mhurhangee/patent-ind-claim-en huggingface dataset:
Food processing system , comprising: - a sensor unit for determining holding data of at least one pan or holding container placed in a food holding area (FHA); - a processing unit for determining a scheduling state based on current holding data and/or a holding data history; and - a control unit to control an actuator based on the determined scheduling state, wherein the scheduling state is further based on a holding data history, wherein, based on the scheduling state, the control unit is further adapted to: - forecast from previous sales volume or current customer traffic the necessary food item quantity or weight to be cooked in a certain time frame; - augment the forecasting by adding local events, weather, or calendar holidays into the calculation of current and future demand; - identify reorder points using the information of anticipated consumption, to initiate cook commands once fill levels drop below a calculated threshold; characterized in that - the sensor unit comprises at least one of an RGB sensor , or other optical sensor , and at least one of a depth sensor , a thermal sensor , a 3D camera , a time of flight sensor , or a stereo camera ; and - the control unit is further adapted to calculate different reorder points for each time of day and for each ingredient individually. - a sensor unit for determining holding data of at least one pan or holding container placed in a food holding area (FHA); - a processing unit for determining a scheduling state based on current holding data and/or a holding data history; and - a control unit to control an actuator based on the determined scheduling state, - forecast from previous sales volume or current customer traffic the necessary food item quantity or weight to be cooked in a certain time frame; - augment the forecasting by adding local events, weather, or calendar holidays into the calculation of current and future demand; - identify reorder points using the information of anticipated consumption, to initiate cook commands once fill levels drop below a calculated threshold; characterized in that - the sensor unit comprises at least one of an RGB sensor , or other optical sensor , and at least one of a depth sensor , a thermal sensor , a 3D camera , a time of flight sensor , or a stereo camera ; and - the control unit is further adapted to calculate different reorder points for each time of day and for each ingredient individually.
Temperature sensor for a vehicle engine, comprising: - at least one thermocouple comprising two different metal wires linked together at a first end forming a hot junction for measuring a temperature T1 in the engine, said two metal wires each comprising a second end forming a cold junction, - a protective casing comprising a connector in which the second ends of the two metal wires of the thermocouple are connected to two first ends of two metal lugs via two connection zones , the two metal lugs comprising a second end linked electrically to a printed circuit comprising an integrated circuit , said printed circuit being housed in the protective casing , characterized in that : - each connection zone is surrounded by a sealing element , - the connector comprises a support in which are housed the connection zones surrounded by the sealing elements , said support comprising a first end that is passed through by the metal wires of the thermocouple and an opposite second end that is passed through by the metal lugs , - said protective casing being overmoulded around the support . - at least one thermocouple comprising two different metal wires linked together at a first end forming a hot junction for measuring a temperature T1 in the engine, said two metal wires each comprising a second end forming a cold junction, - a protective casing comprising a connector in which the second ends of the two metal wires of the thermocouple are connected to two first ends of two metal lugs via two connection zones , the two metal lugs comprising a second end linked electrically to a printed circuit comprising an integrated circuit , said printed circuit being housed in the protective casing , - each connection zone is surrounded by a sealing element , - the connector comprises a support in which are housed the connection zones surrounded by the sealing elements , said support comprising a first end that is passed through by the metal wires of the thermocouple and an opposite second end that is passed through by the metal lugs , - said protective casing being overmoulded around the support .
A skincare device , comprising: a body having protruding elements configured for contacting a skin of a user, an end effector configured for contacting the skin of the user, wherein the end effector is configured to oscillate about an axis during operation characterized in that the protruding elements are configured to vibrate during operation, wherein the body carries a resonant structure operably coupled to one or more of the protruding elements , and wherein the resonant structure configured to generate vibrations of the one or more protruding elements . a body having protruding elements configured for contacting a skin of a user, an end effector configured for contacting the skin of the user, wherein the end effector is configured to oscillate about an axis during operation characterized in that the protruding elements are configured to vibrate during operation, wherein the body carries a resonant structure operably coupled to one or more of the protruding elements , and wherein the resonant structure configured to generate vibrations of the one or more protruding elements .
A furrower assembly comprising: side plates extending rearwardly from a forward prow edge, wherein: the side plates are each angled backwards at approximately 45° with respect to a horizontal plane; bottom edges of the side plates are between 20-40° with respect to a direction-of-travel axis; trailing edges of the side plates are configured to form furrow walls being steeper than 70° from the horizontal plane; and the side plates are configured to form a furrow having a flat base. the side plates are each angled backwards at approximately 45° with respect to a horizontal plane; bottom edges of the side plates are between 20-40° with respect to a direction-of-travel axis; trailing edges of the side plates are configured to form furrow walls being steeper than 70° from the horizontal plane; and the side plates are configured to form a furrow having a flat base.
A skincare device configured to treat the skin of a user, comprising: a main body having a first side having a first surface, a second side substantially opposite the first side having a second surface, and an intermediate portion extending from the first side to the second side and having a third surface, the first side and the intermediate portion defining a groove extending towards the second side ; a removable locking mechanism configured to be inserted into the groove , and wherein the locking mechanism is transparent; a light source disposed within the main body and configured to emit light to treat said skin, the light source configured to emit the light adjacent the first side, into the groove , and through the removable locking mechanism ; a motor disposed within the main body and configured to produce pulsations of said skincare device ; a temperature control unit disposed within the main body , the temperature control unit configured to generate heat to treat said skin and transfer the heat to the first side; and a user control disposed on the intermediate portion, the user control configured to operate the light source , the motor , and the temperature control unit . a main body having a first side having a first surface, a second side substantially opposite the first side having a second surface, and an intermediate portion extending from the first side to the second side and having a third surface, the first side and the intermediate portion defining a groove extending towards the second side ; a removable locking mechanism configured to be inserted into the groove , and wherein the locking mechanism is transparent; a light source disposed within the main body and configured to emit light to treat said skin, the light source configured to emit the light adjacent the first side, into the groove , and through the removable locking mechanism ; a motor disposed within the main body and configured to produce pulsations of said skincare device ; a temperature control unit disposed within the main body , the temperature control unit configured to generate heat to treat said skin and transfer the heat to the first side; and a user control disposed on the intermediate portion, the user control configured to operate the light source , the motor , and the temperature control unit .
A computer-implemented method for orienting 3D printing of a real object, the method comprising: - providing (S10) a 3D modeled object that represents the real object; and - determining (S40, S56) one or more orientations of the 3D modeled object in which to 3D print the real object for which an overhang volume is optimal, the overhang volume representing a volume below overhang surfaces, the optimal overhang volume having a value which corresponds at least substantially to the result of an optimization program which penalizes said overhang volume; wherein the optimization program consists in minimizing said overhang volume under the constraint that distance between the 3D modeled object and a contact plane be superior or equal to a predetermined distance; wherein the determining of the one or more orientations includes: - computing, for each one of a finite discrete set of candidate orientations, a respective overhang volume; and - identifying (S40) one or more orientations of the 3D modeled object for which the computed overhang volume is optimal; wherein computing a respective overhang volume for each candidate orientation of the discrete set comprises: - positioning (S21) the 3D modeled object in the candidate orientation or alternatively in a respective opposite orientation; - determining overhang segments; - summing (S34) length of the overhang segments; wherein the determining of overhang segments comprises determining (S26) intersections between vertical lines and the 3D modeled object and determining (S32) segments of the vertical lines that correspond to overhang; and - printing the real object in one of the determined one or more orientations. - providing (S10) a 3D modeled object that represents the real object; and - determining (S40, S56) one or more orientations of the 3D modeled object in which to 3D print the real object for which an overhang volume is optimal, the overhang volume representing a volume below overhang surfaces, the optimal overhang volume having a value which corresponds at least substantially to the result of an optimization program which penalizes said overhang volume; - computing, for each one of a finite discrete set of candidate orientations, a respective overhang volume; and - identifying (S40) one or more orientations of the 3D modeled object for which the computed overhang volume is optimal; - positioning (S21) the 3D modeled object in the candidate orientation or alternatively in a respective opposite orientation; - determining overhang segments; - summing (S34) length of the overhang segments; wherein the determining of overhang segments comprises determining (S26) intersections between vertical lines and the 3D modeled object and determining (S32) segments of the vertical lines that correspond to overhang; and - printing the real object in one of the determined one or more orientations.
Data transmission system with at least one optical sensor arranged on a vehicle , wherein the vehicle can be moved along a defined path curve, wherein at least one flexible carrier band with a number of optical sensor elements arranged at intervals from one another extends along this path curve, wherein optical data transmission takes place between the optical sensor and the optical sensor elements of the carrier band , which lie in a detection range of the optical sensor , in accordance with the current position of the vehicle .
Method for the grinding of grinding material by at least one grinder , the method comprising: actuating the grinder in a first direction for grinding of the grinding material; and actuating the grinder in a second direction different from the first direction; characterized in that the grinder is actuated in the second direction after completion of the grinding of the grinding material in response to a user input and/or automatically in response to a number of actuations of the grinder in the first direction. actuating the grinder in a first direction for grinding of the grinding material; and actuating the grinder in a second direction different from the first direction; characterized in that the grinder is actuated in the second direction after completion of the grinding of the grinding material in response to a user input and/or automatically in response to a number of actuations of the grinder in the first direction.
A fluid applicator for applying fluid to plants in rows in a field comprising: a frame (2799;1510,1511;1799) configured to be positioned during operation between first and second adjacent rows of plants; at least one applicator arm (922;982;1022;1530;2720;1520;1522;3220;1720;3222) connected to the frame (2799;1510,1511;1799) and to a fluid source; a first nozzle disposed to apply fluid to a rhizosphere of the first row of plants during operation; and a second nozzle disposed to apply fluid to the middle of the row between the first and second rows of plants during operation; characterized in that : the second nozzle is disposed in the applicator arm (2720;1520;1522;3220;1720;322), and the first nozzle is disposed at an outlet (3000;8010;8200;8300;8400) of the applicator arm. a frame (2799;1510,1511;1799) configured to be positioned during operation between first and second adjacent rows of plants; at least one applicator arm (922;982;1022;1530;2720;1520;1522;3220;1720;3222) connected to the frame (2799;1510,1511;1799) and to a fluid source; a first nozzle disposed to apply fluid to a rhizosphere of the first row of plants during operation; and a second nozzle disposed to apply fluid to the middle of the row between the first and second rows of plants during operation; characterized in that : the second nozzle is disposed in the applicator arm (2720;1520;1522;3220;1720;322), and the first nozzle is disposed at an outlet (3000;8010;8200;8300;8400) of the applicator arm.
An apparatus for an amusement park, the apparatus comprising: a first bogie system positioned on a track , wherein the first bogie system is configured to direct motion along the track ; a first arm extending radially outward from the first bogie system , wherein the first arm is rotatably coupled to a first body of the first bogie system ; and a first vehicle configured to carry a passenger and positioned on the first arm , wherein the first bogie system is configured to move in an operation direction along the track and the first vehicle is configured to rotate about the first bogie system to change a position of the first vehicle with respect to the first bogie system , and wherein the first vehicle is configured to move radially along a length of the first arm . a first bogie system positioned on a track , wherein the first bogie system is configured to direct motion along the track ; a first arm extending radially outward from the first bogie system , wherein the first arm is rotatably coupled to a first body of the first bogie system ; and a first vehicle configured to carry a passenger and positioned on the first arm , wherein the first bogie system is configured to move in an operation direction along the track and the first vehicle is configured to rotate about the first bogie system to change a position of the first vehicle with respect to the first bogie system , and wherein the first vehicle is configured to move radially along a length of the first arm .
Lighting and signaling assembly (E) for motor vehicles, comprising, on the one hand, a headlight housing closed by a glass and provided with a peripheral groove in which the edge of said glass is fixed and, on the other hand, a module daytime signaling (DRL), said daytime signaling module (DRL) being intended to be integrated into the housing , said signaling module comprising, on its upper edge and its side edges, hooking members intended to be fitted into said peripheral groove , in the upper part of the headlight housing , said signaling module (DRL) being retained in the upper part of the housing of projector by its attachment members in the peripheral groove of the projector housing and the glass being provided, on its internal face, with a tab for supporting said module .
A method comprising: receiving semi-structured data elements from a data source; identifying common and non-common data elements from within the semi-structured data based on at least a statistical analysis, wherein the data elements are associated with a set of tags that separate the data elements and the data elements are classified using a threshold of commonality wherein the threshold of commonality is based on how many times a data element occurs in the semi-structured data; storing the common data elements into a columnar structure in a cache memory; storing the non-common data elements as serialized data in a disk storage; generating metadata for the common data elements; and processing a query using at least the metadata, wherein the metadata is used in the query processing to determine whether a corresponding one of the common data elements is to be accessed for that query. receiving semi-structured data elements from a data source; identifying common and non-common data elements from within the semi-structured data based on at least a statistical analysis, wherein the data elements are associated with a set of tags that separate the data elements and the data elements are classified using a threshold of commonality wherein the threshold of commonality is based on how many times a data element occurs in the semi-structured data; storing the common data elements into a columnar structure in a cache memory; storing the non-common data elements as serialized data in a disk storage; generating metadata for the common data elements; and processing a query using at least the metadata, wherein the metadata is used in the query processing to determine whether a corresponding one of the common data elements is to be accessed for that query.
A method for Convolutional Neural Network (CNN) based speech source separation, wherein the method includes the steps of: - providing multiple frames of a time-frequency transform of an original noisy speech signal; - inputting the time-frequency transform of said multiple frames into an aggregated multi-scale CNN having a plurality of parallel convolution paths, wherein each parallel convolution path, out of the plurality of parallel convolution paths of the CNN, includes a cascade of L convolution layers, wherein L is a natural number >1, wherein an 1-th layer among the L layers has N 1 filters with 1 = 1... L, wherein the filter size of the filters is different between different parallel convolution paths and wherein the filter size of the filters is the same within each parallel convolution path; - extracting and outputting, by each parallel convolution path, features from the input time-frequency transform of said multiple frames; - obtaining an aggregated output of the outputs of the parallel convolution paths; and - generating an output mask for extracting speech from the original noisy speech signal based on the aggregated output. - providing multiple frames of a time-frequency transform of an original noisy speech signal; - inputting the time-frequency transform of said multiple frames into an aggregated multi-scale CNN having a plurality of parallel convolution paths, wherein each parallel convolution path, out of the plurality of parallel convolution paths of the CNN, includes a cascade of L convolution layers, wherein L is a natural number >1, wherein an 1-th layer among the L layers has N 1 filters with 1 = 1... L, wherein the filter size of the filters is different between different parallel convolution paths and wherein the filter size of the filters is the same within each parallel convolution path; - extracting and outputting, by each parallel convolution path, features from the input time-frequency transform of said multiple frames; - obtaining an aggregated output of the outputs of the parallel convolution paths; and - generating an output mask for extracting speech from the original noisy speech signal based on the aggregated output.
An implantable medical device capacitor comprising: a first electrode including a first slot extending from a perimeter of the first electrode to an interior of the first electrode; and a second electrode separated from the first electrode by a first distance, the second electrode including a second slot extending from a perimeter of the second electrode to an interior of the second electrode, wherein the first and second slots are configured to at least partially segment surface areas of the first and second electrodes, respectively, to reduce a radial current loop size in each of the first and second electrodes, wherein the first electrode is substantially parallel to the second electrode in a stacked configuration, and characterized in that the first slot of the first electrode is offset from the second slot of the second electrode. a first electrode including a first slot extending from a perimeter of the first electrode to an interior of the first electrode; and a second electrode separated from the first electrode by a first distance, the second electrode including a second slot extending from a perimeter of the second electrode to an interior of the second electrode, wherein the first and second slots are configured to at least partially segment surface areas of the first and second electrodes, respectively, to reduce a radial current loop size in each of the first and second electrodes, wherein the first electrode is substantially parallel to the second electrode in a stacked configuration, and characterized in that the first slot of the first electrode is offset from the second slot of the second electrode.