mhurhangee/ep-ind-claims huggingface dataset:
A system for monitoring an environment for a patient on a patient support device, the system comprising: a patient support device, multiple wireless sensors configured to be placed on a body of the patient, including multiple temperature sensors, and a galvanic skin response sensor to detect sweating on the body of the patient; a controller programmed to receive temperature readings from the multiple wireless temperature sensors and the galvanic skin response sensor; and an airflow system, associated with the patient support device, and configured to provide airflow within the patient support device, wherein the controller is programmed to: determine the temperature of the air and the speed of the airflow being provided by the airflow system; analyse the temperature readings, the galvanic skin response reading, the temperature of the air, and the airflow speed, over time; and modify air flowing through the airflow system, based on the analysis, to maintain a patient within a desired environment. a patient support device, multiple wireless sensors configured to be placed on a body of the patient, including multiple temperature sensors, and a galvanic skin response sensor to detect sweating on the body of the patient; a controller programmed to receive temperature readings from the multiple wireless temperature sensors and the galvanic skin response sensor; and an airflow system, associated with the patient support device, and configured to provide airflow within the patient support device, wherein the controller is programmed to: determine the temperature of the air and the speed of the airflow being provided by the airflow system; analyse the temperature readings, the galvanic skin response reading, the temperature of the air, and the airflow speed, over time; and modify air flowing through the airflow system, based on the analysis, to maintain a patient within a desired environment. determine the temperature of the air and the speed of the airflow being provided by the airflow system; analyse the temperature readings, the galvanic skin response reading, the temperature of the air, and the airflow speed, over time; and modify air flowing through the airflow system, based on the analysis, to maintain a patient within a desired environment.
A lead for connecting a device implantable in an eye to a communications interface external to the eye, the lead comprising: a reinforcement device, the reinforcement device having a first end and a second end and being elongated between the first end and the second end; a first lead section connected to the first end of the reinforcement device; a second lead section connected the second end of the reinforcement device; and one or more conductors, wherein the conductors are connectable to the implantable device and are configured to extend from the implantable device, through the first lead section, the reinforcement device and the second lead section, to the communications interface, characterized in that: the reinforcement device has a greater outer diameter than the first and second lead sections and the reinforcement device is configured to be positionable at or adjacent an orbital bone and has a pre-shaped bend region configured to extend around a surface of an orbital bone adjacent to the eye. a reinforcement device, the reinforcement device having a first end and a second end and being elongated between the first end and the second end; a first lead section connected to the first end of the reinforcement device; a second lead section connected the second end of the reinforcement device; and one or more conductors, wherein the conductors are connectable to the implantable device and are configured to extend from the implantable device, through the first lead section, the reinforcement device and the second lead section, to the communications interface, the reinforcement device has a greater outer diameter than the first and second lead sections and the reinforcement device is configured to be positionable at or adjacent an orbital bone and has a pre-shaped bend region configured to extend around a surface of an orbital bone adjacent to the eye.
An operating button, comprising a light source, said operating button further comprising in the direction of propagation of light rays output from said light source: a push rod, having a diverging lens; and an operating head, having a condensing lens, wherein the optical center of said diverging lens, the optical center of said condensing lens and said light source are in the same line, wherein the diverging lens is a concave lens, wherein the condensing lens is a convex lens, wherein the concave lens and the convex lens are being arranged and configured such that the light rays emitted from the light source are diverged by the concave lens and then pass through the convex lens to become parallel light; wherein said operating button has an installation direction for connecting said push rod with said operating head, said operating head is provided with a connecting end which has a guiding part and a locking part, said push rod is provided with a locking end which has an inserting part and a snapping part, said inserting part is movable along said guiding part in said installation direction, and said snapping part is connectable to said locking part, and wherein said guiding part is a groove and said inserting part is a protrusion. a push rod, having a diverging lens; and an operating head, having a condensing lens, wherein the optical center of said diverging lens, the optical center of said condensing lens and said light source are in the same line, wherein the diverging lens is a concave lens, wherein the condensing lens is a convex lens, wherein the concave lens and the convex lens are being arranged and configured such that the light rays emitted from the light source are diverged by the concave lens and then pass through the convex lens to become parallel light; wherein said operating button has an installation direction for connecting said push rod with said operating head, said operating head is provided with a connecting end which has a guiding part and a locking part, said push rod is provided with a locking end which has an inserting part and a snapping part, said inserting part is movable along said guiding part in said installation direction, and said snapping part is connectable to said locking part, and wherein said guiding part is a groove and said inserting part is a protrusion.
A cosmetic non-therapeutic use of at least one sugar or oil as a prebiotic with a cosmetically acceptable carrier, wherein the sugar is selected from trehalose or babassu palm starch, and the oil is selected from crabwood (andiroba), moriche ( buriti) palm, Brazilnut, and wild sage (guagatonga) extract.
A cyanide-free, acidic, and aqueous electrolyte for the electrolytic deposition of silver-palladium alloys comprising 50 - 99% by weight of silver, said electrolyte comprising in dissolved form: 1) a silver compound in a concentration of 0.01-2.5 mol/l silver; 2) a palladium compound in a concentration of 0.002-0.75 mol/l palladium; 3) a tellurium compound or selenium compound in a concentration of 0.075-80 mmol/l tellurium/selenium; 4) urea in a concentration of 0.2-2 mol/l, and/or one or more amino acids selected from the group consisting of: alanine, aspartic acid, cysteine, glutamine, glutamic acid, glycine, lysine, leucine, methionine, phenylalanine, phenylglycine, proline, serine, tyrosine, and valine, in a concentration of 0.2-40 mmol/l; and 5) a sulfonic acid in a concentration of 0.25-4.75 mol/l, wherein the electrolyte has a pH of < 2. 1) a silver compound in a concentration of 0.01-2.5 mol/l silver; 2) a palladium compound in a concentration of 0.002-0.75 mol/l palladium; 3) a tellurium compound or selenium compound in a concentration of 0.075-80 mmol/l tellurium/selenium; 4) urea in a concentration of 0.2-2 mol/l, and/or one or more amino acids selected from the group consisting of: alanine, aspartic acid, cysteine, glutamine, glutamic acid, glycine, lysine, leucine, methionine, phenylalanine, phenylglycine, proline, serine, tyrosine, and valine, in a concentration of 0.2-40 mmol/l; and 5) a sulfonic acid in a concentration of 0.25-4.75 mol/l,
A method for smoothly controlling a hydraulic actuator configured to actuate an implement that is acted upon by an external load in a first direction, the method comprising the steps of: receiving a command input to move the implement in the first direction, upon receipt of the command input, opening a load holding valve hydraulically connected between a pump and a side of the actuator upstream of the pump a first amount to create a leakage path, the first amount being less than fully open, characterised in that the method further includes the steps of: monitoring the pressure at the pump, and comparing the monitored pump pressure with a predetermined threshold for determining that (i) pressure between the load holding valve and the pump, and (ii) pressure between the load holding valve and the actuator are equalized, and after equalizing the pressure, fully opening the load holding valve. receiving a command input to move the implement in the first direction, upon receipt of the command input, opening a load holding valve hydraulically connected between a pump and a side of the actuator upstream of the pump a first amount to create a leakage path, the first amount being less than fully open, characterised in that the method further includes the steps of: monitoring the pressure at the pump, and comparing the monitored pump pressure with a predetermined threshold for determining that (i) pressure between the load holding valve and the pump, and (ii) pressure between the load holding valve and the actuator are equalized, and after equalizing the pressure, fully opening the load holding valve. monitoring the pressure at the pump, and comparing the monitored pump pressure with a predetermined threshold for determining that (i) pressure between the load holding valve and the pump, and (ii) pressure between the load holding valve and the actuator are equalized, and after equalizing the pressure, fully opening the load holding valve.
Connection module, having a housing (3a, 3b, 3c) comprising a housing base (4a, 4b, 4c) and a housing upper face (5a, 5b, 5c), wherein the housing (3a, 3b, 3c) can be fixed on a supporting rail via the housing base (4a, 4b, 4c) by means of a pivoting movement of the housing (3a, 3b, 3c), a plurality of connection elements arranged in the housing (3a, 3b, 3c) and at least one jumper bridge insertion opening (8a, 8b, 8c) arranged on a transverse face (6a, 6b, 6c) of the housing (3a, 3b, 3c) for receiving a jumper bridge (7a, 7b, 7c), wherein a contact element for forming an electrical contact with the jumper bridge (7a, 7b, 7c) is arranged in the jumper bridge insertion opening (8a, 8b, 8c), characterized in that the jumper bridge insertion opening (8a, 8b, 8c) extends in the insertion direction of the jumper bridge (7a, 7b, 7c) into the jumper bridge insertion opening (8a, 8b, 8c) from the housing base (4a, 4b, 4c) in the direction of the housing upper face (5a, 5b, 5c) at an angle α between 20 and 70° to the transverse axis of the housing (3a, 3b, 3c).
method of controlling a washing machine including a drum, a motor to rotate the drum, and a balancer to counterbalance unbalanced load produced in the drum during rotation of the drum, the method comprising operations of: (a) rotating the drum in one direction for a first time in a spin-drying cycle; (b) stopping the drum for a second time after rotating the drum in the one direction; (c) rotating the drum in a reverse direction for a third time when the second time elapses; (d) stopping the drum for a second time after rotating the drum in the reverse direction, wherein a clockwise and counterclockwise stirring operation of the drum comprising the operations (a) to (d) is performed at least once to perform a ball distributing cycle of evenly distributing masses in the balancer in a balancer housing, and wherein the ball distribution cycle is performed before a weight detection operation of detecting weight of laundry to perform spin-drying of the laundry. (a) rotating the drum in one direction for a first time in a spin-drying cycle; (b) stopping the drum for a second time after rotating the drum in the one direction; (c) rotating the drum in a reverse direction for a third time when the second time elapses; (d) stopping the drum for a second time after rotating the drum in the reverse direction,
Arrangement, comprising: an on-board device for a vehicle, an external activation device and an external service device, the on-board device being a tolling on-board unit, a digital tachograph or an on-board fleet management device, the on-board device comprising a first communication module configured for receiving an activation signal from the external activation device and configured for wirelessly communicating with the external activation device, a second communication module configured for communicating with the external service device and for being switched between an activated state and a deactivated state, a data transfer from the service device to the on-board device or from the on-board device to the service device only being possible when the second communication module of the on-board device being in the activated state, in the deactivated state the second communication module being not able to perform any function and even a detection of a connected external service device does not take place, and an electronic control unit configured for activating the second communication module upon receipt of the activation signal at the first communication module, the arrangement further comprising the external activation device configured for sending an activation signal to the first communication module of the on-board device, and the external service device configured for communicating with the second communication module of the on-board device. an on-board device for a vehicle, an external activation device and an external service device, the on-board device being a tolling on-board unit, a digital tachograph or an on-board fleet management device, the on-board device comprising a first communication module configured for receiving an activation signal from the external activation device and configured for wirelessly communicating with the external activation device, a second communication module configured for communicating with the external service device and for being switched between an activated state and a deactivated state, a data transfer from the service device to the on-board device or from the on-board device to the service device only being possible when the second communication module of the on-board device being in the activated state, in the deactivated state the second communication module being not able to perform any function and even a detection of a connected external service device does not take place, and an electronic control unit configured for activating the second communication module upon receipt of the activation signal at the first communication module, the arrangement further comprising the external activation device configured for sending an activation signal to the first communication module of the on-board device, and the external service device configured for communicating with the second communication module of the on-board device.
A computer-implemented method comprising: emitting, using an audio output component of a user device, one or more audio signals, wherein the one or more audio signals comprise short coded pulse pings, short term chirps, or CTFM pings; receiving, using an audio input component of the user device, one or more reflections of the audio signals off a target; determining, based on the one or more reflections, whether the target comprises at least one of a 3D face-like structure and face-like tissue; receiving a plurality of images of the target; and identifying, based on the images, whether the target has a first pulse using remote photoplethysmography; measuring a second pulse of the target through physical contact with the target; and determining whether the target is a spoof based at least in part on (i) the determination of whether the target comprises at least one of a face-like structure and face-like tissue, (ii) the identification of whether the target has the first pulse, and (iii) the measurement of the second pulse, in that the target is accepted if it comprises the at least one of a 3D face-like structure and face-like tissue, if the first pulse is identified, if the second pulse is measured and if the first pulse and the second pulse match. emitting, using an audio output component of a user device, one or more audio signals, wherein the one or more audio signals comprise short coded pulse pings, short term chirps, or CTFM pings; receiving, using an audio input component of the user device, one or more reflections of the audio signals off a target; determining, based on the one or more reflections, whether the target comprises at least one of a 3D face-like structure and face-like tissue; receiving a plurality of images of the target; and identifying, based on the images, whether the target has a first pulse using remote photoplethysmography; measuring a second pulse of the target through physical contact with the target; and determining whether the target is a spoof based at least in part on (i) the determination of whether the target comprises at least one of a face-like structure and face-like tissue, (ii) the identification of whether the target has the first pulse, and (iii) the measurement of the second pulse, in that the target is accepted if it comprises the at least one of a 3D face-like structure and face-like tissue, if the first pulse is identified, if the second pulse is measured and if the first pulse and the second pulse match.
A method of cutting a strip of non-woven fabric in a method of rolling up said strip about a strip-receiving reel that is driven in rotation, said method being characterized in that it comprises at least the steps consisting in: - stopping the rolling up of the strip to be cut by stopping the driving in rotation of the reel; - forming a transverse pre-cut line across the strip, upstream from the reel, by means of a blade having a saw-teeth profile and secured to an actuator so as to be pressed against a surface having a complementary saw-teeth profile; - restarting the rolling-up of the strip at controlled speed and controlled tension by re-starting the driving in rotation of the reel at controlled speed, in such a manner as to move said pre-cut line; - pinching the strip upstream from the pre-cut line via pinching means disposed at the blade; and - exerting a traction force on the strip downstream from the pre-cut line so as to cut the strip finally along said pre-cut line. - stopping the rolling up of the strip to be cut by stopping the driving in rotation of the reel; - forming a transverse pre-cut line across the strip, upstream from the reel, by means of a blade having a saw-teeth profile and secured to an actuator so as to be pressed against a surface having a complementary saw-teeth profile; - restarting the rolling-up of the strip at controlled speed and controlled tension by re-starting the driving in rotation of the reel at controlled speed, in such a manner as to move said pre-cut line; - pinching the strip upstream from the pre-cut line via pinching means disposed at the blade; and - exerting a traction force on the strip downstream from the pre-cut line so as to cut the strip finally along said pre-cut line.
A wireless communication device for use in a cellular network, the device comprising: a radio interface for enabling communication between the device and a base station of the cellular network over a radio link; a transfer entity for exchanging user data packets with a core network node of said cellular network over a signalling connection within a Non Access Stratum, via said radio link; and a data transmission verification entity for using a verifiable acknowledgement, received from said core network node over a signalling connection within a Non Access Stratum, to confirm delivery of a user data packet sent to the core network node over a signalling connection and to verify that the acknowledgement has been issued by the core network node, the data transmission verification entity being configured to selectively include with a user data packet sent to said core network node across a signalling connection within a Non Access Stratum, a request to return to the device a verifiable acknowledgement for the sent user data packet. a radio interface for enabling communication between the device and a base station of the cellular network over a radio link; a transfer entity for exchanging user data packets with a core network node of said cellular network over a signalling connection within a Non Access Stratum, via said radio link; and a data transmission verification entity for using a verifiable acknowledgement, received from said core network node over a signalling connection within a Non Access Stratum, to confirm delivery of a user data packet sent to the core network node over a signalling connection and to verify that the acknowledgement has been issued by the core network node, the data transmission verification entity being configured to selectively include with a user data packet sent to said core network node across a signalling connection within a Non Access Stratum, a request to return to the device a verifiable acknowledgement for the sent user data packet.
A batch freezer with fast and safe blocking and opening comprising a front wall provided with an access or closure flange for an opening positioned in the front in a freezing cylinder, a hopper for the insertion of ingredients for the production of ice cream, positioned above the flange and a gridded door for extracting the finished product positioned in the lower portion of said flange, said flange being positioned on a closing crosspiece articulated with a pin at a first end to the front wall and carrying a blocking lever at a second end characterized in that a safety blocking-unblocking group, configured for blocking said access flange to the freezing cylinder, is associated with said closing crosspiece or said blocking lever, the batch freezer comprising a sensor connected to a microcontroller which switches off the motor of the mixer the batch freezer and removes the power supply from the blocking-unblocking group so that, after a pre-fixed time after opening of the blocking lever communicated by the sensor, the flange, which closes the closure of the opening, is released and further comprising a sensor which communicates to said microcontroller the pressing of the stop button of the mixer with the blocking lever closed, so that said microcontroller, after a settable time, sends a release command to the blocking-unblocking group allowing the flange, which flange closes the opening, to be released, and wherein said blocking-unblocking group comprises an interlocking device positioned integrally with said front wall which collaborates with a rod integral with the closing crosspiece by means of a wedge hook.