mhurhangee/ep-ind-claims huggingface dataset:
Universal pigment preparation comprising - a flocculation-stabilizing medium comprising reaction products of di- or polycarboxylic acids and the anhydrides and/or esters thereof or hydroxycarboxylic acids with di- or polyols and reaction products of alkylene oxides with alkoxylatable compounds, and - at least one pigment. - a flocculation-stabilizing medium comprising reaction products of di- or polycarboxylic acids and the anhydrides and/or esters thereof or hydroxycarboxylic acids with di- or polyols and reaction products of alkylene oxides with alkoxylatable compounds, and reaction products of di- or polycarboxylic acids and the anhydrides and/or esters thereof or hydroxycarboxylic acids with di- or polyols and reaction products of alkylene oxides with alkoxylatable compounds, and - at least one pigment.
A method of preserving cells, comprising immersing cells in vitro in a cell preservative solution, characterized in that the cell preservative solution comprises a lower alcohol having 1 to 6 carbon atoms and a divalent metal ion in an aqueous solvent, wherein the concentration of the divalent metal ion is from 6 mmol/L to 82 mmol/L.
Method for filling a cavern of a cavern storage facility with liquid hydrogen, characterized by - introducing a heat exchanger coil or a tube (coil tubing) into a cased bore hole, which leads from the ground surface to the cavern head all the way up to the cavern head, - sealing an outlet of the heat exchanger coil or the line with a baffle plate, - introducing 10 m 3 to 50m 3 of liquid hydrogen (H 2) into the heat exchanger coil or into the tube, - waiting until the pressure in the cavern of the cavern storage facility has risen again to 70% to 120% of the original pressure, - re-introducing 10 m 3 to 50 m 3 of liquid hydrogen (H 2) into the heat exchanger coil or into the tube, - wherein the waiting and re-introducing are repeated until a pre-selected filling quantity of the cavern storage facility has been reached. - introducing a heat exchanger coil or a tube (coil tubing) into a cased bore hole, which leads from the ground surface to the cavern head all the way up to the cavern head, - sealing an outlet of the heat exchanger coil or the line with a baffle plate, - introducing 10 m 3 to 50m 3 of liquid hydrogen (H 2) into the heat exchanger coil or into the tube, - waiting until the pressure in the cavern of the cavern storage facility has risen again to 70% to 120% of the original pressure, - re-introducing 10 m 3 to 50 m 3 of liquid hydrogen (H 2) into the heat exchanger coil or into the tube, - wherein the waiting and re-introducing are repeated until a pre-selected filling quantity of the cavern storage facility has been reached.
A network selection method, comprising: receiving, by a first core network device, an access request message sent by a user equipment, UE (step 201); adding, by the first core network device, information about a dedicated second core network device serving the UE into a temporary identifier of the UE, and sending the temporary identifier to the UE (step 202), and wherein the method further comprises, after the adding, by the first core network device, information about the dedicated second core network device serving the UE into the temporary identifier of the UE, and sending the temporary identifier to the UE, sending, by the first core network device, a detach request to the UE, wherein the detach request comprises a reattach cause value. receiving, by a first core network device, an access request message sent by a user equipment, UE (step 201); adding, by the first core network device, information about a dedicated second core network device serving the UE into a temporary identifier of the UE, and sending the temporary identifier to the UE (step 202), and wherein the method further comprises, after the adding, by the first core network device, information about the dedicated second core network device serving the UE into the temporary identifier of the UE, and sending the temporary identifier to the UE, sending, by the first core network device, a detach request to the UE, wherein the detach request comprises a reattach cause value.
A worker-rider belt with a revolvingly led, extensively extended conveying element which forms a conveying section with a conveying surface, and a return section arranged below the conveying section, and the conveying element is deflected in each case in two head-end regions (3a, 3b) which are distanced to one another along the conveying direction, wherein a wiper device for wiping and separating foreign objects led along on the conveying surface of the conveying element is arranged in a head-end region which is at the front in the conveying direction and in which the conveying element is deflected from the conveying section into the return section, and the wiper device comprises a wiper unit with a receiving blade with a receiving surface which is running transversely to the conveying direction and which is arranged in the extension of the conveying surface, as well as a wiper blade which is mounted on the wiper unit and which forms a flexible wiper lip projecting towards the conveying element beyond the receiving blade, wherein the conveying element is moved in the conveying direction towards the wiper blade and at the wiper blade downwards past the wiper blade from the conveying section into the return section, characterised in that the receiving blade is connected to the support structure of the worker-rider belt in a direct manner or indirectly via elastic connection means and thus is oscillatory and elastically mounted with respect to the support structure in a manner such that oscillations which are caused by the movement of the conveying element or of a drive motor are transmitted onto the receiving blade, in a manner such that foreign objects which are wiped from the conveying surface by way of an oscillatory movement of the wiper blade and are further conveyed onto the receiving surface of the receiving blade, are further conveyed on the receiving surface in the conveying direction by way of an oscillating movement of the the receiving blade.
A compression machine, comprising: a compressor, a condenser, an expansion valve, an evaporator, and refrigerant, wherein the refrigerant circulates between the compressor, the condenser, the expansion valve and the evaporator, wherein the evaporator comprises a first plate heat exchanger and a second heat exchanger, wherein the second heat exchanger is arranged downstream of the first plate heat exchanger with respect to the refrigerant flow coming from the expansion valve, characterised in that the plates of the first plate heat exchanger and the second heat exchanger are arranged vertically, wherein the evaporator is arranged such that the refrigerant flow coming from the expansion valve flows through the first plate heat exchanger from top to bottom, wherein the refrigerant outlet of the second heat exchanger is arranged at the same level or below the refrigerant outlet of the first plate heat exchanger, and wherein the first plate heat exchanger is connected according to the Tichelmann principle with respect to the refrigerant flow. a compressor, a condenser, an expansion valve, an evaporator, and refrigerant, wherein the refrigerant circulates between the compressor, the condenser, the expansion valve and the evaporator, wherein the evaporator comprises a first plate heat exchanger and a second heat exchanger, wherein the second heat exchanger is arranged downstream of the first plate heat exchanger with respect to the refrigerant flow coming from the expansion valve, characterised in that the plates of the first plate heat exchanger and the second heat exchanger are arranged vertically, wherein the evaporator is arranged such that the refrigerant flow coming from the expansion valve flows through the first plate heat exchanger from top to bottom, wherein the refrigerant outlet of the second heat exchanger is arranged at the same level or below the refrigerant outlet of the first plate heat exchanger, and wherein the first plate heat exchanger is connected according to the Tichelmann principle with respect to the refrigerant flow.
An imaging device comprising: a control unit which changes a resolution of a captured image in a distant region on a basis of distance information regarding a detected distance between a subject and a reference subject included in the captured image, such that the subject is in a region of the image that is thinned out, wherein the control unit sets a resolution of the subject to be high in a case in which the distance between the subject and the reference subject included in the captured image is longer than a predetermined reference, and sets the resolution of the subject to be low in a case in which the distance between the subject and the reference subject is smaller than the predetermined reference. a control unit which changes a resolution of a captured image in a distant region on a basis of distance information regarding a detected distance between a subject and a reference subject included in the captured image, such that the subject is in a region of the image that is thinned out, wherein the control unit sets a resolution of the subject to be high in a case in which the distance between the subject and the reference subject included in the captured image is longer than a predetermined reference, and sets the resolution of the subject to be low in a case in which the distance between the subject and the reference subject is smaller than the predetermined reference.
An apparatus for separating and compartmentalizing a fluid sample, the apparatus comprising: (a) a fluidic layer configured to separate a fluid sample into wells for fluid sample analysis, said fluidic layer comprising: (i) a plurality of wells; (ii) a sample inlet that receives the fluid sample; (iii) at least one channel that transports the fluid sample from the sample inlet to one or more wells via degas-driven flow; (iv) at least one side-skimming cliff structure positioned in between the channel and each well and adjacent the channel, configured to skim the fluid sample and prevent particles in the fluid sample from entering the wells based on gravity induced sedimentation, wherein the wells hold skimmed fluid sample for analysis; and (v) wherein the side-skimming cliff structures within the fluidic layer act to maintain uniformity of separation volume within the plurality of wells for Nucleic Acid amplification of the skimmed fluid sample; and (b) a cover layer configured to seal the fluidic layer. (a) a fluidic layer configured to separate a fluid sample into wells for fluid sample analysis, said fluidic layer comprising: (i) a plurality of wells; (ii) a sample inlet that receives the fluid sample; (iii) at least one channel that transports the fluid sample from the sample inlet to one or more wells via degas-driven flow; (iv) at least one side-skimming cliff structure positioned in between the channel and each well and adjacent the channel, configured to skim the fluid sample and prevent particles in the fluid sample from entering the wells based on gravity induced sedimentation, wherein the wells hold skimmed fluid sample for analysis; and (v) wherein the side-skimming cliff structures within the fluidic layer act to maintain uniformity of separation volume within the plurality of wells for Nucleic Acid amplification of the skimmed fluid sample; and (i) a plurality of wells; (ii) a sample inlet that receives the fluid sample; (iii) at least one channel that transports the fluid sample from the sample inlet to one or more wells via degas-driven flow; (iv) at least one side-skimming cliff structure positioned in between the channel and each well and adjacent the channel, configured to skim the fluid sample and prevent particles in the fluid sample from entering the wells based on gravity induced sedimentation, wherein the wells hold skimmed fluid sample for analysis; and (v) wherein the side-skimming cliff structures within the fluidic layer act to maintain uniformity of separation volume within the plurality of wells for Nucleic Acid amplification of the skimmed fluid sample; and (b) a cover layer configured to seal the fluidic layer.
A method of affixing a gasket to a flange of a heat exchanger core, the method comprising: aligning the gasket with the flange of the heat exchanger core, wherein the gasket comprises: a body; and a tab extending outward from the body; contacting the flange of the heat exchanger core with the gasket; and securing the gasket to the flange by bending the tab of the gasket around an outer edge of the flange and such that relative motion between the gasket and the flange is prevented by the tab; and characterized in that bending the tab is connected to the body by a weld interface, the body being formed from a first metallic material and the tab being formed from a second metallic material different from the first metallic material. aligning the gasket with the flange of the heat exchanger core, wherein the gasket comprises: a body; and a tab extending outward from the body; a body; and a tab extending outward from the body; contacting the flange of the heat exchanger core with the gasket; and securing the gasket to the flange by bending the tab of the gasket around an outer edge of the flange and such that relative motion between the gasket and the flange is prevented by the tab; and characterized in that bending the tab is connected to the body by a weld interface, the body being formed from a first metallic material and the tab being formed from a second metallic material different from the first metallic material.
A method for selecting auditory signal components for reproduction in a loudspeaker setup having one or more supplementary sound reproducing transducers, such as loudspeakers, placed between a pair of primary sound reproducing transducers, such as left and right loudspeakers in a stereophonic loudspeaker setup or adjacent loudspeakers in a surround sound loudspeaker setup, the method comprising the steps of: (i) specifying an azimuth angle range within which one of said supplementary sound reproducing transducers is located or is to be located; (ii) based on said azimuth angle range, determining left and right interaural level difference limits and left and right interaural time difference limits from the binaural impulse responses for a source at each extreme azimuthal angle range, respectively; (iii) providing a pair of input signals for said pair of primary sound reproducing transducers; (iv) pre-processing each of said input signals for the pair of primary sound reproducing transducers with binaural impulse responses corresponding to the ideal stereo listening, thereby providing a pair of pre-processed input signals; (v) determining interaural level difference and interaural time difference as a function of frequency between said pre-processed signals; and (vi) providing those signal components of said input signals that have interaural level differences and interaural time differences in the interval between said left and right interaural level difference limits, and left and right interaural time difference limits, respectively, to the corresponding supplementary sound reproducing transducer. (i) specifying an azimuth angle range within which one of said supplementary sound reproducing transducers is located or is to be located; (ii) based on said azimuth angle range, determining left and right interaural level difference limits and left and right interaural time difference limits from the binaural impulse responses for a source at each extreme azimuthal angle range, respectively; (iii) providing a pair of input signals for said pair of primary sound reproducing transducers; (iv) pre-processing each of said input signals for the pair of primary sound reproducing transducers with binaural impulse responses corresponding to the ideal stereo listening, thereby providing a pair of pre-processed input signals; (v) determining interaural level difference and interaural time difference as a function of frequency between said pre-processed signals; and (vi) providing those signal components of said input signals that have interaural level differences and interaural time differences in the interval between said left and right interaural level difference limits, and left and right interaural time difference limits, respectively, to the corresponding supplementary sound reproducing transducer.
A method for wireless communications by a transmission point, TP (702, 704), of a plurality of TPs (702, 704), comprising: coordinating with one or more other TPs (702, 704) of the plurality of TPs (702, 704) to jointly transmit a channel state information reference signal, CSI-RS, to a user equipment, UE, wherein the coordinating comprises determining a virtual antenna port mapping, wherein each of the plurality of TPs (702, 704) have different antenna port mappings configured to allow disjoint precoding matrix indicator, PMI/channel quality indicator, CQI, feedback, wherein the virtual antenna port mapping is configured as a combination of the antenna port mappings for each of the plurality of TPs (702, 704); signaling a reporting restriction to the UE, wherein the reporting restriction comprises a PMI codebook restriction; receiving PMI feedback from the UE based on the jointly transmitted CSI-RS and subject to the reporting restriction; and selecting one or more of the TPs (702, 704) to serve the UE based on the PMI feedback. coordinating with one or more other TPs (702, 704) of the plurality of TPs (702, 704) to jointly transmit a channel state information reference signal, CSI-RS, to a user equipment, UE, wherein the coordinating comprises determining a virtual antenna port mapping, wherein each of the plurality of TPs (702, 704) have different antenna port mappings configured to allow disjoint precoding matrix indicator, PMI/channel quality indicator, CQI, feedback, wherein the virtual antenna port mapping is configured as a combination of the antenna port mappings for each of the plurality of TPs (702, 704); signaling a reporting restriction to the UE, wherein the reporting restriction comprises a PMI codebook restriction; receiving PMI feedback from the UE based on the jointly transmitted CSI-RS and subject to the reporting restriction; and selecting one or more of the TPs (702, 704) to serve the UE based on the PMI feedback.
A dual chambered syringe comprising: an inner barrel defining a first inner chamber, the inner barrel having an apertured stopper at its distal end; a shaft adapted to fit within the inner barrel, the shaft having a distal end which is engageable with the aperture of the stopper; a device for controlling engaging and disengaging of the distal end of the shaft with the aperture of the stopper; an outer barrel concentric with the inner barrel defining a second outer chamber, the outer barrel having a distal end for receiving and dispensing fluids and a proximal end into which the distal end of the inner barrel is insertable into the second outer chamber; wherein the apertured stopper engages the inner surface of the outer barrel and selectively prevents or permits the passage of fluids between the outer barrel second chamber and the inner barrel first chamber; characterized in the inner barrel being open at its proximal end; the inner barrel having an engageable surface on its outside surface; and, the outer barrel having operatively associated therewith an engaging device for selective engagement and disengagement with the engageable surface on the inner barrel, enabling to move the inner barrel to advance in a distal direction in a more controllable manner. an inner barrel defining a first inner chamber, the inner barrel having an apertured stopper at its distal end; a shaft adapted to fit within the inner barrel, the shaft having a distal end which is engageable with the aperture of the stopper; a device for controlling engaging and disengaging of the distal end of the shaft with the aperture of the stopper; an outer barrel concentric with the inner barrel defining a second outer chamber, the outer barrel having a distal end for receiving and dispensing fluids and a proximal end into which the distal end of the inner barrel is insertable into the second outer chamber; wherein the apertured stopper engages the inner surface of the outer barrel and selectively prevents or permits the passage of fluids between the outer barrel second chamber and the inner barrel first chamber; characterized in the inner barrel being open at its proximal end; the inner barrel having an engageable surface on its outside surface; and, the outer barrel having operatively associated therewith an engaging device for selective engagement and disengagement with the engageable surface on the inner barrel, enabling to move the inner barrel to advance in a distal direction in a more controllable manner.
Method for motorway speed control, with the following method steps: splitting the motorway into a number of stretches, wherein each stretch includes one or more variable speed limit sites that are configured to indicate VSL control settings in form of discrete speed values, defining an initial solution space of each stretch including all possible combinations of VSL control settings, and shrinking the initial solution space of each stretch by applying constraint-based and/or macroscopic traffic analysis-based reduction schemes, and based on the resulting residual solution space, evaluating a combination of VSL control settings as a solution combination for being indicated by said VSL sites of the respective stretch by performing an iterative solution search in which macro-simulations together with a limited number of micro-simulations are applied on selected candidate subsets of combinations of VSL control settings. splitting the motorway into a number of stretches, wherein each stretch includes one or more variable speed limit sites that are configured to indicate VSL control settings in form of discrete speed values, defining an initial solution space of each stretch including all possible combinations of VSL control settings, and shrinking the initial solution space of each stretch by applying constraint-based and/or macroscopic traffic analysis-based reduction schemes, and based on the resulting residual solution space, evaluating a combination of VSL control settings as a solution combination for being indicated by said VSL sites of the respective stretch by performing an iterative solution search in which macro-simulations together with a limited number of micro-simulations are applied on selected candidate subsets of combinations of VSL control settings.