mhurhangee/patent-ind-claim-en huggingface dataset:
Positioning process of a piston of a reciprocating compressor, applied before the beginning of a start procedure of a BLDC motor , the reciprocating compressor comprising: - the BLDC motor having a rotor associated mechanically to the piston ; - a frequency inverter , used in the driving of the BLDC motor , that comprises six switches (S1-S6); - a current sensor positioned on the busbar; - a processing unit comprising a current controller and a command unit in order to commute the switches (S 1 -S 6 ); wherein the switches (S 1 -S 6 ) are driven by the processing unit based on the control signal, defined by the current controller , and based on the commuting sequency, defined by the command unit , in a determined step of the positioning process, in order to control the electrical currents (I A , I B , I C ) applied to the phases (F A , F B , F C ), respectively, of the BLDC motor ; characterized in that : in each new step, the value of the initial current is higher or equal to the value of the initial current of a previous step; and in each new step, the value of a maximum current is higher or equal to the value of the maximum current of the previous step. - the BLDC motor having a rotor associated mechanically to the piston ; - a frequency inverter , used in the driving of the BLDC motor , that comprises six switches (S1-S6); - a current sensor positioned on the busbar; - a processing unit comprising a current controller and a command unit in order to commute the switches (S 1 -S 6 ); wherein the switches (S 1 -S 6 ) are driven by the processing unit based on the control signal, defined by the current controller , and based on the commuting sequency, defined by the command unit , in a determined step of the positioning process, in order to control the electrical currents (I A , I B , I C ) applied to the phases (F A , F B , F C ), respectively, of the BLDC motor ; characterized in that : in each new step, the value of the initial current is higher or equal to the value of the initial current of a previous step; and in each new step, the value of a maximum current is higher or equal to the value of the maximum current of the previous step. in each new step, the value of the initial current is higher or equal to the value of the initial current of a previous step; and in each new step, the value of a maximum current is higher or equal to the value of the maximum current of the previous step.
A computer-implemented method for triggering an animation action , the method comprising: receiving, at a computer system executing a presentation application, a request to trigger an animation action when playback of a media object during viewing of a slide presentation reaches a bookmark within a media object timeline associated with the media object, the bookmark being specified by a user of the presentation application prior to viewing of the slide presentation, the media object being inserted onto a slide of the slide presentation, the media object being an audio file or a video file; and in response to receiving the request, storing data defining a new animation timeline associated with the presentation application, the new animation timeline being configured to cause the presentation application to determine whether the bookmark has been encountered during playback of the media object during the slide show presentation, and in response to encountering the bookmark during playback of the media object , perform the animation action by transforming the data defining the new animation timeline to a visual depiction for display by a computer system . receiving, at a computer system executing a presentation application, a request to trigger an animation action when playback of a media object during viewing of a slide presentation reaches a bookmark within a media object timeline associated with the media object, the bookmark being specified by a user of the presentation application prior to viewing of the slide presentation, the media object being inserted onto a slide of the slide presentation, the media object being an audio file or a video file; and in response to receiving the request, storing data defining a new animation timeline associated with the presentation application, the new animation timeline being configured to cause the presentation application to determine whether the bookmark has been encountered during playback of the media object during the slide show presentation, and in response to encountering the bookmark during playback of the media object , perform the animation action by transforming the data defining the new animation timeline to a visual depiction for display by a computer system .
Filter system provided by a chromatography column for filtering or binding of a substance present in a liquid or gas, e.g. to filter or bind molecules or proteins, the system containing a filter element which is designed to be filled with an exchangeable filter medium and the filter system is provided with fill means with which a single feed tube external from the filter system is to be connected to an across the filter system distributed fill element, the filter element has a cavity which is designed to contain the filter medium, said cavity has a torus shape providing a fixed central, filter medium free axial channel and said cavity is axially delimited by a first and a second fixed end wall , which are fluid impermeable, and is radially delimited by two concentrically within each other located fixed side walls, which are fluid permeable, the inner side wall of which delimits at its inner side said central axial channel, the outer side wall of which delimits at its outer side an annular, axial flow space within the filter system, which axial flow space connects to a first opening in the filter element to communicate to the outside of the filter element, and which central channel is permanently sealed by a fixed inner land area of the first end wall and connects to a second opening in the second end wall to communicate to the outside of the filter element, such that flow of fluid between the annular axial flow space and the central axial channel passes radially through the filter element, characterized in that the fill element has a continuous or along its length at spaced locations interrupted, slit shaped fill opening or a plurality of mutually spaced fill openings (8a-8f), connecting to the torus shaped cavity of the filter element and provided in the first fixed end wall sealing the central axial channel, which opening or openings (8a-8f) are arranged to provide a continuous or along its length at spaced locations interrupted, loop shaped or annular shaped fill gap (9, 8a-8f) designed to provide homogeneous filling of the cavity , which fill gap (8a-8f, 9) extends around the central channel and also extends around said fixed inner land area of the first end wall, the single feed tube is connected to said fill gap (8a-8f, 9) such that filter medium flowing through the feed tube during filling of the filter system with filter medium, flows through the fill gap and then into the torus shaped cavity of the filter element, and the single feed tube is sealingly connected to the filter system by first sealing means providing a sealing skirt surrounding the fill gap at its radial outer side, the fill gap is opened and closed by second sealing means engaging the fill gap from the side of the first end wall opposite the side facing the torus shaped cavity of the filter element, and which second sealing means in a first position close the fill gap, such that the sealingly connected feed tube is sealed from the cavity and in a second position open the fill gap such that the sealingly connected feed tube is connected to the cavity .
A method of producing a carboxylate ligand modified ferric iron hydroxide formulation, the method comprising mixing a colloidal suspension of the carboxylate ligand modified ferric iron hydroxide in a water miscible non-aqueous solvent to cause the carboxylate ligand modified ferric iron hydroxide to agglomerate; recovering the agglomerated carboxylate ligand modified ferric iron hydroxide; and drying the carboxylate ligand modified ferric iron hydroxide to produce the carboxylate ligand modified ferric iron hydroxide formulation, wherein the carboxylate ligand comprises one or more dicarboxylate ligands; wherein the carboxylate ligand modified ferric iron hydroxide has a three dimensional polymeric structure in which the carboxylate ligands are non-stoichiometrically substituted for the oxo or hydroxy groups of the ferric iron hydroxide so that some of the ligand integrates into the solid phase by formal metal-ligand bonding.
A method of configuring a telecommunications network , the method comprising the steps of: identifying a User Equipment , UE, utilising the telecommunications network; ascertaining physical capability information associated with a user of the identified UE, wherein the physical capability information is indicative of a physical capability of the user ; determining a network configuration in dependence upon the ascertained physical capability information ; and configuring a network connection for the identified UE according to the determined network configuration . identifying a User Equipment , UE, utilising the telecommunications network; ascertaining physical capability information associated with a user of the identified UE, wherein the physical capability information is indicative of a physical capability of the user ; determining a network configuration in dependence upon the ascertained physical capability information ; and configuring a network connection for the identified UE according to the determined network configuration .
A method for examining filled containers (B, B1, B2, B3, B4, B5), which are filled with CO 2 -containing products such as beer or lemonade, for contaminants such as glass fragments, said method comprising the steps of examining, e.g. by means of a camera, a container for gas bubbles (G) in the product (P) / in the container (B) and/or gas mists (N) in the product (P) / container (B), and sorting out the container if gas bubbles are determined in the product (P) / container (B) and/or if gas mists (N) are determined in the product (P) / container (B), and re-examining the container later on.
A method for duplex coordination of a relay node device in a relay network, comprising: receiving, by the relay node device, configuration information sent by a second node device; according to the configuration information, receiving , by the relay node device, on a first time domain resource a first message sent by the second node device, and sending a second message to a third node device on a second time domain resource; wherein the configuration information indicates the first time domain resource and the second time domain resource, the second node device is a parent node of the relay node device, and the third node device is a child node of the relay node device; wherein the configuration information comprises first configuration information and second configuration information, the first configuration information indicates the first time domain resource, and the second configuration information indicates the second time domain resource; characterized wherein the first time domain resource and the second time domain resource partially or completely overlap; wherein relay node device prioritizes receiving of the first message sent by the second node device on the first time domain resource. receiving, by the relay node device, configuration information sent by a second node device; according to the configuration information, receiving , by the relay node device, on a first time domain resource a first message sent by the second node device, and sending a second message to a third node device on a second time domain resource; wherein the configuration information indicates the first time domain resource and the second time domain resource, the second node device is a parent node of the relay node device, and the third node device is a child node of the relay node device; wherein the configuration information comprises first configuration information and second configuration information, the first configuration information indicates the first time domain resource, and the second configuration information indicates the second time domain resource; characterized wherein the first time domain resource and the second time domain resource partially or completely overlap; wherein relay node device prioritizes receiving of the first message sent by the second node device on the first time domain resource.
An image data processing method, comprising: an image data compression step (S120) of compressing image data after RIP processing by run-length encoding; and an ink consumption amount estimation step (S130) of calculating a predicted ink consumption amount when printing based on the image data is performed by an inkjet printing device , wherein an ink consumption amount table (IT) is prepared for each group obtained by dividing the entire print width of the inkjet printing device into two or more, the ink consumption amount table (IT) holding information on an ink consumption amount for each gradation value, in the image data compression step (S120), when run-length encoding is applied on the image data, a histogram (HG) indicative of the number of occurrences for each gradation value is generated for each group, in the ink consumption amount estimation step (S130), a predicted value of an ink consumption amount is calculated for each group based on information on the number of occurrences for each gradation value indicated by the histogram (HG) and the information on the ink consumption amount for each gradation value held in the ink consumption amount table (IT), and a sum of predicted values calculated for all groups is taken as the predicted ink consumption amount. an image data compression step (S120) of compressing image data after RIP processing by run-length encoding; and an ink consumption amount estimation step (S130) of calculating a predicted ink consumption amount when printing based on the image data is performed by an inkjet printing device , wherein an ink consumption amount table (IT) is prepared for each group obtained by dividing the entire print width of the inkjet printing device into two or more, the ink consumption amount table (IT) holding information on an ink consumption amount for each gradation value, in the image data compression step (S120), when run-length encoding is applied on the image data, a histogram (HG) indicative of the number of occurrences for each gradation value is generated for each group, in the ink consumption amount estimation step (S130), a predicted value of an ink consumption amount is calculated for each group based on information on the number of occurrences for each gradation value indicated by the histogram (HG) and the information on the ink consumption amount for each gradation value held in the ink consumption amount table (IT), and a sum of predicted values calculated for all groups is taken as the predicted ink consumption amount.
A method comprising: receiving, by a router from an upstream router of a label switched path, LSP , established between an ingress router and an egress router, a first message requesting establishment of a second LSP instance of the LSP, the second LSP instance having a second path that at least partially overlaps a first path of a first LSP instance of the LSP; receiving, by the router from a next hop router along the second path of the second LSP instance, a second message including a second downstream label used to identify outgoing traffic associated with the second LSP instance; in response to receiving the second message, determining, by the router, to reuse a label previously allocated by the router for the first LSP instance to identify incoming traffic associated with the second LSP instance, wherein determining to reuse the label comprises determining, by the router, that the second downstream label is the same as a first downstream label previously received by the router from the same next hop router for the first LSP instance; sending, by the router to the upstream router along the second path of the second LSP instance, a third message including the label for the second LSP instance, wherein the label is the same for the first LSP instance and the second LSP instance; and upon establishment of the second LSP instance and tear down of the first LSP instance by the ingress router, receiving, by the router from the upstream router along the second path of the second LSP instance, incoming traffic including the label. receiving, by a router from an upstream router of a label switched path, LSP , established between an ingress router and an egress router, a first message requesting establishment of a second LSP instance of the LSP, the second LSP instance having a second path that at least partially overlaps a first path of a first LSP instance of the LSP; receiving, by the router from a next hop router along the second path of the second LSP instance, a second message including a second downstream label used to identify outgoing traffic associated with the second LSP instance; in response to receiving the second message, determining, by the router, to reuse a label previously allocated by the router for the first LSP instance to identify incoming traffic associated with the second LSP instance, wherein determining to reuse the label comprises determining, by the router, that the second downstream label is the same as a first downstream label previously received by the router from the same next hop router for the first LSP instance; sending, by the router to the upstream router along the second path of the second LSP instance, a third message including the label for the second LSP instance, wherein the label is the same for the first LSP instance and the second LSP instance; and upon establishment of the second LSP instance and tear down of the first LSP instance by the ingress router, receiving, by the router from the upstream router along the second path of the second LSP instance, incoming traffic including the label.
A device for analyzing biological objects (3, 4; 52; 53), comprising a Raman spectroscopy system for acquiring at least one Raman spectrum , an arresting unit (5; 51; 61; 91; 95) that is configured to at least temporarily arrest the biological objects (3, 4; 52; 53), and an electronic computing unit that is configured to determine a reaction of a biological object (3, 4; 52; 53) arrested by the arresting unit (5; 51; 61; 91; 95) to at least one substance in accordance with an evaluation of the at least one Raman spectrum wherein the device is designed in such a way that the biological objects are arranged so that they can be detected separately in time and individually, wherein the device is not a SERS Raman spectroscopy system, characterized in that the arresting device (5; 51; 61; 91; 95) comprises holding areas (62; 63; 92) at each of which at least one biological object (3, 4; 52; 53) is arrestable, wherein the device is configured to produce a fluid stream flowing over the plurality of holding areas (62; 63; 92), wherein the arresting takes place in a recess or a microwell; further comprising a supply unit for supplying the at least one substance to the biological objects (3, 4; 52; 53).
A method for providing a measure indicative of impact time between an image sensor and an object relatively moving at least partially towards, or away from, the image sensor , wherein the method comprises: - obtaining image data comprising a first set of pixel data for pixel positions (1..N) of the image sensor and a second set of pixel data for said pixel positions (1..N), wherein the pixel data at each (i) of said pixel positions (1..N) in the first set relate to sensed pixel data by the image sensor for that pixel position (i) when imaging said object a first time (t1) and pixel data at each (i) of said pixel positions (1..N) in the second set relate to pixel data sensed by the image sensor for that pixel position (i) when subsequently imaging said object a later second time (t2), - identifying local extreme points, "LEPs" in the first set of pixel data, - identifying new LEPs in the second set of pixel data, which new LEPs are LEPs in pixel positions without identified LEPs in the first set of pixel data; - computing a first value proportional to the total number of said identified new LEPs in the second set of pixel data, and - providing said measure indicative of impact time based on said first value. - obtaining image data comprising a first set of pixel data for pixel positions (1..N) of the image sensor and a second set of pixel data for said pixel positions (1..N), wherein the pixel data at each (i) of said pixel positions (1..N) in the first set relate to sensed pixel data by the image sensor for that pixel position (i) when imaging said object a first time (t1) and pixel data at each (i) of said pixel positions (1..N) in the second set relate to pixel data sensed by the image sensor for that pixel position (i) when subsequently imaging said object a later second time (t2), - identifying local extreme points, "LEPs" in the first set of pixel data, - identifying new LEPs in the second set of pixel data, which new LEPs are LEPs in pixel positions without identified LEPs in the first set of pixel data; - computing a first value proportional to the total number of said identified new LEPs in the second set of pixel data, and - providing said measure indicative of impact time based on said first value.
Polyurethane resins as a one or two-component system based on aromatic aliphatic polyester alcohols and di- and/or polyisocyanates, wherein the aromatic aliphatic polyester alcohols have a molar mass of M n 250 to 750, as well as a calculated functionality f n between 2.01 and 2.3, and consist of: a) 25 to 45% by weight of at least one aromatic dicarboxylic acid, b) 3 to 22% by weight of at least one aliphatic dicarboxylic acid, c) 30 to 72% by weight of a diol or several diols, d) 0.1 and 12% by weight of a triol or several triols, and the aliphatic and aromatic dicarboxylic acids are distributed statistically in the chain over the diols, and the triols are distributed statistically in the chain only over the primary hydroxyl groups so that the hydroxyl numbers are between 150 and 450 mg KOH/g, wherein the triols are selected from glycerin, 1,3,6-hexanetriol, 1,2,6-hexanetriol, 1,3,8- octanetriol or mixtures thereof. a) 25 to 45% by weight of at least one aromatic dicarboxylic acid, b) 3 to 22% by weight of at least one aliphatic dicarboxylic acid, c) 30 to 72% by weight of a diol or several diols, d) 0.1 and 12% by weight of a triol or several triols,