mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing data in connection with an oil evacuation operation of a machine while said machine is in a dormant state, said machine having a lubrication system, said method comprising the steps of: activating an oil evacuation button to energize an oil evacuation circuit thereby activating a pre-lubrication magnetic switch to power an oil pump thereby causing the waste oil to evacuate from the lubrication system; detecting an oil temperature with a temperature sensor of said machine during the oil evacuation operation while said machine is in a dormant state; collecting data associated with said oil evacuation operation and transmitting said collected data to an electronic control module , wherein said collected data comprises oil temperature data; storing said collected data at said electronic control module ; automatically opening said pre-lubrication magnetic switch to deactivate said oil evacuation circuit once substantially no more waste oil flows out of the lubrication system; determining by the electronic control module the amount of time needed for said oil evacuation operation based on said collected data ; calculating by the electronic control module the amount of oil evacuated based on the determined amount of time needed for the oil evacuation at the temperature detected by the temperature sensor ; and comparing by the electronic control module the determined amount of oil evacuated against a nominal value or tolerance range to determine whether a fault condition exists in connection with said oil evacuation operation . activating an oil evacuation button to energize an oil evacuation circuit thereby activating a pre-lubrication magnetic switch to power an oil pump thereby causing the waste oil to evacuate from the lubrication system; detecting an oil temperature with a temperature sensor of said machine during the oil evacuation operation while said machine is in a dormant state; collecting data associated with said oil evacuation operation and transmitting said collected data to an electronic control module , wherein said collected data comprises oil temperature data; storing said collected data at said electronic control module ; automatically opening said pre-lubrication magnetic switch to deactivate said oil evacuation circuit once substantially no more waste oil flows out of the lubrication system; determining by the electronic control module the amount of time needed for said oil evacuation operation based on said collected data ; calculating by the electronic control module the amount of oil evacuated based on the determined amount of time needed for the oil evacuation at the temperature detected by the temperature sensor ; and comparing by the electronic control module the determined amount of oil evacuated against a nominal value or tolerance range to determine whether a fault condition exists in connection with said oil evacuation operation .
A wireless communication method, comprising: receiving, by a wireless communication device, configurations of a plurality of resource pools for sidelink communications; wherein the configurations of the plurality of resource pools comprise a first list indicating a first subset of the plurality of resource pools and a second list indicating a second subset of the plurality of resource pools; wherein at least one of the plurality of resource pools includes: a first type of resources that are each configured for the wireless communication device to communicate control information in the sidelink communications; a second type of resources that are each configured for the wireless communication device to communicate data in the sidelink communications; and a third type of resources that are each configured for the wireless communication device to communicate feedback in the sidelink communications, wherein the third type of resources is associated with the second type of resources in the at least one of the plurality of resource pools. receiving, by a wireless communication device, configurations of a plurality of resource pools for sidelink communications; wherein the configurations of the plurality of resource pools comprise a first list indicating a first subset of the plurality of resource pools and a second list indicating a second subset of the plurality of resource pools; wherein at least one of the plurality of resource pools includes: a first type of resources that are each configured for the wireless communication device to communicate control information in the sidelink communications; a second type of resources that are each configured for the wireless communication device to communicate data in the sidelink communications; and a third type of resources that are each configured for the wireless communication device to communicate feedback in the sidelink communications, wherein the third type of resources is associated with
A carbon fiber complex material for a carbon fiber reinforced plastic composite material, comprising: a carbon fiber material formed from a continuous carbon fiber ; and carbon nanowalls formed on a surface of the continuous carbon fiber , wherein a length of the continuous carbon fiber is equal to or above 3 m. a carbon fiber material formed from a continuous carbon fiber ; and carbon nanowalls formed on a surface of the continuous carbon fiber , wherein a length of the continuous carbon fiber is equal to or above 3 m.
A method to communicate within a wireless network , the method comprising: sending a token from a master device to a slave device ; receiving an archive record at the master device only when accompanied by a token from the slave device ; and storing the archive record from the slave device within an archive record database at the master device . sending a token from a master device to a slave device ; receiving an archive record at the master device only when accompanied by a token from the slave device ; and storing the archive record from the slave device within an archive record database at the master device .
A luminescent material comprising AE 1-x Li 2 Be 4 O 6 :Eu x , wherein AE = one or more of Sr, Ba, Ca and 0.002 < x ≤ 0.4.
A surgical sponge including: multiple plies of gauze having one or more open sides; and stitches being made with one or more contrasting threads and adapted to fasten or close the open sides; wherein the contrasting threads are made with one or more non-absorbing materials and wherein the one or more contrasting threads are selected from one or more fluoro-lime, fluoro-green and/or fluoro-yellow colour. multiple plies of gauze having one or more open sides; and stitches being made with one or more contrasting threads and adapted to fasten or close the open sides; wherein the contrasting threads are made with one or more non-absorbing materials and wherein the one or more contrasting threads are selected from one or more fluoro-lime, fluoro-green and/or fluoro-yellow colour.
A process for continuously producing expanded foam particles, comprising the steps of a) charging thermoplastic polymer granulates from a storage tank R1 into a pressurized impregnation zone R2, b) continuously feeding liquidized carbon dioxide, nitrogen or mixture thereof as blowing agent into the impregnation zone R2, the impregnation zone R2 being maintained under supercritical conditions at a temperature in the range from 31 to 250°C and a pressure from 1 to 30 MPa, c) impregnating the thermoplastic polymer granulates during a residence time between 5 and 600 minutes in the impregnation zone R2 with the blowing agent, d) discharging the impregnated thermoplastic polymer granulates from the impregnation zone R2 into a low-pressure expansion zone R3 with expansion of the thermoplastic polymer granulates to form expanded foam particles, e) separating the expanded foam particles from the gaseous blowing agent in a separation zone R4. a) charging thermoplastic polymer granulates from a storage tank R1 into a pressurized impregnation zone R2, b) continuously feeding liquidized carbon dioxide, nitrogen or mixture thereof as blowing agent into the impregnation zone R2, the impregnation zone R2 being maintained under supercritical conditions at a temperature in the range from 31 to 250°C and a pressure from 1 to 30 MPa, c) impregnating the thermoplastic polymer granulates during a residence time between 5 and 600 minutes in the impregnation zone R2 with the blowing agent, d) discharging the impregnated thermoplastic polymer granulates from the impregnation zone R2 into a low-pressure expansion zone R3 with expansion of the thermoplastic polymer granulates to form expanded foam particles, e) separating the expanded foam particles from the gaseous blowing agent in a separation zone R4.
A temperature calibration system comprising: a calibration unit configured to receive one or more device elements to be calibrated; and a closed fluidic system configured to remove heat from the calibration unit, the closed fluidic system including a condenser and an evaporator, the system being characterized in that the closed fluidic system includes a valve configured to fluidly decouple the condenser from the evaporator in a closed state and to fluidly couple the condenser to the evaporator in an open state. a calibration unit configured to receive one or more device elements to be calibrated; and a closed fluidic system configured to remove heat from the calibration unit, the closed fluidic system including a condenser and an evaporator, the system being characterized in that the closed fluidic system includes a valve configured to fluidly decouple the condenser from the evaporator in a closed state and to fluidly couple the condenser to the evaporator in an open state.
A jumping method of a jumping elevator system, comprising: preliminarily positioning and mounting (S330), by means of a temporary working platform at a first height, a guide rail on a hoistway substantially corresponding to the first height; removing (S340) the temporary working platform from the position, corresponding to the first height, of the hoistway ; lifting (S350), by use of a lifting assembly (171-174), a jumping platform from a second height to a third height, wherein the third height is greater than the second height and less than or equal to the first height; and lifting (S370), by use of the lifting assembly, an elevator car to extend its traveling distance in the hoistway , the method characterised by : operating, during lifting of the elevator car , on the top of the elevator car for reinforcing the mount of the guide rail ; and reloading (S360), prior to lifting the elevator car , the lifting assembly on the elevator car from the jumping platform . preliminarily positioning and mounting (S330), by means of a temporary working platform at a first height, a guide rail on a hoistway substantially corresponding to the first height; removing (S340) the temporary working platform from the position, corresponding to the first height, of the hoistway ; lifting (S350), by use of a lifting assembly (171-174), a jumping platform from a second height to a third height, wherein the third height is greater than the second height and less than or equal to the first height; and lifting (S370), by use of the lifting assembly, an elevator car to extend its traveling distance in the hoistway , the method characterised by : operating, during lifting of the elevator car , on the top of the elevator car for reinforcing the mount of the guide rail ; and reloading (S360), prior to lifting the elevator car , the lifting assembly on the elevator car from the jumping platform . operating, during lifting of the elevator car , on the top of the elevator car for reinforcing the mount of the guide rail ; and reloading (S360), prior to lifting the elevator car , the lifting assembly on the elevator car from the jumping platform .
A machine-to-machine, M2M, server for establishing an operational status of a M2M device in a M2M network, the server comprising; a configuration module for configuring a first M2M device to perform an operational status check on a second M2M device, and for configuring the second M2M device so that its operational status can be checked by the first M2M device and a transmission module for receiving from the first M2M device the operational status check of the second M2M device.
Robotic drive module for an elongate flexible medical device comprising: - a base , - a pair of drive members each having a drive surface , the pair of drive members being placeable in a drive configuration in which the drive surfaces of the drive members of the pair of drive members engage with the elongate flexible medical device to be driven, and are arranged on either side thereof, the pair of drive members being movably mounted relative to the base along one degree of freedom between a first and second position, - a control member suitable for controlling a movement relative to the base of the drive members of the pair of drive members in the drive configuration from the first to the second position, thus driving the elongate flexible medical device relative to the base , - a disposable consumable sterile barrier comprising an attachment bracket for each drive member , and flexible portions between two adjacent attachment brackets , the flexible portions being connected to the attachment brackets, each drive member being attached to an attachment bracket , characterised in that the drive surfaces of the attachment brackets are intended to come into contact with the elongate flexible medical device. - a base , - a pair of drive members each having a drive surface , the pair of drive members being placeable in a drive configuration in which the drive surfaces of the drive members of the pair of drive members engage with the elongate flexible medical device to be driven, and are arranged on either side thereof, - a control member suitable for controlling a movement relative to the base of the drive members of the pair of drive members in the drive configuration from the first to the second position, thus driving the elongate flexible medical device relative to the base , - a disposable consumable sterile barrier comprising an attachment bracket for each drive member , and flexible portions between two adjacent attachment brackets , the flexible portions being connected to the attachment brackets, each drive member being attached to an attachment bracket , characterised in that the drive surfaces of the attachment brackets are intended to come into contact with the elongate flexible medical device.
A computer implemented method of controlling the environmental conditions of a building in accordance with feedback from the occupants of the building , the method comprising: - detecting, by one or more processors of a supervisory controller of an occupant feedback system associated with the building , an occupant within a building space; - transmitting, by the one or more processors , a notification message to an occupant device associated with the occupant, the notification message comprising a request to provide occupant feedback; - receiving, by the one or more processors , an occupant feedback message from the occupant device , the occupant feedback message comprising a plurality of occupant feedback inputs regarding a plurality of building conditions; - assigning, by the one or more processors , a weighting factor to the occupant feedback message to form a weighted occupant feedback message; and - performing, by the one or more processors , an action to modify at least one of the plurality of building conditions responsive to the weighted occupant feedback message, wherein performing, by the one or more processors , an action to modify at least one of the plurality of building conditions responsive to the weighted occupant feedback message comprises transmitting, by the one or more processors , a control signal to a field controller device to operate an HVAC system device. - detecting, by one or more processors of a supervisory controller of an occupant feedback system associated with the building , an occupant within a building space; - transmitting, by the one or more processors , a notification message to an occupant device associated with the occupant, the notification message comprising a request to provide occupant feedback; - receiving, by the one or more processors , an occupant feedback message from the occupant device , the occupant feedback message comprising a plurality of occupant feedback inputs regarding a plurality of building conditions; - assigning, by the one or more processors , a weighting factor to the occupant feedback message to form a weighted occupant feedback message; and - performing, by the one or more processors , an action to modify at least one of the plurality of building conditions responsive to the weighted occupant feedback message,
Apparatus comprising: a ventricular assist device comprising: an impeller configured to be placed inside a left ventricle of a subject, the impeller comprising proximal and distal bushings ; a frame configured to be disposed around the impeller , the frame comprising proximal and distal bearings ; an axial shaft configured to pass through the proximal and distal bearings defined by the frame and the proximal and distal bushings of the impeller , the axial shaft being coupled to at least one of the proximal and distal bushings of the impeller , such that the at least one bushing is held in an axially-fixed position with respect to the axial shaft ; and a motor configured to drive the impeller to pump blood from the left ventricle to an aorta of the subject, by rotating the impeller , characterized in that the axial shaft is not held in an axially-fixed position with respect to the proximal and distal bearings , whereby the entire impeller is configured to undergo axial back-and-forth motion with respect to the frame , in response to cyclical changes in a pressure difference between the left ventricle and the aorta. an impeller configured to be placed inside a left ventricle of a subject, the impeller comprising proximal and distal bushings ; a frame configured to be disposed around the impeller , the frame comprising proximal and distal bearings ; an axial shaft configured to pass through the proximal and distal bearings defined by the frame and the proximal and distal bushings of the impeller , the axial shaft being coupled to at least one of the proximal and distal bushings of the impeller , such that the at least one bushing is held in an axially-fixed position with respect to the axial shaft ; and a motor configured to drive the impeller to pump blood from the left ventricle to an aorta of the subject, by rotating the impeller , characterized in that the axial shaft is not held in an axially-fixed position with respect to the proximal and distal bearings , whereby the entire impeller is configured to undergo axial back-and-forth motion with respect to the frame , in response to cyclical changes in a pressure difference between the left ventricle and the aorta.
A conferencing method, comprising: outputting an acoustic beacon with an audio output frequency of a loudspeaker of a first device , the acoustic beacon based on a predetermined carrier frequency; obtaining, at the first device , a frequency difference between the predetermined carrier frequency and an audio capture frequency of a microphone of a second device capturing the acoustic beacon; and adjusting the audio output frequency of the loudspeaker based on the frequency difference; wherein the predetermined carrier frequency is ultrasonic being at least greater than or equal to 20 kHz. outputting an acoustic beacon with an audio output frequency of a loudspeaker of a first device , the acoustic beacon based on a predetermined carrier frequency; obtaining, at the first device , a frequency difference between the predetermined carrier frequency and an audio capture frequency of a microphone of a second device capturing the acoustic beacon; and adjusting the audio output frequency of the loudspeaker based on the frequency difference; wherein the predetermined carrier frequency is ultrasonic being at least greater than or equal to 20 kHz.
A spring module for making a spring cushion of furniture, the spring module comprising: a conical spring (110; 110a; 110b); and a plurality of flexible straps (123e; 123f), each flexible strap comprising: a strap-like main body part (1231e; 1231f), the main body part comprising a first end and a second end opposite to the first end along a length direction of the flexible strap; a first hook (1232e; 1232f) positioned at the first end of the main body part; and a second hook (1233e; 1233f) positioned at the second end of the main body part; wherein the first hook is configured to be removably hooked on a large diameter end of the conical spring, and the second hook is configured to be removably hooked on a small diameter end of the conical spring, and wherein the plurality of flexible straps are positioned outside the conical spring when the first hook and the second hook are respectively hooked on the conical spring. a conical spring (110; 110a; 110b); and a plurality of flexible straps (123e; 123f), each flexible strap comprising: a strap-like main body part (1231e; 1231f), the main body part comprising a first end and a second end opposite to the first end along a length direction of the flexible strap; a first hook (1232e; 1232f) positioned at the first end of the main body part; and a second hook (1233e; 1233f) positioned at the second end of the main body part; a strap-like main body part (1231e; 1231f), the main body part comprising a first end and a second end opposite to the first end along a length direction of the flexible strap; a first hook (1232e; 1232f) positioned at the first end of the main body part; and a second hook (1233e; 1233f) positioned at the second end of the main body part; wherein the first hook is configured to be removably hooked on a large diameter end of the conical spring, and the second hook is configured to be removably hooked on a small diameter end of the conical spring, and wherein the plurality of flexible straps are positioned outside the conical spring when the first hook and the second hook are respectively hooked on the conical spring.
Device for supplying pressurised fluid, in particular pressurised gas, comprising a pressurised fluid cylinder comprising at least one first tap connected to the cylinder and comprising an inner fluid circuit comprising an insulation valve , the device comprising an electronic device for wirelessly communicating data remotely through electromagnetic waves, characterised in that said electronic communication device comprises a communication member configured to wirelessly communicate according to at least one of the following long-range and low-consumption frequency modulation and/or phase communication technologies: the Lora communication technology, i.e. a communication technology using a frequency hopping spread spectrum frequency modulation, making it possible, in particular, for the recovery of data transmitted even when it is received with a signal-to-noise ratio less than 0dB, operating on determined frequency bands, in particular from 433.0 to 434.79MHz, from 863 to 870MHz, from 902 to 928MHz, from 2400 to 2500MHz, the Sigfox communication technology, i.e. a communication technology using a frequency modulation or a phase modulation synthesising a frequency modulation, ultra-narrow band (UNB), making it possible to obtain a spectral density of significant power, in order to increase the signal-to-noise ratio, operating on determined frequency bands, in particular from 433.0 to 434.79MHz, from 863 to 870MHz, from 902 to 928MHz, from 2400 to 2500MHz and in that the device for supplying fluid comprises a protective cap mounted on the cylinder to protect the first tap and a second tap removably connected on the first tap , said electronic communication device being situated on the cylinder and/or on the cap and/or on the first tap and/or on the second tap .