mhurhangee/ep-ind-claims huggingface dataset:
A method of allocating for a telecommunications device an uplink data volume to uplink data pending for transmission, the method comprising: - receiving a grant of the uplink data volume; - reserving a portion (402; 502; 602) of the granted uplink data volume (404; 504; 604) for transmission of a buffer status report of a Data Link layer of the telecommunications device, wherein a size of the buffer status report depends on a number of channels for which uplink data is pending; characterized in that - if an unreserved portion (403; 503; 603) of the granted uplink data volume is sufficiently sized for the pending uplink data, allocating the unreserved portion to the pending uplink data; and - if the unreserved portion (403; 503; 603) of the granted uplink data volume is not sufficiently sized for the pending uplink data, allocating the unreserved portion and at least a part of the reserved portion to at least a portion of the pending uplink data when the allocation corresponds to a reduction of the number of channels for which uplink data is pending so that the buffer status report is at least one of reduced in size and avoided. - receiving a grant of the uplink data volume; - reserving a portion (402; 502; 602) of the granted uplink data volume (404; 504; 604) for transmission of a buffer status report of a Data Link layer of the telecommunications device, wherein a size of the buffer status report depends on a number of channels for which uplink data is pending; - if an unreserved portion (403; 503; 603) of the granted uplink data volume is sufficiently sized for the pending uplink data, allocating the unreserved portion to the pending uplink data; and - if the unreserved portion (403; 503; 603) of the granted uplink data volume is not sufficiently sized for the pending uplink data, allocating the unreserved portion and at least a part of the reserved portion to at least a portion of the pending uplink data when the allocation corresponds to a reduction of the number of channels for which uplink data is pending so that the buffer status report is at least one of reduced in size and avoided.
Method for passivating a metallic surface of a light metal component, in which a conversion layer is applied to the surface of the light metal component in a passivation step, wherein the calcium phosphate-containing conversion layer is produced on the metallic component surface in the passivation step using an aqueous passivation solution, which layer comprises oxides and hydroxides of the component material and the passivation solution and contains amino acids, wherein the conversion layer of the component is covered with at least one layer (6, 7, 9) in a subsequent coating process, wherein the pH of the passivation solution is in a neutral to acidic range, characterised in that the coating process comprises a first coating step in which a light metal CDC (Cathodic Dip Coating) layer, i.e. an organic protective layer, is formed in a dipping process under applied DC voltage, whereby the coating particles dissolved in the immersion bath are attracted by the metallic component and adhere to it with the formation of the light metal CDC layer.
A module for sampling from a surface of an industrial vessel without requiring a person to descend into the industrial vessel using a swab comprising a stem and a sampling tip, comprising a swab holder and a conveyor; the swab holder being adapted to receive and secure one end of the swab stem; and the conveyor being configured to move the swab holder at the surface of the vessel; wherein the conveyor is configured to move the swab holder in translational motion along one or two axis(axes) (A2, A3) parallel to the surface, in particular two axes perpendicular to each other; wherein the conveyor comprises a motor and a transmission assembly for moving the swab holder along a first axis of travel parallel to the surface; characterized in that the transmission assembly comprises a first annular belt, a second annular belt, a set of four pinions disposed so as to form the corners of a rectangle, and a conveyor bar to which the swab holder is secured and a first end of which is secured to the first annular belt and a second end is secured to the second annular belt so that the conveyor bar is parallel to two opposite sides of the rectangle formed by the set of four pinions; wherein the first belt is disposed so as to surround two pinions on one of the sides of the rectangular perpendicular to the conveyor bar thereby forming two parallel lines, the first end of the conveyor bar being secured to the innermost line within the rectangle; and wherein the second belt is disposed so as to surround the four pinions; and wherein one of the pinions is coupled to the motor. the swab holder being adapted to receive and secure one end of the swab stem; and the conveyor being configured to move the swab holder at the surface of the vessel; wherein the conveyor is configured to move the swab holder in translational motion along one or two axis(axes) (A2, A3) parallel to the surface, in particular two axes perpendicular to each other; wherein the conveyor comprises a motor and a transmission assembly for moving the swab holder along a first axis of travel parallel to the surface; characterized in that the transmission assembly comprises a first annular belt, a second annular belt, a set of four pinions disposed so as to form the corners of a rectangle, and a conveyor bar to which the swab holder is secured and a first end of which is secured to the first annular belt and a second end is secured to the second annular belt so that the conveyor bar is parallel to two opposite sides of the rectangle formed by the set of four pinions; wherein the first belt is disposed so as to surround two pinions on one of the sides of the rectangular perpendicular to the conveyor bar thereby forming two parallel lines, the first end of the conveyor bar being secured to the innermost line within the rectangle; and wherein the second belt is disposed so as to surround the four pinions; and wherein one of the pinions is coupled to the motor.
A squib driver circuit for deployment of an active safety restraint in a vehicle, the vehicle having an electrical ground and a battery with a battery voltage, the squib driver circuit being an integrated circuit formed on a single chip comprising: an input terminal for receiving an input voltage used to fire the active safety restraint; a high side feed terminal connected to the active safety restraint; a low side return terminal connected to the active safety restraint; a high side driver configured to supply current from the input terminal to the high side feed terminal; a low side driver configured to supply current from the low side return terminal to the electrical ground; and a high side short to ground protection circuit comprising a comparator circuit configured to compare a voltage at the high side feed terminal to a reference voltage to determine if the high side feed terminal is shorted to the ground voltage, wherein the high side short to ground protection circuit is configured to allow an all fire signal from the high side feed terminal until a short is detected between the high side feed terminal and the electrical ground for a predetermined period of time, and wherein the squib driver circuit further comprises a timer configured to generate a high side disable signal to disable the high side driver after the short is detected for the predetermined period of time. an input terminal for receiving an input voltage used to fire the active safety restraint; a high side feed terminal connected to the active safety restraint; a low side return terminal connected to the active safety restraint; a high side driver configured to supply current from the input terminal to the high side feed terminal; a low side driver configured to supply current from the low side return terminal to the electrical ground; and a high side short to ground protection circuit comprising a comparator circuit configured to compare a voltage at the high side feed terminal to a reference voltage to determine if the high side feed terminal is shorted to the ground voltage, wherein the high side short to ground protection circuit is configured to allow an all fire signal from the high side feed terminal until a short is detected between the high side feed terminal and the electrical ground for a predetermined period of time, and wherein the squib driver circuit further comprises a timer configured to generate a high side disable signal to disable the high side driver after the short is detected for the predetermined period of time.
An etching method for etching an object to be processed by using a substrate processing apparatus including a process chamber including a first electrode and a second electrode disposed opposite to the first electrode to receive the object to be processed thereon, the method comprising a step of: removing at least one of a first polymer and a second polymer by etching the object to be processed on which a pattern of the first polymer and the second polymer is formed by phase separation of a block copolymer containing the first polymer and the second polymer by using plasma of a process gas, characterized in that: the removing of the at least one of a first polymer and a second polymer by etching is performed at a temperature lower than or equal to 10 degrees C, the method further comprising a step of: performing a film quality improvement process after the step of removing the at least one of the first polymer and the second polymer, wherein the step of performing the film quality improvement process includes a step of performing a plasma process on the polymer by plasma of a hydrogen-containing gas. removing at least one of a first polymer and a second polymer by etching the object to be processed on which a pattern of the first polymer and the second polymer is formed by phase separation of a block copolymer containing the first polymer and the second polymer by using plasma of a process gas, characterized in that: the removing of the at least one of a first polymer and a second polymer by etching is performed at a temperature lower than or equal to 10 degrees C, the method further comprising a step of: performing a film quality improvement process after the step of removing the at least one of the first polymer and the second polymer, wherein the step of performing the film quality improvement process includes a step of performing a plasma process on the polymer by plasma of a hydrogen-containing gas. the removing of the at least one of a first polymer and a second polymer by etching is performed at a temperature lower than or equal to 10 degrees C, the method further comprising a step of: performing a film quality improvement process after the step of removing the at least one of the first polymer and the second polymer, wherein the step of performing the film quality improvement process includes a step of performing a plasma process on the polymer by plasma of a hydrogen-containing gas. performing a film quality improvement process after the step of removing the at least one of the first polymer and the second polymer, wherein the step of performing the film quality improvement process includes a step of performing a plasma process on the polymer by plasma of a hydrogen-containing gas.
An oil pan structure characterized by comprising: a main oil pan provided under an engine block; and a sub oil pan that is provided inside of the main oil pan and forms a first chamber and a second chamber inside of the main oil pan, the sub oil pan being separable into an upper body formed integrally with a lower structure of the engine block and a lower body fixed to the upper body, the lower structure being a lower block forming a part of the engine block. a main oil pan provided under an engine block; and a sub oil pan that is provided inside of the main oil pan and forms a first chamber and a second chamber inside of the main oil pan, the sub oil pan being separable into an upper body formed integrally with a lower structure of the engine block and a lower body fixed to the upper body, the lower structure being a lower block forming a part of the engine block.
A method for storing data, having the following steps: - establishing a first connection between a first ID token and a first computer system via a second computer system for reading at least one first attribute from the first ID token, - establishing a second connection between a second ID token and the first computer system via the second computer system for reading at least one second attribute from the second ID token, - sending the first and the second attributes from the first computer system to a third computer system, - receiving the data from the third computer system by the first computer system, - writing the data from the first computer system into the second ID token via the second connection in order to store the data in the second ID token, wherein a prerequisite for writing the data is that the first connection also still exists, wherein the first and the second connection are each connections with end-to-end encryption and with a connection-oriented protocol. - establishing a first connection between a first ID token and a first computer system via a second computer system for reading at least one first attribute from the first ID token, - establishing a second connection between a second ID token and the first computer system via the second computer system for reading at least one second attribute from the second ID token, - sending the first and the second attributes from the first computer system to a third computer system, - receiving the data from the third computer system by the first computer system, - writing the data from the first computer system into the second ID token via the second connection in order to store the data in the second ID token, wherein a prerequisite for writing the data is that the first connection also still exists,
A method for a mobile station, the method comprising: determining, by the mobile station, whether inbound handover is supported in respect of a particular target cell by receiving an indication via a wireless network of the possibility of inbound handover being carried out in respect of a target cell, wherein receiving an indication via a wireless network of the possibility of handover being carried out in respect of a target cell is characterized by receiving an indication from the target cell of whether inbound handover is supported in respect of the target cell; wherein the indication of whether inbound handover is supported in respect of the target cell comprises an indication of whether allocating resources in the particular target cell prior to cell change is supported. determining, by the mobile station, whether inbound handover is supported in respect of a particular target cell by receiving an indication via a wireless network of the possibility of inbound handover being carried out in respect of a target cell, wherein receiving an indication via a wireless network of the possibility of handover being carried out in respect of a target cell is characterized by receiving an indication from the target cell of whether inbound handover is supported in respect of the target cell; wherein the indication of whether inbound handover is supported in respect of the target cell comprises an indication of whether allocating resources in the particular target cell prior to cell change is supported.
Signalling device with a sound signal unit for emitting an acoustic signal and with a light signal unit for emitting a visual signal, and with a housing base body and with a housing upper part, wherein the signalling device can preferably be arranged on a receiving body with the housing base body, and wherein the housing upper part is arranged on the housing base body to form a receiving space, characterized in that a separate base body of the light signal unit is formed from a light-transparent signal hood, that the signal hood has a base surface, that the base surface of the signal hood is spanned by an adapter frame, that the light signal unit has an electrical switching unit which is arranged in the adapter frame, that the housing base body has a side wall, wherein the signal hood is placed with the base surface on the outside of the side wall and is arranged on the housing base body, that the housing base body has a depth (T G), that the upper housing part has a depth (To), and that the upper housing part, when it is assembled on the basic housing body, protrudes into the housing base body.
A method of removing a wellbore isolation device, having previously been positioned in a portion of a wellbore, to restrict or prevent fluid flow within the wellbore, the method comprising: by introducing a fluid into the portion of the wellbore, causing the temperature surrounding the wellbore isolation device to increase, wherein the wellbore isolation device comprises a substance, wherein the substance: is a plastic; and undergoes a phase transition at a phase transition temperature, wherein the temperature surrounding the wellbore isolation device is caused to increase to a temperature that is greater than or equal to the phase transition temperature, allowing at least a portion of the substance to undergo the phase transformation so as to decrease the structural integrity of the wellbore isolation device, and removing the wellbore isolation device, the structural integrity of which has been decreased, from the wellbore, wherein the isolation device is a ball, optionally a frac ball, a plug, a bridge plug, a wiper plug, or a packer, and wherein a tracer is used to determine whether or the extent to which the substance has undergone the phase transition, and wherein, based on information from the tracer, the temperature of the introduced fluid is changed or a fluid of a different temperature than a previous fluid is introduced to the portion of the wellbore to affect the phase transition rate of the substance. by introducing a fluid into the portion of the wellbore, causing the temperature surrounding the wellbore isolation device to increase, wherein the wellbore isolation device comprises a substance, wherein the substance: is a plastic; and undergoes a phase transition at a phase transition temperature, is a plastic; and undergoes a phase transition at a phase transition temperature, wherein the temperature surrounding the wellbore isolation device is caused to increase to a temperature that is greater than or equal to the phase transition temperature, allowing at least a portion of the substance to undergo the phase transformation so as to decrease the structural integrity of the wellbore isolation device, and removing the wellbore isolation device, the structural integrity of which has been decreased, from the wellbore, wherein the isolation device is a ball, optionally a frac ball, a plug, a bridge plug, a wiper plug, or a packer, and wherein a tracer is used to determine whether or the extent to which the substance has undergone the phase transition, and wherein, based on information from the tracer, the temperature of the introduced fluid is changed or a fluid of a different temperature than a previous fluid is introduced to the portion of the wellbore to affect the phase transition rate of the substance.
A window regulator comprising a coupled structure formed by coupling a lower member and an upper member, characterized in that the lower member is provided with a tapered through-hole extending from an opening on one surface side to an opening on a lower surface side of the lower member and made larger in diameter toward the lower surface side and provided with a first inner wall portion work-hardened due to plastic deformation along an inner wall surface of the tapered through hole, and a swell portion provided, by plastic working, along a rim of the opening on the lower surface side of the tapered through-hole, having an inner wall surface continuing to the inner wall surface of the tapered through-hole, and provided with a second inner wall portion work-hardened due to plastic deformation along the inner wall surface of the swell portion; and the upper member is provided with a protrusion having an outer wall surface in close contact with at least a part of the inner wall surface of the swell portion and also with the inner wall surface of the tapered through-hole, fitting in from the tapered through-hole to the swell portion, and having an outer wall portion work-hardened due to plastic deformation along the outer wall surface of the protrusion. a tapered through-hole extending from an opening on one surface side to an opening on a lower surface side of the lower member and made larger in diameter toward the lower surface side and provided with a first inner wall portion work-hardened due to plastic deformation along an inner wall surface of the tapered through hole, and a swell portion provided, by plastic working, along a rim of the opening on the lower surface side of the tapered through-hole, having an inner wall surface continuing to the inner wall surface of the tapered through-hole, and provided with a second inner wall portion work-hardened due to plastic deformation along the inner wall surface of the swell portion; and
N -Butyloxycarbonyl-3-(4-imidazol-1-ylmethylphenyl)-5-isobutylthiophene-2-sulfonamide, or a pharmaceutically-acceptable salt thereof, for use in a method of treatment of respiratory virus-induced damage of respiratory tract tissue.