mhurhangee/ep-ind-claims huggingface dataset:
A vehicle hood structure characterized by comprising: a hood inner reinforcement in which a vehicle body front side end portion of the hood inner reinforcement and a vehicle body rear side end portion of the hood inner reinforcement are attached to a hood inner panel included in a hood of a vehicle; a hood lock reinforcement provided on a vehicle body lower side of the hood inner reinforcement, the hood lock reinforcement having a seating portion to which is attached an engaging portion that locks the hood, in a closed state, to a vehicle body of the vehicle; a bent portion formed in a vehicle width direction near the seating portion of the hood lock reinforcement, the bent portion protruding toward the vehicle body lower side; and a plurality of first protruding portions formed in a line in the vehicle width direction on the bent portion, the first protruding portions protruding toward a vehicle body upper side. a hood inner reinforcement in which a vehicle body front side end portion of the hood inner reinforcement and a vehicle body rear side end portion of the hood inner reinforcement are attached to a hood inner panel included in a hood of a vehicle; a hood lock reinforcement provided on a vehicle body lower side of the hood inner reinforcement, the hood lock reinforcement having a seating portion to which is attached an engaging portion that locks the hood, in a closed state, to a vehicle body of the vehicle; a bent portion formed in a vehicle width direction near the seating portion of the hood lock reinforcement, the bent portion protruding toward the vehicle body lower side; and a plurality of first protruding portions formed in a line in the vehicle width direction on the bent portion, the first protruding portions protruding toward a vehicle body upper side.
Cooking appliance comprising at least one cooking chamber, at least one steam-generation device and at least one microwave device being associated with the cooking chamber in order to heat food, the steam-generation device being suitable for and designed to supply the cooking chamber with steam and the microwave device comprising at least one microwave generator that introduces microwave radiation into the cooking chamber at at least one inlet point and at least one first cooking region in contact with the inlet point for the microwave radiation being provided in the cooking chamber, at least one delimitation device (9.1, 9.2, 9.3, 9.4) being arranged in the cooking chamber, which device is suitable for and designed to provide at least one second cooking region (10.1, 10.2, 10.3, 10.4) in the cooking chamber, which cooking region is delimited by the at least one delimitation device (9.1, 9.2, 9.3, 9.4) with respect to the inlet point of the microwave radiation such that the entry of microwave radiation is limited in said second cooking region (10.1, 10.2, 10.3, 10.4), the at least one delimitation device (9.1, 9.2, 9.3, 9.4) being provided by at least one vessel device, the vessel device comprising at least one cover device which is set up and designed to cover a feed opening in the vessel device, the cover device being designed as a plate device of the at least one delimiting device (9.1, 9.2, 9.3, 9.4), characterised in that the vessel device comprises at least one steam inlet which is provided as an opening in the vessel device and is designed so that the steam inlet is set up and designed to connect to a steam inlet of the cooking chamber.
A dipped and heat-set polyamide 6.6 single twisted yarn which is twisted strand which is prepared from a raw polyamide 6.6 yarn having the tensile stress value greater than 1,30cN/dtex, preferably between 1,35 and 1,60cN/dtex at 4% elongation (determined with tensile tester according to ASTM D885-16) is characterized that, - its tensile stress at 4% elongation (determined with tensile tester according to ASTM D885-16) is higher than 2.0 cN/dtex and less than 2.8cN/dtex, - and its heat shrinkage is higher than 4.0% and less than 7.0% determined at 177°C under 0.045g/dtex pretension with 2minutes exposure time. - its tensile stress at 4% elongation (determined with tensile tester according to ASTM D885-16) is higher than 2.0 cN/dtex and less than 2.8cN/dtex, - and its heat shrinkage is higher than 4.0% and less than 7.0% determined at 177°C under 0.045g/dtex pretension with 2minutes exposure time.
Electrical brush handpiece, in particular toothbrush handpiece, comprising at least one interface (14a; 14d) for a coupling with a plug-on brush (10a; 10d), comprising at least one frame unit (16a; 16d) and comprising at least one drive unit (18a; 16d) for driving the interface (14a; 14d), which is accommodated in the frame unit (16a; 16d) and comprises at least one rotor (20a; 20d) and at least one reset element (22a; 22b; 22c; 22d) that is coupled with the rotor (20a; 20d) with a first end in a rotationally fixed manner and is fixed on the frame unit (16a; 16d) with a second end in a rotationally fixed manner, wherein the at least one reset element (22a; 22b; 22c; 22d) is realized in a plate shape, characterised in that the at least one rotor comprises at least one cage element that is implemented in one piece and has at least one receiving region for an accommodation of at least one magnet (32a, 32a'), wherein the rotor comprises at least one cover (40a, 40a'), which is configured for a closure of the receiving region of the cage element. wherein the at least one reset element (22a; 22b; 22c; 22d) is realized in a plate shape, characterised in that the at least one rotor comprises at least one cage element that is implemented in one piece and has at least one receiving region for an accommodation of at least one magnet (32a, 32a'), wherein the rotor comprises at least one cover (40a, 40a'), which is configured for a closure of the receiving region of the cage element.
A clock frequency modulation method, comprising: determining N digital clocks according to a first digital clock of a system, wherein the N digital clocks comprises a second digital clock and N-1 digital clocks except the second digital clock, and a sum of frequency ratios of the first digital clock to each of the N-1 digital clocks is equal to N-1 times a frequency ratio of the first digital clock to the second digital clock, wherein N is an integer greater than 2; and fitting, during a modulation period by using the N digital clocks, the first digital clock into the periodic second digital clock; characterized in that before the determining N digital clocks according to a first digital clock of a system, the method further comprises: performing first FIFO buffering on the first digital clock; and after the fitting, by using the N digital clocks, the first digital clock into the periodic second digital clock, the method further comprises: performing second FIFO buffering on the N digital clocks, wherein the second FIFO buffering is synchronous with the first FIFO buffering, so that the N digital clocks after modulation have no delay jitter. determining N digital clocks according to a first digital clock of a system, wherein the N digital clocks comprises a second digital clock and N-1 digital clocks except the second digital clock, and a sum of frequency ratios of the first digital clock to each of the N-1 digital clocks is equal to N-1 times a frequency ratio of the first digital clock to the second digital clock, wherein N is an integer greater than 2; and fitting, during a modulation period by using the N digital clocks, the first digital clock into the periodic second digital clock; characterized in that before the determining N digital clocks according to a first digital clock of a system, the method further comprises: performing first FIFO buffering on the first digital clock; and after the fitting, by using the N digital clocks, the first digital clock into the periodic second digital clock, the method further comprises: performing second FIFO buffering on the N digital clocks, wherein the second FIFO buffering is synchronous with the first FIFO buffering, so that the N digital clocks after modulation have no delay jitter.
A method for estimating the thermal load of a service circuit for a service fluid at outlet from a refrigerating machine of an air-conditioning system; the refrigerating machine comprising a compressor, and the air-conditioning system comprising fan-coil means; the service circuit comprising a delivery branch for circulation of the service fluid from the refrigerating machine to the fan-coil means, and a return branch for return of the service fluid at input to the refrigerating machine; wherein the method comprises: - measuring, via a pair of temperature sensors (21, 22), a delivery temperature (TDLV) of the service fluid at outlet from the refrigerating machine and a return temperature (TRET) of the service fluid at inlet to the refrigerating machine; and - supplying (106, 107, 109, 111) an estimate of the thermal load by processing, via a Kalman filtering, the measurements of the delivery temperature (TDLV) and of the return temperature (TRET). - measuring, via a pair of temperature sensors (21, 22), a delivery temperature (TDLV) of the service fluid at outlet from the refrigerating machine and a return temperature (TRET) of the service fluid at inlet to the refrigerating machine; and - supplying (106, 107, 109, 111) an estimate of the thermal load by processing, via a Kalman filtering, the measurements of the delivery temperature (TDLV) and of the return temperature (TRET).
A liquid lens, comprising: a first plate comprising a cavity accommodating a first liquid and a second liquid, the first liquid being conductive and the second liquid being nonconductive; a first electrode disposed on the first plate; a second electrode disposed under the first plate; a second plate disposed on the first electrode; a third plate disposed under the second electrode; and an elastic member (190A, 190B, 190C, 190D, 190E) disposed between the first plate and the third plate, characterized in that the elastic member (190A, 190B, 190C, 190D, 190E) is configured to be deformed such that a volume of the elastic member (190A, 190B, 190C, 190D, 190E) is reduced when a volume of at least one among the first liquid and the second liquid increases. a first plate comprising a cavity accommodating a first liquid and a second liquid, the first liquid being conductive and the second liquid being nonconductive; a first electrode disposed on the first plate; a second electrode disposed under the first plate; a second plate disposed on the first electrode; a third plate disposed under the second electrode; and an elastic member (190A, 190B, 190C, 190D, 190E) disposed between the first plate and the third plate, characterized in that the elastic member (190A, 190B, 190C, 190D, 190E) is configured to be deformed such that a volume of the elastic member (190A, 190B, 190C, 190D, 190E) is reduced when a volume of at least one among the first liquid and the second liquid increases.
A docking station (300,402,504), comprising: a wireless transceiver; a plurality of bridges (320,330,332,334,340) configured to convert a data from a first type to a second type; a switch coupled to a plurality of input/output (I/O) controllers; and a processor configured to: determine a link bandwidth between a device and the docking station (300,402,504), and measure a distance between the device and the docking station (300,402,504); wherein the docking station (300,402,504) is configured to automatically establish a wireless connection to the device if: the link bandwidth is greater than or equal to a minimum bandwidth requirement for connecting to the docking station (300,402,504), and the distance between the device and the docking station (300,402,504) is less than or equal to a predetermined distance, characterised in that said predetermined distance is determined by an a priori associated size of a monitor to which the docking station (300,402,504) is connected. a wireless transceiver; a plurality of bridges (320,330,332,334,340) configured to convert a data from a first type to a second type; a switch coupled to a plurality of input/output (I/O) controllers; and a processor configured to: determine a link bandwidth between a device and the docking station (300,402,504), and measure a distance between the device and the docking station (300,402,504); determine a link bandwidth between a device and the docking station (300,402,504), and measure a distance between the device and the docking station (300,402,504); wherein the docking station (300,402,504) is configured to automatically establish a wireless connection to the device if: the link bandwidth is greater than or equal to a minimum bandwidth requirement for connecting to the docking station (300,402,504), and the distance between the device and the docking station (300,402,504) is less than or equal to a predetermined distance, characterised in that said predetermined distance is determined by an a priori associated size of a monitor to which the docking station (300,402,504) is connected. the link bandwidth is greater than or equal to a minimum bandwidth requirement for connecting to the docking station (300,402,504), and the distance between the device and the docking station (300,402,504) is less than or equal to a predetermined distance, characterised in that said predetermined distance is determined by an a priori associated size of a monitor to which the docking station (300,402,504) is connected.
A computer-implemented method for generating a synthetic image of an anatomical portion based on a three-dimensional origin image of the anatomical portion acquired by an imaging device (32, 140) using a first imaging modality, the method comprising: receiving the origin image of the anatomical portion acquired by the imaging device using the first imaging modality; creating a first stack of two-dimensional images from a first plane of the three-dimensional image and a second stack of two-dimensional images from a second plane of the three-dimensional image, wherein: the first plane and second plane are different, the images in the first stack of two-dimensional images correspond to a spatial size of the origin image in the first plane, and the images in the second stack of two-dimensional images correspond to a spatial size of the origin image in the second plane; receiving at least one convolutional neural network model trained for predicting the synthetic image based on the origin image; and converting, by at least one processor, the origin image to the synthetic image by using the at least one convolutional neural network model to generate the synthetic image, the synthetic image resembling a second imaging modality depiction of the anatomical portion, wherein the second imaging modality differs from the first imaging modality, wherein generating the synthetic image comprises: converting the first stack and the second stack of two-dimensional images to a first stack and a second stack of synthetic two-dimensional images using the at least one convolutional neural network model; and determining the synthetic image, wherein determining the synthetic image comprises aggregating the first stack and the second stack of synthetic two-dimensional images. receiving the origin image of the anatomical portion acquired by the imaging device using the first imaging modality; creating a first stack of two-dimensional images from a first plane of the three-dimensional image and a second stack of two-dimensional images from a second plane of the three-dimensional image, wherein: the first plane and second plane are different, the images in the first stack of two-dimensional images correspond to a spatial size of the origin image in the first plane, and the images in the second stack of two-dimensional images correspond to a spatial size of the origin image in the second plane; receiving at least one convolutional neural network model trained for predicting the synthetic image based on the origin image; and converting, by at least one processor, the origin image to the synthetic image by using the at least one convolutional neural network model to generate the synthetic image, the synthetic image resembling a second imaging modality depiction of the anatomical portion, wherein the second imaging modality differs from the first imaging modality, wherein generating the synthetic image comprises: converting the first stack and the second stack of two-dimensional images to a first stack and a second stack of synthetic two-dimensional images using the at least one convolutional neural network model; and
A method of fabricating a complex multi-component module, comprising: fabricating individual submodules (20, 21) each including at least one electronic component (22, 24) with a top surface (34, 36) and component connection pads (26, 28, 30, 32) on the top surface (34, 36), and a first interconnect structure overlying and bonded to the top surface of the at least one electronic component and interconnecting selected ones of the component connection pads, the first interconnect structure including submodule connection pads on an upper surface; and interconnecting the submodules (20, 21) employing a second interconnect structure overlying and bonded to the upper surfaces of the submodules and interconnecting selected ones of the submodule connection pads, characterized in that the first and second interconnect structures (50, 186) are prefabricated flexible structures. fabricating individual submodules (20, 21) each including at least one electronic component (22, 24) with a top surface (34, 36) and component connection pads (26, 28, 30, 32) on the top surface (34, 36), and a first interconnect structure overlying and bonded to the top surface of the at least one electronic component and interconnecting selected ones of the component connection pads, the first interconnect structure including submodule connection pads on an upper surface; and interconnecting the submodules (20, 21) employing a second interconnect structure overlying and bonded to the upper surfaces of the submodules and interconnecting selected ones of the submodule connection pads, characterized in that the first and second interconnect structures (50, 186) are prefabricated flexible structures.
An ion exchange membrane electrolytic cell, comprising an anode chamber and a cathode chamber, a gas-liquid separation chamber is disposed in the anode chamber and/or the cathode chamber, said gas-liquid separation chamber is partially located inside said anode chamber and/or said cathode chamber; wherein a first portion of said gas-liquid separation chamber, which is configured to accommodate liquid, is disposed inside said anode chamber and/or said cathode chamber, and a second portion of said gas-liquid separation chamber, which is configured to accommodate gas, is disposed outside of said anode chamber and/or said cathode chamber; characterized in that said gas-liquid separation chamber includes a top wall, a bottom wall, a side wall and a flat plate; a gas-liquid channel is formed between said flat plate and said side wall; said top wall is disposed outside of said anode chamber and/or said cathode chamber, and said top wall is connected to a base plate (120, 220) of said anode chamber and/or said cathode chamber; and said bottom wall is disposed inside said anode chamber and/or said cathode chamber; and said bottom wall is connected to a bottom end of said side wall.
An integrated circuit comprising: a first processor; a plurality of messaging signal registers, wherein the first processor is configured to write a transmit set of messaging signals into the messaging signal registers; a plurality of GPIO pins; a GPIO interface configured to receive a first set of signals from the first processor and to transmit a portion of the first set of signals as GPIO signals to a remote processor over the plurality of GPIO pins; a dedicated transmit pin; and a finite state machine, FSM, configured to receive a remaining portion of the first set of signals from the GPIO interface and to serially transmit the remaining portion as a transmit set of virtual GPIO signals to the remote processor over the dedicated transmit pin in a first frame including a header configured to identify the first frame as containing virtual GPIO signals, and wherein the FSM is further configured to retrieve the transmit set of messaging signals in a second frame including a header configured to identify the second frame as containing messaging signals to the remote processor over the dedicated transmit pin and wherein the FSM is further configured to transmit over the dedicated transmit pin to the remote processor a third frame having a header that programs a length for the first frame and for the second frame. a first processor; a plurality of messaging signal registers, wherein the first processor is configured to write a transmit set of messaging signals into the messaging signal registers; a plurality of GPIO pins; a GPIO interface configured to receive a first set of signals from the first processor and to transmit a portion of the first set of signals as GPIO signals to a remote processor over the plurality of GPIO pins; a dedicated transmit pin; and a finite state machine, FSM, configured to receive a remaining portion of the first set of signals from the GPIO interface and to serially transmit the remaining portion as a transmit set of virtual GPIO signals to the remote processor over the dedicated transmit pin in a first frame including a header configured to identify the first frame as containing virtual GPIO signals, and wherein the FSM is further configured to retrieve the transmit set of messaging signals in a second frame including a header configured to identify the second frame as containing messaging signals to the remote processor over the dedicated transmit pin and wherein the FSM is further configured to transmit over the dedicated transmit pin to the remote processor a third frame having a header that programs a length for the first frame and for the second frame.
A device for freezing adipose tissue, comprising a first member and a second member mutually coupleable so as to obtain at least one closed configuration of cryopreservation of adipose tissue, said first member comprising at least one manual grip portion and at least one support portion to which the adipose tissue adheres in use, said second member comprising at least one housing in which at least said support portion of said first member can be inserted, wherein said second member comprises at least one safety valve, suitable for activating in case that the difference between the outside pressure and the pressure inside said housing exceeds a predetermined value, wherein said safety valve comprises at least one separable portion of said second member, adapted to be detached, partially or completely, from the body of said second member in the case in which the difference in pressure between the inside and the outside exceeds a predetermined value, and wherein said separable portion is delimited by a breakable zone, characterised in that said second member comprises retention means of said separable portion, once it has detached, and in that the detachment of said separable portion determines the creation of an opening in said second member, a gap being defined between said opening and said separable portion, retained by said retention means, for letting out the gases contained inside said housing