mhurhangee/ep-ind-claims huggingface dataset:
An emulsion composition comprising an emulsion formed by: reacting stearic acid with a compound selected from the group consisting of ammonia, sodium, potassium and combinations thereof so as to form a water soluble soap; dispersing the water soluble soap in water; and homogenizing the dispersed water soluble soap with biodiesel, thereby obtaining an emulsion composition with a pH of 10 or greater. reacting stearic acid with a compound selected from the group consisting of ammonia, sodium, potassium and combinations thereof so as to form a water soluble soap; dispersing the water soluble soap in water; and homogenizing the dispersed water soluble soap with biodiesel, thereby obtaining an emulsion composition with a pH of 10 or greater.
Device (1, 26) for arranging a passenger restraint system in a means of transport for securing a person sitting in the means of transport with the passenger restraint system, wherein the device (1, 26) comprises a support arrangement with a vertical support (3, 4) which can be fixed upright in a base area of the means of transport and wherein on the vertical support (3, 4) an elongated cross member is mounted which is aligned at an angle to the vertical support (3, 4), characterised in that the vertical support (3, 4) and/or the cross member are constructed as multiple hollow profile element (6, 7, 8), wherein the multiple hollow profile element (6, 7, 8) comprises at least over its major extension two adjacent hollow bodies (6a, 6b; 7a, 7b; 8a, 8b) connected to one another on the longitudinal side.
A terminal device that communicates with a base station device, the terminal device comprising: a higher layer processing unit configured to perform one or more second PDCCH settings through signaling of a higher layer from the base station device, wherein the second PDCCH setting includes information indicating the number of symbols of an extended sub frame; a receiving unit configured to monitor only a common search space and a terminal device-specific search space in a first PDCCH in a case in which the second PDCCH setting is not performed, and monitor a terminal device-specific search space in at least a second PDCCH in a case in which the second PDCCH setting is performed, wherein the first PDCCH is transmitted using a sub frame defined in accordance with a predetermined number of symbols, and the second PDCCH is transmitted using the extended sub frame having a smaller number of symbols than a number of symbols corresponding to the sub frame, and a resource block set through the second PDCCH setting. a higher layer processing unit configured to perform one or more second PDCCH settings through signaling of a higher layer from the base station device, wherein the second PDCCH setting includes information indicating the number of symbols of an extended sub frame; a receiving unit configured to monitor only a common search space and a terminal device-specific search space in a first PDCCH in a case in which the second PDCCH setting is not performed, and monitor a terminal device-specific search space in at least a second PDCCH in a case in which the second PDCCH setting is performed, wherein the first PDCCH is transmitted using a sub frame defined in accordance with a predetermined number of symbols, and the second PDCCH is transmitted using the extended sub frame having a smaller number of symbols than a number of symbols corresponding to the sub frame, and a resource block set through the second PDCCH setting.
A method comprising: receiving input over a network environment, the network environment including a first fluid delivery device and a second fluid delivery device and interconnecting the first fluid delivery device and the second fluid delivery device using a communication interface, the input associating the first fluid delivery device to the second fluid delivery device, the second fluid delivery device located in a medical environment in which the first fluid delivery device is operated; based on the input, recording an association between the first fluid delivery device and the second fluid delivery device; and based on the recorded association, initiating transmission of medical information associated with the second fluid delivery device over the network to the first fluid delivery device. receiving input over a network environment, the network environment including a first fluid delivery device and a second fluid delivery device and interconnecting the first fluid delivery device and the second fluid delivery device using a communication interface, the input associating the first fluid delivery device to the second fluid delivery device, the second fluid delivery device located in a medical environment in which the first fluid delivery device is operated; based on the input, recording an association between the first fluid delivery device and the second fluid delivery device; and based on the recorded association, initiating transmission of medical information associated with the second fluid delivery device over the network to the first fluid delivery device.
An isolated population of cells wherein at least 8% of the cells are Somatic Cells with an Innate Potential for Pluripotency (SCIPP), wherein said SCIPP cells are: i) derived from disease-free mammary tissue; and ii) CD73+/CD90-; and negative for Lineage markers CD2, CD3, CD16, CD31, CD45, CD64 and CD140b. i) derived from disease-free mammary tissue; and ii) CD73+/CD90-; and negative for Lineage markers CD2, CD3, CD16, CD31, CD45, CD64 and CD140b.
Method for determining the profile depth of the tread of a pneumatic vehicle tire, wherein at least one wear indicator is provided in the tread, said wear indicator having at least one incision (10, 10a, 10b) which runs in the radial direction, the length of said incision which is visible on the outside of the tread becoming shorter in a defined manner as wear increases, and said wear indicator having at least two reference marks, the mutual distance between said two reference marks remaining constant and visible over the tread wear, characterized in that a photograph of the incision (10, 10a, 10b) and of the reference marks is created by means of an application program of a mobile telephone, in particular of a smartphone, which has a camera and a screen, wherein the application program provides a positioning mask on the screen, said positioning mask having at least two markers which are brought into line with the reference marks, and uses the defined distance between the reference marks, the stored data of the incision characteristic and the length of the incision to calculate the current profile depth and displays on the screen said current profile depth and/or the profile depth remaining until the minimum profile depth is reached.
An optical system comprising: a lens system configured to receive first radiation associated with an object and direct second radiation associated with an image of the object toward an image plane, the lens system comprising: a first set of lenses configured to receive and selectively magnify the first radiation; a second set of lenses configured to receive and selectively magnify the first radiation; and an actuator system (205, 705) configured to: selectively adjust the first set of lenses to adjust a magnification associated with the image symmetrically along a first direction and a second direction; and selectively adjust the second set of lenses to asymmetrically adjust the magnification along the first direction and the second direction. a first set of lenses configured to receive and selectively magnify the first radiation; a second set of lenses configured to receive and selectively magnify the first radiation; and an actuator system (205, 705) configured to: selectively adjust the first set of lenses to adjust a magnification associated with the image symmetrically along a first direction and a second direction; and selectively adjust the second set of lenses to asymmetrically adjust the magnification along the first direction and the second direction. selectively adjust the first set of lenses to adjust a magnification associated with the image symmetrically along a first direction and a second direction; and selectively adjust the second set of lenses to asymmetrically adjust the magnification along the first direction and the second direction.
A connection arrangement for connecting a post to a frame profile of a window or a door made of plastics material, wherein the post has a hollow profile which is fastened to the frame profile by means of a post connector which comprises a base part with a baseplate which can be fastened to the frame profile, with side walls running upwards perpendicularly on both sides of said baseplate, and further a push-on part which can be placed perpendicularly onto the base part, which push-on part can be fastened to the post, wherein further the post upon mounting can be placed in a positive fit on the base part of the post connector, which base part between the two side walls comprises a shaped projection protruding from the baseplate and extending beyond the height of the side walls, which projection has a front side on which at least one planar sliding face is attached over its height, the spanning plane of which face lies perpendicularly to the side walls and to the baseplate, characterised in that the post with the lateral closing walls of its hollow profile is guided in a positive fit in the direction of the baseplate on the facing side faces of the side walls of the base part upon mounting, with a planar supporting face aligned to the spanning plane of the at least one sliding face of the shaped projection being formed on the push-on part, on which supporting face upon mounting the planar sliding face of the shaped projection is slidingly supported, and past which the shaped projection in so doing runs into a hollow chamber formed in the hollow profile of the post.
A non-luminescent pair system for use in detecting and monitoring molecular interactions, e.g., protein-protein, protein-DNA, protein-RNA, RNA-DNA, protein-small molecule, or RNA-small-molecule interactions, said system comprising: (a) a non-luminescent peptide having less than 100% and greater than 70% sequence identity with SEQ ID NO: 2, wherein a detectable bioluminescent signal is produced in the presence of a substrate when the peptide associates with a polypeptide consisting of SEQ ID NO: 440; and (b) a non-luminescent polypeptide having less than 100% and greater than 70% sequence identity with SEQ ID NO: 440, wherein the polypeptide comprises two or more amino acid differences from SEQ ID NO: 440, and wherein a detectable bioluminescent signal is produced in the presence of a substrate when the polypeptide associates with a peptide consisting of SEQ ID NO: 2; wherein the detectable bioluminescent signal is produced in the presence of a substrate when the non-luminescent peptide associates with the non-luminescent polypeptide. (a) a non-luminescent peptide having less than 100% and greater than 70% sequence identity with SEQ ID NO: 2, wherein a detectable bioluminescent signal is produced in the presence of a substrate when the peptide associates with a polypeptide consisting of SEQ ID NO: 440; and (b) a non-luminescent polypeptide having less than 100% and greater than 70% sequence identity with SEQ ID NO: 440, wherein the polypeptide comprises two or more amino acid differences from SEQ ID NO: 440, and wherein a detectable bioluminescent signal is produced in the presence of a substrate when the polypeptide associates with a peptide consisting of SEQ ID NO: 2;
A method performed by a base station for scheduling data transmission to a wireless device and for transmitting data to the wireless device, the method comprising: allocating a first physical resource block, PRB, group for a physical downlink control channel; signaling an indication of a frequency location of the first PRB group for the physical downlink control channel to the wireless device; transmitting the physical downlink control channel in the allocated first PRB group to the wireless device; signaling, to the wireless device, whether a frequency location of a second PRB group that is allocated for a physical downlink shared channel, associated with the physical downlink control channel, is the same or different than the frequency location of the first PRB group, and transmitting the physical downlink shared channel, associated with the physical downlink control channel, in the second PRB group that is allocated for the physical downlink shared channel to the wireless device, wherein the transmission of the physical downlink control channel is in at least one first subframe, and the transmission of the physical downlink shared channel is in at least one second subframe, wherein the at least one first subframe and the at least one second subframe are separated by a guard period, wherein the guard period is a subframe. allocating a first physical resource block, PRB, group for a physical downlink control channel; signaling an indication of a frequency location of the first PRB group for the physical downlink control channel to the wireless device; transmitting the physical downlink control channel in the allocated first PRB group to the wireless device; signaling, to the wireless device, whether a frequency location of a second PRB group that is allocated for a physical downlink shared channel, associated with the physical downlink control channel, is the same or different than the frequency location of the first PRB group, and transmitting the physical downlink shared channel, associated with the physical downlink control channel, in the second PRB group that is allocated for the physical downlink shared channel to the wireless device, wherein the transmission of the physical downlink control channel is in at least one first subframe, and the transmission of the physical downlink shared channel is in at least one second subframe, wherein the at least one first subframe and the at least one second subframe are separated by a guard period, wherein the guard period is a subframe.
Cast iron alloy for cast iron products having high thermal stability and having a compact graphite form from vermicular to spherical, consisting of 2.9% to 3.3% by weight of C, 5.2% to 5.9% by weight of Si, 2.2% to 3.0% by weight of Al, 0.004% to 0.018% by weight of N, 0.1% to 0.8% by weight of Mo, 0.02% to 0.08% by weight of Mg, 0.003% to 0.015% by weight of S, 0.1% to 0.4% by weight of Cu, 0.1% to 0.9% by weight of V, 0.1% to 0.5% by weight of Cr, 0.01% to 0.4% by weight of Ti, where the elements V, Cr and Ti may occur individually or else together in the alloy, the balance being Fe and customary impurities.
An optoelectronic device comprising three-dimensional semiconductor elements (20; 152) predominantly made of a first compound selected from the group comprising III-V compounds, II-VI compounds, and IV compounds, each semiconductor element delimiting, optionally with insulating portions partially covering said semiconductor element, at least a first surface comprising contiguous facets angled with respect to one another, the optoelectronic device comprising quantum dots at at least some of the seams between facets, the quantum dots being predominantly made of a mixture of the first compound and of an additional element and being capable of emitting or of receiving a first electromagnetic radiation at a first wavelength, the device further comprising an active layer (62; 76) comprising at least a single quantum well or multiple quantum wells and capable of emitting or of receiving a second electromagnetic radiation at a second wavelength different from the first wavelength, the active layer covering the quantum dots.
A gyroscope comprising; a substrate; a guided mass system, the guided mass system comprising at least one first proof mass, at least one second proof-mass, and at least one guiding arm (104a, 104b); wherein the at least one first proof-mass, the at least one second proof-mass and the at least one guiding arm are disposed in a plane parallel to the substrate; wherein the at least one first proof mass is coupled to the at least one guiding arm through at least one first spring (103a, 103b); wherein the at least one second proof-mass is coupled to the at least one first proof-mass through at least one second spring; wherein the at least one guiding arm is coupled to the substrate through at least one third spring (108a, 108b); an actuator (109a, 109b) configured to cause the at least one first proof-mass to vibrate in a first direction and to cause the at least one second proof-mass and the at least one guiding arm to rotate in the plane; and at least one transducer (112a, 660a, 660b) for sensing motion of a portion of the guided mass system out of the plane in response to angular velocity about a first input axis that is in the plane; wherein the at least one guiding arm is flexibly coupled to the substrate via a first anchoring point; the gyroscope is characterized in that the at least one second proof-mass is connected to the substrate by a second anchoring point through a spring system that is stiff in a direction out of the plane wherein the spring system comprises at least one fourth spring, two fifth springs (731a, 731b), and at least one rigid element, and wherein the two fifth springs (731a, 731b) are connected to the second proof-mass and to the at least one rigid element, the at least one rigid element is connected to the at least fourth spring, and the at least one fourth spring is connected to the second anchoring point; wherein the two fifth springs (731a, 731b) are torsionally compliant about a first sense axis in the plane and parallel to the first direction and stiff in all other directions which allows the at least one first proof-mass, the at least one second proof-mass and the at least one guiding arm to rotate about the first sense axis, and wherein the at least one fourth spring is compliant in the plane acting like a pivot point for the rotation of the at least one second proof-mass in the plane and torsionally compliant about a second sense axis that is orthogonal to the first direction and also in the plane, thereby allowing rotation of the at least one second proof-mass about the second sense axis.
A method comprising: receiving image data representative of an X-ray image of at least part of a subject comprising tissue and obtaining the imaging data by performing an X-ray imaging procedure, wherein a first part of the X-ray image is directly exposed and a second part of the X-ray image is representative of tissue in a region of the subject; and determining a measure of attenuation in dependence on an energy measure obtained from the first part of the X-ray image and an energy measure obtained from the second part of the X-ray image; characterised by using the measure of attenuation to estimate a tissue density within at least part of the region of the subject; determining a reference point on the X-ray image, wherein the determining of the reference point is performed in dependence on the estimated tissue density; wherein the X-ray imaging procedure comprises selecting an input X-ray energy that is below a saturation threshold of an X-ray detector using the X-ray imaging procedure, such that pixel values in the first part of the X-ray image vary in dependence on input X-ray energy. receiving image data representative of an X-ray image of at least part of a subject comprising tissue and obtaining the imaging data by performing an X-ray imaging procedure, wherein a first part of the X-ray image is directly exposed and a second part of the X-ray image is representative of tissue in a region of the subject; and determining a measure of attenuation in dependence on an energy measure obtained from the first part of the X-ray image and an energy measure obtained from the second part of the X-ray image; characterised by using the measure of attenuation to estimate a tissue density within at least part of the region of the subject; determining a reference point on the X-ray image, wherein the determining of the reference point is performed in dependence on the estimated tissue density; wherein the X-ray imaging procedure comprises selecting an input X-ray energy that is below a saturation threshold of an X-ray detector using the X-ray imaging procedure, such that pixel values in the first part of the X-ray image vary in dependence on input X-ray energy.
A composition comprising A. a first interpolymer comprising (i) ethylene monomer residues, (ii) residues of a first comonomer having one or more functionalities wherein the first comonomer comprises maleic anhydride and (iii) residues of an additional comonomer comprising butyl acrylate; B. a second interpolymer comprising ethylene monomer residues and residues of a second comonomer having epoxide functionality; and C. from 0.18 to 0.40 wt%, based on the total weight of the composition, of a peroxide free radical initiator; D. from 0.005 to 1.2 wt%, based on the total weight of the composition of a crosslinking catalyst; and wherein the first interpolymer is present in an amount ranging from 60 to 95 wt%, based on the combined weight of the first and second interpolymer weight, with the balance being the second interpolymer in an amount ranging from 40 wt% to 5 wt%. A. a first interpolymer comprising (i) ethylene monomer residues, (ii) residues of a first comonomer having one or more functionalities wherein the first comonomer comprises maleic anhydride and (iii) residues of an additional comonomer comprising butyl acrylate; B. a second interpolymer comprising ethylene monomer residues and residues of a second comonomer having epoxide functionality; and C. from 0.18 to 0.40 wt%, based on the total weight of the composition, of a peroxide free radical initiator; D. from 0.005 to 1.2 wt%, based on the total weight of the composition of a crosslinking catalyst; and