mhurhangee/patent-ind-claim-en huggingface dataset:
An ink-jet printing method comprising the step of ejecting a water-based ink comprising pigment-containing water-insoluble polymer particles and water onto a printing medium to print characters or images on the printing medium, in which the pigment is at least one pigment selected from the group consisting of C.I. Pigment Red 177, C.I. Pigment Red 254, C.I. Pigment Green 7, C.I. Pigment Green 36 and C.I. Pigment Blue 15:6; the water-insoluble polymer constituting the particles comprises a constitutional unit derived from (b-1) an ionic monomer, a constitutional unit derived from (b-2) a hydrophobic monomer and a constitutional unit derived from (b-3) a monomer capable of forming a graft chain; the monomer (b-2) is at least one monomer selected from the group consisting of styrene, 2-methyl styrene, benzyl (meth)acrylate and phenoxyethyl (meth)acrylate, a content of the constitutional unit derived from the monomer (b-2) in the water-insoluble polymer is not less than 40% by mass, a mass ratio of the pigment to the water-insoluble polymer [pigment/water-insoluble polymer] in the water-based ink is not less than 30/70 and not more than 90/10; and the printing medium has a water absorption of not less than 0 g/m 2 and not more than 10 g/m 2 as measured in a pure water contact time of 100 milliseconds. in which the pigment is at least one pigment selected from the group consisting of C.I. Pigment Red 177, C.I. Pigment Red 254, C.I. Pigment Green 7, C.I. Pigment Green 36 and C.I. Pigment Blue 15:6; the water-insoluble polymer constituting the particles comprises a constitutional unit derived from (b-1) an ionic monomer, a constitutional unit derived from (b-2) a hydrophobic monomer and a constitutional unit derived from (b-3) a monomer capable of forming a graft chain; the monomer (b-2) is at least one monomer selected from the group consisting of styrene, 2-methyl styrene, benzyl (meth)acrylate and phenoxyethyl (meth)acrylate, a content of the constitutional unit derived from the monomer (b-2) in the water-insoluble polymer is not less than 40% by mass, a mass ratio of the pigment to the water-insoluble polymer [pigment/water-insoluble polymer] in the water-based ink is not less than 30/70 and not more than 90/10; and the printing medium has a water absorption of not less than 0 g/m 2 and not more than 10 g/m 2 as measured in a pure water contact time of 100 milliseconds.
A yaw error detection sensor which is adapted to be mounted to a wind turbine of a horizontal axis type, wherein the yaw error detection sensor is adapted to measure a stagnation pressure and/or a wind velocity at two different positions along a horizontal plane of the hub , characterized in that the yaw error detection sensor is adapted to be mounted to a front side of a hub of the wind turbine and comprises a pitot tube with a stagnation pressure port and a dynamic pressure port situated at a side of the pitot tube .
A method of making a fuel cell component, the method comprising: mixing a catalyst material with a hydrophobic binder in a solvent to establish a liquid mixture having at least some coagulation of the catalyst material and the hydrophobic binder; applying the liquid mixture to at least one side of a porous gas diffusion layer; characterized in that , the method comprises: removing at least some of the solvent of the applied liquid mixture from the porous gas diffusion layer using a vacuum to pull the at least some of the solvent through the porous gas diffusion layer; and drying the catalyst material remaining on the porous gas diffusion layer under pressure. mixing a catalyst material with a hydrophobic binder in a solvent to establish a liquid mixture having at least some coagulation of the catalyst material and the hydrophobic binder; applying the liquid mixture to at least one side of a porous gas diffusion layer; removing at least some of the solvent of the applied liquid mixture from the porous gas diffusion layer using a vacuum to pull the at least some of the solvent through the porous gas diffusion layer; and drying the catalyst material remaining on the porous gas diffusion layer under pressure.
Solar module , in particular thin film solar module, comprising: a laminated compound of two substrates , wherein at least one substrate edge of the one substrate is set back towards the interior relatively to an opposing substrate edge of the other substrate so that a module edge zone with a protruding substrate edge region is formed, a series connection of a plurality of solar cells arranged between the two substrates which has two bus bars for picking off a total voltage generated by the solar cells , two connection arrangements which are respectively associated with a bus bar , wherein each connection arrangement comprises: - a connection ribbon electrically connected to the associated bus bar which in the module edge zone between the two substrates is led around the substrate edge set back to the interior misaligned to a substrate outer face, - a connection housing fixed to the compound and electrically conductively connected to the connection ribbon , wherein the connection housing has a sealing mass chamber containing a sealing mass , which seals the connection ribbon in a connection ribbon section led around the substrate edge , wherein a wall section of the connection housing surrounding the sealing mass chamber is tapering towards the substrate edge region . a laminated compound of two substrates , wherein at least one substrate edge of the one substrate is set back towards the interior relatively to an opposing substrate edge of the other substrate so that a module edge zone with a protruding substrate edge region is formed, a series connection of a plurality of solar cells arranged between the two substrates which has two bus bars for picking off a total voltage generated by the solar cells , two connection arrangements which are respectively associated with a bus bar , wherein each connection arrangement comprises: - a connection ribbon electrically connected to the associated bus bar which in the module edge zone between the two substrates is led around the substrate edge set back to the interior misaligned to a substrate outer face, - a connection housing fixed to the compound and electrically conductively connected to the connection ribbon , wherein the connection housing has a sealing mass chamber containing a sealing mass , which seals the connection ribbon in a connection ribbon section led around the substrate edge , wherein a wall section of the connection housing surrounding the sealing mass chamber is tapering towards the substrate edge region . - a connection ribbon electrically connected to the associated bus bar which in the module edge zone between the two substrates is led around the substrate edge set back to the interior misaligned to a substrate outer face, - a connection housing fixed to the compound and electrically conductively connected to the connection ribbon , wherein the connection housing has a sealing mass chamber containing a sealing mass , which seals the connection ribbon in a connection ribbon section led around the substrate edge , wherein a wall section of the connection housing surrounding the sealing mass chamber is tapering towards the substrate edge region .
A fixing system (FS), adapted for holding a first structure (S1) on a support structure (S2), said fixing system (FS) comprising: - a first clamp guide (CG1) extending longitudinally along a first axis (Y), - a first clamp (C1) slidingly mounted on the first clamp guide (CG1), - a clamp support (CS) adjoining a reception area (RA) adapted for receiving the support structure (S2), said reception area (RA) being comprised between a part of the clamp support (CS) and the first clamp (C1), - a locket push (LP) comprising a first sliding profile (SP1) adapted for coming into contact with a portion of the first clamp (C1), said first sliding profile (SP1) of the locket push (LP) configured to move towards the first clamp (C1), thereby inducing a first translation movement (T1) of said first clamp (C1) along the first clamp guide (CG1), said first translation movement (T1) configured to reduce the size of the reception area (RA), therefore allowing the fixing system (FS) to clamp the support structure (S2) located in the reception area (RA) against the clamp support (CS), wherein the first clamp (C1) comprises a crescent shape for establishing at least two pressure points on the support structure (S2), characterized in that the first sliding profile (SP1) comprises an interior curving adapted to convert a movement (M1) of said first sliding profile (SP1) towards the first clamp (C1) into the first translation movement (T1) of the first clamp (C1) towards the clamp support (CS) with a greater amplitude than the amplitude from said movement of the first sliding profile (SP1), the first movement (M1) being perpendicular to the first axis (Y) and the first translation movement (T1) being parallel to the first axis (Y). - a first clamp guide (CG1) extending longitudinally along a first axis (Y), - a first clamp (C1) slidingly mounted on the first clamp guide (CG1), - a clamp support (CS) adjoining a reception area (RA) adapted for receiving the support structure (S2), said reception area (RA) being comprised between a part of the clamp support (CS) and the first clamp (C1), - a locket push (LP) comprising a first sliding profile (SP1) adapted for coming into contact with a portion of the first clamp (C1),
An engine mount device comprising: a housing ; a carrier that is at least partially inside the housing , the carrier comprising a hole through at least a partial thickness of the carrier , the hole being configured to receive a trunnion pin; and at least one flexure connecting the carrier to the housing , wherein the at least one flexure is configured to provide higher stiffness in one or more radial directions of the hole compared to a stiffness provided in an axial direction of the hole ; characterised in that the at least one flexure is in a shape of a stadium having two semicircular ends connected by substantially linear connecting portions. a housing ; a carrier that is at least partially inside the housing , the carrier comprising a hole through at least a partial thickness of the carrier , the hole being configured to receive a trunnion pin; and at least one flexure connecting the carrier to the housing , wherein the at least one flexure is configured to provide higher stiffness in one or more radial directions of the hole compared to a stiffness provided in an axial direction of the hole ; characterised in that the at least one flexure is in a shape of a stadium having two semicircular ends connected by substantially linear connecting portions.
An apparatus (500a-500e) for an earth moving machine , comprising: a sheet , and at least one electronic device ; the at least one electronic device comprising a printed circuit board mechanically coupled with the sheet , and a wireless communications module mounted on the PCB ; wherein the apparatus further comprises fastening means for attaching the apparatus to a cavity of the earth moving machine ; characterized in that the sheet has a slot antenna arranged thereon, and the slot antenna being electrically coupled with the wireless communications module .
Filter arrangement for cleaning an air stream (L), having at least three filter elements , wherein a respective filter element has a corrugated bellows made of pleated filter medium , wherein the filter elements are arranged in line with one another and it is always the case that two mutually adjacent filter elements are connected to one another by means of in each case one link , characterized in that the fold run-out of all the end folds of all the corrugated bellows is oriented in one direction (A, B), in that the links are of two different designs and the different designs of the links - as seen in the longitudinal direction of the filter arrangement - are arranged in an alternating manner, and in that - as viewed in longitudinal section - a first design of the link has an inverted V shape and a second design of the link has a U shape; wherein end folds of the corrugated bellows are connected in an areal manner to limbs of the inverted V shape and of the U shape in such a way that the filter elements , in a folded-in state, are able to be set down one upon the other in a harmonica-like manner and, in a folded-out state, bear against one another at their mutually adjacent end folds . the fold run-out of all the end folds of all the corrugated bellows is oriented in one direction (A, B), in that the links are of two different designs and the different designs of the links - as seen in the longitudinal direction of the filter arrangement - are arranged in an alternating manner, and in that - as viewed in longitudinal section - a first design of the link has an inverted V shape and a second design of the link has a U shape; wherein end folds of the corrugated bellows are connected in an areal manner to limbs of the inverted V shape and of the U shape in such a way that the filter elements , in a folded-in state, are able to be set down one upon the other in a harmonica-like manner and, in a folded-out state, bear against one another at their mutually adjacent end folds .
A flexible lumenal assembly configured for transiting a body lumen comprising a flexible lumenal member extending longitudinally and a medial member having a structural support member that has a facing surface facing at least one surface on either of the flexible lumenal member or an outer member , wherein the facing surface has a non-smooth surface geometry; the medial member extends outside a portion of the flexible lumenal member and inside the outer member extending over the medial member wherein the outer member is configured to selectively apply pressure to the medial member; the structural support member is monolithic; and the structural support member extends along and circumferentially completely around an adjacent portion of the flexible lumenal member ; characterized in that the structural support member is a tubular mesh that includes a non-random tubular mesh. the facing surface has a non-smooth surface geometry; the medial member extends outside a portion of the flexible lumenal member and inside the outer member extending over the medial member wherein the outer member is configured to selectively apply pressure to the medial member; the structural support member is monolithic; and the structural support member extends along and circumferentially completely around an adjacent portion of the flexible lumenal member ; characterized in that the structural support member is a tubular mesh that includes a non-random tubular mesh.
Method for freezing biopharmaceutical fluid (F) comprising the steps: a. Providing a disposable container having a bottom surface and a top surface (T), the bottom surface and the top surface (T) delimiting at least partly a cavity and the container being provided with at least one port (P); b. Providing a cooling device comprising a heat transfer surface area ; c. Arranging the container on the heat transfer surface area , the bottom surface of the container being directed toward the heat transfer surface area ; d. Filling the cavity of the container with a biopharmaceutical fluid (F) through the port; e. Cooling the heat transfer surface area to cool the bottom surface of the container until freezing and forming a layer of ice or at least one ice block of biopharmaceutical fluid (F) inside the cavity on the bottom surface of the container ; characterized in that , the method further comprises the Z steps of: f. Dislodging the ice layer or the at least one ice block frozen to the bottom surface from the bottom surface of the container in the cavity ; g. Repeating the steps of cooling the heat transfer surface area and dislodging the ice layer or the at least one ice block until the cavity is filled with a matrix of frozen biopharmaceutical fluid and liquid biopharmaceutical fluid, the liquid biopharmaceutical fluid occupying interstitial passages between ice layers or ice blocks of biopharmaceutical fluid (F); h. Maintaining the cooling until the freezing of the entire biopharmaceutical fluid held in the container . a. Providing a disposable container having a bottom surface and a top surface (T), the bottom surface and the top surface (T) delimiting at least partly a cavity and the container being provided with at least one port (P); b. Providing a cooling device comprising a heat transfer surface area ; c. Arranging the container on the heat transfer surface area , the bottom surface of the container being directed toward the heat transfer surface area ; d. Filling the cavity of the container with a biopharmaceutical fluid (F) through the port; e. Cooling the heat transfer surface area to cool the bottom surface of the container until freezing and forming a layer of ice or at least one ice block of biopharmaceutical fluid (F) inside the cavity on the bottom surface of the container ; f. Dislodging the ice layer or the at least one ice block frozen to the bottom surface from the bottom surface of the container in the cavity ; g. Repeating the steps of cooling the heat transfer surface area and dislodging the ice layer or the at least one ice block until the cavity is filled with a matrix of frozen biopharmaceutical fluid and liquid biopharmaceutical fluid, the liquid biopharmaceutical fluid occupying interstitial passages between ice layers or ice blocks of biopharmaceutical fluid (F); h. Maintaining the cooling until the freezing of the entire biopharmaceutical fluid held in the container .
A method for partial hardening of a austenitic steel by utilizing during cold deformation the TWIP (Twinning Induced Plasticity), TWIP/TRIP or TRIP (Transformation Induced Plasticity) hardening effect, characterized in that cold deformation is carried out on a stainless steel by cold rolling on at least one surface (2,3;12) of a material to be deformed, the forming degree Φ being in the range of 5 ≤ Φ ≤ 60 %, in order to achieve in the material at least two consecutive areas (5,7;14,16) with different mechanical values in thickness, yield strength R p0.2 , tensile strength R m and elongation, having a ratio (r) between ultimate load ratio ΔF and the thickness ratio Δt in the range 1.0 ≤ r ≤ 2.0, whereby the areas (5,7;14,16) are mechanically connected to each other by a transition area (6;15) whose thickness varies from the thickness (t1,t3) of the first area in the deformation direction to the thickness (t2,t4) of the second area in the deformation direction .
A power generating element comprising: an electrode pair including a first electrode and a second electrode ; and an intermediate layer disposed between the first electrode and the second electrode , the intermediate layer being insulating and having a first side facing the first electrode and a second side facing the second electrode , wherein the first electrode and the intermediate layer together operate as a contact/separation mechanism configured to perform a contact/separation operation, wherein, in the contact/separation operation, when an external force is applied to the power generating element, the contact/separation mechanism transitions between a contact or close state in which the first electrode and the first side are brought into contact with each other or close to each other, and a separation state in which the first electrode and the first side are separated from each other, characterized in that the first side of the intermediate layer has been surface-modified, so that the first side and the second side of the intermediate layer deform at different degrees of deformation when the external force is applied to the power generating element . an electrode pair including a first electrode and a second electrode ; and an intermediate layer disposed between the first electrode and the second electrode , the intermediate layer being insulating and having a first side facing the first electrode and a second side facing the second electrode , wherein the first electrode and the intermediate layer together operate as a contact/separation mechanism configured to perform a contact/separation operation, wherein, in the contact/separation operation, when an external force is applied to the power generating element, the contact/separation mechanism transitions between a contact or close state in which the first electrode and the first side are brought into contact with each other or close to each other, and a separation state in which the first electrode and the first side are separated from each other, characterized in that the first side of the intermediate layer has been surface-modified, so that the first side and the second side of the intermediate layer deform at different degrees of deformation when the external force is applied to the power generating element .
A rubidium elution system comprising: a. a primary assembly including a 82 Sr/ 82 Rb generator , an activity detector , a waste container , a pump system, a sensor, a tubing circuit, at least one valve , and a computer; wherein the primary assembly is housed in a first cabinet structure ; and b. a dose calibrator that is located outside the first cabinet structure, wherein the dose calibrator and the computer are in electronic communication; characterised in that the primary assembly is positioned on a first platform , and the dose calibrator is positioned on a second platform ; and wherein the first platform and the second platform are mobile; and wherein: (i) the first and second platforms are removably attached together in order to permit movement of the first platform together with the second platform; or (ii) the dose calibrator is housed or partly housed in a second cabinet structure , and the first and second cabinet structures are removably attached together so as to permit movement of the first platform together with the second platform. a. a primary assembly including a 82 Sr/ 82 Rb generator , an activity detector , a waste container , a pump system, a sensor, a tubing circuit, at least one valve , and a computer; wherein the primary assembly is housed in a first cabinet structure ; and b. a dose calibrator that is located outside the first cabinet structure, wherein the dose calibrator and the computer are in electronic communication; (i) the first and second platforms are removably attached together in order to permit movement of the first platform together with the second platform; or (ii) the dose calibrator is housed or partly housed in a second cabinet structure , and the first and second cabinet structures are removably attached together so as to permit movement of the first platform together with the second platform.