mhurhangee/patent-ind-claim-en huggingface dataset:
A method for waking up a terminal, comprising: determining (S210), by a terminal, that a plurality of wake-up signals that can wake up the terminal need to be monitored for one paging occasion, PO, wherein terminals that can be woken up by different wake-up signals in the plurality of wake-up signals are not completely the same, the plurality of wake-up signals comprise at least one of a first common wake-up signal and a second common wake-up signal, the first common wake-up signal is used to wake up a first-type terminal, the first-type terminal is a terminal that needs to monitor more than one wake-up signals for the PO, the second common wake-up signal is used to wake up a second-type terminal, and the second-type terminal is a terminal that needs to monitor one wake-up signal for the PO; and if the terminal detects at least one of the plurality of wake-up signals for the PO, monitoring (S220) a downlink control channel at the PO. determining (S210), by a terminal, that a plurality of wake-up signals that can wake up the terminal need to be monitored for one paging occasion, PO, wherein terminals that can be woken up by different wake-up signals in the plurality of wake-up signals are not completely the same, the plurality of wake-up signals comprise at least one of a first common wake-up signal and a second common wake-up signal, the first common wake-up signal is used to wake up a first-type terminal, the first-type terminal is a terminal that needs to monitor more than one wake-up signals for the PO, the second common wake-up signal is used to wake up a second-type terminal, and the second-type terminal is a terminal that needs to monitor one wake-up signal for the PO; and if the terminal detects at least one of the plurality of wake-up signals for the PO, monitoring (S220) a downlink control channel at the PO.
A method for providing operating system independent error control in computing devices, the method comprising: defining with a reliability, availability and serviceability, RAS, controller a first memory region for correctable errors and a second memory region for uncorrectable errors; receiving an error indication at the RAS controller; determining with the RAS controller whether the received error indication is a correctable error; in response to the determination, if the received error indication is a correctable error, writing with the RAS controller information about the correctable error to the first memory region, and if the received error indication is an uncorrectable error, writing with the RAS controller information about the uncorrectable error to the second memory region and sending an interrupt request from the RAS controller to an operating system executing on a processor; polling, by the operating system the first memory region to determine whether there is a correctable error to handle; and storing subsequent error notifications in a buffer until receiving at the RAS controller an error acknowledgement indicating an error associated with the information in the first memory region or the second memory region has been handled. defining with a reliability, availability and serviceability, RAS, controller a first memory region for correctable errors and a second memory region for uncorrectable errors; receiving an error indication at the RAS controller; determining with the RAS controller whether the received error indication is a correctable error; in response to the determination, if the received error indication is a correctable error, writing with the RAS controller information about the correctable error to the first memory region, and if the received error indication is an uncorrectable error, writing with the RAS controller information about the uncorrectable error to the second memory region and sending an interrupt request from the RAS controller to an operating system executing on a processor; if the received error indication is a correctable error, writing with the RAS controller information about the correctable error to the first memory region, and if the received error indication is an uncorrectable error, writing with the RAS controller information about the uncorrectable error to the second memory region and sending an interrupt request from the RAS controller to an operating system executing on a processor; polling, by the operating system the first memory region to determine whether there is a correctable error to handle; and storing subsequent error notifications in a buffer until receiving at the RAS controller an error acknowledgement indicating an error associated with the information in the first memory region or the second memory region has been handled.
A carboxymethylated cellulose nanofiber having a degree of crystallization of cellulose I type of 60% or more, an aspect ratio of less than 200, and a degree of carboxymethyl substitution of 0.10 to 0.40, and exhibiting a transmittance to light at a wavelength of 660 nm of 70% or more when the carboxymethylated cellulose nanofiber is dispersed in water to form a water dispersion having a solid content of 1% (w/v).
Pre-cast segment for a reinforced concrete tunnel, comprising an arcuate structure having a reinforcement and a cement agglomerate that is designed to cover structurally repeated annular tunnel segments for modules corresponding to a fraction of the cross section thereof, said arcuate structure comprising respective opposite radial faces that lie on planes that are angularly spaced apart from one another and passing through a longitudinal axis (X) of the tunnel, respective opposite circumferential faces that lie on surfaces perpendicular to said longitudinal axis (X) and are spaced apart along said longitudinal axis, respective opposite longitudinal faces that lie on surfaces that are parallel to said longitudinal axis (X), said radial faces being adapted to be moved towards respective radial faces of adjacent segments in order to form an annular tunnel portion, said circumferential faces being adapted to be moved towards respective circumferential faces of adjacent segments in order to form a linear extent of said tunnel along said longitudinal axis (X) and an outer longitudinal face , being at a greater distance than an inner longitudinal face from said longitudinal axis (X), is placed in contact with the ground of said tunnel, wherein at least one investigation device is embedded in said arcuate structure of said pre-cast segment at a predetermined distance (D) from at least one of said radial , circumferential or longitudinal faces, so as to detect predetermined structural parameters, said investigation device comprises a deformable body in which at least one deformation meter (Ri) is arranged, characterised in that said deformation body is configured to detect at least three deformation measures (E1, E2, E3) oriented with respect to one another, such that a tension (SYY) within said investigation device is proportional to a combination of said three deformation measures (E1, E2, E3) and in that said deformable body has purely resilient behaviour, at least with regard to the stresses permissible in said structure of said cement agglomerate.
A drive mechanism for a drug delivery device , the drive mechanism comprising, a piston rod comprising a first piston rod member and a second piston rod member that have a threaded engagement, the drive mechanism further comprising an adjustment member , wherein the first piston rod member is arranged at least partially inside the adjustment member and is rotationally fixed to the adjustment member , wherein the first piston rod member is arranged at least partly inside the second piston rod member , wherein the drive mechanism has a first state in which the first and the second piston rod member are moveable with respect to each other by rotating the adjustment member , thereby adjusting the length of the piston rod , and wherein in the first state a relative rotational and axial movement of the adjustment member relative to the second piston rod member is permitted, characterized in that in the first state the adjustment member is arranged at least partially inside the second piston rod member , wherein the adjustment member is configured to be moved completely into the second piston rod member or to a larger extent than in the first state, wherein once the adjustment member is moved completely or to a larger extent into the second piston rod member , the first and the second piston rod member are not moveable relative to each other. the drive mechanism comprising, a piston rod comprising a first piston rod member and a second piston rod member that have a threaded engagement, the drive mechanism further comprising an adjustment member , wherein the first piston rod member is arranged at least partially inside the adjustment member and is rotationally fixed to the adjustment member , wherein the first piston rod member is arranged at least partly inside the second piston rod member , wherein the drive mechanism has a first state in which the first and the second piston rod member are moveable with respect to each other by rotating the adjustment member , thereby adjusting the length of the piston rod , and wherein in the first state a relative rotational and axial movement of the adjustment member relative to the second piston rod member is permitted, characterized in that in the first state the adjustment member is arranged at least partially inside the second piston rod member , wherein the adjustment member is configured to be moved completely into the second piston rod member or to a larger extent than in the first state, wherein once the adjustment member is moved completely or to a larger extent into the second piston rod member , the first and the second piston rod member are not moveable relative to each other.
An apparatus for transmitting pilots in a wireless communication system characterised by : means for determining an assignment of resources for transmission in a wireless communication system; wherein the assignment is for at least a first and a second consecutive H-ARQ interlace, wherein each of the first and second consecutive H-ARQ interlaces comprises at least a first frame; means for determining pilot placements in a frame of a H-ARQ interlace based on the assignment of resources, wherein different pilot placements are used for different assignments of resources; and wherein the placement of at least one pilot in a frame of the second H-ARQ interlace is further determined based on the placement of at least one pilot in said frame of the first H-ARQ interlace. means for determining an assignment of resources for transmission in a wireless communication system; wherein the assignment is for at least a first and a second consecutive H-ARQ interlace, wherein each of the first and second consecutive H-ARQ interlaces comprises at least a first frame; means for determining pilot placements in a frame of a H-ARQ interlace based on the assignment of resources, wherein different pilot placements are used for different assignments of resources; and wherein the placement of at least one pilot in a frame of the second H-ARQ interlace is further determined based on the placement of at least one pilot in said frame of the first H-ARQ interlace.
System consisting of a - cable conduit outlet which is moulded on a car charging plug-in connector or is attached to a charging station, and - a cable conduit for receiving lines (3, 3', 3", 3"'), - a conductor receptacle element being arranged within the cable conduit , which conductor receptacle element has receptacles for the lines (3, 3', 3", 3′′′), the conductor receptacle element having a substantially cylindrical basic shape, and receptacles which run axially in the conductor receptacle element being provided for the lines (3, 3', 3", 3′′′), characterized - in that the cable conduit has, on the outer side, a clamping ring which is arranged in the region of the conductor receptacle element [§12, 24 and Fig. 21] and exerts a radial force on the cable conduit , by way of which the cable conduit is pressed onto the conductor receptacle element , - in that at least one part of the cable conduit runs within the cable conduit outlet , and - in that the clamping ring is arranged in a recess within the cable conduit outlet , and in that the cable conduit outlet has a seal which is arranged on the end side of the cable conduit outlet and protects the system against a penetration of media such as dirt and water. - cable conduit outlet which is moulded on a car charging plug-in connector or is attached to a charging station, and - a cable conduit for receiving lines (3, 3', 3", 3"'), - a conductor receptacle element being arranged within the cable conduit , which conductor receptacle element has receptacles for the lines (3, 3', 3", 3′′′), the conductor receptacle element having a substantially cylindrical basic shape, and receptacles which run axially in the conductor receptacle element being provided for the lines (3, 3', 3", 3′′′), - in that the cable conduit has, on the outer side, a clamping ring which is arranged in the region of the conductor receptacle element [§12, 24 and Fig. 21] and exerts a radial force on the cable conduit , by way of which the cable conduit is pressed onto the conductor receptacle element , - in that at least one part of the cable conduit runs within the cable conduit outlet , and - in that the clamping ring is arranged in a recess within the cable conduit outlet , and in that the cable conduit outlet has a seal which is arranged on the end side of the cable conduit outlet and protects the system against a penetration of media such as dirt and water.
Method of representing shape of an optical fiber sensor having a central core and a plurality of outer cores , each core comprising one or more sensing elements, the method comprising: (a) optically interrogating the cores of the fiber sensor from an incident optical wave over a wavelength range centered on a resonance wavelength of the one or more sensing elements, wherein the wavelength range is associated with a detection limited to a minimum radius of curvature along the fiber sensor; (b) reconstructing the shape of the fiber sensor involving processing of interferometric signals received from the optical interrogation of the cores , including reconstructing the shape of at least one out-of-range section along the fiber sensor which is a section having a radius of curvature lower than the minimum radius of curvature, wherein reconstructing the shape of the at least one out-of-range section includes calculating curvature of the fiber sensor in the at least one out-of-range section from interferometric signals received from the interrogation of the central core in the at least one out-of-range section; (c) displaying the shape of the fiber sensor including the at least one out-of-range section. (a) optically interrogating the cores of the fiber sensor from an incident optical wave over a wavelength range centered on a resonance wavelength of the one or more sensing elements, wherein the wavelength range is associated with a detection limited to a minimum radius of curvature along the fiber sensor; (b) reconstructing the shape of the fiber sensor involving processing of interferometric signals received from the optical interrogation of the cores , including reconstructing the shape of at least one out-of-range section along the fiber sensor which is a section having a radius of curvature lower than the minimum radius of curvature, wherein reconstructing the shape of the at least one out-of-range section includes calculating curvature of the fiber sensor in the at least one out-of-range section from interferometric signals received from the interrogation of the central core in the at least one out-of-range section; (c) displaying the shape of the fiber sensor including the at least one out-of-range section.
Anchor , for purposes of arrangement in thermal insulation layers , in particular on buildings, with a shank , a drill tip at a first end of the shank , a second end of the shank located opposite to the first end, and at least one thread on the shank , characterised in that , the shank has a first cylindrical section with a first diameter, adjoining the drill tip , and a second cylindrical section with a second, larger diameter, wherein the second section is arranged between the first section and the second end, wherein the first section and the second section are provided with the thread , and wherein a maximum value of the thread flank height is greater in the first section than in the second section .
A method, performed by a proxy node , for forwarding data to a wireless terminal , the method comprising the steps of: receiving (S102) data on a link between a core network and a backhaul hub node , said data being addressed to said wireless terminal served by, or handed over from, a serving network node connected to said backhaul hub node ; detecting (S104b) a mobility event of said wireless terminal , wherein said mobility event is indicated by a sequence number status transfer message; buffering (S106a) said data, wherein said data is buffered in response to having detected the mobility event; receiving (S110) a first indication to forward said data to a target network node of the wireless terminal ; forwarding (S112) said data towards said target network node in response thereto; and receiving (S114) a further indication from said serving network node to stop forwarding said data to said target network node , wherein said data is forwarded towards said target network node until said further indication is received. receiving (S102) data on a link between a core network and a backhaul hub node , said data being addressed to said wireless terminal served by, or handed over from, a serving network node connected to said backhaul hub node ; detecting (S104b) a mobility event of said wireless terminal , wherein said mobility event is indicated by a sequence number status transfer message; buffering (S106a) said data, wherein said data is buffered in response to having detected the mobility event; receiving (S110) a first indication to forward said data to a target network node of the wireless terminal ; forwarding (S112) said data towards said target network node in response thereto; and receiving (S114) a further indication from said serving network node to stop forwarding said data to said target network node , wherein said data is forwarded towards said target network node until said further indication is received.
A printer comprising: an ink tank ; a print head performing printing by using ink in the ink tank ; a substrate ; a light source provided at the substrate and irradiating the ink tank with light from a side of the ink tank ; a photoelectric conversion device provided at the substrate and detecting light incident from the ink tank in a period during which the light source emits light; a processing unit detecting an amount of ink in the ink tank based on an output of the photoelectric conversion device ; and characterized by a second substrate provided with the processing unit and an analog front end (AFE) , wherein the AFE performs analog-to-digital conversion of an analog signal from the photoelectric conversion device . an ink tank ; a print head performing printing by using ink in the ink tank ; a substrate ; a light source provided at the substrate and irradiating the ink tank with light from a side of the ink tank ; a photoelectric conversion device provided at the substrate and detecting light incident from the ink tank in a period during which the light source emits light; a processing unit detecting an amount of ink in the ink tank based on an output of the photoelectric conversion device ; and characterized by a second substrate provided with the processing unit and an analog front end (AFE) , wherein the AFE performs analog-to-digital conversion of an analog signal from the photoelectric conversion device .
A test method of evaluating wear resistance performance of a rubber material when used as a tread rubber of a tire, comprising a step (S1) of preparing a cylindrical test piece of the rubber material having a ground contact surface extending in a circumferential direction, a step (S2) of abrading the ground contact surface by rolling the test piece on a running surface of a wear testing machine at a slip ratio (α) of not more than 3.5% and a slip angle (θ) is 2 degrees or less, and a step (S3) of evaluating the wear resistance performance of the test piece by comparing the amount of wear of the test piece with a predetermined threshold value, wherein the wear testing machine is a LAT100 Laboratory Abrasion Tester having an abrasive disc rotating around an axis (j), and wherein the outer circumferential surface of the cylindrical test piece of the rubber material is brought into contact with the surface of the rotating abrasive disc so as to roll on the surface of the abrasive disc , wherein the slip ratio (α) is obtained by the following expression α = W / 2 R × 100 % wherein "W" is the width of the rubber material and corresponds to the width of a ground contact area (F), and "R" is a distance from axis (j) of a running surface to the center (Fj) of the ground contact area (F) and corresponds to a turning radius of the test piece . a step (S1) of preparing a cylindrical test piece of the rubber material having a ground contact surface extending in a circumferential direction, a step (S2) of abrading the ground contact surface by rolling the test piece on a running surface of a wear testing machine at a slip ratio (α) of not more than 3.5% and a slip angle (θ) is 2 degrees or less, and a step (S3) of evaluating the wear resistance performance of the test piece by comparing the amount of wear of the test piece with a predetermined threshold value, wherein the wear testing machine is a LAT100 Laboratory Abrasion Tester having an abrasive disc rotating around an axis (j), and wherein the outer circumferential surface of the cylindrical test piece of the rubber material is brought into contact with the surface of the rotating abrasive disc so as to roll on the surface of the abrasive disc , wherein the slip ratio (α) is obtained by the following expression α = W / 2 R × 100 % wherein "W" is the width of the rubber material and corresponds to the width of a ground contact area (F), and "R" is a distance from axis (j) of a running surface to the center (Fj) of the ground contact area (F) and corresponds to a turning radius of the test piece .