mhurhangee/ep-ind-claims huggingface dataset:
An imaging apparatus, comprising: a display control means configured to perform control so as to display an indicator on a display means; a movement detector configured to detect a movement of a finger on an operation surface of an operation member (1, 2) which is separated from the display means; a press detector configured to detect a pressing the operation surface of the operation member (1, 2); a control means configured to perform control so as to 1) move the indicator on the basis of a movement of a finger detected by the movement detector and 2) execute predetermined processing on the basis of a position of the indicator in accordance with a pressing the operation surface detected by the press detector; a setting means configured to set a restricted state where function execution due to a pressing the operation surface is restricted; a processing means configured to prevent the control means from moving the indicator on the basis of a detection by the movement detector in case where the restricted state is set by the setting means; and a second setting means configured to set a second restricted state where function execution by a movement of a finger on the operation surface is restricted, wherein the processing means is further configured to perform processing so as to execute the predetermined processing by the control means on the basis of a detection by the press detector even in case where the second restricted state is set by the second setting means. a display control means configured to perform control so as to display an indicator on a display means; a movement detector configured to detect a movement of a finger on an operation surface of an operation member (1, 2) which is separated from the display means; a press detector configured to detect a pressing the operation surface of the operation member (1, 2); a control means configured to perform control so as to 1) move the indicator on the basis of a movement of a finger detected by the movement detector and 2) execute predetermined processing on the basis of a position of the indicator in accordance with a pressing the operation surface detected by the press detector; a setting means configured to set a restricted state where function execution due to a pressing the operation surface is restricted; a processing means configured to prevent the control means from moving the indicator on the basis of a detection by the movement detector in case where the restricted state is set by the setting means; and a second setting means configured to set a second restricted state where function execution by a movement of a finger on the operation surface is restricted, wherein the processing means is further configured to perform processing so as to execute the predetermined processing by the control means on the basis of a detection by the press detector even in case where the second restricted state is set by the second setting means.
An analyzer comprising an analytical device configured to use a consumable, a primary solid waste container and a secondary solid waste container for solid waste of the analyzer, wherein the secondary solid waste container is placed underneath the primary solid waste container, wherein the secondary solid waste container comprises side walls and a deformable impact absorbing member for preventing solid waste dropped off into the secondary solid waste container from being reflected and jumping out of the secondary solid waste container, wherein the side walls comprise an upper end and a lower end and a rim between the upper end and the lower end, wherein the impact absorbing member is connected to the rim of the side walls such that the impact absorbing member extends between the side walls and is spaced apart from the lower end with respect to a direction from the lower end to the upper end and an air cushion is formed underneath the impact absorbing member, wherein the impact absorbing member is configured to absorb an impact from solid waste of the analyzer.
A tool storage (1, 1A, 1B, 1C) comprising: a tool receiver adapted to be provided at a position further in a first direction than a workpiece holder of a machine tool (100, 100A, 100B, 100C) and configured to receive a tool from outside the machine tool (100, 100A, 100B, 100C); a tool magazine adapted to be provided at a position further in a second direction than the workpiece holder, the second direction being defined as a direction opposite to the first direction; and a tool carriage is configured to carry the tool between the tool receiver and the tool magazine, characterized in that a tool exchanger is configured to exchange a first tool and a second tool with each other, the first tool being carriable to a tool exchange position (Pe) by the tool carriage, the second tool being attachable to a machining apparatus of the machine tool (100, 100A, 100B, 100C). a tool receiver adapted to be provided at a position further in a first direction than a workpiece holder of a machine tool (100, 100A, 100B, 100C) and configured to receive a tool from outside the machine tool (100, 100A, 100B, 100C); a tool magazine adapted to be provided at a position further in a second direction than the workpiece holder, the second direction being defined as a direction opposite to the first direction; and a tool carriage is configured to carry the tool between the tool receiver and the tool magazine, characterized in that a tool exchanger is configured to exchange a first tool and a second tool with each other, the first tool being carriable to a tool exchange position (Pe) by the tool carriage, the second tool being attachable to a machining apparatus of the machine tool (100, 100A, 100B, 100C).
A dental drill bit in combination with a surgical template provided with a guide hole adapted to guide the dental drill bit directly or via a guide sleeve provided in the guide hole, the dental drill bit comprising a first end, a second end, a spherical drill head arranged at the first end, and at least one helical flute extending from the spherical drill head towards the second end, wherein the portion of the dental drill bit having the at least one helical flute is cylindrical for guiding the dental drill bit by the guide hole directly or via a guide sleeve provided in the guide hole, wherein the maximum diameter of the spherical drill tip is equal or substantially equal to the diameter of the portion of the dental drill bit having the at least one helical flute, the drill bit further comprising a longitudinal axis extending through the first end and the second end, wherein the longitudinal axis lies in a plane in which the spherical drill head defines a circle sector having a sector angle (θ) greater than 180 deg.
Dielectric composition comprising particles having a perovskite crystal structure including at least Bi, Na, Sr and Ti, characterized in that: at least some of the particles have a core-shell structure comprising a core portion and a shell portion; and the content of Bi present in the core portion is at least 1.2 times the content of Bi present in the shell portion. at least some of the particles have a core-shell structure comprising a core portion and a shell portion; and the content of Bi present in the core portion is at least 1.2 times the content of Bi present in the shell portion.
A selective hydrogenation process comprising: dissolving acetylene and hydrogen in a solvent 120 to form a liquid feedstream 125, the solvent 120 comprising a mixture of a polar organic solvent and a non-polar organic solvent wherein the polar organic solvent comprises N-methyl-2-pyrrolidone and the non-polar organic solvent comprises p-diethylbenzene; and contacting the liquid feedstream 125 with a heterogeneous supported selective hydrogenation catalyst at selective hydrogenation conditions to convert at least a portion of the acetylene to ethylene forming a liquid reaction mixture 160 comprising the ethylene produced. dissolving acetylene and hydrogen in a solvent 120 to form a liquid feedstream 125, the solvent 120 comprising a mixture of a polar organic solvent and a non-polar organic solvent wherein the polar organic solvent comprises N-methyl-2-pyrrolidone and the non-polar organic solvent comprises p-diethylbenzene; and contacting the liquid feedstream 125 with a heterogeneous supported selective hydrogenation catalyst at selective hydrogenation conditions to convert at least a portion of the acetylene to ethylene forming a liquid reaction mixture 160 comprising the ethylene produced.
A process for manufacturing structured material, characterized by the steps of: (a) providing cellulose fibres; (b) providing at least one filler comprising at least one filler and/or pigment (c) combining the cellulose fibres of step a) and the at least one filler of step b); (d) fibrillating the cellulose fibres in an aqueous environment in the presence of the at least one filler from step c) until a nano-fibrillar gel is formed, wherein the formation of the gel is verified by monitoring the viscosity of the mixture in dependence of the shearing rate, wherein the viscosity decrease of the mixture upon step-wise increase of the shearing rate is larger than the corresponding viscosity increase upon subsequent step-wise reduction of the shearing rate over at least part of the shear rate range as shearing approaches zero; (e) providing additional non-fibrillated fibres in the form of a fibre web; (f) combining the gel of step d) with the non-fibrillated fibres in the form of a fibre web of step e) so that the combination of the nano-fibrillar gel and the non-fibrillated fibres includes 0.5 to 20 wt% of the nano-fibrillar gel, expressed by the cellulosic content of the nano-fibrillar gel, on a dry/dry basis; and (g) manufacturing a structured material from the combination of the nano-fibrillar gel and the non-fibrillated fibres in the form of a fibre web and subsequently dewatering the combination. (a) providing cellulose fibres; (b) providing at least one filler comprising at least one filler and/or pigment (c) combining the cellulose fibres of step a) and the at least one filler of step b); (d) fibrillating the cellulose fibres in an aqueous environment in the presence of the at least one filler from step c) until a nano-fibrillar gel is formed, wherein the formation of the gel is verified by monitoring the viscosity of the mixture in dependence of the shearing rate, wherein the viscosity decrease of the mixture upon step-wise increase of the shearing rate is larger than the corresponding viscosity increase upon subsequent step-wise reduction of the shearing rate over at least part of the shear rate range as shearing approaches zero; (e) providing additional non-fibrillated fibres in the form of a fibre web; (f) combining the gel of step d) with the non-fibrillated fibres in the form of a fibre web of step e) so that the combination of the nano-fibrillar gel and the non-fibrillated fibres includes 0.5 to 20 wt% of the nano-fibrillar gel, expressed by the cellulosic content of the nano-fibrillar gel, on a dry/dry basis; and (g) manufacturing a structured material from the combination of the nano-fibrillar gel and the non-fibrillated fibres in the form of a fibre web and subsequently dewatering the combination.
A tool holder base insert for a perforated panel (2; 2a, b, c), wherein the perforated panel (2; 2a, b, c) is configured as a panel body having a plurality of accommodating holes, wherein the accommodating holes define a panel perforation grid, having a bearing surface for bearing the tool holder base insert on the perforated panel (2; 2c) in an installed state of the tool holder base insert, having at least one hook device, wherein the hook device projects beyond the bearing surface in a plug-in direction beyond the bearing surface so that the hook device, in the installed state of the tool holder base insert, can engage through one of the accommodating holes, wherein the hook device has a hook leg and a hook head which jointly form a panel-accommodating region for accommodating a peripheral panel region of the panel body, which faces the accommodating hole so that, in the installed state of the tool holder base insert, the peripheral panel region is arranged in the panel-accommodating region, wherein the hook leg provides a contact surface for the peripheral panel region in a loading direction for the tool holder base insert and the hook head engages over the top of the peripheral panel region in the loading direction, and having at least one securing device, wherein the securing device, in the installed state of the tool holder base insert, is arranged in one of the accommodating holes and secures the tool holder base insert in a form-fitting manner against being displaced counter to the loading direction, characterized in that the tool holder base insert has a base-body portion and a securing portion, wherein the base-body portion defines the bearing surface and carries the hook device, and wherein the securing portion carries the securing device, wherein the base-body portion and the securing portion are arranged movably in relation to one another, so that the securing device elastically deflectable, counter to the plug-in direction, relative to the hook device.
A high strength steel material containing, by mass%, C: 0.10 to 0.55%, Si: 0.01 to 3%, and Mn: 0.1 to 2%, further containing one or both of V: 1.5% or less and Mo: 3.0% or less, the contents of V and Mo satisfying V+1/2Mo>0.4%, further containing one or more of Cr: 0.05 to 1.5%, Nb: 0.001 to 0.05%, Cu: 0.01 to 4%, Ni: 0.01 to 4%, and B: 0.0001 to 0.005%, further optionally containing one or more of Al: 0.003 to 0.1%, Ti: 0.003 to 0.05%, Mg: 0.0003 to 0.01%, Ca: 0.0003 to 0.01%, and Zr: 0.0003 to 0.01%, and having a balance of Fe and unavoidable impurities, the structure being a mainly tempered martensite structure, the surface of the steel material being formed with (a) a nitrided layer having a thickness from the surface of said steel material of 200 μm or more and a nitrogen concentration of 12.0 mass% or less and higher than the nitrogen concentration of said steel material by 0.02 mass% or more and (b) a low carbon region having a depth from the surface of said steel material of 100 μm or more to 1000 μm or less and having a carbon concentration of 0.05 mass% or more and 0.9 time or less the carbon concentration of said steel material and wherein said tempered martensite has an area ratio of 85% or more. (a) a nitrided layer having a thickness from the surface of said steel material of 200 μm or more and a nitrogen concentration of 12.0 mass% or less and higher than the nitrogen concentration of said steel material by 0.02 mass% or more and (b) a low carbon region having a depth from the surface of said steel material of 100 μm or more to 1000 μm or less and having a carbon concentration of 0.05 mass% or more and 0.9 time or less the carbon concentration of said steel material and wherein said tempered martensite has an area ratio of 85% or more.
An apparatus comprising: a first antenna system to provide a first sector of a network; a second antenna system to provide a second sector of the network; a third antenna system to communicate with a base station of the network to provide a common wireless backhaul connection between said base station and said apparatus; characterized in that the apparatus further comprises an interface providing an additional backhaul connection between said base station and said apparatus via an internet connection of a building in which the apparatus is deployed; and backhaul management circuitry operable, in at least one mode of operation, to control utilisation of both the additional backhaul connection and the common wireless backhaul connection to provide, in combination, backhaul connectivity between said base station and items of user equipment connected to the apparatus via the first and second antenna systems. a first antenna system to provide a first sector of a network; a second antenna system to provide a second sector of the network; a third antenna system to communicate with a base station of the network to provide a common wireless backhaul connection between said base station and said apparatus; characterized in that the apparatus further comprises an interface providing an additional backhaul connection between said base station and said apparatus via an internet connection of a building in which the apparatus is deployed; and backhaul management circuitry operable, in at least one mode of operation, to control utilisation of both the additional backhaul connection and the common wireless backhaul connection to provide, in combination, backhaul connectivity between said base station and items of user equipment connected to the apparatus via the first and second antenna systems.
A method for translocating DNA into bacteriophage T4 virus heads previously filled with DNA comprising the following steps: (a) attaching a bacteriophage T4 packaging motor to a carrier, wherein the carrier is a bacteriophage T4 virus capsid shell, and (b) transferring an exogenous material into an inner compartment of the carrier to thereby form a packaging machine, wherein the exogenous material is DNA, (c) cutting the DNA and dissociating the bacteriophage T4 packaging motor from the bacteriophage T4 virus capsid shell, (d) emptying the bacteriophage T4 virus capsid shell of most of its DNA, (e) translocating the bacteriophage T4 packaging motor into the bacteriophage T4 virus capsid shell, and (f) repackaging the bacteriophage T4 virus capsid shell that is emptied of most of its DNA with DNA which is different from the DNA that is emptied from the bacteriophage T4 virus capsid shell, wherein said bacteriophage T4 packaging machine comprises said bacteriophage T4 packaging motor, said bacteriophage T4 virus capsid shell and a vertex portal protein, and wherein a peptide-like component is bound to an outer surface of the carrier. (a) attaching a bacteriophage T4 packaging motor to a carrier, wherein the carrier is a bacteriophage T4 virus capsid shell, and (b) transferring an exogenous material into an inner compartment of the carrier to thereby form a packaging machine, wherein the exogenous material is DNA, (c) cutting the DNA and dissociating the bacteriophage T4 packaging motor from the bacteriophage T4 virus capsid shell, (d) emptying the bacteriophage T4 virus capsid shell of most of its DNA, (e) translocating the bacteriophage T4 packaging motor into the bacteriophage T4 virus capsid shell, and (f) repackaging the bacteriophage T4 virus capsid shell that is emptied of most of its DNA with DNA which is different from the DNA that is emptied from the bacteriophage T4 virus capsid shell,
A roller unit for a drawer, comprising: a rotating support shaft fixed to a slidably movable accommodation body; an idle roller idle-rotatably coupled to the rotating support shaft; and coupling structures provided at assembled portions of the rotating support shaft and the idle roller, respectively, wherein the coupling structures include a locking groove formed in a circumferential direction with respect to an outer circumferential surface of the rotating support shaft, a protrusion formed on an inner circumferential surface of a fastening hole of the idle roller and coupled to the locking groove, and an assembly guiding groove formed at one end of the outer circumferential surface of the rotating support shaft toward the locking groove, the locking groove being continuously formed along the entire outer circumferential surface of the rotating support shaft and the protrusion being formed as a plurality of fragments while being spaced apart from each other along the entire inner circumferential surface of the fastening hole, characterized in that the assembly guiding groove includes a primary guiding groove formed to induce entrance of the protrusion toward the locking groove from one end of the outer circumferential surface of the rotating support shaft, and a secondary guiding groove (184, 184') continuously formed from the primary guiding groove to induce entrance of the protrusion toward the locking groove from the primary guiding groove. a rotating support shaft fixed to a slidably movable accommodation body; an idle roller idle-rotatably coupled to the rotating support shaft; and coupling structures provided at assembled portions of the rotating support shaft and the idle roller, respectively, wherein the coupling structures include a locking groove formed in a circumferential direction with respect to an outer circumferential surface of the rotating support shaft, a protrusion formed on an inner circumferential surface of a fastening hole of the idle roller and coupled to the locking groove, and an assembly guiding groove formed at one end of the outer circumferential surface of the rotating support shaft toward the locking groove, the locking groove being continuously formed along the entire outer circumferential surface of the rotating support shaft and the protrusion being formed as a plurality of fragments while being spaced apart from each other along the entire inner circumferential surface of the fastening hole, characterized in that the assembly guiding groove includes a primary guiding groove formed to induce entrance of the protrusion toward the locking groove from one end of the outer circumferential surface of the rotating support shaft, and a secondary guiding groove (184, 184') continuously formed from the primary guiding groove to induce entrance of the protrusion toward the locking groove from the primary guiding groove.
An electrophysiologic catheter having: an elongated catheter body; a control handle proximal of the catheter body; a tip electrode distal of the catheter body, the tip electrode having a shell and a support member and characterized in that the shell and support member are joined by a weld (80, 82), the weld having at least one seam weld and at least one penetration weld. an elongated catheter body; a control handle proximal of the catheter body; a tip electrode distal of the catheter body, the tip electrode having a shell and a support member and characterized in that the shell and support member are joined by a weld (80, 82), the weld having at least one seam weld and at least one penetration weld.
RF-plasma glow discharge apparatus comprising: a containment chamber in which to generate a plasma of ion species; a sputter target from which the ion species are generated; means arranged to pulse the power to said sputter target an RF antenna arranged to generate the plasma of ion species; means arranged to pulse the power at the RF antenna; characterised in that: the apparatus is arranged such that, in operation, the peak power density at the RF antenna is greater than 50 Wcm -2. a containment chamber in which to generate a plasma of ion species; a sputter target from which the ion species are generated; means arranged to pulse the power to said sputter target an RF antenna arranged to generate the plasma of ion species; means arranged to pulse the power at the RF antenna; characterised in that: the apparatus is arranged such that, in operation, the peak power density at the RF antenna is greater than 50 Wcm -2.