mhurhangee/patent-ind-claim-en huggingface dataset:
Header plate for a heat exchanger, comprising a wall provided with orifices , and through which tubes arranged in rows in a longitudinal direction (L) are intended to pass, for which: - said wall has, in cross section (T), a profile made up of a central portion and of two lateral portions , - the lateral portions overall follow a first curve with a first radius of curvature (R1), - the central portion overall follows a second curve with a second radius of curvature (R2), smaller than the first radius of curvature (R1), the header plate being bent to form two edges between longitudinal turnups and the wall , the header plate being characterized in that at least one of the orifices comprises a collar intended to cover part of the wall of the tube passing through the wall via this orifice, and in which at least one of the orifices has, in a direction perpendicular to the longitudinal and transverse directions, an oblong projection of major axis TW, and in which, with respect to a plane passing through longitudinal edges of the wall, the height of the lateral portions is H1 and the height of the central portion is H2, and in which the ratio between the heights H1, H2 and the major axis TW satisfies the following inequalities: 0.05 < H 1 / TW < 0.2 0.05 < H 2 / TW < 0.3 . - said wall has, in cross section (T), a profile made up of a central portion and of two lateral portions , - the lateral portions overall follow a first curve with a first radius of curvature (R1), - the central portion overall follows a second curve with a second radius of curvature (R2), smaller than the first radius of curvature (R1),
A failsafe system for a medical fluid procedure, comprising: a medical fluid processing apparatus comprising a sealer and a programmable controller driven by software, wherein the programmable controller is programmed to recognize a failure event from input from hardware components of the medical fluid processing apparatus; and a disposable fluid circuit configured to associate with the medical fluid processing apparatus and comprising a tubing segment configured to fit within the sealer, characterized in that the programmable controller is configured to seal the tubing segment by activating the sealer surrounding the tubing segment in response to an occurrence of the failure event. a medical fluid processing apparatus comprising a sealer and a programmable controller driven by software, wherein the programmable controller is programmed to recognize a failure event from input from hardware components of the medical fluid processing apparatus; and a disposable fluid circuit configured to associate with the medical fluid processing apparatus and comprising a tubing segment configured to fit within the sealer, characterized in that the programmable controller is configured to seal the tubing segment by activating the sealer surrounding the tubing segment in response to an occurrence of the failure event.
Winding device for winding strand-shaped winding material comprising a winding disk onto which the strand-shaped winding material is wound, and a housing arranged adjacent to the winding disk , wherein the winding disk is prevented from moving, in particular from rotating, by at least one magnetic holding device , wherein the magnetic holding device comprises a first magnetic arrangement with a north pole (N) and a south pole (S) which is non-rotatably connected to the housing and a second magnetic arrangement with a north pole (N) and a south pole (S) which is non-rotatably connected to the winding disk , wherein a gap is present between the first magnetic arrangement and the second magnetic arrangement , wherein the first magnetic arrangement and the second magnetic arrangement are magnetically coupled across the gap and the strand-shaped winding material is guided through the gap , wherein the two magnetic arrangements are arranged such that the south pole (S) of the first magnetic arrangement faces the north pole (N) of the second magnetic arrangement and the north pole (N) of the first magnetic arrangement faces the south pole (S) of the second magnetic arrangement , characterized in that the first magnetic arrangement comprises two permanent magnets arranged at its poles, each comprising a north pole (N) and a south pole (S) which are arranged in opposite polarity and in the circumferential direction of the winding disk next to one another and parallel to one another, and which are connected at their radially outer ends by a backing plate made of soft iron, and that the second magnetic arrangement directly faces the first magnetic arrangement in the radial direction of the winding disk and comprises two permanent magnets arranged at its poles, each comprising a north pole (N) and a south pole (S) which are arranged in opposite polarity and in the circumferential direction of the winding disk next to one another and parallel to one another such that poles of different polarities of the four permanent magnets involved face each other at the gap , or two soft iron blocks arranged at its poles which are arranged in the circumferential direction of the winding disk next to one another and parallel to one another, wherein the permanent magnets or the soft iron blocks , respectively, are connected at their radially inner ends by a backing plate made of soft iron.
A dental member, containing an amorphous alloy having a composition represented by formula: Zr a Ni b Cu c Al d , wherein a, b, c, and d denote at.%, and "a" ranges from 67 to 73 at.%, "b" ranges from 11 to 17 at.%, "c" ranges from 5 to 13 at.%, and "d" ranges from 5 to 9 at.%.
Method for producing thin substrates, the thin substrate being separated from a substrate block by means of focused laser pulses, characterized in that the substrate block is repeatedly at least partially perforated along at least one desired fracture surface by the laser pulses, and the substrate is then separated from the substrate block along the fracture line, the laser pulses are focused into the interior of the substrate at different depths, the cutting direction extending from bottom to top, and the substrate having a transparency of > 70% in a range of +/- 100 nm around the wavelength of the laser light used, and the real inline transmission (RIT) of the substrate for the wavelength of the laser that is used being more than 5%.
Process for the manufacture of a refractory block comprising more than 80% zirconia, in percentage by weight based on the oxides, said process comprising the following successive stages: a) melting, under reducing conditions, of a charge comprising more than 50% zircon, in percentage by weight, such as to reduce the zircon and obtain a molten material, b) application of oxidizing conditions to the molten material, c) casting of said molten material, d) cooling until at least partial solidification of the molten material in the form of a block, e) optionally, heat treatment of said block. a) melting, under reducing conditions, of a charge comprising more than 50% zircon, in percentage by weight, such as to reduce the zircon and obtain a molten material, b) application of oxidizing conditions to the molten material, c) casting of said molten material, d) cooling until at least partial solidification of the molten material in the form of a block, e) optionally, heat treatment of said block.
An applicator device , comprising: a body having a lumen for receiving an antiseptic agent , the lumen defining a reservoir containing the antiseptic agent , wherein the lumen is sealed at a distal extremity and a proximal extremity thereof following receipt of the antiseptic agent ; a pad coupled to a distal end of the body ; and a defeatable barrier interposedly positioned between the reservoir and the pad , wherein upon defeating the barrier, the reservoir and the pad are in fluid communication; characterized by a pinching actuator coupled adjacent the distal end of the body between the body and the pad , wherein the pinching actuator is configured to defeat the defeatable barrier upon actuation. a body having a lumen for receiving an antiseptic agent , the lumen defining a reservoir containing the antiseptic agent , wherein the lumen is sealed at a distal extremity and a proximal extremity thereof following receipt of the antiseptic agent ; a pad coupled to a distal end of the body ; and a defeatable barrier interposedly positioned between the reservoir and the pad , wherein upon defeating the barrier, the reservoir and the pad are in fluid communication; characterized by a pinching actuator coupled adjacent the distal end of the body between the body and the pad , wherein the pinching actuator is configured to defeat the defeatable barrier upon actuation.
An apparatus for analysing biomass in a test sample by a capacitive measurement comprising: - a first electrode pair for application of an excitation current to a test sample; - a measuring arrangement being configured for measuring voltage through the test sample comprising a second electrode pair , the measuring arrangement being further configured to receive the measured voltage and use the measured voltage to determine the capacitance of the test sample; and - a receptacle for receipt of the test sample, where the receptacle comprises a receptacle wall that forms a barrier between the first and second electrode pair and the test sample such that the receptacle wall contacts both the first and second electrode pairs and the test sample when the apparatus is in an operable state; and - first and second shielding arrangements for enclosing and thereby shielding each of the respective second electrodes from charge resulting from the application of the excitation current by the first electrode pair ; - where the receptacle comprises a bioreactor. - a first electrode pair for application of an excitation current to a test sample; - a measuring arrangement being configured for measuring voltage through the test sample comprising a second electrode pair , the measuring arrangement being further configured to receive the measured voltage and use the measured voltage to determine the capacitance of the test sample; and - a receptacle for receipt of the test sample, where the receptacle comprises a receptacle wall that forms a barrier between the first and second electrode pair and the test sample such that the receptacle wall contacts both the first and second electrode pairs and the test sample when the apparatus is in an operable state; and - first and second shielding arrangements for enclosing and thereby shielding each of the respective second electrodes from charge resulting from the application of the excitation current by the first electrode pair ; - where the receptacle comprises a bioreactor.
A non-spill lid device for a drinking container , comprising: a collar ; a sealing element ; and a twist fastener configured for attachment to the collar to secure the sealing element ; and wherein the lid device is configured to seal the drinking container and prevent spills even when tipped or shaken, characterized in that the collar comprises: an interior wall that forms an opening in the collar ; a recess configured to seat the sealing element ; a cylindrical ridge that extends up from the recess ; and the recess having a plurality of apertures to provide fluid flow from the container ; the sealing element rests against the rim of the collar and has a sealing surface along its lower surface that sits within the recess so that when suction by mouth is applied at the rim the sealing element deforms and separates from the rim providing for liquid to flow from the container . a collar ; a sealing element ; and a twist fastener configured for attachment to the collar to secure the sealing element ; and wherein the lid device is configured to seal the drinking container and prevent spills even when tipped or shaken, characterized in that the collar comprises: an interior wall that forms an opening in the collar ; a recess configured to seat the sealing element ; a cylindrical ridge that extends up from the recess ; and the recess having a plurality of apertures to provide fluid flow from the container ; the sealing element rests against the rim of the collar and has a sealing surface along its lower surface that sits within the recess so that when suction by mouth is applied at the rim the sealing element deforms and separates from the rim providing for liquid to flow from the container . an interior wall that forms an opening in the collar ; a recess configured to seat the sealing element ; a cylindrical ridge that extends up from the recess ; and the recess having a plurality of apertures to provide fluid flow from the container ; the sealing element rests against the rim of the collar and has a sealing surface along its lower surface that sits within the recess so that when suction by mouth is applied at the rim the sealing element deforms and separates from the rim providing for liquid to flow from the container .
Method for printing a plurality of print jobs on a flatbed printer having a flat bed with flat bed characteristics, each of the plurality of print jobs having print job characteristics, the method comprising the steps of automatically grouping the plurality of print jobs into a plurality of consecutive container jobs , each container job comprising a group of print jobs for which media pieces are intended to be laid down on the flat bed for printing the group of print jobs on the media pieces in one print batch and a digital plan of the flat bed, the digital plan comprising representations of the media pieces on which the group of print jobs in the container job are intended to be printed, and for each container job a) automatically defining (S6) digital mask data with cutting information according to the digital plan for producing a mask sheet , b) receiving (S8) the produced mask sheet on the flat bed , and at least once executing the steps of c) receiving (S10) the media pieces on the flat bed positioned in accordance with the received mask sheet , and d) unattended printing (S12) of the plurality of print jobs of the container job on the media pieces by means of the flat bed printer making use of the received mask sheet , wherein the automatic grouping of the plurality of print jobs into the plurality of consecutive container jobs comprises the steps of gathering the group of print jobs for a container job due to the print job characteristics of each of the plurality of print jobs and/or the flat bed characteristics of the flat bed and ordering the consecutive container jobs due to the print job characteristics of each of the plurality of print jobs and/or the flat bed characteristics of the flat bed, characterized in that the step of unattended printing of the plurality of print jobs of the container job takes place during a production of a mask sheet for a consecutive container job. a) automatically defining (S6) digital mask data with cutting information according to the digital plan for producing a mask sheet , b) receiving (S8) the produced mask sheet on the flat bed , and at least once executing the steps of c) receiving (S10) the media pieces on the flat bed positioned in accordance with the received mask sheet , and d) unattended printing (S12) of the plurality of print jobs of the container job on the media pieces by means of the flat bed printer making use of the received mask sheet ,
A sheet defect detection apparatus (20; 120) for a sheet printing system , comprising: - a sheet sensing transport path (P); - a first and a second sheet quality detection device positioned along the sheet sensing transport path (P) and configured for sensing sheets (S) on the sheet sensing transport path (P), the first and second sheet quality detection devices defining respectively a first and a second sheet rejection threshold to which a sensed sheet (S) is compared for determining its suitability for printing; characterised in that the apparatus further comprises - a controller configured to designate each sheet (S) in a print job on each pass of a sheet (S) over the sheet sensing transport path (P) to one of the first and the second sheet quality detection devices based on a sheet state parameter of the sheet (S), such that each sheet (S) is sensed by its designated one of the first and the second sheet quality detection devices . - a sheet sensing transport path (P); - a first and a second sheet quality detection device positioned along the sheet sensing transport path (P) and configured for sensing sheets (S) on the sheet sensing transport path (P), the first and second sheet quality detection devices defining respectively a first and a second sheet rejection threshold to which a sensed sheet (S) is compared for determining its suitability for printing; characterised in that the apparatus further comprises - a controller configured to designate each sheet (S) in a print job on each pass of a sheet (S) over the sheet sensing transport path (P) to one of the first and the second sheet quality detection devices based on a sheet state parameter of the sheet (S), such that each sheet (S) is sensed by its designated one of the first and the second sheet quality detection devices .
A method of ultrasound welding a flat part with a joining part or a connection part, in which - a fastening element is captively and in a free running manner arranged on a flat part, and - a damping element is arranged at the fastening element in such a way that a relative movement between the fastening element and the flat part during the subsequent ultrasonic welding is restricted, wherein - the fastening element is pressed against the flat part by means of the damping element during the ultrasonic welding. - a fastening element is captively and in a free running manner arranged on a flat part, and - a damping element is arranged at the fastening element in such a way that a relative movement between the fastening element and the flat part during the subsequent ultrasonic welding is restricted, wherein - the fastening element is pressed against the flat part by means of the damping element during the ultrasonic welding.
A method for producing a steel sheet having a microstructure consisting of between 71% and 91% of the sum of martensite and bainite, between 9% and 13% of retained austenite, and at most 20% of ferrite, wherein the method comprises the following successive steps: - providing a cold-rolled steel sheet, the chemical composition of the steel containing in weight %: 0.13% ≤ C ≤ 0.22% 1.2% ≤ Si ≤ 2.3% 0.02% ≤ Al ≤ 1.0%, with 1.25% ≤ Si+Al ≤ 2.35%, 2.4% ≤ Mn ≤ 3%, Ti ≤ 0.05 % Nb ≤ 0.05 % the remainder being Fe and unavoidable impurities, - annealing the steel sheet at an annealing temperature T A so as to obtain a structure comprising from 80% to 100% of austenite and from 0% to 20% of ferrite, - quenching the sheet at a cooling rate comprised between 20°C/s and 50°C/s down to a quenching temperature QT between 240°C and 270°C, - heating the sheet up to a partitioning temperature PT between 440°C and 460°C and maintaining the sheet at the partitioning temperature PT for a partitioning time Pt between 50 s and 250 s, - immediately after the maintaining step, cooling the sheet down to the room temperature. - providing a cold-rolled steel sheet, the chemical composition of the steel containing in weight %: 0.13% ≤ C ≤ 0.22% 1.2% ≤ Si ≤ 2.3% 0.02% ≤ Al ≤ 1.0%, with 1.25% ≤ Si+Al ≤ 2.35%, 2.4% ≤ Mn ≤ 3%, Ti ≤ 0.05 % Nb ≤ 0.05 % the remainder being Fe and unavoidable impurities, 0.13% ≤ C ≤ 0.22% 1.2% ≤ Si ≤ 2.3% 0.02% ≤ Al ≤ 1.0%, with 1.25% ≤ Si+Al ≤ 2.35%, 2.4% ≤ Mn ≤ 3%, Ti ≤ 0.05 % Nb ≤ 0.05 % Ti ≤ 0.05 % Nb ≤ 0.05 % - annealing the steel sheet at an annealing temperature T A so as to obtain a structure comprising from 80% to 100% of austenite and from 0% to 20% of ferrite, - quenching the sheet at a cooling rate comprised between 20°C/s and 50°C/s down to a quenching temperature QT between 240°C and 270°C, - heating the sheet up to a partitioning temperature PT between 440°C and 460°C and maintaining the sheet at the partitioning temperature PT for a partitioning time Pt between 50 s and 250 s, - immediately after the maintaining step, cooling the sheet down to the room temperature.
Use of a genetic marker selected from the group consisting of the genetic markers 1-28 of Figure 11 linked to a Light-Harvesting Chlorophyll B-Binding Protein 3 (LHCB3) gene listed in Table 3, for the detection of continuous light-tolerant S. lycopersicum tomato plants, wherein tolerance to exposure to continuous light is determined by exposing the tomato plant for a period of at least 33 days to continuous light having an intensity of about 130 μmol m-2 s-1 from fluorescent tubes, wherein the tomato plant is grown at 21°C and a relative humidity between 60-80%.
Method for producing a plastic moulded part having a decorated surface, having the following steps: - providing a plastic intermediate product having an injection moulded part and at least one first decorative ply , - providing a second stamping film having a second decorative ply , - hot stamping the second stamping film onto the plastic intermediate product and/or onto the injection moulded part , wherein the plastic intermediate product is produced by at least the following steps: - arranging or introducing a first stamping film with the first decorative ply in a cavity of an injection moulding tool mould , - at least regionally back-injecting the first stamping film with a plastic mass. - providing a plastic intermediate product having an injection moulded part and at least one first decorative ply , - providing a second stamping film having a second decorative ply , - hot stamping the second stamping film onto the plastic intermediate product and/or onto the injection moulded part , wherein the plastic intermediate product is produced by at least the following steps: - arranging or introducing a first stamping film with the first decorative ply in a cavity of an injection moulding tool mould , - at least regionally back-injecting the first stamping film with a plastic mass.