mhurhangee/ep-ind-claims huggingface dataset:
A bone conduction transducer comprising: a yoke (458, 500, 602) comprising a pair of arms (504, 621, 623) wherein a first arm is located at a first end of the yoke (458, 500, 602) and a second arm is located at a second end of the yoke (458, 500, 602); a metal coil (452, 604) located between the pair of arms (504, 621, 623); a pair of springs (610, 611) each comprising a first end and second end, wherein the first end of each spring (610, 611) is attached to a respective one of the arms (504, 621, 623) of the yoke (458, 500, 602); a diaphragm (466, 622) coupled to the second end of each spring (610, 611), wherein the diaphragm (466, 622) is configured to vibrate in response to a signal supplied to the metal coil (452, 604); a metallic post (456, 606) that extends into a center portion of the metal coil (452, 604), wherein the metallic post (456, 606) comprises a high magnetic permeability steel; and a pair of permanent magnets (454, 608), characterized in that the pair of permanent magnets (454, 608) is coupled to the diaphragm (466, 622) on opposite sides of the metallic post (456, 606); and the metallic post (456, 606) is coupled to the diaphragm (466, 622). a yoke (458, 500, 602) comprising a pair of arms (504, 621, 623) wherein a first arm is located at a first end of the yoke (458, 500, 602) and a second arm is located at a second end of the yoke (458, 500, 602); a metal coil (452, 604) located between the pair of arms (504, 621, 623); a pair of springs (610, 611) each comprising a first end and second end, wherein the first end of each spring (610, 611) is attached to a respective one of the arms (504, 621, 623) of the yoke (458, 500, 602); a diaphragm (466, 622) coupled to the second end of each spring (610, 611), wherein the diaphragm (466, 622) is configured to vibrate in response to a signal supplied to the metal coil (452, 604); a metallic post (456, 606) that extends into a center portion of the metal coil (452, 604), wherein the metallic post (456, 606) comprises a high magnetic permeability steel; and a pair of permanent magnets (454, 608), characterized in that the pair of permanent magnets (454, 608) is coupled to the diaphragm (466, 622) on opposite sides of the metallic post (456, 606); and the metallic post (456, 606) is coupled to the diaphragm (466, 622).
A disk brake for a utility vehicle, having a brake calliper that straddles a brake disc and is held such that it can be moved axially in relation to the brake disc on two guide bars that are connected to the brake carrier on a fixed brake carrier, the guide bars each being mounted in a sliding bearing that is held such that it cannot be moved in a bore in the brake calliper, characterised in that at least one of the sliding bearings consists of at least two metal sleeves (9, 10), which are arranged a certain distance from one another in the axial direction and abut the guide bar, and at least one spacer sleeve, which is positioned between the two metal sleeves (9, 10), the front faces of these metal sleeves (9, 10) abutting the spacer sleeve.
A method of producing a composition containing a monoglyceride using a tall fatty acid as a constituent fatty acid, the method comprising the following steps and: subjecting glycerin and the tall fatty acid to an esterification reaction in such a manner that a ratio of the number of moles of a fatty acid group to the number of moles of a glycerin group, [FA/GLY], falls within a range of from 0.1 to 2.0, and followed by recovery of unreacted glycerin; and subjecting glycerin including the glycerin recovered in the step and the tall fatty acid to the esterification reaction to obtain a monoglyceride-containing composition having cloud point decreased by 0.3°C or more with respect to the cloud point of the reaction product after the esterification reaction obtained in the step. subjecting glycerin and the tall fatty acid to an esterification reaction in such a manner that a ratio of the number of moles of a fatty acid group to the number of moles of a glycerin group, [FA/GLY], falls within a range of from 0.1 to 2.0, and followed by recovery of unreacted glycerin; and subjecting glycerin including the glycerin recovered in the step and the tall fatty acid to the esterification reaction to obtain a monoglyceride-containing composition having cloud point decreased by 0.3°C or more with respect to the cloud point of the reaction product after the esterification reaction obtained in the step.
An edge launch RF signal connector, comprising: a connector body having a support aperture, and one or more interface surfaces (124a-e) operable to interface with an edge launch connector support portion of a first circuit board; a plurality of ground contact pins (126a-e) supported by the connector body and arrayed about the support aperture of the connector body, each ground contact pin comprising a contact tip and a compliant device operable to facilitate axial movement of the ground contact tip relative to the connector body; and a signal pin supported within the central support aperture of the connector body, the signal pin comprising a contact tip and a compliant device operable to facilitate axial movement of the contact tip, wherein, in response to the edge launch RF signal connector engaging a second circuit board, the plurality of ground contact pins (126a-e) are operable to interface with at least one ground contact pad (142a-e) of the second circuit board, and the signal pin is operable to interface with a signal contact pad of the second circuit board; characterised in that the plurality of ground contact pins (126a-e) are arrayed in a circle around the signal pin. a connector body having a support aperture, and one or more interface surfaces (124a-e) operable to interface with an edge launch connector support portion of a first circuit board; a plurality of ground contact pins (126a-e) supported by the connector body and arrayed about the support aperture of the connector body, each ground contact pin comprising a contact tip and a compliant device operable to facilitate axial movement of the ground contact tip relative to the connector body; and a signal pin supported within the central support aperture of the connector body, the signal pin comprising a contact tip and a compliant device operable to facilitate axial movement of the contact tip, wherein, in response to the edge launch RF signal connector engaging a second circuit board, the plurality of ground contact pins (126a-e) are operable to interface with at least one ground contact pad (142a-e) of the second circuit board, and the signal pin is operable to interface with a signal contact pad of the second circuit board; characterised in that the plurality of ground contact pins (126a-e) are arrayed in a circle around the signal pin.
A base unit for use as part of a breathing circuit which delivers heated, humidified gases to a patient for medical purposes, said base unit including: a heater plate adapted to allow a humidifier chamber to, in use, be located on said heater plate so that said heater plate heats a quantity of water in said humidifier chamber and gases flowing through said humidifier chamber become heated and humidified; and a control system configured to adjust one or more output parameters of said breathing circuit, characterized in that: said control system includes an RFID interrogator configured to interrogate and receive data from at least one RFID tag in real time, said RFID tag data relating to: at least one sensed parameter of gases flowing through the breathing circuit, and an identity of at least one component in said breathing circuit comprising a said RFID tag, wherein one or more output parameters of said breathing circuit are adjustable by said control system according to said received RFID tag data. a heater plate adapted to allow a humidifier chamber to, in use, be located on said heater plate so that said heater plate heats a quantity of water in said humidifier chamber and gases flowing through said humidifier chamber become heated and humidified; and a control system configured to adjust one or more output parameters of said breathing circuit, characterized in that: said control system includes an RFID interrogator configured to interrogate and receive data from at least one RFID tag in real time, said RFID tag data relating to: at least one sensed parameter of gases flowing through the breathing circuit, and an identity of at least one component in said breathing circuit comprising a said RFID tag, wherein one or more output parameters of said breathing circuit are adjustable by said control system according to said received RFID tag data. said control system includes an RFID interrogator configured to interrogate and receive data from at least one RFID tag in real time, said RFID tag data relating to: at least one sensed parameter of gases flowing through the breathing circuit, and an identity of at least one component in said breathing circuit comprising a said RFID tag, at least one sensed parameter of gases flowing through the breathing circuit, and an identity of at least one component in said breathing circuit comprising a said RFID tag, wherein one or more output parameters of said breathing circuit are adjustable by said control system according to said received RFID tag data.
An apparatus comprising: physical layer logic to: receive a clock signal on a strobe lane of a physical link, wherein the physical link comprises a plurality of lanes; receive data on one or more data lanes included in the plurality of lanes of the physical link, wherein the data comprises a first portion compatible with a first one of a plurality of different protocols and a second portion compatible with a second one of the plurality of different protocols; receive a valid signal on another of the lanes of the physical link, wherein the valid signal is to identify that valid data is to follow assertion of the valid signal on the one or more data lanes; and receive a stream signal on another of the lanes of the physical link, wherein the stream signal is to identify which of the plurality of different protocols applies to data sent on the one or more data lanes corresponding to the valid signal. physical layer logic to: receive a clock signal on a strobe lane of a physical link, wherein the physical link comprises a plurality of lanes; receive data on one or more data lanes included in the plurality of lanes of the physical link, wherein the data comprises a first portion compatible with a first one of a plurality of different protocols and a second portion compatible with a second one of the plurality of different protocols; receive a valid signal on another of the lanes of the physical link, wherein the valid signal is to identify that valid data is to follow assertion of the valid signal on the one or more data lanes; and receive a stream signal on another of the lanes of the physical link, wherein the stream signal is to identify which of the plurality of different protocols applies to data sent on the one or more data lanes corresponding to the valid signal. receive a valid signal on another of the lanes of the physical link, wherein the valid signal is to identify that valid data is to follow assertion of the valid signal on the one or more data lanes; and receive a stream signal on another of the lanes of the physical link, wherein the stream signal is to identify which of the plurality of different protocols applies to data sent on the one or more data lanes corresponding to the valid signal.
Communication method for transmitting useful data between a first road user, at least one second road user and a central communication device, characterized in that the first road user provides a data packet and transmits it to the central communication device, wherein the data packet is associated with a changing key that is transmitted together with the data packet, in that the first road user transmits an identifier together with the key to the second road user, and in that the second road user requests from the central communication device, using the key, the data packet associated with the latter and assigns it to the first road user.
A curing device for components coated with a curable paint, comprising at least one radiation source, at least one reflector member surrounding the radiation source, at least two divided dichroic mirror members opposite to the radiation source, which largely transmit the VIS & IR content of the radiation source and keep it away from a processing zone and at the same time reflect the UV content of the radiation source in the direction of a processing zone, at least one optical disk member that separates the cooling gas flow in the exposure device from the processing zone, characterized in that the at least two dichroic mirror members are arranged in such a manner: - that they are separate from one another and offset from one another in the direction of the main beam - and are displaced parallel to the main beam and thus opaque to the main beam, - so that cooling gas can flow out through the openings created, but intensity loss of the UV radiation does not occur. - that they are separate from one another and offset from one another in the direction of the main beam - and are displaced parallel to the main beam and thus opaque to the main beam, - so that cooling gas can flow out through the openings created, but intensity loss of the UV radiation does not occur.
A system (100, 300) for delivering nitric oxide to a patient, comprising: a first gas source including nitrogen dioxide mixed in air or oxygen; a second gas source (106, 306) supplying compressed air; a ventilator coupled to the first and second gas sources, one or more conversion devices (110, 112, 308) operably coupled to the ventilator, wherein a first conversion device converts nitrogen dioxide into nitric oxide; and a patient interface operably coupled to the conversion devices, wherein the patient interface is capable of delivering nitric oxide to the patient, characterised in that the ventilator includes a mixing valve which is connected to both the first gas source and the second gas source, wherein the mixing valve is resistant to NO 2 gas. a first gas source including nitrogen dioxide mixed in air or oxygen; a second gas source (106, 306) supplying compressed air; a ventilator coupled to the first and second gas sources, one or more conversion devices (110, 112, 308) operably coupled to the ventilator, wherein a first conversion device converts nitrogen dioxide into nitric oxide; and a patient interface operably coupled to the conversion devices, wherein the patient interface is capable of delivering nitric oxide to the patient, characterised in that the ventilator includes a mixing valve which is connected to both the first gas source and the second gas source, wherein the mixing valve is resistant to NO 2 gas.
A method performed by a communication device, the method comprising: identifying a long transmission time interval, TTI, transport block size from a set of long TTI transport block sizes used for transport block transmission within a long TTI; and determining a short TTI transport block size, used for transport block transmission within a short TTI, by downscaling the long TTI transport block size based on a relation between a number of symbols in the short TTI and a number of symbols in the long TTI that is greater than the number of symbols in the short TTI; characterized in that the downscaling of the long TTI transport block size is further based on a number of bits used for a cyclic redundancy check. identifying a long transmission time interval, TTI, transport block size from a set of long TTI transport block sizes used for transport block transmission within a long TTI; and determining a short TTI transport block size, used for transport block transmission within a short TTI, by downscaling the long TTI transport block size based on a relation between a number of symbols in the short TTI and a number of symbols in the long TTI that is greater than the number of symbols in the short TTI;
A semiconductor chip, comprising: a substrate; an epitaxial laser structure on said substrate, said epitaxial laser structure including a grating layer; a periodic grating formed in said grating layer; at least first and second independent distributed feedback laser cavities (10; 12; 56; 58) formed in said epitaxial structure; said first distributed feedback laser cavity (10; 56) having a first etched facet (18; 64) defining a first end of said first distributed feedback laser cavity (10; 56) and forming a first phase with said grating; and said second distributed feedback laser laser cavity (12; 58) having a first etched facet (20; 66) defining a first end of said second distributed feedback laser cavity (12; 58) and forming a second phase with said grating, said second phase being different than the first phase.; wherein said first and second laser cavities (10; 12; 56; 58) each has a length, characterized in that the length of said first laser cavity (10; 56) is different from the length of said second laser cavity (12; 58). a substrate; an epitaxial laser structure on said substrate, said epitaxial laser structure including a grating layer; a periodic grating formed in said grating layer; at least first and second independent distributed feedback laser cavities (10; 12; 56; 58) formed in said epitaxial structure; said first distributed feedback laser cavity (10; 56) having a first etched facet (18; 64) defining a first end of said first distributed feedback laser cavity (10; 56) and forming a first phase with said grating; and said second distributed feedback laser laser cavity (12; 58) having a first etched facet (20; 66) defining a first end of said second distributed feedback laser cavity (12; 58) and forming a second phase with said grating, said second phase being different than the first phase.; wherein said first and second laser cavities (10; 12; 56; 58) each has a length, characterized in that the length of said first laser cavity (10; 56) is different from the length of said second laser cavity (12; 58).
A positive electrode active material for solid-state batteries, wherein the positive electrode active material comprises Li, M', and oxygen, wherein M' comprises: - Ni in a content x between 50.0 mol% and 75.0 mol%, relative to M'; - Co in a content y between 0.0 mol% and 40.0 mol%, relative to M'; - Mn in a content z between 0.0 mol% and 40.0 mol%, relative to M', - D in a content a between 0.0 mol% and 2.0 mol%, relative to M', wherein D comprises at least one element of the group consisting of: Al, B, Ba, Ca, Cr, Fe, Mg, Mo, Nb, S, Si, Sr, Ti, Y, V, W, and Zn, and, - Zr in a content b between 0.1 mol% and 5.0 mol%, relative to M', - wherein x, y, z, a, and b are measured by ICP, - wherein x+y+z+a+b is 100.0 mol%, wherein the positive electrode active material has a Zr content Zr A defined as b x + y + z + b, wherein the positive electrode active material has a Zr content Zr B, wherein Zr B is determined by XPS analysis, wherein Zr B is expressed as molar fraction compared to the sum of molar fractions of Co, Mn, Ni, and Zr, as measured by XPS analysis, wherein the ratio Zr B / Zr A > 50.0, wherein the positive electrode active material comprises secondary particles having a plurality of primary particles, wherein said primary particles have an average diameter of between 170 nm to 340 nm as determined by measuring primary particle size in an image taken by SEM. - Ni in a content x between 50.0 mol% and 75.0 mol%, relative to M'; - Co in a content y between 0.0 mol% and 40.0 mol%, relative to M'; - Mn in a content z between 0.0 mol% and 40.0 mol%, relative to M', - D in a content a between 0.0 mol% and 2.0 mol%, relative to M', wherein D comprises at least one element of the group consisting of: Al, B, Ba, Ca, Cr, Fe, Mg, Mo, Nb, S, Si, Sr, Ti, Y, V, W, and Zn, and, - Zr in a content b between 0.1 mol% and 5.0 mol%, relative to M', - wherein x, y, z, a, and b are measured by ICP, - wherein x+y+z+a+b is 100.0 mol%, wherein the positive electrode active material has a Zr content Zr A defined as b x + y + z + b, wherein the positive electrode active material has a Zr content Zr B, wherein Zr B is determined by XPS analysis, wherein Zr B is expressed as molar fraction compared to the sum of molar fractions of Co, Mn, Ni, and Zr, as measured by XPS analysis, wherein the ratio Zr B / Zr A > 50.0, wherein the positive electrode active material comprises secondary particles having a plurality of primary particles, wherein said primary particles have an average diameter of between 170 nm to 340 nm as determined by measuring primary particle size in an image taken by SEM.
A measuring device for measuring a hydrogen concentration in an environment, comprising a measuring unit and a hydrogen sensor for measuring a hydrogen concentration in an environment, wherein the hydrogen sensor comprises a substrate, on which a hydrogen-absorbing sensor medium is applied as a thin film in a sensor region communicating with the environment, wherein the sensor medium changes its volume depending on a hydrogen concentration in the sensor medium, and said change of the volume causes a variation of a mechanical strain introduced by the sensor medium in the substrate, wherein the substrate is a piezoresistive semiconductor, at least within the sensor region, wherein the sensor medium communicates with the environment, characterized in that the measuring unit is configured to measure an ohmic resistance of the substrate and to determine a hydrogen concentration in the environment from the value of the measured ohmic resistance.