mhurhangee/patent-ind-claim-en huggingface dataset:
A portable device for orienting a level measuring instrument on a container , the device comprising: a processor ; a tilt sensor ; a display device ; wherein the processor is configured to determine an inclination of the level measuring instrument by using the tilt sensor to determine an inclination of the device when the device is touching the level measuring instrument; wherein the processor is configured to determine a dimension of the container and a position of the level measuring instrument relative to the container; characterized in that the processor is configured to determine a required alteration in an orientation of the level measuring instrument on the basis of the dimension of the container, the position of the level measuring instrument relative to the container and the inclination of the level measuring instrument; and the processor is configured to transmit to the display device a signal for outputting the determined required alteration in the orientation of the level measuring instrument. a processor ; a tilt sensor ; a display device ; wherein the processor is configured to determine an inclination of the level measuring instrument by using the tilt sensor to determine an inclination of the device when the device is touching the level measuring instrument; wherein the processor is configured to determine a dimension of the container and a position of the level measuring instrument relative to the container; characterized in that the processor is configured to determine a required alteration in an orientation of the level measuring instrument on the basis of the dimension of the container, the position of the level measuring instrument relative to the container and the inclination of the level measuring instrument; and the processor is configured to transmit to the display device a signal for outputting the determined required alteration in the orientation of the level measuring instrument.
Connection assembly , comprising a bulkhead connector , the bulkhead connector being adapted for installation in a wall of a housing and comprising a partition wall , the connection assembly further comprising an adaptor comprising a standardized connector face , the adaptor extending through the partition wall and being fixed to the bulkhead connector by fixing means that are accessible from one side of the partition wall , characterized in that the adaptor has a twofold rotational symmetry around a longitudinal direction (L) so that it can be installed in any of the two rotational positions.
An article of footwear having an upper and a sole structure secured to the upper , the upper including a knitted component comprising: a monofilament knit element formed by at least one monofilament strand , the monofilament knit element forming a major portion of the upper and extending through at least a portion of each of a forefoot region , a midfoot region , and a heel region of the article of footwear; and at least one course of the monofilament knit element including a fusible strand , characterized in that the monofilament knit element comprises alternating courses including (a) the at least one monofilament strand and the fusible strand , and (b) the at least one monofilament strand without the fusible strand . a monofilament knit element formed by at least one monofilament strand , the monofilament knit element forming a major portion of the upper and extending through at least a portion of each of a forefoot region , a midfoot region , and a heel region of the article of footwear; and at least one course of the monofilament knit element including a fusible strand , characterized in that the monofilament knit element comprises alternating courses including (a) the at least one monofilament strand and the fusible strand , and (b) the at least one monofilament strand without the fusible strand .
An apparatus to generate pressure support ventilation, comprising: at least one sensor adapted to measure at least one respiratory parameter; a flow generator adapted for coupling with a patient respiratory interface , the flow generator configured to provide a flow of breathable gas for pressure support ventilation to the patient respiratory interface ; and a controller , coupled to the at least one sensor and the flow generator , the controller configured to control the pressure support ventilation with the flow generator , the controller being further configured with a rest mode and an exercise mode, the rest mode comprising a first value set of control parameters for the pressure support ventilation and the exercise mode comprising a second value set of control parameters for the pressure support ventilation, wherein the controller is configured to receive another user activated trigger stimulus, and, in response to this trigger stimulus to select the second value set of control parameters for the exercise mode, characterised in that , the apparatus further comprising a diaphragm electromyogram sensor and/or a vagal nerve sensor to activate the controller , the sensor(s) being configured for actuating the trigger stimulus. at least one sensor adapted to measure at least one respiratory parameter; a flow generator adapted for coupling with a patient respiratory interface , the flow generator configured to provide a flow of breathable gas for pressure support ventilation to the patient respiratory interface ; and a controller , coupled to the at least one sensor and the flow generator , the controller configured to control the pressure support ventilation with the flow generator , the controller being further configured with a rest mode and an exercise mode, the rest mode comprising a first value set of control parameters for the pressure support ventilation and the exercise mode comprising a second value set of control parameters for the pressure support ventilation, wherein the controller is configured to receive another user activated trigger stimulus, and, in response to this trigger stimulus to select the second value set of control parameters for the exercise mode, characterised in that , the apparatus further comprising a diaphragm electromyogram sensor and/or a vagal nerve sensor to activate the controller , the sensor(s) being configured for actuating the trigger stimulus.
A method for controlling output of a marine seismic vibrator , comprising: operating the vibrator using a predetermined driver signal , the vibrator having a substantially elliptical outer shell in contact with a body of water ; measuring a vibrator output signal at at least one end beam supporting each longitudinal end of the outer shell and on the outer shell; inputting the at least two measured vibrator output signals to an iterative learning control system to determine a corrected driver signal , wherein the corrected driver signal results in fewer harmonics of fundamental frequencies in the vibrator output; and operating the vibrator using the corrected driver signal. operating the vibrator using a predetermined driver signal , the vibrator having a substantially elliptical outer shell in contact with a body of water ; measuring a vibrator output signal at at least one end beam supporting each longitudinal end of the outer shell and on the outer shell; inputting the at least two measured vibrator output signals to an iterative learning control system to determine a corrected driver signal , wherein the corrected driver signal results in fewer harmonics of fundamental frequencies in the vibrator output; and operating the vibrator using the corrected driver signal.
An imaging optical system comprising: a plurality of optical systems each including a plurality of optical members; in the order from an object side to an image side; a front group (AF; BF); a first reflection member (AP1; BP1), disposed for each one of the optical systems, configured to reflect light when the light passing through the plurality of optical members; a variable aperture member (AS; BS); a second reflection member (AP2; BP2); the light path is reflected by each of the first reflection member and the second reflection member by 90 degrees, a rear group (AR; BR); and the variable aperture member (AS) having an opening disposed at an image sensor side when viewed from the first reflection member (AP1), the variable aperture member configured to change a size of the opening through which the light reflected from the first reflection member (AP1) passes through, and at least a part of the variable aperture member is disposed at a position lying along an optical axis direction, in a dead space (L1AREA) of a first lens (L1), disposed at the most object side in the plurality of optical members, wherein the variable aperture member is parallel with the optical axis of the rear group (AR; BR). a front group (AF; BF); a first reflection member (AP1; BP1), disposed for each one of the optical systems, configured to reflect light when the light passing through the plurality of optical members; a variable aperture member (AS; BS); a second reflection member (AP2; BP2); the light path is reflected by each of the first reflection member and the second reflection member by 90 degrees, a rear group (AR; BR); and the variable aperture member (AS) having an opening disposed at an image sensor side when viewed from the first reflection member (AP1), the variable aperture member configured to change a size of the opening through which the light reflected from the first reflection member (AP1) passes through, and at least a part of the variable aperture member is disposed at a position lying along an optical axis direction, in a dead space (L1AREA) of a first lens (L1), disposed at the most object side in the plurality of optical members, wherein the variable aperture member is parallel with the optical axis of the rear group (AR; BR).
A polar group-containing multi-component olefin copolymer comprising: structural units (A) derived from ethylene or an α-olefin, structural units (B) having a carboxyl group or a structure which forms a carboxyl group by an elimination reaction due to heat or an acid, and structural units (C) derived from acrylic acid, which do not have a carboxyl group, and which do not cause an elimination reaction due to heat or an acid under the same conditions as those for the elimination reaction due to heat or an acid in which the structural units (B) form a carboxyl group, and the weight average molecular weight/number average molecular weight (Mw/Mn), as measured by gel permeation chromatography (GPC), is 1.5 to 4.0; wherein the number of methyl branches is 5 or less per 1,000 carbon atoms. structural units (A) derived from ethylene or an α-olefin, structural units (B) having a carboxyl group or a structure which forms a carboxyl group by an elimination reaction due to heat or an acid, and structural units (C) derived from acrylic acid, which do not have a carboxyl group, and which do not cause an elimination reaction due to heat or an acid under the same conditions as those for the elimination reaction due to heat or an acid in which the structural units (B) form a carboxyl group, and the weight average molecular weight/number average molecular weight (Mw/Mn), as measured by gel permeation chromatography (GPC), is 1.5 to 4.0; wherein the number of methyl branches is 5 or less per 1,000 carbon atoms.
An over-pressure relief device comprising: a reverse-acting rupture disc including a central bulged section having a concave face and a convex face , and an outer flange section in surrounding relationship to said bulged section , said bulged section including a laser-defined reversal initiation feature that controls the pressure to which said rupture disc must be exposed in order to initiate reversal of the concavity of said bulged section and defines a location on said bulged section at which reversal of the concavity thereof begins upon exposure to said pressure, said reversal initiation feature being a lased area located on said bulged section that has been subjected to an ablation operation in which the thickness of said bulged section has been reduced by the ablation of disc material therefrom and having a thickness that is less than the thickness of the bulged section surrounding said lased area , said lased area including a first lased portion and a second lased portion , said first and second portions being located within the same face of said central bulged section , said second lased portion having a depth that is greater than the depth of said first lased portion , at least part of said second lased portion being located within the margins of said first lased portion . a reverse-acting rupture disc including a central bulged section having a concave face and a convex face , and an outer flange section in surrounding relationship to said bulged section , said bulged section including a laser-defined reversal initiation feature that controls the pressure to which said rupture disc must be exposed in order to initiate reversal of the concavity of said bulged section and defines a location on said bulged section at which reversal of the concavity thereof begins upon exposure to said pressure, said reversal initiation feature being a lased area located on said bulged section that has been subjected to an ablation operation in which the thickness of said bulged section has been reduced by the ablation of disc material therefrom and having a thickness that is less than the thickness of the bulged section surrounding said lased area , said lased area including a first lased portion and a second lased portion , said first and second portions being located within the same face of said central bulged section , said second lased portion having a depth that is greater than the depth of said first lased portion , at least part of said second lased portion being located within the margins of said first lased portion .
An orthopedic joint system having an upper part and a lower part , which is mounted on the upper part such that it can be pivoted about a pivot pin , wherein the upper part and the lower part have arranged between them a hydraulic damper device , which has a piston which is mounted in a cylinder and has a piston rod , characterized in that the piston is mounted in a rotationally secured manner in the cylinder and that an insert , which can be adjusted via the piston rod and has a variable throttle gap , is arranged in the piston .
Polymer of Formula I: wherein: A is selected from unsaturated groups allowing the delocalization of electrons, for example, substituted or unsubstituted aryl and heteroaryl groups, and their fused or unfused polycyclic equivalents, preferably A being selected from the benzene, naphthalene, perylene, and biphenyl groups; R is a substituted or unsubstituted organic linking group selected from linear or branched C 2-6 alkylene, linear or branched C 2-6 alkyleneoxy, linear or branched C 2-6 alkyleneglycol, linear or branched C 2-6 alkyleneoxyC 2-6 alkylene, linear or branched poly(C 2-6 alkyleneglycol), C 6-12 arylene, C 3-12 cycloalkylene, C 5-12 heteroarylene, and C 3-12 heterocycloalkylene, preferably R being selected from the groups benzene, ethylene, propylene, polyethylene glycol), polypropylene glycol), and copolymers of ethylene glycol and propylene glycol; m represents the average number of sulfur atoms inserted into the disulfide bond of the polymer links and cannot be zero, i.e. m > 0, for example, 0 < m ≤ 8, or 1 ≤ m ≤ 6, or 1 ≤ m ≤ 4; and n represents the average number of units in the polymer, for example, n may be in the range of 2 to 500, or of 5 to 300. A is selected from unsaturated groups allowing the delocalization of electrons, for example, substituted or unsubstituted aryl and heteroaryl groups, and their fused or unfused polycyclic equivalents, preferably A being selected from the benzene, naphthalene, perylene, and biphenyl groups; R is a substituted or unsubstituted organic linking group selected from linear or branched C 2-6 alkylene, linear or branched C 2-6 alkyleneoxy, linear or branched C 2-6 alkyleneglycol, linear or branched C 2-6 alkyleneoxyC 2-6 alkylene, linear or branched poly(C 2-6 alkyleneglycol), C 6-12 arylene, C 3-12 cycloalkylene, C 5-12 heteroarylene, and C 3-12 heterocycloalkylene, preferably R being selected from the groups benzene, ethylene, propylene, polyethylene glycol), polypropylene glycol), and copolymers of ethylene glycol and propylene glycol; m represents the average number of sulfur atoms inserted into the disulfide bond of the polymer links and cannot be zero, i.e. m > 0, for example, 0 < m ≤ 8, or 1 ≤ m ≤ 6, or 1 ≤ m ≤ 4; and n represents the average number of units in the polymer, for example, n may be in the range of 2 to 500, or of 5 to 300.
A braking control apparatus for a vehicle, the vehicle being equipped with a brake device configured to control braking pressures of a rear-right wheel and a rear-left wheel independently of each other, wherein a control performed by the braking control apparatus includes performing right and left wheel independent control for controlling the braking pressures of the rear-right wheel and the rear-left wheel independently of each other such that a slip degree of each of the rear-right wheel and the rear-left wheel approaches a target slip degree as an average of slip degrees of a front-right wheel and a front-left wheel, characterized in that the braking control apparatus is configured to start the right and left wheel independent control when a deceleration of the vehicle is equal to or larger than a first predetermined value (Gth1) in a low-speed range of the vehicle, and start the right and left wheel independent control when the deceleration is equal to or larger than a second predetermined value (Gth2) that is smaller than the first predetermined value (Gth1) in a high-speed range, the high-speed range being higher range in speed than the low-speed range, and the right and left wheel independent control that is started in the high-speed range includes a braking pressure control process that increases the braking pressure of the rear wheel located on an outside during occurrence of deflection of the vehicle resulting from braking and that prohibits the braking pressure of the rear wheel located on an inside during occurrence of the deflection from being increased, when there is a demand to increase the braking pressures of both the rear-right wheel and the rear-left wheel . characterized in that the braking control apparatus is configured to start the right and left wheel independent control when a deceleration of the vehicle is equal to or larger than a first predetermined value (Gth1) in a low-speed range of the vehicle, and start the right and left wheel independent control when the deceleration is equal to or larger than a second predetermined value (Gth2) that is smaller than the first predetermined value (Gth1) in a high-speed range, the high-speed range being higher range in speed than the low-speed range, and
A shower facility which is, or can be, installed in a driver's cab of a commercial vehicle , wherein the facility comprises: a floor in the driver's cab , a tray , which is, or can be, installed on the floor of the driver's cab, and a water-impermeable bellows arrangement , which can be stretched out in the vertical direction and of which the lower opening is, or can be, arranged opposite a periphery of the tray in order for water which drains off within the bellows arrangement to be channelled into the tray, wherein at least the tray is, or can be, installed in a recess in the floor of the driver's cab . a floor in the driver's cab , a tray , which is, or can be, installed on the floor of the driver's cab, and a water-impermeable bellows arrangement , which can be stretched out in the vertical direction and of which the lower opening is, or can be, arranged opposite a periphery of the tray in order for water which drains off within the bellows arrangement to be channelled into the tray, wherein at least the tray is, or can be, installed in a recess in the floor of the driver's cab .
An electronic device, comprising a positioning system comprising a GNSS receiver , and a wireless communication system , the electronic device being configured to, during transportation of the electronic device to a destination , operate the positioning system to determine positions of the electronic device and operate the wireless communication system to transmit position data comprising one or more of the positions to a remote computer , wherein the electronic device is further configured to obtain, based on a first position (POS1) determined by the positioning system at a first time point (TIME1), an estimated remaining transportation time (TTA) to the destination , and determine, based on the estimated remaining transportation time (TTA), a second time point (TIME2) for operating the positioning system to determine a second position (POS2), the second time point (TIME2) being set to ensure that the electronic device does not arrive at the destination before the second time point (TIME2), wherein the electronic device further comprises a movement sensing system configured to generate sensor data representing movement of the electronic device, wherein the electronic device is further configured to obtain the sensor data from the movement sensing system after the first time point (TIME1), and process the sensor data to determine one or more movement parameters of the electronic device, characterized in that the electronic device is configured to evaluate the one or more movement parameters for determination of a transportation delay, determine a third time point (TIME3) as a combination of the transportation delay and the second time point (TIME2), and operate the positioning system to determine the second position (POS2) at the third time point (TIME3). wherein the electronic device is further configured to obtain, based on a first position (POS1) determined by the positioning system at a first time point (TIME1), an estimated remaining transportation time (TTA) to the destination , and determine, based on the estimated remaining transportation time (TTA), a second time point (TIME2) for operating the positioning system to determine a second position (POS2), the second time point (TIME2) being set to ensure that the electronic device does not arrive at the destination before the second time point (TIME2), wherein the electronic device further comprises a movement sensing system configured to generate sensor data representing movement of the electronic device, wherein the electronic device is further configured to obtain the sensor data from the movement sensing system after the first time point (TIME1), and process the sensor data to determine one or more movement parameters of the electronic device, characterized in that the electronic device is configured to evaluate the one or more movement parameters for determination of a transportation delay, determine a third time point (TIME3) as a combination of the transportation delay and the second time point (TIME2), and operate the positioning system to determine the second position (POS2) at the third time point (TIME3).