mhurhangee/ep-ind-claims huggingface dataset:
Device intended for hair removal, comprising a housing, a flashlamp arranged inside the housing, the housing having an opening through which electromagnetic energy originating from the flashlamp can be transmitted towards a skin surface, the housing comprising a cavity adjacent to the flashlamp, characterized in that the housing comprises: - at least one aeration orifice (01,02); and - at least one mobile component, which can be moved between a first so-called aeration position, in which said cavity communicates with said aeration orifice (01,02) and a second so-called closed position, for which said cavity is closed in order to limit the light escaping from the opening. - at least one aeration orifice (01,02); and - at least one mobile component, which can be moved between a first so-called aeration position, in which said cavity communicates with said aeration orifice (01,02) and a second so-called closed position, for which said cavity is closed in order to limit the light escaping from the opening.
Method for determining multiple absolute cabin positions of an elevator cabin within a shaft of an elevator arrangement using a portable smart device comprising a sensor, the method comprising: - displacing the elevator cabin along the shaft during a learning procedure with the portable smart device being releasable attached at a predetermined position at the elevator cabin, - detecting localising characteristics at each of multiple locations during the learning procedure, the localising characteristics indicating an absolute position within the shaft, wherein the localising characteristics are detected using the sensor of the portable smart device, - communicating an information indicating the absolute positions detected during the learning procedure from the portable smart device to an elevator controller, and - correlating each of the absolute positions detected during the learning procedure to one of the multiple absolute cabin positions and storing derived correlation data, - temporarily attaching the portable smart device at a predetermined position at the elevator cabin prior to the learning procedure, and - releasing the portable smart device from the fixation at the elevator cabin after completion of the learning procedure. - displacing the elevator cabin along the shaft during a learning procedure with the portable smart device being releasable attached at a predetermined position at the elevator cabin, - detecting localising characteristics at each of multiple locations during the learning procedure, the localising characteristics indicating an absolute position within the shaft, wherein the localising characteristics are detected using the sensor of the portable smart device, - communicating an information indicating the absolute positions detected during the learning procedure from the portable smart device to an elevator controller, and - correlating each of the absolute positions detected during the learning procedure to one of the multiple absolute cabin positions and storing derived correlation data, - temporarily attaching the portable smart device at a predetermined position at the elevator cabin prior to the learning procedure, and - releasing the portable smart device from the fixation at the elevator cabin after completion of the learning procedure.
A method, comprising: - receiving sensor data indicative of operation of a generator (600; 610) at a controller (43, 606) for the generator (600; 610), wherein the controller (43, 606) rotates with a rotor of the generator (600; 610); - performing an analysis of the sensor data at the controller (43, 606); - generating a generator command at the controller (43, 606) based on the sensor data; and - sending, using a communication interface (45, 353, 608), the generator command to an external controller, characterized by providing a concentric arrangement of magnetic coils (91, 97) as the communication interface (45, 353, 608). - receiving sensor data indicative of operation of a generator (600; 610) at a controller (43, 606) for the generator (600; 610), wherein the controller (43, 606) rotates with a rotor of the generator (600; 610); - performing an analysis of the sensor data at the controller (43, 606); - generating a generator command at the controller (43, 606) based on the sensor data; and - sending, using a communication interface (45, 353, 608), the generator command to an external controller, characterized by providing a concentric arrangement of magnetic coils (91, 97) as the communication interface (45, 353, 608).
A contact lens, comprising: a lens body composed of a hydrogel material or a silicone hydrogel material; at least one anode (200; 300) for electrolytically generating oxygen from water in contact with the anode (200; 300); at least one cathode (200; 300) operatively coupled with said at least one anode (200; 300) to form an electrolytic cell, wherein the anode (200; 300) and the cathode (200; 300) are embedded within the lens body and wherein the contact lens has an anterior surface and an opposite posterior surface and a circumferential edge where the anterior and posterior surfaces are tapered off, and wherein the contact lens comprises a central optical zone, a peripheral zone surrounding the central optical zone, and an edge zone surrounding the peripheral zone, characterized in that the anode (200; 300) and the cathode (200; 300) are operatively connected to a power source and to a control element, and the control element is capable of automatically applying a potential voltage between the anode (200; 300) and the cathode (200; 300) and driving an electrical current through the anode (200; 300) and the cathode (200; 300) to generate oxygen from electrolysis of water, and controlling the timing and duration of electrolysis of water when the contact lens is worn by a patient. a lens body composed of a hydrogel material or a silicone hydrogel material; at least one anode (200; 300) for electrolytically generating oxygen from water in contact with the anode (200; 300); at least one cathode (200; 300) operatively coupled with said at least one anode (200; 300) to form an electrolytic cell,
A method for operating a navigation device, in which - a plurality of route elements, which each comprise at least one parameter, are provided in the navigation device, wherein the route elements are transmitted from an external computer unit and characterise a route, - in order to reconstruct the route, the respective route elements are assigned to local route elements, which are stored in a digital map, which is stored in the navigation device, wherein the local route elements are provided to reconstruct the route, characterised in that, also in the method, - a quality criterion for the assignability to a local route element is determined for each route element depending on at least one of the at least one parameters, - a route reconstruction quality criterion is determined depending on the respective quality criteria of the route elements, - a reconstruction threshold value is predefined and, depending on whether the route reconstruction quality criterion falls below the reconstruction threshold value, it is signalled that the route could not be reconstructed. - a plurality of route elements, which each comprise at least one parameter, are provided in the navigation device, wherein the route elements are transmitted from an external computer unit and characterise a route, - in order to reconstruct the route, the respective route elements are assigned to local route elements, which are stored in a digital map, which is stored in the navigation device, wherein the local route elements are provided to reconstruct the route, characterised in that, also in the method, - a quality criterion for the assignability to a local route element is determined for each route element depending on at least one of the at least one parameters, - a route reconstruction quality criterion is determined depending on the respective quality criteria of the route elements, - a reconstruction threshold value is predefined and, depending on whether the route reconstruction quality criterion falls below the reconstruction threshold value, it is signalled that the route could not be reconstructed.
A deployment method for an operator in a deep learning framework, comprising: acquiring (S101; S201) a source file of the operator; compiling the source file of the operator to form a dynamic link library of the operator; being characterized by: generating (S103; S205) an application programming interface, API, file of a front-end system of the deep learning framework transferred from the dynamic link library of the operator; generating (S104; S206) an installable library file according to the dynamic link library and the interface file; installing (S105; S207) the installable library file to a target programming language library; acquiring a function code to be injected corresponding to the dynamic link library; injecting the function code to be injected into an entry file to generate a target calling function code of the dynamic link library; and writing the target calling function code into the interface file. acquiring (S101; S201) a source file of the operator; compiling the source file of the operator to form a dynamic link library of the operator; being characterized by: generating (S103; S205) an application programming interface, API, file of a front-end system of the deep learning framework transferred from the dynamic link library of the operator; generating (S104; S206) an installable library file according to the dynamic link library and the interface file; installing (S105; S207) the installable library file to a target programming language library; acquiring a function code to be injected corresponding to the dynamic link library; injecting the function code to be injected into an entry file to generate a target calling function code of the dynamic link library; and writing the target calling function code into the interface file. generating (S103; S205) an application programming interface, API, file of a front-end system of the deep learning framework transferred from the dynamic link library of the operator; generating (S104; S206) an installable library file according to the dynamic link library and the interface file; installing (S105; S207) the installable library file to a target programming language library; acquiring a function code to be injected corresponding to the dynamic link library; injecting the function code to be injected into an entry file to generate a target calling function code of the dynamic link library; and writing the target calling function code into the interface file.
A method of measuring a patient's rising oxygen saturation levels during a treatment using a pulse oximeter device, the method comprising: determining the patient's oxygen saturation level (SpO 2) (step 520); if the blood oxygen saturation level (SpOz) maxes out at 100%, calculating a separate hypersaturation index (step 530), wherein the hypersaturation index is based on an absorption ratio of Red over infrared at a measuring site of a patient after a point where said ratio translates to an oxygen saturation level (SpOz) of 100% saturation and continues to drop when more oxygen is dissolved in the blood, said hypersaturation index indicating an increased level of dissolved oxygen in the plasma or indicating the partial pressure of oxygen in the blood; and displaying the hypersaturation index (step 540). determining the patient's oxygen saturation level (SpO 2) (step 520); if the blood oxygen saturation level (SpOz) maxes out at 100%, calculating a separate hypersaturation index (step 530), wherein the hypersaturation index is based on an absorption ratio of Red over infrared at a measuring site of a patient after a point where said ratio translates to an oxygen saturation level (SpOz) of 100% saturation and continues to drop when more oxygen is dissolved in the blood, said hypersaturation index indicating an increased level of dissolved oxygen in the plasma or indicating the partial pressure of oxygen in the blood; and displaying the hypersaturation index (step 540).
An isolated meditope-enabled antibody or fragment thereof, comprising: a heavy chain variable region, a heavy chain constant region or portion thereof, a light chain variable region and a light chain constant region or portion thereof, wherein the meditope-enabled antibody does not specifically bind to the epitope of EGFR that is specifically bound by cetuximab, the meditope-enabled antibody or fragment binds to a meditope being a peptide of SEQ ID NO: 1, or a cyclic peptide derived therefrom, via a meditope binding site, and the meditope-enabled antibody or fragment comprises a light chain comprising the amino acid sequence set forth in SEQ ID NO:9 and a heavy chain comprising the amino acid sequence set forth in SEQ ID NO:6.
Amusement facility having a guide track and having one or more passenger carriers (3, 3') which are movable thereon in a travel direction, wherein the guide track has a travel-track side, which is directed towards the passenger carrier (3, 3'), and a rear side, and wherein the guide track comprises multiple track portions and, in terms of its track profile, a track figure having an upright orientation and having in a side view the shape of a standing "8", wherein the track figure comprises two upright track portions (14, 15) which are each of multiply and oppositely curved form and are connected to one another at an upper zenith, characterized in that the track figure has the shape of a standing three-dimensional "8", wherein the track portions (14, 15) are wound together and, at at least two crossing regions (18, 19), cross over one another alternately one in front of the other and one behind the other, as seen in a side view, and with a mutual, preferably horizontal, spacing, wherein, in multiple side views and lateral projections, the track figure shows in each case the contour of a standing "8".
An electronic apparatus (100, 200, 300, 400) connectable to an external electronic apparatus (150, 250, 450), the electronic apparatus comprising: a wireless communicator (210, 305) configured to receive a wireless signal from the external electronic apparatus; a sound wave receiver (220, 320) configured to receive a sound wave signal from the external electronic apparatus; and a controller (230, 330) configured to: based on an initial distance between the external electronic apparatus and the electronic apparatus measured by using the wireless signal and the sound wave signal, measure a propagation constant between the external electronic apparatus and the electronic apparatus based on the initial distance, a transmission power value of the wireless signal, and a value corresponding to a received signal strength of the wireless signal, and when a distance between the external electronic apparatus and the electronic apparatus is changed to a first distance, measure the first distance based on the propagation constant. a wireless communicator (210, 305) configured to receive a wireless signal from the external electronic apparatus; a sound wave receiver (220, 320) configured to receive a sound wave signal from the external electronic apparatus; and a controller (230, 330) configured to: based on an initial distance between the external electronic apparatus and the electronic apparatus measured by using the wireless signal and the sound wave signal, measure a propagation constant between the external electronic apparatus and the electronic apparatus based on the initial distance, a transmission power value of the wireless signal, and a value corresponding to a received signal strength of the wireless signal, and based on an initial distance between the external electronic apparatus and the electronic apparatus measured by using the wireless signal and the sound wave signal, measure a propagation constant between the external electronic apparatus and the electronic apparatus based on the initial distance, a transmission power value of the wireless signal, and a value corresponding to a received signal strength of the wireless signal, and when a distance between the external electronic apparatus and the electronic apparatus is changed to a first distance, measure the first distance based on the propagation constant.
An apparatus for processing documents, comprising: a feeder operable to receive a packet of a plurality of documents and separate the documents to serially feed the documents away from the feeder; a generally horizontal transport configured to receive a transaction of documents dropped onto a surface of the transport and convey the transaction of documents toward the feeder; characterised by: a pre-singulator disposed between the horizontal transport and the feeder, wherein the pre-singulator comprises an upper roller and a lower roller forming a nip for receiving the documents from the horizontal transport; a sensor (138/150) for detecting a characteristic of the transaction indicative of whether the number of documents in the transaction exceeds a predetermined threshold; and a selectively actuable brake for selectively braking the forward movement of the lower roller of the pre-singulator in response to the sensor detecting the characteristic of the transaction. a feeder operable to receive a packet of a plurality of documents and separate the documents to serially feed the documents away from the feeder; a generally horizontal transport configured to receive a transaction of documents dropped onto a surface of the transport and convey the transaction of documents toward the feeder; a pre-singulator disposed between the horizontal transport and the feeder, wherein the pre-singulator comprises an upper roller and a lower roller forming a nip for receiving the documents from the horizontal transport; a sensor (138/150) for detecting a characteristic of the transaction indicative of whether the number of documents in the transaction exceeds a predetermined threshold; and a selectively actuable brake for selectively braking the forward movement of the lower roller of the pre-singulator in response to the sensor detecting the characteristic of the transaction.
A method of conditioning meat such that the further processing is optimized, wherein the meat having a first temperature between -35 and -18 °C is introduced into a conditioner inside which conditioner a gas is circulated, by means of said gas the temperature is raised in the meat to a second temperature between -8 and -1.5 °C, more preferred -5 and -1.5 °C, with the meat being conveyed by a conveyor arranged inside the conditioner, at which said second temperature the still frozen meat is transported out of the conditioner, where said meat is processed at said second temperature, after which the processed meat is brought to a third temperature different from said second temperature.
A blood analysis method comprising: acquiring optical information which changes over time from a mixed liquid of a blood sample and a reagent for coagulation time measurement after mixing the blood sample and the reagent; and acquiring information related to a coagulation time based on the acquired optical information characterized by acquiring information related to a number of platelets in the blood sample based on the acquired optical information, wherein the information related to the number of platelets in the blood sample is acquired based on the optical information in a predetermined time range including a timing after a coagulation end point. acquiring optical information which changes over time from a mixed liquid of a blood sample and a reagent for coagulation time measurement after mixing the blood sample and the reagent; and acquiring information related to a coagulation time based on the acquired optical information characterized by acquiring information related to a number of platelets in the blood sample based on the acquired optical information, wherein the information related to the number of platelets in the blood sample is acquired based on the optical information in a predetermined time range including a timing after a coagulation end point.
An inverted-F antenna, IFA, comprising an IFA exciting element, an IFA feed, and a grounding pin, wherein the IFA exciting element is configured to resonate at both a first resonant frequency and a second resonant frequency, different from the first resonant frequency, when excited by a signal received through the IFA feed; characterized by further comprising: a highband wave trap having a length defined based on the first resonant frequency of the IFA exciting element, wherein the highband wave trap is electrically coupled to the IFA exciting element through the grounding pin; a ground patch that is electrically coupled between the highband wave trap and a ground plane; and a lowband wave trap having a length defined based on the second resonant frequency of the IFA exciting element, wherein the lowband wave trap is electrically coupled to the ground plane through the ground patch. a highband wave trap having a length defined based on the first resonant frequency of the IFA exciting element, wherein the highband wave trap is electrically coupled to the IFA exciting element through the grounding pin; a ground patch that is electrically coupled between the highband wave trap and a ground plane; and a lowband wave trap having a length defined based on the second resonant frequency of the IFA exciting element, wherein the lowband wave trap is electrically coupled to the ground plane through the ground patch.
A first anchor point configured to perform inter-anchor point mobility, the first anchor point configured to: provide, to a wireless transmit/receive unit, WTRU, access to a data network by forwarding, from the data network, first data with a first Internet protocol, IP, address associated with the WTRU; receive, from a network node, an indication to forward traffic from the data network intended for the WTRU to a second anchor point, wherein the second anchor point is connected to the data network and has a second IP address, and wherein the second anchor point provides, to the WTRU, access to the data network by forwarding, from the data network, second data, intended for the WTRU; and forward, to the second anchor point, third data with the first IP address from the data network intended for the WTRU. provide, to a wireless transmit/receive unit, WTRU, access to a data network by forwarding, from the data network, first data with a first Internet protocol, IP, address associated with the WTRU; receive, from a network node, an indication to forward traffic from the data network intended for the WTRU to a second anchor point, wherein the second anchor point is connected to the data network and has a second IP address, and wherein the second anchor point provides, to the WTRU, access to the data network by forwarding, from the data network, second data, intended for the WTRU; and forward, to the second anchor point, third data with the first IP address from the data network intended for the WTRU.
A pumping assembly for a pump for taking a blood sample, characterised in that it comprises a pump body and a fluid interface, said pump body comprising: - a pumping chamber substantially cylindrical around a pumping axis, comprising an opening for a piston to be introduced axially therein and a bottom axially opposite said opening; - a connection face, - an angled pipe connecting said bottom to said face; - means for fixing the fluid interface on the said connexion face of the said pump body so that the connection face is fixed sealingly against said fluid interface; and the pumping assembly being characterised in that the means for fixing are bores devoid of thread formed in the said pump body, each of said bores designated to introduce a fixing rod therein. - a pumping chamber substantially cylindrical around a pumping axis, comprising an opening for a piston to be introduced axially therein and a bottom axially opposite said opening; - a connection face, - an angled pipe connecting said bottom to said face; - means for fixing the fluid interface on the said connexion face of the said pump body so that the connection face is fixed sealingly against said fluid interface;