mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising a body ; a door provided on the body and having an open position wherein access into the body is allowed and a closed position wherein access into the body is prevented, and a locking mechanism which enables the door to be fixed to the body and locked in the closed position, wherein the locking mechanism comprises - a tongue which is disposed on the body and whereon a locking housing is provided, - a housing disposed on the door , - a movement member provided in the housing and suitable to be slidably moved by the user, and - a pin which is disposed in the housing and which is suitable to be moved by means of the movement member and which has a released position wherein the pin is almost completely in the housing and a locking position wherein the pin is pushed out of the housing by the movement mechanism so as to fit into the locking housing , characterized by the movement member which is arranged to be slid in a horizontal direction parallel to the door surface, and the pin being arranged to move vertically when the movement member is moved in the horizontal direction parallel to the door surface. - a tongue which is disposed on the body and whereon a locking housing is provided, - a housing disposed on the door , - a movement member provided in the housing and suitable to be slidably moved by the user, and - a pin which is disposed in the housing and which is suitable to be moved by means of the movement member and which has a released position wherein the pin is almost completely in the housing and a locking position wherein the pin is pushed out of the housing by the movement mechanism so as to fit into the locking housing , characterized by the movement member which is arranged to be slid in a horizontal direction parallel to the door surface, and the pin being arranged to move vertically when the movement member is moved in the horizontal direction parallel to the door surface.
A method of wireless communication performed by a device, the method comprising: determining a nominal coding rate of a first transmission based at least in part on a modulation and coding scheme, MCS, of the first transmission; determining whether to use a first base graph or a second base graph for the first transmission, wherein the determination of whether to use the first base graph or the second base graph is based at least in part on the nominal coding rate, or MCS, and a transport block size, TBS, of the first transmission, and wherein the TBS is based at least in part on a nominal number of resources and the nominal coding rate, or MCS, of the first transmission; performing the first transmission based at least in part on the determination of whether to use the first base graph or the second base graph; determining that a retransmission is associated with a different nominal number of resources than the first transmission; modifying the nominal coding rate, or MCS, so that a table value corresponding to the same base graph and the same TBS as the first transmission is indicated for the retransmission, wherein the same TBS is supported for the first base graph and the second base graph in two entries of the table for the different nominal number of resources and for two different nominal coding rates, or MCS; and performing the retransmission based at least in part on the same base graph. determining a nominal coding rate of a first transmission based at least in part on a modulation and coding scheme, MCS, of the first transmission; determining whether to use a first base graph or a second base graph for the first transmission, wherein the determination of whether to use the first base graph or the second base graph is based at least in part on the nominal coding rate, or MCS, and a transport block size, TBS, of the first transmission, and wherein the TBS is based at least in part on a nominal number of resources and the nominal coding rate, or MCS, of the first transmission; performing the first transmission based at least in part on the determination of whether to use the first base graph or the second base graph; determining that a retransmission is associated with a different nominal number of resources than the first transmission; modifying the nominal coding rate, or MCS, so that a table value corresponding to the same base graph and the same TBS as the first transmission is indicated for the retransmission, wherein the same TBS is supported for the first base graph and the second base graph in two entries of the table for the different nominal number of resources and for two different nominal coding rates, or MCS; and performing the retransmission based at least in part on the same base graph.
A thin film semiconductor comprising a compound of formula I or II wherein: R 1 and R 2 , at each occurrence, independently are selected from a C 1-30 alkyl group, a C 2-30 alkenyl group, a C 2-30 alkynyl group and a C 1-30 haloalkyl group, wherein each of R 3 and R 4 is Br or -CN and R 5 and R 6 are H, characterized in that the thin film semiconductor comprises a non-conductive polymer, wherein the non-conductive polymer is poly(methylmethacrylate) and the weight ratio of the compound of the formula I or II to the non-conductive polymer in the thin film semiconductor is from 5:1 to 1:5. R 1 and R 2 , at each occurrence, independently are selected from a C 1-30 alkyl group, a C 2-30 alkenyl group, a C 2-30 alkynyl group and a C 1-30 haloalkyl group, wherein each of R 3 and R 4 is Br or -CN and R 5 and R 6 are H, characterized in that the thin film semiconductor comprises a non-conductive polymer, wherein the non-conductive polymer is poly(methylmethacrylate) and the weight ratio of the compound of the formula I or II to the non-conductive polymer in the thin film semiconductor is from 5:1 to 1:5.
A multilayer film, comprising a substrate, wherein the substrate comprises: (a) two substrate outer layers and a substrate core layer between the two substrate outer layers, wherein each of the two substrate outer layers and the substrate core layer comprises a first polyethylene derived from ethylene and one or more C 3 to C 20 α-olefin comonomers, wherein the first polyethylene has a density of 0.900 to 0.940 g/cm 3 , a melt index (MI), I 2.16 , of 0.1 to 15 g/10 min, a molecular weight distribution (MWD) of 1.5 to 5.5, and a melt index ratio (MIR), I 21.6 /I 2.16 , of 10 to 100; and (b) two substrate inner layers, each having a density of at least 0.003 g/cm 3 higher than that of the substrate outer layer on the same side of the substrate core layer, wherein each substrate inner layer is between the substrate core layer and each substrate outer layer; characterized in that the multilayer film additionally comprises a sealant, the sealant comprising two sealant outer layers and a sealant core layer between the two sealant outer layers, wherein each of the two sealant outer layers and the sealant core layer comprises a fourth polyethylene derived from ethylene and one or more C 3 to C 20 α-olefin comonomers, wherein the fourth polyethylene has a density of 0.900 to 0.940 g/cm 3 , an MI, I 2.16 , of 0.1 to 15 g/10 min, an MWD of 1.5 to 5.5, and an MIR, I 21.6 /I 2.16 , of 10 to 100; wherein the multilayer film has at least one of the following properties: (i) a bending stiffness factor of at least 18 mN/mm; (ii) an elongation at break in the Machine Direction (MD) of at least 450%; and (iii) a puncture energy at break of at least 7.5 mJ. (a) two substrate outer layers and a substrate core layer between the two substrate outer layers, wherein each of the two substrate outer layers and the substrate core layer comprises a first polyethylene derived from ethylene and one or more C 3 to C 20 α-olefin comonomers, wherein the first polyethylene has a density of 0.900 to 0.940 g/cm 3 , a melt index (MI), I 2.16 , of 0.1 to 15 g/10 min, a molecular weight distribution (MWD) of 1.5 to 5.5, and a melt index ratio (MIR), I 21.6 /I 2.16 , of 10 to 100; and (b) two substrate inner layers, each having a density of at least 0.003 g/cm 3 higher than that of the substrate outer layer on the same side of the substrate core layer, wherein each substrate inner layer is between the substrate core layer and each substrate outer layer;
A load handling machine , comprising: - a wheeled chassis , - a drive system driving the movement of the wheeled chassis , - a system for handling a load and borne by the chassis , - an operating unit , - a control device for controlling the load-handling system and able to be actuated manually by an operator, the operating unit being configured to receive control signals from said control device , - an activation member for the manually actuatable control device , - a sensor sensing a parameter indicative of a movement of the machine , the operating unit being configured to allow the handling system to be operated using the control device as a function of at least the parameter indicative of movement of the machine , characterized in that the operating unit being configured so as, when the activation member is in the actuated state, to allow the handling system to be operated as a function at least of the control signals received from the control device , the operating unit is configured to - start at least one timer (T1) defining a time interval in the passage of the activation member from the actuated state to the non-actuated state, - to prevent the handling system from being operated using the control device when the time interval defined by the timer (T1) has elapsed, and - to reset the timer (T1) as a function at least of the data supplied by the sensor of a parameter indicative of movement of the machine during the time interval defined by the timer (T1). - a wheeled chassis , - a drive system driving the movement of the wheeled chassis , - a system for handling a load and borne by the chassis , - an operating unit , - a control device for controlling the load-handling system and able to be actuated manually by an operator, the operating unit being configured to receive control signals from said control device , - an activation member for the manually actuatable control device , - a sensor sensing a parameter indicative of a movement of the machine , the operating unit being configured to allow the handling system to be operated using the control device as a function of at least the parameter indicative of movement of the machine , characterized in that the operating unit being configured so as, when the activation member is in the actuated state, to allow the handling system to be operated as a function at least of the control signals received from the control device , the operating unit is configured to - start at least one timer (T1) defining a time interval in the passage of the activation member from the actuated state to the non-actuated state, - to prevent the handling system from being operated using the control device when the time interval defined by the timer (T1) has elapsed, and - to reset the timer (T1) as a function at least of the data supplied by the sensor of a parameter indicative of movement of the machine during the time interval defined by the timer (T1).
A process for production of compound (I) wherein compound (I) is obtained via reaction of 3-bromo-6-chloro-inden-1-one with 4,4,5,5-tetramethyl-2- d 5 -phenyl- dioxaborolane.
A method for predicting or prognosticating the response of an individual with multiple sclerosis to treatment with IFNβ which comprises: a) measuring slFNAR2 protein levels in a serum sample isolated from the individual, and b) comparing the levels obtained in step (a) with a reference amount, and c) assigning the individual of step (a) to the group of non-responder individuals when he or she has significantly lower slFNAR2 protein levels in serum in comparison with responder individuals. a) measuring slFNAR2 protein levels in a serum sample isolated from the individual, and b) comparing the levels obtained in step (a) with a reference amount, and c) assigning the individual of step (a) to the group of non-responder individuals when he or she has significantly lower slFNAR2 protein levels in serum in comparison with responder individuals.
A method for operating an electronic device , the method comprising: communicably connecting to a head mounted device , HMD; receiving an input from a user through the HMD while the HMD is communicably connected; and in response to the received user input, performing a function corresponding to the received user input; wherein the HMD comprises at least one mirror for leading the user input to a sensor of the electronic device ; and wherein the at least one mirror is disposed in a groove passing through the HMD from the exterior of the HMD . communicably connecting to a head mounted device , HMD; receiving an input from a user through the HMD while the HMD is communicably connected; and in response to the received user input, performing a function corresponding to the received user input; wherein the HMD comprises at least one mirror for leading the user input to a sensor of the electronic device ; and wherein the at least one mirror is disposed in a groove passing through the HMD from the exterior of the HMD .
A method of predicting whether a composition of extracellular vesicles (EVs) has proangiogenic activity, comprising the steps of: (a) quantifying the miR-130a microRNA content in the composition of EVs, and (b) quantifying the transforming growth factor beta (TGFβ) content in the composition of EVs; (c) determining whether the miR-130a content is above a first predetermined value and the TGFβ content is above a second predetermined value, wherein: when the miR-130a content is above said first predetermined value and the TGFβ content is above said second predetermined value, the composition of EVs is predicted to have proangiogenic activity. (a) quantifying the miR-130a microRNA content in the composition of EVs, and (b) quantifying the transforming growth factor beta (TGFβ) content in the composition of EVs; (c) determining whether the miR-130a content is above a first predetermined value and the TGFβ content is above a second predetermined value,
A first microbial cell comprising a nucleic acid encoding a secreted bacteriocin which controls the growth of a second microbial cell and a nucleic acid which encodes an immunity modulator that confers resistance to said secreted bacteriocin, wherein said first microbial cell has been genetically engineered to allow the expression or activity of said immunity modulator which confers resistance to said bacteriocin to be downregulated, wherein the secreted bacteriocin is produced by the translational machinery of the first microbial cell, and wherein when the first microbial cell is undesired, the first microbial cell's expression or activity of the immunity modulator is reduced, and the first microbial cell and clones thereof secrete the bacteriocin, thereby selecting against the first microbial cell, optionally wherein said second microbial cell is of the same species or strain as the first microbial cell, or is of a different strain, species, or genus than said first microbial cell, and optionally wherein said bacteriocin comprises a naturally-occurring bacteriocin or a synthetic bacteriocin. wherein the secreted bacteriocin is produced by the translational machinery of the first microbial cell, and wherein when the first microbial cell is undesired, the first microbial cell's expression or activity of the immunity modulator is reduced, and the first microbial cell and clones thereof secrete the bacteriocin, thereby selecting against the first microbial cell, optionally wherein said second microbial cell is of the same species or strain as the first microbial cell, or is of a different strain, species, or genus than said first microbial cell, and optionally wherein said bacteriocin comprises a naturally-occurring bacteriocin or a synthetic bacteriocin.
A method of executing a function of an electronic device , the method comprising: displaying a portion of a layout containing at least one content and further displaying a user interface, UI, object corresponding to at least one function of the electronic device through a touch screen ; detecting a user input through the touch screen while the portion of the layout is being displayed; displaying an edge of the layout corresponding to a movement direction of the user input in response to the user input; when the user input is continuously detected while the edge of the layout is being displayed, displaying a first visual effect in an area comprising the edge of the layout or in an area adjacent to the edge and displaying a second visual effect in which the UI object changes for a predetermined period of time; and when the predetermined period of time has elapsed , displaying an execution screen of the at least one function corresponding to the UI object, wherein the first visual effect is displayed to indicate that there is no more content to be displayed and the second visual effect is displayed to indicate that a subsequent function can be performed. displaying a portion of a layout containing at least one content and further displaying a user interface, UI, object corresponding to at least one function of the electronic device through a touch screen ; detecting a user input through the touch screen while the portion of the layout is being displayed; displaying an edge of the layout corresponding to a movement direction of the user input in response to the user input; when the user input is continuously detected while the edge of the layout is being displayed, displaying a first visual effect in an area comprising the edge of the layout or in an area adjacent to the edge and displaying a second visual effect in which the UI object changes for a predetermined period of time; and when the predetermined period of time has elapsed , displaying an execution screen of the at least one function corresponding to the UI object, wherein the first visual effect is displayed to indicate that there is no more content to be displayed and the second visual effect is displayed to indicate that a subsequent function can be performed.
A portable handheld device for determining a status of a tanker truck safety system, the device comprising a housing having a cylindrical hollow handle portion and a circumferential coupling portion defined about an opening at a first end of the housing and for connecting to a connection socket of the tanker truck safety system, said connection socket including a plurality of contact pads, the hollow handle portion having disposed therein: a microprocessor configured to run a testing program to determine the status of the tanker truck safety system; and a first plurality of spring-loaded pins (P1-P7), each pin being configured to couple with a corresponding contact pad of the connection socket, the first plurality of pins (P1-P7) being coupled to a plurality of inputs of the microprocessor ; characterized in that the hollow handle portion having further disposed therein: a first intrinsically safe power supply coupled to the microprocessor and coupled to the first plurality of spring-loaded pins (P1-P7) and configured to provide a first intrinsically safe voltage to each pin of the first plurality of spring-loaded pins (P1-P7) individually under control of the microprocessor; a second intrinsically safe power supply coupled to the microprocessor and configured to provide a second intrinsically safe voltage, separate from the first intrinsically safe voltage under control of the microprocessor , and a spring-loaded pin (P8) configured to couple with a corresponding contact pad of the connection socket and coupled to the second intrinsically safe power supply to receive the second intrinsically safe voltage, wherein the first and second intrinsically safe voltages are on separate rails. a microprocessor configured to run a testing program to determine the status of the tanker truck safety system; and a first plurality of spring-loaded pins (P1-P7), each pin being configured to couple with a corresponding contact pad of the connection socket, the first plurality of pins (P1-P7) being coupled to a plurality of inputs of the microprocessor ; a first intrinsically safe power supply coupled to the microprocessor and coupled to the first plurality of spring-loaded pins (P1-P7) and configured to provide a first intrinsically safe voltage to each pin of the first plurality of spring-loaded pins (P1-P7) individually under control of the microprocessor; a second intrinsically safe power supply coupled to the microprocessor and configured to provide a second intrinsically safe voltage, separate from the first intrinsically safe voltage under control of the microprocessor , and a spring-loaded pin (P8) configured to couple with a corresponding contact pad of the connection socket and coupled to the second intrinsically safe power supply to receive the second intrinsically safe voltage, wherein the first and second intrinsically safe voltages are on separate rails.
A method of optical communication, wherein the method comprises: receiving at least one incident light beam (L1, L2, L3) having one or more wavelengths (λ 1 , λ 2 , and λ 3 ); acting on the received at least one incident light beam (L1, L2, L3) with a first optical element to create a single multiplexed light beam (MUX) comprising a multiplex of a predetermined number of spatial modes (M1 ...Mn) per one or more wavelengths (λ 1 , λ 2 , and λ 3 ) of the received at least one incident light beam (L1, L2, L3) in a manner which is independent of the one or more wavelengths (λ 1 , λ 2 , and λ 3 ) of the received at least one incident light beam (L1, L2, L3), wherein each of the predetermined number of spatial modes (M1...Mn) have at least two spatial degrees of freedom; and using the single multiplexed light beam (MUX) for optical communication wherein the predetermined number of spatial modes (M1...Mn) are used as one or both of carrier channels and bits in a bit coding scheme, wherein the first optical element is encoded with a single hologram to generate the predetermined number of spatial modes irrespective of the one or more wavelengths (λ 1 , λ 2 , and λ 3 ) of the received at least one incident light beam (L1, L2, L3), wherein the single hologram is a superposition of a plurality of holograms, wherein each of the plurality of holograms has a different carrier frequency corresponding to each of the predetermined number of modes, and wherein each different carrier frequency has a substantially saw-tooth shaped phase function. receiving at least one incident light beam (L1, L2, L3) having one or more wavelengths (λ 1 , λ 2 , and λ 3 ); acting on the received at least one incident light beam (L1, L2, L3) with a first optical element to create a single multiplexed light beam (MUX) comprising a multiplex of a predetermined number of spatial modes (M1 ...Mn) per one or more wavelengths (λ 1 , λ 2 , and λ 3 ) of the received at least one incident light beam (L1, L2, L3) in a manner which is independent of the one or more wavelengths (λ 1 , λ 2 , and λ 3 ) of the received at least one incident light beam (L1, L2, L3), wherein each of the predetermined number of spatial modes (M1...Mn) have at least two spatial degrees of freedom; and using the single multiplexed light beam (MUX) for optical communication wherein the predetermined number of spatial modes (M1...Mn) are used as one or both of carrier channels and bits in a bit coding scheme, wherein the first optical element is encoded with a single hologram to generate the predetermined number of spatial modes irrespective of the one or more wavelengths (λ 1 , λ 2 , and λ 3 ) of the received at least one incident light beam (L1, L2, L3), wherein the single hologram is a superposition of a plurality of holograms, wherein each of the plurality of holograms has a different carrier frequency corresponding to each of the predetermined number of modes, and wherein each different carrier frequency has a substantially saw-tooth shaped phase function.