mhurhangee/patent-ind-claim-en huggingface dataset:
A side-mountable tank support assembly for a vehicle, the side-mountable tank support assembly comprising: a bracket configured to attach to a side of the vehicle, wherein the bracket is configured to rigidly hold a fuel container for the vehicle during an impact; and a bumper bar connected to the bracket, wherein the bumper bar is configured to transmit a force from the impact, wherein a fraction of the force is configured to be distributed by the bumper bar to a surface area of the fuel container in contact with the bumper bar and a fraction of the force is configured to be distributed to the bracket; wherein, in use, the bracket holds the fuel container to a side of the vehicle such that the bumper bar protrudes beyond a lateral surface of the fuel container. a bracket configured to attach to a side of the vehicle, wherein the bracket is configured to rigidly hold a fuel container for the vehicle during an impact; and a bumper bar connected to the bracket, wherein the bumper bar is configured to transmit a force from the impact, wherein a fraction of the force is configured to be distributed by the bumper bar to a surface area of the fuel container in contact with the bumper bar and a fraction of the force is configured to be distributed to the bracket; wherein, in use, the bracket holds the fuel container to a side of the vehicle such that the bumper bar protrudes beyond a lateral surface of the fuel container.
Transport device comprising a sensor unit , the sensor unit having an optical sensor , the sensor being shiftable between at least one first position and at least one second position by means of a drive , the sensor unit being configured such that the sensor can be pivoted by an angle of up to 360° from the first position into the second position , characterized in that the sensor unit is used for navigating and positioning the transport device , the optical sensor being designed as a camera for detecting location markings in the form of contrasted points or tracks on a reference surface and, in the first position , for navigating the driverless transport device relative to the location markings on the reference surface and, in the second position , for positioning the transport device relative to a loading unit or a processing station, and in that the transport device is designed as a driverless transport vehicle for autonomously transporting objects in manufacturing, assembly and/or logistics.
A compound of the formula or a pharmaceutically acceptable salt thereof, wherein X is O or CH 2 ; Y is O or CH 2 ; R 1 is H or -NHR 3 ; R 2 is R 3 is H, CH 3 , C 2 H 5 , CH 2 CH 2 CH 3 , CH(CH 3 ) 2 , CH 2 CHF 2 , CH 2 CF 3 , or CH 2 -C 3-8 cycloalkyl; R 4 is H, C 1-6 alkyl, CF 3 or CHF 2 ; R 5 is H, halogen, CH 3 , CF 3 , or CHF 2 ; R 6 is NH 2 or C 1-6 alkyl; Z is CH or N; and A is CH, N or C-NH 2 . X is O or CH 2 ; Y is O or CH 2 ; R 1 is H or -NHR 3 ; R 2 is R 3 is H, CH 3 , C 2 H 5 , CH 2 CH 2 CH 3 , CH(CH 3 ) 2 , CH 2 CHF 2 , CH 2 CF 3 , or CH 2 -C 3-8 cycloalkyl; R 4 is H, C 1-6 alkyl, CF 3 or CHF 2 ; R 5 is H, halogen, CH 3 , CF 3 , or CHF 2 ; R 6 is NH 2 or C 1-6 alkyl; Z is CH or N; and A is CH, N or C-NH 2 .
An X ray image processing method, comprising: activating one of a plurality of computing modules stored in an X ray device , wherein the one of the plurality of computing modules corresponds to a measurement area ; measuring the measurement area corresponding to the one of the plurality of computing modules by an image measurement module and producing a measurement signal; transmitting the measurement signal to a computing unit by the image measurement module ; computing a measurement image by the computing unit according to the measurement signal and storing the measurement image in a first storage unit of the X ray device ; writing the one of the plurality of computing modules to the computing unit ; transmitting the measurement image to the computing unit by the first storage unit ; and analyzing the measurement image by the computing unit using the one of the plurality of computing modules and generating an analysis image . activating one of a plurality of computing modules stored in an X ray device , wherein the one of the plurality of computing modules corresponds to a measurement area ; measuring the measurement area corresponding to the one of the plurality of computing modules by an image measurement module and producing a measurement signal; transmitting the measurement signal to a computing unit by the image measurement module ; computing a measurement image by the computing unit according to the measurement signal and storing the measurement image in a first storage unit of the X ray device ; writing the one of the plurality of computing modules to the computing unit ; transmitting the measurement image to the computing unit by the first storage unit ; and analyzing the measurement image by the computing unit using the one of the plurality of computing modules and generating an analysis image .
A ventilation system comprising: a plurality of ventilation devices in a target space ; a carbon dioxide sensor included in each of the ventilation devices ; and a control device configured to control, for all the ventilation devices operating, the number of the ventilation devices operating such that detected values of the carbon dioxide sensors are lower than a reference value, wherein the control device is adapted to control the number of ventilation devices operating in accordance with a plurality of threshold values of the carbon dioxide concentration , the plurality of threshold values including the reference value and first and second threshold values, the control device is configured not to change the number of ventilation devices operating when a maximum value of the carbon dioxide concentration among the detected values is lower than the reference value and higher than the first threshold value, the control device is configured to increase the number of ventilation devices operating when the maximum value of the carbon dioxide concentration among the detected values exceeds the reference value, and the control device is configured to decrease by half the number of ventilation devices operating when the maximum value of the carbon dioxide concentration among the detected values is higher than the second threshold value and lower than the first threshold value.
A machine for internally coating containers (C), comprising a system for automatically molding a coating made of plastic film (F) configured to coat a container (C) internally, and a system for automatically coupling said plastic film coating to said containers (C), wherein said automatic molding system and said automatic coupling system are arranged in line, characterised in that said automatic molding system and said automatic coupling system are coupled by means of a plurality of members for molding said internal plastic film coating, said molding members being movable along a path comprising a lower horizontal section , an upper horizontal section and two curvilinear sections at the ends of the horizontal sections, said path being arranged on a vertical plane.
A shaving unit comprising: - a rotary cutter comprising a plurality of cutter blades that are provided with a cutting edge , the rotary cutter being arranged to rotate about a rotation axis in a direction of movement ; and - a guard cap comprising an annular shaving track surrounding the rotation axis for cooperation with the cutter blades , the shaving track being provided with hair-entry slots that, seen in the direction of movement , have a frontal edge and a rear edge ; wherein the frontal edges of the hair-entry slots are, in a cutting portion along a long side extension of the hair-entry slots , inclined with respect to a radial direction relative to the rotation axis , wherein a slot angle (α) is defined as an angle of inclination of the frontal edges of the hair-entry slots with respect to the radial direction ; wherein a shearing angle (δ), defined as a difference between the slot angle (α) and an angle of inclination (β) of the cutting edges of the cutter blades with respect to the radial direction , is in a range from +20° to -20°; and wherein the shearing angle (δ) is defined at an actual point where the frontal edges and the cutting edges cooperate characterized in that the slot angle (α) is in a range from 35° to 60°. - a rotary cutter comprising a plurality of cutter blades that are provided with a cutting edge , the rotary cutter being arranged to rotate about a rotation axis in a direction of movement ; and - a guard cap comprising an annular shaving track surrounding the rotation axis for cooperation with the cutter blades , the shaving track being provided with hair-entry slots that, seen in the direction of movement , have a frontal edge and a rear edge ; wherein the frontal edges of the hair-entry slots are, in a cutting portion along a long side extension of the hair-entry slots , inclined with respect to a radial direction relative to the rotation axis , wherein a slot angle (α) is defined as an angle of inclination of the frontal edges of the hair-entry slots with respect to the radial direction ; wherein a shearing angle (δ), defined as a difference between the slot angle (α) and an angle of inclination (β) of the cutting edges of the cutter blades with respect to the radial direction , is in a range from +20° to -20°; and wherein the shearing angle (δ) is defined at an actual point where the frontal edges and the cutting edges cooperate
An analysis system for analyzing samples from a sample source , the system comprising: a spectrometry system for detecting one or more components of the samples; a gas chromatography system for separating the samples into the components; a concentrator for concentrating the samples; wherein the system is configurable for directing the samples: a) from the sample source to said spectrometry system ; characterized in that the system is further configurable for directing the samples: b) from the sample source to the concentrator and directing concentrated samples to the gas chromatography system for separating the sample into the components and directing the separated components to the spectrometry system . a spectrometry system for detecting one or more components of the samples; a gas chromatography system for separating the samples into the components; a concentrator for concentrating the samples; wherein the system is configurable for directing the samples: a) from the sample source to said spectrometry system ; a) from the sample source to said spectrometry system ; characterized in that the system is further configurable for directing the samples: b) from the sample source to the concentrator and directing concentrated samples to the gas chromatography system for separating the sample into the components and directing the separated components to the spectrometry system .
An ejection device for a movable furniture part , comprising a drive element pre-tensioned by at least one spring , by means of which the movable furniture part is movable from a closed position into an open position, wherein the at least one spring is movable into a tensioned position during a closing or opening movement of the furniture part along a path and the furniture part can be locked in the closed position with the at least one spring tensioned, wherein a return stop is provided, which delimits an opening or closing movement of the movable furniture part if the tensioning of the spring is not yet completed during a closing or opening movement of the furniture part , characterized in that an opening damping is provided by means of a rotation damper or a linear damper, said opening damping generating damping forces for decelerating the movable furniture part during the ejection of the movable furniture part .
Electric shielding contact for an electrical contact device or an electrical cable for the automotive industry, wherein the shielding contact is formed mainly in a hollow cylindrical manner and comprises at least a front contact section for electrically contacting an electric counter-contact and a rear crimping section for crimping the shielding contact on/at the electrical cable , wherein in at least a rear portion of the crimping section , the crimping section gapes from a material of the shielding contact , characterised in that the crimping section is constructed in such a way that during a crimping process a gaping opening in the shielding contact can be closed to become a slit , wherein the gaping opening has the form of a serrated, toothed or jagged spherical triangle, wherein two opposing edges constitute the gaping opening and are configured to constitute the slit . the shielding contact is formed mainly in a hollow cylindrical manner and comprises at least a front contact section for electrically contacting an electric counter-contact and a rear crimping section for crimping the shielding contact on/at the electrical cable , wherein in at least a rear portion of the crimping section , the crimping section gapes from a material of the shielding contact , characterised in that the crimping section is constructed in such a way that during a crimping process a gaping opening in the shielding contact can be closed to become a slit , wherein the gaping opening has the form of a serrated, toothed or jagged spherical triangle, wherein two opposing edges constitute the gaping opening and are configured to constitute the slit .
A surgical system, comprising: an implant having an open proximal end and having an external thread; and a driver including a distal portion configured to extend through the open proximal end of the implant to mate the implant to the driver , the driver being configured to rotate to drive the implant when mated thereto through tissue to move the implant from being located entirely within a first cavity on one side of a tissue to being located entirely within a second cavity on an opposite side of the tissue , and the driver being configured to be withdrawn from the implant to leave the implant entirely within the second cavity; wherein the implant has a suture mating feature characterized in that the suture mating feature is in the form of a soft coupling in an intermediate portion thereof that is configured to mate to a suture , the soft coupling being collapsible to a smaller diameter than rigid portions of the implant on distal and proximal sides of the soft coupling by a suture loop of the suture when cinched around the soft coupling such that the rotation of the driver causes the implant to rotate relative to the suture when the suture is mated to the suture mating feature. an implant having an open proximal end and having an external thread; and a driver including a distal portion configured to extend through the open proximal end of the implant to mate the implant to the driver , the driver being configured to rotate to drive the implant when mated thereto through tissue to move the implant from being located entirely within a first cavity on one side of a tissue to being located entirely within a second cavity on an opposite side of the tissue , and the driver being configured to be withdrawn from the implant to leave the implant entirely within the second cavity; wherein the implant has a suture mating feature characterized in that the suture mating feature is in the form of a soft coupling in an intermediate portion thereof that is configured to mate to a suture , the soft coupling being collapsible to a smaller diameter than rigid portions of the implant on distal and proximal sides of the soft coupling by a suture loop of the suture when cinched around the soft coupling such that the rotation of the driver causes the implant to rotate relative to the suture when the suture is mated to the suture mating feature.
A method for manufacturing a probe for a thermal flowmeter to measure the mass flow of a medium in a measuring tube , wherein a probe sleeve is provided with a longitudinal axis (11.2) and a probe core loosely arranged in the probe sleeve, wherein in at least one first process step, the probe sleeve is fully radially formed relative to the longitudinal axis in the direction of the probe core by means of high energy rate forming, producing a rod, wherein the rod represents a base body , or wherein a base body is separated from the rod, wherein the base body is used for special manufacture, wherein a radial forming speed reaches values of greater than 100 m/s and in particular greater than 200 m/s, wherein the high energy rate forming is effected by means of explosive forming by placing an explosive on an outer side of the probe sleeve or by means of magnetic forming, wherein a material bond is produced between the probe sleeve and the probe core. wherein a probe sleeve is provided with a longitudinal axis (11.2) and a probe core loosely arranged in the probe sleeve, wherein in at least one first process step, the probe sleeve is fully radially formed relative to the longitudinal axis in the direction of the probe core by means of high energy rate forming, producing a rod, wherein the rod represents a base body , or wherein a base body is separated from the rod, wherein the base body is used for special manufacture, wherein a radial forming speed reaches values of greater than 100 m/s and in particular greater than 200 m/s, wherein the high energy rate forming is effected by means of explosive forming by placing an explosive on an outer side of the probe sleeve or by means of magnetic forming, wherein a material bond is produced between the probe sleeve and the probe core.
A mobile terminal comprising: a body; a display coupled to the body to vary a display region viewed from a front of the body according to switching between an enlarged display mode and a reduced display mode; an input unit configured to sense user input; and a controller , wherein the controller is configured to: output a navigation bar on the display in the enlarged display mode, the navigation bar including at least one indicator, control a first application among at least one application which is being output in the enlarged display mode according to an input signal of selecting the indicator, control change of a layout of the at least one application which is being output in the enlarged display mode according to an input signal of selecting a first indicator , and control output of a focusing indicator by applying the changed layout to the focusing indicator based on change of the layout of the at least one application. a body; a display coupled to the body to vary a display region viewed from a front of the body according to switching between an enlarged display mode and a reduced display mode; an input unit configured to sense user input; and a controller , wherein the controller is configured to: output a navigation bar on the display in the enlarged display mode, the navigation bar including at least one indicator, control a first application among at least one application which is being output in the enlarged display mode according to an input signal of selecting the indicator, control change of a layout of the at least one application which is being output in the enlarged display mode according to an input signal of selecting a first indicator , and control output of a focusing indicator by applying the changed layout to the focusing indicator based on change of the layout of the at least one application. output a navigation bar on the display in the enlarged display mode, the navigation bar including at least one indicator, control a first application among at least one application which is being output in the enlarged display mode according to an input signal of selecting the indicator, control change of a layout of the at least one application which is being output in the enlarged display mode according to an input signal of selecting a first indicator , and control output of a focusing indicator by applying the changed layout to the focusing indicator based on change of the layout of the at least one application.
A reflection structure, comprising a reflection layer , an enhancement layer and a light shielding layer stacked together, wherein the reflection layer comprises a substrate layer and a coating layer on at least one surface of the substrate layer , the coating layer comprises a plurality of coating particles and an adhesive , a material of the substrate layer is at least one of polyethylene terephthalate, polyethylene naphthalate, polycarbonate, polymethyl methyl acrylate, polyethylene, polypropylene, and polystyrene, the adhesive is an acrylate adhesive, and the plurality of coating particles are disposed on the at least one surface of the substrate layer by the adhesive in order to form the coating layer , resulting in the coating layer has a concave and convex surface, characterized in that , a material of the plurality of coating particles is at least one of polyethylene terephthalate, poly-n-butyl methacrylate, poly butylene glycol terephthalate and polyethylene naphthalate; wherein the light shielding layer is at least one of a hot gold foil, a laser film, an ink layer, a composite layer of an oxide and a polymer, and a light shielding plastic film; wherein a material of the enhancement layer is at least one of a flexible glass and/or polypropylene terephthalate, and wherein a density of the reflection structure is in a range of 0.5 g/cm 3 to 2.7 g/cm 3 . a material of the plurality of coating particles is at least one of polyethylene terephthalate, poly-n-butyl methacrylate, poly butylene glycol terephthalate and polyethylene naphthalate; wherein the light shielding layer is at least one of a hot gold foil, a laser film, an ink layer, a composite layer of an oxide and a polymer, and a light shielding plastic film; wherein a material of the enhancement layer is at least one of a flexible glass and/or polypropylene terephthalate, and wherein a density of the reflection structure is in a range of 0.5 g/cm 3 to 2.7 g/cm 3 .
A method to assess a security risk of online based transactions, wherein the method comprises the following steps executed by a telecommunication system: • Receiving an online transaction request , in particular receiving an online transaction request by a user with means of a user device ; • Retrieving by a telecommunication provider at least one attribute associated to the transaction request; • Handing over the at least one attributes of the transaction request to a trained machine learning algorithm , o wherein the machine learning algorithm was trained with multiple data sets of at least one attribute and an associated risks score; o wherein the trained machine learning algorithm is configured to calculate a risk score , in particular a network related forensic risk score "NRFRS", based on the provided attributes; • Returning the calculated risk score, in particular returning the calculated risk score to the user and/or to a company that is associated with the online transaction request , characterized in that the attributes is data that is exclusively available to the telecommunication provider. • Receiving an online transaction request , in particular receiving an online transaction request by a user with means of a user device ; • Retrieving by a telecommunication provider at least one attribute associated to the transaction request; • Handing over the at least one attributes of the transaction request to a trained machine learning algorithm , o wherein the machine learning algorithm was trained with multiple data sets of at least one attribute and an associated risks score; o wherein the trained machine learning algorithm is configured to calculate a risk score , in particular a network related forensic risk score "NRFRS", based on the provided attributes; o wherein the machine learning algorithm was trained with multiple data sets of at least one attribute and an associated risks score; o wherein the trained machine learning algorithm is configured to calculate a risk score , in particular a network related forensic risk score "NRFRS", based on the provided attributes; • Returning the calculated risk score, in particular returning the calculated risk score to the user and/or to a company that is associated with the online transaction request ,