mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for moving a load relative to a carrier structure, the apparatus comprising a carrier cable having a first end connected to the load, and a second end connected to a movement device, the movement device including an electric motor and a carriage that is mounted to move relative to the carrier structure and that is configured to move relative to the carrier structure during rotation of the motor, the device including an operating line having its two ends connected via respective attachment points (2.1, 3.1) to the carriage so as to form a loop around two pulleys mounted on the carrier structure, and the device including a control member associated with a member for measuring movement of the attachment point relative to the carriage in order to control rotation of the electric motor as a function of that movement.
Inductive component for soldering onto a printed circuit board , comprising connection wires arranged on the side of the component ; and a spacer , arranged at least on one of the connection wires , for positioning the component on the printed circuit board with respect to height, wherein the spacer is held by the connection wire , is supported on the printed circuit board in the vertical direction (z) when the component is placed on the printed circuit board for soldering, and has a bore hole through which the connection wire passes, characterized in that the end of the connection wire projecting out of the bore hole is bent in the direction of the printed circuit board .
A method for a proof of location requesting device , comprising: - identifying a proof of location indication transaction associated with a location of interest amongst proof of location indication transactions stored in a distributed ledger, wherein the proof of location indication transaction comprises spatiotemporal information associated with user information provided by a user equipment , - issuing a proof of location request transaction to the distributed ledger on the basis of the proof of location indication transaction, wherein the proof of location request transaction identifies the proof of location indication transaction, - detecting a response to the proof of location request transaction provided to the distributed ledger by the user equipment, the response indicating user's willingness to provide the user information associated with the proof of location indication transaction, and - issuing a transfer transaction for causing provision of the user information for the proof of location requesting device in response to verification of at least the transfer transaction. - identifying a proof of location indication transaction associated with a location of interest amongst proof of location indication transactions stored in a distributed ledger, wherein the proof of location indication transaction comprises spatiotemporal information associated with user information provided by a user equipment , - issuing a proof of location request transaction to the distributed ledger on the basis of the proof of location indication transaction, wherein the proof of location request transaction identifies the proof of location indication transaction, - detecting a response to the proof of location request transaction provided to the distributed ledger by the user equipment, the response indicating user's willingness to provide the user information associated with the proof of location indication transaction, and - issuing a transfer transaction for causing provision of the user information for the proof of location requesting device in response to verification of at least the transfer transaction.
A drawing apparatus comprising: a laser light source unit configured to output laser light; a scanning mirror unit configured to reflect and scan the laser light; a drawing control unit configured to control an output value of the laser light of the laser light source unit based on display image data so that a display image is drawn by the laser light in a range scanned by the scanning mirror unit ; and an output adjustment control unit configured to control the laser light source unit so that characteristic detection laser light for adjusting the output value is output outside a range in which the display image is drawn inside the range scanned by the scanning mirror unit , characterized in that the output adjustment control unit controls the characteristic detection laser light to be intermittently output in one frame period in such a way that the positions at which the characteristic detection laser light is output will not overlap between frames in a predetermined number of continuous frames. a laser light source unit configured to output laser light; a scanning mirror unit configured to reflect and scan the laser light; a drawing control unit configured to control an output value of the laser light of the laser light source unit based on display image data so that a display image is drawn by the laser light in a range scanned by the scanning mirror unit ; and an output adjustment control unit configured to control the laser light source unit so that characteristic detection laser light for adjusting the output value is output outside a range in which the display image is drawn inside the range scanned by the scanning mirror unit , characterized in that the output adjustment control unit controls the characteristic detection laser light to be intermittently output in one frame period in such a way that the positions at which the characteristic detection laser light is output will not overlap between frames in a predetermined number of continuous frames.
Process for the treatment of feedstock comprising solid biomass, said process comprising at least the following stages: a) a stage of drying said feedstock at a temperature of between 20 and 180°C, for a time of between 5 and 180 minutes, b) a stage of torrefaction of the dried feedstock resulting from stage a) in order to produce at least one torrefied biomass solid effluent, and c) a stage of cogrinding the torrefied biomass solid effluent resulting from stage b) in the presence of at least one solid fossil feedstock in order to obtain a powder, in which: the amount of residual water at the outlet of the drying stage a) is between 0.0% and 5.0% by weight, with respect to the total weight of the feedstock, the dimensions of the solid fossil feedstock introduced in the cogrinding stage c) are between 1.0 and 100 millimetres and preferably between 2.0 and 8 millimetres or between 3.0 and 7 millimetres, the solid fossil feedstock entering the cogrinding stage c) has a moisture content of between 3.1% and 30.0% by weight, preferentially between 4.0% and 25.0% by weight or between 5.0% and 20.0% by weight, and in which a stage d) of drying the powder obtained on conclusion of stage c) is carried out simultaneously with the cogrinding stage c). a) a stage of drying said feedstock at a temperature of between 20 and 180°C, for a time of between 5 and 180 minutes, b) a stage of torrefaction of the dried feedstock resulting from stage a) in order to produce at least one torrefied biomass solid effluent, and c) a stage of cogrinding the torrefied biomass solid effluent resulting from stage b) in the presence of at least one solid fossil feedstock in order to obtain a powder, the amount of residual water at the outlet of the drying stage a) is between 0.0% and 5.0% by weight, with respect to the total weight of the feedstock, the dimensions of the solid fossil feedstock introduced in the cogrinding stage c) are between 1.0 and 100 millimetres and preferably between 2.0 and 8 millimetres or between 3.0 and 7 millimetres, the solid fossil feedstock entering the cogrinding stage c) has a moisture content of between 3.1% and 30.0% by weight, preferentially between 4.0% and 25.0% by weight or between 5.0% and 20.0% by weight, and in which a stage d) of drying the powder obtained on conclusion of stage c) is carried out simultaneously with the cogrinding stage c).
Device for grouping containers, comprising: a plurality of transfer pallets each configured for conveying at least one container standing upright on a pallet surface of the transfer pallets; and a first transfer device with a first transfer platform and an infeed manipulator configured to transfer containers from a feed conveyor onto the first transfer platform; wherein the pallet surface of each transfer pallet has a plurality of ridge-like elevations forming a support surface for the at least one container ; and wherein the first transfer platform has a comb-shaped outlet area configured for allowing the ridge-like elevations of the pallet surface to pass through intermediate spaces of the comb-shaped outlet area for taking over the at least one container ; characterized in that the device further comprising a transfer conveyor with a long-stator linear motor drive, which is configured to move the transfer pallets individually and independently of one another along a closed conveying path, and wherein the first transfer device is arranged on the conveying path such that and the transfer conveyor and the plurality of transfer pallets are configured such that the ridge-like elevations of the pallet surface of the transfer pallets pass through the intermediate spaces of the comb-shaped outlet area when passing the first transfer platform . a plurality of transfer pallets each configured for conveying at least one container standing upright on a pallet surface of the transfer pallets; and a first transfer device with a first transfer platform and an infeed manipulator configured to transfer containers from a feed conveyor onto the first transfer platform; wherein the pallet surface of each transfer pallet has a plurality of ridge-like elevations forming a support surface for the at least one container ; and wherein the first transfer platform has a comb-shaped outlet area configured for allowing the ridge-like elevations of the pallet surface to pass through intermediate spaces of the comb-shaped outlet area for taking over the at least one container ; characterized in that the device further comprising a transfer conveyor with a long-stator linear motor drive, which is configured to move the transfer pallets individually and independently of one another along a closed conveying path, and wherein the first transfer device is arranged on the conveying path such that and the transfer conveyor and the plurality of transfer pallets are configured such that the ridge-like elevations of the pallet surface of the transfer pallets pass through the intermediate spaces of the comb-shaped outlet area when passing the first transfer platform .
An electronic control device comprising: - a microcontroller ; - a first power supply circuit , being a step-down switching regulator, that uses an onboard battery voltage as an input voltage and outputs a predetermined voltage ; - a second power supply circuit , being a series regulator, that uses the first power supply output voltage from the first power supply circuit as an input voltage and outputs a predetermined voltage to the microcontroller ; and - a third power supply circuit , being a series regulator, that uses the first power supply output voltage from the first power supply circuit as an input voltage and outputs a predetermined voltage to the outside of the control device , wherein a circuit operating state of the third power supply circuit is switched depending on a state of the first power supply circuit , the second power supply circuit , or the third power supply circuit , wherein the unit that detects the state of the third power supply circuit is configured to monitor an output current of the third power supply circuit , and generate an abnormal current detection signal of the third power supply circuit on the basis of the increasing output current of the third power supply circuit , when a ground failure occurs in the third power supply output voltage , to turn off the third power supply circuit and to prevent an unexpected reset signal generation to a microcontroller. - a microcontroller ; - a first power supply circuit , being a step-down switching regulator, that uses an onboard battery voltage as an input voltage and outputs a predetermined voltage ; - a second power supply circuit , being a series regulator, that uses the first power supply output voltage from the first power supply circuit as an input voltage and outputs a predetermined voltage to the microcontroller ; and - a third power supply circuit , being a series regulator, that uses the first power supply output voltage from the first power supply circuit as an input voltage and outputs a predetermined voltage to the outside of the control device , wherein a circuit operating state of the third power supply circuit is switched depending on a state of the first power supply circuit , the second power supply circuit , or the third power supply circuit , wherein the unit that detects the state of the third power supply circuit is configured to monitor an output current of the third power supply circuit , and generate an abnormal current detection signal of the third power supply circuit on the basis of the increasing output current of the third power supply circuit , when a ground failure occurs in the third power supply output voltage , to turn off the third power supply circuit and to prevent an unexpected reset signal generation to a microcontroller.
A method of transferring data across a wireless network comprising: receiving a first data frame having a first traffic identification and a first sequence number; receiving a second data frame having a second traffic identification and a second sequence number; and in response to an occurrence of a triggering event , transmitting a block acknowledgment that the first data frame having the first traffic identification and the second data frame having the second traffic identification were received, characterised by the triggering event comprising a determination that the first sequence number or the second sequence number comprises a specific sequence number. receiving a first data frame having a first traffic identification and a first sequence number; receiving a second data frame having a second traffic identification and a second sequence number; and in response to an occurrence of a triggering event , transmitting a block acknowledgment that the first data frame having the first traffic identification and the second data frame having the second traffic identification were received, characterised by the triggering event comprising a determination that the first sequence number or the second sequence number comprises a specific sequence number.
A cloud based security system for a medical data network , the security system comprising: at least one processor ; at least one memory communicatively coupled to the processor; an input/output interface configured for accessing data from a plurality of medical hubs , each communicatively coupled to at least one surgical instrument ; and a database residing in the at least one memory and configured to store the data; the at least one memory storing instructions executable by the at least one processor to: identify a first security threat by a first medical instrument communicatively coupled to a first medical hub located at a first medical facility, wherein identifying the first security threat comprises: determining that an identification parameter of the first medical instrument is invalid; detecting that the first medical instrument is transmitting a virus; or determining that the first medical instrument fails an authentication protocol; determine that a second security threat is present at a second medical hub located at a second medical facility, based on at least one common characteristic between the first medical instrument and a second medical instrument communicatively coupled to the second medical hub, wherein the at least one common characteristic comprises a common manufacturer between the first medical instrument and the second medical instrument; and provide an alert to the second medical facility about the second security threat. at least one processor ; at least one memory communicatively coupled to the processor; an input/output interface configured for accessing data from a plurality of medical hubs , each communicatively coupled to at least one surgical instrument ; and a database residing in the at least one memory and configured to store the data; the at least one memory storing instructions executable by the at least one processor to: identify a first security threat by a first medical instrument communicatively coupled to a first medical hub located at a first medical facility, wherein identifying the first security threat comprises: determining that an identification parameter of the first medical instrument is invalid; detecting that the first medical instrument is transmitting a virus; or determining that the first medical instrument fails an authentication protocol; determining that an identification parameter of the first medical instrument is invalid; detecting that the first medical instrument is transmitting a virus; or determining that the first medical instrument fails an authentication protocol; determine that a second security threat is present at a second medical hub located at a second medical facility, based on at least one common characteristic between the first medical instrument and a second medical instrument communicatively coupled to the second medical hub, wherein the at least one common characteristic comprises a common manufacturer between the first medical instrument and the second medical instrument; and provide an alert to the second medical facility about the second security threat.
Control arrangement for controlling electrical actuators (1-4) of a water fitting , in particular water outlet valves, wherein the operating parameters for operating the water fitting can be manipulated by controlling the actuators (1-4), wherein the control arrangement has at least one electrical control unit and at least two electrical operator control units (7-13) which can be installed separately from one another and each have at least one operator control element (14-20) for inputting operator control parameters, wherein the control unit is coupled, in terms of control, to the actuators (1-4), on the one hand, and to the operator control elements (14-20), on the other hand, and controls the actuators (1-4) on the basis of the operator control parameters, wherein the control unit provides at least one automatic function in which the control unit , triggered by the operator control of a first operator control element (17-20), controls manipulation or a manipulation sequence of operating parameters according to a predetermined rule, and wherein at least one of the operator control units (7-13) which can be installed separately has an operator control element which is in the form of a shortcut operator control regulator and in response to the adjustment of which the control unit always, that is to say from any control state, manipulates a shortcut operating parameter permanently assigned to the shortcut operator control regulator directly, possibly within at least one manipulation limit, during operation, wherein the shortcut operating parameter can be manipulated by the automatic function, characterized in that the operator control of the shortcut operator control regulator interrupts or overlaps indirect manipulation triggered by the first operator control element (17-20).
A computer-implemented method for providing visual feedback to a user of a rotary shaver, the method comprising: (i) receiving movement measurements representing movement of the rotary shaver during a shaving operation; (ii) processing the received movement measurements to determine a representation of a trajectory of movement of the rotary shaver during the shaving operation; (iii) processing the determined representation to project the representation onto a two-dimensional plane; (iv) generating a graphical user interface, GUI, the GUI including the projected representation and a graphical template comprising an annular target zone for a correct circular motion of the rotary shaver during the shaving operation; and (v) displaying the generated GUI using a display unit. (i) receiving movement measurements representing movement of the rotary shaver during a shaving operation; (ii) processing the received movement measurements to determine a representation of a trajectory of movement of the rotary shaver during the shaving operation; (iii) processing the determined representation to project the representation onto a two-dimensional plane; (iv) generating a graphical user interface, GUI, the GUI including the projected representation and a graphical template comprising an annular target zone for a correct circular motion of the rotary shaver during the shaving operation; and (v) displaying the generated GUI using a display unit.
A welding device for a plate laminated body , the plate laminated body being constituted by a plurality of non-circular plates with the same outer shape laminated in a lamination direction orthogonal to a plate surface of each of the non-circular plates , said welding device comprising: a welding torch ; a first chuck for gripping the plate laminated body with the lamination direction being in a horizontal position, the first chuck being configured to rotate the plate laminated body around an axis along the lamination direction; a second chuck for gripping a plate to be welded to the plate laminated body , the second chuck being configured to rotate the plate around the axis along the lamination direction; at least one support extending along the lamination direction for supporting the plate laminated body from below, the at least one support being constituted by a support roller, wherein the welding device further comprises: a drive part for moving the support along a vertical direction; and a control part for controlling an operation of the drive part and controlling a support height of the support based on a rotation angle of the first chuck and the second chuck such that a rotation center (O) of the plate laminated body including the non-circular plates is kept at a fixed position while outer peripheral edges of the plates constituting the plate laminated body are welded. a welding torch ; a first chuck for gripping the plate laminated body with the lamination direction being in a horizontal position, the first chuck being configured to rotate the plate laminated body around an axis along the lamination direction; a second chuck for gripping a plate to be welded to the plate laminated body , the second chuck being configured to rotate the plate around the axis along the lamination direction; at least one support extending along the lamination direction for supporting the plate laminated body from below, the at least one support being constituted by a support roller, wherein the welding device further comprises: a drive part for moving the support along a vertical direction; and a control part for controlling an operation of the drive part and controlling a support height of the support based on a rotation angle of the first chuck and the second chuck such that a rotation center (O) of the plate laminated body including the non-circular plates is kept at a fixed position while outer peripheral edges of the plates constituting the plate laminated body are welded. a drive part for moving the support along a vertical direction; and a control part for controlling an operation of the drive part and controlling a support height of the support based on a rotation angle of the first chuck and the second chuck such that a rotation center (O) of the plate laminated body including the non-circular plates is kept at a fixed position while outer peripheral edges of the plates constituting the plate laminated body are welded.