mhurhangee/patent-ind-claim-en huggingface dataset:
A method of configuring a first client device to utilize at least one type of rate adaptation method in a session with a second client device , the method comprising: when re-negotiating an on-going session with the second client device, determining by the first client device, whether at least one first type of rate adaptation method and at least one second type of rate adaptation method are to be used in a re-negotiated session, wherein the at least one first type of rate adaptation method is usable for both semi-static rate adaptation and dynamic rate adaptation, and the at least one second type of rate adaptation method provides improved performance for dynamic rate adaptation compared to the first type of rate adaptation method; upon determining that only the at least one first type of rate adaptation is to be used in the re-negotiated session, configuring the first client device to utilize the at least one first type of rate adaptation method for both semi-static rate adaptation and for dynamic rate adaptation in the re-negotiated session; and upon determining that both the at least one first type of rate adaptation method and the at least one second type of rate adaptation method are to be used in the re-negotiated session, configuring the first client device to utilize the first type of rate adaptation method for semi-static rate adaptation and to utilize the second type of rate adaptation method for dynamic rate adaptation in the re-negotiated session. when re-negotiating an on-going session with the second client device, determining by the first client device, whether at least one first type of rate adaptation method and at least one second type of rate adaptation method are to be used in a re-negotiated session, wherein the at least one first type of rate adaptation method is usable for both semi-static rate adaptation and dynamic rate adaptation, and the at least one second type of rate adaptation method provides improved performance for dynamic rate adaptation compared to the first type of rate adaptation method; upon determining that only the at least one first type of rate adaptation is to be used in the re-negotiated session, configuring the first client device to utilize the at least one first type of rate adaptation method for both semi-static rate adaptation and for dynamic rate adaptation in the re-negotiated session; and upon determining that both the at least one first type of rate adaptation method and the at least one second type of rate adaptation method are to be used in the re-negotiated session, configuring the first client device to utilize the first type of rate adaptation method for semi-static rate adaptation and to utilize the second type of rate adaptation method for dynamic rate adaptation in the re-negotiated session.
A cartridge comprising: a substrate including a polymerase chain reaction (PCR) zone including: a first heating region ; a second heating region spaced away from the first heating region ; a detection region ; and a microchannel formed in the substrate , the microchannel configured to receive a fluid flowing therethrough, the microchannel passing through the first heating region and second heating region to thermally cycle the fluid, and the microchannel passing through the detection region after the fluid has been thermally cycled, the cartridge further comprising: a cover having a first side and second side , the second side of the cover attached to a first side of the substrate and enclosing the microchannel , the cartridge characterized by , a first heating element arranged on the first side of the cover in the first heating region ; and a second heating element arranged on the first side of the cover in the second heating region . a substrate including a polymerase chain reaction (PCR) zone including: a first heating region ; a second heating region spaced away from the first heating region ; a detection region ; and a microchannel formed in the substrate , the microchannel configured to receive a fluid flowing therethrough, the microchannel passing through the first heating region and second heating region to thermally cycle the fluid, and the microchannel passing through the detection region after the fluid has been thermally cycled, the cartridge further comprising: a cover having a first side and second side , the second side of the cover attached to a first side of the substrate and enclosing the microchannel , the cartridge characterized by , a first heating region ; a second heating region spaced away from the first heating region ; a detection region ; and a microchannel formed in the substrate , the microchannel configured to receive a fluid flowing therethrough, the microchannel passing through the first heating region and second heating region to thermally cycle the fluid, and the microchannel passing through the detection region after the fluid has been thermally cycled, the cartridge further comprising: a cover having a first side and second side , the second side of the cover attached to a first side of the substrate and enclosing the microchannel , the cartridge characterized by , a first heating element arranged on the first side of the cover in the first heating region ; and a second heating element arranged on the first side of the cover in the second heating region .
A pattern correction amount calculating apparatus, comprising: an accepting unit that accepts pattern information, which is information indicating a pattern figure that is to be written by an electron beam writer; a micro side group acquiring unit that acquires a micro side group, which is a group of two or more continuous sides forming a contour of the pattern figure indicated by the pattern information, and is a group of micro sides that are each small enough to satisfy a predetermined condition, using the pattern information; characterized by further comprising: a virtual side acquiring unit that acquires a virtual side, which is a side that approximates two or more micro sides contained in the micro side group; a virtual side correction amount calculating unit that calculates a virtual side correction amount, which is a correction amount for the virtual side; a micro side correction amount calculating unit that calculates two or more micro side correction amounts, which are correction amounts respectively for the two or more micro sides contained in the micro side group corresponding to the virtual side, using the virtual side correction amount; and an output unit that outputs the two or more micro side correction amounts. an accepting unit that accepts pattern information, which is information indicating a pattern figure that is to be written by an electron beam writer; a micro side group acquiring unit that acquires a micro side group, which is a group of two or more continuous sides forming a contour of the pattern figure indicated by the pattern information, and is a group of micro sides that are each small enough to satisfy a predetermined condition, using the pattern information; characterized by further comprising: a virtual side acquiring unit that acquires a virtual side, which is a side that approximates two or more micro sides contained in the micro side group; a virtual side correction amount calculating unit that calculates a virtual side correction amount, which is a correction amount for the virtual side; a micro side correction amount calculating unit that calculates two or more micro side correction amounts, which are correction amounts respectively for the two or more micro sides contained in the micro side group corresponding to the virtual side, using the virtual side correction amount; and an output unit that outputs the two or more micro side correction amounts.
A syringe comprising: a syringe barrel having a distal end, an open proximal end , a sidewall extending between the distal end to the open proximal end , and the sidewall defining a chamber ; a non-luer tip at the distal end of the syringe barrel and dimensioned such that the non-luer tip is not connectable to an intravenous device, the non-luer tip defining a fluid pathway in fluid communication with the chamber ; and an enteral collar having a distal end and a proximal end , the proximal end including a rim circumferentially abutting the distal end of the syringe barrel , the enteral collar surrounding at least a portion of the non-luer tip and defining a moat region around the non-luer tip , the enteral collar sized and configured to permit a threaded connection of the distal end of the enteral collar to an enteral device and prevent connection to a device having a standard luer connector, the proximal end of the enteral collar comprising a vent configured to allow removal of fluid from the moat region ; and a plug that reversibly seals the vent . a syringe barrel having a distal end, an open proximal end , a sidewall extending between the distal end to the open proximal end , and the sidewall defining a chamber ; a non-luer tip at the distal end of the syringe barrel and dimensioned such that the non-luer tip is not connectable to an intravenous device, the non-luer tip defining a fluid pathway in fluid communication with the chamber ; and an enteral collar having a distal end and a proximal end , the proximal end including a rim circumferentially abutting the distal end of the syringe barrel , the enteral collar surrounding at least a portion of the non-luer tip and defining a moat region around the non-luer tip , the enteral collar sized and configured to permit a threaded connection of the distal end of the enteral collar to an enteral device and prevent connection to a device having a standard luer connector, the proximal end of the enteral collar comprising a vent configured to allow removal of fluid from the moat region ; and a plug that reversibly seals the vent .
A system for infusing a fluid comprising a processor configured for: receiving values of one or more infusion parameters for an infusion of a fluid prior to starting a fluid infusion to a patient, the infusion parameters comprising the internal diameter of the infusion line, the length of the fluid line or the viscosity of the fluid being infused; calculating an occlusion pressure threshold for the infusion of the fluid prior to starting a fluid infusion to a patient, the calculation being based on received infusion parameter values; receiving from a sensor a fluid pressure signal during the infusion; providing an indication responsive to whether a value of the sensed fluid pressure contravenes the occlusion pressure threshold; and adjusting the occlusion pressure threshold responsive to: a static operational parameter comprising patient medical information; and a dynamic operational parameter comprising statistical characteristics of the value of the sensed fluid pressure, wherein the calculating the occlusion pressure threshold includes calculating a theoretical working pressure value and adding a noise margin pressure value to the theoretical working pressure value, wherein the calculating the theoretical working pressure includes calculating the theoretical working pressure based on an amount of total flow infusing through a common infusion pathway, a flow resistance value of the common infusion pathway and flow resistance values of any separate portions of the infusion pathway specific to a given pump. receiving values of one or more infusion parameters for an infusion of a fluid prior to starting a fluid infusion to a patient, the infusion parameters comprising the internal diameter of the infusion line, the length of the fluid line or the viscosity of the fluid being infused; calculating an occlusion pressure threshold for the infusion of the fluid prior to starting a fluid infusion to a patient, the calculation being based on received infusion parameter values; receiving from a sensor a fluid pressure signal during the infusion; providing an indication responsive to whether a value of the sensed fluid pressure contravenes the occlusion pressure threshold; and adjusting the occlusion pressure threshold responsive to: a static operational parameter comprising patient medical information; and a dynamic operational parameter comprising statistical characteristics of the value of the sensed fluid pressure, a static operational parameter comprising patient medical information; and a dynamic operational parameter comprising statistical characteristics of the value of the sensed fluid pressure, wherein the calculating the occlusion pressure threshold includes calculating a theoretical working pressure value and adding a noise margin pressure value to the theoretical working pressure value, wherein the calculating the theoretical working pressure includes calculating the theoretical working pressure based on an amount of total flow infusing through a common infusion pathway, a flow resistance value of the common infusion pathway and flow resistance values of any separate portions of the infusion pathway specific to a given pump.
A craft, comprising: a fuselage ; a first lifting assembly coupled to the fuselage , comprising at least one blade foil , the at least one blade foil being configured to travel around an elongated continuous loop path to provide lift to the fuselage , the elongated continuous loop path comprising a first portion and a second portion, such that for each of the at least one blade foil , a portion of the blade foil that is a leading edge while the blade foil is traveling along the first portion of the elongated continuous loop path becomes the trailing edge as the blade foil travels along the second portion of the elongated continuous loop path ; and a control assembly configured to provide maneuvering and propulsion, the control assembly comprising a control element coupled to each of the plurality of blade foils , each control element being configured to continuously control a configuration of a respective one of the plurality of blade foils during travel thereof around the elongated continuous loop path such that each of the plurality of blade foils is continuously controlled to provide lift at all points around the elongated continuous loop path , characterised in that the control assembly is further configured to dynamically and differentially control the blade foils traveling along the first portion relative to the blade foils traveling along the second portion. a fuselage ; a first lifting assembly coupled to the fuselage , comprising at least one blade foil , the at least one blade foil being configured to travel around an elongated continuous loop path to provide lift to the fuselage , the elongated continuous loop path comprising a first portion and a second portion, such that for each of the at least one blade foil , a portion of the blade foil that is a leading edge while the blade foil is traveling along the first portion of the elongated continuous loop path becomes the trailing edge as the blade foil travels along the second portion of the elongated continuous loop path ; and a control assembly configured to provide maneuvering and propulsion, the control assembly comprising a control element coupled to each of the plurality of blade foils , each control element being configured to continuously control a configuration of a respective one of the plurality of blade foils during travel thereof around the elongated continuous loop path such that each of the plurality of blade foils is continuously controlled to provide lift at all points around the elongated continuous loop path , characterised in that the control assembly is further configured to dynamically and differentially control the blade foils traveling along the first portion relative to the blade foils traveling along the second portion.
A high voltage electrical connector for electric current connections in vehicles, comprising a first connector unit , a complementary second connector unit releasably connectable with the first connector unit , a primary locking member arranged in the first connector unit , and a stationary locking part arranged in the second connector unit , where the primary locking member is electromagnetically movable between a locked position (LP) and an unlocked position (UP), where in the locked position (LP) the primary locking member is in locking engagement with the stationary locking part preventing the first connector unit and the second connector unit from being released from each other, where in the unlocked position (UP) the primary locking member is disengaged from the stationary locking part allowing the first connector unit and the second connector unit from being released from each other, characterized in that the connector further comprises an auxiliary locking member mechanically movable between a first position (P1) and a second position (P2), where in the first position (P1) the auxiliary locking member is in direct engagement with the primary locking member when the primary locking member is in the locked position (LP), preventing the primary locking member from moving to the unlocked position (UP), and in the first position (P1) the auxiliary locking member further is engaging the first connector unit and the second connector unit so that the first connector unit is prevented from being released from the second connector unit , and where in the second position (P2) the auxiliary locking member is disengaged from the primary locking member , allowing the primary locking member to move to the unlocked position (UP). where the primary locking member is electromagnetically movable between a locked position (LP) and an unlocked position (UP), where in the locked position (LP) the primary locking member is in locking engagement with the stationary locking part preventing the first connector unit and the second connector unit from being released from each other, where in the unlocked position (UP) the primary locking member is disengaged from the stationary locking part allowing the first connector unit and the second connector unit from being released from each other, characterized in that the connector further comprises an auxiliary locking member mechanically movable between a first position (P1) and a second position (P2), where in the first position (P1) the auxiliary locking member is in direct engagement with the primary locking member when the primary locking member is in the locked position (LP), preventing the primary locking member from moving to the unlocked position (UP), and in the first position (P1) the auxiliary locking member further is engaging the first connector unit and the second connector unit so that the first connector unit is prevented from being released from the second connector unit , and where in the second position (P2) the auxiliary locking member is disengaged from the primary locking member , allowing the primary locking member to move to the unlocked position (UP).
A pump comprising: - an impeller rotating around a vertical axis (X, X') and having at least one blade , - a fixed volute surrounding the impeller , - only one finger fixed to the volute , projecting below the blade in the direction of the axis and having an upper surface , at least a part of which is at a distance from the blade of 0.05 to 1 mm, and a side leading surface - a crossing groove machined in the inner wall of the volute , the angle (δ) between the tangent at the downstream side of the input of the groove and the side between the upper surface and the side leading surface is between 180° and 150°, characterised in that there is only one groove and the finger is fixed to the volute just downstream of the input of the groove . - an impeller rotating around a vertical axis (X, X') and having at least one blade , - a fixed volute surrounding the impeller , - only one finger fixed to the volute , projecting below the blade in the direction of the axis and having an upper surface , at least a part of which is at a distance from the blade of 0.05 to 1 mm, and a side leading surface - a crossing groove machined in the inner wall of the volute , the angle (δ) between the tangent at the downstream side of the input of the groove and the side between the upper surface and the side leading surface is between 180° and 150°, characterised in that there is only one groove and the finger is fixed to the volute just downstream of the input of the groove .
A method for making available (SEL) at least one sound signal that is combined with a Higher Order Ambisonics signal denoted HOA signal, said method including: - splitting said HOA signal into a selected signal part (S) comprising a zero order channel (W) of the HOA signal and a remaining signal part (R); - extracting from said remaining signal part (R) at least one partial signal (P) comprising at least one channel (X) of the HOA signal; - combining said at least one partial signal (P) with said selected signal part (S) so as to form an amended selected signal part (S+) - outputting said remaining signal part (R), said amended selected signal part (S+), and side information data (SI) which is suitable for removing at a decoding side said at least one partial signal (P) from said amended selected signal part (S+) so as to get said selected signal part(S), and for merging said remaining signal part (R) and said selected signal part (S) and for decoding said HOA signal, and - making said amended selected signal part (S+) available for listening (SEL) without HOA decoding. - splitting said HOA signal into a selected signal part (S) comprising a zero order channel (W) of the HOA signal and a remaining signal part (R); - extracting from said remaining signal part (R) at least one partial signal (P) comprising at least one channel (X) of the HOA signal; - combining said at least one partial signal (P) with said selected signal part (S) so as to form an amended selected signal part (S+) - outputting said remaining signal part (R), said amended selected signal part (S+), and side information data (SI) which is suitable for removing at a decoding side said at least one partial signal (P) from said amended selected signal part (S+) so as to get said selected signal part(S), and for merging said remaining signal part (R) and said selected signal part (S) and for decoding said HOA signal, and - making said amended selected signal part (S+) available for listening (SEL) without HOA decoding.
An optical probe comprising: an optical housing extending from a proximate end to an opposing distal end ; a transmitting lens disposed at the distal end and configured to output a first transmitted signal beam having a first transmission axis and a second transmitted signal beam having a second transmission axis, the first transmission axis and the second transmission axis being different; and a receiving lens disposed at the distal end and configured to receive first and second reflected signal beams corresponding respectively to the first and second transmitted signal beams, wherein the optical housing has formed therein a transmitting optical channel configured to communicate an input optical signal from the proximate end to the transmitting lens , and a receiving optical channel separated from the transmitting optical channel to communicate the first and second reflected signal beams to the proximate end. an optical housing extending from a proximate end to an opposing distal end ; a transmitting lens disposed at the distal end and configured to output a first transmitted signal beam having a first transmission axis and a second transmitted signal beam having a second transmission axis, the first transmission axis and the second transmission axis being different; and a receiving lens disposed at the distal end and configured to receive first and second reflected signal beams corresponding respectively to the first and second transmitted signal beams, wherein the optical housing has formed therein a transmitting optical channel configured to communicate an input optical signal from the proximate end to the transmitting lens , and a receiving optical channel separated from the transmitting optical channel to communicate the first and second reflected signal beams to the proximate end.