mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: obtaining , by a traffic analysis service that monitors a network, file metadata regarding an electronic file; determining , by the traffic analysis service, an inferred sensitivity score for the electronic file based on the file metadata, wherein the inferred sensitivity score is indicative of an inference of the electronic file containing sensitive or restricted information; detecting , by the traffic analysis service, the electronic file within traffic in the network; causing , by the traffic analysis service, performance of a mitigation action regarding the detection of the electronic file within the traffic, based on the inferred sensitivity score of the electronic file. obtaining , by a traffic analysis service that monitors a network, file metadata regarding an electronic file; determining , by the traffic analysis service, an inferred sensitivity score for the electronic file based on the file metadata, wherein the inferred sensitivity score is indicative of an inference of the electronic file containing sensitive or restricted information; detecting , by the traffic analysis service, the electronic file within traffic in the network; causing , by the traffic analysis service, performance of a mitigation action regarding the detection of the electronic file within the traffic, based on the inferred sensitivity score of the electronic file.
A laundry treating apparatus comprising: a cabinet defining an external appearance of the laundry treating apparatus; a tub disposed in the cabinet ; a drum rotatably disposed in the tub , and having a cylindrical portion formed of a ferromagnetic material and a rear wall portion for closing an open rear end of the cylindrical portion , wherein the cylindrical portion has a plurality of through-holes formed therein and allows laundry to be loaded thereinto through an opening portion formed on a front surface; an induction heater disposed on the outer circumferential surface of the tub and configured to heat the drum by inducing an eddy current in the cylindrical portion ; a duct disposed on an outer side of the tub , having an inlet communicating with the opening portion of the drum , and an outlet communicating with the tub through a side surface of the tub surrounding the cylindrical portion ; and an air blower installed in the duct and configured to suction air into the inlet, wherein an air flow is introduced from the drum into the inlet of the duct and discharged into the tub through the outlet of the duct . a cabinet defining an external appearance of the laundry treating apparatus; a tub disposed in the cabinet ; a drum rotatably disposed in the tub , and having a cylindrical portion formed of a ferromagnetic material and a rear wall portion for closing an open rear end of the cylindrical portion , wherein the cylindrical portion has a plurality of through-holes formed therein and allows laundry to be loaded thereinto through an opening portion formed on a front surface; an induction heater disposed on the outer circumferential surface of the tub and configured to heat the drum by inducing an eddy current in the cylindrical portion ; a duct disposed on an outer side of the tub , having an inlet communicating with the opening portion of the drum , and an outlet communicating with the tub through a side surface of the tub surrounding the cylindrical portion ; and an air blower installed in the duct and configured to suction air into the inlet, wherein an air flow is introduced from the drum into the inlet of the duct and discharged into the tub through the outlet of the duct .
An electric truck provided with double-tires , comprising a drive device comprising: drive units each of which includes a drive unit housing integrally accommodating a motor that generates drive power, a reducer that reduces a rotation speed of the motor , and a final gear that is connected to the reducer and transfers the drive power of the motor to a drive shaft of the double-tire , wherein the drive units are provided to each of the double-tires on left and right sides of the electric truck ; the drive shaft of the double-tire is extended in a vehicle width direction with the truck traveling straight forward; the final gear is positioned at a center of two wheels constituting the double-tire in the vehicle width direction and distributes the drive power amplified by the reducer to the two wheels ; and the drive device further comprises a suspension part ; and a steering gear part provided above and integrated with the suspension part and configured to steer the double-tire ; and the suspension part and the steering gear part are integrally integrated above the final gear . drive units each of which includes a drive unit housing integrally accommodating a motor that generates drive power, a reducer that reduces a rotation speed of the motor , and a final gear that is connected to the reducer and transfers the drive power of the motor to a drive shaft of the double-tire , wherein the drive units are provided to each of the double-tires on left and right sides of the electric truck ; the drive shaft of the double-tire is extended in a vehicle width direction with the truck traveling straight forward; the final gear is positioned at a center of two wheels constituting the double-tire in the vehicle width direction and distributes the drive power amplified by the reducer to the two wheels ; and the drive device further comprises a suspension part ; and a steering gear part provided above and integrated with the suspension part and configured to steer the double-tire ; and the suspension part and the steering gear part are integrally integrated above the final gear .
A first device comprising: a detection unit configured to detect (S200) driving conditions of a vehicle (C1) within which the first device is positioned; a communication unit configured to receive a phone call or a message from a second device ; and a control unit configured to: determine (S1200) a threat level according to the driving conditions; if it is determined (S1200) that the threat level is a high threat level, limit (S1210) a notification with respect to the received phone call or message that occurs during a first time period; and if it is determined (S1220) that the threat level is a middle threat level, provide (S1230) the notification during the first time period according to an identity of the second device or according to an occurrence frequency of the received phone call or the received message from the second device ; and if it is determined (S1240) that the threat level is a low threat level, provide (S1250) the notification during the first time period; wherein the first time period is determined in real time according to the driving conditions of the vehicle (C1). a detection unit configured to detect (S200) driving conditions of a vehicle (C1) within which the first device is positioned; a communication unit configured to receive a phone call or a message from a second device ; and a control unit configured to: determine (S1200) a threat level according to the driving conditions; if it is determined (S1200) that the threat level is a high threat level, limit (S1210) a notification with respect to the received phone call or message that occurs during a first time period; and if it is determined (S1220) that the threat level is a middle threat level, provide (S1230) the notification during the first time period according to an identity of the second device or according to an occurrence frequency of the received phone call or the received message from the second device ; and if it is determined (S1240) that the threat level is a low threat level, provide (S1250) the notification during the first time period; wherein the first time period is determined in real time according to the driving conditions of the vehicle (C1). determine (S1200) a threat level according to the driving conditions; if it is determined (S1200) that the threat level is a high threat level, limit (S1210) a notification with respect to the received phone call or message that occurs during a first time period; and if it is determined (S1220) that the threat level is a middle threat level, provide (S1230) the notification during the first time period according to an identity of the second device or according to an occurrence frequency of the received phone call or the received message from the second device ; and if it is determined (S1240) that the threat level is a low threat level, provide (S1250) the notification during the first time period; wherein the first time period is determined in real time according to the driving conditions of the vehicle (C1).
An apparatus for controlling the flow of urine in a urethra of a patient comprising: an implantable adjustable constriction device for constricting the urethra to influence the flow in the urinary tract; an implantable operation device for operating the constriction device to change the constriction of the urethra; a control device for controlling the operation device , wherein the control device is configured to: control the operation device to constrict the urethra, and control the operation device to release the urethra; and an implantable energy source for supplying energy to the operation device ; an internal signal transmitter ; wherein the control device is configured to determine the current state of the energy source , and wherein the control device is configured to store measurements related to the current state of the energy source , and wherein the control device is connected to an internal signal transmitter configured to wirelessly transmit information reflecting the current state of the energy source . an implantable adjustable constriction device for constricting the urethra to influence the flow in the urinary tract; an implantable operation device for operating the constriction device to change the constriction of the urethra; a control device for controlling the operation device , wherein the control device is configured to: control the operation device to constrict the urethra, and control the operation device to release the urethra; and an implantable energy source for supplying energy to the operation device ; an internal signal transmitter ; wherein the control device is configured to determine the current state of the energy source , and wherein the control device is configured to store measurements related to the current state of the energy source , and wherein the control device is connected to an internal signal transmitter configured to wirelessly transmit information reflecting the current state of the energy source .
A method for transforming multi-touch input into one or more manipulation events, the method performed in a computing device having multi-touch hardware, the method comprising: receiving from the multi-touch hardware low-level touch input that corresponds to touches on the multi-touch hardware; identifying an application object to which the received low-level touch input applies; sending the received low-level touch input and information about the identified application object to a manipulation Application Programming Interface, API, for interpreting the received low-level touch input as one or more manipulation events, wherein the manipulation API is invocable by multiple applications and provides an application-independent platform for processing multi-touch input; receiving a manipulation event that describes one or more manipulations of the identified application object, the manipulation event comprising a 2D affine transform of the identified application object; and handling the received manipulation event by modifying the identified application object, such that the application receives one or more manipulation events without performing steps specific to a particular multi-touch hardware device and without interpreting individual low-level touch inputs. receiving from the multi-touch hardware low-level touch input that corresponds to touches on the multi-touch hardware; identifying an application object to which the received low-level touch input applies; sending the received low-level touch input and information about the identified application object to a manipulation Application Programming Interface, API, for interpreting the received low-level touch input as one or more manipulation events, wherein the manipulation API is invocable by multiple applications and provides an application-independent platform for processing multi-touch input; receiving a manipulation event that describes one or more manipulations of the identified application object, the manipulation event comprising a 2D affine transform of the identified application object; and handling the received manipulation event by modifying the identified application object, such that the application receives one or more manipulation events without performing steps specific to a particular multi-touch hardware device and without interpreting individual low-level touch inputs.
A method for an automatic torque compensation of a compressor, comprising: Obtaining (S1) a target speed and a feedback speed; generating (S2) a fluctuation speed according to the target speed and the feedback speed; generating (S3) a torque compensation angle according to the target speed and the fluctuation speed in a phase locked loop (PLL) manner; obtaining (S4) a load torque reference value and generating a torque compensation amplitude according to the load torque reference value; and generating (S5) a feedforward torque compensation value according to the target speed, the torque compensation angle and the torque compensation amplitude. Obtaining (S1) a target speed and a feedback speed; generating (S2) a fluctuation speed according to the target speed and the feedback speed; generating (S3) a torque compensation angle according to the target speed and the fluctuation speed in a phase locked loop (PLL) manner; obtaining (S4) a load torque reference value and generating a torque compensation amplitude according to the load torque reference value; and generating (S5) a feedforward torque compensation value according to the target speed, the torque compensation angle and the torque compensation amplitude.
A method for applying a polymeric composition , discharged in a fluid form from a slot die applicator to a substrate , the slot die applicator including a slot opening , a first lip and a second lip , the slot opening being located between the first lip and the second lip ; and the substrate having a first surface disposed opposite of a second surface and an unconstrained caliper, Hs, the method comprising the steps of: - continuously advancing the substrate in a machine direction; - engaging the substrate with a substrate carrier such that the first surface is in face-to-face contact with the substrate carrier and the second surface faces outward from the substrate carrier; - positioning the substrate carrier adjacent the slot die applicator to define a minimum distance, Hg, between the substrate carrier and the first lip and the second lip that is substantially the same or less than the unconstrained caliper, Hs, of the substrate ; - advancing the second surface of the substrate past the first lip , the slot opening , and the second lip of the slot die applicator while the first surface of the substrate is disposed on the substrate carrier ; and - discharging the polymeric composition from the slot opening of the slot die applicator onto the second surface of the substrate , wherein the polymeric composition comprises at least 50% of one or more polymers by weight of the polymeric composition and has a Tensile Strength at Yield of from 0.5 MPa to 10 MPa, as measured according to the Tensile Strength at Yield Test Method described herein. - continuously advancing the substrate in a machine direction; - engaging the substrate with a substrate carrier such that the first surface is in face-to-face contact with the substrate carrier and the second surface faces outward from the substrate carrier; - positioning the substrate carrier adjacent the slot die applicator to define a minimum distance, Hg, between the substrate carrier and the first lip and the second lip that is substantially the same or less than the unconstrained caliper, Hs, of the substrate ; - advancing the second surface of the substrate past the first lip , the slot opening , and the second lip of the slot die applicator while the first surface of the substrate is disposed on the substrate carrier ; and - discharging the polymeric composition from the slot opening of the slot die applicator onto the second surface of the substrate ,
A working machine pad for being provided in a working machine support belt so as to be interposed between a thigh of an operator (P) and a working machine, the working machine pad comprising: a plate portion disposed on the working machine side; a cushion portion disposed on the operator side and softer than the plate portion ; and a hook fixed to the plate portion and capable of locking the working machine, wherein: the cushion portion includes: a soft cushion portion ; and a hard cushion portion harder than the soft cushion portion ; and the soft cushion portion is disposed between the plate portion and the hard cushion portion , and wherein the plate portion is made of resin; and characterized in that the soft cushion portion and the hard cushion portion are made of sponge. a plate portion disposed on the working machine side; a cushion portion disposed on the operator side and softer than the plate portion ; and a hook fixed to the plate portion and capable of locking the working machine, wherein: the cushion portion includes: a soft cushion portion ; and a hard cushion portion harder than the soft cushion portion ; and the soft cushion portion is disposed between the plate portion and the hard cushion portion , and wherein the plate portion is made of resin; and the cushion portion includes: a soft cushion portion ; and a hard cushion portion harder than the soft cushion portion ; and a soft cushion portion ; and a hard cushion portion harder than the soft cushion portion ; and the soft cushion portion is disposed between the plate portion and the hard cushion portion , and wherein the plate portion is made of resin; and
A vacuum pump in which a pump main body and a control apparatus that controls the pump main body are integrated with each other, wherein a gap is formed between a bottom portion of the pump main body and a chassis of the control apparatus , and the control apparatus includes a cylindrical portion which protrudes from the chassis of the control apparatus , characterized in that , inside the cylindrical portion , a cable that connects the pump main body and the control apparatus to each other is passed, and a height of the cylindrical portion exceeds a height of the gap. a gap is formed between a bottom portion of the pump main body and a chassis of the control apparatus , and the control apparatus includes a cylindrical portion which protrudes from the chassis of the control apparatus , characterized in that , inside the cylindrical portion , a cable that connects the pump main body and the control apparatus to each other is passed, and a height of the cylindrical portion exceeds a height of the gap.
A semiconductor memory cell (100, 102, 104, 200, 100R1, 100R2, 300, 400, 500 comprising: a bi-stable floating body transistor comprising a first body ; and an access device comprising a second transistor having a second body ; wherein said bi-stable floating body transistor and said access device are electrically connected in series, a substrate region underlying both of said first and second bodies; a buried well region interposed between said substrate region and at least one of said first and second bodies; a first source region contacting said first body; a first drain region separated from said first source region and contacting said first body; a first gate insulated from said first body; an insulating member insulating said first body from said second body; a second source region contacting said second body; a second drain region separated from said second source region and contacting said second body; and a second gate (64, 364. 64A) insulated from said second body, a buried well terminal (78, 78a through 78n, 378, 478) which is electrically connected to the buried well region; and a substrate terminal (80, 80a through 80n, 380, 480) which is connected to the substrate region, wherein a holding operation on the memory cell is performed by applying a back bias to the buried well region through the buried well terminal or by applying a back bias to the substrate region through the substrate terminal. a bi-stable floating body transistor comprising a first body ; and an access device comprising a second transistor having a second body ; wherein said bi-stable floating body transistor and said access device are electrically connected in series, a substrate region underlying both of said first and second bodies; a buried well region interposed between said substrate region and at least one of said first and second bodies; a first source region contacting said first body; a first drain region separated from said first source region and contacting said first body; a first gate insulated from said first body; an insulating member insulating said first body from said second body; a second source region contacting said second body; a second drain region separated from said second source region and contacting said second body; and a second gate (64, 364. 64A) insulated from said second body, a buried well terminal (78, 78a through 78n, 378, 478) which is electrically connected to the buried well region; and a substrate terminal (80, 80a through 80n, 380, 480) which is connected to the substrate region, wherein a holding operation on the memory cell is performed by applying a back bias to the buried well region through the buried well terminal or by applying a back bias to the substrate region through the substrate terminal.
A unidirectional grating-based backlight for a display, comprising: a light guide configured to guide a light beam at a non-zero propagation angle; a light source configured to couple collimated light into the light guide at the non-zero propagation angle; a diffraction grating at a surface of the light guide, the diffraction grating being configured to diffractively couple out a portion of the guided light beam as a primary light beam and to direct the primary light beam away from the light guide surface at a predetermined principal angular direction, the diffraction grating further being configured to diffractively produce a secondary light beam and to direct the secondary light beam into the light guide; and an angularly selective reflective layer within the light guide adjacent to the light guide surface, the angularly selective reflective layer being configured to reflectively redirect the secondary light beam out of the light guide in a direction of the primary light beam and to pass the guided light beam at the non-zero propagation angle. a light guide configured to guide a light beam at a non-zero propagation angle; a light source configured to couple collimated light into the light guide at the non-zero propagation angle; a diffraction grating at a surface of the light guide, the diffraction grating being configured to diffractively couple out a portion of the guided light beam as a primary light beam and to direct the primary light beam away from the light guide surface at a predetermined principal angular direction, the diffraction grating further being configured to diffractively produce a secondary light beam and to direct the secondary light beam into the light guide; and an angularly selective reflective layer within the light guide adjacent to the light guide surface, the angularly selective reflective layer being configured to reflectively redirect the secondary light beam out of the light guide in a direction of the primary light beam and to pass the guided light beam at the non-zero propagation angle.