mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting an idle channel, applied in a wireless communication system, wherein the method for detecting the idle channel comprises: performing channel measurement for channels which are needed for transmitting data by means of beamforming, and determining a channel in an idle state, characterized in that the channels which are needed for transmitting data by means of beamforming are transmission channels, arranged at a set transmission angle or a set reception angle and working within a set frequency range, between a transmitting station and a receiving station; wherein performing the channel measurement for the channels which are needed for transmitting data by means of beamforming comprises: performing wireless signal sense and measuring received wireless signal strength on each of the channels, wherein the wireless signal strength is an average value of signal strength in a preset period of time. performing channel measurement for channels which are needed for transmitting data by means of beamforming, and determining a channel in an idle state, characterized in that the channels which are needed for transmitting data by means of beamforming are transmission channels, arranged at a set transmission angle or a set reception angle and working within a set frequency range, between a transmitting station and a receiving station; wherein performing the channel measurement for the channels which are needed for transmitting data by means of beamforming comprises: performing wireless signal sense and measuring received wireless signal strength on each of the channels, wherein the wireless signal strength is an average value of signal strength in a preset period of time.
An arrangement configured for manipulating a medical device to be inserted into the body of a patient, the arrangement comprising: a drive element to be driven by a motor; a control element configured for controlling at least one motion of the medical device; a transmission arrangement configured for transmitting motion from the drive element to the control element, the transmission arrangement comprising first (12, 19) and second members which are frictionally engaged with one another so that motion is transmittable from one to the other; and a manual manipulation control characterised in that the manual manipulation control is graspable by a user to move the medical device manually a relatively large distance to a new position while: the first (12, 19) and second members remain in frictional engagement with one another and the control element is driven by the manual movement such that a frictional force between the first (12, 19) and second members is overcome and substantially none of this motion is transmitted to the drive element. a drive element to be driven by a motor; a control element configured for controlling at least one motion of the medical device; a transmission arrangement configured for transmitting motion from the drive element to the control element, the transmission arrangement comprising first (12, 19) and second members which are frictionally engaged with one another so that motion is transmittable from one to the other; and a manual manipulation control characterised in that the manual manipulation control is graspable by a user to move the medical device manually a relatively large distance to a new position while: the first (12, 19) and second members remain in frictional engagement with one another and the control element is driven by the manual movement such that a frictional force between the first (12, 19) and second members is overcome and substantially none of this motion is transmitted to the drive element. the first (12, 19) and second members remain in frictional engagement with one another and the control element is driven by the manual movement such that a frictional force between the first (12, 19) and second members is overcome and substantially none of this motion is transmitted to the drive element.
A computing device for electronic messaging, the computing device comprising: a processor configured to: receive an electronic message comprising header fields associated with qualifiers; preserve the header field of the electronic message in an unmodified state if the qualifier is a persistent qualifier; wherein the persistent qualifier facilitates user opt out of an electronic message string or group; increment an index value if the qualifier associated with the header field is an index qualifier; and transmit the electronic message, along with the unmodified header field and the incremented index value, to another entity to facilitate electronic message-related functionality. receive an electronic message comprising header fields associated with qualifiers; preserve the header field of the electronic message in an unmodified state if the qualifier is a persistent qualifier; wherein the persistent qualifier facilitates user opt out of an electronic message string or group; increment an index value if the qualifier associated with the header field is an index qualifier; and transmit the electronic message, along with the unmodified header field and the incremented index value, to another entity to facilitate electronic message-related functionality.
A device having a nut and retaining means, wherein the nut is connected to the device, in particular is connected in a screwed manner to a threaded pin of the device, wherein the retaining means has an eye for a transport hook and has a further opening, wherein the nut has an encircling groove, in particular recess, wherein the nut projects through the further opening, wherein the axial region covered by the boundary of the further opening is encompassed by the axial region covered by the encircling groove, wherein the axial direction is the axis of the Internal thread of the nut, characterized in that the axial region covered by the groove is greater than the wall thickness, in particular sheet thickness, of the retaining means, wherein a sliding part (83, 84) is displaceably arranged on the retaining means, wherein in a first position, the sliding part is spaced apart radially from the nut, in particular wherein the radial spacing region covered by the nut is spaced apart from the radial spacing region covered by the sliding part, wherein in a second position, the sliding part engages the encircling groove, in particular the recess, in particular to form an axial securing of the nut to the retaining means, wherein the sliding part is guided between two parallel portions of the boundary of the further opening, wherein the sliding part has a slider portion which spaces apart from one another two grip regions, in particular grip portions, wherein the grip regions axially secure and/or limit the sliding part on the retaining means.
An electronic device suitable for performing automatic zoom, comprising: a processor configured to: obtain a plurality of images (434, 436); determine global motion between at least two of the plurality of images; determine motion of a tracked object (t n) between the at least two of the plurality of images based on a full field of view of a camera input; determine a digital zoom region that includes the tracked object (t n) based on the global motion and the motion of the tracked object, wherein the determined digital zoom region is a sub-region of the full field of view of the camera input; and provide the determined digital zoom region to a display for presentation, characterized in that continued motion determination of the tracked object operates on the whole field of view of a camera input and is not limited to the view within the determined digital zoom region. obtain a plurality of images (434, 436); determine global motion between at least two of the plurality of images; determine motion of a tracked object (t n) between the at least two of the plurality of images based on a full field of view of a camera input; determine a digital zoom region that includes the tracked object (t n) based on the global motion and the motion of the tracked object, wherein the determined digital zoom region is a sub-region of the full field of view of the camera input; and provide the determined digital zoom region to a display for presentation, characterized in that continued motion determination of the tracked object operates on the whole field of view of a camera input and is not limited to the view within the determined digital zoom region.
A cooker comprising: a cooking chamber having an opening; a door opening and closing the opening; heaters (15a, 15b) provided in an upper portion and a lower portion of the cooking chamber; a hydrogen water generating section turning raw water into hydrogen water upon coming the raw water into contact with a hydrogen generator of the hydrogen water generating section; a superheated steam generator generating superheated steam from the hydrogen water supplying the superheated steam into the cooking chamber; and a water spraying section (17a, 17b) spraying water into the cooking chamber, a reducing state being established in the cooking chamber, and characterized in that the hydrogen generator being a mineral that includes 5 to 15% of diatomaceous earth, 30 to 50% of kaolinite, 15 to 25% of bentonite, 15 to 20% of sodium silicate, and 15 to 25% of magnesium. a cooking chamber having an opening; a door opening and closing the opening; heaters (15a, 15b) provided in an upper portion and a lower portion of the cooking chamber; a hydrogen water generating section turning raw water into hydrogen water upon coming the raw water into contact with a hydrogen generator of the hydrogen water generating section; a superheated steam generator generating superheated steam from the hydrogen water supplying the superheated steam into the cooking chamber; and a water spraying section (17a, 17b) spraying water into the cooking chamber, a reducing state being established in the cooking chamber, and characterized in that the hydrogen generator being a mineral that includes 5 to 15% of diatomaceous earth, 30 to 50% of kaolinite, 15 to 25% of bentonite, 15 to 20% of sodium silicate, and 15 to 25% of magnesium.
A cooker comprising: a cavity that is provided with a cooking chamber in which food is cooked; a heating source that provides heat for cooking food inside the cooking chamber; a door that selectively opens and closes the cooking chamber; an input unit that receives signals for cooking food inside the cooking chamber; an output unit that outputs the signals of the cooking inside the cooking chamber; a first coating layer that is coated on the surface of the cavity corresponding to the inner surface of the cooking chamber; and a second coating layer that is coated on the surface of the first coating layer, characterized in that the second coating layer includes 27.1-35.3 wt% P 2 O 5, 14.6-28.4 wt% Al 2 O 3, 12.8-20.3 wt% ZrO 2, 18.7-28.8 wt% mother glass constitution components, and 17.2-25.4 wt% ceramic fillers. a cavity that is provided with a cooking chamber in which food is cooked; a heating source that provides heat for cooking food inside the cooking chamber; a door that selectively opens and closes the cooking chamber; an input unit that receives signals for cooking food inside the cooking chamber; an output unit that outputs the signals of the cooking inside the cooking chamber; a first coating layer that is coated on the surface of the cavity corresponding to the inner surface of the cooking chamber; and a second coating layer that is coated on the surface of the first coating layer, characterized in that the second coating layer includes 27.1-35.3 wt% P 2 O 5, 14.6-28.4 wt% Al 2 O 3, 12.8-20.3 wt% ZrO 2, 18.7-28.8 wt% mother glass constitution components, and 17.2-25.4 wt% ceramic fillers.
Method for processing optical lenses, wherein the lenses are selectively processed by different processing apparatuses corresponding to an assignment, characterized in that a central management of instructions for maintenance of the individual processing apparatuses is carried out, wherein the respective instructions are output and/or can be indicated at the respective processing apparatus in a decentralized manner.
A delivery device for a composition, the delivery device (2, 2A, 2B, 2C, 2D, 2E, 2F) having a first end and a second end with a longitudinal axis (X_L) there between, and comprising a body and a delivery part, the body extending along a body axis (X_B) from a first body end to a second body end and having a body surface, the delivery part comprising a first attachment part (18, 18A, 18B, 18C, 18D, 18E, 18F, 18G), the first attachment part (18, 18A, 18B, 18C, 18D, 18E, 18F, 18G) having a first distal end configured to position itself in an internal surface of a subject, wherein the first attachment part (18, 18A, 18B, 18C, 18D, 18E, 18F, 18G) extends along a first axis and the first distal end of the first attachment part is arranged between the first body end and the second body end of the body, wherein a first angle between the first axis of the first attachment part and the longitudinal axis (X_L) of the delivery device is less than 75 degrees, wherein the first attachment part (18, 18A, 18B, 18C, 18D, 18E, 18F, 18G) has a length in the range from 1.0 mm to 20 mm, and wherein the first attachment part (18, 18A, 18B, 18C, 18D, 18E, 18F, 18G) defines a first cavity for accommodating a payload comprising an active drug substance.
An electrocatalyst for fuel cells comprising an electrically conductive carrier and a catalytically active species, wherein the conductive carrier is an inorganic, multicomponent carrier material of the composition OX1-OX2, wherein - 0X1 stands for an electrically non-conductive oxide with a specific surface area in the range of 50 to 400 m 2 /g and - OX2 stands for a conductive oxide, and wherein noble metals from the group consisting of ruthenium, osmium, rhodium, iridium, palladium, platinum, silver and gold and their mixtures or alloys are used as catalytically active species, and wherein the multicomponent conductive carrier material has a core/shell structure, wherein an electrically conductive layer made of an electrically conductive oxide component OX2 is applied in the form of a shell to the core consisting of the structure-generating, electrically non-conductive oxide component OX1, wherein the shell may be continuously formed or discontinuous, and wherein the shell may have breaks, pinholes, agglomerates and defects, and wherein the multicomponent carrier material OX1-OX2 has an electrical conductivity in the range of >0.01 S/cm, and wherein the catalytically active species are applied as catalytically active particles on the conductive component OX2. - 0X1 stands for an electrically non-conductive oxide with a specific surface area in the range of 50 to 400 m 2 /g and - OX2 stands for a conductive oxide,
An adsorber structure for capturing gaseous components from a gas mixture, the adsorber structure comprising a cylindrical center portion extending along a longitudinal axis from a first end to a second end, a first star shaped holder arranged at the first end, and a second star shaped holder arranged at the second end of the center portion, wherein each of the star shaped holders (16, 17) comprises the same number of multiple arms which extend at a constant angular distance from the center portion in different radial outward directions, wherein the star shaped holders (16, 17) are rotated relative to one another such that each arm of the first star shaped holder is positioned between two adjacent arms of the second star shaped holder when looking along the longitudinal axis from the first end toward the second end of the center portion, wherein the adsorber structure further comprises sorbent elements for adsorbing the gaseous components from the gas mixture, wherein two sorbent elements extend from each arm of the first star shaped holder to the respective two adjacent arms of the second star shaped holder along the longitudinal axis of the center portion and, wherein a gap between adjacent sorbent elements extending from two circumferentially adjacent arms of the first star shaped holder tapers towards the corresponding arm of the second star shaped holder such that a gas mixture streaming from the first end to the second end of the center portion penetrates the adjacent sorbent elements. a first star shaped holder arranged at the first end, and a second star shaped holder arranged at the second end of the center portion, wherein each of the star shaped holders (16, 17) comprises the same number of multiple arms which extend at a constant angular distance from the center portion in different radial outward directions, wherein the star shaped holders (16, 17) are rotated relative to one another such that each arm of the first star shaped holder is positioned between two adjacent arms of the second star shaped holder when looking along the longitudinal axis from the first end toward the second end of the center portion, wherein the adsorber structure further comprises sorbent elements for adsorbing the gaseous components from the gas mixture, wherein two sorbent elements extend from each arm of the first star shaped holder to the respective two adjacent arms of the second star shaped holder along the longitudinal axis of the center portion and, wherein a gap between adjacent sorbent elements extending from two circumferentially adjacent arms of the first star shaped holder tapers towards the corresponding arm of the second star shaped holder such that a gas mixture streaming from the first end to the second end of the center portion penetrates the adjacent sorbent elements.
A controller system comprising a controller for solving conflicts occurring when a plurality of interfaces are employed with the controller, the controller comprising: a jog status component comprising a table, the table comprising a plurality of jog status fields associated with a machine, wherein each jog status field is uniquely assigned to a particular interface of a plurality of interfaces (102, 103, 104), the jog status component being adapted to: receive jog signals generated by the plurality of interfaces, the jog signals relating to whether a jog operation is to be performed or not by the machine; and for each jog signal received from a given interface of the plurality of interfaces, set a jog status value in the jog status field assigned to the given interface, the jog status value defining whether the jog operation is to be performed or not by the machine; and a jog status determination component adapted to determine whether the jog operation is to be performed or not by the machine by performing an OR gate operation on the jog status values of the jog status fields. a jog status component comprising a table, the table comprising a plurality of jog status fields associated with a machine, wherein each jog status field is uniquely assigned to a particular interface of a plurality of interfaces (102, 103, 104), the jog status component being adapted to: receive jog signals generated by the plurality of interfaces, the jog signals relating to whether a jog operation is to be performed or not by the machine; and for each jog signal received from a given interface of the plurality of interfaces, set a jog status value in the jog status field assigned to the given interface, the jog status value defining whether the jog operation is to be performed or not by the machine; and a jog status determination component adapted to determine whether the jog operation is to be performed or not by the machine by performing an OR gate operation on the jog status values of the jog status fields. receive jog signals generated by the plurality of interfaces, the jog signals relating to whether a jog operation is to be performed or not by the machine; and for each jog signal received from a given interface of the plurality of interfaces, set a jog status value in the jog status field assigned to the given interface, the jog status value defining whether the jog operation is to be performed or not by the machine; and a jog status determination component adapted to determine whether the jog operation is to be performed or not by the machine by performing an OR gate operation on the jog status values of the jog status fields.
A drive system for rotating a wheel of an aircraft landing gear, the drive system comprising: - a drive element, such as a drive pinion, - a motor operable to rotate the drive element, and - a driven gear adapted to be attached to the wheel so as to be capable of rotating the wheel, wherein the drive system has a drive configuration in which the drive element is capable of meshing with the driven gear to drive the driven gear, wherein the drive system further comprises a transmission error measurement apparatus (30, 30', 40), the apparatus configured to obtain, over time, measurement data of one or more characteristics of the drive system when in the drive configuration, the measurement data providing an indication of a transmission error between a torque commanded by the motor and a resulting torque at the driven gear, and characterised in that the apparatus is configured to compare a characteristic of the measurement data of a cycle to the same characteristic of the measurement data of a previous cycle, or to an expected characteristic of a cycle, whereby the difference of the compared characteristics is an indication of the transmission error. - a drive element, such as a drive pinion, - a motor operable to rotate the drive element, and - a driven gear adapted to be attached to the wheel so as to be capable of rotating the wheel, wherein the drive system has a drive configuration in which the drive element is capable of meshing with the driven gear to drive the driven gear, wherein the drive system further comprises a transmission error measurement apparatus (30, 30', 40), the apparatus configured to obtain, over time, measurement data of one or more characteristics of the drive system when in the drive configuration, the measurement data providing an indication of a transmission error between a torque commanded by the motor and a resulting torque at the driven gear, and characterised in that the apparatus is configured to compare a characteristic of the measurement data of a cycle to the same characteristic of the measurement data of a previous cycle, or to an expected characteristic of a cycle, whereby the difference of the compared characteristics is an indication of the transmission error.
Control apparatus for a vehicle, comprising: a control device which is designed to drive a first vehicle-side system using first sensor data; and a detection device which is designed to receive second sensor data from distance sensors (2-i); wherein the control device is further designed to process the received second sensor data during a parking operation of the vehicle; and wherein the control device is designed in accordance with Automotive Safety Integrity Level D, ASIL D. a control device which is designed to drive a first vehicle-side system using first sensor data; and a detection device which is designed to receive second sensor data from distance sensors (2-i); wherein the control device is further designed to process the received second sensor data during a parking operation of the vehicle; and wherein the control device is designed in accordance with Automotive Safety Integrity Level D, ASIL D.