mhurhangee/patent-ind-claim-en huggingface dataset:
An in-vehicle fall prevention device comprising: an acquisition unit that acquires a captured image obtained by imaging boarding motions of each of a plurality of users (M, Ma) when the users step up a stepped part and board a vehicle in which the users are capable of getting on and off; an ability estimation unit that estimates a physical ability value for each of the users based on the captured boarding motion; a risk degree determination unit that determines a fall risk degree (D) of the user based on the physical ability value; a determination unit that determines whether or not a boarding posture corresponding to the fall risk degree (D) is satisfied, for each of the users who boarded the vehicle; and a control unit that executes departure control of the vehicle based on a determination result of the determination unit . an acquisition unit that acquires a captured image obtained by imaging boarding motions of each of a plurality of users (M, Ma) when the users step up a stepped part and board a vehicle in which the users are capable of getting on and off; an ability estimation unit that estimates a physical ability value for each of the users based on the captured boarding motion; a risk degree determination unit that determines a fall risk degree (D) of the user based on the physical ability value; a determination unit that determines whether or not a boarding posture corresponding to the fall risk degree (D) is satisfied, for each of the users who boarded the vehicle; and a control unit that executes departure control of the vehicle based on a determination result of the determination unit .
A method to initialize a platform carried out by an apparatus , the method comprising: - detecting, by a platform power chance monitor of the apparatus, a power-on condition of the platform; - preventing, by a boot loader manager of the apparatus, loading of a default operating system for initiating operations of the platform in response to detecting a power-on condition of the platform; - retrieving, by a context manager of the apparatus, a first context information associated with the platform, wherein the first context information is a first Service Set Identifier SSID of a network in proximity of the platform; - retrieving , by a policy manager of the apparatus, a profile table stored in the platform comprising a plurality of different second context information, a plurality of different first operating system and a plurality of different access privileges to a platform storage comprising sensitive data in the platform; wherein each second context of the plurality of different second context information corresponds to one operating system of the different operating systems and one access privilege from the different access privileges; - identifying, by the policy manager , one second context of the different second context information in the table that matches the first context information; and - authorizing, by the policy manager , loading of the one operating system corresponding to the one second context information and authorizing, by a disk privilege manager of the apparatus, the one access privilege corresponding to the one second context information. - detecting, by a platform power chance monitor of the apparatus, a power-on condition of the platform; - preventing, by a boot loader manager of the apparatus, loading of a default operating system for initiating operations of the platform in response to detecting a power-on condition of the platform; - retrieving, by a context manager of the apparatus, a first context information associated with the platform, wherein the first context information is a first Service Set Identifier SSID of a network in proximity of the platform; - retrieving , by a policy manager of the apparatus, a profile table stored in the platform comprising a plurality of different second context information, a plurality of different first operating system and a plurality of different access privileges to a platform storage comprising sensitive data in the platform; - identifying, by the policy manager , one second context of the different second context information in the table that matches the first context information; and - authorizing, by the policy manager , loading of the one operating system corresponding to the one second context information and authorizing, by a disk privilege manager of the apparatus, the one access privilege corresponding to the one second context information.
An ophthalmic spectacle lens supply system for providing an ophthalmic spectacle lens according to a desired value of a geometrical parameter thereof, comprising: - processing means (PM2) at a lens determination side (LDS), adapted to provide lens data (LD) of a lens blank selected from a plurality of semi-finished spectacle lens blanks based upon order data (OD), and comprising: o selecting means (SM) adapted to select a lens blank from the plurality of semi-finished spectacle lens blanks based upon the measured value of the geometrical parameter of said lens blank, each semi-finished spectacle lens blank having an identifier allowing retrieval of the measured value of the geometrical parameter by retrieving the measured value of the geometrical parameter of the corresponding lens blanks, and comparing the measured values of the geometrical parameter of the lens blanks with the desired value for said geometrical parameter; and o outputting means (OM2) adapted to output said lens data (LD), wherein said lens data (LD) comprise lens blank data and surface data. - processing means (PM2) at a lens determination side (LDS), adapted to provide lens data (LD) of a lens blank selected from a plurality of semi-finished spectacle lens blanks based upon order data (OD), and comprising: o selecting means (SM) adapted to select a lens blank from the plurality of semi-finished spectacle lens blanks based upon the measured value of the geometrical parameter of said lens blank, each semi-finished spectacle lens blank having an identifier allowing retrieval of the measured value of the geometrical parameter by retrieving the measured value of the geometrical parameter of the corresponding lens blanks, and comparing the measured values of the geometrical parameter of the lens blanks with the desired value for said geometrical parameter; and o outputting means (OM2) adapted to output said lens data (LD), wherein said lens data (LD) comprise lens blank data and surface data. o selecting means (SM) adapted to select a lens blank from the plurality of semi-finished spectacle lens blanks based upon the measured value of the geometrical parameter of said lens blank, each semi-finished spectacle lens blank having an identifier allowing retrieval of the measured value of the geometrical parameter by retrieving the measured value of the geometrical parameter of the corresponding lens blanks, and comparing the measured values of the geometrical parameter of the lens blanks with the desired value for said geometrical parameter; and o outputting means (OM2) adapted to output said lens data (LD), wherein said lens data (LD) comprise lens blank data and surface data.
An igniter lance comprising a lance fuel duct for pulverised fuel and an electric igniter for ignition of the pulverized fuel passing through the lance fuel duct wherein the electric igniter is arranged for providing a plasma in an area in front of the igniter lance comprising at least one deflector facing a mouth and provided within a terminal part of the lance fuel duct , characterised in that the deflector is arranged for deflecting at least one part of the pulverized fuel flowing through the lance fuel duct towards the formed plasma .
A pneumatic tire comprising: a tread portion , a pair of sidewall portions , a pair of bead portions each with a bead core embedded therein, and a carcass composed of carcass plies extending between the bead portions through the tread portion and the sidewall portions , wherein the carcass plies include a turned-up carcass ply and a non-turnup carcass ply , the turned-up carcass ply extends between the bead portions and is turned up around the bead core in each bead portion from the axially inside to the outside of the tire so as to form a pair of turned up portions extending radially outwardly on the axially outsides of the respective bead cores , and a main portion extending between the turned up portions , and the non-turnup carcass ply extends between the bead portions and terminates so that edges thereof are positioned on the axially outsides of the respective turned up portions , characterized in that each of the bead portions is provided on the outer surface with vent lines protruding therefrom and extending continuously in the tire circumferential direction, wherein the vent lines include a radially outer vent line formed at a radial position radially outside a radial position of the above-said edges of the non-turnup carcass ply , and a radially inner vent line formed at a radial position radially inside the radial position of the above-said edges of the non-turnup carcass ply . a tread portion , a pair of sidewall portions , a pair of bead portions each with a bead core embedded therein, and a carcass composed of carcass plies extending between the bead portions through the tread portion and the sidewall portions , the carcass plies include a turned-up carcass ply and a non-turnup carcass ply , the turned-up carcass ply extends between the bead portions and is turned up around the bead core in each bead portion from the axially inside to the outside of the tire so as to form a pair of turned up portions extending radially outwardly on the axially outsides of the respective bead cores , and a main portion extending between the turned up portions , and the non-turnup carcass ply extends between the bead portions and terminates so that edges thereof are positioned on the axially outsides of the respective turned up portions , characterized in that each of the bead portions is provided on the outer surface with vent lines protruding therefrom and extending continuously in the tire circumferential direction,
A method for configuring a sounding reference signal, SRS, period, wherein the method comprises: obtaining (S201), by a communication apparatus, a quantity of radio resource control, RRC, connected users in at least one neighboring cell of a first cell within a first time period; predicting (S202), by the communication apparatus, a quantity of RRC connected users in the first cell within a second time period based on the quantity of RRC connected users in the at least one neighboring cell of the first cell within the first time period; and configuring (S203), by the communication apparatus based on the predicted quantity of RRC connected users in the first cell within the second time period, an SRS period for a terminal device that accesses the first cell within the second time period. obtaining (S201), by a communication apparatus, a quantity of radio resource control, RRC, connected users in at least one neighboring cell of a first cell within a first time period; predicting (S202), by the communication apparatus, a quantity of RRC connected users in the first cell within a second time period based on the quantity of RRC connected users in the at least one neighboring cell of the first cell within the first time period; and configuring (S203), by the communication apparatus based on the predicted quantity of RRC connected users in the first cell within the second time period, an SRS period for a terminal device that accesses the first cell within the second time period.
A convective dryer comprising a gas distributor and a drying chamber , said convective dryer configured for producing a powdery substance from an atomized liquid and being selected from the group comprising spray dryers, spray coolers, and spray absorbers, said gas distributer configured to generate a drying gas jet protruding from an exit surface of said gas distributer into said drying chamber ; wherein said gas distributer comprises a flow aligner , said flow aligner defining a plurality of flow channels configured to reduce or minimize a radial gas velocity component of said drying gas jet to low or zero radial gas velocity, wherein said plurality of flow channels in said flow aligner is a plurality of guide vanes ; characterized in that said plurality of guide vanes are organized to form a mesh or mesh-like structure , wherein said plurality of guide vanes in said flow aligner form a set of radial guide vanes and tangential guide vanes with reference to the axis of the gas distributer, wherein the set of radial and tangential guide vanes comprises a plurality of tangential guide vanes in the form of cylinders being assembled concentrically around the center axis of the flow aligner and combined with a plurality of radial guide vanes .
A method of treating a catheter , comprising: moving an expander longitudinally within a lumen of a catheter , while the catheter is outside a patient, wherein the expander comprises a control wire and a rigid enlarging member at a distal portion of the control wire , wherein an outer cross-sectional dimension of the enlarging member is (i) between 0.0051 mm and 0.0152 mm (0.0002" and 0.0006") larger than a first inner cross-sectional dimension of the lumen in an unrestrained condition and/or (ii) between 1% and 3% larger than the first inner cross-sectional dimension of the lumen , wherein the moving comprises passing the enlarging member from a first location distal to a distal end of the catheter to a second location proximal to a proximal end of the catheter . moving an expander longitudinally within a lumen of a catheter , while the catheter is outside a patient, wherein the expander comprises a control wire and a rigid enlarging member at a distal portion of the control wire , wherein an outer cross-sectional dimension of the enlarging member is (i) between 0.0051 mm and 0.0152 mm (0.0002" and 0.0006") larger than a first inner cross-sectional dimension of the lumen in an unrestrained condition and/or (ii) between 1% and 3% larger than the first inner cross-sectional dimension of the lumen , wherein the moving comprises passing the enlarging member from a first location distal to a distal end of the catheter to a second location proximal to a proximal end of the catheter .
A stopping device for an oscillating system of a watch movement, the oscillating system comprising: - a balance shaft , - a balance (9.1) mounted on the balance shaft , - a balance spring, - a double roller with at least one large roller (8.1), mounted on the balance shaft , the stopping device comprising: - at least one balance stopping control lever , the stopping device further comprising a braking member connected to the stopping control lever , characterized in that it is arranged to brake the double roller by entering into contact with the large roller (8.1) of the double roller which it includes. - a balance shaft , - a balance (9.1) mounted on the balance shaft , - a balance spring, - a double roller with at least one large roller (8.1), mounted on the balance shaft , - at least one balance stopping control lever ,
Circuitry for an induction element for an aerosol generating device , the induction element being for inductive heating of a susceptor for heating an aerosol generating material in use, the circuitry comprising: a driver arrangement arranged to provide, from an input direct current, an alternating current for driving the induction element in use; wherein the driver arrangement comprises a plurality of transistors (Q1, Q2, Q3, Q4) arranged in a H-bridge configuration: wherein the H-bridge configuration comprises a high side pair of transistors (Q1, Q2) and a low side pair of transistors (Q3, Q4), the high side pair being for connection to a first electric potential higher than a second electric potential to which the low side pair is for connection is use; characterised in that a first transistor of the high side pair (Q1, Q2) is a p-channel field effect transistor, and a second transistor of the low side pair (Q3, Q4) is an n-channel field effect transistor, the second transistor being electrically adjacent to the first transistor, wherein the driver arrangement comprises a first half-bridge device comprising: the first transistor; the second transistor; and a first body in which the first and second transistors are provided. a driver arrangement arranged to provide, from an input direct current, an alternating current for driving the induction element in use; wherein the driver arrangement comprises a plurality of transistors (Q1, Q2, Q3, Q4) arranged in a H-bridge configuration: wherein the H-bridge configuration comprises a high side pair of transistors (Q1, Q2) and a low side pair of transistors (Q3, Q4), the high side pair being for connection to a first electric potential higher than a second electric potential to which the low side pair is for connection is use; characterised in that a first transistor of the high side pair (Q1, Q2) is a p-channel field effect transistor, and a second transistor of the low side pair (Q3, Q4) is an n-channel field effect transistor, the second transistor being electrically adjacent to the first transistor, wherein the driver arrangement comprises a first half-bridge device comprising: the first transistor; the second transistor; and a first body in which the first and second transistors are provided.
An autonomous mobile work system comprising: a frame ; a housing connected to said frame , wherein said housing has an outer circumference and an open lower portion ; a drive wheel , wherein said drive wheel is connected to said frame ; a rotating blade assembly , wherein said rotating blade assembly is connected to said frame within said housing and is configured to cut vegetation, wherein said blade assembly includes a blade assembly axis of rotation ; a single motor operably connected to said blade assembly , wherein said motor includes a motor output shaft , and said motor output shaft includes an output shaft axis of rotation ; and a gear box comprising a planetary gear set operably connected to said drive wheel and said motor output shaft , wherein said planetary gear set comprises a ring gear having an outside diameter ; wherein said single motor urges rotation of both said rotating blade assembly and said drive wheel , characterized in that said ring gear defines a plurality of cavities at said outside diameter , and said planetary gear set further comprises a locking shaft , wherein said locking shaft is configured to enter a space within one of said plurality of cavities , by rotating between an engaged position and a disengaged position. a frame ; a housing connected to said frame , wherein said housing has an outer circumference and an open lower portion ; a drive wheel , wherein said drive wheel is connected to said frame ; a rotating blade assembly , wherein said rotating blade assembly is connected to said frame within said housing and is configured to cut vegetation, wherein said blade assembly includes a blade assembly axis of rotation ; a single motor operably connected to said blade assembly , wherein said motor includes a motor output shaft , and said motor output shaft includes an output shaft axis of rotation ; and a gear box comprising a planetary gear set operably connected to said drive wheel and said motor output shaft , wherein said planetary gear set comprises a ring gear having an outside diameter ; wherein said single motor urges rotation of both said rotating blade assembly and said drive wheel , characterized in that said ring gear defines a plurality of cavities at said outside diameter , and said planetary gear set further comprises a locking shaft , wherein said locking shaft is configured to enter a space within one of said plurality of cavities , by rotating between an engaged position and a disengaged position.
System to control the speed of locomotion vehicles , said system comprising: - a plurality of emission elements autonomous to and outside the locomotion vehicle and configured to emit respective signals of a maximum transit speed limit (L1, L2, Ln) allowed for the locomotion vehicle ; - at least a reception element installed on the locomotion vehicle , and configured to receive said signal of a maximum speed limit (L1, L2, Ln) allowed, - a first control and command unit configured to receive said signal of a maximum speed limit (L1, L2, Ln) and to process a command signal (C); - a second speed control and command unit configured to receive said command signal (C) emitted by the first control and command unit , and to regulate the speed of advance of the locomotion vehicle as a function of said maximum speed limit (L1, L2, Ln) detected, wherein said emission elements comprise infrared ray emitters configured to emit infrared rays (R) with predefined emission parameters, said emission parameters being correlated to respective signals of a maximum speed limit (L1, L2, Ln), and wherein said reception element comprises an infrared detector configured to detect said infrared rays (R), characterized in that said emission elements comprise regulation members configured to regulate the emission field of said infrared rays such that infrared rays emitted by emission elements located in direct proximity to each other are prevented from overlapping each other, thus generating wrong data acquisition by the reception element . - a plurality of emission elements autonomous to and outside the locomotion vehicle and configured to emit respective signals of a maximum transit speed limit (L1, L2, Ln) allowed for the locomotion vehicle ; - at least a reception element installed on the locomotion vehicle , and configured to receive said signal of a maximum speed limit (L1, L2, Ln) allowed, - a first control and command unit configured to receive said signal of a maximum speed limit (L1, L2, Ln) and to process a command signal (C); - a second speed control and command unit configured to receive said command signal (C) emitted by the first control and command unit , and to regulate the speed of advance of the locomotion vehicle as a function of said maximum speed limit (L1, L2, Ln) detected, wherein said emission elements comprise infrared ray emitters configured to emit infrared rays (R) with predefined emission parameters, said emission parameters being correlated to respective signals of a maximum speed limit (L1, L2, Ln), and wherein said reception element comprises an infrared detector configured to detect said infrared rays (R), characterized in that said emission elements comprise regulation members configured to regulate the emission field of said infrared rays such that infrared rays emitted by emission elements located in direct proximity to each other are prevented from overlapping each other, thus generating wrong data acquisition by the reception element .