mhurhangee/patent-ind-claim-en huggingface dataset:
Gas turbine comprising a wet compression device , by means of which an aqueous liquid mixture , which contains at least one surfactant , in droplet form can be introduced into a compressor of the gas turbine during the operation of the gas turbine , wherein the aqueous liquid mixture additionally contains at least a defoaming agent characterized in that the gas turbine has a first metering device , which is designed to feed a predetermined quantity of surfactant into water which is provided for use in the wet compression device , and in that the gas turbine has a second metering device , which is designed to feed a predetermined quantity of defoaming agent into water which is provided for use in the wet compression device .
Camera unit for observing rehabilitation work in sewer pipes with - a camera , - a preferably liquid-tight housing in which the camera is placed, - a window provided in the housing , behind which the camera is arranged, and - a wiper arranged in front of the window for wiping off soiling, and - a first drive for the wiper , characterized in that the wiper is arranged immovably on a support and the support can be moved back and forth by the drive, and in that the housing is cylindrical and the window is arranged on the lateral surface. - a camera , - a preferably liquid-tight housing in which the camera is placed, - a window provided in the housing , behind which the camera is arranged, and - a wiper arranged in front of the window for wiping off soiling, and - a first drive for the wiper , the wiper is arranged immovably on a support and the support can be moved back and forth by the drive, and in that the housing is cylindrical and the window is arranged on the lateral surface.
A compound of formula (III) or a pharmaceutically acceptable salt thereof, wherein n is 0 or 1; m is 1 or 2; ring A is T 1 , T 2 and T 3 are each independently selected from N and CH; E 1 is O, S or NH; R 1 is selected from H and C 1-3 alkyl, wherein the C 1-3 alkyl is optionally substituted by 1, 2 or 3 R a ; R 2 and R 3 are each independently selected from H, F, Cl, Br, I, OH, CN, NH 2 and C 1-3 alkyl, wherein the C 1-3 alkyl is optionally substituted by 1, 2 or 3 R b ; R 4 is H; R 5 , R 6 , R 7 , R 8 and R 9 are each independently selected from H, F, Cl, Br, I, OH, CN, NH 2 and C 1-3 alkyl, wherein the C 1-3 alkyl is optionally substituted by 1, 2 or 3 R c ; R a , R b and R c are each independently selected from F, Cl, Br, I, OH, CN and NH 2 . n is 0 or 1; m is 1 or 2; ring A is T 1 , T 2 and T 3 are each independently selected from N and CH; E 1 is O, S or NH; R 1 is selected from H and C 1-3 alkyl, wherein the C 1-3 alkyl is optionally substituted by 1, 2 or 3 R a ; R 2 and R 3 are each independently selected from H, F, Cl, Br, I, OH, CN, NH 2 and C 1-3 alkyl, wherein the C 1-3 alkyl is optionally substituted by 1, 2 or 3 R b ; R 4 is H; R 5 , R 6 , R 7 , R 8 and R 9 are each independently selected from H, F, Cl, Br, I, OH, CN, NH 2 and C 1-3 alkyl, wherein the C 1-3 alkyl is optionally substituted by 1, 2 or 3 R c ; R a , R b and R c are each independently selected from F, Cl, Br, I, OH, CN and NH 2 .
An evacuation control system comprising: a cloud configured to upload and download configured evacuation path information; a mobile communication terminal configured to upload or download the evacuation path information to or from the cloud; and an evacuation controller comprising: a local control unit , wherein the local control unit is configured to store or acquire evacuation path information to or from the cloud via the mobile communication terminal ; and a readable storage medium operated under the control of the local control unit to configure evacuation path information; wherein the evacuation path information is configured at least based on a layout of a building and a location of a danger that has occurred in the building; wherein the local control unit is configured to learn about the local evacuation path information and is configured to evacuate people based on the evacuation path information. a cloud configured to upload and download configured evacuation path information; a mobile communication terminal configured to upload or download the evacuation path information to or from the cloud; and an evacuation controller comprising: a local control unit , wherein the local control unit is configured to store or acquire evacuation path information to or from the cloud via the mobile communication terminal ; and a readable storage medium operated under the control of the local control unit to configure evacuation path information; wherein the evacuation path information is configured at least based on a layout of a building and a location of a danger that has occurred in the building; a local control unit , wherein the local control unit is configured to store or acquire evacuation path information to or from the cloud via the mobile communication terminal ; and a readable storage medium operated under the control of the local control unit to configure evacuation path information; wherein the evacuation path information is configured at least based on a layout of a building and a location of a danger that has occurred in the building; wherein the local control unit is configured to learn about the local evacuation path information and is configured to evacuate people based on the evacuation path information.
Vessel comprising a shell capable of being towed over a solid surface and comprising a coupling device comprising a straight drawbar and a coupling mechanism , wherein the coupling device is mobile in translation about an axis of translation parallel to a longitudinal axis of the shell between a retracted position and a deployed position, wherein the coupling device is more outside of the shell than in retracted position, where the shell comprises a sleeve configured to make it possible for the translation of the coupling device inside said shell during the retraction thereof, characterised in that the sleeve comprises a sealed hatch making it possible to hermetically close said sleeve in the retracted position of the coupling device , the coupling device being totally retracted into the sleeve in the retracted position of the coupling device .
Process for producing a polyalkenamer-containing composition, comprising the steps of: a) converting at least one cycloalkene by ring-opening metathetic polymerization to obtain a polyalkenamer-containing product mixture, b) converting the product-mixture into solid form, c) the product-mixture in solid form is granulated or pulverized to particles prior to step d) and d) working up the product mixture to remove the monomers and the oligomers of the cycloalkenes to obtain the polyalkenamer-containing composition, characterized in that step d) is effected by extraction in a solvent mixture comprising at least one solvent 1 and at least one solvent 2, where the solubility parameter δ of the solvents 1 is not more than 20.07 MPa 1/2 and the solubility parameter δ of the solvents 2 is at least 20.27 MPa 1/2 . a) converting at least one cycloalkene by ring-opening metathetic polymerization to obtain a polyalkenamer-containing product mixture, b) converting the product-mixture into solid form, c) the product-mixture in solid form is granulated or pulverized to particles prior to step d) and d) working up the product mixture to remove the monomers and the oligomers of the cycloalkenes to obtain the polyalkenamer-containing composition,
A corrosion-inhibiting coating material bonded to a metal substrate, the coating material comprising: a corrosion-inhibiting compound that is 5,5-dithiobis-(1,3,4-thiadiazole-2 -thione) or a polymer of 2,5-dimercapto-1,3,4-thiadiazole including at least one disulfide group; and a zirconium-based sol-gel bonded to the metal substrate; wherein the corrosion-inhibiting compound is contained within the zirconium-based sol-gel . a corrosion-inhibiting compound that is 5,5-dithiobis-(1,3,4-thiadiazole-2 -thione) or a polymer of 2,5-dimercapto-1,3,4-thiadiazole including at least one disulfide group; and a zirconium-based sol-gel bonded to the metal substrate; wherein the corrosion-inhibiting compound is contained within the zirconium-based sol-gel .
A blood vessel detection system comprising: a handheld blood vessel detection device, comprising: an ultrasound probe to detect blood vessels within a patient's body, a display device to provide a visual display of the blood vessels within the patient's body; a vascular access device (VAD) chassis configured to maintain a VAD; and a linear motor to automatically advance the VAD into the patient's body, CHARACTERIZED IN THAT the VAD chassis is provided in a housing of the handheld blood vessel detection device; and the linear motor is configured to allow for a tilt movement, a rotation movement, and a yaw movement of the VAD during insertion. an ultrasound probe to detect blood vessels within a patient's body, a display device to provide a visual display of the blood vessels within the patient's body; a vascular access device (VAD) chassis configured to maintain a VAD; and a linear motor to automatically advance the VAD into the patient's body, CHARACTERIZED IN THAT the VAD chassis is provided in a housing of the handheld blood vessel detection device; and the linear motor is configured to allow for a tilt movement, a rotation movement, and a yaw movement of the VAD during insertion.
A pulse baseline value calculation method, wherein within pulse non-duration time, if an absolute value of a difference value between any two adjacent data of n continuous sampled data is less than a baseline threshold, and the n continuous sampled data are closest to a pulse starting point, an average value of the n continuous sampled data is calculated, and the average value is a pulse baseline value.
A method to detect the presence or absence of an MREJ type xiv methicillin-resistant Staphylococcus aureus (MRSA) strain characterized by SEQ ID NO: 16 comprising: contacting a sample to be analyzed for the presence or absence of said MREJ type xiv MRSA strain characterized by SEQ ID NO: 16 to a first primer that hybridizes with an SCCmec element right extremity sequence of SEQ ID NO: 16 and a second primer that hybridizes with the complement of an orfX sequence of SEQ ID NO: 16; wherein said first and second primers are at least 10 nucleotides in length; generating an amplicon of said MREJ type xiv MRSA strain; and detecting the absence or presence of said amplicon. contacting a sample to be analyzed for the presence or absence of said MREJ type xiv MRSA strain characterized by SEQ ID NO: 16 to a first primer that hybridizes with an SCCmec element right extremity sequence of SEQ ID NO: 16 and a second primer that hybridizes with the complement of an orfX sequence of SEQ ID NO: 16; wherein said first and second primers are at least 10 nucleotides in length; generating an amplicon of said MREJ type xiv MRSA strain; and detecting the absence or presence of said amplicon.
Working device, in particular an excavator or a machine for material handling, having an element movable via at least one working drive, wherein at least one energy recovery cylinder is provided for recovering energy from the movement of the movable element, which energy recovery cylinder comprises a cylinder jacket and a cylinder rod , wherein the cylinder jacket defines a chamber filled with gas, characterized in that a sealing arrangement is provided for sealing the chamber filled with gas, which is arranged at the end of the cylinder jacket and includes an annular space filled with oil, wherein, adjacent to the sealing arrangement , an annular space filled with gas exists inside the cylinder jacket between the outer surface of the cylinder rod and the inner side of the cylinder jacket , which annular space forms a part of the chamber filled with gas, wherein a communication passage for connecting the annular space filled with oil to the annular space filled with gas is provided, and wherein a check valve is arranged in the communication passage , which is aligned with the opening direction of the annular space filled with oil to the annular space filled with gas, and which allows gas to escape from the annular space filled with oil into the annular space filled with gas.
A method (PRO) for automatically selecting a depth range for calculating a property of a viscoelastic medium, the depth range being chosen from P possible ranges, P being an integer number greater than or equal to 2, said method comprising the following steps of: - Calculating (CALC), from an ultrasound signal acquired using a probe for elastography, the property of the viscoelastic medium in at least one of the P possible depth ranges and the distance between the probe and the wall delimiting the viscoelastic medium (PCD); - Determining (TEST_PCD) the validity of at least one of the P calculation depth ranges, a calculation depth range being considered as valid if it fulfills a validity criterion calculated from the distance between the probe and the wall delimiting the viscoelastic medium (PCD); - Determining (TEST_VAL) the validity of the calculation of the value of the property of the viscoelastic medium over the valid calculation depth range or ranges, said calculation being considered as valid if it fulfills a validity criterion calculated from the quality of an elastogram; - Selecting (SEL), from among the valid depth ranges comprising at least one valid calculation of the property of the viscoelastic medium, a depth range fulfilling a predetermined selection criterion. - Calculating (CALC), from an ultrasound signal acquired using a probe for elastography, the property of the viscoelastic medium in at least one of the P possible depth ranges and the distance between the probe and the wall delimiting the viscoelastic medium (PCD); - Determining (TEST_PCD) the validity of at least one of the P calculation depth ranges, a calculation depth range being considered as valid if it fulfills a validity criterion calculated from the distance between the probe and the wall delimiting the viscoelastic medium (PCD); - Determining (TEST_VAL) the validity of the calculation of the value of the property of the viscoelastic medium over the valid calculation depth range or ranges, said calculation being considered as valid if it fulfills a validity criterion calculated from the quality of an elastogram; - Selecting (SEL), from among the valid depth ranges comprising at least one valid calculation of the property of the viscoelastic medium, a depth range fulfilling a predetermined selection criterion.
A device for detecting an obstacle for a railway vehicle, including: - a detection bar intended to extend transversely to the vehicle and able to receive an impact with an obstacle, - at least one assembly for detecting an impact, supporting the detection bar and comprising: • a casing intended to be added onto the vehicle, • a lever secured to the detection bar and movable in rotation relatively to the casing around a first axis (A) parallel to the detection bar , between a rest position and an actuation position, and • an elastic return member of the lever towards its rest position, and - a triggering device which may be actuated by the lever in the actuation position, and wherein the detection assembly comprises adjustment means , able to apply a pre-stress on the elastic member , characterized in that : - the elastic member is a helical compression spring extending in the direction of a second axis (B) perpendicular to the first direction (A), between a first seat borne by the casing and a second seat borne by the lever , - the triggering device includes a contactor borne by one from among the lever or the casing and a triggering finger attached to the other one from among the lever or the casing , so that the contactor will come into contact with the triggering finger when the lever is in an actuation position. - a detection bar intended to extend transversely to the vehicle and able to receive an impact with an obstacle, - at least one assembly for detecting an impact, supporting the detection bar and comprising: • a casing intended to be added onto the vehicle, • a lever secured to the detection bar and movable in rotation relatively to the casing around a first axis (A) parallel to the detection bar , between a rest position and an actuation position, and • an elastic return member of the lever towards its rest position, and • a casing intended to be added onto the vehicle, • a lever secured to the detection bar and movable in rotation relatively to the casing around a first axis (A) parallel to the detection bar , between a rest position and an actuation position, and • an elastic return member of the lever towards its rest position, and - a triggering device which may be actuated by the lever in the actuation position, - the elastic member is a helical compression spring extending in the direction of a second axis (B) perpendicular to the first direction (A), between a first seat borne by the casing and a second seat borne by the lever , - the triggering device includes a contactor borne by one from among the lever or the casing and a triggering finger attached to the other one from among the lever or the casing , so that the contactor will come into contact with the triggering finger when the lever is in an actuation position.
A vehicle rim having a rim body made from a fiber composite material, the rim body having two rim flange areas and a rim bed area connecting the two rim flange areas , and at least one rim flange area being reinforced by at least one fiber bundle , characterized in that the at least one fiber bundle is surrounded by a compression wrap .
An integrated circuit for a replaceable print apparatus component (104, 200, 802a-d, 802, 1812, 2112, 2212) comprising an I2C interface to communicate with a print apparatus logic circuit , a sensor cell (1914-0 to 1914-n, 2155, 2214, 2555) to detect an effect of a pneumatic stimulus, and at least one logic circuit (402a, 402b and 406a, 402c and 406b, 402d, 402e and 406c, 1403 and 1405, 1603, 1703, 2503), configured to, in response to an I2C power signal, act upon communications directed to a default first I2C communications address; upon receiving a command including the first default I2C communications address and a time parameter, run a time function to determine the end of a duration based on the specified time parameter, and act upon commands directed to a default second I2C communications address; upon receiving an address setting command specifying the default second I2C communications address, an address function, and a new I2C communications address, act upon commands sent to the new I2C communications address; upon receiving a first command specifying the new I2C communications address, a first calibration parameter function, and a calibration parameter value, a second command specifying the new I2C communications address, a class parameter function, and a class parameter value, a third command specifying the new I2C communications address, a sub-class parameter function, and a sub-class parameter value, and a read request, output one separate count value in response to each read request, whereby the magnitude of the count value depends on each of the calibration parameter value, the class parameter value and the sub-class parameter value; when receiving a class parameter value associated with a first class, condition the count value depending on a state of the sensor cell (1914-0 to 1914-n, 2155, 2214, 2555), and upon receiving certain operational calibration parameter values and certain sub-class parameter values, output lower count values when a pneumatic stimulus is detected as compared to higher count values when no pneumatic stimulus is detected; and after the end of the duration, act upon communications directed to the default first I2C communications address a first command specifying the new I2C communications address, a first calibration parameter function, and a calibration parameter value, a second command specifying the new I2C communications address, a class parameter function, and a class parameter value, a third command specifying the new I2C communications address, a sub-class parameter function, and a sub-class parameter value, and a read request, condition the count value depending on a state of the sensor cell (1914-0 to 1914-n, 2155, 2214, 2555), and upon receiving certain operational calibration parameter values and certain sub-class parameter values, output lower count values when a pneumatic stimulus is detected as compared to higher count values when no pneumatic stimulus is detected; and
A communication method, comprising: generating (S101), by a base station, a first signal; performing (S102), by the base station, cyclic delay diversity, CDD weighted processing on the first signal to obtain a second signal; characterized by performing (S103), by the base station, densified beam weighted processing on the second signal to obtain a third signal; and sending (S104), by the base station, the third signal via transmit antennas; wherein the second signal and the first signal satisfy: s CDD k = 1 e j θ k ∗ s k , wherein s CDD (k) is the second signal, s(k) is the first signal, 1 e j θ k is a CDD weight matrix, θ k = 2 πD k N FFT , k = 0,1,..., N FFt - 1, D is a delay length, and N FFT is an fast fourier transformation, FFT length; wherein the third signal and the second signal satisfy: s Out k = W m 0 0 W m ∗ s CDD k , wherein s Out (k) is the third signal, W m 0 0 W m is a beam weight matrix, W(m) = 1 e j 2 πm Q ∗ N e j 4π m Q ∗ N ... e j 2 π m N − 1 Q ∗ N , m represents a beam number, m = 1, 2, ..., Q * N, N represents a total quantity of transmit antennas, and Q is a beam densification multiple, wherein the beam densification multiple is a densification multiple of a beam sent by the base station. generating (S101), by a base station, a first signal; performing (S102), by the base station, cyclic delay diversity, CDD weighted processing on the first signal to obtain a second signal; characterized by performing (S103), by the base station, densified beam weighted processing on the second signal to obtain a third signal; and sending (S104), by the base station, the third signal via transmit antennas; wherein the second signal and the first signal satisfy: s CDD k = 1 e j θ k ∗ s k , wherein s CDD (k) is the second signal, s(k) is the first signal, 1 e j θ k is a CDD weight matrix, θ k = 2 πD k N FFT , k = 0,1,..., N FFt - 1, D is a delay length, and N FFT is an fast fourier transformation, FFT length; wherein the third signal and the second signal satisfy: s Out k = W m 0 0 W m ∗ s CDD k , wherein s Out (k) is the third signal, W m 0 0 W m is a beam weight matrix, W(m) = 1 e j 2 πm Q ∗ N e j 4π m Q ∗ N ... e j 2 π m N − 1 Q ∗ N , m represents a beam number, m = 1, 2, ..., Q * N, N represents a total quantity of transmit antennas, and Q is a beam densification multiple, wherein the beam densification multiple is a densification multiple of a beam sent by the base station.