mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of forming an applicator body of an applicator for insertion into an anatomical cavity of a patient for delivering a treatment to the patient, the method comprising: receiving a pre-generated three-dimensional image of the anatomical cavity, the three-dimensional image having been generated while the anatomical cavity contained an expandable container adjacent a tissue region of the patient, wherein the expandable container, when contained in the anatomical cavity, was filled with a fluid such that the container was expanded to substantially conform to the shape of at least a portion of the tissue region forming at least a portion of the anatomical cavity; isolating, from the three-dimensional image, a first sub-image corresponding to an image of the filled expanded container; and using the sub-image as a design template for forming the applicator body for use with the patient. receiving a pre-generated three-dimensional image of the anatomical cavity, the three-dimensional image having been generated while the anatomical cavity contained an expandable container adjacent a tissue region of the patient, wherein the expandable container, when contained in the anatomical cavity, was filled with a fluid such that the container was expanded to substantially conform to the shape of at least a portion of the tissue region forming at least a portion of the anatomical cavity; isolating, from the three-dimensional image, a first sub-image corresponding to an image of the filled expanded container; and using the sub-image as a design template for forming the applicator body for use with the patient.
A flying insect trapping apparatus wherein the apparatus comprises an attractive and inductive member having a vertical surface portion; an entry port surrounding an upper part of the attractive and inductive member; and a trap chamber communicating with the entry port, whereby a flying insect is attracted by said member to land on said surface portion thereof and then is induced to move along the surface portion and to pass through said entry port so as to be trapped in the inside of said trap chamber, wherein the apparatus comprises an upper container formed in its inside with a trap chamber and provided at its underside with an entry port, and a lower support member colored in black as the attractive and inductive member having a conical three-dimensional shape whose entire side surface is here used as the vertical surface portion and disposed under the upper container for supporting the upper container wherein the lower support member has an upper end inserted through the entry port into the upper container and removably received in a fitting portion projecting downwards from the center of an upper body in the upper container.
Method for processing reused or recycled bulk material, in particular solids such as granulates, powders, grains, films, scraps or the like, for plastics-processing injection-moulding machines, wherein a device for dosing at least two bulk materials present in separate feed devices or containers, of which bulk materials at least one bulk material is made of reused plastics, i.e. a so-called recyclate, ground material or regranulate, supplies the plastics-processing machine, after dosing, directly or via intermediate stations with the dosed bulk material, wherein the at least one device for dosing combines these at least two separate bulk materials in any desired sequence, wherein simultaneously with or after the dosing, the respective dosed bulk-material weight is determined, and the information on the bulk-material weights and/or information derived therefrom that represents the material throughput of each individual or of all supplied bulk materials is transmitted from the controller of the device for dosing to the plastics-processing machine or to a superordinate controller and in the plastics-processing machine a physical representation of the flow behaviour in the form of a melt flow index or a value equivalent to the melt flow index of the supplied bulk material and/or the material throughput or material consumption of the plastics-processing machine is determined, and this information is linked in the plastics-processing machine or in the superordinate controller, the melt flow index or an equivalent value being determined for each production cycle of injection-moulded parts.
A method for predicting the risk of getting a major adverse cardiac event or death in a subject that has suffered an acute myocardial infarction comprising: • determining the level of Protachykinin according to SEQ ID NO. 1, SEQ ID NO. 8, SEQ ID NO. 10, SEQ ID NO. 11 or fragments thereof in a bodily fluid obtained from said subject; and • correlating said level of Protachykinin SEQ ID NO. 1, SEQ ID NO. 8, SEQ ID NO. 10, SEQ ID NO. 11 or fragments thereof with the risk for getting a major adverse cardiac event or death, wherein an elevated level is predictive for an enhanced risk of getting a major adverse cardiac event or death, wherein fragments of Protachykinin are selected from the group comprising SEQ ID NO. 2, SEQ ID NO. 12, and SEQ ID NO. 13, and wherein said bodily fluid is selected from the group comprising blood, serum, and plasma. • determining the level of Protachykinin according to SEQ ID NO. 1, SEQ ID NO. 8, SEQ ID NO. 10, SEQ ID NO. 11 or fragments thereof in a bodily fluid obtained from said subject; and • correlating said level of Protachykinin SEQ ID NO. 1, SEQ ID NO. 8, SEQ ID NO. 10, SEQ ID NO. 11 or fragments thereof with the risk for getting a major adverse cardiac event or death, wherein an elevated level is predictive for an enhanced risk of getting a major adverse cardiac event or death,
Joint arrangement in an aeronautical structure that comprises: - two sections (13, 15) of skin manufactured in composite material with an external surface and an internal surface; - a coupling element to facilitate the uniting of adjoining skin sections (13, 15) with an external surface and an internal surface, manufactured in composite material in a plurality of separate parts (27, 29); - an internal structural element supported on the internal surface of said coupling element; - a plurality of rivet rows; characterized in that the elements of each pair of adjoining parts (27, 29) of the coupling element are formed in a wedge shape, with one of them pointing to the skin, and the other to the internal structural element and with their inclined faces (31, 33) overlapping and wherein, said elements of each pair of adjoining parts (27, 29) in a wedge shape have their outer edges dulled so that the length L2 of the overlapping area of the inclined faces (31, 33) is less than the length L1 of the joint area of each pair of adjoining parts (27, 29). - two sections (13, 15) of skin manufactured in composite material with an external surface and an internal surface; - a coupling element to facilitate the uniting of adjoining skin sections (13, 15) with an external surface and an internal surface, manufactured in composite material in a plurality of separate parts (27, 29); - an internal structural element supported on the internal surface of said coupling element; - a plurality of rivet rows; characterized in that
A method in a user equipment, the method comprising: determining a first frequency spacing value; determining a second frequency spacing value; receiving system information comprising first and second information elements, the first information element indicating a multiplier of the first frequency spacing value, and the second information element indicating a multiplier of the second frequency spacing value; using the sum of a product of the multiplier of the first frequency spacing value and the first frequency spacing value and a product of the multiplier of the second frequency spacing value and the second frequency spacing value to identify a reference frequency location of a resource block; and communicating data based on the frequency location of the resource block. determining a first frequency spacing value; determining a second frequency spacing value; receiving system information comprising first and second information elements, the first information element indicating a multiplier of the first frequency spacing value, and the second information element indicating a multiplier of the second frequency spacing value; using the sum of a product of the multiplier of the first frequency spacing value and the first frequency spacing value and a product of the multiplier of the second frequency spacing value and the second frequency spacing value to identify a reference frequency location of a resource block; and communicating data based on the frequency location of the resource block.
Connecting rod for an internal combustion engine, the connecting rod comprising a big end, a small end and consisting of a first part and a second part, respectively associated with the big end and the small end, the two parts (5a, 5b) being displaceable relative to each other along the longitudinal axis of the connecting rod so as to form a variable-length connecting rod, characterized in that it comprises an indexing device of the first and the second part (5a, 5b) to give them a predetermined relative orientation, the indexing device comprising a first element rigidly connected to the first part and carried by the big end.
An electromagnetic solenoid actuator comprising a ferromagnetic core supporting a winding and oriented along an axis; and a ferromagnetic plunger aligned axially with the ferromagnetic core, and translatable along the axis to vary a width of an air gap separating the ferromagnetic plunger from the ferromagnetic core; wherein the ferromagnetic plunger and the ferromagnetic core overlap axially at a flux bypass that provides an alternative flux path that diverts increasing flux away from the air gap as the width of the air gap decreases, the flux bypass having a width at least twice a maximum width of the air gap; characterised in that the flux bypass has an axially-aligned surface parallel to an outer surface of the ferromagnetic plunger, and comprises a collar extending axially from one of the ferromagnetic core and the ferromagnetic plunger, to surround a region of the other of the ferromagnetic core and the ferromagnetic plunger near the air gap. a ferromagnetic core supporting a winding and oriented along an axis; and a ferromagnetic plunger aligned axially with the ferromagnetic core, and translatable along the axis to vary a width of an air gap separating the ferromagnetic plunger from the ferromagnetic core; wherein the ferromagnetic plunger and the ferromagnetic core overlap axially at a flux bypass that provides an alternative flux path that diverts increasing flux away from the air gap as the width of the air gap decreases, the flux bypass having a width at least twice a maximum width of the air gap; characterised in that the flux bypass has an axially-aligned surface parallel to an outer surface of the ferromagnetic plunger, and comprises a collar extending axially from one of the ferromagnetic core and the ferromagnetic plunger, to surround a region of the other of the ferromagnetic core and the ferromagnetic plunger near the air gap.
A method for exposing imaging system protocol information in connection with a computed tomography imaging system, comprising: detecting at least one of utilizing, modifying, an adding, or a deleting an imaging system protocol from the imaging system; generating a signal indicative of the protocol and information about the protocol; broadcasting the signal over a computer network for reception by at least one device communicating over the network, wherein the broadcasting of the signal is via an HTTP POST request; and utilizing the signal to determine protocols available to the imaging system. detecting at least one of utilizing, modifying, an adding, or a deleting an imaging system protocol from the imaging system; generating a signal indicative of the protocol and information about the protocol; broadcasting the signal over a computer network for reception by at least one device communicating over the network, wherein the broadcasting of the signal is via an HTTP POST request; and utilizing the signal to determine protocols available to the imaging system.
A method of forming a nano-scale structure, the method comprising: depositing a first oxidizable material onto a substrate surface; depositing a second oxidizable material onto the first oxidizable material; anodizing the second oxidizable material to form a porous oxide having nano-pores that extend through the porous oxide to expose portions of the first oxidizable material; anodizing the first oxidizable material so as to partially fill the nano-pores in the porous oxide with a nano-structure material including an oxide of the first oxidizable material, thereby forming an array of nano-structures of substantially uniform height on the substrate surface; removing porous oxide by selective etching, thereby yielding a substantially planar array of nano-structures on the substrate surface; and electrochemically depositing a base material between the nano-structures. depositing a first oxidizable material onto a substrate surface; depositing a second oxidizable material onto the first oxidizable material; anodizing the second oxidizable material to form a porous oxide having nano-pores that extend through the porous oxide to expose portions of the first oxidizable material; anodizing the first oxidizable material so as to partially fill the nano-pores in the porous oxide with a nano-structure material including an oxide of the first oxidizable material, thereby forming an array of nano-structures of substantially uniform height on the substrate surface; removing porous oxide by selective etching, thereby yielding a substantially planar array of nano-structures on the substrate surface; and electrochemically depositing a base material between the nano-structures.
A method for measuring an object using a measurement arrangement the method comprising: measuring at least one object (200, 300), wherein the measuring comprises measuring dimensions whereby the measuring further comprises measuring a heat distribution of the at least one object; comparing the measured heat distribution (201, 301) with a plurality of stored heat compensation profiles, wherein a heat compensation profile comprises a heat distribution measurement and a set of compensation coefficients that represent the deviation of the object having a heat distribution according to the heat compensation profile and the cooled down object; determining based on said comparison at least one heat compensation profile representing the measured heat distribution; receiving at least one set of compensation coefficients associated with the determined at least one heat compensation profile; applying a set of received compensation coefficients to measured dimensions of the at least one object for producing heat compensation profile compensated dimensions. measuring at least one object (200, 300), wherein the measuring comprises measuring dimensions whereby the measuring further comprises measuring a heat distribution of the at least one object; comparing the measured heat distribution (201, 301) with a plurality of stored heat compensation profiles, wherein a heat compensation profile comprises a heat distribution measurement and a set of compensation coefficients that represent the deviation of the object having a heat distribution according to the heat compensation profile and the cooled down object; determining based on said comparison at least one heat compensation profile representing the measured heat distribution; receiving at least one set of compensation coefficients associated with the determined at least one heat compensation profile; applying a set of received compensation coefficients to measured dimensions of the at least one object for producing heat compensation profile compensated dimensions.
An ion trap comprising: a plurality of capacitors (110-N) in a first region of the trap arranged having a first pitch; a plurality of electrodes (112-N) electrically coupled to a respective capacitor (110-N) in the first region, characterised by at least some of the electrodes (112-N) being tapered in a second region of the trap such that the pitch of at least some of the electrodes (112-N) in the second region is different from the first pitch. a plurality of capacitors (110-N) in a first region of the trap arranged having a first pitch; a plurality of electrodes (112-N) electrically coupled to a respective capacitor (110-N) in the first region, characterised by at least some of the electrodes (112-N) being tapered in a second region of the trap such that the pitch of at least some of the electrodes (112-N) in the second region is different from the first pitch.
A method of decelerating an encoderless permanent magnet synchronous motor which can be operated on the basis of the pulse width modulation by a space vector modulation, in particular a permanent magnet synchronous motor of a vacuum pump, preferably of a turbomolecular pump, in which method the permanent magnet synchronous motor is only controlled by a rotating voltage vector ( u brk) to decelerate with open control loop, characterized in that the deceleration method comprises a synchronization step in which the permanent magnet synchronous motor is controlled by a rotating synchronization voltage vector having a constant amplitude (u sync) and a constant rotational frequency (f sync); and a deceleration step which follows said synchronization step in time and in which the permanent magnet synchronous motor is controlled by a rotating deceleration voltage vector having a rotational frequency (f vec) which decreases in time down to the value zero.
A method for the detection of Legionella spp. strains in an environmental sample based on loop-mediated isothermal amplification characterized in that it comprises the steps of: (a) sample collection; (b) genetic material extraction of the sample with an extraction reagent comprising at least cellular lysis reagents and a magnetizable support solution; (c) elution of the genetic material from the magnetizable support, and isothermal RNA retrotranscription and cDNA amplification with a detection reagent comprising at least elution, rectrotranscriptase, amplification and reading solutions, wherein the amplification solution comprises a set of LAMP primers to amplify specific regions of Legionella's 16S rRNA gene; and (d) result reading, wherein the set of LAMP primers to amplify specific regions of Legionella's 16S rRNA gene in step (c) comprises at least: a forward primer F3 comprising a nucleotide sequence as set forth in SEQ ID No. 1; a forward primer F2 comprising a nucleotide sequence as set forth in SEQ ID No. 2; a forward primer F1c comprising a nucleotide sequence as set forth in SEQ ID No. 3; a backward primer B3 comprising a nucleotide sequence as set forth in SEQ ID No. 4; a backward primer B2 comprising a nucleotide sequence as set forth in SEQ ID No. 5; a backward primer B1c comprising a nucleotide sequence as set forth in SEQ ID No. 6; a forward inner primer FIP comprising a nucleotide sequence as set forth in SEQ ID No. 7; and a backward inner primer BIP comprising a nucleotide sequence as set forth in SEQ ID No. 8. (a) sample collection; (b) genetic material extraction of the sample with an extraction reagent comprising at least cellular lysis reagents and a magnetizable support solution; (c) elution of the genetic material from the magnetizable support, and isothermal RNA retrotranscription and cDNA amplification with a detection reagent comprising at least elution, rectrotranscriptase, amplification and reading solutions, wherein the amplification solution comprises a set of LAMP primers to amplify specific regions of Legionella's 16S rRNA gene; and (d) result reading, a forward primer F3 comprising a nucleotide sequence as set forth in SEQ ID No. 1; a forward primer F2 comprising a nucleotide sequence as set forth in SEQ ID No. 2; a forward primer F1c comprising a nucleotide sequence as set forth in SEQ ID No. 3; a backward primer B3 comprising a nucleotide sequence as set forth in SEQ ID No. 4; a backward primer B2 comprising a nucleotide sequence as set forth in SEQ ID No. 5; a backward primer B1c comprising a nucleotide sequence as set forth in SEQ ID No. 6; a forward inner primer FIP comprising a nucleotide sequence as set forth in SEQ ID No. 7; and a backward inner primer BIP comprising a nucleotide sequence as set forth in SEQ ID No. 8.
A method of manufacturing a fiber reinforced polymer material lid (10, 94) for an utility vault comprising the steps of: mixing an unsaturated polyester thermosetting material into a resin paste; compounding the paste into a fiber reinforced composite material sheet; maturing the compounded fiber reinforced composite material sheet; cutting the matured compound sheet into a charge pattern (30, 146); molding the charge pattern (30, 146) in a mold cavity of a heated mold under low pressure to form the lid (10, 94); and cooling and machining the lid (10, 94). mixing an unsaturated polyester thermosetting material into a resin paste; compounding the paste into a fiber reinforced composite material sheet; maturing the compounded fiber reinforced composite material sheet; cutting the matured compound sheet into a charge pattern (30, 146); molding the charge pattern (30, 146) in a mold cavity of a heated mold under low pressure to form the lid (10, 94); and cooling and machining the lid (10, 94).
A communication method for avoiding time-frequency resource conflicts between a new radio synchronization signal and physical broadcast channel block, NR SSB, and a long term evolution cell reference signal, LTE CRS, in spectrum sharing, applied to a first network device, the method comprising: receiving a first position from a second network device, wherein the first position is a position of one or more subframes occupied by first information; determining a first offset, wherein the first offset is for determining a second position, the second position is a position obtained by offsetting the first position by the first offset, the second position is located in a first range, and the first range is a position that supports configuration of a multicast-broadcast single-frequency network, MBSFN, subframe; configuring the MBSFN subframe based on the first position and the first offset, wherein a position of the MBSFN subframe comprises the second position; and sending the first offset and the first MBSFN configuration information to the second network device, wherein the first MBSFN configuration information is for determining a configuration state of the MBSFN subframe in the first range. receiving a first position from a second network device, wherein the first position is a position of one or more subframes occupied by first information; determining a first offset, wherein the first offset is for determining a second position, the second position is a position obtained by offsetting the first position by the first offset, the second position is located in a first range, and the first range is a position that supports configuration of a multicast-broadcast single-frequency network, MBSFN, subframe; configuring the MBSFN subframe based on the first position and the first offset, wherein a position of the MBSFN subframe comprises the second position; and sending the first offset and the first MBSFN configuration information to the second network device, wherein the first MBSFN configuration information is for determining a configuration state of the MBSFN subframe in the first range.