mhurhangee/patent-ind-claim-en huggingface dataset:
An accelerometer comprising: a frame ; one or more proof masses suspended from the frame by one or more flexures and movable relative to the frame along a sensing axis; a resonant element assembly, the resonant element assembly comprising a first resonant element and a second resonant element coupled to one another, the first resonant element connected between the one or more proof masses and the frame, the second resonant element connected between the one or more proof masses and the frame, such that movement of the one or more proof masses relative to the frame along the sensing axis results in one of the first and second resonant elements undergoing compression and the other of the first and second resonant elements undergoing tension; and drive circuitry configured to drive the resonant element assembly into one or more resonant modes and a sensing circuit configured to determine a measure of acceleration based on changes in resonant behaviour of the first and second resonant elements, characterised in that , the first resonant element is coupled to the second resonant element by a mechanical coupling or the first and second resonant elements are electrostatically coupled to one another. a frame ; one or more proof masses suspended from the frame by one or more flexures and movable relative to the frame along a sensing axis; a resonant element assembly, the resonant element assembly comprising a first resonant element and a second resonant element coupled to one another, the first resonant element connected between the one or more proof masses and the frame, the second resonant element connected between the one or more proof masses and the frame, such that movement of the one or more proof masses relative to the frame along the sensing axis results in one of the first and second resonant elements undergoing compression and the other of the first and second resonant elements undergoing tension; and drive circuitry configured to drive the resonant element assembly into one or more resonant modes and a sensing circuit configured to determine a measure of acceleration based on changes in resonant behaviour of the first and second resonant elements, characterised in that , the first resonant element is coupled to the second resonant element by a mechanical coupling or the first and second resonant elements are electrostatically coupled to one another.
An apparatus for forming a vehicle window assembly comprising: a major support surface ; an assembly fixture having at least one vertical support member for supporting a vehicle window in a predetermined vertical orientation relative to the major support surface ; one or more assembly aids proximate the major support surface , the assembly aid comprising one or more items of hardware and one or more induction heating devices for heating one or more of, the item of hardware having a predetermined amount of a solder material adhered thereto and the vehicle window , to a temperature sufficient to melt the solder material so as to bond the item of hardware to the vehicle window ; the major support surface having one or more openings for applying a positive or negative pressure to move a major surface of the vehicle window and the item of hardware into bonding contact; one or more power supply units electrically connected to the one or more heating devices ; and one or more controllers electrically connected to the one or more power supply units. a major support surface ; an assembly fixture having at least one vertical support member for supporting a vehicle window in a predetermined vertical orientation relative to the major support surface ; one or more assembly aids proximate the major support surface , the assembly aid comprising one or more items of hardware and one or more induction heating devices for heating one or more of, the item of hardware having a predetermined amount of a solder material adhered thereto and the vehicle window , to a temperature sufficient to melt the solder material so as to bond the item of hardware to the vehicle window ; the major support surface having one or more openings for applying a positive or negative pressure to move a major surface of the vehicle window and the item of hardware into bonding contact; one or more power supply units electrically connected to the one or more heating devices ; and one or more controllers electrically connected to the one or more power supply units.
An electric heater for heating a liquid or frozen substance in a motor vehicle; the electric heater comprising: - a metal sheet adapted to generate heat when it is crossed by an electric current; - two polymeric layers between which the metal sheet is arranged; - two metal layers , between which the two polymeric layers are arranged; wherein the two metal layers are hermetically sealed to each other, defining a casing which prevents the substance to be heated from coming into contact with the two polymeric layers and with the metal sheet ; characterized in that there is provided a plurality of metal flaps extending transversely from an external face of at least one metal layer of said two metal layers ; in that at least one metal layer of said two metal layers is provided with an external coating, said external coating being made of a material different with respect to said at least one metal layer; in that said external coating is made of a material comprising or consisting of PTFE (polytetrafluoroethylene); in that said external coating has a thickness of from 3 to 50 μm; and in that said metal flaps are provided with said external coating. the electric heater comprising: - a metal sheet adapted to generate heat when it is crossed by an electric current; - two polymeric layers between which the metal sheet is arranged; - two metal layers , between which the two polymeric layers are arranged; - a metal sheet adapted to generate heat when it is crossed by an electric current; - two polymeric layers between which the metal sheet is arranged; - two metal layers , between which the two polymeric layers are arranged; wherein the two metal layers are hermetically sealed to each other, defining a casing which prevents the substance to be heated from coming into contact with the two polymeric layers and with the metal sheet ; characterized in that there is provided a plurality of metal flaps extending transversely from an external face of at least one metal layer of said two metal layers ; in that at least one metal layer of said two metal layers is provided with an external coating, said external coating being made of a material different with respect to said at least one metal layer; in that said external coating is made of a material comprising or consisting of PTFE (polytetrafluoroethylene); in that said external coating has a thickness of from 3 to 50 μm; and in that said metal flaps are provided with said external coating.
A planar magnet for magnetic density separation, comprising an array of pole pieces succeeding in longitudinal direction of a mounting plane , wherein the pole pieces are alternatingly embodied as magnetic pole pieces and magnetisable pole pieces , each pole piece having a body extending transversely along the mounting plane with a substantially constant cross section , wherein each pole piece includes a top segment with a top surface that is curved to distribute a magnetic field associated with the top surface , wherein the top segments of the pole pieces have the same basic curvature, characterized in that the top surfaces of successive pole pieces are shifted in height with respect to the mounting plane , wherein a height (h2) of the magnetisable pole pieces is higher than a height (h1) of the magnetic pole pieces such that a strength of the magnetic field above the pole pieces transverse to the mounting plane is more uniformly distributed in planes parallel to the mounting plane compared to a situation of the pole pieces all having the same height.
A biosensor comprising an organic electrochemical transistor (OECT), and optionally an array of two or more OECTs, and a biorecognition layer, wherein the OECT or each of the OECTs in the array comprises a source electrode, a drain electrode, a channel, and a gate electrode, wherein the orientation of the biorecognition layer relative to the OECT surface is represented by the general formula: N -L 1 -AP 1 -AP 2 -L 2 - B Formula I wherein N is one or more organic molecules which self-assemble to form a fist SAM, L 1 is an optional first linker, AP 1 is a first peptide binding partner; AP 2 is a second peptide partner; AP 1 and AP 2 are binding partners, L 2 is a second linker, and B is a biorecognition element, wherein AP 1 -AP 2 is selected from the group consisting of SpyTag/SpyCatcher peptide conjugate, snoopCatcher/snoopTag peptide conjugate, MoonTag/MoonCatcher peptide conjugate, SnoopTagJr/SnoopCatcher peptide conjugate, SnoopTagJr/DogTag peptide conjugate, and SdyTag/SdyCatcher peptide conjugate. wherein the orientation of the biorecognition layer relative to the OECT surface is represented by the general formula: N -L 1 -AP 1 -AP 2 -L 2 - B Formula I wherein N is one or more organic molecules which self-assemble to form a fist SAM, L 1 is an optional first linker, AP 1 is a first peptide binding partner; AP 2 is a second peptide partner; AP 1 and AP 2 are binding partners, L 2 is a second linker, and B is a biorecognition element, wherein AP 1 -AP 2 is selected from the group consisting of SpyTag/SpyCatcher peptide conjugate, snoopCatcher/snoopTag peptide conjugate, MoonTag/MoonCatcher peptide conjugate, SnoopTagJr/SnoopCatcher peptide conjugate, SnoopTagJr/DogTag peptide conjugate, and SdyTag/SdyCatcher peptide conjugate.
Retaining structure with a steel profile that is mountable to an abutment (14; 144) and with insulating glass panes (10; 12) with individual glass panes (101; 103; 105; 106; 121; 123; 125; 126) with an edge bond (107; 127) at their edges (11; 13), with a butt joint between the insulating glass panes (10; 12), wherein the steel profile runs as an anchor within the butt joint parallel to the edges (11; 13) and engages with a section into edge bond of an insulating glass pane and comprises coupling points for connection to the abutment, with which it either connects flush with the glass panes on the abutment or extends out of the butt joint of the glass panes.
A method , in a radio access node , of transmitting a configuration message for a phase tracking reference signal, PT-RS, on a radio channel between the radio access node and a radio device , the radio channel comprising a plurality of subcarriers in a physical resource block, PRB , a subset of the subcarriers in the PRB being allocated to a demodulation reference signal, DM-RS, the method comprising the step of: transmitting the configuration message to the radio device , the configuration message comprising a bit field that is indicative of at least one subcarrier allocated to the PT-RS among the subset of subcarriers allocated to the DM-RS, wherein the radio channel is accessed through one or more DM-RS ports, each transmission of the DM-RS being associated with one of the one or more DM-RS ports, wherein the subcarrier allocated to the PT-RS is uniquely determined among the subset of subcarriers allocated to the DM-RS based on a combination of the bit field in the configuration message and a DM-RS port through which the PT-RS is transmitted or received, and receiving the PT-RS on the subcarrier that is allocated to the PT-RS according to the bit field among the subset of subcarriers allocated to the DM-RS for the corresponding DM-RS port. transmitting the configuration message to the radio device , the configuration message comprising a bit field that is indicative of at least one subcarrier allocated to the PT-RS among the subset of subcarriers allocated to the DM-RS, wherein the radio channel is accessed through one or more DM-RS ports, each transmission of the DM-RS being associated with one of the one or more DM-RS ports, wherein the subcarrier allocated to the PT-RS is uniquely determined among the subset of subcarriers allocated to the DM-RS based on a combination of the bit field in the configuration message and a DM-RS port through which the PT-RS is transmitted or received, and receiving the PT-RS on the subcarrier that is allocated to the PT-RS according to the bit field among the subset of subcarriers allocated to the DM-RS for the corresponding DM-RS port.
An apparatus for providing asymmetric oscillations comprising: a container ; a fluid and a particle disposed in the container ; and a vibration driver attached to the container , wherein the vibration driver oscillates the container to impart asymmetric velocity to the particle by way of the fluid, characterized in that the apparatus further comprises: a controller connected to the vibration driver , wherein the controller controls an amplitude, a frequency and a shape of the asymmetric oscillations; and a sensor disposed on the vibration driver for providing feedback to the controller , wherein the feedback affects the control of the amplitude, the frequency and the shape of the asymmetric oscillations. a container ; a fluid and a particle disposed in the container ; and a vibration driver attached to the container , wherein the vibration driver oscillates the container to impart asymmetric velocity to the particle by way of the fluid, characterized in that the apparatus further comprises: a controller connected to the vibration driver , wherein the controller controls an amplitude, a frequency and a shape of the asymmetric oscillations; and a sensor disposed on the vibration driver for providing feedback to the controller , wherein the feedback affects the control of the amplitude, the frequency and the shape of the asymmetric oscillations. a controller connected to the vibration driver , wherein the controller controls an amplitude, a frequency and a shape of the asymmetric oscillations; and a sensor disposed on the vibration driver for providing feedback to the controller , wherein the feedback affects the control of the amplitude, the frequency and the shape of the asymmetric oscillations.
Storage system for storing a cryogenic medium, in particular for storing hydrogen, comprising a storage container for receiving the medium, wherein a first removal line forms a fluid-conducting connection from the interior of the storage container to a consumer connection , for connecting a consumer, wherein at least a first controllable line shut-off valve and a first heat exchanger are arranged in the first removal line, wherein a second removal line which is different from the first removal line forms a fluid-conducting connection from the interior of the storage container to a consumer connection for connecting the same consumer, wherein at least a second controllable line shut-off valve and a further first heat exchanger are arranged in the second removal line characterized in that the first removal line additionally has an internal tank heat exchanger downstream of the first heat exchanger and the second removal line additionally has a further internal tank heat exchanger downstream of the further first heat exchanger .
A computer-implemented method, comprising: receiving, at a certificate authority of a service provider computing environment and from a client device , a request to issue a digital certificate , the request specifying configuration information for monitoring usage of the digital certificate ; determining, by the certificate authority , a network endpoint to be specific to the digital certificate and to provide a Certificate Revocation List associated with the digital certificate ; issuing, by the certificate authority , the digital certificate , the digital certificate specifying a network address for the network endpoint that can be used to access the network endpoint and to obtain the Certificate Revocation List; receiving, by the certificate authority and from the network endpoint, information about requests made to the network endpoint to obtain the Certificate Revocation List; recording, by the certificate authority or the network endpoint, the information about the requests made to the network endpoint in accordance with the configuration information; determining, by the certificate authority , a usage pattern of the digital certificate based at least in part on the information, where the usage pattern of the digital certificate is used to generate a determination to renew the digital certificate prior to expiration of the digital certificate ; and storing, by the certificate authority or the network endpoint, and in a data store , the information about the requests made to the network endpoint in association with the digital certificate . receiving, at a certificate authority of a service provider computing environment and from a client device , a request to issue a digital certificate , the request specifying configuration information for monitoring usage of the digital certificate ; determining, by the certificate authority , a network endpoint to be specific to the digital certificate and to provide a Certificate Revocation List associated with the digital certificate ; issuing, by the certificate authority , the digital certificate , the digital certificate specifying a network address for the network endpoint that can be used to access the network endpoint and to obtain the Certificate Revocation List; receiving, by the certificate authority and from the network endpoint, information about requests made to the network endpoint to obtain the Certificate Revocation List; recording, by the certificate authority or the network endpoint, the information about the requests made to the network endpoint in accordance with the configuration information; determining, by the certificate authority , a usage pattern of the digital certificate based at least in part on the information, where the usage pattern of the digital certificate is used to generate a determination to renew the digital certificate prior to expiration of the digital certificate ; and storing, by the certificate authority or the network endpoint, and in a data store , the information about the requests made to the network endpoint in association with the digital certificate .
A method of fault prediction of a cyclically moving machine component, wherein each cycle of a plurality of cycles of a motion of the component generates a data distribution of values of measurable movement characteristics during a duration of each cycle, the method comprising, for each cycle; determining said data distribution of the movement characteristics, calculating a measure of central tendency of the values in the data distribution, calculating a quantified measure of a shape of the data distribution over the duration of each cycle, associating the measure of central tendency with said quantified measure of the shape as a coupled set of condition parameters, the method being characterized by the further steps of determining a degree of dispersion of a plurality of coupled sets of condition parameters associated with the plurality of cycles of a motion of the cyclically moving component, and comparing the degree of dispersion with a dispersion threshold value, or determining a trend of the degree of dispersion over time, for said fault prediction.
An antibody or derivative thereof, comprising A) a dimer of a heavy chain A and a light chain A, wherein the heavy chain comprises a variable domain V H A linked to a dimerization domain CH2 H and the light chain comprises a variable domain V L A linked to a dimerization domain CH2 L , and wherein both CH2 H and CH2 L are an IgM constant domain MC H 2 or an IgE constant domain EC H 2, and B) a dimer of a heavy chain B and a light chain B, wherein the heavy chain B comprises a variable domain V H B and the light chain comprises a variable domain V L B, wherein V H B and V L B are linked to dimerization domains different from CH2 H and CH2 L , wherein the antibody or derivative is multispecific. A) a dimer of a heavy chain A and a light chain A, wherein the heavy chain comprises a variable domain V H A linked to a dimerization domain CH2 H and the light chain comprises a variable domain V L A linked to a dimerization domain CH2 L , and wherein both CH2 H and CH2 L are an IgM constant domain MC H 2 or an IgE constant domain EC H 2, and B) a dimer of a heavy chain B and a light chain B, wherein the heavy chain B comprises a variable domain V H B and the light chain comprises a variable domain V L B, wherein V H B and V L B are linked to dimerization domains different from CH2 H and CH2 L ,
Device for cleaning two-wheeled vehicles, having an anti-splash housing, wherein the anti-splash housing has a floor tray , wherein the device is configured to accommodate the two-wheeled vehicle to be cleaned, at least in part, such that at least one of the wheels of the two-wheeled vehicle to be cleaned is immersed in a cleaning liquid contained in the floor tray , wherein a cleaning device is movable along the longitudinal direction of the two-wheeled vehicle by means of a horizontal guiding device, characterized in that the guiding device is disposed above the floor of the floor tray .
A calibrating device for calibrating a blown film, which has an outer diameter, which can be adjusted by a gas pressure, in particular by a gas overpressure, inside the blown film, wherein at least one guide element is provided, to which at least one guide surface is assigned, which faces the outer surface of the blown film and limits the outer diameter of the blown film and guides the blown film in a region, which has a guide length, wherein the blown film defines an axis of symmetry, wherein the distance of the guide surface and/or the guide element to the axis of symmetry can be changed, wherein the blown film can be guided through the calibrating device in the direction of gravity and wherein above or in the inlet region of the at least one guide element a liquid reservoir is arranged, wherein the liquid can be passed from the liquid reservoir to the outer circumference of the blown film, characterized in that the guide length, independent of the distance of the guide surface and/or of the guide element to the axis of symmetry, can be adjusted or is constant and that the at least one guide element comprises a plurality of individual bodies or several coils of a spring, which are interconnected via at least one connection element.