mhurhangee/patent-ind-claim-en huggingface dataset:
A device for the properly closing placement of closure plugs of swing stoppers of swing stopper bottles on their bottle mouths (2.3), having at least a transport device for transporting the swing stopper bottles in at least a conveying direction (FR) and at least a positioning device for aligning the swing stoppers and positioning the closure plugs , characterized in that the positioning device has at least one magnetizing device for generating a magnetic force acting on the swing stoppers to align the swing stoppers in a placement position (AP) as well as a guiding device arranged in the conveying direction (FR) along the transport device for positioning the closure plugs in the area of the bottle mouths (2.3), wherein the magnetizing device comprises at least a first and a second magnet station (7.1, 7.2), wherein the magnet stations (7.1, 7.2) are arranged in the area of the guiding device and connected with the latter, and wherein the aligning of the swing stoppers in the placement position (AP) by means of the at least two magnet stations (7.1, 7.2) takes place in at least two steps as deflecting, lifting respectively stretching, and erecting the swing stoppers .
A method of controlling an electronic parking brake of a vehicle having a dual clutch transmission, the method comprising: identifying a slope of an area in which the vehicle is located in order to determine whether the identified slope exceeds a predetermined slope value; determining whether both of two clutches are opened in a safe mode when the identified slope exceeds the predetermined slope value; determining whether the vehicle moves upward in a front direction when both of the two clutches are opened; and operating the electronic parking brake when the vehicle moves upward in the front direction for preventing the vehicle from slipping rearward. identifying a slope of an area in which the vehicle is located in order to determine whether the identified slope exceeds a predetermined slope value; determining whether both of two clutches are opened in a safe mode when the identified slope exceeds the predetermined slope value; determining whether the vehicle moves upward in a front direction when both of the two clutches are opened; and operating the electronic parking brake when the vehicle moves upward in the front direction for preventing the vehicle from slipping rearward.
A device for manufacturing of a two-dimensional material, said device comprising two opposing surfaces adapted to moving relative to each other, wherein the two surfaces are arranged so that there is a space between the two surfaces, wherein at least one of the two surfaces comprise grooves and bars of a first type, on the surface(s) facing the space, wherein at least a part of the surface of the bars of the first type facing the space is provided with an abrasive surface, wherein 25-75 % of the area of the abrasive surface consists of protrusions wherein the protrusions have a height in the interval 10-30 um, where the height of the protrusions is measured as the height along a surface normal, wherein the abrasive surface has at least 600 protrusions per cm 2 , wherein at least half of the grooves comprise at least one bar of a second type, where each bar of the second type extends across the groove. wherein the two surfaces are arranged so that there is a space between the two surfaces, wherein at least one of the two surfaces comprise grooves and bars of a first type, on the surface(s) facing the space, wherein at least a part of the surface of the bars of the first type facing the space is provided with an abrasive surface, wherein 25-75 % of the area of the abrasive surface consists of protrusions wherein the protrusions have a height in the interval 10-30 um, where the height of the protrusions is measured as the height along a surface normal, wherein the abrasive surface has at least 600 protrusions per cm 2 , wherein at least half of the grooves comprise at least one bar of a second type, where each bar of the second type extends across the groove.
A location transmitting device comprising: a sensor configured to detect a cellular data transmission associated with an electronic device , the sensor further configured to transmit a signal in response to detecting the cellular data transmission; a low-power transmitter communicatively coupled to the sensor and having an idle first power state and a second power state; and a processor configured to execute instructions in response to receiving the signal, wherein the instructions cause the processor to: switch the low-power transmitter from the idle first power state to the second power state; transmit, via the low-power transmitter , a non-cellular data transmission from which a location position of the electronic device can be derived; and return the low-power transmitter to the idle first power state after transmitting the data in the second power state. a sensor configured to detect a cellular data transmission associated with an electronic device , the sensor further configured to transmit a signal in response to detecting the cellular data transmission; a low-power transmitter communicatively coupled to the sensor and having an idle first power state and a second power state; and a processor configured to execute instructions in response to receiving the signal, wherein the instructions cause the processor to: switch the low-power transmitter from the idle first power state to the second power state; transmit, via the low-power transmitter , a non-cellular data transmission from which a location position of the electronic device can be derived; and return the low-power transmitter to the idle first power state after transmitting the data in the second power state. switch the low-power transmitter from the idle first power state to the second power state; transmit, via the low-power transmitter , a non-cellular data transmission from which a location position of the electronic device can be derived; and return the low-power transmitter to the idle first power state after transmitting the data in the second power state.
An imaging element comprising a photoelectric conversion unit formed by laminating a first electrode , a photoelectric conversion layer , and a second electrode , wherein an inorganic oxide semiconductor material layer is formed between the first electrode and the photoelectric conversion layer , and characterised in that the inorganic oxide semiconductor material layer is represented by Ga a Sn b O c , and a + b + c = 1.00 and 0.20 < b / a + b < 0.40 are satisfied, or wherein the inorganic oxide semiconductor material layer is represented by Ga d In e O f , and d + e + f = 1.00 and 0.20 < e / d + e < 0.40 are satisfied. a photoelectric conversion unit formed by laminating a first electrode , a photoelectric conversion layer , and a second electrode , wherein an inorganic oxide semiconductor material layer is formed between the first electrode and the photoelectric conversion layer , and characterised in that the inorganic oxide semiconductor material layer is represented by Ga a Sn b O c , and a + b + c = 1.00 and 0.20 < b / a + b < 0.40 are satisfied, or wherein the inorganic oxide semiconductor material layer is represented by Ga d In e O f , and d + e + f = 1.00 and 0.20 < e / d + e < 0.40 are satisfied.
Use of the modulation of an audio and/or visual signal by a value of an impedance parameter of at least one electric junction comprising at least one contact with the skin of at least one user to maintain and/or develop the user's physical and/or mental abilities, utilizing a device for controlling the delivery of a medium, said device comprising: - a first skin electrode configured to generate electric waves, positioned against the skin of a first user; - a second skin electrode configured to capture electric waves, positioned against the skin of a second user, the first and the second user being two different users; - a detector for detecting the value of an impedance parameter of the junction connecting the electrodes and passing through the contact with the skin of each user; and - a control means configured to transmit a modulated medium-delivery command representing the audio and/or visual signal according to the value detected wherein the junction for which a value of an impedance parameter is detected comprises at least one contact between two different users. - a first skin electrode configured to generate electric waves, positioned against the skin of a first user; - a second skin electrode configured to capture electric waves, positioned against the skin of a second user, the first and the second user being two different users; - a detector for detecting the value of an impedance parameter of the junction connecting the electrodes and passing through the contact with the skin of each user; and - a control means configured to transmit a modulated medium-delivery command representing the audio and/or visual signal according to the value detected
A distance measuring device comprising: a light receiving unit for receiving a reflected light from an object of irradiation light emitted from a light emitting unit that emits light; a control unit for controlling a light emitting operation by supplying the light emitting unit with a light emission timing signal for controlling the light emitting operation for emitting the irradiation light and for controlling a light receiving operation by supplying the light receiving unit with a light reception timing signal for controlling the light receiving operation for receiving the reflected light; and a measuring unit for measuring, as a deviation time between a light emission timing at which the light emitting unit emits the irradiation light and a light reception timing at which the light receiving unit performs the light receiving operation, a temporal deviation by using the light emission timing signal and the light reception timing signal; wherein the measuring unit is configured to measure the temporal deviation by using the light emission timing signal fed back from the middle of a wiring through which the light emission timing signal is supplied from the control unit to the light emitting unit and the light reception timing signal fed back to the measuring unit , and a correcting unit configured to perform control to correct one or both of the light emission timing signal and the light reception timing signal according to the temporal deviation. a light receiving unit for receiving a reflected light from an object of irradiation light emitted from a light emitting unit that emits light; a control unit for controlling a light emitting operation by supplying the light emitting unit with a light emission timing signal for controlling the light emitting operation for emitting the irradiation light and for controlling a light receiving operation by supplying the light receiving unit with a light reception timing signal for controlling the light receiving operation for receiving the reflected light; and a measuring unit for measuring, as a deviation time between a light emission timing at which the light emitting unit emits the irradiation light and a light reception timing at which the light receiving unit performs the light receiving operation, a temporal deviation by using the light emission timing signal and the light reception timing signal; wherein the measuring unit is configured to measure the temporal deviation by using the light emission timing signal fed back from the middle of a wiring through which the light emission timing signal is supplied from the control unit to the light emitting unit and the light reception timing signal fed back to the measuring unit , and a correcting unit configured to perform control to correct one or both of the light emission timing signal and the light reception timing signal according to the temporal deviation.
Method for coating the visible surfaces of motor vehicle wheel rims made of aluminium or steel, in which - a polymer primer layer (A) is first applied to the mechanically processed metal surface of the wheel rim, which layer evens out the irregularities of the mechanical processing, - then a polymer intermediate layer (B) is applied to the surface of the polymer primer layer (A), - then a decorative layer (C) is applied to the surface of the polymer intermediate layer (B), which decorative layer consists of a thermally cured polymer layer with embedded platelet-shaped metal pigments, which cover the visible surface of the decorative layer (C), and finally the surface of the decorative layer (C) is covered by a polymer topcoat (D), characterised in that the polymer intermediate layer (B) is produced with a high-gloss surface with a gloss grade according to DIN67530/ISO2813 of more than 95, - that the decorative layer (C) is applied by wet spraying with a layer thickness of a maximum of 2 μm to the high-gloss surface of the polymer intermediate layer (B) and is dried there at ambient temperature - and that prior to the application of the polymer topcoat (D), the decorative layer (C) is fixed on the surface of the polymer intermediate layer (B) by a thermal post-treatment at a temperature of more than 140°C with a cross-cut tear strength according to DIN EN ISO 2409 of Gt = 0 to Gt = 2. - a polymer primer layer (A) is first applied to the mechanically processed metal surface of the wheel rim, which layer evens out the irregularities of the mechanical processing, - then a polymer intermediate layer (B) is applied to the surface of the polymer primer layer (A), - then a decorative layer (C) is applied to the surface of the polymer intermediate layer (B), which decorative layer consists of a thermally cured polymer layer with embedded platelet-shaped metal pigments, which cover the visible surface of the decorative layer (C), - that the decorative layer (C) is applied by wet spraying with a layer thickness of a maximum of 2 μm to the high-gloss surface of the polymer intermediate layer (B) and is dried there at ambient temperature - and that prior to the application of the polymer topcoat (D), the decorative layer (C) is fixed on the surface of the polymer intermediate layer (B) by a thermal post-treatment at a temperature of more than 140°C with a cross-cut tear strength according to DIN EN ISO 2409 of Gt = 0 to Gt = 2.
A power management system comprising: a first voltage regulator having an input coupled to a first voltage supply terminal and an output, the first voltage regulator configured to provide an operating voltage at the output; a capacitor coupled to the output of the first voltage regulator , a second voltage regulator having an input coupled to the output of the first voltage regulator, wherein the second voltage regulator is formed as a cap-less low-dropout, LDO, regulator, the second voltage regulator configured to provide at an output a retention voltage based on a control signal being in a first state and configured to be bypassed based on the control signal being in a second state; wherein the power management system is configured such that the second voltage regulator uses energy stored in the capacitor to provide the retention voltage when the control signal is in a first state, and wherein the power management system is configured such that the first voltage regulator provides the operating voltage at the output based on the control signal being in the second state and wherein the first voltage regulator is disabled based on the control signal being in the first state; and a control circuit coupled to the second voltage regulator, the control circuit configured to provide the control signal to the second voltage regulator. a first voltage regulator having an input coupled to a first voltage supply terminal and an output, the first voltage regulator configured to provide an operating voltage at the output; a capacitor coupled to the output of the first voltage regulator , a second voltage regulator having an input coupled to the output of the first voltage regulator, wherein the second voltage regulator is formed as a cap-less low-dropout, LDO, regulator, the second voltage regulator configured to provide at an output a retention voltage based on a control signal being in a first state and configured to be bypassed based on the control signal being in a second state; wherein the power management system is configured such that the second voltage regulator uses energy stored in the capacitor to provide the retention voltage when the control signal is in a first state, and wherein the power management system is configured such that the first voltage regulator provides the operating voltage at the output based on the control signal being in the second state and wherein the first voltage regulator is disabled based on the control signal being in the first state; and a control circuit coupled to the second voltage regulator, the control circuit configured to provide the control signal to the second voltage regulator.
A connection of mitre sections of two profiles , which abut against one another, for windows, doors or gates for building and garage locks, wherein the profiles have at least one interior chamber for the insertion of affixing elements of the connection which have a rectangular shape formed by two limbs , wherein the limbs each have a u-shaped clamping section , wherein the clamping section of a limb consists of an outer wall , which runs approximately parallel to a parallel wall , with a distance section connecting between them and the clamping section of the other limb consists of an outer wall which runs approximately parallel to a parallel wall with a distance section connecting between them, wherein there exists at least one outwardly directed spread on at least one of the clamping sections of the distance sections , characterised in that the parallel walls are shorter in their longitudinal extent than the associated side walls , wherein the outer walls are connected to one another relative to one another in a force-fitting and form-fitting manner in an overlapping region , preferably by a spot weld.
Method for producing a shaped body from a curable material in the form of a mineral binder composition, wherein the curable material is applied in layers in an additive free-space method, by means of a print head that is movable in at least one direction in space and wherein a height of an individual layer is 0.1-10 cm and wherein an application rate of the curable material and the development of strength over time of the curable material are matched to one another and a movement speed of the print head is set according to the development of strength over time of the curable material, characterized in that the application rate of the curable material is changed as the number of layers increases.
A method for HVAC control schedule learning, comprising: receiving, over a learning day, immediate-control inputs , each immediate-control input being received to change a current setpoint temperature used by a thermostat to control operation of an HVAC system , wherein the starting point for receiving immediate-control inputs is a constant energy-saving setpoint temperature; upon receipt of each of said immediate-control input: operating, by the thermostat , the HVAC system according to the temperature defined by that immediate-control input until an expiration of that immediate-control input after a first predetermined time interval; and upon the expiration of the immediate-control input, automatically setting back the setpoint temperature so that the thermostat operates the HVAC system at the constant energy-saving setpoint temperature until such time as a next immediate-control input is received; and after the learning day, generating a learned HVAC schedule based on the immediate-control inputs and on the automatically setting back the setpoint temperature over the learning day. receiving, over a learning day, immediate-control inputs , each immediate-control input being received to change a current setpoint temperature used by a thermostat to control operation of an HVAC system , wherein the starting point for receiving immediate-control inputs is a constant energy-saving setpoint temperature; upon receipt of each of said immediate-control input: operating, by the thermostat , the HVAC system according to the temperature defined by that immediate-control input until an expiration of that immediate-control input after a first predetermined time interval; and upon the expiration of the immediate-control input, automatically setting back the setpoint temperature so that the thermostat operates the HVAC system at the constant energy-saving setpoint temperature until such time as a next immediate-control input is received; and operating, by the thermostat , the HVAC system according to the temperature defined by that immediate-control input until an expiration of that immediate-control input after a first predetermined time interval; and upon the expiration of the immediate-control input, automatically setting back the setpoint temperature so that the thermostat operates the HVAC system at the constant energy-saving setpoint temperature until such time as a next immediate-control input is received; and after the learning day, generating a learned HVAC schedule based on the immediate-control inputs and on the automatically setting back the setpoint temperature over the learning day.
A method for preparing an ophthalmic lens to be edged on the basis of a presentation lens , the method comprising: - fixing a first support on one of the faces of the presentation lens , the first support having a shape that defines a first reference point (P150), - positioning the presentation lens by means of said first support in an optical machine (300 ; 400) that comprises an image sensor (310 ; 410) for acquiring images of the presentation lens , - acquiring, with said image sensor (310 ; 410), at least an image (Img1) of the presentation lens , - determining, on said acquired image (Img1), the shape of the outline (S100) of the presentation lens , the method being characterized in that it comprises: - positioning a pupillary point (P110) relative to the outline (S100) of the presentation lens , - centering said ophthalmic lens by positioning the outline (S100) of the presentation lens relative to the ophthalmic lens so that the pupillary point (P110) is superimposed on a centering point (P200) of the ophthalmic lens , and - fixing a second support on one of the faces of the ophthalmic lens , the second support having a shape defining a second reference point (P250), the second support being fixed on the ophthalmic lens so that its second reference point (P250) is at a predetermined position relative to the first reference point (P150). - fixing a first support on one of the faces of the presentation lens , the first support having a shape that defines a first reference point (P150), - positioning the presentation lens by means of said first support in an optical machine (300 ; 400) that comprises an image sensor (310 ; 410) for acquiring images of the presentation lens , - acquiring, with said image sensor (310 ; 410), at least an image (Img1) of the presentation lens , - determining, on said acquired image (Img1), the shape of the outline (S100) of the presentation lens , - positioning a pupillary point (P110) relative to the outline (S100) of the presentation lens , - centering said ophthalmic lens by positioning the outline (S100) of the presentation lens relative to the ophthalmic lens so that the pupillary point (P110) is superimposed on a centering point (P200) of the ophthalmic lens , and - fixing a second support on one of the faces of the ophthalmic lens , the second support having a shape defining a second reference point (P250), the second support being fixed on the ophthalmic lens so that its second reference point (P250) is at a predetermined position relative to the first reference point (P150).