mhurhangee/ep-ind-claims huggingface dataset:
Refrigeration treatment assembly, comprising a cold chamber which has a peripheral wall extending in a vertical direction and enclosing an interior space, with a head end and a floor end, an inlet channel which has at least one outlet opening facing into the interior space, an evaporator channel which is in flow connection with the inlet channel and in which a refrigerant container storing a refrigerant is removably inserted for generating a cold air mixture, and a delivery device connected to the evaporator channel and designed to suck in air from the environment, which delivery device is further designed to deliver a cold air mixture from the evaporator channel to the at least one outlet opening facing the interior, wherein the cold air mixture is a mixture of refrigerant vaporized in the evaporator channel and the air sucked in from the environment, and wherein the delivery device is arranged outside the cold chamber, wherein the inlet channel is arranged at the head end of the peripheral wall, from where the cold air mixture flows into the cold chamber and sinks towards the bottom end due to its density, wherein the delivery device is further designed to circulate the air sucked in from the environment over the refrigerant in such a way that the circulation of the refrigerant with the air sucked in from the environment causes a heat exchange by means of convection between the air and the refrigerant and leads to the evaporation of the refrigerant. a cold chamber which has a peripheral wall extending in a vertical direction and enclosing an interior space, with a head end and a floor end, an inlet channel which has at least one outlet opening facing into the interior space, an evaporator channel which is in flow connection with the inlet channel and in which a refrigerant container storing a refrigerant is removably inserted for generating a cold air mixture, and a delivery device connected to the evaporator channel and designed to suck in air from the environment, which delivery device is further designed to deliver a cold air mixture from the evaporator channel to the at least one outlet opening facing the interior, wherein the cold air mixture is a mixture of refrigerant vaporized in the evaporator channel and the air sucked in from the environment, and wherein the delivery device is arranged outside the cold chamber, wherein the inlet channel is arranged at the head end of the peripheral wall, from where the cold air mixture flows into the cold chamber and sinks towards the bottom end due to its density, wherein the delivery device is further designed to circulate the air sucked in from the environment over the refrigerant in such a way that the circulation of the refrigerant with the air sucked in from the environment causes a heat exchange by means of convection between the air and the refrigerant and leads to the evaporation of the refrigerant.
A steel cord for tire reinforcement, wherein the steel cord for tire reinforcement being configured to be elongated in one direction and comprising a plurality of strands periodically twisted with each other and having a non-circular cross section, characterized in that the steel cord for tire reinforcement has a first waveform being configured such that a unit waveform having a predetermined period is repeatedly formed over a longitudinal direction of the steel cord for tire reinforcement and a second waveform also being configured such that a unit waveform having a predetermined period is repeatedly formed over a longitudinal direction of the steel cord for tire reinforcement, wherein the first waveform has a first waveform surface onto which a waveform is orthogonally projected, the second waveform has a second waveform surface onto which a waveform is orthogonally projected, and the first waveform and the second waveform are formed to overlap with each other, and a normal on the first waveform surface of the first waveform and a normal on the second waveform surface of the second waveform form a predetermined inclined angle greater than 0.
Mobile foundation for tower cranes and fast construction cranes, which has at least two base elements (2, 3) made of metal which can be arranged side-by-side and can be releasably connected to one another, in particular can be screwed together, the base elements (2, 3) have anchoring devices for a crane tower, characterised in that the base elements (2, 3) can be connected to one another at their side walls (2a, 3a) by the side walls (2a, 3a) having through-holes for screws, wherein the positions of the through-holes in the side walls (2a, 3a) of the base elements (2, 3) correspond to one another and can thus be brought into alignment with one another when the base elements (2, 3) are arranged side-by-side and can be connected directly to one another by means of screws passed through the aligned through-holes, wherein each base element (2, 3) has interconnected, in particular welded, beams and cover plates and/or base plates which are connected to at least some of the beams.
System for powering a winch handling loads at an end of a line associated with a winch drum, the winch being powered by means of one or more electric motors and one or more hydraulic motors via a gear, the one or more hydraulic motors being arranged to be operated when the load in the line exceeds a predetermined load level for taking care of quick hauling in or paying out the line to compensate for vertical motion of the winch, for example due to waves, and the output shaft(s) of said one or more hydraulic motors being connected to the drum shaft through combination of a sun wheel, planet wheels ( and parallel wheels, characterized in that the planet wheels are in mesh contact with a rotatably arranged first annulus provided with cut teeth arranged along the interior annulus surface, and that said first annulus is moreover provided with a second annulus, rigidly fixed to the first annulus and rotatable around the same axis of rotation, and that said second annulus is provided with cut teeth arranged around its outer entire periphery, and is in mesh contact with a gear wheel on a shaft of a first electric motor.
A heating medium circulation system, comprising: a heating means for heating a liquid heating medium, the heating means comprising: an air heat exchanger configured to exchange heat between a refrigerant and air; and a compressor configured to compress the refrigerant; a pump configured to circulate the heating medium through a circulation circuit passing through an indoor-heating terminal and the heating means; a control means electrically connected to the heating means and the pump, the control means being configured to execute indoor-heating operation for suppling the heating medium heated by the heating means to the indoor-heating terminal and defrosting operation for causing frost adhering to the air heat exchanger to melt; and a means for detecting a supply temperature that is a temperature of the heating medium supplied to the indoor-heating terminal from the heating means, characterised in that the control means is configured to deactivate the compressor when the supply temperature exceeds a first deactivation temperature in the indoor-heating operation after a predetermined period of time elapses from a switching time point from the defrosting operation to the indoor-heating operation, and wherein the control means is configured not to deactivate the compressor when the supply temperature exceeds the first deactivation temperature in the indoor-heating operation in a post-defrosting period that is a period until the predetermined period of time elapses from the switching time point. a heating means for heating a liquid heating medium, the heating means comprising: an air heat exchanger configured to exchange heat between a refrigerant and air; and a compressor configured to compress the refrigerant; an air heat exchanger configured to exchange heat between a refrigerant and air; and a compressor configured to compress the refrigerant; a pump configured to circulate the heating medium through a circulation circuit passing through an indoor-heating terminal and the heating means; a control means electrically connected to the heating means and the pump, the control means being configured to execute indoor-heating operation for suppling the heating medium heated by the heating means to the indoor-heating terminal and defrosting operation for causing frost adhering to the air heat exchanger to melt; and a means for detecting a supply temperature that is a temperature of the heating medium supplied to the indoor-heating terminal from the heating means, characterised in that the control means is configured to deactivate the compressor when the supply temperature exceeds a first deactivation temperature in the indoor-heating operation after a predetermined period of time elapses from a switching time point from the defrosting operation to the indoor-heating operation, and wherein the control means is configured not to deactivate the compressor when the supply temperature exceeds the first deactivation temperature in the indoor-heating operation in a post-defrosting period that is a period until the predetermined period of time elapses from the switching time point.
A computer-implemented method of identifying organism types from a target gene sequence, comprising: receiving the target gene sequence; selecting automatically in a database from a plurality of organism type-specific sequence profiles, each sequence profile defining informative sequence regions for differentiating individual organism types and including position-specific information related to more than one associated reference sequences of a specific organism type, a selected sequence profile having a highest correlation with the target gene sequence based on said position-specific information of the related organism type-specific profile; retrieving automatically from the database reference sequences associated with the selected sequence profile; comparing automatically the target gene sequence to the reference sequences and weighting automatically comparison results related to the informative sequence regions using weighting factors associated with the informative sequence regions defined in the selected sequence profile; determining from the reference sequences an organism type-specific reference sequence having a best match with the target gene sequence, the best match being determined based on the comparison results weighted for the informative sequence regions; and assigning to the target gene sequence an organism type based on the best matched organism type-specific reference sequence. receiving the target gene sequence; selecting automatically in a database from a plurality of organism type-specific sequence profiles, each sequence profile defining informative sequence regions for differentiating individual organism types and including position-specific information related to more than one associated reference sequences of a specific organism type, a selected sequence profile having a highest correlation with the target gene sequence based on said position-specific information of the related organism type-specific profile; retrieving automatically from the database reference sequences associated with the selected sequence profile; comparing automatically the target gene sequence to the reference sequences and weighting automatically comparison results related to the informative sequence regions using weighting factors associated with the informative sequence regions defined in the selected sequence profile; determining from the reference sequences an organism type-specific reference sequence having a best match with the target gene sequence, the best match being determined based on the comparison results weighted for the informative sequence regions; and assigning to the target gene sequence an organism type based on the best matched organism type-specific reference sequence.
Heatable laminated side pane, comprising at least an outer pane and an inner pane, which are connected to each other via a thermoplastic intermediate layer, and a transparent electrically conductive coating arranged in a planar manner between the outer pane and the inner pane, which coating is divided by isolation lines into segments, wherein the line width of the isolation lines is less than or equal to 500 μm, and wherein - the coating has heating strips running between a first busbar and a second busbar and each containing at least one segment, wherein the heating strips are electrically insulated from each other by the isolation lines, - at least one heating strip is formed by at least two segments, which are electrically conductively serially connected to each other via at least one electrically conductive connection element, and - the length of each individual heating strip deviates by at most 15% from the average length of the heating strips, and wherein the connection elements and the busbars (7,8) are formed as strips of an electrically conductive foil or as fired screen printing paste. - the coating has heating strips running between a first busbar and a second busbar and each containing at least one segment, wherein the heating strips are electrically insulated from each other by the isolation lines, - at least one heating strip is formed by at least two segments, which are electrically conductively serially connected to each other via at least one electrically conductive connection element, and - the length of each individual heating strip deviates by at most 15% from the average length of the heating strips,
A method for transferring and presenting packages (4, 4', 4"; 91, 92, 93), initially arranged in rows i (..., n-1, n, n+1,...) in the direction transverse to the transfer direction, in a longitudinal or substantially longitudinal line in the direction of their transfer at a determined flow rate D of individual packages by means of at least three successive conveyor belts, namely a regulating conveyor belt and two lining-up conveyor belts (17, 18), wherein - after separating adjacent rows from one another in the longitudinal direction, each row i is presented successively on the regulating conveyor belt, - the dimensions of the spacings between the end packages of said row i and the facing internal and external reference sides of said regulating conveyor belt and the number of packages of row i on said belt are measured by means of optical measurement means M, from said measurements and using calculation means - the speed of the lining-up conveyor belts is calculated in order to maintain the determined flow rate D, - the trajectories of the packages are calculated, and - the moment at which to release the packages of said row i from the regulating belt onto said lining-up conveyor belts is determined on the basis of said calculations so that the internal package of row i does not catch up with the external package of row i-1, and - said row i is advanced onto the lining-up belt (17, 18) at the moment of release which has been determined in this way. - after separating adjacent rows from one another in the longitudinal direction, - the dimensions of the spacings between the end packages of said row i and the facing internal and external reference sides of said regulating conveyor belt and the number of packages of row i on said belt are measured by means of optical measurement means M, - the speed of the lining-up conveyor belts is calculated in order to maintain the determined flow rate D, - the trajectories of the packages are calculated, and - the moment at which to release the packages of said row i from the regulating belt onto said lining-up conveyor belts is determined on the basis of said calculations so that the internal package of row i does not catch up with the external package of row i-1, and - said row i is advanced onto the lining-up belt (17, 18) at the moment of release which has been determined in this way.
An electric drive unit for a motor vehicle, comprising an electric motor, the electric motor comprising: (a) a stator having coil-wound poles; (b) a rotor, (c) with an air gap being present between the stator and the rotor; (d) and the feature that, in the region of the stator back circumference remote from the air gap, there are provided small tubes, preferably of metal, through which cooling liquid can flow for liquid cooling of said stator, the drive unit further comprising: a motor housing fixed in non-rotatable manner; the stator being mounted in the motor housing; the rotor being arranged internally of the stator, with the air gap being present the pole faces of the stator and the outer periphery of the rotor facing the pole faces of the stator; a planetary gear system having a sun wheel, a planet carrier, planet wheels and a ring gear, the rotor and the sun wheel of the planetary gear system being coupled for torque transmission; a gear casing of the planetary gear system, the gear casing being attached to the motor housing or - at least in part - being an integral component part of the motor housing, and a connector element for electrical connection and cooling liquid connection to the motor vehicle. (a) a stator having coil-wound poles; (b) a rotor, (c) with an air gap being present between the stator and the rotor; (d) and the feature that, in the region of the stator back circumference remote from the air gap, there are provided small tubes, preferably of metal, through which cooling liquid can flow for liquid cooling of said stator, a motor housing fixed in non-rotatable manner; the stator being mounted in the motor housing; the rotor being arranged internally of the stator, with the air gap being present the pole faces of the stator and the outer periphery of the rotor facing the pole faces of the stator; a planetary gear system having a sun wheel, a planet carrier, planet wheels and a ring gear, the rotor and the sun wheel of the planetary gear system being coupled for torque transmission; a gear casing of the planetary gear system, the gear casing being attached to the motor housing or - at least in part - being an integral component part of the motor housing, and a connector element for electrical connection and cooling liquid connection to the motor vehicle.
An air conditioner comprising: a housing including a cylindrical portion; a heat exchanger having an arc shape disposed inside the housing; a plurality of discharge ports each having an arc shape; and a refrigerant pipe connecting unit configured to connect the heat exchanger to a refrigerant pipe, characterized in that: the housing further includes a protrusion portion protruding from the cylindrical portion to form a space outside of the cylindrical portion in which at least a portion of the refrigerant pipe connecting unit, located outside of the cylindrical portion, is disposed. a housing including a cylindrical portion; a heat exchanger having an arc shape disposed inside the housing; a plurality of discharge ports each having an arc shape; and a refrigerant pipe connecting unit configured to connect the heat exchanger to a refrigerant pipe, characterized in that: the housing further includes a protrusion portion protruding from the cylindrical portion to form a space outside of the cylindrical portion in which at least a portion of the refrigerant pipe connecting unit, located outside of the cylindrical portion, is disposed.
An immunosuppressant for use in a method of treating an inflammatory bowel disease in a subject, the method comprising administering to the subject the immunosuppressant in an ingestible device, wherein the ingestible device comprises: an ingestible housing comprising a reservoir having a therapeutically effective amount of the immunosuppressant stored therein; a release mechanism having a closed state which retains the immunosuppressant in the reservoir and an open state which allows for the release of the immunosuppressant from the reservoir to the exterior of the device; an actuator which controls the transition of the release mechanism from the closed to the open state; a detector for detecting the location of the ingestible device in the subject's gastrointestinal tract; and a processor which is coupled to the detector and to the actuator and which triggers the actuator to cause the release mechanism to transition from its closed state to its open state to release the immunosuppressant in the cecum when it is determined that the ingestible device is in the cecum of the subject, wherein the site of disease is in the colon, wherein determining the location of the ingestible device in the gastrointestinal tract comprises detecting a transition of the ingestible device from the ileum to the cecum. an ingestible housing comprising a reservoir having a therapeutically effective amount of the immunosuppressant stored therein; a release mechanism having a closed state which retains the immunosuppressant in the reservoir and an open state which allows for the release of the immunosuppressant from the reservoir to the exterior of the device; an actuator which controls the transition of the release mechanism from the closed to the open state; a detector for detecting the location of the ingestible device in the subject's gastrointestinal tract; and a processor which is coupled to the detector and to the actuator and which triggers the actuator to cause the release mechanism to transition from its closed state to its open state to release the immunosuppressant in the cecum when it is determined that the ingestible device is in the cecum of the subject, wherein the site of disease is in the colon, wherein determining the location of the ingestible device in the gastrointestinal tract comprises detecting a transition of the ingestible device from the ileum to the cecum.
A rodent whose genome comprises an engineered Angptl8 gene at an endogenous Angptl8 locus, wherein the engineered Angptl8 gene: - comprises the 5' untranslated region of the endogenous rodent Angptl8 gene, the coding portion of exon 1 of a human ANGPTL8 gene, and exons 2-4 of the human ANGPTL8 gene; and - is operably linked to an endogenous rodent Angptl8 promoter at the endogenous Angptl8 locus, wherein the rodent displays augmented triglyceride levels as compared to a wild type rodent. - comprises the 5' untranslated region of the endogenous rodent Angptl8 gene, the coding portion of exon 1 of a human ANGPTL8 gene, and exons 2-4 of the human ANGPTL8 gene; and - is operably linked to an endogenous rodent Angptl8 promoter at the endogenous Angptl8 locus,