mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented ultrasound imaging method , the method comprising: obtaining an ultrasound image containing a region of interest of a subj ect; analyzing one or more features of the ultrasound image; identifying an anomalous feature of the region of interest based on the analysis of the one of more features; automatically generating , based on the identified anomalous feature, a list of possible complementary ultrasound images of the subject; automatically determining one or more available complementary ultrasound images from the list; and displaying the one or more available complementary ultrasound images to a user. obtaining an ultrasound image containing a region of interest of a subj ect; analyzing one or more features of the ultrasound image; identifying an anomalous feature of the region of interest based on the analysis of the one of more features; automatically generating , based on the identified anomalous feature, a list of possible complementary ultrasound images of the subject; automatically determining one or more available complementary ultrasound images from the list; and displaying the one or more available complementary ultrasound images to a user.
A method for the selective analysis of a subpopulation of cells or organelles based on determining the level of at least one cell or organelle marker, said method comprising: a) partitioning said cells or organelles into a plurality of compartments, so that the majority of the compartments do not comprise more than a single cell of one cellular type or a single organelle of one cellular type, together with at least one cell or organelle marker-specific ligand coupled to at least one activator oligonucleotide or repressor oligonucleotide and with a DNA toolbox mixture comprising at least one polymerase, at least one restriction or nicking enzyme, at least one amplification oligonucleotide able to bind and amplify a signal oligonucleotide, and a buffer comprising less than 0.7 mM phosphate ions, b) in each compartment, letting the activator oligonucleotide(s) and/or the repressor oligonucleotide(s) bound to the cell or organelle marker, interact together and with the components of the DNA toolbox mixture, to generate one or more signal oligonucleotides and/or one or more anti-signal oligonucleotides and to amplify said signal oligonucleotide(s), c) analyzing the cells or organelles of the compartments in which at least one signal oligonucleotide is present at a concentration over or below a threshold value. a) partitioning said cells or organelles into a plurality of compartments, so that the majority of the compartments do not comprise more than a single cell of one cellular type or a single organelle of one cellular type, together with at least one cell or organelle marker-specific ligand coupled to at least one activator oligonucleotide or repressor oligonucleotide and with a DNA toolbox mixture comprising at least one polymerase, at least one restriction or nicking enzyme, at least one amplification oligonucleotide able to bind and amplify a signal oligonucleotide, and a buffer comprising less than 0.7 mM phosphate ions, together with at least one cell or organelle marker-specific ligand coupled to at least one activator oligonucleotide or repressor oligonucleotide and with a DNA toolbox mixture comprising at least one polymerase, at least one restriction or nicking enzyme, at least one amplification oligonucleotide able to bind and amplify a signal oligonucleotide, and a buffer comprising less than 0.7 mM phosphate ions, b) in each compartment, letting the activator oligonucleotide(s) and/or the repressor oligonucleotide(s) bound to the cell or organelle marker, interact together and with the components of the DNA toolbox mixture, to generate one or more signal oligonucleotides and/or one or more anti-signal oligonucleotides and to amplify said signal oligonucleotide(s), c) analyzing the cells or organelles of the compartments in which at least one signal oligonucleotide is present at a concentration over or below a threshold value.
A temperature control device configured to be put in a pocket (70P; 70PH; 72P, 73P) of a garment comprising a first sensor configured to measure the temperature and the humidity near a body surface of a user of the temperature control device ; a second sensor configured to measure the temperature and humidity in an environment in which the temperature control device is disposed; a controller (Cr) configured to receive the temperatures and humidities measured by the first sensor and the second sensor as inputs and to generate a driving signal; a temperature changer that is electrically coupled to the controller Cr) and is configured to adjust a temperature in accordance with the driving signal from the controller (Cr); a heat dissipation member that is provided on one of sides of the temperature changer ; a fan that is configured to ventilate an area around the heat dissipation member ; and a housing , wherein the first sensor , the second sensor , the controller (Cr), the temperature changer , the heat dissipation member and the fan are inside the housing . a first sensor configured to measure the temperature and the humidity near a body surface of a user of the temperature control device ; a second sensor configured to measure the temperature and humidity in an environment in which the temperature control device is disposed; a controller (Cr) configured to receive the temperatures and humidities measured by the first sensor and the second sensor as inputs and to generate a driving signal; a temperature changer that is electrically coupled to the controller Cr) and is configured to adjust a temperature in accordance with the driving signal from the controller (Cr); a heat dissipation member that is provided on one of sides of the temperature changer ; a fan that is configured to ventilate an area around the heat dissipation member ; and a housing , wherein the first sensor , the second sensor , the controller (Cr), the temperature changer , the heat dissipation member and the fan are inside the housing .
A method for anodizing an aluminum alloy, the method comprising: reducing iron concentration in the aluminum alloy to obtain a concentration of iron below 0,12 wt%; heating the aluminum alloy at a first temperature for a first period of time that is at least as high as a recrystallization temperature of the aluminum alloy to grow average grain size of the aluminum alloy to at least 100 μm; aging the aluminum alloy at a second temperature for a second period of time, the second temperature lower than the first temperature, wherein the aging enhances strength of the aluminum alloy; and rendering grain boundaries of the aluminum alloy visible to a human eye; etching grain boundaries of the aluminum alloy; anodizing the aluminum alloy with a first color, wherein the anodizing causes grain boundaries and grains of the aluminum alloy to be coated with an anodic oxide layer of the first color; removing the anodic oxide layer of the first color from the grains of the aluminum alloy; and anodizing the aluminum alloy with a second color, wherein the anodizing causes the grains of the aluminum alloy to be coated with an anodic oxide layer of the second color. reducing iron concentration in the aluminum alloy to obtain a concentration of iron below 0,12 wt%; heating the aluminum alloy at a first temperature for a first period of time that is at least as high as a recrystallization temperature of the aluminum alloy to grow average grain size of the aluminum alloy to at least 100 μm; aging the aluminum alloy at a second temperature for a second period of time, the second temperature lower than the first temperature, wherein the aging enhances strength of the aluminum alloy; and rendering grain boundaries of the aluminum alloy visible to a human eye; etching grain boundaries of the aluminum alloy; anodizing the aluminum alloy with a first color, wherein the anodizing causes grain boundaries and grains of the aluminum alloy to be coated with an anodic oxide layer of the first color; removing the anodic oxide layer of the first color from the grains of the aluminum alloy; and anodizing the aluminum alloy with a second color, wherein the anodizing causes the grains of the aluminum alloy to be coated with an anodic oxide layer of the second color.
A method for fabricating a medical electrode device for implantation into a patient (P), the method comprising: providing a sleeve element having an inner lumen ; inserting an electrical supply line into the lumen of the sleeve element ; and deforming said sleeve element to obtain a contact element for the medical electrode device , a portion of the sleeve element forming a contact face of the contact element for electrically contacting tissue, wherein as a result of deforming the sleeve element a crimp connection between the contact element and the electrical supply line is established. providing a sleeve element having an inner lumen ; inserting an electrical supply line into the lumen of the sleeve element ; and deforming said sleeve element to obtain a contact element for the medical electrode device , a portion of the sleeve element forming a contact face of the contact element for electrically contacting tissue, wherein as a result of deforming the sleeve element a crimp connection between the contact element and the electrical supply line is established.
An image forming apparatus comprising: an image bearing member on which a latent image, which is transferred from the image bearing member to a recording material (P), is formed; a developer carrying member for developing the latent image while carrying a developer; an electroconductive regulating member for regulating a layer thickness of the developer in contact with said developer carrying member ; and bias applying means configured to apply, to said electroconductive regulating member , a bias of the same polarity as a polarity of the developer on a surface of said developer carrying member at least during a developing operation, wherein the developer carrying member is configured to collect the developer remaining on the surface of said image bearing member after a developer image formed on said image bearing member is transferred, characterized in that at timing when said developer carrying member is driven in a period other than during the developing operation, a DC voltage, which has a polarity opposite from the polarity of the developer on the surface of the developer carrying member , is applied to said electroconductive regulating member . an image bearing member on which a latent image, which is transferred from the image bearing member to a recording material (P), is formed; a developer carrying member for developing the latent image while carrying a developer; an electroconductive regulating member for regulating a layer thickness of the developer in contact with said developer carrying member ; and bias applying means configured to apply, to said electroconductive regulating member , a bias of the same polarity as a polarity of the developer on a surface of said developer carrying member at least during a developing operation, wherein the developer carrying member is configured to collect the developer remaining on the surface of said image bearing member after a developer image formed on said image bearing member is transferred, characterized in that at timing when said developer carrying member is driven in a period other than during the developing operation, a DC voltage, which has a polarity opposite from the polarity of the developer on the surface of the developer carrying member , is applied to said electroconductive regulating member .
A bicycle pump (10;400), comprising: a pump body assembly (12;402) including an outer tube (20;470), defining an air chamber (24;472), and a head assembly (22;620) with an air outlet opening (52;562); a handle assembly (70;580), slidably associated with the body assembly (12;402), and including an inner tube and a piston , slidable inside the outer tube or including a piston , the piston including an inner tube slidable inside the outer tube ; a flexible hose assembly (30;610) suitable to be stored inside the inner tube when the pump (10;400) is not in use, and suitable to be connected to the air outlet opening (52;562) during pumping; characterized in that it comprises a magnetic connection means (108;548) for connecting the flexible hose assembly (30;610) to the air outlet opening (52;652) of the head assembly (22;620) in a removable manner. a pump body assembly (12;402) including an outer tube (20;470), defining an air chamber (24;472), and a head assembly (22;620) with an air outlet opening (52;562); a handle assembly (70;580), slidably associated with the body assembly (12;402), and including an inner tube and a piston , slidable inside the outer tube or including a piston , the piston including an inner tube slidable inside the outer tube ; a flexible hose assembly (30;610) suitable to be stored inside the inner tube when the pump (10;400) is not in use, and suitable to be connected to the air outlet opening (52;562) during pumping; characterized in that it comprises a magnetic connection means (108;548) for connecting the flexible hose assembly (30;610) to the air outlet opening (52;652) of the head assembly (22;620) in a removable manner.
An organic light-emitting display device, comprising: a plurality of pixels arranged in a matrix pattern defining a plurality of rows and columns, the pixels in a row having different lengths in a column direction depending on the colour of the pixel; a plurality of data lines extending in a column direction between the pixels; and a plurality of wiring lines comprising a first wiring line (WL1) and a second wiring line (WL2); wherein the first wiring line (WL2) extends in a row direction between a first pixel row and a second pixel row; the second wiring line (WL2) extends in a row direction between the second pixel row and a third pixel row; a shortest distance between the first wiring line and the second wiring line across a first pixel (PR) in the second pixel row is smaller than a shortest distance between the first wiring line and the second wiring line across a second pixel (PG) in the second pixel row, wherein the second pixel is longer in the column direction than the first pixel, and wherein the plurality of pixels and the plurality of wiring lines (WL1, WL2) are arranged such that a gap between a wiring line and an adjacent pixel in the column direction is substantially the same irrespective of the length of the pixel. a plurality of pixels arranged in a matrix pattern defining a plurality of rows and columns, the pixels in a row having different lengths in a column direction depending on the colour of the pixel; a plurality of data lines extending in a column direction between the pixels; and a plurality of wiring lines comprising a first wiring line (WL1) and a second wiring line (WL2); wherein the first wiring line (WL2) extends in a row direction between a first pixel row and a second pixel row; the second wiring line (WL2) extends in a row direction between the second pixel row and a third pixel row; a shortest distance between the first wiring line and the second wiring line across a first pixel (PR) in the second pixel row is smaller than a shortest distance between the first wiring line and the second wiring line across a second pixel (PG) in the second pixel row, wherein the second pixel is longer in the column direction than the first pixel, and wherein the plurality of pixels and the plurality of wiring lines (WL1, WL2) are arranged such that a gap between a wiring line and an adjacent pixel in the column direction is substantially the same irrespective of the length of the pixel.
A memory device package , comprising: an input/output, I/O, interface having N connectors to couple to a channel having fewer than N signal lines; a first memory die with a first N-bit interface; and a second memory die with a second N-bit interface; circuitry to selectively apply column address select, CAS, signals to the first and second memory dies to selectively couple N/2 interface bits of the first memory die to N/2 of the N connectors and at least one of the interface bits of the second memory die to at least one of the N connectors; characterized in that the circuitry is to provide a channel having fewer than N bits spread between the first and second memory dies, the channel to include N/2 data, DQ, signal lines to interface with the first memory die and at least one error checking and correction, ECC, signal line to interface with the second memory die. an input/output, I/O, interface having N connectors to couple to a channel having fewer than N signal lines; a first memory die with a first N-bit interface; and a second memory die with a second N-bit interface; circuitry to selectively apply column address select, CAS, signals to the first and second memory dies to selectively couple N/2 interface bits of the first memory die to N/2 of the N connectors and at least one of the interface bits of the second memory die to at least one of the N connectors; characterized in that the circuitry is to provide a channel having fewer than N bits spread between the first and second memory dies, the channel to include N/2 data, DQ, signal lines to interface with the first memory die and at least one error checking and correction, ECC, signal line to interface with the second memory die.
A button for musical instruments, comprising - a button unit which is suspended movably vertically in Z direction in a fixed frame and which has a button body with an upper actuating surface and at least one shaft extending vertically downwardly from the button body; - a X-Y sensor unit which is arranged vertically below the button body and spaced therefrom by an air gap and which is fixed to the frame for detecting X-Y positions on the actuating surface , wherein the X-Y sensor unit has at least one opening for the at least one shaft such that the shaft can vertically move therethrough; - at least one transfer element which is elastically suspended vertically below the at least one shaft and which is moved vertically downwardly upon downward movement of the at least one shaft ; and - a Z sensor unit which is arranged vertically below the at least one transfer element and spaced therefrom and which is fixed to the frame , wherein the Z sensor unit has at least one detection element for detecting the vertical downward movement of the at least one transfer element . - a button unit which is suspended movably vertically in Z direction in a fixed frame and which has a button body with an upper actuating surface and at least one shaft extending vertically downwardly from the button body; - a X-Y sensor unit which is arranged vertically below the button body and spaced therefrom by an air gap and which is fixed to the frame for detecting X-Y positions on the actuating surface , wherein the X-Y sensor unit has at least one opening for the at least one shaft such that the shaft can vertically move therethrough; - at least one transfer element which is elastically suspended vertically below the at least one shaft and which is moved vertically downwardly upon downward movement of the at least one shaft ; and - a Z sensor unit which is arranged vertically below the at least one transfer element and spaced therefrom and which is fixed to the frame , wherein the Z sensor unit has at least one detection element for detecting the vertical downward movement of the at least one transfer element .
A passenger conveyance system, comprising: a depth-sensing sensor within a passenger conveyance enclosure for capturing depth map data of objects within a field of view that includes a passenger conveyance door ; a processing module in communication with the depth-sensing sensor to receive the depth map data, the processing module using the depth map data to track an object and calculate passenger data associated with the tracked object; and a passenger conveyance controller to receive the passenger data from the processing module to control operation of a passenger conveyance door in response to the passenger data; wherein the processing module calculates the passenger data with respect to a distance of a passenger to the passenger conveyance door ; and characterized in that the passenger conveyance controller delays opening of the passenger conveyance door in response to the passenger data; or the passenger conveyance controller hastens closing of the passenger conveyance door in response to the passenger data. a depth-sensing sensor within a passenger conveyance enclosure for capturing depth map data of objects within a field of view that includes a passenger conveyance door ; a processing module in communication with the depth-sensing sensor to receive the depth map data, the processing module using the depth map data to track an object and calculate passenger data associated with the tracked object; and a passenger conveyance controller to receive the passenger data from the processing module to control operation of a passenger conveyance door in response to the passenger data; wherein the processing module calculates the passenger data with respect to a distance of a passenger to the passenger conveyance door ; and characterized in that the passenger conveyance controller delays opening of the passenger conveyance door in response to the passenger data; or the passenger conveyance controller hastens closing of the passenger conveyance door in response to the passenger data.