mhurhangee/ep-ind-claims huggingface dataset:
A process for producing an intermediate material for use in chocolate product composition manufacture, the process comprises producing a material derived from a plant in the Theobroma genus comprising the steps of: a. reducing the size of seeds and/or a portion of seeds of a plant in the Theobroma genus optionally in the presence of: i. pulp and/or an extract of pulp of a plant in the Theobroma genus, and/or ii. a non-pulp and non-seed portion of the fruit of a plant in the Theobroma genus, b. if both of i. and ii. are not present in step a., mixing the product of step a. with either or both of i, and/or ii., wherein process steps a. or b. provide a paste, wherein the total amount of i. and/or ii. in the mixture is produced in step a. or step b. is between 1.0 and 80.0 as a weight percentage of the mixture and the amount of seed and/or portion of seed in the mixture produced in step a. or step b. is between 20.0 and 99.0 as a weight percentage of the mixture. a. reducing the size of seeds and/or a portion of seeds of a plant in the Theobroma genus optionally in the presence of: i. pulp and/or an extract of pulp of a plant in the Theobroma genus, and/or ii. a non-pulp and non-seed portion of the fruit of a plant in the Theobroma genus, i. pulp and/or an extract of pulp of a plant in the Theobroma genus, and/or ii. a non-pulp and non-seed portion of the fruit of a plant in the Theobroma genus, b. if both of i. and ii. are not present in step a., mixing the product of step a. with either or both of i, and/or ii., wherein process steps a. or b. provide a paste, wherein the total amount of i. and/or ii. in the mixture is produced in step a. or step b. is between 1.0 and 80.0 as a weight percentage of the mixture and the amount of seed and/or portion of seed in the mixture produced in step a. or step b. is between 20.0 and 99.0 as a weight percentage of the mixture.
An auto injector with a housing for accommodation of a syringe with a needle, the syringe being movably positioned in the housing between a first position in which position the needle is accommodated inside the housing and a second position in which position the needle protrudes outside the housing, a mechanical driver anchored to the housing at a first anchor location for applying a force to the syringe thereby moving the syringe from the first position to the second position, the mechanical driver is also configured for applying a force to the syringe by anchoring the mechanical driver to a different second anchor location, the auto injector further comprising a first arm configured for conveying a force from the mechanical driver to the syringe for moving the syringe from the first position to the second position, characterized by a second arm configured for conveying a force from the mechanical driver to the syringe shoulder for retracting the syringe from the second position to the retracted position, and wherein the mechanical driver has one end applying a force to the first arm and another end applying a force to the second arm, and wherein the second arm is kept in a fixed position during movement of the syringe from the first position to the second position, and wherein the first arm is kept in a fixed position during movement of the syringe from the second position to the retracted position.
Method for the mechanical correction of geometric motion errors of a positioning machine having at least two machine frame components and at least one axis movement assembly for the relative movement of the machine frame components, the at least one axis movement assembly comprising a plurality of axis guide components, each axis guide component and each machine frame component having a mounting surface, characterized in that • a mounting surface correction profile is determined for the considered axis, whereas the mounting surface correction profile describes the correction amounts in function of the position for the mechanical correction of the considered axis, and wherein the mounting surface correction profile is derived from a measured geometric error of the mounting surface of the individual machine frame component, the geometric error being a straightness error determined in function of the position along the mounting surface of the considered axis, and a computed deviation of a Tool Center Point of the positioning machine due to the relative displacement of the machine frame components along the considered axis, wherein the deviation of the Tool Center Point is computed by a computer using a machine model and that • the determined mounting surface correction profile is imparted to the mounting surface of the axis guide component or to the mounting surface of the machine frame component of the considered axis by machining. • a mounting surface correction profile is determined for the considered axis, whereas the mounting surface correction profile describes the correction amounts in function of the position for the mechanical correction of the considered axis, and wherein the mounting surface correction profile is derived from a measured geometric error of the mounting surface of the individual machine frame component, the geometric error being a straightness error determined in function of the position along the mounting surface of the considered axis, and a computed deviation of a Tool Center Point of the positioning machine due to the relative displacement of the machine frame components along the considered axis, wherein the deviation of the Tool Center Point is computed by a computer using a machine model and that • the determined mounting surface correction profile is imparted to the mounting surface of the axis guide component or to the mounting surface of the machine frame component of the considered axis by machining.
A sealing surface correcting device for sealing screws, in particular sealing screws handled as bulk material, which are made of metal, in particular cold extruded part sealing screws, comprising shaping means, which are preferably hydraulically driven, for applying a shaping force to a sealing surface of a sealing screw, preferably a sealing surface formed on the lower face of a screw head peripheral collar, in order to correct deformations of the sealing surface, in particular indentations due to a bulk material handling process, and with seal testing means for checking the sealing effect of the sealing screw by applying pressure using a pressure medium, wherein a test chamber for supplying a pressure medium to the sealing screw is a part of the shaping means.
A polyurethane composite material, comprising a polyurethane resin matrix prepared from a polyurethane composition and a reinforcement material, wherein the polyurethane composition comprises: A) an isocyanate component comprising one or more organic polyisocyanates; B) an isocyanate-reactive component comprising: b1) one or more organic polyols having an amount of 21-60 wt.% based on 100 % by weight of the polyurethane composition; b2) one or more compounds having structure wherein R 1 is selected from hydrogen, methyl or ethyl; R 2 is selected from alkylene groups having 2-6 carbon atoms, 2,2-bis(4-phenylene) propane, 1,4-bis(methylene)benzene, 1,3-bis(methylene)benzene, 1,2-bis(methylene) benzene; n is an integer selected from 1-6; and C) a radical reaction initiator, wherein the polyurethane resin matrix is prepared under such reaction conditions that the polyurethane composition undergoes addition polymerization reaction of isocyanate groups and hydroxyl groups and radical polymerization reaction simultaneously, and wherein the polyurethane composite is prepared by a process selected from compression molding, filament winding, hand lay-up moulding, spray lay-up moulding and combinations thereof, or by vacuum infusion process. A) an isocyanate component comprising one or more organic polyisocyanates; B) an isocyanate-reactive component comprising: b1) one or more organic polyols having an amount of 21-60 wt.% based on 100 % by weight of the polyurethane composition; b2) one or more compounds having structure wherein R 1 is selected from hydrogen, methyl or ethyl; R 2 is selected from alkylene groups having 2-6 carbon atoms, 2,2-bis(4-phenylene) propane, 1,4-bis(methylene)benzene, 1,3-bis(methylene)benzene, 1,2-bis(methylene) benzene; n is an integer selected from 1-6; and b1) one or more organic polyols having an amount of 21-60 wt.% based on 100 % by weight of the polyurethane composition; b2) one or more compounds having structure wherein R 1 is selected from hydrogen, methyl or ethyl; R 2 is selected from alkylene groups having 2-6 carbon atoms, 2,2-bis(4-phenylene) propane, 1,4-bis(methylene)benzene, 1,3-bis(methylene)benzene, 1,2-bis(methylene) benzene; n is an integer selected from 1-6; and C) a radical reaction initiator,
A method for displaying information, in which at least one projection object (2, 4, 5, 6, 7, 11, 13) is produced at a projection location outside a motorvehicle by means of projection means provided on the motor vehicle, and in which at least one anticipated future stopping of the motor vehicle is marked at least in a planar manner by at least one produced projection object (4, 5, 6, 12), characterised in that the at least one projection object is produced at a projection location in free space, not on the surface of a solid body, and in that a medium designed in a specific way with regard to its optical properties is created for the projection at the projection location.
Anti-Alzheimer's disease active agent for use in treating a subject being at increased risk of Alzheimer's disease when said subject carries a genetic variant of the TOMM40 gene associated with increased risk of Alzheimer's disease as compared to a corresponding subject who does not carry said genetic variant, wherein said genetic variant of the TOMM40 gene is at rs10524523, wherein the anti-Alzheimer's disease active agent is administered in a treatment effective amount.
An electronic apparatus, comprising: a memory configured to store computer executable instructions; a display; and a processor configured to, by executing the computer executable instructions: control the display to display an image corresponding to a content, based on a mute interval being detected by analyzing an audio signal corresponding to the content, identify that a first signal being the audio signal before the mute interval and a second signal being the audio signal after the mute interval are discontinuous when audio feature information of the first signal and audio feature information of the second signal differ by more than a preset threshold value and characterized in that the audio feature information of the first signal and the audio feature information of the second signal are of the same type, and based on identifying that the first signal and the second signal are discontinuous, identify an occurrence of a channel change event in which the content is changed to another content, wherein the audio feature information comprises a phase. a memory configured to store computer executable instructions; a display; and a processor configured to, by executing the computer executable instructions: control the display to display an image corresponding to a content, based on a mute interval being detected by analyzing an audio signal corresponding to the content, identify that a first signal being the audio signal before the mute interval and a second signal being the audio signal after the mute interval are discontinuous when audio feature information of the first signal and audio feature information of the second signal differ by more than a preset threshold value and characterized in that control the display to display an image corresponding to a content, based on a mute interval being detected by analyzing an audio signal corresponding to the content, identify that a first signal being the audio signal before the mute interval and a second signal being the audio signal after the mute interval are discontinuous when audio feature information of the first signal and audio feature information of the second signal differ by more than a preset threshold value and characterized in that the audio feature information of the first signal and the audio feature information of the second signal are of the same type, and based on identifying that the first signal and the second signal are discontinuous, identify an occurrence of a channel change event in which the content is changed to another content, wherein the audio feature information comprises a phase.
A method of correcting a position reading from a position sensing arrangement, the position sensing arrangement being suitable for sensing the position of a revolute joint of an articulated structure, the position sensing arrangement comprising a disc having a magnetic ring (6, 7) with magnetic pole pairs and a magnetic sensor assembly comprising a magnetic sensor array (11, 12) for detecting the magnetic pole pairs of the magnetic ring (6, 7), the method comprising: for each pole pair of the magnetic ring (6, 7), taking a calibration pole pair position reading with the magnetic sensor array (11, 12), and generating a pole pair correcting function by comparing the calibration pole pair position reading with a model pole pair position reading; averaging the pole pair correcting functions of the pole pairs of the magnetic ring (6, 7) to generate an average pole pair correcting function for the magnetic ring (6, 7); taking a position reading with the magnetic sensor array (11, 12), the position reading comprising a plurality of pole pair position readings; and generating a corrected position reading by deducting the average pole pair correcting function from each pole pair position reading. for each pole pair of the magnetic ring (6, 7), taking a calibration pole pair position reading with the magnetic sensor array (11, 12), and generating a pole pair correcting function by comparing the calibration pole pair position reading with a model pole pair position reading; averaging the pole pair correcting functions of the pole pairs of the magnetic ring (6, 7) to generate an average pole pair correcting function for the magnetic ring (6, 7); taking a position reading with the magnetic sensor array (11, 12), the position reading comprising a plurality of pole pair position readings; and generating a corrected position reading by deducting the average pole pair correcting function from each pole pair position reading.
Procedure for the function monitoring of a sensor designed to measure and monitor condition parameters of liquids or gases in the field of process measuring technology, wherein the sensor is set to an inspection state at intervals and inspection parameters are recorded, or inspection parameters are recorded at intervals in the course of measured value logging, wherein the recorded inspection parameters are saved and wherein, to perform the function monitoring, a development of the saved inspection parameters over time is evaluated, and wherein this information is used to predict the future development in the sensor behavior that can be expected, and information is gathered about the duration of trouble-free sensor operation remaining, characterized in that the change in the dynamic behavior of signals generated by the sensor itself is recorded and evaluated as an inspection parameter.
A method for wireless communication by a User Equipment,UE, comprising: receiving, a request for reporting an Aperiodic-Channel Quality Indicator, A-CQI, relating to a Secondary Cell,Scell, configured for the UE when the UE is in a first state corresponding to the Scell,, where the UE does not monitor physical downlink control channel, PDCCH, and reports low periodicity channel state information, CSI, based on network provided CSI configuration resulting in the UE using lower power as compared to when the UE is in a second state; and reporting, in response to the request, the A-CQI for the Scell in accordance with a first A-CQI reporting configuration for the first state which is different from a second A-CQI reporting configuration for the second state. receiving, a request for reporting an Aperiodic-Channel Quality Indicator, A-CQI, relating to a Secondary Cell,Scell, configured for the UE when the UE is in a first state corresponding to the Scell,, where the UE does not monitor physical downlink control channel, PDCCH, and reports low periodicity channel state information, CSI, based on network provided CSI configuration resulting in the UE using lower power as compared to when the UE is in a second state; and reporting, in response to the request, the A-CQI for the Scell in accordance with a first A-CQI reporting configuration for the first state which is different from a second A-CQI reporting configuration for the second state.
A distributed identity validation method implemented by a plurality of coupled distributed identity validation apparatus, wherein the distributed identity validation method comprises the steps of configuring in each distributed identity validation apparatus one or more string rules for the selection and concatenation of characters to generate ID strings; and a threshold value for assessing the match therebetween; scanning a first identity document received by a first distributed identity validation apparatus to generate a first ID image comprising a plurality of printed characters and an image of the face of the holder of the first identity document; extracting the image of the face from the first ID image to generate a first face image; converting the printed characters in the first ID image into a plurality of computer-readable textual characters; using the or each string rule in the first distributed identity validation apparatus to select some of the computer-readable textual characters and concatenate at least some of them to form one or more first ID strings; associating the or each first ID strings with the first face image to form a first user record; storing the first user record and distributing a copy thereof to the other distributed identity validation apparatus; receiving from another distributed identity validation apparatus a second user record and storing it; scanning a second identity document received by the first distributed identity validation apparatus to generate a second ID image comprising a plurality of printed characters and an image of the face of the holder of the second identity document; extracting the image of the face from the second ID image to generate a second face image; converting the printed characters in the second ID image into a plurality of computer-readable textual characters; using the or each string rule in the first distributed identity validation apparatus to select some of the computer-readable textual characters and concatenate at least some of them to form one or more second ID strings; comparing the or each second ID string with the or each ID string in the or each stored user record to determine the degree to which they match; displaying to an operator the image of the face from the second ID image together with the image of the face from the stored user record whose ID string or strings most closely match the or each second ID string; advising that no match has been found between the holder of the second identity document and the or each stored user record in the event the degree of matching between the or each second ID string and the or each ID string in the or each stored user record is less than the threshold value.
A system comprising: a first baseboard (410, 510) having a first processor package (420, 520) and a second processor package (420, 520) respectively adapted thereto, the first baseboard (410, 510) further having a plurality of memory modules (440, 540) adapted thereto, wherein the first baseboard (410, 510) has one or more layers including first interconnect means for carrying processor-to-memory signaling between the first processor package (420, 520) and at least some of the plurality of memory modules (440, 540) and second interconnect means for carrying processor-to-memory signaling between the second processor package (420, 520) and at least some of the plurality of memory modules (440, 540); and a first auxiliary board (430, 530) for carrying processor-to-processor signaling between the first processor package (420, 520) and the second processor package (420, 520) wherein the first auxiliary board (430, 530) is directly coupled to the first processor package (420, 520) and the second processor package (430, 530), and wherein the first baseboard (410, 510) does not include interconnect means for carrying the processor-to-processor signaling between the first processor package (420, 520) and the second processor package (420, 520). a first baseboard (410, 510) having a first processor package (420, 520) and a second processor package (420, 520) respectively adapted thereto, the first baseboard (410, 510) further having a plurality of memory modules (440, 540) adapted thereto, wherein the first baseboard (410, 510) has one or more layers including first interconnect means for carrying processor-to-memory signaling between the first processor package (420, 520) and at least some of the plurality of memory modules (440, 540) and second interconnect means for carrying processor-to-memory signaling between the second processor package (420, 520) and at least some of the plurality of memory modules (440, 540); and a first auxiliary board (430, 530) for carrying processor-to-processor signaling between the first processor package (420, 520) and the second processor package (420, 520) wherein the first auxiliary board (430, 530) is directly coupled to the first processor package (420, 520) and the second processor package (430, 530), and wherein the first baseboard (410, 510) does not include interconnect means for carrying the processor-to-processor signaling between the first processor package (420, 520) and the second processor package (420, 520).
An anchor (10,10), comprising: a frame; a capstan coupled to the frame, wherein the capstan comprises a capstan shaft and a capstan hub coupled to the capstan shaft, wherein the capstan hub is configured to rotate about the capstan shaft; a riser cable in contact with the capstan hub, wherein the capstan is configured to deploy the riser cable from the anchor around the capstan hub; at least one brake coupled to the capstan shaft or to the capstan hub; a processor configured to provide a braking control signal to the at least one brake, wherein the at least one brake is configured, in response to the braking control signal, to retard a speed of rotation of the capstan hub, resulting in at least one of a retardation of a speed of deployment of the riser cable or a retardation of a speed of decent of the anchor; and a float (20,20'), wherein the anchor is configured to hold the float, wherein the anchor is configured to deploy the float from the anchor. a frame; a capstan coupled to the frame, wherein the capstan comprises a capstan shaft and a capstan hub coupled to the capstan shaft, wherein the capstan hub is configured to rotate about the capstan shaft; a riser cable in contact with the capstan hub, wherein the capstan is configured to deploy the riser cable from the anchor around the capstan hub; at least one brake coupled to the capstan shaft or to the capstan hub; a processor configured to provide a braking control signal to the at least one brake, wherein the at least one brake is configured, in response to the braking control signal, to retard a speed of rotation of the capstan hub, resulting in at least one of a retardation of a speed of deployment of the riser cable or a retardation of a speed of decent of the anchor; and a float (20,20'), wherein the anchor is configured to hold the float, wherein the anchor is configured to deploy the float from the anchor.