mhurhangee/patent-ind-claim-en huggingface dataset:
A cotter joint of guardrail sections of a safety traffic barrier comprising the guardrail sections , at least one bolt having a transverse through hole of a longitudinal axis (O3), nonparallel relative to the longitudinal axis (O2) of the bolt , and a resisting head , wherein the bolt extends through mounting openings of the connecting end sections of the guardrail sections which overlap with each other and adjoin with each other with their internal contact surfaces , wherein the mounting openings correspond and substantially coincide with each other, wherein said transverse through hole of the bolt is located at the side of said guardrail sections which overlap with each other, which is opposite relative to the resisting head , and a locking cotter which is disposed in said transverse through hole of the bolt and tightens said guardrail sections , which overlap with each other, against the resisting head of the bolt , characterized in that said bolt has a cross-section substantially corresponding to the cross-section of the mounting openings of the guardrail sections , wherein at least one reinforcing plate is mounted on each external non-contact surface of said connecting end sections of said guardrail sections which overlap with each other, wherein said reinforcing plate is provided with at least one through hole that substantially coincides with the at least one mounting opening of the guardrail section to which this reinforcing plate is mounted.
A method for detecting an extracellular membrane vesicle in a sample, comprising the following steps: a step for forming a complex of a Tim 4 protein bound to a carrier, and the extracellular membrane vesicle in the sample, in the presence of a calcium ion (complex formation step), a step for detecting the complex using an anti-extracellular membrane vesicle antibody (detection step). a step for forming a complex of a Tim 4 protein bound to a carrier, and the extracellular membrane vesicle in the sample, in the presence of a calcium ion (complex formation step), a step for detecting the complex using an anti-extracellular membrane vesicle antibody (detection step).
A method , comprising: a policy function transmitting (s406) to a depository function a request for information; and the policy function receiving (s408) a response to the request, characterized in that the response comprises: a usageMonDataLimit instance comprising a limit identifier, wherein the limit identifier identifies a usage monitoring control instance; and a usageMonData instance corresponding to the usageMonDataLimit instance, wherein the usageMonData instance also comprises the limit identifier. a policy function transmitting (s406) to a depository function a request for information; and the policy function receiving (s408) a response to the request, characterized in that the response comprises: a usageMonDataLimit instance comprising a limit identifier, wherein the limit identifier identifies a usage monitoring control instance; and a usageMonData instance corresponding to the usageMonDataLimit instance, wherein the usageMonData instance also comprises the limit identifier. a usageMonDataLimit instance comprising a limit identifier, wherein the limit identifier identifies a usage monitoring control instance; and a usageMonData instance corresponding to the usageMonDataLimit instance, wherein the usageMonData instance also comprises the limit identifier.
A tyre parameter monitoring system , comprising: an electronic module with a fitting ; a ball stud coupled to the fitting ; a valve stem , the valve stem having a ball socket that is coupled to the ball stud to form a ball joint such that the valve stem is positionable at different angles to the electronic module ; a nut , a washer and a seal placed over the valve stem, characterized in that in use the position of the valve stem with respect to the electronic module may be fixed by securing the nut , the washer and the seal to a distal end of the valve stem and to a wheel rim , wherein in a mounted position the nut is positioned on an outer surface of the wheel rim and is tightened to clamp the seal and washer between the valve stem and the wheel rim , thus pulling the valve stem inside the washer , exerting pressure on the ball socket and blocking rotation of the valve stem around the ball stud so as to provide an auto locking mechanism an electronic module with a fitting ; a ball stud coupled to the fitting ; a valve stem , the valve stem having a ball socket that is coupled to the ball stud to form a ball joint such that the valve stem is positionable at different angles to the electronic module ; a nut , a washer and a seal placed over the valve stem, characterized in that in use the position of the valve stem with respect to the electronic module may be fixed by securing the nut , the washer and the seal to a distal end of the valve stem and to a wheel rim , wherein in a mounted position the nut is positioned on an outer surface of the wheel rim and is tightened to clamp the seal and washer between the valve stem and the wheel rim , thus pulling the valve stem inside the washer , exerting pressure on the ball socket and blocking rotation of the valve stem around the ball stud so as to provide an auto locking mechanism
A method for wireless communications by a wireless device, comprising: receiving an indication of an initial narrowband region within a wider system bandwidth; identifying one or more narrowband regions within the wider system bandwidth, based on an amount of available resources in the system bandwidth, wherein the identifying comprises determining the one or more narrowband regions according to a hopping pattern, wherein each hop according to the hopping pattern is based on at least the indication of the initial narrowband region; and communicating using at least one of the identified one or more narrowband regions. receiving an indication of an initial narrowband region within a wider system bandwidth; identifying one or more narrowband regions within the wider system bandwidth, based on an amount of available resources in the system bandwidth, wherein the identifying comprises determining the one or more narrowband regions according to a hopping pattern, wherein each hop according to the hopping pattern is based on at least the indication of the initial narrowband region; and communicating using at least one of the identified one or more narrowband regions.
A compound represented by Formula (I), or a pharmaceutically acceptable salt thereof: wherein: X is selected from the group consisting of NR 6 and O; R 1 and R 2 are independently selected from the group consisting of hydrogen, halo and C 1-4 alkyl; R 3 is C 1-4 alkoxy; R 4 is [2-(dimethylamino)ethyl](methyl)amino; R 5 is selected from the group consisting of hydrogen, and C 1-3 alkoxyC 1-3 alkyl; R 6 is selected from the group consisting of hydrogen and C 1-4 alkyl; and the compound represented by Formula (I) does not comprise the following compounds: X is selected from the group consisting of NR 6 and O; R 1 and R 2 are independently selected from the group consisting of hydrogen, halo and C 1-4 alkyl; R 3 is C 1-4 alkoxy; R 4 is [2-(dimethylamino)ethyl](methyl)amino; R 5 is selected from the group consisting of hydrogen, and C 1-3 alkoxyC 1-3 alkyl; R 6 is selected from the group consisting of hydrogen and C 1-4 alkyl; and the compound represented by Formula (I) does not comprise the following compounds:
A rotor for an electric motor, comprising: a first rotor endpiece ; a second rotor endpiece ; a permanent magnet , secured between the first rotor endpiece and the second rotor endpiece; and a sleeve configured to surround a portion of the first rotor endpiece, a portion of the second rotor endpiece, and the permanent magnet; characterized in that the rotor further includes: one or more first retention features provided on the first rotor endpiece; and one or more second retention features provided on the second rotor endpiece, wherein each of the first retention features and the second retention features are configured to engage with the sleeve, characterised in that the sleeve comprises a plurality of first openings each configured to receive at least one of the first retention features and a plurality of second openings each configured to receive at least one of the second retention features. a first rotor endpiece ; a second rotor endpiece ; a permanent magnet , secured between the first rotor endpiece and the second rotor endpiece; and a sleeve configured to surround a portion of the first rotor endpiece, a portion of the second rotor endpiece, and the permanent magnet; characterized in that the rotor further includes: one or more first retention features provided on the first rotor endpiece; and one or more second retention features provided on the second rotor endpiece, wherein each of the first retention features and the second retention features are configured to engage with the sleeve, characterised in that the sleeve comprises a plurality of first openings each configured to receive at least one of the first retention features and a plurality of second openings each configured to receive at least one of the second retention features. one or more first retention features provided on the first rotor endpiece; and one or more second retention features provided on the second rotor endpiece, wherein each of the first retention features and the second retention features are configured to engage with the sleeve, characterised in that the sleeve comprises a plurality of first openings each configured to receive at least one of the first retention features and a plurality of second openings each configured to receive at least one of the second retention features.
A power supply apparatus comprising: a converter configured to supply current to a load ; a FET connected in series between the converter and the load ; a current detector including a current detection unit (Rs) configured to detect current flowing between the converter and the load ; a droop characteristic controller configured to cause output voltage of the converter to droop at a droop rate determined based on a magnitude of load current flowing from the converter towards the load ; and a reverse current limitation unit (U13A) configured to limit a reverse current flowing from the load towards the converter to be a reverse current limit or less by controlling a voltage between a gate and source of the FET ; wherein the droop rate when the load current is included in a first current section is greater than the droop rate when the load current is included in each of a second current section and a third current section; wherein the FET is configured to control the current outputted from the converter based on a signal outputted by the current detector ; wherein the second current section includes current that is smaller than current included in the first current section; and wherein the third current section includes current that is larger than the current included in the first current section. a converter configured to supply current to a load ; a FET connected in series between the converter and the load ; a current detector including a current detection unit (Rs) configured to detect current flowing between the converter and the load ; a droop characteristic controller configured to cause output voltage of the converter to droop at a droop rate determined based on a magnitude of load current flowing from the converter towards the load ; and a reverse current limitation unit (U13A) configured to limit a reverse current flowing from the load towards the converter to be a reverse current limit or less by controlling a voltage between a gate and source of the FET ; wherein the droop rate when the load current is included in a first current section is greater than the droop rate when the load current is included in each of a second current section and a third current section; wherein the FET is configured to control the current outputted from the converter based on a signal outputted by the current detector ; wherein the second current section includes current that is smaller than current included in the first current section; and wherein the third current section includes current that is larger than the current included in the first current section.
An orthosis for immobilizing a first one of the shoulder joints of a patient, having a strap arrangement which is designed to engage on an arm section at the elbow or adjacent to the elbow of the arm extending from the first shoulder joint in order to fix the elbow frontally on the body of the patient, wherein the strap arrangement has a first strap section which is provided for at least partially looping around the arm section , wherein the first strap section is provided so as to run anteriorly along the body of the patient away from the arm section , wherein the first strap section is formed by the first end of a circular strap of the strap arrangement, wherein the circular strap is designed to run circularly and horizontally around the patient, and wherein the second end of the circular strap engages on the arm section , wherein the first strap section is incorporated into the strap arrangement such that, in the fitted state of the orthosis, the first strap section exerts on the arm section a first force (F1) which has at least a first component running parallel to the frontal plane of the patient and horizontally, wherein the first component points from the arm section toward the body, such that the first force (F1) has an adductive effect on the arm , wherein the strap arrangement has a second strap section which is provided for at least partially looping around the arm section , and wherein the second strap section is incorporated into the strap arrangement such that, in the fitted state of the orthosis, the second strap section exerts on the arm section a second force (F2) which has at least a second component running parallel to the sagittal plane of the patient and horizontally, wherein the second component is directed toward the posterior, such that the second force effects a retroversion of the first arm .
A cyanide detection kit comprising (i) a metal contamination detection component comprising a solid buffer, the buffer being adapted to provide a pH from 9-10, and (ii) a cyanide detection component, comprising: at least one first colorimetric solid phase extraction device, said first device comprising a non-polar solid phase loaded with a first corrinoid compound selected from the group consisting of: a cobalamine according to formula (I), a cobyrinic acid hepta Cl -4 alkyl ester derivative (II), a cobyrinic acid (III) and a cobinamide (IV), wherein X is CN, OH2, OH, halogen (Cl, Br, I) or CH3, means for passing a gaseous or liquid sample over or across said device, and means for detecting a color change of said first corrinoid compound. (i) a metal contamination detection component comprising a solid buffer, the buffer being adapted to provide a pH from 9-10, and (ii) a cyanide detection component, comprising: at least one first colorimetric solid phase extraction device, said first device comprising a non-polar solid phase loaded with a first corrinoid compound selected from the group consisting of: a cobalamine according to formula (I), a cobyrinic acid hepta Cl -4 alkyl ester derivative (II), a cobyrinic acid (III) and a cobinamide (IV), wherein X is CN, OH2, OH, halogen (Cl, Br, I) or CH3, means for passing a gaseous or liquid sample over or across said device, and means for detecting a color change of said first corrinoid compound. a cobalamine according to formula (I), a cobyrinic acid hepta Cl -4 alkyl ester derivative (II), a cobyrinic acid (III) and a cobinamide (IV), wherein X is CN, OH2, OH, halogen (Cl, Br, I) or CH3, means for passing a gaseous or liquid sample over or across said device, and means for detecting a color change of said first corrinoid compound.
A method for notifying execution of Packet Data Convergence Protocol, PDCP, data recovery, the method comprises: sending , by a Master Node, MN, an inter-node signaling message between the MN and a Secondary Node, SN to the SN, characterized in that , the inter-node signaling message is used for instructing the SN to execute a PDCP data recovery process; wherein the method further comprises: carrying, by the MN, indication information through a newly defined first field in the inter-node signaling message, the indication information being used for instructing the SN to execute the PDCP data recovery process; wherein the first field is an optional attribute or mandatory attribute field; or carrying, by the MN, the indication information by reusing a second field in the inter-node signaling message; wherein the second field comprises at least two coding forms, different coding forms are used for carrying different information, and one of the at least two coding forms is used for carrying the indication information. sending , by a Master Node, MN, an inter-node signaling message between the MN and a Secondary Node, SN to the SN, characterized in that , the inter-node signaling message is used for instructing the SN to execute a PDCP data recovery process; wherein the method further comprises: carrying, by the MN, indication information through a newly defined first field in the inter-node signaling message, the indication information being used for instructing the SN to execute the PDCP data recovery process; wherein the first field is an optional attribute or mandatory attribute field; or carrying, by the MN, the indication information by reusing a second field in the inter-node signaling message; wherein the second field comprises at least two coding forms, different coding forms are used for carrying different information, and one of the at least two coding forms is used for carrying the indication information. carrying, by the MN, indication information through a newly defined first field in the inter-node signaling message, the indication information being used for instructing the SN to execute the PDCP data recovery process; wherein the first field is an optional attribute or mandatory attribute field; or carrying, by the MN, the indication information by reusing a second field in the inter-node signaling message; wherein the second field comprises at least two coding forms, different coding forms are used for carrying different information, and one of the at least two coding forms is used for carrying the indication information.
A compound of formula IA: or a pharmaceutically acceptable salt thereof, wherein R is wherein, optionally, at least one CX group in is replaced with N; further wherein: each of W 1 -W 4 is independently selected from H and C 1 -C 3 alkyl group; R 1 is C 1 -C 12 alkyl group; each of X 1 -X 5 is independently selected from the group consisting of H, N 3 , NO 2 , NH 2 , and a group comprising a heteroatom containing ring, wherein in the group comprising a heteroatom containing ring, the heteroatom containing ring is directly bound to the ring of R or is bound to the ring of R through a C 1 -C 3 alkyl group, provided that at least one of X 1 -X 5 is the group comprising the heteroatom containing ring. each of W 1 -W 4 is independently selected from H and C 1 -C 3 alkyl group; R 1 is C 1 -C 12 alkyl group; each of X 1 -X 5 is independently selected from the group consisting of H, N 3 , NO 2 , NH 2 , and a group comprising a heteroatom containing ring, wherein in the group comprising a heteroatom containing ring, the heteroatom containing ring is directly bound to the ring of R or is bound to the ring of R through a C 1 -C 3 alkyl group, provided that at least one of X 1 -X 5 is the group comprising the heteroatom containing ring.
A formed article formed of a single steel sheet , comprising: a top sheet portion ; a pair of standing wall portions ; and a protrusion portion which connects the top sheet portion to the standing wall portion and protrudes outward from the top sheet portion, characterized in that the formed article is a hot-stamping formed article, the protrusion portion includes an inner wall portion which stands upright from the top sheet portion, and an outer wall portion which is folded outward from an end edge of the inner wall portion, an angle (X) between the top sheet portion and the protrusion portion is 80° to 90°, and a martensite fraction of the protrusion portion is 90% or more. a top sheet portion ; a pair of standing wall portions ; and a protrusion portion which connects the top sheet portion to the standing wall portion and protrudes outward from the top sheet portion, characterized in that the formed article is a hot-stamping formed article, the protrusion portion includes an inner wall portion which stands upright from the top sheet portion, and an outer wall portion which is folded outward from an end edge of the inner wall portion, an inner wall portion which stands upright from the top sheet portion, and an outer wall portion which is folded outward from an end edge of the inner wall portion, an angle (X) between the top sheet portion and the protrusion portion is 80° to 90°, and a martensite fraction of the protrusion portion is 90% or more.
A method for controlling an angular position of a MEMS mirror, the MEMS mirror being controlled in a linear way, operating at a lower frequency than the natural resonance frequency of the MEMS structure, the method comprising: applying a first driving moment to the MEMS mirror to generate a rotational scanning movement of the mirror at a first scanning speed; performing a zooming so that the MEMS mirror passes from the first scanning speed to a second different scanning speed by applying a second driving moment to the MEMS mirror at a zooming instant, wherein the second driving moment is equal to the first driving moment plus an extra moment, wherein the extra moment is a DC offset; and applying a third driving moment to the MEMS mirror after a transient period of time from the zooming instant to rotate the MEMS mirror at the second scanning speed, the transient period being the length of time requested to accelerate from the first scanning speed to the second scanning speed. the MEMS mirror being controlled in a linear way, operating at a lower frequency than the natural resonance frequency of the MEMS structure, the method comprising: applying a first driving moment to the MEMS mirror to generate a rotational scanning movement of the mirror at a first scanning speed; performing a zooming so that the MEMS mirror passes from the first scanning speed to a second different scanning speed by applying a second driving moment to the MEMS mirror at a zooming instant, wherein the second driving moment is equal to the first driving moment plus an extra moment, wherein the extra moment is a DC offset; and applying a third driving moment to the MEMS mirror after a transient period of time from the zooming instant to rotate the MEMS mirror at the second scanning speed, the transient period being the length of time requested to accelerate from the first scanning speed to the second scanning speed. applying a first driving moment to the MEMS mirror to generate a rotational scanning movement of the mirror at a first scanning speed; performing a zooming so that the MEMS mirror passes from the first scanning speed to a second different scanning speed by applying a second driving moment to the MEMS mirror at a zooming instant, wherein the second driving moment is equal to the first driving moment plus an extra moment, wherein the extra moment is a DC offset; and applying a third driving moment to the MEMS mirror after a transient period of time from the zooming instant to rotate the MEMS mirror at the second scanning speed, the transient period being the length of time requested to accelerate from the first scanning speed to the second scanning speed.