mhurhangee/patent-ind-claim-en huggingface dataset:
Modular carriage for varying spacing between ends of polymer pipe during fusion, said modular carriage comprising: a fixed jaw ; a movable jaw (14/16); a plurality of guide rods (24/26); said fixed jaw being adapted for tool free engagement with and removal from said plurality of guide rods (24/26); a carriage cylinder (32/34) associated with at least two of said guide rods (24/26), said carriage cylinder (32/34) being mounted for reciprocal travel on its associated guide rod (24/26); said movable jaw (14/16) being adapted for tool free engagement with and removal from said at least one carriage cylinder (32/34) for reciprocal travel therewith, said guide rods (24/26) include a longitudinal axis and each said carriage cylinder (32/34) includes a longitudinal axis which is concentric with the longitudinal axis of its associated guide rod (24/26) and characterised in that said movable jaw (14/16) includes at least two latching assemblies (44/46/52/54) being operable to secure said movable jaw (14/16) to said carriage cylinders (32/34) by tool free engagement.. a fixed jaw ; a movable jaw (14/16); a plurality of guide rods (24/26); said fixed jaw being adapted for tool free engagement with and removal from said plurality of guide rods (24/26); a carriage cylinder (32/34) associated with at least two of said guide rods (24/26), said carriage cylinder (32/34) being mounted for reciprocal travel on its associated guide rod (24/26); said movable jaw (14/16) being adapted for tool free engagement with and removal from said at least one carriage cylinder (32/34) for reciprocal travel therewith, said guide rods (24/26) include a longitudinal axis and each said carriage cylinder (32/34) includes a longitudinal axis which is concentric with the longitudinal axis of its associated guide rod (24/26) and characterised in that said movable jaw (14/16) includes at least two latching assemblies (44/46/52/54) being operable to secure said movable jaw (14/16) to said carriage cylinders (32/34) by tool free engagement..
An electronic device comprising: a mounting surface configured to receive another electronic device ; a holder recess provided in the mounting surface ; and a rotatable clip installed in the mounting surface , and configured to accommodate at least one part of the other electronic device ; characterised in that the holder recess comprises: a mounting space configured to receive and control at least one part of the other electronic device, when the other electronic device is overlapped by the mounting surface of the electronic device; a first support part configured, when the other electronic device is received by the mounting surface, to support a rear surface of the other electronic device; and a second support part configured to support a front surface of the other electronic device, wherein the holder recess is configured, in a first configuration, to hold the other electronic device at certain holding angles and, in a second configuration, to accommodate one end of the other electronic device when another end of the other electronic device is accommodated by the rotatable clip. a mounting surface configured to receive another electronic device ; a holder recess provided in the mounting surface ; and a rotatable clip installed in the mounting surface , and configured to accommodate at least one part of the other electronic device ; characterised in that the holder recess comprises: a mounting space configured to receive and control at least one part of the other electronic device, when the other electronic device is overlapped by the mounting surface of the electronic device; a first support part configured, when the other electronic device is received by the mounting surface, to support a rear surface of the other electronic device; and a second support part configured to support a front surface of the other electronic device, wherein the holder recess is configured, in a first configuration, to hold the other electronic device at certain holding angles and, in a second configuration, to accommodate one end of the other electronic device when another end of the other electronic device is accommodated by the rotatable clip. a mounting space configured to receive and control at least one part of the other electronic device, when the other electronic device is overlapped by the mounting surface of the electronic device; a first support part configured, when the other electronic device is received by the mounting surface, to support a rear surface of the other electronic device; and a second support part configured to support a front surface of the other electronic device, wherein the holder recess is configured, in a first configuration, to hold the other electronic device at certain holding angles and, in a second configuration, to accommodate one end of the other electronic device when another end of the other electronic device is accommodated by the rotatable clip.
A riluzole prodrug for use in the treatment of ataxia in a patient in need thereof, wherein the ataxia is spinocerebellar ataxia selected from SCA1, SCA2, SCA3, SCA6, SCA7, SCA8 and SCA10; and the riluzole prodrug is according the following formula: and pharmaceutically acceptable salts thereof, wherein: R 23 is selected from the group consisting H, CH 3 , CH 2 CH 3 , CH 2 CH 2 CH 3 , CH 2 CCH, CH(CH 3 ) 2 , CH 2 CH(CH 3 ) 2 , CH(CH 3 )CH 2 CH 3 , CH 2 OH, CH 2 OCH 2 Ph, CH 2 CH 2 OCH 2 Ph, CH(OH)CH 3 , CH 2 Ph, CH 2 (cyclohexyl), CH 2 (4-OH-Ph), (CH 2 ) 4 NH 2 , (CH 2 ) 3 NHC(NH 2 )NH, CH 2 (3-indole), CH 2 (5-imidazole), CH 2 CO 2 H, CH 2 CH 2 CO 2 H, CH 2 CONH 2 , and CH 2 CH 2 CONH 2 . the ataxia is spinocerebellar ataxia selected from SCA1, SCA2, SCA3, SCA6, SCA7, SCA8 and SCA10; and the riluzole prodrug is according the following formula: and pharmaceutically acceptable salts thereof, wherein: R 23 is selected from the group consisting H, CH 3 , CH 2 CH 3 , CH 2 CH 2 CH 3 , CH 2 CCH, CH(CH 3 ) 2 , CH 2 CH(CH 3 ) 2 , CH(CH 3 )CH 2 CH 3 , CH 2 OH, CH 2 OCH 2 Ph, CH 2 CH 2 OCH 2 Ph, CH(OH)CH 3 , CH 2 Ph, CH 2 (cyclohexyl), CH 2 (4-OH-Ph), (CH 2 ) 4 NH 2 , (CH 2 ) 3 NHC(NH 2 )NH, CH 2 (3-indole), CH 2 (5-imidazole), CH 2 CO 2 H, CH 2 CH 2 CO 2 H, CH 2 CONH 2 , and CH 2 CH 2 CONH 2 .
A method for forming a reconstructed 3D mesh, the method comprising: receiving , at one or more processors, a set of captured depth maps associated with a scene; performing , using the one or more processors, an initial camera pose alignment associated with each captured depth map of the set of captured depth maps; overlaying , using the one or more processors, the set of captured depth maps in a reference frame; detecting , using the one or more processors, one or more shapes of man-made structures within the scene in the overlaid set of captured depth maps, wherein each of the one or more shapes corresponds to a structure within the scene, thereby providing one or more detected shapes; updating , using the one or more processors and the one or more detected shapes, the initial camera pose alignment based on an overlap between the overlaid set of captured depth maps and the one or more detected shapes to provide a shape-aware camera pose alignment associated with each captured depth map of the set of captured depth maps; performing , using the one or more processors and the one or more detected shapes, shape-aware volumetric fusion by recreating shape meshes for each of the one or more detected shapes, rendering a depth map from each virtual camera of each shape mesh, and fusing the set of captured depth maps, each having a shape-aware camera pose alignment associated therewith, with the rendered depth maps; and forming , using the one or more processors and the shape-aware volumetric fusion, the reconstructed 3D mesh associated with the scene. receiving , at one or more processors, a set of captured depth maps associated with a scene; performing , using the one or more processors, an initial camera pose alignment associated with each captured depth map of the set of captured depth maps; overlaying , using the one or more processors, the set of captured depth maps in a reference frame; detecting , using the one or more processors, one or more shapes of man-made structures within the scene in the overlaid set of captured depth maps, wherein each of the one or more shapes corresponds to a structure within the scene, thereby providing one or more detected shapes; updating , using the one or more processors and the one or more detected shapes, the initial camera pose alignment based on an overlap between the overlaid set of captured depth maps and the one or more detected shapes to provide a shape-aware camera pose alignment associated with each captured depth map of the set of captured depth maps; performing , using the one or more processors and the one or more detected shapes, shape-aware volumetric fusion by recreating shape meshes for each of the one or more detected shapes, rendering a depth map from each virtual camera of each shape mesh, and fusing the set of captured depth maps, each having a shape-aware camera pose alignment associated therewith, with the rendered depth maps; and forming , using the one or more processors and the shape-aware volumetric fusion, the reconstructed 3D mesh associated with the scene.
A flow restrictor for an embolization device , the flow restrictor having an inner hole for receiving a stem of the embolization device to mount the flow restrictor on the embolization device , wherein the flow restrictor comprises: a membrane for restricting flow in the bodily lumen , having a first elasticity; and a reinforcing section having a second elasticity and at least partially surrounding the inner hole ; characterised in that the reinforcing section is at least partially interspersed with the membrane . a membrane for restricting flow in the bodily lumen , having a first elasticity; and a reinforcing section having a second elasticity and at least partially surrounding the inner hole ;
An apparatus for providing protection from transient electrical events , the apparatus comprising: an integrated circuit ; a pad on a surface of the integrated circuit; a configurable protection circuit within the integrated circuit, wherein the configurable protection circuit is electrically connected to the pad, and wherein the configurable protection circuit comprises a plurality of subcircuits arranged in series, and wherein the plurality of subcircuits are configured such that selection of one or more of the plurality of the subcircuits for operation determines at least one of a holding voltage or a trigger voltage of the configurable protection circuit; and a pad controller configured to select one or more of the plurality of subcircuits for activation to achieve a desired holding voltage and/or a desired trigger voltage for the protection circuit. an integrated circuit ; a pad on a surface of the integrated circuit; a configurable protection circuit within the integrated circuit, wherein the configurable protection circuit is electrically connected to the pad, and wherein the configurable protection circuit comprises a plurality of subcircuits arranged in series, and wherein the plurality of subcircuits are configured such that selection of one or more of the plurality of the subcircuits for operation determines at least one of a holding voltage or a trigger voltage of the configurable protection circuit; and a pad controller configured to select one or more of the plurality of subcircuits for activation to achieve a desired holding voltage and/or a desired trigger voltage for the protection circuit.
A method of making a cam element for a camming device comprising forming a body, applying during manufacture a protective coating to the body in an anodisation process, and characterised by, in a subsequent manufacturing step, performing a machining operation on the body to form a working surface , thereby removing the coating in the region of the working surface.
An eye surgery system comprising: an eye interface device configured to interface with an eye of a patient ; a scanning assembly supporting the eye interface device and operable to scan a focal point of an electromagnetic radiation beam to different locations within the eye; a beam source configured to generate the electromagnetic radiation beam ; a free-floating mechanism that supports the scanning assembly and is configured to accommodate movement of the eye and provide a variable optical path for the electronic radiation beam and a portion of the electronic radiation beam reflected from the focal point location, the variable optical path being disposed between the beam source and the scanning assembly and having an optical path length that changes in response to movement of the eye; and a detection assembly configured to generate an intensity signal indicative of intensity of a portion of the electromagnetic radiation beam reflected from the focal point location. an eye interface device configured to interface with an eye of a patient ; a scanning assembly supporting the eye interface device and operable to scan a focal point of an electromagnetic radiation beam to different locations within the eye; a beam source configured to generate the electromagnetic radiation beam ; a free-floating mechanism that supports the scanning assembly and is configured to accommodate movement of the eye and provide a variable optical path for the electronic radiation beam and a portion of the electronic radiation beam reflected from the focal point location, the variable optical path being disposed between the beam source and the scanning assembly and having an optical path length that changes in response to movement of the eye; and a detection assembly configured to generate an intensity signal indicative of intensity of a portion of the electromagnetic radiation beam reflected from the focal point location.
A loading system for loading a suture retainer plate into the distal end of a suturing instrument, comprising: an outer member having an internal cavity therein and having proximal and distal ends, the proximal end of the outer member having an opening therein that is in communication with the internal cavity ; and an inner member having proximal and distal ends and being an independent element from the outer member , the distal end of the inner member being configured to be inserted through the opening of the outer member and into the internal cavity of the outer member , the inner member including a seat configured to removably and replaceably receive a suture retainer plate therein, the proximal end of the inner member having a bore formed therein, the bore being configured to receive therein a distal end of a surgical suturing instrument, wherein the bore and the seat communicate with each other to allow the suture retainer plate to be transferred from the seat into the bore when the distal end of the instrument is in the bore , wherein the inner and outer members are movable with respect to each other and the outer member is configured to engage the suture retainer plate to cause the suture retainer plate to advance into the bore from the seat , to be loaded into the distal end of the surgical suturing instrument, in response to the inner member being inserted into the internal cavity . an outer member having an internal cavity therein and having proximal and distal ends, the proximal end of the outer member having an opening therein that is in communication with the internal cavity ; and an inner member having proximal and distal ends and being an independent element from the outer member , the distal end of the inner member being configured to be inserted through the opening of the outer member and into the internal cavity of the outer member , the inner member including a seat configured to removably and replaceably receive a suture retainer plate therein, the proximal end of the inner member having a bore formed therein, the bore being configured to receive therein a distal end of a surgical suturing instrument, wherein the bore and the seat communicate with each other to allow the suture retainer plate to be transferred from the seat into the bore when the distal end of the instrument is in the bore , wherein the inner and outer members are movable with respect to each other and the outer member is configured to engage the suture retainer plate to cause the suture retainer plate to advance into the bore from the seat , to be loaded into the distal end of the surgical suturing instrument, in response to the inner member being inserted into the internal cavity .
A submerged combustion furnace (SCF) for melting ceramic frits comprising: - at least one submerged combustion burner , - at least one furnace force measurement system to determine the overall weight (OW) of the furnace, - at least one regulating system for regulating at least one process variable (X) of the furnace (SCF), - at least one control loop with feedback of the overall weight (OW), wherein the at least one control loop is adapted for regulating the overall weight (OW) by acting on the at least one regulating system for regulating at least one variable of the furnace (SCF). - at least one submerged combustion burner , - at least one furnace force measurement system to determine the overall weight (OW) of the furnace, - at least one regulating system for regulating at least one process variable (X) of the furnace (SCF), - at least one control loop with feedback of the overall weight (OW),
A plasmid which encodes: i. an insulin antigen; ii. TGF-β; iii. IL-10;and wherein said plasmid furthermore drives expression of Interleukin-2 (IL-2). i. an insulin antigen; ii. TGF-β; iii. IL-10;and wherein said plasmid furthermore drives expression of Interleukin-2 (IL-2).
An alkali aluminosilicate glass, the alkali aluminosilicate glass comprising from 0.5 mol% to 4 mol% B 2 O 3 , less than 1 mol% Li 2 O, and from 1 mol% to 7 mol% ZnO, wherein the alkali aluminosilicate glass has a softening point of 790°C or less and a high temperature coefficient of thermal expansion of 35 x 10 -6 /K or less, and wherein the alkali aluminosilicate glass is formable into a three-dimensional non-planar shape and is ion exchangeable, with the proviso that the glass is not the glass of samples 31 and 33 of WO 2015/130587 Al..
A processor-implemented method of mapping a cardiac activation wavefront , comprising: receiving a geometry of at least a portion of a cardiac surface, the geometry comprising a plurality of nodes ; receiving electrophysiology data for the portion of the cardiac surface, the electrophysiology data comprising conduction velocity data; assigning a conduction velocity vector to each node of the plurality of nodes using the conduction velocity data, thereby creating a plurality of conduction velocity vectors; characterized in that the method further comprises: defining a plurality of directed edges connecting the plurality of nodes , thereby creating a directed conduction velocity graph; assigning a weight to each directed edge of the plurality of directed edges in the directed conduction velocity graph, thereby creating a weighted directed conduction velocity graph; and identifying a cardiac activation wavefront using the weighted directed conduction velocity graph. receiving a geometry of at least a portion of a cardiac surface, the geometry comprising a plurality of nodes ; receiving electrophysiology data for the portion of the cardiac surface, the electrophysiology data comprising conduction velocity data; assigning a conduction velocity vector to each node of the plurality of nodes using the conduction velocity data, thereby creating a plurality of conduction velocity vectors; characterized in that the method further comprises: defining a plurality of directed edges connecting the plurality of nodes , thereby creating a directed conduction velocity graph; assigning a weight to each directed edge of the plurality of directed edges in the directed conduction velocity graph, thereby creating a weighted directed conduction velocity graph; and identifying a cardiac activation wavefront using the weighted directed conduction velocity graph. defining a plurality of directed edges connecting the plurality of nodes , thereby creating a directed conduction velocity graph; assigning a weight to each directed edge of the plurality of directed edges in the directed conduction velocity graph, thereby creating a weighted directed conduction velocity graph; and identifying a cardiac activation wavefront using the weighted directed conduction velocity graph.
A method for pressurizing a sterilization chamber of a steam sterilizer with a controlled rate of pressure change, comprising: (a) moving a steam-to-chamber valve to an open state for duration of a pulse during each of a plurality of time PERIODS needed to reach a target pressure value, wherein steam is injected into the chamber from a source of steam when the steam-to-chamber valve is in the open state; (b) determining a first error value after pressurizing the sterilization chamber for a first time PERIOD; (c) adjusting the duration of the pulse for a subsequent time PERIOD based upon the error value; (d) determining a subsequent error value after pressurizing the sterilization chamber for the subsequent time PERIOD; (e) repeating steps (c) and (d) until the target pressure value is reached, wherein each of the error values is determined from a difference between a Theoretical Pressure and a Measured Pressure obtained from a pressure sensor sensing a pressure level in the chamber. (a) moving a steam-to-chamber valve to an open state for duration of a pulse during each of a plurality of time PERIODS needed to reach a target pressure value, wherein steam is injected into the chamber from a source of steam when the steam-to-chamber valve is in the open state; (b) determining a first error value after pressurizing the sterilization chamber for a first time PERIOD; (c) adjusting the duration of the pulse for a subsequent time PERIOD based upon the error value; (d) determining a subsequent error value after pressurizing the sterilization chamber for the subsequent time PERIOD; (e) repeating steps (c) and (d) until the target pressure value is reached, wherein each of the error values is determined from a difference between a Theoretical Pressure and a Measured Pressure obtained from a pressure sensor sensing a pressure level in the chamber.
Method for manufacturing a connecting element using an injection moulding method, wherein, in a first step, a fastening part with gripping or interlocking elements forming a component of a hook and loop fastener is manufactured at least partially from at least one plastics material and placed in an injection mould as an insert, at least one additional plastics material being placed in said injection mould in a second step using a back moulding process at a pre-definable pressure and a pre-definable temperature to form a main body in such a way that the respective other plastics material at least partially forms a combined molten mass with the at least one plastics material of the fastening part , and, after said molten mass has cooled down, the fastening part is connected in a material-uniting manner to the main body to form the connecting element as a complete one-piece component.
A combustor for mixing a flow of air and a flow of fuel , comprising: an air path for the flow of air ; a plurality of fuel injectors positioned in the air path for the flow of fuel ; and a crossfire tube positioned within the air path upstream of the plurality of fuel injectors ; wherein the crossfire tube comprises a plurality of purge holes positioned in a plurality of columns positioned on a downstream side thereof to reduce a wake in the flow of air caused by the crossfire tube in the air path . an air path for the flow of air ; a plurality of fuel injectors positioned in the air path for the flow of fuel ; and a crossfire tube positioned within the air path upstream of the plurality of fuel injectors ; wherein the crossfire tube comprises a plurality of purge holes positioned in a plurality of columns positioned on a downstream side thereof to reduce a wake in the flow of air caused by the crossfire tube in the air path .