mhurhangee/ep-ind-claims huggingface dataset:
Service system for suctions pumps in the field of collecting human breast milk or in the field of medical drainage, wherein the system has a base unit (2, 20) assigned to an individual or an entity and at least one mobile data medium (10, 11, 12, 13), wherein the at least one mobile data medium (10, 11, 12, 13) can be brought by a user into data-communicating connection on the one hand with the various products (80, 81, 82, 83) in the field forming the suctions pumps and on the other hand with the base unit (2, 20), wherein the suctions pumps are breast pumps for pumping human breast milk or thoracic drainage pumps or wound drainage pumps and wherein the base unit (2, 20) can be brought by the user into communicating connection with an external information and data platform, characterized in that the mobile data medium (10, 11, 12,13) allows bidirectional data transfer with the base unit (2, 20) and that the data communication between the mobile data medium (10, 11, 12,13) and the suction pump takes place wirelessly, wherein the wirelessly communication with the suction pump is bidirectional and that the base unit (2, 20) has a support surface for supporting the mobile data medium (10, 11, 12,13) for the purpose of data transfer and for the purpose of charging an energy storage of the mobile data medium (10, 11, 12,13). wherein the system has a base unit (2, 20) assigned to an individual or an entity and at least one mobile data medium (10, 11, 12, 13), wherein the at least one mobile data medium (10, 11, 12, 13) can be brought by a user into data-communicating connection on the one hand with the various products (80, 81, 82, 83) in the field forming the suctions pumps and on the other hand with the base unit (2, 20), wherein the suctions pumps are breast pumps for pumping human breast milk or thoracic drainage pumps or wound drainage pumps and wherein the base unit (2, 20) can be brought by the user into communicating connection with an external information and data platform, characterized in that the mobile data medium (10, 11, 12,13) allows bidirectional data transfer with the base unit (2, 20) and that the data communication between the mobile data medium (10, 11, 12,13) and the suction pump takes place wirelessly, wherein the wirelessly communication with the suction pump is bidirectional and that the base unit (2, 20) has a support surface for supporting the mobile data medium (10, 11, 12,13) for the purpose of data transfer and for the purpose of charging an energy storage of the mobile data medium (10, 11, 12,13).
Device for injecting injectable product, comprising a cannula sliding in a hypodermic needle having a bevelled tip, the cannula including a base configured to establish a sealed connection, said injection device further comprising a locking means configured to lock the cannula with respect to the hypodermic needle on at least one predetermined position in order to prevent translation movement between the cannula and the hypodermic needle, characterised in that the hypodermic needle includes a main bevel and a rear bevel.
A chromatographic expansion regulation system comprising: (i) a chromatographic column having an inlet and an outlet; (ii) a mobile phase comprising a compressed room temperature gas in substantially liquid or supercritical form flowing through the column; (iii) at least one temperature sensor downstream of the outlet and located at or near an area where a substantial portion of the mobile phase expands from liquid or supercritical form to gas form, wherein the sensor is capable of measuring the temperature of the expanded mobile phase; (iv) at least one heater in thermal communication with the column, wherein the heater is capable of adjusting the column temperature; and (v) at least one temperature controller in signal communication with the sensor and the heater, wherein the controller is configured for receiving the temperature measurement from the sensor, comparing the temperature measurement with a desired temperature in the expansion area or expanded mobile phase, and sending a signal to the heater to adjust the column temperature to obtain the desired temperature. (i) a chromatographic column having an inlet and an outlet; (ii) a mobile phase comprising a compressed room temperature gas in substantially liquid or supercritical form flowing through the column; (iii) at least one temperature sensor downstream of the outlet and located at or near an area where a substantial portion of the mobile phase expands from liquid or supercritical form to gas form, wherein the sensor is capable of measuring the temperature of the expanded mobile phase; (iv) at least one heater in thermal communication with the column, wherein the heater is capable of adjusting the column temperature; and (v) at least one temperature controller in signal communication with the sensor and the heater, wherein the controller is configured for receiving the temperature measurement from the sensor, comparing the temperature measurement with a desired temperature in the expansion area or expanded mobile phase, and sending a signal to the heater to adjust the column temperature to obtain the desired temperature.
A method for routing call failures, comprising the steps of; connecting a remote terminal (12,40,46) to a location-based services system; receiving a voice-based request for information from said remote terminal; interpreting said voice-based request for information with a voice recognition application of the location-based services system; wherein the method is characterized by further comprising the steps of: transmitting said interpretation of said voice-based request for information from said voice recognition application to a natural language processing application of the location-based services system; and, in response to said natural language processing application failing to interpret the intent of said voice-based request for information to a predetermined level of accuracy: determining a geographic location of said remote terminal; routing said remote terminal connection to a call center server connected to said location-based services system; and forwarding an indication of said geographic location of said remote terminal (12,40,46) to said call center server. transmitting said interpretation of said voice-based request for information from said voice recognition application to a natural language processing application of the location-based services system; and, in response to said natural language processing application failing to interpret the intent of said voice-based request for information to a predetermined level of accuracy: determining a geographic location of said remote terminal; routing said remote terminal connection to a call center server connected to said location-based services system; and forwarding an indication of said geographic location of said remote terminal (12,40,46) to said call center server. determining a geographic location of said remote terminal; routing said remote terminal connection to a call center server connected to said location-based services system; and forwarding an indication of said geographic location of said remote terminal (12,40,46) to said call center server.
A method of operating an electrophoretic display for reducing light edge artifacts, said display being configured to display a sequence of black-and-white images comprising a first image (302, 304, 306), a second image (302, 308), and a subsequent image (310, 312), the method comprising the following steps: during the first transition from the first image (302, 304, 306) to the second image: selecting a first pixel of the display; detecting a null state transition of the first pixel from black in the first image to black in the second image; determining whether the number of cardinal neighbors of the first pixel transitioning from a black state in the first image to a white state in the second image is at least equal to a threshold number of pixels; and during the second transition from the second image to the subsequent image, applying to the first pixel a voltage signal, wherein the voltage signal has a waveform configured to regenerate an optical black state for the first pixel, in response to the number of cardinal neighboring pixels of the first pixel transitioning from a black state in the first image to a white state in the second image being at least equal to the threshold number of pixels. during the first transition from the first image (302, 304, 306) to the second image: selecting a first pixel of the display; detecting a null state transition of the first pixel from black in the first image to black in the second image; determining whether the number of cardinal neighbors of the first pixel transitioning from a black state in the first image to a white state in the second image is at least equal to a threshold number of pixels; and selecting a first pixel of the display; detecting a null state transition of the first pixel from black in the first image to black in the second image; determining whether the number of cardinal neighbors of the first pixel transitioning from a black state in the first image to a white state in the second image is at least equal to a threshold number of pixels; and during the second transition from the second image to the subsequent image, applying to the first pixel a voltage signal, wherein the voltage signal has a waveform configured to regenerate an optical black state for the first pixel, in response to the number of cardinal neighboring pixels of the first pixel transitioning from a black state in the first image to a white state in the second image being at least equal to the threshold number of pixels.
Solid composition for reducing heavy metals in flue gases comprising a mineral compound characterized in that said mineral compound is solid and doped with a halide salt, i.e., for which the surface accessible to flue gases is partly or completely covered with a halide salt, said mineral compound being selected from the group consisting of halloysite, calcium or magnesium hydroxides, as well as of mixtures thereof.
A method for performing power control for a femto node deployed in a wireless network, comprising: measuring a received signal strength indicator, RSSI, over a downlink channel at a femto node; determining a comparison result between the RSSI, a noise floor, and a threshold RSSI; and adjusting a transmission parameter of the femto node based on the comparison result; wherein the adjusting the transmission parameter comprises modifying a transmit power of the femto node as a function of the RSSI, the noise floor, and the threshold RSSI, where the comparison result indicates the RSSI is above the noise floor and below the threshold RSSI. measuring a received signal strength indicator, RSSI, over a downlink channel at a femto node; determining a comparison result between the RSSI, a noise floor, and a threshold RSSI; and adjusting a transmission parameter of the femto node based on the comparison result; wherein the adjusting the transmission parameter comprises modifying a transmit power of the femto node as a function of the RSSI, the noise floor, and the threshold RSSI, where the comparison result indicates the RSSI is above the noise floor and below the threshold RSSI.
A method of bonding a graft material to a metallic support element of a medical device, the graft material being a sheet material, the method comprising: placing the graft material in contact with the support element in the presence of a silane coupling agent, wherein the silane coupling agent is a compound of formula Ib: wherein: X 1, X 2, and X 3 are independently selected from a group consisting of C 1 -C 4 alkoxy, C 1 -C 4 acyloxy, CI, Br, and I; Y is selected from a group consisting of SO 2, C, OC, and a bond; and L is selected from a group consisting of a substituted or unsubstituted C 1 -C 10 alkanediyl group, (CH 2) n (C 6 H 4)(CH 2) p, wherein n = an integer between 0 and 4, and p = an integer between 2 and 4; and heating the graft material, support element, and silane coupling agent to an effective temperature to bond the graft material to the support element. placing the graft material in contact with the support element in the presence of a silane coupling agent, wherein the silane coupling agent is a compound of formula Ib: wherein: X 1, X 2, and X 3 are independently selected from a group consisting of C 1 -C 4 alkoxy, C 1 -C 4 acyloxy, CI, Br, and I; Y is selected from a group consisting of SO 2, C, OC, and a bond; and L is selected from a group consisting of a substituted or unsubstituted C 1 -C 10 alkanediyl group, (CH 2) n (C 6 H 4)(CH 2) p, wherein n = an integer between 0 and 4, and p = an integer between 2 and 4; and X 1, X 2, and X 3 are independently selected from a group consisting of C 1 -C 4 alkoxy, C 1 -C 4 acyloxy, CI, Br, and I; Y is selected from a group consisting of SO 2, C, OC, and a bond; and L is selected from a group consisting of a substituted or unsubstituted C 1 -C 10 alkanediyl group, (CH 2) n (C 6 H 4)(CH 2) p, wherein n = an integer between 0 and 4, and p = an integer between 2 and 4; and heating the graft material, support element, and silane coupling agent to an effective temperature to bond the graft material to the support element.
A capsule, comprising: an immediate release first dosage composition in the form of compressed minitablets, the immediate release first dosage composition comprising at least two antibiotics; and a delayed release second dosage composition in the form of compressed minitablets, the delayed release second dosage composition comprising a proton pump inhibitor and a coating, wherein, when tested in a basket apparatus, the coating of the delayed release second dosage composition is sufficiently designed to meet the two stage test dissolution profile in a basket apparatus: (a) release of not more than 10% by weight of the proton pump inhibitor in 120 min in an acid stage comprising 900 ml 0.1N HCl at 100 rpm; and (b) release of not less than 75% by weight of the proton pump inhibitor in 45 min in 900 ml phosphate buffer pH 6.8 at 100 rpm following the acid. an immediate release first dosage composition in the form of compressed minitablets, the immediate release first dosage composition comprising at least two antibiotics; and a delayed release second dosage composition in the form of compressed minitablets, the delayed release second dosage composition comprising a proton pump inhibitor and a coating, wherein, when tested in a basket apparatus, the coating of the delayed release second dosage composition is sufficiently designed to meet the two stage test dissolution profile in a basket apparatus: (a) release of not more than 10% by weight of the proton pump inhibitor in 120 min in an acid stage comprising 900 ml 0.1N HCl at 100 rpm; and (b) release of not less than 75% by weight of the proton pump inhibitor in 45 min in 900 ml phosphate buffer pH 6.8 at 100 rpm following the acid. (a) release of not more than 10% by weight of the proton pump inhibitor in 120 min in an acid stage comprising 900 ml 0.1N HCl at 100 rpm; and (b) release of not less than 75% by weight of the proton pump inhibitor in 45 min in 900 ml phosphate buffer pH 6.8 at 100 rpm following the acid.
A heat exchanger for an electronic device comprising a light module, the heat exchanger characterized in that the heat exchanger comprises: an internal heat exchange portion configured to be adjacently attached to the light module, the internal heat exchange portion including at least one internal heat dissipation channel, the at least one internal heat dissipation channel being connected with a device space of the electronic device, wherein a high temperature gas flow generated by the electronic device is enabled to pass through the device space and the at least one internal heat dissipation channel; an external heat exchange portion in thermal contact with the internal heat exchange portion, the external heat exchange portion including an external heat dissipation structure non-connected with the at least one internal heat dissipation channel, wherein the at least one internal heat dissipation channel is provided between the external heat dissipation structure and the light module; and a flow generator corresponding to the external heat exchange portion, wherein an ambient air flow is enabled to pass through the external heat dissipation structure. an internal heat exchange portion configured to be adjacently attached to the light module, the internal heat exchange portion including at least one internal heat dissipation channel, the at least one internal heat dissipation channel being connected with a device space of the electronic device, wherein a high temperature gas flow generated by the electronic device is enabled to pass through the device space and the at least one internal heat dissipation channel; an external heat exchange portion in thermal contact with the internal heat exchange portion, the external heat exchange portion including an external heat dissipation structure non-connected with the at least one internal heat dissipation channel, wherein the at least one internal heat dissipation channel is provided between the external heat dissipation structure and the light module; and a flow generator corresponding to the external heat exchange portion, wherein an ambient air flow is enabled to pass through the external heat dissipation structure.
A method for transmission of a Channel State Information Reference Signal, CSI-RS, comprising: receiving, by a first device, Downlink Control Information, DCI, signaling sent by a second device, wherein the DCI signaling indicates the first device to receive the CSI-RS and comprises resource configuration information of the CSI-RS, and is further configured to schedule data transmitted from the first device to the second device; and the resource configuration information comprises time-domain resource configuration information of the CSI-RS, the time-domain resource configuration information indicates time-domain physical resource information adopted for transmission of the CSI-RS, and the time-domain physical resource information indicates an index of each of time-domain resource units adopted for transmission of the CSI-RS in a predetermined time and a total number of the time-domain resource units; and receiving, by the first device, the CSI-RS sent by the second device according to the resource configuration information comprised in the DCI signaling. receiving, by a first device, Downlink Control Information, DCI, signaling sent by a second device, wherein the DCI signaling indicates the first device to receive the CSI-RS and comprises resource configuration information of the CSI-RS, and is further configured to schedule data transmitted from the first device to the second device; and the resource configuration information comprises time-domain resource configuration information of the CSI-RS, the time-domain resource configuration information indicates time-domain physical resource information adopted for transmission of the CSI-RS, and the time-domain physical resource information indicates an index of each of time-domain resource units adopted for transmission of the CSI-RS in a predetermined time and a total number of the time-domain resource units; and receiving, by the first device, the CSI-RS sent by the second device according to the resource configuration information comprised in the DCI signaling.
An installation with a shaft which is to be driven, wherein at least a first and a second geared motor (41, 42) provide drive, wherein a torque brought about by a tractive force acts on the shaft, the tractive force being generated by a device, characterised in that the torque generated by the first geared motor acts counter to the torque brought about by the tractive force and the torque generated by the second geared motor acts in the direction of the torque brought about by the tractive force, - with the torque generated by the second geared motor and passed on to the shaft being substantially equal amount-wise to that torque amount which is generated by the gear mechanism of the first geared motor if the first geared motor is in a de-energised state, - or with the second geared motor generating a torque which is adjusted to a desired torque value which is determined as a function of the detected speed of rotation of the winding roll and/or of the shaft in accordance with a characteristic curve, in particular with the characteristic curve describing or describing in over-compensating manner the inherent inhibition of the gear mechanism of the first geared motor which is dependent on the speed of rotation, - or with a desired value being supplied to the controller of the converter which feeds the second geared motor, which value corresponds to the torque generated by the gear mechanism of the first geared motor when the first geared motor is de-energised. - with the torque generated by the second geared motor and passed on to the shaft being substantially equal amount-wise to that torque amount which is generated by the gear mechanism of the first geared motor if the first geared motor is in a de-energised state, - or with the second geared motor generating a torque which is adjusted to a desired torque value which is determined as a function of the detected speed of rotation of the winding roll and/or of the shaft in accordance with a characteristic curve, in particular with the characteristic curve describing or describing in over-compensating manner the inherent inhibition of the gear mechanism of the first geared motor which is dependent on the speed of rotation, - or with a desired value being supplied to the controller of the converter which feeds the second geared motor, which value corresponds to the torque generated by the gear mechanism of the first geared motor when the first geared motor is de-energised.
Apparatus for cleaning the internal lines as well as the suction end of airless paint spray devices, comprising an upwardly open container for receiving fresh water, into which the suction end of the airless paint spray device can be introduced, as well as an inlet which can be connected to a water supply, wherein the container has a level control by means of which the level of the fresh water in the container can be maintained at a predetermined value, characterised in that the inlet opens into at least one nozzle which is arranged above the level and increases the speed of the emerging fresh water and by means of which a sharp jet of fresh water can be discharged downwards into the boundary region between the level and the suction end directed onto the water surface for the purpose of forming turbulence in the interior of the container, the volume of the container being between 0.5 and 20 litres.