mhurhangee/patent-ind-claim-en huggingface dataset:
A deodorant composition comprising: an oxazolidine-carboxylic acid compound or a thiazolidine-carboxylic acid compound and a cosmetic carrier, wherein the oxazolidine-carboxylic acid or thiazolidine-carboxylic acid is: (i) a compound of formula (I); (ii) an ester of a compound of formula (I); (iii) a salt of a compound of formula (I); or (iv) a compound that releases a compound of formula (I) in use; wherein X is S or O; R 1 , R 2 and R 3 can be the same or different, individually selected from hydrogen, C1-C20 linear, branched, or cyclic alkyl, alkenyl, or aryl residue, or mixtures thereof, R 2 and R 3 can be linked to form a cyclic structure, R 1 , R 2 and R 3 are each optionally substituted and optionally comprising one or more heteroatoms. an oxazolidine-carboxylic acid compound or a thiazolidine-carboxylic acid compound and a cosmetic carrier, wherein the oxazolidine-carboxylic acid or thiazolidine-carboxylic acid is: (i) a compound of formula (I); (ii) an ester of a compound of formula (I); (iii) a salt of a compound of formula (I); or (iv) a compound that releases a compound of formula (I) in use; wherein X is S or O; R 1 , R 2 and R 3 can be the same or different, individually selected from hydrogen, C1-C20 linear, branched, or cyclic alkyl, alkenyl, or aryl residue, or mixtures thereof, R 2 and R 3 can be linked to form a cyclic structure, R 1 , R 2 and R 3 are each optionally substituted and optionally comprising one or more heteroatoms. (i) a compound of formula (I); (ii) an ester of a compound of formula (I); (iii) a salt of a compound of formula (I); or (iv) a compound that releases a compound of formula (I) in use;
A wireless transmit/receive unit, WTRU , comprising: means for receiving a first transmission on a downlink control channel, the first transmission on the downlink control channel comprising an indication of first non-contention based, NCB, uplink control channel resources that have been allocated to the WTRU, wherein the first NCB uplink control channel resources are a combination of time multiplexed, frequency multiplexed, and code multiplexed; means for transmitting a first hybrid automatic repeat request, HARQ, feedback using the first NCB uplink control channel resources indicated in the first transmission on the downlink control channel; means for receiving a second transmission on the downlink control channel, the second transmission on the downlink control channel comprising an indication of second NCB uplink control channel resources that have been allocated to the WTRU; and means for transmitting a second HARQ feedback using the second NCB uplink control channel resources indicated in the second transmission on the downlink control channel. means for receiving a first transmission on a downlink control channel, the first transmission on the downlink control channel comprising an indication of first non-contention based, NCB, uplink control channel resources that have been allocated to the WTRU, wherein the first NCB uplink control channel resources are a combination of time multiplexed, frequency multiplexed, and code multiplexed; means for transmitting a first hybrid automatic repeat request, HARQ, feedback using the first NCB uplink control channel resources indicated in the first transmission on the downlink control channel; means for receiving a second transmission on the downlink control channel, the second transmission on the downlink control channel comprising an indication of second NCB uplink control channel resources that have been allocated to the WTRU; and means for transmitting a second HARQ feedback using the second NCB uplink control channel resources indicated in the second transmission on the downlink control channel.
A complementary nutritional composition characterized by a low glycaemic load for use in treatment, prevention and/or reducing the risk of a metabolic syndrome disorder appearing later in life, wherein the disorder is selected from the group consisting of diabetes mellitus, in particular diabetes mellitus type 2, cardiovascular disease, impaired glucose tolerance, impaired fasting glucose, impaired glucose homeostasis, insulin resistance, hypertension, dyslipidemia, overweight, obesity, particularly central obesity, and microalbuminuria, wherein the composition is characterized by a low glycemic index and/or comprises an ingredient characterized by a low glycemic index, wherein a low glycaemic load is indicated as having a glycaemic load equal or lower than 20, wherein a low glycemic index is indicated as having a glycemic index equal or lower than 70, wherein later in life refers to the period of time after childhood, that is after 12 years of age, wherein the composition comprises at least one carbohydrate-based ingredient with low glycemic index selected from the group consisting of: Resistant starches, Lactose, Isomaltulose, Galactose and Fructose, wherein the composition is administered to an infant or young child who is at risk of developing a metabolic syndrome disorder and wherein the composition comprises an amount of added sugars with low glycemic index which ranges from 1 to 30% w/w.
An information processing apparatus comprising: an information acquisition unit configured to acquire traveling route information referring to a traveling route of an own vehicle and traffic information relating to the traveling route; and a display controlling unit configured to display a driver intervention requiring section (Sb, Sc, Sd) of the traveling route and an automatic driving available section (Sa) of the traveling route on a reach prediction time axis from a current point, said current point being a point at which the own vehicle is currently traveling, on a display device on a basis of the traveling route information and the traffic information, wherein representing sections of a traveling route on a reach prediction time axis involves dividing a physical distance on the traveling route by an average speed for each section, and wherein the display controlling unit is configured to present information to the driver and to display all displayed sections of the traveling route as divided into three sections with changed time axis, and wherein. the display controlling unit is configured to display a first section from the current point to a first point on a first time axis, to display a second section from the first point to a second point in a time axis that sequentially changes from the first time axis to a second time axis reduced at a predetermined ratio with respect to the first time axis, and to display a third section from the second point to a third point on the second time axis. an information acquisition unit configured to acquire traveling route information referring to a traveling route of an own vehicle and traffic information relating to the traveling route; and a display controlling unit configured to display a driver intervention requiring section (Sb, Sc, Sd) of the traveling route and an automatic driving available section (Sa) of the traveling route on a reach prediction time axis from a current point, said current point being a point at which the own vehicle is currently traveling, on a display device on a basis of the traveling route information and the traffic information, wherein representing sections of a traveling route on a reach prediction time axis involves dividing a physical distance on the traveling route by an average speed for each section, and wherein the display controlling unit is configured to present information to the driver and to display all displayed sections of the traveling route as divided into three sections with changed time axis, and wherein. the display controlling unit is configured to display a first section from the current point to a first point on a first time axis, to display a second section from the first point to a second point in a time axis that sequentially changes from the first time axis to a second time axis reduced at a predetermined ratio with respect to the first time axis, and to display a third section from the second point to a third point on the second time axis.
A computer-implemented method of training a machine learning system to generate an estimated spatial radiotherapy dose distribution for a treatment site (21;41) including at least a portion of a patient to be treated comprising inputting to the machine learning system a plurality of training data sets , each training data set comprising an actual spatial radiotherapy dose distribution for a treatment site and a partial radiotherapy dose distribution , which is a part of the actual spatial radiotherapy dose distribution, including dose information only for one or more regions of interest (23, 24; 43, 44) within the treatment site, and evaluating the output based on the actual spatial radiotherapy dose distribution.
Method for operating a class-D amplifier for amplifying an audio signal , wherein the amplifier contains, in a signal path for the audio signal , an output stage and a digital signal processing unit arranged upstream of the output stage , wherein the signal processing unit contains a digital/analogue converter (DAC), in which: - a voltage (U) having two different levels (U1, U2) is provided for the purpose of supplying power to the output stage , - a voltage requirement (B) of the output stage that is needed to subsequently amplify the audio signal in the output stage is predictively determined from the audio signal at a measurement location in the signal path upstream of the signal processing unit directly before the digital/analogue converter (DAC), - in a manner following the predictively determined voltage requirement (B), a respective level (U1, U2) of the voltage (U), which is minimally sufficient for the voltage requirement (B), is selected and is applied to the output stage before the time (t2) at which the audio signal is amplified, - for each level (U1, U2) of the voltage (U), a separate fixed voltage (UF1,2) of this level (U1, U2) is permanently held, and the voltage (U) is increased and/or reduced, by means of continuous and controlled switching in the form of a voltage ramp with a maximum edge steepness of 5 V/ps between the fixed voltages (UF1,2), in such a manner that the voltage (U) of the level required according to the voltage requirement (B) is available in advance in good time at the output stage before the output stage requires a corresponding power from the voltage (U) at the time (t2) for the purpose of actually amplifying the corresponding audio signal . - a voltage (U) having two different levels (U1, U2) is provided for the purpose of supplying power to the output stage , - a voltage requirement (B) of the output stage that is needed to subsequently amplify the audio signal in the output stage is predictively determined from the audio signal at a measurement location in the signal path upstream of the signal processing unit directly before the digital/analogue converter (DAC), - in a manner following the predictively determined voltage requirement (B), a respective level (U1, U2) of the voltage (U), which is minimally sufficient for the voltage requirement (B), is selected and is applied to the output stage before the time (t2) at which the audio signal is amplified, - for each level (U1, U2) of the voltage (U), a separate fixed voltage (UF1,2) of this level (U1, U2) is permanently held, and the voltage (U) is increased and/or reduced, by means of continuous and controlled switching in the form of a voltage ramp with a maximum edge steepness of 5 V/ps between the fixed voltages (UF1,2), in such a manner that the voltage (U) of the level required according to the voltage requirement (B) is available in advance in good time at the output stage before the output stage requires a corresponding power from the voltage (U) at the time (t2) for the purpose of actually amplifying the corresponding audio signal .
A method for testing a feed antenna of a satellite comprising: generating a source signal internal to the satellite , wherein the satellite includes the feed antenna disposed on an exterior of the satellite ; generating a transmit signal external to the satellite by a broadcast of the source signal with the feed antenna ; generating a test signal with a probe in response to a first reception of a test portion of the transmit signal , wherein the probe is external to the satellite ; generating a reference signal with a reference horn in response to a second reception of a reference portion of the transmit signal , wherein the reference horn is external to the satellite , wherein the second reception made by the reference horn is receiving a side lobe of the transmit signal ; and determining an amplitude and a phase of the transmit signal based on the test signal relative to the reference signal . generating a source signal internal to the satellite , wherein the satellite includes the feed antenna disposed on an exterior of the satellite ; generating a transmit signal external to the satellite by a broadcast of the source signal with the feed antenna ; generating a test signal with a probe in response to a first reception of a test portion of the transmit signal , wherein the probe is external to the satellite ; generating a reference signal with a reference horn in response to a second reception of a reference portion of the transmit signal , wherein the reference horn is external to the satellite , wherein the second reception made by the reference horn is receiving a side lobe of the transmit signal ; and determining an amplitude and a phase of the transmit signal based on the test signal relative to the reference signal .
A safety contact for a safety line in a train , the safety contact comprising a controller and a safety switch circuit , wherein the controller comprises a sensor input for receiving signals indicating failure, wherein the safety contact comprises an input for a safety line input signal, which input is operably connected to the controller whereby the controller is configured to receive a control signal representing a safety line state which is dependent on the safety line input signal received at the input input, wherein the safety switch circuit comprises a set of at least one safety switch , the safety switch being positioned between a power supply and an output , wherein the controller is configured to: ∘ upon receiving a control signal indicating a working safety line state and a sensor input value representing no safety function failure, close said safety switch of the safety switch circuit , thereby connecting the output of the safety switch circuit to the power supply , thus putting an output signal on the output , the output signal indicating a working safety line state, and ∘ upon receiving a control signal indicating a non-working safety line state or a sensor input value representing a safety function failure, open said safety switch of the safety switch circuit , thereby essentially interrupting the safety line . ∘ upon receiving a control signal indicating a working safety line state and a sensor input value representing no safety function failure, close said safety switch of the safety switch circuit , thereby connecting the output of the safety switch circuit to the power supply , thus putting an output signal on the output , the output signal indicating a working safety line state, and ∘ upon receiving a control signal indicating a non-working safety line state or a sensor input value representing a safety function failure, open said safety switch of the safety switch circuit , thereby essentially interrupting the safety line .
A method for fault diagnosis in one or more cables of a vehicular communication network , the method comprising: obtaining at least one return echo signal corresponding to a signal communicated over a cable in a vehicle ; applying, to the at least one return echo signal, a computer trained model that distinguishes among a plurality of predetermined fault types in cables , so as to identify a predetermined fault type, based on characteristics of the return echo signal learned from computer analysis of a multiplicity of previous echo signals, from amongst at least two different predetermined fault types, in the cable , wherein the characteristics of the return signal include a shape of the return echo signal, and wherein the applying the computer trained model includes analyzing the shape of the return echo signal against a predetermined shape of at least two return echo signals, each of the predetermined shapes associated with a predetermined fault type from amongst at least two different predetermined fault types; and initiating an action in response to the identified predetermined fault type. obtaining at least one return echo signal corresponding to a signal communicated over a cable in a vehicle ; applying, to the at least one return echo signal, a computer trained model that distinguishes among a plurality of predetermined fault types in cables , so as to identify a predetermined fault type, based on characteristics of the return echo signal learned from computer analysis of a multiplicity of previous echo signals, from amongst at least two different predetermined fault types, in the cable , wherein the characteristics of the return signal include a shape of the return echo signal, and wherein the applying the computer trained model includes analyzing the shape of the return echo signal against a predetermined shape of at least two return echo signals, each of the predetermined shapes associated with a predetermined fault type from amongst at least two different predetermined fault types; and initiating an action in response to the identified predetermined fault type.
Device for supporting and limiting a closing and/or opening movement of a leaf of a window or a door , with an arm hinged at one end to the leaf and at the other end to the frame , which is arranged such as to pivot at the frame and is attached to the leaf in a sliding guide element , comprising a drive rod fitting and a coupling means , which can be moved by means of the drive rod fitting , and which can be coupled to and decoupled from the arm , wherein the drive rod fitting comprises a drive rod component with a drive rod , secured to which is a bolt pivot , which engages through a fore-end track of the drive rod component in a longitudinal hole, and secured to the drive rod is a claw of the coupling means, which, as a result, can also be displaced along the fore-end track , and the joint of the leaf can be displaced by means of the drive rod fitting , characterized in that a damping element of changeable length engages at the arm , at a distance interval from its pivot bearing , on the frame at a contact effect point , and the damping element is assigned to the arm with changes of speed in its deployment movement.
Cascade organic Rankine cycle system comprising a hot source , at least a first high temperature organic Rankine cycle and a second low temperature organic Rankine cycle , the first high temperature organic Rankine cycle comprising a first preheater and a second preheater and the second low temperature organic Rankine cycle comprising a preheater ; said cycles also comprising at least one vaporiser , at least one turbine , at least one condenser , where the hot source first supplies a vaporizer of the high temperature cycle , then the vaporiser of the low temperature cycle and finally it is divided into two flows which feed the first preheater of the high temperature cycle and the preheater of the low temperature cycle , said system being characterized in that the first high-temperature organic Rankine cycle comprises an additional vaporizer operating at an intermediate pressure between the pressure of the vaporiser of the high temperature cycle and the pressure of the vaporiser of the low temperature cycle , said further vaporiser being fed by a partial flow of the hot source extracted downstream of the first vaporiser and upstream of the second preheater of the same high temperature cycle and said further vaporiser being used to produce organic fluid vapor at the intermediate pressure to be used in the turbine of the high temperature cycle .
A method of aligning a work platform relative to a stationary target object , the method comprising: attaching a drive vehicle to the work platform ; receiving signals from first and second sensors that are spaced apart on the work platform , the signals indicating a first distance between the first sensor and the target object and a second distance between the second sensor and the target object ; moving the work platform with the drive vehicle based on the signals and aligning the work platform relative to the target object and reducing a distance between the work platform and the target object ; and sensing an angle (β) of a vector (R) indicating a forward motion of the drive vehicle that extends from a pivot point (P) relative to a line extending along a longitudinal centerline (H) of the work platform from the pivot point (P), wherein the longitudinal centerline (H) of the work platform is perpendicular to a wheel rotation axis (A) of the work platform; and adjusting a position of the drive vehicle relative to the work platform based on the angle. attaching a drive vehicle to the work platform ; receiving signals from first and second sensors that are spaced apart on the work platform , the signals indicating a first distance between the first sensor and the target object and a second distance between the second sensor and the target object ; moving the work platform with the drive vehicle based on the signals and aligning the work platform relative to the target object and reducing a distance between the work platform and the target object ; and sensing an angle (β) of a vector (R) indicating a forward motion of the drive vehicle that extends from a pivot point (P) relative to a line extending along a longitudinal centerline (H) of the work platform from the pivot point (P), wherein the longitudinal centerline (H) of the work platform is perpendicular to a wheel rotation axis (A) of the work platform; and adjusting a position of the drive vehicle relative to the work platform based on the angle.
An acidic liquid formulation for oral administration, said formulation containing at least 150 mg/mL of Miglustat, said liquid formulation containing : - sodium benzoate as preservative, - tartaric acid so as to maintain the pH of the formulation comprised between 3 and 5, - a sweetener, and - optionally a flavour. - sodium benzoate as preservative, - tartaric acid so as to maintain the pH of the formulation comprised between 3 and 5, - a sweetener, and - optionally a flavour.