mhurhangee/patent-ind-claim-en huggingface dataset:
A tailings processor for use in an agricultural harvester having a threshing and separating system , a grain cleaning system , a tailings auger and a return auger , a clean grain auger , a grain elevator having an outlet, and a grain tank , the tailings processor comprising: a housing having a rotating threshing device for re-threshing tailings, the threshing device being configured for receiving the tailings from the tailings auger and for providing the re-threshed tailings to the return auger ; characterized by an arrangement to automatically adjust the aggressiveness of the tailings processor ; and a system for controlling the aggressiveness of the tailings processor , the system comprising: at least one imaging device oriented to image a grain sample , at least a portion of the grain sample having passed through the tailings processor at least once; and a controller connected to the at least one imaging device and to the arrangement , the controller configured to automatically adjust the aggressiveness of the tailings processor using the arrangement , based on information provided by the at least one imaging device . a housing having a rotating threshing device for re-threshing tailings, the threshing device being configured for receiving the tailings from the tailings auger and for providing the re-threshed tailings to the return auger ; characterized by an arrangement to automatically adjust the aggressiveness of the tailings processor ; and a system for controlling the aggressiveness of the tailings processor , the system comprising: at least one imaging device oriented to image a grain sample , at least a portion of the grain sample having passed through the tailings processor at least once; and a controller connected to the at least one imaging device and to the arrangement , the controller configured to automatically adjust the aggressiveness of the tailings processor using the arrangement , based on information provided by the at least one imaging device . at least one imaging device oriented to image a grain sample , at least a portion of the grain sample having passed through the tailings processor at least once; and a controller connected to the at least one imaging device and to the arrangement , the controller configured to automatically adjust the aggressiveness of the tailings processor using the arrangement , based on information provided by the at least one imaging device .
A blade for a gas turbine engine comprising: an airfoil extending from a trailing edge to a leading edge , said airfoil including a body formed of an aluminum containing material; and a sheath at said leading edge and formed of a titanium containing material, with a sandwich positioned intermediate said sheath and said airfoil body, said sandwich including an outer adhesive layer adjacent the sheath, an intermediate fabric layer and an inner adhesive layer adjacent the body; wherein said fabric layer is a woven fabric layer; wherein said woven fabric layer is a fiberglass fabric; wherein said woven fabric layer is between 0.127 and 0.254mm (.005 and .010 inch) in thickness; and wherein said inner and outer adhesive layers are epoxy adhesives, and wherein said inner and outer adhesive layers have an aerial weight of between 1.68 and 2.87 Pa (.035 and .060 lb / sq ft.), characterized in that the gaps between adjacent fibers in said woven fabric layer are less than 0.0025mm (.0001 inch) on average. an airfoil extending from a trailing edge to a leading edge , said airfoil including a body formed of an aluminum containing material; and a sheath at said leading edge and formed of a titanium containing material, with a sandwich positioned intermediate said sheath and said airfoil body, said sandwich including an outer adhesive layer adjacent the sheath, an intermediate fabric layer and an inner adhesive layer adjacent the body; wherein said fabric layer is a woven fabric layer; wherein said woven fabric layer is a fiberglass fabric; wherein said woven fabric layer is between 0.127 and 0.254mm (.005 and .010 inch) in thickness; and wherein said inner and outer adhesive layers are epoxy adhesives, and wherein said inner and outer adhesive layers have an aerial weight of between 1.68 and 2.87 Pa (.035 and .060 lb / sq ft.), characterized in that the gaps between adjacent fibers in said woven fabric layer are less than 0.0025mm (.0001 inch) on average.
An elastomeric keypad having at least one key comprising an elastomeric dome defining a chamber and provided inside with an activating means , an activation means cooperating with said activating means to transmit the signal indicating said key activation to an external control system, and at least one compensating channel opening at said chamber to enable a flow of fluid from said chamber , while said elastomeric dome collapses, and to said chamber , while said elastomeric dome releases, characterised in that at least one of said compensating channels comprises at least one valve arrangement acting as a passive check valve generating fluid restrictions while the fluid returns to said chamber , while providing substantially laminar flow of fluid while said elastomeric dome collapses. an elastomeric dome defining a chamber and provided inside with an activating means , an activation means cooperating with said activating means to transmit the signal indicating said key activation to an external control system, and at least one compensating channel opening at said chamber to enable a flow of fluid from said chamber , while said elastomeric dome collapses, and to said chamber , while said elastomeric dome releases, characterised in that at least one of said compensating channels comprises at least one valve arrangement acting as a passive check valve generating fluid restrictions while the fluid returns to said chamber , while providing substantially laminar flow of fluid while said elastomeric dome collapses.
An apparatus comprising: a graphics rendering engine of a graphics processing unit, GPU , configured to render a first plurality of images during runtime at a first sample count; and at least one processor configured to: execute first program code to perform image denoising by a machine-learning engine , wherein the machine-learning engine is configured to denoise each of the first plurality of images during runtime using trained weights ; generate, during runtime, one or more new reference regions in one or more of the first plurality of images at a second sample count greater than the first sample count; render reference pixel colors from each new reference region and noisy reference pixel inputs from a corresponding low sample count region; and perform runtime training of the machine-learning engine using the one or more new reference regions , wherein runtime training comprises an evaluation of the one or more new reference regions in combination with the corresponding low sample count region in the at least one of the first plurality of images to update the trained weights accordingly. a graphics rendering engine of a graphics processing unit, GPU , configured to render a first plurality of images during runtime at a first sample count; and at least one processor configured to: execute first program code to perform image denoising by a machine-learning engine , wherein the machine-learning engine is configured to denoise each of the first plurality of images during runtime using trained weights ; generate, during runtime, one or more new reference regions in one or more of the first plurality of images at a second sample count greater than the first sample count; render reference pixel colors from each new reference region and noisy reference pixel inputs from a corresponding low sample count region; and perform runtime training of the machine-learning engine using the one or more new reference regions , wherein runtime training comprises an evaluation of the one or more new reference regions in combination with the corresponding low sample count region in the at least one of the first plurality of images to update the trained weights accordingly. execute first program code to perform image denoising by a machine-learning engine , wherein the machine-learning engine is configured to denoise each of the first plurality of images during runtime using trained weights ; generate, during runtime, one or more new reference regions in one or more of the first plurality of images at a second sample count greater than the first sample count; render reference pixel colors from each new reference region and noisy reference pixel inputs from a corresponding low sample count region; and perform runtime training of the machine-learning engine using the one or more new reference regions , wherein runtime training comprises an evaluation of the one or more new reference regions in combination with the corresponding low sample count region in the at least one of the first plurality of images to update the trained weights accordingly.
A multi-stage biodegradable drug delivery platform, the platform comprising: a body comprising a first biodegradable material, the body shaped to be delivered through the skin of a mammal and lodge subcutaneously within the mammal by force applied to the body, the body including a pointed tissue penetrating end and being at least partially hollow to define a primary cavity; a shell defining a secondary cavity, the shell disposed within the body and comprising a second biodegradable material comprising magnesium; a first therapeutic agent dosage carried by the body in the primary cavity and disposed outside the shell defining the secondary cavity so as to be releasable within the mammal by in vivo biodegradation of the body after a first time period; and a second therapeutic agent dosage disposed within the secondary cavity of the shell so as to be releasable within the mammal by in vivo biodegradation of the shell after a second time period; and wherein at least one of a wall thickness or a physical characteristic of the body and the shell are selected such that the body degrades at a faster rate than the shell. a body comprising a first biodegradable material, the body shaped to be delivered through the skin of a mammal and lodge subcutaneously within the mammal by force applied to the body, the body including a pointed tissue penetrating end and being at least partially hollow to define a primary cavity; a shell defining a secondary cavity, the shell disposed within the body and comprising a second biodegradable material comprising magnesium; a first therapeutic agent dosage carried by the body in the primary cavity and disposed outside the shell defining the secondary cavity so as to be releasable within the mammal by in vivo biodegradation of the body after a first time period; and a second therapeutic agent dosage disposed within the secondary cavity of the shell so as to be releasable within the mammal by in vivo biodegradation of the shell after a second time period; and wherein at least one of a wall thickness or a physical characteristic of the body and the shell are selected such that the body degrades at a faster rate than the shell.
A lens system applied to a fingerprint identification apparatus, which is disposed in a partial region under a display screen of a terminal device to form an under-display optical fingerprint system, a fingerprint detecting region of the fingerprint identification apparatus being disposed within a display region of the display screen, and the lens system comprising: a first lens and a second lens arranged sequentially from an object side to an image side, wherein the first lens is an S-shaped meniscus negative optical power lens, the second lens is a biconvex positive optical power lens, and a focal length of the first lens and a focal length of the second lens follow a first relationship so that a field of view, FOV, of the lens system is greater than a first threshold, the first relationship is: -2.6 < f 1 / f 2 <-1.6, wherein f 1 is the focal length of the first lens and f 2 is the focal length of the second lens, the first threshold is 100 degrees.
An image display device for displaying multiple tomographic images acquired while moving a probe in an axial direction of a catheter and multiple X-ray images captured during the movement of the probe , comprising: a processor configured to: extract a line extending along the probe from an X-ray image captured during a predetermined period before the probe starts to move; and detect a position of a radiopaque marker disposed in the probe on each of the multiple X-ray images captured during the movement of the probe , by using the extracted line; and a display for synchronously displaying the multiple X-ray images and the multiple tomographic images so as to specify the position of the detected radiopaque marker on the multiple X-ray images, wherein the image display device further includes: estimation means for estimating the position of the radiopaque marker on an X-ray image captured during the movement, based on the extracted line and searching means for searching for an image of the radiopaque marker in the vicinity of the position estimated by the estimation means, on the X-ray image captured during the movement. extract a line extending along the probe from an X-ray image captured during a predetermined period before the probe starts to move; and detect a position of a radiopaque marker disposed in the probe on each of the multiple X-ray images captured during the movement of the probe , by using the extracted line; and a display for synchronously displaying the multiple X-ray images and the multiple tomographic images so as to specify the position of the detected radiopaque marker on the multiple X-ray images, wherein the image display device further includes: estimation means for estimating the position of the radiopaque marker on an X-ray image captured during the movement, based on the extracted line and searching means for searching for an image of the radiopaque marker in the vicinity of the position estimated by the estimation means, on the X-ray image captured during the movement. estimation means for estimating the position of the radiopaque marker on an X-ray image captured during the movement, based on the extracted line and searching means for searching for an image of the radiopaque marker in the vicinity of the position estimated by the estimation means, on the X-ray image captured during the movement.
A method of operating a memory device , the memory device comprising a top select cell (Cts), a top dummy cell (Ctd) and a string (S) of memory cells, the top select cell (Cts) having a first terminal coupled to a bit line (BL), a control terminal coupled to a top select line (TSL), the top dummy cell (Ctd) having a first terminal coupled to a second terminal of the top select cell (Cts), a control terminal coupled to a top dummy word line (TDWL), the string (S) of memory cells having a first terminal coupled to a second terminal of the top dummy cell (Ctd), and control terminals coupled to respective word lines (WL), the method comprising: prior to a program operation, applying a first voltage (V1) to the word lines (WL), applying a pre-pulse voltage (Vpre) to the top dummy word line (TDWL), the top select line (TSL) and the bit line (BL) connected with an unselected string (S) of memory cells of the strings of memory cells, whereas the first voltage (V1) is less than the pre-pulse voltage (Vpre), then applying the first voltage (V1) to the word lines (WL), sequentially applying the first voltage (V1) to the top dummy word line (TDWL), the top select line (TSL) and the bit line (BL) connected with the unselected string (S) of memory cells, and in the program operation, applying a program pulse to a selected word line of the word lines (WL), applying a top dummy cell voltage (Vdmc) to the top dummy word line (TDWL), and applying a pass voltage (Vpass) to unselected word lines of the word lines. prior to a program operation, applying a first voltage (V1) to the word lines (WL), applying a pre-pulse voltage (Vpre) to the top dummy word line (TDWL), the top select line (TSL) and the bit line (BL) connected with an unselected string (S) of memory cells of the strings of memory cells, whereas the first voltage (V1) is less than the pre-pulse voltage (Vpre), then applying the first voltage (V1) to the word lines (WL), sequentially applying the first voltage (V1) to the top dummy word line (TDWL), the top select line (TSL) and the bit line (BL) connected with the unselected string (S) of memory cells, and in the program operation, applying a program pulse to a selected word line of the word lines (WL), applying a top dummy cell voltage (Vdmc) to the top dummy word line (TDWL), and applying a pass voltage (Vpass) to unselected word lines of the word lines.
A key interlock device , comprising: a holding type solenoid arranged to be operative to hold a plunger , and a link member rotatable about a shaft defining an axis of rotation and arranged to engage with the plunger and arranged to receive an attempted operation force of a key and to transmit a restraining reaction force opposing to oppose the attempted operation force of the key; wherein the shaft and axis of rotation of the link member is disposed on a virtual line along which the said attempted force of the key is to apply; the interlock device further comprises a case member housing the holding type solenoid and link member , and having an engaging part through which the key interlock device is arranged to be attached to a body of a steering lock device and which the said engaging part is disposed on the opposite side of the said shaft to which the said attempted operation force of the key is to apply; wherein the link member comprises a linear arm part extending along the said virtual line; and wherein the said engaging part is arranged to engage with a side wall of a housing frame part of the steering lock device and by which the steering lock device is to receive the said attempted operation force of the key. a holding type solenoid arranged to be operative to hold a plunger , and a link member rotatable about a shaft defining an axis of rotation and arranged to engage with the plunger and arranged to receive an attempted operation force of a key and to transmit a restraining reaction force opposing to oppose the attempted operation force of the key; wherein the shaft and axis of rotation of the link member is disposed on a virtual line along which the said attempted force of the key is to apply; the interlock device further comprises a case member housing the holding type solenoid and link member , and having an engaging part through which the key interlock device is arranged to be attached to a body of a steering lock device and which the said engaging part is disposed on the opposite side of the said shaft to which the said attempted operation force of the key is to apply; wherein the link member comprises a linear arm part extending along the said virtual line; and wherein the said engaging part is arranged to engage with a side wall of a housing frame part of the steering lock device and by which the steering lock device is to receive the said attempted operation force of the key.
A method of locating a fault in a power transmission medium , the method comprising the steps of: a) monitoring, at a first monitoring location , an electrical characteristic of a power transmission medium at a plurality of frequencies; b) detecting, at the first monitoring location , a first set of propagating fault signals, the first set of propagating fault signals including: a first propagating fault signal (I f1,1 ) of the electrical characteristic at a first frequency of the plurality of frequencies, and a second propagating fault signal (I f1,2 ) of the electrical characteristic at a second frequency of the plurality of frequencies, wherein each propagating fault signal is caused by the fault in the power transmission medium ; c) comparing the first and second propagating fault signals (I f1,1 , I f1,2 ) of the first set of propagating fault signals with one another to obtain a first set comparison value; and d) determining a location of the fault in the power transmission medium by deriving, from the first set comparison value, a fault distance from the first monitoring location , characterised in that comparing the first and second propagating fault signals (I f1,1 ,I f1,2 ) of the first set of propagating fault signals with one another includes comparing an amplitude of the first propagating fault signal (I f1,1 ) with an amplitude of the second propagating fault signal (I f2P,2 ) to obtain an amplitude ratio, and wherein determining a location of the fault in the power transmission medium includes deriving, from the amplitude ratio, a fault distance (d f1 ) from the first monitoring location . a) monitoring, at a first monitoring location , an electrical characteristic of a power transmission medium at a plurality of frequencies; b) detecting, at the first monitoring location , a first set of propagating fault signals, the first set of propagating fault signals including: a first propagating fault signal (I f1,1 ) of the electrical characteristic at a first frequency of the plurality of frequencies, and a second propagating fault signal (I f1,2 ) of the electrical characteristic at a second frequency of the plurality of frequencies, wherein each propagating fault signal is caused by the fault in the power transmission medium ; c) comparing the first and second propagating fault signals (I f1,1 , I f1,2 ) of the first set of propagating fault signals with one another to obtain a first set comparison value; and d) determining a location of the fault in the power transmission medium by deriving, from the first set comparison value, a fault distance from the first monitoring location , characterised in that comparing the first and second propagating fault signals (I f1,1 ,I f1,2 ) of the first set of propagating fault signals with one another includes comparing an amplitude of the first propagating fault signal (I f1,1 ) with an amplitude of the second propagating fault signal (I f2P,2 ) to obtain an amplitude ratio, and wherein determining a location of the fault in the power transmission medium includes deriving, from the amplitude ratio, a fault distance (d f1 ) from the first monitoring location .