mhurhangee/ep-ind-claims huggingface dataset:
A pipe section for flow measurements including at least one measuring microwave antennas configured to measure predetermined characteristics of fluid inside the pipe section, the pipe section including an input end and an output end 2. having a cross section with a predetermined dimension, the pipe section comprising a section constituting a microwave resonator and having a cross section in a first direction having a dimension A extending beyond the input and output dimension by a predetermined amount and a second cross section in a second direction having an angle, preferably 90 degrees, relative to the first direction and having a second dimension B being less than the dimension A, the first and second directions are chosen so that B<A<2B, obtaining resonance modes reflected by opposing section surfaces each providing a different standing wave and wherein said at least one antenna is mounted in said surfaces and configured to measure at least one resonance frequency indicating said characteristics of the fluid.
A method of determining a time alignment error between a first signal upstream of a signal processing unit and a second signal downstream of the signal processing unit in a transmitter, the method being characterized by the steps of: determining a first amplitude (A TX) of the first signal and a second amplitude (A MRX) of the second signal; computing a first measure for a difference between the first amplitude and the second amplitude and a second measure for a temporal variation of at least one of the first amplitude and the second amplitude; and correlating the first measure and the second measure for determining the time alignment error. determining a first amplitude (A TX) of the first signal and a second amplitude (A MRX) of the second signal; computing a first measure for a difference between the first amplitude and the second amplitude and a second measure for a temporal variation of at least one of the first amplitude and the second amplitude; and correlating the first measure and the second measure for determining the time alignment error.
A lithium aluminosilicate glass, comprising: - a composition, in mol%, of: 60 - 70 SiO 2 10 - 13 Al 2 O 3 0.0 - 0.9 B 2 O 3 9.6 - 11.6 Li 2 O 8.2 - < 10 Na 2 O 0.0 - 0.7 K 2 O 0.0 - 0.2 MgO 0.2 - 2.3 CaO 0.0 - 0.4 ZnO 1.3 - 2.6 ZrO 2 0.0 - 0.5 P 2 O 5 0.003 - 0.100 Fe 2 O 3 0.0 - 0.3 SnO 2 0.004 - 0.200 CeO 2 in compliance with the following relations: (Li 2 O+Al 2 O 3) / (Na 2 O+K 2 O) > 2; 0.47 < Li 2 O/ (Li 2 O+Na 2 O+K 2 O) < 0.70; 0.8 < CaO+Fe 2 O 3 +ZnO+P 2 O 5 +B 2 O 3 +CeO 2 < 3; wherein at least four out of the six oxides are included; and wherein - said lithium aluminosilicate glass exhibits a modulus of elasticity of at least 82 GPa; - has a glass transition point T g of less than 540 °C and/or a working point of less than 1150 °C; - is suitable for being shaped by a float process; and - can be tempered chemically and/or thermally, so that it has a flexural strength of at least 550 N/mm 2, as measured with the double ring method according to EN 1288-5. - a composition, in mol%, of: 60 - 70 SiO 2 10 - 13 Al 2 O 3 0.0 - 0.9 B 2 O 3 9.6 - 11.6 Li 2 O 8.2 - < 10 Na 2 O 0.0 - 0.7 K 2 O 0.0 - 0.2 MgO 0.2 - 2.3 CaO 0.0 - 0.4 ZnO 1.3 - 2.6 ZrO 2 0.0 - 0.5 P 2 O 5 0.003 - 0.100 Fe 2 O 3 0.0 - 0.3 SnO 2 0.004 - 0.200 CeO 2 in compliance with the following relations: (Li 2 O+Al 2 O 3) / (Na 2 O+K 2 O) > 2; 0.47 < Li 2 O/ (Li 2 O+Na 2 O+K 2 O) < 0.70; 0.8 < CaO+Fe 2 O 3 +ZnO+P 2 O 5 +B 2 O 3 +CeO 2 < 3; wherein at least four out of the six oxides are included; and wherein (Li 2 O+Al 2 O 3) / (Na 2 O+K 2 O) > 2; 0.47 < Li 2 O/ (Li 2 O+Na 2 O+K 2 O) < 0.70; 0.8 < CaO+Fe 2 O 3 +ZnO+P 2 O 5 +B 2 O 3 +CeO 2 < 3; wherein at least four out of the six oxides are included; and wherein - said lithium aluminosilicate glass exhibits a modulus of elasticity of at least 82 GPa; - has a glass transition point T g of less than 540 °C and/or a working point of less than 1150 °C; - is suitable for being shaped by a float process; and - can be tempered chemically and/or thermally, so that it has a flexural strength of at least 550 N/mm 2, as measured with the double ring method according to EN 1288-5.
Piston compressor for a double-piston system, with a connecting rod for two translationally oscillating pistons (16, 16a, 16b), said connecting rod being mountable with one section on an eccentric extension of an eccentric shaft of a drive device by means of a first connecting rod bearing and arranged in a connecting rod movement plane, characterized in that at least one air duct is, from a direction looking onto a lateral surface of the connecting rod, arranged next to the connecting rod and in a plane with said connecting rod such that it does not overlap the connecting rod in at least a transverse direction in the plane, said plane corresponding to the connecting rod movement plane, and a centre-of-gravity line of the translationally oscillating pistons (16, 16a, 16b) extending in the connecting rod movement plane, the at least one air duct being arranged inside a connecting element that extends from below the connecting rod to above the connecting rod and said connecting element being designed as a hollow structure with any cavity cross-section and connected at one end to the first piston and at a second end to the second piston.
An anti-CD28 antibody having a CD28-binding site consisting of: - a first variable domain (also defined herein as the "heavy chain variable domain") defined by the following sequence: VQLQQSGAELKKPGASVKVSCKASGYTFTEYIIHWIKLRSGQGLEWIGWFYP GSNDIQYNAQFKGKATLTADKSSSTVYMELTGLTPEDSAVYFCARRDDFSGY DALPYWGQGTLVTVSA (SEQ ID NO:1), wherein said variable domain may optionally further comprise a Q residue at its N-terminal end; - a second variable domain (also defined herein as the "light chain variable domain") defined by the following sequence: DIQMTQSPSSLSASVGDRVTITCKTNENIYSNLAWYQQKDGKSPQLLIYAATH LVEGVPSRFSGSGSGTQYSLTISSLQPEDFGNYYCQHFWGTPXTFGGGTKLEI KR, wherein X = C or A. - a first variable domain (also defined herein as the "heavy chain variable domain") defined by the following sequence: VQLQQSGAELKKPGASVKVSCKASGYTFTEYIIHWIKLRSGQGLEWIGWFYP GSNDIQYNAQFKGKATLTADKSSSTVYMELTGLTPEDSAVYFCARRDDFSGY DALPYWGQGTLVTVSA (SEQ ID NO:1), wherein said variable domain may optionally further comprise a Q residue at its N-terminal end; - a second variable domain (also defined herein as the "light chain variable domain") defined by the following sequence: DIQMTQSPSSLSASVGDRVTITCKTNENIYSNLAWYQQKDGKSPQLLIYAATH LVEGVPSRFSGSGSGTQYSLTISSLQPEDFGNYYCQHFWGTPXTFGGGTKLEI KR, wherein X = C or A.
A water tank for aquiferous devices, having a filter connector element on the tank side for the connection of a water filter cartridge to the water tank, and a water filter cartridge with a tank connector element on the filter-output side, characterized in that the filter connector element on the tank side is located in the interior of the water tank and has an outer circumferential surface with a polygonal contour and that the tank connector element on the filter-output side for the connection to a connector structure designed in a complementary manner has an inner circumferential surface with a polygonal contour, which after attaching the water filter cartridge in a form-locking and sealing manner with its inner circumference to the outer circumference of the filter connector element on the tank side, abuts the water filter cartridge in a fixing and sealing manner.
A switching regulator control circuit for controlling a switching regulator comprising a switch that conducts to transfer energy from an input source to an output at which a regulated output current (ILED) is provided to an LED load (DLED), the switching regulator control circuit comprising: a circuit configured to generate a control signal for controlling the conduction of the switch and having a first input responsive to a reference signal (IREF), a second input for receiving a feedback signal proportional to the regulated output current (ILED), and an output at which the control signal is provided; the circuit comprising a current source; characterized by the circuit further comprising a current sink, wherein the current source and the current sink are coupled to the first input, wherein the reference signal is ramped by one of the current source or the current sink to control a rate of change of the regulated output current; a digital controller for receiving an external digital signal and for generating a PWM signal (PWMINT) as a delayed version of the external digital signal; and a logic circuit coupled to receive the control signal at the output of the circuit and configured to selectively couple the control signal to the switch in response to the PWM signal (PWMINT) in order to dim the LED load, wherein the reference signal is ramped by at least one of the current source or the current sink in response to an edge of the external digital signal, and wherein the delay between the external digital signal and the PWM signal (PWMINT) corresponds to the time it takes the reference signal to cross a threshold voltage level following the occurrence of the edge of the external digital signal. a circuit configured to generate a control signal for controlling the conduction of the switch and having a first input responsive to a reference signal (IREF), a second input for receiving a feedback signal proportional to the regulated output current (ILED), and an output at which the control signal is provided; the circuit comprising a current source; characterized by the circuit further comprising a current sink, wherein the current source and the current sink are coupled to the first input, wherein the reference signal is ramped by one of the current source or the current sink to control a rate of change of the regulated output current; a digital controller for receiving an external digital signal and for generating a PWM signal (PWMINT) as a delayed version of the external digital signal; and a logic circuit coupled to receive the control signal at the output of the circuit and configured to selectively couple the control signal to the switch in response to the PWM signal (PWMINT) in order to dim the LED load, wherein the reference signal is ramped by at least one of the current source or the current sink in response to an edge of the external digital signal, and wherein the delay between the external digital signal and the PWM signal (PWMINT) corresponds to the time it takes the reference signal to cross a threshold voltage level following the occurrence of the edge of the external digital signal.
A fiber web which has a machine direction and a cross-machine direction, a machine direction tensile elongation of greater than about 2%, a cross-machine direction tensile elongation of greater than about 2%, a thickness of less than about 0.76 mm (30 mils), a dust holding capacity of greater than about 3 mg/cm 2, the dust holding capacity being measured by Palas filtration performance according to ISO Procedure 5011:2000 when a pressure drop across the fiber web reaches 1,500 Pa with a test face velocity of 20.0 cm/sec and using SAE fine dust at a dust mass concentration of 200.0 mg/m 3, and includes (i) between 50% and 95% by weight cellulose fibers and optionally one or more types of fibers formed of compositions including synthetic materials or glass, and (ii) a resin formulation, wherein the fiber web includes a series of flutes that extend in the cross-machine direction or is capable of being fluted by including a series of flutes that extend in a cross-machine direction, the resin formulation comprises between 1% and 50% by weight of the fiber web, the cellulose fibers are softwood fibers, hardwood fibers or combinations thereof, the synthetic materials are at least one of the materials selected from the group consisting ofpolyaramid, polypropylene, polyethylene, polyamide, polyether ether ketone, polyester, lyocell, rayon, and PET, and the resin contained in the resin formulation is selected from waterborne and solvent versions of styrene acrylic resins, acrylic resins, polyethylene vinyl chloride, styrene butadiene rubber, polystyrene acrylate, polyacrylates, polyethylene vinyl chloride, polyvinyl chloride, polynitriles, polyvinyl acetate, polyvinyl alcohol derivatives, starch polymers, epoxy resins, phenolic resins, and combinations thereof. (i) between 50% and 95% by weight cellulose fibers and optionally one or more types of fibers formed of compositions including synthetic materials or glass, and (ii) a resin formulation,
An apparatus for providing a concentrated product gas, comprising: an input device adapted to select a desired output setting for the concentrated product gas from a plurality of output settings; first and second sieve tanks arranged to separate one or more adsorbable components from a pressurized source gaseous mixture in alternating and opposing pressurization and purging cycles to form the concentrated product gas; a variable restrictor, said variable restrictor comprising a first orifice and a bleed valve in series with the first orifice, to selectively provide a first adjustable flow between the first and second sieve tanks; the variable restrictor further comprising a pressure equalization valve in parallel with the series combination of the first orifice and bleed valve to selectively provide a second adjustable flow between the first and second sieve tanks; and a controller in operative communication with the input device and variable restrictor to selectively control the variable restrictor based at least in part on the desired output setting such that the flow between the first and second sieve tanks for at least said desired output setting is different from the flow between the first and second sieve tanks for at least one other output setting in relation to corresponding pressurization cycles; wherein the controller is in operative communication with the bleed valve to selectively control the bleed valve; and wherein the controller is in operative communication with the pressure equalization valve to selectively control the pressure equalization valve. an input device adapted to select a desired output setting for the concentrated product gas from a plurality of output settings; first and second sieve tanks arranged to separate one or more adsorbable components from a pressurized source gaseous mixture in alternating and opposing pressurization and purging cycles to form the concentrated product gas; a variable restrictor, said variable restrictor comprising a first orifice and a bleed valve in series with the first orifice, to selectively provide a first adjustable flow between the first and second sieve tanks; the variable restrictor further comprising a pressure equalization valve in parallel with the series combination of the first orifice and bleed valve to selectively provide a second adjustable flow between the first and second sieve tanks; and a controller in operative communication with the input device and variable restrictor to selectively control the variable restrictor based at least in part on the desired output setting such that the flow between the first and second sieve tanks for at least said desired output setting is different from the flow between the first and second sieve tanks for at least one other output setting in relation to corresponding pressurization cycles; wherein the controller is in operative communication with the bleed valve to selectively control the bleed valve; and wherein the controller is in operative communication with the pressure equalization valve to selectively control the pressure equalization valve.
Shaped body for introduction into an alveolar space or into another bone defect location for wound healing and for bone regeneration and preservation, wherein a) a composite material with at least a first material component in the form of a collagen material and a second material component in the form of a bone replacement material is provided for the shaped body (1; 7; 10; 12; 14; 15; 16; 23; 26; 34; 39; 44), b) the collagen material forms a matrix, in which the bone replacement material is embedded, distributed non-homogeneously, so that a local collagen proportion based on any desired part volume of 30 mm 3 is at least 10 % everywhere and a global collagen proportion based on the total volume is in the range of between 30 % and 95 %, c) the shaped body (1; 7; 10; 12; 14; 15; 16; 23; 26; 34; 39; 44) is compressible and, at a compression by up to 40 % of its starting volume, has a compressive modulus of at most 1.0 MPa, and d) a local bone replacement material proportion based on a part volume of 30 mm 3 has its maximum value at an upper edge face facing the opening of the bone defect location during application and decreases inwardly proceeding from the upper edge face, a BRM zone (2; 8; 11; 13; 17; 24; 40; 45) provided with bone replacement material extending into the interior proceeding from the upper edge face, and e) a bone replacement material-free zone is provided, which adjoins a lower edge face opposing the upper edge face. a) a composite material with at least a first material component in the form of a collagen material and a second material component in the form of a bone replacement material is provided for the shaped body (1; 7; 10; 12; 14; 15; 16; 23; 26; 34; 39; 44), b) the collagen material forms a matrix, in which the bone replacement material is embedded, distributed non-homogeneously, so that a local collagen proportion based on any desired part volume of 30 mm 3 is at least 10 % everywhere and a global collagen proportion based on the total volume is in the range of between 30 % and 95 %, c) the shaped body (1; 7; 10; 12; 14; 15; 16; 23; 26; 34; 39; 44) is compressible and, at a compression by up to 40 % of its starting volume, has a compressive modulus of at most 1.0 MPa, and d) a local bone replacement material proportion based on a part volume of 30 mm 3 has its maximum value at an upper edge face facing the opening of the bone defect location during application and decreases inwardly proceeding from the upper edge face, a BRM zone (2; 8; 11; 13; 17; 24; 40; 45) provided with bone replacement material extending into the interior proceeding from the upper edge face, and e) a bone replacement material-free zone is provided, which adjoins a lower edge face opposing the upper edge face.
A lens care container comprising: a container cup defining an interior chamber accessible through an opening bounded by a rim; and a cap removably attachable to the container cup to cover the opening, the cap comprising a deformable panel and a sealing lip, wherein the sealing lip engages and seals against the rim of the container cup when the deformable panel is substantially undeformed and allows venting of gas between the sealing lip and the rim of the container cup when the deformable panel is deformed, characterized in that the deformable panel is the top panel of the cap. a container cup defining an interior chamber accessible through an opening bounded by a rim; and a cap removably attachable to the container cup to cover the opening, the cap comprising a deformable panel and a sealing lip, wherein the sealing lip engages and seals against the rim of the container cup when the deformable panel is substantially undeformed and allows venting of gas between the sealing lip and the rim of the container cup when the deformable panel is deformed, characterized in that the deformable panel is the top panel of the cap.
A multi-system integrated antenna, comprising: a reflective plate having an upper end and a lower end located below the upper end; a first antenna array and a base station antenna array which are both disposed on the reflective plate; the first antenna array is located at the lower end of the reflective plate, and comprises multiple first antenna subarrays, each of the first antenna subarrays being composed of a plurality of first antenna array elements; the base station antenna array comprises a plurality of first base station antenna array elements and a plurality of second base station antenna array elements, wherein the plurality of first base station antenna array elements are located at the upper end of the reflective plate, and all of the first antenna array elements are located completely below each of the first base station antenna array elements, and the second base station antenna array elements are located at the lower end of the reflective plate and embedded in gaps of the plurality of first antenna array elements, and enclose first antenna array elements of two adjacent first antenna subarrays therein, wherein the second base station antenna array elements and the first base station antenna array elements have the same radiation structure. the first antenna array is located at the lower end of the reflective plate, and comprises multiple first antenna subarrays, each of the first antenna subarrays being composed of a plurality of first antenna array elements; the base station antenna array comprises a plurality of first base station antenna array elements and a plurality of second base station antenna array elements, wherein the plurality of first base station antenna array elements are located at the upper end of the reflective plate, and all of the first antenna array elements are located completely below each of the first base station antenna array elements, and the second base station antenna array elements are located at the lower end of the reflective plate and embedded in gaps of the plurality of first antenna array elements, and enclose first antenna array elements of two adjacent first antenna subarrays therein, wherein the second base station antenna array elements and the first base station antenna array elements have the same radiation structure.
A cook-pack for storing and cooking a comestible item in an oven cavity, the oven cavity having irradiation arrays (20a, 20b) that emit visible or infrared irradiation (22a, 22b) at only desired narrow wavelength bands, the cook-pack comprising: a plastic base portion into which the comestible item is placed, the plastic base portion being optically transmissive at the visible or infrared narrow wavelength bands of irradiation emitted by the irradiation arrays (20a, 20b) to facilitate heating the comestible by the irradiation (22a. 22b) emitted by the irradiation arrays (20a, 20b); and a cover for the base portion (49, wherein the cook-pack further comprises a location feature to locate the cook-pack in a predetermined position in the oven cavity relative to the narrowband arrays (20a, 20b) to facilitate irradiation of the comestible for cooking by the narrowband arrays (20a, 20b), characterized in that i at least one of the plastic base portion and the cover includes at least one colorant, the at least one colorant being optically transmissive in at least one of the narrow wavelength bands of irradiation. a plastic base portion into which the comestible item is placed, the plastic base portion being optically transmissive at the visible or infrared narrow wavelength bands of irradiation emitted by the irradiation arrays (20a, 20b) to facilitate heating the comestible by the irradiation (22a. 22b) emitted by the irradiation arrays (20a, 20b); and a cover for the base portion (49, wherein the cook-pack further comprises a location feature to locate the cook-pack in a predetermined position in the oven cavity relative to the narrowband arrays (20a, 20b) to facilitate irradiation of the comestible for cooking by the narrowband arrays (20a, 20b), characterized in that i at least one of the plastic base portion and the cover includes at least one colorant, the at least one colorant being optically transmissive in at least one of the narrow wavelength bands of irradiation.