mhurhangee/patent-ind-claim-en huggingface dataset:
An air conditioner comprising: an indoor unit comprising a casing , in which an indoor heat exchanger and an indoor fan are housed, and an indoor controller , wherein the indoor controller is configured to control the indoor fan blowing air (SA) into a room in varying volumes according to an air volume setting of the indoor fan and/or configured to control a flap provided at an air outlet of the casing according to an airflow direction setting of said flap to vary the volumes of air blown into the room, wherein the air volume setting comprises a highest air volume (H), a lowest air volume (L), and a medium air volume (M), between the highest air volume (H) and the lowest air volume (L); a refrigerant circuit including a compressor and filled with a refrigerant; a means for obtaining a condensation temperature (Tc) of the refrigerant, and a controller configured to control the number of revolutions of the compressor while keeping the condensation temperature (Tc) of the refrigerant equal to or higher than a predetermined lower limit (Tcs) during a heating mode of operation, wherein the controller has a control mode in which the controller is configured to control the number of revolutions of the compressor based on the lower limit (Tcs) that decreases as a volume of air corresponding to one of the settings decreases during the heating mode of operation. an indoor unit comprising a casing , in which an indoor heat exchanger and an indoor fan are housed, and an indoor controller , wherein the indoor controller is configured to control the indoor fan blowing air (SA) into a room in varying volumes according to an air volume setting of the indoor fan and/or configured to control a flap provided at an air outlet of the casing according to an airflow direction setting of said flap to vary the volumes of air blown into the room, configured to control the indoor fan blowing air (SA) into a room in varying volumes according to an air volume setting of the indoor fan and/or configured to control a flap provided at an air outlet of the casing according to an airflow direction setting of said flap to vary the volumes of air blown into the room, wherein the air volume setting comprises a highest air volume (H), a lowest air volume (L), and a medium air volume (M), between the highest air volume (H) and the lowest air volume (L); a refrigerant circuit including a compressor and filled with a refrigerant; a means for obtaining a condensation temperature (Tc) of the refrigerant, and a controller configured to control the number of revolutions of the compressor while keeping the condensation temperature (Tc) of the refrigerant equal to or higher than a predetermined lower limit (Tcs) during a heating mode of operation, wherein the controller has a control mode in which the controller is configured to control the number of revolutions of the compressor based on the lower limit (Tcs) that decreases as a volume of air corresponding to one of the settings decreases during the heating mode of operation.
Lock arrangement , in particular for motor vehicle doors or motor vehicle tailgates , having a lock housing , a rotary latch which is mounted rotatably on the lock housing and is movable into a primary detent position and an open position, a pawl which is mounted pivotably on the lock housing and is movable between a locked position, in which it engages with rotary latch and a release position, and a control element which is motion-coupled with the pawl and is mounted pivotably on the lock housing and can move the pawl from the locked position into the released position, wherein an immobilisation lever is mounted on the lock housing so as to be pivotable between a standby position and an immobilisation position, in which the immobilisation lever blocks a rotation of the rotary latch attached in the primary detent position thereof, characterized in that the immobilisation lever is coupled with the pawl in such manner that the immobilisation lever does not pivot into its immobilisation position until the pawl is arranged in the locked position, and wherein the immobilisation lever blocks a turning movement of the rotary latch at least into an overtravel position beyond the primary detent position.
A eucentric digital microscope, comprising: a stationary stand base body , a pivot unit pivotably mounted on the stand base body , the pivot unit being mounted rotatably around a rotation axis extending in a y direction, the pivot unit comprising at least an optical system having an optical axis extending orthogonally to the rotation axis, and a focal plane , the pivot unit being mounted immovably at least in an x direction and in a z direction relative to the rotation axis , and the optical system comprising at least an objective and an image capturing unit that are each mounted immovably relative to the rotation axis , characterized by an object table which is mounted on the stand base body outside the pivot unit movably at least along the z axis. a stationary stand base body , a pivot unit pivotably mounted on the stand base body , the pivot unit being mounted rotatably around a rotation axis extending in a y direction, the pivot unit comprising at least an optical system having an optical axis extending orthogonally to the rotation axis, and a focal plane , the pivot unit being mounted immovably at least in an x direction and in a z direction relative to the rotation axis , and the optical system comprising at least an objective and an image capturing unit that are each mounted immovably relative to the rotation axis , characterized by an object table which is mounted on the stand base body outside the pivot unit movably at least along the z axis.
A modular buoyancy element for an electrical cable or a pipeline where the buoyancy element comprises a through-going passage for the electrical cable or pipeline, wherein the buoyancy element comprises a plurality of buoyancy modules arranged to be assembled together around the electrical cable or the pipeline thus forming the buoyancy element , wherein a first buoyancy module is provided with at least one first fastening element arranged on a first inner surface and a second buoyancy module is provided with at least one second fastening element arranged on a second inner surface, the second fastening element adapted for receiving the first fastening element in a snap engagement, characterized in that said at least one first fastening element comprising a hook member and said at least one second fastening element comprising a receptacle member having a though going opening leading to hook member and defining a shoulder part such that the hook member snaps into the opening and locks onto the shoulder part when the first fastening element is pressed against the second fastening element, said opening adapted to receive a removal tool for disengaging hook member from shoulder part .
A computer-implemented method for preventing or mitigating hypoglycemia in a patient, the method comprising: determining, by continuous glucose monitoring of a continuous glucose monitor (104; 204; 304; 404), glucose concentration; evaluating , by a processor (106; 206; 306; 406), a risk of hypoglycemia based on at least the glucose concentration, the processor being configured to communicate with the continuous glucose monitor; implementing a safety supervision function by the processor that calculates an attenuation factor φ brakes (R(t)) given by: φ brakes R t = 1 / 1 + k ⋅ R t , where R(t) is the assessed risk of hypoglycemia and k is a parameter that is adjustable to match the patient's physiology; and outputting (508-2), by the processor or another processor, an insulin rate command based on the attenuation factor for use by an insulin delivery device. determining, by continuous glucose monitoring of a continuous glucose monitor (104; 204; 304; 404), glucose concentration; evaluating , by a processor (106; 206; 306; 406), a risk of hypoglycemia based on at least the glucose concentration, the processor being configured to communicate with the continuous glucose monitor; implementing a safety supervision function by the processor that calculates an attenuation factor φ brakes (R(t)) given by: φ brakes R t = 1 / 1 + k ⋅ R t , where R(t) is the assessed risk of hypoglycemia and k is a parameter that is adjustable to match the patient's physiology; and outputting (508-2), by the processor or another processor, an insulin rate command based on the attenuation factor for use by an insulin delivery device.
An inking mechanism of an offset printing apparatus, comprising an ink vibrator ; wherein a front side of the ink vibrator is connected to a first shaft through a first swinging arm ; the first shaft is provided with a first inking roller ; a back side of the ink vibrator is connected to a second shaft through a second swinging arm ; the second shaft is provided with a second inking roller , wherein a left circular base and a right circular base which is opposite to the left circular base of the first inking roller are respectively provided with a first holder ; the first holder is connected to the first shaft , the first holder is rotatably arranged relative to the first shaft , and the first holder is provided with a first roller bearer ; a left circular base and a right circular base which is opposite to the left circular base of the second inking roller are respectively provided with a second holder ; the second holder is connected to the second shaft , the second holder is rotatably arranged relative to the second shaft , and the second holder is provided with a second roller bearer and the first inking roller and the second inking roller are respectively cooperating with and roll oppositely with a plate roller ; wherein the first swinging arm is closer than the second swinging arm to the first roller bearer or second roller bearer in an axial direction of the ink vibrator ; characterized in that a first pull arm is connected between the first holder and the second swinging arm ; the first holder and the second swinging arm are respectively hinged to the first pull arm ; a second pull arm is connected between the second holder and the first swinging arm ; the second holder and the first swinging arm are respectively hinged to the second pull arm .
A method for synchronizing several equipments EQi each comprising a clock Hi adjusted to a crystal oscillator, said equipments EQi communicating with each other using a communication protocol, the equipments being configured to deliver a command signal to a device , comprising at least the following steps for a synchronization cycle: • At each equipment generating the command signal, computing a value of difference ΔH existing between a reference clock value Hm and the local clock Hi of an equipment, by comparing the value of the clock signal at a given time for the equipment to the value of the clock signal for the reference clock, • On detecting a phase shift ΔH between the reference clock value and the value of a local clock, the method is, in addition, characterized by the following steps: • when the value of the phase shift ΔH between the local clock and the reference clock corresponds to a refresh cycle of the reference clock Hm, a corrected clock time Hic is defined by repeating a number of the clock pulse of given parity if the value of the local clock is early and a corrected clock time is defined by skipping one number of the clock signal of opposite parity to the first parity if the local clock value is late, • when the value of the phase shift ΔH is higher than a refresh cycle, resetting the reference time, • Then using a corrected value of the clock in each equipment to emit the command signal. • At each equipment generating the command signal, computing a value of difference ΔH existing between a reference clock value Hm and the local clock Hi of an equipment, by comparing the value of the clock signal at a given time for the equipment to the value of the clock signal for the reference clock, • On detecting a phase shift ΔH between the reference clock value and the value of a local clock, the method is, in addition, characterized by the following steps: • when the value of the phase shift ΔH between the local clock and the reference clock corresponds to a refresh cycle of the reference clock Hm, a corrected clock time Hic is defined by repeating a number of the clock pulse of given parity if the value of the local clock is early and a corrected clock time is defined by skipping one number of the clock signal of opposite parity to the first parity if the local clock value is late, • when the value of the phase shift ΔH is higher than a refresh cycle, resetting the reference time, • Then using a corrected value of the clock in each equipment to emit the command signal.
In a computing environment comprising a plurality of computing systems capable of intercommunication, a method for a computing system to assist in locating a service offered by one or more of the plurality of computing systems , the method comprising: an act of receiving a query that represents a scope of a service to be located and contains a textual representation of the scope, said scope being a contextual identification of the location of the service and said query including user-inputted search criteria; an act of comparing the scope represented in the query with compiled scope information , the compiled scope information including the following for each of at least one of a plurality of scopes: a plurality of compiled scopes, each compiled using different matching rules , wherein the plurality of compiled scopes comprise text strings; an act of identifying at least one of the plurality of computing systems as providing the service to be located based on the act of comparing and matching the text strings to the scope represented in the query; and an act of providing a response to the query, the response including an identification of one or more of the at least one of the plurality of computing systems . an act of receiving a query that represents a scope of a service to be located and contains a textual representation of the scope, said scope being a contextual identification of the location of the service and said query including user-inputted search criteria; an act of comparing the scope represented in the query with compiled scope information , the compiled scope information including the following for each of at least one of a plurality of scopes: a plurality of compiled scopes, each compiled using different matching rules , wherein the plurality of compiled scopes comprise text strings; an act of identifying at least one of the plurality of computing systems as providing the service to be located based on the act of comparing and matching the text strings to the scope represented in the query; and an act of providing a response to the query, the response including an identification of one or more of the at least one of the plurality of computing systems .
Motor vehicle having an instrument panel which has at least one display apparatus for displaying at least one piece of content associated with an operating state of the motor vehicle , and having a steering handle for influencing lateral control of the motor vehicle by a driver of the motor vehicle , wherein the instrument panel is movable, relative to a holder which receives the instrument panel and is arranged in a passenger compartment of the motor vehicle , from a first position, in which the instrument panel is retracted into the holder , to a second position, in which the instrument panel is moved further out of the holder in the longitudinal direction (x) of the vehicle than in the first position, and from the second position back into the first position, wherein a front side of the instrument panel facing the driver in the first position has a first surface region , which in the first position is aligned substantially parallel to the vertical direction (z) of the vehicle, and a second surface region , and wherein a first end of the second surface region in the first position is closer to the first surface region in the longitudinal direction (x) of the vehicle than a second end of the second surface region , characterised in that the first surface region and the second surface region are formed as regions of a continuous screen arranged on a main body of the instrument panel . wherein the instrument panel is movable, relative to a holder which receives the instrument panel and is arranged in a passenger compartment of the motor vehicle , from a first position, in which the instrument panel is retracted into the holder , to a second position, in which the instrument panel is moved further out of the holder in the longitudinal direction (x) of the vehicle than in the first position, and from the second position back into the first position, wherein a front side of the instrument panel facing the driver in the first position has a first surface region , which in the first position is aligned substantially parallel to the vertical direction (z) of the vehicle, and a second surface region , and wherein a first end of the second surface region in the first position is closer to the first surface region in the longitudinal direction (x) of the vehicle than a second end of the second surface region , characterised in that the first surface region and the second surface region are formed as regions of a continuous screen arranged on a main body of the instrument panel .
A method of manufacturing a midsole of an article of footwear from a sheet of thermoplastic elastomer foam, comprising: cutting a plurality of portions from one or more thermoplastic elastomer foam sheets for manufacturing the midsole; arranging the plurality of portions to form a pre-molded core of the midsole, preferably by adhering the plurality of portions to each other; adhering the plurality of portions to a rim ; placing the plurality of portions and the rim in the mold; and applying heat and pressure to the plurality of portions and the rim for a predetermined amount of time to form the midsole; wherein the plurality of portions that form the core include: a first layer that extends from a heel of the midsole to an arch of the midsole; a second layer that extends from a heel of the midsole to a midportion of the midsole; a third layer that extends from a heel of the midsole to a ball of the foot of the midsole; and a fourth layer that extends from a heel of the midsole to a toe of the midsole, wherein the layers are arranged so that the layers at least partially overlap the other layers. cutting a plurality of portions from one or more thermoplastic elastomer foam sheets for manufacturing the midsole; arranging the plurality of portions to form a pre-molded core of the midsole, preferably by adhering the plurality of portions to each other; adhering the plurality of portions to a rim ; placing the plurality of portions and the rim in the mold; and applying heat and pressure to the plurality of portions and the rim for a predetermined amount of time to form the midsole; a first layer that extends from a heel of the midsole to an arch of the midsole; a second layer that extends from a heel of the midsole to a midportion of the midsole; a third layer that extends from a heel of the midsole to a ball of the foot of the midsole; and a fourth layer that extends from a heel of the midsole to a toe of the midsole, wherein the layers are arranged so that the layers at least partially overlap the other layers.
Refrigerator unit and/or a freezer unit having an inner space and a Peltier element for generating cold in the inner space, wherein the Peltier element is arranged between two thermo-conductive solid bodies which have an increasing cross-sectional area as the spacing from the Peltier element increases, wherein the two solid bodies are connected to one another by one or multiple connection means that have a smaller thermal conductivity than the solid bodies , characterized in that the refrigerator unit and/or freezer unit comprises a vacuum insulation as the thermal insulation of the inner space, and the Peltier element and both of the two solid bodies are arranged in the insulation layer, wherein the Peltier element is clamped between the solid bodies using the one or more connection means , wherein the connection means consist of plastic material.
An activation method for bandwidth part, BWP, comprising: receiving, by a terminal, first information on a first bandwidth part, BWP, from a network device, wherein the first information is used to activate a second BWP; transmitting, by the terminal, feedback response information corresponding to the first information within a time unit after a time unit occupied by the first information; and determining, by the terminal, that the second BWP is activated after a target time period starting from an end of the time unit within which the feedback response information is transmitted, wherein the time unit within which the feedback response information is transmitted is indicated by configuration information received from the network device; wherein a duration of the target time period is configured by the network device. receiving, by a terminal, first information on a first bandwidth part, BWP, from a network device, wherein the first information is used to activate a second BWP; transmitting, by the terminal, feedback response information corresponding to the first information within a time unit after a time unit occupied by the first information; and determining, by the terminal, that the second BWP is activated after a target time period starting from an end of the time unit within which the feedback response information is transmitted, wherein the time unit within which the feedback response information is transmitted is indicated by configuration information received from the network device; wherein a duration of the target time period is configured by the network device.