mhurhangee/patent-ind-claim-en huggingface dataset:
A halogen-containing compound, represented by a formula I, wherein in the formula I, R 1 , R 2 , R 3 and R 4 are the same or different, and each independently halogen; R 5 and R 6 are the same or different, and each independently hydrogen, C 1 -C 12 alkyl, C 3 -C 12 cycloalkyl or C 6 -C 20 aryl.
An ultrasonic catheter for selectively targeting nerve tissue from a pulmonary artery lumen, comprising: a head configured at a distal end of the catheter, said head comprising one or more ultrasonic transceivers , said transceivers configured to emit non-focused ultrasound energy; said head having a diameter sized to fit within said artery lumen; a controller configured to select one or more operational parameters including frequency, intensity and duration of said non-focused ultrasound energy; characterized in that said controller is configured to operate said transceivers according to said selected operational parameters for selectively damaging only nerves that are not coated by myelin and damaging such nerves when distanced between 8.5 mm and 12 mm away from a wall of said artery, wherein damage to tissue located between 8.5 mm and the wall of said artery is reduced or prevented, by heating said target nerve tissue to a first temperature profile ranging between 47-57 degrees C, wherein said selected operational parameters include a frequency of between 10 and 20 MHz and an intensity of at least 40 W/cm^2. a head configured at a distal end of the catheter, said head comprising one or more ultrasonic transceivers , said transceivers configured to emit non-focused ultrasound energy; said head having a diameter sized to fit within said artery lumen; a controller configured to select one or more operational parameters including frequency, intensity and duration of said non-focused ultrasound energy;
Method for mounting a filter cell for a room air installation for screening out fine dust and/or substances in suspension, such as aerosols, toxic dusts, viruses and/or bacteria, from the incoming and outgoing air, wherein the filter cell comprises a box-shaped housing and at least one rectangular filter plate arranged in the housing, wherein the housing comprises six housing surfaces, wherein two housing surfaces are configured as passage surfaces , namely as an inlet surface with at least one, preferably rectangular, inlet opening , and as an outlet surface , and the four remaining housing surfaces are configured as closed side surfaces connecting the passage surfaces , and a flow channel running from the inlet surface to the outlet surface with a rectangular cross-section, wherein this filter plate comprises two longitudinal edges , aligned in parallel and aligned parallel to the inlet opening and to the corresponding outlet opening , and two parallel side edges , wherein the one longitudinal edge of this filter plate is in sealing contact with the inner side of the one passage surface , the other longitudinal edge of this filter plate is in sealing contact with the inner side of the other passage surface , and the two side edges of this filter plate are in sealing contact on the inner side in each case of a side surface , and wherein the alignment of this filter plate is selected in relation to the inlet opening and the outlet opening in such a way that the air flowing in through the inlet opening into the housing, and flowing out through the corresponding outlet opening out of the housing, flows through this filter plate , characterised in that a passage surface is configured in each case as being of one piece with the two adjacent side surfaces on opposing edges, which in the assembled state are in contact with a side edge of each filter plate , and that, in relation to the remaining three housing surfaces, the other passage surface and the two other side surfaces is (are) in each case configured as separate, but also as of one piece with at least one of the remaining housing surfaces, and that all the open housing edges are adhesively bonded and are therefore sealed.
A method for determining a type of fault in a power line, the method comprising: obtaining voltage and current measurements at a measurement point of the power line; determining transient energies over a first time period for a number of phase-to-ground loops and phase-to-phase loops of the power line, based on the obtained voltage and current measurements; determining transient energy ratios for the phase-to-ground loops and phase-to-phase loops; comparing the transient energy ratios with thresholds corresponding to the phase-to-ground loops or phase-to-phase loops; and determining a type of fault based on the comparison. obtaining voltage and current measurements at a measurement point of the power line; determining transient energies over a first time period for a number of phase-to-ground loops and phase-to-phase loops of the power line, based on the obtained voltage and current measurements; determining transient energy ratios for the phase-to-ground loops and phase-to-phase loops; comparing the transient energy ratios with thresholds corresponding to the phase-to-ground loops or phase-to-phase loops; and determining a type of fault based on the comparison.
An arrangement for line guidance including: an energy guide chain (31; 51) for the protected guidance of lines, cable, hoses or the like between a first connecting location and a second connecting location moveable relative thereto at a consumer; a drive operatively connected to the energy guide chain for assisting with the forward and/or return movement of the energy guide chain; a control unit (36; 46) for actuating the drive; a sensor unit for detecting a movement parameter of a moveable end region of the energy guide chain, wherein the sensor unit includes a movement sensor (10; 20) arranged at a consumer-side end region of the energy guide chain for detecting a movement parameter of the moveable end region , in particular its direction of movement; and the movement sensor is connected to the control unit which controls the drive according to the movement parameter detected by the movement sensor (10; 20) for supporting the forward and/or return movement of the energy guide chain. an energy guide chain (31; 51) for the protected guidance of lines, cable, hoses or the like between a first connecting location and a second connecting location moveable relative thereto at a consumer; a drive operatively connected to the energy guide chain for assisting with the forward and/or return movement of the energy guide chain; a control unit (36; 46) for actuating the drive; a sensor unit for detecting a movement parameter of a moveable end region of the energy guide chain, wherein the sensor unit includes a movement sensor (10; 20) arranged at a consumer-side end region of the energy guide chain for detecting a movement parameter of the moveable end region , in particular its direction of movement; and the movement sensor is connected to the control unit which controls the drive according to the movement parameter detected by the movement sensor (10; 20) for supporting the forward and/or return movement of the energy guide chain.
A memory device, comprising: a first substrate ; a first memory array disposed on the first substrate , wherein the first memory array comprises at least one first word line structure ; a second substrate , wherein the first memory array is disposed between the first substrate and the second substrate in a vertical direction (D1); at least one first vertical transistor (T1) electrically connected with the at least one first word line structure , wherein at least a part of the at least one first vertical transistor (T1) is disposed in the second substrate , and a word line contact structure disposed between the at least one first vertical transistor (T1) and the at least one first word line structure, wherein the at least one first word line structure is electrically connected with the at least one first vertical transistor (T1) via the word line contact structure ; wherein the at least one first vertical transistor (T1) is located corresponding in the vertical direction (D1) to an exposed part of the at least one first word line structure ; wherein the at least one first vertical transistor (T1) includes a first semiconductor channel (CH1), a first gate dielectric layer (L1), and a first gate electrode (G1), characterised in that the second substrate includes a semiconductor substrate, and the first gate electrode (G1) includes a first doped region (DR1) disposed in the second substrate . a first substrate ; a first memory array disposed on the first substrate , wherein the first memory array comprises at least one first word line structure ; a second substrate , wherein the first memory array is disposed between the first substrate and the second substrate in a vertical direction (D1); at least one first vertical transistor (T1) electrically connected with the at least one first word line structure , wherein at least a part of the at least one first vertical transistor (T1) is disposed in the second substrate , and a word line contact structure disposed between the at least one first vertical transistor (T1) and the at least one first word line structure, wherein the at least one first word line structure is electrically connected with the at least one first vertical transistor (T1) via the word line contact structure ; wherein the at least one first vertical transistor (T1) is located corresponding in the vertical direction (D1) to an exposed part of the at least one first word line structure ; wherein the at least one first vertical transistor (T1) includes a first semiconductor channel (CH1), a first gate dielectric layer (L1), and a first gate electrode (G1), characterised in that the second substrate includes a semiconductor substrate, and the first gate electrode (G1) includes a first doped region (DR1) disposed in the second substrate .
A quantizing method of a frame-end subframe, the method comprising: obtaining a line spectral frequency, LSF, coefficient or an immitance spectral frequency, ISF, coefficient from a linear prediction coding, LPC, coefficient of the 5 frame-end subframe in an input signal including at least one of a speech signal and an audio signal; the method being characterized by : determining a magnitude weighting function, based on a magnitude of a spectrum bin corresponding to a frequency of the ISF coefficient or the LSF coefficient; 10 determining a frequency weighting function based on frequency information from the ISF coefficient or the LSF coefficient; determining a weighting function of the frame-end subframe by combining the magnitude weighting function and the frequency weighting function; quantizing the ISF coefficient or the LSF coefficient based on the determined 15 weighting function; and converting the quantized ISF coefficient or the quantized LSF coefficient to a quantized LPC coefficient, wherein the magnitude of the spectrum bin is obtained by using a fast Fourier transform coefficient which is frequency-converted from the input signal, and 20 wherein the magnitude weighting function is based on a maximum value of the magnitude of the spectrum bin corresponding to the frequency of the ISF coefficient or the LSF coefficient and the magnitude of at least one neighboring spectrum bin. determining a magnitude weighting function, based on a magnitude of a spectrum bin corresponding to a frequency of the ISF coefficient or the LSF coefficient; 10 determining a frequency weighting function based on frequency information from the ISF coefficient or the LSF coefficient; determining a weighting function of the frame-end subframe by combining the magnitude weighting function and the frequency weighting function; quantizing the ISF coefficient or the LSF coefficient based on the determined 15 weighting function; and converting the quantized ISF coefficient or the quantized LSF coefficient to a quantized LPC coefficient, wherein the magnitude of the spectrum bin is obtained by using a fast Fourier transform coefficient which is frequency-converted from the input signal, and 20 wherein the magnitude weighting function is based on a maximum value of the magnitude of the spectrum bin corresponding to the frequency of the ISF coefficient or the LSF coefficient and the magnitude of at least one neighboring spectrum bin.
A method for random access, comprising: in response to a terminal device failing to achieve access when a value of a counter for recording a number of transmissions of a random access message containing a preamble reaches N during a first random access procedure, switching (S620), by the terminal device, from the first random access procedure to a second random access procedure, the counter being further configured to count a number of transmissions of a random access message containing a preamble during the second random access procedure, and N being a positive integer, wherein the first random access procedure is 2-steps random access procedure, and the second random access procedure is a 4-steps random access procedure, and characterized by a transmit power for first transmission of the preamble during the second random access procedure being equal to an initial transmit power for the preamble during the first random access procedure. in response to a terminal device failing to achieve access when a value of a counter for recording a number of transmissions of a random access message containing a preamble reaches N during a first random access procedure, switching (S620), by the terminal device, from the first random access procedure to a second random access procedure, the counter being further configured to count a number of transmissions of a random access message containing a preamble during the second random access procedure, and N being a positive integer, wherein the first random access procedure is 2-steps random access procedure, and the second random access procedure is a 4-steps random access procedure, and characterized by a transmit power for first transmission of the preamble during the second random access procedure being equal to an initial transmit power for the preamble during the first random access procedure.
A pump assembly for pumping boiling water to a dispenser in a drinking water dispensing system, the pump assembly comprising: a pump housing having an inlet for the boiling water and an outlet arranged in fluid communication with the inlet ; an impeller disposed in the pump housing for rotation about a central axis for driving the water from the inlet to the outlet , wherein the inlet is arranged on the central axis ; and an inducer arranged in the inlet to the pump housing and operatively connected to the impeller for rotation therewith about the central axis to induce the water at the inlet towards the impeller and raise the inlet pressure, characterized in that the inlet is a conduit having a substantially straight length of at least five times its internal diameter. a pump housing having an inlet for the boiling water and an outlet arranged in fluid communication with the inlet ; an impeller disposed in the pump housing for rotation about a central axis for driving the water from the inlet to the outlet , wherein the inlet is arranged on the central axis ; and an inducer arranged in the inlet to the pump housing and operatively connected to the impeller for rotation therewith about the central axis to induce the water at the inlet towards the impeller and raise the inlet pressure, characterized in that the inlet is a conduit having a substantially straight length of at least five times its internal diameter.
Protective element, more particularly fabric protective tube, for jacketing textile lashing or sling gear for lifting, tensioning or lashing objects , with at least one fabric layer facing the object , as well as a synthetic material layer between the fabric layer and the object , wherein the synthetic material layer is composed of elastomer threads which are woven into the fabric layer and over the fabric layer form outwardly projecting ribs , characterised in that two tube-like fabric layers that are connected to each other, are provided which are connected to each other at the edges.
A coated silver colored colorant, comprising: a silver colored pigment; a primer polymer at least partially coating the silver colored pigment, the primer polymer having a glass transition temperature that is equal to or less than 40°C; and a passivating polymer attached to the primer polymer, the passivating polymer having a glass transition temperature that is greater than 40°C. a silver colored pigment; a primer polymer at least partially coating the silver colored pigment, the primer polymer having a glass transition temperature that is equal to or less than 40°C; and a passivating polymer attached to the primer polymer, the passivating polymer having a glass transition temperature that is greater than 40°C.
An emergency converter comprising a test switch , a status indicator light with at least a first LED , wherein the test switch is configured to short circuit terminals of at least the first LED , a battery duration select switch , wherein the battery duration select switch comprises at least two switches (SW2, SW3), a control circuit , and characterized in that the emergency converter comprises circuitry connected to the test switch , the status indicator light, the battery duration select switch and the control circuit , and the circuitry is configured to enable the control circuit to detect if the test switch is actuated or the battery select switch is actuated using a single input terminal of the control circuit , wherein the input terminal is an analogue-to-digital-converter input of the control circuit , that the circuitry comprises a divider network configured to provide a voltage with a value depending on switch states of the at least two switches (SW2, SW3) to the input terminal of the control circuit , that the circuitry comprises a switching element (SWi) arranged in parallel to the divider network, wherein the switching element (SWi) is configured to pull the voltage at the input terminal of the control circuit to ground potential when the test switch is actuated, and that a further switching element (SWA) of the circuitry is configured to connect a control terminal of the first switching element (SW1) to ground potential when the test switch is not actuated, to switch the first switching element (SW1) into a conducting state when the test switch is actuated. a test switch , a status indicator light with at least a first LED , wherein the test switch is configured to short circuit terminals of at least the first LED , a battery duration select switch , wherein the battery duration select switch comprises at least two switches (SW2, SW3), a control circuit , and that the emergency converter comprises circuitry connected to the test switch , the status indicator light, the battery duration select switch and the control circuit , and the circuitry is configured to enable the control circuit to detect if the test switch is actuated or the battery select switch is actuated using a single input terminal of the control circuit , wherein the input terminal is an analogue-to-digital-converter input of the control circuit , that the circuitry comprises a divider network configured to provide a voltage with a value depending on switch states of the at least two switches (SW2, SW3) to the input terminal of the control circuit , that the circuitry comprises a switching element (SWi) arranged in parallel to the divider network, wherein the switching element (SWi) is configured to pull the voltage at the input terminal of the control circuit to ground potential when the test switch is actuated, and that a further switching element (SWA) of the circuitry is configured to connect a control terminal of the first switching element (SW1) to ground potential when the test switch is not actuated, to switch the first switching element (SW1) into a conducting state when the test switch is actuated.
A flexible bag for the preparation of an adipose tissue graft (I), which is provided with a proximal end and with a distal end and comprising: a front wall and a rear wall , which are connected to one another so as to define a receiving space on the inside; a first filter , which is arranged inside the bag so as to divide the receiving space into a first chamber (C1) and a second chamber (C2); the first filter is configured to micro-fragment the non-treated adipose tissue (TAN) to obtain a micro-fragmented adipose tissue (TAF); and a second filter arranged inside the second chamber (C2) so as to obtain a third chamber (C3); the second filter is configured to obtain the graft (I) by separating a waste material (MS) from the micro-fragmented adipose tissue (TAF); the bag is characterized in that the first filter comprises a distal edge which is connected to the front wall between the proximal end and the distal end ; and that the second filter comprises a proximal edge which is connected to the rear wall between the proximal end and the distal end . a front wall and a rear wall , which are connected to one another so as to define a receiving space on the inside; a first filter , which is arranged inside the bag so as to divide the receiving space into a first chamber (C1) and a second chamber (C2); the first filter is configured to micro-fragment the non-treated adipose tissue (TAN) to obtain a micro-fragmented adipose tissue (TAF); and a second filter arranged inside the second chamber (C2) so as to obtain a third chamber (C3); the second filter is configured to obtain the graft (I) by separating a waste material (MS) from the micro-fragmented adipose tissue (TAF); the bag is characterized in that the first filter comprises a distal edge which is connected to the front wall between the proximal end and the distal end ; and that the second filter comprises a proximal edge which is connected to the rear wall between the proximal end and the distal end .