mhurhangee/ep-ind-claims huggingface dataset:
An evaporator for air-conditioning systems of motor vehicles, consisting of flow channels arranged in parallel and conducting a refrigerant, of ribs to which air is supplied and which are arranged between the flow channels and of at least one collecting chamber with refrigerant inlet and/or outlet openings, wherein the evaporator has a block with a perpendicularly measured height H and a horizontally measured width B whose product H x B yields the front surface of the evaporator, wherein the flow channels are arranged lying in a fitting position, i.e. substantially horizontally, and the collecting chamber(s) are arranged to be flowed through in the vertical direction, characterised in that the ratio V of width B to height H has the following range: 2.5 ≤ V ≤ 6, preferably 3.5 ≤ V ≤ 5, wherein the flow channels are formed as flat tubes and the collecting chambers are formed as collecting boxes (4, 5; 22, 23) in which the flat tubes end, with two arrays (9, 10) of flat tubes and collecting boxes (4, 5) arranged on both sides of the flat tube ends and respectively subdivided into two chambers (7, 8; 5a, 5b) for each flat tube array (9, 10), wherein side parts (11, 12) are arranged on both sides of the flat tube arrays (9, 10), wherein the bottom side part has recesses for the discharge of condensate.
Drive assembly, comprising a shaft, a cable drum, a holding means and a gear motor, wherein the gear motor has a gearbox which is driven by an electric motor of the gear motor and the output shaft of which is designed as a hollow shaft, wherein bearings are accommodated in a housing part of the gearbox in order to rotatably support the output shaft, wherein the shaft is mounted in a rotatable manner, in particular relative to the holding means, by means of bearings accommodated in the holding means, wherein the cable drum is connected to the shaft in such a way as to rotate therewith, wherein a torque support, in particular a torque support part, is connected to the holding means, in particular by means of screws, characterized in that at least one screw passing through a cutout of the torque support is screwed - into a threaded bore in the housing part of the gearbox, or - into a threaded bore in a part bearing against the housing part of the gearbox, in particular a part form-fittingly connected to the housing part in the direction of the axis of rotation of the shaft, wherein the screw, with its screw head, presses a first damping ring onto the torque support, and thus the torque support presses a second damping ring toward the housing part of the gearbox. wherein the gear motor has a gearbox which is driven by an electric motor of the gear motor and the output shaft of which is designed as a hollow shaft, wherein bearings are accommodated in a housing part of the gearbox in order to rotatably support the output shaft, wherein the shaft is mounted in a rotatable manner, in particular relative to the holding means, by means of bearings accommodated in the holding means, wherein the cable drum is connected to the shaft in such a way as to rotate therewith, wherein a torque support, in particular a torque support part, is connected to the holding means, in particular by means of screws, characterized in that at least one screw passing through a cutout of the torque support is screwed - into a threaded bore in the housing part of the gearbox, or - into a threaded bore in a part bearing against the housing part of the gearbox, in particular a part form-fittingly connected to the housing part in the direction of the axis of rotation of the shaft, - into a threaded bore in the housing part of the gearbox, or - into a threaded bore in a part bearing against the housing part of the gearbox, in particular a part form-fittingly connected to the housing part in the direction of the axis of rotation of the shaft, wherein the screw, with its screw head, presses a first damping ring onto the torque support, and thus the torque support presses a second damping ring toward the housing part of the gearbox.
A method for determining LED drive values (LED Drive) for backlight elements of a backlight panel of a dual modulation display in response to input image data indicative of an image to be displayed, said method including the step of: determining, for each pixel of the input image data, a data value from the color components of the pixels; the method characterized by including the steps of: determining, for each determined data value, a corresponding squared data value; determining, for each backlight element, the mean of the resulting squared data values of the pixels in a local area of the image that is illuminated by a corresponding backlight element, thereby generating a downsampled image of mean squared data values; low-pass filtering the downsampled image of mean squared data values to generate filtered mean squared data values; determining, for each backlight element, the mean of the resulting data values of the pixels in a local area of the image that is illuminated by a corresponding backlight element, thereby generating a downsampled image of mean data values; and low-pass filtering the downsampled image of mean data values to generate filtered mean data values; squaring the filtered mean data values to generate squared filtered mean data values; subtracting the squared filtered mean data values from the filtered mean squared data values to generate difference values (A-B); and determining the square root of each difference value (A-B) to generate a downsampled image of standard deviation values; determining, for each backlight element, an LED drive value (LED Drive) from a linear combination of the corresponding filtered mean data value and the corresponding standard deviation value. determining, for each determined data value, a corresponding squared data value; determining, for each backlight element, the mean of the resulting squared data values of the pixels in a local area of the image that is illuminated by a corresponding backlight element, thereby generating a downsampled image of mean squared data values; low-pass filtering the downsampled image of mean squared data values to generate filtered mean squared data values; determining, for each backlight element, the mean of the resulting data values of the pixels in a local area of the image that is illuminated by a corresponding backlight element, thereby generating a downsampled image of mean data values; and low-pass filtering the downsampled image of mean data values to generate filtered mean data values; squaring the filtered mean data values to generate squared filtered mean data values; subtracting the squared filtered mean data values from the filtered mean squared data values to generate difference values (A-B); and determining the square root of each difference value (A-B) to generate a downsampled image of standard deviation values; determining, for each backlight element, an LED drive value (LED Drive) from a linear combination of the corresponding filtered mean data value and the corresponding standard deviation value.
A speech recognition method comprising: receiving speech data; obtaining, from the received speech data, a candidate text including at least one word and a phonetic symbol sequence associated with a pronunciation of a target word included in the received speech data, using a speech recognition model, wherein the phonetic symbol sequence is associated with a pronunciation of the target word corresponding to a proper noun; wherein the at least one word includes at least one sub-word, and the candidate text includes the at least one sub-word, the phonetic symbol sequence, and an identifier pair indicating a start and an end of the phonetic symbol sequence, wherein the identifier pair includes a start tag and an end tag, wherein both the start tag and the end tag comprise a same index indicating a category of the target word associated with the phonetic symbol sequence; replacing the phonetic symbol sequence included in the candidate text with replacement word corresponding to the phonetic symbol sequence; determining the replacement word corresponding to the phonetic symbol sequence included in the candidate text, using dictionary data corresponding to the category indicated by the identifier pair among sets of dictionary data corresponding to different categories; replacing the phonetic symbol sequence included in the candidate text with the determined replacement word; and determining a target text corresponding to the received speech data based on a result of the replacing. receiving speech data; obtaining, from the received speech data, a candidate text including at least one word and a phonetic symbol sequence associated with a pronunciation of a target word included in the received speech data, using a speech recognition model, wherein the phonetic symbol sequence is associated with a pronunciation of the target word corresponding to a proper noun; wherein the at least one word includes at least one sub-word, and the candidate text includes the at least one sub-word, the phonetic symbol sequence, and an identifier pair indicating a start and an end of the phonetic symbol sequence, wherein the identifier pair includes a start tag and an end tag, wherein both the start tag and the end tag comprise a same index indicating a category of the target word associated with the phonetic symbol sequence; replacing the phonetic symbol sequence included in the candidate text with replacement word corresponding to the phonetic symbol sequence; determining the replacement word corresponding to the phonetic symbol sequence included in the candidate text, using dictionary data corresponding to the category indicated by the identifier pair among sets of dictionary data corresponding to different categories; replacing the phonetic symbol sequence included in the candidate text with the determined replacement word; and determining a target text corresponding to the received speech data based on a result of the replacing.
An organic light emitting display device comprising: a first light emitting part between an anode and a cathode, the first light emitting part having a first light emitting layer; and a second light emitting part between the first light emitting part and the cathode, the second light emitting part having a second light emitting layer and a third light emitting layer, wherein the first light emitting layer is provided between the anode and the second light emitting layer, and the third light emitting layer is provided between the second light emitting layer and the cathode, wherein the second light emitting layer and the third light emitting layer are disposed in contact with each other; and wherein the second light emitting layer includes a hole-type host and a first electron-type host, and the third light emitting layer includes a first electron-type host and a second electron-type host, characterized in that the occupied volume ratio of the first electron-type host in the third light emitting layer is equal to or larger than the occupied volume ratio of the second electron-type host in the third light emitting layer, and the electron mobility of the first electron-type host of the second light emitting layer and the third light emitting layer is lower than the electron mobility of the second electron-type host, and a difference in LUMO, lowest unoccupied molecular orbital, levels between the first electron-type host of the second light emitting layer and the third light emitting layer and the second electron-type host is equal to or less than 0.5 eV. a first light emitting part between an anode and a cathode, the first light emitting part having a first light emitting layer; and a second light emitting part between the first light emitting part and the cathode, the second light emitting part having a second light emitting layer and a third light emitting layer, wherein the first light emitting layer is provided between the anode and the second light emitting layer, and the third light emitting layer is provided between the second light emitting layer and the cathode, wherein the second light emitting layer and the third light emitting layer are disposed in contact with each other; and wherein the second light emitting layer includes a hole-type host and a first electron-type host, and the third light emitting layer includes a first electron-type host and a second electron-type host, characterized in that the occupied volume ratio of the first electron-type host in the third light emitting layer is equal to or larger than the occupied volume ratio of the second electron-type host in the third light emitting layer, and the electron mobility of the first electron-type host of the second light emitting layer and the third light emitting layer is lower than the electron mobility of the second electron-type host, and a difference in LUMO, lowest unoccupied molecular orbital, levels between the first electron-type host of the second light emitting layer and the third light emitting layer and the second electron-type host is equal to or less than 0.5 eV.
Vertical machining centre with a supporting wall for mounting a workpiece, the horizontal longitudinal alignment of the supporting wall defining an X direction and the vertical alignment of the supporting wall defining a Y direction, and with a workpiece carrier which is arranged at the bottom end of the supporting wall and on which the workpiece can be placed, and with a machining head movable in the Y direction along a guide beam and with a transport device for moving the workpiece in the X direction along the workpiece carrier, the transport device comprising several holding members for fixing the workpiece to the transport device, the holding members each being configured as suction head (54, 56) which can be acted upon with negative pressure for fixing the workpiece to the transport device, characterized in that the machining head comprises several machining units movable perpendicularly to the supporting wall, and in that the transport device comprises at least two suction heads (54, 56) movable relative to each other.
A development apparatus, comprising: a developer tank storing developer including toner, carrier for charging the toner and opposite polarity particles which are charged in an opposite polarity to a polarity of electrostatic charge of the toner; characterized by a developer supporting member which supports the developer to convey the developer in the developer tank toward a development area; and a separation mechanism which is adapted to separate the opposite polarity particles or the toner from the developer on the developer supporting member at an upstream side of the development area in a developer moving direction, wherein a surface charge density of the opposite polarity particles is in the range from 0.5 to 3.0 times of a surface charge density of the carrier. a developer tank storing developer including toner, carrier for charging the toner and opposite polarity particles which are charged in an opposite polarity to a polarity of electrostatic charge of the toner; characterized by a developer supporting member which supports the developer to convey the developer in the developer tank toward a development area; and a separation mechanism which is adapted to separate the opposite polarity particles or the toner from the developer on the developer supporting member at an upstream side of the development area in a developer moving direction, wherein a surface charge density of the opposite polarity particles is in the range from 0.5 to 3.0 times of a surface charge density of the carrier.
A computer-implemented method for securely storing medical data comprising at least steps of: - obtaining (S10, S20, S30), in a secure environment, medical data which include patient property data as well as patient identifier data wherein the patient identifier data indicate at least one patient to which the patient property data correspond; - generating, in the secure environment de-identified medical data (DIMD) by replacing the patient identifier data in the medical data, with non-patient-identifying coded identifiers (NPICI); - generating, in the secure environment, a re-identifying database (RIDB) indicating correspondences between the non-patient-identifying coded identifiers (NPICI) and the patient identifier data; - generating an encrypted re-identifying database (eRIDB) by applying, in the secure environment, at least one asymmetric encryption method to the re-identifying database (RIDB); - storing the encrypted re-identifying database (eRIDB) and the de-identified medical data (DIMD) on a cloud storage outside of the secure environment wherein the asymmetric encryption method being based on a private key, PRK, and a public key, PUK, wherein a public key, PUK, of the asymmetric encryption method is used for the asymmetric encryption and wherein a private key, PRK, for a corresponding decryption remains in the secure environment. - obtaining (S10, S20, S30), in a secure environment, medical data which include patient property data as well as patient identifier data wherein the patient identifier data indicate at least one patient to which the patient property data correspond; - generating, in the secure environment de-identified medical data (DIMD) by replacing the patient identifier data in the medical data, with non-patient-identifying coded identifiers (NPICI); - generating, in the secure environment, a re-identifying database (RIDB) indicating correspondences between the non-patient-identifying coded identifiers (NPICI) and the patient identifier data; - generating an encrypted re-identifying database (eRIDB) by applying, in the secure environment, at least one asymmetric encryption method to the re-identifying database (RIDB); - storing the encrypted re-identifying database (eRIDB) and the de-identified medical data (DIMD) on a cloud storage outside of the secure environment wherein the asymmetric encryption method being based on a private key, PRK, and a public key, PUK, wherein a public key, PUK, of the asymmetric encryption method is used for the asymmetric encryption and wherein a private key, PRK, for a corresponding decryption remains in the secure environment.
An optical fiber cable comprising: a central strength member encapsulated by a thermoplastic buffer; a plurality of optical fiber units 31 surrounding the central strength member, each optical fiber unit includes a plurality of optical fiber members, a polymer coating and a tight buffer, each optical fiber member including an optical fiber and a protective coating surrounding the optical fiber; the polymer coating surrounding the plurality of optical fiber members, wherein a portion of the polymer coating is located between at least some of the optical fiber members, the optical fiber members and the polymer coating forming an optical fiber unit (10, 50, 62); the tight buffer surrounding the optical fiber unit, the tight buffer being extruded directly onto an outer surface of the polymer coating so that an inner wall of the tight buffer is in direct and intimate contact with the outer surface of the polymer coating; an outer jacket of the cable containing the central strength member and the optical fiber members, and the cable includes aramid yarn located adjacent to the inside surface of the outer jacket, wherein the tight buffer is primarily made from a thermoplastic elastomer material. a central strength member encapsulated by a thermoplastic buffer; a plurality of optical fiber units 31 surrounding the central strength member, each optical fiber unit includes a plurality of optical fiber members, a polymer coating and a tight buffer, each optical fiber member including an optical fiber and a protective coating surrounding the optical fiber; the polymer coating surrounding the plurality of optical fiber members, wherein a portion of the polymer coating is located between at least some of the optical fiber members, the optical fiber members and the polymer coating forming an optical fiber unit (10, 50, 62); the tight buffer surrounding the optical fiber unit, the tight buffer being extruded directly onto an outer surface of the polymer coating so that an inner wall of the tight buffer is in direct and intimate contact with the outer surface of the polymer coating; an outer jacket of the cable containing the central strength member and the optical fiber members, and the cable includes aramid yarn located adjacent to the inside surface of the outer jacket, wherein the tight buffer is primarily made from a thermoplastic elastomer material.
Device for handling different packaging and/or container types, said device having first device parts which are not specific to packing material or container types, and interchangeable second device parts (12, 14, 16) which are specific to container type, said second device parts (12, 14, 16) each having an immutable identification marking (20a, 20b, 20c), wherein at least one part of the second device parts (12, 14, 16) has, in addition to the identification marking (20a, 20b, 20c), at least one electronic tag (22a, 22b, 22c), which has a display region and a memory space for user-specific and/or container-specific data (24a, 24b, 24c), and wherein the electronic tag (22a, 22b, 22c) is an E-paper configured as a smart ESL infotag.
A compound of formula wherein R 1 is selected from: (a) Z-O- residues, wherein Z-O- is selected from (i) residues of formula (ii) residues of formula wherein R 3 and R 4 are identical or different; and wherein X is selected from O or S; (iii) residues of formula and (iv) residues of formula: wherein R 2, R 3, R 4, and R 5 are independently selected from alkyl residues having 1 to 12 carbon atoms, aryl residues having 6 to 24 carbon atoms, alkyloxy residues having 1 to 12 carbon atoms, aryloxy residues having 6 to 24 carbon atoms, or heterocyclic residues having 2 to 14 carbon atoms and 1 to 4 hetero atoms as ring component atoms; or (b) a group consisting of halides and pseudohalides. (i) residues of formula (ii) residues of formula wherein R 3 and R 4 are identical or different; and wherein X is selected from O or S; (iii) residues of formula and (iv) residues of formula: (b) a group consisting of halides and pseudohalides.
A process for the preparation of phosphatide-salt aggregates, the process comprising the steps of: (a) using at least one raw material lecithin as a substrate; and (b) enzymatically processing said at least one raw material lecithin with phospholipase-D and racemic or enantiomerically-pure serine in an aqueous caprylate-calcium-salt-aggregate solution formed from caprylic acid and a calcium salt in a 1:2 (weight per weight) acid-to-salt ratio, wherein said calcium salt is calcium chloride, and wherein said step of processing is performed in a single-phase reaction environment, to produce phosphatide-salt aggregates having a structural fatty-acid chain derived from said at least one raw material lecithin. (a) using at least one raw material lecithin as a substrate; and (b) enzymatically processing said at least one raw material lecithin with phospholipase-D and racemic or enantiomerically-pure serine in an aqueous caprylate-calcium-salt-aggregate solution formed from caprylic acid and a calcium salt in a 1:2 (weight per weight) acid-to-salt ratio, wherein said calcium salt is calcium chloride, and wherein said step of processing is performed in a single-phase reaction environment, to produce phosphatide-salt aggregates having a structural fatty-acid chain derived from said at least one raw material lecithin.