mhurhangee/ep-ind-claims huggingface dataset:
System for transmitting information from an information carrier to a capacitive planar sensor, comprising at least a. one information carrier, the information carrier comprising at least one electrically conductive layer applied at least in regions to an electrically non-conductive substrate, and b. a capacitive planar sensor, characterised in that the electrically conductive layer comprises an assembly of i. at least two electrically conductive input regions and a conducting track or ii. at least one electrically conductive input region, a conducting track and a coupling surface for coupling external electrical capacitances, each input region having a size of 4 mm to 15 mm, the conducting path forming an electrically conductive connection between the two input regions or between the at least one input region and the coupling surface, the planar sensor comprising capacitive touchscreens and/or touchpads and the information carrier having been brought into contact with the planar sensor at least in regions, as a result of which the information applied to the information carrier by means of the electrically conductive layer can be read out capacitively by the planar sensor and the position of each input region on the planar sensor being determined. a. one information carrier, the information carrier comprising at least one electrically conductive layer applied at least in regions to an electrically non-conductive substrate, and b. a capacitive planar sensor, characterised in that the electrically conductive layer comprises an assembly of i. at least two electrically conductive input regions and a conducting track or ii. at least one electrically conductive input region, a conducting track and a coupling surface for coupling external electrical capacitances, each input region having a size of 4 mm to 15 mm, the conducting path forming an electrically conductive connection between the two input regions or between the at least one input region and the coupling surface, the planar sensor comprising capacitive touchscreens and/or touchpads and the information carrier having been brought into contact with the planar sensor at least in regions, as a result of which the information applied to the information carrier by means of the electrically conductive layer can be read out capacitively by the planar sensor and the position of each input region on the planar sensor being determined. i. at least two electrically conductive input regions and a conducting track or ii. at least one electrically conductive input region, a conducting track and a
Use of a mineral fiber product comprising mineral fibers bound by an organic formaldehyde-free binder comprising carbohydrate in its uncured state, wherein heating of the mineral wool product to a temperature of approximately 225 °C off-gases less than 25 g VOC (Volatile Organic Content) per kg binder, wherein the binder further comprises, in its uncured state: a component (i) in the form of one or more compounds selected from - compounds of the formula, and any salts thereof: in which R1 corresponds to H, alkyl, monohydroxyalkyl, dihydroxyalkyl, polyhydroxyalkyl, alkylene, alkoxy, amine; - compounds of the formula, and any salts thereof: in which R2 corresponds to H, alkyl, monohydroxyalkyl, dihydroxyalkyl, polyhydroxyalkyl, alkylene, alkoxy, amine; a component (ii) in the form of one or more compounds selected from the group of ammonia, amines or any salts thereof; and/or wherein the binder further comprises, in its uncured state: a component (iii) in the form of one or more compounds selected from sulfamic acid, derivatives of sulfamic acid or any salt thereof, at temperatures above 150 °C, such as above 175 °C, such as above 200 °C and below the maximum service temperature of 300 °C, such as 250 °C. a component (i) in the form of one or more compounds selected from - compounds of the formula, and any salts thereof: in which R1 corresponds to H, alkyl, monohydroxyalkyl, dihydroxyalkyl, polyhydroxyalkyl, alkylene, alkoxy, amine; - compounds of the formula, and any salts thereof: in which R2 corresponds to H, alkyl, monohydroxyalkyl, dihydroxyalkyl, polyhydroxyalkyl, alkylene, alkoxy, amine; - compounds of the formula, and any salts thereof: in which R1 corresponds to H, alkyl, monohydroxyalkyl, dihydroxyalkyl, polyhydroxyalkyl, alkylene, alkoxy, amine; - compounds of the formula, and any salts thereof: in which R2 corresponds to H, alkyl, monohydroxyalkyl, dihydroxyalkyl, polyhydroxyalkyl, alkylene, alkoxy, amine; a component (ii) in the form of one or more compounds selected from the group of ammonia, amines or any salts thereof; and/or wherein the binder further comprises, in its uncured state: a component (iii) in the form of one or more compounds selected from sulfamic acid, derivatives of sulfamic acid or any salt thereof, at temperatures above 150 °C, such as above 175 °C, such as above 200 °C and below the maximum service temperature of 300 °C, such as 250 °C.
An implantable microparticle (100; 200) comprising: a generally spherical body, the body comprising: a first material (102; 202) comprising a biodegradable magnesium based compound or a biodegradable magnesium based alloy; a second material (104; 204) different than the first material, the second material comprising one or more of gallium arsenide, dysprosium, lanthanum iron oxide, lanthanide (e.g. LaFe-Si-H) particles, cobalt, and neodymium, wherein the second material is distributed throughout the first material to avoid hot spots within the microparticle; wherein the first material is a non-Curie temperature material or has a Curie temperature lower than a Curie temperature of the second material; and wherein the first material (102; 202) and the second material (104; 204) form a composite having a Curie temperature in the range of 35 °C and 100 °C. a first material (102; 202) comprising a biodegradable magnesium based compound or a biodegradable magnesium based alloy; a second material (104; 204) different than the first material, the second material comprising one or more of gallium arsenide, dysprosium, lanthanum iron oxide, lanthanide (e.g. LaFe-Si-H) particles, cobalt, and neodymium, wherein the second material is distributed throughout the first material to avoid hot spots within the microparticle; wherein the first material is a non-Curie temperature material or has a Curie temperature lower than a Curie temperature of the second material; and wherein the first material (102; 202) and the second material (104; 204) form a composite having a Curie temperature in the range of 35 °C and 100 °C.
Lid (2, 2') for a container, wherein the container has a base, a vertical axis which is aligned so as to be perpendicular to the base, a jacket which adjoins the base in an encircling manner and encloses an interior space of the container, and an opening cross section which is defined by an end of the jacket that faces away from the base and is tightly closable by means of the lid (2, 2'), wherein the lid (2, 2') is provided with snap-fit hooks which are disposed in an encircling manner and so as to be mutually spaced from one another on the periphery of said lid (2, 2'), and which are hook-fittable to latching openings which are adapted to said snap-fit hooks and which are likewise disposed in an encircling manner and so as to be mutually spaced from one another in a peripheral flange of the container which projects outwardly from the jacket of the container, while forming a form-fit which prevents movement of the lid (2, 2') in the direction of the vertical axis of the container, wherein the lid (2, 2') on a lower side that faces the interior space of the container is provided with stacking male parts or stacking female parts which are disposed close to the periphery and are distributed on the circumference of the lid (2, 2') and which, in the closed state of the container, extend in the direction of the interior space of the container, and which stacking male parts or stacking female parts are capable of being engaged in stacking female parts or stacking male parts, respectively, on an upper side of a lower lid, which are adapted to said stacking male parts or stacking female parts and which cause a form-fit which prevents movement of the lid (2, 2') in the direction which is perpendicular to a vertical axis of the lid (2, 2') that is congruent with the vertical axis of the container, when two identical lids (2, 2') are stacked on top of one another, wherein compressive forces by way of the mutually engaged stacking male parts and stacking female parts are transmissible in the direction of the vertical axis of the lid (2, 2'), wherein in the state of two lids (2, 2') stacked on top of one another a contact area (28, 28', 30, 30') is configured both on the lower side of the upper lid as well as on the upper side of the lower lid in each case in a central region of the respective lid (2, 2'), and in that compressive forces by way of contact between these two contact areas (28, 28', 30, 30') are transmissible in the direction of the vertical axis of the lids (2, 2').
Method for producing solid-state layers, at least comprising the steps of: providing a solid-state body for the separation of at least one solid-state layer; fastening a receiving layer for holding the solid-state layer on the solid-state body, the receiving layer being fastened on the solid-state body by means of a connecting layer, the receiving layer comprising at least one polymer material, the polymer material undergoing a glass transition at a temperature of less than 0°C, and the receiving layer having a multiplicity of holes having a diameter of less than 0.1 mm for conducting a fluid through the receiving layer to the connecting layer; generating defects in the internal structure of the solid-state body for predefining a detachment plane by means of at least one femtosecond laser before or after the fastening of the receiving layer on the solid-state body; and acting thermally on the receiving layer for the generation of stresses in the solid-state body, the stresses causing a crack to propagate in the solid-state body along the detachment plane, and the crack causing the solid-state layer to separate from the solid-state body. providing a solid-state body for the separation of at least one solid-state layer; fastening a receiving layer for holding the solid-state layer on the solid-state body, the receiving layer being fastened on the solid-state body by means of a connecting layer, the receiving layer comprising at least one polymer material, the polymer material undergoing a glass transition at a temperature of less than 0°C, and the receiving layer having a multiplicity of holes having a diameter of less than 0.1 mm for conducting a fluid through the receiving layer to the connecting layer; generating defects in the internal structure of the solid-state body for predefining a detachment plane by means of at least one femtosecond laser before or after the fastening of the receiving layer on the solid-state body; and acting thermally on the receiving layer for the generation of stresses in the solid-state body, the stresses causing a crack to propagate in the solid-state body along the detachment plane, and the crack causing the solid-state layer to separate from the solid-state body.
A process for the production of a tantalum alloy comprising: conducting aluminothermic reactions using a reactant mixture comprising: tantalum pentoxide powder; at least one of iron oxide powder and copper oxide powder; barium peroxide powder; aluminum metal powder; and at least one of niobium pentoxide powder, tungsten metal powder, and tungsten trioxide powder. conducting aluminothermic reactions using a reactant mixture comprising: tantalum pentoxide powder; at least one of iron oxide powder and copper oxide powder; barium peroxide powder; aluminum metal powder; and at least one of niobium pentoxide powder, tungsten metal powder, and tungsten trioxide powder. tantalum pentoxide powder; at least one of iron oxide powder and copper oxide powder; barium peroxide powder; aluminum metal powder; and at least one of niobium pentoxide powder, tungsten metal powder, and tungsten trioxide powder.
A computing device for trusted Input/Output (I/O) attestation and verification, the computing device comprising: a hardware attestation module to (i) collect hardware attestation information associated with one or more statically attached hardware I/O components of the computing device wherein the hardware I/O components are associated with a trusted I/O usage protected with a cryptographic engine of the computing device, and (ii) verify the hardware attestation information; a secure enumeration module to (i) securely enumerate one or more dynamically attached hardware I/O components of the computing device in response to verification of the hardware attestation information, and (ii) load one or more trusted software components in response to secure enumeration of the one or more dynamically attached hardware I/O components; and a software attestation module to (i) collect software attestation information associated with the trusted software components in response to loading of the trusted software components, wherein the software attestation information is indicative of identity and topology of the trusted software components, and (ii) verify the software attestation information. a hardware attestation module to (i) collect hardware attestation information associated with one or more statically attached hardware I/O components of the computing device wherein the hardware I/O components are associated with a trusted I/O usage protected with a cryptographic engine of the computing device, and (ii) verify the hardware attestation information; a secure enumeration module to (i) securely enumerate one or more dynamically attached hardware I/O components of the computing device in response to verification of the hardware attestation information, and (ii) load one or more trusted software components in response to secure enumeration of the one or more dynamically attached hardware I/O components; and a software attestation module to (i) collect software attestation information associated with the trusted software components in response to loading of the trusted software components, wherein the software attestation information is indicative of identity and topology of the trusted software components, and (ii) verify the software attestation information.
A rotor gear mounting assembly for a generator comprising: a rotor shaft comprising a first end and a second end; a magnetic member arrangement operatively coupled to the rotor shaft; a hub portion of the magnetic member arrangement; and a rotor gear operatively coupled to the hub portion, wherein the rotor shaft comprises a shaft outer surface having a first diameter, and the magnetic member arrangement is operatively coupled to the rotor shaft proximate the first end, characterised in that: the hub portion is disposed axially beyond the first end of the rotor shaft; the hub portion comprises a hub outer surface having a second diameter that is less than the first diameter; and the rotor gear is threadingly engaged with the hub portion. a rotor shaft comprising a first end and a second end; a magnetic member arrangement operatively coupled to the rotor shaft; a hub portion of the magnetic member arrangement; and a rotor gear operatively coupled to the hub portion, wherein the rotor shaft comprises a shaft outer surface having a first diameter, and the magnetic member arrangement is operatively coupled to the rotor shaft proximate the first end, characterised in that: the hub portion is disposed axially beyond the first end of the rotor shaft; the hub portion comprises a hub outer surface having a second diameter that is less than the first diameter; and the rotor gear is threadingly engaged with the hub portion. the hub portion is disposed axially beyond the first end of the rotor shaft; the hub portion comprises a hub outer surface having a second diameter that is less than the first diameter; and the rotor gear is threadingly engaged with the hub portion.
A method of producing a polymerized product through an inverse emulsion polymerization reaction, the method comprising: introducing an ultraviolet light sensitive initiator into an inverse emulsion monomer formulation comprising monomers; and irradiating the monomer formulation with an ultraviolet light source; wherein the polymerized product is formed from polymerization of the monomers in the presence of the irradiated ultraviolet light sensitive initiator, and wherein the intensity of ultraviolet light from the ultraviolet light source is increased during the polymerization reaction. introducing an ultraviolet light sensitive initiator into an inverse emulsion monomer formulation comprising monomers; and irradiating the monomer formulation with an ultraviolet light source; wherein the polymerized product is formed from polymerization of the monomers in the presence of the irradiated ultraviolet light sensitive initiator, and wherein the intensity of ultraviolet light from the ultraviolet light source is increased during the polymerization reaction.
A stress history measurement method comprising: embedding a stress sensor in an object, the object being elastically deformable when subjected to an external force, the stress sensor comprising a plurality of calcite particles; inspecting the stress sensor to determine a ratio of twinned calcite particles in the stress sensor after the application of external force to the object, the ratio being newly formed twinned calcite particles in the stress sensor due to the application of the external force to the object to untwinned calcite particles in the stress sensor before the application of the external force to the object; and determining a stress history of the object based on the ratio of the twinned calcite particles present in the stress sensor after the application of the external force to the object. embedding a stress sensor in an object, the object being elastically deformable when subjected to an external force, the stress sensor comprising a plurality of calcite particles; inspecting the stress sensor to determine a ratio of twinned calcite particles in the stress sensor after the application of external force to the object, the ratio being newly formed twinned calcite particles in the stress sensor due to the application of the external force to the object to untwinned calcite particles in the stress sensor before the application of the external force to the object; and determining a stress history of the object based on the ratio of the twinned calcite particles present in the stress sensor after the application of the external force to the object.
Floor cleaning and sweeping machine comprising a filter means for filtering out impurities contained in a stream of gas, preferably air, flowing through said filter means, and comprising: - an inner filter plate or sieve, - an outer frame that houses said filter plate therewithin, - a structure for retaining and supporting said filter plate, and for conveying the shaking motion thereto, said structure being substantially provided on a plane (p) and arranged on a face of said filter plate, - means for shaking and vibrating said support structure, and comprising in turn: - a support socle applied on to said structure, - a rotary electric motor, whose rotor is provided with one or more unbalanced masses, and which is fixedly mounted on said support socle, said electric motor is operated in an intermittent manner, so as to rotate at a variable speed, said electric motor is operated with a direct-current supply voltage (Vcc) according to an ON-OFF cycling pattern characterized in that said electric motor is supplied for a short period with a constant rated voltage (Vcc), whereas such supply is completely interrupted during another short period following the previous one, and in that said speed is caused to continously vary versus time between two extreme values Vmax and Vmin, and in that said direct-current supply voltage (Vcc) is interrupted (cycled OFF) when the rotation speed of the shaft of said electric motor reaches up to a speed value (Vmax) corresponding to at least 95 percent of the highest steady-state speed thereof, and in that said direct-current supply voltage (Vcc) is applied (cycled ON) when the rotation speed of the shaft of said electric motor reaches down to a speed value (Vmin) corresponding to at least 5 percent of the steady-state speed thereof. - an inner filter plate or sieve, - an outer frame that houses said filter plate therewithin, - a structure for retaining and supporting said filter plate, and for conveying the shaking motion thereto, said structure being substantially provided on a plane (p) and arranged on a face of said filter plate, - means for shaking and vibrating said support structure, and comprising in turn: - a support socle applied on to said structure, - a rotary electric motor, whose rotor is provided with one or more unbalanced masses, and which is fixedly mounted on said support socle,
An arrangement for calibrating a cantilever, the cantilever comprising at least a first and a second layer (14, 16) having a mutually different thermal expansion coefficient, the arrangement comprising - a temperature control facility (32, 134) configured to controllably cause a temperature distribution along the cantilever, - a first measuring facility (42, 144) configured to measure a resulting spatial state of the cantilever, the spatial state being defined as one of a deflection and a radius of curvature of the cantilever, - a second measuring facility (90, 145) configured to measure a resonance frequency of the cantilever, and - a computation facility configured to compute a mechanical property from the measured resulting spatial state and the measured resonance frequency corresponding to said caused temperature distribution. - a temperature control facility (32, 134) configured to controllably cause a temperature distribution along the cantilever, - a first measuring facility (42, 144) configured to measure a resulting spatial state of the cantilever, the spatial state being defined as one of a deflection and a radius of curvature of the cantilever, - a second measuring facility (90, 145) configured to measure a resonance frequency of the cantilever, and - a computation facility configured to compute a mechanical property from the measured resulting spatial state and the measured resonance frequency corresponding to said caused temperature distribution.
A method for operating a fuel cell, implemented by a control computer which drives the level of current generated by the cells of the fuel cell, this fuel cell including a means for tracking the temperature of the cells, characterized in that it comprises the following steps when starting the operation of the fuel cell if the temperature of the cells is less than or equal to 3°C, it drives successions of cycles of intervals including for each cycle alternately a low non-zero current (Imin), then a current interval comprising raising and lowering the intensity of the current at programmed speeds.
A compound of the Formula: wherein: R 1 is -CH 2 CH(CH 3) 2, -CH 2 CH 3, -CH 2 CH 2 OCH 3, or -CH 2 -cyclopropyl; R 2 is -CH 3 or -CH 2 CH 3; and X is N or CH, or a pharmaceutically acceptable salt thereof; for use in treating cancer in a human subject having an IDH1 R132 mutation and one or more secondary IDH1 mutations. R 1 is -CH 2 CH(CH 3) 2, -CH 2 CH 3, -CH 2 CH 2 OCH 3, or -CH 2 -cyclopropyl; R 2 is -CH 3 or -CH 2 CH 3; and X is N or CH, or a pharmaceutically acceptable salt thereof; for use in treating cancer in a human subject having an IDH1 R132 mutation and one or more secondary IDH1 mutations.