mhurhangee/patent-ind-claim-en huggingface dataset:
A broadcast message transmission method at a user equipment, comprising: determining a resource position of a physical broadcast channel according to position information of the physical broadcast channel, wherein the physical broadcast channel occupies M physical resource blocks, PRBs, among m PRBs of a frequency band center of a carrier, m and M are positive integers, M is not greater than m, and m is not greater than the number of the PRBs corresponding to the system bandwidth, the position information comprises a cell identifier and an interval s i between the (i+1) th PRB and the i th PRB among the M PRBs, wherein i is a positive integer, and i is not smaller than 1 and is not greater than M-1; and receiving a broadcast message sent by a base station through the physical broadcast channel on the resource position of the physical broadcast channel, wherein the determining a resource position of a physcial broadcast channel according to position of the physical broadest channel further comprises: determining the position N 1 of the first PRB among the M PRBs in frequency domain according to the cell identifier, and determining the position N i+1 of the (i+1) th PRB in frequency domain according to an equation N i+1 =N i +s i , in accordance with the position N 1 of the first PRB and the interval si, wherein N i is the position of the i th PRB in frequency domain. determining a resource position of a physical broadcast channel according to position information of the physical broadcast channel, wherein the physical broadcast channel occupies M physical resource blocks, PRBs, among m PRBs of a frequency band center of a carrier, m and M are positive integers, M is not greater than m, and m is not greater than the number of the PRBs corresponding to the system bandwidth, the position information comprises a cell identifier and an interval s i between the (i+1) th PRB and the i th PRB among the M PRBs, wherein i is a positive integer, and i is not smaller than 1 and is not greater than M-1; and receiving a broadcast message sent by a base station through the physical broadcast channel on the resource position of the physical broadcast channel, wherein the determining a resource position of a physcial broadcast channel according to position of the physical broadest channel further comprises: determining the position N 1 of the first PRB among the M PRBs in frequency domain according to the cell identifier, and determining the position N i+1 of the (i+1) th PRB in frequency domain according to an equation N i+1 =N i +s i , in accordance with the position N 1 of the first PRB and the interval si, wherein N i is the position of the i th PRB in frequency domain. determining the position N 1 of the first PRB among the M PRBs in frequency domain according to the cell identifier, and determining the position N i+1 of the (i+1) th PRB in frequency domain according to an equation N i+1 =N i +s i , in accordance with the position N 1 of the first PRB and the interval si, wherein N i is the position of the i th PRB in frequency domain.
A collapsible enclosure for accommodating a user, comprising: a body formed by a plurality of walls including at least a front wall , a back wall , a first side wall , a second side wall , a top wall , and a bottom wall coupled to one another to form an interior, the interior configured to be occupied by the user; a plurality of deformable frame members , wherein each of the front wall, the back wall, the first side wall, and the second side wall includes at least one of the plurality of deformable frame members; a window defined in one of the front wall, back wall, first side wall and second side wall, wherein the window is selectively engageable with the respective wall such that the window is disposable between an open and closed position; and a door defined in one of the front wall, back wall, first side wall, and second side wall, wherein the door is selectively engageable with the respective wall such that the door is disposable between an open and closed position; wherein, the front wall defines a first plane and the back wall defines a second plane, the first plane and second plane are substantially parallel to one another; further wherein, the body is collapsible between an upright configuration that defines the interior and a collapsible configuration; and characterized in that the enclosure further comprises a removable roof structure positioned over the top wall and extending downward over an upper portion of the front wall , an upper portion of the back wall , an upper portion of the first side wall , and an upper portion of the second side wall . a body formed by a plurality of walls including at least a front wall , a back wall , a first side wall , a second side wall , a top wall , and a bottom wall coupled to one another to form an interior, the interior configured to be occupied by the user; a plurality of deformable frame members , wherein each of the front wall, the back wall, the first side wall, and the second side wall includes at least one of the plurality of deformable frame members; a window defined in one of the front wall, back wall, first side wall and second side wall, wherein the window is selectively engageable with the respective wall such that the window is disposable between an open and closed position; and a door defined in one of the front wall, back wall, first side wall, and second side wall, wherein the door is selectively engageable with the respective wall such that the door is disposable between an open and closed position; wherein, the front wall defines a first plane and the back wall defines a second plane, the first plane and second plane are substantially parallel to one another; further wherein, the body is collapsible between an upright configuration that defines the interior and a collapsible configuration; and characterized in that the enclosure further comprises a removable roof structure positioned over the top wall and extending downward over an upper portion of the front wall , an upper portion of the back wall , an upper portion of the first side wall , and an upper portion of the second side wall .
An installation plate for a housing construction kit for electrical equipment wherein the housing construction kit includes a housing base body with a plurality of installation openings , the installation plate is comprising: a frame , on which an operating flap is pivotably arranged by means of a hinge joint, wherein the frame includes a closure mechanism that cooperates with the operating flap and a locking mechanism; wherein the locking mechanism is adapted to prevent activation of the closure mechanism as long as the operating flap is open and/or wherein the locking mechanism is adapted to be activated to open the operating flap when the operating flap is closed by an adjusting device formed on the frame for deactivating the closure mechanism with the locking mechanism remaining activated when the operating flap is open. a frame , on which an operating flap is pivotably arranged by means of a hinge joint, wherein the frame includes a closure mechanism that cooperates with the operating flap and a locking mechanism; wherein the locking mechanism is adapted to prevent activation of the closure mechanism as long as the operating flap is open and/or wherein the locking mechanism is adapted to be activated to open the operating flap when the operating flap is closed by an adjusting device formed on the frame for deactivating the closure mechanism with the locking mechanism remaining activated when the operating flap is open.
A sensor compound comprising a metal atom and a mercaptoimidazolyl multidentate ligand, wherein the mercaptoimidazolyl multidentate ligand comprises a pyrazolyl group or an indolyl group, and wherein the metal atom is Cu(I), Ag(I) or Au(I).
An anti-aging laundering system for fabrics comprising complementary laundering system components: (a) a liquid detergent composition, (b) a liquid fabric rinse conditioner, (c) an ancillary laundry agent wherein the (b) or (c) provides a combination of: (i) a fabric shape retention agent (ii) a fabric drape improver, (iii) at least one perfume wherein said complementary laundering components bear common visual indicia and corresponding instructions to launder fabrics with components (a) and (b) and (c); wherein the ancilliary laundry agent comprises: i. 2 - 30 w.t.% fabric softening silicone; ii. Less than 5 w.t.% surfactant; iii. 0.25 - 10 w.t.% cationic polymer iv. Water (a) a liquid detergent composition, (b) a liquid fabric rinse conditioner, (c) an ancillary laundry agent wherein the (b) or (c) provides a combination of: (i) a fabric shape retention agent (ii) a fabric drape improver, (iii) at least one perfume (i) a fabric shape retention agent (ii) a fabric drape improver, (iii) at least one perfume wherein said complementary laundering components bear common visual indicia and corresponding instructions to launder fabrics with components (a) and (b) and (c); wherein the ancilliary laundry agent comprises: i. 2 - 30 w.t.% fabric softening silicone; ii. Less than 5 w.t.% surfactant; iii. 0.25 - 10 w.t.% cationic polymer iv. Water i. 2 - 30 w.t.% fabric softening silicone; ii. Less than 5 w.t.% surfactant; iii. 0.25 - 10 w.t.% cationic polymer iv. Water
An image processing apparatus comprising: a network interface configured to receive data from a plurality of sources; a storage unit configured to store data and have a plurality of folders including a particular folder that is capable of being accessed from an external apparatus via a network; and at least one controller having at least one processor which is configured to execute instructions stored in a memory , the controller being configured to: receive first data; cause the storage unit to store the first data in the particular folder; send a storage destination of the first data to a predetermined E-mail address if the first data is received from the image processing apparatus; receive second data through the network interface; cause the storage unit to store the second data in the particular folder; and not send a storage destination of the second data to the predetermined E-mail address if the second data is received from an external apparatus. a network interface configured to receive data from a plurality of sources; a storage unit configured to store data and have a plurality of folders including a particular folder that is capable of being accessed from an external apparatus via a network; and at least one controller having at least one processor which is configured to execute instructions stored in a memory , the controller being configured to: receive first data; cause the storage unit to store the first data in the particular folder; send a storage destination of the first data to a predetermined E-mail address if the first data is received from the image processing apparatus; receive second data through the network interface; cause the storage unit to store the second data in the particular folder; and not send a storage destination of the second data to the predetermined E-mail address if the second data is received from an external apparatus. receive first data; cause the storage unit to store the first data in the particular folder; send a storage destination of the first data to a predetermined E-mail address if the first data is received from the image processing apparatus; receive second data through the network interface; cause the storage unit to store the second data in the particular folder; and not send a storage destination of the second data to the predetermined E-mail address if the second data is received from an external apparatus.
An induction heating apparatus comprising: - an inverter circuit including a plurality of circuits including a first arm circuit , a second arm circuit , and a common arm circuit each including a first switching element , a second switching element connected in series with the first switching element and output terminals each provided between the first switching element and the second switching element ; - a first heating coil electrically connected between the output terminal of the first arm circuit and the output terminal of the common arm circuit ; and - a second heating coil electrically connected between the output terminal of the second arm circuit and the output terminal of the common arm circuit , wherein the inverter circuit is configured to - switch the first switching element of the common arm circuit at a predetermined frequency, in a case that AC current at a first frequency is supplied to the first heating coil , characterised in that the inverter circuit is also configured to - switch the first switching element of the common arm circuit at a frequency that is same as the frequency in the case that the AC current at the first frequency is supplied to the first heating coil , also in a case that AC current at a second frequency different from the first frequency is supplied to the second heating coil , wherein the inverter circuit simultaneously supplies the AC current at the first frequency to the first heating coil and the AC current at the second frequency to the second heating coil . - an inverter circuit including a plurality of circuits including a first arm circuit , a second arm circuit , and a common arm circuit each including a first switching element , a second switching element connected in series with the first switching element and output terminals each provided between the first switching element and the second switching element ; - a first heating coil electrically connected between the output terminal of the first arm circuit and the output terminal of the common arm circuit ; and - a second heating coil electrically connected between the output terminal of the second arm circuit and the output terminal of the common arm circuit , wherein the inverter circuit is configured to - switch the first switching element of the common arm circuit at a predetermined frequency, in a case that AC current at a first frequency is supplied to the first heating coil , characterised in that the inverter circuit is also configured to - switch the first switching element of the common arm circuit at a frequency that is same as the frequency in the case that the AC current at the first frequency is supplied to the first heating coil , also in a case that AC current at a second frequency different from the first frequency is supplied to the second heating coil , wherein the inverter circuit simultaneously supplies the AC current at the first frequency to the first heating coil and the AC current at the second frequency to the second heating coil .
An organic electroluminescence element comprising an anode, a plurality of organic functional layers including a light-emitting layer, and a cathode in that order, wherein the organic functional layer containing a compound having a structure represented by the following general formula is arranged between the light-emitting layer and the cathode; wherein the cathode comprises silver as a main component, and wherein the organic functional layer is provided adjacent to the cathode: wherein X represents an oxygen atom or a sulfur atom; X 1 to X 12 each independently represent CR 1 or a nitrogen atom; one of X 5 and X 7 represents a nitrogen atom and the other represents CR 1 ; one of X 8 and X 10 represents a nitrogen atom and the other represents CR 1 ; R 1 represents a hydrogen atom or a substituent; L 1 represents a divalent linking group including a benzene ring, a biphenyl ring, a terphenyl ring, a naphthyl ring, an anthracene ring, a triphenylene ring, a fluorene ring, a pyridine ring, a pyrazine ring, a triazine ring, a pyrimidine ring, a dibenzofuran ring, a dibenzothiophene ring, a carbazole ring, an azadibenzofuran ring, an azadibenzothiophene ring, an azacarbazole ring, a thiophene ring, a benzothiophene ring, an indole ring, an imidazole ring, a benzimidazole ring, a pyrazole ring, or a triazole ring; L 1 may form a fused ring; and the ring containing X 8 to X 12 may be part of a fused ring. wherein the cathode comprises silver as a main component, and wherein the organic functional layer is provided adjacent to the cathode: wherein X represents an oxygen atom or a sulfur atom; X 1 to X 12 each independently represent CR 1 or a nitrogen atom; one of X 5 and X 7 represents a nitrogen atom and the other represents CR 1 ; one of X 8 and X 10 represents a nitrogen atom and the other represents CR 1 ; R 1 represents a hydrogen atom or a substituent; L 1 represents a divalent linking group including a benzene ring, a biphenyl ring, a terphenyl ring, a naphthyl ring, an anthracene ring, a triphenylene ring, a fluorene ring, a pyridine ring, a pyrazine ring, a triazine ring, a pyrimidine ring, a dibenzofuran ring, a dibenzothiophene ring, a carbazole ring, an azadibenzofuran ring, an azadibenzothiophene ring, an azacarbazole ring, a thiophene ring, a benzothiophene ring, an indole ring, an imidazole ring, a benzimidazole ring, a pyrazole ring, or a triazole ring; L 1 may form a fused ring; and the ring containing X 8 to X 12 may be part of a fused ring.
A Toll-like receptor 2 (TLR2) antagonist for use in the treatment of lower-risk Myelodysplastic Syndrome in a subject who is refractory or resistant to a previous treatment with a hypomethylating agent, wherein the TLR2 antagonist is an antibody or an antigen binding fragment thereof that specifically binds to TLR2, wherein the antibody or an antigen binding fragment thereof specifically binds to a noncontinuous epitope comprising amino acid residues His318, Pro320, Arg321, Tyr323, Lys347, Phe349, Leu371, Glu375, Tyr376 and His398 of SEQ ID NO: 1 or His318, Pro320, Gln321, Tyr323, Lys347, Phe349, Leu371, Glu375, Tyr376 and His398 of SEQ ID NO: 2, and wherein said treatment of Myelodysplastic Syndrome is a combination treatment with a therapeutically effective amount of a secondary therapeutic agent which is administered sequentiallyor simultaneously with said TLR2 antagonist, wherein the secondary therapeutic agent is a hypomethylating agent.
A single-lip drill comprising a drill head , wherein the drill head has a rotational axis , a drill diameter (D), a cutting edge, a minor cutting edge and a longitudinal groove for chip removal, the cutting edge extending from the rotational axis to the diameter (D) of the drill head , the cutting edge having a rake face , wherein the rake face comprises an inner rake face (23.1) and an outer rake face (23.2), wherein the inner rake face (23.1) is radially to the inside and in the immediate vicinity of the axis of rotation , wherein the outer rake face (23.2) is radially to the outside and adjoins the inner rake face (23.1), wherein the drill head comprises a rake face plane , that runs through rotational axis and parallel to the inner rake face plane (23.1), wherein the inner rake face (23.1) is in a view from the front toward the drill head in the immediate vicinity of the rake face plane , and wherein the outer rake face (23.2) in the region of the minor cutting edge in rotational direction of the single-lip drill lies behind the rake face level , characterized in, that the distance (L32) of the minor cutting edge to the rake face plane is at least 0,05 mm greater than the distance (L32) of the inner rake face (23.1) to the rake face plane .
Method for operating a battery cell , in particular in a vehicle, wherein a temperature (T) of the battery cell is measured by means of a temperature sensor , and a measurement current (IM) is measured by means of a current sensor to determine a battery current (IB) flowing through the battery cell , and wherein a load is connected to the battery cell , as a result of which a load current (IV) from the battery cell flows through the load if the measured temperature (T) falls below a predefined limit temperature (TG), and if the measured measurement current (IM) falls below a predefined limit value (IG), characterized in that the predefined limit value (IG) corresponds to a measurement fault current (IF) of the current sensor . a temperature (T) of the battery cell is measured by means of a temperature sensor , and a measurement current (IM) is measured by means of a current sensor to determine a battery current (IB) flowing through the battery cell , and wherein a load is connected to the battery cell , as a result of which a load current (IV) from the battery cell flows through the load if the measured temperature (T) falls below a predefined limit temperature (TG), and if the measured measurement current (IM) falls below a predefined limit value (IG), characterized in that the predefined limit value (IG) corresponds to a measurement fault current (IF) of the current sensor .
Computer-implemented method of predicting values of model parameters (R 1 , R 2 , R 3 , ... ) of a geological formation under investigation, wherein said geological formation is distinguished by reservoir parameters including observable data parameters and the model parameters (R 1 , R 2 , R 3 , ...) to be predicted, comprising the steps of; - in a forward modelling process, calculating at least one model constraint (M 1 , M 2 , M 3 , ... ) of the model parameters (R 1 , R 2 , R 3 , ... ) by applying at least one rock physics model (f 1 , f 2 , f 3 , ...) on the model parameters (R 1 , R 2 , R 3 , ...), said at least one model constraint (M 1 , M 2 , M 3 , ...) including modelled data of at least one of the data parameters, and - applying an inverse model solver process on observed input data (d 1 , d 2 , d 3 , ...) of at least one of the data parameters, said observed input data being derived from measurements, including calculating predicted model parameters, which comprise values of the model parameters (R 1 , R 2 , R 3 , ...) which give a mutual matching of the input data and the modelled data, the method being characterized by the steps of - providing the modelled data with probability distribution functions, - conducting the inverse model solver process based on the probability distribution functions of the modelled data, wherein multiple predicted values of the model parameters are obtained comprising values of the model parameters (R 1 , R 2 , R 3 , ...) which give the mutual matching of the input data and the modelled data, and - calculating model probabilities of the predicted values of the model parameters in dependency on the probability distribution functions of the modelled data. - in a forward modelling process, calculating at least one model constraint (M 1 , M 2 , M 3 , ... ) of the model parameters (R 1 , R 2 , R 3 , ... ) by applying at least one rock physics model (f 1 , f 2 , f 3 , ...) on the model parameters (R 1 , R 2 , R 3 , ...), said at least one model constraint (M 1 , M 2 , M 3 , ...) including modelled data of at least one of the data parameters, and - applying an inverse model solver process on observed input data (d 1 , d 2 , d 3 , ...) of at least one of the data parameters, said observed input data being derived from measurements, including calculating predicted model parameters, which comprise values of the model parameters (R 1 , R 2 , R 3 , ...) which give a mutual matching of the input data and the modelled data, the method being characterized by the steps of - providing the modelled data with probability distribution functions, - conducting the inverse model solver process based on the probability distribution functions of the modelled data, wherein multiple predicted values of the model parameters are obtained comprising values of the model parameters (R 1 , R 2 , R 3 , ...) which give the mutual matching of the input data and the modelled data, and - calculating model probabilities of the predicted values of the model parameters in dependency on the probability distribution functions of the modelled data.