mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry treatment apparatus comprising: a tub ; a drum configured to rotate within the tub and to contain laundry therein, the drum being formed of a metallic material; and an induction module provided at an outer circumferential surface of the tub , configured to generate an electromagnetic field to heat the drum and comprising a base housing mounted on the outer circumferential surface of the tub and a module cover mounted on the base housing , wherein the base housing comprises a plurality of fixing ribs protruding upwardly and a coil slot formed by the plurality of fixing ribs and a wire wound and fitted into the coil slot so that the base housing accommodates a coil defined by the coil slot and the wire therein, characterized in that the coil comprises a plurality of straight portions and curved portions , the plurality of straight portions comprise first and second straight portions which are extended along a rotational axis of the drum and third and fourth straight portions which are provided perpendicular to the first or the second straight portion, the curved portions are formed at a point at which one of the first and the second straight portions meets one of the third and the fourth straight portions, and a radius of curvature of the wire at a position close to a center of the coil in the curved portions is the same as a radius of curvature of the wire at a position distant from the center of the coil in the curved portions . a tub ; a drum configured to rotate within the tub and to contain laundry therein, the drum being formed of a metallic material; and an induction module provided at an outer circumferential surface of the tub , configured to generate an electromagnetic field to heat the drum and comprising a base housing mounted on the outer circumferential surface of the tub and a module cover mounted on the base housing , wherein the base housing comprises a plurality of fixing ribs protruding upwardly and a coil slot formed by the plurality of fixing ribs and a wire wound and fitted into the coil slot so that the base housing accommodates a coil defined by the coil slot and the wire therein, characterized in that the coil comprises a plurality of straight portions and curved portions , the plurality of straight portions comprise first and second straight portions which are extended along a rotational axis of the drum and third and fourth straight portions which are provided perpendicular to the first or the second straight portion, the curved portions are formed at a point at which one of the first and the second straight portions meets one of the third and the fourth straight portions, and a radius of curvature of the wire at a position close to a center of the coil in the curved portions is the same as a radius of curvature of the wire at a position distant from the center of the coil in the curved portions .
An article of footwear having an upper and a sole structure secured to the upper, the upper comprising a knitted component formed of unitary knit construction that includes at least one gore region located in a heel region of the article of footwear and extending vertically through a majority of a distance between the sole structure and an ankle opening of the upper, the knitted component further includes a plurality of second gore regions ; characterized in that at least one of the plurality of second gore regions is located on one of a medial side and a lateral side of the at least one gore region, and another of the plurality of second gore regions is located on the other of the medial side and the lateral side of the at least one gore region.
A sensor element usable for collecting environment information relating to a surface of the earth or a surface layer of the earth, the sensor element being scatterable into a target region of the earth, the sensor element comprising: first and second base materials made of a biodegradable material; and a fertilizer, wherein at least one of reflection properties, transmission properties, absorption properties, or luminescence properties with respective to an electromagnetic wave with a specific wavelength, or light emitting properties changes in accordance with an environment of the sensor element, wherein the first base material and the second base material are arranged in layers, wherein the environment information is at least one of water content or temperature, wherein a shape of the sensor element changes in accordance with a change in at least one of the water content or the temperature, and either: i) the environment information is the temperature and a coefficient of thermal expansion of the first base material depending on the temperature differs from a coefficient of thermal expansion of the second base material depending on the temperature; or ii) the environment information is the water content and a rate of change in volume depending on water retention of the first base material differs from a rate of change in volume depending on water retention of the second base material. first and second base materials made of a biodegradable material; and a fertilizer, wherein at least one of reflection properties, transmission properties, absorption properties, or luminescence properties with respective to an electromagnetic wave with a specific wavelength, or light emitting properties changes in accordance with an environment of the sensor element, wherein the first base material and the second base material are arranged in layers, wherein the environment information is at least one of water content or temperature, wherein a shape of the sensor element changes in accordance with a change in at least one of the water content or the temperature, and either: i) the environment information is the temperature and a coefficient of thermal expansion of the first base material depending on the temperature differs from a coefficient of thermal expansion of the second base material depending on the temperature; or ii) the environment information is the water content and a rate of change in volume depending on water retention of the first base material differs from a rate of change in volume depending on water retention of the second base material. i) the environment information is the temperature and a coefficient of thermal expansion of the first base material depending on the temperature differs from a coefficient of thermal expansion of the second base material depending on the temperature; or ii) the environment information is the water content and a rate of change in volume depending on water retention of the first base material differs from a rate of change in volume depending on water retention of the second base material.
Method for controlling the engagement and/or disengagement of a parking lock of a transmission of a vehicle , in particular of a motor vehicle , wherein the vehicle has the parking lock , a parking brake and a control unit , wherein the parking lock can be actively engaged or disengaged in or on the transmission , in particular in an automatic transmission , wherein, for ascertaining a driver demand, specifically to secure the vehicle against rolling away and/or against onward travel, the vehicle has at least one device for activating the parking lock , in particular a parking lock button and/or a particular positioning capability for a selector lever (P), and at least one device for activating the parking brake , in particular at least one parking brake button (EPB button), wherein the control of the active engagement and disengagement of the parking lock in or on the transmission is controlled by means of the control unit , wherein at least one present determined first driving parameter (v) is transmitted to the control unit and/or is ascertained by the control unit , but in particular the control unit ascertains present multiple determined driving parameters, wherein, as a determined first driving parameter, at least the present vehicle speed (v) of the vehicle is ascertained and/or calculated when the driver has actuated the device for activating the parking lock , wherein, however, the parking lock is actively engaged in or on the transmission only when the vehicle is at a standstill or the present driving speed (v) is substantially zero, wherein furthermore, as the second driving parameter, the present gradient (s) of the roadway and/or the longitudinal inclination of the vehicle is ascertained and/or calculated and in the case where the vehicle speed (v) is substantially zero or the vehicle is at a standstill and the magnitude of the second driving parameter exceeds the magnitude of a determined first inclination limit value (SG 1 ), the parking brake is then automatically activated, wherein, if the vehicle has, however, not yet reached its standstill and the present vehicle speed (v) exceeds a determined vehicle speed limit value, the active engagement of the parking lock in or on the transmission is prevented, wherein, if the vehicle has not yet reached its standstill and the present vehicle speed (v) falls below the determined vehicle speed limit value, the vehicle then initially continues to be braked by means of the then automatically activated parking brake until it has reached a standstill or until its driving speed (v) has reached substantially zero, and the parking lock is then actively engaged in or on the transmission , wherein then a decision and/or check is made, on the basis of the ascertained gradient value (S x ) and/or the ascertained longitudinal inclination value of the vehicle in respect of a determined second inclination limit value (SG 2 ), as to whether the already activated parking brake can be deactivated again by the driver.
An apparatus comprising: a platform having wheels within a recessed portion ; a vertical clamping means (653; 653'); and a horizontal clamping means; wherein the apparatus is for moving a sample holder on the platform from a loading position, where the sample holder can be removed from the platform, to a locked position, where the sample holder is securely held, wherein the sample holder rests on the wheels within the recessed portion on the platform , wherein the apparatus is configured such that movement of the platform from the loading position to the locked position causes the vertical clamping means (653; 653') to lower down on top of the sample holder and the horizontal clamping means to be pressed to the outer periphery of the sample holder, and such that that movement of the platform from the locked position to the loading position causes the vertical clamping means to raise above the sample holder and the horizontal clamping means to be moved away from the outer periphery of the sample holder. a platform having wheels within a recessed portion ; a vertical clamping means (653; 653'); and a horizontal clamping means; wherein the apparatus is for moving a sample holder on the platform from a loading position, where the sample holder can be removed from the platform, to a locked position, where the sample holder is securely held, wherein the sample holder rests on the wheels within the recessed portion on the platform , wherein the apparatus is configured such that movement of the platform from the loading position to the locked position causes the vertical clamping means (653; 653') to lower down on top of the sample holder and the horizontal clamping means to be pressed to the outer periphery of the sample holder, and such that that movement of the platform from the locked position to the loading position causes the vertical clamping means to raise above the sample holder and the horizontal clamping means to be moved away from the outer periphery of the sample holder.
A pigment dispersion comprising: a dispersion medium, a compound represented by the following formula , and at least one pigment selected from the group consisting of C. I. Pigment Blue 15, C. I. Pigment Blue 15:1, C. I. Pigment Blue 15:2, C. I. Pigment Blue 15:3, C. I. Pigment Blue 15:4, and C. I. Pigment Blue 15:6, which are dispersed in the dispersion medium. [In the formula , R 1 and R 2 each independently represent a linear or branched alkyl group having 1 to 4 carbon atoms, and R 3 and R 4 each independently represent a linear or branched alkyl group having 2 to 8 carbon atoms]
A mechanical testing system , comprising: a frame , a stage for holding a sample , an arm for pressing a tool against a surface of the sample, a primary actuator connected to the frame for applying a primary force and driving the tool into the surface of the sample, thereby causing the frame to flex, a displacement sensor for measuring a displacement value comprised of two components, the first component including a distance traveled by the tool relative to the sample as the primary force is applied, and the second component including a measure of a degree of flex of the frame as the primary force is applied, and a compensating actuator connected to the frame for applying a compensating force in an opposing direction to the primary force which is applied by the primary actuator to reduce the second component of the displacement value, wherein the compensating actuator is configured to apply the compensating force such as to maintain a fixed relative displacement between a reference point in the displacement sensor and a point on the sample. a frame , a stage for holding a sample , an arm for pressing a tool against a surface of the sample, a primary actuator connected to the frame for applying a primary force and driving the tool into the surface of the sample, thereby causing the frame to flex, a displacement sensor for measuring a displacement value comprised of two components, the first component including a distance traveled by the tool relative to the sample as the primary force is applied, and the second component including a measure of a degree of flex of the frame as the primary force is applied, and a compensating actuator connected to the frame for applying a compensating force in an opposing direction to the primary force which is applied by the primary actuator to reduce the second component of the displacement value, wherein the compensating actuator is configured to apply the compensating force such as to maintain a fixed relative displacement between a reference point in the displacement sensor and a point on the sample.
A method for allocating an identifier, ID, of a data radio bearer, DRB, of a user equipment, UE, dually connected to a master node, MN, and a secondary node, SN, wherein the DRB is a data radio bearer of the SN and the SN is independently responsible for establishment, modification and release of the DRB of the SN, wherein the method is carried out bv the MN and comprises: sending an addition request of the SN to the SN through an Xn interface, wherein the addition request is initiated by the MN, carries a DRB ID range available to the SN, and is a request of adding the SN; wherein, when the SN modifies a DRB of the UE, the DRB ID range indicates to the SN to select DRB information within the DRB ID range; wherein the method further comprises: when the MN initiates addition of a DRB of the UE at the SN, sending to the SN, a SN modification request via the Xn interface, wherein the modification request is associated with DRB addition; and receiving, from the SN, an acknowledgement message carrying a DRB ID selected by the SN based on the modification request for a DRB of the UE added by the SN; and when the MN receives DRB ID information about a DRB selected within the DRB ID range by the SN when an addition of a DRB of the UE is initiated at the SN, sending the DRB ID information to the UE. sending an addition request of the SN to the SN through an Xn interface, wherein the addition request is initiated by the MN, carries a DRB ID range available to the SN, and is a request of adding the SN; wherein, when the SN modifies a DRB of the UE, the DRB ID range indicates to the SN to select DRB information within the DRB ID range; wherein the method further comprises: when the MN initiates addition of a DRB of the UE at the SN, sending to the SN, a SN modification request via the Xn interface, wherein the modification request is associated with DRB addition; and receiving, from the SN, an acknowledgement message carrying a DRB ID selected by the SN based on the modification request for a DRB of the UE added by the SN; and when the MN receives DRB ID information about a DRB selected within the DRB ID range by the SN when an addition of a DRB of the UE is initiated at the SN, sending the DRB ID information to the UE. when the MN initiates addition of a DRB of the UE at the SN, sending to the SN, a SN modification request via the Xn interface, wherein the modification request is associated with DRB addition; and receiving, from the SN, an acknowledgement message carrying a DRB ID selected by the SN based on the modification request for a DRB of the UE added by the SN; and sending to the SN, a SN modification request via the Xn interface, wherein the modification request is associated with DRB addition; and receiving, from the SN, an acknowledgement message carrying a DRB ID selected by the SN based on the modification request for a DRB of the UE added by the SN; and when the MN receives DRB ID information about a DRB selected within the DRB ID range by the SN when an addition of a DRB of the UE is initiated at the SN, sending the DRB ID information to the UE.
An outdoor unit for an air conditioner provided with a heat exchanger in a casing , the outdoor unit comprising: a bottom plate that defines a bottom surface of the casing , wherein the bottom plate is constituted of a corrugated plate-shaped member in which a mountain portion and a valley portion are formed to be arranged in a front-rear direction or a left-right direction; an installation leg that supports the bottom plate from below, wherein the installation leg includes a support portion that supports from below an end portion of the bottom plate on a side on which the mountain portion and the valley portion are viewed, characterized in that a portion of the heat exchanger is mounted on the installation leg , wherein the installation leg further includes a wall portion that is located on an outer side of the end portion of the bottom plate and that extends upward from the support portion , and a mount portion that extends outward from an upper end of the wall portion and on which the portion of the heat exchanger is mounted. a bottom plate that defines a bottom surface of the casing , wherein the bottom plate is constituted of a corrugated plate-shaped member in which a mountain portion and a valley portion are formed to be arranged in a front-rear direction or a left-right direction; an installation leg that supports the bottom plate from below, wherein the installation leg includes a support portion that supports from below an end portion of the bottom plate on a side on which the mountain portion and the valley portion are viewed, a portion of the heat exchanger is mounted on the installation leg , wherein the installation leg further includes a wall portion that is located on an outer side of the end portion of the bottom plate and that extends upward from the support portion , and a mount portion that extends outward from an upper end of the wall portion and on which the portion of the heat exchanger is mounted.
A loss prevention apparatus for a rotatable onboard intelligent controller , comprising: a detection circuit , a control circuit , and a prompt circuit , wherein the detection circuit , the control circuit , and the prompt circuit are electrically connected in sequence; this apparatus being characterised by the detection circuit is configured to detect whether the onboard intelligent controller rotates to an extreme position, and send the result of the detection to the control circuit ; the extreme position is a preset limit position to which the onboard intelligent controller rotates; the control circuit is configured to send an alarm instruction to the prompt circuit when obtaining the result of the detection indicating that the onboard intelligent controller rotates to the extreme position; and the prompt circuit is configured to give a corresponding alarm prompt according to the alarm instruction from the control circuit . the detection circuit is configured to detect whether the onboard intelligent controller rotates to an extreme position, and send the result of the detection to the control circuit ; the extreme position is a preset limit position to which the onboard intelligent controller rotates; the control circuit is configured to send an alarm instruction to the prompt circuit when obtaining the result of the detection indicating that the onboard intelligent controller rotates to the extreme position; and the prompt circuit is configured to give a corresponding alarm prompt according to the alarm instruction from the control circuit .
A state analyzer system comprising: an air-conditioning apparatus including a refrigerant circuit including a compressor and an expansion unit , a state detection unit configured to detect a state of refrigerant in the refrigerant circuit as state data, and a controller configured to control the compressor and the expansion unit ; a specific state determination unit configured to determine a plurality of pieces of specific state information by using the state data and control data, the control data indicating a content of control performed by the controller , the plurality of pieces of specific state information each representing, as a point, a state of the refrigerant at each of a plurality of specific positions in the refrigeration circuit, and being located in a p-h chart defined by a pressure of the refrigerant and an enthalpy; a normal region determination unit configured to determine, by using the state data and the control data, a plurality of normal regions in the p-h chart within which each of the plurality of pieces of specific state information is present when the air-conditioning apparatus operates under a normal state; and a display unit configured to display a diagnostic image in which the plurality of pieces of specific state information and the plurality of normal regions are displayed on the p-h chart, the plurality of pieces of specific state information being determined by the specific state determination unit , and the plurality of normal regions being determined by the normal region determination unit. an air-conditioning apparatus including a refrigerant circuit including a compressor and an expansion unit , a state detection unit configured to detect a state of refrigerant in the refrigerant circuit as state data, and a controller configured to control the compressor and the expansion unit ; a specific state determination unit configured to determine a plurality of pieces of specific state information by using the state data and control data, the control data indicating a content of control performed by the controller , the plurality of pieces of specific state information each representing, as a point, a state of the refrigerant at each of a plurality of specific positions in the refrigeration circuit, and being located in a p-h chart defined by a pressure of the refrigerant and an enthalpy; a normal region determination unit configured to determine, by using the state data and the control data, a plurality of normal regions in the p-h chart within which each of the plurality of pieces of specific state information is present when the air-conditioning apparatus operates under a normal state; and a display unit configured to display a diagnostic image in which the plurality of pieces of specific state information and the plurality of normal regions are displayed on the p-h chart, the plurality of pieces of specific state information being determined by the specific state determination unit , and the plurality of normal regions being determined by the normal region determination unit.