mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a process comprising at least an adjustment, presetting, monitoring, control, alteration, optimisation, production of samples and analysis, in an extrusion production process of an elongate extruded component, wherein, for the purpose of controlling the process, a plurality of graduated arms (1 to 16) are shown or plotted by a display device such that - they are not on top of one another, - they are spaced apart from one another and - at least some are diverging (2, 3; 6, 7; 10, 11), which graduated arms are numbered with physical variables and at least the following two categories of graduated arms are covered by the numbered graduated arms (1 to 16), (a) at least one result variable graduated arm (5 to 9) for representing a result variable either of the extruded component or from the extrusion process, which graduated arm represents a physical result as a physical property of the component, such as a size of a wall (21, 22), or a process variable of the process, such as a viscosity or a temperature during the extrusion production process; (b) at least two independent process parameter graduated arms (14 to 16, 1 to 4) which relate to the extrusion production process and represent non-identical process variables, each of which can be predetermined by a separate adjustment in the production process and occurs or can be measured in the production process; in order to span a first horizon (39, 34, 34a, 34b) of the display device with the at least three graduated arms (1 to 9, 14 to 16), which horizon visually stands out against an inner and an outer environment (35, 36); and in order to allow or enable or facilitate or expand a process control from at least the first horizon (39, 34), wherein a process control is selected from the group of adjustment, presetting, monitoring, control, alteration, optimisation, production of samples and analysis. - they are not on top of one another, - they are spaced apart from one another and - at least some are diverging (2, 3; 6, 7; 10, 11), (a) at least one result variable graduated arm (5 to 9) for representing a result variable either of the extruded component or from the extrusion process, which graduated arm represents a physical result as a physical property of the component, such as a size of a wall (21, 22), or a process variable of the process, such as a viscosity or a temperature during the extrusion production process; (b) at least two independent process parameter graduated arms (14 to 16, 1 to 4) which relate to the extrusion production process and represent non-identical process variables, each of which can be predetermined by a separate adjustment in the production process and occurs or can be measured in the production process;
Illumination system (30; 44) - with illumination optics which guide EUV illumination light collected by a collector (31; 45) to an object field, - wherein the collector (31; 45) serves to transfer the EUV illumination light from a radiation source region to the illumination optics, - wherein the illumination optics have: -- a field facet mirror with a multiplicity of field facets, -- a pupil facet mirror with a multiplicity of pupil facets, which are part of pupil facet transfer optics, which image the field facets in a manner superposed on one another into the object field, - wherein the collector (31; 45) has collector imaging optics, which image the radiation source region into a focal region disposed downstream thereof, - wherein the first imaging of the radiation source region of the collector imaging optics in the beam path after the radiation source region occurs in the downstream focal region, - characterized in that a construction region not coinciding with the downstream focal region lies between the collector (31; 45) and a first component of the illumination optics, in which construction region a cross section of an overall beam of the EUV illumination light is reduced by at least a factor of 2 compared to the cross section can the field facet mirror. - with illumination optics which guide EUV illumination light collected by a collector (31; 45) to an object field, - wherein the collector (31; 45) serves to transfer the EUV illumination light from a radiation source region to the illumination optics, - wherein the illumination optics have: -- a field facet mirror with a multiplicity of field facets, -- a pupil facet mirror with a multiplicity of pupil facets, which are part of pupil facet transfer optics, which image the field facets in a manner superposed on one another into the object field, -- a field facet mirror with a multiplicity of field facets, -- a pupil facet mirror with a multiplicity of pupil facets, which are part of pupil facet transfer optics, which image the field facets in a manner superposed on one another into the object field, - wherein the collector (31; 45) has collector imaging optics, which image the radiation source region into a focal region disposed downstream thereof, - wherein the first imaging of the radiation source region of the collector imaging optics in the beam path after the radiation source region occurs in the downstream focal region, - characterized in that a construction region not coinciding with the downstream focal region lies between the collector (31; 45) and a first component of the illumination optics, in which construction region a cross section of an overall beam of the EUV illumination light is reduced by at least a factor of 2 compared to the cross section can the field facet mirror.
A subject support assembly for a magnetic resonance imaging system (100, 200, 300, 400, 500), comprising a radio frequency transmit coil and a subject support for supporting a subject within an imaging zone of a magnet of the magnetic resonance imaging system, wherein a radio frequency amplifier (124, 124', 124") for driving the radio frequency transmit coil is provided on an end of the subject support, such as to be positioned outside of the imaging zone when the subject support is in use in the magnetic resonance imaging system, and wherein the subject support assembly is provided with a DC power source for supplying DC electrical power to the radio frequency amplifier, wherein the radio frequency amplifier is detachably supported by the subject support, wherein the subject support comprises a first DC electrical connector, wherein the radio frequency amplifier comprises a second DC electrical connector, and wherein the subject support is arranged to supply said DC electrical power to the at least one radio frequency amplifier when the first DC electrical connector is connected to the second DC electrical connector.
An apparatus (40, 100, 200) for molding a mold, wherein the apparatus (40, 100, 200) comprises the following: a raising and lowering mechanism for raising and lowering via a table (3, 103, 203) a pattern carrier (10, 110, 110A, 210) located below a flask; a sand-loading mechanism for loading foundry sand into a space defined by the flask and a pattern plate (11, 11A, 111, 111A) that are loaded on the pattern carrier (10, 110, 110A, 210); a squeezing mechanism (32, 125, 225) for squeezing from above the foundry sand loaded in the space; characterized by a fixing and releasing mechanism (21, 121, 221) for fixing and releasing the table (3, 103, 203) or the pattern carrier (10, 110, 110A, 210), which is a component subject to squeezing power caused by the squeezing mechanism (32, 125, 225); wherein the fixing and releasing mechanism (21, 121, 221) is provided on a connecting frame that is connected to a post and fixes the component subject to the squeezing power to the fixing and releasing mechanism (21, 121, 221) in a position above the raising and lowering mechanism so that the component subject to the squeezing power is fixed to an end of the squeezing mechanism (32, 125, 225) via the connecting frame. a raising and lowering mechanism for raising and lowering via a table (3, 103, 203) a pattern carrier (10, 110, 110A, 210) located below a flask; a sand-loading mechanism for loading foundry sand into a space defined by the flask and a pattern plate (11, 11A, 111, 111A) that are loaded on the pattern carrier (10, 110, 110A, 210); a squeezing mechanism (32, 125, 225) for squeezing from above the foundry sand loaded in the space; characterized by a fixing and releasing mechanism (21, 121, 221) for fixing and releasing the table (3, 103, 203) or the pattern carrier (10, 110, 110A, 210), which is a component subject to squeezing power caused by the squeezing mechanism (32, 125, 225); wherein the fixing and releasing mechanism (21, 121, 221) is provided on a connecting frame that is connected to a post and fixes the component subject to the squeezing power to the fixing and releasing mechanism (21, 121, 221) in a position above the raising and lowering mechanism so that the component subject to the squeezing power is fixed to an end of the squeezing mechanism (32, 125, 225) via the connecting frame.
A bispecific antibody comprising a first antigen-binding region and a second antigen-binding region, which first and second antigen-binding regions bind different epitopes on human epidermal growth factor receptor 2, and wherein the first antigen-binding region is selected from the group consisting of: a) an antibody comprising a VH region comprising the sequence of SEQ ID NO:63 and a VL region comprising the sequence of SEQ ID NO:67, b) an antibody comprising a variable heavy region comprising the sequence of SEQ ID NO: 165 and a variable light region comprising the sequence of SEQ ID NO: 169, and c) an antibody comprising a VH region comprising the sequence of SEQ ID NO:22 and a VL region comprising the sequence of SEQ ID NO:26, wherein the second antigen binding region comprises a VH region comprising SEQ ID NO:1, and a VL region comprising SEQ ID NO:5. a) an antibody comprising a VH region comprising the sequence of SEQ ID NO:63 and a VL region comprising the sequence of SEQ ID NO:67, b) an antibody comprising a variable heavy region comprising the sequence of SEQ ID NO: 165 and a variable light region comprising the sequence of SEQ ID NO: 169, and c) an antibody comprising a VH region comprising the sequence of SEQ ID NO:22 and a VL region comprising the sequence of SEQ ID NO:26,
Structure intended to emit electromagnetic radiation, comprising first and second electrodes (101,102) configured so as to allow carriers to be injected into at least one semiconductor-based stack with a view to making them recombine in an active zone of the stack in order to form all or some of the electromagnetic radiation to be emitted, the first electrode having at least one first face for injecting carriers into the stack, said first face being oriented in a different direction to the direction in which the stack is formed, and the second electrode comprising a second face for injecting carriers into the stack, characterized in that said second injection face comprises a first portion facing the first electrode and a second portion for which the first electrode is not facing, and in that a dielectric element, making contact with the first electrode, is interposed between at least one part of the first electrode and at least one part of the first portion.
Gear motor formed of a housing comprising an electric motor which drives a parallel-shaft reduction gear train that comprises at least one intermediate gear (200, 300, 400, 500) and an output wheel, - said output wheel consisting of a single component having a toothed ring which is extended on either side by cylindrical axial extensions each guided by the housing, each of said extensions having at their end a means for coupling with an external drive member, - said output wheel being coaxial with a toothed wheel that forms one of said intermediate gears, characterized in that said toothed wheel is freely rotatable relative to one of said axial extensions. - said output wheel consisting of a single component having a toothed ring which is extended on either side by cylindrical axial extensions each guided by the housing, each of said extensions having at their end a means for coupling with an external drive member, - said output wheel being coaxial with a toothed wheel that forms one of said intermediate gears,
Foaming device for foaming and/or heating a fluid inside a container, the device further comprising a processing element, a driving unit and a distinct heating unit such that the processing element is mechanically decoupled from both the heating unit and the driving unit, the processing element being movable inside the container in response to a magnetic field generated by the driving unit, characterized in that the processing element is further inductively heatable by an oscillating magnetic field provided by the heating unit.
Roller blind system, comprising a roller blind provided with a roller shaft through which roller shaft a central rod extends and to which roller shaft a flexible sheet member, such as a roller blind fabric or a screen, is attached, wherein the roller blind system is further provided with two bracket connectors attached at the outer ends of the roller shaft, wherein the bracket connectors are arranged for releasable coupling to mounting brackets (20, 40) for mounting the roller blind system on a surface, characterized in that the roller blind is spring operated and comprises a tension spring fixedly connected to the central rod and to the roller shaft and a tension adjusting mechanism for adjusting the tension of the tension spring, wherein the tension adjusting mechanism comprises an adjusting wheel and an adjusting spring for adjusting the rotational position of the central rod, wherein the tension adjusting mechanism further comprises first engaging means for pushing the adjusting spring in a relaxed configuration and second engaging means for pushing the adjusting spring in a tightened configuration, wherein the first engaging means are arranged on the adjusting wheel and the second engaging means are connected to the central rod.
A guided wave radar level gauge system for determining a filling level of a product contained in a tank, which level gauge system comprises: a transceiver for transmitting electromagnetic transmission signals and receiving reflected electromagnetic signals reflected at a surface of said product; a probe, connected to said transceiver, arranged to extend vertically into said tank and configured to guide said electromagnetic transmission signals towards said surface and to guide said reflected electromagnetic signals back to said transceiver; processing circuitry connected to said transceiver and configured to determine said filing level based on said received reflected electromagnetic signals; characterized by a plurality of spacing elements (108; 320) arranged on said probe, each of said spacing elements comprising: a hollow shell structure having a substantially ellipsoidal shape defining an ellipsoidal space; a first shell opening (304 a) at a first location of said shell; a second shell (304 b) opening at a second location, such that a passage through said first and second shell openings defines a passage through said ellipsoidal space, wherein said probe extends through said passage; and a plurality of flow openings allowing fluid flow between the exterior and interior of said shell. a transceiver for transmitting electromagnetic transmission signals and receiving reflected electromagnetic signals reflected at a surface of said product; a probe, connected to said transceiver, arranged to extend vertically into said tank and configured to guide said electromagnetic transmission signals towards said surface and to guide said reflected electromagnetic signals back to said transceiver; processing circuitry connected to said transceiver and configured to determine said filing level based on said received reflected electromagnetic signals; characterized by a plurality of spacing elements (108; 320) arranged on said probe, each of said spacing elements comprising: a hollow shell structure having a substantially ellipsoidal shape defining an ellipsoidal space; a first shell opening (304 a) at a first location of said shell; a second shell (304 b) opening at a second location, such that a passage through said first and second shell openings defines a passage through said ellipsoidal space, wherein said probe extends through said passage; and a plurality of flow openings allowing fluid flow between the exterior and interior of said shell. a hollow shell structure having a substantially ellipsoidal shape defining an ellipsoidal space; a first shell opening (304 a) at a first location of said shell; a second shell (304 b) opening at a second location, such that a passage through said first and second shell openings defines a passage through said ellipsoidal space, wherein said probe extends through said passage; and a plurality of flow openings allowing fluid flow between the exterior and interior of said shell.
An isolated antibody binding IL-15 comprising: a heavy chain variable region of SEQ ID NO: 5 or a variant of SEQ ID NO: 5 wherein said variant of SEQ ID NO: 5 has the amino acid sequence of SEQ ID NO: 5 except that 1, 2, 3 or 4 amino acids of said sequence are substituted by a different amino acid selected from the following: (i) VH RH3 is substituted by glutamine, and/or VH MH5 is substituted by valine, and/or VH AH6 is substituted by glutamic acid, and/or VH AH49 is substituted by serine and/or (ii) VH DH61 is substituted by a glutamic acid, and/or VH SH62 is substituted by threonine, and/or (iii) VH MH98 is substituted by leucine, phenylalanine, isoleucine or alanine and/or VH WH100C is substituted by tyrosine, phenylalanine, or alanine, and/or VH MH100E is substituted by leucine, phenylalanine, or isoleucine, and a light chain variable region of SEQ ID NO: 24, or an antigen-binding fragment thereof, and wherein the positions of the substituted amino acids are expressed according to the Kabat numbering system. a heavy chain variable region of SEQ ID NO: 5 or a variant of SEQ ID NO: 5 wherein said variant of SEQ ID NO: 5 has the amino acid sequence of SEQ ID NO: 5 except that 1, 2, 3 or 4 amino acids of said sequence are substituted by a different amino acid selected from the following: (i) VH RH3 is substituted by glutamine, and/or VH MH5 is substituted by valine, and/or VH AH6 is substituted by glutamic acid, and/or VH AH49 is substituted by serine and/or (ii) VH DH61 is substituted by a glutamic acid, and/or VH SH62 is substituted by threonine, and/or (iii) VH MH98 is substituted by leucine, phenylalanine, isoleucine or alanine and/or VH WH100C is substituted by tyrosine, phenylalanine, or alanine, and/or VH MH100E is substituted by leucine, phenylalanine, or isoleucine, and (i) VH RH3 is substituted by glutamine, and/or VH MH5 is substituted by valine, and/or VH AH6 is substituted by glutamic acid, and/or VH AH49 is substituted by serine and/or (ii) VH DH61 is substituted by a glutamic acid, and/or VH SH62 is substituted by threonine, and/or (iii) VH MH98 is substituted by leucine, phenylalanine, isoleucine or alanine and/or VH WH100C is substituted by tyrosine, phenylalanine, or alanine, and/or VH MH100E is substituted by leucine, phenylalanine, or isoleucine, and a light chain variable region of SEQ ID NO: 24, or an antigen-binding fragment thereof, and wherein the positions of the substituted amino acids are expressed according to the Kabat numbering system.
Method for handling a first call received in a call centre via a telecommunications network, originating from a user terminal, comprising placing the first call in a queue when no call centre operator terminal is available to take the first call, said method being characterized in that it comprises: - transmitting, to the user's terminal, a user identification code, said code being created and placed, in the first call, in the queue in place of an identifier of the first call and being obtained in a second call that has to be made subsequently by the user, within a determined time interval, so as to allow the second call to benefit from the place of the first call in the queue. - transmitting, to the user's terminal, a user identification code, said code being created and placed, in the first call, in the queue in place of an identifier of the first call and being obtained in a second call that has to be made subsequently by the user, within a determined time interval, so as to allow the second call to benefit from the place of the first call in the queue.
A heat exchanger comprising: a plurality of refrigerant tubes vertically spaced apart from one another; and a plurality of heat exchanging fins horizontally spaced apart from one another, each of the heat exchanging fins being coupled to a surface of at least one of the refrigerant tubes, wherein each of the heat exchanging fins comprises: a plurality of fitting slots formed at one lateral end of the heat exchanging fin, arranged to receive the plurality of refrigerant tubes, a plurality of moisture guide valleys extending vertically to downwardly guide moisture formed on a surface of the heat exchanging fin, wherein the plurality of the moisture guide valleys comprises a first moisture guide valley arranged along a virtual line extending through a boundary between a curved portion of a corresponding one of the fitting slots and each straight portion of the fitting slot; a first spacer and a second spacer protruded from the surface of the heat exchanging fin to space the heat exchanger fin from another heat exchanger fin by a predetermined distance, the heat exchanger being characterised by a corresponding one of the fitting slots is disposed between the first spacer and the second spacer, the first and second spacers comprising: extensions (134b, 135b) that extend from the corresponding one of the fitting slots toward the heat exchanging fin, wherein the width of the extension of the first spacer is greater than the width of the extension of the second spacer. a plurality of refrigerant tubes vertically spaced apart from one another; and a plurality of heat exchanging fins horizontally spaced apart from one another, each of the heat exchanging fins being coupled to a surface of at least one of the refrigerant tubes, wherein each of the heat exchanging fins comprises: a plurality of fitting slots formed at one lateral end of the heat exchanging fin, arranged to receive the plurality of refrigerant tubes, a plurality of moisture guide valleys extending vertically to downwardly guide moisture formed on a surface of the heat exchanging fin, wherein the plurality of the moisture guide valleys comprises a first moisture guide valley arranged along a virtual line extending through a boundary between a curved portion of a corresponding one of the fitting slots and each straight portion of the fitting slot; a first spacer and a second spacer protruded from the surface of the heat exchanging fin to space the heat exchanger fin from another heat exchanger fin by a predetermined distance, the heat exchanger being characterised by a corresponding one of the fitting slots is disposed between the first spacer and the second spacer, the first and second spacers comprising: extensions (134b, 135b) that extend from the corresponding one of the fitting slots toward the heat exchanging fin, wherein the width of the extension of the first spacer is greater than the width of the extension of the second spacer.