mhurhangee/ep-ind-claims huggingface dataset:
A method of forming an earth-boring tool, the method comprising: forming a tool body including at least one inverted cutting element pocket, at least a portion of the at least one inverted cutting element pocket having a profile substantially matching a profile of an actual cutting element to be secured within a cutting element pocket to be formed by subsequently machining the at least one inverted cutting element pocket; applying hardfacing material (126,128) to portions of the tool body; forming the actual cutting element pocket by removing material of the tool body within the at least one inverted cutting element pocket subsequent to applying the hardfacing material to portions of the tool body; and affixing a cutting element within the actual cutting element pocket; characterised in that applying hardfacing material to portions of the tool body comprises applying a first hardfacing material, selected to exhibit a specific combination of machineability and wear resistance, to portions of the tool body adjacent the at least one inverted cutting element pocket, and applying a second hardfacing material having a different composition than the first hardfacing material to at least a portion of the tool body separated from the at least one inverted cutting element pocket by at least a portion of the first hardfacing material. forming a tool body including at least one inverted cutting element pocket, at least a portion of the at least one inverted cutting element pocket having a profile substantially matching a profile of an actual cutting element to be secured within a cutting element pocket to be formed by subsequently machining the at least one inverted cutting element pocket; applying hardfacing material (126,128) to portions of the tool body; forming the actual cutting element pocket by removing material of the tool body within the at least one inverted cutting element pocket subsequent to applying the hardfacing material to portions of the tool body; and affixing a cutting element within the actual cutting element pocket; characterised in that applying hardfacing material to portions of the tool body comprises applying a first hardfacing material, selected to exhibit a specific combination of machineability and wear resistance, to portions of the tool body adjacent the at least one inverted cutting element pocket, and applying a second hardfacing material having a different composition than the first hardfacing material to at least a portion of the tool body separated from the at least one inverted cutting element pocket by at least a portion of the first hardfacing material.
A method of preparing a multifunctional organosilicon compound, said method comprising: reacting an organosilanol compound comprising a functional moiety selected from alkoxysilyl moieties and acryloxy moieties and a hydridosilane compound having at least two hydrolysable groups in the presence of an acetate salt, thereby preparing the multifunctional organosilicon compound; wherein the hydrolysable group is independently selected from halogens, alkoxy groups, carboxy groups, oxime groups and aminoxy groups; preferably wherein each hydrolysable group is halogen; more preferably each hydrolysable group is chlorine. reacting an organosilanol compound comprising a functional moiety selected from alkoxysilyl moieties and acryloxy moieties and a hydridosilane compound having at least two hydrolysable groups in the presence of an acetate salt, thereby preparing the multifunctional organosilicon compound; wherein the hydrolysable group is independently selected from halogens, alkoxy groups, carboxy groups, oxime groups and aminoxy groups; preferably wherein each hydrolysable group is halogen; more preferably each hydrolysable group is chlorine.
A computer-implemented method for customizing functions of a point-of-sale, POS, terminal, the method, performed by a POS terminal comprising one or more processors for executing program instructions, comprising: receiving payment device data from a payment card of a user during a payment transaction between the user and a merchant; receiving, from the payment card, a first set of identifiers of scripts associated with one or more types of scripts that the payment card is configured to transmit; comparing the first set of identifiers of scripts with a second set of identifiers of scripts associated with one or more types of scripts that the POS terminal is configured to execute; communicating, to the payment card, at least one identifier of scripts common to both the first set and the second set; receiving at least one script, corresponding to the at least one identifier of scripts common to both the first set and the second set, for execution on the POS terminal from the payment card, wherein the at least one script is configured to customize an existing function of the POS terminal or cause the execution of a custom POS terminal function, corresponds to at least one payment device identifier of the payment card included in the payment device data, and is associated with a digital signature; verifying the at least one script based on the digital signature of the at least one script; and executing the at least one script on the POS terminal to cause an action associated with a user interaction with the POS terminal to be performed. receiving payment device data from a payment card of a user during a payment transaction between the user and a merchant; receiving, from the payment card, a first set of identifiers of scripts associated with one or more types of scripts that the payment card is configured to transmit; comparing the first set of identifiers of scripts with a second set of identifiers of scripts associated with one or more types of scripts that the POS terminal is configured to execute; communicating, to the payment card, at least one identifier of scripts common to both the first set and the second set; receiving at least one script, corresponding to the at least one identifier of scripts common to both the first set and the second set, for execution on the POS terminal from the payment card, wherein the at least one script is configured to customize an existing function of the POS terminal or cause the execution of a custom POS terminal function, corresponds to at least one payment device identifier of the payment card included in the payment device data, and is associated with a digital signature; verifying the at least one script based on the digital signature of the at least one script; and executing the at least one script on the POS terminal to cause an action associated with a user interaction with the POS terminal to be performed.
A method for the production of multiple different orders of custom folded envelopes, the method comprising: producing a plurality of stacks of sheets of envelope stock to be processed into folded envelopes having custom content printed thereon, each stack being associated with an envelope order; providing the plurality of stacks (402, 404) to an envelope processing machine such that the envelope machine continuously processes the plurality of stacks into folded envelopes; visually examining the envelopes produced by the envelope machine; CHARACTERIZED BY arranging a first sheet (200, 401, 403) of each stack to have an appearance that differs from the appearance of the other sheets in the stack such that when the stack has been processed into folded envelopes, one or more edges of the envelope formed from the first sheet will be visually distinctive such that the envelope (407, 408) formed from the first sheet (200, 401, 403) can be distinguished from the envelopes formed from the other sheets in the stack; identifying groups of envelopes positioned between two envelopes (407, 408) formed from first sheets (401, 403) as corresponding to an envelope order; and manually removing the identified envelopes for further processing. producing a plurality of stacks of sheets of envelope stock to be processed into folded envelopes having custom content printed thereon, each stack being associated with an envelope order; providing the plurality of stacks (402, 404) to an envelope processing machine such that the envelope machine continuously processes the plurality of stacks into folded envelopes; visually examining the envelopes produced by the envelope machine; CHARACTERIZED BY arranging a first sheet (200, 401, 403) of each stack to have an appearance that differs from the appearance of the other sheets in the stack such that when the stack has been processed into folded envelopes, one or more edges of the envelope formed from the first sheet will be visually distinctive such that the envelope (407, 408) formed from the first sheet (200, 401, 403) can be distinguished from the envelopes formed from the other sheets in the stack; identifying groups of envelopes positioned between two envelopes (407, 408) formed from first sheets (401, 403) as corresponding to an envelope order; and manually removing the identified envelopes for further processing.
A display device, comprising: a substrate; a pixel circuit on the substrate, the pixel circuit comprising: a gate electrode, a drain electrode, and a source electrode; a vertical LED element on the substrate, the vertical LED element comprising: a first semiconductor layer, an active layer under the first semiconductor layer, a second semiconductor layer under the active layer, and an encapsulation film surrounding the vertical LED element, the encapsulation film exposing a portion of a lateral face of the second semiconductor layer; a first connection electrode electrically connected to the first semiconductor layer; and a second connection electrode, characterised in that the second connection electrode is directly and electrically connected to the second semiconductor layer via the exposed portion of the lateral face of the second semiconductor layer. a substrate; a pixel circuit on the substrate, the pixel circuit comprising: a gate electrode, a drain electrode, and a source electrode; a gate electrode, a drain electrode, and a source electrode; a vertical LED element on the substrate, the vertical LED element comprising: a first semiconductor layer, an active layer under the first semiconductor layer, a second semiconductor layer under the active layer, and an encapsulation film surrounding the vertical LED element, the encapsulation film exposing a portion of a lateral face of the second semiconductor layer; a first semiconductor layer, an active layer under the first semiconductor layer, a second semiconductor layer under the active layer, and an encapsulation film surrounding the vertical LED element, the encapsulation film exposing a portion of a lateral face of the second semiconductor layer; a first connection electrode electrically connected to the first semiconductor layer; and a second connection electrode, characterised in that the second connection electrode is directly and electrically connected to the second semiconductor layer via the exposed portion of the lateral face of the second semiconductor layer.
Ophthalmological method for measuring a cornea, comprising: generation of a two-dimensional reference pattern by a reference pattern generator from at least two mutually phase-shifted periodic basic reference patterns respectively having a different colour or pattern points of different polarization; projection of the generated two-dimensional reference pattern onto the cornea; and acquisition of a reflection pattern reflected by the cornea by virtue of the reference pattern; generation of a plurality of different reflection images from the reflection pattern reflected by the cornea by virtue of the two-dimensional reference pattern by colour filtering or polarization filtering; storage of the plurality of different reflection images; characterized by respective calculation of a phase value (φ) of the reflection pattern for points on the cornea on the basis of intensities respectively measured in the stored reflection images at a pixel corresponding to the relevant point; and determination of at least one measured geometrical value of the cornea on the basis of the phase values (φ). generation of a two-dimensional reference pattern by a reference pattern generator from at least two mutually phase-shifted periodic basic reference patterns respectively having a different colour or pattern points of different polarization; projection of the generated two-dimensional reference pattern onto the cornea; and acquisition of a reflection pattern reflected by the cornea by virtue of the reference pattern; generation of a plurality of different reflection images from the reflection pattern reflected by the cornea by virtue of the two-dimensional reference pattern by colour filtering or polarization filtering; storage of the plurality of different reflection images; characterized by respective calculation of a phase value (φ) of the reflection pattern for points on the cornea on the basis of intensities respectively measured in the stored reflection images at a pixel corresponding to the relevant point; and determination of at least one measured geometrical value of the cornea on the basis of the phase values (φ).
A computer-implemented method for determining a motion parameter of a heart, the method comprising: - determining a sequence of cardiac MR images (61,62) showing a time resolved motion of the heart, - applying a subset of the sequence of cardiac MR images as a first input to a first trained convolutional neural network configured to determine, as first output a probability distribution of at least 2 anatomical landmarks in the subset, - cropping and aligning the sequence of cardiac MR images based on the at least 2 anatomical landmarks, in order to determine a reframed and aligned sequence of new cardiac MR images, wherein all new images of the reframed and aligned sequence show the same orientation of the heart, - applying the reframed and aligned sequence of new cardiac MR images to a second trained convolutional neural network configured to determine, as second output, a further probability distribution of the at least 2 anatomical landmarks in each new MR image of the reframed and aligned sequence, - determining the motion parameter of the heart based on the second output. - determining a sequence of cardiac MR images (61,62) showing a time resolved motion of the heart, - applying a subset of the sequence of cardiac MR images as a first input to a first trained convolutional neural network configured to determine, as first output a probability distribution of at least 2 anatomical landmarks in the subset, - cropping and aligning the sequence of cardiac MR images based on the at least 2 anatomical landmarks, in order to determine a reframed and aligned sequence of new cardiac MR images, wherein all new images of the reframed and aligned sequence show the same orientation of the heart, - applying the reframed and aligned sequence of new cardiac MR images to a second trained convolutional neural network configured to determine, as second output, a further probability distribution of the at least 2 anatomical landmarks in each new MR image of the reframed and aligned sequence, - determining the motion parameter of the heart based on the second output.
A surgery support system comprising: an acquiring unit configured to acquire a first surgery image; an analysis unit configured to generate risk analysis information from the first surgery image by applying the first surgery image acquired by the acquiring unit to a trained model generated using learning data, the learning data including a second surgery image different from the first surgery image, the second surgery image having associated information on a complication risk due to surgery; and an output unit configured to output surgery support information that is based on the risk analysis information generated by the analysis unit, in a superimposed manner on the first surgery image. an acquiring unit configured to acquire a first surgery image; an analysis unit configured to generate risk analysis information from the first surgery image by applying the first surgery image acquired by the acquiring unit to a trained model generated using learning data, the learning data including a second surgery image different from the first surgery image, the second surgery image having associated information on a complication risk due to surgery; and an output unit configured to output surgery support information that is based on the risk analysis information generated by the analysis unit, in a superimposed manner on the first surgery image.
Method for operating a working device, wherein the working device is arranged to move autonomously in a processing environment, at least comprising the following method steps: - Detection of a safety-relevant operating situation using at least one sensor system of the working device, - Initiating a braking process, the braking process including using at least one drive motor of the working device to reduce speed when a critical operating situation has been detected, characterized in that further the following method steps are comprised: - Processing at least one driving parameter determined after initiating the braking process, wherein the processing of the at least one driving parameter comprises the comparison with at least one driving parameter setpoint stored in a memory, - Selecting between a continuation of the braking process or the initiation of an emergency braking process depending at least on the processed driving parameter. - Detection of a safety-relevant operating situation using at least one sensor system of the working device, - Initiating a braking process, the braking process including using at least one drive motor of the working device to reduce speed when a critical operating situation has been detected, - Processing at least one driving parameter determined after initiating the braking process, wherein the processing of the at least one driving parameter comprises the comparison with at least one driving parameter setpoint stored in a memory, - Selecting between a continuation of the braking process or the initiation of an emergency braking process depending at least on the processed driving parameter.
Earphone with active suppression of ambient noise, in which at least one electrodynamic loudspeaker with a membrane and microphone are provided in the interior of the earphone, and with an electronic circuit, with which the loudspeaker and the microphone are connected by connection lines, characterized by the fact that the microphone is arranged on the membrane.
Hydrogenated polybutadiene, wherein the hydrogenated polybutadiene (i) has a weight-average molecular weight comprised in the range between 2,000 g/mol and 10,000 g/mol, (ii) consists of 25 to 45 % by weight of monomer units of 1,4-butadiene and 55 to 75 % by weight of monomer units of 1,2-butadiene, based on the total weight of the hydrogenated polybutadiene, and (iii) has a hydrogenation degree of more than 99%. (i) has a weight-average molecular weight comprised in the range between 2,000 g/mol and 10,000 g/mol, (ii) consists of 25 to 45 % by weight of monomer units of 1,4-butadiene and 55 to 75 % by weight of monomer units of 1,2-butadiene, based on the total weight of the hydrogenated polybutadiene, and (iii) has a hydrogenation degree of more than 99%.
A method of producing one or more heterologous polypeptides of interest in a host cell, optionally an E. coli cell, the method comprising: (i) providing an expression vector encoding a fusion protein comprising the heterologous polypeptide of interest and a fluorescent fusion partner; (ii) transforming the host cell with the expression vector of step (i), wherein the host cell and/or the expression vector is modified to include a nucleic acid encoding a promoter, a lytic protein, and an RNA thermometer, further wherein expression of the nucleic acid encoding the lytic protein is regulated by the promoter and translation of the lytic protein is regulated by the RNA thermometer; (iii) expressing the fusion protein in the host cell; (iv) modifying the temperature of the host cell to induce expression of the lytic protein, wherein expression of the lytic protein results in lysis of the host cell; and (v) recovering the fusion protein from the host cell. (i) providing an expression vector encoding a fusion protein comprising the heterologous polypeptide of interest and a fluorescent fusion partner; (ii) transforming the host cell with the expression vector of step (i), wherein the host cell and/or the expression vector is modified to include a nucleic acid encoding a promoter, a lytic protein, and an RNA thermometer, further wherein expression of the nucleic acid encoding the lytic protein is regulated by the promoter and translation of the lytic protein is regulated by the RNA thermometer; (iii) expressing the fusion protein in the host cell; (iv) modifying the temperature of the host cell to induce expression of the lytic protein, wherein expression of the lytic protein results in lysis of the host cell; and (v) recovering the fusion protein from the host cell.
A solid composition containing at least one pharmaceutically acceptable excipient and ivabradine or a pharmaceutically acceptable salt thereof as active substance characterized in that the excipient and the active substance are present in a homogeneous, molecularly disperse mixture, wherein the pharmaceutically acceptable excipient is selected from the group consisting of polyethylene glycol, polyvinylpyrrolidone, hydroxypropyl methyl cellulose, methylcellulose, hydroxyl propylcellulose, copovidone, and ethylene oxide-propylene oxide block-copolymers, wherein the weight ratio of active substance, based on the free base, to excipient is in the range of 1:1 to 1:100, under the provision that co-precipitates obtained by spray-drying of an aqueous solution of 10g ivabradine hydrochloride and 10g polyvinylpyrrolidone (PVP K30), granulate obtained by spraying of an aqueous solution of 8.085 mg ivabradine hydrochloride and 8.085 mg polyvinylpovidone (PVP K30) onto a mixture of 27.000 mg maize starch, a part of 104.580 mg microcrystalline cellulose and a part of 0.750 mg colloidal silicon dioxide, anhydrous, or tablets obtained from those granulates by mixing with the remainder of the microcrystalline cellulose, the remainder of the colloidal silicon dioxide, anhydrous, and 1.500 mg magnesium stearate and pressing into tablets, and optionally film coating the tablets with an aqueous dispersion of 3.000 mg hypromellose 6cp, 0.480 mg polyethylene glycol 6000, 0.195 mg glycerol, 0.675 mg titanium dioxide, 0.090 mg iron oxide, yellow, 0.030 mg iron oxide, red, and 0.030 mg magnesium stearate, are not covered.
A shrinkable film, comprising: a biodegradable film containing 10~99 wt% of polylactic acid resin and 1~90 wt% of aliphatic or aliphatic-aromatic polyester resin; a polyurethane coating layer formed by coating a water-dispersed polyurethane coating composition on one surface of the biodegradable film; and a metal deposition layer formed on the polyurethane coating layer. a biodegradable film containing 10~99 wt% of polylactic acid resin and 1~90 wt% of aliphatic or aliphatic-aromatic polyester resin; a polyurethane coating layer formed by coating a water-dispersed polyurethane coating composition on one surface of the biodegradable film; and a metal deposition layer formed on the polyurethane coating layer.