mhurhangee/patent-ind-claim-en huggingface dataset:
A living organism image monitoring system , the living organism image monitoring system comprises a display module , a processor and a copper indium gallium selenide (CIGS) chip, the CIGS chip , the processor and the display module are electrically connected, the CIGS chip is configured for detecting a near infrared light signal of a living organism and generating a current signal after detecting the near infrared light signal, wherein the CIGS chip performs said signal detection and generation by grid point image acquisition on an image of a real living object, the processor is configured for generating a first pulse signal according to the current signal, and the display module is configured for displaying an image according to the first pulse signal; the CIGS chip comprises a plurality of CIGS modules arranged according to a predetermined rule, each of the CIGS modules is provided with a first address, and the processor is electrically connected to each of the CIGS modules and generates the first pulse signal after receiving the current signal that is transmitted by one or more of the CIGS modules and contains the first address; characterized in that the processor is configured for acquiring the number of pixels of the display module and the number of CIGS modules included in the CIGS chip , calculating a ratio of the number of pixels to the number of CIGS modules included in the CIGS chip , and converting, according to the ratio, the first pulse signal to a second pulse signal, the number of pulses of which is the same as the number of pixels, and the display module is configured for displaying an image according to the second pulse signal. the CIGS chip comprises a plurality of CIGS modules arranged according to a predetermined rule, each of the CIGS modules is provided with a first address, and the processor is electrically connected to each of the CIGS modules and generates the first pulse signal after receiving the current signal that is transmitted by one or more of the CIGS modules and contains the first address; characterized in that the processor is configured for acquiring the number of pixels of the display module and the number of CIGS modules included in the CIGS chip , calculating a ratio of the number of pixels to the number of CIGS modules included in the CIGS chip , and converting, according to the ratio, the first pulse signal to a second pulse signal, the number of pulses of which is the same as the number of pixels, and the display module is configured for displaying an image according to the second pulse signal.
A method comprising: receiving image data from a camera coupled to an air intake system of a gas turbine engine ; comparing the received image data to reference image data of the air intake system ; and generating an icing notification based at least in part on the comparison when a difference between the received image data and reference image data is greater than an icing threshold, the received image data and the reference image data correspond to an inner surface of an interior wall of a bellmouth of the air intake system , wherein the interior wall substantially encloses an air passage of the air intake system , the camera is coupled to the interior wall via a mount, and comparing the received image data to the reference image data comprises: determining a first edge of the reference image data corresponding to the inner surface ; determining a second edge of the received image data corresponding to the inner surface ; and comparing the first edge to the second edge. receiving image data from a camera coupled to an air intake system of a gas turbine engine ; comparing the received image data to reference image data of the air intake system ; and generating an icing notification based at least in part on the comparison when a difference between the received image data and reference image data is greater than an icing threshold, the received image data and the reference image data correspond to an inner surface of an interior wall of a bellmouth of the air intake system , wherein the interior wall substantially encloses an air passage of the air intake system , the camera is coupled to the interior wall via a mount, and comparing the received image data to the reference image data comprises: determining a first edge of the reference image data corresponding to the inner surface ; determining a second edge of the received image data corresponding to the inner surface ; and comparing the first edge to the second edge. determining a first edge of the reference image data corresponding to the inner surface ; determining a second edge of the received image data corresponding to the inner surface ; and comparing the first edge to the second edge.
A process for preparing a composition comprising 3-methyl-2-butenol and 3-methyl-2-butenal, in which i) 3-methyl-3-butenol is subjected to a catalytic isomerization over a carbon-supported Pd catalyst in the presence of a gas mixture comprising 1% to 15% by volume of oxygen to obtain a first product mixture comprising at least 40% by weight of 3-methyl-2-butenol, at least 5% by weight of 3-methyl-3-butenol and 0% to 15% by weight of 3-methyl-2-butenal, based on the total weight of the first product mixture, ii) the first product mixture obtained in step i) is subjected to an oxidative dehydrogenation over a Pd catalyst comprising SiO 2 and/or Al 2 O 3 as support material, or over a carbon-supported Pd/Au catalyst in the presence of a gas mixture comprising 5% to 25% by volume of oxygen, to obtain a second product mixture which is enriched in 3-methyl-2-butenal and depleted in 3-methyl-2-butenol compared to the first product mixture, where the molar ratio of 3-methyl-2-butenol to 3-methyl-2-butenal in the second product mixture is in the range from 75:25 to 35:65, wherein the oxidative dehydrogenation in step ii) is additionally conducted in the presence of a base. i) 3-methyl-3-butenol is subjected to a catalytic isomerization over a carbon-supported Pd catalyst in the presence of a gas mixture comprising 1% to 15% by volume of oxygen to obtain a first product mixture comprising at least 40% by weight of 3-methyl-2-butenol, at least 5% by weight of 3-methyl-3-butenol and 0% to 15% by weight of 3-methyl-2-butenal, based on the total weight of the first product mixture, ii) the first product mixture obtained in step i) is subjected to an oxidative dehydrogenation over a Pd catalyst comprising SiO 2 and/or Al 2 O 3 as support material, or over a carbon-supported Pd/Au catalyst in the presence of a gas mixture comprising 5% to 25% by volume of oxygen, to obtain a second product mixture which is enriched in 3-methyl-2-butenal and depleted in 3-methyl-2-butenol compared to the first product mixture, where the molar ratio of 3-methyl-2-butenol to 3-methyl-2-butenal in the second product mixture is in the range from 75:25 to 35:65, wherein the oxidative dehydrogenation in step ii) is additionally conducted in the presence of a base.
A system for at least one of identifying or verifying which specific data center device, from a plurality of data center devices, is being powered from an AC outlet (24a-24d) of a power distribution unit , the system comprising: a message encoding algorithm module; a message decoding algorithm module; an input signal monitoring subsystem for monitoring an alternating current (AC) power signal being supplied to the data center devices, wherein one of the data center devices includes an AC powered target device ; an AC powered target device including; an AC power inlet for receiving the AC power signal; a processor in communication with the input signal monitoring subsystem ; a power distribution unit (PDU) for supplying the alternating current (AC) power signal to the AC powered target device , the PDU including a controller , the controller being in communication with the message encoding algorithm and configured to use the message encoding algorithm to create an encoded message in accordance with a predetermined power cycle profile (PCP) event, the PCP event being implemented by the PDU generating a modulated AC power signal encoded with the PCP event, and wherein the modulated AC power signal is sufficient in magnitude so as not to cause a loss of power or a brownout condition that causes rebooting of an AC powered data center device; and the target device further configured to analyze the PCP event as the modulated AC power signal is received, and to create a decoded message therefrom, the decoded message being used to indicate whether the AC outlet (24a-24d) of the PDU is providing power to the target device . a message encoding algorithm module; a message decoding algorithm module; an input signal monitoring subsystem for monitoring an alternating current (AC) power signal being supplied to the data center devices, wherein one of the data center devices includes an AC powered target device ; an AC powered target device including; an AC power inlet for receiving the AC power signal; a processor in communication with the input signal monitoring subsystem ; an AC power inlet for receiving the AC power signal; a processor in communication with the input signal monitoring subsystem ; a power distribution unit (PDU) for supplying the alternating current (AC) power signal to the AC powered target device , the PDU including a controller , the controller being in communication with the message encoding algorithm and configured to use the message encoding algorithm to create an encoded message in accordance with a predetermined power cycle profile (PCP) event, the PCP event being implemented by the PDU generating a modulated AC power signal encoded with the PCP event, and wherein the modulated AC power signal is sufficient in magnitude so as not to cause a loss of power or a brownout condition that causes rebooting of an AC powered data center device; and the target device further configured to analyze the PCP event as the modulated AC power signal is received, and to create a decoded message therefrom, the decoded message being used to indicate whether the AC outlet (24a-24d) of the PDU is providing power to the target device .
Bike carrier comprising a fixation unit adapted to fix a fork of a bike to said bike carrier , characterized in that said fixation unit comprises a first fixation mechanism and a second fixation mechanism provided at different positions of the bike carrier and providing two coexisting fixation options for mounting a fork to said bike carrier .
A battery system, comprising a battery pack including a plurality of cylindrical battery cells arranged in an array with clearances between neighboring battery cells , an electrical conductor element having a main portion extending along an end side of the battery cells , and at least one branch portion branching off of the main portion and comprising at least one temperature sensor for sensing the temperature of at least one of the battery cells , the branch portion with the temperature sensor extending into one of the clearances between neighboring battery cells of the plurality of battery cells , the battery system further comprising a pin element separate from the temperature sensor and from the remaining parts of the battery system, the pin element comprised of an electrically non-conductive material and inserted into the same clearance such that it presses the temperature sensor against at least one of the battery cells , wherein the branch portion is adapted to be bend by the pin element from an initial position in which the branch portion is arranged parallel to the main portion to a branched off position where the branch portion is branched off of the main portion into the clearance at an angle of approximately 90 degrees with respect to the main portion , wherein the pin element comprises a guiding surface to guide the branch portion into the clearance when the pin element is inserted into the clearance . a battery pack including a plurality of cylindrical battery cells arranged in an array with clearances between neighboring battery cells , an electrical conductor element having a main portion extending along an end side of the battery cells , and at least one branch portion branching off of the main portion and comprising at least one temperature sensor for sensing the temperature of at least one of the battery cells , the branch portion with the temperature sensor extending into one of the clearances between neighboring battery cells of the plurality of battery cells , the battery system further comprising a pin element separate from the temperature sensor and from the remaining parts of the battery system, the pin element comprised of an electrically non-conductive material and inserted into the same clearance such that it presses the temperature sensor against at least one of the battery cells , wherein the branch portion is adapted to be bend by the pin element from an initial position in which the branch portion is arranged parallel to the main portion to a branched off position where the branch portion is branched off of the main portion into the clearance at an angle of approximately 90 degrees with respect to the main portion , wherein the pin element comprises a guiding surface to guide the branch portion into the clearance when the pin element is inserted into the clearance .
A blood monitoring system for measuring blood characteristics, comprising: an emitter emitting light at a plurality of wavelengths from a first side of a blood flow channel to a second side of the blood flow channel ; a sensor on the second side of the blood flow channel ; a reference photo sensor on the first side of the blood flow channel positioned to receive the light from the emitter ; and a mask on the first side of the blood flow channel for optically isolating the reference photo sensor from light other than light directly sourcing from the emitter , a controller configured to compensate measurements of light by the sensor for variation in an amplitude of the light of the emitter based upon measurements of light by the reference photo sensor ; characterized by a circuit board , wherein an array of LEDs is mounted to the circuit board , wherein the array of LEDs is the emitter; and by a shield being the mask and spaced at a fixed distance from the circuit board by spacers , wherein the shield comprises an opening that allows light of the emitter to pass to the blood flow channel , wherein the reference photo sensor is mounted on the underside of the shield . an emitter emitting light at a plurality of wavelengths from a first side of a blood flow channel to a second side of the blood flow channel ; a sensor on the second side of the blood flow channel ; a reference photo sensor on the first side of the blood flow channel positioned to receive the light from the emitter ; and a mask on the first side of the blood flow channel for optically isolating the reference photo sensor from light other than light directly sourcing from the emitter , a controller configured to compensate measurements of light by the sensor for variation in an amplitude of the light of the emitter based upon measurements of light by the reference photo sensor ; characterized by a circuit board , wherein an array of LEDs is mounted to the circuit board , wherein the array of LEDs is the emitter; and by a shield being the mask and spaced at a fixed distance from the circuit board by spacers , wherein the shield comprises an opening that allows light of the emitter to pass to the blood flow channel , wherein the reference photo sensor is mounted on the underside of the shield .
Tyre comprising a directional tread of width W, said tread having a total volume VT, said tread comprising a plurality of voids defining a voids volume VE in said tread, the ratio of the voids volume VE to the total volume determining a volumetric voids ratio TEV such that TEV=VE/VT, part of the plurality of voids delimiting blocks of rubbery material, said blocks being organized into patterns of blocks of pitch P succeeding one another in the circumferential direction (X), part of the plurality of voids forming one or more sipes in one of the patterns at a sipes density SD, said sipes density SD corresponding to the ratio of a sum of the projected length(s) lpyi of the sipe(s) in an axial direction(Y) to the product of the pitch P of the pattern times the width W of the tread, all multiplied by 1000, such that SD = ∑ i = 1 n lpyi P ∗ W ∗ 1000 , where n is the number of sipes in the pattern, and lpyi is the projected length of the ith sipe, said tread forming a contact patch AC in which the tyre is in contact with the ground, a part of the blocks of the tread forming a contact surface SC via which the blocks are in contact with said ground in said contact patch AC, the ratio of the difference between the area of said contact patch AC and the area of the contact surface SC of the blocks to the area of the contact patch AC determining a surface voids ratio TES of the tread, where TES=(AC-SC)/AC, characterized in that, for said tread when new: - the sipes density SD in any pattern of pitch P is comprised between 10 mm -1 and 70 mm -1 , - the ratio TES/TEV of said surface voids ratio TES to said volumetric voids ratio TEV is at least equal to 1.5 and at most equal to 1.9. - the sipes density SD in any pattern of pitch P is comprised between 10 mm -1 and 70 mm -1 , - the ratio TES/TEV of said surface voids ratio TES to said volumetric voids ratio TEV is at least equal to 1.5 and at most equal to 1.9.
A plurality of core-shell particles (C), each core-shell particle (C) comprising: a core layer (P) as magnetic particles comprising silica and magnetic metal oxide particles (A) ; and a shell layer (Q) that is a silica layer on a surface of the core layer (P), an average thickness of a plurality of shell layers (Q) being 3 to 3000 nm, wherein a weight percentage of the magnetic metal oxide particles (A) in the core layer (P) is 60 to 95 wt% based on a weight of the core layer (P), characterised in that the plurality of core-shell particles (C) have a particle size distribution with a coefficient of variation of 21 to 50%. a core layer (P) as magnetic particles comprising silica and magnetic metal oxide particles (A) ; and a shell layer (Q) that is a silica layer on a surface of the core layer (P), an average thickness of a plurality of shell layers (Q) being 3 to 3000 nm, wherein a weight percentage of the magnetic metal oxide particles (A) in the core layer (P) is 60 to 95 wt% based on a weight of the core layer (P), characterised in that the plurality of core-shell particles (C) have a particle size distribution with a coefficient of variation of 21 to 50%.
A system for determining positioning of an intubation tube in a patient, comprising: a first acoustic sensor configured to be disposed to listen to one of a lung and a stomach of the patient and to provide a first signal; and a signal processing unit , coupled to the first acoustic sensor, configured to analyze spectral components of the first signal and determine whether a frequency of the spectral components of the first signal are characteristic of sounds induced by ventilation via the intubation tube of airflow to the lung or the stomach of the patient, and to determine placement of the tube in the body of the patient in response to said analysis, the signal processing unit being further configured to provide an instruction to relocate the first acoustic sensor when the determination is indicative that the placement of the intubation tube is proper. a first acoustic sensor configured to be disposed to listen to one of a lung and a stomach of the patient and to provide a first signal; and a signal processing unit , coupled to the first acoustic sensor, configured to analyze spectral components of the first signal and determine whether a frequency of the spectral components of the first signal are characteristic of sounds induced by ventilation via the intubation tube of airflow to the lung or the stomach of the patient, and to determine placement of the tube in the body of the patient in response to said analysis, the signal processing unit being further configured to provide an instruction to relocate the first acoustic sensor when the determination is indicative that the placement of the intubation tube is proper.
An endoscope system comprising: an image acquiring unit configured to acquire a first image and a second image, the first image being obtained by imaging an observation target by using first illumination light, the second image being obtained by imaging the observation target by using second illumination light that is different from the first illumination light at a different timing from the first image; a halation-region detecting unit configured to detect a halation region from at least one of the first image or the second image; a calculated-image generating unit configured to perform calculation by using the first image and the second image and that generates a calculated image; a display-image generating unit configured to generate a display image in which a tone reflects the calculated image; and a tone changing unit configured to change the tone of the halation region in the display image. an image acquiring unit configured to acquire a first image and a second image, the first image being obtained by imaging an observation target by using first illumination light, the second image being obtained by imaging the observation target by using second illumination light that is different from the first illumination light at a different timing from the first image; a halation-region detecting unit configured to detect a halation region from at least one of the first image or the second image; a calculated-image generating unit configured to perform calculation by using the first image and the second image and that generates a calculated image; a display-image generating unit configured to generate a display image in which a tone reflects the calculated image; and a tone changing unit configured to change the tone of the halation region in the display image.
A communication unit comprising: a plurality of cascaded devices wherein the plurality of cascaded devices comprises at least one master device and at least one slave device configured in a master-slave arrangement; wherein the communication unit is characterized in that : the at least one master device comprises a modulator circuit configured to: receive a system clock signal and a frame start signal; modulate the system clock signal with the frame start signal to produce a modulated master-slave clock signal ; and transmit the modulated master-slave clock signal to the at least one slave device; and the at least one slave device comprises a demodulator circuit configured to: receive and demodulate the modulated master-slave clock signal ; and re-create therefrom the system clock signal and the frame start signal . the at least one master device comprises a modulator circuit configured to: receive a system clock signal and a frame start signal; modulate the system clock signal with the frame start signal to produce a modulated master-slave clock signal ; and transmit the modulated master-slave clock signal to the at least one slave device; and receive a system clock signal and a frame start signal; modulate the system clock signal with the frame start signal to produce a modulated master-slave clock signal ; and transmit the modulated master-slave clock signal to the at least one slave device; and the at least one slave device comprises a demodulator circuit configured to: receive and demodulate the modulated master-slave clock signal ; and re-create therefrom the system clock signal and the frame start signal . receive and demodulate the modulated master-slave clock signal ; and re-create therefrom the system clock signal and the frame start signal .