mhurhangee/ep-ind-claims huggingface dataset:
A handling apparatus for closing outside bottom flaps of an outer packaging having folding lines for inner bottom flaps and for outer bottom flaps, the handling apparatus comprising: - at least one holding apparatus for an expanded box blank having folding lines for inner bottom flaps and for outer bottom flaps, - wherein the holding apparatus is designed to fold in and hold the inner bottom flaps of the box blank; - at least one adhesive application device; and - a closing module with at least one closing unit for closing the outer bottom flaps of an expanded box blank being held by the holding apparatus, - wherein the closing unit comprises at least two slide elements, which are designed to be movable relative toward one another on a horizontal plane, characterised in that - the slide elements comprise spring-loaded support elements. - at least one holding apparatus for an expanded box blank having folding lines for inner bottom flaps and for outer bottom flaps, - wherein the holding apparatus is designed to fold in and hold the inner bottom flaps of the box blank; - at least one adhesive application device; and - a closing module with at least one closing unit for closing the outer bottom flaps of an expanded box blank being held by the holding apparatus, - wherein the closing unit comprises at least two slide elements, which are designed to be movable relative toward one another on a horizontal plane, characterised in that - the slide elements comprise spring-loaded support elements.
A method for calibrating impedance-spectroscopic biomass sensors that are embodied to detect information regarding the quantity and/or size of living cells in a biomass by means of an electric field having a periodically changing field direction, encompassing the following steps: - furnishing a calibration suspension encompassing an electrically conductive viscously flowable or electrically conductive viscoelastic carrier substance as well as electrically conductive solid particles and/or solid semiconductor particles received therein, - generating an electric field, having a periodically changing field direction, which acts on the calibration suspension; - detecting at least one permittivity value, respectively representing a permittivity of the calibration suspension, in a context of at least two electric fields having different field direction change frequencies; and - ascertaining a difference value representing a difference between the detected permittivity values; characterized in that the method comprises the following additional step: - comparing the difference value with a reference value associated with the calibration suspension, and in that the calibration suspension is free from biological components. - furnishing a calibration suspension encompassing an electrically conductive viscously flowable or electrically conductive viscoelastic carrier substance as well as electrically conductive solid particles and/or solid semiconductor particles received therein, - generating an electric field, having a periodically changing field direction, which acts on the calibration suspension; - detecting at least one permittivity value, respectively representing a permittivity of the calibration suspension, in a context of at least two electric fields having different field direction change frequencies; and - ascertaining a difference value representing a difference between the detected permittivity values; - comparing the difference value with a reference value associated with the calibration suspension, and in that the calibration suspension is free from biological components.
A vacuum pump damper for the vacuum-tight connection of a vacuum pump to a recipient, wherein a first flange is connected or connectable to the vacuum pump and a second flange is connected or connectable to the recipient, said vacuum pump damper comprising at least one decoupling member which is arranged directly between mutually facing flange sides (24, 24') of the first and second flanges (20, 22); and at least one fastening element, in particular a screw, by which the first and second flanges (20, 22) are connected or connectable to one another, wherein the fastening element and the flanges (20, 22) are configured to preload the decoupling member in a vacuum-tight manner in a non-evacuated assembly state such that the two flanges (20, 22) are mechanically and/or electrically decoupled from one another in an evacuated operating state; wherein a decoupling element is provided at the fastening element, is arranged between the fastening element and one of the flanges (20, 22) and is acted on by a driving surface of the fastening element; and wherein the two flanges (20, 22) are indirectly in contact with one another via the fastening element, and at least via the decoupling element, in the region of the fastening element in the evacuated operating state, characterized in that the decoupling element is already preloaded by the fastening element in the non-evacuated assembly state, with the preload of the decoupling element in the evacuated operating state being reduced with respect to the preload in the non-evacuated assembly state.
Production module (110, 210, 310, 411, 412, 413, 421, 422, 423, 431, 432, 433) for performing a production function on a product, wherein the production module is designed and set up for coupling to a second production module (110, 210, 310, 411, 412, 413, 421, 422, 423, 431, 432, 433) or is coupled to a second production module (110, 210, 310, 412, 413, 421, 422, 423, 431, 432, 610, 710), wherein the second production module is designed and set up for performing a second production function on the product, wherein a memory device (120, 220, 320) of the production module stores a piece of self-description information (130, 140, 160, 170, 230, 240, 260, 270, 330, 340, 360, 370) regarding properties of the production module, in that the second production module comprises a second piece of self-description information (130, 140, 160, 170, 230, 240, 260, 270, 330, 340, 360, 370) regarding properties of the second production module, and wherein the production module is designed and set up for transmitting the piece of self-description information to the second production module and for receiving the second piece of self-description information from the second production module, characterized in that the memory device of the production module stores a piece of port information (150, 151, 152, 153, 154, 250, 350) regarding the coupling to the second production module, or the production module is designed and set up for storing a piece of port information regarding the coupling to the second production module, and in that the piece of port information (150, 151, 152, 153, 154, 250, 350) regarding the coupling to the second production module comprises a piece of information about a three-dimensional interaction area of the production module with the second production module, wherein the interaction area is configured such that both the production function of the production module and the second production function of the second production module can influence the product when it is located in the interaction area.
Heart-lung machine comprising a cardiotomy reservoir and an oxygenator in which a blood pump is arranged, wherein the cardiotomy reservoir is arranged directly on the oxygenator and the blood outlet of the cardiotomy reservoir opens into the blood inlet of the blood pump, and the cardiotomy reservoir is divided into an upper emergency volume and a lower working volume, wherein the working volume is formed by a channel whose upper end opens into the emergency volume and whose lower end opens into the blood inlet of the blood pump and which lies in a transparent lower portion of the cardiotomy reservoir arranged above and outside the oxygenator, such that the filling level of the blood in this channel can be ascertained visually, characterized in that a heat exchanger element is arranged inside the cardiotomy reservoir and extends at least partially into the channel.
A method for preparing crystals of a peptide or protein, comprising establishing an electric current through and/or over a saturated or supersaturated solution comprising said peptide or protein, said electric current being established by directing a jet, flux or stream of ionized gas molecules, which carries a net electric charge, towards said saturated solution, thereby facilitating crystal formation and/or crystal growth and improving diffraction quality of the crystals in said saturated solution.
A method for determining a spatially-resolved charge distribution (Q(y,z)) of electrical charges of particles in a gas stream of a pneumatic conveyor device, wherein the particles in the gas stream can be electrostatically charged, comprising the steps: (a) directing the gas stream, which contains particles, through a fluid line, (b) spatially-resolved determination of a measuring field-less particle velocity (v) in a measurement area without an electrical measuring field, (c) applying an electrical measuring field transverse to the flow direction in the measurement area, (d) spatially-resolved determination of a midfield particle velocity (v E) in the measurement area and (e) determining the a spatially-resolved charge distribution (Q(y,z)) from the spatially-resolved particle velocities. (a) directing the gas stream, which contains particles, through a fluid line, (b) spatially-resolved determination of a measuring field-less particle velocity (v) in a measurement area without an electrical measuring field, (c) applying an electrical measuring field transverse to the flow direction in the measurement area, (d) spatially-resolved determination of a midfield particle velocity (v E) in the measurement area and (e) determining the a spatially-resolved charge distribution (Q(y,z)) from the spatially-resolved particle velocities.
A method for resource allocation, comprising: receiving, by a first terminal, buffer status report, BSR, information from a second terminal; receiving, by the first terminal, first information from the second terminal, wherein the first information comprises a candidate transmission resource indicator, wherein the candidate transmission resource indicator is for indicating available transmission resource that is in a first resource selection window; and allocating, by the first terminal, a first transmission resource to the second terminal based on the BSR information and the first information. receiving, by a first terminal, buffer status report, BSR, information from a second terminal; receiving, by the first terminal, first information from the second terminal, wherein the first information comprises a candidate transmission resource indicator, wherein the candidate transmission resource indicator is for indicating available transmission resource that is in a first resource selection window; and allocating, by the first terminal, a first transmission resource to the second terminal based on the BSR information and the first information.
A measurement device comprising a blood flow meter (10, 40, 50, 60) and a measurement portion configured to supply electric power to a measurement element of the blood flow meter to acquire information on a mass flow rate of a blood flow from electric power information based on resistance changes corresponding to temperature changes of the measurement element, wherein the blood flow meter comprises: a hollow shaft which has flexibility and is insertable into a blood vessel; an element holding body which is provided on a distal side of the shaft so as to be coaxial with the shaft and which has a tubular shape and an outer diameter smaller than or equal to an outer diameter of the shaft; a flow rate sensor which has the measurement element being a heating resistor having a temperature-resistance characteristic and is accommodated in the element holding body in a state where the measurement element can detect temperature changes in a peripheral wall of the element holding body over an entire circumference; and a thermal conductive insulating member disposed between the flow rate sensor and the element holding body in the element holding body, wherein the heating resistor is a wire spirally wound to be formed into a coil shape so that adjacent wire portions are separated and insulated and the measurement element is accommodated in the element holding body along an axial direction of the element holding body. a hollow shaft which has flexibility and is insertable into a blood vessel; an element holding body which is provided on a distal side of the shaft so as to be coaxial with the shaft and which has a tubular shape and an outer diameter smaller than or equal to an outer diameter of the shaft; a flow rate sensor which has the measurement element being a heating resistor having a temperature-resistance characteristic and is accommodated in the element holding body in a state where the measurement element can detect temperature changes in a peripheral wall of the element holding body over an entire circumference; and a thermal conductive insulating member disposed between the flow rate sensor and the element holding body in the element holding body,
An air intake of a turbojet engine nacelle comprising an annular structure including an outer fairing defining an outer aerodynamic surface and an inner fairing defining an inner aerodynamic surface, said outer and inner fairings being connected upstream by an air intake lip forming a leading edge, said inner fairing comprising an outer skin fastened to the air intake lip by means of an upstream fastening flange, said outer skin being intended to be fastened to a fan outer casing by means of a downstream fastening flange, the air intake comprising at least two independent acoustic panels (2, 2') attached to the outer skin and comprising a perforated acoustic skin and a cellular core, said at least two acoustic panels (2, 2') being adjacent, characterized in that said at least two adjacent acoustic panels (2, 2')are connected together by overlapping.
A process to produce a tryptophan-containing composition comprising bringing together - a peptide-bound tryptophan composition, which is preferably water-soluble, and which has a Trp/LNAA ratio of more than 0.1, preferably of more than 0.15, and/or free tryptophan; and - a polypeptide-bound tryptophan composition, which is preferably water-soluble, and which has a Trp/LNAA ratio of more than 0.15. - a peptide-bound tryptophan composition, which is preferably water-soluble, and which has a Trp/LNAA ratio of more than 0.1, preferably of more than 0.15, and/or free tryptophan; and - a polypeptide-bound tryptophan composition, which is preferably water-soluble, and which has a Trp/LNAA ratio of more than 0.15.
Electromedical electrode assembly having at least one implantable cardioversion electrode for delivering cardioversion pulses to a target tissue, in particular to heart muscle tissue, characterized in that the cardioversion electrode consists of a flexible, electrically conductive sheet-like structure which is planar in the undeformed initial position and which is designed and intended for flat application to a target tissue, wherein the electrode assembly has two fixing means (7, 8), between which the sheet-like structure is arranged and which are designed for fastening and/or clamping the sheet-like structure to a target tissue, for example to an outside of the heart.
Electronic surveillance system comprising an electronic surveillance bracelet adapted to be secured around a limb of a wearer, the electronic surveillance bracelet comprising an energy source, a processing unit, an identification generator, a localisation system, and at least one wireless communication system adapted to communicate with a base station, characterised in that the wireless communication system is adapted to receive communication from at least one terrestrially-based further device and to transmit a result of this communication to said base station together with an identification signal generated by the identification generator in order to tag said result with the identification of the electronic surveillance bracelet.
A cellular ceramic article having hybrid pore configuration, comprising one or more first cellular ceramic portions in the center and one or more second cellular ceramic portions surrounding the first cellular ceramic portion, wherein: the first cellular ceramic portion is cellular ceramic having symmetric or asymmetric pore configuration with a first heat capacity value and a wall thickness of 0.28mm or more; the second cellular ceramic portion is cellular ceramic having asymmetric pore configuration with a second heat capacity value and a wall thickness of less than 0.28mm; the first heat capacity value is greater than the second heat capacity value; and the volume ratio of the first cellular ceramic portion to the entire cellular ceramic article is from 0.10 to 0.3, preferably 0.15 to 0.3, more preferably 0.15 to 0.25. the first cellular ceramic portion is cellular ceramic having symmetric or asymmetric pore configuration with a first heat capacity value and a wall thickness of 0.28mm or more; the second cellular ceramic portion is cellular ceramic having asymmetric pore configuration with a second heat capacity value and a wall thickness of less than 0.28mm; the first heat capacity value is greater than the second heat capacity value; and the volume ratio of the first cellular ceramic portion to the entire cellular ceramic article is from 0.10 to 0.3, preferably 0.15 to 0.3, more preferably 0.15 to 0.25.
A mountable sensor for measuring a parameter within a conduit or chamber comprising an outer wall defining an enclosed internal volume, the mountable sensor comprising: a sensor housing comprising a first opening; a sensing element positioned within the housing; a moveable mounting tool comprising a shaft and, at a distal end of the shaft, a perforation element configured to perforate the outer wall of a conduit or chamber and a fixation element arranged to subsequently enter the perforation and engage when inside the outer wall to prevent retraction of the mounting tool; wherein the mounting tool is configured to extend out through the first opening in the sensor housing such that, when the mountable sensor is positioned against the outer wall of a chamber or conduit in use, the perforation element penetrates the outer wall to produce a perforation and the fixation element enters the perforation and engages to secure the sensor housing to the outer wall; thereby placing the sensing element in communication with the internal volume of the chamber or conduit through the perforation. a sensor housing comprising a first opening; a sensing element positioned within the housing; a moveable mounting tool comprising a shaft and, at a distal end of the shaft, a perforation element configured to perforate the outer wall of a conduit or chamber and a fixation element arranged to subsequently enter the perforation and engage when inside the outer wall to prevent retraction of the mounting tool; wherein the mounting tool is configured to extend out through the first opening in the sensor housing such that, when the mountable sensor is positioned against the outer wall of a chamber or conduit in use, the perforation element penetrates the outer wall to produce a perforation and the fixation element enters the perforation and engages to secure the sensor housing to the outer wall; thereby placing the sensing element in communication with the internal volume of the chamber or conduit through the perforation.
An optical element, comprising: a plurality of stacked birefringent sublayers (105a... 105n) made of liquid crystal polarization crystals, the plurality of stacked birefringent sublayers (105a... 105n) configured to alter a direction of propagation of light passing therethrough according to a Bragg condition, wherein each of the stacked birefringent sublayers is coated and polymerized individually, wherein the stacked birefringent sublayers (105a... 105n) respectively comprise local optical axes that vary along respective interfaces between adjacent ones of the stacked birefringent sublayers to define respective grating periods Λs, and wherein the stacked birefringent sublayers (105a... 105n) have respective thicknesses d 1...d N that are less than a wavelength of the light; wherein the liquid crystal polarization crystals include low-molecular-weight reactive LC molecules, which are aligned by characteristics of the surface on which they are coated or otherwise formed, and are subsequently polymerized into a rigid polymer network; and wherein the wavelength of the light comprises a wavelength λ, the respective grating periods Λs define a period Λ of the optical element, the aggregate thickness comprises a thickness d, an average refractive index of the stacked birefringent layers (105a... 105n) comprises a refractive index n such that a variable Q is greater than 1 for the wavelength λ, where Q = 2 π Å d / Λ 2 n. a plurality of stacked birefringent sublayers (105a... 105n) made of liquid crystal polarization crystals, the plurality of stacked birefringent sublayers (105a... 105n) configured to alter a direction of propagation of light passing therethrough according to a Bragg condition, wherein each of the stacked birefringent sublayers is coated and polymerized individually, wherein the stacked birefringent sublayers (105a... 105n) respectively comprise local optical axes that vary along respective interfaces between adjacent ones of the stacked birefringent sublayers to define respective grating periods Λs, and wherein the stacked birefringent sublayers (105a... 105n) have respective thicknesses d 1...d N that are less than a wavelength of the light; wherein the liquid crystal polarization crystals include low-molecular-weight reactive LC molecules, which are aligned by characteristics of the surface on which they are coated or otherwise formed, and are subsequently polymerized into a rigid polymer network; and wherein the wavelength of the light comprises a wavelength λ, the respective grating periods Λs define a period Λ of the optical element, the aggregate thickness comprises a thickness d, an average refractive index of the stacked birefringent layers (105a... 105n) comprises a refractive index n such that a variable Q is greater than 1 for the wavelength λ, where Q = 2 π Å d / Λ 2 n.
An anti-vibration suspension system for suspending a retaining bar for a power transmission gearbox of an aircraft, this anti-vibration suspension system comprising a lever capable of being articulated to the retaining bar, said anti-vibration suspension system comprising an oscillating mass, characterised in that the anti-vibration suspension system comprises a mechanical device for amplifying a movement which is interposed between said lever and said oscillating mass so that a first rotary movement on a first angulation of said lever about a control axis induces a second rotary movement of said oscillating mass on a second angulation, said second angulation being greater than the first angulation, said device for amplifying a movement being provided with a mechanical input integral in rotation with said lever about the control axis, and with a mechanical output which drives said oscillating mass in rotation.
Gas grid burner comprising a gas pipe, running in a longitudinal direction, on which at mutual distances a plurality of gas nozzles is held, whose outlet axes are arranged parallel to one another and transversely to the longitudinal direction with a plurality of flow-guiding devices, to which at least one gas nozzle is assigned in each case and comprising a support, running adjacent to the gas pipe in the longitudinal direction, on which the flow-guiding devices are held, characterized in that the flow-guiding devices are held with play on the support so that they can be plugged there into and are mechanically disconnected from the support and the gas pipe.