mhurhangee/ep-ind-claims huggingface dataset:
A method for validating a program which is present in a load format for native execution by a processor of a portable data carrier, wherein the program is analyzed with regard to its program structure and/or its program commands and/or its prospective run behavior to ascertain whether the program meets pre-specified criteria, and that the program is released for native execution by the processor if it meets the pre-specified criteria, and that the program is otherwise not released for native execution by the processor, characterized in that a present authentication of the program in the form of a code signature is evaluated and the step of analyzing is then carried out depending on authorizations which are linked to this authentication, with different analysis steps, wherein for carrying out the analysis steps, the authentication is linked to certain authorizations via a table.
Rocket propellant tank arrangement for storing fuel and oxidizer for launching a rocket, the rocket propellant tank arrangement comprising: an oxidizer tank for storing liquid oxidizer, and a fuel tank for storing liquid fuel, wherein the fuel tank is at least partially arranged within the oxidizer tank, characterized in that the fuel tank has a generally cylindrical shape, with a fuel tank wall being generally cylindrical, and in that the oxidizer tank has a generally hollow cylindrical shape, formed between the generally cylindrical fuel tank wall and a generally cylindrical oxidizer tank wall. an oxidizer tank for storing liquid oxidizer, and a fuel tank for storing liquid fuel, wherein the fuel tank is at least partially arranged within the oxidizer tank, characterized in that the fuel tank has a generally cylindrical shape, with a fuel tank wall being generally cylindrical, and in that the oxidizer tank has a generally hollow cylindrical shape, formed between the generally cylindrical fuel tank wall and a generally cylindrical oxidizer tank wall.
Method of producing films of metal oxides, nitrides or oxynitrides or of semiconductors on a substrate, by the PECVD method comprising the steps consisting of: a) providing a low-pressure PECVD device, comprising at least one linear dual-beam plasma source, which comprises at least two electrodes connected to an AC or pulsed DC generator, for depositing said films on the substrate, b) applying electric power between the two electrodes in such a way that the power density of the plasma is between 5 and 50 W per cm2 of plasma, and c) applying a gaseous precursor of films of metal oxides, nitrides or oxynitrides or of semiconductors on the substrate at a flow rate between 100 and 500 sccm per linear metre of the plasma source, and a reactive gas based on oxygen or oxygen-containing derivatives or on nitrogen-containing derivatives at a flow rate between 500 and 20000 sccm per linear metre of the plasma source. a) providing a low-pressure PECVD device, comprising at least one linear dual-beam plasma source, which comprises at least two electrodes connected to an AC or pulsed DC generator, for depositing said films on the substrate, b) applying electric power between the two electrodes in such a way that the power density of the plasma is between 5 and 50 W per cm2 of plasma, and c) applying a gaseous precursor of films of metal oxides, nitrides or oxynitrides or of semiconductors on the substrate at a flow rate between 100 and 500 sccm per linear metre of the plasma source, and a reactive gas based on oxygen or oxygen-containing derivatives or on nitrogen-containing derivatives at a flow rate between 500 and 20000 sccm per linear metre of the plasma source.
An ultrasonic diagnostic imaging system for determining the border of a chamber of the heart in an ultrasound image comprising: a source of cardiac image data; a border detection processor responsive to the cardiac image data and arranged to identify at least an inner and an outer boundary of a myocardium in the image data; a user control arranged to enable a user to adjust a single degree of freedom variable to indicate a user-defined border (110, 110', 110") of the heart chamber in relation to the inner and outer boundaries, wherein the single degree of freedom variable is calibrated in percentage in relation to the distance relative to the inner and outer boundaries, and wherein the percentage may be negative, or may be positive with a value between 0 and 100 or a value greater than 100; and a chamber border delineator coupled to the user control and the border detection processor, said chamber border delineator is arranged to locate the user-defined heart chamber border in the image data with respect to at least one of the boundaries identified by the border detection processor. a source of cardiac image data; a border detection processor responsive to the cardiac image data and arranged to identify at least an inner and an outer boundary of a myocardium in the image data; a user control arranged to enable a user to adjust a single degree of freedom variable to indicate a user-defined border (110, 110', 110") of the heart chamber in relation to the inner and outer boundaries, wherein the single degree of freedom variable is calibrated in percentage in relation to the distance relative to the inner and outer boundaries, and wherein the percentage may be negative, or may be positive with a value between 0 and 100 or a value greater than 100; and a chamber border delineator coupled to the user control and the border detection processor, said chamber border delineator is arranged to locate the user-defined heart chamber border in the image data with respect to at least one of the boundaries identified by the border detection processor.
An anesthetic administration device comprising: (a) a regional anesthetic needle; (b) a feed tube and an infusion device in fluid communication with the regional anesthetic needle via the feed tube, wherein the infusion device comprises one or more anesthetic flow devices capable of generating forward and backward flow of local anesthetic through the regional anesthetic needle; and (c) a controller that comprises one or more actuator switches, wherein the one or more actuator switches activate forward and backward flow of the local anesthetic through the regional anesthetic needle, wherein the anesthetic administration device comprises a flow rate monitor and/or a pressure sensor capable of monitoring the pressure of the local anesthetic, characterised in that the one or more actuator switches are positioned on the regional anesthetic needle and/or the feed tube such that they may be operated by hand. (a) a regional anesthetic needle; (b) a feed tube and an infusion device in fluid communication with the regional anesthetic needle via the feed tube, wherein the infusion device comprises one or more anesthetic flow devices capable of generating forward and backward flow of local anesthetic through the regional anesthetic needle; and (c) a controller that comprises one or more actuator switches, wherein the one or more actuator switches activate forward and backward flow of the local anesthetic through the regional anesthetic needle, wherein the anesthetic administration device comprises a flow rate monitor and/or a pressure sensor capable of monitoring the pressure of the local anesthetic, characterised in that the one or more actuator switches are positioned on the regional anesthetic needle and/or the feed tube such that they may be operated by hand.
A fixation agent for tissue samples, containing - at least one polyamine, selected from the group consisting of urotropine, dimethylol dihydroxyethylene urea, mono-, di-, tri-, tetra-, penta- or hexamethylol melamine, tetramethylol acetylene diurea, dimethylol propylene urea, acetoguanamine or 5,5-dimethylhydantoin, and mixtures thereof, and - at least one acidification agent selected from the group of free monovalent, bivalent or polyvalent acid consisting of oxalic acid, fumaric acid, tartaric acid, maleic acid, succinic acid, hydrochloric acid, acetic acid, propionic acid, formic acid, mono-, di- or tri chloroacetic acid or chloroacetic acid, boric acid, phosphoric acid, and mixtures thereof, characterised in that the polyamine reacts with the protons released from the acid, thus forming or releasing aldehydes, and the molar ratio between the molar concentration of releasable aldehyde per mol of amine to the molar concentration of releasable protons per mol of acid lies in a range from 1:0.7 to 1:1.5. - at least one polyamine, selected from the group consisting of urotropine, dimethylol dihydroxyethylene urea, mono-, di-, tri-, tetra-, penta- or hexamethylol melamine, tetramethylol acetylene diurea, dimethylol propylene urea, acetoguanamine or 5,5-dimethylhydantoin, and mixtures thereof, and - at least one acidification agent selected from the group of free monovalent, bivalent or polyvalent acid consisting of oxalic acid, fumaric acid, tartaric acid, maleic acid, succinic acid, hydrochloric acid, acetic acid, propionic acid, formic acid, mono-, di- or tri chloroacetic acid or chloroacetic acid, boric acid, phosphoric acid, and mixtures thereof, characterised in that
A method of estimating a person's energy consumption during or after a physical exercise on the basis of heart rate data, the method comprising - measuring heartbeat with a sensor, - determining the person's energy consumption on the basis of the heartbeat data, characterized by - selecting a first threshold value for the mass of a person, - selecting a second threshold value for an intensity of an exercise, - if the intensity of the exercise is lower than the second threshold value and the mass of the person is larger than the first threshold value, calculating the energy consumption using a formula taking into account the deviation of the mass and the intensity of the exercise from the said first and second threshold value, correspondingly, wherein said formula comprises a calculated variable that is an effective mass of the person, which is smaller than the actual mass, and wherein the effective mass approaches towards the value of the actual mass as the intensity of the exercise approaches towards the value of the second threshold value, and wherein energy consumption is calculated with said formula: energy consumption = b ∗ ventilation ∗ m eff / m real, wherein b is a constant and m real is the actual and m eff the effective mass of the person, and ventilation is calculated using respiratory frequency, and the effective mass m eff is defined essentially with the formula m eff = m 0 + a ∗ m − m 0 ∗ I − I 0, wherein I 0 is the second threshold value, m 0 is the first threshold value, m is the mass of a person, I is the current intensity of the exercise and a is a constant. - measuring heartbeat with a sensor, - determining the person's energy consumption on the basis of the heartbeat data, characterized by - selecting a first threshold value for the mass of a person, - selecting a second threshold value for an intensity of an exercise, - if the intensity of the exercise is lower than the second threshold value and the mass of the person is larger than the first threshold value, calculating the energy consumption using a formula taking into account the deviation of the mass and the intensity of the exercise from the said first and second threshold value, correspondingly, wherein said formula comprises a calculated variable that is an effective mass of the person, which is smaller than the actual mass, and wherein the effective mass approaches towards the value of the actual mass as the intensity of the exercise approaches towards the value of the second threshold value, and wherein energy consumption is calculated with said formula: energy consumption = b ∗ ventilation ∗ m eff / m real, wherein b is a constant and m real is the actual and m eff the effective mass of the person, and ventilation is calculated using respiratory frequency, and the effective mass m eff is defined essentially with the formula m eff = m 0 + a ∗ m − m 0 ∗ I − I 0, wherein I 0 is the second threshold value, m 0 is the first threshold value, m is the mass of a person, I is the current intensity of the exercise and a is a constant.
A protection device for a plug-in connector connected to a cable, wherein the protection device has a first housing element which is coupled to a second housing element of the protection device, and the first housing element at least partially accommodates and fixes the plug-in connector, and the second housing element at least partially accommodates and fixes the cable; wherein the first housing element, the second housing element and the cable are adhesively connected to each other by a sealing element, wherein the sealing element is at least partially injected into a cavity between the first housing element, the second housing element and the cable.
Foldable display case comprising a rear wall provided with two lateral edges (3, 4), two lateral walls (5, 6) hinged to the rear wall along its lateral edges and at least one shelf formed by a support wall hinged to flaps attached to the lateral and rear walls, the display case being configured to be able to be positioned between a folded storage position in which the lateral walls (5, 6) extend in one and the same plane as the rear wall, the support wall of each shelf bearing against the rear wall, and an erect position of use in which the lateral walls (5, 6) are inclined relative to the rear wall and the support wall of each shelf is in a support position, each lateral wall (5, 6) comprising, on its internal face facing the shelves, retaining means (24, 34) for at least one elastic element, the elastic element being configured and positioned to exert a sufficient pulling force on these lateral walls to maintain them in and/or return them to the erect position of use of the display case, characterized in that it has, at its topmost end, a face wall comprising a face wall panel and two lateral face wall flaps (52, 53), the face wall panel having two lateral edges (54, 55) extending in the extension of the lateral edges (3, 4) of the rear wall, the lateral face wall flaps (52, 53) being hinged to the face wall panel along its lateral edges (54, 55), and in that the lateral face wall flaps (52, 53) are mounted hinged on the lateral walls (5, 6) of the display case in such a way that: - in the erect position of use, the face wall panel can be flipped between a folded back position in which it is bearing against the rear wall, on the side opposite the shelves, the lateral face wall flaps bearing against the lateral walls of the display case, and a deployed position in which it extends vertically above the display case, in front of the lateral face wall flaps, - in the folded storage position, the face wall panel and its lateral flaps extend in one and the same plane, and are superposed on the lateral and rear walls of the display case. - in the erect position of use, the face wall panel can be flipped between a folded back position in which it is bearing against the rear wall, on the side opposite the shelves, the lateral face wall flaps bearing against the lateral walls of the display case, and a deployed position in which it extends vertically above the display case, in front of the lateral face wall flaps, - in the folded storage position, the face wall panel and its lateral flaps extend in one and the same plane, and are superposed on the lateral and rear walls of the display case.
A dual slot die coater comprising a lower slot and an upper slot, for extrusion coating of an electrode active material slurry on a surface of a continuously moving current collector through at least one of the lower slot or the upper slot, the dual slot die coater comprising: a lower plate, an intermediate plate positioned on the lower plate and an upper plate positioned on the intermediate plate, the lower slot being formed between the lower plate and the intermediate plate, and the upper slot being formed between the intermediate plate and the upper plate, wherein the lower plate, the intermediate plate and the upper plate have a lower die lip, an intermediate die lip and an upper die lip, each forming a front end with respect to the current collector, respectively, and characterized in that a thickness D1 of the lower die lip is larger than a thickness D3 of the upper die lip and a thickness D2 of the intermediate die lip, wherein the thickness D1 of the lower die lip is 1.2 times the thickness D3 of the upper die lip or more, or wherein the thickness D1 of the lower die lip is 1.2 times the thickness D2 of the intermediate die lip or more, and wherein a thinner die lip between the upper die lip and the intermediate die lip is 800 μ m or more in thickness. a lower plate, an intermediate plate positioned on the lower plate and an upper plate positioned on the intermediate plate, the lower slot being formed between the lower plate and the intermediate plate, and the upper slot being formed between the intermediate plate and the upper plate, wherein the lower plate, the intermediate plate and the upper plate have a lower die lip, an intermediate die lip and an upper die lip, each forming a front end with respect to the current collector, respectively, and characterized in that a thickness D1 of the lower die lip is larger than a thickness D3 of the upper die lip and a thickness D2 of the intermediate die lip, wherein the thickness D1 of the lower die lip is 1.2 times the thickness D3 of the upper die lip or more, or wherein the thickness D1 of the lower die lip is 1.2 times the thickness D2 of the intermediate die lip or more, and wherein a thinner die lip between the upper die lip and the intermediate die lip is 800 μ m or more in thickness.
A valve pin of a regulator valve assembly that is operable with a valve seat having a valve pin receiving aperture that defines a tapered seat surface, the valve pin comprising: an engagement portion with a tapered surface having a constant draft angle selected from between about two and about five degrees, the tapered surface being configured to sealingly mate with the tapered seat surface of the valve seat when the valve pin is urged against the valve seat in a seated configuration, the tapered surface of the engagement portion being provided above and below an asymmetrical surface feature sized and shaped such that, when the valve pin is displaced away from the seated configuration and fluid flows through an annular space created between the engagement portion of the valve pin and the valve seat, unbalanced hydrodynamic forces arise from an interaction of the fluid with the asymmetrical surface feature, wherein the valve pin defines a central axis and the asymmetrical surface feature is symmetric about only one plane of symmetry that includes the central axis of the valve pin, and is offset from a terminal end of the valve pin and wherein the asymmetrical surface feature is an indentation, depression, notch, hole, aperture or cavity provided in a side of the valve pin; and wherein, when the valve pin is displaced away from the seated configuration, the flow of fluid interacts with the asymmetric surface feature of the valve pin to cause an imbalance in hydrodynamic forces that disrupts an otherwise uniform flow path along a length of one side of the valve pin to bias an end of the valve pin away from a central axis of the valve seat. an engagement portion with a tapered surface having a constant draft angle selected from between about two and about five degrees, the tapered surface being configured to sealingly mate with the tapered seat surface of the valve seat when the valve pin is urged against the valve seat in a seated configuration, the tapered surface of the engagement portion being provided above and below an asymmetrical surface feature sized and shaped such that, when the valve pin is displaced away from the seated configuration and fluid flows through an annular space created between the engagement portion of the valve pin and the valve seat, unbalanced hydrodynamic forces arise from an interaction of the fluid with the asymmetrical surface feature, wherein the valve pin defines a central axis and the asymmetrical surface feature is symmetric about only one plane of symmetry that includes the central axis of the valve pin, and is offset from a terminal end of the valve pin and wherein the asymmetrical surface feature is an indentation, depression, notch, hole, aperture or cavity provided in a side of the valve pin; and wherein, when the valve pin is displaced away from the seated configuration, the flow of fluid interacts with the asymmetric surface feature of the valve pin to cause an imbalance in hydrodynamic forces that disrupts an otherwise uniform flow path along a length of one side of the valve pin to bias an end of the valve pin away from a central axis of the valve seat.
A flash system comprising: a light guide shaped as a ring having a central opening for a camera lens, the light guide having light extraction features on a light exit surface of the light guide; characterized in that it further comprises: two LED assemblies molded into the ring-shaped light guide, the LED assemblies being 180 degrees apart within the light guide, each LED assembly comprising: a printed circuit board including conductors, the printed circuit board having a first surface for electrically connecting a light emitting diode to the conductors; an LED (10, 32) mounted on the first surface of the printed circuit board and electrically connected to the conductors; wherein at least a first portion of the printed circuit board and all of the LED (10, 32) is encapsulated in the light guide, wherein a second portion of the printed circuit board extends from the light guide for being connected to a power source, and wherein the light guide is configured to internally reflect light from LEDs (10, 32) within the light guide until emitted through the light exit surface.
A mu opioid receptor antagonist for use in a method of treating cancer in a subject, increasing the survival of a subject suffering from cancer, slowing or stopping the growth of a tumor in a subject, or inhibiting or slowing the proliferation of tumor cells in a subject, wherein the subject is a fast responder to administration of said mu opioid receptor antagonist for treatment of constipation.
A device for heating a gas flow for use in laparoscopy, wherein the gas flow is heated by a heating element, wherein the heating element is inductively heated, and wherein the heating element includes holes, through which the gas flow is conducted, wherein the gas flow in addition to the heating element is conducted over a humidifying material, wherein the humidifying material has a distance to the heating element of 0 to 5 cm, wherein the heating element and the humidifying material are components of a separate chamber, through which the gas flow is conducted, wherein the device is positioned at the device-side end of the insufflation hose.