mhurhangee/patent-ind-claim-en huggingface dataset:
A bow hold training device for a bow stick of a bowed stringed instrument , the bow hold training device comprising a fingers stabilizer , wherein the finger stabilizer comprises: a body for positioning a ring finger and a pinky finger on the bow stick wherein the body has an axis that is parallel to the longitudinal axis of a bow stick shaft , a pinky finger opening in the body for receiving at least a portion of a pinky finger , wherein the pinky finger opening extends through at least a portion of the body at a non-zero angle with respect to the axis of the body , a finger separator on the body , wherein the finger separator includes a surface for abutting the ring finger to separate the ring and pinky fingers from one another, characterized in that the pinky finger opening is suitable for allowing a tip of the pinky finger to make contact with a ridge on the bow stick shaft , and in that the pinky finger opening in the body includes a first opening and a second opening that has a smaller diameter than the first opening , the finger stabilizer further comprising tapered sidewalls connecting the first and second openings to one another, wherein the finger stabilizer is slidable along the bow stick shaft , and wherein the first opening , the second opening and the tapered sidewalls are for guiding the pinky finger into position on the bow stick . a body for positioning a ring finger and a pinky finger on the bow stick wherein the body has an axis that is parallel to the longitudinal axis of a bow stick shaft , a pinky finger opening in the body for receiving at least a portion of a pinky finger , wherein the pinky finger opening extends through at least a portion of the body at a non-zero angle with respect to the axis of the body , a finger separator on the body , wherein the finger separator includes a surface for abutting the ring finger to separate the ring and pinky fingers from one another, characterized in that the pinky finger opening is suitable for allowing a tip of the pinky finger to make contact with a ridge on the bow stick shaft , and in that the pinky finger opening in the body includes a first opening and a second opening that has a smaller diameter than the first opening , the finger stabilizer further comprising tapered sidewalls connecting the first and second openings to one another, wherein the finger stabilizer is slidable along the bow stick shaft , and wherein the first opening , the second opening and the tapered sidewalls are for guiding the pinky finger into position on the bow stick .
Device for determining the mixing ratio of a mixture (FL), wherein the mixture (FL) comprises at least two different fluids (H20, GLY), the device comprising: - a pipe section with a measuring region (MR), in particular one through which fluid flows, provided for determining the mixing ratio; - wherein the mixture (FL) is provided to flow through the pipe section ; - a radar sensor system (RS) comprising a radar sensor chip (RC), wherein the radar sensor chip (RC) has a sensor outer side, which is arranged on an outer wall of the pipe section and/or penetrates this outer wall; wherein the radar sensor system (RS) is adapted to: - irradiate frequency-modulated millimetre-radar waves (f S ) in a specified frequency range (Δf) via the sensor outer side into the measuring region (MR); - receive millimetre-radar waves (f R ) backscattered back at the mixture (FL); - ascertain a frequency-dependent reflection coefficient (ρ f ) for the specified frequency range (Δf) using the backscattered millimetre-radar waves (f R ); and - calculate the mixing ratio from the ascertained frequency-dependent reflection coefficient (ρ f ), characterised in that the radar sensor chip (RC) has at its sensor outer side at least one receiving antenna (Rx0 - Rx3); wherein the radar sensor system (RS) is adapted to: - receive millimetre-radar waves (f R ) backscattered at the mixture (FL) using the at least one receiving antenna (Rx0 - Rx3). - a pipe section with a measuring region (MR), in particular one through which fluid flows, provided for determining the mixing ratio; - wherein the mixture (FL) is provided to flow through the pipe section ; - a radar sensor system (RS) comprising a radar sensor chip (RC), wherein the radar sensor chip (RC) has a sensor outer side, which is arranged on an outer wall of the pipe section and/or penetrates this outer wall; - irradiate frequency-modulated millimetre-radar waves (f S ) in a specified frequency range (Δf) via the sensor outer side into the measuring region (MR); - receive millimetre-radar waves (f R ) backscattered back at the mixture (FL); - ascertain a frequency-dependent reflection coefficient (ρ f ) for the specified frequency range (Δf) using the backscattered millimetre-radar waves (f R ); and - calculate the mixing ratio from the ascertained frequency-dependent reflection coefficient (ρ f ), characterised in that - receive millimetre-radar waves (f R ) backscattered at the mixture (FL) using the at least one receiving antenna (Rx0 - Rx3).
A method performed by a customer equipment, CE, the method comprising the steps of: assigning a CE IP address to the CE, the CE IP address associated with a plurality of tags, wherein each tag of the plurality of tags is a pre-defined virtual local area network, VLAN, tag; assigning an aggregation equipment, AE, IP address to an AE; establishing first communication over Ethernet virtual connection, EVC, between the CE and the AE using the CE IP address and the AE IP address; automatically selecting a tag from the plurality of tags at the CE based on information received from the AE, wherein the selected tag at the CE matches an Ethernet port tag of an Ethernet port of the AE; and establishing second communication between the CE and the AE using the selected tag. assigning a CE IP address to the CE, the CE IP address associated with a plurality of tags, wherein each tag of the plurality of tags is a pre-defined virtual local area network, VLAN, tag; assigning an aggregation equipment, AE, IP address to an AE; establishing first communication over Ethernet virtual connection, EVC, between the CE and the AE using the CE IP address and the AE IP address; automatically selecting a tag from the plurality of tags at the CE based on information received from the AE, wherein the selected tag at the CE matches an Ethernet port tag of an Ethernet port of the AE; and establishing second communication between the CE and the AE using the selected tag.
A data processing method performed by a data mapping processing function module, comprising: receiving a second message, wherein the second message comprises a data type and a coding mode used to indicate a data collection requirement; determining , based on a locally stored context of each collector and the second message, a collector that supports the data type and the coding mode in the second message, wherein the context of the collector comprises attribute capability information of the collector; receiving data description information and reported data from the determined collector that supports the data type and the coding mode in the second message, wherein the data description information comprises at least one of a vendor name, network element version information, a data type supported by a network management system, or a coding mode supported by the network management system; converting the reported data based on the data description information, wherein reported data obtained through conversion meets a virtual network function event streaming VES specification; and sending a VES event, wherein the VES event comprises the reported data obtained through conversion. receiving a second message, wherein the second message comprises a data type and a coding mode used to indicate a data collection requirement; determining , based on a locally stored context of each collector and the second message, a collector that supports the data type and the coding mode in the second message, wherein the context of the collector comprises attribute capability information of the collector; receiving data description information and reported data from the determined collector that supports the data type and the coding mode in the second message, wherein the data description information comprises at least one of a vendor name, network element version information, a data type supported by a network management system, or a coding mode supported by the network management system; converting the reported data based on the data description information, wherein reported data obtained through conversion meets a virtual network function event streaming VES specification; and sending a VES event, wherein the VES event comprises the reported data obtained through conversion.
A method for processing at least one digital image (II n ) for rendering it on a display device , said image comprising image elements, an image element being associated with colour information represented in a first colour space comprising a first luminance component (Y 1 ) and first chrominance components, said first luminance component having a value within a first range of predetermined values, said display device being adapted to render luminance component values of the image elements within a second range of predetermined values, of length greater than that of the first range, said method comprising the steps of: - determining (E1) information representative of a global brightness level (ILG) of the image perceived by an observer, based on the values of the first luminance component of the elements of the image; - calculating (E2) an expansion exponent (γ) as a function of the determined global brightness level information; - transforming (E3) the first luminance components of the image elements into second luminance components, comprising for an element of the image, the calculation of an intermediate luminance value by applying the calculated expansion exponent to the first luminance component value and the multiplication of the calculated intermediate value by the length of the second range of predetermined values, characterised in that the calculated expansion exponent is a decreasing function of the determined global brightness level information enabling the value of the expansion exponent to decrease when the global brightness level increases. - determining (E1) information representative of a global brightness level (ILG) of the image perceived by an observer, based on the values of the first luminance component of the elements of the image; - calculating (E2) an expansion exponent (γ) as a function of the determined global brightness level information; - transforming (E3) the first luminance components of the image elements into second luminance components, comprising for an element of the image, the calculation of an intermediate luminance value by applying the calculated expansion exponent to the first luminance component value and the multiplication of the calculated intermediate value by the length of the second range of predetermined values,
A brake pedal assembly , comprising: a pedal ; a stroke sensor configured to detect a depression stroke of the pedal ; Hall sensors spaced apart from each other in a direction parallel to an operation direction of the pedal ; and a controller configured to determine the depression stroke of the pedal using any combination of the stroke sensor and the Hall sensors and to determine a required braking force of a vehicle, in response to the depression stroke of the pedal , characterized in that the Hall sensors includes first to N-th Hall sensors , wherein N is a natural number equal to or greater than 3, and wherein spacing between the Hall sensors increases from the first Hall sensor that is closest to an initial position of the pedal to the N-th Hall sensor that is farthest from the initial position of the pedal . a pedal ; a stroke sensor configured to detect a depression stroke of the pedal ; Hall sensors spaced apart from each other in a direction parallel to an operation direction of the pedal ; and a controller configured to determine the depression stroke of the pedal using any combination of the stroke sensor and the Hall sensors and to determine a required braking force of a vehicle, in response to the depression stroke of the pedal , characterized in that the Hall sensors includes first to N-th Hall sensors , wherein N is a natural number equal to or greater than 3, and wherein spacing between the Hall sensors increases from the first Hall sensor that is closest to an initial position of the pedal to the N-th Hall sensor that is farthest from the initial position of the pedal .
A method for manufacturing water treated man-made vitreous fibres (MMVF) comprising: a. providing a mineral melt, b. providing a fiberizing apparatus, c. fiberizing the mineral melt to form man-made vitreous fibres (MMVF), d. collecting the MMVF, and characterised by thereafter e. applying 0.1 wt% to 1 wt% water, based on the weight of MMVF, to the MMVF to form water treated MMVF. a. providing a mineral melt, b. providing a fiberizing apparatus, c. fiberizing the mineral melt to form man-made vitreous fibres (MMVF), d. collecting the MMVF, and characterised by thereafter e. applying 0.1 wt% to 1 wt% water, based on the weight of MMVF, to the MMVF to form water treated MMVF.
A refrigerator comprising: a first storage compartment provided at an upper portion of a cabinet ; a second storage compartment provided below the first storage compartment; a partition wall for partitioning off an internal space of the cabinet into the first storage compartment and the second storage compartment and having a horizontal top surface; an accommodating unit defining an accommodating space and an opening, the accommodating space being recessed downward from the top surface of the partition wall and the opening being located at an upper portion of the accommodating unit and being configured to introduce food therethrough; an accommodating unit door movable parallel with the top surface of the partition wall , thereby selectively opening/closing the opening ; at least one pair of rollers disposed underneath the accommodating unit door at opposite sides thereof, allowing the accommodating unit door to slidingly move with respect to the partition wall ; and a pair of upper ribs provided at opposite sides of the accommodating unit door , to restrict splaying of the accommodating unit door, characterized in that the accommodating unit door has a rectangular plate shape including straight sides, round corners and transition portions between the straight sides and the round corners, wherein the length of the pair of upper ribs is shorter than a side length of the accommodating unit door , wherein the pair of upper ribs is configured to cover the transition portions based on the accommodating unit door closing the opening . a first storage compartment provided at an upper portion of a cabinet ; a second storage compartment provided below the first storage compartment; a partition wall for partitioning off an internal space of the cabinet into the first storage compartment and the second storage compartment and having a horizontal top surface; an accommodating unit defining an accommodating space and an opening, the accommodating space being recessed downward from the top surface of the partition wall and the opening being located at an upper portion of the accommodating unit and being configured to introduce food therethrough; an accommodating unit door movable parallel with the top surface of the partition wall , thereby selectively opening/closing the opening ; at least one pair of rollers disposed underneath the accommodating unit door at opposite sides thereof, allowing the accommodating unit door to slidingly move with respect to the partition wall ; and a pair of upper ribs provided at opposite sides of the accommodating unit door , to restrict splaying of the accommodating unit door, characterized in that the accommodating unit door has a rectangular plate shape including straight sides, round corners and transition portions between the straight sides and the round corners, wherein the length of the pair of upper ribs is shorter than a side length of the accommodating unit door , wherein the pair of upper ribs is configured to cover the transition portions based on the accommodating unit door closing the opening .
Method for determining a load level (B F ) of a filter medium , through which a fluid flows, of a filter device on a vehicle , in which the filter medium fits into a filter housing of the filter device with a filter input and a filter output , wherein in order to determine the load level (B F ) - operating information (c F , dp F ) of the filter device is determined as a function of at least one operating variable (n, T, Q, η, ρ, dp G , dp Diff ) of the vehicle , - predefined reference information (c F,ref , dp F,ref (B)) of the filter device is compared with the operating information (c F , dp F ), and - the loading level (B F ) is derived from the comparison result, wherein the operating information (c F , dp F ) is determined as a function of operating variables which are formed by a pressure loss (dp G ) of the filter housing and a pressure loss (dp Diff ) of the filter device between the filter input and the filter output , characterized in that the pressure loss of the filter device between the filter input and the filter output corresponds to a differential pressure (dp Diff ) of a differential pressure switch at the switching point thereof, and the operating information (c F , dp F ) is determined as a function of at least one operating variable (n, T, Q, η, ρ, dp G ) which is acquired during the switching point of the differential pressure switch . - operating information (c F , dp F ) of the filter device is determined as a function of at least one operating variable (n, T, Q, η, ρ, dp G , dp Diff ) of the vehicle , - predefined reference information (c F,ref , dp F,ref (B)) of the filter device is compared with the operating information (c F , dp F ), and - the loading level (B F ) is derived from the comparison result, wherein the operating information (c F , dp F ) is determined as a function of operating variables which are formed by a pressure loss (dp G ) of the filter housing and a pressure loss (dp Diff ) of the filter device between the filter input and the filter output , characterized in that the pressure loss of the filter device between the filter input and the filter output corresponds to a differential pressure (dp Diff ) of a differential pressure switch at the switching point thereof, and the operating information (c F , dp F ) is determined as a function of at least one operating variable (n, T, Q, η, ρ, dp G ) which is acquired during the switching point of the differential pressure switch .
An apparatus for manufacturing a non-uniform-thickness film comprising a die for extruding a resin plate , and a first roller and a second roller for molding the resin plate, wherein the apparatus comprises: a preliminary molding section provided on the die side in order to mold an uneven portion to the resin plate, the uneven portion being uneven in thickness; and a main molding section provided on the first roller and the second roller in order to mold a non-uniform-thickness portion from the uneven portion, and characterized in that the main molding section comprises a column-shaped portion and a disc-shaped portion provided on the first roller , and a truncated-cone-shaped portion and a column-shaped portion that smoothly connects to the smaller-diameter face of the truncated-cone-shaped portion provided on the second roller . a preliminary molding section provided on the die side in order to mold an uneven portion to the resin plate, the uneven portion being uneven in thickness; and a main molding section provided on the first roller and the second roller in order to mold a non-uniform-thickness portion from the uneven portion, and characterized in that the main molding section comprises a column-shaped portion and a disc-shaped portion provided on the first roller , and a truncated-cone-shaped portion and a column-shaped portion that smoothly connects to the smaller-diameter face of the truncated-cone-shaped portion provided on the second roller .
A protein composition suitable for an infant milk formula, the composition comprising casein, whey protein and at least one high isoelectric protein from a non-dairy source, said high isoelectric protein having an isoelectric point of between 6.0 and 11, wherein the weight ratio of the sum of casein and whey protein to the high-isoelectric protein in the composition is between 95:5 and 75:25.
Preformed coil for producing a self-supporting air gap winding for a small electric motor , wherein the preformed coil is formed from at least one turn through 360° of a wire element , wherein the preformed coil has two turn sides or preformed coil sides , specifically an upper preformed coil side and the lower preformed coil side , and the two preformed coil sides are connected at the ends by means of end connections, and the preformed coil is formed around a longitudinal axis of the air gap winding in such a way that the upper preformed coil side lies on an outer cylinder with a radius (R3) and the lower preformed coil side lies on a cylinder with a radius (R2) which is smaller than the radius (R3), so that there is a radial planar offset between the upper preformed coil side and the lower preformed coil side , wherein the two preformed coil sides , in the region of their end connections, bridge the radial planar offset in the radial direction by turn offset sections , characterized in that the preformed coil which is formed from the at least one turn with an upper and a lower preformed coil side and with the offset sections is shaped by direct action of force onto the wire element , which forms the turn , by the forces which are active during the winding process, so that there is no change in length in the individual turn , so that a change in cross section of the wire element and tearing or chipping of a wire coating is avoided and there is no forward run as length reservoir of the wire element in the region of the offset sections .