mhurhangee/patent-ind-claim-en huggingface dataset:
Latching mechanism for a cargo door in a fuselage cell of an aircraft, the latching mechanism comprising: a number of fuselage cell fitments which are able to be disposed in the area of a loading edge of the cargo door , a corresponding number of cargo door fitments which are able to be fixed in the lower edge area of the cargo door and a sliding element , wherein latching the cargo door is carried out by the sliding element and the cargo door fitments can be brought into positive latching engagement at least in some areas with the fuselage cell fitments wherein peripheral loads of the fuselage cell are transferred substantially by a load transfer surface and radial loads are taken up substantially by the sliding element characterised in that the at least one cargo door fitment is provided with a securing mechanism for the supplementary self-securing of the sliding element against unintended opening, wherein the securing mechanism comprises a security bar having at least one security cam , wherein, when in a locked state of the cargo door, the at least one security cam can be brought into at least one security recess in the sliding element by swivelling the security bar . a number of fuselage cell fitments which are able to be disposed in the area of a loading edge of the cargo door , a corresponding number of cargo door fitments which are able to be fixed in the lower edge area of the cargo door and a sliding element , wherein latching the cargo door is carried out by the sliding element and the cargo door fitments can be brought into positive latching engagement at least in some areas with the fuselage cell fitments wherein peripheral loads of the fuselage cell are transferred substantially by a load transfer surface and radial loads are taken up substantially by the sliding element characterised in that the at least one cargo door fitment is provided with a securing mechanism for the supplementary self-securing of the sliding element against unintended opening, wherein the securing mechanism comprises a security bar having at least one security cam , wherein, when in a locked state of the cargo door, the at least one security cam can be brought into at least one security recess in the sliding element by swivelling the security bar .
A method for acquiring an opening time and/or a closing time of a circuit breaker device in a high-voltage AC power transmission network , wherein a point-on-wave controller is assigned to the circuit breaker device , the point-on-wave controller is permanently connected to a drive of the circuit breaker device , and the point-on-wave controller has dedicated measurement inputs , that are adapted for acquiring a timing information for a mechanical switching operation of the circuit breaker device , the method comprising: establishing a temporary electrical connection between primary contacts , which primary contacts are used for high-voltage switching during live operation, of said circuit breaker device and the dedicated measurement inputs , a mechanical switching operation of said circuit breaker device is initiated by said point-on-wave controller , measuring, by means of said point-on-wave controller , a time required for the mechanical switching operation of said circuit breaker device , wherein the measuring of the time required for the mechanical switching operation of the circuit breaker device is done with the circuit breaker device not being connected to high voltage, deriving, by means of said point-on-wave controller , the opening time and/or closing time based on said measured time, calculating, by means of said point-on-wave controller , improved operation strategies for the circuit breaker device during the live operation, and removing the temporary electrical connection after having derived the opening time and/or closing time, such that the circuit breaker device is used for the high-voltage switching, and additionally comprising a step of storing the derived opening time and/or closing time in a memory of said point-on-wave controller for being used for later live operation. establishing a temporary electrical connection between primary contacts , which primary contacts are used for high-voltage switching during live operation, of said circuit breaker device and the dedicated measurement inputs , a mechanical switching operation of said circuit breaker device is initiated by said point-on-wave controller , measuring, by means of said point-on-wave controller , a time required for the mechanical switching operation of said circuit breaker device , wherein the measuring of the time required for the mechanical switching operation of the circuit breaker device is done with the circuit breaker device not being connected to high voltage, deriving, by means of said point-on-wave controller , the opening time and/or closing time based on said measured time, calculating, by means of said point-on-wave controller , improved operation strategies for the circuit breaker device during the live operation, and removing the temporary electrical connection after having derived the opening time and/or closing time, such that the circuit breaker device is used for the high-voltage switching, and additionally comprising a step of storing the derived opening time and/or closing time in a memory of said point-on-wave controller for being used for later live operation.
An optical arrangement for detecting scattered and/or fluorescent light in an inclined plane microscope comprising an objective system having an optical axis for collecting and transmitting the scattered and/or fluorescent light from an object side to a tube side , a tube system located on the tube side of the objective system comprising at least one tube lens having an optical axis for focussing the scattered and/or fluorescent light collected by the objective system in a tube detector plane , wherein a plurality of optical lenses are arranged between the tube system and the virtual tube detector plane , wherein the plurality of lenses substantially simultaneously transmit the scattered and/or fluorescent light and focus it into a detector plane spaced apart from the tube detector plane , and wherein each lens of the plurality of lenses includes a smaller numerical aperture (NA) than the tube system , characterised in that the plurality of optical lenses comprise lenses of different focal lengths such that the position of the range of depth of field of the respective lens can be adapted to the tilted illumination plane of the inclined plane microscope .
An insulation glazing unit for controlling information reflected or projected to a surface of the insulation glazing unit by means of an interactive film attached to the insulation glazing unit, wherein the insulation glazing unit comprises at least two panes forming an intermediate space between the at least two panes; the interactive film is disposed in the intermediate space and attached to a first pane of the at least two panes , and the controlling is implementable by touch through the first pane ; the insulation glazing unit comprises a projection film for displaying the information reflected or projected thereon; and the projection film is disposed in the intermediate space between the at least two panes , the interactive film and the projection film being at least partially superimposed and attached to the first pane , or the interactive film is attached to the surface of the first pane and the projection film is attached to the surface of a second pane facing the first pane , the interactive film and the projection film being thereby disposed in the intermediate space between the first and second panes .
A motor function analysis system adapted for analyzing a motor function of a subject, comprising: a display unit adapted for displaying image information including a moving target image and a cursor image for tracking said target image ; a moving unit adapted to be used by the subject to move the cursor image ; and an analyzer adapted for detecting the tracking status of the target image tracked by the cursor image and analyzing the frequency of the movement components contained in the tracking status, characterized in that the analyzer is adapted to separate a first frequency domain (F1) relating to a predicted movement component, a second frequency domain (F2) relating to a feedback movement component, which is higher than the first frequency domain, and a third frequency domain (F3) relating to a disease-induced movement component, which is higher than the second frequency domain, from the frequency of movement components, and wherein the analyzer is adapted to determine the ratio (S F3 /S F1 ) of the quantity of the disease-induced movement component obtained from an integrated value (S F3 ) of the third frequency domain (F3) and the quantity of the predicted movement component obtained from an integrated value (S F1 ) of the first frequency domain (F1). a display unit adapted for displaying image information including a moving target image and a cursor image for tracking said target image ; a moving unit adapted to be used by the subject to move the cursor image ; and an analyzer adapted for detecting the tracking status of the target image tracked by the cursor image and analyzing the frequency of the movement components contained in the tracking status, characterized in that the analyzer is adapted to separate a first frequency domain (F1) relating to a predicted movement component, a second frequency domain (F2) relating to a feedback movement component, which is higher than the first frequency domain, and a third frequency domain (F3) relating to a disease-induced movement component, which is higher than the second frequency domain, from the frequency of movement components, and wherein the analyzer is adapted to determine the ratio (S F3 /S F1 ) of the quantity of the disease-induced movement component obtained from an integrated value (S F3 ) of the third frequency domain (F3) and the quantity of the predicted movement component obtained from an integrated value (S F1 ) of the first frequency domain (F1).
An air conditioner comprising a refrigerant circuit , the refrigerant circuit including: a compressor ; an outdoor heat exchanger ; an outdoor expansion valve ; an indoor expansion valve ; a four-way valve ; an indoor heat exchanger ; an auxiliary heat exchanger provided on a refrigerant pipe between the outdoor heat exchanger and the indoor expansion valve , the auxiliary heat exchanger connected in series with the outdoor expansion valve ; a rectifier configured to allow a refrigerant flowing from the outdoor heat exchanger toward the indoor expansion valve in a cooling operation and a refrigerant flowing from the indoor expansion valve toward the outdoor heat exchanger in a heating operation to sequentially flow through the auxiliary heat exchanger and the outdoor expansion valve ; at least one bypass passage bypassing the outdoor expansion valve ; at least one flow regulating valve installed on the at least one bypass passage); an injection passage including one end connected to an injection inlet of the compressor and the other end connected between the auxiliary heat exchanger and the outdoor expansion valve , and configured to allow a part of the refrigerant flowing from the auxiliary heat exchanger to the outdoor expansion valve to flow to the compressor through the auxiliary heat exchanger ; and a supercooling expansion valve (EV) installed in the injection passage and configured to expand the refrigerant in the injection passage flowing toward the auxiliary heat exchanger . a compressor ; an outdoor heat exchanger ; an outdoor expansion valve ; an indoor expansion valve ; a four-way valve ; an indoor heat exchanger ; an auxiliary heat exchanger provided on a refrigerant pipe between the outdoor heat exchanger and the indoor expansion valve , the auxiliary heat exchanger connected in series with the outdoor expansion valve ; a rectifier configured to allow a refrigerant flowing from the outdoor heat exchanger toward the indoor expansion valve in a cooling operation and a refrigerant flowing from the indoor expansion valve toward the outdoor heat exchanger in a heating operation to sequentially flow through the auxiliary heat exchanger and the outdoor expansion valve ; at least one bypass passage bypassing the outdoor expansion valve ; at least one flow regulating valve installed on the at least one bypass passage); an injection passage including one end connected to an injection inlet of the compressor and the other end connected between the auxiliary heat exchanger and the outdoor expansion valve , and configured to allow a part of the refrigerant flowing from the auxiliary heat exchanger to the outdoor expansion valve to flow to the compressor through the auxiliary heat exchanger ; and a supercooling expansion valve (EV) installed in the injection passage and configured to expand the refrigerant in the injection passage flowing toward the auxiliary heat exchanger .
Patient simulator, in particular premature infant, newborn or infant simulator, comprising a thorax replication , which comprises a chest replication with at least one liftable and lowerable chest element for simulating a lifting and lowering of the thorax, abdominal wall mechanics, which comprises an abdominal wall replication with at least one liftable and lowerable abdominal wall element for simulating a lifting and lowering of the abdominal wall, a lung simulator , an anatomical trachea replication opening out into a cavity , an anatomical oesophagus replication opening out into a cavity, and a control unit , characterized in that the patient simulator includes at least one sensor whose sensor data is transmitted to the control unit to determine whether the ventilation gas supplied to the patient simulator is conducted into the trachea replication or into the oesophagus replication , wherein a lifting and lowering drive , which can be activated independently of the lung simulator , is provided for the at least one liftable and lowerable chest element, the control unit interacts with the lifting and lowering drive for the at least one liftable and lowerable chest element and with a lifting and lowering drive for the liftable and lowerable abdominal wall element and the control unit is designed such that it can actuate the drive of the liftable and lowerable abdominal wall element for lifting the abdominal wall element if it is detected that the ventilation gas supplied to the patient simulator enters the oesophagus replication .
A pharmaceutical composition, medical food, or dietary supplement for use in treating an immune imbalance in a human subject comprising a glycan therapeutic preparation in an effective amount to treat the subject, wherein i) the glycan therapeutic preparation comprises branched glycans; ii) the glycan therapeutic preparation comprises an average degree of branching (DB) of at least 0.01; iii) at least 50% of the glycans in the glycan therapeutic preparation have a degree of polymerization (DP) of at least 3 and less than 30 glycan units; iv) the ratio of alpha- to beta-glycosidic bonds present in the glycans of the glycan therapeutic preparation is between about 1:1 to about 5:1; and wherein the branched glycans comprise glucose, galactose, arabinose, mannose, fructose, xylose, fucose, or rhamnose glycan units; wherein the immune imbalance is accompanied by aberrant growth of a cancerous cell; and wherein the pharmaceutical composition, medical food, or dietary supplement is administered in combination with a second agent or therapy. i) the glycan therapeutic preparation comprises branched glycans; ii) the glycan therapeutic preparation comprises an average degree of branching (DB) of at least 0.01; iii) at least 50% of the glycans in the glycan therapeutic preparation have a degree of polymerization (DP) of at least 3 and less than 30 glycan units; iv) the ratio of alpha- to beta-glycosidic bonds present in the glycans of the glycan therapeutic preparation is between about 1:1 to about 5:1; and
Device for producing rolled metal strips, preferably hot-rolled metal strips, wherein the device comprises: a casting machine which is equipped to produce slabs (B) and to transport them in a transport line (CLC) of the casting machine; a rolling plant equipped to reshape the slabs (B) by rolling into appropriate metal strips during transport along a transport line (CLM) of the rolling plant; a combined transporting and temperature influencing device which is arranged between the casting machine and the rolling plant and which is equipped to transport the slabs (B) to or along the transport line (CLM) of the rolling plant, to feed them to the rolling plant and to set the temperature of the slabs (B) to a rolling temperature; a surface device which is arranged between the casting machine and the combined transporting and temperature influencing device and which is equipped to process and/or treat and/or inspect at least one of the surfaces of the slabs (B); and a temperature influencing device which is arranged between the casting machine and the combined transporting and temperature influencing device and which is equipped to modify the temperature of the slabs (B); characterised in that a plurality of routes, which implement at least sectionally different process lines for the slabs (B), is provided, wherein the surface device is arranged in a first route and the temperature influencing device in a second route and the devices are so arranged that the slabs (B) run through either the surface device or the temperature influencing device . a casting machine which is equipped to produce slabs (B) and to transport them in a transport line (CLC) of the casting machine; a rolling plant equipped to reshape the slabs (B) by rolling into appropriate metal strips during transport along a transport line (CLM) of the rolling plant; a combined transporting and temperature influencing device which is arranged between the casting machine and the rolling plant and which is equipped to transport the slabs (B) to or along the transport line (CLM) of the rolling plant, to feed them to the rolling plant and to set the temperature of the slabs (B) to a rolling temperature; a surface device which is arranged between the casting machine and the combined transporting and temperature influencing device and which is equipped to process and/or treat and/or inspect at least one of the surfaces of the slabs (B); and a temperature influencing device which is arranged between the casting machine and the combined transporting and temperature influencing device and which is equipped to modify the temperature of the slabs (B); characterised in that a plurality of routes, which implement at least sectionally different process lines for the slabs (B), is provided, wherein the surface device is arranged in a first route and the temperature influencing device in a second route and the devices are so arranged that the slabs (B) run through either the surface device or the temperature influencing device .
An antibody or antigen binding fragment thereof that specifically binds to hOX40L, and inhibits binding of hOX40L to hOX40, wherein the antibody or antigen binding fragment comprises a heavy chain and a light chain and wherein the heavy chain comprises a V H domain comprising an amino acid sequence of SEQ ID NO: 34 and the light chain comprises a V L domain comprising an amino acid sequence of SEQ ID NO:48.
A battery operated handheld power tool, comprising a working tool assembly , a handle assembly to which a battery pack may be detachably connected, and an elongate tubular rod interconnecting the working tool assembly and the handle assembly ; wherein the working tool assembly comprises a working tool of the battery operated handheld power tool , and a motor housing having a first inner space , in which first inner space an electric motor with a fan is provided, the electric motor being arranged to drive the working tool , the first inner space being connected to the exterior of the working tool assembly by means of at least one air outlet provided in the motor housing ; characterized in that the handle assembly comprises a housing and a second inner space in which a control unit comprising a PCB and arranged to control operation of the electric motor is positioned, the second inner space being in flow communication with the exterior of the handle assembly , wherein the elongate tubular rod defines an air guiding channel , in flow communication with the first inner space and the second inner space , such that the fan is operable to move cooling air from the exterior of the handle assembly , via the second inner space , the air guiding channel of the tubular rod , to the first inner space and further to the exterior of the working tool assembly . a working tool assembly , a handle assembly to which a battery pack may be detachably connected, and an elongate tubular rod interconnecting the working tool assembly and the handle assembly ; wherein the working tool assembly comprises a working tool of the battery operated handheld power tool , and a motor housing having a first inner space , in which first inner space an electric motor with a fan is provided, the electric motor being arranged to drive the working tool , the first inner space being connected to the exterior of the working tool assembly by means of at least one air outlet provided in the motor housing ; characterized in that the handle assembly comprises a housing and a second inner space in which a control unit comprising a PCB and arranged to control operation of the electric motor is positioned, the second inner space being in flow communication with the exterior of the handle assembly , wherein the elongate tubular rod defines an air guiding channel , in flow communication with the first inner space and the second inner space , such that the fan is operable to move cooling air from the exterior of the handle assembly , via the second inner space , the air guiding channel of the tubular rod , to the first inner space and further to the exterior of the working tool assembly .
An electrically conductive adhesive agent composition comprising: a metal particle (Q); and an organophosphorus compound (A) represented by the general formula below, wherein the metal particle (Q) comprises a first metal particle (Q1) made of a single metal selected from the group of copper, nickel, aluminum and tin or an alloy comprising two or more metals selected from said group in the general formula , each R independently represents an organic group, R may be the same or different with each other, each R independently comprises, in its moiety, one or more group selected from a vinyl group, an acrylic group, a methacrylic group, a maleic acid ester group, a maleic acid amide group, a maleic acid imide group, a primary amino group, a secondary amino group, a hydrosilyl group, a hydroboron group, and an epoxy group, wherein in the formula x = 3 and y= 0. a metal particle (Q); and an organophosphorus compound (A) represented by the general formula below, wherein the metal particle (Q) comprises a first metal particle (Q1) made of a single metal selected from the group of copper, nickel, aluminum and tin or an alloy comprising two or more metals selected from said group in the general formula , each R independently represents an organic group, R may be the same or different with each other, each R independently comprises, in its moiety, one or more group selected from a vinyl group, an acrylic group, a methacrylic group, a maleic acid ester group, a maleic acid amide group, a maleic acid imide group, a primary amino group, a secondary amino group, a hydrosilyl group, a hydroboron group, and an epoxy group, wherein in the formula x = 3 and y= 0.