mhurhangee/ep-ind-claims huggingface dataset:
Tap for delivering liquids from a container, comprising: - a supporting body comprising at an end thereof fitting means (4.8) with the container, said supporting body further comprising a first opening (4.5) for making liquid go out, and connecting means (4.7) adapted to be connected to connecting means present on a connector; - a central pin fixedly connected to a central geometry (4.10) of the supporting body and comprising at an end thereof a fastening geometry (3.1) and at an opposite end an abutment geometry (3.3) for opening the connector when it is connected to the tap; characterized in that said tap is completely made of plastic material, and further comprises: - a membrane-type elastic sealing valve connected to the fastening geometry (3.1) of the central pin, adapted to allow automatically closing the tap and to perform an operating sealing of the same with the supporting body; - a control member connected to the elastic valve for opening and closing the tap, said control member being adapted to be actuated through a thrust of the connector on end geometries (5.2) with which the control member is equipped, to open the tap transmitting a force to the valve connected to the control member. - a supporting body comprising at an end thereof fitting means (4.8) with the container, said supporting body further comprising a first opening (4.5) for making liquid go out, and connecting means (4.7) adapted to be connected to connecting means present on a connector; - a central pin fixedly connected to a central geometry (4.10) of the supporting body and comprising at an end thereof a fastening geometry (3.1) and at an opposite end an abutment geometry (3.3) for opening the connector when it is connected to the tap; - a membrane-type elastic sealing valve connected to the fastening geometry (3.1) of the central pin, adapted to allow automatically closing the tap and to perform an operating sealing of the same with the supporting body; - a control member connected to the elastic valve for opening and closing the tap, said control member being adapted to be actuated through a thrust of the connector on end geometries (5.2) with which the control member is equipped, to open the tap transmitting a force to the valve connected to the control member.
A fuel rail for a gasoline direct-injection engine and at least one branch pipe, the fuel rail comprising a main pipe provided with a branch connector (2, 12), the main pipe being formed of a steel or stainless steel pipe, the branch connector (2, 12) having a pressure receiving seat surface (2-2, 12-2) opened outward to connect the at least one branch pipe, whereby the branch connector (2, 12) is attached to the main pipe through a recessed connection member (3, 13) having a communicating hole (2-1, 3-1, 12-1, 13-1) which communicates with a through-hole formed in the main pipe, the recessed connection member (3, 13) is secured to the main pipe by brazing or welding, a lower end portion of the branch connector (2, 12) is recess-projection fitted to the recessed connection member (3, 13) and is detachably fastened thereto by a thread fastening mechanism, being characterized in that: an O-ring (4, 14), which is provided between the recessed connection member (3, 13) and the branch connector (2, 12), is tightened by an axial force created by fastening of the branch connector (2, 12) to thereby create a seal between the recessed connection member (3, 13) and the branch connector (2, 12); and a hardness of the branch connector (2, 12) is set to be lower than that of the branch pipe facing the branch connector (2, 12). an O-ring (4, 14), which is provided between the recessed connection member (3, 13) and the branch connector (2, 12), is tightened by an axial force created by fastening of the branch connector (2, 12) to thereby create a seal between the recessed connection member (3, 13) and the branch connector (2, 12); and a hardness of the branch connector (2, 12) is set to be lower than that of the branch pipe facing the branch connector (2, 12).
Binding for a boot (2a, 2b) on a snowsports board, comprising: - a retaining device (11, 11u, 11v, 11w) supporting an upper stop surface that is able to be in contact with at least one upper surface of a front portion of the boot (2a, 2b), - a lower stop surface that is able to be in contact with at least one portion of the sole of the boot (2a, 2b), the lower stop surface being connected to the retaining device (11, 11u, 11v, 11w) so as to define an engagement height of the boot (2a, 2b) corresponding to the difference in height between the upper stop surface and the lower stop surface, - a rigid raising wedge (131, 132, 133, 135a, 135b, 136a, 136b, 137a, 137b) having at least locally an insert portion having a predetermined adjustment height (e1, e2, e3, e4, e135, e136, e137), the raising wedge (131, 132, 133) being arranged, with respect to the retaining device (11, 11u, 11v, 11w) and the lower stop surface, such that the adjustment height (e1, e2, e3, e4, e135, e136, e137) of the raising wedge makes it possible to adjust the engagement height, characterized in that the raising wedge (131, 132, 133, 135a, 135b, 136a, 136b, 137a, 137b) is secured directly to the retaining device (11, 11u, 11v, 11w) so as to modify the vertical position of the upper stop surface. - a retaining device (11, 11u, 11v, 11w) supporting an upper stop surface that is able to be in contact with at least one upper surface of a front portion of the boot (2a, 2b), - a lower stop surface that is able to be in contact with at least one portion of the sole of the boot (2a, 2b), the lower stop surface being connected to the retaining device (11, 11u, 11v, 11w) so as to define an engagement height of the boot (2a, 2b) corresponding to the difference in height between the upper stop surface and the lower stop surface, - a rigid raising wedge (131, 132, 133, 135a, 135b, 136a, 136b, 137a, 137b) having at least locally an insert portion having a predetermined adjustment height (e1, e2, e3, e4, e135, e136, e137), the raising wedge (131, 132, 133) being arranged, with respect to the retaining device (11, 11u, 11v, 11w) and the lower stop surface, such that the adjustment height (e1, e2, e3, e4, e135, e136, e137) of the raising wedge makes it possible to adjust the engagement height,
An electrosurgical dissection apparatus, comprising: a thermally insulating body; a thermally conductive insert; at least one active electrode disposed on the thermally conductive insert; at least one return electrode, the at least one return electrode spaced from the at least one active electrode by a portion of the thermally insulating body; characterized in that the thermally conductive insert is configured to cauterize tissue dissected by radiofrequency energy passing from the at least one active electrode to the at least one return electrode, and wherein thermal energy generated as a result of the radiofrequency energy passing between the active and return electrodes (122, 124) during tissue dissection is stored in the thermally conductive insert for radiation to surrounding tissue for tissue cauterization, and wherein the thermally conductive insert is made of an electrically insulative material. a thermally insulating body; a thermally conductive insert; at least one active electrode disposed on the thermally conductive insert; at least one return electrode, the at least one return electrode spaced from the at least one active electrode by a portion of the thermally insulating body;
A composition comprising a mixture of molecules of Formula {R[CH(CH 3)CH 2 O)] b [CH 2 -CH 2 O] a} m P(=O)(O - X +) n wherein R is selected from linear or branched -C 1 -C 30 alkyl or alkenyl; a = 0-50, b = 0-30, and a+b > 0; X + is CH 3 -(CH 2) c -C NH(CH 2) d N + HR 2 R 3, wherein c = 0 to 30, d = 1 to 5, and R 2 and R 3 are independently selected from -CH 2 CH 2 OH and linear or branched -C 1 -C 5 alkyl; m and n are each equal to 1 or 2, such that when m = 1 then n = 2, and when m = 2 then n = 1; and in the mixture some of the molecules have m = 1 and n = 2 and some of the molecules have m = 2 and n = 1. R is selected from linear or branched -C 1 -C 30 alkyl or alkenyl; a = 0-50, b = 0-30, and a+b > 0; X + is CH 3 -(CH 2) c -C NH(CH 2) d N + HR 2 R 3, wherein c = 0 to 30, d = 1 to 5, and R 2 and R 3 are independently selected from -CH 2 CH 2 OH and linear or branched -C 1 -C 5 alkyl; m and n are each equal to 1 or 2, such that when m = 1 then n = 2, and when m = 2 then n = 1; and in the mixture some of the molecules have m = 1 and n = 2 and some of the molecules have m = 2 and n = 1.
A method in an audio encoder for quantization of parameters relating to parametric spatial coding of audio signals, comprising: receiving at least a first parameter and a second parameter to be quantized; quantizing the first parameter based on a first scalar quantization scheme having non-uniform step-sizes to obtain a quantized first parameter, wherein the non-uniform step-sizes are selected such that smaller step-sizes are used for ranges of the first parameter where the human sound perception is most sensitive, and larger step-sizes are used for ranges of the first parameter where the human sound perception is less sensitive; dequantizing the quantized first parameter using the first scalar quantization scheme to obtain a dequantized first parameter being an approximation of the first parameter; accessing a scaling function which maps values of the dequantized first parameter on scaling factors which increase with the step-sizes corresponding to the values of the dequantized first parameter, and determining a scaling factor by subjecting the dequantized first parameter to the scaling function; and quantizing the second parameter based on the scaling factor and a second scalar quantization scheme having non-uniform step-sizes to obtain a quantized second parameter. receiving at least a first parameter and a second parameter to be quantized; quantizing the first parameter based on a first scalar quantization scheme having non-uniform step-sizes to obtain a quantized first parameter, wherein the non-uniform step-sizes are selected such that smaller step-sizes are used for ranges of the first parameter where the human sound perception is most sensitive, and larger step-sizes are used for ranges of the first parameter where the human sound perception is less sensitive; dequantizing the quantized first parameter using the first scalar quantization scheme to obtain a dequantized first parameter being an approximation of the first parameter; accessing a scaling function which maps values of the dequantized first parameter on scaling factors which increase with the step-sizes corresponding to the values of the dequantized first parameter, and determining a scaling factor by subjecting the dequantized first parameter to the scaling function; and quantizing the second parameter based on the scaling factor and a second scalar quantization scheme having non-uniform step-sizes to obtain a quantized second parameter.
An occupant protection device for a vehicle, the occupant protection device comprising: a side collision prediction device configured to predict a collision with a side of a host vehicle and output a prediction result including determination about whether or not the predicted collision is an inevitable collision; a physical quantity detection device configured to detect a physical quantity related to the collision with the side of the host vehicle and output a detection value of the physical quantity; an airbag device configured to expand to protect an occupant of the vehicle when the airbag device is operated; and an electronic control unit configured to in a case where the detection value of the physical quantity exceeds a first threshold, perform first control for operating the airbag device, and characterised in that the electronic control unit is configured to, in a case where the detection value of the physical quantity exceeds a second threshold for a predetermined time from when the side collision prediction device determines that the collision is an inevitable collision, perform second control for operating the airbag device, the second threshold being a value smaller than the first threshold. a side collision prediction device configured to predict a collision with a side of a host vehicle and output a prediction result including determination about whether or not the predicted collision is an inevitable collision; a physical quantity detection device configured to detect a physical quantity related to the collision with the side of the host vehicle and output a detection value of the physical quantity; an airbag device configured to expand to protect an occupant of the vehicle when the airbag device is operated; and an electronic control unit configured to in a case where the detection value of the physical quantity exceeds a first threshold, perform first control for operating the airbag device, and characterised in that the electronic control unit is configured to, in a case where the detection value of the physical quantity exceeds a second threshold for a predetermined time from when the side collision prediction device determines that the collision is an inevitable collision, perform second control for operating the airbag device, the second threshold being a value smaller than the first threshold.
A pneumatic radiation unit comprising: a first chamber (1, 21), through which air-conditioning air flows; and a second chamber (2,22) configured to take in the air-conditioning air from the first chamber (1, 21) and discharge the air-conditioning air and radiate heat to a space to be air conditioned, wherein the first chamber (1, 21) includes a first air discharger (4, 24) that is in contact with the second chamber (2, 22) and configured to discharge the air-conditioning air to the second chamber (2, 22), the second chamber (2, 22) includes: a second air discharger (5, 25) that is in contact with the space to be air conditioned and configured to discharge the air-conditioning air to the space to be air conditioned; characterized by a heat storage unit (6, 26) including plates (10, 30) that store and radiate heat of the air-conditioning air and that are arranged to be spaced apart from each other such that gaps are formed between the plates (10, 30), the gaps extending in a direction in which the air-conditioning air that has passed through the first air discharger (4, 24) flows, and a second aperture ratio of the second air discharger (5, 25) is set to 70 to 80%, and a first aperture ratio of the first air discharger (4, 24) is set to 40 to 60%. a first chamber (1, 21), through which air-conditioning air flows; and a second chamber (2,22) configured to take in the air-conditioning air from the first chamber (1, 21) and discharge the air-conditioning air and radiate heat to a space to be air conditioned, wherein the first chamber (1, 21) includes a first air discharger (4, 24) that is in contact with the second chamber (2, 22) and configured to discharge the air-conditioning air to the second chamber (2, 22), the second chamber (2, 22) includes: a second air discharger (5, 25) that is in contact with the space to be air conditioned and configured to discharge the air-conditioning air to the space to be air conditioned; characterized by a heat storage unit (6, 26) including plates (10, 30) that store and radiate heat of the air-conditioning air and that are arranged to be spaced apart from each other such that gaps are formed between the plates (10, 30), the gaps extending in a direction in which the air-conditioning air that has passed through the first air discharger (4, 24) flows, and a second air discharger (5, 25) that is in contact with the space to be air conditioned and configured to discharge the air-conditioning air to the space to be air conditioned; characterized by a heat storage unit (6, 26) including plates (10, 30) that store and radiate heat of the air-conditioning air and that are arranged to be spaced apart from each other such that gaps are formed between the plates (10, 30), the gaps extending in a direction in which the air-conditioning air that has passed through the first air discharger (4, 24) flows, and a second aperture ratio of the second air discharger (5, 25) is set to 70 to 80%, and a first aperture ratio of the first air discharger (4, 24) is set to 40 to 60%.
A method of wireless communication, comprising: identifying a frame configuration, the frame configuration being configured with a first transmission time interval, TTI, that has a first TTI duration and a second TTI that has a second TTI duration greater than the first TTI duration; determining a first demodulation reference signal, DMRS, pattern for resources of the first TTI, wherein the first DMRS pattern is based at least in part on a second DMRS pattern for resources of the second TTI, wherein the first DMRS pattern uses a first set of antenna ports; and communicating using resources of the first TTI based at least in part on the first DMRS pattern, wherein the first DMRS pattern is configured with a division multiplexing scheme from a plurality of different types of multiplexing schemes based at least in part on a transmission rank. identifying a frame configuration, the frame configuration being configured with a first transmission time interval, TTI, that has a first TTI duration and a second TTI that has a second TTI duration greater than the first TTI duration; determining a first demodulation reference signal, DMRS, pattern for resources of the first TTI, wherein the first DMRS pattern is based at least in part on a second DMRS pattern for resources of the second TTI, wherein the first DMRS pattern uses a first set of antenna ports; and communicating using resources of the first TTI based at least in part on the first DMRS pattern, wherein the first DMRS pattern is configured with a division multiplexing scheme from a plurality of different types of multiplexing schemes based at least in part on a transmission rank.
A tire vulcanization system for regulating a temperature of a heating medium, the system comprising a bladder disposed within a tire (P ') to be vulcanized and defining a cavity wherein the heating medium circulates, with a fan and a heater being immersed in the heating medium and the heater having one or more heating elements which supply energy to the heating medium before the heating medium exits the bladder along an output path, and with a shaft being concentric with an axis X-X' of the cavity, and with a controllable motor (130, 131) driving the shaft; characterized in that guidance protection means (140, 150, 160, 170) are positioned in a central portion of the system at or near a center of the bladder and below the fan and the heater so that, as the heating medium is introduced into the cavity, the fan agitates the heating medium radially outwardly in the direction of the bladder and directs the heating medium toward exits that are positioned obliquely relative to a support that carries the fan.
A sanitary fitting with a hollow cylindrical fitting housing, in which is arranged a cartridge insert, which fluidically connects a mixing cartridge with a flexible mixed water hose, the cartridge insert having a mixed water connection to which the flexible mixed water hose is attached in a fluid-tight manner, wherein for forming the mixed water connection, the flexible mixed water hose transitions on the connection side into a sleeve-like cartridge insert receptacle, and wherein the sleeve-like cartridge insert receptacle engages around the cartridge insert in a fluid-tight manner, and wherein a passage is formed in the sleeve wall of the sleeve-like cartridge insert receptacle, via which passage the mixed water flows from the cartridge insert into the flexible mixed water hose, wherein a water outlet is formed on the fitting housing, through which water outlet the flexible mixed water hose is loosely guided, and a mousseur unit is mounted on an outlet opening of the water outlet, and wherein the mousseur unit is connected in a fluid-tight manner to a hose outlet of the flexible mixed water hose, wherein at its hose outlet, the flexible mixed water hose transitions, in particular integrally and/or as a single piece, into a sleeve-like mousseur receptacle, wherein in particular the sleeve-like mousseur receptacle can be plug-in-connected, in a fluid-tight manner, to a connection pipe of the mousseur unit, wherein the mousseur unit is configured in two parts, namely a mousseur and a mounting ring, wherein the mounting ring is screwed, with a male thread thereof, into the outlet opening of the water outlet, characterized in that the flexible mixed water hose opens by its hose outlet into a sleeve wall of the sleeve-like mousseur receptacle, forming an inside corner area which is spread out between the flexible mixed water hose and the sleeve wall of the sleeve-like mousseur receptacle, and that the sleeve-like mousseur receptacle is pushed into the connection pipe of the mousseur unit in a fluid-tight manner, that the mounting ring has a female thread, into which female thread the mousseur is screwed, and that in particular the mounting ring has a diameter-sized ring section, in which both the female thread and the male thread are formed, and a diametrically smaller ring section, which forms the connection pipe that is plug-in-connected to the sleeve-like mousseur receptacle.