mhurhangee/patent-ind-claim-en huggingface dataset:
A corrosion resistant coating comprising: a. a water borne resin; b. water; and c. titanium dioxide pigments; wherein the titanium dioxide pigments comprise a hydrophobic coating that is at least one organosilane having the formula: R'xSi(R) 4-x wherein R' is a nonhydrolyzable aliphatic, cycloaliphatic or aromatic group having 8-20 carbon atoms; R is a hydrolysable group selected from alkoxy, halogen, acetoxy or hydroxyl or mixtures thereof; and x=1 to 3. a. a water borne resin; b. water; and c. titanium dioxide pigments; wherein the titanium dioxide pigments comprise a hydrophobic coating that is at least one organosilane having the formula: R'xSi(R) 4-x wherein R' is a nonhydrolyzable aliphatic, cycloaliphatic or aromatic group having 8-20 carbon atoms; R is a hydrolysable group selected from alkoxy, halogen, acetoxy or hydroxyl or mixtures thereof; and x=1 to 3.
A magnetic arrangement for a medical implant system for a patient user, the arrangement comprising: an implantable housing with an outer surface configured to lie under and parallel to the skin of the patient user; and an implant holding magnet arrangement within the implantable housing for magnetically interacting with an external magnet arrangement in an external device to hold the external device in a fixed position on the skin of the patient user, the implant holding magnet arrangement having radial symmetry; wherein the implant holding magnet arrangement has a net magnetic field with a zero net magnetic dipole moment and magnetic fields oriented parallel to the outer surface of the implant housing. an implantable housing with an outer surface configured to lie under and parallel to the skin of the patient user; and an implant holding magnet arrangement within the implantable housing for magnetically interacting with an external magnet arrangement in an external device to hold the external device in a fixed position on the skin of the patient user, the implant holding magnet arrangement having radial symmetry; wherein the implant holding magnet arrangement has a net magnetic field with a zero net magnetic dipole moment and magnetic fields oriented parallel to the outer surface of the implant housing.
An image intensifier device (300; 300'; 500; 600) which comprises an intensifier tube and an electric power supply module (360; 360'; 560), wherein the intensifier tube includes: - at least one photocathode , configured to convert an incident photon beam into an initial electron beam; - a micro-channel plate , configured, in use, to generate a plurality of secondary electrons in response to the reception of an incident electron, and configured to receive said initial electron beam and to generate in response an intensified electron beam; and - a conversion element (330; 530), configured to receive the intensified electron beam and to emit in response an intensified photon beam, with the micro-channel plate located between the photocathode and the conversion element (330; 530); - a first set of lenses , called objective, configured to optically match a focusing surface located outside the intensifier tube , and an initial image forming surface (P1) located inside or at the input of the intensifier tube ; the electric power supply module (360; 360'; 560) being configured to supply at least one respective polarisation voltage, to each of the photocathode , the micro-channel plate , and the conversion (330; 530); characterised in that the electric power supply module (360; 360'; 560) entirely extends in a region located entirely upstream of the photocathode , on the side of the photocathode opposite to the micro-channel plate, at the periphery of the objective - at least one photocathode , configured to convert an incident photon beam into an initial electron beam; - a micro-channel plate , configured, in use, to generate a plurality of secondary electrons in response to the reception of an incident electron, and configured to receive said initial electron beam and to generate in response an intensified electron beam; and - a conversion element (330; 530), configured to receive the intensified electron beam and to emit in response an intensified photon beam, with the micro-channel plate located between the photocathode and the conversion element (330; 530); - a first set of lenses , called objective, configured to optically match a focusing surface located outside the intensifier tube , and an initial image forming surface (P1) located inside or at the input of the intensifier tube ; the electric power supply module (360; 360'; 560) being configured to supply at least one respective polarisation voltage, to each of the photocathode , the micro-channel plate , and the conversion (330; 530); characterised in that the electric power supply module (360; 360'; 560) entirely extends in a region located entirely upstream of the photocathode , on the side of the photocathode opposite to the micro-channel plate, at the periphery of the objective
A method of creating a mass-customized femoral bone base plate comprising: establishing anatomical landmarks across a plurality of bone models of a statistical atlas; and establishing instrument landmarks across the plurality of bone models of the statistical atlas, the method being characterized by : establishing definitions for a reference plane calculation across the plurality of bone models of the statistical atlas, where the reference plane represents a boundary of a prosthetic implant; establishing an attachment site for a mass-customized femoral bone base plate using the anatomical landmarks, the instrument landmarks, and the reference plane; and, fabricating the mass-customized femoral bone base plate configured to be attached to a femur , where the attachment sites of the mass-customized femoral bone base plate are predetermined to avoid impingement with the prosthetic implant when implanted. establishing anatomical landmarks across a plurality of bone models of a statistical atlas; and establishing instrument landmarks across the plurality of bone models of the statistical atlas, the method being characterized by : establishing definitions for a reference plane calculation across the plurality of bone models of the statistical atlas, where the reference plane represents a boundary of a prosthetic implant; establishing an attachment site for a mass-customized femoral bone base plate using the anatomical landmarks, the instrument landmarks, and the reference plane; and, fabricating the mass-customized femoral bone base plate configured to be attached to a femur , where the attachment sites of the mass-customized femoral bone base plate are predetermined to avoid impingement with the prosthetic implant when implanted. establishing definitions for a reference plane calculation across the plurality of bone models of the statistical atlas, where the reference plane represents a boundary of a prosthetic implant; establishing an attachment site for a mass-customized femoral bone base plate using the anatomical landmarks, the instrument landmarks, and the reference plane; and, fabricating the mass-customized femoral bone base plate configured to be attached to a femur , where the attachment sites of the mass-customized femoral bone base plate are predetermined to avoid impingement with the prosthetic implant when implanted.
An unmanned aerial vehicle (UAV), the UAV comprising: a central body ; a plurality of arms that extend out from the central body , each arm having two or more joints that segment the arm into a stem portion proximal to the central body and two or more branch portions distal to the central body , wherein the two or more joints permit the two or more branch portions to move horizontally relative to the stem portion ; and a plurality of rotors , each rotor in the plurality attached to a respective one of the branch portions ; wherein the stem portion comprises: two or more first connection portions that are each connected by one of said joints to a respective one of the branch portions ; and a second connection portion , wherein the first connection portions and the second connection portion are connected by a further joint to be moveable relative to each other. a central body ; a plurality of arms that extend out from the central body , each arm having two or more joints that segment the arm into a stem portion proximal to the central body and two or more branch portions distal to the central body , wherein the two or more joints permit the two or more branch portions to move horizontally relative to the stem portion ; and a plurality of rotors , each rotor in the plurality attached to a respective one of the branch portions ; wherein the stem portion comprises: two or more first connection portions that are each connected by one of said joints to a respective one of the branch portions ; and a second connection portion , wherein the first connection portions and the second connection portion are connected by a further joint to be moveable relative to each other. two or more first connection portions that are each connected by one of said joints to a respective one of the branch portions ; and a second connection portion , wherein the first connection portions and the second connection portion are connected by a further joint to be moveable relative to each other.
A foamable elastomer composition comprising: a blend of 85 to 95 wt% of a first polymer fraction and 5 to 15 wt% of a second polymer fraction, said wt%s determined on the basis of total weight of the blend; wherein said first polymer fraction has Mooney viscosity within the range from 65 to 90 MU (ML, 1+8 @ 150°C); wherein said second polymer fraction has Mooney viscosity that is at least 150 MU (ML, 1+8 @ 150°C) greater than the Mooney viscosity of the first polymer fraction; wherein each of the first and second polymer fractions independently comprises units derived from ethylene, one or more C 3 ― C 20 α-olefins, and, optionally, one or more non-conjugated polyenes; and further wherein the blend has the following properties: (i) Mooney viscosity within the range of 80 to 120 MU (ML, 1+8 @ 150°C); (ii) Mooney Relaxation Area measured using the ML rotor (MLRA/ML) measured at 150°C within the range of 11 to 15 sec; (iii) MWD (Mw(Light Scattering)/Mn(Differential Refractive Index)) within the range of 4 to 7; and (iv) Branching Index (BI) within the range from 3 to 7, measured by Rubber Process Analyzer at 150°C, 0.63 radian/ second and 1000% oscillation amplitude. wherein said first polymer fraction has Mooney viscosity within the range from 65 to 90 MU (ML, 1+8 @ 150°C); wherein said second polymer fraction has Mooney viscosity that is at least 150 MU (ML, 1+8 @ 150°C) greater than the Mooney viscosity of the first polymer fraction; wherein each of the first and second polymer fractions independently comprises units derived from ethylene, one or more C 3 ― C 20 α-olefins, and, optionally, one or more non-conjugated polyenes; and further wherein the blend has the following properties: (i) Mooney viscosity within the range of 80 to 120 MU (ML, 1+8 @ 150°C); (ii) Mooney Relaxation Area measured using the ML rotor (MLRA/ML) measured at 150°C within the range of 11 to 15 sec; (iii) MWD (Mw(Light Scattering)/Mn(Differential Refractive Index)) within the range of 4 to 7; and (iv) Branching Index (BI) within the range from 3 to 7, measured by Rubber Process Analyzer at 150°C, 0.63 radian/ second and 1000% oscillation amplitude. (i) Mooney viscosity within the range of 80 to 120 MU (ML, 1+8 @ 150°C); (ii) Mooney Relaxation Area measured using the ML rotor (MLRA/ML) measured at 150°C within the range of 11 to 15 sec; (iii) MWD (Mw(Light Scattering)/Mn(Differential Refractive Index)) within the range of 4 to 7; and (iv) Branching Index (BI) within the range from 3 to 7, measured by Rubber Process Analyzer at 150°C, 0.63 radian/ second and 1000% oscillation amplitude.
A method of facilitating ultrasonic analysis of a subject , the method comprising: producing signals for causing a set of outgoing ultrasonic signals to be transmitted to the subject , wherein the set of outgoing ultrasonic signals is defined at least in part by a variable imaging parameter that varies over time in accordance with a variable imaging parameter function, the variable imaging parameter function including a periodic function that varies over time at an imaging parameter frequency; the variation of the variable imaging parameter results in a variation of the ultrasound point spread function used in the imaging system; receiving signals representing a time dependent representation of the subject generated from a set of received ultrasonic signals scattered by the subject , wherein, the time dependent representation includes a temporally ordered set or sequence of image representations of the subject representing the subject over a time period; determining at least one property representation of the subject based on the imaging parameter frequency and the time dependent representation of the subject ; and producing signals representing the at least one property representation of the subject to facilitate analysis of the subject . producing signals for causing a set of outgoing ultrasonic signals to be transmitted to the subject , wherein the set of outgoing ultrasonic signals is defined at least in part by a variable imaging parameter that varies over time in accordance with a variable imaging parameter function, the variable imaging parameter function including a periodic function that varies over time at an imaging parameter frequency; the variation of the variable imaging parameter results in a variation of the ultrasound point spread function used in the imaging system; receiving signals representing a time dependent representation of the subject generated from a set of received ultrasonic signals scattered by the subject , wherein, the time dependent representation includes a temporally ordered set or sequence of image representations of the subject representing the subject over a time period; determining at least one property representation of the subject based on the imaging parameter frequency and the time dependent representation of the subject ; and producing signals representing the at least one property representation of the subject to facilitate analysis of the subject .
Bus arrangement, comprising - a first subscriber , - a second subscriber , - a coordinator which comprises a first and a second bus terminal , and - a bus which couples the first bus terminal with the first and second subscriber , characterised in that the first subscriber comprises a basis module and a first number N of modules , wherein the coordinator is configured to send, in a first configuration mode (K), to the first subscriber a bus telegram for retrieving information, and the first subscriber is configured to transmit the first number N to the coordinator , and wherein the coordinator is configured to receive a fieldbus telegram via the second bus terminal and to transform it into a bus telegram directed to the basis module or a module from the first number N of modules and to send it via the first bus terminal . - a first subscriber , - a second subscriber , - a coordinator which comprises a first and a second bus terminal , and - a bus which couples the first bus terminal with the first and second subscriber ,
A method for separating a granular mixture in a flowing medium consisting in a gravitational supply of a granular mixture's particles to be separated with an aerodynamic, monotonously increasing impact on them at an acute angle to a vertical by cascade of flat jets and the discharge of finished fractions, where the most of the air flow used air for separation is recycled through a return path to a drive supplying air to a generator of the cascade of flat jets discharging continuously volatile impurities together with dust and remaining air stream into environment through a unit in the form of a cyclone characterized in that the granular mixture , prior to be supplied in the flowing medium into an adjustable hopper , is preconditioned by removing therefrom large impurities of biological and mineral origin for further continuity of the separation process, and the cascade of flat jets is formed from a discharge of continuous and laminar air flow that has been previously equalized in terms of pressure, gravitational supply of loose granular mixture into a separation chamber is carried out by setting up optimally required kinetic energy of the falling granular mixture by means of a vibrating flat chute with the ability to adjust the height of the fall and the volume of the mixture , continuously supplied to the separation, changing automatically a power of the cascade of flat jets in case of an unexpected change of quantity or volume of gravitational supply of the granular mixture falling into the separation chamber , or a change of a parameters of an electric conduit, particularly, voltage, frequency, and other external factors that affect quality of the separation process by automatic appropriate adjustment of an operating mode or power of the drive supplying air to the generator , and the air flow that returns through the return duct is replenished with an additional volume of air that was lost while removing dust into the environment, and continuously or periodically an excess of air pressure is regulated in the separation chamber , in order to maintain constant flow conditions of the separation process of granular mixtures and to protect the separation zone or area of the granular mixture from impact of the environment on the separation process, wherein the entire process of separation, from loading granular mixture to discharging of finished fractions, can be controlled visually, and finished fractions can be diverted and move away to any distance from a fraction collector to the desired location defined by technological tasks.
Compounds of formula (I) wherein R 1 is substituted phenyl or substituted pyridinyl, wherein substituted phenyl and substituted pyridinyl are substituted with R 3 , R 4 and R 5 ; A is -N- or -CH-; W is -C(O)-, -C(O)O-, -S(O) 2 -, -C(O)-NR 10 - or -CR 6 R 7 -; R 2 is selected from the ring systems B, C, D, E, F, G, H, I, J, K, L, M, N, O, P, Q, R, S, T, U, V, X, Z, AA, AB, AC, AD, AE, AF, AG, AH, AI, AJ, AK, AL, AM, AN, AO, AP, AQ, AR, AS, AT, AU and AV; R 3 is substituted heterocycloalkoxy, substituted heterocycloalkylalkoxy, substituted heterocycloalkylamino or substituted heterocycloalkylalkylamino, wherein substituted heterocycloalkoxy, substituted heterocycloalkylalkoxy, substituted heterocycloalkylamino and substituted heterocycloalkylalkylamino are substituted with R 11 , R 12 and R 13 ; R 4 and R 5 are independently selected from H, amino, alkylamino, dialkylamino, alkyl, haloalkyl, cycloalkyl, cycloalkylalkyl, halogen and cyano; m, n, p and q are independently selected from 1 or 2; R 6 and R 7 are independently selected from H or alkyl; R 8 is H, alkyl, haloalkyl or cycloalkyl; R 9 is H, alkyl, halogen, haloalkyl and alkoxy; R 10 is H or alkyl; R 11 , R 12 and R 13 are independently selected from H, alkyl, alkoxy, cycloalkyl, cycloalkoxy, halogen, haloalkyl, and cyano; or pharmaceutically acceptable salts. R 1 is substituted phenyl or substituted pyridinyl, wherein substituted phenyl and substituted pyridinyl are substituted with R 3 , R 4 and R 5 ; A is -N- or -CH-; W is -C(O)-, -C(O)O-, -S(O) 2 -, -C(O)-NR 10 - or -CR 6 R 7 -; R 2 is selected from the ring systems B, C, D, E, F, G, H, I, J, K, L, M, N, O, P, Q, R, S, T, U, V, X, Z, AA, AB, AC, AD, AE, AF, AG, AH, AI, AJ, AK, AL, AM, AN, AO, AP, AQ, AR, AS, AT, AU and AV; R 3 is substituted heterocycloalkoxy, substituted heterocycloalkylalkoxy, substituted heterocycloalkylamino or substituted heterocycloalkylalkylamino, wherein substituted heterocycloalkoxy, substituted heterocycloalkylalkoxy, substituted heterocycloalkylamino and substituted heterocycloalkylalkylamino are substituted with R 11 , R 12 and R 13 ; R 4 and R 5 are independently selected from H, amino, alkylamino, dialkylamino, alkyl, haloalkyl, cycloalkyl, cycloalkylalkyl, halogen and cyano; m, n, p and q are independently selected from 1 or 2; R 6 and R 7 are independently selected from H or alkyl; R 8 is H, alkyl, haloalkyl or cycloalkyl; R 9 is H, alkyl, halogen, haloalkyl and alkoxy; R 10 is H or alkyl; R 11 , R 12 and R 13 are independently selected from H, alkyl, alkoxy, cycloalkyl, cycloalkoxy, halogen, haloalkyl, and cyano;
A method for wireless communications, comprising: receiving , at a user equipment, UE , from a base station, BS , a signal requesting the UE to transmit a sounding reference signal, SRS, and a control channel within a common uplink, UL, burst in each downlink, DL, centric sub-frame and each UL centric sub-frame communicated between the UE and the BS , wherein each DL centric sub-frame comprises a Physical Downlink Control Channel, PDCCH , a Physical downlink shared Channel, PDSCH , and a common UL burst and wherein each UL centric sub-frame comprises a PDCCH , a regular UL burst , and a common UL burst ; transmitting , from the UE to the BS based upon the received signal, the common UL burst comprising the SRS and the control channel spanning the same frequency bandwidth in each DL centric sub-frame and each UL centric sub-frame communicated between the UE and the BS ; the method characterised in that it further comprises: spreading, by the UE , the SRS using a Zadoff-Chu sequence or a pseudo-random sequence before transmitting the SRS within the common UL burst ; and modulating, by the UE , the spread SRS using Gaussian minimum shift keying, GMSK, modulation before transmitting the SRS within the common UL burst . receiving , at a user equipment, UE , from a base station, BS , a signal requesting the UE to transmit a sounding reference signal, SRS, and a control channel within a common uplink, UL, burst in each downlink, DL, centric sub-frame and each UL centric sub-frame communicated between the UE and the BS , wherein each DL centric sub-frame comprises a Physical Downlink Control Channel, PDCCH , a Physical downlink shared Channel, PDSCH , and a common UL burst and wherein each UL centric sub-frame comprises a PDCCH , a regular UL burst , and a common UL burst ; transmitting , from the UE to the BS based upon the received signal, the common UL burst comprising the SRS and the control channel spanning the same frequency bandwidth in each DL centric sub-frame and each UL centric sub-frame communicated between the UE and the BS ; the method characterised in that it further comprises: spreading, by the UE , the SRS using a Zadoff-Chu sequence or a pseudo-random sequence before transmitting the SRS within the common UL burst ; and modulating, by the UE , the spread SRS using Gaussian minimum shift keying, GMSK, modulation before transmitting the SRS within the common UL burst . spreading, by the UE , the SRS using a Zadoff-Chu sequence or a pseudo-random sequence before transmitting the SRS within the common UL burst ; and modulating, by the UE , the spread SRS using Gaussian minimum shift keying, GMSK, modulation before transmitting the SRS within the common UL burst .
A kit comprising a long-wear lip composition comprising at least one silicone film-forming agent and at least one silicon elastomer, and a topcoat composition comprising at least one phenylated silicone oil and at least one wax, wherein the topcoat composition does not comprise diglyceryl polyacyladipate in an amount which inhibits the transfer-resistance of the long-wear lip composition after application (as determined by "Method A" as defined in the description) wherein the topcoat composition comprises at least one silicone film-forming agent selected from the group consisting of silicone resins, polyorganosiloxane copolymers, and mixtures thereof.