mhurhangee/ep-ind-claims huggingface dataset:
An assembly for deforming metal parts by magnetic pulse, for example by magnetic pulse forming and/or magnetic pulse welding, comprising: - a coil including: ∘ a first and a second branches (21, 22) intended to be connected to a power supply source, said first and second branches (21, 22) extending adjacent to one another so as to define an slot, each first and second branches (21, 22) having a longitudinal face (213, 223) intended to be arranged on the side of the part to be deformed when using the assembly, the first and second branches (21, 22) being connected to one another by a junction zone, ∘ an active part connected to the first and second branches (21, 22), of which a surface, referred to as "active surface ", is intended to be disposed facing a part to be deformed, - a mask, made of one piece, configured to cooperate removably with all or part of the coil, said mask having a shape at least partially complementary to the shape of the coil such that when said mask is in the use position, it is inserted by a first part, into the slot and it covers, by a second part, the active surface of the coil, said mask being made of an electrically insulating material, characterised in that the mask comprises a fourth part at least partially covering the longitudinal faces (213, 223) and a face of the junction zone, when said mask is in the use position. - a coil including: ∘ a first and a second branches (21, 22) intended to be connected to a power supply source, said first and second branches (21, 22) extending adjacent to one another so as to define an slot, each first and second branches (21, 22) having a longitudinal face (213, 223) intended to be arranged on the side of the part to be deformed when using the assembly, the first and second branches (21, 22) being connected to one another by a junction zone, ∘ an active part connected to the first and second branches (21, 22), of which a surface, referred to as "active surface ", is intended to be disposed facing a part to be deformed, ∘ a first and a second branches (21, 22) intended to be connected to a power supply source, said first and second branches (21, 22) extending adjacent to one another so as to define an slot, each first and second branches (21, 22) having a longitudinal face (213, 223) intended to be arranged on the side of the part to be deformed when using the assembly, the first and second branches (21, 22) being connected to one another by a junction zone, ∘ an active part connected to the first and second branches (21, 22), of which a surface, referred to as "active surface ", is intended to be disposed facing a part to be deformed, - a mask, made of one piece, configured to cooperate removably with all or part of the coil, said mask having a shape at least partially complementary to the shape of the coil such that when said mask is in the use position, it is inserted by a first part, into the slot and it covers, by a second part, the active surface of the coil, said mask being made of an electrically insulating material,
A sequence recognition system comprising a prediction component, a classification component, a synchronization component, and an output component; the prediction component being configured to receive a set of observed features from a first frame of a speech signal to be recognized and to output a prediction output indicative of a predicted phoneme label for a second, subsequent frame of the speech signal based on the set of observed features for the first frame and on auxiliary information provided for the prediction component by an output layer or a hidden layer of a deep neural network of the classification component; the classification component being configured to receive the prediction output and a set of observed features for the second frame, to correct the predicted phoneme label for the second frame based on the set of observed features for the second frame, and to output the corrected phoneme label as a classification result; the synchronization component being configured to receive the prediction output from the prediction component, to implement a delay function on the prediction output, wherein the delay function synchronizes the prediction output and the set of observed features for the second frame received by the classification component, and to provide the prediction output to the classification component; and the output component being configured to output a recognition result based on the classification result from the classification component.
Method for producing a composite material with biodegradability properties for making clothing items, comprising the steps of: - providing a first layer of natural material; - subjecting said first layer to a water-repellent treatment; - providing a second layer of biodegradable polymer material; - coupling the first layer, after it has been subjected to the water-repellent treatment, to the second layer, thus obtaining a coupled composite material, wherein said water-repellent treatment is applied at a temperature comprised between 150 and 170°C. - providing a first layer of natural material; - subjecting said first layer to a water-repellent treatment; - providing a second layer of biodegradable polymer material; - coupling the first layer, after it has been subjected to the water-repellent treatment, to the second layer, thus obtaining a coupled composite material, wherein said water-repellent treatment is applied at a temperature comprised between 150 and 170°C.
A method for transmitting signals in a wireless communication system, the method comprising: identifying a frame structure among a plurality of frame structures; and transmitting the signals using the identified frame structure to a terminal, wherein the plurality of frame structure includes a first frame structure and a second frame structure, wherein a subcarrier spacing of the second frame structure is twice as wide as a subcarrier spacing of the first frame structure, and duration of a first transmission time interval, TTI, of the first frame structure is twice as long as duration of a second TTI of the second frame structure, wherein the first TTI and the second TTI each include 14 symbols, wherein each of symbol duration of a first symbol and symbol duration of an eighth symbol in the first TTI is longer than symbol duration of any of symbols in the first TTI, and symbol duration of a first symbol in the second TTI is longer than symbol duration of any of symbols in the second TTI, and wherein the symbol duration of the first symbol in the first TTI equals a sum of the symbol duration of the first symbol and symbol duration of a second symbol in the second TTI such that two symbols in the second TTI are time synchronized with one symbol of the first TTI. identifying a frame structure among a plurality of frame structures; and transmitting the signals using the identified frame structure to a terminal, wherein the plurality of frame structure includes a first frame structure and a second frame structure, wherein a subcarrier spacing of the second frame structure is twice as wide as a subcarrier spacing of the first frame structure, and duration of a first transmission time interval, TTI, of the first frame structure is twice as long as duration of a second TTI of the second frame structure, wherein the first TTI and the second TTI each include 14 symbols, wherein each of symbol duration of a first symbol and symbol duration of an eighth symbol in the first TTI is longer than symbol duration of any of symbols in the first TTI, and symbol duration of a first symbol in the second TTI is longer than symbol duration of any of symbols in the second TTI, and wherein the symbol duration of the first symbol in the first TTI equals a sum of the symbol duration of the first symbol and symbol duration of a second symbol in the second TTI such that two symbols in the second TTI are time synchronized with one symbol of the first TTI.
A wall assembly including one or more corrugated wall panels adapted to form a continuous wall; a floor or ceiling mounting that can be fixed to the floor or ceiling respectively and within which the corrugated wall panels are positioned; and a plurality of securing caps wherein each of said securing caps has a cover portion and one or more legs extending generally perpendicular from a first side of said cover portion, one or more of said legs has one or more resiliently deformable locking protrusions to engage with one of the one or more corrugated wall panels and the floor or ceiling mounting; characterised in that each of the securing caps is positioned in and restricted to a single space formed between adjacent corrugations in the continuous wall and the floor or ceiling mounting, and in that each of the securing caps is positioned with a second side of the cover portion overlapping the floor or ceiling mounting and the first side of the cover portion abutting the continuous wall and supported by the one or more legs to raise the height of the first side of the cover portion so that the cover portion slopes from the first side to the second side of the cover portion, and each of said securing caps is engaged by snap fit arrangement to abut the continuous wall and the floor or ceiling mounting to enclose said single space and facilitate fixing of the continuous wall to the floor or ceiling mounting.
Heating device, in particular gas and/or oil heating device, having at least one control unit (10a; 10b), which is provided to adjust an air ratio to a target air ratio as a function of at least one air ratio characteristic variable and at least one combustion air flow characteristic variable (14a, 16a), having at least one sensor unit (18a; 18b) which is provided to measure the air ratio characteristic variable, having at least one combustion air metering unit (20a; 20b), which is provided to deliver at least a combustion air flow (22a; 22b) at least as a function of an effective combustion air flow characteristic variable, wherein the control unit (10a; 10b) is provided to adjust the air ratio to the target air ratio to determine a virtual combustion air flow characteristic variable, characterized in that the control unit (10a; 10b) is provided to determine a time delay by impressing a temporary change on the combustion air flow and/or the combustion air-fuel mixture flow, in that the control unit (10a; 10b) comprises at least one heating output time delay characteristic curve, which is provided to assign a time delay of the air ratio characteristic variable and a heating output of the heating device to each other, by means of which the control unit (10a; 10b) is provided to determine the heating output, in that the control unit (10a; 10b) comprises a heating output-combustion air flow characteristic variable characteristic wave, which is provided to assign the heating output and the virtual combustion air flow characteristic variable to each other, by means of which the control unit (10a; 10b) is provided to determine the virtual combustion air flow characteristic variable, and in that the control unit (10a; 10b) is provided to determine a deviation of the virtual combustion air flow characteristic variable from the effective combustion air flow characteristic variable and to take it into account during an adjustment of the air ratio to the target air ratio, and in that the control unit (10a; 10b) for adjusting the air ratio to the target air ratio has at least one control characteristic curve, which is formed as an air ratio characteristic variable-combustion air flow characteristic variable characteristic curve that is provided to assign the combustion air flow characteristic variable, in particular the virtual combustion air flow characteristic variable and/or the effective combustion air flow characteristic variable, and the air ratio characteristic variable to each other.
A vacuum sealing drainage device for a bleeding wound tissue, the device comprising: a porous foam pad configured to contact with said the bleeding wound tissue, a drainage piping, a sealing film, a connector, a duct, a drainage container, a vacuum source, a gel membrane, at least one outlet pipe, and a plurality of support members, each of said plurality of support members having a sidewall; wherein said gel membrane is disposed above said porous foam pad; said drainage piping comprise two pipes integrally formed and connected with each other, each pipe of said drainage piping having a cylindrical sidewall and an axis; said drainage piping is disposed above said porous foam pad, and the axis are oriented parallel to a top surface of said porous foam pad; said plurality of support members is hollow and each of said plurality of support members has a plurality of openings disposed on said sidewall; one end of each of said plurality of support members is disposed in said porous foam pad, and said plurality of support members extends vertically with said plurality of openings into the porous foam pad; the other end of each of said plurality of support members is connected to said drainage piping; one end of said outlet pipe is connected to said cylindrical sidewall; said sealing film is disposed on the perimeter of said gel membrane; the other end of said outlet pipe is connected to said connector, and said connector is connected to said drainage container via said duct; said drainage piping is disposed between said porous foam pad and said gel membrane; and said one end of said outlet pipe passes through said gel membrane; and said drainage container is connected to said vacuum source via said duct. said gel membrane is disposed above said porous foam pad; said drainage piping comprise two pipes integrally formed and connected with each other, each pipe of said drainage piping having a cylindrical sidewall and an axis; said drainage piping is disposed above said porous foam pad, and the axis are oriented parallel to a top surface of said porous foam pad; said plurality of support members is hollow and each of said plurality of support members has a plurality of openings disposed on said sidewall; one end of each of said plurality of support members is disposed in said porous foam pad, and said plurality of support members extends vertically with said plurality of openings into the porous foam pad; the other end of each of said plurality of support members is connected to said drainage piping; one end of said outlet pipe is connected to said cylindrical sidewall; said sealing film is disposed on the perimeter of said gel membrane; the other end of said outlet pipe is connected to said connector, and said connector is connected to said drainage container via said duct; said drainage piping is disposed between said porous foam pad and said gel membrane; and said one end of said outlet pipe passes through said gel membrane; and said drainage container is connected to said vacuum source via said duct.
A method of preparing a non-laminated bread, said method comprising combining flour, water, CMC, an enzyme preparation and optionally further bakery ingredients to produce a non-laminated dough, wherein water is employed in an amount of 40-90% by weight of flour, CMC is employed in an amount of 0.1-2% by weight of flour and wherein the enzyme preparation provides 100-600 units of cellulase activity per kg of flour and/or 20-110 units of lipase activity per kg of flour, wherein one LU is the amount of enzyme that releases 1 μmol p-nitrophenol from p-nitrophenyl palmitate under the conditions specified in the description; and baking the dough in an oven at a temperature in excess of 160°C.
A method of manufacturing an aluminum-based fuel tank, comprising: a first step of forming a first panel that forms a space for storing fuel using a sheet of an aluminum-based material; a second step of forming a second panel that forms the space and has a smaller sheet thickness than the first panel using a sheet of an aluminum-based material, the first step comprising a first sub step of forming a first panel main body for storing fuel and a first flange to be combined with the second panel, the second step comprising a first sub step of forming a second panel main body for storing fuel and a second flange to be combined with the first panel; and characterized by: a third step of combining the first and second panels (41,61) with each other so that the first and second flanges (43,63) are opposed and an edge of the second flange has an excess part that projects beyond an edge of the first flange; and a fourth step of welding the edge of the first flange and the edge of the second flange together. a first step of forming a first panel that forms a space for storing fuel using a sheet of an aluminum-based material; a second step of forming a second panel that forms the space and has a smaller sheet thickness than the first panel using a sheet of an aluminum-based material, the first step comprising a first sub step of forming a first panel main body for storing fuel and a first flange to be combined with the second panel, the second step comprising a first sub step of forming a second panel main body for storing fuel and a second flange to be combined with the first panel; and characterized by: a third step of combining the first and second panels (41,61) with each other so that the first and second flanges (43,63) are opposed and an edge of the second flange has an excess part that projects beyond an edge of the first flange; and a third step of combining the first and second panels (41,61) with each other so that the first and second flanges (43,63) are opposed and an edge of the second flange has an excess part that projects beyond an edge of the first flange; and a fourth step of welding the edge of the first flange and the edge of the second flange together.
A negative pressure pump system comprising: a pump assembly comprising: an actuator; and a diaphragm; and a controller configured to control operation of the pump system, the controller further configured to: calculate at least one of an amplitude and an offset for a drive signal based at least in part on previously calculated parameters and a negative pressure setting wherein the previously calculated parameters comprise a plurality of calibrated amplitudes at a plurality of negative pressure settings; generate the drive signal with the at least one calculated amplitude and offset; and apply the drive signal to the pump system, thereby causing delivery of negative pressure wound therapy characterized in that the previously calculated parameters comprise a plurality of calibrated offsets at a plurality of negative pressure settings. a pump assembly comprising: an actuator; and a diaphragm; and an actuator; and a diaphragm; and a controller configured to control operation of the pump system, the controller further configured to: calculate at least one of an amplitude and an offset for a drive signal based at least in part on previously calculated parameters and a negative pressure setting wherein the previously calculated parameters comprise a plurality of calibrated amplitudes at a plurality of negative pressure settings; generate the drive signal with the at least one calculated amplitude and offset; and apply the drive signal to the pump system, thereby causing delivery of negative pressure wound therapy calculate at least one of an amplitude and an offset for a drive signal based at least in part on previously calculated parameters and a negative pressure setting wherein the previously calculated parameters comprise a plurality of calibrated amplitudes at a plurality of negative pressure settings; generate the drive signal with the at least one calculated amplitude and offset; and apply the drive signal to the pump system, thereby causing delivery of negative pressure wound therapy characterized in that the previously calculated parameters comprise a plurality of calibrated offsets at a plurality of negative pressure settings.
Tool for chip removing machining, comprising a blade and a replaceable cutting insert for grooving or parting, which is mounted in a seat, which is located in an end of the blade and delimited between a bottom support and an elastically resilient clamping finger, the cutting insert comprising a front side, a back side, two side surfaces, an under side, and an upper side, in which there is included a rake surface, which is situated closest to the front side, as well as an application surface, which is positioned behind the same and against which the clamping finger is pressed, the clamping finger comprising a flushing channel, which opens toward the cutting insert, in order to spray a cooling medium toward the rake surface and a main cutting edge, which is formed between the rake surface and the front side of the cutting insert, characterized in that a front nose of the clamping finger is facing a shoulder, which is formed between the rake surface and the application surface and has the purpose of protecting the nose from chips, the shoulder of the cutting insert comprising two projections, which are mutually separated by a central notch via which cooling medium can pass from the flushing channel toward the rake surface and the main cutting edge, in that the projections form the highest point of the cutting insert in the mounted state.
A method for providing forward error correction for a multi-channel audio signal, the method comprising: buffering blocks of an audio stream into a frame of audio, the audio stream comprising a plurality of audio channels; applying a transformation to each block of the frame of audio, the transformation compacting the energy of each block into a plurality of transformed channels, the first transformed channel for each block containing the most energy and subsequent transformed channels containing decreasing amounts of energy; encoding the transformed frame; transmitting, over a network, the encoded frame in a packet; encoding the first transformed channel of the transformed frame at a lower bit rate than the encoding used for the transmitted packet; and transmitting, over the network, the lower bit rate-encoded channel in a packet that is subsequent to the transmitted packet, the method further comprising: encoding a subset of the plurality of transformed channels, the subset comprising the first n transformed channels of the transformed frame at the lower bit rate, wherein n is less than the total number of transformed channels; and transmitting, over the network, the lower bit rate-encoded subset of transformed channels in the subsequent packet. buffering blocks of an audio stream into a frame of audio, the audio stream comprising a plurality of audio channels; applying a transformation to each block of the frame of audio, the transformation compacting the energy of each block into a plurality of transformed channels, the first transformed channel for each block containing the most energy and subsequent transformed channels containing decreasing amounts of energy; encoding the transformed frame; transmitting, over a network, the encoded frame in a packet; encoding the first transformed channel of the transformed frame at a lower bit rate than the encoding used for the transmitted packet; and transmitting, over the network, the lower bit rate-encoded channel in a packet that is subsequent to the transmitted packet, encoding a subset of the plurality of transformed channels, the subset comprising the first n transformed channels of the transformed frame at the lower bit rate, wherein n is less than the total number of transformed channels; and transmitting, over the network, the lower bit rate-encoded subset of transformed channels in the subsequent packet.