mhurhangee/patent-ind-claim-en huggingface dataset:
A driving control method executed by a processor configured to control driving of a vehicle, comprising: acquiring (S2) detection information around the vehicle on a basis of a detection condition that can be set for each point along a predetermined route (RT1) of the vehicle; extracting (S7) events (PA, PB, PC) which the vehicle encounters, on a basis of the detection information; creating (S14) a driving plan in which a driving action is defined (S8) for each of the events (PA, PB, PC), the driving action being determined on the basis of the acquired detection information on the events (PA, PB, PC); and operating (S17) the vehicle to execute a driving control instruction in accordance with the driving plan; characterized by setting (S15) the detection condition on a basis of content of the driving action defined for each of the events (PA, PB, PC). acquiring (S2) detection information around the vehicle on a basis of a detection condition that can be set for each point along a predetermined route (RT1) of the vehicle; extracting (S7) events (PA, PB, PC) which the vehicle encounters, on a basis of the detection information; creating (S14) a driving plan in which a driving action is defined (S8) for each of the events (PA, PB, PC), the driving action being determined on the basis of the acquired detection information on the events (PA, PB, PC); and operating (S17) the vehicle to execute a driving control instruction in accordance with the driving plan; characterized by setting (S15) the detection condition on a basis of content of the driving action defined for each of the events (PA, PB, PC).
A bi-directional impact compactor which includes: a first part on which at least one non-round compactor drum is rotatably mounted; a second part which is connected to, and movable relative to, the first part ; and a damping arrangement which is connected between the first and second parts and which is configured to provide a damping function for the relative movement between the first and second parts , wherein the non-round compactor drum includes a non-round compactor drum body which is rotatable about an axis of rotation and which is shaped to produce, under its own weight, a series of impact blows on a ground surface over which it rolls, when the compactor drum is rolled in both a first direction and an opposite second direction along the ground surface, characterised in that the damping arrangement includes an outer tubular member which defines a non-circular inner channel/passage ; a non-circular inner shaft member which defines a first axis of rotation and which is positioned, at least partially, in the channel/passage defined by the outer tubular member ; and at least one wedge formation which is wedged between the shaft member and the tubular member , wherein the wedge formation is at least partially resiliently deformable and is configured to resist/oppose relative rotation between the shaft member and the tubular member about the first axis of rotation , wherein one of the members is connected to the first part , while the other member is connected to the second part . a first part on which at least one non-round compactor drum is rotatably mounted; a second part which is connected to, and movable relative to, the first part ; and a damping arrangement which is connected between the first and second parts and which is configured to provide a damping function for the relative movement between the first and second parts , wherein the non-round compactor drum includes a non-round compactor drum body which is rotatable about an axis of rotation and which is shaped to produce, under its own weight, a series of impact blows on a ground surface over which it rolls, when the compactor drum is rolled in both a first direction and an opposite second direction along the ground surface, characterised in that the damping arrangement includes an outer tubular member which defines a non-circular inner channel/passage ; a non-circular inner shaft member which defines a first axis of rotation and which is positioned, at least partially, in the channel/passage defined by the outer tubular member ; and at least one wedge formation which is wedged between the shaft member and the tubular member , wherein the wedge formation is at least partially resiliently deformable and is configured to resist/oppose relative rotation between the shaft member and the tubular member about the first axis of rotation , wherein one of the members is connected to the first part , while the other member is connected to the second part .
A vehicular rotating electrical machine apparatus comprising: a rotating electrical machine which includes a rotor having a field winding , and a stator disposed at an outer periphery of the rotor and having a stator winding , and performs electric power generation and starting; and an inverter unit which converts DC power of a battery into AC power at a time of a starting motor operation of the rotating electrical machine and supplies it to the stator winding , and converts AC power generated in the stator winding into DC power at a time of a generator operation of the rotating electrical machine and charges the battery , wherein the inverter unit is integrally mounted to the rotating electrical machine and is electrically connected to the stator winding , the rotor includes a rotor iron core which includes a magnetic part where adjacent magnetic poles are formed to have different polarities, and a field winding , and a permanent magnet which supplies, together with the field winding , magnetic flux to the stator iron core, characterized in that the permanent magnet is disposed between the adjacent magnetic poles , wherein the magnetic flux by the permanent magnet is adjusted so that in an actual use rotation speed range of the rotating electrical machine , when a field current is not applied to the field winding , a deenergization no-load induced voltage or a deenergization induced voltage in a minimum electric load power generation state does not exceed a voltage of the battery . a rotating electrical machine which includes a rotor having a field winding , and a stator disposed at an outer periphery of the rotor and having a stator winding , and performs electric power generation and starting; and an inverter unit which converts DC power of a battery into AC power at a time of a starting motor operation of the rotating electrical machine and supplies it to the stator winding , and converts AC power generated in the stator winding into DC power at a time of a generator operation of the rotating electrical machine and charges the battery , wherein the inverter unit is integrally mounted to the rotating electrical machine and is electrically connected to the stator winding , the rotor includes a rotor iron core which includes a magnetic part where adjacent magnetic poles are formed to have different polarities, and a field winding , and a permanent magnet which supplies, together with the field winding , magnetic flux to the stator iron core, characterized in that the permanent magnet is disposed between the adjacent magnetic poles , wherein the magnetic flux by the permanent magnet is adjusted so that in an actual use rotation speed range of the rotating electrical machine , when a field current is not applied to the field winding , a deenergization no-load induced voltage or a deenergization induced voltage in a minimum electric load power generation state does not exceed a voltage of the battery .
Apparatus comprising: a substrate comprising a recess (14; 14a, 14b); and a multitude of particles arranged in the recess (14; 14a, 14b); wherein a first portion of the particles is joined to a porous structure (22; 22a, 22b) by means of a coating, and wherein a second portion of the particles is not joined by means of the coating; and wherein the first portion of the particles is arranged closer to an opening of the recess (14; 14a, 14b) than the second portion of the particles so that a leaking of the second portion of the particles from the recess (14; 14a, 14b) through the opening is prevented ; wherein the particles of the second portion are configured to react with a fluid and/or to bind the fluid or a substance thereof; and wherein the second portion comprises a number of particles which is greater than a number of particles of the first portion by a factor of at least 1.1. a substrate comprising a recess (14; 14a, 14b); and a multitude of particles arranged in the recess (14; 14a, 14b); wherein a first portion of the particles is joined to a porous structure (22; 22a, 22b) by means of a coating, and wherein a second portion of the particles is not joined by means of the coating; and wherein the first portion of the particles is arranged closer to an opening of the recess (14; 14a, 14b) than the second portion of the particles so that a leaking of the second portion of the particles from the recess (14; 14a, 14b) through the opening is prevented ; wherein the particles of the second portion are configured to react with a fluid and/or to bind the fluid or a substance thereof; and wherein the second portion comprises a number of particles which is greater than a number of particles of the first portion by a factor of at least 1.1.
A scroll compressor comprising: a casing having an oil storage space (S3) in an inner space thereof; a motor unit provided in the inner space of the casing ; a fixed scroll provided between the motor unit and the oil storage space (S3) within the inner space of the casing ; an orbiting scroll configured to perform an orbiting motion and to define a compression chamber (V) together with the fixed scroll ; a rotating shaft having one end coupled to the motor unit and the other end coupled to the orbiting scroll ; a refrigerant suction pipe for supplying refrigerant to the compression chamber (V), the refrigerant suction pipe passing through the casing and connected to the compression chamber (V); characterised by : an oil circulation pipe having one end passing through the casing and connected to the oil storage space (S3) and another end connected to the refrigerant suction pipe ; an oil circulation valve provided at the oil circulation pipe and configured to selectively open or close the oil circulation pipe ; and a control unit configured to control the oil circulation valve to be opened or closed. a casing having an oil storage space (S3) in an inner space thereof; a motor unit provided in the inner space of the casing ; a fixed scroll provided between the motor unit and the oil storage space (S3) within the inner space of the casing ; an orbiting scroll configured to perform an orbiting motion and to define a compression chamber (V) together with the fixed scroll ; a rotating shaft having one end coupled to the motor unit and the other end coupled to the orbiting scroll ; a refrigerant suction pipe for supplying refrigerant to the compression chamber (V), the refrigerant suction pipe passing through the casing and connected to the compression chamber (V); characterised by : an oil circulation pipe having one end passing through the casing and connected to the oil storage space (S3) and another end connected to the refrigerant suction pipe ; an oil circulation valve provided at the oil circulation pipe and configured to selectively open or close the oil circulation pipe ; and a control unit configured to control the oil circulation valve to be opened or closed. an oil circulation pipe having one end passing through the casing and connected to the oil storage space (S3) and another end connected to the refrigerant suction pipe ; an oil circulation valve provided at the oil circulation pipe and configured to selectively open or close the oil circulation pipe ; and a control unit configured to control the oil circulation valve to be opened or closed.
LED module of a vehicle headlight for generating a screened light distribution with a largely horizontal cutoff line , the LED module comprising two reflectors , the reflective surfaces of which are paraboloid in shape and are divided into multiple segments (2-1, 2-2, 2-3; 3-1, 3-2, 3-3, 3-4), and at least two LEDs , whereby at least one LED is assigned to each reflector , whereby the cutoff line of the light distribution is divided into multiple adjacent segments (B1, B2, B3, B4), whereby the LED module is designed such that at least some of the LEDs are each primarily assigned to one of the reflector segments (2-1, 2-2, 2-3; 3-1, 3-2, 3-3, 3-4) and these LEDs illuminate an area (LV2-1, LV3-1, LV3-3, LV2-3) of the light distribution together with their respective primarily assigned reflector segment (2-1, 2-2, 2-3; 3-1, 3-2, 3-3, 3-4), creating a certain area (B1, B2, B3, B4) of the cutoff line , and that the sum of the LEDs with their respective primarily assigned reflector segments (2-1, 2-2, 2-3; 3-1, 3-2, 3-3, 3-4) generate the entire cutoff line , and whereby each of the LEDs illuminates another area of the light distribution together with at least another, secondarily assigned reflector segment (2-1, 2-2, 2-3; 3-1, 3-2, 3-3, 3-4), and the upper margin of this area does not influence the creation of the cutoff line , characterised in that each of the segments (2-1, 2-2, 2-3; 3-1, 3-2, 3-3, 3-4) of the reflectors primarily assigned an LED is focused on the margin of an illumination surface of the LED primarily assigned to the segment (2-1, 2-2, 2-3; 3-1, 3-2, 3-3, 3-4), and that an external segment (2-1, 2-3) of a reflector is focused on an anterior margin of the illumination surface of the LED (4; 6) primarily assigned to the segment (2-1, 2-3) in the direction of movement of the vehicle.
A system for generating speech recognition training data, the system comprising: a speech data processing module configured to receive speech data from a user terminal (110; 120; 130; 140) and to perform data preprocessing on the received speech data, wherein the data preprocessing comprises segmenting the speech data in units of sentences to generate preprocessed speech data; an auto speech recognition, ASR, interfacing module configured to transmit the preprocessed speech data to a plurality of ASR engines and to acquire a confidence score and transcription data of the speech data from the plurality of ASR engines; an ASR result evaluating module configured to: compare the plurality of pieces of transcription data and, when the plurality of pieces of transcription data match in plurality, determine that the speech data and the transcription data match each other, and when the plurality of pieces of transcription data do not match in plurality, based on one result in which the highest confidence score is returned by the ASR interfacing module , determine that the speech data and the transcription data match each other when said confidence score is higher than a preset confidence score; and a training data managing unit configured to generate training data as a pair of the speech data and the transcription data determined to match each other. a speech data processing module configured to receive speech data from a user terminal (110; 120; 130; 140) and to perform data preprocessing on the received speech data, wherein the data preprocessing comprises segmenting the speech data in units of sentences to generate preprocessed speech data; an auto speech recognition, ASR, interfacing module configured to transmit the preprocessed speech data to a plurality of ASR engines and to acquire a confidence score and transcription data of the speech data from the plurality of ASR engines; an ASR result evaluating module configured to: compare the plurality of pieces of transcription data and, when the plurality of pieces of transcription data match in plurality, determine that the speech data and the transcription data match each other, and when the plurality of pieces of transcription data do not match in plurality, based on one result in which the highest confidence score is returned by the ASR interfacing module , determine that the speech data and the transcription data match each other when said confidence score is higher than a preset confidence score; and compare the plurality of pieces of transcription data and, when the plurality of pieces of transcription data match in plurality, determine that the speech data and the transcription data match each other, and when the plurality of pieces of transcription data do not match in plurality, based on one result in which the highest confidence score is returned by the ASR interfacing module , determine that the speech data and the transcription data match each other when said confidence score is higher than a preset confidence score; and a training data managing unit configured to generate training data as a pair of the speech data and the transcription data determined to match each other.
A control system for controlling an automation system, - comprising a signal-distribution board , at least a first contact device and at least a second contact device , - wherein the first contact device and the second contact device are arranged at an offset with regard to each other on the signal-distribution board and the signal-distribution board electrically connects the first contact device to the second contact device at least for transmitting data, - wherein the second contact device is embodied to electrically contact a signal-processing module or a second coupling module , - wherein the first contact device may be electrically connected to a field device, characterized by - a top-hat rail, - wherein the top-hat rail is mechanically fastened to the signal-distribution board and a first coupling module may be mechanically fastened to the top-hat rail . - comprising a signal-distribution board , at least a first contact device and at least a second contact device , - wherein the first contact device and the second contact device are arranged at an offset with regard to each other on the signal-distribution board and the signal-distribution board electrically connects the first contact device to the second contact device at least for transmitting data, - wherein the second contact device is embodied to electrically contact a signal-processing module or a second coupling module , - wherein the first contact device may be electrically connected to a field device, characterized by - a top-hat rail, - wherein the top-hat rail is mechanically fastened to the signal-distribution board and a first coupling module may be mechanically fastened to the top-hat rail .
Implantable electrode device , comprising a first layer (7; 7a 7b, 7c), and a second layer , the second layer being on top of the first layer and including at least one electrode contact , the at least one electrode contact being exposable to a nerve of a nervous tissue of a human or of an animal, a connecting means which electrically connects the at least one electrode contact , wherein the connecting means is made up of at least one conducting wire , the at least one conducting wire being arranged within the first layer (7; 7a 7b, 7c) and being fixed to the at least one electrode contact , wherein the at least one conducting wire is arranged in a core included within the first layer (7; 7a 7b, 7c), and wherein the core has the form of a channel within the first layer , extending from a first opening in the first layer (7; 7a 7b, 7c) to a position underneath the at least one electrode contact wherein the at least one wire is guided through the channel and the first opening into a cable coupling the electrode with an interface unit . characterized in that a strain relief means is arranged within the core and guided through the channel and the first opening into the cable and being fixed to the electrode and to the interface unit . a first layer (7; 7a 7b, 7c), and a second layer , the second layer being on top of the first layer and including at least one electrode contact , the at least one electrode contact being exposable to a nerve of a nervous tissue of a human or of an animal, a connecting means which electrically connects the at least one electrode contact , wherein the connecting means is made up of at least one conducting wire , the at least one conducting wire being arranged within the first layer (7; 7a 7b, 7c) and being fixed to the at least one electrode contact , wherein the at least one conducting wire is arranged in a core included within the first layer (7; 7a 7b, 7c), and wherein the core has the form of a channel within the first layer , extending from a first opening in the first layer (7; 7a 7b, 7c) to a position underneath the at least one electrode contact wherein the at least one wire is guided through the channel and the first opening into a cable coupling the electrode with an interface unit . characterized in that a strain relief means is arranged within the core and guided through the channel and the first opening into the cable and being fixed to the electrode and to the interface unit .
A temperature pre-adjusting system for a beverage brewing device, characterized by , comprising a host control unit, a brewing unit , and a first fluid pipeline , wherein one end of the first fluid pipeline is connected to the brewing unit and configured to output a beverage from the brewing unit to a beverage outlet , and the temperature pre-adjusting system further comprises a second fluid pipeline , a third fluid pipeline , and a control component, wherein one end of the second fluid pipeline is connected to the brewing unit and configured to provide a temperature adjusting medium for the brewing unit ; one end of the third fluid pipeline is connected to the brewing unit or the first fluid pipeline and configured to discharge the temperature adjusting medium that has performed a temperature adjusting function; and the control component is connected to a pipeline and configured to control on-off of the first fluid pipeline and the third fluid pipeline , and the control component is controlled by the host control unit; wherein one end of the third fluid pipeline is connected to the first fluid pipeline at a connection point which is located between the brewing unit and the beverage outlet , and the other end is directly or indirectly connected to a collection container ; characterized in that the control component is a pump , and the pump is disposed on the third fluid pipeline ; and in that the temperature pre-adjusting system is further provided with a flowmeter, the flowmeter is disposed on the third fluid pipeline , and the host control unit controls the pump by setting a preset flow, so as to control an on-off switching time of the first fluid pipeline and the third fluid pipeline . wherein one end of the third fluid pipeline is connected to the first fluid pipeline at a connection point which is located between the brewing unit and the beverage outlet , and the other end is directly or indirectly connected to a collection container ; characterized in that the control component is a pump , and the pump is disposed on the third fluid pipeline ; and in that the temperature pre-adjusting system is further provided with a flowmeter, the flowmeter is disposed on the third fluid pipeline , and the host control unit controls the pump by setting a preset flow, so as to control an on-off switching time of the first fluid pipeline and the third fluid pipeline .