mhurhangee/patent-ind-claim-en huggingface dataset:
A transmitter configured to transmit a synchronisation signal of a first type in M 1 symbols l i , 0 ≤ i ≤ ( M 1 - 1), of a subframe and a synchronisation signal of a second type in M 2 symbols k j , 0 ≤ j ≤ ( M 2 - 1), of the subframe , wherein the subframe comprises N symbols, wherein N ≥ M 2 ≥ M 1 ≥ 2, wherein the synchronisation signal of the first type and the synchronisation signal of the second type comprise different information, wherein the synchronisation signal of the first type and the synchronisation signal of the second type have to be successfully detected to acquire a sufficient synchronisation and the synchronisation signal of the first type has to be detected before the synchronisation signal of the second type, wherein the transmitter comprises: a processor configured to determine in which symbols l i of the subframe the synchronisation signal of the first type is to be transmitted, and calculate in which symbols k j of the subframe the synchronisation signal of the second type is to be transmitted by placing each of the M 2 symbols k j at a determined symbol distance from an associated symbol l i , wherein the determined symbol distance between each of the M 2 symbols k j and the respective associated symbol l i is equal for all of the M 1 symbols l i in the subframe and comprises a set of ┌ M 2 / M 1 ┐ integer values; and a transmitting circuit configured to transmit the synchronisation signals of the first type in the determined M 1 symbols l i of the subframe and the synchronisation signals of the second type in the calculated M 2 symbols k j of the subframe , wherein the M 1 symbols l i are determined to be contiguously located in subsequent symbols l i , such that: l i +1 = l i + 1. a processor configured to determine in which symbols l i of the subframe the synchronisation signal of the first type is to be transmitted, and calculate in which symbols k j of the subframe the synchronisation signal of the second type is to be transmitted by placing each of the M 2 symbols k j at a determined symbol distance from an associated symbol l i , wherein the determined symbol distance between each of the M 2 symbols k j and the respective associated symbol l i is equal for all of the M 1 symbols l i in the subframe and comprises a set of ┌ M 2 / M 1 ┐ integer values; and a transmitting circuit configured to transmit the synchronisation signals of the first type in the determined M 1 symbols l i of the subframe and the synchronisation signals of the second type in the calculated M 2 symbols k j of the subframe , wherein the M 1 symbols l i are determined to be contiguously located in subsequent symbols l i , such that: l i +1 = l i + 1.
A positive displacement roots blower comprising: a housing having an inlet structured to receive an incoming flow of a compressible fluid, an outlet structured to exhaust an outgoing flow of the compressible fluid from the housing , a pair of intermeshed rotating members supported for complementary rotation within a cavity of the housing located between the inlet and the outlet , the rotating members and housing forming respective operating volumes there between which rotate with the rotating member; and a venturi feedback , the venturi feedback connecting the outlet with the cavity within the housing , and having a venturi feedback inlet opening into the cavity between the inlet and the outlet , such that the venturi feedback increases pressure inside the operating volumes prior to the rotating members discharging the outgoing fluid through the outlet . an inlet structured to receive an incoming flow of a compressible fluid, an outlet structured to exhaust an outgoing flow of the compressible fluid from the housing , a pair of intermeshed rotating members supported for complementary rotation within a cavity of the housing located between the inlet and the outlet , the rotating members and housing forming respective operating volumes there between which rotate with the rotating member; and a venturi feedback , the venturi feedback connecting the outlet with the cavity within the housing , and having a venturi feedback inlet opening into the cavity between the inlet and the outlet , such that the venturi feedback increases pressure inside the operating volumes prior to the rotating members discharging the outgoing fluid through the outlet .
Microscope comprising a light source producing a light beam , a light beam guide system comprising a beam splitter configured to split the light beam into a reference beam and a sample illumination beam passing through the light beam guide system directed by at least one direction change mirror being pivotally actionable (TM1, TM2, TM3, TM4) to guide the reference beam and sample beam along their respective optical paths, a sample observation zone configured to receive a sample immersed in a liquid to be observed in a path of the sample illumination beam, a beam reuniter configured to reunite the reference beam and sample illumination beam after passage of the sample illumination beam through the sample observation zone, a light sensing system configured to retrieve at least phase and intensity values of the light beam downstream of the beam reuniter, and a control system, characterized in that the control system is configured to generate a mirror angle control signal to automatically control an angle of said at least one pivotally actionable direction change mirror, the mirror angle control signal being based at least partially on a signal received, by means of a feedback loop of the control system, from the light sensing system and generated by the light beam, the Microscope further comprises a sample illumination device configured to direct the sample illumination beam through the sample observation zone and into a microscope objective , the sample illumination device comprising a mirror system configured to direct the sample illumination beam at a non zero illumination angle (α) with respect to an optical axis (A) of the microscope objective, and a rotating beam system configured to rotate the angled sample illumination beam around the optical axis so as to apply a correction by the control system to enable static or dynamic adjustment for the refractive properties of the sample.
A computer program for calculating a cardiac valve regurgitation value comprising computer program code means which is adapted, when said computer program is run on a computer, to implement the steps of: obtaining 4D ultrasound data of a region of interest, wherein the region of interest comprises a cardiac valve and wherein the 4D ultrasound data comprises a time sequence of 3D ultrasound images comprising B-mode ultrasound data and color Doppler ultrasound data; and estimating a regurgitant flow value of the cardiac valve comprising: performing image stabilization on the images of the time sequence of 3D ultrasound images; segmenting a dynamic jet from the time sequence of stabilized 3D ultrasound images; fitting a dynamic surface model to the valve in the time sequence of stabilized 3D ultrasound images based on the segmented dynamic jet; identifying a dynamic regurgitant orifice based on the dynamic surface model and the time sequence of stabilized 3D ultrasound images; fitting a flow convergence model to the time sequence of stabilized 3D ultrasound images based on the identified dynamic regurgitant orifice; and estimating the regurgitant flow value based on the identified regurgitant orifice and time sequence of stabilized 3D ultrasound images. obtaining 4D ultrasound data of a region of interest, wherein the region of interest comprises a cardiac valve and wherein the 4D ultrasound data comprises a time sequence of 3D ultrasound images comprising B-mode ultrasound data and color Doppler ultrasound data; and estimating a regurgitant flow value of the cardiac valve comprising: performing image stabilization on the images of the time sequence of 3D ultrasound images; segmenting a dynamic jet from the time sequence of stabilized 3D ultrasound images; fitting a dynamic surface model to the valve in the time sequence of stabilized 3D ultrasound images based on the segmented dynamic jet; identifying a dynamic regurgitant orifice based on the dynamic surface model and the time sequence of stabilized 3D ultrasound images; fitting a flow convergence model to the time sequence of stabilized 3D ultrasound images based on the identified dynamic regurgitant orifice; and estimating the regurgitant flow value based on the identified regurgitant orifice and time sequence of stabilized 3D ultrasound images. performing image stabilization on the images of the time sequence of 3D ultrasound images; segmenting a dynamic jet from the time sequence of stabilized 3D ultrasound images; fitting a dynamic surface model to the valve in the time sequence of stabilized 3D ultrasound images based on the segmented dynamic jet; identifying a dynamic regurgitant orifice based on the dynamic surface model and the time sequence of stabilized 3D ultrasound images; fitting a flow convergence model to the time sequence of stabilized 3D ultrasound images based on the identified dynamic regurgitant orifice; and estimating the regurgitant flow value based on the identified regurgitant orifice and time sequence of stabilized 3D ultrasound images.
An operation method of a second device for performing sidelink-based vehicle to everything, V2X, communication with a first device , the operation method comprising: receiving, by the second device from the first device during a first symbol period, a physical sidelink control channel, PSCCH, and a first physical sidelink shared channel, PSSCH, based on a first transmission configuration indication, hereinafter referred to as TCI, state assigned to the PSCCH, the first symbol period comprising first symbols on which the PSCCH and the first PSSCH are received; and receiving, by the second device from the first device during a second symbol period consecutive to the first symbol period, a second PSSCH, based on a second TCI state, the second symbol period comprising second symbols on which the second PSSCH is received, wherein the second TCI state is different from the first TCI state, and wherein a first beam formed by the second device according to the first TCI state is wider than a second beam formed by the second device according to the second TCI state. receiving, by the second device from the first device during a first symbol period, a physical sidelink control channel, PSCCH, and a first physical sidelink shared channel, PSSCH, based on a first transmission configuration indication, hereinafter referred to as TCI, state assigned to the PSCCH, the first symbol period comprising first symbols on which the PSCCH and the first PSSCH are received; and receiving, by the second device from the first device during a second symbol period consecutive to the first symbol period, a second PSSCH, based on a second TCI state, the second symbol period comprising second symbols on which the second PSSCH is received, wherein the second TCI state is different from the first TCI state, and wherein a first beam formed by the second device according to the first TCI state is wider than a second beam formed by the second device according to the second TCI state.
E)-2,4,6-trimethoxystyryl-3-[(carboxymethyl)amino]-4-methoxybenzylsulphone, sodium salt for use in a method of treating conditions mediated by abnormal cell proliferation, wherein a first dose of 840 mg is orally administered approximately 1-2 hours before breakfast and a second dose of 280 mg is orally administered about 2 hours after lunch, or a first dose of 560 mg is administered approximately 1-2 hours before breakfast and a second dose of 280 - 560 mg is administered about 2 hours after lunch, wherein said condition is a solid tumor cancer.
A smoking article comprising: aerosol generating material ; a combustible heat source for heating the aerosol generating material ; wherein the combustible heat source comprises a combustible material and an inductively heatable susceptor for heating and thereby igniting the combustible material ; characterized in that the inductively heatable susceptor comprises a plurality of particles of susceptor material distributed within the combustible material . aerosol generating material ; a combustible heat source for heating the aerosol generating material ; wherein the combustible heat source comprises a combustible material and an inductively heatable susceptor for heating and thereby igniting the combustible material ; characterized in that the inductively heatable susceptor comprises a plurality of particles of susceptor material distributed within the combustible material .
Air vent comprising a housing with an air inlet opening and an air outlet opening , an air guide element rotatably mounted in the housing , a first group of slats and a second group of slats , wherein - the slats of the first group of slats and the slats of the second group of slats are arranged oppositely and pivotably at the air guide element , characterised in that part air channels are formed between the air guide element and opposite wall sections of the housing , - pivotably mounted flaps are arranged at the opposite wall sections of the housing and - the flaps are resiliently mounted and are pivotable by way of the slats of the first group of slats and the slats of the second group of slats relative to the wall sections so that - a throttling of the air guided by way of the part air channels between the air guide element and the opposite wall sections of the housing can take place by way of the flaps . - the slats of the first group of slats and the slats of the second group of slats are arranged oppositely and pivotably at the air guide element , characterised in that part air channels are formed between the air guide element and opposite wall sections of the housing , - pivotably mounted flaps are arranged at the opposite wall sections of the housing and - the flaps are resiliently mounted and are pivotable by way of the slats of the first group of slats and the slats of the second group of slats relative to the wall sections so that - a throttling of the air guided by way of the part air channels between the air guide element and the opposite wall sections of the housing can take place by way of the flaps .
Moulded housing for a machine with a shaft , especially for an electric machine with a shaft , - wherein the moulded housing has a first region , a second region and a third region one after another in an axial direction , - wherein the moulded housing includes a first passage for the shaft and a second passage , - wherein the first passage has a first moulded edge and the second passage has a second moulded edge , - wherein the second passage has a reinforcement element , - wherein the reinforcement element runs from a first connection point with the second moulded edge to an opposite second connection point with the second moulded edge , - wherein the second moulded edge has a first securing device at a third connection point and a second securing device at a fourth connection point , - wherein the second passage has an opening in a wall of the moulded housing, - wherein a projection of an imaginary line connecting the third connection point to the fourth connection point into the opening intersects with a projection of the reinforcement element into the opening , - wherein the projection of the imaginary connecting line intersects with the projection of the reinforcement element at an acute angle, characterised in that - a further reinforcement element runs from the third connection point to the fourth connection point , wherein the further reinforcement element is fastened to the first securing device and to the second securing device . - wherein the moulded housing has a first region , a second region and a third region one after another in an axial direction , - wherein the moulded housing includes a first passage for the shaft and a second passage , - wherein the first passage has a first moulded edge and the second passage has a second moulded edge , - wherein the second passage has a reinforcement element , - wherein the reinforcement element runs from a first connection point with the second moulded edge to an opposite second connection point with the second moulded edge , - wherein the second moulded edge has a first securing device at a third connection point and a second securing device at a fourth connection point , - wherein the second passage has an opening in a wall of the moulded housing, - wherein a projection of an imaginary line connecting the third connection point to the fourth connection point into the opening intersects with a projection of the reinforcement element into the opening , - wherein the projection of the imaginary connecting line intersects with the projection of the reinforcement element at an acute angle, characterised in that - a further reinforcement element runs from the third connection point to the fourth connection point , wherein the further reinforcement element is fastened to the first securing device and to the second securing device .
Milking system , comprising - milking means , - at least one milk line for carrying milk from the milking means, and - a sampling unit that is arranged to take a sample from the milk line and to test the sample for the presence or concentration of at least one substance, wherein the sampling unit is provided with a control unit and a housing , wherein the housing comprises therein a supply reel with a tape that carries reagent , and a sample supplier to supply, under control of the control unit, at least a part of the sample to the reagent on the tape, the sampling unit further comprising a tape displacer displacing the tape under control of the control unit, a sample analyser , and a used tape collector device collecting tape with reagent to which a sample has been supplied, characterized in that the supply reel at a surface thereof comprises a desiccant. - milking means , - at least one milk line for carrying milk from the milking means, and - a sampling unit that is arranged to take a sample from the milk line and to test the sample for the presence or concentration of at least one substance, wherein the sampling unit is provided with a control unit and a housing , wherein the housing comprises therein a supply reel with a tape that carries reagent , and a sample supplier to supply, under control of the control unit, at least a part of the sample to the reagent on the tape, the sampling unit further comprising a tape displacer displacing the tape under control of the control unit, a sample analyser , and a used tape collector device collecting tape with reagent to which a sample has been supplied, characterized in that the supply reel at a surface thereof comprises a desiccant.
A system for a low profile haptic actuator comprising: a moveable surface comprising a first coil , with a ferrite material associated with the first coil , the moveable surface configured to move in a degree of freedom; a fixed surface beneath the moveable surface , the fixed surface comprising a second coil coupled underneath the first coil ; a suspension coupled to the fixed surface and the moveable surface and configured to support the moveable surface ; and a controller coupled to the first coil and the second coil , wherein the controller is configured to detect a change in inductance in the second coil , and wherein the change in inductance is associated with one or more of movement of the moveable surface or pressure applied to the moveable surface . a moveable surface comprising a first coil , with a ferrite material associated with the first coil , the moveable surface configured to move in a degree of freedom; a fixed surface beneath the moveable surface , the fixed surface comprising a second coil coupled underneath the first coil ; a suspension coupled to the fixed surface and the moveable surface and configured to support the moveable surface ; and a controller coupled to the first coil and the second coil , wherein the controller is configured to detect a change in inductance in the second coil , and wherein the change in inductance is associated with one or more of movement of the moveable surface or pressure applied to the moveable surface .
Load-controlling device for controlling the load on an optical transmission line (L) the input of which is coupled to an emitting device suitable for modulating with data and multiplexing a plurality of what are called useful wavelengths into a useful optical signal (S U ) to be transmitted over the optical transmission line, the load-controlling device comprising means for generating a filler optical signal (S B ), which is composed of at least one filler wavelength (λ B-ON ) that is not modulated by data, to be injected into the optical transmission line, the generating means being configured to generate at least one source optical signal (S S ) composed of at least a plurality of wavelengths corresponding to the plurality of wavelengths of the useful optical signal (Su) and to select said at least one wavelength (λ B-ON ) of the filler optical signal among the wavelengths of the at least one source optical signal (Ss); the load-controlling device being characterized in that it comprises a control module configured to control the selection, by the generating means , of said at least one wavelength of the filler optical signal (S B ) depending on first information that is indicative of the non-turn-on of at least one wavelength (λ U-OFF ) among the plurality of wavelengths of the useful optical signal (S U ). the generating means being configured to generate at least one source optical signal (S S ) composed of at least a plurality of wavelengths corresponding to the plurality of wavelengths of the useful optical signal (Su) and to select said at least one wavelength (λ B-ON ) of the filler optical signal among the wavelengths of the at least one source optical signal (Ss); the load-controlling device being characterized in that it comprises a control module configured to control the selection, by the generating means , of said at least one wavelength of the filler optical signal (S B ) depending on first information that is indicative of the non-turn-on of at least one wavelength (λ U-OFF ) among the plurality of wavelengths of the useful optical signal (S U ).
A peptide for use in treating and/or preventing an infection with any one of the viruses selected from RSV, KSHV, CMV, CHIKV, TBEV, VSV, ZIKV and HCV, wherein said peptide comprises or consists of the amino acid sequence wherein Lab is labionin X 1 is an amino acid selected from Asn, Asp, and Glu; X 2 is an amino acid selected from Ala, Trp, and Ser; X 3 is an amino acid selected from Val, Leu, and Ile; X 4 is an amino acid selected from Trp and Tyr; X 5 is an amino acid selected from Glu and Asp; X 6 is an amino acid selected from Thr and Ser; X 7 is an amino acid selected from Gly and Pro; and X 8 consists of a sequence of 3 to 5 amino acids. Lab is labionin X 1 is an amino acid selected from Asn, Asp, and Glu; X 2 is an amino acid selected from Ala, Trp, and Ser; X 3 is an amino acid selected from Val, Leu, and Ile; X 4 is an amino acid selected from Trp and Tyr; X 5 is an amino acid selected from Glu and Asp; X 6 is an amino acid selected from Thr and Ser; X 7 is an amino acid selected from Gly and Pro; and X 8 consists of a sequence of 3 to 5 amino acids.