mhurhangee/ep-ind-claims huggingface dataset:
An immunobinder which specifically binds human TNFα, the immunobinder comprising: (i) a human heavy chain variable framework sequence and CDR H1, CDR H2 and CDR H3 sequences stemming from a rabbit immunobinder, wherein the human heavy chain variable region framework has at least 90% identity to SEQ ID NO: 89 or SEQ ID NO: 90 wherein the heavy chain variable region framework comprises one or more of the following amino acids: threonine at position 24, valine at position 25, alanine or glycine at position 56, lysine at position 82, threonine at position 84, valine at position 89, and arginine at position 108 (AHo numbering); and (ii) a human light chain variable framework sequence and CDR L1, CDR L2 and CDR L3 sequences stemming from a rabbit immunobinder, wherein the human light chain variable region framework sequence has at least 90% identity to SEQ ID NO: 91, wherein the sequences of said CDR H1, CDR H2, CDR H3, CDR L1, CDR L2, and CDR L3 stemming from a rabbit immunobinder are: SEQ ID NO: 33, SEQ ID NO: 34, SEQ ID NO: 35, SEQ ID NO: 36, SEQ ID NO: 37 and SEQ ID NO: 38, respectively. (i) a human heavy chain variable framework sequence and CDR H1, CDR H2 and CDR H3 sequences stemming from a rabbit immunobinder, wherein the human heavy chain variable region framework has at least 90% identity to SEQ ID NO: 89 or SEQ ID NO: 90 wherein the heavy chain variable region framework comprises one or more of the following amino acids: threonine at position 24, valine at position 25, alanine or glycine at position 56, lysine at position 82, threonine at position 84, valine at position 89, and arginine at position 108 (AHo numbering); and (ii) a human light chain variable framework sequence and CDR L1, CDR L2 and CDR L3 sequences stemming from a rabbit immunobinder, wherein the human light chain variable region framework sequence has at least 90% identity to SEQ ID NO: 91,
System for detecting, monitoring and / or controlling media conditions and / or media consumptions on a piping system, comprising: - a control unit, - at least one connection interface, which is designed to connect components (4, 6, 7, 8) for detecting, monitoring and / or controlling media conditions and / or media consumptions to the control unit, and - at least one communication interface, via which the control unit communicates data based on the detected, monitored or controlled media conditions and / or media consumptions, wherein the components of the system for monitoring the media consumption comprise at least one pressure sensor for detecting the media pressure in the piping system, wherein the components of the system for controlling the media consumption comprise at least one valve which can be actuated via the at least one connection interface and with which the media flow in the piping system can be controlled, characterized in that the controllable valve has an actuator with end position switches, wherein the end position switches are set up to signal a closed or open controllable valve, wherein the components of the system for detecting the media consumption comprise a detection interface which is designed to detect a media consumption counted by a media consumption meter, wherein the control unit is set up to send a suspected manipulation message and / or defect message to a supplier if the media consumption meter detects a flow rate when the valve is closed or if there is no flow when the valve is open, despite a pressure drop at the pressure sensor. - a control unit, - at least one connection interface, which is designed to connect components (4, 6, 7, 8) for detecting, monitoring and / or controlling media conditions and / or media consumptions to the control unit, and - at least one communication interface, via which the control unit communicates data based on the detected, monitored or controlled media conditions and / or media consumptions, wherein the components of the system for monitoring the media consumption comprise at least one pressure sensor for detecting the media pressure in the piping system, wherein the components of the system for controlling the media consumption comprise at least one valve which can be actuated via the at least one connection interface and with which the media flow in the piping system can be controlled,
A data center system, comprising at least the following components: a data center, a power source module, and an energy conversion module, wherein - the data center is connected to at least two prime-rated electricity sources configured to provide electricity to the data center, wherein a first electricity source is an electricity grid and wherein a second electricity source is the power source module, wherein - the power source module comprises a gas-powered electricity generator (12, 12-1, 12-2) to generate electricity from gas, wherein the power source module is connected to a gas network, wherein the power source module is further connected to the data center, wherein - the energy conversion module is connected to a regenerative energy source configured to produce electricity, as well as to the gas network, wherein the energy conversion module is configured to generate gas, comprising or consisting of hydrogen and/or methane using electricity from the regenerative energy source, wherein the energy conversion module is configured to feed the generated gas into the gas network, wherein the system is configured to provide electricity from the power source module to the data center, such as to reduce a load on the electricity grid and such that the data center is supplied by the at least two prime-rated electricity sources simultaneously, wherein the system is configured to provide electricity from the power source module via the data center synchronously to the electricity provided by the electricity grid, wherein the electricity grid is connected to a common conducting element that is further connected to a bi-directional converter or a rectifier of the data center, characterized in that the power source module comprises a reciprocating gas engine configured to burn gas provided to the power source module to generate AC-electricity, wherein the power source module is connected to the common conducting element enabling grid stabilization with the synchronized electricity sources at the data center. - the data center is connected to at least two prime-rated electricity sources configured to provide electricity to the data center, wherein a first electricity source is an electricity grid and wherein a second electricity source is the power source module, wherein - the power source module comprises a gas-powered electricity generator (12, 12-1, 12-2) to generate electricity from gas, wherein the power source module is connected to a gas network, wherein the power source module is further connected to the data center, wherein - the energy conversion module is connected to a regenerative energy source configured to produce electricity, as well as to the gas network, wherein the energy conversion module is configured to generate gas, comprising or consisting of hydrogen and/or methane using electricity from the regenerative energy source, wherein the energy conversion module is configured to feed the generated gas into the gas network, wherein
A double-seat valve comprising a housing, which has a first connection, a second connection and a passage that is arranged between the first connection and second connection and has a passage wall, comprising a first valve disk and a second valve disk, which are arranged in a valve interior space of the housing, comprising a hollow rod, which is connected to the first valve disk, comprising a valve rod, which is connected to the second valve disk and is arranged to pass through the hollow rod, comprising a first valve seat and a second valve seat, comprising a drive which is configured to actuate at least one valve disk (6, 7), comprising a housing opening facing the drive, comprising a leakage space which is formed in the passage in a closed position of the double-seat valve and which is sealed off by the second valve disk, and the hollow rod has a leakage channel, which creates a fluid connection between the leakage space and a housing part, and a cleaning gap having a cross-section can be formed between the second valve disk and the passage wall, and the leakage channel has a channel cross-section which is greater than the cross-section, wherein in the passage an opening contour is formed, in which a section of the first valve disk is at least partly received when the double-seat valve is in the closed position, and the section delimits a cut-out in the first valve disk, in which the second valve disk is at least partly received in an open position of the double-seat valve, characterized in that the housing opening is sealed with a diaphragm which separates the housing part from the valve interior space.
A three-dimensional radiation detection and visualization system comprising: a first sensing module including one radiation sensor; a second sensing module including one image sensor; a first supporting body in which the first sensing module and the second sensing module are coupled to one side and the other side thereof to be vertically rotated around a vertical rotating axis; a second supporting body coupled with the first supporting body so that the first supporting body is horizontally rotated around a rotating axis, characterized in that the first and second sensing modules (100, 200) are arranged so that a distance (a) between a center axis of the radiation sensor and the rotating axis of the first supporting body is the same as a distance (b) between a center axis of the image sensor and the rotating axis of the first supporting body, and the center axis of the radiation sensor and the center axis of the image sensor are preferably disposed on the vertical rotating axis of the first and second sensing modules (100, 200). a first sensing module including one radiation sensor; a second sensing module including one image sensor; a first supporting body in which the first sensing module and the second sensing module are coupled to one side and the other side thereof to be vertically rotated around a vertical rotating axis; a second supporting body coupled with the first supporting body so that the first supporting body is horizontally rotated around a rotating axis, characterized in that the first and second sensing modules (100, 200) are arranged so that a distance (a) between a center axis of the radiation sensor and the rotating axis of the first supporting body is the same as a distance (b) between a center axis of the image sensor and the rotating axis of the first supporting body, and the center axis of the radiation sensor and the center axis of the image sensor are preferably disposed on the vertical rotating axis of the first and second sensing modules (100, 200).
A process for producing a continuity composition, comprising the step of contacting at least one metal carboxylate salt with at least one molten fatty amine.
A data processing method using a memory for storing information in block units, wherein said memory comprises a data region for storing data in block units and a first region and a second region for storing plural block unit numbers which are numbers assigned to block units in said data region, said method characterized by the steps of: writing data to a block unit of said data region corresponding to said block unit number in one of said first and second regions, wherein said first and second regions each store newness information or effectiveness information relating to the newness or effectiveness of storage content of the respective block unit in addition to said plural block unit numbers, and said one region of said first and second regions is selected (S11, S18) based on at least one of said newness information and the effectiveness information, then storing (S13, S16) the block unit number of said block unit to which data was written in the other of said first and second regions, and then erasing (S14, S17) the block unit number in said one region of said first and second regions. writing data to a block unit of said data region corresponding to said block unit number in one of said first and second regions, wherein said first and second regions each store newness information or effectiveness information relating to the newness or effectiveness of storage content of the respective block unit in addition to said plural block unit numbers, and said one region of said first and second regions is selected (S11, S18) based on at least one of said newness information and the effectiveness information, then storing (S13, S16) the block unit number of said block unit to which data was written in the other of said first and second regions, and then erasing (S14, S17) the block unit number in said one region of said first and second regions.
An apparatus for protection of an elongated structural support from impact, the apparatus comprising: an elongated impact protection component in the form of a unitary part having a body having a length that includes opposing end portions (108, 110), the elongated impact protection component further including a first and a second side portions, opposing each other, an inner surface and an outer surface, wherein the elongated impact protection component further comprises a plurality of orthogonally-oriented projections spaced along a length of the body of the elongated impact protection component, wherein the projections comprise integrally formed connectors (122, 124), wherein the projections extend away from the first and second side portions (112, 114), wherein the projections of the plurality of orthogonally-oriented projections are configured for providing a sliding engagement for interlocking connection with projections from adjacent same type elongated impact protection components, characterized in that the plurality of projections extending from the first side portion of the protection component are orthogonally-oriented to the projections extending from the second side portion of the same protection component. an elongated impact protection component in the form of a unitary part having a body having a length that includes opposing end portions (108, 110), the elongated impact protection component further including a first and a second side portions, opposing each other, an inner surface and an outer surface, wherein the elongated impact protection component further comprises a plurality of orthogonally-oriented projections spaced along a length of the body of the elongated impact protection component, wherein the projections comprise integrally formed connectors (122, 124), wherein the projections extend away from the first and second side portions (112, 114), wherein the projections of the plurality of orthogonally-oriented projections are configured for providing a sliding engagement for interlocking connection with projections from adjacent same type elongated impact protection components, characterized in that the plurality of projections extending from the first side portion of the protection component are orthogonally-oriented to the projections extending from the second side portion of the same protection component.
A cleaning system for surfaces (12, 14, 16) in an application space, configured for automatic and autonomous operation, comprising at least one automatically movable supply robot and at least one automatically movable cleaning satellite (30, 30', 40, 40'), wherein a control link for co-operative operation exists between the at least one supply robot and the at least one cleaning satellite (30, 30', 40, 40'), characterized in that the at least one supply robot can provision at least one auxiliary material for continuous or discontinuous delivery from an auxiliary material storage tank to the at least one cleaning satellite (30, 30', 40, 40'), and that the at least one supply robot can automatically draw the at least one auxiliary material and energy from a service station and return to the location of the cleaning task on the surface (12, 14, 16) to at least transfer the at least one auxiliary material to the at least one cleaning satellite (30, 30', 40, 40').
A telemetry method comprising: inducing a first pressure pulse in drilling fluid within a drill string, the first pressure pulse has a pulse time duration from a predefined set of possible pulse time durations; reading, at a first location displaced from a reflective device, pressure variations caused by passage of the first pressure pulse, the reading creating a first pressure signal; reading, at a second location displaced from the reflective device, pressure variations caused by passage of the first pressure pulse, the reading at the second location creating a second pressure signal; determining the pulse time duration of the first pressure pulse by: correlating the first pressure signal to a first test pressure signal, the first test pressure signal represents an expected waveform for a first pulse time duration of the predefined set of possible pulse time durations; correlating the second pressure signal to a second test pressure signal, the second test pressure signal represents an expected waveform for a second pulse time duration of the predefined set of possible pulse time durations; and establishing the pulse time duration of the first pressure pulse based on the correlating. inducing a first pressure pulse in drilling fluid within a drill string, the first pressure pulse has a pulse time duration from a predefined set of possible pulse time durations; reading, at a first location displaced from a reflective device, pressure variations caused by passage of the first pressure pulse, the reading creating a first pressure signal; reading, at a second location displaced from the reflective device, pressure variations caused by passage of the first pressure pulse, the reading at the second location creating a second pressure signal; determining the pulse time duration of the first pressure pulse by: correlating the first pressure signal to a first test pressure signal, the first test pressure signal represents an expected waveform for a first pulse time duration of the predefined set of possible pulse time durations; correlating the second pressure signal to a second test pressure signal, the second test pressure signal represents an expected waveform for a second pulse time duration of the predefined set of possible pulse time durations; and establishing the pulse time duration of the first pressure pulse based on the correlating. correlating the first pressure signal to a first test pressure signal, the first test pressure signal represents an expected waveform for a first pulse time duration of the predefined set of possible pulse time durations; correlating the second pressure signal to a second test pressure signal, the second test pressure signal represents an expected waveform for a second pulse time duration of the predefined set of possible pulse time durations; and establishing the pulse time duration of the first pressure pulse based on the correlating.
Electrical terminal block, having a terminal housing, having at least two conductor connection elements (3, 4) arranged therein, having two current bars (5, 6) and having two further current bar pieces (7, 8), wherein the current bars (5, 6) each have a connecting section (9, 9'), a first contact section (10, 10') and a second contact section (11, 11'), wherein the connecting sections (9, 9') are each assigned to a conductor connection element (3, 4), the first contact sections (10, 10') together form a first contact region for accommodating the plug of an operating plug or of a test plug, and the first contact sections (10, 10') are spaced apart from one another and are electrically conductively connected to one another via the plug only when the plug is inserted, wherein at least one recess for inserting a leg of a plug-in bridge is formed in at least one of the current bar pieces (7, 8), and wherein one of the current bar pieces (7, 8) is respectively assigned to one of the current bars (5, 6) in such a way that the second contact section (11, 11') of a current bar (5, 6) respectivley contacts the assigned current bar piece (7, 8) when the plug is not inserted, while the second contact portion (11, 11') of a current bar (5, 6) is spaced from the associated current bar piece (7, 8) when the plug is inserted into the first contact region, characterized in that two spring elements (18, 19) are arranged in the terminal housing and each has a connecting section (20, 20') and a resilient contact section (21, 21'), that the spring elements (18, 19) are each electrically conductively connected to one of the current bar pieces (7, 8), that the resilient contact sections (21, 21') together form a second contact region for accommodating the plug, wherein the resilient contact sections (21, 21') are spaced apart from one another when the plug is not plugged in, and that the contact region of the spring elements (18, 19) is arranged in the insertion direction of the plug in front of the contact region of the current bars (5, 6).
A system for locating an implantable tissue stimulation lead within a patient, comprising: a monitoring device configured for taking a measurement indicative of a coupling efficiency between the tissue stimulation lead and tissue at a location; a tracking system configured for tracking the location of the tissue stimulation lead relative to an anatomical reference; and an external control device configured for generating coupling efficiency information based on the measurement from the monitoring device, for generating tracking information based on the tissue stimulation lead location, and concurrently displaying the coupling efficiency information and tracking information to the user by displaying the tissue stimulation lead relative to the anatomical reference, and displaying the coupling efficiency information at the location of the displayed stimulation lead, wherein the tissue stimulation lead is configured for being located in an epidural space of the patient, the tissue is located in the epidural space, and the measurement is indicative of the coupling efficiency between the tissue stimulation lead and the tissue in the epidural space. a monitoring device configured for taking a measurement indicative of a coupling efficiency between the tissue stimulation lead and tissue at a location; a tracking system configured for tracking the location of the tissue stimulation lead relative to an anatomical reference; and an external control device configured for generating coupling efficiency information based on the measurement from the monitoring device, for generating tracking information based on the tissue stimulation lead location, and concurrently displaying the coupling efficiency information and tracking information to the user by displaying the tissue stimulation lead relative to the anatomical reference, and displaying the coupling efficiency information at the location of the displayed stimulation lead, wherein the tissue stimulation lead is configured for being located in an epidural space of the patient, the tissue is located in the epidural space, and the measurement is indicative of the coupling efficiency between the tissue stimulation lead and the tissue in the epidural space.