mhurhangee/patent-ind-claim-en huggingface dataset:
A method for assisting a user in review of a slide containing a biological sample with a microscope having an eyepiece comprising the steps of: (a) capturing, with a camera , a digital image of a view of the sample as seen through the eyepiece of the microscope, (b) using a first machine learning pattern recognizer to identify one or more areas of interest in the sample from the image captured by the camera, and a second machine pattern recognizer trained to identify individual cells and (c) superimposing an enhancement to the view of the sample as seen through the eyepiece of the microscope as an overlay, wherein the enhancement is based upon the identified areas of interest in the sample and further comprises quantitative data associated with the areas of interest, (d) wherein, when the sample is moved relative to the microscope optics or when a magnification or focus of the microscope changes, a new digital image of a new view of the sample is captured by the camera and supplied to the machine learning pattern recognizer, and a new enhancement is superimposed onto the new view of the sample as seen through the eyepiece in substantial real time. (a) capturing, with a camera , a digital image of a view of the sample as seen through the eyepiece of the microscope, (b) using a first machine learning pattern recognizer to identify one or more areas of interest in the sample from the image captured by the camera, and a second machine pattern recognizer trained to identify individual cells and (c) superimposing an enhancement to the view of the sample as seen through the eyepiece of the microscope as an overlay, wherein the enhancement is based upon the identified areas of interest in the sample and further comprises quantitative data associated with the areas of interest, (d) wherein, when the sample is moved relative to the microscope optics or when a magnification or focus of the microscope changes, a new digital image of a new view of the sample is captured by the camera and supplied to the machine learning pattern recognizer, and a new enhancement is superimposed onto the new view of the sample as seen through the eyepiece in substantial real time.
A piston , comprising: a body portion formed of metal; said body portion including a crown presenting a combustion surface ; a thermal barrier coating applied to said crown and having a thickness (t) extending from said combustion surface to an exposed surface ; wherein the thermal barrier coating includes: a layer of metal bond material applied directly to the combustion surface of the crown , and 5% to 20% of said thickness (t) of the thermal barrier coating consists of the layer of metal bond material ; a gradient structure applied directly to the layer of metal bond material , which includes a mixture of the metal bond material and the ceramic material and which is formed by gradually transitioning from 100% metal bond material to 100% ceramic material; and a layer of ceramic material applied directly to the gradient structure and extending to the exposed surface , and 5% to 50% of the thickness (t) of the thermal barrier coating consists of the layer of the ceramic material ; and wherein said ceramic material of said thermal barrier coating includes at least one of ceria and ceria stabilized zirconia. a body portion formed of metal; said body portion including a crown presenting a combustion surface ; a thermal barrier coating applied to said crown and having a thickness (t) extending from said combustion surface to an exposed surface ; wherein the thermal barrier coating includes: a layer of metal bond material applied directly to the combustion surface of the crown , and 5% to 20% of said thickness (t) of the thermal barrier coating consists of the layer of metal bond material ; a gradient structure applied directly to the layer of metal bond material , which includes a mixture of the metal bond material and the ceramic material and which is formed by gradually transitioning from 100% metal bond material to 100% ceramic material; and a layer of ceramic material applied directly to the gradient structure and extending to the exposed surface , and 5% to 50% of the thickness (t) of the thermal barrier coating consists of the layer of the ceramic material ; and wherein said ceramic material of said thermal barrier coating includes at least one of ceria and ceria stabilized zirconia. a layer of metal bond material applied directly to the combustion surface of the crown , and 5% to 20% of said thickness (t) of the thermal barrier coating consists of the layer of metal bond material ; a gradient structure applied directly to the layer of metal bond material , which includes a mixture of the metal bond material and the ceramic material and which is formed by gradually transitioning from 100% metal bond material to 100% ceramic material; and a layer of ceramic material applied directly to the gradient structure and extending to the exposed surface , and 5% to 50% of the thickness (t) of the thermal barrier coating consists of the layer of the ceramic material ; and wherein said ceramic material of said thermal barrier coating includes at least one of ceria and ceria stabilized zirconia.
A communication method, comprising: receiving , by a terminal device, a first message from a network device, wherein the first message comprises first offset information, or the first message comprises second offset information, or the first message comprises the first offset information and the second offset information, wherein the first offset information is used to indicate a time offset value of a random access response, RAR, monitoring window for monitoring a RAR, and the second offset information is used to indicate a time offset value for sending a second message, and the second message is a message sent by the terminal device based on the RAR; and randomly accessing , by the terminal device, the network device based on the first message, wherein the time offset values corresponding to the first offset information and the second offset information are calculated based on signal transmission duration between the network device and the terminal device. receiving , by a terminal device, a first message from a network device, wherein the first message comprises first offset information, or the first message comprises second offset information, or the first message comprises the first offset information and the second offset information, wherein the first offset information is used to indicate a time offset value of a random access response, RAR, monitoring window for monitoring a RAR, and the second offset information is used to indicate a time offset value for sending a second message, and the second message is a message sent by the terminal device based on the RAR; and randomly accessing , by the terminal device, the network device based on the first message, wherein the time offset values corresponding to the first offset information and the second offset information are calculated based on signal transmission duration between the network device and the terminal device.
A device for detecting a heart rate, the device comprising at least one capacitive displacement sensor coupled to a strap , wherein the at least one capacitive displacement sensor comprises at least two electrodes , and the at least one capacitive displacement sensor detects a pulse by producing a signal associated with a distance change between a skin of a wearer of the device and the at least one capacitive displacement sensor, wherein the at least one capacitive displacement sensor comprises an outer transmitting electrode and an inner receiving electrode , wherein the outer transmitting electrode and the inner receiving electrode are in concentric arrangement.
A pump comprising: at least one impeller ; at least one diffuser having an inlet ; and at least one ring positioned between the at least one impeller and the at least one diffuser and removably coupled to the diffuser , the at least one wear ring having a plurality of radially extending clutch members wherein the clutch members are configured to hold a portion of the at least one diffuser , wherein said ring is a wear ring having said plurality of clutch members engaging opposite ends of the inlet , said wear ring being capable of angular movement relative to the inlet , characterized in that said plurality of clutch members engage the opposite ends of the inlet with slack to provide for minimal relative movement. at least one impeller ; at least one diffuser having an inlet ; and at least one ring positioned between the at least one impeller and the at least one diffuser and removably coupled to the diffuser , the at least one wear ring having a plurality of radially extending clutch members wherein the clutch members are configured to hold a portion of the at least one diffuser , wherein said ring is a wear ring having said plurality of clutch members engaging opposite ends of the inlet , said wear ring being capable of angular movement relative to the inlet , characterized in that said plurality of clutch members engage the opposite ends of the inlet with slack to provide for minimal relative movement.
A method of operation within an integrated circuit memory device , the method comprising: storing a plurality of digital values that specify respective termination impedances ; switchably coupling sets of load elements to a data input/output, I/O, to apply termination impedances specified by the digital values, wherein switchably coupling the sets of load elements to the data I/O includes: applying a first one of two termination impedances to the data I/O during an idle state of the memory device effecting a first termination (Hard_T), applying a second one of the two termination impedances to the data I/O, effecting a second termination (Soft_T) to the data I/O while the memory device receives write data in a memory write operation and applying the first one of the termination impedances to the data I/O during a time period that follows directly after the memory write operation, wherein the first termination impedance and the second termination impedance have different impedance values; outputting read data via the data I/O in a memory read operation, wherein all termination impedances are decoupled from the data I/O effecting no termination (No_T). storing a plurality of digital values that specify respective termination impedances ; switchably coupling sets of load elements to a data input/output, I/O, to apply termination impedances specified by the digital values, wherein switchably coupling the sets of load elements to the data I/O includes: applying a first one of two termination impedances to the data I/O during an idle state of the memory device effecting a first termination (Hard_T), applying a second one of the two termination impedances to the data I/O, effecting a second termination (Soft_T) to the data I/O while the memory device receives write data in a memory write operation and applying the first one of the termination impedances to the data I/O during a time period that follows directly after the memory write operation, wherein the first termination impedance and the second termination impedance have different impedance values; outputting read data via the data I/O in a memory read operation, wherein all termination impedances are decoupled from the data I/O effecting no termination (No_T). applying a first one of two termination impedances to the data I/O during an idle state of the memory device effecting a first termination (Hard_T), applying a second one of the two termination impedances to the data I/O, effecting a second termination (Soft_T) to the data I/O while the memory device receives write data in a memory write operation and applying the first one of the termination impedances to the data I/O during a time period that follows directly after the memory write operation, wherein the first termination impedance and the second termination impedance have different impedance values; outputting read data via the data I/O in a memory read operation, wherein all termination impedances are decoupled from the data I/O effecting no termination (No_T).
A thin film composite polyamide membrane comprising a porous support and a thin film polyamide layer characterized by possessing: i) an azo (-N=N-) content of from 0.30 wt% to 0.80 wt%, as measured by pyrolysis gas chromatography using ammonium dichromate as a calibration standard and pyrolizing the polyamide layer at 550°C for 6 seconds; ii) a dissociated carboxylate content of at least 0.18 mol/kg of polyamide as measured by Rutherford Backscattering (RBS) at pH 9.5; and iii) an amino phenol/m-phenylene diamine ratio of at least 0.15 as determined using pyrolysis gas chromatography (GC) at 650°C for 6 seconds. i) an azo (-N=N-) content of from 0.30 wt% to 0.80 wt%, as measured by pyrolysis gas chromatography using ammonium dichromate as a calibration standard and pyrolizing the polyamide layer at 550°C for 6 seconds; ii) a dissociated carboxylate content of at least 0.18 mol/kg of polyamide as measured by Rutherford Backscattering (RBS) at pH 9.5; and iii) an amino phenol/m-phenylene diamine ratio of at least 0.15 as determined using pyrolysis gas chromatography (GC) at 650°C for 6 seconds.
A rotation apparatus for rotating a discrete article, the rotation apparatus comprising: a rib portion extending radially outward from a mounting surface , the rib portion comprising a first rib surface and a second rib surface opposite the first rib surface , wherein the rib portion defines a longitudinal rib axis of rotation; a head assembly positioned adjacent to the rib portion , wherein the head assembly comprises a transfer member having a proximal end portion and a distal end portion , wherein the transfer member defines a longitudinal transfer axis of rotation, and wherein at least a portion of the head assembly is configured to rotate about the longitudinal transfer axis ; a support member extending from the transfer member toward the rib portion , the support member having a proximal end portion and a distal end portion opposite the proximal end portion, wherein the proximal end portion of the support member is associated with the distal end portion of the transfer member ; and a first follower and a second follower operatively engaged with the distal end portion of the support member , wherein the first follower comprises a first follower outer surface defining a first longitudinal follower axis and the second follower comprises a second follower outer surface defining a second longitudinal follower axis , and wherein the first follower and the second follower are positioned such that the first longitudinal follower axis and the second longitudinal follower axis intersect the longitudinal rib axis . a rib portion extending radially outward from a mounting surface , the rib portion comprising a first rib surface and a second rib surface opposite the first rib surface , wherein the rib portion defines a longitudinal rib axis of rotation; a head assembly positioned adjacent to the rib portion , wherein the head assembly comprises a transfer member having a proximal end portion and a distal end portion , wherein the transfer member defines a longitudinal transfer axis of rotation, and wherein at least a portion of the head assembly is configured to rotate about the longitudinal transfer axis ; a support member extending from the transfer member toward the rib portion , the support member having a proximal end portion and a distal end portion opposite the proximal end portion, wherein the proximal end portion of the support member is associated with the distal end portion of the transfer member ; and a first follower and a second follower operatively engaged with the distal end portion of the support member , wherein the first follower comprises a first follower outer surface defining a first longitudinal follower axis and the second follower comprises a second follower outer surface defining a second longitudinal follower axis , and wherein the first follower and the second follower are positioned such that the first longitudinal follower axis and the second longitudinal follower axis intersect the longitudinal rib axis .
Procedure for commissioning or maintaining a field device (FG) designed to determine or monitor a physical or chemical process variable of a medium in an automation technology process, wherein the following process steps are performed: - Reading of unique identification information (ID) saved in the field device, said information being assigned to the field device (FG) via a static code (SC) by means of a reader and/or operation tool (BT), - Optical reading of diagnostic information (DI) saved in the field device (FG), said information relating to at least one current and/or past event that can be attributed to the field device, via a dynamic code (DC) generated by the field device by means of the reader and/or operation tool (BT), wherein the transmission path and the transmission of information from the field device (FG) to the reader and/or operation tool (BT) is unidirectional, - Transmission of identification and diagnostic information (ID, DI) from the reader and/or operation tool (BT) to a cloud-based service platform (SP), - Transmission of device-specific and/or application-specific information (GAI) for the purpose of rectifying the event identified by the diagnostic information (DI), said information being transmitted by the cloud-based service platform (SP) to the reader and/or operation tool (BT), - Rectification of the event or the effects of the event using the transmitted device-specific and/or application-specific information (GAI). - Reading of unique identification information (ID) saved in the field device, said information being assigned to the field device (FG) via a static code (SC) by means of a reader and/or operation tool (BT), - Optical reading of diagnostic information (DI) saved in the field device (FG), said information relating to at least one current and/or past event that can be attributed to the field device, via a dynamic code (DC) generated by the field device by means of the reader and/or operation tool (BT), wherein the transmission path and the transmission of information from the field device (FG) to the reader and/or operation tool (BT) is unidirectional, - Transmission of identification and diagnostic information (ID, DI) from the reader and/or operation tool (BT) to a cloud-based service platform (SP), - Transmission of device-specific and/or application-specific information (GAI) for the purpose of rectifying the event identified by the diagnostic information (DI), said information being transmitted by the cloud-based service platform (SP) to the reader and/or operation tool (BT), - Rectification of the event or the effects of the event using the transmitted device-specific and/or application-specific information (GAI).
A device maintenance apparatus for performing a maintenance of a device, comprising: a storage configured to store device definition information (D1) in which a parameter of the device is defined; an acquirer configured to acquire device information from a maintenance target device (FD) which is a device of maintenance target; and a display processor configured to display, on a display , a first button (B2) using the device definition information (D1) stored in the storage and the device information acquired by the acquirer , the first button (B2) being a button for transitioning to a screen on which details of the parameter is displayed when the first button (B2) is operated, wherein a menu associated with the maintenance of the device and the parameter of the device are hierarchically defined in the device definition information (D1), and wherein the display processor is configured to display, on the display , a second button (B 1) for transitioning display details of the display to display details of a different layer, and a name of the menu is displayed in the second button (B 1), characterized in that at least a name of the parameter and a value of the parameter being displayed in the first button, and when the parameter is edited in response to a user's operation of the device maintenance apparatus , the display processor is configured to display, on the display , the first button (B2) corresponding to the edited parameter in a color different from the color of the second button (B1) and an icon (IC) in the lower left corner of the first button (B2, B33) which indicates that the parameter has been edited. a storage configured to store device definition information (D1) in which a parameter of the device is defined; an acquirer configured to acquire device information from a maintenance target device (FD) which is a device of maintenance target; and a display processor configured to display, on a display , a first button (B2) using the device definition information (D1) stored in the storage and the device information acquired by the acquirer , the first button (B2) being a button for transitioning to a screen on which details of the parameter is displayed when the first button (B2) is operated, wherein a menu associated with the maintenance of the device and the parameter of the device are hierarchically defined in the device definition information (D1), and wherein the display processor is configured to display, on the display , a second button (B 1) for transitioning display details of the display to display details of a different layer, and a name of the menu is displayed in the second button (B 1), characterized in that at least a name of the parameter and a value of the parameter being displayed in the first button, and when the parameter is edited in response to a user's operation of the device maintenance apparatus , the display processor is configured to display, on the display , the first button (B2) corresponding to the edited parameter in a color different from the color of the second button (B1) and an icon (IC) in the lower left corner of the first button (B2, B33) which indicates that the parameter has been edited.
An optical fiber fuse protection device comprising: an upstream optical fiber disposed on an upstream side; a downstream optical fiber disposed on a downstream side, the downstream optical fiber being fusion-spliced to the upstream optical fiber and being made of a single optical fiber or a plurality of optical fibers fusion-spliced to each other; and a wall (Pa, Pb, Pc, Pd, Pe, WL, SW) interposed between a part of the upstream optical fiber and a part of the downstream optical fiber, characterized by the wall (Pa, Pb, Pc, Pd, Pe, WL, SW) being configured to suppress or reduce leaping of fire from the downstream optical fiber to the upstream optical fiber. an upstream optical fiber disposed on an upstream side; a downstream optical fiber disposed on a downstream side, the downstream optical fiber being fusion-spliced to the upstream optical fiber and being made of a single optical fiber or a plurality of optical fibers fusion-spliced to each other; and a wall (Pa, Pb, Pc, Pd, Pe, WL, SW) interposed between a part of the upstream optical fiber and a part of the downstream optical fiber, characterized by the wall (Pa, Pb, Pc, Pd, Pe, WL, SW) being configured to suppress or reduce leaping of fire from the downstream optical fiber to the upstream optical fiber.