mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic field stimulator device for Anatomic Biophysical Chondroprotection, in which means of current generation (7,18 and 20) are suitable for powering at least one solenoid to generate an electromagnetic field suitable to be directed on a part of the human body including cartilaginous tissue, said means of current generation (7, 18 and 20) supplies said solenoid with current (i (t)) having a waveform that includes the repetition of a linear ramp with a certain slope; said current (i (t)) causing the generation of an electromagnetic field that induces, a voltage (Vin) of markedly constant amplitude during the ramp-like linear growth period of said current (i (t)), characterized in that said means of current generation includes a table that contains a number of selectable maps, each of which implements a function f(t) that provides, for each value of a scanning signal sc in input, an output value Iout that expresses a target current intensity: said scanning signal being defined by timer devices (4 and 5); each function f(t) represents a ramp with a certain slope that provides, for increasing values of said scanning signal, linearly increasing intensity values for the target current Iout; at the end of scanning the function, the function is scanned again starting from the beginning of the ramp; the simulator device comprising feedback system (28,29, 30,12 and 14) that performs continuous monitoring of the current (i)) present in said solenoid, comparing a measured current value (Imis) with said output value Iout (7, Iout); in cases of variances between the two said values, due to changes in impedance of said solenoid, said feedback system automatically takes care of adjusting the value of said current (i(t)) feeding said solenoid in order to maintain the waveform of said induced voltage (Vin) unaltered; said feedback system (28,29, 30,12 and 14) includes: detector devices (28 and 29) suitable for supplying said measured current value (Imis), and subtraction devices suitable for generating an error signal in function of said measured current value (Imis) and of said output value Iout (7, Iout); generator circuit (18, 20) including a pulse width modulator that receives said error signal in input and generates an alternating analogue power signal (S(t)) having a fixed frequency and variable duty cycle in function of said error signal, said variable duty cycle being suitable for regulating the intensity of said current (i(t)).
A tibial trial system (101,200,300,600) comprising: a base component (105, 603) having an upper surface and a lower surface; an articulating component (103, 601) having a superior surface and an inferior surface; and a rotary joint (107, 605) extending between the upper surface of the base (105, 603) and the inferior surface of the articulating component (103, 601) so that said articulating component (103, 601) can freely rotate relative to the base component (105, 603); characterised by at least one rotation sensor positioned on the upper surface and a processor to process a set of rotational data supplied from said at least one rotation sensor. a base component (105, 603) having an upper surface and a lower surface; an articulating component (103, 601) having a superior surface and an inferior surface; and a rotary joint (107, 605) extending between the upper surface of the base (105, 603) and the inferior surface of the articulating component (103, 601) so that said articulating component (103, 601) can freely rotate relative to the base component (105, 603); characterised by at least one rotation sensor positioned on the upper surface and a processor to process a set of rotational data supplied from said at least one rotation sensor.
A method for handing over an already established wireless communication coupling between a first mobile terminal and a first wireless communication capable device, in particular a home automation system, to a second mobile terminal, comprising the steps: a. Transmitting wireless communication coupling information concerning the wireless communication coupling between the first mobile terminal and the first wireless communication capable device to the second mobile terminal; b. thereafter, activating the already established wireless communication coupling between the first mobile terminal and the first wireless communication capable device by means of the first mobile terminal and putting the first wireless communication capable device into a coupling mode; c. thereafter, deactivating the already established wireless communication coupling between the first mobile terminal and the first wireless communication capable device; d. thereafter pairing the second mobile terminal with the first wireless communication enabled device while the first wireless communication enabled device is in pairing mode. a. Transmitting wireless communication coupling information concerning the wireless communication coupling between the first mobile terminal and the first wireless communication capable device to the second mobile terminal; b. thereafter, activating the already established wireless communication coupling between the first mobile terminal and the first wireless communication capable device by means of the first mobile terminal and putting the first wireless communication capable device into a coupling mode; c. thereafter, deactivating the already established wireless communication coupling between the first mobile terminal and the first wireless communication capable device; d. thereafter pairing the second mobile terminal with the first wireless communication enabled device while the first wireless communication enabled device is in pairing mode.
Operation monitoring method for monitoring a technical system, in particular a thermal system, in which, by means of a forecasting unit which is intended for calculating a future parameter which characterizes and/or describes operation of the technical system to be expected in the future, in at least one method step at least two detected operating parameters for determining the future parameter are processed, wherein in at least one method step a sequence of the at least two detected operating parameters is formed as a data string over a time sequence of operating states completed by the technical system, in particular the thermal system, wherein in at least one method step the sequence of the operating states is processed to form an analysis parameter, which is a characteristic variable and/or a code number of the sequence, wherein in at least one method step at least one controlling variable (20, 22, 24) dependent on a variation over time of the analysis parameter obtained from the sequence of operating states is output, characterized in that in at least one method step predefined subsequences of the sequence of operating states are assigned to at least two different functional units of the technical system, in particular the thermal system, and, depending on one of the assignments thereby brought about, the at least one controlling variable (20, 22) is output.
Method for the capture of data from at least one device (16.1, 16.2, 16.3), which is arranged in a first network having a high security requirement, in a second network having a low security requirement, by means of an apparatus containing a requesting unit, an eavesdropping unit, an evaluation unit and an alarm unit, having the method steps of: - requesting the data from the at least one device (16.1, 16.2, 16.3) according to a request profile by means of the requesting unit which is arranged inside the first network, - eavesdropping the data transmitted from the at least one device (16.1, 16.2, 16.3) to the requesting unit in response to the request inside the first network by means of the eavesdropping unit, which is arranged within the first network, and transmitting the data to the evaluation unit, which is arranged in the second network, - comparing the eavesdropped data with the data expected according to the request profile (17, 17') by means of the evaluation unit, and - providing an alarm signal by means of the alarm unit if the eavesdropped data differ from the data expected according to the request profile (17, 17'), the request profile (17, 17') containing predetermined requests and a timing scheme of when these requests are intended to be sent to the at least one device in the first network, the eavesdropping unit only being able to eavesdrop data transmitted in the first network and not being able to transmit any messages whatsoever to the devices (16.1, 16.2, 16.3) and also not being able to transmit any messages to the requesting unit, and the evaluation unit checking the eavesdropped data against a request profile, which corresponds to the request profile in the requesting unit, and forwarding only eavesdropped data which correspond to the request profile (17, 17') to a diagnostic computer arranged in the second network. - requesting the data from the at least one device (16.1, 16.2, 16.3) according to a request profile by means of the requesting unit which is arranged inside the first network, - eavesdropping the data transmitted from the at least one device (16.1, 16.2, 16.3) to the requesting unit in response to the request inside the first network by means of the eavesdropping unit, which is arranged within the first network, and transmitting the data to the evaluation unit, which is arranged in the second network, - comparing the eavesdropped data with the data expected according to the request profile (17, 17') by means of the evaluation unit, and - providing an alarm signal by means of the alarm unit if the eavesdropped data differ from the data expected according to the request profile (17, 17'),
A refractory object comprising: Al 2 O 3 at a content in a range of 70 wt% Al 2 O 3 to 94 wt% Al 2 O 3; SiO 2 at a content of at least 1.1 wt% and not greater than 7 wt% SiO 2; an additive at a content of at least 0.2 wt%, wherein the additive includes SrO, Ta 2 O 5, ZnO, or any combination thereof; an aluminum phase; a silica phase; wherein the silica phase is substantially uniformly dispersed throughout the aluminum phase within a body portion of the refractory object; wherein a creep rate of the refractory object is no greater than 1 x 10 -4 h -1, in particular no greater than 5.0 x 10 -5 h -1, wherein the creep rate is measured using a 4-point bending set-up at a temperature of approximately 1275°C for approximately 50 hours, wherein a stress of approximately 2MPa is applied, and wherein the refractory object comprises no greater than 0.3 wt% ZrO 2. Al 2 O 3 at a content in a range of 70 wt% Al 2 O 3 to 94 wt% Al 2 O 3; SiO 2 at a content of at least 1.1 wt% and not greater than 7 wt% SiO 2; an additive at a content of at least 0.2 wt%, wherein the additive includes SrO, Ta 2 O 5, ZnO, or any combination thereof; an aluminum phase; a silica phase; wherein the silica phase is substantially uniformly dispersed throughout the aluminum phase within a body portion of the refractory object; wherein a creep rate of the refractory object is no greater than 1 x 10 -4 h -1, in particular no greater than 5.0 x 10 -5 h -1, wherein the creep rate is measured using a 4-point bending set-up at a temperature of approximately 1275°C for approximately 50 hours, wherein a stress of approximately 2MPa is applied, and wherein the refractory object comprises no greater than 0.3 wt% ZrO 2.
A fruit harvesting beating machine head including a bar bearer that carries bars, characterized in that the bar bearer has flexible projections with holes, that interposed between the bar bearer and the bars, in which bars are fixed made of a material harder than that of the bar bearer and the flexible projections.
A skin treatment composition comprising a) salicylic acid; b) bakuchiol and (c) a dermatological acceptable carrier, wherein the bakuchiol (b) is (i) present as a purified or isolated material having a purity of at least 60% w/w or as a purified plant extract containing 1 to about 70% or more by weight bakuchiol based on the total weight of the extract and (ii) contains less than 0.1 wt% of furocoumarins and wherein the amount of bakuchiol present in the composition is at least its median inhibitory concentration on Propionibacterium acne amount and the amount of salicylic acid present in the composition is at least twice its MIC amount.
An intranasal composition comprising about 0.01 to about 0.45% w/v of methylcobalamin, gellan gum, and a permeation enhancer selected from lecithin and di-ethylene glycol monoethyl ether, wherein the composition forms an in-situ gel after intranasal administration.
A control system comprising: a controller configured to operate one or more robots (2B, 2C) in a real space based on an operation program; an environment information storage unit configured to store real environment information representing a state of the real space; an operation suspend unit configured to cause the controller to suspend an operation based on the operation program by the one or more robots (2B, 2C); an environment update unit configured to update the real environment information stored in the environment information storage unit according to the operation of the one or more robots (2B, 2C), a virtual controller configured to operate one or more virtual robots (2Bv, 2Cv) based on the operation program in a virtual space, the one or more virtual robots (2Bv, 2Cv) corresponding to the one or more robots (2B, 2C) respectively; a suspend state simulation unit configured to simulate, in the virtual space, a suspended state of the real space after suspension of the operation by the one or more robots (2B, 2C) based on the real environment information stored in the environment information storage unit; and a resumption simulator configured to cause the virtual controller to resume at least a part of the operation by the one or more virtual robots (2Bv, 2Cv) based on the operation program, in the virtual space in which the suspended state of the real space has been simulated. a controller configured to operate one or more robots (2B, 2C) in a real space based on an operation program; an environment information storage unit configured to store real environment information representing a state of the real space; an operation suspend unit configured to cause the controller to suspend an operation based on the operation program by the one or more robots (2B, 2C); an environment update unit configured to update the real environment information stored in the environment information storage unit according to the operation of the one or more robots (2B, 2C), a virtual controller configured to operate one or more virtual robots (2Bv, 2Cv) based on the operation program in a virtual space, the one or more virtual robots (2Bv, 2Cv) corresponding to the one or more robots (2B, 2C) respectively; a suspend state simulation unit configured to simulate, in the virtual space, a suspended state of the real space after suspension of the operation by the one or more robots (2B, 2C) based on the real environment information stored in the environment information storage unit; and a resumption simulator configured to cause the virtual controller to resume at least a part of the operation by the one or more virtual robots (2Bv, 2Cv) based on the operation program, in the virtual space in which the suspended state of the real space has been simulated.
A nonwoven fabric material comprising at least two nonwoven web layers, of which layers at least one is hydroentangled, where each individual nonwoven web layer has a basis weight of 20-100gsm and each individual nonwoven web layer has a composition of 50%-95% wood pulp and 5%-50% short cut man-made fibers and/or natural fiber having a length in the range 5mm to 15mm; and where the at least two nonwoven web layers have been joined together by means of a particle binder being a co-processed composite of microcrystalline cellulose and sodium carboxymethylcellulose.
Security element with excitation-dependent reciprocal effect with light in the non-visible wavelength range, comprising a substrate layer, and a security structure formed on the substrate layer, which is formed with a structural colour comprising microcapsules, in which colloidal particles are contained, which, by means of a structural excitation which comprises the formation of an electrical and/or magnetic field, can be arranged and/or rearranged in relation to one another in a crystal-like structure, wherein the crystal-like structure exhibits reflection and/or transmission properties for light that can be influenced and/or adjusted by way of the structural excitation, wherein the microcapsules, in the structurally-non-excited state, have an increased transmission capability and reduced reflection ability for at least one wavelength in the non-visible wavelength range, such that the security element, in the structurally-non-excited state, is transparent for the at least one wavelength in the non-visible wavelength range, and the microcapsules, in the structurally-excited state, in which, in the region of the microcapsules, an electrical field and/or a magnetic field exist(s), produced by the structural excitation, exhibit a reduced transmission capability and an increased reflection ability in comparison with the structurally-non-excited state.
A method for controlling a yaw offset (θ) of a plurality of wind turbines, the method comprises - providing a decision function arranged for providing an activation parameter (Px) for a specific wind turbine of the plurality of wind turbines dependent on two or more variables, where the two or more variables comprise: - a wind direction variable (Wx) indicative of the wind direction of the specific wind turbine, and - a wind variation variable (ΔWx) defining at least a wind variation range where yaw offset control is disabled and a wind variation range where yaw offset control is enabled, - enabling or disabling the yaw offset control of the specific wind turbine based on the activation parameter, wherein the enabled yaw offset control provides a yaw offset (θ) relative to a default yaw setting, and wherein the wind variation variable is determined from the most recent measurements obtained in a period of time prior to the enabling or disabling the yaw offset control. - providing a decision function arranged for providing an activation parameter (Px) for a specific wind turbine of the plurality of wind turbines dependent on two or more variables, where the two or more variables comprise: - a wind direction variable (Wx) indicative of the wind direction of the specific wind turbine, and - a wind variation variable (ΔWx) defining at least a wind variation range where yaw offset control is disabled and a wind variation range where yaw offset control is enabled, - a wind direction variable (Wx) indicative of the wind direction of the specific wind turbine, and - a wind variation variable (ΔWx) defining at least a wind variation range where yaw offset control is disabled and a wind variation range where yaw offset control is enabled, - enabling or disabling the yaw offset control of the specific wind turbine based on the activation parameter, wherein the enabled yaw offset control provides a yaw offset (θ) relative to a default yaw setting, and wherein the wind variation variable is determined from the most recent measurements obtained in a period of time prior to the enabling or disabling the yaw offset control.
A golf ball comprising: a core layer; a layer adjacent to and essentially enclosing the core layer; and a cover layer essentially enclosing the layer adjacent to the core layer; wherein the core layer comprises a blend comprising a first highly neutralized acid polymer having a first flexural modulus between about 1000 psi (6.89 MPa) and about 45,000 psi (310.26 MPa) and a second highly neutralized acid polymer having a second flexural modulus between about 1000 psi (6.89 MPa) and about 15,000 psi (103.42 MPa), wherein a relative proportion of the first highly neutralized acid polymer to the second highly neutralized acid polymer is between about 40:60 and about 60:40 and wherein the core layer has a compression deformation between about 3.5 mm to about 5.5 mm. a core layer; a layer adjacent to and essentially enclosing the core layer; and a cover layer essentially enclosing the layer adjacent to the core layer; wherein the core layer comprises a blend comprising a first highly neutralized acid polymer having a first flexural modulus between about 1000 psi (6.89 MPa) and about 45,000 psi (310.26 MPa) and a second highly neutralized acid polymer having a second flexural modulus between about 1000 psi (6.89 MPa) and about 15,000 psi (103.42 MPa), wherein a relative proportion of the first highly neutralized acid polymer to the second highly neutralized acid polymer is between about 40:60 and about 60:40 and wherein the core layer has a compression deformation between about 3.5 mm to about 5.5 mm. a cover layer essentially enclosing the layer adjacent to the core layer; wherein the core layer comprises a blend comprising a first highly neutralized acid polymer having a first flexural modulus between about 1000 psi (6.89 MPa) and about 45,000 psi (310.26 MPa) and a second highly neutralized acid polymer having a second flexural modulus between about 1000 psi (6.89 MPa) and about 15,000 psi (103.42 MPa), wherein a relative proportion of the first highly neutralized acid polymer to the second highly neutralized acid polymer is between about 40:60 and about 60:40 and wherein the core layer has a compression deformation between about 3.5 mm to about 5.5 mm.
A method of establishing connectivity between an off-board client device and an on-board computer network of an airplane comprising: connecting the off-board client device for communication with an off-board network; connecting a router for communication between the off-board network and the on-board network; creating a virtual private network for establishing communication between the router and the off-board client device; and connecting the off-board client device with an on-board server of the airplane via the router while maintaining connectivity between the off-board client device and the off-board network. connecting the off-board client device for communication with an off-board network; connecting a router for communication between the off-board network and the on-board network; creating a virtual private network for establishing communication between the router and the off-board client device; and connecting the off-board client device with an on-board server of the airplane via the router while maintaining connectivity between the off-board client device and the off-board network.
A milking system, comprising an automatic robotic milking device (2, 2') having a control unit and being configured to milk a dairy animal fully automatically to form a milking, wherein the milking device comprises: - an animal identification device which is operatively connected to the control unit for identifying the dairy animal and comprises an animal database with information about at least the composition of the milk from the dairy animal, and/or - a milk sensor device which is operatively connected to the control unit for collecting information about the composition of the milked milk, characterized in that the milking system further comprises a milk treatment device connected to the milking device for receiving and treating the milked milk of the milking, wherein the milk treatment device is connected to the control unit for receiving said information, and comprises a standardization device which is configured to standardize a fat content and/or a protein content of the milk of the milking, wherein the milk treatment device controls the standardization device in order to standardize the milk of the milking on the basis of the information associated with that milking. - an animal identification device which is operatively connected to the control unit for identifying the dairy animal and comprises an animal database with information about at least the composition of the milk from the dairy animal, and/or - a milk sensor device which is operatively connected to the control unit for collecting information about the composition of the milked milk,