mhurhangee/patent-ind-claim-en huggingface dataset:
A passage control system with at least one exit door , wherein the exit door comprises a door panel , wherein the door panel has an entry side and an exit side, wherein door panel is attached to a support for suspension, wherein the door panel has a camera system arranged on it, wherein the camera system comprises a movable unit , a housing and a drive for the movable unit , wherein the movable unit includes a portrait camera , wherein the movable unit in a frontal view defines a swept-over surface across the travel path and the surface of the movable unit , wherein the swept-over surface minus the surface of the movable unit defines a free surface , wherein the housing comprises a rear side and a front side , wherein the rear side is connected via side walls to the front side of the housing , characterised in that the rear side of the housing is transparent across at least one section of the swept-over surface, wherein the door panel includes a transparent material, wherein the drive comprises a guide rail extending in height direction, wherein the movable unit and the drive are arranged inside the housing and wherein the housing is immovably fixed relative to the door panel and the movable unit is movable in height direction inside the housing . wherein the camera system comprises a movable unit , a housing and a drive for the movable unit , wherein the movable unit includes a portrait camera , wherein the movable unit in a frontal view defines a swept-over surface across the travel path and the surface of the movable unit , wherein the swept-over surface minus the surface of the movable unit defines a free surface , wherein the housing comprises a rear side and a front side , wherein the rear side is connected via side walls to the front side of the housing , characterised in that the rear side of the housing is transparent across at least one section of the swept-over surface, wherein the door panel includes a transparent material, wherein the drive comprises a guide rail extending in height direction, wherein the movable unit and the drive are arranged inside the housing and wherein the housing is immovably fixed relative to the door panel and the movable unit is movable in height direction inside the housing .
Door opener , which is an electromechanical, electromagnetic, motorised, pneumatic or hydraulic opening component, characterised in that it comprises a security device for closing two hinged elements, the device comprising an interposition means intended to block access to the latch through a channel between the hinged elements to be closed, wherein the interposition means has at least an inactive position in which said means is retracted and an active position, and in that the device also comprises an actuation mechanism for moving the interposition means from the passive position to the active position when the hinged elements are closed.
A device for collection and analysis of blood parameters, comprising a housing with an entrance opening, inside of which there is provided a drive connected to a replaceable module equipped with puncturing means and blood parameters analyzing means, and inside of which there is provided an electronic control module, characterized in that the replaceable module is mounted in the housing moveably, the drive located in the housing is in motional connection with said replaceable module , the replaceable module has at least two segments , each of which is equipped with a moveable diaphragm and thereto assigned puncturing means and blood parameters analyzing means , as well as a terminal connecting blood parameters analyzing means with the electronic control module , and the electronic control module is equipped with a communication module .
A tissue resector , comprising: a cannula including: a wall ; a lumen defined through the wall and extending along a length of the cannula ; a distal end ; and an opening at or adjacent to the distal end and establishing communication between an exterior of the wall and the lumen ; and a cutting wire within the lumen , the cutting wire including: an elongated element with a flattened distal end ; and a cutting feature secured to the flattened distal end that is configured to cooperate with the opening through the cannula ; wherein the cutting feature includes a cylindrical element with an open proximal end into which the flattened distal end of the elongated element extends; wherein a slot extends along a portion of a length of the cylindrical element; wherein the cutting wire is sized to enable tissue to be aspirated through the lumen of the cannula while cutting tissue; wherein the cutting wire is configured to rotate eccentrically within the lumen of the cannula . a cannula including: a wall ; a lumen defined through the wall and extending along a length of the cannula ; a distal end ; and an opening at or adjacent to the distal end and establishing communication between an exterior of the wall and the lumen ; and a wall ; a lumen defined through the wall and extending along a length of the cannula ; a distal end ; and an opening at or adjacent to the distal end and establishing communication between an exterior of the wall and the lumen ; and a cutting wire within the lumen , the cutting wire including: an elongated element with a flattened distal end ; and a cutting feature secured to the flattened distal end that is configured to cooperate with the opening through the cannula ; wherein the cutting feature includes a cylindrical element with an open proximal end into which the flattened distal end of the elongated element extends; wherein a slot extends along a portion of a length of the cylindrical element; wherein the cutting wire is sized to enable tissue to be aspirated through the lumen of the cannula while cutting tissue; wherein the cutting wire is configured to rotate eccentrically within the lumen of the cannula . an elongated element with a flattened distal end ; and a cutting feature secured to the flattened distal end that is configured to cooperate with the opening through the cannula ; wherein the cutting feature includes a cylindrical element with an open proximal end into which the flattened distal end of the elongated element extends; wherein a slot extends along a portion of a length of the cylindrical element; wherein the cutting wire is sized to enable tissue to be aspirated through the lumen of the cannula while cutting tissue; wherein the cutting wire is configured to rotate eccentrically within the lumen of the cannula .
A system, comprising: a delivery device (230; 330) comprising first and second working channels ; an endcap (110; 210; 310) comprising first and second lumens (116, 118; 316, 318) defining respective first and second openings (116a, 118a; 218a; 318a); and wherein a proximal end (112; 212) of the endcap (110; 210; 310) is attached to a distal end of the delivery device (230; 330) such that the first working channel is contiguous with the first lumen (116; 316), and the second working channel is contiguous with the second lumen (118; 318), characterized in that a distal portion of the delivery device (230; 330) includes a pocket , and wherein the endcap (110; 210; 310) is configured to fit within the pocket , wherein the pocket includes a skived opening configured to align with the second opening (218a; 318a). a delivery device (230; 330) comprising first and second working channels ; an endcap (110; 210; 310) comprising first and second lumens (116, 118; 316, 318) defining respective first and second openings (116a, 118a; 218a; 318a); and wherein a proximal end (112; 212) of the endcap (110; 210; 310) is attached to a distal end of the delivery device (230; 330) such that the first working channel is contiguous with the first lumen (116; 316), and the second working channel is contiguous with the second lumen (118; 318), characterized in that a distal portion of the delivery device (230; 330) includes a pocket , and wherein the endcap (110; 210; 310) is configured to fit within the pocket , wherein the pocket includes a skived opening configured to align with the second opening (218a; 318a).
A ready to drink (RTD) beverage product comprising: Milk, non-fat dry milk, cream, skimmed-milk or semi-skimmed milk, or combinations thereof; added sugar ranging from 1 - 5 wt/wt%; only one natural hydrocolloid, being high-acyl gellan gum ranging from 0.01 to 0.03 wt/wt%; and an acidifier; wherein the beverage comprises casein-whey protein aggregates having a volume based mean diameter value D ranges from 5 to 10 μm as measured by laser diffraction and viscosity ranging from 3 to 30 cP measured at 4°C at shear rate 75 sec -1 and wherein the RTD beverage is a coffee based beverage and the acidifier is coffee. Milk, non-fat dry milk, cream, skimmed-milk or semi-skimmed milk, or combinations thereof; added sugar ranging from 1 - 5 wt/wt%; only one natural hydrocolloid, being high-acyl gellan gum ranging from 0.01 to 0.03 wt/wt%; and an acidifier; wherein the beverage comprises casein-whey protein aggregates having a volume based mean diameter value D ranges from 5 to 10 μm as measured by laser diffraction and viscosity ranging from 3 to 30 cP measured at 4°C at shear rate 75 sec -1 and wherein the RTD beverage is a coffee based beverage and the acidifier is coffee.
A system for estimating residual noise energy of an electrocardiogram (ECG) signal, the system comprising: a plurality of electrodes positioned in proximity to a cardiac structure and configured to measure an electrical signal of the cardiac structure to produce the ECG signal; and a processor configured to: segment the ECG signal into a plurality of segments ; for each of the plurality of segments: remove linear trend energy and direct current (DC) energy from the segment , and calculate an estimated noise energy of the segment by taking a root-mean-square (RMS) amplitude or peak-to-peak (PP) amplitude of the segment ; select a subset of the plurality of segments with a minimum estimated noise energy ; and estimate the residual noise energy of the ECG signal by calculating an average of the estimated noise energy over the subset of segments . a plurality of electrodes positioned in proximity to a cardiac structure and configured to measure an electrical signal of the cardiac structure to produce the ECG signal; and a processor configured to: segment the ECG signal into a plurality of segments ; for each of the plurality of segments: remove linear trend energy and direct current (DC) energy from the segment , and calculate an estimated noise energy of the segment by taking a root-mean-square (RMS) amplitude or peak-to-peak (PP) amplitude of the segment ; select a subset of the plurality of segments with a minimum estimated noise energy ; and estimate the residual noise energy of the ECG signal by calculating an average of the estimated noise energy over the subset of segments . segment the ECG signal into a plurality of segments ; for each of the plurality of segments: remove linear trend energy and direct current (DC) energy from the segment , and calculate an estimated noise energy of the segment by taking a root-mean-square (RMS) amplitude or peak-to-peak (PP) amplitude of the segment ; select a subset of the plurality of segments with a minimum estimated noise energy ; and estimate the residual noise energy of the ECG signal by calculating an average of the estimated noise energy over the subset of segments .
A setup support device applied to a component mounter for producing multiple types of board products by performing various multiple production jobs for mounting electronic components on a circuit board , the setup support device comprising: a memory section configured to store a production schedule indicating an execution order of the production jobs as a production order of multiple types of the board products and a setup list indicating one or multiple of the production jobs selected as a setup target for enabling production of the production jobs by the component mounter among the multiple production jobs included in the production schedule; and a guidance section configured to guide the operator to perform the setup of the production jobs based on the setup list characterized by: a list editing section configured to edit the setup with respect to the component mounter so as to increase or decrease the production jobs included in the setup list in response to a request from an operator who performs the setup or a change in the production schedule. a memory section configured to store a production schedule indicating an execution order of the production jobs as a production order of multiple types of the board products and a setup list indicating one or multiple of the production jobs selected as a setup target for enabling production of the production jobs by the component mounter among the multiple production jobs included in the production schedule; and a guidance section configured to guide the operator to perform the setup of the production jobs based on the setup list characterized by:
An apparatus for producing pseudoionone and hydroxy pseudoionone, comprising - a first vertically oriented reactor chamber arranged such that components flow through the first reactor chamber in a first flow direction, - a second vertically oriented reactor chamber in fluid communication with the first reactor chamber , and the second reactor chamber being oriented such that components flow through the second reactor chamber in a second flow direction different from the first flow direction, wherein - the first reactor chamber is configured to receive a first component feed (C1) containing a first aqueous mixture through an inlet , and to produce a second aqueous mixture by allowing to react for a reaction time the components of the first aqueous mixture and wherein - the apparatus comprises a mixing device positioned downstream of the first component feed inlet and configured to add a second component feed (C2) to the first component feed (C1) when the second aqueous mixture has formed, and - the second reactor chamber is configured to receive the first and second component feeds unified in the mixing device from the first reactor chamber and to produce a third aqueous mixture from the first and second aqueous mixtures; wherein a vertical orientation refers to the respective reactor chamber or chambers being oriented within +/-15° of being perpendicular to a ground surface on top of which the apparatus is installed. - a first vertically oriented reactor chamber arranged such that components flow through the first reactor chamber in a first flow direction, - a second vertically oriented reactor chamber in fluid communication with the first reactor chamber , and the second reactor chamber being oriented such that components flow through the second reactor chamber in a second flow direction different from the first flow direction, - the first reactor chamber is configured to receive a first component feed (C1) containing a first aqueous mixture through an inlet , and to produce a second aqueous mixture by allowing to react for a reaction time the components of the first aqueous mixture and wherein - the apparatus comprises a mixing device positioned downstream of the first component feed inlet and configured to add a second component feed (C2) to the first component feed (C1) when the second aqueous mixture has formed, and - the second reactor chamber is configured to receive the first and second component feeds unified in the mixing device from the first reactor chamber and to produce a third aqueous mixture from the first and second aqueous mixtures; wherein a vertical orientation refers to the respective reactor chamber or chambers being oriented within +/-15° of being perpendicular to a ground surface on top of which the apparatus is installed.
An automated electrode changer for an electrical discharge machining system , the changer comprising: an electrode storage system adapted to store a plurality of electrodes (E), the electrode storage system including an electrode dispensing system adapted to dispense the electrodes (E) one at a time from the electrode storage system ; an electrode insertion system characterised in that the electrode insertion system is adapted to draw an electrode (E) from the electrode dispensing system in a downward direction and to insert the electrode (E) in an upward direction directly into contact with a spindle ; the automated electrode changer further being characterised by a storage transport system adapted to move the electrode storage system horizontally between a dispensing position vertically aligned with the electrode insertion system and a rest position; and an electrode removal system adapted to remove a used electrode (E) from a spindle in a downward direction. an electrode storage system adapted to store a plurality of electrodes (E), the electrode storage system including an electrode dispensing system adapted to dispense the electrodes (E) one at a time from the electrode storage system ; an electrode insertion system characterised in that the electrode insertion system is adapted to draw an electrode (E) from the electrode dispensing system in a downward direction and to insert the electrode (E) in an upward direction directly into contact with a spindle ; the automated electrode changer further being characterised by a storage transport system adapted to move the electrode storage system horizontally between a dispensing position vertically aligned with the electrode insertion system and a rest position; and an electrode removal system adapted to remove a used electrode (E) from a spindle in a downward direction.
A method of unlocking a device , comprising: displaying a first user interface indicating that a screen of the device changes from a disabled state to an enabled state; receiving a hovering input of a user; determining whether the hovering input is an input by an input tool or an input by a body part of the user; selecting a second user interface from among a plurality of user interfaces for unlocking the device, when the hovering input is inputted by the input tool of the user, wherein the plurality of user interfaces include a third user interface for receiving a touch input by the body part of the user and the second user interface for receiving a touch input by the input tool ; selecting the third user interface when the hovering input is input by a body part of the user; and changing the first user interface to the second user interface or the third user interface on the screen of the device, wherein the device includes a first sensor for detecting an input by the input tool and a second sensor for detecting a touch input by the body part of the user and wherein determining whether the hovering input is an input by an input tool or an input by a body part of the user comprises determining which of the first sensor and the second sensor detects the hovering input, wherein the second user interface is a user interface for receiving a signature input of the user, and the third user interface comprises one of a user interface for receiving a pattern input of the user or a user interface for receiving a password input of the user. displaying a first user interface indicating that a screen of the device changes from a disabled state to an enabled state; receiving a hovering input of a user; determining whether the hovering input is an input by an input tool or an input by a body part of the user; selecting a second user interface from among a plurality of user interfaces for unlocking the device, when the hovering input is inputted by the input tool of the user, wherein the plurality of user interfaces include a third user interface for receiving a touch input by the body part of the user and the second user interface for receiving a touch input by the input tool ; selecting the third user interface when the hovering input is input by a body part of the user; and changing the first user interface to the second user interface or the third user interface on the screen of the device, wherein the device includes a first sensor for detecting an input by the input tool and a second sensor for detecting a touch input by the body part of the user and wherein determining whether the hovering input is an input by an input tool or an input by a body part of the user comprises determining which of the first sensor and the second sensor detects the hovering input, wherein the second user interface is a user interface for receiving a signature input of the user, and the third user interface comprises one of a user interface for receiving a pattern input of the user or a user interface for receiving a password input of the user.
Method for displaying a navigation map for a navigation appliance , wherein the navigation map displays location coordinates on which an elevation profile is overlaid, and wherein the navigation map furthermore has 3D landmarks that are displayed in conjunction with the elevation profile , wherein the method for displaying the map has at least the following steps: - reading an elevation model into a main memory of the navigation appliance , - ascertaining each of the outlines of the 3D landmarks , after which it is determined which grid points of the elevation model are covered by the relevant outline, characterized by at least the following steps: - correcting the elevation model at the points at which said grid points are covered by a 3D landmark , - reading off the elevation values of the grid points and of at least some of the eight further grid points surrounding the grid points , - calculating a mean value for the elevation value, - assigning the calculated elevation value to all grid points that are covered by the relevant 3D landmark , - assigning the calculated elevation value to all grid points that are adjacent to the covered grid points , so that all grid points below the relevant elevation model have a uniform elevation in order to smooth the level of said elevation model. - reading an elevation model into a main memory of the navigation appliance , - ascertaining each of the outlines of the 3D landmarks , after which it is determined which grid points of the elevation model are covered by the relevant outline, characterized by at least the following steps: - correcting the elevation model at the points at which said grid points are covered by a 3D landmark , - reading off the elevation values of the grid points and of at least some of the eight further grid points surrounding the grid points , - calculating a mean value for the elevation value, - assigning the calculated elevation value to all grid points that are covered by the relevant 3D landmark , - assigning the calculated elevation value to all grid points that are adjacent to the covered grid points , so that all grid points below the relevant elevation model have a uniform elevation in order to smooth the level of said elevation model. - correcting the elevation model at the points at which said grid points are covered by a 3D landmark , - reading off the elevation values of the grid points and of at least some of the eight further grid points surrounding the grid points , - calculating a mean value for the elevation value, - assigning the calculated elevation value to all grid points that are covered by the relevant 3D landmark , - assigning the calculated elevation value to all grid points that are adjacent to the covered grid points , so that all grid points below the relevant elevation model have a uniform elevation in order to smooth the level of said elevation model.