mhurhangee/ep-ind-claims huggingface dataset:
A triphasic prosthetic device for repairing or replacing cartilage or cartilage like-tissue, characterised in comprising - a polymeric hollow body component with a number of highly oriented hollow bodies; - a base component of a synthetic ceramic to anchor said polymeric hollow body component in or onto an osteochondral environment and - at least one superficial layer comprising randomly oriented fibres provided on said polymeric hollow body component wherein said number of highly oriented hollow bodies of the polymeric hollow body component are aligned perpendicularly to the plane of the articulating surface to more than 50%. - a polymeric hollow body component with a number of highly oriented hollow bodies; - a base component of a synthetic ceramic to anchor said polymeric hollow body component in or onto an osteochondral environment and - at least one superficial layer comprising randomly oriented fibres provided on said polymeric hollow body component
A yarn feeder for flat knitting machines located on a yarn feeder guide track and movable transversely thereon, comprising: a baseboard slidably coupled on the yarn feeder guide track; a first rocking arm and a second rocking arm including respectively a first pivot end and a second pivot end coupled with the baseboard and a first pressed end and a second pressed end to receive a horizontal force to swing respectively in a skew manner about the first pivot end and the second pivot end serving as fulcrums; and a yarn feeding unit including a yarn feeding arm located between the first rocking arm and the second rocking arm and a first linkage bar hinged on the yarn feeding arm and the first rocking arm to move simultaneously and a second linkage bar hinged on the yarn feeding arm and the second rocking arm to move simultaneously, the yarn feeding arm including a yarn feeding position in which the first pressed end or the second pressed end is not swung and at least one yarn feeding stopping position in which the first pressed end or the second pressed end is swung by receiving the horizontal force to drive the yarn feeding arm to skew simultaneously via the first linkage bar and the second linkage bar. a baseboard slidably coupled on the yarn feeder guide track; a first rocking arm and a second rocking arm including respectively a first pivot end and a second pivot end coupled with the baseboard and a first pressed end and a second pressed end to receive a horizontal force to swing respectively in a skew manner about the first pivot end and the second pivot end serving as fulcrums; and a yarn feeding unit including a yarn feeding arm located between the first rocking arm and the second rocking arm and a first linkage bar hinged on the yarn feeding arm and the first rocking arm to move simultaneously and a second linkage bar hinged on the yarn feeding arm and the second rocking arm to move simultaneously, the yarn feeding arm including a yarn feeding position in which the first pressed end or the second pressed end is not swung and at least one yarn feeding stopping position in which the first pressed end or the second pressed end is swung by receiving the horizontal force to drive the yarn feeding arm to skew simultaneously via the first linkage bar and the second linkage bar.
A method for determining, by a user equipment, UE, a transmission power of a random access preamble in a wireless communication system, the method comprising: calculating a downlink, DL, pathloss estimation for a DL component carrier, CC, of first and second secondary cells, SCells, respectively, wherein the first and second SCells belong to a cell group not containing a primary cell, PCell; determining first and second transmission powers of first and second random access preambles by using the DL pathloss estimation for the DL CC of the first and second SCells, respectively; and transmitting the first and second random access preambles to a base station on an uplink, UL, CC of the first and second SCells, respectively, by using the first and second transmission powers of the first and second random access preambles, respectively, wherein linkage between a carrier frequency of the DL CC of the first and second SCells and a carrier frequency of the UL CC of the first and second SCells is indicated by system information, respectively, and wherein the first and second transmission powers of the first and second random access preambles are determined according to Equation below: P PRACH = min P CMAX, c i, PREAMBLE_RECEIVED_TARGET_POWER + PL c _ dBm, where P PRACH denotes the first and second transmission powers of the first and second random access preambles, P CMAX,c (i) denotes a configured UE transmission power for subframe i of the serving cell, PREAMBLE_RECEIVED_TARGET_POWER denotes a target preamble received power, and PL c denotes the DL pathloss estimation for the DL CC of the first and second SCells respectively. calculating a downlink, DL, pathloss estimation for a DL component carrier, CC, of first and second secondary cells, SCells, respectively, wherein the first and second SCells belong to a cell group not containing a primary cell, PCell; determining first and second transmission powers of first and second random access preambles by using the DL pathloss estimation for the DL CC of the first and second SCells, respectively; and transmitting the first and second random access preambles to a base station on an uplink, UL, CC of the first and second SCells, respectively, by using the first and second transmission powers of the first and second random access preambles, respectively,
A method for machine measurement of an NC processing machine, wherein a laser interferometer having a beam generator and beam detector is provided, as well as at least one measuring optics which interacts with the laser interferometer and is especially formed as a reflector, and wherein laser interference measurements that are always aligned with measurement optics are carried out for machine measurement, especially distance measurements, characterized in that - the processing machine comprises a machine head which is especially formed as a fork head, wherein the machine head is associated with a mechanical and electrical spindle changing interface for accommodating a motor spindle, - the laser interferometer is substituted in the machine head for the motor spindle via an interface corresponding to the spindle changing interface for machine measurement, and - the laser interferometer substituted for the motor spindle is aligned via the spindle changing interface associated with the machine head and by means of the machine axes (4 to 8) for the laser interference measurements. - the processing machine comprises a machine head which is especially formed as a fork head, wherein the machine head is associated with a mechanical and electrical spindle changing interface for accommodating a motor spindle, - the laser interferometer is substituted in the machine head for the motor spindle via an interface corresponding to the spindle changing interface for machine measurement, and - the laser interferometer substituted for the motor spindle is aligned via the spindle changing interface associated with the machine head and by means of the machine axes (4 to 8) for the laser interference measurements.
Method for operating a particle sensor comprising a laser module, which comprises a laser, and a detector configured for detecting thermal radiation, an optical element arranged in the beam path of the laser of the laser module, and a detector, wherein the optical element is configured to focus laser light emanating from the laser module to a spot in order to excite a particle to emit light at the location of the spot, and wherein the detector is arranged in the particle sensor in such a way that it detects radiation emanating from the spot, wherein the output signals of the detector are subjected to filtering, by which output signals generated by insufficiently heated particles are excluded from a further evaluation, characterized in that the filtering is effected in such a way that peaks having a characteristic double peak structure are excluded from the further evaluation, wherein the characteristic double peak structure is recognized by means of a signal processing method, wherein the signal processing method is effected using pattern recognition by means of artificial intelligence, or fitting of a curve of the double peak structure to a sample curve shape, or by algorithms for finding high points of the double peak structure and for evaluating a temporal spacing of the high points, wherein the filtering is based on an evaluation of the temporal spacing of peaks in the output signal of the detector, wherein a first peak is detected in the output signal of the detector, and a decision as to whether the detected first peak is counted as an event indicating a particle is dependent on whether a further peak is detected in the output signal of the detector within a predefined first time duration t1, which begins with the detection of the first peak.
Seat, characterized in that it comprises a main drum element comprising a main shell closed at one end by a batter head, the main shell being secured to at least one leg that ends at the base of same with a foot, and ends at the top of same with a seat part, the seat also comprising an offset main pedal actuating a main percussion means facing the batter head, wherein the main shell is traversed, through two holes, by a leg.
Hook element for connecting a base element with a column in a rack system, wherein the hook element is formed of at least two sheet metal parts (20, 30) in a layered configuration; wherein the upper side of the hook element is formed by the upper side of a first sheet metal part, while the lower side of the hook element is formed by the lower side of a second sheet metal part, wherein a front portion of the hook element is configured such as to be fixed in the base element, and a back portion of the hook element is configured such as to be engaged with a hole which is open towards the bottom and provided at the lower end of the front side of the column, and so to be fixed to the column, wherein side parts (21, 22) of the first sheet metal part and side parts (31, 32) of the second sheet metal part, respectively forming part of the back portion, are flapped upwards and downwards, respectively, in order to allow the engagement of the back portion into an accordingly shaped hole in the column, and characterized in that the front portion comprises a throughhole extending through the at least two sheet metal parts and provided with a thread for allowing a foot shaft of a foot of the base element with an appropriate thread to be screwed into it.
A method for automatically establishing multi-participant interactions and/or conference calls among users of mobile devices, comprising the steps of: a) installing an interaction establishing application on the mobile device of each participating user: b) receiving for each user, by said application, phone numbers of other users defined as his friends; c) receiving for each user, by said application, a list of predetermined triggers being conditions for initiating an interaction between users; d) constantly monitoring, by said application, the location of each user's mobile device; and e) upon detecting that one or more of said triggers are met, automatically initiating one or more interactions between users that comply with the triggers that are met; characterized by that: wherein a trigger is created in response to an event selected from the following group: a) a user entering a predefined stationary geographical zone being the area surrounding of a specific Point of Interest, POI; b) encountering one or more friends that entered a virtual zone that is centered at the location of a first user and moves with said first user anywhere. a) installing an interaction establishing application on the mobile device of each participating user: b) receiving for each user, by said application, phone numbers of other users defined as his friends; c) receiving for each user, by said application, a list of predetermined triggers being conditions for initiating an interaction between users; d) constantly monitoring, by said application, the location of each user's mobile device; and e) upon detecting that one or more of said triggers are met, automatically initiating one or more interactions between users that comply with the triggers that are met; a) a user entering a predefined stationary geographical zone being the area surrounding of a specific Point of Interest, POI; b) encountering one or more friends that entered a virtual zone that is centered at the location of a first user and moves with said first user anywhere.
A method for transmitting scheduling information, comprising: determining, by a base station, a group to which at least one user equipment belongs; sending, by the base station, a radio resource control message to each of the at least one user equipment, wherein the radio resource control message comprises group information of the group, and the group information of the group comprises a group identity and each position of the at least one user equipment in the group; encapsulating, by the base station, scheduling information of each scheduled user equipment in the group, into a media access control, MAC, control element, CE, in a MAC protocol data unit, PDU, when the base station is ready to transmit the scheduling information to the at least one user equipment in the group, wherein the header of the MAC PDU or a MAC CE in the MAC PDU comprises a bitmap indication used to indicate the scheduled user equipments in the group and the sequence of the bitmap indication is related to the positions of the at least one user equipment in the group; and sending, by the base station, control signaling to the scheduled user equipments through a control channel, wherein the control signaling is used to schedule the MAC PDU. determining, by a base station, a group to which at least one user equipment belongs; sending, by the base station, a radio resource control message to each of the at least one user equipment, wherein the radio resource control message comprises group information of the group, and the group information of the group comprises a group identity and each position of the at least one user equipment in the group; encapsulating, by the base station, scheduling information of each scheduled user equipment in the group, into a media access control, MAC, control element, CE, in a MAC protocol data unit, PDU, when the base station is ready to transmit the scheduling information to the at least one user equipment in the group, wherein the header of the MAC PDU or a MAC CE in the MAC PDU comprises a bitmap indication used to indicate the scheduled user equipments in the group and the sequence of the bitmap indication is related to the positions of the at least one user equipment in the group; and sending, by the base station, control signaling to the scheduled user equipments through a control channel, wherein the control signaling is used to schedule the MAC PDU.
An aqueous adhesive composition comprising: emulsion polymer of a monomer mixture comprising vinyl-based monomers, (meth)acrylic acid-based monomers, (meth)acrylic acid ester-based monomers comprising C1-14 alkyl groups, and (meth)acryl ester-based monomers comprising hydroxyl groups; and a cyclic ether compound comprising two or more hydroxyl groups -OH in the molecule and having a molecular weight of 75 to 200 g/mol. emulsion polymer of a monomer mixture comprising vinyl-based monomers, (meth)acrylic acid-based monomers, (meth)acrylic acid ester-based monomers comprising C1-14 alkyl groups, and (meth)acryl ester-based monomers comprising hydroxyl groups; and a cyclic ether compound comprising two or more hydroxyl groups -OH in the molecule and having a molecular weight of 75 to 200 g/mol.
A method for reprocessing a balloon endoscope, the method comprising the steps of: providing the balloon endoscope, the balloon endoscope includes a balloon at its forward portion, which is sealingly mounted over an outer sheath of the balloon endoscope, with an interior volume of the balloon in fluid communication with an interior volume of the balloon endoscope via at least one aperture formed in the outer sheath of the balloon endoscope; deflating the balloon of the balloon endoscope to a negative pressure state following clinical use thereof by applying a vacuum to said interior volume of the balloon endoscope to hold the balloon in sealing engagement with said at least one aperture so as to ensure that any reprocessing fluids that might somehow enter the interior volume of balloon from the outside during reprocessing do not enter the interior volume of the balloon endoscope; and thereafter maintaining the interior volume of the balloon in the negative pressure state during at least part of reprocessing said balloon endoscope. providing the balloon endoscope, the balloon endoscope includes a balloon at its forward portion, which is sealingly mounted over an outer sheath of the balloon endoscope, with an interior volume of the balloon in fluid communication with an interior volume of the balloon endoscope via at least one aperture formed in the outer sheath of the balloon endoscope; deflating the balloon of the balloon endoscope to a negative pressure state following clinical use thereof by applying a vacuum to said interior volume of the balloon endoscope to hold the balloon in sealing engagement with said at least one aperture so as to ensure that any reprocessing fluids that might somehow enter the interior volume of balloon from the outside during reprocessing do not enter the interior volume of the balloon endoscope; and thereafter maintaining the interior volume of the balloon in the negative pressure state during at least part of reprocessing said balloon endoscope.
A method for communications at a device, comprising: sampling, during a first time period, a first analog signal in accordance with a first sampling range and a sampling resolution step size over the first sampling range; outputting, during the first time period, a first digital sequence based at least in part on sampling the first analog signal during the first time period; adapting, based at least in part on a metric of interference associated with the device, the first sampling range to a second sampling range, wherein a sampling resolution step size over the second sampling range changes no more than 10% from the sampling resolution step size over the first sampling range; sampling, during a second time period, a second analog signal in accordance with the second sampling range; and outputting, during the second time period and based at least in part on the sampling, a second digital sequence based at least in part on the second analog signal. sampling, during a first time period, a first analog signal in accordance with a first sampling range and a sampling resolution step size over the first sampling range; outputting, during the first time period, a first digital sequence based at least in part on sampling the first analog signal during the first time period; adapting, based at least in part on a metric of interference associated with the device, the first sampling range to a second sampling range, wherein a sampling resolution step size over the second sampling range changes no more than 10% from the sampling resolution step size over the first sampling range; sampling, during a second time period, a second analog signal in accordance with the second sampling range; and outputting, during the second time period and based at least in part on the sampling, a second digital sequence based at least in part on the second analog signal.
A computer-implemented method, comprising: obtaining sensor data from one or more sensors observing one or more aspects of an environment of a vehicle, wherein the one or more sensors are operationally associated with the vehicle, and wherein the vehicle is configured to operate in an autonomous mode; using an inference system to infer, based on the sensor data, at least one aspect of the environment of the vehicle that is not observed by the one or more sensors; determining a confidence level based on the at least one inferred aspect of the environment of the vehicle, at least one previous inference, and at least one previous outcome; and controlling the vehicle in the autonomous mode based on the at least one inferred aspect of the environment of the vehicle and the confidence level. obtaining sensor data from one or more sensors observing one or more aspects of an environment of a vehicle, wherein the one or more sensors are operationally associated with the vehicle, and wherein the vehicle is configured to operate in an autonomous mode; using an inference system to infer, based on the sensor data, at least one aspect of the environment of the vehicle that is not observed by the one or more sensors; determining a confidence level based on the at least one inferred aspect of the environment of the vehicle, at least one previous inference, and at least one previous outcome; and controlling the vehicle in the autonomous mode based on the at least one inferred aspect of the environment of the vehicle and the confidence level.
Steam cooking device having - a cooking compartment with a cooking compartment through-opening and a valve connected to the cooking compartment through-opening and - a steam line which has an end which is open to the ambient area and can be shut off by means of a steam valve, - said steam valve being designed to be open in a turned-off state or in a hot air mode of the steam cooking device and to be closed in a steam-treatment mode of the steam cooking device, characterised, in that - the valve is a three-way valve with three ports (A, B, AB), - whose first, open-flow port is connected to the cooking compartment through-opening, - whose second, variable-flow port is open to an ambient area of the cooking compartment and - whose third, variable-flow port is connected to at least one shut-off valve (26, 27). - a cooking compartment with a cooking compartment through-opening and a valve connected to the cooking compartment through-opening and - a steam line which has an end which is open to the ambient area and can be shut off by means of a steam valve, - said steam valve being designed to be open in a turned-off state or in a hot air mode of the steam cooking device and to be closed in a steam-treatment mode of the steam cooking device, - the valve is a three-way valve with three ports (A, B, AB), - whose first, open-flow port is connected to the cooking compartment through-opening, - whose second, variable-flow port is open to an ambient area of the cooking compartment and - whose third, variable-flow port is connected to at least one shut-off valve (26, 27).