mhurhangee/patent-ind-claim-en huggingface dataset:
A dispensing box for a drug-containing ampoule , the dispensing box comprising: a storage unit in which at least two partition members are vertically stacked on each other to form a multilayer structure, each partition member comprising partition walls for partitioning a plurality of unit cells in which ampoules are stored; a shutter opening or closing a lower portion of each of the unit cells partitioned by the partition member; a driving unit operating the shutter ; a conveyer which receives the ampoules dropped from the plurality of unit cells when the lower portion of each of the unit cells is opened; a discharge hole adjacent to an end of the conveyer to dispense the ampoule seated on the conveyer when the conveyer is operated; a first detection part disposed on an end of the conveyer in the dispensing direction configured to detect whether an ampoule does not exist on the end of the conveyer in the dispensing direction by using an infrared sensor or a proximity sensor; a supplement determination unit determining whether an ampoule does not exist on the conveyer when the supplement determination unit receives a signal from the first detection part informing that an ampoule does not exist on the end of the conveyer in the dispensing direction; an ampoule supplement control unit controlling the driving unit to allow the ampoules to drop onto the conveyer from the storage unit when it is determined that an ampoule does not exist on the conveyer by the supplement determination unit . a storage unit in which at least two partition members are vertically stacked on each other to form a multilayer structure, each partition member comprising partition walls for partitioning a plurality of unit cells in which ampoules are stored; a shutter opening or closing a lower portion of each of the unit cells partitioned by the partition member; a driving unit operating the shutter ; a conveyer which receives the ampoules dropped from the plurality of unit cells when the lower portion of each of the unit cells is opened; a discharge hole adjacent to an end of the conveyer to dispense the ampoule seated on the conveyer when the conveyer is operated; a first detection part disposed on an end of the conveyer in the dispensing direction configured to detect whether an ampoule does not exist on the end of the conveyer in the dispensing direction by using an infrared sensor or a proximity sensor; a supplement determination unit determining whether an ampoule does not exist on the conveyer when the supplement determination unit receives a signal from the first detection part informing that an ampoule does not exist on the end of the conveyer in the dispensing direction; an ampoule supplement control unit controlling the driving unit to allow the ampoules to drop onto the conveyer from the storage unit when it is determined that an ampoule does not exist on the conveyer by the supplement determination unit .
Sheath removal mechanism for removing a protective needle sheath from a medicament container , the medicament container arrangeable in an medicament delivery device , wherein the sheath removal mechanism comprises a cap attachable to a distal end of the medicament delivery device , wherein the cap comprises ledges (11.6) adapted to engage a protective needle sheath , wherein the ledges (11.6) are respectively arranged on compliant sheath removal beams (11.3) arranged on the cap , characterized in that the ledges (11.6) provide a clearance between them sufficiently wide to allow a protective needle sheath to pass through when the compliant sheath removal beams (11.3) are in a relaxed state, wherein snap fits (11.7) are arranged on the compliant sheath removal beams (11.3) in a manner to engage a neighbouring compliant sheath removal beam (11.3) when the compliant sheath removal beams (11.3) are radially inwardly deflected.
A secondary battery, comprising an electrode assembly, a positive terminal , a negative terminal , a top cover plate , a conductive plate and a contact plate , characterized in that , the electrode assembly comprises a positive electrode plate , a negative electrode plate and a separator between the positive electrode plate and the negative electrode plate , the positive electrode plate is electrically connected with the positive terminal , and the negative electrode plate is electrically connected with the negative terminal , the contact plate is attached to the negative terminal , the top cover plate is insulated from the negative terminal and is electrically connected with the positive terminal , the conductive plate is electrically connected with the top cover plate , the contact plate is configured to deform to contact the conductive plate when an internal pressure of the secondary battery exceeds a reference pressure, so as to form an electrical connection path passing through the positive electrode plate , the positive terminal , the top cover plate , the conductive plate , the contact plate , the negative terminal and the negative electrode plate , a resistivity of the conductive plate is greater than or equal to a resistivity of the contact plate , and is less than a resistivity of the top cover plate , and the contact plate and the conductive plate are made of copper, and the top cover plate is made of aluminum. the electrode assembly comprises a positive electrode plate , a negative electrode plate and a separator between the positive electrode plate and the negative electrode plate , the positive electrode plate is electrically connected with the positive terminal , and the negative electrode plate is electrically connected with the negative terminal , the contact plate is attached to the negative terminal , the top cover plate is insulated from the negative terminal and is electrically connected with the positive terminal , the conductive plate is electrically connected with the top cover plate , the contact plate is configured to deform to contact the conductive plate when an internal pressure of the secondary battery exceeds a reference pressure, so as to form an electrical connection path passing through the positive electrode plate , the positive terminal , the top cover plate , the conductive plate , the contact plate , the negative terminal and the negative electrode plate , a resistivity of the conductive plate is greater than or equal to a resistivity of the contact plate , and is less than a resistivity of the top cover plate , and the contact plate and the conductive plate are made of copper, and the top cover plate is made of aluminum.
A photomask alignment method for a manufacturing process of an integrated circuit in a semiconductor material wafer , the method comprising: at a first level, defining, by means of a single photolithography process, at least one alignment structure (10; 10') on said wafer , said alignment structure (10; 10') comprising at least a first and a second reference mark; and at an upper level, higher than the first level, aligning a first field mask relative to said at least one first reference mark ; and aligning a second field mask , which is used, together with said first field mask , for the photolithography formation of said integrated circuit inside a respective die in said wafer , relative to said at least one second reference mark , so that said first and second field masks are arranged on the wafer adjacent to one another in a first coupling direction, without any mutual overlapping, wherein said wafer has a main extension in a horizontal plane (xy), and wherein said alignment structure (10; 10') further comprises a third and a fourth reference marks, which are aligned in pairs with said first and second reference marks along a first (x) and along a second (y) direction of said horizontal plane (xy); said first , second , third and fourth reference marks being printed onto the wafer by means of said single photolithography process characterized in that each one of said reference marks comprises a plurality of reference elements , each one for the alignment of a respective photolithography process at an upper level higher than the first one, relative to the lower level. at a first level, defining, by means of a single photolithography process, at least one alignment structure (10; 10') on said wafer , said alignment structure (10; 10') comprising at least a first and a second reference mark; and at an upper level, higher than the first level, aligning a first field mask relative to said at least one first reference mark ; and aligning a second field mask , which is used, together with said first field mask , for the photolithography formation of said integrated circuit inside a respective die in said wafer , relative to said at least one second reference mark , so that said first and second field masks are arranged on the wafer adjacent to one another in a first coupling direction, without any mutual overlapping, wherein said wafer has a main extension in a horizontal plane (xy), and wherein said alignment structure (10; 10') further comprises a third and a fourth reference marks, which are aligned in pairs with said first and second reference marks along a first (x) and along a second (y) direction of said horizontal plane (xy); said first , second , third and fourth reference marks being printed onto the wafer by means of said single photolithography process characterized in that each one of said reference marks comprises a plurality of reference elements , each one for the alignment of a respective photolithography process at an upper level higher than the first one, relative to the lower level.
An active implantable medical device of the cardiac resynchronizer type, comprising: - ventricular pacing means , suitable for generating pacing pulses to be delivered to at least the left ventricle of a patient in whom the device is implanted; - means for detecting atrial and ventricular events; and - means for applying an atrioventricular delay, AVD, between a sensed or stimulated atrial event and delivery of a ventricular pacing pulse; said device being characterized in that it further comprises: - quantification means for quantifying a degree of fusion between the delivery of a pacing pulse to a cavity, left or right, and a spontaneous contraction of another, opposite, cavity, respectively right or left, these means being suitable for computing a fusion rate value lying between two extreme values corresponding respectively to a situation of full capture and to a situation of spontaneous depolarization of said cavity; and - dynamic AVD adaptation means suitable for dynamically modifying the value of the AVD applied to delivery of said ventricular pacing pulse, as a function of a comparison made between i) the current value of the fusion rate computed by the quantification means, and ii) a target value for the fusion rate. - ventricular pacing means , suitable for generating pacing pulses to be delivered to at least the left ventricle of a patient in whom the device is implanted; - means for detecting atrial and ventricular events; and - means for applying an atrioventricular delay, AVD, between a sensed or stimulated atrial event and delivery of a ventricular pacing pulse; - quantification means for quantifying a degree of fusion between the delivery of a pacing pulse to a cavity, left or right, and a spontaneous contraction of another, opposite, cavity, respectively right or left, these means being suitable for computing a fusion rate value lying between two extreme values corresponding respectively to a situation of full capture and to a situation of spontaneous depolarization of said cavity; and - dynamic AVD adaptation means suitable for dynamically modifying the value of the AVD applied to delivery of said ventricular pacing pulse, as a function of a comparison made between i) the current value of the fusion rate computed by the quantification means, and ii) a target value for the fusion rate.
A template processing program for executing steps on a control device of an operation terminal , which is connected with a print label producing apparatus configured to produce a print label (L) using a template (T) to which a print object is assigned and configured in a predetermined arrangement, and with a server (SV) configured to store a plurality of language versions of mutually different language types for said template (T) prepared in advance, so that information is transmitted and received, and comprises an operation device , a display device configured to execute a preferred display, said control device , and a memory , said steps comprising: a language selection receiving step (S4) for receiving a selection of a plurality of language types that are different with each other via said operation device ; a downloading step (S10) for downloading from said server (SV) a plurality of templates (T1, T2, T3) of said language version of said plurality of language types that are received in said language selection receiving step (S4) from among said templates (T1, T2, T3) of a plurality of language versions stored in said server (SV); a combined file generating step (S23, S24, S25; S221, S222, S23, S24, S25) for generating a combined file where said plurality of templates (T1, T2, T3) of said language version of said plurality of language types received are downloaded in said downloading step (S10) and are respectively included as a sheet and combined into a single file; and a storing step (S28) for storing said combined file generated in said combined file generating step (S23, S24, S25; S221, S222, S23, S24, S25) in said memory . a language selection receiving step (S4) for receiving a selection of a plurality of language types that are different with each other via said operation device ; a downloading step (S10) for downloading from said server (SV) a plurality of templates (T1, T2, T3) of said language version of said plurality of language types that are received in said language selection receiving step (S4) from among said templates (T1, T2, T3) of a plurality of language versions stored in said server (SV); a combined file generating step (S23, S24, S25; S221, S222, S23, S24, S25) for generating a combined file where said plurality of templates (T1, T2, T3) of said language version of said plurality of language types received are downloaded in said downloading step (S10) and are respectively included as a sheet and combined into a single file; and a storing step (S28) for storing said combined file generated in said combined file generating step (S23, S24, S25; S221, S222, S23, S24, S25) in said memory .
An electrode catalyst layer for fuel cells, having a porous structure and comprising a catalyst supported on a particulate tin oxide support, the porous structure having a pore size distribution, measured by mercury intrusion porosimetry, showing a first peak in a range of from 0.005 to 0.1 μm and a second peak in a range of from greater than 0.1 μm to 1 μm, the ratio of the intensity P2 of the second peak to the intensity P1 of the first peak, P2/P1, being 0.5 to 5, and when there are two or more peaks in said first range or second range, each of P1 and P2 is defined to be the intensity of the highest peak in the respective range.
Forestry machine comprising an operator station and a boom , whereas: a) the operator station is for operating the forestry machine in a work and a transport mode and is pivotable about an upright axis , b) the boom is pivotable about an upright axis located at or behind a front edge of the operator station , c) the operator station and the boom are able to pivot separate from each other, d) a structure with a front frame and a rear frame is provided, characterized in that e) the structure carries a drive compartment and a space is provided between the drive compartment and the operator station sufficient to receive a harvesting head connected to the normal front end of the boom . a) the operator station is for operating the forestry machine in a work and a transport mode and is pivotable about an upright axis , b) the boom is pivotable about an upright axis located at or behind a front edge of the operator station , c) the operator station and the boom are able to pivot separate from each other, d) a structure with a front frame and a rear frame is provided, characterized in that e) the structure carries a drive compartment and a space is provided between the drive compartment and the operator station sufficient to receive a harvesting head connected to the normal front end of the boom .
A mower implement comprising: a body having a front edge , a rear edge , a first side edge , and a second side edge , wherein the body is configured for movement in a direction parallel to a central longitudinal axis that extends between the front edge and the rear edge of the body ; a cutter coupled to the body and operable to cut crop material entering through the front edge of the body ; a swathboard coupled to the body and operable to form cut crop material exiting through the rear edge of the body into a windrow-, characterized in that it further comprises: a distance sensor coupled to the body and positioned to sense a distance between the first side edge of the body and at least one of an outboard windrow laterally offset outboard of the body relative to the central longitudinal axis , or a standing crop edge entering the front edge of the body ; and a computing device disposed in communication with the distance sensor , wherein the computing device includes a processor and a memory having an guidance algorithm stored therein, wherein the processor is operable to execute the guidance algorithm to: receive a signal from the distance sensor indicating the distance; and indicate a lateral drift direction of the body relative to the standing crop edge , based on the signal from the distance sensor . a body having a front edge , a rear edge , a first side edge , and a second side edge , wherein the body is configured for movement in a direction parallel to a central longitudinal axis that extends between the front edge and the rear edge of the body ; a cutter coupled to the body and operable to cut crop material entering through the front edge of the body ; a swathboard coupled to the body and operable to form cut crop material exiting through the rear edge of the body into a windrow-, characterized in that it further comprises: a distance sensor coupled to the body and positioned to sense a distance between the first side edge of the body and at least one of an outboard windrow laterally offset outboard of the body relative to the central longitudinal axis , or a standing crop edge entering the front edge of the body ; and a computing device disposed in communication with the distance sensor , wherein the computing device includes a processor and a memory having an guidance algorithm stored therein, wherein the processor is operable to execute the guidance algorithm to: receive a signal from the distance sensor indicating the distance; and indicate a lateral drift direction of the body relative to the standing crop edge , based on the signal from the distance sensor . receive a signal from the distance sensor indicating the distance; and indicate a lateral drift direction of the body relative to the standing crop edge , based on the signal from the distance sensor .
A method to control an axial separation between a rotating ring and a stationary ring of a dry gas seal , wherein the dry gas seal restricts leakage of a gas or other fluid to or from a rotating device, comprising: a) sensing at least one property of the gas or other fluid; b) sensing, with at least one sensing device , at least one of i. the axial separation between the rotating ring and the stationary ring , and ii. a time rate of change of the axial separation; c) estimating a stiffness of a film between the rotating ring and the stationary ring , wherein the film comprises a gas or fluid; d) adjusting a field strength of at least one magnetic device based on at least two of the sensed axial separation, the sensed time rate of change of the separation, and the estimated film stiffness, wherein adjusting the field strength of the at least one magnetic device adjusts the axial separation between the rotating ring and the stationary ring and, wherein adjusting the field strength comprises adjusting the field strength in an oscillating fashion such that the axial separation between the rotating ring and the stationary ring is variable around the circumference of the sealing elements . a) sensing at least one property of the gas or other fluid; b) sensing, with at least one sensing device , at least one of i. the axial separation between the rotating ring and the stationary ring , and ii. a time rate of change of the axial separation; i. the axial separation between the rotating ring and the stationary ring , and ii. a time rate of change of the axial separation; c) estimating a stiffness of a film between the rotating ring and the stationary ring , wherein the film comprises a gas or fluid; d) adjusting a field strength of at least one magnetic device based on at least two of the sensed axial separation, the sensed time rate of change of the separation, and the estimated film stiffness, wherein adjusting the field strength of the at least one magnetic device adjusts the axial separation between the rotating ring and the stationary ring and,
An electroanatomical mapping system for mapping arrhythmic foci, comprising: a focus mapping module configured: to receive as input an electrophysiology data point collected via a multi-dimensional catheter ; to identify a clique of three or more electrodes carried by the multi-dimensional catheter ; to identify a maximum bipolar voltage for the clique of three or more electrodes ; to compute an average unipolar voltage for the clique of three or more electrodes ; and to compute a focus score using a ratio of the computed average unipolar voltage for the clique of three electrodes to the identified maximum bipolar voltage for the clique of three or more electrodes , wherein the larger the ratio, the more likely the location is an arrhythmia focus. to receive as input an electrophysiology data point collected via a multi-dimensional catheter ; to identify a clique of three or more electrodes carried by the multi-dimensional catheter ; to identify a maximum bipolar voltage for the clique of three or more electrodes ; to compute an average unipolar voltage for the clique of three or more electrodes ; and to compute a focus score using a ratio of the computed average unipolar voltage for the clique of three electrodes to the identified maximum bipolar voltage for the clique of three or more electrodes , wherein the larger the ratio, the more likely the location is an arrhythmia focus.
A method of monitoring contact tip useful life in a welding torch during non-constant voltage gas metal arc welding, said method comprising the steps of: measuring welding current ( I ) of the contact tip mounted in the welding torch; and quantifying deterioration of the contact tip based on a decrease of the welding current and increase of a standard deviation of the welding current (sd_ I ) measuring welding current ( I ) of the contact tip mounted in the welding torch; and quantifying deterioration of the contact tip based on a decrease of the welding current and increase of a standard deviation of the welding current (sd_ I )