mhurhangee/patent-ind-claim-en huggingface dataset:
A device for treating or preventing dementia in a patient, the device comprising: a housing having an electrically permeable contact surface 1 for contacting an outer skin surface of the patient; an energy source positioned within the housing and configured to generate an electric field sufficient to transmit an electric current through the outer skin surface of the neck of the patient to a vagus nerve within the neck of the patient; wherein the electric current is sufficient to stimulate said vagus nerve within the neck of the patient; wherein the electric current comprises electrical impulses having a frequency of between 1000 Hz and 10,000 Hz and a duty cycle between 1 % and 10%, and wherein the electrical impulses include bursts of pulses having a burst duration of between 0.1 and 10 milliseconds and a burst frequency of between 10 and 50 Hz, and wherein the electric current is sufficient to treat or prevent dementia in the patient. a housing having an electrically permeable contact surface 1 for contacting an outer skin surface of the patient; an energy source positioned within the housing and configured to generate an electric field sufficient to transmit an electric current through the outer skin surface of the neck of the patient to a vagus nerve within the neck of the patient; wherein the electric current is sufficient to stimulate said vagus nerve within the neck of the patient; wherein the electric current comprises electrical impulses having a frequency of between 1000 Hz and 10,000 Hz and a duty cycle between 1 % and 10%, and wherein the electrical impulses include bursts of pulses having a burst duration of between 0.1 and 10 milliseconds and a burst frequency of between 10 and 50 Hz, and wherein the electric current is sufficient to treat or prevent dementia in the patient.
A method of making a solid target assembly apparatus , the method comprising: providing a target backing substrate , wherein the target backing substrate has a front surface having a recess having a recess floor , and wherein the target backing substrate is made of a material selected from the group consisting of Al, Ag, and Cu; providing a quantity of Zn , wherein the quantity of Zn comprises at least 90% Zn-68; characterised by depositing the quantity of Zn into the recess ; and bonding the quantity of Zn to the target backing substrate by heating the quantity of Zn to at least 419.5 °C until the quantity of Zn is melted, applying selective pressure to the target assembly apparatus during or immediately after the heating, and ceasing heating the quantity of Zn to ambient to allow the quantity of Zn to solidify. providing a target backing substrate , wherein the target backing substrate has a front surface having a recess having a recess floor , and wherein the target backing substrate is made of a material selected from the group consisting of Al, Ag, and Cu; wherein the target backing substrate has a front surface having a recess having a recess floor , and wherein the target backing substrate is made of a material selected from the group consisting of Al, Ag, and Cu; providing a quantity of Zn , wherein the quantity of Zn comprises at least 90% Zn-68; characterised by depositing the quantity of Zn into the recess ; and bonding the quantity of Zn to the target backing substrate by heating the quantity of Zn to at least 419.5 °C until the quantity of Zn is melted, applying selective pressure to the target assembly apparatus during or immediately after the heating, and ceasing heating the quantity of Zn to ambient to allow the quantity of Zn to solidify.
A heat-resistant resin composition comprising: at least one resin selected from the group consisting of a polyimide, a polybenzoxazole, a polyimide precursor, and a polybenzoxazole precursor as a resin (A); an organic solvent having a boiling point of 210°C or higher and 260°C or lower at atmospheric pressure as an organic solvent (B); and an organic solvent having a boiling point of 100°C or higher and lower than 210°C at atmospheric pressure as an organic solvent (C), wherein a content of the organic solvent (B) is 5% by mass or more and 70% by mass or less with respect to the whole amount of the organic solvents; and a content of the organic solvent (C) is 30% by mass or more and 95% by mass or less with respect to the whole amount of the organic solvents, and wherein the organic solvent (C) contains an organic solvent having a boiling point of 140°C or higher and lower than 210°C at atmospheric pressure as an organic solvent (C-1), and an organic solvent having a boiling point of 100°C or higher and lower than 140°C at atmospheric pressure as an organic solvent (C-2); and a ratio of a content of the organic solvent (C-1) to a content of the organic solvent (C-2) is 1 : 9 to 9 : 1 by mass ratio. at least one resin selected from the group consisting of a polyimide, a polybenzoxazole, a polyimide precursor, and a polybenzoxazole precursor as a resin (A); an organic solvent having a boiling point of 210°C or higher and 260°C or lower at atmospheric pressure as an organic solvent (B); and an organic solvent having a boiling point of 100°C or higher and lower than 210°C at atmospheric pressure as an organic solvent (C), wherein a content of the organic solvent (B) is 5% by mass or more and 70% by mass or less with respect to the whole amount of the organic solvents; and a content of the organic solvent (C) is 30% by mass or more and 95% by mass or less with respect to the whole amount of the organic solvents, and wherein the organic solvent (C) contains an organic solvent having a boiling point of 140°C or higher and lower than 210°C at atmospheric pressure as an organic solvent (C-1), and an organic solvent having a boiling point of 100°C or higher and lower than 140°C at atmospheric pressure as an organic solvent (C-2); and a ratio of a content of the organic solvent (C-1) to a content of the organic solvent (C-2) is 1 : 9 to 9 : 1 by mass ratio.
Instrument transformer arrangement for monitoring one or more phase conductors , having a voltage sensor and a current sensor, wherein the voltage sensor has a measuring electrode for detecting a voltage, wherein the measuring electrode is in the form of a ring and has a receptacle , in which a probe of the current sensor is positioned, wherein the receptacle is formed as a cutout in the measuring electrode and is arranged on the outer lateral surface side on the measuring electrode , characterized in that the measuring electrode and the probe are embedded in an insulating body , which is a post insulator of the phase conductor(s) .
Propeller blade , having a pressure side , a suction side opposite the pressure side , a blade root adapted to be connected to a propeller , a blade tip at the opposite end with respect to the blade root , wherein a slot is formed within the propeller blade connecting the pressure side with the suction side , which slot has an inlet opening formed on the pressure side and an outlet opening formed on the suction side ; wherein the slot is divided into at least two slot-sections (9 1 ...9 n ) along its length ( Ls ) by at least one partition wall (11 1 ...11 n-1 ); wherein the propeller blade along its length ( Lb ) has a leading edge and a trailing edge opposite thereto; a first distance ( d1 ) between a slot brink ( DL min ) of the slot located closest to the blade tip and the blade tip which distance ( d1 ) is closest to the leading edge is 9%-18,5% of the width of the blade tip (Wb), while a second distance (d2) between the slot brink ( DL min ) of the slot located closest to the blade tip and the blade tip which distance (d2) is closest to the trailing edge is 14%-23,5% of the width of the blade tip (Wb); characterized in that the slot contains a pressure equalizing element ; wherein the pressure equalizing element is a channel connecting the neighboring slot-sections (9 1 ...9 n ), the channel being formed in the at least one partition wall (11 1 ...11 n-1 ).
A producing method for a cylinder block , the cylinder block having at least one cylinder bore , the cylinder block including a bore inner surface , the producing method characterized by comprising: a spraying step of spraying a metallic material onto the bore inner surface of the cylinder block ; a pressurizing step of applying pressure, using a pressurizing apparatus comprising a cylindrical roller , to compress a spray deposit provided on the bore inner surface in the spraying step; and a honing step of applying a honing processing to a surface of the spray deposit after the pressurizing step. a spraying step of spraying a metallic material onto the bore inner surface of the cylinder block ; a pressurizing step of applying pressure, using a pressurizing apparatus comprising a cylindrical roller , to compress a spray deposit provided on the bore inner surface in the spraying step; and a honing step of applying a honing processing to a surface of the spray deposit after the pressurizing step.
A mobile terminal comprising: a flexible display unit configured to be bent in response to force applied to the flexible display unit ; a sensing unit configured to sense a bending signal of at least one region of the flexible display unit ; and a controller configured to: control the flexible display unit to display a plurality of icons in response to a first bending of a region of the flexible display unit sensed by the sensing unit and based on information output on the flexible display unit , select one of the displayed plurality of icons in response to a second bending; control the flexible display unit to display the selected icon distinctively from the other icons of the plurality of icons ; and execute a function corresponding to the selected icon of the plurality of icons , wherein each displayed icon corresponds to a different respective function associated with the information output on the flexible display unit; characterised in that the icon selection is based on a length (a, b) of a region of the flexible display unit bent by the second bending. a flexible display unit configured to be bent in response to force applied to the flexible display unit ; a sensing unit configured to sense a bending signal of at least one region of the flexible display unit ; and a controller configured to: control the flexible display unit to display a plurality of icons in response to a first bending of a region of the flexible display unit sensed by the sensing unit and based on information output on the flexible display unit , select one of the displayed plurality of icons in response to a second bending; control the flexible display unit to display the selected icon distinctively from the other icons of the plurality of icons ; and execute a function corresponding to the selected icon of the plurality of icons , wherein each displayed icon corresponds to a different respective function associated with the information output on the flexible display unit; characterised in that the icon selection is based on a length (a, b) of a region of the flexible display unit bent by the second bending. control the flexible display unit to display a plurality of icons in response to a first bending of a region of the flexible display unit sensed by the sensing unit and based on information output on the flexible display unit , select one of the displayed plurality of icons in response to a second bending; control the flexible display unit to display the selected icon distinctively from the other icons of the plurality of icons ; and execute a function corresponding to the selected icon of the plurality of icons , wherein each displayed icon corresponds to a different respective function associated with the information output on the flexible display unit; characterised in that the icon selection is based on a length (a, b) of a region of the flexible display unit bent by the second bending.
Method for operating a pressure control system , in particular for vehicles , having a multistage compressor , wherein a pressure medium (L3, L6) compressed multiple times is output (St1.4, St2.5) by the multistage compressor in order to fill a pressure medium reservoir or pressure medium chambers (3.i; i=1,...4) of the pressure control system , wherein to do so, by a first compression stage of the multi-stage compressor , - a precompressed pressure medium (L2) is provided (St2.3) which is compressed (St2.4) at least in a further, second compression stage to form a compressed pressure medium (L3) and is output (St2.5) by the multi-stage compressor , or - a compression pressure medium (L6) is provided (St1.1), which is obtained from an additional compression of an already compressed charge pressure medium (A) from the pressure medium reservoir or the pressure medium chambers (3.i; i=1,...4) of the pressure control system , wherein the compression pressure medium (L6) is output without additional compression by the second compression stage of the multistage compressor in order to adapt the compression power of the second compression stage when at least the first compression stage additionally compresses the charge pressure medium (A). - a precompressed pressure medium (L2) is provided (St2.3) which is compressed (St2.4) at least in a further, second compression stage to form a compressed pressure medium (L3) and is output (St2.5) by the multi-stage compressor , or - a compression pressure medium (L6) is provided (St1.1), which is obtained from an additional compression of an already compressed charge pressure medium (A) from the pressure medium reservoir or the pressure medium chambers (3.i; i=1,...4) of the pressure control system , wherein the compression pressure medium (L6) is output without additional compression by the second compression stage of the multistage compressor in order to adapt the compression power of the second compression stage when at least the first compression stage additionally compresses the charge pressure medium (A).
An isolation resistance monitoring system , comprising: an electrical circuit, comprising: one or more resistors ; and a voltage meter which measures voltage, such that the voltage measurement assists with monitoring isolation resistance, simultaneously, between a battery system of an electric vehicle and an electrical chassis of the electric vehicle , and between a direct current, DC, charging source external to the electric vehicle and the electrical chassis , wherein the DC charging source comprises a high voltage Electric Vehicle Supply Equipment, EVSE, system which is an external charging station for the electric vehicle , the isolation resistance monitoring system further comprising: a first plurality of switches which electrically integrate the isolation resistance monitoring system with the battery system of the electric vehicle ; and a second plurality of switches which electrically integrate the isolation resistance monitoring system with the high voltage EVSE system . an electrical circuit, comprising: one or more resistors ; and a voltage meter which measures voltage, such that the voltage measurement assists with monitoring isolation resistance, simultaneously, between a battery system of an electric vehicle and an electrical chassis of the electric vehicle , and between a direct current, DC, charging source external to the electric vehicle and the electrical chassis , wherein the DC charging source comprises a high voltage Electric Vehicle Supply Equipment, EVSE, system which is an external charging station for the electric vehicle , one or more resistors ; and a voltage meter which measures voltage, such that the voltage measurement assists with monitoring isolation resistance, simultaneously, between a battery system of an electric vehicle and an electrical chassis of the electric vehicle , and between a direct current, DC, charging source external to the electric vehicle and the electrical chassis , wherein the DC charging source comprises a high voltage Electric Vehicle Supply Equipment, EVSE, system which is an external charging station for the electric vehicle , the isolation resistance monitoring system further comprising: a first plurality of switches which electrically integrate the isolation resistance monitoring system with the battery system of the electric vehicle ; and a second plurality of switches which electrically integrate the isolation resistance monitoring system with the high voltage EVSE system . a first plurality of switches which electrically integrate the isolation resistance monitoring system with the battery system of the electric vehicle ; and a second plurality of switches which electrically integrate the isolation resistance monitoring system with the high voltage EVSE system .
An aerial vehicle (100; 120; 140; 160; 180; 200) comprising: a control unit configured to send control signals in order to control flight of the aerial vehicle (100; 120; 140; 160; 180; 200); a plurality of propulsion units configured to control attitude of the aerial vehicle (100; 120; 140; 160; 180); a plurality of propulsion controllers configured to send commands to a corresponding propulsion unit of the plurality of propulsion units based on the control signals such that there is one propulsion controller of the plurality of propulsion controllers for each propulsion unit of the plurality of propulsion units ; and a plurality of inertial measurement units , IMU, each IMU of the plurality of IMUs being configured to provide attitude information to a corresponding one of the plurality of propulsion controllers such that there is one IMU of the plurality of IMUs for each of the plurality of propulsion controllers , wherein when there is a failure at the control unit, each of the plurality of propulsion controllers are configured to automatically generate the commands and control the plurality of propulsion units in order to attempt to stabilize the aerial vehicle (100; 120; 140; 160; 180; 200). a control unit configured to send control signals in order to control flight of the aerial vehicle (100; 120; 140; 160; 180; 200); a plurality of propulsion units configured to control attitude of the aerial vehicle (100; 120; 140; 160; 180); a plurality of propulsion controllers configured to send commands to a corresponding propulsion unit of the plurality of propulsion units based on the control signals such that there is one propulsion controller of the plurality of propulsion controllers for each propulsion unit of the plurality of propulsion units ; and a plurality of inertial measurement units , IMU, each IMU of the plurality of IMUs being configured to provide attitude information to a corresponding one of the plurality of propulsion controllers such that there is one IMU of the plurality of IMUs for each of the plurality of propulsion controllers , wherein when there is a failure at the control unit, each of the plurality of propulsion controllers are configured to automatically generate the commands and control the plurality of propulsion units in order to attempt to stabilize the aerial vehicle (100; 120; 140; 160; 180; 200).
Method for operating a vehicle , wherein at least one comfort function (KF) is offered to at least one vehicle user for activation, wherein the at least one comfort function (KF) is offered to the at least one vehicle user after a start (SLV) of an electric charging process of at least one energy storage unit of the vehicle for activation, characterised in that the at least one comfort function is offered to the vehicle user as a function of a presumably required charging time (ELZ).
A signal driver for a display , said signal driver comprising: a digital control circuit providing digital signals applied to a number, N A , of positive level shift circuits and to a number, N B , of negative level shift circuits , wherein the level shift circuits are provided for shifting the digital input signals received from the digital control circuit to digital output signals applied to digital-analogue-converters supplying converted analogue output voltages via analogue output buffers and switches controlled by said digital control circuit to a digital panel element (DPE) of said display driven by a driving signal voltage (DS) ranging between a negative voltage limit and a positive voltage limit, wherein the negative voltage level shift circuit is adapted to shift a narrow amplitude voltage range of the digital input signal received from the digital control circuit to a wide amplitude voltage range applied to the following digital analogue converter , said negative voltage level shift circuit comprising counter acting bistable current branches having cascode transistors (T11, T12) being adapted to separate an output voltage swing of said negative voltage level shift circuit from an input voltage swing of said negative voltage level shift circuit , wherein said negative voltage level shift circuit draws a current only during a transition period in response to a data change of the digital input signal. a digital control circuit providing digital signals applied to a number, N A , of positive level shift circuits and to a number, N B , of negative level shift circuits , wherein the level shift circuits are provided for shifting the digital input signals received from the digital control circuit to digital output signals applied to digital-analogue-converters supplying converted analogue output voltages via analogue output buffers and switches controlled by said digital control circuit to a digital panel element (DPE) of said display driven by a driving signal voltage (DS) ranging between a negative voltage limit and a positive voltage limit, wherein the negative voltage level shift circuit is adapted to shift a narrow amplitude voltage range of the digital input signal received from the digital control circuit to a wide amplitude voltage range applied to the following digital analogue converter , said negative voltage level shift circuit comprising counter acting bistable current branches having cascode transistors (T11, T12) being adapted to separate an output voltage swing of said negative voltage level shift circuit from an input voltage swing of said negative voltage level shift circuit , wherein said negative voltage level shift circuit draws a current only during a transition period in response to a data change of the digital input signal.