mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device , comprising: a medical device housing having an external surface ; a disposable component disposed on the external surface of the medical device housing , wherein the disposable component is configured to be installed on the external surface by a human operator and removable therefrom for disposal; a camera coupled to the medical device housing and configured to acquire an image representing the disposable component and at least a portion of the external surface ; and a programmed processing circuit configured to: operate the medical device using the disposable component , detect an error condition on the medical device , characterized in that the programmed processing circuit is further configured to: in response to the detection of the error condition, acquire an image from the camera ; and store the image in a memory of the medical device , wherein the memory is accessible for later retrieval of the image. a medical device housing having an external surface ; a disposable component disposed on the external surface of the medical device housing , wherein the disposable component is configured to be installed on the external surface by a human operator and removable therefrom for disposal; a camera coupled to the medical device housing and configured to acquire an image representing the disposable component and at least a portion of the external surface ; and a programmed processing circuit configured to: operate the medical device using the disposable component , detect an error condition on the medical device , characterized in that the programmed processing circuit is further configured to: in response to the detection of the error condition, acquire an image from the camera ; and store the image in a memory of the medical device , wherein the memory is accessible for later retrieval of the image. operate the medical device using the disposable component , detect an error condition on the medical device , characterized in that the programmed processing circuit is further configured to: in response to the detection of the error condition, acquire an image from the camera ; and store the image in a memory of the medical device , wherein the memory is accessible for later retrieval of the image. in response to the detection of the error condition, acquire an image from the camera ; and store the image in a memory of the medical device , wherein the memory is accessible for later retrieval of the image.
A plasma-assisted thin film deposition device including a device for producing a microwave plasma by electron cyclotron resonance and a support of a target material intended to form the thin film, said device for producing a microwave plasma including a body with a longitudinal axis (ZZ') extending between a first longitudinal end face and a second longitudinal end face and provided with a central passage extending between the first longitudinal end face and the second longitudinal end face , said support being housed in said central passage , said first longitudinal end face being intended to be housed in an enclosure (E) of a deposition installation, said body including an annular passage for propagating a microwave electric field connected to a microwave electric field source, said annular passage surrounding the central passage and opening into the first longitudinal end face , at least one cavity surrounding the central passage and located near the first longitudinal end face , a magnetic structure housed in said cavity , said support including a basket configured to house the target (C) and positioned so that the free face of the target (C) is in a plane of the first longitudinal end face or near said plane and so that at least part of the field lines (B) generated by the magnetic structure crosses the target (C), said deposition device also including means for evaporating or spraying the target material.
A rotary valve assembly comprising: a valve element rotatably mountable within a flow passage for rotary motion between an open position in which it permits flow through the flow passage and a closed position in which it blocks flow through the flow passage ; a valve housing comprising a duct portion receiving said valve element and an actuator portion receiving said actuation mechanism; and an actuation mechanism comprising: an electric drive motor coupled to a threaded drive spindle ; a threaded drive nut received on said drive spindle for movement along said drive spindle ; a rack gear coupled to said drive nut ; and a pinion gear drivingly engaged with said rack gear and drivingly couplable to said rotary element , characterised in that : said actuation portion comprises a portion laterally overhanging a side of said duct portion , said drive motor is at least partially arranged in said overhanging portion , and said actuator portion is integral with said duct portion . a valve element rotatably mountable within a flow passage for rotary motion between an open position in which it permits flow through the flow passage and a closed position in which it blocks flow through the flow passage ; a valve housing comprising a duct portion receiving said valve element and an actuator portion receiving said actuation mechanism; and an actuation mechanism comprising: an electric drive motor coupled to a threaded drive spindle ; a threaded drive nut received on said drive spindle for movement along said drive spindle ; a rack gear coupled to said drive nut ; and a pinion gear drivingly engaged with said rack gear and drivingly couplable to said rotary element , an electric drive motor coupled to a threaded drive spindle ; a threaded drive nut received on said drive spindle for movement along said drive spindle ; a rack gear coupled to said drive nut ; and a pinion gear drivingly engaged with said rack gear and drivingly couplable to said rotary element ,
A liquid composition for use in compression refrigeration, air-conditioning and heat pump systems comprising: (A) 1,3,3,3-tetrafluoropropene (HFO-1234ze) (B) an effective amount to provide lubrication of an essentially miscible organic lubricant comprised of carbon, hydrogen and oxygen and having a ratio of oxygen to carbon effective to provide a degree of miscibility with said HFO-1234ze so that when up to five weight per cent of lubricant is added to said HFO-1234ze the mixture has one liquid phase over essentially the entire temperature range between -40 and +70°C, and (C) extreme pressure and antiwear additives, oxidation and thermal stability improvers, pour and floc point depressants, or anti foaming agents. (A) 1,3,3,3-tetrafluoropropene (HFO-1234ze) (B) an effective amount to provide lubrication of an essentially miscible organic lubricant comprised of carbon, hydrogen and oxygen and having a ratio of oxygen to carbon effective to provide a degree of miscibility with said HFO-1234ze so that when up to five weight per cent of lubricant is added to said HFO-1234ze the mixture has one liquid phase over essentially the entire temperature range between -40 and +70°C, and (C) extreme pressure and antiwear additives, oxidation and thermal stability improvers, pour and floc point depressants, or anti foaming agents.
A twin screw extruder for producing a fiber-reinforced resin composition, in which a thermoplastic resin and roving-like reinforced fibers are fed and the reinforced fibers are defibrated and cut to be dispersed and kneaded in the thermoplastic resin, the extruder comprising: a plate-shaped blade protruding from an inner surface of a cylinder and facing a screw , a length direction of the blade being directed in a cylinder axis direction; characterized by height adjustment means for adjusting a gap between the blade and the screw by adjusting a height of the blade protruding from the inner surface of the cylinder . a plate-shaped blade protruding from an inner surface of a cylinder and facing a screw , a length direction of the blade being directed in a cylinder axis direction; characterized by height adjustment means for adjusting a gap between the blade and the screw by adjusting a height of the blade protruding from the inner surface of the cylinder .
A method of producing a denatured pea protein solution comprising the steps of: substantially but not fully solubilising pea protein in an alkali solvent at pH 10 or greater, or by sonication of a dispersion or part dispersion part solution of the protein in a solvent having a pH of about 6-9, to provide a 6-9% pea protein solution (w/v); resting the solubilised pea protein solution for at least 15 minutes to further solubilise and hydrate the pea protein; heating the rested pea protein solution under conditions sufficient to heat-denature at least 90% of the pea protein while maintaining the solution in a form suitable for extrusion; and actively cooling the denatured pea protein solution to accelerate cooling and prevent gelation; wherein at least 90% by weight of the pea protein in the denatured pea protein solution is present as a soluble pea protein aggregate as determined by the Shake Flask method as described above under the heading "Method of determining solubility of pea protein solution". substantially but not fully solubilising pea protein in an alkali solvent at pH 10 or greater, or by sonication of a dispersion or part dispersion part solution of the protein in a solvent having a pH of about 6-9, to provide a 6-9% pea protein solution (w/v); resting the solubilised pea protein solution for at least 15 minutes to further solubilise and hydrate the pea protein; heating the rested pea protein solution under conditions sufficient to heat-denature at least 90% of the pea protein while maintaining the solution in a form suitable for extrusion; and actively cooling the denatured pea protein solution to accelerate cooling and prevent gelation;
A method for producing light-emitting semiconductor components , comprising the following steps: A) providing at least one glass capillary made of a glass material, B) filling the glass capillary with a plurality of different phosphors , C) sealing the glass capillary in a sealing region by melting and/or softening the glass material such that the glass capillary is closed by the glass material itself, and D) attaching at least one part of the sealed glass capillary to at least one light-emitting diode chip such that, during operation, the radiation emitted by the light-emitting diode chip is partially or completely converted into light of a greater wavelength by the phosphors , wherein, in step C), a distance between the sealing region and the phosphors is at most 4 mm, wherein the different phosphors are present separately from one another along a longitudinal axis (L) of the glass capillary , and wherein the phosphors are injected with a syringe into the glass capillary such that regions filled with the phosphors and regions filled with a protective gas alternate with one another in the glass capillary after step B). A) providing at least one glass capillary made of a glass material, B) filling the glass capillary with a plurality of different phosphors , C) sealing the glass capillary in a sealing region by melting and/or softening the glass material such that the glass capillary is closed by the glass material itself, and D) attaching at least one part of the sealed glass capillary to at least one light-emitting diode chip such that, during operation, the radiation emitted by the light-emitting diode chip is partially or completely converted into light of a greater wavelength by the phosphors ,
Method for operating an automatic transmission apparatus having a parking lock device , wherein the parking lock device has a hydraulic apparatus with a hydraulic cylinder and a hydraulic piston which is arranged therein and can be secured in at least two positions by means of a locking apparatus , and an emergency unlocking apparatus , wherein the hydraulic piston is operatively connected to a switching shaft of the parking lock device , and a pressure can be set in the hydraulic cylinder by means of a hydraulic valve , and wherein the switching shaft can be moved within an operating position range by means of the hydraulic apparatus , wherein, within the operating position range, there is a first position in which the switching shaft is arranged in such a way that the parking lock device is deactivated, and there is a second position in which the parking lock device is activated, characterised in that, when the emergency unlocking apparatus is actuated, the switching shaft is moved into a position which lies outside the operating position range, and in that an operating state of the emergency unlocking apparatus is checked, wherein an actuated emergency unlocking apparatus is detected if, over a specific time period, a position sensor determines a position of the switching shaft which lies outside the operating position range and/or if a distance travelled by the switching shaft and detected by means of the position sensor exceeds a limit value.
A node for operating in a communication system, the communication system comprising a plurality of anchor nodes having a respective known location, the node comprising: a location unit configured to determine that the node requires positioning support from an anchor node of the plurality of anchor nodes, characterized by : a transmitter configured to transmit a request for positioning support from the anchor node; and a selection unit configured to, following the transmission of the request: select a set of anchor nodes of the plurality of anchor nodes for providing positioning support; and cause the transmitter to transmit an instruction to each anchor node in the set of anchor nodes to instruct each anchor node to provide positioning support to the node via a sidelink between the respective anchor node and the node. a location unit configured to determine that the node requires positioning support from an anchor node of the plurality of anchor nodes, characterized by : a transmitter configured to transmit a request for positioning support from the anchor node; and a selection unit configured to, following the transmission of the request: select a set of anchor nodes of the plurality of anchor nodes for providing positioning support; and cause the transmitter to transmit an instruction to each anchor node in the set of anchor nodes to instruct each anchor node to provide positioning support to the node via a sidelink between the respective anchor node and the node. a transmitter configured to transmit a request for positioning support from the anchor node; and a selection unit configured to, following the transmission of the request: select a set of anchor nodes of the plurality of anchor nodes for providing positioning support; and cause the transmitter to transmit an instruction to each anchor node in the set of anchor nodes to instruct each anchor node to provide positioning support to the node via a sidelink between the respective anchor node and the node. select a set of anchor nodes of the plurality of anchor nodes for providing positioning support; and cause the transmitter to transmit an instruction to each anchor node in the set of anchor nodes to instruct each anchor node to provide positioning support to the node via a sidelink between the respective anchor node and the node.
A catheter cartridge assembly , comprising: a cartridge including a cartridge housing having proximal and distal ends; a pre-loaded tip at least partially positioned within the cartridge housing ; and a protective sleeve at least partially positioned within the cartridge housing and having a proximal end secured with respect to the pre-loaded tip ; and a catheter member having a proximal end configured to be advanced proximally into and through the cartridge housing to engage and become joined to a distal end of the pre-loaded tip for proximal advancement out of the proximal end of the cartridge housing as a composite catheter defined by the joined preloaded tip and catheter member , wherein the protective sleeve is configured to cover the portion of the composite catheter defined by the catheter member as the composite catheter is proximally advanced out of the cartridge housing . a cartridge including a cartridge housing having proximal and distal ends; a pre-loaded tip at least partially positioned within the cartridge housing ; and a protective sleeve at least partially positioned within the cartridge housing and having a proximal end secured with respect to the pre-loaded tip ; and a cartridge housing having proximal and distal ends; a pre-loaded tip at least partially positioned within the cartridge housing ; and a protective sleeve at least partially positioned within the cartridge housing and having a proximal end secured with respect to the pre-loaded tip ; and a catheter member having a proximal end configured to be advanced proximally into and through the cartridge housing to engage and become joined to a distal end of the pre-loaded tip for proximal advancement out of the proximal end of the cartridge housing as a composite catheter defined by the joined preloaded tip and catheter member , wherein the protective sleeve is configured to cover the portion of the composite catheter defined by the catheter member as the composite catheter is proximally advanced out of the cartridge housing .
Method for evaluating the shallow water influence on a motor vessel, driven by drive power, comprising the continuous sequence of steps: a) determining the water depth adjacent to the motor vessel and a setpoint speed in deep water that is expected from the predetermined drive power; b) calculating the expected speed loss from the setpoint speed as a function of the determined water depth; c) determining the necessary power difference of the drive power that is required to compensate for the expected speed loss; d) displaying the expected speed loss and the required difference in power on a display apparatus, wherein the ratio of the required difference in power to the expected speed loss is calculated and compared with a predefinable limit value, and, if the predefinable limit value is undershot, the drive power of the motor vessel and/or its speed can be increased and when the predefinable limit value is exceeded, the increase in the drive power and/or the speed is prevented. a) determining the water depth adjacent to the motor vessel and a setpoint speed in deep water that is expected from the predetermined drive power; b) calculating the expected speed loss from the setpoint speed as a function of the determined water depth; c) determining the necessary power difference of the drive power that is required to compensate for the expected speed loss; d) displaying the expected speed loss and the required difference in power on a display apparatus, wherein the ratio of the required difference in power to the expected speed loss is calculated and compared with a predefinable limit value, and, if the predefinable limit value is undershot, the drive power of the motor vessel and/or its speed can be increased and when the predefinable limit value is exceeded, the increase in the drive power and/or the speed is prevented.
A method for compensating for aberrations of a holographic display device in generating a hologram to reproduce a holographic image, the method comprising: initializing a computer-generated hologram; generating masks corresponding to hologram plane segments of a hologram plane; obtaining hologram segments by spatial filtering the computer-generated hologram by using the masks; generating , for each hologram plane segment, a kernel by modeling aberrations corresponding to this hologram plane segment; obtaining first image segments by propagating each hologram segment by using the corresponding kernel; and updating the hologram based on a comparison between the first image segments and reference image segments acquired from a storage corresponding to the holographic image to be reproduced. initializing a computer-generated hologram; generating masks corresponding to hologram plane segments of a hologram plane; obtaining hologram segments by spatial filtering the computer-generated hologram by using the masks; generating , for each hologram plane segment, a kernel by modeling aberrations corresponding to this hologram plane segment; obtaining first image segments by propagating each hologram segment by using the corresponding kernel; and updating the hologram based on a comparison between the first image segments and reference image segments acquired from a storage corresponding to the holographic image to be reproduced.
An energy harvesting system (100, 200, 400, 500, 700, 800. 900), comprising: an antenna configured to receive a radio frequency signal from a source ; and an energy harvester configured to receive the radio frequency signal from the antenna and provide power, derived from energy in the radio frequency signal, to a power consuming device configured to perform one or more operations unassociated with the radio frequency signal, characterized by the energy harvesting system using data communications to control power delivery from the source of the radio frequency signal based on the needs of the power consuming device . an antenna configured to receive a radio frequency signal from a source ; and an energy harvester configured to receive the radio frequency signal from the antenna and provide power, derived from energy in the radio frequency signal, to a power consuming device configured to perform one or more operations unassociated with the radio frequency signal, characterized by the energy harvesting system using data communications to control power delivery from the source of the radio frequency signal based on the needs of the power consuming device .