mhurhangee/patent-ind-claim-en huggingface dataset:
Clinching pliers for clinching two parts together, comprising, with reference to the normal position of use and to the direction of driving (F1) in which the punch advances towards the parts that are to be clinched together: • a hollow body having a rear end and a front end ; • a fixed handle secured to the hollow body • a rack mounted with the ability to slide in the hollow body between an initial position (Pi) and a clinched position (PF), and having: o a first toothset with teeth inclined towards the rear and which is arranged on an upper edge ; o a second toothset with teeth inclined towards the rear and which is arranged on a lower edge ; o a front end equipped with a punch ; • a handle , acting as a lever, mounted with the ability to pivot in the hollow body in front of the fixed handle , between a maximum-clamping position (PSM) and a stripping position (PDEV), said handle comprising a hollow upper end that accepts a torsion spring pressing against said hollow upper end and pressing against a pawl referred to as "driving" pawl, mounted with the ability to pivot in the hollow body , in front of the hollow upper end , and equipped with a crosspiece engaged between the teeth of the first toothset ; • a pawl referred to as a "locking" pawl, mounted with the ability to pivot in the hollow body and equipped with a crosspiece engaged between the teeth of the second toothset , a compression spring being arranged pressing against the locking pawl and pressing against an end stop situated at a rear end of the rack . • a hollow body having a rear end and a front end ; • a fixed handle secured to the hollow body • a rack mounted with the ability to slide in the hollow body between an initial position (Pi) and a clinched position (PF), and having: o a first toothset with teeth inclined towards the rear and which is arranged on an upper edge ; o a second toothset with teeth inclined towards the rear and which is arranged on a lower edge ; o a front end equipped with a punch ; o a first toothset with teeth inclined towards the rear and which is arranged on an upper edge ; o a second toothset with teeth inclined towards the rear and which is arranged on a lower edge ; o a front end equipped with a punch ; • a handle , acting as a lever, mounted with the ability to pivot in the hollow body in front of the fixed handle , between a maximum-clamping position (PSM) and a stripping position (PDEV), said handle comprising a hollow upper end that accepts a torsion spring pressing against said hollow upper end and pressing against a pawl referred to as "driving" pawl, mounted with the ability to pivot in the hollow body , in front of the hollow upper end , and equipped with a crosspiece engaged between the teeth of the first toothset ; • a pawl referred to as a "locking" pawl, mounted with the ability to pivot in the hollow body and equipped with a crosspiece engaged between the teeth of the second toothset , a compression spring being arranged pressing against the locking pawl and pressing against an end stop situated at a rear end of the rack .
A method in a User Equipment (UE) for managing radio bearers, the method comprising: communicating , by the UE, with a first base station over a signaling radio bearer 4 (SRB4), associated with a logical channel identity; receiving , by the UE from a radio access network (RAN) including the first base station and a second base station, a message related to a data radio bearer (DRB) having the logical channel identity and terminated at the second base station; and releasing , by the UE, the SRB4 in response to the message. communicating , by the UE, with a first base station over a signaling radio bearer 4 (SRB4), associated with a logical channel identity; receiving , by the UE from a radio access network (RAN) including the first base station and a second base station, a message related to a data radio bearer (DRB) having the logical channel identity and terminated at the second base station; and releasing , by the UE, the SRB4 in response to the message.
A braking mechanism comprising: at least one magnetic field provided by magnetic elements , the magnetic elements including one north polarity facing magnet element and one south polarity facing magnet element aligned so as to cause a magnetic field between the elements, about a predetermined region , the predetermined region being located immediately between the magnetic elements; at least one additional magnet in the form of magnetic cladding about the magnetic elements, acting to modify the magnetic flux density about the predetermined region ; at least one conductive member or a part thereof that interacts with the magnetic field in the predetermined region ; and, as the at least one conductive member or a part thereof interacts with the magnetic field in the predetermined region , eddy current drag forces are generated resisting relative movement between the at least one conductive member or a part thereof and the magnetic field, the at least one conductive member being a rotor, the rotor rotating about a rotational axis, and the magnetic cladding substantially extending across an axial width of the rotor , facing towards the axis of the rotor , and the north polarity facing magnet element and south polarity facing magnet element facing opposing sides of the rotor , the magnet elements and magnetic cladding together substantially surrounding a part of the periphery of the rotor when the rotor interacts with the predetermined region , the magnetic field lines of the magnetic field passing through the predetermined region being substantially parallel to the rotor axis. at least one magnetic field provided by magnetic elements , the magnetic elements including one north polarity facing magnet element and one south polarity facing magnet element aligned so as to cause a magnetic field between the elements, about a predetermined region , the predetermined region being located immediately between the magnetic elements; at least one additional magnet in the form of magnetic cladding about the magnetic elements, acting to modify the magnetic flux density about the predetermined region ; at least one conductive member or a part thereof that interacts with the magnetic field in the predetermined region ; and, as the at least one conductive member or a part thereof interacts with the magnetic field in the predetermined region , eddy current drag forces are generated resisting relative movement between the at least one conductive member or a part thereof and the magnetic field, the at least one conductive member being a rotor, the rotor rotating about a rotational axis, and the magnetic cladding substantially extending across an axial width of the rotor , facing towards the axis of the rotor , and the north polarity facing magnet element and south polarity facing magnet element facing opposing sides of the rotor , the magnet elements and magnetic cladding together substantially surrounding a part of the periphery of the rotor when the rotor interacts with the predetermined region , the magnetic field lines of the magnetic field passing through the predetermined region being substantially parallel to the rotor axis.
An LED filament , comprising: a carrier comprising a first elongated carrier portion , a second elongated carrier portion , and a third elongated carrier portion arranged alongside each other, the third elongated carrier portion being provided between the first elongated carrier portion and the second elongated carrier portion; first LEDs mounted on a first surface of the first elongated carrier portion for providing first LED filament light ; second LEDs mounted on a corresponding second surface of the second elongated carrier portion for providing second LED filament light ; and third LEDs mounted on a corresponding third surface of the third elongated carrier portion for providing third LED filament light , characterized in that the carrier is folded along a first longitudinal folding line separating the first elongated carrier portion and the third elongated carrier portion and along a second longitudinal folding line separating the second elongated carrier portion and the third elongated carrier portion into a three-sided structure, and in that each of the first elongated carrier portion and the second elongated carrier portion comprises notches configured to allow the LED filament to be arranged in a non-straight configuration. a carrier comprising a first elongated carrier portion , a second elongated carrier portion , and a third elongated carrier portion arranged alongside each other, the third elongated carrier portion being provided between the first elongated carrier portion and the second elongated carrier portion; first LEDs mounted on a first surface of the first elongated carrier portion for providing first LED filament light ; second LEDs mounted on a corresponding second surface of the second elongated carrier portion for providing second LED filament light ; and third LEDs mounted on a corresponding third surface of the third elongated carrier portion for providing third LED filament light , characterized in that the carrier is folded along a first longitudinal folding line separating the first elongated carrier portion and the third elongated carrier portion and along a second longitudinal folding line separating the second elongated carrier portion and the third elongated carrier portion into a three-sided structure, and in that each of the first elongated carrier portion and the second elongated carrier portion comprises notches configured to allow the LED filament to be arranged in a non-straight configuration.
A method of processing a sample and of preparing a droplet forming sample of forming droplets individually encapsulating a target component, the method comprising: storing a processing liquid containing a target component and a diluent for diluting the processing liquid in a reservoir of a sample processing chip , wherein the processing liquid is diluted in order to prepare a droplet forming sample for forming droplets individually encapsulating the target component ; characterized by the method further comprising: agitating the processing liquid and the diluent in the reservoir by introducing a gas into the processing liquid and the diluent in the reservoir , wherein in the agitating, the gas is introduced into the reservoir for a predetermined time of 0.1 seconds or more and 60 seconds or less to agitate the processing liquid and the diluent , wherein the reservoir is a storage tank which is tube-shaped and connected to a substrate of the sample processing chip ; and in the agitating, the processing liquid and the diluent are agitated by introducing the gas from a bottom of the storage tank and rising the gas in the storage tank. storing a processing liquid containing a target component and a diluent for diluting the processing liquid in a reservoir of a sample processing chip , wherein the processing liquid is diluted in order to prepare a droplet forming sample for forming droplets individually encapsulating the target component ; characterized by the method further comprising: agitating the processing liquid and the diluent in the reservoir by introducing a gas into the processing liquid and the diluent in the reservoir , wherein in the agitating, the gas is introduced into the reservoir for a predetermined time of 0.1 seconds or more and 60 seconds or less to agitate the processing liquid and the diluent , wherein the reservoir is a storage tank which is tube-shaped and connected to a substrate of the sample processing chip ; and in the agitating, the processing liquid and the diluent are agitated by introducing the gas from a bottom of the storage tank and rising the gas in the storage tank. agitating the processing liquid and the diluent in the reservoir by introducing a gas into the processing liquid and the diluent in the reservoir , wherein in the agitating, the gas is introduced into the reservoir for a predetermined time of 0.1 seconds or more and 60 seconds or less to agitate the processing liquid and the diluent , wherein the reservoir is a storage tank which is tube-shaped and connected to a substrate of the sample processing chip ; and in the agitating, the processing liquid and the diluent are agitated by introducing the gas from a bottom of the storage tank and rising the gas in the storage tank.
A method for a terminal to perform random access, the method comprising: receiving and obtaining a related parameter in a configuration message from a network-side device, wherein the related parameter comprises cell public delay information, wherein the cell public delay information is public transmission delay information of the beam area where the terminal is located and covered by a Non-Terrestrial Networks system; generating a Physical Random Access CHannel random access Preamble, PRACH Preamble, sequence, and determining an uplink transmission timing position according to the cell public delay information; sending the PRACH Preamble sequence on a time-frequency resource corresponding to the uplink transmission timing position; wherein the determining an uplink transmission timing position according to the cell public delay information, comprises: determining a timing advance of the uplink transmission timing position relative to a configuration message receiving position according to the cell public delay information; determining the uplink transmission timing position according to the configuration message receiving position and the timing advance. receiving and obtaining a related parameter in a configuration message from a network-side device, wherein the related parameter comprises cell public delay information, wherein the cell public delay information is public transmission delay information of the beam area where the terminal is located and covered by a Non-Terrestrial Networks system; generating a Physical Random Access CHannel random access Preamble, PRACH Preamble, sequence, and determining an uplink transmission timing position according to the cell public delay information; sending the PRACH Preamble sequence on a time-frequency resource corresponding to the uplink transmission timing position; wherein the determining an uplink transmission timing position according to the cell public delay information, comprises: determining a timing advance of the uplink transmission timing position relative to a configuration message receiving position according to the cell public delay information; determining the uplink transmission timing position according to the configuration message receiving position and the timing advance. determining a timing advance of the uplink transmission timing position relative to a configuration message receiving position according to the cell public delay information; determining the uplink transmission timing position according to the configuration message receiving position and the timing advance.
A computer-implemented method for processing a video stream , the computer-implemented method comprising: receiving a video stream comprising a plurality of frames of image data (304a to 304h); selecting portions of the image data on the basis of first data indicating locations within the image data; modifying the selected portions to generate modified portions of the image data (308a to 308c); generating second data for use in recovering at least some of the selected portions from the modified portions (308a to 308c), the second data comprising metadata representing an expiry date value for the second data ; outputting the second data , unselected portions of the image data and the modified portions of the image data (312a to 312e); providing the modified portions of the image data (308a to 308c) and the unselected portions of the image data (312a to 312e) to a user at a first time; and at a second time, the second time being after the first time: receiving a request to provide the second data to the user; comparing the expiry date value for the second data with a reference date value; and performing a predetermined action in dependence on the comparison of the expiry date value with the reference date value. receiving a video stream comprising a plurality of frames of image data (304a to 304h); selecting portions of the image data on the basis of first data indicating locations within the image data; modifying the selected portions to generate modified portions of the image data (308a to 308c); generating second data for use in recovering at least some of the selected portions from the modified portions (308a to 308c), the second data comprising metadata representing an expiry date value for the second data ; outputting the second data , unselected portions of the image data and the modified portions of the image data (312a to 312e); providing the modified portions of the image data (308a to 308c) and the unselected portions of the image data (312a to 312e) to a user at a first time; and at a second time, the second time being after the first time: receiving a request to provide the second data to the user; comparing the expiry date value for the second data with a reference date value; and performing a predetermined action in dependence on the comparison of the expiry date value with the reference date value. receiving a request to provide the second data to the user; comparing the expiry date value for the second data with a reference date value; and performing a predetermined action in dependence on the comparison of the expiry date value with the reference date value.
A knotter, comprising: a driving structure ; a punching and shearing clip , wherein a clip mouth of the punching and shearing clip having a first position in an open state, and a second position in a punching state when driven by the driving structure ; and scissor having a first position in an open state when driven by the driving structure , and a second position in a shearing state when driven by the driving structure ; wherein the second position of the scissor is synchronized with the second position of the punching and shearing clip , a first end of the scissor cooperates with the driving structure , and cutting edges of the scissor being located at a second end of the scissor , the scissor comprise a first scissor arm and a second scissor arm , middle parts of the first scissor arm and the second scissor arm being connected by a pivot shaft , the driving structure cooperating with a first end of the first scissor arm and a first end of the second scissor arm , when the first end of the first scissor arm is close to a second end of the second scissor arm , a second end of the first scissor arm being close to the second scissor arm , the driving structure comprises a driving rod , a first end of the driving rod cooperating with the punching and shearing clip and the scissor respectively, characterized in that a first side part of the first end of the driving rod has scissor arm holes which cooperate with the scissor , the first end of the scissor being located in the scissor arm holes . a driving structure ; a punching and shearing clip , wherein a clip mouth of the punching and shearing clip having a first position in an open state, and a second position in a punching state when driven by the driving structure ; and scissor having a first position in an open state when driven by the driving structure , and a second position in a shearing state when driven by the driving structure ; wherein the second position of the scissor is synchronized with the second position of the punching and shearing clip , a first end of the scissor cooperates with the driving structure , and cutting edges of the scissor being located at a second end of the scissor , the scissor comprise a first scissor arm and a second scissor arm , middle parts of the first scissor arm and the second scissor arm being connected by a pivot shaft , the driving structure cooperating with a first end of the first scissor arm and a first end of the second scissor arm , when the first end of the first scissor arm is close to a second end of the second scissor arm , a second end of the first scissor arm being close to the second scissor arm , the driving structure comprises a driving rod , a first end of the driving rod cooperating with the punching and shearing clip and the scissor respectively, characterized in that a first side part of the first end of the driving rod has scissor arm holes which cooperate with the scissor , the first end of the scissor being located in the scissor arm holes .
Plug connector, - with a housing , - with at least one contact held on the housing , wherein the contact is configured to contact a contact of a further plug connector , - wherein the housing has at least one form element for fastening at least one shield plate , - wherein the housing has at least one guide element for form-fittingly guiding and positioning the plug connector on a further plug connector , - wherein the guide element is spaced apart from the form element , characterized in that - the guide element is an integral component of an outer wall of the housing , - wherein the outer wall circumferentially surrounds the contact . - with a housing , - with at least one contact held on the housing , wherein the contact is configured to contact a contact of a further plug connector , - wherein the housing has at least one form element for fastening at least one shield plate , - wherein the housing has at least one guide element for form-fittingly guiding and positioning the plug connector on a further plug connector , - wherein the guide element is spaced apart from the form element , - the guide element is an integral component of an outer wall of the housing , - wherein the outer wall circumferentially surrounds the contact .
An X-ray fluorescence spectrometric system , which is configured to analyze a sample through use of fluorescent X-rays generated by irradiating a surface of the sample with primary X-rays, the X-ray fluorescence spectrometric system comprising: a job execution unit configured to execute a job indicating a processing condition in which a recipe indicating a measurement condition formed by combining a plurality of operations required for the analysis and the sample to be measured under the measurement condition indicated by the recipe are associated with each other; a storage unit configured to store in advance a time required for each of the operations in association with the each of the operations; a calculation unit configured to calculate, when the job is generated, a time to be taken until execution of the job is completed, for each job based on the time stored in the storage unit ; and a control unit configured to newly store, when the job is executed, a time taken for the operation in the storage unit , in association with the operation, wherein the calculation unit is configured to further calculate, when the job is executed, the time to be taken until the execution of the job is completed, based on the time newly stored in the storage unit . a job execution unit configured to execute a job indicating a processing condition in which a recipe indicating a measurement condition formed by combining a plurality of operations required for the analysis and the sample to be measured under the measurement condition indicated by the recipe are associated with each other; a storage unit configured to store in advance a time required for each of the operations in association with the each of the operations; a calculation unit configured to calculate, when the job is generated, a time to be taken until execution of the job is completed, for each job based on the time stored in the storage unit ; and a control unit configured to newly store, when the job is executed, a time taken for the operation in the storage unit , in association with the operation, wherein the calculation unit is configured to further calculate, when the job is executed, the time to be taken until the execution of the job is completed, based on the time newly stored in the storage unit .