mhurhangee/patent-ind-claim-en huggingface dataset:
A detector testing system , comprising: an environmental chamber configured to provide at least one selected environmental condition within the environmental chamber , the environmental chamber including an opening ; a cover over the opening , the cover having at least one surface that is at least partially transparent to radiation that the detector is configured to receive, the cover being configured to maintain the at least one selected environmental condition within the environmental chamber ; and a detector support that is configured to support a plurality of detectors exposed to the at least one selected environmental condition in a location within a space defined by the cover where the cover provides a detector field of view through the at least one surface , the system being characterized in that the detector filed of view for each of the detectors provided by the cover has a horizontal range of at least 180°. an environmental chamber configured to provide at least one selected environmental condition within the environmental chamber , the environmental chamber including an opening ; a cover over the opening , the cover having at least one surface that is at least partially transparent to radiation that the detector is configured to receive, the cover being configured to maintain the at least one selected environmental condition within the environmental chamber ; and a detector support that is configured to support a plurality of detectors exposed to the at least one selected environmental condition in a location within a space defined by the cover where the cover provides a detector field of view through the at least one surface , the system being characterized in that the detector filed of view for each of the detectors provided by the cover has a horizontal range of at least 180°.
A total hip surface replacement implant for the human body comprising a femur component and an acetabular cup component , wherein: a shape of the femur component is hemispherical shell ; and a shape of the acetabular cup component is matched with that of the femur component , and is tightly attached to an outer surface of the hemispherical shell of the femur component ; characterized in that an inner central portion of the hemispherical shell of the femur component is provided with a hollow positioning column in which there is provided with a metal column core, wherein an upper end of the metal column core is lower than a combined portion of the femur surface component with the positioning column, wherein the femur component is formed of polyether ether ketone, the acetabular cup component is formed of ultrahigh molecular weight polyethylene; or the femur component is formed of ultrahigh molecular weight polyethylene, the acetabular cup component is formed of polyether ether ketone, wherein the inner surface of the hemispherical shell and an outer surface of the positioning column are provided with a layer of porous metal layer, the thickness of the porous metal layer is greater than 0.5 mm and the porosity is higher than 20%. a shape of the femur component is hemispherical shell ; and a shape of the acetabular cup component is matched with that of the femur component , and is tightly attached to an outer surface of the hemispherical shell of the femur component ; characterized in that an inner central portion of the hemispherical shell of the femur component is provided with a hollow positioning column in which there is provided with a metal column core, wherein an upper end of the metal column core is lower than a combined portion of the femur surface component with the positioning column, wherein the femur component is formed of polyether ether ketone, the acetabular cup component is formed of ultrahigh molecular weight polyethylene; or the femur component is formed of ultrahigh molecular weight polyethylene, the acetabular cup component is formed of polyether ether ketone, wherein the inner surface of the hemispherical shell and an outer surface of the positioning column are provided with a layer of porous metal layer, the thickness of the porous metal layer is greater than 0.5 mm and the porosity is higher than 20%.
A method of determining an index of myocardial perfusion heterogeneity of an individual from medical images of myocardial perfusion of said individual, comprising constructing, by two-dimensional segmentation of said images, a topographic map formed of a set of myocardial pixels defined by a cylindrical projection of the myocardium from the major axis of the left ventricle said method being characterized in that it implements a two-dimensional segmentation of the images to construct the topographic map consisting of a set of pixels, wherein said topographic map comprises a plurality of lines where each line is a representation of a slice of the left ventricle made perpendicular to the long axis of the left ventricle, and where each line comprises a plurality of radial pixels containing information of the perfusion of the left ventricle in the corresponding slice, and in that it comprises the determination of the entropy of said topographic map, and wherein the construction of the topographic projection map comprises: - an estimation of the volume of the myocardium, - two-dimensional segmentation of the left ventricle - determining the center of the myocardium on each slice of the left ventricle - alignment of the centers determined for each slice. - an estimation of the volume of the myocardium, - two-dimensional segmentation of the left ventricle - determining the center of the myocardium on each slice of the left ventricle - alignment of the centers determined for each slice.
An electronic control unit, ECU, semiconductor integrated circuit device comprising a controller arranged to receive a message of a CAN protocol transferred via a communication bus (Bc) from a second ECU semiconductor integrated circuit device , wherein the controller includes a communication controlling unit arranged to control a communication in accordance with the CAN protocol via the communication bus (Bc) and arranged to generate a CAN protocol message, which includes an ACK slot for receiving an ACK signal from said second ECU semiconductor integrated circuit device , wherein the communication controlling unit is arranged to: send an inquiry to the second ECU semiconductor integrated circuit device (la, 1b) about the maximum communication speed of the second ECU semiconductor integrated circuit device ; receive a reply from the second ECU semiconductor integrated circuit device about a maximum communication speed; calculate an ACK slot length of the ACK slot based on the received maximum communication speed of the second ECU semiconductor integrated circuit device , and notify said calculated result as the ACK slot length of the ACK slot to the second ECU semiconductor integrated circuit device , so that a communication is performed at the communication speed corresponding to the maximum communication speed replied from the second ECU semiconductor integrated circuit device, wherein when the communication speed is a first communication speed, the calculated ACK slot length of the ACK slot is 1 bit as a default value, and wherein when the communication speed is twice the first communication speed, the calculated ACK slot length of the ACK slot is 2 bits. send an inquiry to the second ECU semiconductor integrated circuit device (la, 1b) about the maximum communication speed of the second ECU semiconductor integrated circuit device ; receive a reply from the second ECU semiconductor integrated circuit device about a maximum communication speed; calculate an ACK slot length of the ACK slot based on the received maximum communication speed of the second ECU semiconductor integrated circuit device , and notify said calculated result as the ACK slot length of the ACK slot to the second ECU semiconductor integrated circuit device , so that a communication is performed at the communication speed corresponding to the maximum communication speed replied from the second ECU semiconductor integrated circuit device,
A crystalline form of Tenofovir Alafenamide Sebacate, wherein the crystalline form is Tenofovir Alafenamide Sebacate Form I, characterized by an X-ray powder diffraction (XRPD) pattern having peaks at 5.3°, 6.6°, 9.4°, 9.6°, and 19.8° 2-θ ± 0.2° 2-θ
A large reactor, comprising a housing, an internal heat-exchange member, an inlet tube case and an outlet tube case , wherein the internal heat-exchange member comprises a heat-exchange winding tube; wherein the housing comprises an upper seal head , a cylinder body, a lower seal head ; wherein a gas inlet and a gas outlet are provided on the upper seal head and the lower seal head respectively; wherein the numbers of the inlet tube case and/or the outlet tube case each are 2 or a multiple of 2; wherein the inlet tube case and the outlet tube case are connected to two ends of the heat-exchange winding tube respectively, wherein the heat-exchange winding tube is separated and positioned by a positioning strip from inside to outside and winds into a layer-by-layer tube set, wherein a catalyst is loaded between heat-exchange winding tubes to form a catalyst layer, characterized in that the inlet tube case and/or the outlet tube case are respectively provided on the lower seal head and the upper seal head , or on a lower part and an upper part of the cylinder body, arranged uniformly in a circumferentially symmetric manner, and wherein a steam drum is provided on the upper seal head and is also used as an outlet tube case , wherein an even number of winding tube sets in a sectorial tube distribution zone are connected to a tube sheet between the steam drum and the upper seal head .
A drawer assembly for a laboratory instrument , comprising a drawer configured to be loaded with a magazine for receiving vessels for liquids, in particular sample tubes, of the laboratory instrument , wherein the drawer comprises a front end and a rear end , a frame comprising at least one portion arranged adjacent the drawer , wherein the portion extends in a longitudinal direction from a first end to a second end , wherein the drawer is moveable relative to the frame between a retracted position, in which the drawer is retracted in the frame and the front end is adjacent the first end , and an extended position, in which the drawer is extended from the frame and the front end is adjacent the second end , wherein the frame comprises a path having a first portion and a second portion , wherein the path is located adjacent the second end , a rolling element moveable in the path , characterized in that the second portion is below the first portion , wherein the first portion and the second portion extend in a direction parallel to the longitudinal direction , wherein the first portion is tapered towards the first end and facing the drawer , the drawer assembly further comprises a lifting mechanism configured to lift the rolling element from the second portion to the first portion when the drawer is in the retracted position, and that the path is configured such that the rolling element is located in the first portion and contacts the drawer when the drawer is moved from the retracted position to the extended position and that the rolling element is allowed to enter the second portion exclusively when the drawer is in the extended position.
A phase shift keying device (xPSK) configured to modulate in phase a non-modulated carrier optical signal (NMC) at a predetermined wavelength λ i , the phase shift keying device (xPSK) comprising: • a main input configured to receive the non-modulated carrier optical signal (NMC); • an output , a throughput ; • x similar modulated ring resonators (MRR), x being an integer greater than or equal to 2, each modulated ring resonator (MRRx) comprising an input port , an output port and a throughput port , • x static phase shifters (SPS); and • a multiplexer (MUX); wherein each modulated ring resonator (MRR) is configured to receive an associated modulated electrical signal (MES) carrying information and to transfer the information into an associated modulated signal (MS) obtained by filtering at the predetermined wavelength λ i the non-modulated carrier optical signal (NMC) depending on the modulated electrical signal (MES); the x modulated ring resonators (MRR) are serially connected so that the input (400_1) of the first modulated ring resonator (MRR1) is connected to the main input , the throughput (402_x) of the xth modulated ring resonator (MRRx) is connected to the throughput of the phase shift keying device (xPSK) and, for an integer I comprised between 2 and x, the input (400_I) of the Ith modulated ring resonator (MRRI) is connected to the throughput (402_I-1) of the I-1th modulated ring resonator (MRRI-1): for an integer k comprised between 1 and x, the output (401_k) of the kth modulated ring resonator (MRRk) is connected to the kth static phase shifter (SPSk), and the kth static phase shifter (SPSk) is configured to receive and phase shift the kth modulated signal (MS) of a phase φ k ; the multiplexer (MUX) is configured to receive and multiplex all the phase-shifted signals (PSS1 to PSSx) obtained after the phase shift and to send the phase modulated signal (PMS) obtained into the output of the phase shift keying device (xPSK). • a main input configured to receive the non-modulated carrier optical signal (NMC); • an output , a throughput ; • x similar modulated ring resonators (MRR), x being an integer greater than or equal to 2, each modulated ring resonator (MRRx) comprising an input port , an output port and a throughput port , • x static phase shifters (SPS); and • a multiplexer (MUX); for an integer k comprised between 1 and x, the output (401_k) of the kth modulated ring resonator (MRRk) is connected to the kth static phase shifter (SPSk), and the kth static phase shifter (SPSk) is configured to receive and phase shift the kth modulated signal (MS) of a phase φ k ; the multiplexer (MUX) is configured to receive and multiplex all the phase-shifted signals (PSS1 to PSSx) obtained after the phase shift and to send the phase modulated signal (PMS) obtained into the output of the phase shift keying device (xPSK).
A solution composition capable of providing synergistic broad-spectrum antimicrobial activity, consisting essentially of an aqueous solvent, sodium salt(s) of EDTA, D-mannitol and ethanol; wherein the sodium salt(s) of EDTA is at a concentration ranging between 0.06 to 8% (w/v), D-mannitol is at a concentration ranging between 0.5 to 10% (w/v), and ethanol is at a concentration ranging between 6.25 to 25% (v/v), with a pH ranging between 7 to 11.
An operating method of an apparatus, characterized by comprising: measuring an illumination value; acquiring a plurality of source images used to generate a photograph image, wherein the photograph image is a single image; and determining whether, based on the measured illumination value, to generate the photograph image by using one source image being selected among the plurality of acquired source images or by using the plurality of acquired source images, in response to the determination, generating the photograph image by using the source image being selected among the plurality of source images, which is one of a source image with highest brightness, a source image with lowest blur or an image among the plurality of acquired source images, having the highest quality value being calculated by applying set weights (w1,w2) respectively to the brightness value and the blur value of the corresponding source image or by combining the plurality of acquired source images . measuring an illumination value; acquiring a plurality of source images used to generate a photograph image, wherein the photograph image is a single image; and determining whether, based on the measured illumination value, to generate the photograph image by using one source image being selected among the plurality of acquired source images or by using the plurality of acquired source images, in response to the determination, generating the photograph image by using the source image being selected among the plurality of source images, which is one of a source image with highest brightness, a source image with lowest blur or an image among the plurality of acquired source images, having the highest quality value being calculated by applying set weights (w1,w2) respectively to the brightness value and the blur value of the corresponding source image or by combining the plurality of acquired source images .
Achromatic security element for value documents , such as banknotes, cards, ID documents comprising a thermoplastic or a radiation-curable polymer layer, wherein the layer is embossed with diffusely reflecting microstructures having sizes, i.e. lateral dimensions and engraving depths, in the order of 1 - 100 μm, thus well beyond the wavelength of visible light in the non-diffractive regime, wherein the diffusely reflecting microstructures are combined to form photorealistic half-tone images from a graphic arrangement of specularly reflecting pixels and diffusely reflecting pixels comprising the diffusely reflecting microstructures.
Method for authentication of a mobile device, the method comprising: receiving a first credential at the mobile device; transmitting the first credential over a network to a server ; receiving from the server a first key and a first value ; receiving, at the mobile device, a data entry for a second credential ; generating, by a processor, a second key from the data entry; retrieving, by the mobile device, a third credential using the first key and the second key; signing, by the mobile device, the first value with the third credential and transmitting, over the network, the signed first value to the server. receiving a first credential at the mobile device; transmitting the first credential over a network to a server ; receiving from the server a first key and a first value ; receiving, at the mobile device, a data entry for a second credential ; generating, by a processor, a second key from the data entry; retrieving, by the mobile device, a third credential using the first key and the second key; signing, by the mobile device, the first value with the third credential and transmitting, over the network, the signed first value to the server.
An anisotropic conductive material comprising: a matrix material layer , wherein the matrix material is electrically insulating; and a plurality of particles in the matrix material layer, at least some of the particles having a capsule structure including a conductive core portion (C10) and an insulating shell portion (S10), the conductive core portion including a conductive material, and the insulating shell portion comprises a polymer; characterised in that the insulating shell portion comprises a polymer having an elastic modulus less than 40 GN/m 2 and the conductive material is in a liquid state at a temperature greater than about 15 °C and less than or equal to about 110°C. a matrix material layer , wherein the matrix material is electrically insulating; and a plurality of particles in the matrix material layer, at least some of the particles having a capsule structure including a conductive core portion (C10) and an insulating shell portion (S10), the conductive core portion including a conductive material, and the insulating shell portion comprises a polymer; characterised in that the insulating shell portion comprises a polymer having an elastic modulus less than 40 GN/m 2 and the conductive material is in a liquid state at a temperature greater than about 15 °C and less than or equal to about 110°C.
Urine stem cells and growth factors for use in a method of treating urinary incontinence or vesicoureteral reflux in a subject in need thereof, comprising: administering the urine stem cells to the urethra of said subject; and, in conjunction therewith, administering growth factors to said subject to promote differentiation of said stem cells into skeletal muscle cells, wherein said growth factors comprise: an angiogenic growth factor comprising vascular endothelial growth factor (VEGF); a skeletal myogenic growth factor comprising platelet-derived growth factor (PDGF) and/or hepatocyte growth factor (HGF); and a neurogenic growth factor comprising insulin-like growth factor (IGF), nerve growth factor (NGF) and/or fibroblast growth factor (FGF). administering the urine stem cells to the urethra of said subject; and, in conjunction therewith, administering growth factors to said subject to promote differentiation of said stem cells into skeletal muscle cells, wherein said growth factors comprise: an angiogenic growth factor comprising vascular endothelial growth factor (VEGF); a skeletal myogenic growth factor comprising platelet-derived growth factor (PDGF) and/or hepatocyte growth factor (HGF); and a neurogenic growth factor comprising insulin-like growth factor (IGF), nerve growth factor (NGF) and/or fibroblast growth factor (FGF). an angiogenic growth factor comprising vascular endothelial growth factor (VEGF); a skeletal myogenic growth factor comprising platelet-derived growth factor (PDGF) and/or hepatocyte growth factor (HGF); and a neurogenic growth factor comprising insulin-like growth factor (IGF), nerve growth factor (NGF) and/or fibroblast growth factor (FGF).
An intravascular sensor delivery device (10; 210) comprising: a distal sleeve (20; 220) having an outer surface and a guidewire lumen (22; 222) configured to slide over and receive a separate medical guidewire (30; 230); a sensor (40; 240; 242) coupled to the distal sleeve (20; 220), the sensor (40; 240; 242) adapted to measure a physiological parameter of a patient and generate a signal representative of the physiological parameter suitable for calculating Fractional Flow Reserve (FFR); and a proximal portion (50; 250) having a main section and a distal transition , the distal transition extending distally from the main section and being coupled to the outer surface of the distal sleeve (20; 220), the distal transition having a smaller cross-sectional area than the main section , the proximal portion (50; 250) comprising a communication channel (60; 260) for communicating the signal from the sensor (40; 240; 242) to a location outside of the patient, the proximal portion (50; 250) being adapted to facilitate positioning of the sensor (40; 240; 242) within an anatomical structure of the patient. a distal sleeve (20; 220) having an outer surface and a guidewire lumen (22; 222) configured to slide over and receive a separate medical guidewire (30; 230); a sensor (40; 240; 242) coupled to the distal sleeve (20; 220), the sensor (40; 240; 242) adapted to measure a physiological parameter of a patient and generate a signal representative of the physiological parameter suitable for calculating Fractional Flow Reserve (FFR); and a proximal portion (50; 250) having a main section and a distal transition , the distal transition extending distally from the main section and being coupled to the outer surface of the distal sleeve (20; 220), the distal transition having a smaller cross-sectional area than the main section , the proximal portion (50; 250) comprising a communication channel (60; 260) for communicating the signal from the sensor (40; 240; 242) to a location outside of the patient, the proximal portion (50; 250) being adapted to facilitate positioning of the sensor (40; 240; 242) within an anatomical structure of the patient.