillet portion tangent to the first platform (72;82) and an airfoil offset and a second fillet portion tangent to a surface of the airfoil and the first fillet portion; and a single fillet separated from the compound fillet (120;102) by a transition fillet, wherein the single fillet includes a radius larger than a radius of the first fillet portion and smaller than a radius of the second fillet portion.