mhurhangee/patent-ind-claim-en huggingface dataset:
A shuffling system comprising: a playing card set (1t, ls) made up of a predetermined number of decks; characterized in that the system further comprises multiple shuffling devices (100A to 100N) which shuffle the playing card set (1t, Is); multiple sequencers or controllers (101A to 101N) which are independent from one another and control operations of the multiple shuffling devices (100A to 100N), respectively; and multiple processors (102a to 102k) which are independent from one another and control the multiple sequencers or controllers (101A to 101N), wherein the multiple processors (102a to 102k) have one or more random generators (103a to 103k) which are independent from one another, each of the sequencers or controllers (101A to 101N) is configured to control the corresponding shuffling device (100A to 100N) using a set of numerical values (10A to 10N) output from the corresponding random generator (103a to 103k) based on a command from the corresponding processor (102a to 102k); each of the sequencers or controllers (101A to 101N) controls the operations of the corresponding shuffling device (100A to 100N) so that cards of the card set (1t, ls) are sorted one by one in a random order using the set of numerical values (10A to 10N) output from the corresponding random generator (103a to 103k); the shuffling system is configured to shuffle the card set (1t, ls) using the multiple shuffling devices (100A to 100N) so that the cards of the card set (1t, ls) are arranged randomly. a playing card set (1t, ls) made up of a predetermined number of decks; characterized in that the system further comprises multiple shuffling devices (100A to 100N) which shuffle the playing card set (1t, Is); multiple sequencers or controllers (101A to 101N) which are independent from one another and control operations of the multiple shuffling devices (100A to 100N), respectively; and multiple processors (102a to 102k) which are independent from one another and control the multiple sequencers or controllers (101A to 101N), wherein the multiple processors (102a to 102k) have one or more random generators (103a to 103k) which are independent from one another, each of the sequencers or controllers (101A to 101N) is configured to control the corresponding shuffling device (100A to 100N) using a set of numerical values (10A to 10N) output from the corresponding random generator (103a to 103k) based on a command from the corresponding processor (102a to 102k); each of the sequencers or controllers (101A to 101N) controls the operations of the corresponding shuffling device (100A to 100N) so that cards of the card set (1t, ls) are sorted one by one in a random order using the set of numerical values (10A to 10N) output from the corresponding random generator (103a to 103k); the shuffling system is configured to shuffle the card set (1t, ls) using the multiple shuffling devices (100A to 100N) so that the cards of the card set (1t, ls) are arranged randomly.
A method for determining a position, particularly a coronal position of an eye relative to a coronal plane of the head of a person, with a handheld 3D-surface scanning device, wherein the method comprises the steps of: - Acquiring a digital data set comprising information about a three-dimensional surface and texture of at least a portion of the face of the person, the portion of the face comprising both eyes ; - Determining from the data set for each eye a three-dimensional center position (10-1, 10-2) of the center of the pupil of the eye ; - Determining from the digital data set for each eye a three-dimensional rim position (11-1, 11-2) that corresponds to the anterior lateral orbital rim of the eye ; - Determining a connecting line (11-3) between the two rim positions (11-1, 11-2); - Determining for each three-dimensional center position of the centers of the pupils (10-1, 10-2) a distance (14-1, 14-2) to the connecting line (11-3), wherein each distance (14-1, 14-2) corresponds to a coronal position of an eye relative to the coronal plane of the head . - Acquiring a digital data set comprising information about a three-dimensional surface and texture of at least a portion of the face of the person, the portion of the face comprising both eyes ; - Determining from the data set for each eye a three-dimensional center position (10-1, 10-2) of the center of the pupil of the eye ; - Determining from the digital data set for each eye a three-dimensional rim position (11-1, 11-2) that corresponds to the anterior lateral orbital rim of the eye ; - Determining a connecting line (11-3) between the two rim positions (11-1, 11-2); - Determining for each three-dimensional center position of the centers of the pupils (10-1, 10-2) a distance (14-1, 14-2) to the connecting line (11-3), wherein each distance (14-1, 14-2) corresponds to a coronal position of an eye relative to the coronal plane of the head .
A process for the preparation of an aqueous slurry comprising a plurality of polyisobutylene particles suspended therein, the process comprising at least the steps of: A) contacting an organic medium comprising i) polyisobutylene and II) an organic diluent with an aqueous medium comprising at least one LCST compound having a cloud point of 0 to 100°C, preferably 5 to 100°C, more preferably 15 to 80°C and even more preferably 20 to 70°C determined by at least one of the following methods: • DIN EN 1890 of September 2006, method A • DIN EN 1890 of September 2006, method C • DIN EN 1890 of September 2006, method E • DIN EN 1890 of September 2006, method A, wherein the amount of compound tested is reduced from 1 g per 100 mL of distilled water to 0.05 g per 100 mL of distilled water • DIN EN 1890 of September 2006, method A, wherein the amount of compound tested is reduced from 1 g per 100 mL of distilled water to 0.2 g per 100 mL, wherein said LCST compound is a compound which is soluble in a liquid medium at a lower temperature but precipitates from the liquid medium above the lower critical solution temperature, and B) removing at least partially the organic diluent to obtain the aqueous slurry comprising the polyisobutylene particles, wherein the removal of the organic diluent takes place by distillation. A) contacting an organic medium comprising i) polyisobutylene and II) an organic diluent with an aqueous medium comprising at least one LCST compound having a cloud point of 0 to 100°C, preferably 5 to 100°C, more preferably 15 to 80°C and even more preferably 20 to 70°C determined by at least one of the following methods: • DIN EN 1890 of September 2006, method A • DIN EN 1890 of September 2006, method C • DIN EN 1890 of September 2006, method E • DIN EN 1890 of September 2006, method A, wherein the amount of compound tested is reduced from 1 g per 100 mL of distilled water to 0.05 g per 100 mL of distilled water • DIN EN 1890 of September 2006, method A, wherein the amount of compound tested is reduced from 1 g per 100 mL of distilled water to 0.2 g per 100 mL, wherein said LCST compound is a compound which is soluble in a liquid medium at a lower temperature but precipitates from the liquid medium above the lower critical solution temperature, and i) polyisobutylene and II) an organic diluent • DIN EN 1890 of September 2006, method A • DIN EN 1890 of September 2006, method C • DIN EN 1890 of September 2006, method E • DIN EN 1890 of September 2006, method A, wherein the amount of compound tested is reduced from 1 g per 100 mL of distilled water to 0.05 g per 100 mL of distilled water • DIN EN 1890 of September 2006, method A, wherein the amount of compound tested is reduced from 1 g per 100 mL of distilled water to 0.2 g per 100 mL, B) removing at least partially the organic diluent to obtain the aqueous slurry comprising the polyisobutylene particles,
Preform for manufacturing a plastic container in a two-stage injection stretch blow molding method that has a preform body extending along a middle axis with a first end and a second end opposed to the first end , wherein the first end is sealed by a preform bottom and a neck section with a spout joins the second end , and with a inner wall that limits an inner space of the preform , characterized in that each point of the inner wall is spaced in the inner space from the middle axis by less than 3,5 mm over a length of at least 30 mm joining the preform bottom .
A method of forming a three-dimensional object comprising: a first forming process (S130) of causing a nozzle to eject a forming material onto a forming surface (Ts) of a forming base and forming a first portion and a second portion such that the first portion and the second portion are separated from each other in a first direction (X) in parallel to the forming surface (Ts); a curing process (S140) of curing the first portion and the second portion ; a second forming process (S150) of causing the nozzle to eject the forming material between the first portion and the second portion and forming a third portion that has a shape that successively connects an end surface of the first portion in the first direction (X) to an end surface of the second portion in the first direction (X), after the curing process; and a first reheating process (S145) of heating at least either the end surface of the first portion or the end surface of the second portion in contact with the third portion between the curing process (S140) and the second forming process (S150). a first forming process (S130) of causing a nozzle to eject a forming material onto a forming surface (Ts) of a forming base and forming a first portion and a second portion such that the first portion and the second portion are separated from each other in a first direction (X) in parallel to the forming surface (Ts); a curing process (S140) of curing the first portion and the second portion ; a second forming process (S150) of causing the nozzle to eject the forming material between the first portion and the second portion and forming a third portion that has a shape that successively connects an end surface of the first portion in the first direction (X) to an end surface of the second portion in the first direction (X), after the curing process; and a first reheating process (S145) of heating at least either the end surface of the first portion or the end surface of the second portion in contact with the third portion between the curing process (S140) and the second forming process (S150).
Self-propelled machine for agriculture, with a support structure (T) receiving respective attachment devices , and comprising at least one drive unit with a control assembly and movable by means of ground supports (B, B') at the end side, which forms an agricultural gantry system provided with at least one base carrier for variable work tasks, which can be converted from a road orientation defining a driving width (dimension FB) to a working orientation having a substantially larger working width (AB), wherein the support structure (T) is provided with respective side carriers (ST, ST') comprising the ground supports (B, B'), characterised in that the support structure defining a longitudinal orientation in the road orientation has in the region of its two end-side ground supports (B, B') a vertical longitudinal centre plane (M) extending therebetween, and spatially oriented thereto, a functional frame (FR, FR') with an asymmetrical base carrier is formed as the support structure, in such manner that the base carrier starting from a longitudinal dimension (FB) of possible travel width(s) exclusively in a respective outer division third (TD, TD') of this longitudinal dimension (FB) is connected to the at least one side carrier (ST, ST').
A photoacoustic detection device comprising a nanophotonic circuit comprising: a plurality of semiconductor lasers capable of emitting at different frequencies towards respective input couplers ; optical waveguides (11A-11D) connected to the couplers; a multiplexer connected to said waveguides; a tuning fork ; an output optical waveguide , emerging into a recess in order to transmit light between the free arms of the tuning fork; and means for detecting the vibration of the tuning fork, all these elements being assembled in a monolithic component in which the cores of the optical waveguides (11A-11D, 15) and the arms of the tuning fork are formed from a same layer of material . a plurality of semiconductor lasers capable of emitting at different frequencies towards respective input couplers ; optical waveguides (11A-11D) connected to the couplers; a multiplexer connected to said waveguides; a tuning fork ; an output optical waveguide , emerging into a recess in order to transmit light between the free arms of the tuning fork; and means for detecting the vibration of the tuning fork, all these elements being assembled in a monolithic component in which the cores of the optical waveguides (11A-11D, 15) and the arms of the tuning fork are formed from a same layer of material .
A customization control method for an air conditioner operation mode, comprising: a control terminal or the air conditioner providing a customized setting interface for an operation mode for a user to customize operation parameters of the air conditioner when the control terminal or the air conditioner receiving a customized setting command for the air conditioner operation mode sent out by the user; characterized in that the control terminal or the air conditioner generating and displaying a virtual key corresponding to the operation parameters that are customized when the user finishes the customized setting of the operation mode in the customized setting interface of operation mode; when the control terminal receiving a trigger command from the generated virtual key caused by the user, the control terminal controlling the air conditioner according to the operation parameters corresponding to the generated virtual key, or, when the air conditioner receiving the trigger command for the generated virtual key caused by user, the air conditioner operating according to the operation parameters corresponding to the generated virtual key; wherein in the customized setting interface, the operation parameters to be customized comprise at least one of a temperature parameter, a humidity parameter, a blowing direction parameter, a sleeping temperature curve parameter and an operation time parameter. a control terminal or the air conditioner providing a customized setting interface for an operation mode for a user to customize operation parameters of the air conditioner when the control terminal or the air conditioner receiving a customized setting command for the air conditioner operation mode sent out by the user; characterized in that the control terminal or the air conditioner generating and displaying a virtual key corresponding to the operation parameters that are customized when the user finishes the customized setting of the operation mode in the customized setting interface of operation mode; when the control terminal receiving a trigger command from the generated virtual key caused by the user, the control terminal controlling the air conditioner according to the operation parameters corresponding to the generated virtual key, or, when the air conditioner receiving the trigger command for the generated virtual key caused by user, the air conditioner operating according to the operation parameters corresponding to the generated virtual key; wherein in the customized setting interface, the operation parameters to be customized comprise at least one of a temperature parameter, a humidity parameter, a blowing direction parameter, a sleeping temperature curve parameter and an operation time parameter.
A bending machine, in particular a press brake, having an upper beam and a lower beam , wherein the upper beam is movable in the direction of a primary axis (y) of the bending machine relative to the lower beam in order to form a workpiece which can be inserted between the upper beam and the lower beam via a front side of the bending machine by bending along a bending line, which extends in a width direction (z) of the bending machine , wherein the bending machine includes at least one position measuring system for measuring and monitoring a respective position of the upper beam with respect to a reference position during a working process, wherein the position measuring system is designed in such a way that a linearly movable measuring unit of the position measuring system follows the movement of the upper beam in the direction of the primary axis (y) and in the process moves along a stationary linear element , characterized in that the linearly movable measuring unit of the position measuring system is held on the upper beam by a connecting element which is resistant to deformation in the direction of the primary axis (y), which is designed to be elastic in the width direction (z) of the bending machine and/or a depth direction (x).
A hearing protection and communication system for a dog, the system comprising: a noise reduction element to sense and attenuate external noise to a predetermined in-ear threshold noise level; a plurality of comparators for sampling external noise and in-ear noise data generated by the noise reduction element and operably connected to a controller wherein the controller is configured to control the operation of the hearing protection system; and, a communication element operably connected to the controller and configured to enable the dog's handler to communicate with the dog wherein the communication element comprises a bypass element to enable the handler to bypass noise reduction and transmit commands to the dog at frequencies greater than about 10 kHz, wherein the predetermined in-ear threshold noise level is a noise level that is lower than the external noise level by 20 dB to 30 dB, and wherein the noise reduction element comprises at least one microphone to capture external noise and in-ear noise, a non-linear passive noise reduction element capable of increasing attenuation of external noise as the external noise level increases, and an active noise cancellation subsystem . a noise reduction element to sense and attenuate external noise to a predetermined in-ear threshold noise level; a plurality of comparators for sampling external noise and in-ear noise data generated by the noise reduction element and operably connected to a controller wherein the controller is configured to control the operation of the hearing protection system; and, a communication element operably connected to the controller and configured to enable the dog's handler to communicate with the dog wherein the communication element comprises a bypass element to enable the handler to bypass noise reduction and transmit commands to the dog at frequencies greater than about 10 kHz, wherein the predetermined in-ear threshold noise level is a noise level that is lower than the external noise level by 20 dB to 30 dB, and wherein the noise reduction element comprises at least one microphone to capture external noise and in-ear noise, a non-linear passive noise reduction element capable of increasing attenuation of external noise as the external noise level increases, and an active noise cancellation subsystem .
A crystalline solid of crystalline form I of (E)-methyl 6-( -3-(( -5-acetoxy-6-(acetoxymethyl)-5,6-dihydro-2H-pyran-2-yl)oxy)-10,13-dimethyl-2,3,4,7,8,9,10,11,12,13,14,15,16,17-tetradecahydro-1H-cyclopenta[a]phenanthrene-17-yl)hept-5-enoate having peaks at the following 2Θ diffraction angles in the X-ray powder diffraction pattern: 16.0°±0.2°, 19.5°±0.2°, 18.3°±0.2°, 15.1°±0.2°, 21.9°±0.2°.
Method for operating a brake system for a vehicle , wherein the brake system comprises an electronic actuating device for outputting a brake pressure for a brake of the vehicle in a normal operating mode and a pneumatic actuating device for outputting the brake pressure in a backup operating mode, and wherein the method comprises the following steps: classifying a fault signal , which indicates a fault of the electronic actuating device , as a fault signal of a first fault category if the fault is a fault in the case of which a switchover from the electronic actuating device afflicted with the fault to the pneumatic actuating device leads to an improvement in the outputting of the brake pressure ; and switching from the electronic actuating device to the pneumatic actuating device , in order to output the brake pressure using the pneumatic actuating device , if the fault signal is a fault signal of the first fault category. characterised in that , in the step of classifying, the fault signal is classified as a fault signal of a further fault category, if the fault is a fault in the case of which it is uncertain whether a switchover from the electronic actuating device afflicted with the fault to the pneumatic actuating device leads to an improvement in the outputting of the brake pressure , and having a step of at least temporarily switching over from the electronic actuating device to the pneumatic actuating device , in order to at least temporarily output the brake pressure using the pneumatic actuating device , if the fault signal is a fault signal of the further fault category. classifying a fault signal , which indicates a fault of the electronic actuating device , as a fault signal of a first fault category if the fault is a fault in the case of which a switchover from the electronic actuating device afflicted with the fault to the pneumatic actuating device leads to an improvement in the outputting of the brake pressure ; and switching from the electronic actuating device to the pneumatic actuating device , in order to output the brake pressure using the pneumatic actuating device , if the fault signal is a fault signal of the first fault category. characterised in that , in the step of classifying, the fault signal is classified as a fault signal of a further fault category, if the fault is a fault in the case of which it is uncertain whether a switchover from the electronic actuating device afflicted with the fault to the pneumatic actuating device leads to an improvement in the outputting of the brake pressure , and having a step of at least temporarily switching over from the electronic actuating device to the pneumatic actuating device , in order to at least temporarily output the brake pressure using the pneumatic actuating device , if the fault signal is a fault signal of the further fault category.