mhurhangee/ep-ind-claims huggingface dataset:
A shampoo bed, comprising a bed body of shampoo bed, a shampoo basin, a first connecting rod that is in rotating connection to the bed body of shampoo bed via a first rotating shaft, and a second connecting rod that is in rotating connection to the bed body of shampoo bed via a second rotating shaft, wherein the shampoo basin is in rotating connection to the first connecting rod via a third rotating shaft, and the shampoo basin is in rotating connection to the second connecting rod via a fourth rotating shaft, a back cushion is provided on the first connecting rod, wherein when the first connecting rod is rotated, the shampoo basin moves up or down along with the first connecting rod.
A physiologic monitoring method comprising: storing a set of physiologic monitor authorization and configuration data in a removable digital memory, the authorization and configuration data including firmware; transitioning a wearable physiologic monitor from an un-initialized state to an initialized state using the physiologic monitor authorization and configuration data stored in the removable digital memory wherein, if a user has been determined to be authorized, the initialization logic of the physiologic monitor retrieves the firmware for a microcontroller of the wearable physiologic monitor from the removable digital memory, and wherein the wearable physiologic monitor in the un-initialized state is not user-operable to record a set of physiologic monitoring data from the subject, and wherein the wearable physiologic monitor in the initialized state is user-operable to record the set of physiologic monitoring data from the subject; employing the wearable physiologic monitor including the removable digital memory to record the set of physiologic monitoring data on the subject wearing the wearable physiologic monitor; and storing the set of physiologic monitoring data in the removable digital memory. storing a set of physiologic monitor authorization and configuration data in a removable digital memory, the authorization and configuration data including firmware; transitioning a wearable physiologic monitor from an un-initialized state to an initialized state using the physiologic monitor authorization and configuration data stored in the removable digital memory wherein, if a user has been determined to be authorized, the initialization logic of the physiologic monitor retrieves the firmware for a microcontroller of the wearable physiologic monitor from the removable digital memory, and wherein the wearable physiologic monitor in the un-initialized state is not user-operable to record a set of physiologic monitoring data from the subject, and wherein the wearable physiologic monitor in the initialized state is user-operable to record the set of physiologic monitoring data from the subject; employing the wearable physiologic monitor including the removable digital memory to record the set of physiologic monitoring data on the subject wearing the wearable physiologic monitor; and storing the set of physiologic monitoring data in the removable digital memory.
A method for characterizing a time-of-flight sensor, wherein the time-of-flight sensor is covered by a cover exhibiting an adjustable transmittance, the method comprising: selectively adjusting the transmittance of the cover such that the cover is opaque for light emittable by the time-of-flight sensor; performing at least one time-of-flight measurement with the time-of-flight sensor while the cover is opaque for obtaining measurement data for light reflected from the cover back to the time-of-flight sensor; and determining characterization data based on the measurement data, wherein the characterization data indicate a quantity related to the time-of-flight sensor. selectively adjusting the transmittance of the cover such that the cover is opaque for light emittable by the time-of-flight sensor; performing at least one time-of-flight measurement with the time-of-flight sensor while the cover is opaque for obtaining measurement data for light reflected from the cover back to the time-of-flight sensor; and determining characterization data based on the measurement data, wherein the characterization data indicate a quantity related to the time-of-flight sensor.
An apparatus, comprising: an interface, which is configured to receive a first sequence of first positions of a medical device that moves in a body of a patient; and a processor, which is configured to visualize the first positions of the medical device to a user, by automatically moving a dummy device, external to the body, in a second sequence of second positions that mimics the first sequence; wherein the processor is configured to move the dummy device in a physical three-dimensional model that models at least part of the body of the patient, wherein the physical 3D model is external to the body. an interface, which is configured to receive a first sequence of first positions of a medical device that moves in a body of a patient; and a processor, which is configured to visualize the first positions of the medical device to a user, by automatically moving a dummy device, external to the body, in a second sequence of second positions that mimics the first sequence; wherein the processor is configured to move the dummy device in a physical three-dimensional model that models at least part of the body of the patient, wherein the physical 3D model is external to the body.
A method comprising: a security system generating a valid two-dimensional scannable access code; the security system embedding authorized use information in the valid two-dimensional scannable access code; the security system storing identifying information for the valid two-dimensional scannable access code in a memory device; the security system sharing the valid two-dimensional scannable access code with a user of the security system; when in an armed state, the security system scanning a presented two-dimensional scannable access code; the security system decoding associated information from the presented two-dimensional scannable access code; the security system comparing the associated information to the identifying information; when the associated information matches the identifying information and current conditions match the authorized use information, the security system transitioning from the armed state to a disarmed state to allow the user to access an area protected by the security system. a security system generating a valid two-dimensional scannable access code; the security system embedding authorized use information in the valid two-dimensional scannable access code; the security system storing identifying information for the valid two-dimensional scannable access code in a memory device; the security system sharing the valid two-dimensional scannable access code with a user of the security system; when in an armed state, the security system scanning a presented two-dimensional scannable access code; the security system decoding associated information from the presented two-dimensional scannable access code; the security system comparing the associated information to the identifying information; when the associated information matches the identifying information and current conditions match the authorized use information, the security system transitioning from the armed state to a disarmed state to allow the user to access an area protected by the security system.
An analysis unit of an allergy test or food incompatibility test for visual analysis of a test result, consisting of at least two optically distinguishable fields, characterized in that at least one first main field has receptor molecules of a species, wherein at least one allergen as receptor molecules of a species, and at least one further field of comparison has a lower density of receptor molecules of a species, wherein all receptor molecules of a species are fixed on a carrier, wherein the fields are wettable for a fluid sample containing a binder, wherein the binder is at least one immunoglobulin and the binding success is detected with a detection agent so that the analysis unit generates different brightness levels.
Rotor blade of a wind turbine, wherein - the rotor blade comprises a flow deflection device for influencing an airflow flowing from the leading edge section of the rotor blade to the trailing edge section of the rotor blade, - the flow deflection device passively changes its configuration depending on the bending of the rotor blade, - the airflow is influenced such that load on the rotor blade is reduced, and - the flow deflection device comprises a first surface portion and a second surface portion, characterized in that - the first surface portion and the second surface portion fold up when bending of the rotor blade is above a pre-determined threshold bending value, thus guiding the airflow away from the surface of the rotor blade. - the rotor blade comprises a flow deflection device for influencing an airflow flowing from the leading edge section of the rotor blade to the trailing edge section of the rotor blade, - the flow deflection device passively changes its configuration depending on the bending of the rotor blade, - the airflow is influenced such that load on the rotor blade is reduced, and - the flow deflection device comprises a first surface portion and a second surface portion, - the first surface portion and the second surface portion fold up when bending of the rotor blade is above a pre-determined threshold bending value, thus guiding the airflow away from the surface of the rotor blade.
A method for de-bonding objects contained in an article at an interface between the objects, wherein the objects are joined at the interface through an intermediate layer, comprising: applying energy from a radiation source, wherein the energy is sufficient to cause destruction of bonds within the intermediate layer; and separating the two objects from one another, wherein the intermediate layer is at least one primer layer (50, 51, 52) at an interface between at least one of the objects and a further bonding layer between the objects, and wherein the radiation source is one or more energy modulation agents contained within the at least one primer layer (50, 51, 52), wherein the one or more energy modulation agents convert an externally applied energy into the energy sufficient to cause destruction of bonds within the at least one primer layer (50, 51, 52), or between the at least one primer layer (50, 51, 52) and the further bonding layer. applying energy from a radiation source, wherein the energy is sufficient to cause destruction of bonds within the intermediate layer; and separating the two objects from one another, wherein the intermediate layer is at least one primer layer (50, 51, 52) at an interface between at least one of the objects and a further bonding layer between the objects, and wherein the radiation source is one or more energy modulation agents contained within the at least one primer layer (50, 51, 52), wherein the one or more energy modulation agents convert an externally applied energy into the energy sufficient to cause destruction of bonds within the at least one primer layer (50, 51, 52), or between the at least one primer layer (50, 51, 52) and the further bonding layer.
A method for reducing power consumption by varying user equipment discontinuous communication of reception on a downlink channel or transmission on an uplink channel with a base node, comprising: specifying on a downlink channel a changed interval for discontinuous communication scheduling for a user equipment; scheduling uplink channel resources in accordance with the changed interval; participating in communication with the user equipment following the changed interval at a nominal interval automatically reverted to by the user equipment; and commanding extended microsleep in response to a low data rate downlink data transmission allowing the user equipment to enter extended microsleep upon decoding a data transmission without receiving a redundant retransmission, wherein low data rate downlink data transmission comprises a VoIP transmission. specifying on a downlink channel a changed interval for discontinuous communication scheduling for a user equipment; scheduling uplink channel resources in accordance with the changed interval; participating in communication with the user equipment following the changed interval at a nominal interval automatically reverted to by the user equipment; and commanding extended microsleep in response to a low data rate downlink data transmission allowing the user equipment to enter extended microsleep upon decoding a data transmission without receiving a redundant retransmission, wherein low data rate downlink data transmission comprises a VoIP transmission.
An assembly comprising apparatus for injecting a fluid formulation into a melted polymeric material in combination with a melt processing apparatus, the apparatus for injecting comprising a first pump (8; 40) and a gear pump (12;42) arranged in series in a fluid path between a reservoir for the fluid formulation to be injected and an outlet of the apparatus for injecting, characterised in that said first pump (8;40) is selected from a diaphragm pump or a progressing cavity pump (pcp), wherein said outlet of the apparatus for injecting is in fluid communication with an inlet via which fluid formulation can be introduced into a melt stream produced by said melt processing apparatus.
Method for processing time values in a computer (10, 20) or programmable machine, characterized in that a high precision timer structure is defined consisting of a digital number for the time value plus a Boolean global timer flag clarifying whether the timer is representing an absolute or real time, hereinafter called global timer, or if the timer is representing a relative time, hereinafter called local timer, wherein the Boolean global timer flag is set to true if the timer is representing an absolute or real time and they Boolean global timer flag is set to false, if the timer is representing a relative time, wherein on addition of two time values from the high precision timer structure, the time values will be added and the Boolean global timer flags will be combined in a logical OR operation to get the entry in the Boolean global timer flag for the resulting value, wherein on subtraction of two time values from the high precision timer structure the time values will be subtracted and the Boolean global timer flags will be combined in a logical XOR operation to get the entry in the Boolean global timer flag for the resulting value.
A server heat dissipation system, comprising a liquid cooled server cabinet, the liquid cooled server cabinet comprises a cabinet body, multiple liquid cooled servers provided inside the cabinet body, a liquid cooling device to perform direct liquid cooling to the liquid cooled servers, the liquid cooling device being disposed along an exterior of the cabinet body and comprising: a liquid heat dissipater provided for performing heat dissipation to server chips; a distributor is connected with the liquid heat dissipater by a plurality of liquid inlet pipes; a collector connected with the liquid heat dissipater by a plurality of liquid outlet pipes; and a primary heat transfer medium, which flows into the liquid heat dissipater through the distributor and the liquid inlet pipes, and then flows out from the liquid heat dissipater through the liquid outlet pipes, and then is collected by the collector; and the auxiliary heat dissipation device to perform auxiliary heat dissipation to the liquid cooled servers. a liquid heat dissipater provided for performing heat dissipation to server chips; a distributor is connected with the liquid heat dissipater by a plurality of liquid inlet pipes; a collector connected with the liquid heat dissipater by a plurality of liquid outlet pipes; and a primary heat transfer medium, which flows into the liquid heat dissipater through the distributor and the liquid inlet pipes, and then flows out from the liquid heat dissipater through the liquid outlet pipes, and then is collected by the collector; and the auxiliary heat dissipation device to perform auxiliary heat dissipation to the liquid cooled servers.
A cantilever sensor comprising: a silicon layer having at least two surfaces and at least two end regions, wherein at least one surface is coated with a coating comprising Au, and one end region is anchored to a support, thereby forming a hinge region between the silicon layer and the support, wherein the at least one Au-coated surface is further coated with a self-assembled monolayer network of probe molecules that covers between 30% and 80% of the Au-coated layer surface and is arranged along the longitudinal length of the cantilever or transverse to the long axis of the cantilever in a continuous connectivity between the probe molecules of the network and between the network and the hinge region of the cantilever, wherein said continuous connectivity is obtained when the distance between a self-assembled monolayer network of probe molecules and a hinge region of the cantilever is equal or less than 50 μm and when the distance between the plurality of probe molecules is equal or less than 50 μm. a silicon layer having at least two surfaces and at least two end regions, wherein at least one surface is coated with a coating comprising Au, and one end region is anchored to a support, thereby forming a hinge region between the silicon layer and the support, wherein the at least one Au-coated surface is further coated with a self-assembled monolayer network of probe molecules that covers between 30% and 80% of the Au-coated layer surface and is arranged along the longitudinal length of the cantilever or transverse to the long axis of the cantilever in a continuous connectivity between the probe molecules of the network and between the network and the hinge region of the cantilever, wherein said continuous connectivity is obtained when the distance between a self-assembled monolayer network of probe molecules and a hinge region of the cantilever is equal or less than 50 μm and when the distance between the plurality of probe molecules is equal or less than 50 μm.
A vibrational catheter for disrupting obstructions in lumens such as blood vessels, the catheter comprising: an elongate flexible catheter body having a proximal end, a distal end and at least one lumen extending longitudinally therethrough; a vibrational transmission member extending longitudinally through the lumen of the catheter body and having a proximal end and a distal end; and a transition connector attached to the proximal end of the vibrational transmission member for coupling the transmission member with a vibrational energy source, the transition connector comprising a bore into which the proximal end of the vibrational transmission member extends, wherein the proximal end of the vibrational transmission member is attached within the bore of the transition connector with variable attachment forces such that the transition connector exerts a greater amount of attachment force on an attached proximal-most portion of the transmission member than on an adjacent portion of the transmission member immediately distal to the proximal-most portion and exerts a lowest amount of attachment force on an attached distal-most portion of the vibrational transmission member housed within the bore, the attachment forces being obtained by crimping at least part of the transition connector. an elongate flexible catheter body having a proximal end, a distal end and at least one lumen extending longitudinally therethrough; a vibrational transmission member extending longitudinally through the lumen of the catheter body and having a proximal end and a distal end; and a transition connector attached to the proximal end of the vibrational transmission member for coupling the transmission member with a vibrational energy source, the transition connector comprising a bore into which the proximal end of the vibrational transmission member extends, wherein the proximal end of the vibrational transmission member is attached within the bore of the transition connector with variable attachment forces such that the transition connector exerts a greater amount of attachment force on an attached proximal-most portion of the transmission member than on an adjacent portion of the transmission member immediately distal to the proximal-most portion and exerts a lowest amount of attachment force on an attached distal-most portion of the vibrational transmission member housed within the bore, the attachment forces being obtained by crimping at least part of the transition connector.
Tread for a tyre comprising at least one elongate block of rubbery material of width W and length L with L>>W, this elongate block extending in a circumferential direction when the tread is mounted on the tyre, the elongate block comprising a contact surface intended to come into contact with the ground and a first lateral wall and a second lateral wall delimiting this contact surface, the elongate block comprising a plurality of sipes (11, 11a, 11b) opening onto the contact surface of the elongate block, each sipe extending in an oblique direction opening onto the first lateral wall and onto the second lateral wall, characterized in that the sipes are distributed over the contact surface of the block in such a way that when one sipe reaches the second lateral wall another sipe circumferentially adjacent to said sipe starts out from the first lateral wall, at a same circumferential level on the elongate block, and in that, with the sipes (11, 11a, 11b) delimiting sub-blocks in the elongate block, at least two of these sub-blocks are configured differently in the tread and in that the sipes (11, 11a, 11b) are rectilinear on the contact surface of the elongate block, each sipe making an angle α with a transverse direction, and in that at least three sipes of the elongate block have different values of angle a. angle here adopts three values α1, α2, α3 with α1< α2< α3, these values α1, α2, α3 being comprised between 20° and 70°.
A laser processing machine for removing material from a workpiece, comprising at least one first station at which a laser processing tool is provided and at which said workpiece is processed by means of said laser processing tool, at least one second station at which said workpiece is measured and/or processed, and a transport means having at least two transport units (6, 7) for moving said workpiece between said first station and said second station, wherein said transport units (6, 7) each have a workpiece receptacle (6.1, 7.1) configured to hold a workpiece in a clamped manner and said transport units (6, 7) can be moved independently of one another in two different spatial directions (x, y) in such a way that said transport units (6, 7) can be moved past one another in a first spatial direction (x) along which said first and second stations (III, II) are arranged.
A compound of formula that is 7,9-dihydroxy-3-(4,5,7-trihydroxy-2-oxo-2 H -chromene-3-yl)-4 H -furo[3,2- c]chromen-4-one, or a pharmaceutically acceptable salt or hydrate thereof.