mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method for a hot gas path component for a gas turbine system comprising: forming one or more grooves in a component comprising a substrate , wherein the substrate has at least one hollow interior space , wherein each groove extends at least partially along the substrate and has a base and a top ; and forming at least one access hole through the base of a respective groove , to connect the groove in fluid communication with the respective hollow interior space , wherein each access hole has an exit diameter D that exceeds an opening width d of the top of the respective groove , wherein the diameter D is an effective diameter based on the area enclosed; characterized in that the step of forming the groove comprises using a multi-axis motion controller to control application of a plurality of passes of an abrasive liquid jet to remove material from the component in each of the passes; that the step of forming the at least one access hole comprises using the multi-axis motion controller to change the speed of the abrasive liquid jet at a selected point in the groove and to control application of the plurality of passes of the abrasive liquid jet to remove material from the component in each of the passes; and that the groove and the access hole(s) are machined as a single continuous process, such that the groove and the access hole(s) form a continuous cooling passage . forming one or more grooves in a component comprising a substrate , wherein the substrate has at least one hollow interior space , wherein each groove extends at least partially along the substrate and has a base and a top ; and forming at least one access hole through the base of a respective groove , to connect the groove in fluid communication with the respective hollow interior space , wherein each access hole has an exit diameter D that exceeds an opening width d of the top of the respective groove , wherein the diameter D is an effective diameter based on the area enclosed; characterized in that the step of forming the groove comprises using a multi-axis motion controller to control application of a plurality of passes of an abrasive liquid jet to remove material from the component in each of the passes; that the step of forming the at least one access hole comprises using the multi-axis motion controller to change the speed of the abrasive liquid jet at a selected point in the groove and to control application of the plurality of passes of the abrasive liquid jet to remove material from the component in each of the passes; and that the groove and the access hole(s) are machined as a single continuous process, such that the groove and the access hole(s) form a continuous cooling passage .
A turbocharger assembly comprising: a center housing ; a turbine housing ; and an insert disposed between the center housing and the turbine housing wherein a surface of the turbine housing and a first surface of the insert define a volute , wherein a surface (587-1, 587-2) of the center housing and a second surface of the insert define a chamber , wherein the turbine housing comprises a recessed annular surface that seats the insert , characterized in that the recessed annular surface comprises a radius (r c ) that exceeds a maximum radius of the volute , and wherein the recessed annular surface comprises an insert mating surface that extends radially inwardly to form an end of the volute at a minimal radius (n) that is a tongue portion of the volute . a center housing ; a turbine housing ; and an insert disposed between the center housing and the turbine housing wherein a surface of the turbine housing and a first surface of the insert define a volute , wherein a surface (587-1, 587-2) of the center housing and a second surface of the insert define a chamber , wherein the turbine housing comprises a recessed annular surface that seats the insert , characterized in that the recessed annular surface comprises a radius (r c ) that exceeds a maximum radius of the volute , and wherein the recessed annular surface comprises an insert mating surface that extends radially inwardly to form an end of the volute at a minimal radius (n) that is a tongue portion of the volute .
A modular mold assembly (10; 210) comprising: a base (14; 214) having a mold surface that partially defines a mold cavity for thermoforming a polymeric bladder with a fluid-filled chamber; wherein the base (14; 214) includes a side wall defining a first opening that opens into the mold cavity ; and a first removable mold tool that has an inner wall with a mold surface having a topography different than a topography of the mold surface of the base (14; 214); wherein the first removable mold tool fits in the first opening in the side wall of the base (14; 214) with less than a predetermined clearance and with the mold surface of the first removable mold tool adjacent to the mold surface of the base (14; 214) and further defining the mold cavity ; wherein the first removable mold tool includes an outer wall opposite the inner wall , a front wall , a rear wall opposite the front wall , a top wall , and a bottom wall opposite the top wall ; wherein each of the front wall , the rear wall , the top wall , and the bottom wall extends from the outer wall to the mold surface ; and wherein the rear wall is wider than the front wall and the bottom wall is wider than the top wall , wherein the first removable mold tool defines channels extending through the first removable mold tool to the mold surface of the first removable mold tool . a base (14; 214) having a mold surface that partially defines a mold cavity for thermoforming a polymeric bladder with a fluid-filled chamber; wherein the base (14; 214) includes a side wall defining a first opening that opens into the mold cavity ; and a first removable mold tool that has an inner wall with a mold surface having a topography different than a topography of the mold surface of the base (14; 214); wherein the first removable mold tool fits in the first opening in the side wall of the base (14; 214) with less than a predetermined clearance and with the mold surface of the first removable mold tool adjacent to the mold surface of the base (14; 214) and further defining the mold cavity ; wherein the first removable mold tool includes an outer wall opposite the inner wall , a front wall , a rear wall opposite the front wall , a top wall , and a bottom wall opposite the top wall ; wherein each of the front wall , the rear wall , the top wall , and the bottom wall extends from the outer wall to the mold surface ; and wherein the rear wall is wider than the front wall and the bottom wall is wider than the top wall , wherein the first removable mold tool defines channels extending through the first removable mold tool to the mold surface of the first removable mold tool .
A method of cleaning an elastomeric component with plasma, the method comprising: determining a position of an elastomeric component; positioning a plasma torch within a 20 - 40 millimeter offset height range from a surface of the elastomeric component; applying plasma from the plasma torch to a surface of the elastomeric component; as a result of the plasma application, forming carbonyl functional groups in an altered region extending from the surface into the elastomeric component, the carbonyl functional groups resulting in a carbon atomic percentage concentration of 2% - 15% of a composition of the altered region; and subsequent to forming the carbonyl functional groups, applying an adhesive to the surface.
A composition comprising genetically engineered anaerobic bacteria that produce ( R )-3-hydroxybutyrate (( R )-3-HB), and an orally ingestible carrier, for delivering ( R )-3-HB to the lumen of the GI tract, wherein the bacteria are found in the gut and naturally produce butyrate and have native genes encoding phosphotransbutyrylase and butyrate kinase, and wherein the bacteria comprise a non-native gene capable of expressing ( R )-3-hydroxybutyryl-CoA dehydrogenase.
A computer-implemented method comprising: applying, using a controller, a segment mask to an image of a die of a wafer thereby forming a segment on the die ; calculating, using the controller, a mean intensity of the segment in red, green, and blue colors using a bright field mode and in red, green, and blue colors using a dark field mode ; comparing, using the controller, defocus value against the mean intensities ; determining, using the controller, a color combination that optimizes defocus sensitivity ; determining, using the controller, sensitivity to defocus for each pixel in the segment ; applying, using the controller, a threshold to the sensitivity for each pixel ; generating, using the controller, a second segment mask on the die based on pixels that are above the threshold to the sensitivity ; and adjusting the threshold using the controller. applying, using a controller, a segment mask to an image of a die of a wafer thereby forming a segment on the die ; calculating, using the controller, a mean intensity of the segment in red, green, and blue colors using a bright field mode and in red, green, and blue colors using a dark field mode ; comparing, using the controller, defocus value against the mean intensities ; determining, using the controller, a color combination that optimizes defocus sensitivity ; determining, using the controller, sensitivity to defocus for each pixel in the segment ; applying, using the controller, a threshold to the sensitivity for each pixel ; generating, using the controller, a second segment mask on the die based on pixels that are above the threshold to the sensitivity ; and adjusting the threshold using the controller.
An information transmission method, comprising: receiving (S210), by a terminal device, first resource indication information, wherein the first resource indication information is used to indicate a first time domain resource, the first time domain resource at least partially overlaps a second time domain resource, and the second time domain resource is used to carry a first uplink signal, and the first resource indication information indicates that at least a part of the second time domain resource is occupied by a second uplink signal, wherein the first uplink signal is periodic channel state information, CSI, or a periodic random access signal; detecting (S220), by the terminal device, first indication information, wherein the first indication information is used to indicate a transmission attribute of the first time domain resource, and the first indication information comprises slot format information; and in response to the slot format information being detected successfully and the slot format information indicating that the transmission direction of the first time domain resource is an uplink transmission direction, sending, by the terminal device, the first uplink signal; or in response to failing to detect the slot format information, sending, by the terminal device, the first uplink signal. receiving (S210), by a terminal device, first resource indication information, wherein the first resource indication information is used to indicate a first time domain resource, the first time domain resource at least partially overlaps a second time domain resource, and the second time domain resource is used to carry a first uplink signal, and the first resource indication information indicates that at least a part of the second time domain resource is occupied by a second uplink signal, wherein the first uplink signal is periodic channel state information, CSI, or a periodic random access signal; detecting (S220), by the terminal device, first indication information, wherein the first indication information is used to indicate a transmission attribute of the first time domain resource, and the first indication information comprises slot format information; and in response to the slot format information being detected successfully and the slot format information indicating that the transmission direction of the first time domain resource is an uplink transmission direction, sending, by the terminal device, the first uplink signal; or in response to failing to detect the slot format information, sending, by the terminal device, the first uplink signal.
A connector configured to bring an object , particularly two cables , into electrical conduction, the connector comprising: a first housing and a second housing fittable to each other; and a filler with which at least one of said first and second housings is loaded, wherein said second housing includes an accommodating portion configured to accommodate an end of said object , said filler is configured to cover the end of said object in said accommodating portion , said accommodating portion is a recess that is recessed in a direction different from an extending direction of said object , said second housing is configured to hold said object in a state in which said object extends from said accommodating portion and bends, characterized in that said second housing has object support arm portions (32a and 32b) protruding in the extending direction of said object from front and back sides of an outer peripheral wall of said second housing , and said outer peripheral wall is protruding upward from outer peripheral edges located at a bottom of said second housing , enclosing an inside of said second housing . a first housing and a second housing fittable to each other; and a filler with which at least one of said first and second housings is loaded, wherein said second housing includes an accommodating portion configured to accommodate an end of said object , said filler is configured to cover the end of said object in said accommodating portion , said accommodating portion is a recess that is recessed in a direction different from an extending direction of said object , said second housing is configured to hold said object in a state in which said object extends from said accommodating portion and bends, characterized in that said second housing has object support arm portions (32a and 32b) protruding in the extending direction of said object from front and back sides of an outer peripheral wall of said second housing , and said outer peripheral wall is protruding upward from outer peripheral edges located at a bottom of said second housing , enclosing an inside of said second housing .
An apparatus for negative pressure wound therapy comprising: a source of reduced pressure; a first chamber in fluid communication with the source of reduced pressure such that the source of reduced pressure is operable to generate a negative pressure in the first chamber; a pressure release means that prevents the negative pressure in the first chamber from exceeding a predetermined negative pressure value; a second chamber comprising means for establishing fluid communication between the second chamber and a wound; a valve located between the first chamber and the second chamber, the valve permitting the negative pressure in the second chamber to increase in response to an increase in the negative pressure in the first chamber, and preventing the negative pressure in the second chamber from dropping in response to a drop in the negative pressure in the first chamber. a source of reduced pressure; a first chamber in fluid communication with the source of reduced pressure such that the source of reduced pressure is operable to generate a negative pressure in the first chamber; a pressure release means that prevents the negative pressure in the first chamber from exceeding a predetermined negative pressure value; a second chamber comprising means for establishing fluid communication between the second chamber and a wound; a valve located between the first chamber and the second chamber, the valve permitting the negative pressure in the second chamber to increase in response to an increase in the negative pressure in the first chamber, and preventing the negative pressure in the second chamber from dropping in response to a drop in the negative pressure in the first chamber.
Fastening device , of the quarter-turn type, for fastening a part to a support , the fastening device comprising: - a head carrying the part , the head being intended to rest on a first face of the support ; - a supporting foot connected to the head and extending along a main axis (A), the supporting foot being designed to axially penetrate an opening in the support , the opening having a peripheral edge, so as to arrange the fastening device in an insertion position having a first angular orientation, the supporting foot comprising at least one flexible retaining tab for resting on a second face of the support when the fastening device is angularly displaced from the insertion position to a locking position having a second angular orientation; the fastening device being characterized in that the flexible tab carries a lug for bridging the gap that may exist between the supporting foot and the edge of the opening and thus recentering the fastening device in the opening when it is angularly displaced from the insertion position to the locking position. - a head carrying the part , the head being intended to rest on a first face of the support ; - a supporting foot connected to the head and extending along a main axis (A), the supporting foot being designed to axially penetrate an opening in the support , the opening having a peripheral edge, so as to arrange the fastening device in an insertion position having a first angular orientation, the supporting foot comprising at least one flexible retaining tab for resting on a second face of the support when the fastening device is angularly displaced from the insertion position to a locking position having a second angular orientation;
A method of friction stir welding for joining two metal members together using a rotary tool including a connection portion (F1) and a stirring pin (F2), comprising: a primary joining step for inserting the stirring pin (F2) in a rotating state into the butting portion (J1) of the metal members and carrying out friction stir welding with only the stirring pin (F2) contacting with the metal members to generate frictional heat; wherein the stirring pin (F2) hangs down from the connection portion (F1), and is coaxial with the connection portion (F1) and tapers off away from the connection portion (F1); and wherein a spiral groove (F3) is engraved on an outer circumferential surface of the stirring pin (F2). a primary joining step for inserting the stirring pin (F2) in a rotating state into the butting portion (J1) of the metal members and carrying out friction stir welding with only the stirring pin (F2) contacting with the metal members to generate frictional heat; wherein the stirring pin (F2) hangs down from the connection portion (F1), and is coaxial with the connection portion (F1) and tapers off away from the connection portion (F1); and wherein a spiral groove (F3) is engraved on an outer circumferential surface of the stirring pin (F2).
An electronic device , comprising: at least one communication circuit supporting wireless local area network, WLAN, communication and cellular communication; and a processor functionally connected to the at least one communication circuit and configured to: establish a cellular communication connection between the electronic device and a network; establish a WLAN communication connection between the electronic device and an external device via a WLAN relay function of the electronic device wherein the WLAN relay function supports accessibility of the external device to the network via the electronic device; check for policy information related to the WLAN relay function; determine a bandwidth allocation of the electronic device and the external device based on at least part of the policy information; and block, if a number of the at least one external device connected via the WLAN relay function is equal to or greater than a designated value, WLAN relay connections of additional external devices based on the at least part of the policy information. at least one communication circuit supporting wireless local area network, WLAN, communication and cellular communication; and a processor functionally connected to the at least one communication circuit and configured to: establish a cellular communication connection between the electronic device and a network; establish a WLAN communication connection between the electronic device and an external device via a WLAN relay function of the electronic device wherein the WLAN relay function supports accessibility of the external device to the network via the electronic device; check for policy information related to the WLAN relay function; determine a bandwidth allocation of the electronic device and the external device based on at least part of the policy information; and block, if a number of the at least one external device connected via the WLAN relay function is equal to or greater than a designated value, WLAN relay connections of additional external devices based on the at least part of the policy information. establish a cellular communication connection between the electronic device and a network; establish a WLAN communication connection between the electronic device and an external device via a WLAN relay function of the electronic device wherein the WLAN relay function supports accessibility of the external device to the network via the electronic device; check for policy information related to the WLAN relay function; determine a bandwidth allocation of the electronic device and the external device based on at least part of the policy information; and block, if a number of the at least one external device connected via the WLAN relay function is equal to or greater than a designated value, WLAN relay connections of additional external devices based on the at least part of the policy information.