mhurhangee/ep-ind-claims huggingface dataset:
A system for automated adjustment of a pressure set by a respiration device, comprising an arrangement for electrical impedance tomography for detecting an electrical impedance distribution (EIT_ei_xy, EIT_ee_xy) along at least a two-dimensional cross-section through the human thorax at least at the end of an inspiration phase and at the end of an associated expiration phase; a device for dividing the detected electrical impedance distribution at the end of the inspiration phase (EIT_ei_xy) and at the end of the expiration phase (EIT_ee_xy) into a plurality of EIT pixels (xy) and for determining a value of the electrical impedance at the end of the inspiration phase (EIT_ei_xy) and at the end of the expiration phase (EIT_ee_xy), as associated with a respective EIT pixel; and a device for automated adjustment of the pressure set by the respiration device on the basis of a comparison (i) of a deviation between the value of the electrical impedance at the end of the inspiration phase (EIT_ei_xy) associated with an individual EIT pixel (xy) and the value of the electrical impedance at the end of the expiration phase (EIT_ee_xy) associated with the respective individual EIT pixel (ii) with a deviation between the value of the electrical impedance at the end of the inspiration phase and the value of the electrical impedance at the end of the expiration phase, as determined on the basis of the entirety of the EIT pixels. (i) of a deviation between the value of the electrical impedance at the end of the inspiration phase (EIT_ei_xy) associated with an individual EIT pixel (xy) and the value of the electrical impedance at the end of the expiration phase (EIT_ee_xy) associated with the respective individual EIT pixel (ii) with a deviation between the value of the electrical impedance at the end of the inspiration phase and the value of the electrical impedance at the end of the expiration phase, as determined on the basis of the entirety of the EIT pixels.
A lighting system, comprising: a housing which comprises a support structure and a light exit window for emitting light to the ambient surroundings of the lighting system, the housing defining a mixing chamber having a top part and a bottom part, the mixing chamber comprising one or more side wall portions and a top wall portion which forms the top part, the light exit window being provided at the bottom part; an arrangement of UV LEDs mounted on the support structure; an arrangement of visible light LEDs mounted on the support structure; and a reflector arrangement, wherein the visible light LEDs face the reflector arrangement, and the reflector arrangement is for reflecting the visible light output from the visible light LEDs to the exit window, wherein the UV LEDs are provided at the top part facing the light exit window, characterized in that the visible light LEDs are mounted: (i) on a rim around the light exit window facing into the mixing chamber and facing the top part, directly or at an angle, (ii) on the one or more side wall portions facing across the mixing chamber, or (iii) at the top part facing in the direction of the light exit window, the reflector arrangement comprising reflector portions over the visible light LEDs to block the light path to the light exit window. a housing which comprises a support structure and a light exit window for emitting light to the ambient surroundings of the lighting system, the housing defining a mixing chamber having a top part and a bottom part, the mixing chamber comprising one or more side wall portions and a top wall portion which forms the top part, the light exit window being provided at the bottom part; an arrangement of UV LEDs mounted on the support structure; an arrangement of visible light LEDs mounted on the support structure; and a reflector arrangement, wherein the visible light LEDs face the reflector arrangement, and the reflector arrangement is for reflecting the visible light output from the visible light LEDs to the exit window, wherein the UV LEDs are provided at the top part facing the light exit window, characterized in that the visible light LEDs are mounted: (i) on a rim around the light exit window facing into the mixing chamber and facing the top part, directly or at an angle, (ii) on the one or more side wall portions facing across the mixing chamber, or (iii) at the top part facing in the direction of the light exit window, the reflector arrangement comprising reflector portions over the visible light LEDs to block the light path to the light exit window. (i) on a rim around the light exit window facing into the mixing chamber and facing the top part, directly or at an angle, (ii) on the one or more side wall portions facing across the mixing chamber, or (iii) at the top part facing in the direction of the light exit window, the reflector arrangement comprising reflector portions over the visible light LEDs to block the light path to the light exit window.
A two piece molded wheel comprising a spoke section and a barrel section, wherein the spoke section and barrel sections are joined at the drop center of the wheel, and wherein the spoke section and barrel sections have complementary mating surfaces, wherein both the spoke section and the barrel section include a respective beadhump; the mating surface of the barrel is configured to circumferentially surround at least a portion of the mating surface of the spoke section, characterized in that: the mating surface of the barrel section has a stop configured to abut against a leading edge of the spoke section mating surface when the spoke section and barrel section are joined. both the spoke section and the barrel section include a respective beadhump; the mating surface of the barrel is configured to circumferentially surround at least a portion of the mating surface of the spoke section, characterized in that: the mating surface of the barrel section has a stop configured to abut against a leading edge of the spoke section mating surface when the spoke section and barrel section are joined.
A linear compressor, comprising: a casing; a compressor body accommodated in the casing and defining a compression space for a refrigerant; a suction pipe coupled to a first side of the casing to supply the refrigerant to the compression space; a discharge pipe coupled to a second side of the casing to discharge the refrigerant compressed in the compression space outside of the casing; the compressor being characterised by comprising: a process pipe coupled to the second side of the casing spaced apart from the discharge pipe to inject a refrigerant for supplement into the casing; and a separator that separates a mixed fluid of a refrigerant and oil injected through the process pipe. a casing; a compressor body accommodated in the casing and defining a compression space for a refrigerant; a suction pipe coupled to a first side of the casing to supply the refrigerant to the compression space; a discharge pipe coupled to a second side of the casing to discharge the refrigerant compressed in the compression space outside of the casing; the compressor being characterised by comprising: a process pipe coupled to the second side of the casing spaced apart from the discharge pipe to inject a refrigerant for supplement into the casing; and a separator that separates a mixed fluid of a refrigerant and oil injected through the process pipe. a process pipe coupled to the second side of the casing spaced apart from the discharge pipe to inject a refrigerant for supplement into the casing; and a separator that separates a mixed fluid of a refrigerant and oil injected through the process pipe.
A method for preparing an oligonucleotide-squarate derivative, comprising: a. synthesizing an oligonucleotide derivative comprising an amino or thiol group; and b. reacting 3,4-dialkoxycyclobutene-1,2-dione with the oligonucleotide derivative to produce an oligonucleotide-squarate mono-conjugate wherein the method is characterized by one of the following features: a. wherein the oligonucleotide derivative comprises a linker that comprises the amino or thiol group; wherein the linker is a C 1 -C 12 hydrocarbyl chain optionally substituted with -O-R", -O-CO-R", -NR'-R", -NR'-CO-R", -CO-NR'-R", -CO-R", -CN, halogen, or a combination thereof, wherein R' and R" are independently H or (C 1 -C 6) hydrocarbyl, or is-(CHR') a -W b -(CHR') c -V d -(CHR') e -, wherein W and V are independently -O-, -S-, or-NR'-; R' is H or C1-C6 alkyl and a, b, c, d, and e are independently an integer from 0 to 10, preferably from 0 to 6, more preferably from 0 to 3; b. comprising reacting the oligonucleotide-squarate mono-conjugate with a target entity selected from a polyethylene glycol, a peptide, a protein, and a second oligonucleotide; c. comprising reacting the oligonucleotide-mono-squarate with a amine/thio labeled surface selected from array surfaces, hydrogels, nanoparticles, soluble and insoluble polymers; d. wherein the oligonucleotide derivative comprises a second amino or thiol group at a second location in the oligonucleotide derivative, the method further comprising forming an intra-oligonucleotide crosslink creating a cyclic structure. a. synthesizing an oligonucleotide derivative comprising an amino or thiol group; and b. reacting 3,4-dialkoxycyclobutene-1,2-dione with the oligonucleotide derivative to produce an oligonucleotide-squarate mono-conjugate a. wherein the oligonucleotide derivative comprises a linker that comprises the amino or thiol group; wherein the linker is a C 1 -C 12 hydrocarbyl chain optionally substituted with -O-R", -O-CO-R", -NR'-R", -NR'-CO-R", -CO-NR'-R", -CO-R", -CN, halogen, or a combination thereof, wherein R' and R" are independently H or (C 1 -C 6) hydrocarbyl, or is-(CHR') a -W b -(CHR') c -V d -(CHR') e -, wherein W and V are independently -O-, -S-, or-NR'-; R' is H or C1-C6 alkyl and a, b, c, d, and e are independently an integer from 0 to 10, preferably from 0 to 6, more preferably from 0 to 3; b. comprising reacting the oligonucleotide-squarate mono-conjugate with a target entity selected from a polyethylene glycol, a peptide, a protein, and a second oligonucleotide; c. comprising reacting the oligonucleotide-mono-squarate with a amine/thio labeled surface selected from array surfaces, hydrogels, nanoparticles, soluble and insoluble polymers; d. wherein the oligonucleotide derivative comprises a second amino or thiol group at a second location in the oligonucleotide derivative, the method further comprising forming an intra-oligonucleotide crosslink creating a cyclic structure.
A yarn for manufacturing a fabric with warm-maintaining and deodorizing properties, the yarn comprising i) one type of polyamide, said PA being Nylon 66; ii) one type of coffee carbon powder originating from carbonized coffee husks in an amount of 0.1 to 2.0%; and iii) an inorganic additive comprising one or more metal oxides selected from TiO 2, Al 2 O 3, ZrO 2, ZnO, and SiO 2 in the form of particles of from 0.1 to 5 μm, in an amount of 0.05 to 0.5%; wherein said CC and MO are dispersed in said PA; and wherein said fabric exhibits (a) a temperature elevation higher by at least 5°C when compared with a reference fabric which is prepared by the same method as said fabric with warm-maintaining and deodorizing properties, except for the absence of said CC and MO, in a halogen lamp test employing a 500 watt halogen lamp at a distance of 50 cm from the fabric while measuring and recording the temperature increase for 600 seconds, starting from initial ambient temperature, and (b) a deodorizing rate of at least 50% in the ammonia test characterizing the relative decrease of residual ammonia concentration from initial gas ammonia concentration of 100 ppm in a closed bottle with the fabric after 24 hours. i) one type of polyamide, said PA being Nylon 66; ii) one type of coffee carbon powder originating from carbonized coffee husks in an amount of 0.1 to 2.0%; and iii) an inorganic additive comprising one or more metal oxides selected from TiO 2, Al 2 O 3, ZrO 2, ZnO, and SiO 2 in the form of particles of from 0.1 to 5 μm, in an amount of 0.05 to 0.5%; (a) a temperature elevation higher by at least 5°C when compared with a reference fabric which is prepared by the same method as said fabric with warm-maintaining and deodorizing properties, except for the absence of said CC and MO, in a halogen lamp test employing a 500 watt halogen lamp at a distance of 50 cm from the fabric while measuring and recording the temperature increase for 600 seconds, starting from initial ambient temperature, and (b) a deodorizing rate of at least 50% in the ammonia test characterizing the relative decrease of residual ammonia concentration from initial gas ammonia concentration of 100 ppm in a closed bottle with the fabric after 24 hours.
A process for producing a crude extract enriched in a pentacyclic triterpene, which is celastrol, comprising the following steps: (i) a phase of proliferation of cells of a plant of the Celastraceae family, which is Tripterygium wilfordii, in a proliferation medium, (ii) a phase of elicitation by adding an elicitation cocktail to the cell culture obtained in step (i), said elicitation cocktail comprising at least one elicitor of monocarboxylic compound type, which is methyl jasmonate, and at least one biotic elicitor, which is chitin, and (iii) preparation of a crude extract enriched in pentacyclic tripterpenes from the cell culture obtained in step (ii). (i) a phase of proliferation of cells of a plant of the Celastraceae family, which is Tripterygium wilfordii, in a proliferation medium, (ii) a phase of elicitation by adding an elicitation cocktail to the cell culture obtained in step (i), said elicitation cocktail comprising at least one elicitor of monocarboxylic compound type, which is methyl jasmonate, and at least one biotic elicitor, which is chitin, and (iii) preparation of a crude extract enriched in pentacyclic tripterpenes from the cell culture obtained in step (ii).
Cosmetic or dermatological products, preferably cosmetic or dermatological formulations, comprising a) sorbitan monocaprylate and b5) piroctone olamine.
An application specific integrated circuit (ASIC) comprising: a power pin; a ground pin; an I2C clock pin; an I2C data pin; a serial communication module having an address register having a plurality of bits including a least significant bit (LSB 916) and the serial communication module is coupled to the power pin, the ground pin, the I2C clock pin, and the I2C data pin; characterized in that an analog-to-digital converter has an input coupled to the I2C clock pin and a first output coupled to the least significant bit (LSB 916) of the address register, wherein the ASIC has a non-volatile memory and the address register is configured to hold an I2C communication address and has a most significant bit set by the non-volatile memory.
A personal care system comprising a personal care appliance, a monitor device, a primary accessory device, and a secondary accessory device, the monitor device comprising: a processor; a memory (106, 106A) connected to the processor; a first interface connected to the processor, the first interface configured for connecting the monitor device to the personal care appliance; and a second interface comprising a transceiver module connected to the processor and configured for connecting the monitor device to the primary accessory device and the secondary accessory device, the primary accessory device being a first handheld device and the secondary accessory device being a second handheld device, wherein the monitor device is configured to: establish a primary connection between the monitor device 6) and the primary accessory device; transmit primary monitor data (MD_1) to the primary accessory device via the primary connection; determine whether a first primary connection criterion (CC_1_1) based on a quality of the primary connection is satisfied; and wherein the monitor device is further configured to, in accordance with a determination that the first primary connection criterion is not satisfied, determine secondary monitor data (MD_2), and transmit the secondary monitor data (MD_2) to the secondary accessory device. a processor; a memory (106, 106A) connected to the processor; a first interface connected to the processor, the first interface configured for connecting the monitor device to the personal care appliance; and a second interface comprising a transceiver module connected to the processor and configured for connecting the monitor device to the primary accessory device and the secondary accessory device, the primary accessory device being a first handheld device and the secondary accessory device being a second handheld device, establish a primary connection between the monitor device 6) and the primary accessory device; transmit primary monitor data (MD_1) to the primary accessory device via the primary connection; determine whether a first primary connection criterion (CC_1_1) based on a quality of the primary connection is satisfied; and wherein the monitor device is further configured to, in accordance with a determination that the first primary connection criterion is not satisfied, determine secondary monitor data (MD_2), and transmit the secondary monitor data (MD_2) to the secondary accessory device.
An apparatus comprising: means (120, 130) for generating multiple bursts comprising a training sequence that is shared by the multiple bursts, such that the multiple bursts comprise at least one burst with the training sequence, and wherein the multiple bursts further comprise at least one short training sequence, each short training sequence being shorter than the training sequence, and wherein each burst with the training sequence is without the short training sequence, and wherein the multiple bursts further comprise at least a burst comprising neither a training sequence nor a short training sequence; and means (122, 124) for sending the multiple bursts in multiple time slots, one burst in each time slot. means (120, 130) for generating multiple bursts comprising a training sequence that is shared by the multiple bursts, such that the multiple bursts comprise at least one burst with the training sequence, and wherein the multiple bursts further comprise at least one short training sequence, each short training sequence being shorter than the training sequence, and wherein each burst with the training sequence is without the short training sequence, and wherein the multiple bursts further comprise at least a burst comprising neither a training sequence nor a short training sequence; and means (122, 124) for sending the multiple bursts in multiple time slots, one burst in each time slot.
A method of mapping an indoor environment comprising: generating reference images of the indoor environment using a moveable trolley comprising more than two cameras mounted in close proximity to one another on the trolley, wherein two adjacent ones of the cameras comprise fields of view forming a blind spot between them for accommodating an operator of the trolley; and mapping the reference images recorded by the cameras onto a panoramic view using 3D geometry data associated with the indoor environment, wherein pixels of the reference images are mapped to pixels of the panoramic view by projecting 3D points of the 3D geometry data onto the reference images and the panoramic view, respectively. generating reference images of the indoor environment using a moveable trolley comprising more than two cameras mounted in close proximity to one another on the trolley, wherein two adjacent ones of the cameras comprise fields of view forming a blind spot between them for accommodating an operator of the trolley; and mapping the reference images recorded by the cameras onto a panoramic view using 3D geometry data associated with the indoor environment, wherein pixels of the reference images are mapped to pixels of the panoramic view by projecting 3D points of the 3D geometry data onto the reference images and the panoramic view, respectively.
Method for producing a 3-dimensional object having a base body which is produced in an additive manufacturing process, in which a base body material in a flowable state is introduced into a support material by at least one insertion needle and cures therein at least partially, the method has the following steps: - Providing data of the object to be produced, which contain information about its 3-dimensional shape, - determining printing parameters from the data provided, wherein ∘ a printing path is determined along which the insertion needle is moved through the support material, and ∘ a volumetric flow rate of the base body material inserted into the support material and/or the velocity of the insertion needle at each point along the printing path are determined, - producing the base body by means of the additive manufacturing process using the determined printing parameters. - Providing data of the object to be produced, which contain information about its 3-dimensional shape, - determining printing parameters from the data provided, wherein ∘ a printing path is determined along which the insertion needle is moved through the support material, and ∘ a volumetric flow rate of the base body material inserted into the support material and/or the velocity of the insertion needle at each point along the printing path are determined, ∘ a printing path is determined along which the insertion needle is moved through the support material, and ∘ a volumetric flow rate of the base body material inserted into the support material and/or the velocity of the insertion needle at each point along the printing path are determined, - producing the base body by means of the additive manufacturing process using the determined printing parameters.
A method of protecting a battery pack from overcharging during a battery pack charging cycle, wherein during said battery pack charging cycle a source of charging power is coupled to the battery pack and provides charging power to the battery pack, said method comprising the steps of: electrically connecting a first lead of an overcharge protection device, to a first output terminal of said battery pack; electrically connecting a second lead of said overcharge protection device to a second output terminal of said battery pack, wherein said second output terminal represents an oppositely charged terminal of said battery pack; and monitoring a voltage corresponding to said charging power during said battery pack charging cycle, wherein said monitoring step is performed by said overcharge protection device characterized in that, if said voltage exceeds a predetermined trigger voltage said overcharge protection device further performs the step of creating a short between said first and second output terminals of said battery pack, wherein said short causes a fuse corresponding to said battery pack to blow, wherein said fuse is designed to provide battery pack short circuit protection. electrically connecting a first lead of an overcharge protection device, to a first output terminal of said battery pack; electrically connecting a second lead of said overcharge protection device to a second output terminal of said battery pack, wherein said second output terminal represents an oppositely charged terminal of said battery pack; and monitoring a voltage corresponding to said charging power during said battery pack charging cycle, wherein said monitoring step is performed by said overcharge protection device characterized in that, if said voltage exceeds a predetermined trigger voltage said overcharge protection device further performs the step of creating a short between said first and second output terminals of said battery pack, wherein said short causes a fuse corresponding to said battery pack to blow, wherein said fuse is designed to provide battery pack short circuit protection.