mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for a mobile device , the apparatus comprising a transceiver module , designed for communication in a first mobile communication system and in a second mobile communication system; and a monitoring module , designed for: determining whether a period of time until a probable next time for refilling an energy supply of the mobile device is above a time threshold value, using the first mobile communication system for a data transmission if the period of time is above the time threshold value, delaying the data transmission until a next refilling of the energy supply, until a next availability of a connection to the second mobile communication system or until a time defined by the time threshold value if the period of time is below the time threshold value, and using the second mobile communication system for the data transmission if a connection to the second mobile communication system is available at or before the next time for refilling the energy supply of the mobile device . determining whether a period of time until a probable next time for refilling an energy supply of the mobile device is above a time threshold value, using the first mobile communication system for a data transmission if the period of time is above the time threshold value, delaying the data transmission until a next refilling of the energy supply, until a next availability of a connection to the second mobile communication system or until a time defined by the time threshold value if the period of time is below the time threshold value, and using the second mobile communication system for the data transmission if a connection to the second mobile communication system is available at or before the next time for refilling the energy supply of the mobile device .
A machining unit for machining the boundary surfaces of at least one body , wherein the relevant body to be machined respectively has a lateral surface and a base surface as boundary surfaces, wherein the machining unit has at least one machining station (02; 03; 04; 06) and at least one device for transferring the at least one body to be machined from a first machining position into a second machining position, wherein the device for transferring the relevant body from its first machining position into its second machining position arranging the body to be machined at the relevant machining station (02; 03; 04; 06) has at least one gripping device respectively for gripping the relevant body , wherein the machining unit has two opposing elements (28; 29) of a clamping means, wherein the relevant body in its first machining position is fixed at each of its end faces between the two opposing elements (28; 29) of the clamping means, characterized in that the gripping device is rigidly connected to a rotatable shaft , wherein the shaft rigidly connected to the gripping device is rotated or at least rotatable by a drive , wherein a rotational movement of the shaft carried out by the drive is controlled by a control unit, wherein the relevant body gripped by the gripping device released from its fixation can be transferred into its second machining position by the rotational movement of the shaft , wherein this body is arranged on the relevant machining station (02; 03; 04; 06) such that in its first machining position its lateral surface is machined, and in its second machining position its base surface is machined.
An appliance for locating an electromagnetic spectrum sensor on epidermis (E), the electromagnetic spectrum sensor having a sensor face emitting and receiving electromagnetic radiation , the appliance comprising: a fitting including a retaining device and a chute extending along an axis A between first and second ends , and the axis (A) extending obliquely with respect to the epidermis (E), the fitting having - a first arrangement of the retaining device for retaining the electromagnetic spectrum sensor in the chute and positioning the sensor face at the second end of the chute so as to emit and receive the electromagnetic radiation with respect to the epidermis (E) to monitor fluid in perivascular tissue; and a second arrangement of the retaining device for releasing the electromagnetic spectrum sensor from the first arrangement; a body molded over the fitting ; and a foundation adhering the body with the epidermis (E), wherein the second end of the chute is located at the foundation . a fitting including a retaining device and a chute extending along an axis A between first and second ends , and the axis (A) extending obliquely with respect to the epidermis (E), the fitting having - a first arrangement of the retaining device for retaining the electromagnetic spectrum sensor in the chute and positioning the sensor face at the second end of the chute so as to emit and receive the electromagnetic radiation with respect to the epidermis (E) to monitor fluid in perivascular tissue; and a second arrangement of the retaining device for releasing the electromagnetic spectrum sensor from the first arrangement; a first arrangement of the retaining device for retaining the electromagnetic spectrum sensor in the chute and positioning the sensor face at the second end of the chute so as to emit and receive the electromagnetic radiation with respect to the epidermis (E) to monitor fluid in perivascular tissue; and a second arrangement of the retaining device for releasing the electromagnetic spectrum sensor from the first arrangement; a body molded over the fitting ; and a foundation adhering the body with the epidermis (E), wherein the second end of the chute is located at the foundation .
An oil distributing device connectable among at least three compressors (CP1, CP2, CP3) and configured to distribute oil among the at least three compressors (CP1, CP2, CP3), the oil distributing device comprising: a first joint assembly comprising a plurality of passages fluidly isolated from each other; a plurality of second joint assemblies ; and a plurality of connecting pipes respectively connecting the plurality of second joint assemblies to the plurality of passages of the first joint assembly in one-to-one correspondence, characterized in that the first joint assembly comprises a first tubular member and a second tubular member surrounding the first tubular member , an annular space between the first tubular member and the second tubular member serves as a first one of the plurality of passages of the first joint assembly , and an internal cavity of the first tubular member serves as a second one of the plurality of passages of the first joint assembly . a first joint assembly comprising a plurality of passages fluidly isolated from each other; a plurality of second joint assemblies ; and a plurality of connecting pipes respectively connecting the plurality of second joint assemblies to the plurality of passages of the first joint assembly in one-to-one correspondence, characterized in that the first joint assembly comprises a first tubular member and a second tubular member surrounding the first tubular member , an annular space between the first tubular member and the second tubular member serves as a first one of the plurality of passages of the first joint assembly , and an internal cavity of the first tubular member serves as a second one of the plurality of passages of the first joint assembly .
A method of assembling a joint cross type universal joint in which a cup bearing is incorporated in a portion between a circular hole formed in a coupling arm portion forming a yoke and an end portion of a shaft portion forming a joint cross inserted inside the circular hole , and then an opening edge portion of the circular hole on an outer side surface of the coupling arm portion is plastically deformed inward in the radial direction to form a staking portion , wherein: after a notch is formed in a portion near the periphery of the circular hole on the outer side surface of the coupling arm portion , a thin-walled portion formed in a radially inner portion of the notch in the opening edge portion of the circular hole is plastically deformed inward in the radial direction to form the staking portion ; and the radially outer side surface forming the notch forms an inclined surface which is inclined outward in the radial direction toward the outer side surface of the coupling arm portion , characterized in that the notch is formed in a triangular shape with respect to the outer side surface of the coupling arm portion. after a notch is formed in a portion near the periphery of the circular hole on the outer side surface of the coupling arm portion , a thin-walled portion formed in a radially inner portion of the notch in the opening edge portion of the circular hole is plastically deformed inward in the radial direction to form the staking portion ; and the radially outer side surface forming the notch forms an inclined surface which is inclined outward in the radial direction toward the outer side surface of the coupling arm portion , characterized in that the notch is formed in a triangular shape with respect to the outer side surface of the coupling arm portion.
Method for producing a circuit carrier , wherein a carrier substrate is provided, wherein a structure for a conductor to be applied is introduced by means of a laser into the surface of the carrier substrate , wherein the structure is provided with a metallic coating forming the conductor under formation of the circuit carrier , and a ceramic material is used as the carrier substrate , characterized in that the ceramic material has a composition comprising 85 to 99 vol-% aluminum oxide, Al 2 O 3 , and 1 to 15 vol-% copper oxide, Cu 2 O.
An imaging device , the imaging device comprising: a first image sensor ; a second image sensor ; and a processor communicatively coupled to the first image sensor and the second image sensor , wherein the processor is configured to: activate the first image sensor at a first duty cycle within a first time period; activate the second image sensor at a second duty cycle within the first time period; characterized in that the processor is further configured to: modify at least one of the first duty cycle or the second duty cycle based on metadata associated with each of one or more tasks to be performed by an operator of the imaging device in a workflow, wherein the metadata includes at least information pertaining to which of the first image sensor and the second image sensor is to be used to execute each of the one or more tasks. a first image sensor ; a second image sensor ; and a processor communicatively coupled to the first image sensor and the second image sensor , wherein the processor is configured to: activate the first image sensor at a first duty cycle within a first time period; activate the second image sensor at a second duty cycle within the first time period; characterized in that the processor is further configured to: modify at least one of the first duty cycle or the second duty cycle based on metadata associated with each of one or more tasks to be performed by an operator of the imaging device in a workflow, wherein the metadata includes at least information pertaining to which of the first image sensor and the second image sensor is to be used to execute each of the one or more tasks. activate the first image sensor at a first duty cycle within a first time period; activate the second image sensor at a second duty cycle within the first time period; characterized in that the processor is further configured to: modify at least one of the first duty cycle or the second duty cycle based on metadata associated with each of one or more tasks to be performed by an operator of the imaging device in a workflow, wherein the metadata includes at least information pertaining to which of the first image sensor and the second image sensor is to be used to execute each of the one or more tasks.
Apparatus for sensing at least one parameter in water containing compounds of chlorine, which apparatus comprises: (i) at least one electrode based sensor for sensing at least one parameter in water; and which apparatus is such that: (ii) the electrode based sensor has a self-cleaning electrode; (iii) the electrode based sensor has a reference electrode; (iv) the self-cleaning electrode is stable in water; (v) the apparatus is configured to operate by liberating chlorine from the water using a first waveform applied to the self-cleaning electrode; (vi) the apparatus is configured to operate by liberating chlorine and oxygen from the water using a second waveform applied to the self-cleaning electrode; and (vii) the apparatus is configured to periodically regenerate the reference electrode, thereby to preserve the condition of the reference electrode. (i) at least one electrode based sensor for sensing at least one parameter in water; (ii) the electrode based sensor has a self-cleaning electrode; (iii) the electrode based sensor has a reference electrode; (iv) the self-cleaning electrode is stable in water; (v) the apparatus is configured to operate by liberating chlorine from the water using a first waveform applied to the self-cleaning electrode; (vi) the apparatus is configured to operate by liberating chlorine and oxygen from the water using a second waveform applied to the self-cleaning electrode; and (vii) the apparatus is configured to periodically regenerate the reference electrode, thereby to preserve the condition of the reference electrode.
A wiper system comprising: a wiper blade that is arranged on a wiping surface; a wiper arm to which the wiper blade is attached; a pivot shaft that is installed on a vehicle side and to which the wiper arm is fixed; an electric motor that drives the pivot shaft to rotate; and a control device that performs operation control on the electric motor based on position information about the wiper blade, the control device having a learning mode that is executed after the wiper arm is attached to the pivot shaft and in which a position of the wiper blade is learned to correct the position information, the learning mode including moving the wiper blade to a predetermined prescribed position, detecting that the wiper blade is located in the prescribed position, and correcting the position information to a value corresponding to the prescribed position, wherein the control device includes: a learning operation start unit that moves the wiper blade to the prescribed position during the learning mode; a blade position check unit that detects that the wiper blade is located in the prescribed position during the learning mode; and a position information learning and correction unit that, if the wiper blade is detected to be located in the prescribed position, corrects the position information to the value corresponding to the prescribed position. a wiper blade that is arranged on a wiping surface; a wiper arm to which the wiper blade is attached; a pivot shaft that is installed on a vehicle side and to which the wiper arm is fixed; an electric motor that drives the pivot shaft to rotate; and a control device that performs operation control on the electric motor based on position information about the wiper blade, the control device having a learning mode that is executed after the wiper arm is attached to the pivot shaft and in which a position of the wiper blade is learned to correct the position information, the learning mode including moving the wiper blade to a predetermined prescribed position, detecting that the wiper blade is located in the prescribed position, and correcting the position information to a value corresponding to the prescribed position, wherein the control device includes: a learning operation start unit that moves the wiper blade to the prescribed position during the learning mode; a blade position check unit that detects that the wiper blade is located in the prescribed position during the learning mode; and a position information learning and correction unit that, if the wiper blade is detected to be located in the prescribed position, corrects the position information to the value corresponding to the prescribed position. a learning operation start unit that moves the wiper blade to the prescribed position during the learning mode; a blade position check unit that detects that the wiper blade is located in the prescribed position during the learning mode; and a position information learning and correction unit that, if the wiper blade is detected to be located in the prescribed position, corrects the position information to the value corresponding to the prescribed position.
An apparatus , comprising: an inlet configured to be placed in fluid communication with a bodily fluid source; an outlet configured to be placed in fluid communication with a fluid collection device; a sequestration portion configured to be in fluid communication with the inlet, the sequestration portion including a vent configured to allow a flow of gas out of the sequestration portion operable to allow a flow of a first volume of bodily fluid from the bodily fluid source into the sequestration portion; and a flow controller disposed in the sequestration portion, the flow controller including an expandable material configured to expand in response to contact with a portion of the first volume of bodily fluid thereby transitioning the flow controller from a first state to a second state, the flow controller configured to allow a negative pressure differential between the sequestration portion and the inlet as the flow controller transitions from the first state to the second state and such that the first volume of bodily fluid flows from the inlet into the sequestration portion, the flow controller in the second state configured to allow (i) the negative pressure differential to substantially equalize, (ii) the first volume of bodily fluid to be sequestered in the sequestration portion, and (iii) a second volume of bodily fluid to be transferred from the inlet to the outlet. an inlet configured to be placed in fluid communication with a bodily fluid source; an outlet configured to be placed in fluid communication with a fluid collection device; a sequestration portion configured to be in fluid communication with the inlet, the sequestration portion including a vent configured to allow a flow of gas out of the sequestration portion operable to allow a flow of a first volume of bodily fluid from the bodily fluid source into the sequestration portion; and a flow controller disposed in the sequestration portion, the flow controller including an expandable material configured to expand in response to contact with a portion of the first volume of bodily fluid thereby transitioning the flow controller from a first state to a second state, the flow controller configured to allow a negative pressure differential between the sequestration portion and the inlet as the flow controller transitions from the first state to the second state and such that the first volume of bodily fluid flows from the inlet into the sequestration portion, the flow controller in the second state configured to allow (i) the negative pressure differential to substantially equalize, (ii) the first volume of bodily fluid to be sequestered in the sequestration portion, and (iii) a second volume of bodily fluid to be transferred from the inlet to the outlet.
Exhaust flap device for an internal combustion engine comprising a flow housing that delimits a flow channel , a flap body , a shaft on which the flap body is mounted, the shaft being made of a non-magnetic, austenitic high-temperature-resistant and high-chromium stainless steel, and at least one bearing made of a sintered metal powder of a high chromium iron alloy, which has an austenitic structure and contains carbide alloy components as well as evenly distributed solid lubricant phases, via which bearing the shaft is supported in at least one bearing seat of the flow housing , characterized in that the bearing contains 17% by weight to 25% by weight chromium, 7% by weight to 11% by weight nickel, 3% by weight to 6% by weight molybdenum, 1.2% by weight to 1.6% by weight carbon, 0,5% by weight to 1.5% by weight silicon, 0.1% by weight to 0.4% by weight manganese, 0.1 to 0.3% by weight sulfur, 0.5% by weight to 1.5% by weight vanadium, 1.3% by weight to 1.8% by weight tungsten, a maximum of 2% by weight of other elements, the remainder being iron, and the shaft contains 16% by weight to 18% by weight chromium, 8% by weight to 9% by weight nickel, 7% by weight to 9% by weight manganese, 3.5% by weight to 4.5% by weight silicon, a maximum of 0.75% by weight molybdenum, a maximum of 0.1% by weight carbon, 0.08% by weight to 0.18% by weight nitrogen, the remainder being iron. a flow housing that delimits a flow channel , a flap body , a shaft on which the flap body is mounted, the shaft being made of a non-magnetic, austenitic high-temperature-resistant and high-chromium stainless steel, and at least one bearing made of a sintered metal powder of a high chromium iron alloy, which has an austenitic structure and contains carbide alloy components as well as evenly distributed solid lubricant phases, via which bearing the shaft is supported in at least one bearing seat of the flow housing , characterized in that the bearing contains 17% by weight to 25% by weight chromium, 7% by weight to 11% by weight nickel, 3% by weight to 6% by weight molybdenum, 1.2% by weight to 1.6% by weight carbon, 0,5% by weight to 1.5% by weight silicon, 0.1% by weight to 0.4% by weight manganese, 0.1 to 0.3% by weight sulfur, 0.5% by weight to 1.5% by weight vanadium, 1.3% by weight to 1.8% by weight tungsten, a maximum of 2% by weight of other elements, the remainder being iron, and the shaft contains 16% by weight to 18% by weight chromium, 8% by weight to 9% by weight nickel, 7% by weight to 9% by weight manganese, 3.5% by weight to 4.5% by weight silicon, a maximum of 0.75% by weight molybdenum, a maximum of 0.1% by weight carbon, 0.08% by weight to 0.18% by weight nitrogen, the remainder being iron.