mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a body having a freezing chamber and a refrigeration chamber; a cooling circuit for cooling the freezing chamber and the refrigeration chamber, wherein the cooling circuit is adapted to be supplied with power from a power source; a thermosyphon provided between the freezing chamber and refrigerating chamber; characterized by a control circuit connected to the thermosyphon to control a flow of refrigerant in the thermosyphon, the control circuit including a solenoid valve provided on a circulation path of the thermosyphon, an electrical power storage device connected between the power source and the solenoid valve, and a power direction switching circuit provided between the solenoid valve and the electrical power storage device, wherein, when the power source does not supply power to the cooling circuit, the control circuit operates the thermosyphon using power stored in the electrical power storage device. a body having a freezing chamber and a refrigeration chamber; a cooling circuit for cooling the freezing chamber and the refrigeration chamber, wherein the cooling circuit is adapted to be supplied with power from a power source; a thermosyphon provided between the freezing chamber and refrigerating chamber; characterized by a control circuit connected to the thermosyphon to control a flow of refrigerant in the thermosyphon, the control circuit including a solenoid valve provided on a circulation path of the thermosyphon, an electrical power storage device connected between the power source and the solenoid valve, and a power direction switching circuit provided between the solenoid valve and the electrical power storage device, wherein, when the power source does not supply power to the cooling circuit, the control circuit operates the thermosyphon using power stored in the electrical power storage device.
Pressure expansion vessel for connection to a supply network with a vessel interior space divided by a separating element into a water- and a gas space, with a connection piece, whereby the water space is pressure-tightly connectable via the connection piece with a tube-shaped fitting of the supply network, whereby the connection piece has a radially protruding ring-shaped projection having a circumferential sealing surface on the side facing the tube-shaped fitting of the supply network and on which abuts a ring-shaped sealing element arranged on the connection piece, whereby the connection piece has an external thread and the fitting has a corresponding internal thread, characterized in that, the ring-shaped projection of the connection piece is formed by a screw nut screwed on the connection piece.
Lipopeptides of general Formula 1: CH 3 (CH 2) n C -Xaa1-Dab-Dab-Xaa2-NH 2 (Formula 1) wherein: CH 3 (CH 2) n C - is a saturated fatty acid residue, wherein n=10-14; Xaa1 is D-tryptophan or D-phenylalanine amino acid residue; Xaa2 is L-leucine or L-alanine amino acid residue; Dab is L-2,4-diaminobutyric acid amino acid residue; excluding CH 3 (CH 2) 14 C -D-Phe-Dab-Dab-Leu-NH 2 lipopeptide, wherein the lipopeptides may be in a free form or in form of any pharmaceutically or cosmetically acceptable salt. CH 3 (CH 2) n C - is a saturated fatty acid residue, wherein n=10-14; Xaa1 is D-tryptophan or D-phenylalanine amino acid residue; Xaa2 is L-leucine or L-alanine amino acid residue; Dab is L-2,4-diaminobutyric acid amino acid residue; excluding CH 3 (CH 2) 14 C -D-Phe-Dab-Dab-Leu-NH 2 lipopeptide, wherein the lipopeptides may be in a free form or in form of any pharmaceutically or cosmetically acceptable salt.
An inspection apparatus comprising: a rotation disk configured to spin about an axis of rotation, wherein the rotation disk comprises a probe bushing configured to securely hold an eddy current probe a predetermined distance above a surface to be examined by the probe, wherein the rotation disk is configured to adjustably hold the eddy current probe such that a radial offset of the probe from the axis of rotation is set using a radial positioning set screw coupled to the rotation disk using a first slotted arm and the predetermined distance is set using a probe height set screw configured to secure the probe within the probe bushing; an outer stationary housing coupled to the rotation disk such that the rotation disk rotates within the outer stationary housing; a driving mechanism configured to spin the rotation disk within the outer stationary housing such that the probe revolves about the axis of rotation; and a second slotted arm comprising a first end pivotally mounted to the outer stationary housing and a second end slidably mounted to the probe bushing thereby preventing the eddy current probe from rotating about a longitudinal axis of the eddy current probe when the probe rotates above the surface to be examined. a rotation disk configured to spin about an axis of rotation, wherein the rotation disk comprises a probe bushing configured to securely hold an eddy current probe a predetermined distance above a surface to be examined by the probe, wherein the rotation disk is configured to adjustably hold the eddy current probe such that a radial offset of the probe from the axis of rotation is set using a radial positioning set screw coupled to the rotation disk using a first slotted arm and the predetermined distance is set using a probe height set screw configured to secure the probe within the probe bushing; wherein the rotation disk comprises a probe bushing configured to securely hold an eddy current probe a predetermined distance above a surface to be examined by the probe, wherein the rotation disk is configured to adjustably hold the eddy current probe such that a radial offset of the probe from the axis of rotation is set using a radial positioning set screw coupled to the rotation disk using a first slotted arm and the predetermined distance is set using a probe height set screw configured to secure the probe within the probe bushing; an outer stationary housing coupled to the rotation disk such that the rotation disk rotates within the outer stationary housing; a driving mechanism configured to spin the rotation disk within the outer stationary housing such that the probe revolves about the axis of rotation; and a second slotted arm comprising a first end pivotally mounted to the outer stationary housing and a second end slidably mounted to the probe bushing thereby preventing the eddy current probe from rotating about a longitudinal axis of the eddy current probe when the probe rotates above the surface to be examined.
A computing-device implemented method for identifying an item in an x-ray image using at least one computing device equipped with a processor, the method comprising: executing, using the at least one computing device, at least one machine-learned model, the at least one machine-learned model trained with at least one training data set of x-ray images to generate at least one machine-learned model, the at least one training data set including a first set of x-ray images of items containing threats and a second set of x-ray images of items not containing threats, the at least one machine-learned model is a convolutional neural network, CNN, and the first set of x-ray images and the second set of x-ray images include one or more x-ray images having a TRI-MAT format that identifies items in the image as organic, inorganic or metallic objects and wherein each type of object is depicted as a different color; receiving, with the at least one computing device, at least one rendered x-ray image that includes an item, the x-ray image having the TRI-MAT format that identifies items in the image as organic, inorganic or metallic objects and wherein each type of object is depicted as a different color; identifying, with the at least one computing device, the item using the at least one model; and generating, with the at least one computing device, an automated detection indication associated with the item. executing, using the at least one computing device, at least one machine-learned model, the at least one machine-learned model trained with at least one training data set of x-ray images to generate at least one machine-learned model, the at least one training data set including a first set of x-ray images of items containing threats and a second set of x-ray images of items not containing threats, the at least one machine-learned model is a convolutional neural network, CNN, and the first set of x-ray images and the second set of x-ray images include one or more x-ray images having a TRI-MAT format that identifies items in the image as organic, inorganic or metallic objects and wherein each type of object is depicted as a different color; receiving, with the at least one computing device, at least one rendered x-ray image that includes an item, the x-ray image having the TRI-MAT format that identifies items in the image as organic, inorganic or metallic objects and wherein each type of object is depicted as a different color; identifying, with the at least one computing device, the item using the at least one model; and generating, with the at least one computing device, an automated detection indication associated with the item.
Method for correcting the wavelength and the tuning range of a laser spectrometer, in which the light of a wavelength-tunable laser diode is detected and evaluated after radiating through a gas (1, 18), wherein the laser diode is periodically driven with a current ramp, such that a time-resolved absorption spectrum of the gas (1, 18) is obtained upon the detection of the light, wherein - in the absorption spectrum currently obtained the actual position of an absorption line of the gas (1, 18) is compared with the target position of the same absorption line detected and stored in a preceding one-off adjustment of the laser spectrometer and - in a correction step, with a deviation of the actual position of the absorption line from the target position, the temperature of the laser diode is changed until the actual position corresponds to the target position, andin the absorption spectrum currently obtained, the actual position of a further absorption line is compared with the target position of the same absorption line detected and stored in a preceding one-off adjustment of the laser spectrometer and - in a further correction step, with a deviation of the actual position of the further absorption line from its target position, the gradient of the current ramp is changed until the actual position corresponds to the target position; characterised in that the current ramp is formed from a current-time function with one linear and at least one non-linear term, in the absorption spectrum currently obtained, the actual position of at least one additional absorption line lying between the one and the further absorption line (22, 24) is compared with the target position of the same absorption line detected and stored in the preceding one-off adjustment of the laser spectrometer, and in an additional correction step following the further correction step, with a deviation of the actual position of the at least one additional absorption line from its target position, the at least one non-linear term is changed until the actual position corresponds to the target position. - in the absorption spectrum currently obtained the actual position of an absorption line of the gas (1, 18) is compared with the target position of the same absorption line detected and stored in a preceding one-off adjustment of the laser spectrometer and - in a correction step, with a deviation of the actual position of the absorption line from the target position, the temperature of the laser diode is changed until the actual position corresponds to the target position, andin the absorption spectrum currently obtained, the actual position of a further absorption line is compared with the target position of the same absorption line detected and stored in a preceding one-off adjustment of the laser spectrometer and - in a further correction step, with a deviation of the actual position of the further absorption line from its target position, the gradient of the current ramp is changed until the actual position corresponds to the target position; characterised in that the current ramp is formed from a current-time function with one linear and at least one non-linear term,
A nitric oxide donor which is N-ethoxycarbonyl-3-morpholinosydnonimine (molsidomine), which has the formula II or a pharmaceutically acceptable salt of said compound, for use in a method of treatment, prevention and/or amelioration of nitric oxide deficiency-induced disturbances of the cerebral microcirculation of a human subject, wherein said disturbances cause cerebrovascular spams and/or malperfusion of brain parenchyma caused by blood vessel and blood flow dysregulation, wherein said NO donor is administered at a dose such that the mean arterial pressure is maintained at at least 65 mm Hg, and wherein the NO donor is administered intravenously, intra-arterially, intrathecally, intraventricularly and/or orally. or a pharmaceutically acceptable salt of said compound, for use in a method of treatment, prevention and/or amelioration of nitric oxide deficiency-induced disturbances of the cerebral microcirculation of a human subject, wherein said disturbances cause cerebrovascular spams and/or malperfusion of brain parenchyma caused by blood vessel and blood flow dysregulation, wherein said NO donor is administered at a dose such that the mean arterial pressure is maintained at at least 65 mm Hg, and wherein the NO donor is administered intravenously, intra-arterially, intrathecally, intraventricularly and/or orally.
Motor vehicle having a roof panel module situated at the top of the body of the vehicle, the top of the body of the vehicle comprising an outer side panel and an inner side panel forming a roof frame, the lower portions of the inner and outer side panels (2, 3) being connected and forming a recess, the roof panel module comprising an outer upper panel and a roof liner, the liner comprising a central part and a peripheral part having a free end that is oriented downwardly, the two parts (8a, 8b) being connected together by a flexible hinge, the peripheral part, the central part and the hinge being formed in one piece, and the free end of the peripheral part of the liner being oriented downwardly and fixed in the recess, characterized in that the outer upper panel comprises a central part and a peripheral part fixed to the roof frame, in that the roof panel module comprises a support element positioned between the outer upper panel and the roof liner so as to connect the liner to the outer upper panel, the support element having a first part fixed to the central part of the liner, a second part fixed to a portion of the central part of the outer upper panel, the second part extending along the latter, close to the peripheral part of the outer upper panel, the first and second parts (9a, 9c) being connected to a third part approximately perpendicular to the first and second parts (9a, 9c) in order to provide a space between the liner and the outer upper panel.
Composition for use as an abnormal coagulation control plasma in in vitro assays, comprising human plasma, buffered solution isotonic to normal plasma and ferulic acid, characterised in that said human plasma has been obtained by known human plasma extraction methods and in that said buffered isotonic solution has a pH of between 6.5 and 8.5, wherein the concentration of the human plasma is in the range of from 15 % v/v to 75 % v/v/, the amount of said isotonic solution is in the range of from 40 % v/v to 70 % v/v; and wherein the amount of ferulic acid is in the range of from 0.01 % w/v to 1 % w/v.
Motor vehicle lock comprising a lock latch and catch as locking elements, and comprising a lock mechanism which can be brought into different functional states, and comprising at least one actuating lever, the actuation of which, depending on the functional state of the lock mechanism, causes disengagement of the catch, wherein, in order to set at least some of the functional states, the lock mechanism has a switchable coupling arrangement with a coupling element which can be brought at any rate into a coupling position and into a decoupling position, wherein an in particular motorized drive, in particular a central locking drive, is provided, by means of which the coupling element is adjustable in the coupling direction and in the decoupling direction, characterized in that a transmission rocker having a rocker axis, a drive-side rocker arm and a coupling-element-side rocker arm is connected into the dynamic chain between the adjustment drive and the coupling element, and in that the coupling element is spring-prestressed onto the coupling-element-side rocker arm.
A sleeve for connecting together an outer tube and an inner tube of an electric household appliance, the sleeve comprising: a main body having a head end, an opposite sealing end and a side wall, an actuating button and a cover-piece; a seat for the actuating button, a groove and a latch for the cover-piece on the side wall of the main body; at the head end, a circular ring connected to the front edge of the main body, wherein the diameter of the circular ring is greater than the diameter of the side wall so that between the outer surface of the side wall of the main body and the inner surface of the circular ring there is a gap substantially equal to the thickness of the outer tube, said gap being configured to accommodate the rim of the outer tube, which outer tube in turn comprises a slit, wherein said actuating button comprises: a pressing zone on which a user may exert an unlocking pressure, a tooth configured to penetrate into a cavity of the inner tube passing through a window in the sleeve, a pivot arranged between said pressing zone and said tooth, wherein the pivot is designed to engage inside the groove, and an elastic member configured to push elastically said actuating button with respect to said cover-piece, wherein an unlocking pressure on said pressing zone has the effect of causing the tooth to come out of the cavity of the inner tube. a main body having a head end, an opposite sealing end and a side wall, an actuating button and a cover-piece; a seat for the actuating button, a groove and a latch for the cover-piece on the side wall of the main body; at the head end, a circular ring connected to the front edge of the main body, wherein the diameter of the circular ring is greater than the diameter of the side wall so that between the outer surface of the side wall of the main body and the inner surface of the circular ring there is a gap substantially equal to the thickness of the outer tube, said gap being configured to accommodate the rim of the outer tube, which outer tube in turn comprises a slit, wherein said actuating button comprises: a pressing zone on which a user may exert an unlocking pressure, a tooth configured to penetrate into a cavity of the inner tube passing through a window in the sleeve, a pivot arranged between said pressing zone and said tooth, wherein the pivot is designed to engage inside the groove, and an elastic member configured to push elastically said actuating button with respect to said cover-piece, wherein an unlocking pressure on said pressing zone has the effect of causing the tooth to come out of the cavity of the inner tube. a pressing zone on which a user may exert an unlocking pressure, a tooth configured to penetrate into a cavity of the inner tube passing through a window in the sleeve, a pivot arranged between said pressing zone and said tooth, wherein the pivot is designed to engage inside the groove, and an elastic member configured to push elastically said actuating button with respect to said cover-piece, wherein an unlocking pressure on said pressing zone has the effect of causing the tooth to come out of the cavity of the inner tube.
An apparatus for generating a functionalized aerosol, the apparatus comprising: a battery section comprising a first housing, a battery disposed within the first housing, and a first connector coupled to the housing; an aerosol section comprising a second housing, an aerosol forming chamber disposed within the second housing, and a pod bay; and an insert section comprising a third housing, a connector, a flavor reservoir, an annular separator, and a mouth end, wherein the battery section is configured to couple to the aerosol section, wherein the aerosol section is configured to couple to the insert section, and wherein the connector of the insert section is configured to fit within the pod bay. a battery section comprising a first housing, a battery disposed within the first housing, and a first connector coupled to the housing; an aerosol section comprising a second housing, an aerosol forming chamber disposed within the second housing, and a pod bay; and an insert section comprising a third housing, a connector, a flavor reservoir, an annular separator, and a mouth end, wherein the battery section is configured to couple to the aerosol section, wherein the aerosol section is configured to couple to the insert section, and wherein the connector of the insert section is configured to fit within the pod bay.
A method of protein isolation comprising: a) expressing an expressible protein that is encoded by a nucleic acid sequence inserted into a cell, wherein the nucleic acid sequence encodes for the expressible protein, wherein the expressible protein comprises a first recognizable tag, and wherein the cell has a chromosome that has been genetically modified to express an endogenous DNAK protein or a DNAK protein homolog and a second recognizable tag, wherein the expressible protein is not the endogenous DNAK protein or the DNAK protein homolog, and wherein the first recognizable tag and the second recognizable tag are not the same; b) extracting from the cell lysate, wherein the cell lysate comprises the expressible protein and the endogenous protein; c) purifying the endogenous DNAK protein or DNAK protein homolog by applying the cell lysate to a protein purification procedure wherein the protein purification procedure comprises removal of the endogenous DNAK protein or DNAK protein homolog from the cell lysate by targeting the second recognizable tag, wherein the protein purification procedure does not substantially remove the expressible protein from the cell lysate; and d) purifying the expressible protein encoded by the nucleic acid by targeting the first recognizable tag, wherein steps c) and d) may be performed in any order, and wherein said cell is a bacterial cell. a) expressing an expressible protein that is encoded by a nucleic acid sequence inserted into a cell, wherein the nucleic acid sequence encodes for the expressible protein, wherein the expressible protein comprises a first recognizable tag, and wherein the cell has a chromosome that has been genetically modified to express an endogenous DNAK protein or a DNAK protein homolog and a second recognizable tag, wherein the expressible protein is not the endogenous DNAK protein or the DNAK protein homolog, and wherein the first recognizable tag and the second recognizable tag are not the same; b) extracting from the cell lysate, wherein the cell lysate comprises the expressible protein and the endogenous protein; c) purifying the endogenous DNAK protein or DNAK protein homolog by applying the cell lysate to a protein purification procedure wherein the protein purification procedure comprises removal of the endogenous DNAK protein or DNAK protein homolog from the cell lysate by targeting the second recognizable tag, wherein the protein purification procedure does not substantially remove the expressible protein from the cell lysate; and d) purifying the expressible protein encoded by the nucleic acid by targeting the first recognizable tag,