mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of converting venous blood values to arterial blood values, said method comprising: a) providing values of measured and/or estimated arterial oxygenation selected from SO2 AM , SO2 AE or SpO2, b) measuring and/or estimating values of blood acid/base status in a blood sample selected from VBG M or VBG E , the blood sample being obtained from venous blood, c) converting the venous blood values by applying a mathematical model for deriving blood acid/base status and oxygenation status into estimated arterial blood values, ABG P , wherein, d1) if a value of measured and/or estimated arterial oxygenation value is below a corresponding venous oxygenation value, e) then estimating the said arterial oxygenation value with a replacement value being a function of the corresponding venous oxygenation value. a) providing values of measured and/or estimated arterial oxygenation selected from SO2 AM , SO2 AE or SpO2, b) measuring and/or estimating values of blood acid/base status in a blood sample selected from VBG M or VBG E , the blood sample being obtained from venous blood, c) converting the venous blood values by applying a mathematical model for deriving blood acid/base status and oxygenation status into estimated arterial blood values, ABG P , wherein, d1) if a value of measured and/or estimated arterial oxygenation value is below a corresponding venous oxygenation value, e) then estimating the said arterial oxygenation value with a replacement value being a function of the corresponding venous oxygenation value.
Mounting assembly (10; 20; 30; 40) of a vehicle interior mirror, which comprises: a pane adhesive element (13; 23; 33; 43) shaped in a substantially plate-shaped or disc-shaped manner and having a free first surface (13a; 33a) designed as an adhesive surface for fastening the mounting assembly to the inner-side of a vehicle pane (G; G'), and a second surface (13b; 33b) and a mirror mount (12; 22; 32; 42) having a first end face on which the pane adhesive element is seated with the second surface thereof, and having a second end face designed for mounting a housing (11; 21) of the vehicle interior mirror, wherein the pane adhesive element has the shape of a flat truncated cone or a flat pyramid such that the second surface is smaller than the free first surface, characterized in that the pane adhesive element consists of a compressible and/or flexible material such that, in the mounted state, the free first surface deforms in adaptation to a curved adjacent pane surface (G'), while the second surface does not deform or deforms only slightly. a pane adhesive element (13; 23; 33; 43) shaped in a substantially plate-shaped or disc-shaped manner and having a free first surface (13a; 33a) designed as an adhesive surface for fastening the mounting assembly to the inner-side of a vehicle pane (G; G'), and a second surface (13b; 33b) and a mirror mount (12; 22; 32; 42) having a first end face on which the pane adhesive element is seated with the second surface thereof, and having a second end face designed for mounting a housing (11; 21) of the vehicle interior mirror, wherein the pane adhesive element has the shape of a flat truncated cone or a flat pyramid such that the second surface is smaller than the free first surface, characterized in that the pane adhesive element consists of a compressible and/or flexible material such that, in the mounted state, the free first surface deforms in adaptation to a curved adjacent pane surface (G'), while the second surface does not deform or deforms only slightly.
A robotic work tool system comprising a robotic work tool comprising a controller , the controller being configured to: determine an area locality associated with a hindrance; determine a classifier (C) associated with the area locality ; and determine an action for the robotic work tool , wherein the action is based on the classifier (C), wherein the robotic work tool system is characterized in that the controller is further configured to: determine an angle at which the robotic work tool approaches the area locality and wherein the classifier (C) is further based on said angle at which the robotic work tool approaches the area locality . determine an area locality associated with a hindrance; determine a classifier (C) associated with the area locality ; and determine an action for the robotic work tool , wherein the action is based on the classifier (C), wherein the robotic work tool system is characterized in that the controller is further configured to: determine an angle at which the robotic work tool approaches the area locality and wherein the classifier (C) is further based on said angle at which the robotic work tool approaches the area locality . determine an angle at which the robotic work tool approaches the area locality and wherein the classifier (C) is further based on said angle at which the robotic work tool approaches the area locality .
A lighting device comprising: a light source disposed on an optical axis (X); a baffle extending about the optical axis (X) and surrounding the light source ; and a reflector module connected to the baffle , the reflector module comprising: a main reflector having a light exit opening from which a light output of the lighting device is projected towards a target area, the optical axis (X) passing through the opening , and a plurality of reflective surfaces adjacent to the opening for reflecting light incident thereon away from the opening and at an angle to the optical axis (X); and a plurality of auxiliary reflectors for adjusting the shape of the light output of the lighting device, each auxiliary reflector comprising a reflective surface, each auxiliary reflector being moveable relative to the main reflector between a stowed position and a deployed position in which at least part of the reflective surface of the auxiliary reflector is exposed, by the opening of the main reflector , to reflect light incident thereon away from the target area. a light source disposed on an optical axis (X); a baffle extending about the optical axis (X) and surrounding the light source ; and a reflector module connected to the baffle , the reflector module comprising: a main reflector having a light exit opening from which a light output of the lighting device is projected towards a target area, the optical axis (X) passing through the opening , and a plurality of reflective surfaces adjacent to the opening for reflecting light incident thereon away from the opening and at an angle to the optical axis (X); and a plurality of auxiliary reflectors for adjusting the shape of the light output of the lighting device, each auxiliary reflector comprising a reflective surface, each auxiliary reflector being moveable relative to the main reflector between a stowed position and a deployed position in which at least part of the reflective surface of the auxiliary reflector is exposed, by the opening of the main reflector , to reflect light incident thereon away from the target area. a main reflector having a light exit opening from which a light output of the lighting device is projected towards a target area, the optical axis (X) passing through the opening , and a plurality of reflective surfaces adjacent to the opening for reflecting light incident thereon away from the opening and at an angle to the optical axis (X); and a plurality of auxiliary reflectors for adjusting the shape of the light output of the lighting device, each auxiliary reflector comprising a reflective surface, each auxiliary reflector being moveable relative to the main reflector between a stowed position and a deployed position in which at least part of the reflective surface of the auxiliary reflector is exposed, by the opening of the main reflector , to reflect light incident thereon away from the target area.
A lamellar personal cleansing composition comprising: 1) 1 to 15%, preferably 1 to 10% by wt. C 8 to C 20 acyl isethionate; 2) 0.5% to 12%, preferably 1 to 10%by wt. acyl glycinate; wherein the amount of C 12 to C 18 chain length is greater than 50% of the amount of C 8 , C 10 and C 12 to C 18 chain length glycinate present, 3) 0.5 to 12%, preferably 1 to 10% by wt. acyl glutamate; and 4) 0 to 10%, preferably 0.5 to 5% of an amphoteric surfactant; and 5) 0.1 to 10% by wt lamellar structurant, wherein the lamellar structurant is selected from the group consisting of C 8 -C 18 alkyl fatty acid, alkyl alcohols and mixtures thereof, wherein the amount by wt. of acyl glutamate in the composition as active, is greater than 50% the amount by wt. of acyl isethionate; wherein chain length distribution in the acyl isethionate is such that C 12 chain within the chain length distribution is between 60 to 100%, preferably 70 to 100%.; wherein the pH of the composition is between 6 to 8, more preferably 6.5 to 7.5 and most preferably 6.7 to 7.3. 1) 1 to 15%, preferably 1 to 10% by wt. C 8 to C 20 acyl isethionate; 2) 0.5% to 12%, preferably 1 to 10%by wt. acyl glycinate; wherein the amount of C 12 to C 18 chain length is greater than 50% of the amount of C 8 , C 10 and C 12 to C 18 chain length glycinate present, 3) 0.5 to 12%, preferably 1 to 10% by wt. acyl glutamate; and 4) 0 to 10%, preferably 0.5 to 5% of an amphoteric surfactant; and 5) 0.1 to 10% by wt lamellar structurant, wherein the lamellar structurant is selected from the group consisting of C 8 -C 18 alkyl fatty acid, alkyl alcohols and mixtures thereof, wherein chain length distribution in the acyl isethionate is such that C 12 chain within the chain length distribution is between 60 to 100%, preferably 70 to 100%.; wherein the pH of the composition is between 6 to 8, more preferably 6.5 to 7.5 and most preferably 6.7 to 7.3.
Swimming pool or the like, comprising a bottom wall , in particular a bottom metal sheet, and a feed channel for fresh water and/or water treating agents, wherein the feed channel is formed separately from the main body of the swimming pool and is arranged outside the interior space of the swimming pool and forms a flat bearing surface for the bottom wall and/or the bottom metal sheet of the swimming pool , characterized in that inflow openings (7.1, 7.2, 7.3), formed without any covering, are integrated in a wall of the feed channel , towards the inner side of the swimming pool , wherein the inflow openings (7.1, 7.2) have lateral flow components in order to achieve a good area-wide distribution of the fresh water fed in and there are elements (7.5) of the surface (4.1) of the feed channel that delimit the inflow openings (7.1 and 7.2) and are deformed in the direction of the inner side of the feed channel, and in that the inflow openings (7.1 and 7.2) for feeding in fresh water and/or water treating agents are formed between a crosspiece (7.6), remaining between the elements (7.5), in the surface (4.1) of the feed channel and the respective element (7.5) itself.
An image encoding device comprising: a setting unit configured to set control information for controlling intra block copy prediction across slices; a prediction unit configured, when a wavefront parallel processing (WPP) function is "on", to perform intra block copy prediction of a coding tree unit in a current slice according to a reference range of the previous slice limited to coding tree units up to an upper right coding tree unit located on an upper right side of the current coding tree unit and to supply a predicted block based on the current block; and an encoding unit configured to encode the current block using the predicted block to generate a bitstream; wherein the setting unit is configured to set, as part of the control information, a parameter indicating the number of previous slices that can be referred to by the prediction unit when performing the intra block copy prediction. a setting unit configured to set control information for controlling intra block copy prediction across slices; a prediction unit configured, when a wavefront parallel processing (WPP) function is "on", to perform intra block copy prediction of a coding tree unit in a current slice according to a reference range of the previous slice limited to coding tree units up to an upper right coding tree unit located on an upper right side of the current coding tree unit and to supply a predicted block based on the current block; and an encoding unit configured to encode the current block using the predicted block to generate a bitstream; wherein the setting unit is configured to set, as part of the control information, a parameter indicating the number of previous slices that can be referred to by the prediction unit when performing the intra block copy prediction.
An apparatus, comprising: a set of NAND strings , the set of NAND strings extends in a lower tier and an upper tier of a stack , the lower tier separated from the upper tier by an interface (IF), each NAND string comprising a channel , dummy memory cells adjacent to the interface on opposing sides of the interface and data memory cells (703-711, 714-716; 723-731, 734-736; 743-751, 754-756; 763-771, 774-776), wherein each NAND string comprises a drain end and a source end; and a control circuit configured to, in response to a read command, discharge the channels before reading selected data memory cells in the NAND strings, wherein to discharge the channels, the control circuit is configured to increase a voltage of the dummy memory cells at a first ramp up rate and increase a voltage of unselected data memory cells in one of the tiers which does not include the selected data memory cells at a second ramp up rate, wherein the first ramp up rate is greater than the second ramp up rate; wherein when discharging the channels, the drain ends and the source ends of the NAND strings are grounded. a set of NAND strings , the set of NAND strings extends in a lower tier and an upper tier of a stack , the lower tier separated from the upper tier by an interface (IF), each NAND string comprising a channel , dummy memory cells adjacent to the interface on opposing sides of the interface and data memory cells (703-711, 714-716; 723-731, 734-736; 743-751, 754-756; 763-771, 774-776), wherein each NAND string comprises a drain end and a source end; and a control circuit configured to, in response to a read command, discharge the channels before reading selected data memory cells in the NAND strings, wherein to discharge the channels, the control circuit is configured to increase a voltage of the dummy memory cells at a first ramp up rate and increase a voltage of unselected data memory cells in one of the tiers which does not include the selected data memory cells at a second ramp up rate, wherein the first ramp up rate is greater than the second ramp up rate; wherein when discharging the channels, the drain ends and the source ends of the NAND strings are grounded.
A compound of Formula (I) or a salt thereof, wherein R 1 is selected from the group consisting of hydrogen, -CH 3 , -CCH, -OCH 3 and halogen; R 2 is hydrogen or halogen; R 3 is selected from the group consisting of formula (i.1), (i.2), (i.3) and (i.4); R 4 is selected from the group consisting of R 4.a and R 4.b wherein R 4.a is R 4.a.1 wherein R 6 is -H or -CH 3 , n is 1 or 2; m is 1 or 2; and R 4.b is R 4.b.1 wherein p is 1 or 2; q is 1 or 2; R 5 is -H or -CH 3 ; and at least one of R 1 and R 2 is not hydrogen. R 1 is selected from the group consisting of hydrogen, -CH 3 , -CCH, -OCH 3 and halogen; R 2 is hydrogen or halogen; R 3 is selected from the group consisting of formula (i.1), (i.2), (i.3) and (i.4); R 4 is selected from the group consisting of R 4.a and R 4.b wherein R 4.a is R 4.a.1 wherein R 6 is -H or -CH 3 , n is 1 or 2; m is 1 or 2; and R 4.b is R 4.b.1 R 6 is -H or -CH 3 , n is 1 or 2; m is 1 or 2; and R 4.b is R 4.b.1 wherein p is 1 or 2; q is 1 or 2; R 5 is -H or -CH 3 ; p is 1 or 2; q is 1 or 2; R 5 is -H or -CH 3 ; and at least one of R 1 and R 2 is not hydrogen.
A camera module is provided, wherein the camera module comprises a lens optical device and an actuating part ; the actuating part comprises two movable blocks , fastening brackets located on two sides of each movable block , and a plurality of electrically controlled flexible members ; the lens optical device is located between the two movable blocks , and is fastened on the two movable blocks ; each movable block is suspended on the fastening brackets by using elastic members ; and each movable block and the fastening brackets on the two sides are connected by the electrically controlled flexible members . the actuating part comprises two movable blocks , fastening brackets located on two sides of each movable block , and a plurality of electrically controlled flexible members ; the lens optical device is located between the two movable blocks , and is fastened on the two movable blocks ; each movable block is suspended on the fastening brackets by using elastic members ; and each movable block and the fastening brackets on the two sides are connected by the electrically controlled flexible members .
A wireless transmit/receive unit, WTRU , configured to perform wireless communications, comprising: an antenna ; and circuitry operatively coupled to the antenna; the antenna configured to receive a control signal using a first beam, the control signal comprising control information having a first format or a second format; the antenna further configured to, on a condition that the control information has the first format, receive a data signal using the first beam; and the circuitry configured to, on a condition that the control information has the second format, switch a receive beam of the antenna from the first beam to a second beam identified in the control information, and the antenna further configured to receive the data signal using the second beam. an antenna ; and circuitry operatively coupled to the antenna; the antenna configured to receive a control signal using a first beam, the control signal comprising control information having a first format or a second format; the antenna further configured to, on a condition that the control information has the first format, receive a data signal using the first beam; and the circuitry configured to, on a condition that the control information has the second format, switch a receive beam of the antenna from the first beam to a second beam identified in the control information, and the antenna further configured to receive the data signal using the second beam.
Container cleaning module for a modular container cleaning machine, wherein the container cleaning module comprises: - at least one rack for receiving containers oriented upside down, wherein the at least one rack comprises each at least one liquid supply line , and wherein the at least one rack comprises each a plurality of pins onto which the containers oriented upside down are placable, wherein each one of the plurality of pins comprises at least one nozzle for internal cleaning of a container placed thereon and oriented upside down, - a module housing with: - at least one liquid inlet , - at least one liquid outlet , - at least one insertion device for receiving one or several ones of the at least one rack , - at least one openable access that can be closed in a liquid-tight manner for introducing or removing the at least one rack into the interior or out of the interior of the module housing , - a control device and a sensory mechanism for controlling and monitoring a cleaning operation by the container cleaning module , characterised in that the sensory mechanism comprises a detection and execution sensory mechanism, wherein the detection sensory mechanism is adapted to detect temperatures of the liquid in the container cleaning module and/or the degree of soiling of the liquid discharged through the liquid outlet , wherein the execution sensory mechanism is adapted to initiate execution processes based on values determined before a cleaning operation and/or determined during a cleaning operation, wherein the execution sensory mechanism uses therefor values detected by the detection sensory mechanism which the execution sensory mechanism obtained from the detection sensory mechanism. - at least one rack for receiving containers oriented upside down, wherein the at least one rack comprises each at least one liquid supply line , and wherein the at least one rack comprises each a plurality of pins onto which the containers oriented upside down are placable, wherein each one of the plurality of pins comprises at least one nozzle for internal cleaning of a container placed thereon and oriented upside down, - a module housing with: - at least one liquid inlet , - at least one liquid outlet , - at least one insertion device for receiving one or several ones of the at least one rack , - at least one openable access that can be closed in a liquid-tight manner for introducing or removing the at least one rack into the interior or out of the interior of the module housing , - at least one liquid inlet , - at least one liquid outlet , - at least one insertion device for receiving one or several ones of the at least one rack , - at least one openable access that can be closed in a liquid-tight manner for introducing or removing the at least one rack into the interior or out of the interior of the module housing , - a control device and a sensory mechanism for controlling and monitoring a cleaning operation by the container cleaning module ,
A method for aircraft battery management, the method comprising: receiving, by a battery management system , aircraft movement information of an aircraft; the method being characterized by further comprising: detecting, by the battery management system , that the movement information indicates a potential crash; detecting, by the battery management system , a loss of current in at least one low voltage wire; and blowing, by the battery management system , a battery pack fuse of at least one battery pack configured to supply high voltage power to disconnect supply of the high voltage power by the at least one battery pack. receiving, by a battery management system , aircraft movement information of an aircraft; the method being characterized by further comprising: detecting, by the battery management system , that the movement information indicates a potential crash; detecting, by the battery management system , a loss of current in at least one low voltage wire; and blowing, by the battery management system , a battery pack fuse of at least one battery pack configured to supply high voltage power to disconnect supply of the high voltage power by the at least one battery pack. detecting, by the battery management system , that the movement information indicates a potential crash; detecting, by the battery management system , a loss of current in at least one low voltage wire; and blowing, by the battery management system , a battery pack fuse of at least one battery pack configured to supply high voltage power to disconnect supply of the high voltage power by the at least one battery pack.
A protein-nucleic acid conjugate for use in super-resolution imaging, comprising a protein linked to a docking strand that is capable of transiently binding to a complementary fluorescently-labeled imager strand, wherein the docking strand is a single-stranded nucleic acid that is 5 to 50 nucleotides in length, and wherein transient binding of the fluorescently-labeled imager strand to the docking strand produces fluorescence blinking.