mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a component having grooves formed into an outer surface comprising the steps of: (a) applying at least a pair of molds , circumferentially spaced, to an outer surface of a component preform , forcing said molds into contact with said outer surface to form at least two axially spaced sets of detents into said outer surface of said component preform, a first set of axially spaced detents comprising detents extending between a first set of circumferential ends and a second set of axially spaced detents comprising detents extending between a second set of circumferential ends, and wherein said detents in said second set extend at least partially in a circumferential space between said first circumferential ends; wherein said component preform is a generally tubular cylindrical structure and said outer surface is an outer peripheral surface; and wherein said molds are removed from said outer surface of said component preform after forming said detents. (a) applying at least a pair of molds , circumferentially spaced, to an outer surface of a component preform , forcing said molds into contact with said outer surface to form at least two axially spaced sets of detents into said outer surface of said component preform, a first set of axially spaced detents comprising detents extending between a first set of circumferential ends and a second set of axially spaced detents comprising detents extending between a second set of circumferential ends, and wherein said detents in said second set extend at least partially in a circumferential space between said first circumferential ends; wherein said component preform is a generally tubular cylindrical structure and said outer surface is an outer peripheral surface; and wherein said molds are removed from said outer surface of said component preform after forming said detents.
A container system (1; 101; 201; 301; 401) comprising a container , in particular a medical or surgical sterile container preferably having a tub-like container vessel and/or a container cover, at least one separate coupling element and at least one coupling system for releasably connecting the coupling element to the container , wherein the coupling system includes a male coupling portion formed on the container and a female coupling portion (10; 110; 210; 310; 410) formed on the coupling element , wherein the coupling portions can be coupled to and uncoupled from one another, wherein the male coupling portion is integrally formed in a wall of the container characterized in that the male coupling portion is designed in the form of a protruding knob with a mushroom-shaped structure with an undercut .
An orally disintegrating tablet comprising hydroxypropyl cellulose microparticles having: a 50% particle size in a cumulative particle size distribution of more than or equal to 20 μm and less than 40 μm; a 10% particle size in the cumulative particle size distribution of 3 μm to 9 μm, a 90% particle size in the cumulative particle size distribution of 30 μm to 60 μm; a hydroxypropyl group content of 40 to 80% by mass; and a viscosity of 2.0 mPa•s to 2.9 mPa•s when in a form of a 2% aqueous solution at 20°C, wherein the particle size in a cumulative particle size distribution has been measured using a laser diffraction type particle size distribution analyzer under conditions of an air pressure of 294 kPa (3.0 kgf/cm 2 ) and a focal length of 100 mm. a 50% particle size in a cumulative particle size distribution of more than or equal to 20 μm and less than 40 μm; a 10% particle size in the cumulative particle size distribution of 3 μm to 9 μm, a 90% particle size in the cumulative particle size distribution of 30 μm to 60 μm; a hydroxypropyl group content of 40 to 80% by mass; and a viscosity of 2.0 mPa•s to 2.9 mPa•s when in a form of a 2% aqueous solution at 20°C, wherein the particle size in a cumulative particle size distribution has been measured using a laser diffraction type particle size distribution analyzer under conditions of an air pressure of 294 kPa (3.0 kgf/cm 2 ) and a focal length of 100 mm.
Arrangement of packaging boxes comprising a plurality of packaging boxes open at the top and stacked one on top of the other having a peripheral edge on their open side and each being filled with a plurality of cylindrical bodies , in particular open plastic tube bodies, which project with an open end beyond the peripheral edge of the packaging box and form a support surface for a packaging box arranged thereabove, wherein an intermediate layer is arranged between the support surface and the packaging box arranged thereabove, wherein the intermediate layer comprises a sheet-like element which has a plurality of depressions with a circular edge and wherein the depressions of the intermediate layer engage the open ends of the cylindrical bodies , characterized in that the circular edge of the depressions has a diameter substantially corresponding to the inner diameter of the cylindrical bodies .
Heat shrink component that has first dimensions in an expanded state and second dimensions in a shrunk state, at least one of the first dimensions being larger than the corresponding second dimension , and said heat shrink component comprising: a heat shrink sleeve with a heat shrink layer , and a heating system for heating the heat shrink layer of the heat shrink component during a heat shrink process, the heating system comprising at least one first heating unit and at least one second heating unit arranged Z on a surface of the heat shrink sleeve and in mechanical and thermal contact to at least a part of said heat shrink sleeve, said heating units allowing to heat up the heat shrink layer to its heat shrink temperature, wherein said heating system has at least one first heating zone and at least one second heating zone , wherein the at least one first heating unit is arranged in the at least one first heating zone and the least one second heating unit is arranged in the at least one second heating zone , said heating system is operable to provide differing heating energy in the first and second heating zones during at least one period of time of the heat shrink process, wherein the heat shrink sleeve has an essentially tube shaped form with a longitudinal axis , and wherein the heating unit radially encompasses the heat shrink component, the first and second heating zones being arranged along said longitudinal axis . a heat shrink sleeve with a heat shrink layer , and a heating system for heating the heat shrink layer of the heat shrink component during a heat shrink process, the heating system comprising at least one first heating unit and at least one second heating unit arranged Z on a surface of the heat shrink sleeve and in mechanical and thermal contact to at least a part of said heat shrink sleeve, said heating units allowing to heat up the heat shrink layer to its heat shrink temperature, wherein said heating system has at least one first heating zone and at least one second heating zone , wherein the at least one first heating unit is arranged in the at least one first heating zone and the least one second heating unit is arranged in the at least one second heating zone , said heating system is operable to provide differing heating energy in the first and second heating zones during at least one period of time of the heat shrink process, wherein the heat shrink sleeve has an essentially tube shaped form with a longitudinal axis , and wherein the heating unit radially encompasses the heat shrink component, the first and second heating zones being arranged along said longitudinal axis .
A paper-based packaging film comprising: a paper component, a polymeric film comprising a thickness in a range of from 2 μm to 10 μm, the polymeric film coated with a barrier material, a patterned sealable material, wherein the polymeric film is located between the paper component and the patterned sealable material, the barrier material is located between the polymeric film and the paper component, and the total composition of the paper-based packaging film comprises greater than or equal to 80 %, greater than or equal to 85 %, greater than or equal to 90 % or greater than or equal to 95 %, by weight, of the paper component. a paper component, a polymeric film comprising a thickness in a range of from 2 μm to 10 μm, the polymeric film coated with a barrier material, a patterned sealable material, wherein the polymeric film is located between the paper component and the patterned sealable material, the barrier material is located between the polymeric film and the paper component, and the total composition of the paper-based packaging film comprises greater than or equal to 80 %, greater than or equal to 85 %, greater than or equal to 90 % or greater than or equal to 95 %, by weight, of the paper component.
A broadband low-profile dual-linearly polarized antenna comprising: a radiating portion , wherein the radiating portion comprises a dielectric substrate, four printed folded dipoles spaced apart on an upper surface of the dielectric substrate, first coupled parasitic elements on a lower surface of the dielectric substrate, and second coupled parasitic elements on the upper surface of the dielectric substrate; and a feed balun for feeding the radiating portion , wherein each of the four printed folded dipoles includes a corresponding one of the first coupled parasitic elements and a corresponding one of the second coupled parasitic elements ; wherein each of the first coupled parasitic elements is located between and configured to be coupled to respective adjacent ones of the four printed folded dipoles , and wherein each of the second coupled parasitic elements is placed adjacent and configured to be coupled to respective neighboring portions of respective outer edges of the respective adjacent ones of the four printed folded dipoles . a radiating portion , wherein the radiating portion comprises a dielectric substrate, four printed folded dipoles spaced apart on an upper surface of the dielectric substrate, first coupled parasitic elements on a lower surface of the dielectric substrate, and second coupled parasitic elements on the upper surface of the dielectric substrate; and a feed balun for feeding the radiating portion , wherein each of the four printed folded dipoles includes a corresponding one of the first coupled parasitic elements and a corresponding one of the second coupled parasitic elements ; wherein each of the first coupled parasitic elements is located between and configured to be coupled to respective adjacent ones of the four printed folded dipoles , and wherein each of the second coupled parasitic elements is placed adjacent and configured to be coupled to respective neighboring portions of respective outer edges of the respective adjacent ones of the four printed folded dipoles .
Combustion chamber having a rotationally symmetrical load-bearing structure , which has multiple peripheral fastening grooves spaced apart in a longitudinal direction and serving for attachment of fastening means , and having a plurality of heat-shield elements, which are arranged on the load-bearing structure so as to run around peripherally in rows and which surround a combustion chamber and which are produced from a ceramic material and which have a hot side , which is arranged oriented towards the combustion chamber, and have an oppositely situated cold side , which is arranged oriented towards the load-bearing structure , and have a longitudinal direction and a transverse direction, wherein the hot side is connected to the cold side via two oppositely situated longitudinal edges , which extend along the longitudinal direction, and via two transverse edges , which extend along the transverse direction, wherein the longitudinal edges each have at least one fastening receptacle , wherein the heat-shield elements are fastened to the load-bearing structure by means of fastening means , wherein at least one peripheral row of heat-shield tiles is formed, wherein at least one fixing recess , which allows the heat-shield tile to be fixed in the longitudinal direction, is arranged on the cold side , wherein the load-bearing structure directly or indirectly has at least one fixing elevation which engages into a fixing recess , wherein the load-bearing structure has at least one peripheral fixing elevation which is arranged between two fastening grooves ; or wherein the load-bearing structure has multiple fixing elevations which are spaced apart from one another in the transverse direction and which are formed by mounted centring elements, characterized in that the fixing recess extends in the transverse direction over at least 0.1 times the width of the heat-shield tile . wherein the load-bearing structure directly or indirectly has at least one fixing elevation which engages into a fixing recess , wherein the load-bearing structure has at least one peripheral fixing elevation which is arranged between two fastening grooves ; or wherein the load-bearing structure has multiple fixing elevations which are spaced apart from one another in the transverse direction and which are formed by mounted centring elements, characterized in that the fixing recess extends in the transverse direction over at least 0.1 times the width of the heat-shield tile .
A method for manufacturing a printing plate containing a print image, wherein the print image of the printing plate is generated while employing a 3D-printingprocess, characterized in that the printing plate is a printing plate for intaglio printing, the printing plate is cast from a matrix which carries the negative of the print image, wherein the negative of the print image is imprinted regionally on the matrix using the 3D-printing process, and the matrix has been created by galvanic casting from a master .
A process for manufacturing a part including a formation of successive solid metal layers (20 1 ... 20 n ), superposed on one another, each layer describing a pattern defined from a numerical model (M) , each layer being formed by the deposition of a metal , referred to as filler metal, the filler metal being subjected to an input of energy so as to melt and form, by solidifying, said layer, wherein the filler metal takes the form of a powder , the exposure of which to an energy beam results in melting followed by a solidification so as to form a solid layer (20 1 ...20 n ), the process being characterised in that the filler metal is an aluminium alloy comprising at least the following alloying elements: - Si, in a weight fraction of from 4% to 20%; - Fe, in a weight fraction of from 2% to 15% optionally at least one element selected from: - Mn, in a weight fraction of from 0.1% to 5%; - Ti, in a weight fraction of from 0.01% to 5%; - V, in a weight fraction of from 0.1% to 5%; - Zr, in a weight fraction of from 0.05% to 5%; - Cr, in a weight fraction of from 0.05% to 5%; - Hf, in a weight fraction of from 0.05% to 5%; optionally at least one element selected from: - Ag, in a weight fraction of 0.1 to 1%; - Li, in a weight fraction of from 0.1 to 2%; - Zn, in a weight fraction of from 0.1 to 1%; optionally the element Mg in a weight fraction of from 0.1 to 7%; optionally at least one element selected from W, Nb, Ta, Y, Yb, Nd, Er, with a weight fraction of at least 0.1% and at most 5%; optionally at least one element selected from Co and Ni with a weight fraction of at least 0.1% and at most 7%; optionally at least one element selected from La, Ce or mischmetal, with a weight fraction of at least 0.1% and at most 12%; optionally at least one element selected from Bi, Sr, Ba, Ca, Sb, P and B, with a weight fraction of at least 0.01% and at most 1%; a weight fraction of other elements or impurities less than 0.05%, the cumulative weight fraction of other elements or impurities being less than 0.15%; remains aluminium. - Si, in a weight fraction of from 4% to 20%; - Fe, in a weight fraction of from 2% to 15% optionally at least one element selected from: - Mn, in a weight fraction of from 0.1% to 5%; - Ti, in a weight fraction of from 0.01% to 5%; - V, in a weight fraction of from 0.1% to 5%; - Zr, in a weight fraction of from 0.05% to 5%; - Cr, in a weight fraction of from 0.05% to 5%; - Hf, in a weight fraction of from 0.05% to 5%; - Ag, in a weight fraction of 0.1 to 1%; - Li, in a weight fraction of from 0.1 to 2%; - Zn, in a weight fraction of from 0.1 to 1%;
Batch furnace for annealing product, in particular, a single-chamber furnace or a single-coil furnace, with a furnace housing , which comprises a lockable loading opening , an accommodating space for furnace product and a device for convective heat transfer to the furnace product via a heat transfer medium, wherein the batch furnace comprises: - at least one fan , which is arranged in the furnace housing , - at least one heating device for the heat transfer medium and/or at least one inlet for an external heated heat transfer medium, wherein the heating device is arranged directly in front of the suction side or directly behind the pressure side of the fan , or circumferentially arranged in an annular gap between the fan and the furnace housing , and - an accommodating space for the furnace material, which is arranged on the pressure side of the fan , characterized in that the loading opening can be sealed by at least one front-side wall element of the furnace housing , which is axially displaceable in the housing's longitudinal direction and is connected to the fan . - at least one fan , which is arranged in the furnace housing , - at least one heating device for the heat transfer medium and/or at least one inlet for an external heated heat transfer medium, wherein the heating device is arranged directly in front of the suction side or directly behind the pressure side of the fan , or circumferentially arranged in an annular gap between the fan and the furnace housing , and - an accommodating space for the furnace material, which is arranged on the pressure side of the fan ,
A fuel battery comprising a plurality of stacked unit cells , wherein each of the unit cells , includes a membrane electrode assembly and two separators located on opposite sides of the membrane electrode assembly , the membrane electrode assembly includes a solid polymer electrolyte membrane , electrode catalyst layers laminated on anode side and cathode side surfaces of the solid polymer electrolyte membrane , and gas diffusion layers laminated on an outer surface of each of the electrode catalyst layers , and gas passage forming bodies are stacked on an outer surface of each of the gas diffusion layers of each of the unit cells so that each of the unit cells includes a fuel gas passage and an oxidant gas passage , the fuel battery being characterized in that at least one of the gas passage forming bodies of each of the unit cells has a wave-shaped cross-section to define gas passages and water guide passages , each of the gas and water guide passages extending in a straight line in the direction of gas flow, each of the water guide passages is located between adjacent ones of the gas passages , each of the gas passages has a cross-sectional shape that widens toward the membrane electrode assembly , a communication passage is arranged between each of the gas passages and an adjacent one of the water guide passages to guide water from the gas passage to the water guide passage , and the cross-sectional area of each of the communication passage and the gas passage is arranged, in use, so that the communication passage has a higher pressure loss than that of the gas passage , and wherein the cross-sectional area of each of the communication passages is arranged, in use, to guide water from the gas passages to the water guide passages using a capillary action.
Addition-curing silicone resin for producing a heat-shielding film, comprising: organopolysiloxane, the organopolysiloxane including a combination of a plurality of units including at least a R 1 SiO 3/2 unit as a T unit, a R 2 R 3 SiO 2/2 unit as a D unit, and a R 4 R 5 R 6 SiO 1/2 unit as a M unit, R 1 to R 6 being aliphatic hydrocarbon or hydrogen in each unit, and a molar ratio of the T unit, the D unit, and the M unit among all structural units being T: 33.3 mol% to 71.4 mol%, D: 7.0 mol% to 42.9 mol%, and M: 11.1 mol% to 42.9 mol%.
A computer-implemented method comprising: initiating, by a software application executing on a primary server , a user authentication process prompting a user to enter, via a graphical user interface , login credentials; determining that the user uses old stolen login credentials to access an account that was already secured by his owner; directing the user from the primary server to a fake server mimicking the software application executing on the primary server ; obtaining, by the fake server , metadata associated with the user interacting with the fake server that characterizes the user; and providing data comprising the obtained metadata. initiating, by a software application executing on a primary server , a user authentication process prompting a user to enter, via a graphical user interface , login credentials; determining that the user uses old stolen login credentials to access an account that was already secured by his owner; directing the user from the primary server to a fake server mimicking the software application executing on the primary server ; obtaining, by the fake server , metadata associated with the user interacting with the fake server that characterizes the user; and providing data comprising the obtained metadata.
A guidewire-guiding device, comprising a guiding body , characterized in that , a main guidewire channel and a plurality of guidewire-guiding channels are respectively arranged in the guiding body , the main guidewire channel and the plurality of guidewire-guiding channels respectively penetrate through the guiding body along an axial direction, and when placed inside a body, in-vivo end openings of the plurality of guidewire-guiding channels and an in-vivo end opening of the main guidewire channel are arranged along the axial direction at intervals; an in-vivo end face of the guiding body is formed into a diagonal plane, a section of the guiding body is circular, the diagonal plane is oval, and the in-vivo end opening of the main guidewire channel and the in-vivo end openings of the plurality of guidewire-guiding channels are arranged along the diagonal plane to be spaced on the axial direction; alternatively, an in-vivo end face of the guiding body is formed as a step structure, which has a plurality of diagonal planes, each of the plurality of diagonal planes is parallel to the other, and the in-vivo end opening of the main guidewire channel and the in-vivo end openings of the plurality of guidewire-guiding channels are respectively formed on different diagonal planes. a main guidewire channel and a plurality of guidewire-guiding channels are respectively arranged in the guiding body , the main guidewire channel and the plurality of guidewire-guiding channels respectively penetrate through the guiding body along an axial direction, and when placed inside a body, in-vivo end openings of the plurality of guidewire-guiding channels and an in-vivo end opening of the main guidewire channel are arranged along the axial direction at intervals; an in-vivo end face of the guiding body is formed into a diagonal plane, a section of the guiding body is circular, the diagonal plane is oval, and the in-vivo end opening of the main guidewire channel and the in-vivo end openings of the plurality of guidewire-guiding channels are arranged along the diagonal plane to be spaced on the axial direction; alternatively, an in-vivo end face of the guiding body is formed as a step structure, which has a plurality of diagonal planes, each of the plurality of diagonal planes is parallel to the other, and the in-vivo end opening of the main guidewire channel and the in-vivo end openings of the plurality of guidewire-guiding channels are respectively formed on different diagonal planes.