mhurhangee/patent-ind-claim-en huggingface dataset:
A method for working an airfoil cluster , comprising successively: attaching a first datum to a first portion of the airfoil cluster and a second datum to a second portion of the airfoil cluster; separating the first portion of the airfoil cluster and the second portion of the airfoil cluster; applying a durability coating to at least part of the separated first portion of the airfoil cluster , at least part of the separated second portion of the airfoil cluster or to at least part of the separated first portion of the airfoil cluster and at least part of the separated second portion of the airfoil cluster ; and joining the separated first portion to the separated second portion , the first and second datums substantially aligned in a common plane spaced away from the first and second portions, wherein at least one of the separated first portion and the separated second portion being joined comprises the durability coating. attaching a first datum to a first portion of the airfoil cluster and a second datum to a second portion of the airfoil cluster; separating the first portion of the airfoil cluster and the second portion of the airfoil cluster; applying a durability coating to at least part of the separated first portion of the airfoil cluster , at least part of the separated second portion of the airfoil cluster or to at least part of the separated first portion of the airfoil cluster and at least part of the separated second portion of the airfoil cluster ; and joining the separated first portion to the separated second portion , the first and second datums substantially aligned in a common plane spaced away from the first and second portions, wherein at least one of the separated first portion and the separated second portion being joined comprises the durability coating.
A photoelectric detector, comprising: a Silicon (Si) layer comprising a doped region of a first doping type; a Germanium (Ge) layer being in contact with the Si layer and comprising a doped region of a second doping type; and a silicon nitride waveguide arranged around the Ge layer in extension directions of at least three sidewalls of the Ge layer ; wherein the silicon nitride waveguide is configured to transmit an optical signal and couple the optical signal to the Ge layer ; the Ge layer is configured to detect the optical signal and convert the optical signal into an electrical signal; wherein the silicon nitride waveguide comprises a first waveguide region and a second waveguide region , and a third waveguide region connecting the first waveguide region and the second waveguide region in a second direction; the Ge layer is arranged between the first waveguide region and the second waveguide region ; the silicon nitride waveguide is arranged in a silicon dioxide material , with silicon dioxide material between the silicon nitride waveguide and the Ge layer ; and the first waveguide region and the second waveguide region are arranged to couple the optical signal to the Ge layer . a Silicon (Si) layer comprising a doped region of a first doping type; a Germanium (Ge) layer being in contact with the Si layer and comprising a doped region of a second doping type; and a silicon nitride waveguide arranged around the Ge layer in extension directions of at least three sidewalls of the Ge layer ; wherein the silicon nitride waveguide is configured to transmit an optical signal and couple the optical signal to the Ge layer ; the Ge layer is configured to detect the optical signal and convert the optical signal into an electrical signal; wherein the silicon nitride waveguide comprises a first waveguide region and a second waveguide region , and a third waveguide region connecting the first waveguide region and the second waveguide region in a second direction; the Ge layer is arranged between the first waveguide region and the second waveguide region ; the silicon nitride waveguide is arranged in a silicon dioxide material , with silicon dioxide material between the silicon nitride waveguide and the Ge layer ; and the first waveguide region and the second waveguide region are arranged to couple the optical signal to the Ge layer .
An implantable medical device comprising: operational circuitry for the implantable medical device including a first plurality of electrical components; and a metal canister shaped for housing the operational circuitry, wherein a dampening layer is selectively molded onto and attached to the first plurality of electrical components, the dampening layer providing electrical isolation to the first plurality of electrical components and configured to reduce susceptibility to vibration of the first plurality of electrical components wherein the operational circuitry includes at least one second electrical component, and the dampening layer is not disposed over the at least one second electrical component, wherein the operational circuitry includes a printed circuit board assembly, and the dampening layer provides mechanical fixation of one or more of batteries, capacitors, dump shields, speakers, telemetry components, and recharging coils to the printed circuit board assembly. operational circuitry for the implantable medical device including a first plurality of electrical components; and a metal canister shaped for housing the operational circuitry, wherein a dampening layer is selectively molded onto and attached to the first plurality of electrical components, the dampening layer providing electrical isolation to the first plurality of electrical components and configured to reduce susceptibility to vibration of the first plurality of electrical components wherein the operational circuitry includes at least one second electrical component, and the dampening layer is not disposed over the at least one second electrical component, wherein the operational circuitry includes a printed circuit board assembly, and the dampening layer provides mechanical fixation of one or more of batteries, capacitors, dump shields, speakers, telemetry components, and recharging coils to the printed circuit board assembly.
An antenna , including: a power splitter ; a phase shifter ; a first column of main radiating elements , each main radiating element configured to operate in a first operating frequency band; and a first auxiliary radiating element that is rotated 180° relative to a first main radiating element in the first column , wherein the first auxiliary radiating element is adjacent the first main radiating element , and the first auxiliary radiating element is configured to radiate an electromagnetic wave that has a phase that differs from a phase of an electromagnetic wave radiated by the first main radiating element by between 160° and 180 0 , wherein the first main radiating element and the first auxiliary radiating element are configured to be fed respective first and second components of a signal that are in phase with each other, wherein the first auxiliary radiating element is adjacent the first main radiating element in a direction perpendicular to an axis defined by the first column of main radiating elements , wherein the first main radiating element and the first auxiliary radiating element are respectively connected to a first output terminal and a second output terminal of a power splitter , and wherein an input terminal of the power splitter is connected to a first output terminal of the phase shifter . a power splitter ; a phase shifter ; a first column of main radiating elements , each main radiating element configured to operate in a first operating frequency band; and a first auxiliary radiating element that is rotated 180° relative to a first main radiating element in the first column , wherein the first auxiliary radiating element is adjacent the first main radiating element , and the first auxiliary radiating element is configured to radiate an electromagnetic wave that has a phase that differs from a phase of an electromagnetic wave radiated by the first main radiating element by between 160° and 180 0 , wherein the first main radiating element and the first auxiliary radiating element are configured to be fed respective first and second components of a signal that are in phase with each other, wherein the first auxiliary radiating element is adjacent the first main radiating element in a direction perpendicular to an axis defined by the first column of main radiating elements , wherein the first main radiating element and the first auxiliary radiating element are respectively connected to a first output terminal and a second output terminal of a power splitter , and wherein an input terminal of the power splitter is connected to a first output terminal of the phase shifter .
A method of producing a flexible ultrasound transducer or ultrasonic transducer array for imaging, measurement or non-destructive testing, the method comprising: providing or depositing a layer of piezoelectric material on a substrate comprising a metal foil; wherein the layer of piezoelectric material has a thickness in the range of 2 to 20μm, and the substrate is from 20 to 200μm thick, the piezoelectric material is a doped, co-deposited or alloyed piezoelectric material; and the piezoelectric material comprises: a doped, co-deposited or alloyed metal oxide or metal nitride, the metal oxide or metal nitride being doped, co-deposited or alloyed with vanadium or a compound thereof; or zinc oxide doped, co-deposited or alloyed with a transition metal or a compound thereof. providing or depositing a layer of piezoelectric material on a substrate comprising a metal foil; wherein the layer of piezoelectric material has a thickness in the range of 2 to 20μm, and the substrate is from 20 to 200μm thick, the piezoelectric material is a doped, co-deposited or alloyed piezoelectric material; and the piezoelectric material comprises: a doped, co-deposited or alloyed metal oxide or metal nitride, the metal oxide or metal nitride being doped, co-deposited or alloyed with vanadium or a compound thereof; or zinc oxide doped, co-deposited or alloyed with a transition metal or a compound thereof. a doped, co-deposited or alloyed metal oxide or metal nitride, the metal oxide or metal nitride being doped, co-deposited or alloyed with vanadium or a compound thereof; or zinc oxide doped, co-deposited or alloyed with a transition metal or a compound thereof.
A medicament for use in the treatment of preventing thrombosis-related diseases, comprising collagen and at least one niclosamide derivative; and wherein the thrombosis-related diseases are selected from coronary artery embolism, stroke, pulmonary embolism, portal thrombosis, renal vein thrombosis, jugular vein thrombosis, inferior vena caval thrombosis, deep vein thrombosis, myocardial infarction, hepatic artery embolization, Budd-Chiari syndrome, Paget-Schroetter disease and the combination thereof; wherein the at least one niclosamide derivative has a general formula structure as below: wherein, R is NO 2 , Cl or CF 3 ; wherein the thrombosis-related diseases are selected from coronary artery embolism, stroke, pulmonary embolism, portal thrombosis, renal vein thrombosis, jugular vein thrombosis, inferior vena caval thrombosis, deep vein thrombosis, myocardial infarction, hepatic artery embolization, Budd-Chiari syndrome, Paget-Schroetter disease and the combination thereof; wherein the at least one niclosamide derivative has a general formula structure as below: wherein, R is NO 2 , Cl or CF 3 ;
Apparatus for recovering bivalent and/or trivalent metal ions from primary and/or secondary raw materials, comprising a. a compartment containing a heterogeneous mixture of one or more primary and/or secondary raw materials with an aqueous solution b. a second compartment with aerobic conditions, separated from the first compartment by a semi-permeable membrane, wherein said second compartment contains aerobic microorganisms releasing complexing agents or a culture supernatant of said microorganisms, wherein said complexing agents are selected from chelators, glutamic acid and other low molecular organic acids selected from citric acid, isocitric acid, tricarboxylic acid, acetic acid, propionic acid, butyric acid, lactic acid, wherein the semi-permeable membrane is constructed in such a way that it is impermeable for metal ions and microorganisms and permeable for the complexing agents, wherein the materials in the boundary layer of the membrane to compartment a. are hydrophobic polymers, wherein the membrane towards compartment b. exhibits moderately hydrophilic materials with pores in a size range of 0.01 to 0.1 μm, wherein the moderately hydrophilic materials are selected from cellulose, regenerative cellulose, cellulose nitrate, cellulose acetate, cellulose triacetate, polyvinyl alcohol and poyl ether sulfone, wherein the microorganisms are fungi and/or yeasts and/or heterotrophic bacteria. a. a compartment containing a heterogeneous mixture of one or more primary and/or secondary raw materials with an aqueous solution b. a second compartment with aerobic conditions, separated from the first compartment by a semi-permeable membrane,
A vector processor , comprising: a vector register file comprising a plurality of vector registers , each vector register configured to store a plurality of accumulator values ; a means for receiving an input data vector; and for each write port of a plurality of write ports of the vector register file of the vector processor: a means for accessing an input data value of the input data vector; a means for decoding the input data value to determine a register index indicative of a vector register among the plurality of vector registers in the vector register file; a means for decoding the input data value to determine an accumulator index indicative of an accumulator value among a plurality of accumulator values of the vector register; a means for performing a scalar operation on the vector register indicated by the register index, based on the register index and the accumulator index, wherein the scalar operation comprises incrementing the accumulator value indicated by the accumulator index; and a means for writing a result of the scalar operation to the vector register indicated by the register index. a vector register file comprising a plurality of vector registers , each vector register configured to store a plurality of accumulator values ; a means for receiving an input data vector; and for each write port of a plurality of write ports of the vector register file of the vector processor: a means for accessing an input data value of the input data vector; a means for decoding the input data value to determine a register index indicative of a vector register among the plurality of vector registers in the vector register file; a means for decoding the input data value to determine an accumulator index indicative of an accumulator value among a plurality of accumulator values of the vector register; a means for performing a scalar operation on the vector register indicated by the register index, based on the register index and the accumulator index, wherein the scalar operation comprises incrementing the accumulator value indicated by the accumulator index; and a means for writing a result of the scalar operation to the vector register indicated by the register index. a means for accessing an input data value of the input data vector; a means for decoding the input data value to determine a register index indicative of a vector register among the plurality of vector registers in the vector register file; a means for decoding the input data value to determine an accumulator index indicative of an accumulator value among a plurality of accumulator values of the vector register; a means for performing a scalar operation on the vector register indicated by the register index, based on the register index and the accumulator index, wherein the scalar operation comprises incrementing the accumulator value indicated by the accumulator index; and a means for writing a result of the scalar operation to the vector register indicated by the register index.
An intravascular device delivery system , the system comprising: an elongate member including: a body having a proximal end and a distal end, the body having an outer surface and an inner surface defining a wall therebetween, the inner surface defining a central lumen along a longitudinal direction, a steering lumen defined by a steering lumen surface positioned in the wall of the body , the steering lumen surface having a steering lumen lining affixed thereto, an inner surface of the steering lumen lining defining a steering lumen width , and a control lumen defined by a control lumen surface positioned in the wall of the body , the control lumen surface having a control lumen lining affixed thereto, an inner surface of the control lumen lining defining a control lumen width ; a steering cable located in the steering lumen , the steering cable having a distal end piece located at a distal end of the steering cable and distally of the distal end of the steering lumen ; a control wire located in the control lumen , the control wire extending distally of the steering cable ; and a handle with one or more controls connected to the proximal end of the body and operably connected to the steering cable and control wire . an elongate member including: a body having a proximal end and a distal end, the body having an outer surface and an inner surface defining a wall therebetween, the inner surface defining a central lumen along a longitudinal direction, a steering lumen defined by a steering lumen surface positioned in the wall of the body , the steering lumen surface having a steering lumen lining affixed thereto, an inner surface of the steering lumen lining defining a steering lumen width , and a control lumen defined by a control lumen surface positioned in the wall of the body , the control lumen surface having a control lumen lining affixed thereto, an inner surface of the control lumen lining defining a control lumen width ; a body having a proximal end and a distal end, the body having an outer surface and an inner surface defining a wall therebetween, the inner surface defining a central lumen along a longitudinal direction, a steering lumen defined by a steering lumen surface positioned in the wall of the body , the steering lumen surface having a steering lumen lining affixed thereto, an inner surface of the steering lumen lining defining a steering lumen width , and a control lumen defined by a control lumen surface positioned in the wall of the body , the control lumen surface having a control lumen lining affixed thereto, an inner surface of the control lumen lining defining a control lumen width ; a steering cable located in the steering lumen , the steering cable having a distal end piece located at a distal end of the steering cable and distally of the distal end of the steering lumen ; a control wire located in the control lumen , the control wire extending distally of the steering cable ; and a handle with one or more controls connected to the proximal end of the body and operably connected to the steering cable and control wire .
A method comprising: storing, in memory, a plurality of data sets, each of the plurality of data sets including values computed for each of a plurality of points of a geometric surface corresponding to a given spatial region of tissue, each of the plurality of data sets characterizes electrical information, which comprises a characteristic of a cardiac singularity computed for each of the plurality of points for a different time interval; aggregating, by a system comprising a processor, the values computed for each of the plurality of data sets into aggregated values; normalizing, by the system, the aggregated values to a common scale; generating, by the system, a composite map for the given spatial region based on the normalized aggregated values; and repeating, by the system, the aggregating, normalizing, and generating for a plurality of other composite maps with increasing numbers of intervals until convergence occurs between successive composite maps for the given spatial region, wherein the convergence indicates a cardiac singularity has converged or stabilized for the given spatial region. storing, in memory, a plurality of data sets, each of the plurality of data sets including values computed for each of a plurality of points of a geometric surface corresponding to a given spatial region of tissue, each of the plurality of data sets characterizes electrical information, which comprises a characteristic of a cardiac singularity computed for each of the plurality of points for a different time interval; aggregating, by a system comprising a processor, the values computed for each of the plurality of data sets into aggregated values; normalizing, by the system, the aggregated values to a common scale; generating, by the system, a composite map for the given spatial region based on the normalized aggregated values; and repeating, by the system, the aggregating, normalizing, and generating for a plurality of other composite maps with increasing numbers of intervals until convergence occurs between successive composite maps for the given spatial region, wherein the convergence indicates a cardiac singularity has converged or stabilized for the given spatial region.
A method of characterizing an ultrasound lesion (T) in organic tissues, the lesion being made by applying high intensity focused ultrasound delivered by a probe having its emission surface presenting a shape that is toroidal or pseudo-cylindrical, the method being characterized in that it consists in: · after a period of at least two days from the end of ultrasound application, acquiring at least one characterization image (Ic) of the humans organic tissues; · detecting in the characterization image (Ic, the presence of a the presence of a high-level echo line corresponding to agglomerations of precipitated calcium ; and · from the contrast border , determining the extent of the ultrasound lesion. · after a period of at least two days from the end of ultrasound application, acquiring at least one characterization image (Ic) of the humans organic tissues; · detecting in the characterization image (Ic, the presence of a the presence of a high-level echo line corresponding to agglomerations of precipitated calcium ; and · from the contrast border , determining the extent of the ultrasound lesion.