mhurhangee/ep-ind-claims huggingface dataset:
A hall call registration apparatus of an elevator, comprising: a first personal authentication device configured to authenticate a user of an elevator; a hall call registration apparatus main body configured to perform destination floor call registration of an elevator on the basis of verification information including personal ID unique to the user who was verified by the first personal authentication device; characterized by: a destination floor changing device provided in a hall of the elevator and configured to accept an operation for the user to perform at least one of a change and a cancel of the destination floor call registration; and a second personal authentication device provided in the destination floor changing device and configured to authenticate the user, wherein in the case where a personal ID verified by the second personal authentication device is the same as a personal ID verified by the first personal authentication device, the hall call registration apparatus main body is configured to judge that the operation is performed by the user who is authenticated in the first personal authentication device and performs a change and/or a cancel of a destination floor of the destination floor call registration. a first personal authentication device configured to authenticate a user of an elevator; a hall call registration apparatus main body configured to perform destination floor call registration of an elevator on the basis of verification information including personal ID unique to the user who was verified by the first personal authentication device; characterized by: a destination floor changing device provided in a hall of the elevator and configured to accept an operation for the user to perform at least one of a change and a cancel of the destination floor call registration; and a second personal authentication device provided in the destination floor changing device and configured to authenticate the user, a destination floor changing device provided in a hall of the elevator and configured to accept an operation for the user to perform at least one of a change and a cancel of the destination floor call registration; and a second personal authentication device provided in the destination floor changing device and configured to authenticate the user, wherein in the case where a personal ID verified by the second personal authentication device is the same as a personal ID verified by the first personal authentication device, the hall call registration apparatus main body is configured to judge that the operation is performed by the user who is authenticated in the first personal authentication device and performs a change and/or a cancel of a destination floor of the destination floor call registration.
An arrangement comprising a plurality of devices (110, 120, 130) and a data transfer device (100, 150) for sending data of encrypted content to the plurality of devices, the data transfer device comprising: a data sending unit for sending the data of the encrypted content to the plurality of devices; an authentication control unit for performing authentication processing with each of the plurality of devices; and a key information sending unit for sending key information for decrypting the encrypted content to the plurality of devices after the authentication processing by the authentication control unit for each of the plurality of devices is completed, wherein the sending of the key information is started by sending a key exchange command to each of the plurality of devices; and the key information sending unit does not send the key exchange command until the authentication processing by the authentication control unit for all the plurality of devices for which the authentication processing is to be performed is completed, and sends the key information to all of the plurality of devices at the same timing such that the plurality of devices to which content is sent obtain key information at the same timing and decryption is performed at the same timing between the plurality of devices. a data sending unit for sending the data of the encrypted content to the plurality of devices; an authentication control unit for performing authentication processing with each of the plurality of devices; and a key information sending unit for sending key information for decrypting the encrypted content to the plurality of devices after the authentication processing by the authentication control unit for each of the plurality of devices is completed, wherein the sending of the key information is started by sending a key exchange command to each of the plurality of devices; and the key information sending unit does not send the key exchange command until the authentication processing by the authentication control unit for all the plurality of devices for which the authentication processing is to be performed is completed, and sends the key information to all of the plurality of devices at the same timing such that the plurality of devices to which content is sent obtain key information at the same timing and decryption is performed at the same timing between the plurality of devices.
A process for preparing a compound of formula comprising contacting a compound of formula in the gas phase with a solid catalyst comprising a boron containing zeolitic material comprising a membered ring pore system greater than 10 MR, wherein k is, independently from each other, 0, 1, 2 or 3; R 1 is, independently from each other, hydroxy, C 1 -C 6 alkoxy, di(C 1 -C 6 -alkyl) aminyl; wherein in the boron containing zeolitic material, the molar ratio of silicon, calculated as elemental silicon, relative to boron, calculated as elemental boron, is in the range of from 1:1 to 100:1. in the gas phase with a solid catalyst comprising a boron containing zeolitic material comprising a membered ring pore system greater than 10 MR, wherein k is, independently from each other, 0, 1, 2 or 3; R 1 is, independently from each other, hydroxy, C 1 -C 6 alkoxy, di(C 1 -C 6 -alkyl) aminyl; wherein in the boron containing zeolitic material, the molar ratio of silicon, calculated as elemental silicon, relative to boron, calculated as elemental boron, is in the range of from 1:1 to 100:1.
A stable emulsifiable concentrate which comprises: a) a first carboxylic acid herbicide in the form of a tertiary amine salt in which the tertiary amine has the formula wherein R 1, R 2 and R 3 independently represent a C 1 -C 18 alkyl, optionally substituted with hydroxyl, amino or alkoxy groups; b) a second carboxylic acid herbicide in the form of a C 4 -C 8 alkyl or alkoxy-substituted alkyl ester; c) an alcohol solvent or co-solvent which is the same as the ester portion of the second carboxylic acid herbicide ester; and d) optionally emulsifiers. a) a first carboxylic acid herbicide in the form of a tertiary amine salt in which the tertiary amine has the formula wherein R 1, R 2 and R 3 independently represent a C 1 -C 18 alkyl, optionally substituted with hydroxyl, amino or alkoxy groups; b) a second carboxylic acid herbicide in the form of a C 4 -C 8 alkyl or alkoxy-substituted alkyl ester; c) an alcohol solvent or co-solvent which is the same as the ester portion of the second carboxylic acid herbicide ester; and d) optionally emulsifiers.
A method of predictive yaw stability control of a vehicle, characterized in that it comprises the steps of: initiating simulation starting from a measured state of the vehicle at that specific time instant; acquiring information on the road ahead to be travelled during a predetermined time period; simulating the vehicle's motion along a future path on the road ahead during the predefined time period; calculating one or more indicators of the vehicles predicted yaw stability during the simulated motion along the future path on the road ahead during the predefined time period; evaluating the calculated indicators to establish if the vehicle is about to lose control; if established that the vehicle is about to lose control, signaling this to an on-board yaw stability system, wherein the step of simulating the vehicle's motion along a future path on the road ahead during the predefined time period comprises: using a driver model for modeling the driver behavior when driving the future path on the road ahead during the predefined time period; using a vehicle model for modeling the vehicles yaw stability when driven the future path on the road ahead by the driver model during the predefined time period. initiating simulation starting from a measured state of the vehicle at that specific time instant; acquiring information on the road ahead to be travelled during a predetermined time period; simulating the vehicle's motion along a future path on the road ahead during the predefined time period; calculating one or more indicators of the vehicles predicted yaw stability during the simulated motion along the future path on the road ahead during the predefined time period; evaluating the calculated indicators to establish if the vehicle is about to lose control; if established that the vehicle is about to lose control, signaling this to an on-board yaw stability system,
Actuating device, consisting of at least one solenoid drive having a solenoid coil which, accommodated in a housing, generates heat during operation which impairs the performance of the device and which is dissipated at least partially into the surroundings as power loss via the housing, wherein, for improved heat dissipation, parts (40, 42) of the device consist of at least one special plastic material which has a coefficient of thermal conductivity between 0.25 and 1.25 W/m/K, characterised in that a receiving cup of a housing part of the housing accommodates at least the solenoid coil and subsequently a pole plate from its free end face, the pole plate resting against an end piece which is held in the housing part with a predefinable pretension by means of a flange. wherein, for improved heat dissipation, parts (40, 42) of the device consist of at least one special plastic material which has a coefficient of thermal conductivity between 0.25 and 1.25 W/m/K, characterised in that a receiving cup of a housing part of the housing accommodates at least the solenoid coil and subsequently a pole plate from its free end face, the pole plate resting against an end piece which is held in the housing part with a predefinable pretension by means of a flange.
A golf club head comprising: a face having a ball striking surface configured for striking a ball and being defined by a plurality of peripheral edges; a body connected to the face and extending rearward from the face, the body including a heel, a toe, a top side, and a sole configured to confront a playing surface in use, the body and the face defining an interior cavity; and a first inwardly recessed channel and a second inwardly recessed channel at least partially located on the sole of the body and being configured to influence the impact of a ball on the face, the first channel being elongated between a proximal end located proximate a center portion of the sole and a distal end located more proximate the heel, and the second channel being elongated between a proximal end located proximate the center portion of the sole and a distal end located more proximate the toe, wherein a gap is defined proximate the center portion of the sole between the proximal ends of the first and second channels, and wherein the first and second channels are each recessed between a front boundary edge and a rear boundary edge, wherein the front boundary edge of each of the first and second channels is generally parallel to at least one of the peripheral edges of the face. a face having a ball striking surface configured for striking a ball and being defined by a plurality of peripheral edges; a body connected to the face and extending rearward from the face, the body including a heel, a toe, a top side, and a sole configured to confront a playing surface in use, the body and the face defining an interior cavity; and a first inwardly recessed channel and a second inwardly recessed channel at least partially located on the sole of the body and being configured to influence the impact of a ball on the face, the first channel being elongated between a proximal end located proximate a center portion of the sole and a distal end located more proximate the heel, and the second channel being elongated between a proximal end located proximate the center portion of the sole and a distal end located more proximate the toe, wherein a gap is defined proximate the center portion of the sole between the proximal ends of the first and second channels, and wherein the first and second channels are each recessed between a front boundary edge and a rear boundary edge, wherein the front boundary edge of each of the first and second channels is generally parallel to at least one of the peripheral edges of the face.
A passive implantable relay module, comprising: a first coupler arm configured to wirelessly receive electromagnetic energy radiated through non-inductive coupling from a transmitting antenna located outside a subject's body; a second coupler arm; and a connector portion comprising a first metal core and a first dielectric coating surrounding at least portions of the first metal core, the first metal core sized and shaped to run a longitudinal length from the first coupler arm to the second coupler arm, the connector portion configured to connect the first coupler arm to the second coupler arm and to transport the received electromagnetic energy from the first coupler arm to the second coupler arm such that when the passive implantable relay module is implanted inside the subject's body and the transmitting antenna initiates wireless energy transfer to the first coupler arm through non-inductive coupling, electromagnetic waves carrying the electromagnetic energy received at the first coupler arm propagate along the first metal core to arrive at the second coupler arm, where the electromagnetic energy arriving is wirelessly transferred, again through non-inductive coupling, to a receiving antenna on a passive wireless neural stimulator device that has been implanted inside the subject to be solely powered wirelessly. a first coupler arm configured to wirelessly receive electromagnetic energy radiated through non-inductive coupling from a transmitting antenna located outside a subject's body; a second coupler arm; and a connector portion comprising a first metal core and a first dielectric coating surrounding at least portions of the first metal core, the first metal core sized and shaped to run a longitudinal length from the first coupler arm to the second coupler arm, the connector portion configured to connect the first coupler arm to the second coupler arm and to transport the received electromagnetic energy from the first coupler arm to the second coupler arm such that when the passive implantable relay module is implanted inside the subject's body and the transmitting antenna initiates wireless energy transfer to the first coupler arm through non-inductive coupling, electromagnetic waves carrying the electromagnetic energy received at the first coupler arm propagate along the first metal core to arrive at the second coupler arm, where the electromagnetic energy arriving is wirelessly transferred, again through non-inductive coupling, to a receiving antenna on a passive wireless neural stimulator device that has been implanted inside the subject to be solely powered wirelessly.
A method for treating a liquid industrial process sample, the sample comprising iron and at least one organic compound of interest, the method comprising i. adding a reduction agent capable of reducing iron to iron to the sample; ii. adding a reagent comprising an ammonium salt, alkali metal salt or earth alkali metal salt of hexacyanoferrate to the sample; iii. allowing iron in the sample to interact with the reagent and to form a reaction product; iv. separating the reaction product of iron from the sample; and v. determining the amount of the at least one compound of interest from the sample. i. adding a reduction agent capable of reducing iron to iron to the sample; ii. adding a reagent comprising an ammonium salt, alkali metal salt or earth alkali metal salt of hexacyanoferrate to the sample; iii. allowing iron in the sample to interact with the reagent and to form a reaction product; iv. separating the reaction product of iron from the sample; and v. determining the amount of the at least one compound of interest from the sample.
A method for decoding by using window-based least significant bits in robust header compression, which is used for a decompressor to decode a parameter field sent over by a compressor, characterized in that, this method includes the following steps: the decompressor obtaining an upper limit and a lower limit of an interpretation interval to determine the interpretation interval based on a saved value of a parameter field successfully decoded last time which acts as a reference value Ref and by using an offset p in context; the decompressor determining high bits of a decoded value based on a k-bit data m received from the compressor as well as the upper limit and/or the lower limit of the interpretation interval, and constructing the decoded value composed of the determined high bits and the received k-bit data m which acts as the low bits, wherein the lower limit of the interpretation interval is calculated according to the formula: Low = Ref - p; and the upper limit of the interpretation interval is calculated according to the formula: High = Ref + (2 ^ k - 1) - p, wherein the "^" means exponentiation, wherein the offset p in the context is a shifting value pre-negotiated between the compressor and the decompressor, and the k-bit data m is taken from low-k bits in an original field value, and wherein the interpretation interval defines an interval of the decoded value, and the compressor selects the low-k bits to send, while the decompressor searches in the interpretation interval to find a value of the low-k bits which is identical to the received k-bit data and uses the value as the decoded value. the decompressor obtaining an upper limit and a lower limit of an interpretation interval to determine the interpretation interval based on a saved value of a parameter field successfully decoded last time which acts as a reference value Ref and by using an offset p in context; the decompressor determining high bits of a decoded value based on a k-bit data m received from the compressor as well as the upper limit and/or the lower limit of the interpretation interval, and constructing the decoded value composed of the determined high bits and the received k-bit data m which acts as the low bits,
An oral care composition, comprising: an orally acceptable carrier; from 0.5 to 3% by weight zinc phosphate; from 0.05 to 11% by weight stannous fluoride; from 1 to 8% by weight alkali phosphate salts selected from sodium phosphate dibasic, potassium phosphate dibasic, dicalcium phosphate dihydrate, tetrasodium pyrophosphate, tetrapotassium pyrophosphate, calcium pyrophosphate, sodium tripolyphosphate, and mixtures of any two or more of these, relative to the weight of the oral care composition; and a silica abrasive; and wherein the amount of the water is 12% by weight or more, relative to the weight of the oral care composition. an orally acceptable carrier; from 0.5 to 3% by weight zinc phosphate; from 0.05 to 11% by weight stannous fluoride; from 1 to 8% by weight alkali phosphate salts selected from sodium phosphate dibasic, potassium phosphate dibasic, dicalcium phosphate dihydrate, tetrasodium pyrophosphate, tetrapotassium pyrophosphate, calcium pyrophosphate, sodium tripolyphosphate, and mixtures of any two or more of these, relative to the weight of the oral care composition; and a silica abrasive; and
A positive displacement pump for pumping a gas, said pump comprising: a pump housing element and a further element; one of said pump housing element and said further element comprising a protrusion extending towards the other element (20,10), said other element (20,10) comprising at least one liquid opening; said protrusion, pump housing element and further element forming a path from a gas inlet to a gas outlet; wherein said pump housing element and further element are mounted rotatably with respect to each other; and said at least one liquid opening is configured such that liquid output from said at least one liquid opening forms a liquid blade, said liquid blade being operable to drive gas along said path from said gas inlet to said gas outlet on rotation of one of said elements (20,10). a pump housing element and a further element; one of said pump housing element and said further element comprising a protrusion extending towards the other element (20,10), said other element (20,10) comprising at least one liquid opening; said protrusion, pump housing element and further element forming a path from a gas inlet to a gas outlet; wherein said pump housing element and further element are mounted rotatably with respect to each other; and
Method for time synchronization of a communication between communication elements (1, 2) in an industrial setting by way of a first, wireless connection (DATA) to real-time Ethernet systems based on time-sensitive networking TSN, wherein synchronization times are initiated directly by a hardware unit that is responsible for the time synchronization and has a highly accurate clock, or are supplied to one such on the side to be synchronized, the synchronization times being converted into synchronization signals, a second transmission channel (SYNC), which is different from the first, is used to transmit the synchronization signals, this second transmission channel likewise being in the form of a wireless connection, and the transmission process has a variable delay, and the hardware unit determines the value of the delay and uses the value as a correction value for the synchronization signal or conveys said value to the receiving communication element by way of the first radio system. synchronization times are initiated directly by a hardware unit that is responsible for the time synchronization and has a highly accurate clock, or are supplied to one such on the side to be synchronized, the synchronization times being converted into synchronization signals, a second transmission channel (SYNC), which is different from the first, is used to transmit the synchronization signals, this second transmission channel likewise being in the form of a wireless connection, and the transmission process has a variable delay, and the hardware unit determines the value of the delay and uses the value as a correction value for the synchronization signal or conveys said value to the receiving communication element by way of the first radio system.