mhurhangee/ep-ind-claims huggingface dataset:
An automatic analyzer, comprising: a linear movement unit configured to access to an access point by a linear movement; a rotational movement unit configured to access to the access point by a rotational movement; and a control unit configured to control an operation of the linear movement unit and the rotational movement unit so that the linear movement unit and the rotational movement unit do not interfere with each other by setting a movement speed of the rotational movement unit to be larger than a movement speed of the linear movement unit, wherein the control unit is further configured to return the linear movement unit to a first origin, and to return the rotational movement unit to a second origin different from the first origin, wherein the movement speed of the linear movement unit is a speed at which the linear movement unit returns to the first origin, the movement speed of the rotational movement unit is a speed in a circumferential direction at which a tip end portion of the rotational movement unit returns to the second origin, and the linear movement unit linearly moves only in a direction of a straight line connecting the first origin and the access point. a linear movement unit configured to access to an access point by a linear movement; a rotational movement unit configured to access to the access point by a rotational movement; and a control unit configured to control an operation of the linear movement unit and the rotational movement unit so that the linear movement unit and the rotational movement unit do not interfere with each other by setting a movement speed of the rotational movement unit to be larger than a movement speed of the linear movement unit, wherein the control unit is further configured to return the linear movement unit to a first origin, and to return the rotational movement unit to a second origin different from the first origin, wherein the movement speed of the linear movement unit is a speed at which the linear movement unit returns to the first origin, the movement speed of the rotational movement unit is a speed in a circumferential direction at which a tip end portion of the rotational movement unit returns to the second origin, and the linear movement unit linearly moves only in a direction of a straight line connecting the first origin and the access point.
Arrangement for laser treatment of eye opacification, consisting of a measuring system for obtaining depth information relating to eye structures, a laser system for comminuting eye opacification and having optical elements for coupling the measuring and laser system, an eye tracker unit for detecting axial eye movements, a display unit, and a control and operating unit, characterized in that the measuring system is designed to make available depth information relating to eye structures in the form of depth profiles, in that the display unit is designed to display at least one 2-D image representation of the eye as a live image, in that the control and operating unit is designed to determine the depth of eye structures relative to the depth of the laser focus from the depth profiles and to determine an exclusion zone for laser treatment, for the retina and the capsular bag, and in that the control and operating unit is further designed to generate at least one marking for at least each of the exclusion zones of the retina and capsular bag and the laser focus, the characteristics of which markings correspond to the respective depth in the eye, in order to display these markings on the display unit and overlay these on the live image.
Propellant portioning device for a propellant formed from a plurality of individual propellant modules having a propellant axis, with at least two module holders (4.1, 4.2) characterized in the module holders (4.1, 4.2) each having at least one expandable holding element for holding one of the propellant modules, wherein the center axis of the at least two module holders (4.1, 4.2) are offset relative to each other, such that a radial movement with respect to the propellant axis can take place during portioning of the propellant charge.
A tracheostomy cannula comprising a cannula tube, wherein the cannula tube has a bend with a radially inward and a radially outward side of the cannula tube and a tube lumen and a tube wall and an axis extending parallel to the tube wall in the tube lumen and a distal and a proximal end and a first window region having one or more openings in the tube wall, wherein the cannula tube has in axially displaced relationship with the first window region at least one further window region having one or more openings in the tube wall, and that the tracheostomy cannula has an inner cannula having a tube wall and a tube lumen, which can be inserted into the cannula tube, characterised in that the inner cannula has inner window regions (13, 14) corresponding to the first and the further window regions of the cannula tube and having one or more openings (13', 14') in the tube wall which at least partially overlap in the axial direction with the first or the further window region of the cannula tube.
An agglomerated filler material comprising a core and a shell, a. wherein the core is made of a mixed oxides core material having a primary particle size of from 300 nm to 2 μm and the shell is made of a mixed oxides shell material, such that the core material and the shell material are different materials, b. wherein the shell material attaches to the core material via electrostatic forces, c. wherein the core material is positively or negatively charged and the shell material is an opposite charge of the core material, d. wherein a surface area of the agglomerated filler material is from about 1 m 2 /g to about 200 m 2 /g. a. wherein the core is made of a mixed oxides core material having a primary particle size of from 300 nm to 2 μm and the shell is made of a mixed oxides shell material, such that the core material and the shell material are different materials, b. wherein the shell material attaches to the core material via electrostatic forces, c. wherein the core material is positively or negatively charged and the shell material is an opposite charge of the core material, d. wherein a surface area of the agglomerated filler material is from about 1 m 2 /g to about 200 m 2 /g.
Open-ended spinning device with a spinning rotor which is mounted with its rotor shaft in the gusset of a support disc bearing and axially positioned using a magnet bearing device whereby the support disc bearing consists of two pairs of support discs each with a front and rear support disc as well as a drive and bearing device for the rotary application of at least one of the pairs of support discs of the support disc bearing, characterised in that the magnet bearing device for axially attaching the rotor shaft is arranged in the area of the winding of the support disc bearing between the front and rear support discs.
Polyamide-based polymer composition comprising: a) 50% to 98% by weight of a transparent amorphous polyamide; b) 1% to 15% by weight of a polymer in the form of core-shell particles; and c) 1% to 15% by weight of a polyether block and polyamide block copolymer, characterized in that said polyether block and polyamide block copolymer has: - as a 2 mm layer, a transmittance at 560 nm of 90% or more and - a refractive index that does not differ by more than 0.01 from that of the transparent amorphous polyamide and in that the polymer in the form of core-shell particles has a refractive index that does not differ by more than 0.01 from that of the transparent amorphous polyamide. a) 50% to 98% by weight of a transparent amorphous polyamide; b) 1% to 15% by weight of a polymer in the form of core-shell particles; and c) 1% to 15% by weight of a polyether block and polyamide block copolymer, characterized in that said polyether block and polyamide block copolymer has: - as a 2 mm layer, a transmittance at 560 nm of 90% or more and - a refractive index that does not differ by more than 0.01 from that of the transparent amorphous polyamide - as a 2 mm layer, a transmittance at 560 nm of 90% or more and - a refractive index that does not differ by more than 0.01 from that of the transparent amorphous polyamide
A contact system for a tap changer, which system includes a fixed contact part (1, 101) having a first contact surface (4, 104), and a movable contact part (2, 102) having a second contact surface (7, 107), the movable contact part (2, 102) being movable from an electrical non-contact position to an electrical contact position and vice versa, the direction of movement being substantially parallel to the first contact surface (4, 104), and whereby force applying means is arranged to urge said contact surfaces (4, 7, 104, 107) towards each other, characterized in that one of said contact parts includes a wheel means (3, 103) separate from and rotatable relative to its contact surface and arranged to roll against an abutment surface (6,106) of the other contact part during an entering phase of the movement from the electrical non-contact position to the electrical contact position, which rolling contact is a sole and singular contact between the contact parts (1, 2, 101, 102) during the entering phase.
A computer-implemented method comprising: laying out one or more floating objects in a layout space for Hypertext Markup Language, HTML, and Cascading Style Sheets, CSS, flow layout including computing a bottom edge property for individual floating objects, wherein each floating object of the one or more floating objects has a float property utilized to indicate a particular flow the floating object is part of, wherein the float property is a left float property or a right float property, wherein objects whose float property is a left float property are left-floating objects residing on a left side of the layout space, and wherein objects whose float property is a right float property are right-floating objects residing on a right side of the layout space, wherein each floating object of the one or more floating objects has a bottom edge property utilized to indicate whether a bottom edge associated with the floating object is lower than or equal to all other bottom edges associated with preceding floating objects that are part of the same particular left or right flow as the floating object, and wherein the bottom edge properties are computed as the one or more floating objects are placed in the layout space in time; computing one or more flow contours associated with the one or more floating objects; and enabling use of the one or more flow contours in layout processing of content in the layout space. laying out one or more floating objects in a layout space for Hypertext Markup Language, HTML, and Cascading Style Sheets, CSS, flow layout including computing a bottom edge property for individual floating objects, wherein each floating object of the one or more floating objects has a float property utilized to indicate a particular flow the floating object is part of, wherein the float property is a left float property or a right float property, wherein objects whose float property is a left float property are left-floating objects residing on a left side of the layout space, and wherein objects whose float property is a right float property are right-floating objects residing on a right side of the layout space, wherein each floating object of the one or more floating objects has a bottom edge property utilized to indicate whether a bottom edge associated with the floating object is lower than or equal to all other bottom edges associated with preceding floating objects that are part of the same particular left or right flow as the floating object, and wherein the bottom edge properties are computed as the one or more floating objects are placed in the layout space in time; computing one or more flow contours associated with the one or more floating objects; and enabling use of the one or more flow contours in layout processing of content in the layout space.
A method of operating a gas turbine combustor which includes a pilot burner and a main burner (39A-39F) arranged around an outer circumference of the pilot burner, the pilot burner being configured to be capable of performing an oil burning and a gas burning, and the main burner (39A-39F) being configured to be capable of performing at least the gas burning, wherein upon switching of a combustion by the pilot burner from the oil burning to the gas burning, a gas fuel is supplied to the main burner (39A-39F) to start the gas burning, and subsequently the gas fuel is supplied to the pilot burner to start the gas burning.
A method for producing a noise and/or heat insulation element formed from a flame-retardant polymer particle foam, comprising the following steps: a) producing a flame-retardant polymer particle foam body using foamable and/or pre-foamed polymer particles, wherein the foamable and/or pre-foamed polymer particles are coated at least in part with an organic binder and a flame retardant before a final foaming process and the organic binder is activated by addition of moisture and/or heat, such that a binder film enveloping the polymer particles at least in part is formed, which binder film on the one hand binds the flame retardant to the polymer particles and on the other hand reduces the expansion of the polymer particles during the final foaming process, such that a continuous air-filled interstitial volume is formed, b) at least partially coating the surfaces in the interior of the flame-retardant polymer particle foam body that delimit the interstitial volume with a coating composition containing an inorganic binder, wherein the coating is performed by means of saturation, dipping, immersion, flooding, perfusion and/or spraying of the flame-retardant polymer particle foam body. a) producing a flame-retardant polymer particle foam body using foamable and/or pre-foamed polymer particles, wherein the foamable and/or pre-foamed polymer particles are coated at least in part with an organic binder and a flame retardant before a final foaming process and the organic binder is activated by addition of moisture and/or heat, such that a binder film enveloping the polymer particles at least in part is formed, which binder film on the one hand binds the flame retardant to the polymer particles and on the other hand reduces the expansion of the polymer particles during the final foaming process, such that a continuous air-filled interstitial volume is formed, b) at least partially coating the surfaces in the interior of the flame-retardant polymer particle foam body that delimit the interstitial volume with a coating composition containing an inorganic binder, wherein the coating is performed by means of saturation, dipping, immersion, flooding, perfusion and/or spraying of the flame-retardant polymer particle foam body.
A system for implanting a heart valve, comprising: a radially self-expandable tubular body having an inflow end and an outflow end and a preformed groove disposed at an outer surface of the tubular body between the inflow end and the outflow end, the preformed groove extending at least partially around the tubular body and having a circumferential opening facing radially outward of the tubular body; a valve disposed within and attached to the tubular body; and a trapping member configured to form at least a partial loop encircling the preformed groove so as to trap portions of native valve leaflets and/or chords in the preformed groove, characterized in that the trapping member includes one or more barbs (233, 235), wherein said one or more barbs (233, 235) comprise at least one of a first set of barbs configured to be oriented toward an inflow side of the groove when the trapping member encircles the preformed groove and a second set of barbs configured to be oriented toward an outflow side of the groove when the trapping member encircles the preformed groove. a radially self-expandable tubular body having an inflow end and an outflow end and a preformed groove disposed at an outer surface of the tubular body between the inflow end and the outflow end, the preformed groove extending at least partially around the tubular body and having a circumferential opening facing radially outward of the tubular body; a valve disposed within and attached to the tubular body; and a trapping member configured to form at least a partial loop encircling the preformed groove so as to trap portions of native valve leaflets and/or chords in the preformed groove, characterized in that the trapping member includes one or more barbs (233, 235), wherein said one or more barbs (233, 235) comprise at least one of a first set of barbs configured to be oriented toward an inflow side of the groove when the trapping member encircles the preformed groove and a second set of barbs configured to be oriented toward an outflow side of the groove when the trapping member encircles the preformed groove.
Composed element, wherein this composed element comprises at least two panel-shaped elements, which substantially are formed from a board material; wherein said panel-shaped elements are interconnected at an angle by means of coupling means comprising a tongue and a groove, thereby forming a corner connection, which coupling means substantially are made as profiled parts in the board material; and wherein said coupling means also comprise locking elements at the tongue and groove, which, in coupled condition, prevent the moving apart of the tongue and groove, wherein the panel-shaped elements are formed on the basis of board material in the form of particle board consisting of two or more layers, which, layers, in respect to the average fineness of the particles, show a different degree of fineness, respectively a basic layer (138, 139) with coarser particles, more particularly chips, and at least one outer layer (136, 137), or at least a more outward-situated layer, which is of a finer composition than the composition of the basic layer (138, 139), in other words, with particles, chips, respectively, which on average are finer; and wherein the locking element at the groove has a locking surface, and wherein this locking surface is at least partially situated in the material of the respective outer layer, or is situated outside of the outer layer, with a portion of this locking surface at least at a distance of less than 2 mm from the transition between the outer layer and the basic layer and wherein the locking element at the tongue, preferably in the form of a projection, comprises a locking surface situated at least partially in the material of the respective outer layer.
A gas sensor comprising: a substrate; a first heating element; and a second heating element that is formed around the periphery of the first heating element and has a wider forming area than the first heating element, heating control means (12, 30) configured such that: the first heating element is heated to a predetermined temperature to measure a gas amount, and wherein the second heating element is heated when the gas sensor is activated characterized in that a voltage applied or a current flowing to the second heating element is monitored, and a heating power applied to the first heating element is restricted to be smaller than that in a normal operation while the voltage applied or the current flowing to the second heating element exceeds a predetermined threshold value, and the restriction of the heating power is released when the voltage applied or the current flowing to the second heating element becomes lower than the predetermined threshold value. a substrate; a first heating element; and a second heating element that is formed around the periphery of the first heating element and has a wider forming area than the first heating element, heating control means (12, 30) configured such that: the first heating element is heated to a predetermined temperature to measure a gas amount, and wherein the second heating element is heated when the gas sensor is activated characterized in that a voltage applied or a current flowing to the second heating element is monitored, and a heating power applied to the first heating element is restricted to be smaller than that in a normal operation while the voltage applied or the current flowing to the second heating element exceeds a predetermined threshold value, and the restriction of the heating power is released when the voltage applied or the current flowing to the second heating element becomes lower than the predetermined threshold value. the first heating element is heated to a predetermined temperature to measure a gas amount, and wherein the second heating element is heated when the gas sensor is activated characterized in that a voltage applied or a current flowing to the second heating element is monitored, and a heating power applied to the first heating element is restricted to be smaller than that in a normal operation while the voltage applied or the current flowing to the second heating element exceeds a predetermined threshold value, and the restriction of the heating power is released when the voltage applied or the current flowing to the second heating element becomes lower than the predetermined threshold value.