mhurhangee/patent-ind-claim-en huggingface dataset:
A continuous method for manufacturing blown films with simultaneous coextrusion of longitudinal reinforcement strips or coatings on the manufactured film and subsequent steps of perforating the film and correspondingly packaging it in lengths or masses predefined according to a purchase order, by means of a combined system (1, L) which includes means for implementing a dedicated management software, wherein said combined system is configured to couple in sequence a system for manufacturing the blown polyethylene film with a system (L) for manufacturing said longitudinal reinforcement strips or coatings by means of coextrusion, whereby the method comprises the following sequential steps: - mixing polyethylene polymers; - homogenizing and creating the molten material by means of worm screws; - manufacturing the polyethylene bubble by insufflating cold air; - controlling the thickness of the bubble; - molding and correspondingly applying two longitudinal reinforcement strips to the side edges of the film , simultaneously tensioning the plastic film by means of dandy rolls or load cells; - immediately calendering the reinforcement strips thus created to calibrate the nominal thickness thereof; - cooling down the reinforcement strips by immersing the reinforced film in tanks containing cold water or by means of heat exchange on cold metal rolls or by means of cold air jets; - perforating the side reinforcement strips of the film so that it may be anchored by means of strings; - further tensioning the thus-perforated film ; - winding the film on a collecting coil or folding and packaging it in a length which is predetermined at the purchase order, in specific containers with a corresponding reliable codified labeling of the entire manufacturing process of the film . - mixing polyethylene polymers; - homogenizing and creating the molten material by means of worm screws; - manufacturing the polyethylene bubble by insufflating cold air; - controlling the thickness of the bubble; - molding and correspondingly applying two longitudinal reinforcement strips to the side edges of the film , simultaneously tensioning the plastic film by means of dandy rolls or load cells; - immediately calendering the reinforcement strips thus created to calibrate the nominal thickness thereof; - cooling down the reinforcement strips by immersing the reinforced film in tanks containing cold water or by means of heat exchange on cold metal rolls or by means of cold air jets; - perforating the side reinforcement strips of the film so that it may be anchored by means of strings; - further tensioning the thus-perforated film ; - winding the film on a collecting coil or folding and packaging it in a length which is predetermined at the purchase order, in specific containers with a corresponding reliable codified labeling of the entire manufacturing process of the film .
A method of using a magnetron sputtering apparatus , the magnetron sputtering apparatus comprising a target , a gas distribution system , and a vacuum chamber within which a controlled environment is established, the target comprising one or more sputterable materials, wherein the target includes a sputtering zone that extends longitudinally along a longitudinal axis, wherein the sputtering zone is a racetrack-shaped sputtering zone comprising a straightaway area sandwiched between a first turnaround area and a second turnaround area , wherein the gas distribution system comprises a plurality of gas distribution members, wherein the plurality of gas distribution members includes a first gas distribution member and a second gas distribution member , wherein the first gas distribution member is insulated from the second gas distribution member , the first gas distribution member comprising an anodic gas distribution member, the second gas distribution member comprising either an anodic gas distribution member or a non-anodic gas distribution member, the method comprising: operating the first gas distribution member to supply gas to either the first turnaround area or the second turnaround area and operating the second gas distribution member to supply gas to the straightaway area ; and operating the magnetron sputtering apparatus such that the first gas distribution member receives a first voltage and the second gas distribution member receives no voltage or a second voltage, the first voltage being higher than the no voltage or the second voltage such that the first voltage reduces a sputtering rate of the first turnaround area or the second turnaround area relative to a sputtering rate of the straightaway. operating the first gas distribution member to supply gas to either the first turnaround area or the second turnaround area and operating the second gas distribution member to supply gas to the straightaway area ; and operating the magnetron sputtering apparatus such that the first gas distribution member receives a first voltage and the second gas distribution member receives no voltage or a second voltage, the first voltage being higher than the no voltage or the second voltage such that the first voltage reduces a sputtering rate of the first turnaround area or the second turnaround area relative to a sputtering rate of the straightaway.
Method of dimensioning a cargo while being held at a charging extremity of a vehicle , the method comprising the following steps: • obtaining (S110) a three-dimensional model data comprising a set of points representing surfaces of the vehicle transporting the cargo ; • determining (S120), using the three-dimensional model data, the position of a point of reference (P R ) of a first wheel of the vehicle; • obtaining (S130) the position of a split point relatively to the position of the point of reference (P R ) of the first wheel; • determining (S140) a driving direction of the vehicle; • determining (S150) the splitting plane (CC'C") passing through the split point and being perpendicular to the driving direction, and determining a three-dimensional model data of the cargo by subtracting, from the three-dimensional model data of the vehicle transporting the cargo , the points, amongst the set of points, positioned on the side of the splitting plane opposite to the side of the splitting plane comprising the point of reference of the first wheel; • determining (S160) the volume of the three-dimensional model data of the cargo. • obtaining (S110) a three-dimensional model data comprising a set of points representing surfaces of the vehicle transporting the cargo ; • determining (S120), using the three-dimensional model data, the position of a point of reference (P R ) of a first wheel of the vehicle; • obtaining (S130) the position of a split point relatively to the position of the point of reference (P R ) of the first wheel; • determining (S140) a driving direction of the vehicle; • determining (S150) the splitting plane (CC'C") passing through the split point and being perpendicular to the driving direction, and determining a three-dimensional model data of the cargo by subtracting, from the three-dimensional model data of the vehicle transporting the cargo , the points, amongst the set of points, positioned on the side of the splitting plane opposite to the side of the splitting plane comprising the point of reference of the first wheel; • determining (S160) the volume of the three-dimensional model data of the cargo.
An isolated pentameric IgM antibody comprising five identical bivalent binding units and a J chain or a fragment or variant of a J chain, wherein each binding unit comprises two IgM heavy chain constant regions, each associated with an antigen-binding domain, wherein the IgM heavy chain constant regions each comprise a Cμ1 domain, a Cμ2 domain, a Cμ3 domain, and a Cμ4-tp domain; wherein at least three of the antigen-binding domains of the antibody specifically and agonistically bind to a tumor necrosis factor (TNF) superfamily receptor protein; wherein the antibody can cross-link at least three identical TNF superfamily receptor proteins expressed on the surface of a cell, thereby activating signal transduction in the cell; and wherein the antibody can activate TNF superfamily receptor-mediated signal transduction in a TNF receptor superfamily-expressing cell at a higher potency than an equivalent amount of a bivalent IgG1 antibody having the same antigen-binding domains, which also specifically binds to and agonizes the same TNF superfamily receptor protein.
An automatic analysis apparatus that analyzes a sample, the automatic analysis apparatus comprising: at least one analysis unit adapted to analyze the sample; a transport unit adapted to hold a plurality of sample containers housing the samples and that supplies the sample containers to the analysis unit; a display device adapted to display information on maintenance of the analysis unit and maintenance of the transport unit; and a control unit adapted to control an operation of the analysis unit and an operation of the transport unit, and to cause the display device to display information on maintenance, characterized in that the control unit is adapted to cause the display device to display a guide screen having a status display region that displays a device state of each unit, a remaining time/count information display region that displays a remaining time until termination or a number of repetitive operations of the maintenance of each unit, and a guidance information region in which maintenance guidance for the analysis unit and the transport unit are arranged independently of each other in the same screen, wherein the control unit is further adapted to cause the guide screen to display a next button and a stop button for each unit, the next button allowing the operator to instruct the control unit to transit to a next step of a maintenance operation of the corresponding unit and the stop button allowing the operator to instruct the control unit to interrupt the maintenance operation of the corresponding unit. at least one analysis unit adapted to analyze the sample; a transport unit adapted to hold a plurality of sample containers housing the samples and that supplies the sample containers to the analysis unit; a display device adapted to display information on maintenance of the analysis unit and maintenance of the transport unit; and a control unit adapted to control an operation of the analysis unit and an operation of the transport unit, and to cause the display device to display information on maintenance, characterized in that the control unit is adapted to cause the display device to display a guide screen having a status display region that displays a device state of each unit, a remaining time/count information display region that displays a remaining time until termination or a number of repetitive operations of the maintenance of each unit, and a guidance information region in which maintenance guidance for the analysis unit and the transport unit are arranged independently of each other in the same screen, wherein the control unit is further adapted to cause the guide screen to display a next button and a stop button for each unit, the next button allowing the operator to instruct the control unit to transit to a next step of a maintenance operation of the corresponding unit and the stop button allowing the operator to instruct the control unit to interrupt the maintenance operation of the corresponding unit.
A intracardiac device placement system comprising: an intracardiac device comprising a pump and a cannula (106; 606; 706; 806), the pump having a pump housing , a rotor, and an opening positioned proximal of the pump housing , the cannula (106; 606; 706; 806) having a proximal end that interfaces with the distal end of the pump housing and a distal end with at least one distal opening , the pump being configured to be operated by a motor; an elongate catheter (114; 314; 414; 514; 614; 714; 814) extending proximal of the pump housing ; a sleeve (100; 300; 400; 500; 600; 700; 800; 900) configured to be removably disposed over a portion of the pump and covering at least one of the distal openings and the proximal openings ; and characterised by an introducer comprising a tubular section with a hemostasis valve , the introducer configured to introduce the pump and the sleeve (100; 300; 400; 500; 600; 700; 800; 900) into patient vasculature while preventing the sleeve (100; 300; 400; 500; 600; 700; 800; 900) from wholly passing through the proximal hemostasis valve . an intracardiac device comprising a pump and a cannula (106; 606; 706; 806), the pump having a pump housing , a rotor, and an opening positioned proximal of the pump housing , the cannula (106; 606; 706; 806) having a proximal end that interfaces with the distal end of the pump housing and a distal end with at least one distal opening , the pump being configured to be operated by a motor; an elongate catheter (114; 314; 414; 514; 614; 714; 814) extending proximal of the pump housing ; a sleeve (100; 300; 400; 500; 600; 700; 800; 900) configured to be removably disposed over a portion of the pump and covering at least one of the distal openings and the proximal openings ; and characterised by an introducer comprising a tubular section with a hemostasis valve , the introducer configured to introduce the pump and the sleeve (100; 300; 400; 500; 600; 700; 800; 900) into patient vasculature while preventing the sleeve (100; 300; 400; 500; 600; 700; 800; 900) from wholly passing through the proximal hemostasis valve .
Method for the preparation of polyoligo(alkylene glycol) isocyanopeptide(s) comprising the steps of functionalizing an isocyanopeptide with oligo-(alkylene glycol) side chains, having below 10 alkylene glycol units, and subsequently polymerizing the oligo-alkylene glycol functionalized isocyanopeptides in an organic solvent in the presence of a nickel(II)catalyst, whereby the functionalized isocyanopeptides are alkylene glycol substituted isocyanopeptides with a peptidic motif substituted at the C-terminal with the oligo (alkylene glycol) chain obtained by a process wherein an amino-acid residue is coupled to an (alkylene) glycol chain, followed by sequential peptidic coupling to introduce the desired number of amino acid substituents, further followed by formylation of the N-terminus of the peptidic segment and subsequent dehydration to give said oligo-alkylene glycol functionalized isocyanopeptide.
A watch, comprising: a case ; a first spring bar support portion and a second spring bar support portion which are provided at one end of the case ; a spring bar supported by the first spring bar support portion and the second spring bar support portion ; a cover member into which the spring bar is inserted and which is disposed between the first spring bar support portion and the second spring bar support portion ; and a band disposed between the cover member and the case , characterized in that : the cover member has a cylindrical shape and is rotatable. a case ; a first spring bar support portion and a second spring bar support portion which are provided at one end of the case ; a spring bar supported by the first spring bar support portion and the second spring bar support portion ; a cover member into which the spring bar is inserted and which is disposed between the first spring bar support portion and the second spring bar support portion ; and a band disposed between the cover member and the case , characterized in that : the cover member has a cylindrical shape and is rotatable.
A pane with at least one electrical connection element, comprising: - a substrate , - an electrically conductive structure on a region of the substrate , - a layer of a leadfree solder material on a region of the electrically conductive structure , and - a connection element on the solder material , wherein the connection element contains a chromium-containing steel with a proportion of chromium greater than or equal to 10.5 wt.-% and a coefficient of thermal expansion of 9 x 10- 6 /°C to 13 x 10 -6 /°C, - the connection element contains a first and a second foot region , a first and a second transition region , and a bridge region between the first and second transition region , - a first and a second contact surface are located on the bottom of the first and second foot regions , - the first and second contact surface and the surfaces of the first and second transition regions facing the substrate are connected to the electrically conductive structure by the solder material , and - the angle between the surface of the substrate and each of the tangent planes of the surfaces of the transition regions facing the substrate is < 90°, - wherein a cavity that is delimited by the electrically conductive structure , the transition regions , and the bridge region is completely or not completely filled with solder material. - a substrate , - an electrically conductive structure on a region of the substrate , - a layer of a leadfree solder material on a region of the electrically conductive structure , and - a connection element on the solder material , wherein the connection element contains a chromium-containing steel with a proportion of chromium greater than or equal to 10.5 wt.-% and a coefficient of thermal expansion of 9 x 10- 6 /°C to 13 x 10 -6 /°C, - the connection element contains a first and a second foot region , a first and a second transition region , and a bridge region between the first and second transition region , - a first and a second contact surface are located on the bottom of the first and second foot regions , - the first and second contact surface and the surfaces of the first and second transition regions facing the substrate are connected to the electrically conductive structure by the solder material , and - the angle between the surface of the substrate and each of the tangent planes of the surfaces of the transition regions facing the substrate is < 90°, - wherein a cavity that is delimited by the electrically conductive structure , the transition regions , and the bridge region is completely or not completely filled with solder material.
Transmission with a transmission actuator for setting at least one shifted position in the transmission, which has at least one transmission shaft , wherein the shifted position is embodied by a translation stage, wherein the transmission actuator is configured to perform an actuating movement in an actuating direction in order to set the at least one shifted position, wherein a characteristic orientation direction of the transmission actuator is not oriented parallel to the transmission shaft axis of the at least one transmission shaft , wherein the characteristic orientation direction is the actuating direction , wherein the transmission has two different translation stages which are configured by gear stages and have different outside diameters, characterized in that the actuating direction is arranged substantially parallel to a tangent to the outer contour of the two translation stages, wherein the two translation stages are arranged on the same transmission shaft . the shifted position is embodied by a translation stage, wherein the transmission actuator is configured to perform an actuating movement in an actuating direction in order to set the at least one shifted position, wherein a characteristic orientation direction of the transmission actuator is not oriented parallel to the transmission shaft axis of the at least one transmission shaft , wherein the characteristic orientation direction is the actuating direction , wherein the transmission has two different translation stages which are configured by gear stages and have different outside diameters, characterized in that the actuating direction is arranged substantially parallel to a tangent to the outer contour of the two translation stages, wherein the two translation stages are arranged on the same transmission shaft .
A rear view video system for a motor vehicle comprising a passenger side vision camera capable of capturing a view of the rear passenger side environment of said vehicle, and a monitor located in the passenger compartment of said vehicle and connected to said camera , said system being configured so that said monitor is automatically switched on and displays the view captured by said passenger side vision camera when the control lever of the direction indicators is switched on, said system being configured such that said monitor is automatically turned on and displays the view captured by said passenger side side vision camera when the direction indicator light control lever of said vehicle is moved to its passenger side direction indicator light operating position; further comprising at least one rear vision camera also connected to said monitor and able to capture at least one view of the rear environment of said vehicle, characterised in that said system is configured so that, from the switched-on configuration of said monitor successive presses of a button , provided at the end of said lever , cause the view displayed on said monitor to be changed cyclically among those capable of being captured by said cameras .
An isolated nucleic acid molecule encoding a chimeric antigen receptor (CAR), wherein the CAR comprises a CD123 binding domain, a transmembrane domain, and an intracellular signaling domain, and wherein said CD123 binding domain comprises a heavy chain complementarity determining region 1 (HC CDR1), a heavy chain complementarity determining region 2 (HC CDR2), and a heavy chain complementarity determining region 3 (HC CDR3), further wherein said CD123 binding domain comprises a light chain complementarity determining region 1 (LC CDR1), a light chain complementarity determining region 2 (LC CDR2), and a light chain complementarity determining region 3 (LC CDR3), wherein: (a) said HC CDR1, HC CDR2, HC CDR3, LC CDR1, LC CDR2 and LC CDR3 sequences comprise the amino sequences of SEQ ID NO: 487, 492, 497, 502, 507 and 512, respectively; (b) said HC CDR1, HC CDR2, HC CDR3, LC CDR1, LC CDR2 and LC CDR3 sequences comprise the amino sequences of SEQ ID NO: 517, 522, 527, 532, 537 and 542, respectively; or (c) said HC CDR1, HC CDR2, HC CDR3, LC CDR1, LC CDR2 and LC CDR3 sequences comprise the amino sequences of SEQ ID NO: 335, 363, 391, 419, 447 and 475, respectively. (a) said HC CDR1, HC CDR2, HC CDR3, LC CDR1, LC CDR2 and LC CDR3 sequences comprise the amino sequences of SEQ ID NO: 487, 492, 497, 502, 507 and 512, respectively; (b) said HC CDR1, HC CDR2, HC CDR3, LC CDR1, LC CDR2 and LC CDR3 sequences comprise the amino sequences of SEQ ID NO: 517, 522, 527, 532, 537 and 542, respectively; or (c) said HC CDR1, HC CDR2, HC CDR3, LC CDR1, LC CDR2 and LC CDR3 sequences comprise the amino sequences of SEQ ID NO: 335, 363, 391, 419, 447 and 475, respectively.
Mixed-layer clay mineral for use as a means of preventing and/or treating chronic inflammatory bowel diseases (CIBD), characterized in that the clay mineral is before use milled to a particle size of less than 5 μm and then heat-treated at a temperature between 300°C and 500°C, preferably between 350°C and 450°C, for a period of 1 h to 5 h, preferably 1 h to 3 h.
A method of additive manufacturing a three-dimensional object comprising providing build powder for additive manufacturing of a three-dimensional object, the method comprising: blending input powders into a blended powder for producing a 3D object; during the blending , determining a material strength value of each input powder; based on the material strength value of each input powder, calculating a ratio of the input powders to achieve a specified material strength in the blended powder; and, adjusting a feed rate of the input powders according to the ratio. blending input powders into a blended powder for producing a 3D object; during the blending , determining a material strength value of each input powder; based on the material strength value of each input powder, calculating a ratio of the input powders to achieve a specified material strength in the blended powder; and, adjusting a feed rate of the input powders according to the ratio.