mhurhangee/patent-ind-claim-en huggingface dataset:
A method of memory reduction for fixed point matrix multiply on a computing device, comprising: implementing a partial matrix multiplication using a first block of fixed point data of a first matrix and a second block of fixed point data of a second matrix using full precision resulting in a first intermediate result ; down converting the first intermediate result by converting fixed point data of the first intermediate result to fixed point data using a lower precision resulting in a first down converted intermediate result with a down converted intermediate precision size; implementing a partial matrix multiplication using a third block of fixed point data of the first matrix and a fourth block of fixed point data of the second matrix using full precision resulting in a second intermediate result; down converting the second intermediate result by converting fixed point data of the second intermediate result to fixed point data using the lower precision resulting in a second down converted intermediate result with the down converted intermediate precision size; and adding the first down converted intermediate result and the second down converted intermediate result using saturating addition capping a size of a resulting output portion of a resultant matrix to an output precision, wherein the method further comprises determining the down converted intermediate precision size for the first down converted intermediate result and for the second down converted intermediate result based on a specified level of accuracy. implementing a partial matrix multiplication using a first block of fixed point data of a first matrix and a second block of fixed point data of a second matrix using full precision resulting in a first intermediate result ; down converting the first intermediate result by converting fixed point data of the first intermediate result to fixed point data using a lower precision resulting in a first down converted intermediate result with a down converted intermediate precision size; implementing a partial matrix multiplication using a third block of fixed point data of the first matrix and a fourth block of fixed point data of the second matrix using full precision resulting in a second intermediate result; down converting the second intermediate result by converting fixed point data of the second intermediate result to fixed point data using the lower precision resulting in a second down converted intermediate result with the down converted intermediate precision size; and adding the first down converted intermediate result and the second down converted intermediate result using saturating addition capping a size of a resulting output portion of a resultant matrix to an output precision, wherein the method further comprises determining the down converted intermediate precision size for the first down converted intermediate result and for the second down converted intermediate result based on a specified level of accuracy.
A B-RAF inhibitor for use in treating cancer in a subject, wherein at least a portion of a nucleic acid molecule encoding a C-RAF polypeptide extracted from cells of a cancer of the subject has been determined to comprise one or more mutations that alter the identity of an amino acid residue at one or more amino acids of the encoded C-RAF polypeptide as compared to a wild type C-RAF polypeptide comprising SEQ. ID. NO. 2 at one or more positions selected from the group consisting of 104E>K, 257S>P, 261P>T, 356G>E, 361G>A, 427S>T, 447D>N, 469M>I, 478E>K and 554R>K as compared to SEQ ID NO; 2; and wherein the RAF inhibitor is administered with a second inhibitor; wherein the second inhibitor provides a course of treatment in response to the identification of the aforementioned mutations indicating likely resistance to the B-RAF inhibitor. wherein at least a portion of a nucleic acid molecule encoding a C-RAF polypeptide extracted from cells of a cancer of the subject has been determined to comprise one or more mutations that alter the identity of an amino acid residue at one or more amino acids of the encoded C-RAF polypeptide as compared to a wild type C-RAF polypeptide comprising SEQ. ID. NO. 2 at one or more positions selected from the group consisting of 104E>K, 257S>P, 261P>T, 356G>E, 361G>A, 427S>T, 447D>N, 469M>I, 478E>K and 554R>K as compared to SEQ ID NO; 2; and wherein the RAF inhibitor is administered with a second inhibitor; wherein the second inhibitor provides a course of treatment in response to the identification of the aforementioned mutations indicating likely resistance to the B-RAF inhibitor.
An electronic apparatus comprising: a transceiver configured to wirelessly connect to an external apparatus; and a processor configured to control the transceiver to transmit a control packet for turning off the external apparatus to the external apparatus in response to an input corresponding to a power off command of the electronic apparatus being received, and turn off the electronic apparatus if the electronic apparatus receives a response to a reception of the control packet from the external apparatus, wherein the control packet is generated according to a profile of a short range communication. a transceiver configured to wirelessly connect to an external apparatus; and a processor configured to control the transceiver to transmit a control packet for turning off the external apparatus to the external apparatus in response to an input corresponding to a power off command of the electronic apparatus being received, and turn off the electronic apparatus if the electronic apparatus receives a response to a reception of the control packet from the external apparatus, wherein the control packet is generated according to a profile of a short range communication.
A temperature sensor for medical use comprising: a microphotonic light emitter comprising a junction between two materials; an electrical circuit for applying a reverse bias voltage across the light emitter and for measuring a reverse current; and means for calculating a temperature from the measured reverse current; the temperature sensor being characterised in that ; the electrical circuit comprises a second generation current conveyor, CCII, configured for maintaining the reverse bias voltage within +/- 5% of a target bias. a microphotonic light emitter comprising a junction between two materials; an electrical circuit for applying a reverse bias voltage across the light emitter and for measuring a reverse current; and means for calculating a temperature from the measured reverse current; the temperature sensor being characterised in that ; the electrical circuit comprises a second generation current conveyor, CCII, configured for maintaining the reverse bias voltage within +/- 5% of a target bias.
Sealing test device for testing sealing of at least a part of a double-door sealed transfer system between two closed volumes, said system comprising first and second flanges capable of being rigidly connected to one another, and first and second doors normally sealing openings respectively defined by the first and the second flanges, the seal-testing device being configured to separately test the sealing between the first flange and the first door and between the second flange and the second door, said device including a casing comprising a cavity provided with an opening , means for mechanical connection to at least one of the first and second flanges so that the cavity is closed by one of the first and second flanges and one of the first and second doors, said device being characterized in that it comprises an inflatable joint intended to come, in the inflated state, in contact with one of the first and second flanges and to ensure a sealing allowing to verify the sealing between the first flange and the first door or the second flange and the second door .
A method of manufacturing an inner driving element of a magnetic drive centrifugal pump, the method comprising the steps of: providing a unit consisting of a yoke , backing rings , a sleeve , and magnets , wherein the backing rings are arranged radially outwardly of the yoke and axially adjacent to either side of the magnets, a protective powder coating is arranged between the backing rings and yoke and between the backing rings and magnets, the sleeve is arranged radially outwardly of the backing rings and the protective powder coating; supporting the unit within the mold by a support , consisting of multiple pins, at a molding support region on an axial end of the yoke ; and carrying out a molding process comprising: molding a shell about the yoke , magnets , backing rings and sleeve ; retracting the support from the mold support region at a predetermined time during the molding process so that the material forming the shell fills the molding support region during the molding process, wherein the formulations of plastic used for the shell are such as to enable the flow fronts of material within the mold to quickly fill the molding support region once the supports have retracted; and hence filling the molding support region with the plastic and fully encapsulating the unit with the plastic within the mold to provide a shell . providing a unit consisting of a yoke , backing rings , a sleeve , and magnets , wherein the backing rings are arranged radially outwardly of the yoke and axially adjacent to either side of the magnets, a protective powder coating is arranged between the backing rings and yoke and between the backing rings and magnets, the sleeve is arranged radially outwardly of the backing rings and the protective powder coating; supporting the unit within the mold by a support , consisting of multiple pins, at a molding support region on an axial end of the yoke ; and carrying out a molding process comprising: molding a shell about the yoke , magnets , backing rings and sleeve ; retracting the support from the mold support region at a predetermined time during the molding process so that the material forming the shell fills the molding support region during the molding process, wherein the formulations of plastic used for the shell are such as to enable the flow fronts of material within the mold to quickly fill the molding support region once the supports have retracted; and hence filling the molding support region with the plastic and fully encapsulating the unit with the plastic within the mold to provide a shell . molding a shell about the yoke , magnets , backing rings and sleeve ; retracting the support from the mold support region at a predetermined time during the molding process so that the material forming the shell fills the molding support region during the molding process, wherein the formulations of plastic used for the shell are such as to enable the flow fronts of material within the mold to quickly fill the molding support region once the supports have retracted; and hence filling the molding support region with the plastic and fully encapsulating the unit with the plastic within the mold to provide a shell .
A method for filtering location data, from a plurality of devices in a wireless network, for use in a mobility analysis of a group of devices, the method being performed by a data collection and analysis node , the method comprising the steps of: receiving the location data from the plurality of devices, the location data from each device including a unique user identifier; determining devices that belong to the group of devices based on the unique user identifier received from each device; forwarding the location data for the devices determined to belong to the group of devices to an analyser module for use in the mobility analysis; characterised by maintaining a device database including a plurality of device records, wherein each device record indicates whether a device associated with a device record belongs to the group of devices, wherein the step of determining the devices that belong to the group of devices further comprises querying the device database using the unique user identifiers to determine the devices that belong to the group of devices and wherein each device record associated with a device that does not belong to the group of devices includes a timestamp indicating when the device record indicated that the associated device does not belong to the group of devices, and wherein the step of maintaining the device database further includes updating each device record to indicate that the associated device belongs to the group of devices after a predetermined period of time has elapsed. receiving the location data from the plurality of devices, the location data from each device including a unique user identifier; determining devices that belong to the group of devices based on the unique user identifier received from each device; forwarding the location data for the devices determined to belong to the group of devices to an analyser module for use in the mobility analysis; characterised by maintaining a device database including a plurality of device records, wherein each device record indicates whether a device associated with a device record belongs to the group of devices, wherein the step of determining the devices that belong to the group of devices further comprises querying the device database using the unique user identifiers to determine the devices that belong to the group of devices and wherein each device record associated with a device that does not belong to the group of devices includes a timestamp indicating when the device record indicated that the associated device does not belong to the group of devices, and wherein the step of maintaining the device database further includes updating each device record to indicate that the associated device belongs to the group of devices after a predetermined period of time has elapsed.
A motor driving apparatus of driving a motor including a plurality of windings (L1, L2, L3) respectively corresponding to a plurality of phases, the motor driving apparatus comprising: a first inverter including a plurality of first switching elements (S11, S12, S13, S14, S15, S16) and connected to a first end of each of the windings (L1, L2, L3); a second inverter including a plurality of second switching elements (S21, S22, S23, S24, S25, S26) and connected to a second end of each of the windings (L1, L2, L3); and a controller , characterized in that the controller is connected to the first switching elements (S11, S12, S13, S14, S15, S16) and the second switching elements (S21, S22, S23, S24, S25, S26) and configured to determine an effective vector (V INV2 ) closest to a voltage vector corresponding to a preset voltage command (V ref ) of the motor as a duty of the plurality of second switching elements (S21, S22, S23, S24, S25, S26) and to control pulse width modulation of the first switching elements (S11, S12, S13, S14, S15, S16) based on a voltage command (V INV1 ) of the first inverter obtained by adding the effective vector (V INV2 ) corresponding to the duty of the second switching elements (S21, S22, S23, S24, S25, S26) to the preset voltage command (V ref ) of the motor . a first inverter including a plurality of first switching elements (S11, S12, S13, S14, S15, S16) and connected to a first end of each of the windings (L1, L2, L3); a second inverter including a plurality of second switching elements (S21, S22, S23, S24, S25, S26) and connected to a second end of each of the windings (L1, L2, L3); and a controller , characterized in that the controller is connected to the first switching elements (S11, S12, S13, S14, S15, S16) and the second switching elements (S21, S22, S23, S24, S25, S26) and configured to determine an effective vector (V INV2 ) closest to a voltage vector corresponding to a preset voltage command (V ref ) of the motor as a duty of the plurality of second switching elements (S21, S22, S23, S24, S25, S26) and to control pulse width modulation of the first switching elements (S11, S12, S13, S14, S15, S16) based on a voltage command (V INV1 ) of the first inverter obtained by adding the effective vector (V INV2 ) corresponding to the duty of the second switching elements (S21, S22, S23, S24, S25, S26) to the preset voltage command (V ref ) of the motor .
A cleaning apparatus , comprising: a wash chamber ; a platform disposed in the chamber and sized to support an engine block; and a lid being coupled to the wash chamber via a multi-bar linkage, said lid having a first portion rotatably coupled to the wash chamber and a second portion rotatably coupled to the first portion , and further comprising an additional linkage coupling the second portion of the lid to the multi-bar linkage, the additional linkage being configured to cause the second portion of the lid to rotate as the first portion of the lid rotates, wherein when the first portion of the lid is disposed in a position rotated distal to the wash chamber , the second portion of the lid is disposed in a position rotated proximal to the first portion of the lid , and when the first portion of the lid is disposed in a position rotated proximal to the wash chamber , the second portion of the lid is disposed in a position rotated distal to the first portion of the lid , and wherein said cleaning apparatus comprises a cleaning fluid tank including an agitator, said cleaning fluid tank configured to receive fluid that drains from the platform and to supply fluid to a pump that sprays the fluid towards the platform . a wash chamber ; a platform disposed in the chamber and sized to support an engine block; and a lid being coupled to the wash chamber via a multi-bar linkage, said lid having a first portion rotatably coupled to the wash chamber and a second portion rotatably coupled to the first portion , and further comprising an additional linkage coupling the second portion of the lid to the multi-bar linkage, the additional linkage being configured to cause the second portion of the lid to rotate as the first portion of the lid rotates, wherein when the first portion of the lid is disposed in a position rotated distal to the wash chamber , the second portion of the lid is disposed in a position rotated proximal to the first portion of the lid , and when the first portion of the lid is disposed in a position rotated proximal to the wash chamber , the second portion of the lid is disposed in a position rotated distal to the first portion of the lid , and wherein when the first portion of the lid is disposed in a position rotated distal to the wash chamber , the second portion of the lid is disposed in a position rotated proximal to the first portion of the lid , and when the first portion of the lid is disposed in a position rotated proximal to the wash chamber , the second portion of the lid is disposed in a position rotated distal to the first portion of the lid , and wherein said cleaning apparatus comprises a cleaning fluid tank including an agitator, said cleaning fluid tank configured to receive fluid that drains from the platform and to supply fluid to a pump that sprays the fluid towards the platform .
An imaging device comprising: a semiconductor substrate having a first surface , the semiconductor substrate including: a first layer containing an impurity of a first conductivity type; a second layer containing an impurity of a second conductivity type different from the first conductivity type, the second layer being closer than the first layer to the first surface; and a pixel including: a photoelectric converter configured to convert light into charge; a first diffusion region containing an impurity of the first conductivity type, the first diffusion region facing the first layer via the second layer , configured to store at least a part of the charge; and a second diffusion region being a diffusion region closest to the first diffusion region among diffusion regions containing an impurity of the first conductivity type, the diffusion regions facing the first layer via the second layer , characterized in that the distance (L1) between the second diffusion region and the first layer is equal to or less than 1.5 times the distance (L2) between the second diffusion region and the first diffusion region . a semiconductor substrate having a first surface , the semiconductor substrate including: a first layer containing an impurity of a first conductivity type; a second layer containing an impurity of a second conductivity type different from the first conductivity type, the second layer being closer than the first layer to the first surface; and a first layer containing an impurity of a first conductivity type; a second layer containing an impurity of a second conductivity type different from the first conductivity type, the second layer being closer than the first layer to the first surface; and a pixel including: a photoelectric converter configured to convert light into charge; a first diffusion region containing an impurity of the first conductivity type, the first diffusion region facing the first layer via the second layer , configured to store at least a part of the charge; and a second diffusion region being a diffusion region closest to the first diffusion region among diffusion regions containing an impurity of the first conductivity type, the diffusion regions facing the first layer via the second layer , characterized in that a photoelectric converter configured to convert light into charge; a first diffusion region containing an impurity of the first conductivity type, the first diffusion region facing the first layer via the second layer , configured to store at least a part of the charge; and a second diffusion region being a diffusion region closest to the first diffusion region among diffusion regions containing an impurity of the first conductivity type, the diffusion regions facing the first layer via the second layer , characterized in that the distance (L1) between the second diffusion region and the first layer is equal to or less than 1.5 times the distance (L2) between the second diffusion region and the first diffusion region .
A process for purification of Prucalopride succinate, comprising: a) providing a solution of Prucalopride succinate in a solvent medium comprising an organic solvent and water at a temperature of above 40°C, wherein the solvent medium used is selected from the group consisting of a solvent medium comprising isopropyl alcohol and water; a solvent medium comprising isopropyl alcohol, methanol and water; and a solvent medium comprising acetone and water; b) subjecting the solution obtained in step-(a) to carbon treatment to obtain a clear filtrate; c) cooling the filtrate obtained in step-(b) at a temperature below 35°C to cause crystallization; and d) recovering the highly pure Prucalopride Succinate obtained in step-(c). a) providing a solution of Prucalopride succinate in a solvent medium comprising an organic solvent and water at a temperature of above 40°C, wherein the solvent medium used is selected from the group consisting of a solvent medium comprising isopropyl alcohol and water; a solvent medium comprising isopropyl alcohol, methanol and water; and a solvent medium comprising acetone and water; b) subjecting the solution obtained in step-(a) to carbon treatment to obtain a clear filtrate; c) cooling the filtrate obtained in step-(b) at a temperature below 35°C to cause crystallization; and d) recovering the highly pure Prucalopride Succinate obtained in step-(c).