mhurhangee/patent-ind-claim-en huggingface dataset:
A wound dressing for applying treatment to a tissue site comprising: a porous polyurethane material having a portion to contact the tissue site; and a composition comprising 0.01% to 10% w/w lipoic acid derivative or a pharmaceutically acceptable salt thereof, and at least 4% w/w gelatin or hydrolysates thereof as a sacrificial proteolytic enzyme substrate deposited on the portion of the porous polyurethane material, wherein the lipoic acid derivative has the structure: wherein n 1 and n 2 are, independently, C 1 -C 10 alkyl; and R 1 is H, C 1 -C 10 alkyl, C 6 -C 14 aryl, an alkyl ammonium or a protonated amino acid; or wherein the lipoic acid derivative is a dihydrolipoic acid having the structure: wherein n 1 and n 2 are, independently, C 1 -C 10 alkyl; R 1 is H, C 1 -C 10 alkyl, C 6 -C 14 aryl, an alkyl ammonium or a protonated amino acid; and R 2 is H, C 1 -C 10 alkyl or C 6 -C 14 aryl. a porous polyurethane material having a portion to contact the tissue site; and a composition comprising 0.01% to 10% w/w lipoic acid derivative or a pharmaceutically acceptable salt thereof, and at least 4% w/w gelatin or hydrolysates thereof as a sacrificial proteolytic enzyme substrate deposited on the portion of the porous polyurethane material, wherein the lipoic acid derivative has the structure: wherein n 1 and n 2 are, independently, C 1 -C 10 alkyl; and R 1 is H, C 1 -C 10 alkyl, C 6 -C 14 aryl, an alkyl ammonium or a protonated amino acid; or wherein the lipoic acid derivative is a dihydrolipoic acid having the structure: wherein n 1 and n 2 are, independently, C 1 -C 10 alkyl; R 1 is H, C 1 -C 10 alkyl, C 6 -C 14 aryl, an alkyl ammonium or a protonated amino acid; and R 2 is H, C 1 -C 10 alkyl or C 6 -C 14 aryl. wherein n 1 and n 2 are, independently, C 1 -C 10 alkyl; and R 1 is H, C 1 -C 10 alkyl, C 6 -C 14 aryl, an alkyl ammonium or a protonated amino acid; wherein n 1 and n 2 are, independently, C 1 -C 10 alkyl; R 1 is H, C 1 -C 10 alkyl, C 6 -C 14 aryl, an alkyl ammonium or a protonated amino acid; and R 2 is H, C 1 -C 10 alkyl or C 6 -C 14 aryl.
A plasma cord coating device comprising: a pair of opposite and parallel plate electrodes having a first electrode and a second electrode ; a pair of planar and parallel dielectric barriers including a first dielectric barrier and a second dielectric barrier , wherein the first electrode is covered by the first dielectric barrier on a side facing the second electrode and the second electrode is covered by the second dielectric barrier on a side facing the first electrode so as to form a gap between the first and the second dielectric barriers ; a pair of driven conveyor foils comprising a first foil and a second foil , wherein the first foil extends through the gap and covers the first dielectric barrier and the second foil extends through the gap and covers the second dielectric barrier so as to form a plasma treatment zone between the first foil and the second foil ; transport means for continuously transporting, in a direction of transport (t) and spaced apart from the first foil and the second foil , at least one cord through the plasma treatment zone ; and a gas supply means for directing gas into the plasma treatment zone , wherein said gas supply means is positioned upstream the plasma treatment zone with respect to the direction of transport (t). a pair of opposite and parallel plate electrodes having a first electrode and a second electrode ; a pair of planar and parallel dielectric barriers including a first dielectric barrier and a second dielectric barrier , wherein the first electrode is covered by the first dielectric barrier on a side facing the second electrode and the second electrode is covered by the second dielectric barrier on a side facing the first electrode so as to form a gap between the first and the second dielectric barriers ; a pair of driven conveyor foils comprising a first foil and a second foil , wherein the first foil extends through the gap and covers the first dielectric barrier and the second foil extends through the gap and covers the second dielectric barrier so as to form a plasma treatment zone between the first foil and the second foil ; transport means for continuously transporting, in a direction of transport (t) and spaced apart from the first foil and the second foil , at least one cord through the plasma treatment zone ; and a gas supply means for directing gas into the plasma treatment zone , wherein said gas supply means is positioned upstream the plasma treatment zone with respect to the direction of transport (t).
An image sensor comprising: a semiconductor substrate integrated with at least one photo-sensing device configured to sense a wavelength; a first light-transmitting electrode disposed in the semiconductor substrate and comprising n-type or p-type amorphous silicon; an organic photoelectric conversion layer on the semiconductor substrate and configured to absorb light in a different wavelength from the wavelength sensed by the photo-sensing device; and a second light-transmitting electrode on the organic photoelectric conversion layer; wherein the first light-transmitting electrode , the organic photoelectric conversion layer , and the second light-transmitting electrode form an organic photoelectric device. a semiconductor substrate integrated with at least one photo-sensing device configured to sense a wavelength; a first light-transmitting electrode disposed in the semiconductor substrate and comprising n-type or p-type amorphous silicon; an organic photoelectric conversion layer on the semiconductor substrate and configured to absorb light in a different wavelength from the wavelength sensed by the photo-sensing device; and a second light-transmitting electrode on the organic photoelectric conversion layer; wherein the first light-transmitting electrode , the organic photoelectric conversion layer , and the second light-transmitting electrode form an organic photoelectric device.
An IL-15 analog, wherein the amino acid sequence of the IL-15 analog comprises the amino acid sequence of IL-15, and one or more amino acids added to the C-terminal of the amino acid sequence of IL-15, wherein the one or more amino acids added to the C-terminal of the amino acid sequence of IL-15 are selected from the group of: GSGSGS-HHHHHH, GS-HHHHHH, PLASTKKR, LPKSAKKK, KKKKKKK, GAPQGAPQ-LVESAHHH, GS-LVSSAHHK, GS-LIEHHRRK, GS-IVEHRKKK, GS-VPKTGRRR, GS-LVASGKK, GS-HRKSGHHH, GS-LPKTGRHK, KKKTGRRH, LPRSGRHK, LVETHHHH, VRPETHHH, KKK, RHHHH, KRETHHHHH, GS-LPETG-GSGGSHHHHHH HLETGKKK, HVESGRRR, RRHTGKKK, HVKTGHHH, HVKSGRHH, HVKSSHRH, GSGSGSGSGS-LVKSGHHH, RPKSGHHK, KKC, LHKAGKHH, K, and KK, and wherein the amino acid sequence of IL-15 is shown in SEQ ID NO. 1.
A method for measuring the cutting force on a fiber , said method comprising the steps of: a. providing a blade having an edge ; b. providing a fiber mount holding said fiber ; c. providing at least one sensor connected to said fiber mount ; d. moving said blade toward said fiber and cutting said fiber; and e. measuring the cutting force on said fiber with said sensor . a. providing a blade having an edge ; b. providing a fiber mount holding said fiber ; c. providing at least one sensor connected to said fiber mount ; d. moving said blade toward said fiber and cutting said fiber; and e. measuring the cutting force on said fiber with said sensor .
An LED converter for operating a load comprising at least one LED series with at least one LED, wherein the LED converter comprises a galvanic separation and on the primary side a resonant converter supplied with a direct current voltage (V bus ), which converter has a half-bridge constructed of two reciprocally clocked switches (S1, S2), which half-bridge provides a supply voltage for the LED series through a serial or parallel resonance circuit connected to the midpoint of said bridge, wherein the LED converter has a control unit , which is configured to adjust the frequency (f sw ) of the clocking of the half bridge, wherein the control unit is configured to adjust a direct current voltage (V bus ) supplying the resonant converter through an actuation of a switch of a PFC circuit of the LED converter , characterized in that the control unit is configured, - when switching on the LED converter to adjust the frequency (f sw ) of the clocking so that the frequency operating point is in a predetermined frequency corridor (f opt ) delimited on both sides, and at the same time to adjust the direct current voltage (V bus ) supplying the resonant converter to an as low as possible direct current voltage, and to gradually increase the direct current voltage (V bus ) supplying the resonant converter , until a threshold value (ref) for a feedback variable is achieved, which reflects the power transferred by the resonant converter , - after reaching the threshold value a runtime control is carried out, in which the frequency (f sw ) of the clocking in the frequency corridor (f opt ) is varied based on the feedback variable in order to regulate the power transferred by the LED converter to the LED series , and - to vary the amplitude of the direct current voltage (V bus ) supplying the resonant converter , if it is detected that the frequency operating point resulting from the regulation is outside the frequency corridor (f opt ). - when switching on the LED converter to adjust the frequency (f sw ) of the clocking so that the frequency operating point is in a predetermined frequency corridor (f opt ) delimited on both sides, and at the same time to adjust the direct current voltage (V bus ) supplying the resonant converter to an as low as possible direct current voltage, and to gradually increase the direct current voltage (V bus ) supplying the resonant converter , until a threshold value (ref) for a feedback variable is achieved, which reflects the power transferred by the resonant converter , - after reaching the threshold value a runtime control is carried out, in which the frequency (f sw ) of the clocking in the frequency corridor (f opt ) is varied based on the feedback variable in order to regulate the power transferred by the LED converter to the LED series , and - to vary the amplitude of the direct current voltage (V bus ) supplying the resonant converter , if it is detected that the frequency operating point resulting from the regulation is outside the frequency corridor (f opt ).
Mounting assembly for mounting devices on a surface, the mounting assembly including a first part and a corresponding second part extending in a longitudinal direction (L); the first part comprising a back wall from which a top wall and a bottom wall extend in a forward direction (F) to form an inside compartment together with the back wall , the second part comprising a top section , a middle section and a bottom section , and the second part further comprising at least one mounting means located in the middle section for mounting devices on the second part , wherein the top wall has first engagement means for engagement with corresponding second engagement means of the top section , wherein the bottom wall has first locking means for locking engagement with corresponding second locking means on the bottom section ; wherein the first engagement means extends from the top wall into the inside compartment for engagement with the second engagement means so as to secure the second part to the first part, wherein the first engagement means is an engagement and guiding seat and the second engagement means is a corresponding protrusion, or vice versa, wherein the engagement and guiding seat comprises two protrusions together forming the engagement and guiding seat widening into the compartment , wherein the two protrusions extends in an angle α between 0 to 90 degrees to the forward direction (F), and characterised by further including a guiding assembly comprising a first guiding means arranged on the back wall of the first part and a corresponding second guiding means arranged on the middle section of the second part .
A user equipment , UE, characterized by: a transceiver configured to receive at least one physical downlink control channel, PDCCH from which allocation of a paging time instance to be monitored for paging downlink control information, DCI, is determinable; and circuitry configured to determine the allocation of the paging time instance to be monitored based on the received at least one PDCCH, wherein the transceiver is configured to perform monitoring for the paging DCI based on the determination of the allocation of the paging time instance. a transceiver configured to receive at least one physical downlink control channel, PDCCH from which allocation of a paging time instance to be monitored for paging downlink control information, DCI, is determinable; and circuitry configured to determine the allocation of the paging time instance to be monitored based on the received at least one PDCCH, wherein the transceiver is configured to perform monitoring for the paging DCI based on the determination of the allocation of the paging time instance.
Arrangement having a device or an insect trap for attracting or for attracting and killing insects, comprising a device having a pyramid-shaped net or an insect trap selected from a group consisting of slit trap , bark beetle slit trap, dry or wet trap with baffles , segment funnel trap , trap lampion, sticky trap , such as sticky trap having three-sided prism and wing trap, characterized in that the device or the insect trap has at least one reflective area that reflects sunlight in a reflection spectrum that substantially corresponds to the reflection spectrum of a host of insects to be attracted/killed.
A cleaning robot comprising: a navigation unit configured to move the cleaning robot ; a plurality of light receivers configured to receive a modulated infrared ray output from a remote controller , the remote controller being configured to output, in accordance with a control command of a user, the modulated infrared ray and to output visible light to thereby form a light spot; and a controller configured to control the navigation unit to move the cleaning robot along an automatic cleaning path, and in response to receiving a drag command from the remote controller while moving along the automatic cleaning path, leave the automatic cleaning path and track the light spot, characterized in that the controller is configured to: in response to receiving an intensive cleaning command from the remote controller while tracking the light spot, clean a position indicated by the light spot and then return to the automatic cleaning path. a navigation unit configured to move the cleaning robot ; a plurality of light receivers configured to receive a modulated infrared ray output from a remote controller , the remote controller being configured to output, in accordance with a control command of a user, the modulated infrared ray and to output visible light to thereby form a light spot; and a controller configured to control the navigation unit to move the cleaning robot along an automatic cleaning path, and in response to receiving a drag command from the remote controller while moving along the automatic cleaning path, leave the automatic cleaning path and track the light spot, characterized in that the controller is configured to: in response to receiving an intensive cleaning command from the remote controller while tracking the light spot, clean a position indicated by the light spot and then return to the automatic cleaning path.
A computer-implemented method for selecting a final target sequence set for use in the preparation of one or more gRNA of a CRISPR-Cas system, wherein each of the one or more gRNA comprise a tracrRNA and has a guide sequence which is complimentary to a target sequence from a final target sequence set, the method comprising: selecting a set of target sequences for one or more loci in a target human population based on genetic disease etiology, wherein the target sequences do not contain variants occurring above a threshold allele frequency in the target human population, wherein the threshold allele frequency is 1%; removing any target sequences having off-target candidates in haplotypes that occur in at least 0.1% of the target population to define a final target sequence set, wherein off-target candidates have at least 1 to 5 mismatches between an off-target site and the target sequences. selecting a set of target sequences for one or more loci in a target human population based on genetic disease etiology, wherein the target sequences do not contain variants occurring above a threshold allele frequency in the target human population, wherein the threshold allele frequency is 1%; removing any target sequences having off-target candidates in haplotypes that occur in at least 0.1% of the target population to define a final target sequence set, wherein off-target candidates have at least 1 to 5 mismatches between an off-target site and the target sequences.
An axle for a conveyor roller, comprising: a first axle element ; two second axle elements ; and two third axle elements ; wherein: the first axle element is designed as a preferably hollow axle center tube, and has a respective cavity at least in the area of its free ends; the second axle elements are designed as adapters, have a respective cavity at least in the area of their free ends, are at least regionally arranged in a respective cavity of the first axle element at the respective end areas of the first axle element , and are non-positively connected with the first axle element in the cavities ; and the third axle elements are at least regionally arranged in a respective cavity of the second axle elements at the respective end areas of the second axle elements , and are force-fit connected with the second axle elements in these cavities . a first axle element ; two second axle elements ; and two third axle elements ; wherein: the first axle element is designed as a preferably hollow axle center tube, and has a respective cavity at least in the area of its free ends; the second axle elements are designed as adapters, have a respective cavity at least in the area of their free ends, are at least regionally arranged in a respective cavity of the first axle element at the respective end areas of the first axle element , and are non-positively connected with the first axle element in the cavities ; and the third axle elements are at least regionally arranged in a respective cavity of the second axle elements at the respective end areas of the second axle elements , and are force-fit connected with the second axle elements in these cavities . the first axle element is designed as a preferably hollow axle center tube, and has a respective cavity at least in the area of its free ends; the second axle elements are designed as adapters, have a respective cavity at least in the area of their free ends, are at least regionally arranged in a respective cavity of the first axle element at the respective end areas of the first axle element , and are non-positively connected with the first axle element in the cavities ; and the third axle elements are at least regionally arranged in a respective cavity of the second axle elements at the respective end areas of the second axle elements , and are force-fit connected with the second axle elements in these cavities .
Sonotrode for an ultrasonic welding system for welding workpieces , having a pressing element that has a contact surface , which pressing element may be applied with this contact surface to one of the workpieces to be welded to one another for carrying out the welding process, wherein the contact surface is ring-shaped in configuration, wherein a centering mandrel projecting axially above the contact surface is arranged within the ring-shaped contact surface and wherein the circumferential surface of the centering mandrel forms a preferably cylindrical centering surface , characterized in that the centering mandrel has a cylindrical centering tip that is tapered with respect to the centering surface .
Manufacturing process of a laminated, polymeric semi-finished product, having in-depth aesthetic patterns, comprising at least two mutually welded layers by a lamination process with heat and/or pressure addition, wherein at least one of said layers is a thermoplastic material, characterised in that the following steps are provided: providing a cohesion layer (F1) 100-500 micron thick, consisting of thermoplastic polyurethane, featuring in-depth aesthetic patterns, providing polymeric sheets (FL2, FL3) with materials having a softening temperature above the one of said cohesion layer, laminating at least one of said polymeric sheets (FL1, FL2) at least partly transparent or translucent with said cohesion layer (F1), by heat and/or pressure addition suitable to reach the softening of said cohesion layer featuring aesthetic patterns, wherein said cohesion layer (F1) of thermoplastic polyurethane has aesthetic patterns which extend in depth, characterised in that said cohesion layer (F1) is obtained by a block process. providing a cohesion layer (F1) 100-500 micron thick, consisting of thermoplastic polyurethane, featuring in-depth aesthetic patterns, providing polymeric sheets (FL2, FL3) with materials having a softening temperature above the one of said cohesion layer, laminating at least one of said polymeric sheets (FL1, FL2) at least partly transparent or translucent with said cohesion layer (F1), by heat and/or pressure addition suitable to reach the softening of said cohesion layer featuring aesthetic patterns, wherein said cohesion layer (F1) of thermoplastic polyurethane has aesthetic patterns which extend in depth, characterised in that said cohesion layer (F1) is obtained by a block process.