mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a stable solid cleaning composition at ambient temperature comprising: providing a flowable solid comprising water, an alkalinity source, and sequestrant; putting the flowable solid in a drawer or hopper; vibrating the flowable solid in the drawer or hopper; transferring the flowable solid from the drawer or hopper into a form; gently pressing the flowable solid in the form to produce the uncured solid cleaning composition; and removing the uncured solid cleaning composition from the form; curing the uncured composition to produce the solid cleaning composition. providing a flowable solid comprising water, an alkalinity source, and sequestrant; putting the flowable solid in a drawer or hopper; vibrating the flowable solid in the drawer or hopper; transferring the flowable solid from the drawer or hopper into a form; gently pressing the flowable solid in the form to produce the uncured solid cleaning composition; and removing the uncured solid cleaning composition from the form; curing the uncured composition to produce the solid cleaning composition.
A pair of spectacles which is provided with bio-sensors for detecting signals in contact with the head of the user, comprising a front frame for supporting respective lenses , an electrical circuit and a nose support device which is provided on the frame, the nose support device comprising a mount , which is produced from an electrically non-conductive material and which can be connected in a removable manner to the frame , there being provided on the mount a first and a second nose support element which are opposite each other and which incorporate a first nose sensor and second nose sensor which are formed from an electrically conductive material and which are capable of surface contact with corresponding laterally opposite zones of the nose, characterized in that each of the first and second nose support elements is mounted on a respective support of an electrically conductive material, which is connected to the mount by means of a respective screw type element of a conductive material which is capable of electrical contact with the support , and in that each screw type element is capable of electrical contact with the electric circuit which is provided in the frame for transferring the electrical signals detected by the corresponding sensors , the circuit being interposed between the frame and the mount , so that the electrical signals are transferred from the respective sensor to the electric circuit , via the respective screw type element which is capable of closing the electrical contact between the corresponding sensor and the electric circuit.
A variable lithographic inking method, comprising: heating ink within an ink housing of a chamber blade system near an anilox doctor blade with a heater spatially separate from an anilox member and adjacent to the anilox doctor blade and to the ink within the ink housing at a bottom portion thereof, and configured to heat the ink near the anilox doctor blade and the anilox member to reduce the viscosity of the ink to increase the ink flow; metering the heated ink from the ink housing onto the anilox member with the anilox doctor blade that contacts the outer surface of the anilox member ; and transferring the metered ink from the anilox member to an imaging member having a soft reimageable surface layer for variable data lithographic printing. heating ink within an ink housing of a chamber blade system near an anilox doctor blade with a heater spatially separate from an anilox member and adjacent to the anilox doctor blade and to the ink within the ink housing at a bottom portion thereof, and configured to heat the ink near the anilox doctor blade and the anilox member to reduce the viscosity of the ink to increase the ink flow; metering the heated ink from the ink housing onto the anilox member with the anilox doctor blade that contacts the outer surface of the anilox member ; and transferring the metered ink from the anilox member to an imaging member having a soft reimageable surface layer for variable data lithographic printing.
Method for producing a protective layer for protecting a component against high temperatures and aggressive media, a surface layer comprising aluminum and chromium being formed on the surface of the component to be provided with the protective layer, and a chromizing process being carried out in a first substep and an alitizing process being carried out in a second substep, characterized in that the chromizing process and/or the alitizing process is carried out simultaneously in different local regions of the component surface to be protected, but in a different manner such that the protective layer is a layer containing aluminum and chromium, is formed differently in different regions of the protective layer and has different chromium contents.
Monometallic metal complex containing a hexadentatssse tripodal ligand in which three bidentate sub-ligands coordinate to a metal and the three bidentate sub-ligands, which may be the same or different, are joined via a bridge of the formula : where the dotted bond represents the bond of the bidentate sub-ligands to this structure and the symbols used are as follows: X 1 is the same or different at each instance and is C which may also be substituted or N; X 2 is the same or different at each instance and is C which may also be substituted or N, or two adjacent X 2 groups together are N which may also be substituted, O or S, so as to form a five-membered ring, or two adjacent X 2 groups together are C which may also be substituted or N when one of the X 3 groups in the cycle is N, so as to form a five-membered ring, with the proviso that not more than two adjacent X 2 groups in each ring are N; at the same time, any substituents present may also form a ring system with one another or with substituents bonded to X 1 ; X 3 is C at each instance in one cycle or one X 3 group is N and the other X 3 group in the same cycle is C, where the X 3 groups in the three cycles may be selected independently, with the proviso that two adjacent X 2 groups together are C which may also be substituted or N when one of the X 3 groups in the cycle is N; at the same time, the three bidentate ligands, apart from by the bridge of the formula , may also be ring-closed by a further bridge to form a cryptate. X 1 is the same or different at each instance and is C which may also be substituted or N; X 2 is the same or different at each instance and is C which may also be substituted or N, or two adjacent X 2 groups together are N which may also be substituted, O or S, so as to form a five-membered ring, or two adjacent X 2 groups together are C which may also be substituted or N when one of the X 3 groups in the cycle is N, so as to form a five-membered ring, with the proviso that not more than two adjacent X 2 groups in each ring are N; at the same time, any substituents present may also form a ring system with one another or with substituents bonded to X 1 ; X 3 is C at each instance in one cycle or one X 3 group is N and the other X 3 group in the same cycle is C, where the X 3 groups in the three cycles may be selected independently, with the proviso that two adjacent X 2 groups together are C which may also be substituted or N when one of the X 3 groups in the cycle is N; at the same time, the three bidentate ligands, apart from by the bridge of the formula , may also be ring-closed by a further bridge to form a cryptate.
Sensor head for being arranged in an orifice of a fluid tank , the sensor head comprising: an opening configured to be in fluid communication with a fluid return line for returning a fluid to the fluid tank; a return cavity integrated in the sensor head and in fluid communication with the opening , wherein the return cavity is terminating at the opening ; and a bubble reducer device provided at the opening and configured to block bubbles in the fluid in the return line while the fluid passes through the bubble reducer device during operation; wherein the bubble reducer device comprises a plurality of through holes in the form of a mesh, a net or a grid. an opening configured to be in fluid communication with a fluid return line for returning a fluid to the fluid tank; a return cavity integrated in the sensor head and in fluid communication with the opening , wherein the return cavity is terminating at the opening ; and a bubble reducer device provided at the opening and configured to block bubbles in the fluid in the return line while the fluid passes through the bubble reducer device during operation; wherein the bubble reducer device comprises a plurality of through holes in the form of a mesh, a net or a grid.
A method of manufacturing an aero-engine component , said method being characterised by the steps of: determining an acceptable crack length according to the expected load cycles of the engine, joining two structural elements by welding, wherein the joining comprises: - forming a weld line joining the two structural elements ; - adding material across the weld line , thereby forming crack stoppers for limiting crack propagation along the weld line, said crack stoppers each having a limited extension along the weld line as seen in relation to a length of the weld line, wherein said weld line and said crack stoppers are formed of the same material as the two structural elements , and wherein the crack stoppers are formed along the weld line, such that neighbouring crack stoppers are spaced at predetermined distances from each other, wherein the predetermined distances are no greater than the predetermined acceptable crack length. determining an acceptable crack length according to the expected load cycles of the engine, joining two structural elements by welding, wherein the joining comprises: - forming a weld line joining the two structural elements ; - adding material across the weld line , thereby forming crack stoppers for limiting crack propagation along the weld line, said crack stoppers each having a limited extension along the weld line as seen in relation to a length of the weld line, wherein said weld line and said crack stoppers are formed of the same material as the two structural elements , and wherein the crack stoppers are formed along the weld line, such that neighbouring crack stoppers are spaced at predetermined distances from each other, wherein the predetermined distances are no greater than the predetermined acceptable crack length. - forming a weld line joining the two structural elements ; - adding material across the weld line , thereby forming crack stoppers for limiting crack propagation along the weld line, said crack stoppers each having a limited extension along the weld line as seen in relation to a length of the weld line, wherein said weld line and said crack stoppers are formed of the same material as the two structural elements , and wherein the crack stoppers are formed along the weld line, such that neighbouring crack stoppers are spaced at predetermined distances from each other, wherein the predetermined distances are no greater than the predetermined acceptable crack length.
An anatomical talotarsal orthosis for immobilising the ankle joint, comprising several rigid areas lined with a sheath that comes into contact with at least the ankle, at least one connecting band for attaching the orthosis in a removable and adjustable manner on the ankle, said rigid areas being for immobilising the calcaneus and the cuboid bone and comprising two retromalleolar support areas which allow the two malleoli to be bare, as well as a first rigid area for supporting the soleus for surrounding the lower rear of the leg while arranging an aperture at the Achilles tendon, this orthosis being characterised in that said aperture has a V-shape opening from the rear of the leg towards the heel, so that the heel is bare, not covered by the orthosis.
A soundproof cover (1; 51; 61; 70) attachable to a compressor for an air conditioner comprising: a sound-insulating material body portion (11; 62; 71) that is a rubber or thermoplastic-elastomer molded product with sound-insulating properties having a shape that is configured to correspond to an outer shape of a compressor body portion including a compressor leg portion positioned on a lower end side, having a folded portion (12; 78) being configured to extend along a height direction of the compressor body portion and configured to cover the compressor body portion by being folded through the folded portion (12; 78); a sound-insulating material head portion (21; 63) that is a rubber or thermoplastic-elastomer molded product with sound-insulating properties having a shape configured to correspond to an outer shape of a compressor head portion positioned on an upper end side of the compressor body portion ; a sound absorbing material (41; 65; 72) provided at least inside the sound-insulating material body portion (11; 62; 71), characterized by a sound-insulating material bottom portion (31; 55; 64a) configured to have a shape for covering the compressor leg portion from below; and the sound-insulating material body portion (11; 62; 71) contacts a peripheral edge portion (35; 66) of the sound-insulating material bottom portion (31; 55; 64a). a sound-insulating material body portion (11; 62; 71) that is a rubber or thermoplastic-elastomer molded product with sound-insulating properties having a shape that is configured to correspond to an outer shape of a compressor body portion including a compressor leg portion positioned on a lower end side, having a folded portion (12; 78) being configured to extend along a height direction of the compressor body portion and configured to cover the compressor body portion by being folded through the folded portion (12; 78); a sound-insulating material head portion (21; 63) that is a rubber or thermoplastic-elastomer molded product with sound-insulating properties having a shape configured to correspond to an outer shape of a compressor head portion positioned on an upper end side of the compressor body portion ; a sound absorbing material (41; 65; 72) provided at least inside the sound-insulating material body portion (11; 62; 71), characterized by a sound-insulating material bottom portion (31; 55; 64a) configured to have a shape for covering the compressor leg portion from below; and the sound-insulating material body portion (11; 62; 71) contacts a peripheral edge portion (35; 66) of the sound-insulating material bottom portion (31; 55; 64a).
A spectacle case comprising an opening / closing spectacle case clamp (A, B), wherein the spectacle case is made of a material body, which may be a flexible material such as natural or synthetic leather, paper, textile or plastic material or a rigid material such as a metal or plastic material the material body having a rectangular front side (a) and a rear side (b), with rounded corners, separated by a central rectangular surface and being folded towards one another by fold lines, the rear side being provided with a central trapezoidal recess, characterized in that the central rectangular surface ( c ) is provided with a median opening ( g ) penetrated by the opening / closing spectacle case clamp (A, B ).
Use of a kit for detecting mutations that cause the differential expression of a 5' region of a target gene relative to the 3' region of the target gene, wherein the kit comprises: (a) at least one primer pair for determining the level of expression of at least one sequence from the 5' region of the target gene, wherein the at least one primer pair is selected from a first primer of SEQ ID NO: 7 and a second primer of SEQ ID NO: 8 when the target gene is ERG; and (b) at least one primer pair for determining the level of expression of at least one sequence from the 3' region of the target gene, wherein the at least one primer pair is selected from a first primer of SEQ ID NO: 10 and a second primer of SEQ ID NO: 11 when the target gene is ERG. (a) at least one primer pair for determining the level of expression of at least one sequence from the 5' region of the target gene, wherein the at least one primer pair is selected from a first primer of SEQ ID NO: 7 and a second primer of SEQ ID NO: 8 when the target gene is ERG; and (b) at least one primer pair for determining the level of expression of at least one sequence from the 3' region of the target gene, wherein the at least one primer pair is selected from a first primer of SEQ ID NO: 10 and a second primer of SEQ ID NO: 11 when the target gene is ERG.
Use of a sintered body for cutting a nickel-based heat-resistance alloy, the sintered body comprising: cubic boron nitride grains as hard phase grains; a binder; and different-type hard phase grains including at least one selected from the group consisting of silicon nitride and SiAION as the hard phase grains other than the cubic boron nitride grains, the sintered body having a thermal conductivity of not less than 15 W·m -1 ·K -1 and not more than 40 W·m -1 ·K -1 , the thermal conductivity being calculated by multiplying a thermal diffusivity by a specific heat and a density of the sintered body, the thermal diffusivity and the specific heat being measured with a laser-flash-method thermal constant measuring apparatus by using a sample with a diameter of 18 mm and a thickness of 1 mm being cut from the sintered body, the nickel-based heat-resistant alloy being formed of crystal grains having a fine grain size represented by a grain size number of more than 5 defined by American Society for Testing and Materials standard E112-13. cubic boron nitride grains as hard phase grains; a binder; and different-type hard phase grains including at least one selected from the group consisting of silicon nitride and SiAION as the hard phase grains other than the cubic boron nitride grains, the sintered body having a thermal conductivity of not less than 15 W·m -1 ·K -1 and not more than 40 W·m -1 ·K -1 , the thermal conductivity being calculated by multiplying a thermal diffusivity by a specific heat and a density of the sintered body, the thermal diffusivity and the specific heat being measured with a laser-flash-method thermal constant measuring apparatus by using a sample with a diameter of 18 mm and a thickness of 1 mm being cut from the sintered body, the nickel-based heat-resistant alloy being formed of crystal grains having a fine grain size represented by a grain size number of more than 5 defined by American Society for Testing and Materials standard E112-13.
Radiological imaging device defining a longitudinal axis and comprising - a gantry suitable to perform said radiological imaging and defining an area of analysis ; - a robotic arm suitable to move a medical instrument with respect to said area of analysis ; - a bearing structure supporting said gantry and comprising - a guide defining a translation axis substantially parallel to said longitudinal axis ; and - at least one carriage suitable to move said gantry and said robotic arm along said translation axis . wherein - said gantry is connected to said at least one carriage and comprises a source suitable to emit radiation, a detector suitable to receive said radiation after said radiation has passed through said area of analysis and a rotor supporting at least said source and said detector , characterised in that said gantry further comprises a stator supporting said rotor cantilevered ; and a rotation member to rotate said rotor with respect to said stator ; and that said at least one robotic arm is connected to said rotor . - a gantry suitable to perform said radiological imaging and defining an area of analysis ; - a robotic arm suitable to move a medical instrument with respect to said area of analysis ; - a bearing structure supporting said gantry and comprising - a guide defining a translation axis substantially parallel to said longitudinal axis ; and - at least one carriage suitable to move said gantry and said robotic arm along said translation axis . - a guide defining a translation axis substantially parallel to said longitudinal axis ; and - at least one carriage suitable to move said gantry and said robotic arm along said translation axis . - said gantry is connected to said at least one carriage and comprises a source suitable to emit radiation, a detector suitable to receive said radiation after said radiation has passed through said area of analysis and a rotor supporting at least said source and said detector , characterised in that said gantry further comprises a stator supporting said rotor cantilevered ; and a rotation member to rotate said rotor with respect to said stator ; and
A modular cooling apparatus for a high-voltage direct-current transmission system, the apparatus comprising: a housing forming an external shape and having an internal space ; external couplers disposed through an inclined surface , which is inclined downward at a lower portion of a front of the housing , and connected with cooling water hoses; a heat sink disposed in the internal space , having a cooling water channel therein, and mounted with heat sources ; and internal couplers disposed at an inlet and an outlet of the cooling water channel and connected to the external couplers through internal connection pipes , wherein the heat sink is attached on an outer side of a support plate vertically erected in the internal space , and the inlet and the outlet of the cooling water channel are formed at a lower end of the heat sink close to a bottom of the internal space , and wherein the support plate divides the internal space into desired spaces. a housing forming an external shape and having an internal space ; external couplers disposed through an inclined surface , which is inclined downward at a lower portion of a front of the housing , and connected with cooling water hoses; a heat sink disposed in the internal space , having a cooling water channel therein, and mounted with heat sources ; and internal couplers disposed at an inlet and an outlet of the cooling water channel and connected to the external couplers through internal connection pipes , wherein the heat sink is attached on an outer side of a support plate vertically erected in the internal space , and the inlet and the outlet of the cooling water channel are formed at a lower end of the heat sink close to a bottom of the internal space , and wherein the support plate divides the internal space into desired spaces.