mhurhangee/patent-ind-claim-en huggingface dataset:
A machining cell for dry machining, having a work chamber which is delimited by means of an enclosure having a blowing-in device and an extraction device , characterised in that - the enclosure is closed in some regions by means of a workpiece table , - the blowing-in direction of the blowing-in device is oriented parallel to a workpiece clamping face of the workpiece table , - a chip conveyor with a conveying direction which is oriented normally to the blowing-in direction is arranged under the workpiece table , and - the extraction device has an extraction duct with an extraction direction which is oriented normally to the conveying direction of the chip conveyor and forms an angle between 20 degrees and 160 degrees with the blowing-in direction . - the enclosure is closed in some regions by means of a workpiece table , - the blowing-in direction of the blowing-in device is oriented parallel to a workpiece clamping face of the workpiece table , - a chip conveyor with a conveying direction which is oriented normally to the blowing-in direction is arranged under the workpiece table , and - the extraction device has an extraction duct with an extraction direction which is oriented normally to the conveying direction of the chip conveyor and forms an angle between 20 degrees and 160 degrees with the blowing-in direction .
A control device of an electric vehicle (V e ) including a driving force source having at least one motor , driving wheels , a shifting device operated by a driver, the shifting device being configured to selectively set one of two shift positions of a traveling position that generates driving force by transmitting output torque of the driving force source to the driving wheels , and a non-traveling position that does not generate the driving force without transmitting the output torque to the driving wheels , and a sensor configured to detect the shift position set by the shifting device , the control device comprising: a controller configured to control the motor according to the shift position detected by the sensor , characterized in that the controller is configured to, when the driver switches the shift position, cause the motor to output signal torque that enables the driver to sense a change in a vehicle behavior accompanied with switching of the shift position, wherein the signal torque is the output torque of the motor that generates a vibration that the driver can sense while maintaining a stopped state or a traveling state of the electric vehicle (Ve). a controller configured to control the motor according to the shift position detected by the sensor , characterized in that the controller is configured to, when the driver switches the shift position, cause the motor to output signal torque that enables the driver to sense a change in a vehicle behavior accompanied with switching of the shift position, wherein the signal torque is the output torque of the motor that generates a vibration that the driver can sense while maintaining a stopped state or a traveling state of the electric vehicle (Ve).
Optical device, comprising: - a lens having an adjustable focal length (f), a first photoensitive element and a housing , - a light source which is configured to emit light that is affected by said lens and impinges on at least the first photosensitive element , which is designed to generate a first output signal (O1) corresponding to the intensity of light impinging on it, - wherein the first photosensitive element is configured to measure only a portion of the intensity distribution of said emitted light , and - wherein the light source , the lens and the first photosensitive element are configured such that a change of the focal length (f) of said lens changes the intensity distribution of the emitted light that impinges on the first photosensitive element , so that each focal length (f) of the lens is associated to a specific first output signal (O1) generated by the first photosensitive element , - the lens has a first and a second optical element in the form of transparent cover elements , wherein the deformable membrane defining surface is arranged between said two cover elements , and wherein the membrane is arranged in the housing of the lens and faces a first optical element in the form of a cover element , and wherein the membrane , the housing and said cover element delimit a volume (V) of the lens that is filled with a fluid (F), characterized in that the light source is arranged on an inner side of a lateral circumferential wall of the housing of the lens . - a lens having an adjustable focal length (f), a first photoensitive element and a housing , - a light source which is configured to emit light that is affected by said lens and impinges on at least the first photosensitive element , which is designed to generate a first output signal (O1) corresponding to the intensity of light impinging on it, - wherein the first photosensitive element is configured to measure only a portion of the intensity distribution of said emitted light , and - wherein the light source , the lens and the first photosensitive element are configured such that a change of the focal length (f) of said lens changes the intensity distribution of the emitted light that impinges on the first photosensitive element , so that each focal length (f) of the lens is associated to a specific first output signal (O1) generated by the first photosensitive element , - the lens has a first and a second optical element in the form of transparent cover elements , wherein the deformable membrane defining surface is arranged between said two cover elements , and wherein the membrane is arranged in the housing of the lens and faces a first optical element in the form of a cover element , and wherein the membrane , the housing and said cover element delimit a volume (V) of the lens that is filled with a fluid (F),
Energy management method for an energy system, wherein a power prediction for use of an energy storage unit of the energy system for a time range is calculated, wherein, on the basis of the calculated power prediction , at least one externally usable partial storage capacity of the energy storage unit is determined, which partial storage capacity, according to the power prediction , is not used by the energy system within the time range , the determined partial storage capacity being provided for use external to the energy system, wherein the partial storage capacity comprises a charge storage capacity SOC + and a discharge storage capacity SOC_, wherein the charge storage capacity SOC + is used for externally charging the energy storage unit, and the discharge storage capacity SOC - is used for externally discharging the energy storage unit, and the charge storage capacity SOC + is determined by SOC + = 1 - SOC max , wherein SOC max indicates the maximum state of charge of the energy storage unit within the time range , and the discharge storage capacity SOC - is determined by SOC_ = 1 - SOC min , wherein SOC min indicates the minimum state of charge of the energy storage unit within the time range ; characterized in that the external use of the energy storage unit is such that the final state of charge of the energy storage unit with respect to the time range is equal to the initial state of charge with respect to the time range .
A nozzle assembly for a fluid application device for applying a fluid to a strand of material in a non-linear manner, the nozzle assembly comprising: a first conduit configured to receive a first fluid (F1); a second conduit configured to receive a second fluid (F2); an orifice configured to discharge the first fluid (F1) for application onto the strand of material; and a guide slot extending from the orifice , the guide slot configured to receive the strand of material, characterized by an application conduit including a receptacle , a first branch and a second branch , wherein the receptacle is fluidically connected with the first conduit and is configured to receive the first fluid (F1), and the first branch and the second branch are fluidically connected between the second conduit and the receptacle and are configured to receive the second fluid (F2); the orifice being fluidically connected to the application conduit , the second fluid being alternately discharged from the outlets adjacent to each orifice to cause the first fluid (F1) to fluctuate during application to the strand . a first conduit configured to receive a first fluid (F1); a second conduit configured to receive a second fluid (F2); an orifice configured to discharge the first fluid (F1) for application onto the strand of material; and a guide slot extending from the orifice , the guide slot configured to receive the strand of material, characterized by an application conduit including a receptacle , a first branch and a second branch , wherein the receptacle is fluidically connected with the first conduit and is configured to receive the first fluid (F1), and the first branch and the second branch are fluidically connected between the second conduit and the receptacle and are configured to receive the second fluid (F2); the orifice being fluidically connected to the application conduit , the second fluid being alternately discharged from the outlets adjacent to each orifice to cause the first fluid (F1) to fluctuate during application to the strand .
Hybrid system for performing magnetic resonance imaging (MRI) and radiofrequency ablation on a patient , with the following features: a) the hybrid system has a magnetic resonance imaging system in which MRI high-frequency signals can be generated for carrying out the magnetic resonance imaging and can be made available at an output connection of the magnetic resonance imaging system , b) the hybrid system has at least one ablation electrode for performing radiofrequency ablation, c) the at least one ablation electrode is coupled to the output connection of the magnetic resonance imaging system , so that the radiofrequency ablation can be performed via the at least one ablation electrode by means of the MRI high-frequency signals , characterized in that the hybrid system is set up to supply the MRI high-frequency signals either to the at least one ablation electrode or to an MRI transmitting coil of the magnetic resonance imaging system. a) the hybrid system has a magnetic resonance imaging system in which MRI high-frequency signals can be generated for carrying out the magnetic resonance imaging and can be made available at an output connection of the magnetic resonance imaging system , b) the hybrid system has at least one ablation electrode for performing radiofrequency ablation, c) the at least one ablation electrode is coupled to the output connection of the magnetic resonance imaging system , so that the radiofrequency ablation can be performed via the at least one ablation electrode by means of the MRI high-frequency signals ,
A computer-implemented method for generating a three-dimensional object image from a three-dimensional image depicting an object and a secondary object , comprising: projecting the three-dimensional image along a first axis to generate a first two-dimensional projection image ; defining a two-dimensional boundary of the object based upon the first two-dimensional projection image ; reprojecting the two-dimensional boundary through volume of the three-dimensional image along the first axis; extracting voxels comprised within the reprojected boundary to generate a three-dimensional sub-image; identifying boundaries of the object within the sub-image perpendicular to the first axis; defining a three-dimensional boundary of the object within the three-dimensional image based upon the two-dimensional boundary and the boundaries within the sub-image; extracting voxels comprised within the three-dimensional boundary to generate the three-dimensional object image depicting the object but not depicting the secondary object . projecting the three-dimensional image along a first axis to generate a first two-dimensional projection image ; defining a two-dimensional boundary of the object based upon the first two-dimensional projection image ; reprojecting the two-dimensional boundary through volume of the three-dimensional image along the first axis; extracting voxels comprised within the reprojected boundary to generate a three-dimensional sub-image; identifying boundaries of the object within the sub-image perpendicular to the first axis; defining a three-dimensional boundary of the object within the three-dimensional image based upon the two-dimensional boundary and the boundaries within the sub-image; extracting voxels comprised within the three-dimensional boundary to generate the three-dimensional object image depicting the object but not depicting the secondary object .
A method of an electronic device for processing a gesture, the method comprising: in response to an input of a hovering gesture to a folding area , which is determined (S1802) according to a sensed (S1801) folding state of the electronic device and includes a folding line of a flexible display of the electronic device , being input (S1803) while the flexible display is folded with reference to the folding line , wherein the flexible display is divided in response to folding of the electronic device into a first area and a second area with reference to the folding line , determining whether the hovering gesture is performed within the folding area , wherein the folding area includes a portion of each of the first area and the second area , and sensing (S1805) a position of the hovering gesture in the first area and the second area , respectively; and determining a hovering point corresponding to the hovering gesture, based on the sensed positions of the first area and the second area , respectively wherein a size of the folding area is increased together as a folding angle of the electronic device is increased. in response to an input of a hovering gesture to a folding area , which is determined (S1802) according to a sensed (S1801) folding state of the electronic device and includes a folding line of a flexible display of the electronic device , being input (S1803) while the flexible display is folded with reference to the folding line , wherein the flexible display is divided in response to folding of the electronic device into a first area and a second area with reference to the folding line , determining whether the hovering gesture is performed within the folding area , wherein the folding area includes a portion of each of the first area and the second area , and sensing (S1805) a position of the hovering gesture in the first area and the second area , respectively; and determining a hovering point corresponding to the hovering gesture, based on the sensed positions of the first area and the second area , respectively wherein a size of the folding area is increased together as a folding angle of the electronic device is increased.
A speaker system comprising: a transducer adapted to generate sound waves at a transducer output; a horn coupled to the transducer output and adapted to guide the sound waves from the transducer toward a horn output; and a grill coupled to the horn via a curved joint and adapted to redirect the sound waves from the horn output, wherein the transducer comprises a first transducer adapted to generate sound waves at a first transducer output, wherein the horn comprises a first horn coupled to the first transducer output and adapted to guide the sound waves from the first transducer toward a first horn output, and wherein the grill comprises a first grill coupled to the first horn via a first curved joint of the first grill and adapted to redirect the sound waves from the first horn output, the speaker system further comprising: a second transducer adapted to generate sound waves at a second transducer output; a second horn coupled to the second transducer output and adapted to guide the sound waves from the second transducer toward a second horn output; and a second grill coupled to the second horn via a second curved joint of the second grill and adapted to redirect the sound waves from the second horn output, each of the first grill and the second grill adapted to redirect the respective sound waves from the first horn output and the second horn output to a common direction, wherein: the first curved joint includes an interior surface forming an arc between the first grill and the first horn and an exterior surface forming a right angle between the first grill and the first horn. a transducer adapted to generate sound waves at a transducer output; a horn coupled to the transducer output and adapted to guide the sound waves from the transducer toward a horn output; and a grill coupled to the horn via a curved joint and adapted to redirect the sound waves from the horn output, wherein a second transducer adapted to generate sound waves at a second transducer output; a second horn coupled to the second transducer output and adapted to guide the sound waves from the second transducer toward a second horn output; and a second grill coupled to the second horn via a second curved joint of the second grill and adapted to redirect the sound waves from the second horn output, each of the first grill and the second grill adapted to redirect the respective sound waves from the first horn output and the second horn output to a common direction, wherein: the first curved joint includes an interior surface forming an arc between the first grill and the first horn and an exterior surface forming a right angle between the first grill and the first horn.
A method for transmitting information, comprising: transmitting (S210), by a first device, a random access message to a second device, wherein the random access message carries at least one of first dedicated information, that is used to establish a connection between the first device and the second device, of the first device and indication information for indicating second dedicated information, that is used to establish a connection between the first device and the second device, of the first device, characterized in that , in the case the random access message carries the indication information, the indication information is used to indicate the second device to acquire the second dedicated information on one of first resources configured, and the method further comprises: transmitting, by the first device, the second dedicated information on one of the first resources configured. transmitting (S210), by a first device, a random access message to a second device, wherein the random access message carries at least one of first dedicated information, that is used to establish a connection between the first device and the second device, of the first device and indication information for indicating second dedicated information, that is used to establish a connection between the first device and the second device, of the first device, characterized in that , in the case the random access message carries the indication information, the indication information is used to indicate the second device to acquire the second dedicated information on one of first resources configured, and the method further comprises: transmitting, by the first device, the second dedicated information on one of the first resources configured.
A stinger for communicating fluid between a fluid line and a downhole tool, the downhole tool disposed with tubing, the fluid line running through the tubing, the downhole tool having a tool bore for passage of tubing flow therethrough, the tool bore defining a tool port and an internal groove in an internal surface of the tool bore , the stinger comprising: a body having a proximal end and a distal end and defining a body bore for passage of the tubing flow therethrough between the proximal and distal ends, the body having a flow passage therein in communication with the fluid line , the body having a stinger port in an external surface of the body , the stinger port in communication with the flow passage , the body defining first and second external grooves on the external surface, the body being configured to insert at least partially into the tool bore of the downhole tool , the body bore being configured to communicate with the tool bore _for the passage of the tubing flow therethrough, the stinger port in the external surface being configured to be positioned in fluid communication with the tool port in the internal surface, wherein the stinger comprises a lock disposed on the external surface of the body , the lock having a dog being movable between the first and second external grooves and being shiftable between extended and retracted conditions, the dog moved to either of the first and second external grooves being shifted in the retracted condition, the dog moved between the first and second external grooves being shifted in the extended condition and being engageable in the internal groove in the tool bore . a body having a proximal end and a distal end and defining a body bore for passage of the tubing flow therethrough between the proximal and distal ends, the body having a flow passage therein in communication with the fluid line , the body having a stinger port in an external surface of the body , the stinger port in communication with the flow passage , the body defining first and second external grooves on the external surface, the body being configured to insert at least partially into the tool bore of the downhole tool , the body bore being configured to communicate with the tool bore _for the passage of the tubing flow therethrough, the stinger port in the external surface being configured to be positioned in fluid communication with the tool port in the internal surface, wherein the stinger comprises a lock disposed on the external surface of the body , the lock having a dog being movable between the first and second external grooves and being shiftable between extended and retracted conditions, the dog moved to either of the first and second external grooves being shifted in the retracted condition, the dog moved between the first and second external grooves being shifted in the extended condition and being engageable in the internal groove in the tool bore .
A foam forming composition comprising at least one diisocyanate component and/or at least one polyisocyanate component; and at least one aromatic polyester polyol component comprising: (i) at least one aromatic acid component; (ii) at least one hydroxylated component; (iii) at least one functionalized natural oil component which is the reaction product of an epoxidized natural oil reacted with water and/or a hydroxylated material to convert the epoxy groups to OH groups; and (iv) at least one catalyst component. (i) at least one aromatic acid component; (ii) at least one hydroxylated component; (iii) at least one functionalized natural oil component which is the reaction product of an epoxidized natural oil reacted with water and/or a hydroxylated material to convert the epoxy groups to OH groups; and (iv) at least one catalyst component.