mhurhangee/patent-ind-claim-en huggingface dataset:
A robotic surgical station , comprising: ▪ a base , configured to be rested on the ground; ▪ a partial-ring shaped structure , slidably coupled to said base so as to be rotatable about a roll axis (R) orthogonal to a circumferential profile defined by said partial-ring shaped structure and passing through a center (C) of said circumferential profile; ▪ an operating table , restrained to a first arcuate segment of said partial-ring shaped structure at a first mount ; ▪ a plurality of robotic arms , restrained to a second arcuate segment of said partial-ring shaped structure at a second mount and configured to be remotely actuated by a surgeon, wherein said second arcuate segment of said partial-ring shaped structure is rotatable sideways about a longitudinal axis (L) orthogonal to said roll axis (R) with respect to said first arcuate segment in such a way to allow full access to the operating table . ▪ a base , configured to be rested on the ground; ▪ a partial-ring shaped structure , slidably coupled to said base so as to be rotatable about a roll axis (R) orthogonal to a circumferential profile defined by said partial-ring shaped structure and passing through a center (C) of said circumferential profile; ▪ an operating table , restrained to a first arcuate segment of said partial-ring shaped structure at a first mount ; ▪ a plurality of robotic arms , restrained to a second arcuate segment of said partial-ring shaped structure at a second mount and configured to be remotely actuated by a surgeon,
An augmentation device (100, 100', 100") comprising an annular cone (200, 200', 200"), which surrounds a channel extending through the cone (200, 200', 200") from a proximal cone end (210, 210', 210") to a distal cone end (220, 220', 220") of the cone (200, 200', 200"), and which consists of a biocompatible polymer by at least 50 volume percent relative to the total volume of the cone (200, 200', 200"), characterized in that the cone (200, 200', 200") is divided into annular cone segments (250, 250', 250") by at least three radially circumferential grooves (400, 400', 400") in a cone lateral surface (230, 230', 230") opposite the channel , the grooves (400, 400', 400") having a groove depth of at least 1 mm and a groove width of at least 1 mm and forming sawing guides to adapt a cone size of the cone (200, 200', 200") by separating one or more cone segments (250, 250', 250"). an annular cone (200, 200', 200"), which surrounds a channel extending through the cone (200, 200', 200") from a proximal cone end (210, 210', 210") to a distal cone end (220, 220', 220") of the cone (200, 200', 200"), and which consists of a biocompatible polymer by at least 50 volume percent relative to the total volume of the cone (200, 200', 200"), characterized in that the cone (200, 200', 200") is divided into annular cone segments (250, 250', 250") by at least three radially circumferential grooves (400, 400', 400") in a cone lateral surface (230, 230', 230") opposite the channel , the grooves (400, 400', 400") having a groove depth of at least 1 mm and a groove width of at least 1 mm and forming sawing guides to adapt a cone size of the cone (200, 200', 200") by separating one or more cone segments (250, 250', 250").
A method for producing non-woven elements, comprising: - depositing on a movable surface loose unbound fibers and graphene and/or graphene oxide, and - binding together said loose unbound fibers so as to form a structure of bound fibers in which at least graphene and/or graphene oxide is incorporated, wherein the loose unbound fibers are deposited onto said movable surface so as to form an array of blanks of discrete elements (B). - depositing on a movable surface loose unbound fibers and graphene and/or graphene oxide, and - binding together said loose unbound fibers so as to form a structure of bound fibers in which at least graphene and/or graphene oxide is incorporated,
A method of manufacturing a microelectromechanical system (MEMS) or nanoelectromechanical system (NEMS) composed of a mechanical device and a substrate comprising: a) depositing sacrificial silicon oxide between the mechanical device and the substrate; b) providing a silicon nitride layer (11, 13 15) at one or more location selected from the group consisting of i) between the substrate and the sacrificial silicon oxide; ii) between the sacrificial silicon oxide and the device; and iii) on the device; c) introducing vapor hydrofluoride (VHF) under conditions to simultaneously i) remove at least a portion of the sacrificial silicon oxide; and ii) convert at least a portion of the silicon nitride to ammonium hexafluorosilicate to provide a temporary support, shim, wedge, or tether which limits device movement; d) subliming the ammonium hexafluorosilicate under pressure and temperature conditions which avoid liquid formation, characterised in that , the temporary ammonium hexafluorosilicate support, shim, wedge, or tether is not removed by sublimation until after one or more intermediate steps are conducted, the intermediate steps selected from dicing, packaging, and metallization, thereby preventing movement during the one or more intermediate steps. a) depositing sacrificial silicon oxide between the mechanical device and the substrate; b) providing a silicon nitride layer (11, 13 15) at one or more location selected from the group consisting of i) between the substrate and the sacrificial silicon oxide; ii) between the sacrificial silicon oxide and the device; and iii) on the device; i) between the substrate and the sacrificial silicon oxide; ii) between the sacrificial silicon oxide and the device; and iii) on the device; c) introducing vapor hydrofluoride (VHF) under conditions to simultaneously i) remove at least a portion of the sacrificial silicon oxide; and ii) convert at least a portion of the silicon nitride to ammonium hexafluorosilicate to provide a temporary support, shim, wedge, or tether which limits device movement; i) remove at least a portion of the sacrificial silicon oxide; and ii) convert at least a portion of the silicon nitride to ammonium hexafluorosilicate to provide a temporary support, shim, wedge, or tether which limits device movement; d) subliming the ammonium hexafluorosilicate under pressure and temperature conditions which avoid liquid formation,
A contrast sensor and a detection object having an identification marking , wherein the contrast sensor is configured for evaluating identification markings on the detection objects , having at least two light transmitters and at least one light receiver , wherein the light receiver has a single photodiode; having a control and evaluation unit for evaluating the light receiver signal of the light receiver ; and having an output for a sensor signal that is formed by the control and evaluation unit on the basis of the light receiver signal , wherein the detection object has lettering as the identification marking ; an illumination field is projected by the light transmitter onto a region of the identification marking narrow in the direction of movement; and the control and evaluation unit is configured to compare a reception signal sequence having a plurality of contrast transitions with a stored reception signal sequence and the sensor signal can be output in dependence on the comparison result; wherein the light transmitters are arranged in a row and a geometry of the illumination field can be adapted by a switching in or out of light transmitters characterized in that the width of the illumination field has a structural size that at most corresponds to the structural size of the identification marking and at least corresponds to a dot or line thickness of the identification marking, with the structural size of the marking being the width or length of letters, numbers, or digits, with a detection accuracy, that is the degree of agreement between the reception signal sequence and a stored reception signal sequence, being set, and with an adaptation of the detection accuracy taking place over different sensitivity stages after a teaching of a reception signal sequence.
A computer-implemented method, comprising: receiving a first plurality of augmented reality, AR, annotations to display on a user device; determining a cognitive demand score for each of the received AR annotations; assigning each of the AR annotations to one of a first plurality of annotation display groups, wherein assigning each of the AR annotations to one of the first plurality of annotation display groups comprises balancing the aggregate cognitive demand scores across the first plurality of annotation display groups, wherein balancing aggregate cognitive demand scores across the first plurality of annotation display groups comprises checking whether an AR annotation occludes or is occluded by an AR annotation assigned to an annotation display group and assigning the AR annotation to an annotation display group such that the AR annotation neither occludes nor is occluded by any other AR annotation assigned to the same annotation display group; and sequentially sending, to a display, each one of the first plurality of annotation display groups such that AR annotations in the same annotation display group are displayed at the same time, and AR annotations in different annotation display groups are displayed at different times. receiving a first plurality of augmented reality, AR, annotations to display on a user device; determining a cognitive demand score for each of the received AR annotations; assigning each of the AR annotations to one of a first plurality of annotation display groups, wherein assigning each of the AR annotations to one of the first plurality of annotation display groups comprises balancing the aggregate cognitive demand scores across the first plurality of annotation display groups, wherein balancing aggregate cognitive demand scores across the first plurality of annotation display groups comprises checking whether an AR annotation occludes or is occluded by an AR annotation assigned to an annotation display group and assigning the AR annotation to an annotation display group such that the AR annotation neither occludes nor is occluded by any other AR annotation assigned to the same annotation display group; and sequentially sending, to a display, each one of the first plurality of annotation display groups such that AR annotations in the same annotation display group are displayed at the same time, and AR annotations in different annotation display groups are displayed at different times.
A method for transmitting and receiving data using non-orthogonal multiple access, NOMA, in a wireless communication system, the method performed by an enhanced Node B, eNB, the method comprising: configuring (S1310) a first modulation method and first transmission power in a first signal to be transmitted to a first UE; configuring (S1320) a second modulation method and second transmission power in a second signal to be transmitted to a second UE; transmitting (S1330) the first signal and the second signal through an identical time-frequency resource; and transmitting control information related to a cancellation of interference generated due to the first signal to the second UE, the method being characterized in that : the control information includes power information related to a change in a power size of a modulation symbol of the second signal modulated by the second modulation method and further includes at least one of phase information related to a change in a phase of the modulation symbol of the second signal modulated by the second modulation method, or sequence information related to a random sequence for scrambling the modulation symbol of the second signal modulated by the second modulation method, and wherein the control information is transmitted only when the first transmission power and the second transmission power are identical. configuring (S1310) a first modulation method and first transmission power in a first signal to be transmitted to a first UE; configuring (S1320) a second modulation method and second transmission power in a second signal to be transmitted to a second UE; transmitting (S1330) the first signal and the second signal through an identical time-frequency resource; and transmitting control information related to a cancellation of interference generated due to the first signal to the second UE, the method being characterized in that : the control information includes power information related to a change in a power size of a modulation symbol of the second signal modulated by the second modulation method and further includes at least one of phase information related to a change in a phase of the modulation symbol of the second signal modulated by the second modulation method, or sequence information related to a random sequence for scrambling the modulation symbol of the second signal modulated by the second modulation method, and wherein the control information is transmitted only when the first transmission power and the second transmission power are identical. the control information includes power information related to a change in a power size of a modulation symbol of the second signal modulated by the second modulation method and further includes at least one of phase information related to a change in a phase of the modulation symbol of the second signal modulated by the second modulation method, or sequence information related to a random sequence for scrambling the modulation symbol of the second signal modulated by the second modulation method, and wherein the control information is transmitted only when the first transmission power and the second transmission power are identical.
A toothbrush comprising: a body comprising a handle portion and a head portion ; a plurality of tooth cleaning elements extending from the head portion ; a store of an oral care material in the body ; an applicator coupled to the body , the applicator fluidly coupled to the store of the oral care material; and a bite guard protruding from the body adjacent the applicator , wherein the applicator comprises a first applicator portion and a second applicator portion , the bite guard located between the first and second applicator portions ; wherein the applicator comprises an exposed surface that comprises a contour that corresponds to a collection of facial surfaces of a user's teeth. a body comprising a handle portion and a head portion ; a plurality of tooth cleaning elements extending from the head portion ; a store of an oral care material in the body ; an applicator coupled to the body , the applicator fluidly coupled to the store of the oral care material; and a bite guard protruding from the body adjacent the applicator , wherein the applicator comprises a first applicator portion and a second applicator portion , the bite guard located between the first and second applicator portions ; wherein the applicator comprises an exposed surface that comprises a contour that corresponds to a collection of facial surfaces of a user's teeth.
An apparatus for assisting the mobility of a visually impaired person in road traffic, comprising - a wireless communication device which is to be carried or is carried by the person and is equipped at least with a first data transmitter, a first data receiver and a GPS receiver , - several blind guiding devices for a road traffic system with several pedestrian crossings which are each equipped with one of the blind guiding devices , the respective blind guiding device being equipped at least with an acoustic source , a position memory , a second data receiver and a second data transmitter , wherein at least one of the blind guiding devices is additionally equipped with a second GPS receiver , - a comparator which is designed to compare the position data of the GPS receiver of the communication device with the position data of the second GPS receiver or the content of the position memory of the respective blind guiding device, wherein the once-determined relative position of the individual blind guiding devices to each other is stored in their position memories as an offset and only one or a part of the blind guiding devices is configured to measure the position of the communication device by comparison of the position data of the GPS receiver of the communication device with the position data of the GPS receiver of the respective blind guiding device and then to transmit the position to all other blind guiding devices , wherein all other blind guiding devices are configured to include the stored offset into the distance calculation and to determine the distance of the communication device of the visually impaired. - a wireless communication device which is to be carried or is carried by the person and is equipped at least with a first data transmitter, a first data receiver and a GPS receiver , - several blind guiding devices for a road traffic system with several pedestrian crossings which are each equipped with one of the blind guiding devices , the respective blind guiding device being equipped at least with an acoustic source , a position memory , a second data receiver and a second data transmitter , wherein at least one of the blind guiding devices is additionally equipped with a second GPS receiver , - a comparator which is designed to compare the position data of the GPS receiver of the communication device with the position data of the second GPS receiver or the content of the position memory of the respective blind guiding device, wherein the once-determined relative position of the individual blind guiding devices to each other is stored in their position memories as an offset and only one or a part of the blind guiding devices is configured to measure the position of the communication device by comparison of the position data of the GPS receiver of the communication device with the position data of the GPS receiver of the respective blind guiding device and then to transmit the position to all other blind guiding devices , wherein all other blind guiding devices are configured to include the stored offset into the distance calculation and to determine the distance of the communication device of the visually impaired.
Charging station for electric vehicles with - a ground foundation and - a column arranged above the ground foundation wherein, - the ground foundation and the column are formed in one piece within a single assembly and - the column comprises an opening which runs transversely to the longitudinal axis of the column and extends into the interior of the column, wherein the opening is arranged for accommodating charging electronics wherein the opening is arranged as receptacle for the charging electronics and locking means for the charging electronics are provided at the opening . - a ground foundation and - a column arranged above the ground foundation wherein, - the ground foundation and the column are formed in one piece within a single assembly and - the column comprises an opening which runs transversely to the longitudinal axis of the column and extends into the interior of the column, wherein the opening is arranged for accommodating charging electronics wherein the opening is arranged as receptacle for the charging electronics and locking means for the charging electronics are provided at the opening .
A method for the manufacture of a coated steel substrate, comprising the successive following steps: A. The provision of a steel substrate having the following compositions in weight percent: 0.31 ≤ C ≤ 1.2%, 0.1 ≤ Si ≤ 1.7%, 0.7 ≤ Mn ≤ 3.0%, P ≤ 0.01%, S<_0.1%, Cr ≤ 0.5%, Ni ≤ 0.5%, Mo ≤ 0.1%, and on a purely optional basis, one or more elements such as Nb ≤ 0.05 %, B ≤ 0.003%, Ti ≤ 0.06%, Cu ≤ 0.1%, Co ≤ 0.1%, N ≤ 0.01%, V ≤ 0.05%, the remainder of the composition being made of iron and inevitable impurities resulting from the elaboration. B. The coating deposition using an aqueous mixture comprising from 1 to 60g/L of nanographite flakes having a lateral size between 1 and 60μm and from 150 to 250g/L of binder, wherein the binder is sodium silicate or the binder includes aluminum sulfate and an additive being alumina, to form a coating having a thickness comprised between 10 and 250μm , C. Optionally, the drying of the coated steel substrate obtained in step B). A. The provision of a steel substrate having the following compositions in weight percent: 0.31 ≤ C ≤ 1.2%, 0.1 ≤ Si ≤ 1.7%, 0.7 ≤ Mn ≤ 3.0%, P ≤ 0.01%, S<_0.1%, Cr ≤ 0.5%, Ni ≤ 0.5%, Mo ≤ 0.1%, and on a purely optional basis, one or more elements such as Nb ≤ 0.05 %, B ≤ 0.003%, Ti ≤ 0.06%, Cu ≤ 0.1%, Co ≤ 0.1%, N ≤ 0.01%, V ≤ 0.05%, the remainder of the composition being made of iron and inevitable impurities resulting from the elaboration. 0.31 ≤ C ≤ 1.2%, 0.1 ≤ Si ≤ 1.7%, 0.7 ≤ Mn ≤ 3.0%, P ≤ 0.01%, S<_0.1%, Cr ≤ 0.5%, Ni ≤ 0.5%, Mo ≤ 0.1%, Nb ≤ 0.05 %, B ≤ 0.003%, Ti ≤ 0.06%, Cu ≤ 0.1%, Co ≤ 0.1%, N ≤ 0.01%, V ≤ 0.05%, B. The coating deposition using an aqueous mixture comprising from 1 to 60g/L of nanographite flakes having a lateral size between 1 and 60μm and from 150 to 250g/L of binder, wherein the binder is sodium silicate or the binder includes aluminum sulfate and an additive being alumina, to form a coating having a thickness comprised between 10 and 250μm , C. Optionally, the drying of the coated steel substrate obtained in step B).
An integrated high-frequency generator system containing: a magnetic resonance magnet , configured to generate a magnetic field, the magnet having an application zone for positioning a magnetic resonance sample, and high-frequency generator zone , each zone in the magnetic field of said magnetic resonance magnet; and a high-frequency generator disposed in said high-frequency generator zone and configured to generate high frequency microwave or terahertz radiation in said high-frequency generator zone utilizing an electron beam of the high-frequency generator and the magnetic field of said magnetic resonance magnet . a magnetic resonance magnet , configured to generate a magnetic field, the magnet having an application zone for positioning a magnetic resonance sample, and high-frequency generator zone , each zone in the magnetic field of said magnetic resonance magnet; and a high-frequency generator disposed in said high-frequency generator zone and configured to generate high frequency microwave or terahertz radiation in said high-frequency generator zone utilizing an electron beam of the high-frequency generator and the magnetic field of said magnetic resonance magnet .