mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing a filled product bag of sterile fluid, the method comprising: providing a bag unit having multiple bladders , a stem fluidly connected to the multiple bladders , and a filter disposed in-line with the stem ; at least partially filling the multiple bladders with a fluid, wherein at least partially filling the multiple bladders includes passing the fluid through the filter and into the multiple bladders ; after filling, sealing the multiple bladders at a location between the multiple bladders and the filter ; performing an integrity test on the filter after sealing the multiple bladders ; and correlating an integrity of the contents of the filled multiple bladders to an integrity of the filter based on an outcome of the integrity test. providing a bag unit having multiple bladders , a stem fluidly connected to the multiple bladders , and a filter disposed in-line with the stem ; at least partially filling the multiple bladders with a fluid, wherein at least partially filling the multiple bladders includes passing the fluid through the filter and into the multiple bladders ; after filling, sealing the multiple bladders at a location between the multiple bladders and the filter ; performing an integrity test on the filter after sealing the multiple bladders ; and correlating an integrity of the contents of the filled multiple bladders to an integrity of the filter based on an outcome of the integrity test.
An electrosurgical generator , comprising: a power supply configured to output DC energy; a plurality of RF amplifiers coupled to the power supply, each of the plurality of RF amplifiers being configured to convert DC energy from the power supply into an RF waveform, thereby generating a plurality of RF waveforms ; a first output coupled to a first of the plurality of RF amplifiers, the first output for coupling to a first electrosurgical instrument, the first output for supplying a first of the plurality of RF waveforms to the first electrosurgical instrument; a second output coupled to a second of the plurality of RF amplifiers, the second output for coupling to a second electrosurgical instrument, the second output for supplying a second of the plurality of RF waveforms to the second electrosurgical instrument; further comprising a plurality of sensors coupled to the plurality of RF amplifiers, each of the plurality of sensors configured to measure at least one property of a corresponding RF waveform of the plurality of RF waveforms supplied by a corresponding RF amplifier of the plurality of RF amplifiers; and a controller coupled to the power supply, the plurality of RF amplifiers and the plurality of sensors and being configured to control the plurality of RF amplifiers based on the at least one property of the corresponding RF waveform to control the plurality of RF amplifiers to interdigitate the RF waveforms generated by the plurality of RF amplifiers such that the power draw of the RF amplifiers from the power supply is substantially constant. a power supply configured to output DC energy; a plurality of RF amplifiers coupled to the power supply, each of the plurality of RF amplifiers being configured to convert DC energy from the power supply into an RF waveform, thereby generating a plurality of RF waveforms ; a first output coupled to a first of the plurality of RF amplifiers, the first output for coupling to a first electrosurgical instrument, the first output for supplying a first of the plurality of RF waveforms to the first electrosurgical instrument; a second output coupled to a second of the plurality of RF amplifiers, the second output for coupling to a second electrosurgical instrument, the second output for supplying a second of the plurality of RF waveforms to the second electrosurgical instrument; further comprising a plurality of sensors coupled to the plurality of RF amplifiers, each of the plurality of sensors configured to measure at least one property of a corresponding RF waveform of the plurality of RF waveforms supplied by a corresponding RF amplifier of the plurality of RF amplifiers; and a controller coupled to the power supply, the plurality of RF amplifiers and the plurality of sensors and being configured to control the plurality of RF amplifiers based on the at least one property of the corresponding RF waveform to control the plurality of RF amplifiers to interdigitate the RF waveforms generated by the plurality of RF amplifiers such that the power draw of the RF amplifiers from the power supply is substantially constant.
Air-conditioning device for a motor vehicle, comprising an evaporator and at least two bypass circuits bypassing said evaporator allowing a circulation of air between a zone situated upstream of the evaporator and a zone situated downstream of the evaporator , a first of said bypass circuits being intended to supply a first part of said device and a second of said bypass circuits being intended to supply a second part of said device, at least one of the bypass circuits comprising an air flow rate control valve , said device further comprising at least one control member, allowing the position of the valve or valves to be controlled selectively, characterized in that said control member is configured to take account of a flow rate imbalance in the flow of air supplying each of said bypass circuits .
Partition wall for commercial vehicles, of the type comprising at least one fixed plate and a sliding door slidable with respect to said fixed plate , predisposed to separate the cockpit of a vehicle from the loading compartment, said sliding door being provided, along the upper edge and along the bottom edge, with a plurality of sliding wheels that are slidable respectively on an upper guide and on a lower guide associated with the structure of said vehicle, said sliding wheels having a grooved profile that is predisposed to be coupled with a corresponding rail of said guides having a conjugate profile, said sliding wheels having elastic features so as to compensate for the backlash existing in the coupling of said sliding wheels with said respective guides , said upper guide and said lower guide being connected with respective support profiles that are predisposed to be mounted on said structure of said vehicle characterized in that said support profiles are fixed to said at least one fixed plate , each said support profile comprising a base surface predisposed to be used for connection with said respective guide , having an opening that extends in a longitudinal direction of said profile shaping a channel predisposed to allow insertion of at least a portion of said guide or of at least a portion of said sliding wheels , said rail of each said guide being placed at said opening of said respective support profile to allow the coupling between said profile of said rail and said grooved profile of said sliding wheels .
A machine-vision-assisted welding system comprising: - welding equipment; - a first Time of Flight (ToF) camera (102a-d) operable to generate a three-dimensional depth map of a welding scene; - digital image processing circuitry operable to extract welding information from said 3D depth map; and - circuitry operable to control a function of said welding equipment based on said extracted welding information, characterized in that said welding equipment comprises arc welding equipment that forms an arc during a welding operation; that the machine-vision assisted welding system comprises at least a second ToF camera (102a-d), wherein said first ToF camera (102a-d) and said at least second ToF camera (102a-d) differ in one or more of: field of focus, mounting location, wavelength of light used, and targets viewed, that a light source of said first camera (102a-d) is configured to emit light whose spectrum comprises a peak that is centered at a first wavelength, wherein said first wavelength is selected such that a power of said peak, as measured at a particular pixel of an imager of said first ToF camera (102a-d) after reflection off of said welding scene, is at least a threshold amount above a power of light from said arc at said first wavelength, as measured at said particular pixel of said imager of said first ToF camera (102a-d), and that IR reflectors (306a-c) are mounted on the torch on the operator's clothing and/or on the weld fixture and that the ToF cameras (102a-d) and the IR reflectors ( 306a-c) have different matching wavelengths for different tools or activities. - welding equipment; - a first Time of Flight (ToF) camera (102a-d) operable to generate a three-dimensional depth map of a welding scene; - digital image processing circuitry operable to extract welding information from said 3D depth map; and - circuitry operable to control a function of said welding equipment based on said extracted welding information, said welding equipment comprises arc welding equipment that forms an arc during a welding operation; that the machine-vision assisted welding system comprises at least a second ToF camera (102a-d), wherein said first ToF camera (102a-d) and said at least second ToF camera (102a-d) differ in one or more of: field of focus, mounting location, wavelength of light used, and targets viewed, that a light source of said first camera (102a-d) is configured to emit light whose spectrum comprises a peak that is centered at a first wavelength, wherein said first wavelength is selected such that a power of said peak, as measured at a particular pixel of an imager of said first ToF camera (102a-d) after reflection off of said welding scene, is at least a threshold amount above a power of light from said arc at said first wavelength, as measured at said particular pixel of said imager of said first ToF camera (102a-d), and that IR reflectors (306a-c) are mounted on the torch on the operator's clothing and/or on the weld fixture and that the ToF cameras (102a-d) and the IR reflectors ( 306a-c) have different matching wavelengths for different tools or activities.
A method for controlling energy conversion processes in a vehicle dependent on a road user following behind, having the following steps: a. detecting current surroundings of the vehicle, b. recognising the road user following behind, and c. ascertaining a movement of the road user following behind, d. ascertaining whether a control of energy conversion processes which is already used and/or is still to be used is anticipated to correlate with the recognised movement of the road user following behind, e. deciding whether the control of the energy conversion process is applied dependent on the ascertained correlation with the recognised movement of the road user following behind, wherein the energy conversion processes comprise as measures for optimising energy gliding, coasting, freewheeling, activation of a recuperation means for recovery of braking energy, engine braking and/or activation of an automatic engine start/stop control of the vehicle. a. detecting current surroundings of the vehicle, b. recognising the road user following behind, and c. ascertaining a movement of the road user following behind, d. ascertaining whether a control of energy conversion processes which is already used and/or is still to be used is anticipated to correlate with the recognised movement of the road user following behind, e. deciding whether the control of the energy conversion process is applied dependent on the ascertained correlation with the recognised movement of the road user following behind, wherein the energy conversion processes comprise as measures for optimising energy gliding, coasting, freewheeling, activation of a recuperation means for recovery of braking energy, engine braking and/or activation of an automatic engine start/stop control of the vehicle.
An antireflection film comprising stacked in order a transparent base material, a first layer that is formed by curing a coating film containing an ionizing radiation curing material, a quaternary ammonium salt material, and a leveling material, and a second layer whose refractive index is lower than a refractive index of the first layer, the antireflection film comprising: a polyfunctional urethane (meth)acrylate compound as the ionizing radiation curing material, wherein the leveling material is a fluorine-based leveling material, wherein an amount of the leveling material is within a range of 0.05 to 5.0 parts by mass based on 100 parts by mass of a total of the ionizing radiation curing material, the quaternary ammonium salt material, and the leveling material, and wherein for a surface of the first layer before formation of the second layer, a micro-indentation hardness obtained when an indentation depth is 100 nm is within a range of 0.45 GPa to 1.0 GPa. a polyfunctional urethane (meth)acrylate compound as the ionizing radiation curing material, wherein the leveling material is a fluorine-based leveling material, wherein an amount of the leveling material is within a range of 0.05 to 5.0 parts by mass based on 100 parts by mass of a total of the ionizing radiation curing material, the quaternary ammonium salt material, and the leveling material, and wherein for a surface of the first layer before formation of the second layer, a micro-indentation hardness obtained when an indentation depth is 100 nm is within a range of 0.45 GPa to 1.0 GPa.
A pump assembly with a pump casing , with an impeller which is rotatably arranged in the pump casing , with an electrical drive motor which is connected to the impeller for the drive of this and which is selectively drivable in two rotation directions (A, B), as well as with a valve arrangement which is arranged in the pump casing and is designed in a manner such that it switches a flow path downstream of the impeller between two exits which are formed in the pump casing, in a manner depending on the rotation direction (A, B) of the impeller , wherein the valve arrangement comprises a first movable valve element at a first of the two exits and a second movable valve element at a second of the two exits , wherein the valve elements in an idle position are each located in a closed position, in which the first valve element at least partly closes the first exit , and the second valve element at least partly closes the second exit , and wherein the first valve element is movable into an opened position by way of a flow which caused by the impeller in its first rotation direction (A), and the second valve element is movable into an opened position by way of a flow which is caused by the impeller in its second rotation direction (B), characterised in that the valve elements each comprise an opening which permits a flow passage into the associated exit also in a closed position of this valve element .
System for monitoring fire alarm systems , having: - a plurality of fire alarm systems , wherein each fire alarm system has: • a fire alarm panel , • a plurality of fire alarm sensors (8-16) connected to the fire alarm panel , • an alarm indication unit for indicating an alarm to a control centre , and • at least one data memory containing component data; and - a central unit , wherein the central unit has: • a capture unit for capturing the component data relating to the fire alarm systems , • a display unit for displaying the component data, and • a checking unit for checking the correspondence between the component data and reference data; characterized in that : - the central unit also has a warning unit for outputting a warning on the basis of the check carried out by the checking unit , and - the component data are in the form of information relating to the respective fire alarm panel and/or the respective fire alarm sensors (8-16), specifically in the form of status information and/or maintenance information. - a plurality of fire alarm systems , wherein each fire alarm system has: • a fire alarm panel , • a plurality of fire alarm sensors (8-16) connected to the fire alarm panel , • an alarm indication unit for indicating an alarm to a control centre , and • at least one data memory containing component data; and • a fire alarm panel , • a plurality of fire alarm sensors (8-16) connected to the fire alarm panel , • an alarm indication unit for indicating an alarm to a control centre , and • at least one data memory containing component data; and - a central unit , wherein the central unit has: • a capture unit for capturing the component data relating to the fire alarm systems , • a display unit for displaying the component data, and • a checking unit for checking the correspondence between the component data and reference data; • a capture unit for capturing the component data relating to the fire alarm systems , • a display unit for displaying the component data, and • a checking unit for checking the correspondence between the component data and reference data; - the central unit also has a warning unit for outputting a warning on the basis of the check carried out by the checking unit , and - the component data are in the form of information relating to the respective fire alarm panel and/or the respective fire alarm sensors (8-16), specifically in the form of status information and/or maintenance information.
An imaging unit comprising: an optical element into which light is inputted; an imaging chip , into which light from the optical element is inputted, that images a subject; a substrate on which the imaging chip is arranged; a surrounding portion that is arranged outward from the imaging chip in the substrate , and includes a first member that is arranged between the optical element and the substrate and a second member that protrudes from the first member in an outside direction of the optical element , the first member including at least resin material and the second member including at least a resin and a metal material, wherein the surrounding portion includes an attaching portion that connects the second member to another structure that is arranged frontward from the optical element , and the thickness of the second member is less than the thickness of the first member in a light incident direction from the optical element toward the imaging chip . an optical element into which light is inputted; an imaging chip , into which light from the optical element is inputted, that images a subject; a substrate on which the imaging chip is arranged; a surrounding portion that is arranged outward from the imaging chip in the substrate , and includes a first member that is arranged between the optical element and the substrate and a second member that protrudes from the first member in an outside direction of the optical element , the first member including at least resin material and the second member including at least a resin and a metal material, wherein the surrounding portion includes an attaching portion that connects the second member to another structure that is arranged frontward from the optical element , and the thickness of the second member is less than the thickness of the first member in a light incident direction from the optical element toward the imaging chip .
Method for renovating a line conducting a liquid or gaseous medium, where a first flexible lining tube formed from overlap-wound fibre tapes saturated with a curable liquid reactive resin are drawn into the line , the flexible lining tube is expanded by introducing compressed air and the reactive resin is hardened, characterized in that after the hardening of the reactive resin a second flexible lining tube is introduced by inversion-insertion into the hardened first flexible lining tube , the said second flexible lining tube comprising a circumferentially continuous internal film ply and, laminated onto the said ply, a nonwoven ply saturated with a further liquid reactive resin, where the second flexible lining tube is expanded and the further reactive resin is hardened.
A checkout stand comprising: a housing including a first and a second end ; a bagging station at the second end ; a conveyor for transporting items from the first end to a base portion located between the conveyor and the bagging station at the second end , wherein the conveyor comprises a first section for conveying the items from the first end and a second section for conveying the items to the base portion ; a first tower portion on the base portion ; and a second tower portion on the base portion separated from the first tower portion by a gap; wherein the base portion and the first and second tower portions form a generally U-shaped housing for barcode reader modules of a barcode reader for scanning the items before the items reach the bagging station ; and wherein the first tower portion houses a second barcode reader module mounted behind a first generally vertical aperture , and the second tower portion houses a third barcode reader module facing the second barcode reader module and mounted behind a second generally vertical aperture ; and characterised in that the base portion houses a first barcode reader module mounted behind a generally horizontal aperture which is substantially flush with the second section of the conveyor . a housing including a first and a second end ; a bagging station at the second end ; a conveyor for transporting items from the first end to a base portion located between the conveyor and the bagging station at the second end , wherein the conveyor comprises a first section for conveying the items from the first end and a second section for conveying the items to the base portion ; a first tower portion on the base portion ; and a second tower portion on the base portion separated from the first tower portion by a gap; wherein the base portion and the first and second tower portions form a generally U-shaped housing for barcode reader modules of a barcode reader for scanning the items before the items reach the bagging station ;
Component for mounting on an agricultural machine, in particular a tool or component of a tool arrangement for soil and/or grassland cultivation and/or harvesting, wherein a sensor system is provided which comprises one or more sensor devices designed to detect a state of wear, in particular a state of abrasion, of the component , wherein each sensor device of the sensor system is arranged in a preferably elongate cavity formed in the component , characterized in that the component has an anti-wear coating and at least one sensor device of the sensor system extends up to the anti-wear coating or up to a point which is at the distance of at most 2 cm, preferably at most 1 cm, particularly preferably at most 0.5 cm, from the anti-wear coating .
A device for cleaning a tip of a rotary kiln burner consisting of a support tube having an axis X intended to pass through said burner and characterized in that the support tube comprises a metal cable connected at one of its ends to a scraper and at the other end to a system for positioning and holding the position of the scraper , in that the scraper is articulated on the support tube between a first position aligned with the axis X in the extension of the support tube and a second position perpendicular to the axis X, in that the scraper has a beveled portion on its profile and in that the support tube is connected to a means for rotating the entire device, the cleaning device being intended to be introduced into the burner until the scraper exits completely from said burner on the kiln side.