mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile terminal having an internal antenna arrangement comprising a plurality of internal antennas and a printed circuit board disposed between a front cover and a rear cover , the mobile terminal comprising: the printed circuit board having at least a first internal antenna mounted on a rear surface of the printed circuit board, and the printed circuit board having at least one fastening opening therein; and a second internal antenna mounted in an upper portion of a side surface of the printed circuit board and comprising a protruded portion of a first end protruding from a body of the second internal antenna and in which the protruded portion is fastened to an edge of the fastening opening to fasten the body of the second internal antenna to the side surface of the printed circuit board, wherein the second internal antenna has a frequency band higher than a frequency of the first internal antenna, wherein the protruded portion of the second internal antenna further includes an intermediate end , and a second end of the body in which each of the intermediate end and second end protrude from the body of the second internal antenna, the first end arranged is fastened to edge of the fastening opening, and the intermediate end and the second end are in contact with a portion of a rear surface and a front surface of the printed circuit board, respectively, to fasten the body of the second internal antenna to the side surface of the printed circuit board, wherein the second internal antenna is over-bent further than a slope angle of the inclined printed circuit board for fixing the second internal antenna to the side surface of the printed circuit board. the printed circuit board having at least a first internal antenna mounted on a rear surface of the printed circuit board, and the printed circuit board having at least one fastening opening therein; and a second internal antenna mounted in an upper portion of a side surface of the printed circuit board and comprising a protruded portion of a first end protruding from a body of the second internal antenna and in which the protruded portion is fastened to an edge of the fastening opening to fasten the body of the second internal antenna to the side surface of the printed circuit board, wherein the second internal antenna has a frequency band higher than a frequency of the first internal antenna, wherein the protruded portion of the second internal antenna further includes an intermediate end , and a second end of the body in which each of the intermediate end and second end protrude from the body of the second internal antenna, the first end arranged is fastened to edge of the fastening opening, and the intermediate end and the second end are in contact with a portion of a rear surface and a front surface of the printed circuit board, respectively, to fasten the body of the second internal antenna to the side surface of the printed circuit board, wherein the second internal antenna is over-bent further than a slope angle of the inclined printed circuit board for fixing the second internal antenna to the side surface of the printed circuit board.
A first node used for wireless communication, comprising: a first receiving set , configured to receive first signaling and a first wireless signal, wherein the first signaling indicates a first priority; and a first transmiting set , configured to: determine, based on the first priority, whether to send second signaling; when it is determined to send the second signaling, send the second signaling and update a value of a first counter to an initial value; or when it is determined not to send the second signaling, abstain from sending of the second signaling and update the value of the first counter by 1; and when the first counter expires, in response to expiration of the first counter, send a second wireless signal and update the value of the first counter to the initial value, wherein the first signaling comprises configuration information of the first wireless signal, and the second signaling is used to indicate whether the first wireless signal is correctly decoded; and a target receiver of the second wireless signal is the same as a sender of the first signaling. a first receiving set , configured to receive first signaling and a first wireless signal, wherein the first signaling indicates a first priority; and a first transmiting set , configured to: determine, based on the first priority, whether to send second signaling; when it is determined to send the second signaling, send the second signaling and update a value of a first counter to an initial value; or when it is determined not to send the second signaling, abstain from sending of the second signaling and update the value of the first counter by 1; and when the first counter expires, in response to expiration of the first counter, send a second wireless signal and update the value of the first counter to the initial value, wherein the first signaling comprises configuration information of the first wireless signal, and the second signaling is used to indicate whether the first wireless signal is correctly decoded; and a target receiver of the second wireless signal is the same as a sender of the first signaling.
Arrangement for adjusting the soil moisture of a sports field, comprising a basin (M) and a structure (S), which contains a field surface (P), a tread layer arranged below the field surface (P), and a support layer (T) formed below the tread layer , the tread layer being separated from the support layer (T) by a separating layer (V), a network of drainage pipes is arranged in the support layer (T) and connected to the basin (M), the support layer (T) is lying on a waterproof foil , characterized in that the separating layer (V) is formed of a geogrid , and the support layer (T) contains an upper crushed stone layer and a coarser, lower crushed stone layer connected to it from below, and between the upper crushed stone layer and the geogrid a geotextile is arranged, and the waterproof foil is folded over the edges of the field surface (P) above the field surface (P), and between the geotextile plate and the waterproof foil folded along the entire edge of the field surface (P), a geogrid strip coated with a geotextile material is arranged, and the geotextile material is in contact with the geotextile plate, and the basin (M) is provided with a filling valve and a sluice opening , the lower flow level (A) of the latter is arranged below the upper level of the lower crushed stone layer .
An X-ray sensing detector assembly for use in quality assurance of medical X-ray equipment, wherein the detector assembly comprises: - at least one primary X-ray sensing member (2a-2f); and - an X-ray blocking detector housing surrounding the at least one primary X-ray sensing member (2a-2f), wherein a first, upper side of the detector housing is provided with an X-ray window allowing passage of X-rays into the detector housing so as to allow X-rays directed towards the first, upper side of the detector housing to pass through the X-ray window and interact with the at least one primary X-ray sensing member (2a-2f), wherein the detector assembly is provided with at least one secondary X-ray sensing member arranged outside of the detector housing , wherein an X-ray blocking element is arranged on an upper side of the secondary X-ray sensing member so as to prevent that the secondary X-ray sensing member is exposed to X-rays directed towards the first, upper side of the detector housing , wherein the secondary X-ray sensing member is arranged on a second, lower side of the detector housing opposite to the first, upper side thereof, wherein each of the at least one primary X-ray sensing members (2a-2f) has a flat shape with opposite main sides, wherein one of the main sides faces the X-ray window, and wherein the detector assembly comprises a plurality of said flat primary X-ray sensing members (2a-2f) arranged in a layered structure. wherein the detector assembly comprises: - at least one primary X-ray sensing member (2a-2f); and - an X-ray blocking detector housing surrounding the at least one primary X-ray sensing member (2a-2f), - at least one primary X-ray sensing member (2a-2f); and - an X-ray blocking detector housing surrounding the at least one primary X-ray sensing member (2a-2f), wherein a first, upper side of the detector housing is provided with an X-ray window allowing passage of X-rays into the detector housing so as to allow X-rays directed towards the first, upper side of the detector housing to pass through the X-ray window and interact with the at least one primary X-ray sensing member (2a-2f), wherein the detector assembly is provided with at least one secondary X-ray sensing member arranged outside of the detector housing , wherein an X-ray blocking element is arranged on an upper side of the secondary X-ray sensing member so as to prevent that the secondary X-ray sensing member is exposed to X-rays directed towards the first, upper side of the detector housing , wherein the secondary X-ray sensing member is arranged on a second, lower side of the detector housing opposite to the first, upper side thereof, wherein each of the at least one primary X-ray sensing members (2a-2f) has a flat shape with opposite main sides, wherein one of the main sides faces the X-ray window, and wherein the detector assembly comprises a plurality of said flat primary X-ray sensing members (2a-2f) arranged in a layered structure.
Pressure spray device having a pressure container , an insert which comprises an electric pump , an electric storage device for supplying energy to the electric pump , wherein a container pressure is built up in the interior of a pressure container by means of the electric pump , wherein the electric storage device is arranged outside the interior of the pressure container , preferably laterally on the outer wall of the pressure container or laterally on a housing of the insert for the pressure spray device, characterized in in that the housing of the insert comprises a screw-threaded connection piece for screwing the insert into the pressure container and furthermore a display with a button for setting a pressure in the range from 1 to 3 bar, preferably 1.5 bar to 2.5 bar, preferably in 0.1 bar steps, wherein the set pressure is shown on the display and the pressure spray device has a pressure sensor and a control system which switches the electric pump on and off depending on the container pressure determined by means of the pressure sensor , so that the pressure set on the display is maintained. wherein the electric storage device is arranged outside the interior of the pressure container , preferably laterally on the outer wall of the pressure container or laterally on a housing of the insert for the pressure spray device, characterized in in that the housing of the insert comprises a screw-threaded connection piece for screwing the insert into the pressure container and furthermore a display with a button for setting a pressure in the range from 1 to 3 bar, preferably 1.5 bar to 2.5 bar, preferably in 0.1 bar steps, wherein the set pressure is shown on the display and the pressure spray device has a pressure sensor and a control system which switches the electric pump on and off depending on the container pressure determined by means of the pressure sensor , so that the pressure set on the display is maintained.
Print control strip , the at least one print control strip including at least one control patch configured as an element for color management , the at least one element for color management being configured to measure a color density and/or at least one spectral value and/or an area coverage of the individual printed printing colors, the at least one print control strip including at least one control patch configured as a printing mark , the at least one printing mark being configured to align a substrate in the transport direction (T) and/or in the transverse direction (A), characterized in that the at least one print control strip includes at least one control patch configured as a plate recognition patch , and that the at least one plate recognition patch is configured to assign at least one printing color used to a printing plate and/or to an application mechanism and/or is configured for its assignment.
An electron-accepting compound having a structure of the following formula : wherein Ar is each independently an aromatic ring group which may have a substituent or a fluorine-substituted alkyl group, wherein the substituent that Ar has is a hydrogen atom, a halogen atom, a cyano group, an aromatic ring group composed of 1 to 5 aromatic rings, a hydrocarbon ring group, an alkyl group, an alkenyl group, an alkynyl group, an aralkyl group, an alkyloxy group, an aryloxy group, an alkylthio group, an arylthio group, an alkyl ketone group, or an aryl ketone group, F 4 represents a substitution with four fluorine atoms, F (5-a) represents a substitution with (5-a) fluorine atom(s), k each independently represents an integer of 0 to 5, a each independently represents an integer of 0 to 5, k+a is 1 or more, and X + represents a counter cation having a structure of the following formula : wherein Ar 5 and Ar 6 are each independently an aromatic ring group which may have a substituent, wherein the substituent that Ar 5 and Ar 6 have are a hydrogen atom, a halogen atom, an aromatic ring group composed of 1 to 5 aromatic rings, a hydrocarbon ring group, an alkyl group, an aralkyl group, an alkyloxy group, an aryloxy group, and a hydroxy group. Ar is each independently an aromatic ring group which may have a substituent or a fluorine-substituted alkyl group, wherein the substituent that Ar has is a hydrogen atom, a halogen atom, a cyano group, an aromatic ring group composed of 1 to 5 aromatic rings, a hydrocarbon ring group, an alkyl group, an alkenyl group, an alkynyl group, an aralkyl group, an alkyloxy group, an aryloxy group, an alkylthio group, an arylthio group, an alkyl ketone group, or an aryl ketone group, F 4 represents a substitution with four fluorine atoms, F (5-a) represents a substitution with (5-a) fluorine atom(s), k each independently represents an integer of 0 to 5, a each independently represents an integer of 0 to 5, k+a is 1 or more, and X + represents a counter cation having a structure of the following formula :
Hand stamp , comprising a stamp plate which has a static cliché , and comprising an adjustable type unit which has different printing characters , the static cliché of the stamp plate having a two-dimensional stamp code , the type unit having a bridge which has a support surface , which support surface is provided to support a printing character of an adjustable type strip of the type unit , which printing character is set for a stamp impression , characterised in that the width extension (B) of the support surface in the direction (R) of the adjustment of the type strip is greater than the extension (E) of the printing character in the same direction (R).
A gauging system, comprising: a gauge configured to sense a process variable and to provide process data representative of the process variable; a processing unit connected to the gauge, the processing unit comprising: - power supply circuitry configured to receive power from a remote external power source other than a two-wire control loop, which power source is not intrinsically safe, and to provide regulated power in an intrinsically safe manner; and - first circuitry configured to receive process data from the gauge and to superimpose the process data onto the regulated power forming a power signal; and a wireless communication unit electrically connected to the processing unit by means of a two-wire control loop , the wireless communication unit comprising: - second circuitry configured to receive the power signal and to separate the process data from the regulated power; - an antenna ; and - radio frequency, RF, communication circuitry being powered by means of the regulated power from the second circuitry, configured to receive process data from the second circuitry, and to transmit RF signals representative of the process data using the antenna. a gauge configured to sense a process variable and to provide process data representative of the process variable; a processing unit connected to the gauge, the processing unit comprising: - power supply circuitry configured to receive power from a remote external power source other than a two-wire control loop, which power source is not intrinsically safe, and to provide regulated power in an intrinsically safe manner; and - first circuitry configured to receive process data from the gauge and to superimpose the process data onto the regulated power forming a power signal; and - power supply circuitry configured to receive power from a remote external power source other than a two-wire control loop, which power source is not intrinsically safe, and to provide regulated power in an intrinsically safe manner; and - first circuitry configured to receive process data from the gauge and to superimpose the process data onto the regulated power forming a power signal; and a wireless communication unit electrically connected to the processing unit by means of a two-wire control loop , the wireless communication unit comprising: - second circuitry configured to receive the power signal and to separate the process data from the regulated power; - an antenna ; and - radio frequency, RF, communication circuitry being powered by means of the regulated power from the second circuitry, configured to receive process data from the second circuitry, and to transmit RF signals representative of the process data using the antenna. - second circuitry configured to receive the power signal and to separate the process data from the regulated power; - an antenna ; and - radio frequency, RF, communication circuitry being powered by means of the regulated power from the second circuitry, configured to receive process data from the second circuitry, and to transmit RF signals representative of the process data using the antenna.
A steering control apparatus configured to control a motor based on a command value (T * , T p * ) calculated depending on a steering condition, the motor being configured to generate a driving force to be applied to a steering mechanism of a vehicle including a steering operation shaft configured to turn a steered wheel , the steering control apparatus comprising: a steering range axial force calculation circuit configured to calculate a steering range axial force (F1, F2) based on a condition amount of the vehicle, the steering range axial force being an axial force applied to the steering operation shaft when a steering wheel is operated within a defined operation range; and a limiting axial force calculation circuit configured to calculate a limiting axial force (F3) as an axial force of the steering operation shaft based on a condition amount of the vehicle in which the steering condition or a steered condition of the steered wheel is reflected, so as to imaginarily limit an operation of the steering wheel ; characterized by comprising a selection circuit configured to select an axial force having a largest absolute value out of the steering range axial force and the limiting axial force (F3) as an axial force (F sp ) to be reflected in the command value. a steering range axial force calculation circuit configured to calculate a steering range axial force (F1, F2) based on a condition amount of the vehicle, the steering range axial force being an axial force applied to the steering operation shaft when a steering wheel is operated within a defined operation range; and a limiting axial force calculation circuit configured to calculate a limiting axial force (F3) as an axial force of the steering operation shaft based on a condition amount of the vehicle in which the steering condition or a steered condition of the steered wheel is reflected, so as to imaginarily limit an operation of the steering wheel ; characterized by comprising a selection circuit configured to select an axial force having a largest absolute value out of the steering range axial force and the limiting axial force (F3) as an axial force (F sp ) to be reflected in the command value.
A heat protection device for a parked vehicle , comprising: a sensor arrangement with a first temperature sensor and a second temperature sensor ; and a control device ; wherein the first temperature sensor is configured to determine a first temperature value at a first location of the vehicle , the second temperature sensor is configured to determine a second temperature value at a second location of the vehicle ; wherein the control device is configured to determine a temperature difference based on the first temperature value and the second temperature value, characterized in that the control device is further configured to determine a temperature distribution over an outer surface of the vehicle based on the first temperature value and the second temperature value; and wherein the control device is configured to determine a displacement maneuver for displacing the parked vehicle based on the determined temperature distribution, in order to reduce the determined temperature difference and to automatically displace the vehicle according to the determined displacement maneuver. a sensor arrangement with a first temperature sensor and a second temperature sensor ; and a control device ; wherein the first temperature sensor is configured to determine a first temperature value at a first location of the vehicle , the second temperature sensor is configured to determine a second temperature value at a second location of the vehicle ; wherein the control device is configured to determine a temperature difference based on the first temperature value and the second temperature value, characterized in that the control device is further configured to determine a temperature distribution over an outer surface of the vehicle based on the first temperature value and the second temperature value; and wherein the control device is configured to determine a displacement maneuver for displacing the parked vehicle based on the determined temperature distribution, in order to reduce the determined temperature difference and to automatically displace the vehicle according to the determined displacement maneuver.
Method for operating a combustion engine brake by means of at least one first operating parameter value which is selected in order to create a demanded brake torque value, comprising a step of detecting a brake torque value which is delivered by the combustion engine brake for braking the vehicle, characterized in that said brake torque value is detected by a real torque sensor positioned in a drive line of said vehicle, and, if the amount of the difference between the demanded brake torque value and the delivered brake torque value exceeds a predetermined first limit value, the combustion engine brake is operated by means of at least one second operating parameter value which is selected or adapted or controlled in order to create a corrected brake torque value.