mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: (a) a body , (b) a shaft assembly extending distally from the body, wherein the shaft assembly defines a longitudinal axis; (c) an articulation section attached to a distal end of the shaft assembly; (d) an end effector located distally relative to the shaft assembly , wherein the end effector is connected to the articulation section ; and (e) an articulation drive assembly , wherein the articulation drive assembly is configured to drive the articulation section to thereby deflect the end effector relative to the longitudinal axis from a non-articulated configuration to an articulated configuration, wherein the articulation drive assembly comprises: (i) a cap fixed to the body , (ii) a rotatable housing rotatably coupled to the cap , wherein the rotatable housing comprises a ridge , characterised in that the cap comprises a resilient indication feature configured to interact with the ridge to provide a tactile response in response to the end effector deflecting into the non-articulated configuration. (a) a body , (b) a shaft assembly extending distally from the body, wherein the shaft assembly defines a longitudinal axis; (c) an articulation section attached to a distal end of the shaft assembly; (d) an end effector located distally relative to the shaft assembly , wherein the end effector is connected to the articulation section ; and (e) an articulation drive assembly , wherein the articulation drive assembly is configured to drive the articulation section to thereby deflect the end effector relative to the longitudinal axis from a non-articulated configuration to an articulated configuration, wherein the articulation drive assembly comprises: (i) a cap fixed to the body , (ii) a rotatable housing rotatably coupled to the cap , wherein the rotatable housing comprises a ridge , characterised in that the cap comprises a resilient indication feature configured to interact with the ridge to provide a tactile response in response to the end effector deflecting into the non-articulated configuration. (i) a cap fixed to the body , (ii) a rotatable housing rotatably coupled to the cap , wherein the rotatable housing comprises a ridge , characterised in that the cap comprises a resilient indication feature configured to interact with the ridge to provide a tactile response in response to the end effector deflecting into the non-articulated configuration.
Meter comprising a main measuring device to produce measurements of at least one magnitude relating to an element distributed via the meter to an installation connected to the meter , the meter comprising, in addition: a display unit ; an orientation sensor arranged to produce measurements of the orientation of the meter with respect to the direction of the Earth's gravity; a processing unit connected to the orientation sensor and to the display unit, and arranged to adapt an orientation of a character display on the display unit according to the orientation of the meter; said meter being characterized by : the processing unit being further arranged to detect an installation of the meter in an operational position, to acquire at least one orientation measurement following said detection, then to adapt, if necessary, the orientation of the display according to the orientation measurement; the processing unit being further arranged to detect the installation of the meter in the operational position when at least one magnitude measured by the main measuring device is greater than a predetermined measuring threshold or when a presence of the element is detected by the meter. a display unit ; an orientation sensor arranged to produce measurements of the orientation of the meter with respect to the direction of the Earth's gravity; a processing unit connected to the orientation sensor and to the display unit, and arranged to adapt an orientation of a character display on the display unit according to the orientation of the meter; said meter being characterized by : the processing unit being further arranged to detect an installation of the meter in an operational position, to acquire at least one orientation measurement following said detection, then to adapt, if necessary, the orientation of the display according to the orientation measurement; the processing unit being further arranged to detect the installation of the meter in the operational position when at least one magnitude measured by the main measuring device is greater than a predetermined measuring threshold or when a presence of the element is detected by the meter. the processing unit being further arranged to detect an installation of the meter in an operational position, to acquire at least one orientation measurement following said detection, then to adapt, if necessary, the orientation of the display according to the orientation measurement; the processing unit being further arranged to detect the installation of the meter in the operational position when at least one magnitude measured by the main measuring device is greater than a predetermined measuring threshold or when a presence of the element is detected by the meter.
A method of estimating a T 2 cutoff of a porous media, the method comprising the following consecutive steps: saturating a sample of the porous media with a fluid; measuring a T 2 distribution of the sample while saturated; preparing the sample for unsaturated measurement by spinning the sample in a centrifuge with a first end of the sample closer to an axis of rotation of the centrifuge than a second end of the sample, obtaining a saturation profile of the sample, wherein obtaining the saturation profile comprises performing NMR measurements on the sample, and identifying a first low-saturation portion of the sample; measuring a T 2 distribution of the porous media on the first low-saturation portion of the sample; and obtaining a first estimate of the T 2 cutoff of the porous media by comparing the T 2 distribution measured on the first low-saturation portion of the sample with the T 2 distribution measured under saturated conditions. saturating a sample of the porous media with a fluid; measuring a T 2 distribution of the sample while saturated; preparing the sample for unsaturated measurement by spinning the sample in a centrifuge with a first end of the sample closer to an axis of rotation of the centrifuge than a second end of the sample, obtaining a saturation profile of the sample, wherein obtaining the saturation profile comprises performing NMR measurements on the sample, and identifying a first low-saturation portion of the sample; spinning the sample in a centrifuge with a first end of the sample closer to an axis of rotation of the centrifuge than a second end of the sample, obtaining a saturation profile of the sample, wherein obtaining the saturation profile comprises performing NMR measurements on the sample, and identifying a first low-saturation portion of the sample; measuring a T 2 distribution of the porous media on the first low-saturation portion of the sample; and obtaining a first estimate of the T 2 cutoff of the porous media by comparing the T 2 distribution measured on the first low-saturation portion of the sample with the T 2 distribution measured under saturated conditions.
A coated window blind fabric comprising a fabric substrate which is coated with a pollen denaturing coating wherein the coating comprises a pollen denaturing agent comprising a basic zirconium carbonate compound, an anti-microbial agent and a polymeric carrier, wherein the pollen denaturing agent is different to the anti-microbial agent.
A sucker rod steel, comprising the following chemical elements in mass percent: C: 0.10∼0.20%, Si: 0.40∼0.80%, Mn: 0.20∼0.60%, Mo: 0.36∼0.46%, Cr: 6.15∼7.10%, Al: 0.015∼0.035%, Nb: 0.02∼0.06%, and N: 0.008∼0.015%, with the balance being Fe and other inevitable impurities; the microstructure of the sucker rod steel is tempered martensite and nanoscale precipitates.
Method for operating a vehicle, - wherein a digital map of a car park and at least one target position in the car park are received by the vehicle via a communication network, - wherein position data from one or more mobile objects located within the car park are received by the vehicle via the communication network, - wherein the vehicle navigates to the target position autonomously in the car park on the basis of the digital map and the position data from the one or more mobile objects, and - wherein the vehicle parks autonomously in the target position, characterized in that - prediction data associated with the mobile object(s) for future movements of the mobile object(s) are received by the vehicle via the communication network, with the result that the vehicle autonomously navigates on the basis of the future movements of the mobile object(s) in the car park, the data associated with the mobile object(s) being included in a dynamic layer of the digital map, the digital map also comprising a static layer that includes position data from one or more stationary objects located within the car park. - wherein a digital map of a car park and at least one target position in the car park are received by the vehicle via a communication network, - wherein position data from one or more mobile objects located within the car park are received by the vehicle via the communication network, - wherein the vehicle navigates to the target position autonomously in the car park on the basis of the digital map and the position data from the one or more mobile objects, and - wherein the vehicle parks autonomously in the target position, - prediction data associated with the mobile object(s) for future movements of the mobile object(s) are received by the vehicle via the communication network, with the result that the vehicle autonomously navigates on the basis of the future movements of the mobile object(s) in the car park, the data associated with the mobile object(s) being included in a dynamic layer of the digital map, the digital map also comprising a static layer that includes position data from one or more stationary objects located within the car park.
A method of operating a time-to-digital converter, comprising: - providing a time-to-digital converter with a measurement period for registration of events , - selecting time intervals of independent durations , each of the durations being independent of the registration of events, and - at each registration of an event, blocking the time-to-digital converter for one of the time intervals of independent durations, and then resetting the time-to-digital converter asynchronously with respect to the measurement period . - providing a time-to-digital converter with a measurement period for registration of events , - selecting time intervals of independent durations , each of the durations being independent of the registration of events, and - at each registration of an event, blocking the time-to-digital converter for one of the time intervals of independent durations, and then resetting the time-to-digital converter asynchronously with respect to the measurement period .
Palovarotene, or a pharmaceutically acceptable salt thereof, for use in a method of reducing heterotopic ossification in a subject with fibrodysplasia ossificans progressiva, said method comprising: (i) during a period when the subject is not experiencing any flare-up symptom and is not at risk of heterotopic ossification triggered by surgery orally administering daily to the subject an amount of 5 mg of palovarotene, or a pharmaceutically acceptable salt thereof, and (ii) during a period when the subject is experiencing at least one flare-up symptom or is at risk of heterotopic ossification triggered by surgery orally administering daily to the subject 20 mg of palovarotene, or a pharmaceutically acceptable salt thereof for 28 days, followed by administering daily to the subject 10 mg of palovarotene, or a pharmaceutically acceptable salt thereof, for at least 56 days.
A method of controlling operation of a graphics processor unit, GPU, the method comprising: whilst executing a first GPU task and in response to a second GPU task becoming ready to run , determining which of the first and second GPU task has a higher priority ; and in response to determining that the second GPU task has a higher priority than the currently executing first GPU task: estimating a completion time for each of the first and second GPU tasks , determining, using the estimated completion times, whether both the first and second GPU tasks can be completed before a deadline associated with the second GPU task , in response to determining that both the first and second GPU tasks cannot be completed before the deadline associated with the second GPU task, changing the operation of the GPU to increase an operating frequency of the GPU to ensure the deadline for the second GPU task can be met and allowing the first GPU task to complete execution before executing the second GPU task , in response to determining that both the first and second GPU tasks can be completed before the deadline associated with the second GPU task, allowing the first GPU task to complete execution , before executing the second GPU task . whilst executing a first GPU task and in response to a second GPU task becoming ready to run , determining which of the first and second GPU task has a higher priority ; and in response to determining that the second GPU task has a higher priority than the currently executing first GPU task: estimating a completion time for each of the first and second GPU tasks , determining, using the estimated completion times, whether both the first and second GPU tasks can be completed before a deadline associated with the second GPU task , in response to determining that both the first and second GPU tasks cannot be completed before the deadline associated with the second GPU task, changing the operation of the GPU to increase an operating frequency of the GPU to ensure the deadline for the second GPU task can be met and allowing the first GPU task to complete execution before executing the second GPU task , in response to determining that both the first and second GPU tasks can be completed before the deadline associated with the second GPU task, allowing the first GPU task to complete execution , before executing the second GPU task .
A tire comprising a cord-rubber composite, wherein the tire has a tire weight (WT) of 20 kg or less, the WT is a weight of the single tire not including a weight of a rim; when the lumen of the tire is provided with a member made of a sponge or sealant, a sensor member, or the like, the weight includes them, wherein the cord-rubber composite comprises an organic fiber cord, a topping rubber coating the organic fiber cord, and a short fiber filler, characterized in that the short fiber filler has a dispersion V of 0.6 or less defined as follows: V = 1 − R R = 1 N ∑ j exp 2 iθ j θ j | j = 1,2 , ⋯ , N [wherein i represents an imaginary unit, N is the number of short fiber filler masses that can be confirmed from a range of a reference area of an electron microscope image in a cross section of a topping rubber cut out in a plane parallel to both a length direction of the cord and a width direction of an arrangement of the cord with respect to the organic fiber cord, and θ represents an angle (radian) defined by an orientation direction of each short fiber filler mass with a length direction of the organic fiber cord in the cross section of the topping rubber.] wherein the tire has a tire weight (WT) of 20 kg or less, the WT is a weight of the single tire not including a weight of a rim; when the lumen of the tire is provided with a member made of a sponge or sealant, a sensor member, or the like, the weight includes them, wherein the cord-rubber composite comprises an organic fiber cord, a topping rubber coating the organic fiber cord, and a short fiber filler, characterized in that the short fiber filler has a dispersion V of 0.6 or less defined as follows: V = 1 − R R = 1 N ∑ j exp 2 iθ j θ j | j = 1,2 , ⋯ , N [wherein i represents an imaginary unit, N is the number of short fiber filler masses that can be confirmed from a range of a reference area of an electron microscope image in a cross section of a topping rubber cut out in a plane parallel to both a length direction of the cord and a width direction of an arrangement of the cord with respect to the organic fiber cord, and θ represents an angle (radian) defined by an orientation direction of each short fiber filler mass with a length direction of the organic fiber cord in the cross section of the topping rubber.]
Noise damper for an exhaust gas system of an internal combustion engine, comprising a noise damper housing having at least two interconnected housing shells delimiting a noise damper interior , wherein at least one exhaust gas inlet pipe open towards the noise damper interior and at least one exhaust gas outlet pipe open towards the noise damper interior are provided, wherein each housing shell has a housing shell connecting edge extending in a direction away from the noise damper interior , and the housing shells are connected to one another by material bonding in the region of their mutually oppositely arranged housing shell connecting edges , and wherein an insulating arrangement covering an inner side of at least one of the housing shells , at least in certain regions, is provided in the noise damper interior , wherein the insulating arrangement has at least one insulating shell with an insulating shell connecting edge extending in a direction away from the noise damper interior , and wherein the at least one insulating shell is arranged with its insulating shell connecting edge between the mutually oppositely arranged housing shell connecting edges of the housing shells and is connected by material bonding to the housing shell connecting edges of the housing shells in the region of the insulating shell connecting edge , wherein an exhaust gas flow volume is formed between the insulating shell and another housing shell of the housing shells , wherein the exhaust gas flow volume is subdivided into a plurality of chambers by at least one intermediate wall , and in that at least one intermediate wall is held clamped in between the insulating shell and the other housing shell of the housing shells , characterized in that at least one pipe out of the exhaust gas inlet pipe and the exhaust gas outlet pipe is connected to the noise damper housing in the region of a pipe-receiving opening formed between the insulating shell connecting edge and the housing shell connecting edge of the other housing shell of the housing shells . wherein an exhaust gas flow volume is formed between the insulating shell and another housing shell of the housing shells , wherein the exhaust gas flow volume is subdivided into a plurality of chambers by at least one intermediate wall , and in that at least one intermediate wall is held clamped in between the insulating shell and the other housing shell of the housing shells , characterized in that at least one pipe out of the exhaust gas inlet pipe and the exhaust gas outlet pipe is connected to the noise damper housing in the region of a pipe-receiving opening formed between the insulating shell connecting edge and the housing shell connecting edge of the other housing shell of the housing shells .
A filter unit for a continuous inkjet printer comprising: a body; a filter unit air inlet defined by the body and arranged to mate with an air inlet of an ink jet printer cabinet ; a recess for receiving an air filter defined by the body; and a filter unit air outlet defined by the body and arranged to mate with an air inlet of an ink system located in the inkjet printer cabinet. a body; a filter unit air inlet defined by the body and arranged to mate with an air inlet of an ink jet printer cabinet ; a recess for receiving an air filter defined by the body; and a filter unit air outlet defined by the body and arranged to mate with an air inlet of an ink system located in the inkjet printer cabinet.
A handle device for releasable fastening on a hand-held power tool , in particular a power drill or a power screwdriver, wherein the handle device has a clamping ring with a clamping mount for receiving a fastening portion , in particular a machine neck, of the hand-held power tool and a handle which projects from the clamping ring and which is provided and designed for gripping and/or grasping by an operator (BE), wherein, using a clamping-actuation grip which can be manually actuated by the operator (BE), the clamping mount can be adjusted between a clamping position (K) clamping the fastening portion of the hand-held power tool , in which clamping position an inner circumferential surface of the clamping mount lies in the clamping seat against the fastening portion of the hand-held power tool , and a release position (L) which releases the fastening portion of the hand-held power tool , in which release position the fastening portion of the hand-held power tool can be inserted into the clamping mount along an insertion axis (S), and wherein the handle device has an axial-form-fitting body mounted in a movable manner in relation to the clamping mount and having an axial-form-fitting contour for engagement in a mating axial-form-fitting contour of the fastening portion of the hand held power tool , characterized in that said handle device has a form-fitting actuation grip , which is separate from the clamping-actuation grip and which can be manually actuated by the operator (BE) independently of the clamping-actuation grip , for adjusting the axial-form-fitting body between an engagement position, in which the axial-form-fitting contour is engaged with the mating axial-form-fitting contour and locks the handle device with respect to the insertion axis (S) in a form-fitting manner on the fastening portion of the hand-held power tool , and a release position (F), in which the axial-form-fitting contour is disengaged from the mating axial-form-fitting contour , and the hand-held power tool and the holding device can be displaced relative to one another with respect to the insertion axis (S).