mhurhangee/patent-ind-claim-en huggingface dataset:
Centrifugal fan housing of a centrifugal fan with a first housing part for receiving a first radial impeller and a second housing part axially directly adjacent thereto for receiving a second radial impeller , wherein the first and the second housing part have flow chambers running separately in a spiral section of the centrifugal fan housing , which open into one another in a discharge section of the centrifugal fan housing directly adjoining the spiral section as viewed in the circumferential direction, wherein the first housing part and the second housing part are flow-connected in the spiral section via at least one pressure compensation opening , wherein the discharge section is formed spirally and forms a single discharge opening of the centrifugal fan housing .
Monitoring means for monitoring a process (PZ) controlled by means of an automation system comprising an industrial data communication network , a process controller connected to the industrial data communication network , and one or more field devices connected to the industrial data communication network , wherein several process signals (PS) are provided in the automation system , wherein a signal format (SF) and a channel of one of the field devices are associated to each of the process signals (PS), and wherein, for each of the process signals (PS), signal values (SW) in the respectively associated signal format (SF), together with a channel identification (KK) of the respective channel can each be transmitted via the industrial data communication network in a process telegram (PT), wherein the monitoring means is configured for automatically creating a process signal description (PSB) during a configuration phase (KP) of the monitoring means using at least one initializing telegram (IT) for the automation system transmitted during an initialization phase of the industrial data communication network between the process controller and at least one of the field devices ,and using device description files (GB) associated each to one of the field devices , wherein the process signal description (PSB) indicates, for at least one of the process signals (PS), the respective signal format (SF) and the respective channel identification (KK), wherein the monitoring means is configured for automatically creating a data base (DB) during a learning phase (LP) of the monitoring means , wherein the data base (DB), for at least one of the process signals (PS), comprises several signal values (SW) of the respective process signals (PS), which are each provided with a time stamp (ZT), wherein the signal values (SW) and the respective time stamps (ZT) are extracted from several process telegrams (PT) transmitted via the industrial data communication network using the process signal description (PSB), wherein at least one illegal range of values (UW) is derived for at least one of the process signals (PS) from the data base (DB) for the signal values (SW) of the respective process signal (PS), and wherein the monitoring means is configured for automatically identifying a disturbance (ST) in the process (PZ) during an operation phase (BP) of the monitoring means , in case a current signal value (SW) of the signal values (SW) of one of the process signals (PS) is within the respective illegal range of values (UW), wherein the current signal value (SW) is extracted from a current process telegram (PT) of the process telegrams (PT) transmitted via the industrial data communication network using the process signal description (PSB).
System with markers for placing a retaining pile with asymmetrical reinforcement into a guide wall or sleeve, the retaining pile comprises an asymmetrical reinforcement that comprises: a plurality of longitudinal bars (1.1) arranged parallel to each other, the ends of which are arranged forming a circumference, and transverse reinforcing means (1.2), in the form of circular frames or at least one helix, externally surrounding the longitudinal bars (1.1); wherein at least two longitudinal bars (1.1) have different diameters and/or between several consecutive longitudinal bars (1.1) there are at least two different distances; wherein at least one separator is arranged on the transverse reinforcing means (1.2); and wherein the asymmetrical reinforcement being configured to be insertable into a guide wall or sleeve to form the retaining pile, and separated from said guide wall or sleeve by the at least one separator , the system is characterised by also comprising: - at least one marker-separator being configured to be attached to the transverse reinforcing means (1.2), - at least one marker being configured to be disposable on the guide wall or sleeve , where the at least one marker-separator is aligned with the at least one marker or the at least one marker-separator and the at least one marker are separated by a lateral distance, D, equal to or less than a predetermined safety distance value, Dmax, when the asymmetrical reinforcement being arranged inside the guide wall or sleeve . - at least one marker-separator being configured to be attached to the transverse reinforcing means (1.2), - at least one marker being configured to be disposable on the guide wall or sleeve ,
A method for performing active over-the-air measurements of a device under test with an antenna , with the following steps: - Providing the device under test with the antenna , - Arranging the device under test randomly in a measurement zone assigned to a measurement antenna , - Determining the phase center of the antenna of the device under test , and - Calculate measurement positions for the active over-the-air measurements that depend on an offset between the phase center determined and a center of the measurement zone , wherein a minimum far-field distance of the antenna of the device under test is determined, and wherein the minimum far-field distance determined is compared with a minimum distance between the antenna of the device under test and the measurement antenna , such that it is ensured that the device under test is always measured under far-field conditions provided that the minimum distance, namely the real minimum distance between the antenna of the device under test and the measurement antenna , is larger than the minimum far-field distance determined. - Providing the device under test with the antenna , - Arranging the device under test randomly in a measurement zone assigned to a measurement antenna , - Determining the phase center of the antenna of the device under test , and - Calculate measurement positions for the active over-the-air measurements that depend on an offset between the phase center determined and a center of the measurement zone ,
Apparatus for introducing a defined quantity of a second powder into a process vessel in which a first powder or powder mixture is located, wherein the apparatus comprises the process vessel , a tubular cartridge and a transport unit, wherein the second powder can be introduced into the tubular cartridge , and wherein the cartridge can be mounted displaceably in the transport unit, characterized in that - a coupling flange comprising a closure flap is present on the process vessel , - the transport unit has a connecting flange comprising a closure flap , - the connecting flange is connectable to the coupling flange in such a way that the closure flap of the process vessel and the closure flap of the transport unit can be opened, - the cartridge inside the transport unit is displaceable through the opened closure flaps (3 and 7) as far as the plane of the inner wall of the process vessel , and - the second powder can be emptied out of the cartridge into the process vessel by means of a delivery piston of the cartridge . - a coupling flange comprising a closure flap is present on the process vessel , - the transport unit has a connecting flange comprising a closure flap , - the connecting flange is connectable to the coupling flange in such a way that the closure flap of the process vessel and the closure flap of the transport unit can be opened, - the cartridge inside the transport unit is displaceable through the opened closure flaps (3 and 7) as far as the plane of the inner wall of the process vessel , and - the second powder can be emptied out of the cartridge into the process vessel by means of a delivery piston of the cartridge .
A GLP-1 compound of the general formula I: R1 -(NHXaa1)-Xaa2-(OHis)-(GLP-1 peptide) (Formula I) wherein GLP-1 peptide is GLP-1 (8-37) (SEQ ID NO: 1) or an analogue thereof having a maximum of six amino acid changes as compared to GLP-1 (8-37) (SEQ ID NO: 1); R1 is straight or branched alkyl having from one to six carbon atoms; (NHXaa1) is an amino acid; Xaa2 is an amino acid; (OHis) is a modified histidine residue in which the alpha-amino group is replaced by a hydroxyl group; the bond between Xaa2 and (OHis) is an ester bond; and the bond between (OHis) and (GLP-1 peptide) is an amide bond; or a pharmaceutically acceptable salt, amide, or ester thereof, wherein. (OHis) is a radical of imidazole-lactic acid of formula Chem. 1: GLP-1 peptide is GLP-1 (8-37) (SEQ ID NO: 1) or an analogue thereof having a maximum of six amino acid changes as compared to GLP-1 (8-37) (SEQ ID NO: 1); R1 is straight or branched alkyl having from one to six carbon atoms; (NHXaa1) is an amino acid; Xaa2 is an amino acid; (OHis) is a modified histidine residue in which the alpha-amino group is replaced by a hydroxyl group; the bond between Xaa2 and (OHis) is an ester bond; and the bond between (OHis) and (GLP-1 peptide) is an amide bond;
A method to control a once-through evaporator system with a plurality of once-through evaporator sections with a distribution valve , comprising: positioning a position controller in communication with each distribution valve ; positioning a downstream temperature sensor and a temperature controller in communication with each position controller ; each position controller determining a static head prediction and a required pressure drop over each distribution valve ; each temperature controller providing a flow target to each position controller as a set point; the set point being based on an average of once-through evaporators section temperatures; characterized in biasing the set point by a dead band based on the average of once-through evaporator section temperatures with respect to an average saturation temperature. positioning a position controller in communication with each distribution valve ; positioning a downstream temperature sensor and a temperature controller in communication with each position controller ; each position controller determining a static head prediction and a required pressure drop over each distribution valve ; each temperature controller providing a flow target to each position controller as a set point; the set point being based on an average of once-through evaporators section temperatures; characterized in biasing the set point by a dead band based on the average of once-through evaporator section temperatures with respect to an average saturation temperature.
A hinge for connecting two sub- flaps of a folding flap , comprising a first and a second articulated part , which are connected to one another in an articulated manner, wherein an articulation axis connected to the first articulated part is rotatably mounted in a guide arranged on the second articulated part in a latching position (42.1) and is displaceably guided along a guide region (42.2) of the guide in a non-latched position, and wherein the first articulated part and the second articulated part can be connected to a respective sub-flap via a first mounting element and via a second mounting element respectively, wherein starting from the latching position (42.1), the guiding direction of the guide , changes continuously or discontinuously counter to the direction of rotation of the second articulated part when the hinge moves, characterised in that the change in the guide direction of the guide during a closing movement of the hinge results when the folding flap is closed, and the cross-section of the guide is tapered between the latching position (42.1) and the guide region (42.2).
Illumination system for a fluorescence microscope for observation of an object containing at least one fluorophore , comprising an illumination device , the illumination device having an emission spectrum which comprises fluorescence excitation wavelengths of the at least one fluorophore and visible-light background illumination wavelengths which differ from the fluorescence excitation wavelengths , further comprising an illumination filter for arrangement between the illumination device and the object , the illumination filter having at least one fluorescence excitation passband which is limited to the fluorescence excitation wavelengths and at least one background illumination passband which comprises the visible-light background illumination wavelengths , wherein the transmissivity of the fluorescence excitation passband is larger than the transmissivity of the background illumination passband and wherein the width of the fluorescence excitation passband is smaller than the width of the background illumination passband , characterized in that the intensity of visible-light background illumination wavelengths has at least a local maximum at a color complementary to fluorescence emission wavelengths .
A pair of trousers (H), comprising a waistband system with a circumferential waistband and a closable belt characterised in that the belt is non-elastic and which, at least on a rear side (RS) of the pair of trousers (H), is integrated as a non-elastic waistband portion in the waistband , wherein the waistband has at least one waistband portion which is monoelastic at least in the longitudinal direction (HR) and can be bridged by means of the belt which extends parallel thereto.
A system for configuring an industrial safety relay, comprising: a graphical interface component configured to display one or more graphical function block elements relating to a configuration program for a safety relay and to receive configuration input via interaction with the one or more graphical function block elements, wherein a function block element of the one or more graphical function block elements comprises a graphical parameter setting element adapted to facilitate configuration of a parameter associated with the function block element; and a configuration component configured to edit the configuration program based on the configuration input, and having means to display a terminal selection window graphic adapted to display a set of available terminals of the safety relay, wherein the selection of a terminal from the set of available terminals causes the terminal to be associated with the configured parameter. a graphical interface component configured to display one or more graphical function block elements relating to a configuration program for a safety relay and to receive configuration input via interaction with the one or more graphical function block elements, wherein a function block element of the one or more graphical function block elements comprises a graphical parameter setting element adapted to facilitate configuration of a parameter associated with the function block element; and a configuration component configured to edit the configuration program based on the configuration input, and having means to display a terminal selection window graphic adapted to display a set of available terminals of the safety relay, wherein the selection of a terminal from the set of available terminals causes the terminal to be associated with the configured parameter.
An artificial shuttlecock feather that is to be implanted into a base of a shuttlecock , the artificial feather comprising: a vane section ; and a rachis section supporting the vane section , the rachis section being formed from a glass-reinforced nylon or polyolefin having a Charpy impact strength of 30 kJ/m 2 or greater and a flexural modulus of 4 GPa or greater, and preferably having a Charpy impact strength of 36 kJ/m 2 or greater and a flexural modulus of 4.7 GPa or greater, wherein the vane section is provided to a distal end side of the rachis section ; and a length ratio W/H in a first position in a location where the vane section is not disposed differs from the length ratio W/H in a second position in a location where the vane section is disposed, wherein a width direction is a direction orthogonal to both an axial direction of the rachis section and a direction normal to the vane section , H is a maximum length in the normal direction in a given position on the rachis section , and W is a maximum length in the width direction in the given position on the rachis section , an average W/H change ratio in a location where the vane section is not disposed is smaller than an average W/H change ratio in a location where the vane section is disposed. a vane section ; and a rachis section supporting the vane section , the rachis section being formed from a glass-reinforced nylon or polyolefin having a Charpy impact strength of 30 kJ/m 2 or greater and a flexural modulus of 4 GPa or greater, and preferably having a Charpy impact strength of 36 kJ/m 2 or greater and a flexural modulus of 4.7 GPa or greater, wherein the vane section is provided to a distal end side of the rachis section ; and a length ratio W/H in a first position in a location where the vane section is not disposed differs from the length ratio W/H in a second position in a location where the vane section is disposed, wherein a width direction is a direction orthogonal to both an axial direction of the rachis section and a direction normal to the vane section , H is a maximum length in the normal direction in a given position on the rachis section , and W is a maximum length in the width direction in the given position on the rachis section , an average W/H change ratio in a location where the vane section is not disposed is smaller than an average W/H change ratio in a location where the vane section is disposed.
A method for configuring resource carried out in a user equipment, UE, comprising: receiving first information from a network-side, wherein the first information indicates to the UE configurations of bandwidth parts for multiple slots or mini-slots in a period of time, and the bandwidth parts comprise a first bandwidth part and a second bandwidth part; activating at a time, for a first slot or mini-slot, the first bandwidth part among the configured bandwidth parts following a time-domain structure, wherein the first bandwidth part is determined as an active bandwidth part; when a time duration corresponding to the active bandwidth part has elapsed, turning the active bandwidth part, for a second slot or mini-slot, to the second bandwidth part of the configured bandwidth parts; wherein the configurations of the bandwidth parts comprise the following of each of the bandwidth parts: a size, a position in frequency-domain, and information of configuration of at least one reference signal, wherein the configurations of the bandwidth parts comprise the time-domain structure. receiving first information from a network-side, wherein the first information indicates to the UE configurations of bandwidth parts for multiple slots or mini-slots in a period of time, and the bandwidth parts comprise a first bandwidth part and a second bandwidth part; activating at a time, for a first slot or mini-slot, the first bandwidth part among the configured bandwidth parts following a time-domain structure, wherein the first bandwidth part is determined as an active bandwidth part; when a time duration corresponding to the active bandwidth part has elapsed, turning the active bandwidth part, for a second slot or mini-slot, to the second bandwidth part of the configured bandwidth parts; wherein the configurations of the bandwidth parts comprise the following of each of the bandwidth parts: a size, a position in frequency-domain, and information of configuration of at least one reference signal, wherein the configurations of the bandwidth parts comprise the time-domain structure.
A method for actuating a hydraulic transmission actuator assembly, in which a volume flow source is connected to at least one hydraulic cylinder via a pressure line filled with a hydraulic fluid, a volume of the hydraulic fluid being controlled via the volume flow source , characterised in that control is carried out as a combined travel and angle control of the volume flow source , the travel control and the angle control being superimposed, characterised in that the travel control determines a selection of a shift gate of a transmission and the angle control allows engagement in the shift gate , wherein the hydraulic fluid begins to flow when the valve begins to switch over from the selected position to the shifting position.
Workpiece supply device with a workpiece receiving position for placing workpieces , with a workpiece removal position for removing workpieces and with a workpiece conveying device for conveying placed workpieces from the workpiece receiving position to a workpiece removal position , from which the workpieces can be removed by a feeding device and fed to a downstream workpiece table of a processing device, characterized by stop elements for positioning and straightening the workpieces by means of the feeding device , wherein in the workpiece removal position a plurality of workpieces can be provided simultaneously and adjacent to one another and one after the other.
An epoxy resin composition comprising: an epoxy resin; an epoxy resin curing agent comprising an amine-based curing agent; and an acidic compound, wherein a ratio (basic nitrogen/acid groups) of a molar equivalent of basic nitrogen in the epoxy resin composition to a molar equivalent of acid groups derived from the acidic compound is from 0.10 to 3.0, and wherein the epoxy resin comprises, in an amount of from 50 to 100 mass% relative to the total amount, an epoxy resin having a glycidylamino group derived from meta-xylylenediamine. an epoxy resin; an epoxy resin curing agent comprising an amine-based curing agent; and an acidic compound, wherein a ratio (basic nitrogen/acid groups) of a molar equivalent of basic nitrogen in the epoxy resin composition to a molar equivalent of acid groups derived from the acidic compound is from 0.10 to 3.0, and wherein the epoxy resin comprises, in an amount of from 50 to 100 mass% relative to the total amount, an epoxy resin having a glycidylamino group derived from meta-xylylenediamine.
A negative active material for a rechargeable lithium battery, comprising a core including silicon nanoparticles and a lithium titanium-based oxide and an amorphous carbon layer on the surface of the core. a core including silicon nanoparticles and a lithium titanium-based oxide and an amorphous carbon layer on the surface of the core.