mhurhangee/ep-ind-claims huggingface dataset:
Device for sintering a workpiece with an induction furnace, in which the workpiece and where applicable additives - directly or indirectly - can be inductively heated, characterised in that the induction furnace is constructed as a heating module, in that an introduction module for introducing the workpiece is arranged directly or indirectly upstream of the heating module and a cooling module for cooling the workpiece is arranged directly or indirectly downstream of the heating module and in that the device as a result of the releasability of the connections of the modules with each other is prepared, by exchanging adjacent modules, to arrange them at any angle with respect to each other and thus to adapt them to any desired spatial requirements and workpiece shapes.
A display apparatus, comprising: a front panel, wherein an entire front surface of the front panel is made of a light transparent material; at least one frame attached to a rear surface of the front panel to support the front panel; a display module attached to the frame to output a three-dimensional image; a layer on a front surface of the front panel, wherein light output from the layer and light output from the display module have a phase difference of 10 nm or less; and a rear housing to accommodate the display module and the frame such that a portion of the display module and a portion of the frame are shielded from view from outside of the display apparatus, and wherein the front panel covers an entirety of the front surface of the display module; characterized in that: the light transparent material covers an entirety of the front surface of the front panel and enables the image output by the display module to be viewed from outside of the display apparatus; a light shielding layer is provided between the layer and the front panel; a metal film layer overlaps with the light shielding layer in a non-display region of the front layer; and the light shielding layer is formed at a periphery of a rear surface of the layer. a front panel, wherein an entire front surface of the front panel is made of a light transparent material; at least one frame attached to a rear surface of the front panel to support the front panel; a display module attached to the frame to output a three-dimensional image; a layer on a front surface of the front panel, wherein light output from the layer and light output from the display module have a phase difference of 10 nm or less; and a rear housing to accommodate the display module and the frame such that a portion of the display module and a portion of the frame are shielded from view from outside of the display apparatus, and wherein the front panel covers an entirety of the front surface of the display module; the light transparent material covers an entirety of the front surface of the front panel and enables the image output by the display module to be viewed from outside of the display apparatus; a light shielding layer is provided between the layer and the front panel; a metal film layer overlaps with the light shielding layer in a non-display region of the front layer; and the light shielding layer is formed at a periphery of a rear surface of the layer.
A heteromultimer comprising an IgG Fc construct having a first and a second Fc polypeptide, the IgG Fc construct displaying reduced binding to the FcγRIa, FcγRIIa, FcγRIIb and FcγRIIIa receptors as compared to a corresponding wild-type IgG Fc construct, wherein: A) each Fc polypeptide comprises a modified lower hinge region as compared to the corresponding wild-type IgG Fc polypeptide, the modified lower hinge region of the first Fc polypeptide comprising amino acid modifications at L234 and/or L235 that increase the net positive charge in the modified lower hinge region of the first Fc polypeptide at about physiological pH conditions, and the modified lower hinge region of the second Fc polypeptide comprising at least one amino acid modification which is different from at least one amino acid modification of the first Fc polypeptide, and wherein the modified lower hinge region of at least one of the first or second Fc polypeptides comprises two or more amino acid modifications, or B) the first Fc polypeptide comprises the amino acid modifications E269Q/D270N and the second Fc polypeptide comprises the amino acid modifications E269K/D270R, or C) the first Fc polypeptide comprises the amino acid modifications L235K/A327K and the second Fc polypeptide does not comprise an amino acid modification at the hinge or lower hinge region as compared to the corresponding wild-type IgG Fc polypeptide, Wherein the IgG Fc construct is a human IgG1, IgG3 or IgG4 construct, and wherein the numbering of amino acids is according to the EU index as in Kabat. A) each Fc polypeptide comprises a modified lower hinge region as compared to the corresponding wild-type IgG Fc polypeptide, the modified lower hinge region of the first Fc polypeptide comprising amino acid modifications at L234 and/or L235 that increase the net positive charge in the modified lower hinge region of the first Fc polypeptide at about physiological pH conditions, and the modified lower hinge region of the second Fc polypeptide comprising at least one amino acid modification which is different from at least one amino acid modification of the first Fc polypeptide, and wherein the modified lower hinge region of at least one of the first or second Fc polypeptides comprises two or more amino acid modifications, or B) the first Fc polypeptide comprises the amino acid modifications E269Q/D270N and the second Fc polypeptide comprises the amino acid modifications E269K/D270R, or C) the first Fc polypeptide comprises the amino acid modifications L235K/A327K and the second Fc polypeptide does not comprise an amino acid modification at the hinge or lower hinge region as compared to the corresponding wild-type IgG Fc polypeptide, Wherein the IgG Fc construct is a human IgG1, IgG3 or IgG4 construct,
Method for minimal lubrication of a mechanical unit in motion with a two-phase mixture, said method comprising the supply of a first liquid phase or lubricant fluid within a second phase or transport fluid phase, the flow rate and/or pressure of these phases both being regulated and controlled, and the phases being supplied to said mechanical unit, as a mixture, within a mixing duct, said first liquid phase or lubricant fluid being supplied with a repeated, constant dosing within the transport fluid phase, the flow rate of the first liquid phase or lubricant fluid within a first duct being detected and regulated before this fluid reaches the mixing duct, which the second phase or transport fluid phase also reaches, this detection of said flow rate being obtained by means of backscattering from this lubricant fluid of a laser ray which is emitted by a laser emitter fitted on said first duct, to a detector unit, the detector unit being connected to a command and control unit which controls the lubrication of the mechanical unit, the command and control unit regulating the supply of the two-phase mixture to the mechanical unit, said lubricant fluid moving with laminar motion, characterised in that the laser ray is emitted by a self-mixing interferometer, the laser emitter being placed in contact with the first duct, in which the first phase or lubricant fluid moves, or in the immediate vicinity of this duct.
A resonant transducer comprising: a silicon single crystal substrate; a silicon single crystal resonator disposed over the silicon single crystal substrate; a shell made of silicon, surrounding the resonator with a gap, and forming a chamber together with the silicon single crystal substrate, wherein the shell includes a first layer (26; 81; 91) disposed over the chamber and having a through-hole (25; 61; 66; 83; 93), a second layer (27; 87; 97) disposed over the first layer (26; 81; 91), and a third layer covering the first layer (26; 81; 91) and the second layer (27; 87; 97); an exciting module configured to excite the resonator; a vibration detecting module configured to detect vibration of the resonator; and a projection (29; 62; 67; 71; 88; 98) extending from the second layer (27; 87; 97) toward the resonator in the through-hole (25; 61; 66; 83; 93), the projection (29; 62; 67; 71; 88; 98) being spatially separated from the resonator, the projection (29; 62; 67; 71; 88; 98) being separated from the first layer (26; 81; 91) by a first gap, the second layer (27; 87; 97) being separated from the first layer (26; 81; 91) by a second gap, the first gap being communicated with the second gap, characterized in that the through-hole (25; 61; 66; 83; 93) is disposed immediately above the resonator, and a bottom of the projection (29; 62; 67; 71; 88; 98) is narrower than a top of the resonator. a silicon single crystal substrate; a silicon single crystal resonator disposed over the silicon single crystal substrate; a shell made of silicon, surrounding the resonator with a gap, and forming a chamber together with the silicon single crystal substrate, wherein the shell includes a first layer (26; 81; 91) disposed over the chamber and having a through-hole (25; 61; 66; 83; 93), a second layer (27; 87; 97) disposed over the first layer (26; 81; 91), and a third layer covering the first layer (26; 81; 91) and the second layer (27; 87; 97); an exciting module configured to excite the resonator; a vibration detecting module configured to detect vibration of the resonator; and a projection (29; 62; 67; 71; 88; 98) extending from the second layer (27; 87; 97) toward the resonator in the through-hole (25; 61; 66; 83; 93), the projection (29; 62; 67; 71; 88; 98) being spatially separated from the resonator, the projection (29; 62; 67; 71; 88; 98) being separated from the first layer (26; 81; 91) by a first gap, the second layer (27; 87; 97) being separated from the first layer (26; 81; 91) by a second gap, the first gap being communicated with the second gap, characterized in that the through-hole (25; 61; 66; 83; 93) is disposed immediately above the resonator, and a bottom of the projection (29; 62; 67; 71; 88; 98) is narrower than a top of the resonator.
Vehicle having an internal combustion engine, having a belt-type starter generator and having a decouplable power takeoff for auxiliary assemblies, wherein at least one air-conditioning compressor and one electric machine as belt-type starter generator which can be used as motor and generator are provided as auxiliary assemblies in the power takeoff, wherein the decoupling and coupling-on of the power takeoff are performed by means of a clutch, and wherein, when the internal combustion engine is at a standstill in brief stoppage phases, standstill air-conditioning is realized by backward rotation of the auxiliary assemblies, and the starting of the internal combustion engine after the stoppage phase is performed by reversal of the direction of rotation of the electric machine, characterized in that the clutch is a positively locking clutch.
A door closer having a door closer housing and a sealing plug for sealing the frontal face of an opening of the door closer housing, wherein, in the opening of the door closer housing, a reception member for the fixed disposition of the sealing plug is disposed in the door closer housing, characterized in that the sealing plug has a web with a slotted link, wherein the slotted link includes a recess and wherein, when inserting the sealing plug into the opening, the reception member cooperates with the slotted link in such a way that the sealing plug radially rotates and the slotted link guides the sealing plug, wherein an axial immobilization of the sealing plug is achieved in a longitudinal axis of the door closer housing, wherein, by means of at least one spring arm (50, 55), which is disposed at the sealing plug, the reception member is immobilized in the recess of the slotted link in the direction of the longitudinal axis, and the radial immobilization of the sealing plug is realized by means of the at least one spring arm (50, 55).
A method of making ribbed pipe in a stepwise manner, comprising the successive steps of: (a) forming a length of pipe by injection molding a moldable material in a cavity between a collapsible male mold element and a plurality of female mold elements; (b) disengaging said plurality of female mold elements from said length of pipe; (c) advancing the collapsible male mold element in an axial direction toward a second end of the cavity to partially eject said length of pipe from the cavity; (d) collapsing said collapsible male mold element to disengage from said length of pipe; (e) retracting the collapsible male mold element to its original position; (f) engaging said plurality of female mold elements to clamp an inner end of said length of pipe at a position near the second end of the cavity; (g) expanding said male mold element thereby closing the second end of said cavity; (h) injecting further moldable material into said cavity to form a further length of pipe and homogeneously welding said further moldable material to the inner end of the partially ejected length of pipe; (i) repeating steps b-h to form pipe of a desired length. (a) forming a length of pipe by injection molding a moldable material in a cavity between a collapsible male mold element and a plurality of female mold elements; (b) disengaging said plurality of female mold elements from said length of pipe; (c) advancing the collapsible male mold element in an axial direction toward a second end of the cavity to partially eject said length of pipe from the cavity; (d) collapsing said collapsible male mold element to disengage from said length of pipe; (e) retracting the collapsible male mold element to its original position; (f) engaging said plurality of female mold elements to clamp an inner end of said length of pipe at a position near the second end of the cavity; (g) expanding said male mold element thereby closing the second end of said cavity; (h) injecting further moldable material into said cavity to form a further length of pipe and homogeneously welding said further moldable material to the inner end of the partially ejected length of pipe; (i) repeating steps b-h to form pipe of a desired length.
Separating tool of a joining device, in particular for tubular bag machines, having a blade carrier which has a groove-type clearance in which a blade is disposed, characterized in that at least part of a wall of the clearance is configured in the form of a flexing beam which extends across the length of the blade and, adjacent to the base region of the clearance, is integrally connected to the blade carrier, and in that at least two clamping screws which are mounted in threaded clearances of the blade carrier are disposed on the blade carrier, said at least two clamping screws biasing the flexing beam in the direction of the blade, in order for the latter to be clamped.
A method for performing nucleic acid amplification, comprising: generating an amplification reaction mixture having a modified polymerase or a biologically active fragment thereof, a primer, a nucleic acid template, and one or more nucleotides, wherein the modified polymerase or biologically active fragment thereof comprises at least 90% identity to SEQ ID NO:15 and further comprises D732R and/or E745Q, wherein the numbering is relative to the amino acid sequence of SEQ ID NO:15; and subjecting the amplification reaction mixture to amplifying conditions, wherein at least one of the one or more nucleotides is polymerized onto the end of the primer using the modified polymerase or biologically active fragment thereof. generating an amplification reaction mixture having a modified polymerase or a biologically active fragment thereof, a primer, a nucleic acid template, and one or more nucleotides, wherein the modified polymerase or biologically active fragment thereof comprises at least 90% identity to SEQ ID NO:15 and further comprises D732R and/or E745Q, wherein the numbering is relative to the amino acid sequence of SEQ ID NO:15; and subjecting the amplification reaction mixture to amplifying conditions, wherein at least one of the one or more nucleotides is polymerized onto the end of the primer using the modified polymerase or biologically active fragment thereof.
A method for power control, comprising: generating, by a User Equipment, power headroom information of an aggregated carrier of the UE, wherein the aggregated carrier comprises at least two single carriers; sending, by the UE, the power headroom information generated by the UE to a base station; characterized in that: the power headroom information of the aggregated carrier comprises: the difference between the maximum transmitting power of the aggregated carrier and an estimated transmitting power of the aggregated carrier; and wherein the estimated transmitting power of the aggregated carrier comprises: a sum of transmitting power of a control channel of the UE and transmitting power of the data channel of the UE. generating, by a User Equipment, power headroom information of an aggregated carrier of the UE, wherein the aggregated carrier comprises at least two single carriers; sending, by the UE, the power headroom information generated by the UE to a base station; characterized in that: the power headroom information of the aggregated carrier comprises: the power headroom information of the aggregated carrier comprises: the difference between the maximum transmitting power of the aggregated carrier and an estimated transmitting power of the aggregated carrier; and wherein the estimated transmitting power of the aggregated carrier comprises: a sum of transmitting power of a control channel of the UE and transmitting power of the data channel of the UE. a sum of transmitting power of a control channel of the UE and transmitting power of the data channel of the UE.
Container conveyor device with a rotor circulating about a vertical machine axis, with a plurality of container carriers, which are provided distributed on the rotor about the machine axis for the suspended holding of containers (2, 2a, 2b), with a container support device (14, 14a) for supporting the containers (2, 2a, 2b) on their container outer surfaces or casing surfaces in the region of the container base (2.1, 2a.1, 2b.1), wherein the container support device (14, 14a) takes effect with at least one outer container guide, with a container support surface (16.1) which surrounds the machine axis in the form of a cone and serves as a support for the containers (2, 2a, 2b) in the region of their container bases (2.1, 2a.1, 2b.1), on the container outer surface which is radially outside in relation to the machine axis, and which is height adjustable for adapting to different container base diameters, and is configured with at least one inner container support surface (15.1, 20.1), which has the effect of providing support for the containers (2, 2a, 2b) on their container outer surface located radially inwards in relation to the machine axis, characterised in that the at least one inner container support surface (15.1, 20.1) of the container support surface (16.1) of the outer container guide related to the machine axis, for supporting the containers (2, 2a, 2b), is arranged radially opposite in the region of their container bases (2.1, 2a.1, 2b.1), that the outer and inner container support surfaces (16.1, 15.1, 20.1) form at least one receiver for the container bases (2.1, 2a.1, 2b.1), which tapers with the increasing distance interval from the container carriers, and that also the at least one inner container support surface (15.1, 20.1) is height adjustable in order to adapt the container support device (14, 14a) to different container base diameters, and that the at least one inner container support surface (20.1) is configured such as not to circulate with the rotor, and together with the at least one outer container support surface (16.1) forms a guide channel in the form of a trough or gully, which extends along a movement path on which the container bases (2.1) move together with the containers which are moved with the rotor, and that the guide channel is height adjustable by means of at least one adjustment device, and that the guide channel also extends into a transfer region, in which the containers are transferred to the container carriers of the rotor and/or are taken off from the rotor carriers of the rotor.
A method comprising: acquiring seismic data of a seismic survey of a region of the Earth that utilizes multiple seismic energy sources and seismic energy receivers wherein the seismic data comprise blended seismic data for a number of emissions from a corresponding number of the multiple seismic energy sources; determining spatially distributed coherent noise properties for the region using the blended seismic data; characterized in that via the spatially distributed coherent noise properties, modeling coherent noise as a coherent noise model for each emission from a selected number of the multiple seismic energy sources; blending the coherent noise models to model cross-talk noise using time delay information for the corresponding emissions; via the coherent noise models, attenuating coherent noise in at least a portion of the blended seismic data to generate coherent noise attenuated blended seismic data, wherein the attenuating comprises performing adaptive subtraction that subtracts the modeled cross-talk noise from a time window of the blended seismic data; deblending the coherent noise attenuated blended seismic data to generate deblended seismic data; and rendering an image of at least a portion of the region to a display using the deblended seismic data. acquiring seismic data of a seismic survey of a region of the Earth that utilizes multiple seismic energy sources and seismic energy receivers wherein the seismic data comprise blended seismic data for a number of emissions from a corresponding number of the multiple seismic energy sources; determining spatially distributed coherent noise properties for the region using the blended seismic data; characterized in that via the spatially distributed coherent noise properties, modeling coherent noise as a coherent noise model for each emission from a selected number of the multiple seismic energy sources; blending the coherent noise models to model cross-talk noise using time delay information for the corresponding emissions; via the coherent noise models, attenuating coherent noise in at least a portion of the blended seismic data to generate coherent noise attenuated blended seismic data, wherein the attenuating comprises performing adaptive subtraction that subtracts the modeled cross-talk noise from a time window of the blended seismic data; deblending the coherent noise attenuated blended seismic data to generate deblended seismic data; and rendering an image of at least a portion of the region to a display using the deblended seismic data.
A catheter comprising a tip electrode comprising a ledge feature and a center cavity, and a manifold assembly (319; 419; 519; 619) comprising a fluid lumen manifold and a stop shoulder (431; 531; 631), wherein the manifold assembly (319; 419; 519; 619) is configured to abut the ledge feature such that a distal end of the manifold assembly (319; 419; 519; 619) extends a pre-determined distance into the center cavity of the tip electrode, and thereby to control the distance that the distal end of the fluid lumen manifold can extend into the tip electrode, characterised in that the manifold assembly (319;419;519;619) further comprising a plurality of sideholes (314; 414; 514; 614), wherein the sideholes (314; 414; 514; 614) are configured to deliver irrigation fluid into the center cavity.