mhurhangee/patent-ind-claim-en huggingface dataset:
A system for the management of a clay shooting session, comprising session control hardware and software means and a user interface operatively connected to said hardware and software control means, wherein the user interface comprises a plurality of user buttons operable by a user following the execution of a shot, said plurality of buttons comprising a first button for a lost clay target, a second button for a second barrel shot taken, and a third button for a no-target, wherein the hardware and software control means are configured to: - receive button signals operated by the respective user buttons, - receive a voice command signal from a voice command detection device , - receive a shot taken signal, - control the release of a clay target, - store a data set relating to a shot taken, wherein, in the event of pressing the no-target button, the hardware and software means are further configured to: - check whether the data stored before the no-target button was pressed include at least one of the following: data relating to the shot made signal, data relating to pressing the second barrel shot button, data relating to pressing the lost clay target button; - If not, overwriting the data stored before the no-target button is pressed with the data set relating to the shot after the no-target button is pressed; - If so, keeping the data set stored before the no-target button is pressed and identify as a repeated shot the data set relating to the next shot after the no-target button is pressed. - receive button signals operated by the respective user buttons, - receive a voice command signal from a voice command detection device , - receive a shot taken signal, - control the release of a clay target, - store a data set relating to a shot taken, wherein, in the event of pressing the no-target button, the hardware and software means are further configured to: - check whether the data stored before the no-target button was pressed include at least one of the following: data relating to the shot made signal, data relating to pressing the second barrel shot button, data relating to pressing the lost clay target button; - If not, overwriting the data stored before the no-target button is pressed with the data set relating to the shot after the no-target button is pressed; - If so, keeping the data set stored before the no-target button is pressed and identify as a repeated shot the data set relating to the next shot after the no-target button is pressed. - check whether the data stored before the no-target button was pressed include at least one of the following: data relating to the shot made signal, data relating to pressing the second barrel shot button, data relating to pressing the lost clay target button; - If not, overwriting the data stored before the no-target button is pressed with the data set relating to the shot after the no-target button is pressed; - If so, keeping the data set stored before the no-target button is pressed and identify as a repeated shot the data set relating to the next shot after the no-target button is pressed.
A detonator for a projectile, wherein the detonator comprises a brake assembly to enable the braking of a projectile on its trajectory, comprising at least two brake flaps , wherein the two brake flaps are formed by an upper brake flap and a lower brake flap , arranged at different positions in the axial direction of the projectile, wherein the brake flaps are substantially U-shaped, comprising two projections which are connected by a braking surface (A) with a curved outer edge , each brake flap comprising a cavity which is partly enclosed by the two projections and the braking surface (A) and which in the folded-up condition partly surrounds a center axis , such that the full span (L-L), where the full span is the distance (L-L) between the outer edge of the upper brake flap and the outer edge of the lower brake flap when the brake flaps are situated in the fully unfolded condition, is greater than twice the projectile diameter (D-D) in the position of the brake assembly in the axial direction of the brake assembly where the brake flaps are situated, and that the lower brake flap further comprises a cavity to reduce the total weight of the lower brake flap , wherein the projection has an end position where a shoulder is situated, wherein the detonator comprises a lower tube body and an upper brake bracket , which together define a central axis , wherein said tube body and brake bracket comprise shaped grooves in which the shoulders are situated and wherein said brake flaps comprise a cavity enabling maximum unfolding of the brake flaps and a positioning around the central axis in the folded-up condition, wherein a first latch which locks the brake flaps in the folded-up condition is situated in the upper brake flap and a second latch is situated beneath the upper brake flap and locks the lower brake flap in the folded-up condition; characterized in that the detonator is configured such that when the first latch is pulled out from the upper brake flap the brake flap begins to move radially out from the central axis with the help of the centrifugal force, whereupon the latch which heretofore locked the lower brake flap is exposed and releases the lower brake flap , which then begins to move radially out from the central axis in the opposite direction with the help of the centrifugal force.
A shoe insert liner configured to be received in an inner cavity of a shoe having a rear heel portion , a toe portion , a tongue portion , an insole portion , and opposing sidewall portions , the shoe insert liner comprising an exterior surface and a fabric layer of yarn fibers having wicking and antimicrobial abilities, the liner comprising: a longitudinal portion ; opposing first and second lateral portions extending in a first direction from opposite sides of the longitudinal portion ; and opposing front and rear portions extending in the first direction from opposite ends of the longitudinal portion , wherein the longitudinal, lateral, front, and rear portions (105, 106, 107, 108, and 109) define an opening configured to receive a user's foot; and an adhesive bonded to at least a portion of the exterior surface of the liner, wherein the adhesive is bonded to the front portion and the rear portion of the liner , wherein a portion of the front portion which corresponds to the toe portion is free of the adhesive , and wherein the rear portion is configured to releasably adhere to the heel portion and the front portion is configured to releasably adhere to the tongue portion to maintain the opening and to define a cavity configured to receive the user's foot such that the bond between front portion and the tongue portion provides a counter-pulling force as the user's foot is inserted into the cavity such that the front portion is configured to stretch forward toward the toe portion , thereby conforming to the shape of the user's foot thus allowing the fabric layer to grip the user's foot tightly which enhances the wicking and antimicrobial abilities of the yarn fibers. a longitudinal portion ; opposing first and second lateral portions extending in a first direction from opposite sides of the longitudinal portion ; and opposing front and rear portions extending in the first direction from opposite ends of the longitudinal portion , wherein the longitudinal, lateral, front, and rear portions (105, 106, 107, 108, and 109) define an opening configured to receive a user's foot; and an adhesive bonded to at least a portion of the exterior surface of the liner, wherein the adhesive is bonded to the front portion and the rear portion of the liner , wherein a portion of the front portion which corresponds to the toe portion is free of the adhesive , and wherein the rear portion is configured to releasably adhere to the heel portion and the front portion is configured to releasably adhere to the tongue portion to maintain the opening and to define a cavity configured to receive the user's foot such that the bond between front portion and the tongue portion provides a counter-pulling force as the user's foot is inserted into the cavity such that the front portion is configured to stretch forward toward the toe portion , thereby conforming to the shape of the user's foot thus allowing the fabric layer to grip the user's foot tightly which enhances the wicking and antimicrobial abilities of the yarn fibers.
A gas processing system, comprising: a waveguide having a first gas inlet , a second gas inlet downstream of the first gas inlet , and a length, wherein the first gas inlet is configured to provide a flow of a supply gas into the waveguide , and the second gas inlet is configured to add a flow of a process gas into the waveguide ; and a pulsed microwave radiation source coupled to the waveguide to provide microwave radiation and to generate a plasma in the supply gas, such that, in use, the microwave radiation propagates in a direction along the length of the waveguide and reacts with the process gas within the waveguide which serves as a reaction chamber, wherein the pulsed microwave radiation source is configured to pulse the microwave radiation on and off at a frequency from 500 Hz to 1000 kHz and with a duty cycle less than 90%; wherein the first gas inlet , the second gas inlet and the waveguide are configured so that, in use, a majority of the flow of the supply gas and a majority of the flow of the process gas are parallel to the direction of the microwave radiation propagation; wherein the second gas inlet and the waveguide are further configured so that, in use, said majority of the flow of the process gas is greater than 5 slm, standard liter per minute; and wherein the waveguide is configured to accommodate pressures of at least 0.1 atmosphere. a waveguide having a first gas inlet , a second gas inlet downstream of the first gas inlet , and a length, wherein the first gas inlet is configured to provide a flow of a supply gas into the waveguide , and the second gas inlet is configured to add a flow of a process gas into the waveguide ; and a pulsed microwave radiation source coupled to the waveguide to provide microwave radiation and to generate a plasma in the supply gas, such that, in use, the microwave radiation propagates in a direction along the length of the waveguide and reacts with the process gas within the waveguide which serves as a reaction chamber, wherein the pulsed microwave radiation source is configured to pulse the microwave radiation on and off at a frequency from 500 Hz to 1000 kHz and with a duty cycle less than 90%; wherein the first gas inlet , the second gas inlet and the waveguide are configured so that, in use, a majority of the flow of the supply gas and a majority of the flow of the process gas are parallel to the direction of the microwave radiation propagation; wherein the second gas inlet and the waveguide are further configured so that, in use, said majority of the flow of the process gas is greater than 5 slm, standard liter per minute; and wherein the waveguide is configured to accommodate pressures of at least 0.1 atmosphere.
A management apparatus for measurement equipment , the management apparatus comprising, a data-accepting part and a data-transmitting-receiving part , wherein the data-accepting part accepts, as an input, an identification information of a communication device attached to the measurement equipment to be connected to the management apparatus , and the data-transmitting-receiving part communicates with the communication device by using the accepted identification information of the communication device , and obtains identification information of the measurement equipment through the communication device , wherein the identification information is specific to the measurement equipment and held in the measurement equipment, the management apparatus further comprising a user-information-accepting part and a storage part , characterized in that the user-information-accepting part accepts, as an input, information relating to a user of the measurement equipment (100, and the storage part holds the information relating to the user and the identification information of the communication device , and the identification information of the measurement equipment in association with each other. a data-accepting part and a data-transmitting-receiving part , wherein the data-accepting part accepts, as an input, an identification information of a communication device attached to the measurement equipment to be connected to the management apparatus , and the data-transmitting-receiving part communicates with the communication device by using the accepted identification information of the communication device , and obtains identification information of the measurement equipment through the communication device , wherein the identification information is specific to the measurement equipment and held in the measurement equipment, the management apparatus further comprising a user-information-accepting part and a storage part , characterized in that the user-information-accepting part accepts, as an input, information relating to a user of the measurement equipment (100, and the storage part holds the information relating to the user and the identification information of the communication device , and the identification information of the measurement equipment in association with each other.
Device for arranging a passenger restraint system in a means of transport, in order to secure a person sitting in the means of transport by means of the passenger restraint system, wherein the device comprises a support arrangement with a vertical support (3, 4; 38, 39; 59; 68, 69), wherein the vertical support (3, 4; 38, 39; 59; 68, 69) is designed as a hollow profile which is closed or mostly closed peripherally to the longitudinal axis of the vertical support (3, 4; 38, 39; 59; 68, 69), characterised in that the vertical support (3, 4; 38, 39; 59; 68, 69) is provided with a material recess in a wall (54-56) of the vertical support (3, 4; 38, 39; 59; 68, 69), wherein the material recess is designed to be slit-like in a wall (54-56) of the vertical support (3, 4; 38, 39; 59; 68, 69), wherein the material recess extends at the relevant point of the vertical support over a front side of the vertical support (3, 4; 38, 39; 59; 68, 69) and over a least one lateral area of the vertical support (3, 4; 38, 39; 59; 68, 69) adjoining the front side.
Handheld power tool comprising a tool holder for holding a tool , a percussion mechanism , an electric motor for driving the percussion mechanism , a monostable operating button which has a stable switching position and a pressed switching position, a device controller which switches off the electric motor in response to the stable switching position and which activates the electric motor in response to the pressed switching position, a catch which can be pivoted between a releasing position and a locking position in a pivoting direction , wherein the catch , in the locking position, stops the monostable operating button in the pressed switching position, an operating knob which can be moved by the user in a shifting direction which is perpendicular to the pivoting direction , characterized by a joint by means of which the catch is connected to the operating knob , and a slotted link which is converting a movement of the catch along the shifting direction into a pivoting movement in the pivoting direction . a tool holder for holding a tool , a percussion mechanism , an electric motor for driving the percussion mechanism , a monostable operating button which has a stable switching position and a pressed switching position, a device controller which switches off the electric motor in response to the stable switching position and which activates the electric motor in response to the pressed switching position, a catch which can be pivoted between a releasing position and a locking position in a pivoting direction , wherein the catch , in the locking position, stops the monostable operating button in the pressed switching position, an operating knob which can be moved by the user in a shifting direction which is perpendicular to the pivoting direction , characterized by a joint by means of which the catch is connected to the operating knob , and a slotted link which is converting a movement of the catch along the shifting direction into a pivoting movement in the pivoting direction .
A method for manufacturing an LED filament, comprising: operation S1, providing a plurality of metal sheets arranged in two rows in parallel, each metal sheet at one row having one end extending to the corresponding metal sheet at the other row, and the other ends of the metal sheets at said one row connecting with each other to form a positioning portion ; operation S2, providing a plurality of brackets , and each bracket being located between two corresponding metal sheets and fixedly connected to the two metal sheets , the two corresponding metal sheets being located in different rows and facing to each other, each of the metal sheets defining a clamping part for clamping the bracket ; operation S3, providing a plurality of LED chips and attaching the LED chips to each of the brackets , and the LED chips being electrically connected to the metal sheets by conducting wire ; operation S4, packaging each bracket , the LED chips defined on the bracket , the conducting strip or the conducting wire defined on the bracket , and the joint of the bracket and the metal sheet using packaging material to form an encapsulation layer ; the encapsulation layer , the bracket , the LED chips , the conducting strip and/or conducting wire , and the connected two metal sheets cooperatively forming the LED filament; and each of the brackets being attached with a rectifier module , and the rectifier module being defined at an end of the bracket closing to the metal sheet . operation S1, providing a plurality of metal sheets arranged in two rows in parallel, each metal sheet at one row having one end extending to the corresponding metal sheet at the other row, and the other ends of the metal sheets at said one row connecting with each other to form a positioning portion ; operation S2, providing a plurality of brackets , and each bracket being located between two corresponding metal sheets and fixedly connected to the two metal sheets , the two corresponding metal sheets being located in different rows and facing to each other, each of the metal sheets defining a clamping part for clamping the bracket ; operation S3, providing a plurality of LED chips and attaching the LED chips to each of the brackets , and the LED chips being electrically connected to the metal sheets by conducting wire ; operation S4, packaging each bracket , the LED chips defined on the bracket , the conducting strip or the conducting wire defined on the bracket , and the joint of the bracket and the metal sheet using packaging material to form an encapsulation layer ; the encapsulation layer , the bracket , the LED chips , the conducting strip and/or conducting wire , and the connected two metal sheets cooperatively forming the LED filament; and each of the brackets being attached with a rectifier module , and the rectifier module being defined at an end of the bracket closing to the metal sheet .
A drum arrangement for conveying rod-shaped articles for the tobacco processing industry, in particular filter rods and/or filter pieces and/or segmented products, in a transverse axial manner, wherein the drum arrangement has two shifting drums for displacing the rod-shaped articles in a longitudinal axial manner in receiving troughs , wherein the first shifting drum is configured with receiving troughs for rod-shaped articles, wherein the first shifting drum is designed such that during or when conveying the rod-shaped articles in a transverse axial direction, the rod-shaped articles can be or are displaced in a longitudinal axial manner in the receiving troughs , wherein the rod-shaped articles, after being displaced in a longitudinal axial manner on the first shifting drum , are or can subsequently be transferred from the first shifting drum to the second shifting drum and the transferred rod-shaped articles can be or are displaced in the longitudinal axial direction on the second shifting drum in the receiving troughs of the second shifting drum , characterized in that the first shifting drum has two rows (R1, R2) arranged next to one another of receiving troughs arranged in a transverse axial manner behind one another in the circumferential direction, wherein the receiving troughs of the first row of receiving troughs are arranged or oriented in a non-aligned manner with the receiving troughs of the second row (R2) of receiving troughs.
Compounds of formula (I) in which Q represents oxygen or sulphur, V represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, W represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, X represents a radical from the series optionally substituted alkyl, alkenyl or alkynyl, saturated or unsaturated cycloalkyl or cycloalkenyl, optionally interrupted by heteroatoms and optionally substituted, saturated or unsaturated cycloalkylalkyl or cycloalkenylalkyl, optionally interrupted by heteroatoms and optionally substituted, optionally substituted aryl or hetaryl and optionally substituted arylalkyl or hetarylalkyl, Y represents a radical from the series hydrogen, cyano, optionally substituted alkyl, alkenyl or alkynyl, cycloalkyl optionally interrupted by heteroatoms and optionally substituted and cycloalkylalkyl, arylalkyl or hetarylalkyl optionally interrupted by heteroatoms and optionally substituted, A represents a radical from the series hydrogen, optionally substituted alkyl, alkenyl or alkynyl and cycloalkyl or cycloalkylalkyl optionally interrupted by heteroatoms and optionally substituted, T represents oxygen or an electron pair, and salts thereof. Q represents oxygen or sulphur, V represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, W represents a radical from the series hydrogen, halogen, alkyl, haloalkyl, alkoxy, haloalkoxy and cyano, X represents a radical from the series optionally substituted alkyl, alkenyl or alkynyl, saturated or unsaturated cycloalkyl or cycloalkenyl, optionally interrupted by heteroatoms and optionally substituted, saturated or unsaturated cycloalkylalkyl or cycloalkenylalkyl, optionally interrupted by heteroatoms and optionally substituted, optionally substituted aryl or hetaryl and optionally substituted arylalkyl or hetarylalkyl, Y represents a radical from the series hydrogen, cyano, optionally substituted alkyl, alkenyl or alkynyl, cycloalkyl optionally interrupted by heteroatoms and optionally substituted and cycloalkylalkyl, arylalkyl or hetarylalkyl optionally interrupted by heteroatoms and optionally substituted, A represents a radical from the series hydrogen, optionally substituted alkyl, alkenyl or alkynyl and cycloalkyl or cycloalkylalkyl optionally interrupted by heteroatoms and optionally substituted, T represents oxygen or an electron pair,
A cold rolled annealed steel sheet having a chemical composition comprising, in weight %: 0.30% ≤ C ≤ 0.50% 1.00% ≤ Mn ≤ 2.50% 1.00% ≤ Si ≤ 2.00% Al ≤ 2.00%, Cr ≤ 0.100%, 0.100% ≤ Mo ≤ 0.500%, 0.020% ≤ Nb ≤ 0.200% B ≤ 0.0005%, P ≤ 0.02%, S ≤ 0.005%, N ≤ 0.01%, the remainder being Fe and unavoidable impurities, with the percentages in carbon, manganese, chromium, molybdenum and boron are such that the alloy satisfies the following condition: 250 % C + 120 % Mn − 200 % Cr + 200 % Mo − 10000 % B ≥ 320 , and wherein the microstructure comprises in surface fraction, 35% to 45 % of islands of martensite and retained austenite (M-A), the total retained austenite is higher than or equal to 24%, the remainder consisting of bainitic ferrite. 0.30% ≤ C ≤ 0.50% 1.00% ≤ Mn ≤ 2.50% 1.00% ≤ Si ≤ 2.00% Al ≤ 2.00%, Cr ≤ 0.100%, 0.100% ≤ Mo ≤ 0.500%, 0.020% ≤ Nb ≤ 0.200% B ≤ 0.0005%, P ≤ 0.02%, S ≤ 0.005%, N ≤ 0.01%,