mhurhangee/patent-ind-claim-en huggingface dataset:
A product comprising: an enclosure having one or more of a top, a bottom, a front, a back, a left side and a right side; and a source of light that produces a first light disposed in the enclosure; wherein one or more of the top, bottom, back, left side and right side comprise a substrate having a non-metallic segment; wherein the non-metallic segment comprises a surface texture, a surface decoration and/or a coating composition and the non-metallic segment reflects the first light to produce a second light with a reflected emission spectrum; and wherein between a spectrum of a normalized natural gas flame and the reflected emission spectrum there is a color shift Δxy that is greater than 0.007, wherein the color shift Δxy is a color shift in CIExyY , and wherein the normalized light emission spectrum of the natural gas flame is defined in Table 1. an enclosure having one or more of a top, a bottom, a front, a back, a left side and a right side; and a source of light that produces a first light disposed in the enclosure; wherein one or more of the top, bottom, back, left side and right side comprise a substrate having a non-metallic segment; wherein the non-metallic segment comprises a surface texture, a surface decoration and/or a coating composition and the non-metallic segment reflects the first light to produce a second light with a reflected emission spectrum; and wherein between a spectrum of a normalized natural gas flame and the reflected emission spectrum there is a color shift Δxy that is greater than 0.007, wherein the color shift Δxy is a color shift in CIExyY , and wherein the normalized light emission spectrum of the natural gas flame is defined in Table 1.
A method, performed by a system comprising a mobile device and a motor vehicle, the method comprising: coupling a mobile device and a user interface powered by the motor vehicle; receiving , at the mobile device, a request for the user interface to utilize a resource of the mobile device; characterised by : determining , by the mobile device, based on an identifier associated with a destination indicated by the request, whether to authorize the request; and in response to determining to authorize the request, utilizing a proxy of the mobile device to establish a connection with the destination, wherein the user interface and the destination use transport level security for data exchange over the connection . coupling a mobile device and a user interface powered by the motor vehicle; receiving , at the mobile device, a request for the user interface to utilize a resource of the mobile device; characterised by : determining , by the mobile device, based on an identifier associated with a destination indicated by the request, whether to authorize the request; and in response to determining to authorize the request, utilizing a proxy of the mobile device to establish a connection with the destination, wherein the user interface and the destination use transport level security for data exchange over the connection . determining , by the mobile device, based on an identifier associated with a destination indicated by the request, whether to authorize the request; and in response to determining to authorize the request, utilizing a proxy of the mobile device to establish a connection with the destination, wherein the user interface and the destination use transport level security for data exchange over the connection .
A downmixer (100;500;600;800;1020) for providing a downmix signal (592;1022) on the basis of a plurality of input signals (110a,110b;210a,210b;500a,500n,1010a,1010n), which are input audio signals, wherein the downmixer is configured to determine a magnitude value (M R , M Mod R; 122;221,222;505,506a) of a spectral domain value (112;511a,511b) of the downmix signal on the basis of a loudness information of the input signals, and wherein the downmixer is configured to determine a phase value (P P ,P Mod P ;132;398;508a,510a) of the spectral domain value of the downmix signal; and wherein the downmixer is configured to apply the phase value (P P ,P Mod P; 132;398;508a,510a) in order to obtain a complex valued number representation (112;511a,511b) of the spectral domain value of the downmix signal on the basis of the magnitude value of the spectral domain value of the downmix signal; wherein the downmixer is configured to determine a sum or a weighted sum of complex-valued spectral domain values of the input signals and to determine the phase value (P P ,P Mod P ;132;398;508a,510a) on the basis of a real part and an imaginary part of the sum or on the basis of a real part and an imaginary part of the weighted sum of spectral domain values of the input signals. wherein the downmixer is configured to determine a magnitude value (M R , M Mod R; 122;221,222;505,506a) of a spectral domain value (112;511a,511b) of the downmix signal on the basis of a loudness information of the input signals, and wherein the downmixer is configured to determine a phase value (P P ,P Mod P ;132;398;508a,510a) of the spectral domain value of the downmix signal; and wherein the downmixer is configured to apply the phase value (P P ,P Mod P; 132;398;508a,510a) in order to obtain a complex valued number representation (112;511a,511b) of the spectral domain value of the downmix signal on the basis of the magnitude value of the spectral domain value of the downmix signal; wherein the downmixer is configured to determine a sum or a weighted sum of complex-valued spectral domain values of the input signals and to determine the phase value (P P ,P Mod P ;132;398;508a,510a) on the basis of a real part and an imaginary part of the sum or on the basis of a real part and an imaginary part of the weighted sum of spectral domain values of the input signals.
A method of a first integrated access backhaul, IAB, node in a wireless communication system, the method comprising: establishing a signaling radio bearer, SRB (1h-31, 1h-21); establishing a backhaul adaptation entity as an upper layer entity (1g-01, 1g-10, 1g-15) of a radio link control, RLC, entity; mapping (1g-10), by the backhaul adaptation entity, a RLC channel corresponding to data; adding, by the backhaul adaptation entity, a header including identification information for routing and address information of a donor IAB node to the data; and transmitting (1g-10) the data to a second IAB node based on the mapped RLC channel, wherein the backhaul adaptation entity is not configured for the SRB (1h-31, 1h-21) and a packet data convergence protocol, PDCP, is configured for the SRB (1h-31, 1h-21). establishing a signaling radio bearer, SRB (1h-31, 1h-21); establishing a backhaul adaptation entity as an upper layer entity (1g-01, 1g-10, 1g-15) of a radio link control, RLC, entity; mapping (1g-10), by the backhaul adaptation entity, a RLC channel corresponding to data; adding, by the backhaul adaptation entity, a header including identification information for routing and address information of a donor IAB node to the data; and transmitting (1g-10) the data to a second IAB node based on the mapped RLC channel, wherein the backhaul adaptation entity is not configured for the SRB (1h-31, 1h-21) and a packet data convergence protocol, PDCP, is configured for the SRB (1h-31, 1h-21).
An actuated locking device , comprising: a locking mechanism moveable between a first position and a second position; an actuator connected to the locking mechanism that actuates the locking mechanism for moving between the first position and the second position; and a hardstop switch having a body including a surface positioned to limit movement of the locking mechanism to one of the first position or the second position in response to the locking mechanism contacting the hardstop switch, characterised in that the surface of the body comprises an electrically conductive material such that the surface defines a switch that completes an electrical circuit, when the locking mechanism contacts the surface of the body of the hardstop switch, to control the actuator to limit moving of the locking mechanism to one of the first position or the second position. a locking mechanism moveable between a first position and a second position; an actuator connected to the locking mechanism that actuates the locking mechanism for moving between the first position and the second position; and a hardstop switch having a body including a surface positioned to limit movement of the locking mechanism to one of the first position or the second position in response to the locking mechanism contacting the hardstop switch, characterised in that the surface of the body comprises an electrically conductive material such that the surface defines a switch that completes an electrical circuit, when the locking mechanism contacts the surface of the body of the hardstop switch, to control the actuator to limit moving of the locking mechanism to one of the first position or the second position.
A compound represented by structural formula I or a pharmaceutically acceptable salt or hydrate thereof, for use in the treatment of a disorder selected from psychotic disorders, delusional disorders and drug induced psychosis; anxiety disorders, movement disorders, mood disorders, Alzheimer's disease, schizophrenia, migraines, and neurodegenerative disorders wherein: A is CR 4 R 5 ; B is selected from the group consisting of phenyl and naphthyl, said phenyl and napthyl being unsubstituted or substituted with 1 to 3 groups of R a ; R is hydrogen or C 1-6 alkyl; R 1 is selected from the group consisting ofH, C 1-6 alkyl, C 1-6 alkylSR, C 3-10 cycloalkyl, (CRR) n C 4-10 heterocyclyl, and (CRR) n C 6-10 aryl, said alkyl, cycloalkyl, heterocyclyl and aryl optionally substituted with one to three groups of R a ; R 2 is selected from the group consisting of hydrogen, C 1-6 alkyl, C 3-10 cycloalkyl, and C 1-4 haloalkyl; One of R 4 and R 5 is hydrogen or CH 3 and the other is selected from C 1-6 alkyl, C 3-10 cycloalkyl, C 1-4 haloalkyl, (CH 2 ) n SC 1-6 alkyl, C(O)OR, C(O)N(R) 2 , CN, (CH 2 ) n C 5-10 heterocyclyl, and (CH 2 ) n C 6-10 aryl said alkyl, cycloalkyl, heterocyclyl and aryl optionally substituted with one to three groups of R a ; R a is selected from the group consisting of H, halo, CN, C 1-6 alkyl, (O) p C 1-4 haloalkyl, C(O)OR, -O(CH 2 ) n N(R) 2 , (CHR) n N(R) 2 , NO 2 , SCF 3 , S(O) s CF 3 , S(O) s R, SF 5 , C 3-10 cycloalkyl, C 5-10 heterocyclyl, and C 6-10 aryl, said alkyl, cycloalkyl, heterocyclyl and aryl optionally substituted with one to three groups of R b ; R b is selected from the group consisting of H, halo, C 1-6 alkyl and (O) p C 1-4 haloalkyl; n represents 0, 1, 2, 3, or 4; s represents 0, 1, or 2; and p represents 0 or 1. A is CR 4 R 5 ; B is selected from the group consisting of phenyl and naphthyl, said phenyl and napthyl being unsubstituted or substituted with 1 to 3 groups of R a ; R is hydrogen or C 1-6 alkyl; R 1 is selected from the group consisting ofH, C 1-6 alkyl, C 1-6 alkylSR, C 3-10 cycloalkyl, (CRR) n C 4-10 heterocyclyl, and (CRR) n C 6-10 aryl, said alkyl, cycloalkyl, heterocyclyl and aryl optionally substituted with one to three groups of R a ; R 2 is selected from the group consisting of hydrogen, C 1-6 alkyl, C 3-10 cycloalkyl, and C 1-4 haloalkyl; One of R 4 and R 5 is hydrogen or CH 3 and the other is selected from C 1-6 alkyl, C 3-10 cycloalkyl, C 1-4 haloalkyl, (CH 2 ) n SC 1-6 alkyl, C(O)OR, C(O)N(R) 2 , CN, (CH 2 ) n C 5-10 heterocyclyl, and (CH 2 ) n C 6-10 aryl said alkyl, cycloalkyl, heterocyclyl and aryl optionally substituted with one to three groups of R a ; R a is selected from the group consisting of H, halo, CN, C 1-6 alkyl, (O) p C 1-4 haloalkyl, C(O)OR, -O(CH 2 ) n N(R) 2 , (CHR) n N(R) 2 , NO 2 , SCF 3 , S(O) s CF 3 , S(O) s R, SF 5 , C 3-10 cycloalkyl, C 5-10 heterocyclyl, and C 6-10 aryl, said alkyl, cycloalkyl, heterocyclyl and aryl optionally substituted with one to three groups of R b ; R b is selected from the group consisting of H, halo, C 1-6 alkyl and (O) p C 1-4 haloalkyl; n represents 0, 1, 2, 3, or 4; s represents 0, 1, or 2; and p represents 0 or 1.
An autonomous robot cleaning pad (120; 600; 700; 800A-F; 1000; 1100), the cleaning pad comprising: a pad body having opposite broad surfaces, including a cleaning surface (604; 704) and a mounting surface (202; 602; 702); a first pad type identification feature (603; 703; 803A-F; 1012; 1103) indicative of a type of a cleaning pad; a second pad type identification feature (603; 703; 803A-F; 1012; 1103) indicative of the type of the cleaning pad; and a mounting plate (206; 606; 702; 802A-F; 1006) secured across the mounting surface of the pad body, wherein the first and second pad type identification features are positioned in a rotationally symmetric manner on the cleaning pad. a pad body having opposite broad surfaces, including a cleaning surface (604; 704) and a mounting surface (202; 602; 702); a first pad type identification feature (603; 703; 803A-F; 1012; 1103) indicative of a type of a cleaning pad; a second pad type identification feature (603; 703; 803A-F; 1012; 1103) indicative of the type of the cleaning pad; and a mounting plate (206; 606; 702; 802A-F; 1006) secured across the mounting surface of the pad body, wherein the first and second pad type identification features are positioned in a rotationally symmetric manner on the cleaning pad.
Use of a polymerizing film-forming carrier in pesticide formulations for treating plants, which carrier consists of the following components: - a film forming oil, which is a drying oil selected from the group of sunflower oil, linseed oil, hemp seed oil, grape seed oil, tree oil or a mixture thereof and - lecithin, wherein the mass ratio of lecithin to the plant oil(s) is in the range from about 1:5 to about 1:100. - a film forming oil, which is a drying oil selected from the group of sunflower oil, linseed oil, hemp seed oil, grape seed oil, tree oil or a mixture thereof and - lecithin, wherein the mass ratio of lecithin to the plant oil(s) is in the range from about 1:5 to about 1:100.
A method for measuring a magnetic field by reading out a Hall plate which comprises at least 4 contacts, the method comprising: - reading out two of the contacts while biasing two other contacts of the at least 4 contacts thereby obtaining a readout signal, - switching biasing and readout contacts according to a random or pseudo-random sequence of phases, each phase corresponding with a different permutation of biasing and readout contacts selected from the at least 4 contacts of the Hall plate wherein the biasing and readout contacts are selected such that the readout signal is a measure for the magnetic field, - processing of the readout signal to obtain a readout of the Hall plate representative for the magnetic field - characterized in that the random sequence of phases is generated by a combination of a first and a second sequence wherein at least one of the sequences is a random or pseudo-random sequence and wherein the phases are grouped and the first sequence controls which group is selected, while the second sequence influences the choice between phases within the group. - reading out two of the contacts while biasing two other contacts of the at least 4 contacts thereby obtaining a readout signal, - switching biasing and readout contacts according to a random or pseudo-random sequence of phases, each phase corresponding with a different permutation of biasing and readout contacts selected from the at least 4 contacts of the Hall plate wherein the biasing and readout contacts are selected such that the readout signal is a measure for the magnetic field, - processing of the readout signal to obtain a readout of the Hall plate representative for the magnetic field - characterized in that the random sequence of phases is generated by a combination of a first and a second sequence wherein at least one of the sequences is a random or pseudo-random sequence and wherein the phases are grouped and the first sequence controls which group is selected, while the second sequence influences the choice between phases within the group.
A clock delay circuit comprising: an output configured to provide an output clock signal (CLOCKOUT) which is a delayed version of an input clock signal (CLOCKIN); a delay control circuit including an output for providing a third clock signal (CLOCKDC) having a duty cycle; a latch including a first input configured to receive the input clock signal, a second input configured to receive the third clock signal, and an output to provide the output clock signal, wherein a delay between the input clock signal and the output clock signal is dependent upon the duty cycle of the third clock signal; wherein the delay control circuit comprises: a capacitor ; and a charging state rate control circuit, the charging state rate control circuit configured to control a charging state rate of the capacitor, the duty cycle of the third clock signal is dependent upon a charging state rate of the capacitor. an output configured to provide an output clock signal (CLOCKOUT) which is a delayed version of an input clock signal (CLOCKIN); a delay control circuit including an output for providing a third clock signal (CLOCKDC) having a duty cycle; a latch including a first input configured to receive the input clock signal, a second input configured to receive the third clock signal, and an output to provide the output clock signal, wherein a delay between the input clock signal and the output clock signal is dependent upon the duty cycle of the third clock signal; wherein the delay control circuit comprises: a capacitor ; and a charging state rate control circuit, the charging state rate control circuit configured to control a charging state rate of the capacitor, the duty cycle of the third clock signal is dependent upon a charging state rate of the capacitor. a capacitor ; and a charging state rate control circuit, the charging state rate control circuit configured to control a charging state rate of the capacitor, the duty cycle of the third clock signal is dependent upon a charging state rate of the capacitor.
An electrode assembly , comprising: (a) a conductive electrode , having (i) a first electrode surface , (ii) a second electrode surface , opposite the first electrode surface , (iii) an electrode edge , connecting the first and second electrode surfaces, wherein: a radius of curvature of the electrode edge parallel to the first and second electrode surfaces is at least 12 mm; and a radius of curvature of the electrode edge perpendicular to the first and second electrode surfaces is at least 6.3 mm; and (iv) an electrode tab , for making an electrical connection to the electrode , (b) a dielectric , enclosing the first and second electrode surfaces and the electrode edge , wherein: the dielectric has a thickness of at least 6 mm; and (c) a first working surface , on the first electrode surface , wherein the dielectric is present between the first working surface and the first electrode surface , wherein: the dielectric is conformal with the first electrode surface , the second electrode surface and the electrode edge . (a) a conductive electrode , having (i) a first electrode surface , (ii) a second electrode surface , opposite the first electrode surface , (iii) an electrode edge , connecting the first and second electrode surfaces, wherein: a radius of curvature of the electrode edge parallel to the first and second electrode surfaces is at least 12 mm; and a radius of curvature of the electrode edge perpendicular to the first and second electrode surfaces is at least 6.3 mm; and (iv) an electrode tab , for making an electrical connection to the electrode , (i) a first electrode surface , (ii) a second electrode surface , opposite the first electrode surface , (iii) an electrode edge , connecting the first and second electrode surfaces, wherein: a radius of curvature of the electrode edge parallel to the first and second electrode surfaces is at least 12 mm; and a radius of curvature of the electrode edge perpendicular to the first and second electrode surfaces is at least 6.3 mm; and a radius of curvature of the electrode edge parallel to the first and second electrode surfaces is at least 12 mm; and a radius of curvature of the electrode edge perpendicular to the first and second electrode surfaces is at least 6.3 mm; and (iv) an electrode tab , for making an electrical connection to the electrode , (b) a dielectric , enclosing the first and second electrode surfaces and the electrode edge , wherein: the dielectric has a thickness of at least 6 mm; and (c) a first working surface , on the first electrode surface , wherein the dielectric is present between the first working surface and the first electrode surface ,
A sulfur hexafluoride (SF6) insulated circuit breaker system , comprising: a tank constructed to hold a quantity of SF6; a circuit breaker having contacts insulated by the SF6; a heater operative to supply heat to heat the SF6; a thermal capacitor in conductive engagement with the tank , characterized in that the thermal capacitor is operative to store heat energy and constructed to conduct the heat energy to the SF6 in the tank via conduction through the walls of the tank , wherein the thermal capacitor is at least partially wrap around the tank and is attached to the tank using a fastening system. a tank constructed to hold a quantity of SF6; a circuit breaker having contacts insulated by the SF6; a heater operative to supply heat to heat the SF6; a thermal capacitor in conductive engagement with the tank ,
An injector device for a burner of a gas turbine comprising an elongated body with a leading edge and a trailing edge , gas nozzles and oil nozzles , an oil supply duct housed within the elongated body and connected to the oil nozzles , a gas supply duct housed within the elongated body and connected to the gas nozzles , characterized in that the oil supply duct is connected to the gas supply duct only via a connection provided between at least one oil nozzle and one gas nozzle , the gas supply duct is connected to the elongated body only via at least one bridge .
A wearable device comprising: - an electronic circuit , - a power supply , - a switching circuit coupled between the electronic circuit and the power supply, and - an electromagnetic field detection circuit coupled to the switching circuit for detecting an electromagnetic field generated by an NFC transmitter within the detection range of the electromagnetic field detection circuit and for generating a trigger signal if the electromagnetic field generated by an NFC transmitter is detected within the detection range of the electromagnetic field detection circuit, characterized in that said switching circuit comprises a transistor circuit including an input transistor and a fuse to switch the connection between the electronic circuit and the power supply on in response to the trigger signal, wherein the fuse is configured to melt in response to detection of the electromagnetic field generated by the NFC transmitter to allow the input transistor to switch the connection between the electronic circuit and the power supply on in response to the trigger signal. - an electronic circuit , - a power supply , - a switching circuit coupled between the electronic circuit and the power supply, and - an electromagnetic field detection circuit coupled to the switching circuit for detecting an electromagnetic field generated by an NFC transmitter within the detection range of the electromagnetic field detection circuit and for generating a trigger signal if the electromagnetic field generated by an NFC transmitter is detected within the detection range of the electromagnetic field detection circuit, characterized in that said switching circuit comprises a transistor circuit including an input transistor and a fuse to switch the connection between the electronic circuit and the power supply on in response to the trigger signal, wherein the fuse is configured to melt in response to detection of the electromagnetic field generated by the NFC transmitter to allow the input transistor to switch the connection between the electronic circuit and the power supply on in response to the trigger signal.