mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for providing a heated cleaning fluid to a vehicle surface comprising: a housing including a fluid reservoir , the housing including an inlet port for routing fluid into the fluid reservoir for heating fluid from an external source; the housing further including an outlet port in fluid communication with the fluid reservoir for dispensing an amount of heated fluid to a nozzle for spraying heated fluid onto a surface; a heating element for heating fluid that passes from the inlet port to the outlet port through the fluid reservoir ; a heat exchanger supported by the housing in a position that is at least partially covered by fluid within the fluid reservoir and coupled to the heating element so that heat emitting surfaces of the heating element engage and transmit heat to the heat exchanger ; a control circuit connected to the heating element for energizing the heating element with a voltage and thereby heat fluid passing from the inlet port to the outlet port through the fluid reservoir ; and wherein the nozzle includes a body containing two orifices and with orifice channels and in a side by side relationship such that one orifice is for air and one orifice is for the heated fluid and a venturi in the fluid path to draw air through a port as fluid flows through the venturi . a housing including a fluid reservoir , the housing including an inlet port for routing fluid into the fluid reservoir for heating fluid from an external source; the housing further including an outlet port in fluid communication with the fluid reservoir for dispensing an amount of heated fluid to a nozzle for spraying heated fluid onto a surface; a heating element for heating fluid that passes from the inlet port to the outlet port through the fluid reservoir ; a heat exchanger supported by the housing in a position that is at least partially covered by fluid within the fluid reservoir and coupled to the heating element so that heat emitting surfaces of the heating element engage and transmit heat to the heat exchanger ; a control circuit connected to the heating element for energizing the heating element with a voltage and thereby heat fluid passing from the inlet port to the outlet port through the fluid reservoir ; and wherein the nozzle includes a body containing two orifices and with orifice channels and in a side by side relationship such that one orifice is for air and one orifice is for the heated fluid and a venturi in the fluid path to draw air through a port as fluid flows through the venturi .
A laundry treatment apparatus comprising: a cabinet configured to have an opening in the front; a drawer configured to be withdrawable from the cabinet ; an introduction port provided in an upper surface of the drawer ; a drum that is located in the drawer and that is configured to communicate with the introduction port ; a driving shaft provided at a bottom surface of the drum ; a driving unit configured to rotate the driving shaft ; characterized by : a push unit that is provided at the drawer and that is configured to reciprocate in a direction parallel to the direction in which the drawer moves by an external force; a fastening unit provided at one of the upper surface of the drawer and side surfaces of the drawer for selectively coupling the drawer to the cabinet , and that is configured to reciprocate in a direction perpendicular to the direction in which the drawer moves; a transfer unit that is configured to connect the push unit and the fastening unit to each other, wherein the transfer unit is configured to reciprocate the fastening unit to be separated from the cabinet based on the external force being applied to the push unit . a cabinet configured to have an opening in the front; a drawer configured to be withdrawable from the cabinet ; an introduction port provided in an upper surface of the drawer ; a drum that is located in the drawer and that is configured to communicate with the introduction port ; a driving shaft provided at a bottom surface of the drum ; a driving unit configured to rotate the driving shaft ; characterized by : a push unit that is provided at the drawer and that is configured to reciprocate in a direction parallel to the direction in which the drawer moves by an external force; a fastening unit provided at one of the upper surface of the drawer and side surfaces of the drawer for selectively coupling the drawer to the cabinet , and that is configured to reciprocate in a direction perpendicular to the direction in which the drawer moves; a transfer unit that is configured to connect the push unit and the fastening unit to each other, wherein the transfer unit is configured to reciprocate the fastening unit to be separated from the cabinet based on the external force being applied to the push unit . a push unit that is provided at the drawer and that is configured to reciprocate in a direction parallel to the direction in which the drawer moves by an external force; a fastening unit provided at one of the upper surface of the drawer and side surfaces of the drawer for selectively coupling the drawer to the cabinet , and that is configured to reciprocate in a direction perpendicular to the direction in which the drawer moves; a transfer unit that is configured to connect the push unit and the fastening unit to each other, wherein the transfer unit is configured to reciprocate the fastening unit to be separated from the cabinet based on the external force being applied to the push unit .
An image forming apparatus comprising: an image forming section for forming a toner image on a long sheet (LS), wherein a long sheet (LS) is a sheet larger than the size capable of being housed in a sheet feeding tray unit of the image forming apparatus ; a fixing section for fixing the toner image formed on the long sheet (LS); a main conveyance path for conveying the long sheet (LS) to the image forming section and the fixing section ; and a double-side conveyance path which branches off from a first side, in the main conveyance path , downstream of the fixing section in a conveyance direction of the long sheet (LS), the double-side conveyance path conveying the long sheet (LS) to a second side upstream of the image forming section by reversing the conveyance direction at a point of switching back (SBP) to invert the long sheet (LS), wherein: the double-side conveyance path includes, in a downstream side in the conveyance direction before reversing the long sheet (LS), a merging pathway connected to the second side upstream of the image forming section in the main conveyance path , characterized in that the image forming apparatus includes a first introducing member for introducing into the merging pathway a head of the long sheet (LS) in the conveyance direction before reversing the long sheet (LS). an image forming section for forming a toner image on a long sheet (LS), wherein a long sheet (LS) is a sheet larger than the size capable of being housed in a sheet feeding tray unit of the image forming apparatus ; a fixing section for fixing the toner image formed on the long sheet (LS); a main conveyance path for conveying the long sheet (LS) to the image forming section and the fixing section ; and a double-side conveyance path which branches off from a first side, in the main conveyance path , downstream of the fixing section in a conveyance direction of the long sheet (LS), the double-side conveyance path conveying the long sheet (LS) to a second side upstream of the image forming section by reversing the conveyance direction at a point of switching back (SBP) to invert the long sheet (LS), wherein: the double-side conveyance path includes, in a downstream side in the conveyance direction before reversing the long sheet (LS), a merging pathway connected to the second side upstream of the image forming section in the main conveyance path , characterized in that the image forming apparatus includes a first introducing member for introducing into the merging pathway a head of the long sheet (LS) in the conveyance direction before reversing the long sheet (LS). the double-side conveyance path includes, in a downstream side in the conveyance direction before reversing the long sheet (LS), a merging pathway connected to the second side upstream of the image forming section in the main conveyance path , characterized in that the image forming apparatus includes a first introducing member for introducing into the merging pathway a head of the long sheet (LS) in the conveyance direction before reversing the long sheet (LS).
A method of dicing a wafer of light emitting devices, the wafer comprising: a glass layer ; a light emitting device layer comprising a plurality of light emitting devices separated by dielectric; and a wavelength converting layer disposed between the glass layer and the light emitting device layer; the method comprising: a first process of sawing the wafer in a region of dielectric with a first metal-bonded diamond grit blade, wherein sawing comprises sawing through an entire thickness of the wafer , and said first sawing process penetrates the light emitting device layer, the method further comprising a second process of sawing that penetrates the glass layer, wherein different blades are used for the first and second sawing processes. the wafer comprising: a glass layer ; a light emitting device layer comprising a plurality of light emitting devices separated by dielectric; and a wavelength converting layer disposed between the glass layer and the light emitting device layer; a glass layer ; a light emitting device layer comprising a plurality of light emitting devices separated by dielectric; and a wavelength converting layer disposed between the glass layer and the light emitting device layer; the method comprising: a first process of sawing the wafer in a region of dielectric with a first metal-bonded diamond grit blade, wherein sawing comprises sawing through an entire thickness of the wafer , and said first sawing process penetrates the light emitting device layer, the method further comprising a second process of sawing that penetrates the glass layer, wherein different blades are used for the first and second sawing processes. a first process of sawing the wafer in a region of dielectric with a first metal-bonded diamond grit blade, wherein sawing comprises sawing through an entire thickness of the wafer , and said first sawing process penetrates the light emitting device layer, the method further comprising a second process of sawing that penetrates the glass layer, wherein different blades are used for the first and second sawing processes.
A method comprising: causing, at least in part, a default display of selectable objects in motion travelling across a graphical user interface , wherein the selectable objects are displayed based on a category of selectable object or context dependent data and wherein each of the selectable objects corresponds to data or an application accessible via the graphical user interface; and allowing user selection and manipulation of the selectable objects displayed on the graphical user interface, by transforming a selectable object into a source by activating the selectable object, by the user positioning the selectable object into a defined location of the graphical user interface so that the source produces a flow, in a direction across the display, of content that is associated with the selectable object. causing, at least in part, a default display of selectable objects in motion travelling across a graphical user interface , wherein the selectable objects are displayed based on a category of selectable object or context dependent data and wherein each of the selectable objects corresponds to data or an application accessible via the graphical user interface; and allowing user selection and manipulation of the selectable objects displayed on the graphical user interface, by transforming a selectable object into a source by activating the selectable object, by the user positioning the selectable object into a defined location of the graphical user interface so that the source produces a flow, in a direction across the display, of content that is associated with the selectable object.
Method for operating a pressure control system , in particular for vehicles , having a multi-stage compressor , wherein a multiply compressed pressure medium (L3) is provided (St1.1, St2.5) by the multi-stage compressor for the purposes of filling a pressure medium reservoir or pressure medium chambers (3.i; i=1,...4) of the pressure control system , wherein, for this purpose, - a pre-compressed pressure medium (L2) is provided by a first compression stage , which pre-compressed pressure medium is additionally compressed (St1.4, St2.3, St2.4) at least by means of a second compression stage , and an already-compressed charging pressure medium (A) is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor , and the charging pressure medium (A) is compressed again (St1.1) at least by the second compression stage , or - an already-compressed charging pressure medium (A) is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor , and the charging pressure medium (A) is compressed again (St1.1) at least by the second compression stage , characterized in that the charging pressure medium (A) simultaneously passes (St1.2) via a control line (26.2) to a control input (26.1) of a shut-off valve that interacts with the first compression stage , such that a charging pressure (pA) of the charging pressure medium (A) predefines a control pressure (pS) of the shut-off valve , wherein, by means of the shut-off valve , a pressure limitation (pG) and/or volume flow limitation (QG), dependent on the control pressure (pS), of the pre-compressed pressure medium (L2) conveyed by the first compression stage into the intermediate volume is set (St1.3) for the purposes of automatically adapting the compression power of the first compression stage by means of the charging pressure medium (A) situated in the control line (26.2) . - a pre-compressed pressure medium (L2) is provided by a first compression stage , which pre-compressed pressure medium is additionally compressed (St1.4, St2.3, St2.4) at least by means of a second compression stage , and an already-compressed charging pressure medium (A) is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor , and the charging pressure medium (A) is compressed again (St1.1) at least by the second compression stage , or - an already-compressed charging pressure medium (A) is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor , and the charging pressure medium (A) is compressed again (St1.1) at least by the second compression stage ,
A preparation method of a sulfur-containing biphenyl compound, characterized in that : the method of the sulfur-containing biphenyl compound shown by the general formula (I) has a reaction formula as follows: in the formula: R is selected from C 1 -C 8 alkyl, C 1 -C 8 haloalkyl, C 2 -C 8 alkenyl, C 2 -C 8 haloalkenyl, C 2 -C 8 alkynyl, C 2 -C 8 haloalkynyl; X is selected from chlorine or bromine; and m is selected from 0,1 or 2, further characterized in that : the compound shown by the general formula (II) generates a coupling reaction in a catalytic system composed of a nickel compound and at least one ligand under the combined action of metallic zinc to obtain the compound shown by the general formula (I).
A method of intelligent car wash, comprising: acquiring , by a vehicle terminal, a user account corresponding to a vehicle and sending the user account to a server to cause the server to authenticate the user account; checking , by the vehicle terminal, whether hardware devices of the vehicle are in car washing preparation states when a notification message and a vehicle parking success message have been received, the vehicle parking success message being a message sent by a car washer through the server upon detecting that the vehicle has been parked in a car washing area preset by the car washer, the notification message indicating that the authentication is successful; if any one of the hardware devices of the vehicle is not in the car washing preparation state, controlling, by the vehicle terminal, the hardware device to transition to the car washing preparation state; and if the hardware devices are in the car washing preparation states, sending , by the vehicle terminal, a car washing request message to the server to cause the server to trigger the car washer to start a car washing service for the vehicle. acquiring , by a vehicle terminal, a user account corresponding to a vehicle and sending the user account to a server to cause the server to authenticate the user account; checking , by the vehicle terminal, whether hardware devices of the vehicle are in car washing preparation states when a notification message and a vehicle parking success message have been received, the vehicle parking success message being a message sent by a car washer through the server upon detecting that the vehicle has been parked in a car washing area preset by the car washer, the notification message indicating that the authentication is successful; if any one of the hardware devices of the vehicle is not in the car washing preparation state, controlling, by the vehicle terminal, the hardware device to transition to the car washing preparation state; and if the hardware devices are in the car washing preparation states, sending , by the vehicle terminal, a car washing request message to the server to cause the server to trigger the car washer to start a car washing service for the vehicle.
A sensorized roller of a bearing, the sensorized roller comprising a central bore that extends in axial direction through the roller and a sensor module that is mounted within the bore in a non-fixed manner, characterized in that: the sensor module comprises: - at least four deformation sensors arranged circumferentially around a centre axis of the sensor module, at defined angular intervals β k relative to a fixed reference, whereby each deformation sensor is configured to measure a radial distance r 1 , r 2 , r 3 , r 4 between the centre axis and a radially inner surface of the bore at the corresponding angular position, whereby the at least four radial distances r 1 , r 2 , r 3 , r 4 are measured for defined angular positions which lie within an angular span of 360 degrees; and - a processor which is configured to receive each of the measured radial distances and to calculate a radial load acting on the roller by estimating an offset angle φ of the fixed reference relative to the radial load direction; and by using the estimated offset angle and each measured radial distance as inputs to a mathematical model which describes a deformation radius of the bore as a function of angular position and parameters dependent on the load. - at least four deformation sensors arranged circumferentially around a centre axis of the sensor module, at defined angular intervals β k relative to a fixed reference, whereby each deformation sensor is configured to measure a radial distance r 1 , r 2 , r 3 , r 4 between the centre axis and a radially inner surface of the bore at the corresponding angular position, whereby the at least four radial distances r 1 , r 2 , r 3 , r 4 are measured for defined angular positions which lie within an angular span of 360 degrees; and - a processor which is configured to receive each of the measured radial distances and to calculate a radial load acting on the roller by estimating an offset angle φ of the fixed reference relative to the radial load direction; and by using the estimated offset angle and each measured radial distance as inputs to a mathematical model which describes a deformation radius of the bore as a function of angular position and parameters dependent on the load.
A method of controlling a load during misfire of an engine for detecting misfire of a cylinder of an engine including a plurality of cylinders and controlling an operation output of the engine on the basis of a detection result of the misfire, the method comprising a sequence of steps: a first step of calculating additional stress on a crank shaft on the basis of crank-shaft torsional vibration evaluation calculation (S2, S5) when the misfire is detected; a second step of obtaining an output limit rate for the engine corresponding to the calculated additional stress on the crank shaft; and a third step (S8) of controlling the operation output of the engine on the basis of an engine output load control signal, obtained on the basis of the output limit rate, wherein the second step includes determining whether the calculated additional stress on the crank shaft is less than an allowable stress with respect to the crank shaft (S3, S6), and performing a control for reducing the operation output of the engine by a predetermined amount (S4) and returning to the first step (S5) if the calculated additional stress is greater than the allowable stress or calculating the output limit rate (S7) corresponding to the calculated additional stress on the crank shaft if it is determined that the calculated additional stress on the crank shaft is less than the allowable stress with respect to the crank shaft. a first step of calculating additional stress on a crank shaft on the basis of crank-shaft torsional vibration evaluation calculation (S2, S5) when the misfire is detected; a second step of obtaining an output limit rate for the engine corresponding to the calculated additional stress on the crank shaft; and a third step (S8) of controlling the operation output of the engine on the basis of an engine output load control signal, obtained on the basis of the output limit rate, wherein the second step includes determining whether the calculated additional stress on the crank shaft is less than an allowable stress with respect to the crank shaft (S3, S6), and performing a control for reducing the operation output of the engine by a predetermined amount (S4) and returning to the first step (S5) if the calculated additional stress is greater than the allowable stress or calculating the output limit rate (S7) corresponding to the calculated additional stress on the crank shaft if it is determined that the calculated additional stress on the crank shaft is less than the allowable stress with respect to the crank shaft.