mhurhangee/patent-ind-claim-en huggingface dataset:
A molding product inspection device used for an injection molding machine that manufactures a molding product (MP) by injecting a molding material into a mold unit , the molding product inspection device comprising: an acquisition unit configured to acquire target appearance information relating to an appearance (Pe) of the molding product (MP) serving as an inspection target; and a processing unit configured to divide the appearance (Pe) in the target appearance information into a plurality of divided regions (Rd), and determine importance of each of the divided regions (Rd) by weighting, characterized in that the processing unit performs more machine learning on one or more divided regions (Rd) determined to be of relatively higher importance out of the plurality of divided regions (Rd), than at least one of other divided regions (Rd). an acquisition unit configured to acquire target appearance information relating to an appearance (Pe) of the molding product (MP) serving as an inspection target; and a processing unit configured to divide the appearance (Pe) in the target appearance information into a plurality of divided regions (Rd), and determine importance of each of the divided regions (Rd) by weighting, characterized in that the processing unit performs more machine learning on one or more divided regions (Rd) determined to be of relatively higher importance out of the plurality of divided regions (Rd), than at least one of other divided regions (Rd).
An electronic device comprising: a gas sensor having different sensitivities in temperature for types of a plurality of gases; a heater configured to vary temperature of the gas sensor ; a memory configured to store temperature control information corresponding to the types of a plurality of gases; and a processor configured to: control the heater to operate at a reference temperature, in response to a predetermined event related to a change of an output value of the gas sensor being occurred while the heater is operating at the reference temperature, control the heater based on first temperature control information corresponding to a first gas, and obtain a concentration of the first gas based on an output value of the gas sensor while the heater is being controlled based on the first temperature control information, and control the heater based on second temperature control information corresponding to a second gas different from the first gas, and obtain a concentration of the second gas based on an output value of the gas sensor while the heater is being controlled based on the second temperature control information. a gas sensor having different sensitivities in temperature for types of a plurality of gases; a heater configured to vary temperature of the gas sensor ; a memory configured to store temperature control information corresponding to the types of a plurality of gases; and a processor configured to: control the heater to operate at a reference temperature, in response to a predetermined event related to a change of an output value of the gas sensor being occurred while the heater is operating at the reference temperature, control the heater based on first temperature control information corresponding to a first gas, and obtain a concentration of the first gas based on an output value of the gas sensor while the heater is being controlled based on the first temperature control information, and control the heater based on second temperature control information corresponding to a second gas different from the first gas, and obtain a concentration of the second gas based on an output value of the gas sensor while the heater is being controlled based on the second temperature control information. control the heater to operate at a reference temperature, in response to a predetermined event related to a change of an output value of the gas sensor being occurred while the heater is operating at the reference temperature, control the heater based on first temperature control information corresponding to a first gas, and obtain a concentration of the first gas based on an output value of the gas sensor while the heater is being controlled based on the first temperature control information, and control the heater based on second temperature control information corresponding to a second gas different from the first gas, and obtain a concentration of the second gas based on an output value of the gas sensor while the heater is being controlled based on the second temperature control information.
A method for secure wireless communications with a network at a subscriber station , comprising: receiving a random value from the network, the random value having an expiration marker denoting an expiration time; comparing a current time to the expiration time; authenticating the communication if the current time does not exceed the expiration time; and refusing authentication of the communication if the current time exceeds the expiration time, wherein the subscriber station performs the steps of receiving, comparing and authenticating or refusing authentication. receiving a random value from the network, the random value having an expiration marker denoting an expiration time; comparing a current time to the expiration time; authenticating the communication if the current time does not exceed the expiration time; and refusing authentication of the communication if the current time exceeds the expiration time, wherein the subscriber station performs the steps of receiving, comparing and authenticating or refusing authentication.
A refrigeration cycle system comprising: a refrigeration cycle apparatus including a refrigerant circuit ; an operation signal transmitter configured to transmit an operation signal (C) for the refrigeration cycle apparatus in accordance with an operation by a user; a detection unit configured to detect leakage of a refrigerant; a notification unit configured to notify leakage of the refrigerant by emitting at least one of sound and light in a case where the detection unit detects leakage of the refrigerant; and characterized by a processing unit configured to cause the notification unit to execute test behavior of emitting at least one of sound and light in a case where the operation signal transmitter transmits the operation signal (C) to the refrigeration cycle apparatus in accordance with the operation by the user; wherein the operation signal (C) corresponds to at least one of an activation signal for the refrigeration cycle apparatus and a stop signal for the refrigeration cycle apparatus . a refrigeration cycle apparatus including a refrigerant circuit ; an operation signal transmitter configured to transmit an operation signal (C) for the refrigeration cycle apparatus in accordance with an operation by a user; a detection unit configured to detect leakage of a refrigerant; a notification unit configured to notify leakage of the refrigerant by emitting at least one of sound and light in a case where the detection unit detects leakage of the refrigerant; and characterized by a processing unit configured to cause the notification unit to execute test behavior of emitting at least one of sound and light in a case where the operation signal transmitter transmits the operation signal (C) to the refrigeration cycle apparatus in accordance with the operation by the user; wherein the operation signal (C) corresponds to at least one of an activation signal for the refrigeration cycle apparatus and a stop signal for the refrigeration cycle apparatus .
A recording apparatus comprising: a plurality of roll-type medium loading units that are positioned so that a roll-type medium (R1, R2) can be loaded therein from a front of the recording apparatus ; a transportation unit that transports the medium which has been fed from one of the roll-type medium loading units in the downstream direction; and a recording unit that performs recording on the transported medium (R1, R2), wherein the plurality of roll-type medium loading units includes a first roll-type medium loading unit that is disposed at a position above the recording unit and a second roll-type medium loading unit that is disposed at a position below the recording unit , characterized by further comprising: a guide member that is disposed at the front of the second roll-type medium loading unit which is positioned at a waiting position where recording can be performed by the recording unit so that the guide member guides the recorded medium (R2) when the medium is ejected, wherein the guide member is configured to be movable between a guiding position where the guide member guides the medium (R2) and a retracted position where the guide member is positioned so as not to interfere with the second roll-type medium loading unit during loading of the roll-type medium into the second roll-type medium loading unit . a plurality of roll-type medium loading units that are positioned so that a roll-type medium (R1, R2) can be loaded therein from a front of the recording apparatus ; a transportation unit that transports the medium which has been fed from one of the roll-type medium loading units in the downstream direction; and a recording unit that performs recording on the transported medium (R1, R2), wherein the plurality of roll-type medium loading units includes a first roll-type medium loading unit that is disposed at a position above the recording unit and a second roll-type medium loading unit that is disposed at a position below the recording unit ,
A weight applicator , comprising: a weight applicator head adapted to carry a wheel balance weight , the weight applicator head having weight application surface with a weight retaining region and a leading rotation region ; at least one actuator coupled to the weight applicator head for manipulating the weight applicator head in at least one direction, the at least one direction having an arcuate component; and characterised in that the leading rotation region is oriented to extend radially further than the weight retaining region . a weight applicator head adapted to carry a wheel balance weight , the weight applicator head having weight application surface with a weight retaining region and a leading rotation region ; at least one actuator coupled to the weight applicator head for manipulating the weight applicator head in at least one direction, the at least one direction having an arcuate component; and characterised in that the leading rotation region is oriented to extend radially further than the weight retaining region .
A compound according to Formula I: wherein: X is CH or N; n is 0, 1 or 2; R 1 is independently OH, halo or (C 1-4 )alkyl; R 2 is independently OH, halo, (C 1-4 )alkyl, CH 2 F, CHF 2 or CF 3 ; and R 3 is CH 2 F, CHF 2 or CF 3 ; or a pharmaceutically acceptable salt thereof. X is CH or N; n is 0, 1 or 2; R 1 is independently OH, halo or (C 1-4 )alkyl; R 2 is independently OH, halo, (C 1-4 )alkyl, CH 2 F, CHF 2 or CF 3 ; and R 3 is CH 2 F, CHF 2 or CF 3 ;
Refrigerator, in particular a household refrigerator, having a body having an inner container which lines a refrigerating zone and having at least one storage shelf for refrigerated goods which is mounted in the refrigerating zone on inner walls of the inner container such that it can be pulled out by linear guides , wherein the linear guides have supports which engage under the storage shelf , and at least one flat shelf section of the storage shelf is guided onto the inner walls of the inner container so as to cover the supports , wherein the storage shelf is connected to support strips which form the supports and are fixedly connected to moveable guide rails of the linear guides , characterised in that each support strip has a perpendicularly running wall section and each support strip is embodied as a box-shaped hollow profile strip in a region of the perpendicularly running wall section lying below the plane of the storage shelf , and has a receptacle arranged beneath the storage shelf and embodied as open up to the lateral edges of the storage shelf , within which receptacle the linear guides are at least largely accommodated, in particular such that they terminate flush with the free edges of the receptacle directed away from the storage shelf, and wherein the storage shelf rests on the cover area of the box-shaped hollow profile strip .
A method of manufacturing an oral care composition, which method comprises: (a) dissolving rutin in a solvent to form a pre-mix; and (b) combining the pre-mix with one or more further ingredients to form the oral care composition; wherein the solvent of the step (a) comprises a first and second polyhydroxyalkyl alcohol, wherein the first polyhydroxyalkyl alcohol is propylene glycol and the second polyhydroxyalkyl alcohol is sorbitol; wherein step (a) comprises: (i) dissolving the rutin in the first polyhydroxyalkyl alcohol to form a solution; and (ii) mixing the second polyhydroxyalkyl alcohol with the solution to form the pre-mix; and wherein the rutin is present in the pre-mix in an amount of at least 5% by weight of the pre-mix, further including heating the solvent of step (i) to a temperature in the range of 50°C to 70°C before adding the second polyhydroxyalkyl alcohol. (a) dissolving rutin in a solvent to form a pre-mix; and (b) combining the pre-mix with one or more further ingredients to form the oral care composition; (i) dissolving the rutin in the first polyhydroxyalkyl alcohol to form a solution; and (ii) mixing the second polyhydroxyalkyl alcohol with the solution to form the pre-mix; and wherein the rutin is present in the pre-mix in an amount of at least 5% by weight of the pre-mix, further including heating the solvent of step (i) to a temperature in the range of 50°C to 70°C before adding the second polyhydroxyalkyl alcohol.
A surgical instrument (104; 108) comprising: a direct current (DC) motor load ; an ultrasonic energy output , and a circuit ; characterized in that the circuit is configured to: receive a combined RF and ultrasonic signal from a generator electrically coupled to the surgical instrument (104; 108); generate an ultrasonic filtered signal by filtering ultrasonic frequency content from the combined RF and ultrasonic signal; generate DC voltage by filtering RF frequency content from the combined signal; provide the DC voltage to the DC motor load; and provide the ultrasonic filtered signal to the ultrasonic energy output wherein the circuit comprises a rectifier configured to produce the DC voltage. a direct current (DC) motor load ; an ultrasonic energy output , and a circuit ; characterized in that the circuit is configured to: receive a combined RF and ultrasonic signal from a generator electrically coupled to the surgical instrument (104; 108); generate an ultrasonic filtered signal by filtering ultrasonic frequency content from the combined RF and ultrasonic signal; generate DC voltage by filtering RF frequency content from the combined signal; provide the DC voltage to the DC motor load; and provide the ultrasonic filtered signal to the ultrasonic energy output wherein the circuit comprises a rectifier configured to produce the DC voltage. receive a combined RF and ultrasonic signal from a generator electrically coupled to the surgical instrument (104; 108); generate an ultrasonic filtered signal by filtering ultrasonic frequency content from the combined RF and ultrasonic signal; generate DC voltage by filtering RF frequency content from the combined signal; provide the DC voltage to the DC motor load; and provide the ultrasonic filtered signal to the ultrasonic energy output wherein the circuit comprises a rectifier configured to produce the DC voltage.
A method comprising: receiving, by a mobile device, a hashed identifier from a tracking device, the tracking device configured to compute the hashed identifier using a hash key, the hashed identifier corresponding to the tracking device; querying, by the mobile device, a server associated with each of a plurality of entities within a directory with the hashed identifier, each entity within the directory associated with a set of hash keys and associated with a set of tracking devices, wherein each entity is configured to compute a candidate hashed identifier for each combination of hash key in the set of hash keys associated with the entity and tracking device in the set of tracking devices associated with the entity; receiving, by the mobile device, a public key from a server associated with a first entity of the plurality of entities associated with the hash key used to compute the hashed identifier, the public key associated with the tracking device; accessing, by the mobile device, location data representative of a location of the mobile device; encrypting, by the mobile device, the accessed location data using the public key to produce encrypted location data; and providing, by the mobile device, the encrypted location data to the first entity. receiving, by a mobile device, a hashed identifier from a tracking device, the tracking device configured to compute the hashed identifier using a hash key, the hashed identifier corresponding to the tracking device; querying, by the mobile device, a server associated with each of a plurality of entities within a directory with the hashed identifier, each entity within the directory associated with a set of hash keys and associated with a set of tracking devices, wherein each entity is configured to compute a candidate hashed identifier for each combination of hash key in the set of hash keys associated with the entity and tracking device in the set of tracking devices associated with the entity; receiving, by the mobile device, a public key from a server associated with a first entity of the plurality of entities associated with the hash key used to compute the hashed identifier, the public key associated with the tracking device; accessing, by the mobile device, location data representative of a location of the mobile device; encrypting, by the mobile device, the accessed location data using the public key to produce encrypted location data; and providing, by the mobile device, the encrypted location data to the first entity.
Method for evaporating and condensing a medium with an evaporation system , in particular a rotary evaporator, comprising the steps of - Providing a medium to be vaporized in a container , - Providing a heating device for heating the medium to be vaporized, - Providing a pressure control device for detecting and setting a pressure (P) in the container , - Providing a cooling device for condensing vaporized media , - Detection of a temperature (T H ) of the heating device and a temperature (T K ) of the cooling device , - Detection of the pressure (P) in the container , - Adjusting the pressure (P) in the container in such a way that the medium evaporates at an initial temperature (T A ) which is greater than the temperature (T K ) of the cooling device by a predetermined temperature difference (ΔT) and condenses on the cooling device , - Setting the temperature (T H ) of the heating device in such a way that the temperature (T H ) of the heating device is equal to the initial temperature (T A ), Subsequent adjustment of the temperature (T H ) of the heating device to a predetermined continuous temperature (T contin-uous ) with simultaneous tracking of the pressure (P) in accordance with a boiling curve of the aforementioned medium , characterized in that - the pressure (P) is continuously recorded and the temperature (T H ) of the heating device is continuously adjusted according to the boiling curve and/or - the temperature (T H ) of the heating device is continuously recorded and the pressure (P) is continuously adjusted according to the boiling curve, - whereby evaporation and condensation take place continuously. - Providing a medium to be vaporized in a container , - Providing a heating device for heating the medium to be vaporized, - Providing a pressure control device for detecting and setting a pressure (P) in the container , - Providing a cooling device for condensing vaporized media , - Detection of a temperature (T H ) of the heating device and a temperature (T K ) of the cooling device , - Detection of the pressure (P) in the container , - Adjusting the pressure (P) in the container in such a way that the medium evaporates at an initial temperature (T A ) which is greater than the temperature (T K ) of the cooling device by a predetermined temperature difference (ΔT) and condenses on the cooling device , - Setting the temperature (T H ) of the heating device in such a way that the temperature (T H ) of the heating device is equal to the initial temperature (T A ), Subsequent adjustment of the temperature (T H ) of the heating device to a predetermined continuous temperature (T contin-uous ) with simultaneous tracking of the pressure (P) in accordance with a boiling curve of the aforementioned medium , characterized in that - the pressure (P) is continuously recorded and the temperature (T H ) of the heating device is continuously adjusted according to the boiling curve and/or - the temperature (T H ) of the heating device is continuously recorded and the pressure (P) is continuously adjusted according to the boiling curve, - whereby evaporation and condensation take place continuously.
Modular gripping device system with various gripping units (41-45), wherein each gripping unit (41-45) is equipped with at least two gripping elements which are arranged on carriages or gripping element carriers, and which are movable toward each other, of which at least one gripping element is movable in one or two directions by means of a drive , and wherein the drive comprises at least one transmission , - wherein the respective gripping unit (41-45) and the drive with its downstream transmissions are arranged in a two-part, modular module housing , - wherein the drive and at least one transmission represent a drive module , - wherein the drive module has an electric motor and at least one single-stage spur gear transmission , - wherein the respective gripping elements, their bearings and/or guides and at least one transmission each form a gripping unit module , - wherein the drive module is housed in a drive module housing and the gripping unit module in a gripping unit module housing , - wherein the separating and mounting joint separating the drive module and the gripping unit module is located between two parts of a two-part transmission , - wherein the two-part transmission is a worm gear transmission, the first transmission part of which is a worm and the second transmission part of which is a worm wheel, and - wherein the electric motor has a drive shaft, the centre line of which is aligned parallel to the plane formed by the separating and mounting joint . - wherein the respective gripping unit (41-45) and the drive with its downstream transmissions are arranged in a two-part, modular module housing , - wherein the drive and at least one transmission represent a drive module , - wherein the drive module has an electric motor and at least one single-stage spur gear transmission , - wherein the respective gripping elements, their bearings and/or guides and at least one transmission each form a gripping unit module , - wherein the drive module is housed in a drive module housing and the gripping unit module in a gripping unit module housing , - wherein the separating and mounting joint separating the drive module and the gripping unit module is located between two parts of a two-part transmission , - wherein the two-part transmission is a worm gear transmission, the first transmission part of which is a worm and the second transmission part of which is a worm wheel, and - wherein the electric motor has a drive shaft, the centre line of which is aligned parallel to the plane formed by the separating and mounting joint .