mhurhangee/patent-ind-claim-en huggingface dataset:
An implantable device comprising: at least one implantable antenna configured to receive a transmission signal from an external device; an implantable receiver configured to receive the transmission signal from the at least one implantable antenna; at least one implantable functional element configured to interface with the patient; an implantable controller configured to control the at least one implantable functional element ; an implantable energy storage assembly configured to provide power to an element selected from the group consisting of: the at least one implantable functional element; the implantable controller; the implantable receiver; and combinations thereof; and an implantable housing surrounding at least the implantable controller and the implantable receiver, wherein the implantable device further comprises an implantable lead , wherein the implantable lead comprises the at least one implantable functional element and wherein the implantable lead comprises a blind lumen and a stylet insertable into the blind lumen, wherein the blind lumen has a lateral port through which the stylet is removable. at least one implantable antenna configured to receive a transmission signal from an external device; an implantable receiver configured to receive the transmission signal from the at least one implantable antenna; at least one implantable functional element configured to interface with the patient; an implantable controller configured to control the at least one implantable functional element ; an implantable energy storage assembly configured to provide power to an element selected from the group consisting of: the at least one implantable functional element; the implantable controller; the implantable receiver; and combinations thereof; and an implantable housing surrounding at least the implantable controller and the implantable receiver, wherein the implantable device further comprises an implantable lead , wherein the implantable lead comprises the at least one implantable functional element and wherein the implantable lead comprises a blind lumen and a stylet insertable into the blind lumen, wherein the blind lumen has a lateral port through which the stylet is removable.
A method for determining location of at least one geometric feature comprising an anomaly observed in an object , the method comprising: receiving at least one geometric feature response to ultrasound beams incident on the object , wherein the ultrasound beams are produced from a plurality of ultrasound transducers ; generating a volumetric representation of the object based on a plurality of object parameters; generating a temporal map of a predicted time of flight geometric feature response to the ultrasound beams based on a predicted ultrasound beam traversal path in the object and originating from more than one ultrasound transducer that are arranged at an angle with respect to the object to be able to transmit ultrasound beams incident on an area of interest of the object , wherein the predicted ultrasound beam traversal path is generated based on the volumetric representation of the object , and a plurality of transducer parameters, and wherein the temporal map of the predicted time of flight geometric feature response is a list of time of flight information for each of the ultrasound beams calculated based on an assumption of a presence of geometric features along every ray in the predicted ultrasound beam traversal path ; and determining a position on the volumetric representation of the object as the location of the geometric feature when the received time of flight geometric feature response is equal to the predicted time of flight geometric feature response corresponding to the position. receiving at least one geometric feature response to ultrasound beams incident on the object , wherein the ultrasound beams are produced from a plurality of ultrasound transducers ; generating a volumetric representation of the object based on a plurality of object parameters; generating a temporal map of a predicted time of flight geometric feature response to the ultrasound beams based on a predicted ultrasound beam traversal path in the object and originating from more than one ultrasound transducer that are arranged at an angle with respect to the object to be able to transmit ultrasound beams incident on an area of interest of the object , wherein the predicted ultrasound beam traversal path is generated based on the volumetric representation of the object , and a plurality of transducer parameters, and wherein the temporal map of the predicted time of flight geometric feature response is a list of time of flight information for each of the ultrasound beams calculated based on an assumption of a presence of geometric features along every ray in the predicted ultrasound beam traversal path ; and determining a position on the volumetric representation of the object as the location of the geometric feature when the received time of flight geometric feature response is equal to the predicted time of flight geometric feature response corresponding to the position.
A computer implemented method for determining a device location in an augmented reality system , the method being performed by one or more processors and comprising the following steps: determining , using a first positioning system, a first position estimate for the device; accessing , based on the first position estimate, a set of structure facade data describing one or more structure facades associated with the first position estimate, the structure facade data comprising for each structure facade a simplified two-dimensional model of one or more exterior walls of a building; capturing , by an image sensor of the device, a first image of an environment; identifying , using the set of structure facade data, a first structure facade portion of the first image of the environment by matching the first structure facade portion with the simplified two-dimensional model among the accessed set of structure facade data; calculating , based at least in part on the first structure facade portion of the first image of the environment, a second position estimate of the device; and aligning a first virtual object within a second image of the environment using the second position estimate of the device. determining , using a first positioning system, a first position estimate for the device; accessing , based on the first position estimate, a set of structure facade data describing one or more structure facades associated with the first position estimate, the structure facade data comprising for each structure facade a simplified two-dimensional model of one or more exterior walls of a building; capturing , by an image sensor of the device, a first image of an environment; identifying , using the set of structure facade data, a first structure facade portion of the first image of the environment by matching the first structure facade portion with the simplified two-dimensional model among the accessed set of structure facade data; calculating , based at least in part on the first structure facade portion of the first image of the environment, a second position estimate of the device; and aligning a first virtual object within a second image of the environment using the second position estimate of the device.
A polymer having the Formula (I) H-A 1 -B-A 2 -C-A 1 -B-A 2 -H (I) wherein A 1 is A 2 is B is -O-X-O- wherein X is selected from the group consisting of ethylene, trimethylene, tetramethylene, pentamethylene, C 1 -C 5 alkylethylene, C 1 -C 5 alkyltrimethylene, C 1 -C 5 alkyltetramethylene, and C 1 -C 5 alkylpentamethylene; C is and geometric isomers thereof; and n is an integer from 1 to 50. A 1 is A 2 is B is -O-X-O- wherein X is selected from the group consisting of ethylene, trimethylene, tetramethylene, pentamethylene, C 1 -C 5 alkylethylene, C 1 -C 5 alkyltrimethylene, C 1 -C 5 alkyltetramethylene, and C 1 -C 5 alkylpentamethylene; C is and geometric isomers thereof; and n is an integer from 1 to 50.
Operating method for a frequency converter , - wherein an electronic control system of the frequency converter repeatedly receives one nominal base value (B*) at a time for the operation of an electric machine supplied with electrical energy by means of the frequency converter , determines a respective nominal current value (I*) using the respective nominal base value (B*), determines respective control signals (C1 to C6) for power semiconductors of the frequency converter using the respective nominal base value (B*) and actuates the power semiconductors according to the determined respective control signals (C1 to C6) and as a result supplies the electric machine with electrical energy so that the electric machine is operated as much as possible according to the nominal base value (B*), - wherein the electronic control system determines the respective nominal current value (I*) and/or the respective control signals (C1 to C6) according to an enabled determination method if and as long as a permissible extent of use (N) for the enabled determination method is greater than 0, - wherein the electronic control system no longer determines the respective nominal current value (I*) and/or the respective control signals (C1 to C6) according to the enabled determination method, as soon as the permissible extent of use (N) for the enabled determination method falls to 0, and - wherein at least from time to time the electronic control system reduces the permissible extent of use (N) for the enabled determination method. - wherein an electronic control system of the frequency converter repeatedly receives one nominal base value (B*) at a time for the operation of an electric machine supplied with electrical energy by means of the frequency converter , determines a respective nominal current value (I*) using the respective nominal base value (B*), determines respective control signals (C1 to C6) for power semiconductors of the frequency converter using the respective nominal base value (B*) and actuates the power semiconductors according to the determined respective control signals (C1 to C6) and as a result supplies the electric machine with electrical energy so that the electric machine is operated as much as possible according to the nominal base value (B*), - wherein the electronic control system determines the respective nominal current value (I*) and/or the respective control signals (C1 to C6) according to an enabled determination method if and as long as a permissible extent of use (N) for the enabled determination method is greater than 0, - wherein the electronic control system no longer determines the respective nominal current value (I*) and/or the respective control signals (C1 to C6) according to the enabled determination method, as soon as the permissible extent of use (N) for the enabled determination method falls to 0, and - wherein at least from time to time the electronic control system reduces the permissible extent of use (N) for the enabled determination method.
An apparatus for attaching a counter pulsation device (CPD) to a blood vessel in a human or animal subject, the apparatus comprising: an interposition graft having a first end configured to be attached to the blood vessel, a second end, and an interior passage providing fluid connection between the first end and the second end; and a pump graft having a first end attached to the second end of the interposition graft, a second end configured to be attached to the CPD, and an interior passage providing fluid connection between the first and the second end; wherein: the interior passage of the interposition graft comprises a rough surface configured to promote biological growth on the rough surface; the interior passage of the pump graft comprises a smooth surface configured to inhibit biological growth on the smooth surface; the exterior of the pump graft has a grooved or accordion shape; and the interposition graft is shaped to prevent contact between the rough surface and the smooth surface to inhibit biological growth from the rough surface onto the smooth surface, wherein the interior passage of the interposition graft has a region of increased diameter located proximal to the second end of the interposition graft configured such that the first end of the pump graft extends into the interior passage of the interposition graft without making physical contact with the rough surface. an interposition graft having a first end configured to be attached to the blood vessel, a second end, and an interior passage providing fluid connection between the first end and the second end; and a pump graft having a first end attached to the second end of the interposition graft, a second end configured to be attached to the CPD, and an interior passage providing fluid connection between the first and the second end; the interior passage of the interposition graft comprises a rough surface configured to promote biological growth on the rough surface; the interior passage of the pump graft comprises a smooth surface configured to inhibit biological growth on the smooth surface; the exterior of the pump graft has a grooved or accordion shape; and the interposition graft is shaped to prevent contact between the rough surface and the smooth surface to inhibit biological growth from the rough surface onto the smooth surface, wherein the interior passage of the interposition graft has a region of increased diameter located proximal to the second end of the interposition graft configured such that the first end of the pump graft extends into the interior passage of the interposition graft without making physical contact with the rough surface.
An automobile air conditioner blowing adjusting shifting piece buckle structure comprising a shifting piece body , the shifting piece body comprises an upper shell and a lower shell ; the upper shell extends downwards to form a connecting piece; the connecting piece is provided with convex lugs , and shaft holes are formed in the convex lugs ; the shaft holes are connected with a shaft pin of a shifting fork so that the shaft pin is adapted to rotate in the shaft holes ; positioning grooves are formed in the peripheries of the shaft holes ; and the upper shell and the lower shell are of an integrally-formed structure, an open groove cavity is formed in the upper shell , an opening is formed in the top of the upper shell , automobile air conditioner blades are clamped into the open groove cavity in the upper shell from the opening in the top of the upper shell , and the automobile air conditioner blades are fixed into the open groove cavity through clamping parts arranged on the upper shell and the lower shell ; the automobile air conditioner blowing adjusting shifting piece buckle structure is characterized in that : the shaft pin is provided with positioning pieces and the positioning pieces are arranged in the positioning grooves so that the rotating range of the shifting fork is limited in the shifting piece body . positioning grooves are formed in the peripheries of the shaft holes ; and the upper shell and the lower shell are of an integrally-formed structure, an open groove cavity is formed in the upper shell , an opening is formed in the top of the upper shell , automobile air conditioner blades are clamped into the open groove cavity in the upper shell from the opening in the top of the upper shell , and the automobile air conditioner blades are fixed into the open groove cavity through clamping parts arranged on the upper shell and the lower shell ; the automobile air conditioner blowing adjusting shifting piece buckle structure is characterized in that : the shaft pin is provided with positioning pieces and the positioning pieces are arranged in the positioning grooves so that the rotating range of the shifting fork is limited in the shifting piece body .
WDM transmission method over optical fiber with polarization duality, intended to transmit, during one channel use, 2N symbols belonging to a modulation constellation in the complex plane, N > 1 being the number of WDM channels used for transmission, wherein: said symbols undergo a separation into real part and imaginary part (220-520) to provide a first vector consisting of the real parts of these symbols and a second vector consisting of the imaginary parts of these same symbols; characterized in that the transmission method comprises : a first orthogonal linear transformation (230-1,..,430-1) is applied to the first vector to provide a first transformed vector; a second orthogonal linear transformation (230-2,..,530-2), distinct from the first, is applied to the second vector to provide a second transformed vector; a complex scalar, solution of an irreducible polynome from R X in is multiplied to the first or to the second transformed vector, before the two transformed vectors are summed to provide a vector consisting of 2N complex emission symbols, each complex transmission symbol modulating a first state and a second polarization state of a WDM channel. said symbols undergo a separation into real part and imaginary part (220-520) to provide a first vector consisting of the real parts of these symbols and a second vector consisting of the imaginary parts of these same symbols; characterized in that the transmission method comprises : a first orthogonal linear transformation (230-1,..,430-1) is applied to the first vector to provide a first transformed vector; a second orthogonal linear transformation (230-2,..,530-2), distinct from the first, is applied to the second vector to provide a second transformed vector; a complex scalar, solution of an irreducible polynome from R X in is multiplied to the first or to the second transformed vector, before the two transformed vectors are summed to provide a vector consisting of 2N complex emission symbols, each complex transmission symbol modulating a first state and a second polarization state of a WDM channel. a first orthogonal linear transformation (230-1,..,430-1) is applied to the first vector to provide a first transformed vector; a second orthogonal linear transformation (230-2,..,530-2), distinct from the first, is applied to the second vector to provide a second transformed vector; a complex scalar, solution of an irreducible polynome from R X in is multiplied to the first or to the second transformed vector, before the two transformed vectors are summed to provide a vector consisting of 2N complex emission symbols, each complex transmission symbol modulating a first state and a second polarization state of a WDM channel.
A welding device for welding stacked materials to each other that contain a thermoplastic resin, the welding device comprising: heating units configured to come into contact with each of the materials ; and a mold configured to interpose the heating units between each of the materials and the mold , wherein the heating units have a sheet-like heat generating body configured to generate heat by electric power and insulating layers , characterized in that the heating units further comprise a contact layer and is configured such that a structure in which the heat generating body is interposed between the insulating layers is laminated on the contact layer , and wherein the contact layer has thermal conductivity of 10 W/m×K or greater at normal temperature and Young's modulus of 30 GPa or greater at normal temperature; wherein the welding device further comprises an inline plate having an end contact face configured to abut against end faces of the materials . heating units configured to come into contact with each of the materials ; and a mold configured to interpose the heating units between each of the materials and the mold , wherein the heating units have a sheet-like heat generating body configured to generate heat by electric power and insulating layers , characterized in that the heating units further comprise a contact layer and is configured such that a structure in which the heat generating body is interposed between the insulating layers is laminated on the contact layer , and wherein the contact layer has thermal conductivity of 10 W/m×K or greater at normal temperature and Young's modulus of 30 GPa or greater at normal temperature; wherein the welding device further comprises an inline plate having an end contact face configured to abut against end faces of the materials .
A control device for a hybrid vehicle, HV, the hybrid vehicle including: an internal combustion engine ; a battery which is chargeable/dischargeable; and a rotary electric machine which is driven by power supplied from the battery , the control device comprising: a travel route creation unit configured to create a travel route from a starting point to a destination through a stopping point by referring to map information; a parking time period estimation unit configured to estimate a parking time period of the hybrid vehicle at the stopping point; a travel load prediction unit configured to predict a traveling load of the hybrid vehicle in each of sections obtained by dividing the travel route by referring to the map information; and a travel mode setting unit characterized in that it is configured to predict engine coolant temperature at the time of leaving the stopping points and to set, for each of the sections, a traveling mode of an EV mode, in which the battery provides power for traveling as a main power supply, or an HV mode, in which the internal combustion engine provides the power for traveling as the main power supply, on the basis of the parking time period, the traveling load, and a result of the predicted engine coolant temperature. a travel route creation unit configured to create a travel route from a starting point to a destination through a stopping point by referring to map information; a parking time period estimation unit configured to estimate a parking time period of the hybrid vehicle at the stopping point; a travel load prediction unit configured to predict a traveling load of the hybrid vehicle in each of sections obtained by dividing the travel route by referring to the map information; and a travel mode setting unit characterized in that it is configured to predict engine coolant temperature at the time of leaving the stopping points and to set, for each of the sections, a traveling mode of an EV mode, in which the battery provides power for traveling as a main power supply, or an HV mode, in which the internal combustion engine provides the power for traveling as the main power supply, on the basis of the parking time period, the traveling load, and a result of the predicted engine coolant temperature.
A wideband active antenna system comprising a passive antenna; said passive antenna having a nominal bandwidth with a minimum frequency; said passive antenna comprising receive or transmit elements with a size larger than or equal to half the wavelength of said minimum frequency, and said passive antenna having a number N of outputs , with N > 1, each of the N outputs being directly coupled to an associated buffer amplifier (12; 12 1 , 12 2 , 12 3 , 12 4 ), with a physical distance between the N outputs and a first active stage of each associated buffer amplifier (12; 12 1 , 12 2 , 12 3 , 12 4 ) being no greater than 1/4 wavelength of any transmission and/or receiving frequency of the wideband active antenna system , such that the wideband active antenna system has a greater nominal bandwidth, additionally comprising lower frequencies than said nominal bandwidth of said passive antenna.