mhurhangee/patent-ind-claim-en huggingface dataset:
An absorbent article comprising a wearer-facing, liquid-permeable topsheet; an outwardfacing, liquid impermeable backsheet; and an absorbent core structure disposed between the topsheet and backsheet, wherein a surface of a component material of the article includes a printed region bearing a deposit of an ink composition comprising one or more compounds represented by the following Structure I: HO-CH2-CH2-R (I) wherein R is a substituted or unsubstituted phenyl group or a substituted or unsubstituted phenoxy group; wherein the deposit further comprises one or more promoters for the one or more Structure (I) compounds, each of which promoter(s) is an alkane diol having a least 7 carbon atoms and up to and including 12 carbon atoms. wherein R is a substituted or unsubstituted phenyl group or a substituted or unsubstituted phenoxy group; wherein the deposit further comprises one or more promoters for the one or more Structure (I) compounds, each of which promoter(s) is an alkane diol having a least 7 carbon atoms and up to and including 12 carbon atoms.
A storage system for storing material such as sample tube caps, comprising: - a drawer comprising a reservoir , the drawer being movable between a first position and a second position, - a storage container arranged below the reservoir of the drawer when the drawer is arranged in the first position, - a transport device provided as conveyor and/or conveyor belt and configured to retrieve material from the storage container and to transport the material out of the storage container , and - a release mechanism; wherein the reservoir of the drawer comprises a bottom with a plurality of closable openings which are jointly operable in that - the release mechanism is configured to jointly open the plurality of closable openings when the drawer is moved from the second position into the first position and - the release mechanism is configured to jointly close the plurality of closable openings when the drawer is moved from the first position into the second position. - a drawer comprising a reservoir , the drawer being movable between a first position and a second position, - a storage container arranged below the reservoir of the drawer when the drawer is arranged in the first position, - a transport device provided as conveyor and/or conveyor belt and configured to retrieve material from the storage container and to transport the material out of the storage container , and - a release mechanism; - the release mechanism is configured to jointly open the plurality of closable openings when the drawer is moved from the second position into the first position and - the release mechanism is configured to jointly close the plurality of closable openings when the drawer is moved from the first position into the second position.
A system for creating advanced mappings in a cloud-based integration service, comprising: a computer including one or more microprocessors; a cloud service , executing on the computer, wherein the cloud service includes a web interface application for creating an integration flow between a source application and a target application , and a runtime for executing the integration flow; a mapping area displayed in the web interface application for a target element of the target application, wherein the mapping area includes a plurality of target items, including a mapping expression that defines a mapping between a source element of the source application and the target element of the target application; a plurality of mapping components displayed in the web interface application, wherein each mapping component is configured to be dragged and dropped onto one or more of the plurality of target items; an application programming interface that defines a plurality of rules , wherein each rule specifies one or more actions for a combination of a dragged and dropped mapping component and a target item; wherein one or more of the plurality of mapping components are dragged and dropped onto the mapping area to trigger one or more of the plurality of rules to generate one or more mapping statements , which modify the mapping expression to create an advanced mapping between the source element and the target element. a computer including one or more microprocessors; a cloud service , executing on the computer, wherein the cloud service includes a web interface application for creating an integration flow between a source application and a target application , and a runtime for executing the integration flow; a mapping area displayed in the web interface application for a target element of the target application, wherein the mapping area includes a plurality of target items, including a mapping expression that defines a mapping between a source element of the source application and the target element of the target application; a plurality of mapping components displayed in the web interface application, wherein each mapping component is configured to be dragged and dropped onto one or more of the plurality of target items; an application programming interface that defines a plurality of rules , wherein each rule specifies one or more actions for a combination of a dragged and dropped mapping component and a target item; wherein one or more of the plurality of mapping components are dragged and dropped onto the mapping area to trigger one or more of the plurality of rules to generate one or more mapping statements , which modify the mapping expression to create an advanced mapping between the source element and the target element.
An electronic component assembly comprising: a housing ; a heating element disposed inside the housing; a substrate disposed on the heating element; and a spacer disposed between the heating element and the substrate, wherein the substrate has a first hole coupled to the spacer, wherein the heating element includes a first body having a second hole formed therethrough, and a connection part connected to the substrate, and wherein the spacer includes: a first protrusion coupled to the first hole; a second protrusion coupled to the second hole; and a second body disposed between the first protrusion and the second protrusion, the second body of the spacer including a stopper having a diameter larger than that of the first protrusion and an extension part connected to the stopper, a portion of the stopper being in contact with the substrate, a distance between the substrate and the first body being equal to a sum of a thickness of the stopper and a thickness of the extension part. a housing ; a heating element disposed inside the housing; a substrate disposed on the heating element; and a spacer disposed between the heating element and the substrate, wherein the substrate has a first hole coupled to the spacer, wherein the heating element includes a first body having a second hole formed therethrough, and a connection part connected to the substrate, and wherein the spacer includes: a first protrusion coupled to the first hole; a second protrusion coupled to the second hole; and a second body disposed between the first protrusion and the second protrusion, the second body of the spacer including a stopper having a diameter larger than that of the first protrusion and an extension part connected to the stopper, a portion of the stopper being in contact with the substrate, a distance between the substrate and the first body being equal to a sum of a thickness of the stopper and a thickness of the extension part. a first protrusion coupled to the first hole; a second protrusion coupled to the second hole; and a second body disposed between the first protrusion and the second protrusion, the second body of the spacer including a stopper having a diameter larger than that of the first protrusion and an extension part connected to the stopper, a portion of the stopper being in contact with the substrate, a distance between the substrate and the first body being equal to a sum of a thickness of the stopper and a thickness of the extension part.
A method for controlling a state of a terminal screen, wherein the terminal comprises a first human body communication component connected with a metal structure on a surface of the terminal, the method comprises: determining a real-time state of the terminal screen as a first state; generating a first electromagnetic signal corresponding to the first state, and sending the first electromagnetic signal to the metal structure by the first human body communication component , such that the first electromagnetic signal is transmitted via a skin of a user to an associated wearable device comprising a second human body communication component connected with a metal structure on a surface of the wearable device when the user touches the metal structures on the surface of the terminal and on the surface of the wearable device ; receiving , by the first human body communication component via the metal structure , a second electromagnetic signal returned according to the first electromagnetic signal by the associated wearable device via the skin of the user; and if the second electromagnetic signal comprises state switching information of the terminal screen, switching the real-time state from the first state to a second state. determining a real-time state of the terminal screen as a first state; generating a first electromagnetic signal corresponding to the first state, and sending the first electromagnetic signal to the metal structure by the first human body communication component , such that the first electromagnetic signal is transmitted via a skin of a user to an associated wearable device comprising a second human body communication component connected with a metal structure on a surface of the wearable device when the user touches the metal structures on the surface of the terminal and on the surface of the wearable device ; receiving , by the first human body communication component via the metal structure , a second electromagnetic signal returned according to the first electromagnetic signal by the associated wearable device via the skin of the user; and if the second electromagnetic signal comprises state switching information of the terminal screen, switching the real-time state from the first state to a second state.
An additive fabrication device configured to form layers of material on a surface of a build platform, the additive fabrication device comprising: a container having an interior surface ; a build platform having a build surface that opposes the interior surface of the container ; one or more actuators configured to move the build platform relative to the container ; and at least one controller configured to: move the build platform toward the container , wherein during at least part of said movement the build surface is in contact with the interior surface of the container ; move the build platform away from the container , wherein during at least part of said movement the build surface is not in contact with the interior surface of the container ; measure a force applied to the build platform during said step of moving the build platform away from the container ; and determine a position of the build platform relative to the container based at least in part on the measured force. a container having an interior surface ; a build platform having a build surface that opposes the interior surface of the container ; one or more actuators configured to move the build platform relative to the container ; and at least one controller configured to: move the build platform toward the container , wherein during at least part of said movement the build surface is in contact with the interior surface of the container ; move the build platform away from the container , wherein during at least part of said movement the build surface is not in contact with the interior surface of the container ; measure a force applied to the build platform during said step of moving the build platform away from the container ; and determine a position of the build platform relative to the container based at least in part on the measured force. move the build platform toward the container , wherein during at least part of said movement the build surface is in contact with the interior surface of the container ; move the build platform away from the container , wherein during at least part of said movement the build surface is not in contact with the interior surface of the container ; measure a force applied to the build platform during said step of moving the build platform away from the container ; and determine a position of the build platform relative to the container based at least in part on the measured force.
Method for ascertaining a cable and/or connector temperature on an electric drive, having an E-axis module having an electric machine and a power electronics system and a DC voltage source , in particular a high-voltage battery , which are connected to one another via connection cables , the method comprising at least the following method steps: a) measuring a voltage U_Batt at a DC voltage source and a voltage U_INV at an input of the power electronics system , b) comparing a measurement accuracy by referencing U_INV to U_Batt, c) determining a reference sum resistance R_sum_ref at a known temperature T ref , d) with current flowing between the DC voltage source and the power electronics system , measuring a difference U_delta between the voltage U_Batt of the DC voltage source and the voltage U_INV at an input of the power electronics system and determining the sum resistance R_sum, e) determining the temperature from repeated determination of the sum resistance during operation and calculating an average temperature of the connection cable , f) differentiating between the resistance R 1 of a connection of the DC voltage source , a resistance R 2 of a connection cable , and a resistance R 3 of a connection of the power electronics system , and g) reducing a drive power of the electric drive when the temperature of the connections , the connection cable and/or the input of the power electronics system exceeds a temperature threshold value. a) measuring a voltage U_Batt at a DC voltage source and a voltage U_INV at an input of the power electronics system , b) comparing a measurement accuracy by referencing U_INV to U_Batt, c) determining a reference sum resistance R_sum_ref at a known temperature T ref , d) with current flowing between the DC voltage source and the power electronics system , measuring a difference U_delta between the voltage U_Batt of the DC voltage source and the voltage U_INV at an input of the power electronics system and determining the sum resistance R_sum, e) determining the temperature from repeated determination of the sum resistance during operation and calculating an average temperature of the connection cable , f) differentiating between the resistance R 1 of a connection of the DC voltage source , a resistance R 2 of a connection cable , and a resistance R 3 of a connection of the power electronics system , and g) reducing a drive power of the electric drive when the temperature of the connections , the connection cable and/or the input of the power electronics system exceeds a temperature threshold value.
An interdental cleaner with an elongate body which is at least partially covered by a coating (C), said interdental cleaner comprising a gripping portion , a cleaning portion and an intermediate transition section which is arranged between the gripping portion and the cleaning portion , and which is tapering towards the cleaning portion ; said coating (C) forming brush members on the cleaning portion ; wherein the cleaning portion has an axial length (L1) in a range of 35-55% of the overall axial length (L1+L2) of the interdental cleaner ; wherein the axial length (L2) of the gripping portion and the transition section is in a range of 45-65% of the overall axial length (L1+L2) of the interdental cleaner ; characterized in that the gripping portion has an outer rim extending along a periphery of the gripping portion and defining a recess configured to receive coating (C); and wherein said rim defines a gap through which said coating (C) extends.
A liquid mixing system comprising: a support housing at least partially bounding a chamber , the support housing having a top opening that communicates with the chamber; a mount secured to the support housing so as to span across the top opening ; and a drive motor assembly secured to the mount so that the drive motor assembly can be selectively raised and lowered between at least two positions, the drive motor assembly being configured to engage a drive shaft for moving the drive shaft within the chamber of the support housing, characterized by the drive motor assembly being secured to the mount by a four bar linkage system that is movable to selectively raise and lower the drive motor assembly between the at least two positions. a support housing at least partially bounding a chamber , the support housing having a top opening that communicates with the chamber; a mount secured to the support housing so as to span across the top opening ; and a drive motor assembly secured to the mount so that the drive motor assembly can be selectively raised and lowered between at least two positions, the drive motor assembly being configured to engage a drive shaft for moving the drive shaft within the chamber of the support housing, characterized by the drive motor assembly being secured to the mount by a four bar linkage system that is movable to selectively raise and lower the drive motor assembly between the at least two positions.
A ventilator having a gas analyzer and a tube system for a connection suitable for conducting gas from the ventilator to a patient and to the gas analyzer , wherein the tube system has a tap to which a water trap is releasably connected, wherein the water trap has a connection means for the connection with the tap , wherein the connection means transitions into a tube , which enables a connection suitable for conducting gas from the tube system into the water trap , wherein the tube is connected to the water trap and wherein the water trap has a front partial region and a rear partial region , which is facing the ventilator , wherein the ventilator comprises a receptacle for the water trap for a releasable connection with the water trap , wherein the water trap is connected to the ventilator in a manner suitable for conducting gas and wherein the gas analyzer is connected to the receptacle and the water trap in a manner suitable for conducting gas, wherein the gas analyzer comprises a suction unit which is configured to convey a defined stream of gas from the tube system to the gas analyzer via the water trap , characterized in that the water trap comprises a lower partial region which forms a water reservoir, wherein the lower partial region comprises a removal site for the removal of water from the reservoir by means of a cannula.
Computer implemented method for estimating lanes for a vehicle , the method comprising the following steps carried out by computer hardware components: - determining a first preliminary estimate of lanes based on a plurality of lane markings at a location of the vehicle ; - determining a second preliminary estimate of lanes based on a plurality of trails of other road users at the location of the vehicle ; - comparing the first preliminary estimate of lanes and the second preliminary estimate of lanes , wherein the comparing comprises a lane cross check of the first preliminary estimate of lanes and the second preliminary estimate of lanes to obtain information of which lanes are actually drivable, non-blocked, and/or obstacle-free; and - determining a final estimate of lanes at the location of the vehicle , including information whether these lanes may actually be used, based on the comparing . - determining a first preliminary estimate of lanes based on a plurality of lane markings at a location of the vehicle ; - determining a second preliminary estimate of lanes based on a plurality of trails of other road users at the location of the vehicle ; - comparing the first preliminary estimate of lanes and the second preliminary estimate of lanes , wherein the comparing comprises a lane cross check of the first preliminary estimate of lanes and the second preliminary estimate of lanes to obtain information of which lanes are actually drivable, non-blocked, and/or obstacle-free; and - determining a final estimate of lanes at the location of the vehicle , including information whether these lanes may actually be used, based on the comparing .
An LED light-emitting module comprising: a base board with at least one groove having a bottom; at least one printed circuit board with an array of LED chips , respectively arranged in the groove , wherein respective LED chips are directly mounted on the printed circuit board through a COB process, and the LED light-emitting module further comprising a reflector on a side wall of the groove to reflect light from the LED chips , wherein the at least one printed circuit board is fixed in the at least one groove and the reflector and the base board are formed in one piece.
Injectable homogeneous aqueous solution of chitosan containing, in a physiologically acceptable medium, between 0.1 and 4.5% by weight of a chitosan having a degree of acetylation less than 20% and a weight average molecular mass of between 100,000 and 1,500,000 g/mol, said solution having a pH greater than or equal to 6.2, and advantageously between 6.2 and 7.2, said solution not containing any chitosan having a degree of acetylation greater than 20%, said solution being liquid and homogeneous at ambient temperature.
Motor vehicle structure comprising: - a chassis, - a cross member supporting a power unit of said vehicle, - a supporting structure mounted on the chassis and dedicated to receiving the powertrain , - and a support for mounting the crosspiece , each of the ends of the crosspiece being fixed via a said support to the structure carrier , at least one said support being provided with a shock impactor which is oriented transversely (T1) on the chassis towards at least one structural element equipping the chassis, against which said at least one structural element the shock impactor is able to bear in the event of an impact (C1) supported by the chassis essentially along its longitudinal direction (L1) of extension, characterized in that an edge of the impact impactor oriented towards said structural element is inclined in the longitudinal plane (L1) and transverse plane (T1) of extension of the chassis, said inclined edge of the impact impactor providing a progressive support ramp for the impact impactor against said at least one structural element under the effect of said impact (C1). - a chassis, - a cross member supporting a power unit of said vehicle, - a supporting structure mounted on the chassis and dedicated to receiving the powertrain , - and a support for mounting the crosspiece , each of the ends of the crosspiece being fixed via a said support to the structure carrier ,
Assembly consisting of one gas-evolving electrode and one porous separator diaphragm wherein: - said separator diaphragm comprises inorganic hydrophilic particulates dispersed in a porous network; - said gas-evolving electrode is a mesoporous or microporous body in form of a flexible carbon web with a pore size below 50 nm comprising a conductive matrix having an electrocatalyst dispersed therein; - said gas-evolving electrode having a surface in direct contact without penetration with said separator diaphragm. - said separator diaphragm comprises inorganic hydrophilic particulates dispersed in a porous network; - said gas-evolving electrode is a mesoporous or microporous body in form of a flexible carbon web with a pore size below 50 nm comprising a conductive matrix having an electrocatalyst dispersed therein; - said gas-evolving electrode having a surface in direct contact without penetration with said separator diaphragm.