mhurhangee/patent-ind-claim-en huggingface dataset:
A welding-type power supply , comprising: power conversion circuitry configured to convert input power to welding-type power; a voltage monitor configured to measure a power supply output voltage of the power conversion circuitry; characterized by communication circuitry configured to transmit a first communication to a welding device coupled to a weld circuit, wherein the first communication comprises a command to the welding device to close a switch to complete a measurement circuit, wherein the measurement circuit comprises a first portion of the weld circuit; and control circuitry configured to control the power conversion circuitry to: output a first signal at a controlled voltage to the measurement circuit; and after the first communication, limit a current of the first signal to a first threshold level; wherein the communication circuitry is configured to receive, from the welding device, a second communication indicating a welding device voltage measured in response to the first signal; and wherein the control circuitry is configured to determine a resistance of a second portion of the weld circuit based on the power supply output voltage, the welding device voltage, and the current of the first signal. power conversion circuitry configured to convert input power to welding-type power; a voltage monitor configured to measure a power supply output voltage of the power conversion circuitry; characterized by communication circuitry configured to transmit a first communication to a welding device coupled to a weld circuit, wherein the first communication comprises a command to the welding device to close a switch to complete a measurement circuit, wherein the measurement circuit comprises a first portion of the weld circuit; and control circuitry configured to control the power conversion circuitry to: output a first signal at a controlled voltage to the measurement circuit; and after the first communication, limit a current of the first signal to a first threshold level; output a first signal at a controlled voltage to the measurement circuit; and after the first communication, limit a current of the first signal to a first threshold level; wherein the communication circuitry is configured to receive, from the welding device, a second communication indicating a welding device voltage measured in response to the first signal; and wherein the control circuitry is configured to determine a resistance of a second portion of the weld circuit based on the power supply output voltage, the welding device voltage, and the current of the first signal.
A compound having a formula (III), or a pharmaceutically acceptable salt, or a solvate thereof, comprising a single stereoisomer or racemic mixture thereof: wherein: R represents hydrogen (H) or deuterium (D); and R 1 and R 2 independently, at each occurrence, represent F, Cl, I, cyano group CN, or N 3 . R represents hydrogen (H) or deuterium (D); and R 1 and R 2 independently, at each occurrence, represent F, Cl, I, cyano group CN, or N 3 .
Wall heater comprising a wall component that has at least one vertically oriented base plate and at least one planar cover arranged on an inner surface of the base plate facing a building interior (G), the inner surface of the base plate having a profiled region which has at least one groove , the cover ending at a distance (s a ) from the lower edge of the base plate to form a lower exposed inflow region (a) of the base plate , the cover ending at a distance (s b ) from the upper edge of the base plate to form an upper exposed outflow region (b) of the base plate , and the groove forming, together with the cover , a flow channel connecting the lower exposed inflow region (a) and the upper exposed outflow region (b), characterized in that the wall heater has an air source, a floor covering and a substrate arranged below the floor covering, and in that a gap is formed between the floor covering (B) and the substrate (U), into which gap air can be introduced from the air source, and it being possible for the air to be introduced through the lower exposed inflow region (a) of the wall component into the at least one flow channel, to be able to flow along the at least one flow channel and to be able to flow out at the upper exposed outflow region (b) of the base plate and to be able to be introduced into the building interior (G).
An apparatus comprising: a sensor device to mount to a barrier pivotable between an open position and a closed position, the barrier pivotably mounted on a moveable platform , the sensor device comprising a rotation sensor to measure rotation about an axis and an accelerometer to measure acceleration data ; at least one processor configured to: learn a convergence value of the acceleration data for a current orientation of the moveable platform with respect to a horizontal plane, wherein the convergence value is different for different orientations of the moveable platform; determine an open/close status of the barrier based on rotation data from the rotation sensor and convergence of the acceleration data based on the convergence value for the current orientation of the moveable platform . a sensor device to mount to a barrier pivotable between an open position and a closed position, the barrier pivotably mounted on a moveable platform , the sensor device comprising a rotation sensor to measure rotation about an axis and an accelerometer to measure acceleration data ; at least one processor configured to: learn a convergence value of the acceleration data for a current orientation of the moveable platform with respect to a horizontal plane, wherein the convergence value is different for different orientations of the moveable platform; determine an open/close status of the barrier based on rotation data from the rotation sensor and convergence of the acceleration data based on the convergence value for the current orientation of the moveable platform . learn a convergence value of the acceleration data for a current orientation of the moveable platform with respect to a horizontal plane, wherein the convergence value is different for different orientations of the moveable platform; determine an open/close status of the barrier based on rotation data from the rotation sensor and convergence of the acceleration data based on the convergence value for the current orientation of the moveable platform .
Use of a linker, having the formula: HOQ-(C n H 2n )-S(R 1 )(R 2 )-(C m H 2m )-CH 2 -A, - wherein n is an integer from 1 to 3 and m is an integer from 1 to 5; - wherein R 1 and R 2 are independently from each other selected from an electron lone pair, an oxygen moiety, such as = O, a nitrogen moiety, such as =N-R x , wherein R x is a homo- or heterogenous group of atoms; - wherein A is a conjugation moiety which is a polymerisable moiety -PL-R v C=CR u R w , wherein PL is a linking group selected from -O-, -NH-, a substituted -N-, the substituent being a C 1 -C 3 alkyl; -O-C(O)-, and an -O- (C(O)) r -C b H 2b -, wherein r is 0 or 1, and b is an integer from 1 to 6, and R u , R v and R w , independently, represent a hydrogen atom or a C 1 -C 3 alkyl group; as linker in a drug delivery system, wherein: - Q is a direct bond or a C=O group and the linker is coupled through its -OH or -COOH group to a bioactive molecule, or - Q is C=O and the linker is coupled through its COOH group to a lipid, cholesterol or a polymer of the drug delivery system. - wherein n is an integer from 1 to 3 and m is an integer from 1 to 5; - wherein R 1 and R 2 are independently from each other selected from an electron lone pair, an oxygen moiety, such as = O, a nitrogen moiety, such as =N-R x , wherein R x is a homo- or heterogenous group of atoms; - wherein A is a conjugation moiety which is a polymerisable moiety -PL-R v C=CR u R w , wherein PL is a linking group selected from -O-, -NH-, a substituted -N-, the substituent being a C 1 -C 3 alkyl; -O-C(O)-, and an -O- (C(O)) r -C b H 2b -, wherein r is 0 or 1, and b is an integer from 1 to 6, and R u , R v and R w , independently, represent a hydrogen atom or a C 1 -C 3 alkyl group; - Q is a direct bond or a C=O group and the linker is coupled through its -OH or -COOH group to a bioactive molecule, or - Q is C=O and the linker is coupled through its COOH group to a lipid, cholesterol or a polymer of the drug delivery system.
An inter-communications-system handover method, comprising: determining (S101), by user equipment, UE, whether there is, in at least one protocol data unit, PDU, session established in a first communications system, a first PDU session that is capable of being moved from the first communications system to a second communications system, wherein if the UE receives parameters of the second system related to the first PDU session during a process of establishing the first PDU session, the first PDU session is capable of being moved from the first communications system to the second communications system, and wherein the first communications system is a 5G communications system and the second communications system is a 4G communications system, and the parameters of the second communications system related to the first PDU session comprise at least one of: a quality of service, QoS, parameter of the second communications system or an EPS bearer identifier of the second communications system; and when determining that there is the first PDU session, sending (S102), by the UE, a first message to a first core network device of the second communications system, wherein the first message is used to perform tracking area update, TAU, in the second communications system. determining (S101), by user equipment, UE, whether there is, in at least one protocol data unit, PDU, session established in a first communications system, a first PDU session that is capable of being moved from the first communications system to a second communications system, wherein if the UE receives parameters of the second system related to the first PDU session during a process of establishing the first PDU session, the first PDU session is capable of being moved from the first communications system to the second communications system, and wherein the first communications system is a 5G communications system and the second communications system is a 4G communications system, and the parameters of the second communications system related to the first PDU session comprise at least one of: a quality of service, QoS, parameter of the second communications system or an EPS bearer identifier of the second communications system; and when determining that there is the first PDU session, sending (S102), by the UE, a first message to a first core network device of the second communications system, wherein the first message is used to perform tracking area update, TAU, in the second communications system.
A component for a gas turbine engine comprising: a component body ; a first passage disposed in the component body , the first passage comprising a first end and a second end opposite the first end ; a second passage extending from the second end of the first passage , the second passage comprising a turn ; a third passage extending from the second end of the first passage ; and a first projection extending from a passage surface of the component body within the first passage , the first projection disposed between the first end and the second end of the first passage and configured to direct debris transiting the first passage away from the second passage and into the third passage , characterized in that the turn comprises a radius corresponding to an average radius along the extent of the turn and a height (H1) of the first projection from the passage surface is between 10 percent of the radius and 50 percent of a diameter (D2) of the first passage . a component body ; a first passage disposed in the component body , the first passage comprising a first end and a second end opposite the first end ; a second passage extending from the second end of the first passage , the second passage comprising a turn ; a third passage extending from the second end of the first passage ; and a first projection extending from a passage surface of the component body within the first passage , the first projection disposed between the first end and the second end of the first passage and configured to direct debris transiting the first passage away from the second passage and into the third passage , characterized in that the turn comprises a radius corresponding to an average radius along the extent of the turn and a height (H1) of the first projection from the passage surface is between 10 percent of the radius and 50 percent of a diameter (D2) of the first passage .
A method for synthesizing an engine sound comprising: receiving one or more vehicle operational data signals associated with a vehicle; modifying one or more tone parameters associated with a Shepard tone generator responsive to the one or more vehicle operational data signals ; generating a Shepard tone responsive to a signal processor that renders the modified one or more tone parameters ; reproducing the Shepard tone using one or more audio transducers , where the one or more tone parameters are modified such that the volume of the Shepard tone decreases over time when a vehicle velocity is substantially constant, the method being characterized in that it further comprises generating an audio post processing parameter for post processing of the Shepard tones and wherein the signal processor modifies the audio post processing parameter responsive to the one or more vehicle operational data signals . receiving one or more vehicle operational data signals associated with a vehicle; modifying one or more tone parameters associated with a Shepard tone generator responsive to the one or more vehicle operational data signals ; generating a Shepard tone responsive to a signal processor that renders the modified one or more tone parameters ; reproducing the Shepard tone using one or more audio transducers , where the one or more tone parameters are modified such that the volume of the Shepard tone decreases over time when a vehicle velocity is substantially constant, the method being characterized in that it further comprises generating an audio post processing parameter for post processing of the Shepard tones and wherein the signal processor modifies the audio post processing parameter responsive to the one or more vehicle operational data signals . where the one or more tone parameters are modified such that the volume of the Shepard tone decreases over time when a vehicle velocity is substantially constant, the method being characterized in that it further comprises generating an audio post processing parameter for post processing of the Shepard tones and wherein the signal processor modifies the audio post processing parameter responsive to the one or more vehicle operational data signals .
A method of wireless communication comprising: receiving , by a first wireless communication device from a second wireless communication device, a sequence of protocol data units, PDUs; receiving, by the first wireless communication device from the second wireless communication device, an indication to support transmission of a reception status report for a portion of a receiver buffer window other than the entire receiver buffer window; transmitting , by the first wireless communication device to the second wireless communication device, a first reception status report for a first portion of the receiver buffer window used for receiving the sequence of PDUs; and transmitting , by the first wireless communication device to the second wireless communication device, a second reception status report for a second portion of the receiver buffer window, the second portion being different from the first portion. receiving , by a first wireless communication device from a second wireless communication device, a sequence of protocol data units, PDUs; receiving, by the first wireless communication device from the second wireless communication device, an indication to support transmission of a reception status report for a portion of a receiver buffer window other than the entire receiver buffer window; transmitting , by the first wireless communication device to the second wireless communication device, a first reception status report for a first portion of the receiver buffer window used for receiving the sequence of PDUs; and transmitting , by the first wireless communication device to the second wireless communication device, a second reception status report for a second portion of the receiver buffer window, the second portion being different from the first portion.
Arrangement equipped with a counter pendulum device for ringing a bell suspended on a bell axis , the counter pendulum device comprising at least one counter pendulum which can be driven by at least one linear motor (12, 13; 42) comprising a stator and a rotor (10, 11; 40, 43 and 14, 15; 41, 44), characterized in that the at least one counter pendulum is mounted on the bell axis in a freely swinging manner.
An electric grill, comprising: a housing ; a mounting bracket affixed to the housing , the mounting bracket having a front surface , a top surface , a bottom surface , a left side , a right side and a back side opposite the front surface , the front surface defining a slot , the front surface and the back side defining a thermal barrier provided by an air gap between the front surface and the back side , the mounting bracket being formed of an electrically conductive material; a controller to removably couple to the housing via the mounting bracket , the controller having at least one engagement member structured to be received by the slot of the mounting bracket , the thermal barrier positioned between the controller and the housing when the controller is coupled to the mounting bracket , the thermal barrier to protect internal electronics of the controller from heat generated within the housing ; and a power cord connected to the controller , the power cord having a voltage line and a neutral line ; wherein the controller is in electrical communication with the housing , forming an electrical path from the housing through the mounting bracket , to the controller , and to ground when the controller is coupled to the mounting bracket . a housing ; a mounting bracket affixed to the housing , the mounting bracket having a front surface , a top surface , a bottom surface , a left side , a right side and a back side opposite the front surface , the front surface defining a slot , the front surface and the back side defining a thermal barrier provided by an air gap between the front surface and the back side , the mounting bracket being formed of an electrically conductive material; a controller to removably couple to the housing via the mounting bracket , the controller having at least one engagement member structured to be received by the slot of the mounting bracket , the thermal barrier positioned between the controller and the housing when the controller is coupled to the mounting bracket , the thermal barrier to protect internal electronics of the controller from heat generated within the housing ; and a power cord connected to the controller , the power cord having a voltage line and a neutral line ; wherein the controller is in electrical communication with the housing , forming an electrical path from the housing through the mounting bracket , to the controller , and to ground when the controller is coupled to the mounting bracket .
Spacer (I) for insulated glass units, at least comprising - a main body co-extruded from a first plastic and a second plastic , comprising - a first side wall (2.1) and a second side wall (2.2) arranged parallel thereto, - a glazing interior wall , which connects the side walls (2.1, 2.2) to one another; - an outer wall , which is arranged substantially parallel to the glazing interior wall and connects the side walls (2.1, 2.2) to one another directly or via connecting walls (6.1, 6.2); - a cavity , which is enclosed by the side walls (2.1, 2.2), the glazing interior wall , and the outer wall or by the side walls (2.1, 2.2), the glazing interior wall , the outer wall , and the connecting walls (6.1, 6.2), wherein the second plastic has lower thermal conductivity and higher flexibility than the first plastic , and the main body is designed as a hollow profile formed from the second plastic , in which hollow profile the first plastic is arranged, at least zonally, on the inside directly adjacent the hollow profile. - a main body co-extruded from a first plastic and a second plastic , comprising - a first side wall (2.1) and a second side wall (2.2) arranged parallel thereto, - a glazing interior wall , which connects the side walls (2.1, 2.2) to one another; - an outer wall , which is arranged substantially parallel to the glazing interior wall and connects the side walls (2.1, 2.2) to one another directly or via connecting walls (6.1, 6.2); - a cavity , which is enclosed by the side walls (2.1, 2.2), the glazing interior wall , and the outer wall or by the side walls (2.1, 2.2), the glazing interior wall , the outer wall , and the connecting walls (6.1, 6.2), - a first side wall (2.1) and a second side wall (2.2) arranged parallel thereto, - a glazing interior wall , which connects the side walls (2.1, 2.2) to one another; - an outer wall , which is arranged substantially parallel to the glazing interior wall and connects the side walls (2.1, 2.2) to one another directly or via connecting walls (6.1, 6.2); - a cavity , which is enclosed by the side walls (2.1, 2.2), the glazing interior wall , and the outer wall or by the side walls (2.1, 2.2), the glazing interior wall , the outer wall , and the connecting walls (6.1, 6.2),
A combination of drugs including an endostatin and a chemotherapeutic agent for use in inhibiting the activity of a tumor or cancer cell, wherein the tumor or cancer cell is deficient in P53 function, wherein the tumor or cancer cell is a melanoma cell and wherein the chemotherapeutic agent is able to induce DNA double strand break in the cell.
Method for the laser beam welding of an edge fillet weld with a diminished end crater, in which method a laser beam for generating an edge fillet weld portion is guided with an advancing movement in a welding direction (X) along a joint of two partially overlapping components , wherein a weld end portion adjoining the edge fillet weld portion is formed, from which weld end portion molten material flows out into the edge fillet weld portion in that, when an end point of the edge fillet weld portion to be formed is reached, the laser beam is offset onto the top metal sheet transversely to the advancing movement, and the advancing movement of the laser beam is continued in the welding direction over an additional distance, while the power (P) of the laser beam is reduced to at least below the deep-welding threshold. in which method a laser beam for generating an edge fillet weld portion is guided with an advancing movement in a welding direction (X) along a joint of two partially overlapping components , wherein a weld end portion adjoining the edge fillet weld portion is formed, from which weld end portion molten material flows out into the edge fillet weld portion in that, when an end point of the edge fillet weld portion to be formed is reached, the laser beam is offset onto the top metal sheet transversely to the advancing movement, and the advancing movement of the laser beam is continued in the welding direction over an additional distance, while the power (P) of the laser beam is reduced to at least below the deep-welding threshold.
An injection molded polypropylene (IMPP) coating for a field joint of an oil or gas pipeline, said IMPP coating having at least one circumferential groove on its external surface.