mhurhangee/patent-ind-claim-en huggingface dataset:
An immunoconjugate which binds to FOLR1 polypeptide for use in the treatment of a FOLR1-expressing cancer, wherein the immunoconjugate comprises a maytansinoid and a FOLR1 binding molecule, wherein the FOLR1 binding molecule is an antibody or antigen-binding fragment thereof that comprises the sequences of SEQ ID NOs: 6 to 10 and the sequence of SEQ ID NO: 12, and wherein the immunoconjugate is administered at a dose of 6 milligrams (mg) per kilogram (kg) of adjusted ideal body weight (AIBW).
Method for cooking a ham comprising the following steps: - inserting the ham to be cooked into a flexible and deformable casing made of plastics for foodstuffs obtained by means of thermoforming; - sealing the casing by welding on the casing a flexible and deformable closing sheet made of plastics for foodstuffs obtained by means of thermoforming; - creating a vacuum inside said casing during said sealing; - inserting the casing with inside the ham into a cooking device in which the ham is cooked, characterized in that , before said sealing, inside the casing an elastic pressure device (6; 14; 30) is inserted, such that after sealing of the casing , said elastic pressure device (6; 14; 30) is interposed between the ham and said closing sheet , said elastic pressure device (6; 14; 30) comprising a first plate (9; 15) and a second plate between which at least one elastic element (12; 17) is interposed that is fixed to at least one of said first plate (9; 15) and said second plate (11; 16), wherein said at least one elastic element consists of a coil spring, or a Belleville washer, or a gas spring, or a flat spring having a curved shape, with a first convex side and a second concave side , opposite the first side , wherein between said first plate (9; 15) and said second plate (11; 16) a space (S; S') is defined in which liquids can collect that exit the ham during cooking, wherein said elastic pressure device (6; 14; 30) exerts a pressure on said ham during said cooking, wherein the dimensions of said space (S; S') may be increased or reduced. - inserting the ham to be cooked into a flexible and deformable casing made of plastics for foodstuffs obtained by means of thermoforming; - sealing the casing by welding on the casing a flexible and deformable closing sheet made of plastics for foodstuffs obtained by means of thermoforming; - creating a vacuum inside said casing during said sealing; - inserting the casing with inside the ham into a cooking device in which the ham is cooked,
A suspended transport vehicle configured to travel along a track supported by a ceiling (C) and to transfer an article to a shelf of a rack installed on a floor (F), the suspended transport vehicle comprising: a traveling part including a wheel configured to travel along the track and a driving part configured to drive the wheel; a ceiling-side member suspended downwards from the traveling part and including a transferring part configured to transfer the article to the shelf of the rack; a floor-side member provided so as to be capable of relative movement with respect to the ceiling-side member and including a contacting part in contact with the floor or a member installed on the floor; and a distance detecting part configured to detect a relative distance between the ceiling-side member and the floor-side member . a traveling part including a wheel configured to travel along the track and a driving part configured to drive the wheel; a ceiling-side member suspended downwards from the traveling part and including a transferring part configured to transfer the article to the shelf of the rack; a floor-side member provided so as to be capable of relative movement with respect to the ceiling-side member and including a contacting part in contact with the floor or a member installed on the floor; and a distance detecting part configured to detect a relative distance between the ceiling-side member and the floor-side member .
A hybrid tiltrotor drive system , comprising: two propulsion systems , each propulsion system comprising: an engine coupled to a proprotor ; an electrically controlled supplemental driver coupled to the proprotor ; and a gearbox , the engine and electrically controlled supplemental driver coupled to the proprotor through the gearbox ; means for detecting the rotational speeds; an electronic control system configured to operate the supplemental driver of each propulsion system in response to measured or calculated rotational speeds, wherein the electronic control system is configured during a flight maneuver to actuate the supplemental driver of one of the propulsion systems to increase or decrease the speed of the associated proprotor , supplementing the associated engine to account for a lag time between the engines of the propulsion systems and maintain the proprotors of the propulsion systems at an equivalent rotational speed. two propulsion systems , each propulsion system comprising: an engine coupled to a proprotor ; an electrically controlled supplemental driver coupled to the proprotor ; and a gearbox , the engine and electrically controlled supplemental driver coupled to the proprotor through the gearbox ; means for detecting the rotational speeds; an engine coupled to a proprotor ; an electrically controlled supplemental driver coupled to the proprotor ; and a gearbox , the engine and electrically controlled supplemental driver coupled to the proprotor through the gearbox ; means for detecting the rotational speeds; an electronic control system configured to operate the supplemental driver of each propulsion system in response to measured or calculated rotational speeds, wherein the electronic control system is configured during a flight maneuver to actuate the supplemental driver of one of the propulsion systems to increase or decrease the speed of the associated proprotor , supplementing the associated engine to account for a lag time between the engines of the propulsion systems and maintain the proprotors of the propulsion systems at an equivalent rotational speed.
A system for gas treatment of a cell implant, the system comprising: (a) a gas generating subsystem, the gas generating subsystem comprising (i) an electrochemical device , the electrochemical device being configured to output a first gas from a first outlet and a second gas from a second outlet, and (b) a cell containment subsystem , the cell containment subsystem comprising an implantable cell container, the implantable cell container comprising a first chamber configured to receive cells, characterized in that the system further comprises (c) a first gas conduit for delivering the first gas from the electrochemical device to the implantable cell container, the first gas conduit comprising a first end and a second end, the first end of the first gas conduit being fluidly coupled to the first outlet of the electrochemical device , the second end of the first gas conduit being configured to deliver the first gas to the first chamber of the implantable cell container, and (d) a second gas conduit for delivering the second gas from the electrochemical device to the implantable cell container, the second gas conduit comprising a first end and a second end, the first end of the second gas conduit being fluidly coupled to the second outlet of the electrochemical device , the second end of the second gas conduit being configured to deliver the second gas to the first chamber of the implantable cell container. (a) a gas generating subsystem, the gas generating subsystem comprising (i) an electrochemical device , the electrochemical device being configured to output a first gas from a first outlet and a second gas from a second outlet, and (b) a cell containment subsystem , the cell containment subsystem comprising an implantable cell container, the implantable cell container comprising a first chamber configured to receive cells, characterized in that the system further comprises (c) a first gas conduit for delivering the first gas from the electrochemical device to the implantable cell container, the first gas conduit comprising a first end and a second end, the first end of the first gas conduit being fluidly coupled to the first outlet of the electrochemical device , the second end of the first gas conduit being configured to deliver the first gas to the first chamber of the implantable cell container, and (d) a second gas conduit for delivering the second gas from the electrochemical device to the implantable cell container, the second gas conduit comprising a first end and a second end, the first end of the second gas conduit being fluidly coupled to the second outlet of the electrochemical device , the second end of the second gas conduit being configured to deliver the second gas to the first chamber of the implantable cell container.
A polymeric composition comprising: a) a (meth)acrylic polymer AP1 b) a polymeric silicone particle PP1 having a weight average particle diameter between 1μm and 9um c) a polymeric (meth)acrylic particle PP2 having a weight average particle diameter between 35um and 90um, characterized that the particle PP1 represents between 0.05wt% and 2wt% of the composition comprising the components a), b) and c) and that the particle PP2 represents between 5wt% and 20wt% of the composition comprising the components a), b) and c) and in that the ratio by weight of polymeric (meth)acrylic particle PP2 to silicone particle PP1 is at least 10/1 and in that the weight average particle diameter of polymeric (meth)acrylic particle PP2 is at least ten times than the weight average particle diameter of silicone particles PP1. a) a (meth)acrylic polymer AP1 b) a polymeric silicone particle PP1 having a weight average particle diameter between 1μm and 9um c) a polymeric (meth)acrylic particle PP2 having a weight average particle diameter between 35um and 90um,
Lidar scanning device for use in a motor vehicle , wherein the lidar scanning device comprises the following: - a lidar sensor with a predetermined scanning field ; - wherein the lidar sensor is configured for determining the distance of an object within the scanning field ; - a pivoting device for changing an orientation of the scanning field of the lidar sensor depending on a driving situation of the motor vehicle , - wherein the scanning field is changed about a transverse axis of the motor vehicle and the scanning field is changed in the direction of the ground at a low driving speed and in the direction of the horizon at a high driving speed, - wherein the orientation of the lidar sensor extends in the direction of travel of the motor vehicle . - a lidar sensor with a predetermined scanning field ; - wherein the lidar sensor is configured for determining the distance of an object within the scanning field ; - a pivoting device for changing an orientation of the scanning field of the lidar sensor depending on a driving situation of the motor vehicle , - wherein the scanning field is changed about a transverse axis of the motor vehicle and the scanning field is changed in the direction of the ground at a low driving speed and in the direction of the horizon at a high driving speed, - wherein the orientation of the lidar sensor extends in the direction of travel of the motor vehicle .
A device for detecting critical stations in a planned multi-station scan of a patient, comprising: - an input unit ; - a processing unit ; and - an output unit ; wherein the input unit is configured to receive image data taken from the patient lying on a table before start of the multi-station scan with a magnetic resonance imaging system, wherein the image data comprises an optical image captured by an optical camera and wherein the stations of the multi-station scan are defined manually based on a user-supplied input or defined automatically based on anatomical landmarks detected on the optical image; wherein the processing unit is configured to analyze the received image data of the patient to identify a spatial location of a lung of the patient, to align the spatial location of the lung of the patient with the planned multi-station scan to identify critical stations that are potentially affected by a respiratory motion of the patient, and to assign breath-hold to the identified critical stations; and wherein the output unit is configured to provide the identified critical stations. - an input unit ; - a processing unit ; and - an output unit ; wherein the input unit is configured to receive image data taken from the patient lying on a table before start of the multi-station scan with a magnetic resonance imaging system, wherein the image data comprises an optical image captured by an optical camera and wherein the stations of the multi-station scan are defined manually based on a user-supplied input or defined automatically based on anatomical landmarks detected on the optical image; wherein the processing unit is configured to analyze the received image data of the patient to identify a spatial location of a lung of the patient, to align the spatial location of the lung of the patient with the planned multi-station scan to identify critical stations that are potentially affected by a respiratory motion of the patient, and to assign breath-hold to the identified critical stations; and wherein the output unit is configured to provide the identified critical stations.
A method for operating an illumination device of a motor vehicle , wherein the illumination device comprises a plurality of semiconductor light sources and a control device for controlling the semiconductor light sources and is configured to illuminate a front area of the motor vehicle with a predetermined first illumination intensity distribution (B1; B2; B3; B4) at least in a predetermined near range (D), wherein the illumination device is configured to provide a low beam, which extends in a vehicle longitudinal direction (L) as far as or farther than the near range (D), wherein the control device automatically detects a parameter (P1; P2; P3; P4) and changes the first illumination intensity distribution (B1; B2; B3; B4) at least in the near range (D) into at least one second illumination intensity distribution (B1; B2; B3; B4) depending on the detected parameter (P1; P2; P3; P4) by controlling the semiconductor light sources, wherein - the parameter (P1; P2; P3; P4) relates to a state and/or a change of state of at least one component of the motor vehicle different from the illumination device , - the component represents a driver assistance system of the motor vehicle , characterized in that an activation and/or deactivation of the driver assistance system is detected as the parameter (P1; P2; P3; P4), - wherein the driver assistance system represents a lane keeping assistant, and - wherein a light image, which is generated by the change of the illumination intensity distribution, specifically highlights areas in the form of a lateral emphasis of the marking stripes. - the parameter (P1; P2; P3; P4) relates to a state and/or a change of state of at least one component of the motor vehicle different from the illumination device , - the component represents a driver assistance system of the motor vehicle , characterized in that an activation and/or deactivation of the driver assistance system is detected as the parameter (P1; P2; P3; P4), - wherein the driver assistance system represents a lane keeping assistant, and - wherein a light image, which is generated by the change of the illumination intensity distribution, specifically highlights areas in the form of a lateral emphasis of the marking stripes.
A tire including a tread wear indicator, the tire comprising: a pair of sidewalls , each sidewall extending from a respective bead area to a tread , the tread including at least one or a plurality of main circumferential grooves , said one or more main circumferential grooves being disposed in and/or proximate an axial center area of the tread ; and at least one primary tread wear indicator being disposed in at least one of the one or more main circumferential grooves ; characterized in that the tire further comprises at least one relatively shallow groove being formed in the tread , each shallow groove having a depth relative to the surface of the tread being less than a depth of each of the one or more main circumferential grooves ; and at least one secondary tread wear indicator being disposed in at least one of the at least one shallow grooves . a pair of sidewalls , each sidewall extending from a respective bead area to a tread , the tread including at least one or a plurality of main circumferential grooves , said one or more main circumferential grooves being disposed in and/or proximate an axial center area of the tread ; and at least one primary tread wear indicator being disposed in at least one of the one or more main circumferential grooves ; characterized in that the tire further comprises at least one relatively shallow groove being formed in the tread , each shallow groove having a depth relative to the surface of the tread being less than a depth of each of the one or more main circumferential grooves ; and at least one secondary tread wear indicator being disposed in at least one of the at least one shallow grooves .
A system for charging an onboard battery of a medical device prior to use of the medical device, the system comprising: a package defining a first cavity and a second cavity spaced apart from the first cavity; a medical device disposed within the first cavity of the package, the medical device including an onboard rechargeable battery disposed within the medical device; and a power source disposed within the second cavity of the package and capable of charging the onboard battery of the medical device prior to use of the medical device; the system capable of being subjected to a sterilization process with the power source disposed within the second cavity, wherein the power source comprises a printed battery, and the printed battery is separately printed and subsequently disposed within the second internal cavity or the printed battery is printed onto a surface of the second cavity. a package defining a first cavity and a second cavity spaced apart from the first cavity; a medical device disposed within the first cavity of the package, the medical device including an onboard rechargeable battery disposed within the medical device; and a power source disposed within the second cavity of the package and capable of charging the onboard battery of the medical device prior to use of the medical device; the system capable of being subjected to a sterilization process with the power source disposed within the second cavity, wherein the power source comprises a printed battery, and the printed battery is separately printed and subsequently disposed within the second internal cavity or the printed battery is printed onto a surface of the second cavity.
Integrated optical component configured to ensure a propagation of a light beam (F) between a first so-called internal light port and a second so-called external light port , the light beam (F) having an optical axis, a first surface (S 1 ) taken transversally to the optical axis of the beam (F) taken at the first light port , and a second surface (S') taken transversally to the optical axis of the beam (F) taken at the second light port , such that the second surface (S') is of strictly greater size, and preferably at least three times greater than the first surface (S 1 ), said integrated optical component comprising a base optical component comprising said internal light port , the base optical component having a first face called lower face, and a second face called upper face, opposite the lower face , the internal light port being configured to emit or receive the light beam (F) respectively divergently or convergently, along a path passing through the upper face of the base optical component , the integrated optical component further comprises a transparent layer disposed on the upper face of the base optical component , said transparent layer having a third face facing and parallel to the upper face of the base optical component , said transparent layer comprising the external light port at said third face , and in that the transparent layer comprises a flat mirror located at the third face and rotated facing the upper face of the base optical component , and the base optical component comprises a convergent mirror rotated facing the third face of the transparent layer , said flat and convergent mirrors being arranged, such that the light beam (F) is propagated between the internal light port and the external light port by passing through the transparent layer by reflection on the flat mirror and by reflection on the convergent mirror . the base optical component having a first face called lower face, and a second face called upper face, opposite the lower face , the internal light port being configured to emit or receive the light beam (F) respectively divergently or convergently, along a path passing through the upper face of the base optical component , the integrated optical component further comprises a transparent layer disposed on the upper face of the base optical component , said transparent layer having a third face facing and parallel to the upper face of the base optical component , said transparent layer comprising the external light port at said third face , and in that the transparent layer comprises a flat mirror located at the third face and rotated facing the upper face of the base optical component , and the base optical component comprises a convergent mirror rotated facing the third face of the transparent layer , said flat and convergent mirrors being arranged, such that the light beam (F) is propagated between the internal light port and the external light port by passing through the transparent layer by reflection on the flat mirror and by reflection on the convergent mirror .