mhurhangee/ep-ind-claims huggingface dataset:
A method of measuring residual stress in an object (4, 4a) that includes a columnar shaft section and a tabular section projecting outward radially beyond an outer circumferential surface of the shaft section over an entire circumference, the object (4, 4a) being provided with a fillet surface in a portion interconnecting the shaft section and the tabular section, the method comprising repeating a measurement cycle which includes: a step of cutting the object (4, 4a) to thereby form a new cutting surface which is a conical or cylindrical surface concentric with an axis of the shaft section, the conical or cylindrical surface being through a reference position (Ps) which is unchanged in every repeated measurement cycle; and a step of measuring residual stress in a plurality of parts in the cutting surface, characterised in that the reference position (Ps) is a center position of an arc having a largest diameter among arcs included in the fillet surface on a central longitudinal cross-section of the object (4, 4a).
A computer-implemented method of determining a particle size distribution, comprising: obtaining an image of a plurality of particles and one or more calibration marks by using a camera that is positioned to capture an image of the plurality of (x, particles lying on a calibration pattern which includes a background and the calibration marks, wherein the camera includes at least one lens and wherein the plurality of particles and the one or more calibration marks were captured using the same lens; correcting the image for distortion effects to generate a corrected image, wherein the same correction factor is applied to both the plurality of particles and the one or more calibration marks; determining a size of the plurality of particles in the image using the corrected image and the dimensions of the one or more calibration marks; determining a particle size distribution for the plurality of particles; comparing the particle size distribution with a target particle size profile to determine closeness of match; and based on said comparison, indicating to an operator that further grinding would bring the particle size distribution closer to the target particle size profile. obtaining an image of a plurality of particles and one or more calibration marks by using a camera that is positioned to capture an image of the plurality of (x, particles lying on a calibration pattern which includes a background and the calibration marks, wherein the camera includes at least one lens and wherein the plurality of particles and the one or more calibration marks were captured using the same lens; correcting the image for distortion effects to generate a corrected image, wherein the same correction factor is applied to both the plurality of particles and the one or more calibration marks; determining a size of the plurality of particles in the image using the corrected image and the dimensions of the one or more calibration marks; determining a particle size distribution for the plurality of particles; comparing the particle size distribution with a target particle size profile to determine closeness of match; and
Module for modularly constructed clean-room facilities with a housing's interior space, in which a storage unit and a handling unit are arranged, which comprises a drive part for a gripper arm, wherein the drive part and the gripper arm are arranged in spatial parts (16, 17) of the housing's interior space divided by a membrane-like partition wall and the drive part and the gripper arm are coupled via a supported skid that can be adjusted in a driven manner with relation to the drive part and a runner arranged in a torque-proof manner with relation to the gripper arm, wherein the skid and the runner lying opposite with relation to the partition wall are provided with support structures (50, 51) corresponding to one another, which comprise roller supports with support rollers (55, 56) lying opposite to one another and magnetic pairings (53, 54) associated with the support structures (50, 51), wherein the drive part and the gripper arm are magnetically motion-coupled to the partition wall in a bridging and contact-free manner by a centring magnetic pairings of the magnetic pairings (53, 54) associated with the support structures (50, 51) and wherein supporting magnetic pairings of the magnetic pairings associated with the support structures support the drive part belonging to the gripper arm according to the support via the support rollers, characterized in that the roller supports formed by the support rollers (55, 56) lying opposite to the partition wall are consolidated into a support roller group with at least two support rollers (55, 56), which are arranged in an offset manner on the corner points of a polygon, in particular of a triangle, in such a way that, in the case of a side of the partition wall and support rollers lying on the same perimeter to the rotational axis of the rotary support, the opposite-lying third support roller is arranged in an adjacent position to this on a deviating perimeter, thereby being smaller in particular.
A wearable external defibrillator comprising: one or more sensing electrodes configured to engage with a patient's skin to detect a cardiac signal; a defibrillator electrode pad configured to engage with the patient's skin and to deliver an electrical therapy to the patient, the defibrillator electrode pad configured to be in continuous electrical communication with the patient's skin; a patient engagement substrate comprising an adhesive, the one or more sensing electrodes, the defibrillator electrode pad, and a fluid transport element configured to transport fluid away from the skin to allow the wearable external defibrillator to be worn continuously during movement and showering activities; an energy source; and a controller configured to detect the cardiac signal with the sensing electrodes and to deliver a therapeutic shock through the defibrillator pad to the patient while the patient engagement substrate is engaged with the patient. one or more sensing electrodes configured to engage with a patient's skin to detect a cardiac signal; a defibrillator electrode pad configured to engage with the patient's skin and to deliver an electrical therapy to the patient, the defibrillator electrode pad configured to be in continuous electrical communication with the patient's skin; a patient engagement substrate comprising an adhesive, the one or more sensing electrodes, the defibrillator electrode pad, and a fluid transport element configured to transport fluid away from the skin to allow the wearable external defibrillator to be worn continuously during movement and showering activities; an energy source; and a controller configured to detect the cardiac signal with the sensing electrodes and to deliver a therapeutic shock through the defibrillator pad to the patient while the patient engagement substrate is engaged with the patient.
A connector comprising: a plurality of metal terminal fittings connected to terminals of electric wires; a plurality of molded housings molded to connection parts of the electric wires and the metal terminal fittings to cover the connection parts; and an overmolded housing which accommodates and holds the plurality of molded housings, wherein the plurality of molded housings are molded in a structure integrated by carrier portions (71, 72) that connect the adjacent molded housings to each other and are collectively integrated into the overmolded housing, the carrier portions (71, 72) have cross-section dimensions set to be smaller than cross-section dimensions of the molded housing, and have flexibility, and an arrangement pitch between the adjacent molded housings are adjusted when the plurality of molded housings are collectively integrated into the overmolded housing. a plurality of metal terminal fittings connected to terminals of electric wires; a plurality of molded housings molded to connection parts of the electric wires and the metal terminal fittings to cover the connection parts; and an overmolded housing which accommodates and holds the plurality of molded housings, wherein the plurality of molded housings are molded in a structure integrated by carrier portions (71, 72) that connect the adjacent molded housings to each other and are collectively integrated into the overmolded housing, the carrier portions (71, 72) have cross-section dimensions set to be smaller than cross-section dimensions of the molded housing, and have flexibility, and an arrangement pitch between the adjacent molded housings are adjusted when the plurality of molded housings are collectively integrated into the overmolded housing.
A method of improving visual ability of a subject (130, 160, 240, 210, 410) during athletic activities, the method comprising: providing a background (120, 150, 220, 250, 300) having visual values assigned thereto, the background visual values comprising spectral reflectance, hue, and intensity; providing an artificial lighting source, the artificial lighting source having a spectral distribution; providing a sporting object (110, 140, 260, 230) having a speed, trajectory, and rotation, the sporting object having a visual appearance and visual values comprising spectral reflectance, hue, and intensity; configuring the sporting object and background to have a low-contrast effect between the sporting object and the background by altering the sporting object visual values to substantially approximate the background visual values; altering the artificial lighting source from a first spectral distribution to a second spectral distribution to increase the difficulty training; and training the subject using the sporting object visually in front of the background while being subject to the artificial lighting source having the second spectral distribution. providing a background (120, 150, 220, 250, 300) having visual values assigned thereto, the background visual values comprising spectral reflectance, hue, and intensity; providing an artificial lighting source, the artificial lighting source having a spectral distribution; providing a sporting object (110, 140, 260, 230) having a speed, trajectory, and rotation, the sporting object having a visual appearance and visual values comprising spectral reflectance, hue, and intensity; configuring the sporting object and background to have a low-contrast effect between the sporting object and the background by altering the sporting object visual values to substantially approximate the background visual values; altering the artificial lighting source from a first spectral distribution to a second spectral distribution to increase the difficulty training; and training the subject using the sporting object visually in front of the background while being subject to the artificial lighting source having the second spectral distribution.
A method of a User Equipment, in the following also referred to as UE, handling discontinuous reception, in the following also referred to as DRX, in a wireless communication system, comprising: monitoring a control channel for detection of a Uplink, in the following also referred to as UL, grant; receiving N UL grants associated with n Hybrid Automatic Repeat Request, in the following also referred to as HARQ, processes on the control channel, wherein N > 1; sending N UL data associated with the N UL grants on a data channel; starting one retransmission timer per HARQ process after detection of the N UL grants at N different timings; receiving a signaling indicating stop specific retransmission timers in response to UL data being decoded successfully, wherein the number of specific retransmission timers is larger than one and smaller or equals to N; and stopping the specific retransmission timers, wherein the UE monitors the control channel when any retransmission timer is running. monitoring a control channel for detection of a Uplink, in the following also referred to as UL, grant; receiving N UL grants associated with n Hybrid Automatic Repeat Request, in the following also referred to as HARQ, processes on the control channel, wherein N > 1; sending N UL data associated with the N UL grants on a data channel; starting one retransmission timer per HARQ process after detection of the N UL grants at N different timings; receiving a signaling indicating stop specific retransmission timers in response to UL data being decoded successfully, wherein the number of specific retransmission timers is larger than one and smaller or equals to N; and stopping the specific retransmission timers, wherein the UE monitors the control channel when any retransmission timer is running.
Composition, in particular comprising a physiologically acceptable medium, in particular for coating keratin materials, more particularly for making up and/or caring for keratin materials, such as the skin, in the form of a water-in-oil emulsion comprising: a) a continuous oily phase, and b) at least one discontinuous aqueous phase dispersed in said oily phase; c) at least one emulsifying system comprising: i) at least one fatty acid ester of a polyol and ii) at least one polymer of polyoxyethylenated fatty acid ester of glycol; and d) at least one lipophilic clay; and e) at least one organopolysiloxane elastomer powder coated with a silicone resin. a) a continuous oily phase, and b) at least one discontinuous aqueous phase dispersed in said oily phase; c) at least one emulsifying system comprising: i) at least one fatty acid ester of a polyol and ii) at least one polymer of polyoxyethylenated fatty acid ester of glycol; and i) at least one fatty acid ester of a polyol and ii) at least one polymer of polyoxyethylenated fatty acid ester of glycol; and d) at least one lipophilic clay; and e) at least one organopolysiloxane elastomer powder coated with a silicone resin.
Method of preserving a tissue sample comprising the steps of: providing a container, providing a cover including a member configured to break a seal and a top member with a receptacle filled with a preserving agent and sealed with the seal, placing a tissue sample in said container before the cover is engaged with the container, engaging said cover with the container, thereby fluid tightly sealing the cover to the container, displacing the member and/or the seal by engaging engagement means of the member with engagement means on the top member of the cover, whereby the seal is broken and the preserving agent is entered into the container. providing a container, providing a cover including a member configured to break a seal and a top member with a receptacle filled with a preserving agent and sealed with the seal, placing a tissue sample in said container before the cover is engaged with the container, engaging said cover with the container, thereby fluid tightly sealing the cover to the container, displacing the member and/or the seal by engaging engagement means of the member with engagement means on the top member of the cover, whereby the seal is broken and the preserving agent is entered into the container.
A method for recognising a defective air mass flow meter for detecting the air mass flow of intake air for a number of cylinders of an internal combustion engine, especially in a motor vehicle, in which as part of a test procedure the internal combustion engine is operated by means of a pilot controller when the mixture control is deactivated, wherein the pilot controller outputs control values for the mixture of fuel and air in the respective cylinders which in normal operation of the internal combustion engine are varied via the mixture control based on a mixture deviation (Δλ) of the current mixture from a stoichiometric mixture, wherein a) the internal combustion engine is set to one or more different idling speeds (LD1, LD2, LD3, LD4) and the mixture deviation (Δλ) when the mixture control is deactivated is detected for a respective idling speed (LD1, LD2, LD3, LD4); b) in the event that the detected mixture deviation (Δλ) or detected mixture deviations (Δλ) satisfies/satisfy a number of criteria, the air mass flow meter is classified as defective, with a first criterion of the number of criteria being satisfied when the detected mixture deviation (Δλ) for one of the set idling speeds (LD1, LD2, LD3, LD4) exceeds a predetermined amount. a) the internal combustion engine is set to one or more different idling speeds (LD1, LD2, LD3, LD4) and the mixture deviation (Δλ) when the mixture control is deactivated is detected for a respective idling speed (LD1, LD2, LD3, LD4); b) in the event that the detected mixture deviation (Δλ) or detected mixture deviations (Δλ) satisfies/satisfy a number of criteria, the air mass flow meter is classified as defective, with a first criterion of the number of criteria being satisfied when the detected mixture deviation (Δλ) for one of the set idling speeds (LD1, LD2, LD3, LD4) exceeds a predetermined amount.
Method for attaching a metal ring in a frame of a different metal, wherein: - at a distance from edges of the frame a bore is made passing through a thickness of the latter and having a predetermined inner diameter; - into the bore is inserted a metal ring with an outer diameter that corresponds to the inner diameter of the bore and with a width less than or equal to the thickness of the frame; - the ring is crimped in the bore by means of high-energy forming suitable for urging an outer surface of the ring against the bore with a deformation speed greater than 15 m/s able to drive out any impurity from an interface between the ring and the frame; - the interface between the ring and the frame is heated to a temperature and for a determined duration according to the respective materials of the ring and of the frame in such a way as to obtain a diffusion welding between the outer face of the ring and the bore. - at a distance from edges of the frame a bore is made passing through a thickness of the latter and having a predetermined inner diameter; - into the bore is inserted a metal ring with an outer diameter that corresponds to the inner diameter of the bore and with a width less than or equal to the thickness of the frame; - the ring is crimped in the bore by means of high-energy forming suitable for urging an outer surface of the ring against the bore with a deformation speed greater than 15 m/s able to drive out any impurity from an interface between the ring and the frame; - the interface between the ring and the frame is heated to a temperature and for a determined duration according to the respective materials of the ring and of the frame in such a way as to obtain a diffusion welding between the outer face of the ring and the bore.
A method for preparing etelcalcetide or a precursor thereof, the method comprising: (i) coupling the N-terminal of a protected tetrapeptide fragment of etelcalcetide comprising D-ornithine in place of D-arginine with a protected tripeptide fragment of etelcalcetide in solution phase to form a protected heptapeptide precursor of etelcalcetide comprising a terminal D-cysteine. (i) coupling the N-terminal of a protected tetrapeptide fragment of etelcalcetide comprising D-ornithine in place of D-arginine with a protected tripeptide fragment of etelcalcetide in solution phase to form a protected heptapeptide precursor of etelcalcetide comprising a terminal D-cysteine.
An automatic analysis device comprising: a reagent disc on which a plurality of reagent containers (105; 201a-c; 202a) are loaded, the reagent disc holding a reagent used for an analysis of a specimen; an incubator having a plurality of reaction vessels arranged, the reaction vessel allowing the specimen and the reagent to be reacted; a sample dispensation mechanism for dispensing the specimen into the reaction vessel arranged in the incubator; a reagent dispensation mechanism for dispensing the reagent held in the reagent container (105; 201a-c; 202a) loaded in the reagent disc into the reaction vessel loaded in the incubator; a reagent loader for loading the reagent containers (105; 201a-c; 202a) from the outside into the reagent disc, and unloading the reagent containers (105; 201 a-c; 202a) to the outside; a display unit for displaying the reagents of the plurality of reagent containers (105; 201a-c; 202a) arranged in the reagent disc and analysis items to be analyzed using the reagents, the reagent and the analysis item forming a pair; and a control unit, characterized in that the control unit is adapted to allow the reagent loader to perform simultaneous unloading of the reagent container (105; 201a-c; 202a) that is selected with the display unit through an operation device used by an operator for input operations, and designated for unloading by the reagent loader, and the reagent container (105; 201a-c; 202a) used for another analysis item to be analyzed simultaneously with the analysis item to be analyzed using the selected reagent, to the outside of the reagent disc. a reagent disc on which a plurality of reagent containers (105; 201a-c; 202a) are loaded, the reagent disc holding a reagent used for an analysis of a specimen; an incubator having a plurality of reaction vessels arranged, the reaction vessel allowing the specimen and the reagent to be reacted; a sample dispensation mechanism for dispensing the specimen into the reaction vessel arranged in the incubator; a reagent dispensation mechanism for dispensing the reagent held in the reagent container (105; 201a-c; 202a) loaded in the reagent disc into the reaction vessel loaded in the incubator; a reagent loader for loading the reagent containers (105; 201a-c; 202a) from the outside into the reagent disc, and unloading the reagent containers (105; 201 a-c; 202a) to the outside; a display unit for displaying the reagents of the plurality of reagent containers (105; 201a-c; 202a) arranged in the reagent disc and analysis items to be analyzed using the reagents, the reagent and the analysis item forming a pair; and a control unit, characterized in that the control unit is adapted to allow the reagent loader to perform simultaneous unloading of the reagent container (105; 201a-c; 202a) that is selected with the display unit through an operation device used by an operator for input operations, and designated for unloading by the reagent loader, and the reagent container (105; 201a-c; 202a) used for another analysis item to be analyzed simultaneously with the analysis item to be analyzed using the selected reagent, to the outside of the reagent disc.