mhurhangee/patent-ind-claim-en huggingface dataset:
A noise damper for compressed-air systems, in particular for brake systems of utility vehicles, comprising a housing having an inlet channel for a compressed-air flow and a chamber to accommodate noise-damping material , the inlet channel and the chamber being separated perpendicular to the compressed-air flow by a separating plate that is closed in a central region and has a plurality of openings in an outer peripheral region of the compressed-air flow in order to introduce the compressed air directly into the chamber , characterised in that the cross section of the plurality of openings in the separating plate broadens out along the compressed-air flow into the chamber ; and the housing has a shoulder region at the level of the chamber such that the cross-sectional surface of the chamber along the compressed-air flow is larger than that of inlet channel .
Installation box for electrical or electronic devices , comprising a. a box housing comprising b. a box wall with a box base connected to it, wherein c. the box wall and the box base surround a first installation space , which is accessible via an installation opening , for at least partially receiving an electrical or electronic device , characterized in that d. a first bulge and a second bulge are arranged on the box wall , which bulges are part of the first installation space e. and can each be moved between a first inner position and a second outer position, in which the first and/or the second bulge project/projects laterally outward with respect to the first inner position, f. the first and the second bulge are arranged diametrically opposite each other with respect to the first installation space , g. the first and/or the second bulge comprise/comprises a deformation region which is designed such that it can deform outward with the application of radial force, and in that h. the deformation region comprises a set of folding bellows . a. a box housing comprising b. a box wall with a box base connected to it, wherein c. the box wall and the box base surround a first installation space , which is accessible via an installation opening , for at least partially receiving an electrical or electronic device , characterized in that d. a first bulge and a second bulge are arranged on the box wall , which bulges are part of the first installation space e. and can each be moved between a first inner position and a second outer position, in which the first and/or the second bulge project/projects laterally outward with respect to the first inner position, f. the first and the second bulge are arranged diametrically opposite each other with respect to the first installation space , g. the first and/or the second bulge comprise/comprises a deformation region which is designed such that it can deform outward with the application of radial force, and in that h. the deformation region comprises a set of folding bellows .
Method for function monitoring of an automated conveyor system having at least one conveyor path for maintaining the conveyor system, wherein conveyor devices which the conveyor path comprises are provided with sensors and actuators which are used for controlling and/or regulating the movement of the conveyor devices, wherein the sensors and actuators of the conveyor devices are coordinated by means of a plurality of control devices, wherein the control devices comprise decentralised control modules , wherein for function monitoring of the conveyor system conveyor device states are determined, wherein sensor and/or actuator data of the conveyor devices are detected by the decentralised control modules and wherein system parameter data derived from the sensor and/or actuator data are provided by the decentralised control modules , and wherein the system parameter data in order to determine and/or evaluate the conveyor device states are transmitted to a central evaluation unit, wherein there is used in order to transmit the system parameter data to the central evaluation unit a communication network which is constructed parallel with a network structure which is required for the operation of the conveyor system. wherein conveyor devices which the conveyor path comprises are provided with sensors and actuators which are used for controlling and/or regulating the movement of the conveyor devices, wherein the sensors and actuators of the conveyor devices are coordinated by means of a plurality of control devices, wherein the control devices comprise decentralised control modules , wherein for function monitoring of the conveyor system conveyor device states are determined, wherein sensor and/or actuator data of the conveyor devices are detected by the decentralised control modules and wherein system parameter data derived from the sensor and/or actuator data are provided by the decentralised control modules , and wherein the system parameter data in order to determine and/or evaluate the conveyor device states are transmitted to a central evaluation unit, wherein there is used in order to transmit the system parameter data to the central evaluation unit a communication network which is constructed parallel with a network structure which is required for the operation of the conveyor system.
An inlet guide vane assembly for a centrifugal compressor , the assembly comprising: a plurality of guide vanes ; a drive structure coupled to the plurality of guide vanes , wherein rotation of the drive structure transitions the plurality of guide vanes from a first position to a second position; an actuator; an actuation mechanism configured to transition the plurality of guide vanes between the first and second positions based on operation of the actuator, wherein the actuation mechanism imparts a first amount of rotational force to drive the drive structure when the guide vanes are in the first position and a second amount of rotational force when the guide vanes are in the second position, and wherein the actuation mechanism provides a mechanical advantage to the actuator when the guide vanes are in the first positions as compared to when the guide vanes are in the second position, and wherein, the mechanical advantage is greatest when the guide vanes are in a substantially closed position. a plurality of guide vanes ; a drive structure coupled to the plurality of guide vanes , wherein rotation of the drive structure transitions the plurality of guide vanes from a first position to a second position; an actuator; an actuation mechanism configured to transition the plurality of guide vanes between the first and second positions based on operation of the actuator, wherein the actuation mechanism imparts a first amount of rotational force to drive the drive structure when the guide vanes are in the first position and a second amount of rotational force when the guide vanes are in the second position, and wherein the actuation mechanism provides a mechanical advantage to the actuator when the guide vanes are in the first positions as compared to when the guide vanes are in the second position, and wherein, the mechanical advantage is greatest when the guide vanes are in a substantially closed position.
A stable aqueous hydroxycarbamide solution for use in the treatment of sickle cell disease, the solution comprising: hydroxycarbamide; and a pH adjuster being one of sodium hydroxide, potassium hydroxide, sodium bicarbonate, and sodium carbonate, or a mixture of one or more of these substances; wherein: the solution is controlled to have a pH from 6.5 to 6.7. hydroxycarbamide; and a pH adjuster being one of sodium hydroxide, potassium hydroxide, sodium bicarbonate, and sodium carbonate, or a mixture of one or more of these substances;
A method of making a compound of Formula I or a pharmaceutically acceptable salt thereof, comprising reacting a compound of or a pharmaceutically acceptable salt thereof, with a formylation reagent.
A method of controlling a weld penetration profile on a workpiece having an outer region and an inner region comprising the steps of: applying energy to the outer region of the workpiece with a welder to produce a weld pool; penetrating the workpiece such that the weld pool spans between the outer region and the inner region; applying a shielding gas to the inner region at a pressure that provides a force that limits weld penetration; placing seals oriented proximate the open conduit ends to form a predominantly sealed inner region that prevents shielding gas from escaping through the conduit ends, wherein gas may only escape a pre-welded abutment of the workpiece ; and being characterised by the following steps: measuring with a pressure gauge the pressure of the shielding gas within the inner region; comparing a measured pressure with a predetermined range of acceptable pressures; and adjusting with a valve the pressure of shielding gas within the inner region to be within the range of acceptable pressures if the pressure measured falls outside the range of acceptable pressures to maintain an approximately constant pressure of shielding gas within the inner region. applying energy to the outer region of the workpiece with a welder to produce a weld pool; penetrating the workpiece such that the weld pool spans between the outer region and the inner region; applying a shielding gas to the inner region at a pressure that provides a force that limits weld penetration; placing seals oriented proximate the open conduit ends to form a predominantly sealed inner region that prevents shielding gas from escaping through the conduit ends, wherein gas may only escape a pre-welded abutment of the workpiece ; and being characterised by the following steps: measuring with a pressure gauge the pressure of the shielding gas within the inner region; comparing a measured pressure with a predetermined range of acceptable pressures; and adjusting with a valve the pressure of shielding gas within the inner region to be within the range of acceptable pressures if the pressure measured falls outside the range of acceptable pressures to maintain an approximately constant pressure of shielding gas within the inner region. measuring with a pressure gauge the pressure of the shielding gas within the inner region; comparing a measured pressure with a predetermined range of acceptable pressures; and adjusting with a valve the pressure of shielding gas within the inner region to be within the range of acceptable pressures if the pressure measured falls outside the range of acceptable pressures to maintain an approximately constant pressure of shielding gas within the inner region.
An arrangement including a gas turbine and maintenance apparatus for the turbine, the turbine having a shaft, a bearing for the shaft, a bearing housing and a turbine bellmouth adjacent the bearing housing, the apparatus , for performing in-situ maintenance on a bearing area of the turbine , the arrangement being characterised by : a set of rails sized to couple with the gas turbine and rest coaxially with a bearing in the bearing area adjacent the gas turbine , the set of rails for supporting a portion of a housing of the bearing ; a first platform spanning between the set of rails ; a lifting device coupled to the first platform for engaging an inlet bellmouth of the gas turbine , and a second platform suspended from the set of rails sized to accommodate an operator. a set of rails sized to couple with the gas turbine and rest coaxially with a bearing in the bearing area adjacent the gas turbine , the set of rails for supporting a portion of a housing of the bearing ; a first platform spanning between the set of rails ; a lifting device coupled to the first platform for engaging an inlet bellmouth of the gas turbine , and a second platform suspended from the set of rails sized to accommodate an operator.
A method for smoothing an overall load curve comprising an aggregation of a plurality of elementary load curves obtained by a system for managing and/or monitoring load consumption, each elementary load curve corresponding to a temporal variation of the consumption of a load i with periodic regulation, said method including the following steps: - determining a regulation period d i associated with the corresponding load i ; - determining and storing each elementary load curve by obtaining a plurality of consumption measurement samples with a sampling period T ech which is a sub-multiple of each regulation period d i ; - from a reference instant t 0 which is common to all of the loads, time-shifting either the operation of each load i , or at least part of each stored elementary load curve, by a random shift Δt i which depends on the sampling period T ech , on the regulation period d i determined for the load i and on a random integer value N i associated with the load i. - determining a regulation period d i associated with the corresponding load i ; - determining and storing each elementary load curve by obtaining a plurality of consumption measurement samples with a sampling period T ech which is a sub-multiple of each regulation period d i ; - from a reference instant t 0 which is common to all of the loads, time-shifting either the operation of each load i , or at least part of each stored elementary load curve, by a random shift Δt i which depends on the sampling period T ech , on the regulation period d i determined for the load i and on a random integer value N i associated with the load i.
A compound represented by the formula (I): wherein W is a hydrogen atom or a fluorine atom; Ring A is a group selected from the group consisting of the following (a) to (d): wherein bond with * is a bonding site to the U 2 ; k represents an integer number 1 to 5; r is 1 or 2; m and n are independently 1, 2 or 3; X 1 is N; R is a methyl, hydroxy or a halogen atom; Y is 0, 1 or 2; when Y is 2, two R are optionally different from each other; U 1 , U 2 and U 3 are each independently a single bond, carbonyl or a methylene which may have any group selected from substituent group α; when ring A is a group represented by the above (a), either one of U 1 or U 2 is carbonyl; substituent group α is a group consisting of a halogen atom, hydroxy, a C 1-6 alkyl and a C 1-6 alkoxy; or a pharmaceutically acceptable salt thereof. W is a hydrogen atom or a fluorine atom; Ring A is a group selected from the group consisting of the following (a) to (d): wherein bond with * is a bonding site to the U 2 ; k represents an integer number 1 to 5; r is 1 or 2; m and n are independently 1, 2 or 3; X 1 is N; R is a methyl, hydroxy or a halogen atom; Y is 0, 1 or 2; when Y is 2, two R are optionally different from each other; U 1 , U 2 and U 3 are each independently a single bond, carbonyl or a methylene which may have any group selected from substituent group α; when ring A is a group represented by the above (a), either one of U 1 or U 2 is carbonyl; substituent group α is a group consisting of a halogen atom, hydroxy, a C 1-6 alkyl and a C 1-6 alkoxy; or a pharmaceutically acceptable salt thereof. bond with * is a bonding site to the U 2 ; k represents an integer number 1 to 5; r is 1 or 2; m and n are independently 1, 2 or 3; X 1 is N; R is a methyl, hydroxy or a halogen atom; Y is 0, 1 or 2; when Y is 2, two R are optionally different from each other; U 1 , U 2 and U 3 are each independently a single bond, carbonyl or a methylene which may have any group selected from substituent group α; when ring A is a group represented by the above (a), either one of U 1 or U 2 is carbonyl; substituent group α is a group consisting of a halogen atom, hydroxy, a C 1-6 alkyl and a C 1-6 alkoxy; or a pharmaceutically acceptable salt thereof.
Method of decorating natural leather with an inkjet printer which comprises a first vacuum belt for conveying an unwoven fabric which is configured as a second vacuum belt; and wherein the method comprises: - applying from an adhesive tape-roll an adhesive tape as a continuous sheet against the unwoven fabric wherein said adhesive tape has an adhesive side and opposite side and the opposite side is in contact with the unwoven fabric; - applying a natural leather on the adhesive side of the adhesive tape ; - conveying the applied natural leather by moving the first vacuum belt whereby the unwoven fabric is moving by suction power through the first vacuum belt and the applied adhesive tape is moving by said suction power through said unwoven fabric under an inkjet print head ; - marking the applied natural leather with jetted droplets of the inkjet print head for decorating said natural leather while the adhesive tape is attached to the unwoven fabric . - applying from an adhesive tape-roll an adhesive tape as a continuous sheet against the unwoven fabric wherein said adhesive tape has an adhesive side and opposite side and the opposite side is in contact with the unwoven fabric; - applying a natural leather on the adhesive side of the adhesive tape ; - conveying the applied natural leather by moving the first vacuum belt whereby the unwoven fabric is moving by suction power through the first vacuum belt and the applied adhesive tape is moving by said suction power through said unwoven fabric under an inkjet print head ; - marking the applied natural leather with jetted droplets of the inkjet print head for decorating said natural leather while the adhesive tape is attached to the unwoven fabric .
A method performed by an access and mobility management function, AMF, entity in a communication system, the method comprising: receiving , from a first session management function, SMF, a first message including information indicating that a transfer of a session management, SM, context to a second SMF is requested; transmitting , to the second SMF, a second message for requesting the second SMF to receive the SM context from the first SMF; starting a timer upon transmitting the second message; and receiving, from the second SMF, a third message as a response to the second message before expiring the timer, wherein the method further comprises: receiving, from another AMF, a user equipment, UE, context transfer request due to terminal mobility, before receiving the third message; and delaying a processing of the UE context transfer request until receiving the third message. receiving , from a first session management function, SMF, a first message including information indicating that a transfer of a session management, SM, context to a second SMF is requested; transmitting , to the second SMF, a second message for requesting the second SMF to receive the SM context from the first SMF; starting a timer upon transmitting the second message; and receiving, from the second SMF, a third message as a response to the second message before expiring the timer, wherein the method further comprises: receiving, from another AMF, a user equipment, UE, context transfer request due to terminal mobility, before receiving the third message; and delaying a processing of the UE context transfer request until receiving the third message. receiving, from another AMF, a user equipment, UE, context transfer request due to terminal mobility, before receiving the third message; and delaying a processing of the UE context transfer request until receiving the third message.
A delivery catheter for delivering an implant to a location of the body comprising: a member comprising a hook ; a rotational driver comprising a hook that is configured to connect with the hook of the member , wherein the rotational driver is configured to be connected to the member , wherein a rotational force can be transferred from the rotational driver to the member , wherein the rotational driver and the member are configured to be disengaged; a tubular cover , wherein in the connected position, the hook of the rotational driver is clasped to the hook of the member and the hooks are configured to be positioned inside the tubular cover ; characterized in that the rotational driver comprises a stopper , which is configured to be positioned in a ridge in tubular cover . a member comprising a hook ; a rotational driver comprising a hook that is configured to connect with the hook of the member , wherein the rotational driver is configured to be connected to the member , wherein a rotational force can be transferred from the rotational driver to the member , wherein the rotational driver and the member are configured to be disengaged; a tubular cover , wherein in the connected position, the hook of the rotational driver is clasped to the hook of the member and the hooks are configured to be positioned inside the tubular cover ; characterized in that the rotational driver comprises a stopper , which is configured to be positioned in a ridge in tubular cover .
A module (6; 1006; 2006; 3006; 4006) for detecting an electrical fault for an electrical protection assembly (2; 1002; 2002; 3002; 4002), this detection module comprising: - a housing (8; 1008; 2008; 3008; 4008); - a first line conductor and a second line conductor , suitable for being connected to power supply lines; - a first measurement toroid , positioned around the first line conductor and around the second line conductor , for measuring a differential current flowing between the first and second line conductors ; - a second measurement toroid , positioned around the first line conductor , for detecting an electric arc signal flowing in this conductor; - an electromechanical tripping relay ; - an electronic processing circuit connected to the first and second measurement toroids and configured to switch the relay as a function of the current measured by the measurement toroids; this detection module being characterized in that the first and second measurement toroids are aligned with one another so that their respective longitudinal axes (X34, X36) are parallel and offset by a distance of less than 10 mm, in that the first measurement toroid assumes the shape of an elongated tube and allows the differential protection to operate with its own current while being suitable, in the case of a differential fault between the first and second line conductors , for generating a fault detection signal from induced currents generated by the electrical currents circulating in the conductors to trigger switching of the relay . - a housing (8; 1008; 2008; 3008; 4008); - a first line conductor and a second line conductor , suitable for being connected to power supply lines; - a first measurement toroid , positioned around the first line conductor and around the second line conductor , for measuring a differential current flowing between the first and second line conductors ; - a second measurement toroid , positioned around the first line conductor , for detecting an electric arc signal flowing in this conductor; - an electromechanical tripping relay ; - an electronic processing circuit connected to the first and second measurement toroids and configured to switch the relay as a function of the current measured by the measurement toroids;