mhurhangee/patent-ind-claim-en huggingface dataset:
A drinking cup comprising: a container and a detachable closure , the closure having a connection end for connection to the container, the connection end being open for receipt of liquid from within the container, the closure having a closed end opposite the connection end and a drinking rim formed at the peripheral edge of the closed end, the closure having a side wall extending between the connection end and the closed end, and at least one opening that facilitates the passage of liquid from within the container to the drinking rim, a seal supported by the closure and extending around an outside surface of the side wall and sealing the drinking rim against the passage of liquid through the drinking rim, the seal being flexible and being responsive to pressure to lift away from the drinking rim to allow the passage of liquid through the drinking rim for drinking from the cup. a container and a detachable closure , the closure having a connection end for connection to the container, the connection end being open for receipt of liquid from within the container, the closure having a closed end opposite the connection end and a drinking rim formed at the peripheral edge of the closed end, the closure having a side wall extending between the connection end and the closed end, and at least one opening that facilitates the passage of liquid from within the container to the drinking rim, a seal supported by the closure and extending around an outside surface of the side wall and sealing the drinking rim against the passage of liquid through the drinking rim, the seal being flexible and being responsive to pressure to lift away from the drinking rim to allow the passage of liquid through the drinking rim for drinking from the cup.
A control apparatus configured to control, based on a detected shake amount, driving of a first image stabilizing unit for image stabilization by moving a correction optical system that constitutes at least part of an imaging optical system and a second image stabilizing unit for image stabilization by moving an image sensor configured to capture an object image formed by the imaging optical system, the control apparatus comprising: an acquiring unit configured to acquire first information about an image blur residue to be corrected relative to a moving amount of the correction optical system , when the first image stabilizing unit is driven, second information about an image blur residue to be corrected relative to a moving amount of the image sensor , when the second image stabilizing unit is driven, third information about a maximum image stabilizable amount of the first image stabilizing unit , and fourth information about a maximum image stabilizable amount of the second image stabilizing unit ; and a setting unit configured to set a correction ratio between the first image stabilizing unit and the second image stabilizing unit , characterized in that the setting unit is configured to set to the correction ratio a first ratio (A, 1-A) based on the first information and the second information, and a second ratio (C, 1-C) based on the third information and the fourth information, wherein the setting unit is configured to switch the correction ratio between the first ratio (A, 1-A) and the second ratio (C, 1-C) according to the shake amount. an acquiring unit configured to acquire first information about an image blur residue to be corrected relative to a moving amount of the correction optical system , when the first image stabilizing unit is driven, second information about an image blur residue to be corrected relative to a moving amount of the image sensor , when the second image stabilizing unit is driven, third information about a maximum image stabilizable amount of the first image stabilizing unit , and fourth information about a maximum image stabilizable amount of the second image stabilizing unit ; and a setting unit configured to set a correction ratio between the first image stabilizing unit and the second image stabilizing unit , characterized in that the setting unit is configured to set to the correction ratio a first ratio (A, 1-A) based on the first information and the second information, and a second ratio (C, 1-C) based on the third information and the fourth information, wherein the setting unit is configured to switch the correction ratio between the first ratio (A, 1-A) and the second ratio (C, 1-C) according to the shake amount.
A shaft-driven boat having a separate rudder positioned aft of a marine propulsion system, the marine propulsion system comprising: a recess formed in the hull of said boat and including a drive aperture formed through the hull ; and a drive cassette , said drive cassette comprising: a housing ; a static tube extending rearwardly from said housing and fixed relative thereto; at least one shaft bearing ; thrust bearings located within the housing ; and at least one straight drive shaft extending through said static tube and also through said housing ; the straight drive shaft being supported for rotation within the static tube by said at least one shaft bearing , and being rotatably supported within the housing by said thrust bearings ; said static tube , said straight drive shaft , the or each said shaft bearing , and said thrust bearings all being coaxially aligned with one another; wherein said housing and said recess are mutually configured such that said housing is engaged within said recess to install said drive cassette within the drivetrain of the boat ; and wherein said recess is an external recess provided below a waterline of the boat and such that said housing is engaged within the recess from outside the hull of the boat and with a forward end of the straight drive shaft being passed through the drive aperture . a recess formed in the hull of said boat and including a drive aperture formed through the hull ; and a drive cassette , said drive cassette comprising: a housing ; a static tube extending rearwardly from said housing and fixed relative thereto; at least one shaft bearing ; thrust bearings located within the housing ; and at least one straight drive shaft extending through said static tube and also through said housing ; the straight drive shaft being supported for rotation within the static tube by said at least one shaft bearing , and being rotatably supported within the housing by said thrust bearings ; said static tube , said straight drive shaft , the or each said shaft bearing , and said thrust bearings all being coaxially aligned with one another; a housing ; a static tube extending rearwardly from said housing and fixed relative thereto; at least one shaft bearing ; thrust bearings located within the housing ; and at least one straight drive shaft extending through said static tube and also through said housing ; the straight drive shaft being supported for rotation within the static tube by said at least one shaft bearing , and being rotatably supported within the housing by said thrust bearings ; said static tube , said straight drive shaft , the or each said shaft bearing , and said thrust bearings all being coaxially aligned with one another; wherein said housing and said recess are mutually configured such that said housing is engaged within said recess to install said drive cassette within the drivetrain of the boat ; and wherein said recess is an external recess provided below a waterline of the boat and such that said housing is engaged within the recess from outside the hull of the boat and with a forward end of the straight drive shaft being passed through the drive aperture .
An imaging quality controller , comprising: an imaging processing module operable to execute an image processing of subject image data of an anatomical object, wherein the image processing is at least one of a non-segmentation-based image registration and a segmentation-based image registration, a quality assessment module operable to assess an accuracy of the image processing of the subject image data of the anatomical object as a function of a subject Eigen weight set relative to a training Eigen weight range set, wherein the training Eigen weight range set is computed from Eigen modes of multiple training image data of the anatomical object, wherein the training image data is inclusive of transformation matrices resulting from the image processing, and wherein the subject Eigen weight set is computed by identical Eigen modes projection of the subject image data of the anatomical object, wherein the subject image data is inclusive of a transformation matrix resulting from the image processing. an imaging processing module operable to execute an image processing of subject image data of an anatomical object, wherein the image processing is at least one of a non-segmentation-based image registration and a segmentation-based image registration, a quality assessment module operable to assess an accuracy of the image processing of the subject image data of the anatomical object as a function of a subject Eigen weight set relative to a training Eigen weight range set, wherein the training Eigen weight range set is computed from Eigen modes of multiple training image data of the anatomical object, wherein the training image data is inclusive of transformation matrices resulting from the image processing, and wherein the subject Eigen weight set is computed by identical Eigen modes projection of the subject image data of the anatomical object, wherein the subject image data is inclusive of a transformation matrix resulting from the image processing.
Method for managing a torque applied to an output shaft of a heat engine comprising combustion chambers in each of which is mounted a piston connected to the output shaft in order to apply a torque thereto, the output shaft also being connected to a rotating machine associated with a management member , said method comprising the steps of detecting conditions of deactivation of a combustion chamber and of controlling the rotating machine in order to apply to the output shaft , prior to the deactivation of a combustion chamber , and after the deactivation of the combustion chamber, a compensating torque (CMT) tending to cause a resultant torque (CR) applied to the output shaft to change toward a deactivation torque (CD) applied by the heat engine to the output shaft after deactivation of the combustion chamber, said method being characterized in that : - prior to the deactivation, the compensating torque is a retardation torque that changes linearly in an increasing manner from a value of zero, until deactivation, and - after the deactivation, the compensating torque is an acceleration torque that changes linearly in a decreasing value to a value of zero, from deactivation. - prior to the deactivation, the compensating torque is a retardation torque that changes linearly in an increasing manner from a value of zero, until deactivation, and - after the deactivation, the compensating torque is an acceleration torque that changes linearly in a decreasing value to a value of zero, from deactivation.
Electronic ignition unit for a stun grenade , comprising at least one power source (20 1 , 20 2 , 20 n ), at least two igniters (70 1 , 70 2 , 70 n ), at least one control device , characterized in that the electronic ignition unit further comprises an igniter driver connected to the at least one power source (20 1 , 20 2 , 20 n ) and to the at least one control device , it also being possible for large voltages and currents to be implemented with the igniter driver , which voltages and currents cannot be directly implemented by the at least one control device , in that at least two igniters (70 1 , 70 2 , 70 n ) are formed, which are each connected via their own channel (75 1 , 75 2 , 75 n ) to the igniter driver , and in that the at least one control device is configured to control the igniters (70 1 , 70 2 , 70 n ) separately via the igniter driver . at least one power source (20 1 , 20 2 , 20 n ), at least two igniters (70 1 , 70 2 , 70 n ), at least one control device , characterized in that the electronic ignition unit further comprises an igniter driver connected to the at least one power source (20 1 , 20 2 , 20 n ) and to the at least one control device , it also being possible for large voltages and currents to be implemented with the igniter driver , which voltages and currents cannot be directly implemented by the at least one control device , in that at least two igniters (70 1 , 70 2 , 70 n ) are formed, which are each connected via their own channel (75 1 , 75 2 , 75 n ) to the igniter driver , and in that the at least one control device is configured to control the igniters (70 1 , 70 2 , 70 n ) separately via the igniter driver .
An apparatus for determining the particle size and/or the particle shape and/or the optical properties, such as transparency, of particles in a particle stream , comprising a feed device for feeding the particles to a measurement zone , wherein the particles flow through the measurement zone , comprising at least one illuminating device for illuminating the measurement zone , comprising at least two camera devices , each of which records a measurement area of the measurement zone assigned to the corresponding camera device , wherein a first camera device records a first, preferably larger, measurement area with a first, lesser magnification and a second camera device records a second, preferably smaller, measurement area with a second, greater magnification, comprising imaging optics for imaging the measurement areas and comprising an evaluation device for determining the particle size and/or the particle shape from the images of the two measurement areas , wherein the measurement areas are located in at least one object plane and the object plane is imaged by the imaging optics in at least two image planes in which the image sensors of the camera devices are located, characterised in that the imaging optics comprise at least one optical element arranged between the measurement zone and the two camera devices , on which and/or from which the light radiation emanating from the measurement zone is divided into at least two beam parts respectively assigned to the camera devices , and in that the illuminating device is designed such that the first measurement area and the second measurement area are always illuminated together, wherein the first measurement area is illuminated with the same intensity as the second measurement area .
A wireless communication apparatus comprising: a communication control unit configured to transmit a discovery response to a discovery request received from another wireless communication apparatus and to control a connection process to the other wireless communication apparatus , wherein the discovery response includes a function confirmation response to a function confirmation request included in the discovery request received from the other wireless communication apparatus , the function confirmation response being indicative of a function corresponding to an application and the function confirmation response causing the display screen of the other wireless communication apparatus to display the wireless communication apparatus and content data, and wherein the wireless communication apparatus and the other wireless communication apparatus are configured to start the connection process in response to a selection of the wireless communication apparatus by a user, characterized in that the wireless communication apparatus is further configured to perform the function according to a process type, when a notification of the process type is received from the other wireless communication device along with the pieces of content data, wherein the wireless communication apparatus is configured to display the content data received from the wireless communication apparatus without selection by the user, if the process type indicates displaying. a communication control unit configured to transmit a discovery response to a discovery request received from another wireless communication apparatus and to control a connection process to the other wireless communication apparatus , wherein the discovery response includes a function confirmation response to a function confirmation request included in the discovery request received from the other wireless communication apparatus , the function confirmation response being indicative of a function corresponding to an application and the function confirmation response causing the display screen of the other wireless communication apparatus to display the wireless communication apparatus and content data, and wherein the wireless communication apparatus and the other wireless communication apparatus are configured to start the connection process in response to a selection of the wireless communication apparatus by a user, characterized in that the wireless communication apparatus is further configured to perform the function according to a process type, when a notification of the process type is received from the other wireless communication device along with the pieces of content data, wherein the wireless communication apparatus is configured to display the content data received from the wireless communication apparatus without selection by the user, if the process type indicates displaying.
Method for producing a multilayered electret structure , comprising the following method steps: a) providing a carrier with an electrode composed of conductive material; b) applying a first electret layer to the electrode ; c) applying a second electret layer to the first electret layer in order to form the multilayered electret structure ; d) charging a surface or a near-surface volume region of the second electret layer with charge carriers ; e) subjecting the multilayered electret structure to a treatment, wherein the charge carriers flow away into the volume of the second electret layer and are retained in a boundary region between first electret layer and second electret layer , characterized in that the first electret layer is formed from an inorganic dielectric material with a high thermal charge carrier stability, and in that the second electret layer is formed from an organic dielectric material with a low thermal charge carrier stability, such that the thermal charge carrier stability of the first electret layer is higher than that of the second electret layer , wherein step e) is a thermal treatment, wherein the temperature is chosen such that the charged charge carriers have a significant mobility in the volume of the second electret layer and a non-significant mobility in the first electret layer , such that the mobility of the charged charge carriers is higher in the second electret layer than in the first electret layer . a) providing a carrier with an electrode composed of conductive material; b) applying a first electret layer to the electrode ; c) applying a second electret layer to the first electret layer in order to form the multilayered electret structure ; d) charging a surface or a near-surface volume region of the second electret layer with charge carriers ; e) subjecting the multilayered electret structure to a treatment, wherein the charge carriers flow away into the volume of the second electret layer and are retained in a boundary region between first electret layer and second electret layer , characterized in that the first electret layer is formed from an inorganic dielectric material with a high thermal charge carrier stability, and in that the second electret layer is formed from an organic dielectric material with a low thermal charge carrier stability, such that the thermal charge carrier stability of the first electret layer is higher than that of the second electret layer , wherein step e) is a thermal treatment, wherein the temperature is chosen such that the charged charge carriers have a significant mobility in the volume of the second electret layer and a non-significant mobility in the first electret layer , such that the mobility of the charged charge carriers is higher in the second electret layer than in the first electret layer .
A process comprising: reacting, in a reactor having a fixed bed containing a solid catalyst comprising a heterogeneous ion exchange resin, hydrogen sulfide and ethylene oxide in the presence of the solid catalyst to yield a reaction product comprising beta-mercaptoethanol, wherein during steady state operation of the reactor, the hydrogen sulfide and the ethylene oxide are present in a mole ratio in a range of 9:1 to 20:1.
An ostomy leak detection system comprising: a sensor device configured to detect one or more parameters or parameter values indicative of a condition of an ostomy product; and one or more auxiliary devices operably connected to the sensor device and configured to receive sensor information indicative of the condition of the ostomy product from the sensor device , wherein the sensor device is a leakage sensor device configured to detect electrical resistance, wherein the one or more auxiliary devices includes at least one of a monitoring device , a wearable device , a consumer electronic device and a server device , and characterised in that the sensor device is adapted to be synced each time an ostomy product is changed out or replaced and in that the one or more auxiliary devices develops ostomy product consumption information in accordance with a count of syncing operations of the sensor device and the one or more auxiliary devices . a sensor device configured to detect one or more parameters or parameter values indicative of a condition of an ostomy product; and one or more auxiliary devices operably connected to the sensor device and configured to receive sensor information indicative of the condition of the ostomy product from the sensor device , wherein the sensor device is a leakage sensor device configured to detect electrical resistance, wherein the one or more auxiliary devices includes at least one of a monitoring device , a wearable device , a consumer electronic device and a server device , and characterised in that the sensor device is adapted to be synced each time an ostomy product is changed out or replaced and in that the one or more auxiliary devices develops ostomy product consumption information in accordance with a count of syncing operations of the sensor device and the one or more auxiliary devices .